Never miss a compliant visit
CarePulse is a lightweight, mobile-first SaaS that centralizes scheduling, documentation, and compliance reporting for operations managers and caregivers at small home-health agencies, syncing live routes, auto-populating visit notes from short voice clips and optional IoT sensors, and generating one-click, audit-ready reports to halve documentation time and ensure on-time, compliant visits.
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Detailed profiles of the target users who would benefit most from this product.
- 29–38; Intake Coordinator at 25–60 staff agency - Phoenix-based; hybrid office/remote; monthly field ride-alongs - 5–7 years home-health intake and authorizations experience - Associate’s in Health Admin; fluent with EHRs and payer portals
Started as a scheduler juggling paper packets and Excel trackers. After a costly missed authorization, she built checklists to prevent revenue leaks and now owns referral-to-first-visit handoff.
1. Auto-import referral data into schedule-ready records. 2. Instant eligibility/authorization status at intake. 3. First-visit slot suggestions matching skill, coverage, compliance.
1. Referral details scattered across portals and emails. 2. Duplicate data entry between systems. 3. Delays between acceptance and first visit.
- Obsessed with zero rework, zero leakage - Thrives on turning chaos into checklists - Values speed with auditable traceability - Champions tools staff will actually use
1. LinkedIn - industry posts 2. NAHC Connect - forum 3. YouTube - workflow demos 4. Google Search - referral templates 5. CarePulse In-App - guides
- 32–45; On-Call/Field Supervisor - Works nights/weekends; remote with rapid dispatch - Former caregiver; 8–10 years field operations - Lives in Midwest suburb; agency size 40–100 clients
Cut his teeth covering last-minute call-offs in winter storms. Moved into supervision after proving he could stabilize weekends without compliance drift.
1. Live availability with skill and distance filters. 2. One-tap reschedule with compliant notes. 3. Instant EVV/location verification on exceptions.
1. Manual call trees lose precious minutes. 2. No-shows discovered too late at night. 3. Incomplete exception notes trigger audits.
- Calm in chaos, decisive under time pressure - Prioritizes client safety over convenience - Demands tools that load instantly - Hates phone trees and guesswork
1. CarePulse Mobile - alerts 2. WhatsApp - on-call 3. SMS - urgent texts 4. Phone Call - escalations 5. Google Maps - traffic
- 35–50; Revenue Cycle/Billing Lead - Based in Texas; hybrid home/office - 7–12 years home-health billing and EVV - Works across Medicare Advantage and state Medicaid plans
Started as a receptionist reconciling paper timesheets with payor rules. After denial spikes, she learned EVV and clearinghouse workflows, becoming the go-to for clean claims.
1. EVV-compliant, payer-specific export formats. 2. Auto-flagged missing notes or mismatched timestamps. 3. One-click audit packet assembly.
1. Payer portals reject subtle timestamp mismatches. 2. Missing signatures stall entire batches. 3. Reformatting data for each payor.
- Zero-tolerance for preventable denials - Lives by payer-specific checklists - Prefers proof over promises - Values tidy, exportable data
1. Availity - payer portal 2. Waystar - clearinghouse 3. LinkedIn - revenue cycle 4. NAHC Connect - billing 5. CarePulse In-App - exports
- 28–42; Staff Educator/Trainer - Northeast city; mix of classroom and ride-alongs - 4–8 years coaching caregivers; former CNA - Manages 10–30 new hires monthly
Built a micro-learning program after seeing new aides overwhelmed by long manuals. Uses real note examples to reduce retraining loops.
1. Sample notes library tied to voice clips. 2. Real-time doc quality feedback for trainees. 3. Offline-friendly mobile walkthroughs.
1. Inconsistent note quality across teams. 2. Tech anxiety on low-end devices. 3. Time-consuming retraining loops.
- Teach once, scale forever - Prefers practical over perfect theory - Advocates for tech that feels friendly - Measures learning by field outcomes
1. TalentLMS - courses 2. YouTube - micro-lessons 3. LinkedIn - educator network 4. CarePulse In-App - walkthroughs 5. WhatsApp - cohort chat
- 27–40; Client/Family Liaison - Works from office; high call volume - Communications degree; 3–6 years in patient relations - Serves diverse, multi-lingual families
After volunteering as a hospital greeter, he learned the power of timely, clear updates. Joined home health to keep families informed without breaching privacy.
1. Easy-to-share visit summaries, plain language. 2. Quick status checks without chart diving. 3. Secure, HIPAA-safe sharing options.
1. Phone tag during peak hours. 2. Notes unclear for non-clinicians. 3. Anxiety about accidental PHI exposure.
- Clarity calms, jargon confuses - Protects privacy with zeal - Measures success by fewer callbacks - Empathic yet efficiency-minded
1. CarePulse Reports - PDFs 2. Phone Call - updates 3. Email - summaries 4. Facebook Groups - local community 5. Google Business - messages
- 33–48; PT or OT Lead - Mountain region; heavy driving between homes - 6–10 years outpatient and home-health mix - Supervises 6–12 therapists/assistants
Moved from clinic director to home-health lead to reduce no-show gaps. Built route blocks and standardized progress note phrases to speed charting.
1. Time-blocked, discipline-aware route suggestions. 2. Trends of vitals and goals in one view. 3. Quick checklists tied to plan of care.
1. Fragmented PT/OT schedules cause conflicts. 2. Sensor data buried in charts. 3. Duplicate documentation across visits.
- Outcome-driven, schedule-protective - Loves clean trends over noisy data - Prioritizes patient goals over paperwork - Embraces tools that reduce drive-time
1. APTA Hub - forum 2. LinkedIn - therapy leadership 3. YouTube - documentation tips 4. Google Calendar - scheduling 5. CarePulse Mobile - updates
Key capabilities that make this product valuable to its target users.
Continuously predicts arrival variance using live traffic, weather, historical dwell times (parking, elevators), and caregiver pace. Displays a simple risk badge (On‑Time, At‑Risk, Late) with minute-by-minute ETA deltas and preemptive leave‑now nudges. Helps coordinators prevent lateness before it starts and gives caregivers clear, actionable timing.
Continuously ingest and normalize live data feeds for traffic, weather, road closures, and transit disruptions, mapped to caregiver routes and visit geofences. Poll and stream updates at 1-minute intervals with rate-limit handling, caching, and graceful degradation when providers are unavailable. Resolve locations to the building/entrance level where possible to improve ETA precision. Provide a resilient pipeline with retries, circuit breakers, and observability (metrics, logs, alerts). Integrate with CarePulse’s routing and scheduling services to attach signal snapshots to each upcoming visit for downstream prediction.
Build and maintain a per-location historical profile of dwell components (parking search, lobby check-in, elevator wait, security gates) aggregated by time-of-day and day-of-week. Learn from completed visits to estimate typical non-travel overhead for each address, complex, or facility, with outlier filtering and automatic decay of stale data. Expose a low-latency lookup that the prediction engine can combine with route travel times. Allow coordinators to annotate locations with access notes that can adjust dwell heuristics. Store only operationally necessary metadata to align with privacy policies.
Compute caregiver-specific pace factors (walking speed, average parking time, readiness buffer) using recent, consented telemetry and visit outcomes, while protecting personal data. Use on-device or server-side aggregation that stores only derived pace coefficients, not raw location trails, and allow caregivers to opt out. Automatically adapt pace factors based on terrain, time-of-day, and vehicle mode. Provide APIs for the prediction engine to adjust travel and prep estimates per caregiver without exposing identifiable movement history.
Produce rolling ETA forecasts for each upcoming visit by fusing live traffic, weather, historical dwell profiles, caregiver pace factors, and current location/route plan. Recalculate at 60-second cadence or on significant state change, with latency under 500 ms per prediction at target scale. Output predicted arrival time, variance, and confidence score, with fallback heuristics when inputs are missing. Provide versioned models and feature flags for safe rollout and A/B calibration. Integrate with CarePulse’s scheduling to select the next best route and with notification services for downstream nudges and alerts.
Compute a simple status badge (On‑Time, At‑Risk, Late) from ETA vs. scheduled window and policy-specific thresholds, and display minute-by-minute deltas (e.g., +6 min) in caregiver and coordinator UIs. Support configurable thresholds per payer or agency policy and color/label mappings that meet accessibility standards. Surface confidence indicators and brief explanations (e.g., elevator wait risk high) to aid decision-making. Ensure lightweight rendering on mobile and efficient data subscription to minimize battery and bandwidth use.
Generate proactive notifications that tell caregivers when to depart to meet the next visit’s on-time window, based on predicted prep time, travel, and dwell. Support actionable options (Leave now, Snooze, Recalculate, Notify coordinator) with quiet hours, driving mode detection, and minimal interruption patterns. Escalate to coordinators if nudges are repeatedly ignored and lateness risk remains high. Localize content and honor caregiver preferences and compliance constraints. Log nudge timing and outcomes to improve future recommendations.
Provide a live board that ranks upcoming visits by lateness risk and ETA delta, with filters by caregiver, region, payer, and shift. Offer bulk actions (reassign, notify caregiver, update patient) and quick links to route alternatives. Show contributing factors to risk (traffic slowdown, high dwell, slow pace) to support rapid decisions. Syncs with CarePulse scheduling so changes propagate to mobile devices in real time. Include audit-friendly activity logs for all triage actions and outcomes.
When drift risk spikes, ranks backup caregivers by proximity, required credentials, client preferences, authorization fit, and overtime impact. Offers one‑tap propose/accept flows that auto-update schedules, EVV, and compliance notes. Eliminates phone tag while ensuring substitutes are qualified and cost‑smart.
Continuously monitors live route ETA, EVV pings, caregiver location variance, traffic incidents, call-off signals, and IoT sensor anomalies to compute a visit-level drift risk score. When a configurable threshold is exceeded, automatically initiates a Credential Swap evaluation. Integrates with CarePulse’s scheduling and routing services, using minute-level updates and debounced alerts to avoid noise. Supports configurable business rules (e.g., payor-specific on-time windows) and quiet hours. Emits structured events to drive ranking, notifications, and audit logging.
Generates a ranked list of substitute caregivers using weighted criteria: proximity to client and route alignment, required credentials and skill tags, client preferences (e.g., language, gender, continuity), authorization fit by payor/program, overtime and labor law impact, and schedule conflicts. Provides explanation-of-rank with factor breakdowns and blockers. Supports configurable weights per agency policy and payor. Integrates with staff profiles, credential vault, timesheets, scheduling, and payroll to ensure data freshness. Exposes API and UI components to consume the list in workflows.
Delivers mobile push and in-app cards to candidate caregivers with a one-tap accept/decline action, auto-filling shift details and compensation. Supports timeboxed responses, cascading to next-ranked candidates, and optional parallel soft-holds with first-come-first-serve locking to prevent double assignment. Provides an ops-side dashboard to review responses and override when needed. Includes accessibility, localization, and offline-safe queued actions. Integrates with notification service, caregiver app, and scheduler UI.
Upon acceptance, executes a transactional update that reassigns the visit, updates caregiver and client schedules, recalculates live routes, and enrolls the new caregiver in EVV for the visit. Auto-updates compliance notes with rationale and references to credentials and authorization checks. Performs idempotent writes with rollback on failure, emitting webhooks to billing, payroll, and payor portals when configured. Ensures all downstream systems reflect the swap within seconds to prevent check-in failures and documentation gaps.
Validates that substitutes meet all hard constraints before proposals are sent: active license/credential status and expiry, skill/competency match, client-specific restrictions, payor authorization coverage, background check status, and union or policy rules. Blocks noncompliant proposals and highlights remediable gaps with guided actions (e.g., upload missing document). Integrates with credential vault, compliance rules engine, and authorization records. Supports real-time rechecks at accept time to prevent race conditions.
Before sending proposals, displays estimated cost deltas (overtime risk, mileage, travel time) and compliance indicators (on-time likelihood, rest-period rules, max-hours thresholds). Provides policy-driven recommendations (e.g., “lowest cost within on-time SLA”) and allows admins to set guardrails that prevent sending high-risk proposals without override. Integrates with payroll rates, mileage rules, labor law constraints, and the ranking engine for a holistic decision view.
Captures a tamper-evident trail of all swap events: risk detections, ranking snapshots, proposals sent, responses, approvals, assignments, and schedule/EVV updates with timestamps and user/system actors. Links each event to evidence (credentials, authorizations) and rationale. Provides one-click, audit-ready reports exportable to PDF/CSV and embeddable in CarePulse’s compliance reporting. Applies retention policies and access controls to protect PHI and meet HIPAA requirements.
Builds smart geofences around entrances and client‑specific access points (gates, lobby doors, units) to counter GPS jitter. Automatically snaps arrival/leave events to the correct zone, preserving EVV accuracy on campuses and high‑rises. Cuts manual corrections and lowers audit risk.
Implements the core snapping logic that converts noisy, time-sequenced location readings into accurate arrival and departure events aligned to the correct client-specific access point. The engine uses dwell-time thresholds, hysteresis, and conflict-resolution rules to prevent rapid in/out toggling and to select the best-matched zone when multiple geofences overlap. It runs on-device for low-latency decisions with a server-side validator for edge cases, ensuring EVV timestamps are precise and consistent across devices. It integrates with CarePulse schedules to bias snaps toward the assigned client during the scheduled window, and emits structured events that downstream documentation and compliance reporting consume. Expected outcomes include fewer manual corrections, higher EVV accuracy on campuses and high-rises, and reduced audit exposure.
Provides tools and APIs to create precise geofences around entrances, gates, lobby doors, and unit thresholds for each client location. Supports circles and polygons, configurable radii, anchor offsets, and metadata (access type, hours, door ID). Allows bulk creation from client addresses, imports from KML/GeoJSON, and calibration using historical caregiver traces and IoT sensor pings. Integrates with the location catalog in CarePulse so that schedules and EVV rules reference the same canonical geofences. Output geofences are versioned with change logs and safe-rollbacks to ensure continuity during audits.
Enhances position reliability by fusing GPS with Wi‑Fi fingerprints, BLE beacons, cell-tower triangulation, motion sensors, and optional IoT door or gate sensors. Implements a scoring model to select the most reliable signal set per environment (e.g., high‑rise, underground garage) and produces a confidence value passed to the snapping engine. Degrades gracefully when some signals are unavailable and respects user privacy by processing fingerprints on-device and minimizing raw location retention. Integrates with CarePulse’s device SDK and optional IoT gateways to improve snap accuracy, especially indoors.
Supports nested and overlapping geofences with precedence rules (campus → building → floor → unit) and vertical awareness using barometer and Wi‑Fi cues. Defines tie-breakers such as smallest-area-wins, proximity-to-anchor, and schedule affinity to ensure snaps resolve to the correct unit within dense complexes. Exposes hierarchy in both mobile SDK and admin tools so downstream EVV and reporting can attribute time to the correct client and sub-location. Includes safeguards to prevent cross-client contamination when adjacent tenants share walls or entrances.
Enables local caching of geofences and on-device snap decisions when the device is offline or experiencing poor connectivity. Buffers raw signal samples and snapped events securely on the device, resolves conflicts when connectivity returns, and reconciles with the server to maintain a single source of truth. Implements battery-aware sampling profiles and backoff strategies to preserve device battery while maintaining EVV compliance. Ensures no data loss and accurate timestamps that align with compliance reporting requirements.
Provides a web-based console for authorized staff to visualize geofences on maps and building overlays, create and edit zones, simulate route playback, and run what-if tests against historical traces to validate snapping outcomes. Includes quality checks for geofence overlap, drift detection, and suggested calibrations. Offers role-based access, version history, and staged publishing to limit production risk. Integrates with CarePulse’s client/location directory and reporting so changes are auditable and reflected in EVV summaries and compliance exports.
Captures a tamper-evident log of raw signals, snap decisions, confidence scores, and reason codes for each arrival/leave event. Presents a side-by-side timeline of raw vs. snapped events in CarePulse, with permissioned manual override that requires justification and preserves the original record for audit. Exposes exportable, audit-ready reports with redaction controls and retention policies aligned with EVV regulations. Integrates with dispute resolution workflows to quickly substantiate visit accuracy.
Injects door codes, parking notes, floor/room details, and prior visit photo pins into turn‑by‑turn directions. Provides hands‑free audio cues for the final 300 yards to reduce wandering. Saves minutes per visit and trims drift in unfamiliar or complex locations.
Securely stores and injects location-specific access details such as door codes, gate/callbox instructions, parking restrictions, building/floor/room numbers, and special entry notes directly into the final segment of turn-by-turn navigation. Details are tied to the visit location and time-bound, encrypted at rest and in transit, with role-based access and full audit trail. On approach within a configurable radius (default 300 yards), the app surfaces relevant snippets via overlay and text-to-speech, with redaction on screenshots and notification previews. Supports per-client field templates, expiration and rotation rules, and prompts to capture missing details post-visit. Integrates with client profiles, scheduling, and route optimization; ingests from visit notes and syncs usage telemetry.
Generates a geofenced last-300-yard guidance layer that provides adaptive stepwise audio cues, haptic prompts, and on-screen arrows based on approach direction, street side, parking lot aisles, common entrances, and floor transitions. When GPS accuracy degrades, switches to fused location (GNSS, Wi‑Fi, cellular) and optionally leverages indoor wayfinding beacons or QR markers where available. Provides offline fallback using pre-fetched map tiles and cached points of interest. Delivers precise prompts such as “Use garage entrance on the second driveway; keypad on left.” Cue cadence and verbosity are configurable, and the overlay works alongside third-party navigation via deep link or in-app map.
Enables creation and reuse of geo-anchored, annotated photo pins that highlight entrances, parking spots, callboxes, elevators, and other landmarks. Photos are automatically de-identified to avoid PHI, with optional face and license plate blurring, and stored with accuracy metadata. Pins include captions and markup, support versioning, and can be flagged as outdated. Ops managers can review and approve pins before publishing and set retention policies per client. On approach, relevant pins surface contextually in the last-mile overlay and are available offline via cached assets.
Provides a dedicated hands-free mode that reads last-mile cues aloud, supports voice commands such as “repeat code,” “next hint,” “call client,” and “arrived,” and locks the UI into a glance-safe state to meet hands-free regulations. Utilizes on-device TTS and ASR where available for low latency and offline operation, with configurable voice and speed. Coordinates with OS audio focus to duck media playback and supports wearables for haptic taps. Limits microphone access to active hands-free sessions and logs command intents for audit without capturing sensitive content.
Prefetches last-mile assets for the next scheduled visits, including access notes, photo pins, micro-route segments, and map tiles, storing them in an encrypted cache with LRU eviction. Performs background sync on Wi‑Fi by default (cellular per policy), uses delta updates, and provides conflict detection for edited access notes. Verifies cache integrity via checksums, exposes an offline-readiness indicator, and prompts users when sync stalls. Admins can configure retention windows, cache size caps, and prefetch horizons.
Captures immutable logs for all access to sensitive last-mile data, recording user ID, timestamp, location, and action type, and produces exportable, audit-ready reports linked to specific visits. Sensitive values such as door codes are masked in logs, with secure reveal events recorded. Enforces least-privilege access, supports remote wipe of cached assets, and applies configurable retention policies aligned with HIPAA and state home-health regulations. Alerts notify admins of anomalies such as repeated code reveals or failed access attempts.
Provides an admin console to configure required last-mile fields per client or payer, set default cue radius and prompt templates, define code expiration and rotation rules, and manage approval workflows for user-submitted photo pins and notes. Includes bulk import via CSV/API, validation rules for completeness and format, change notifications to assigned caregivers, and a sandbox mode to test guidance for a location without affecting live visits. Tracks approvals and rejections with reasons to improve data quality.
Surfaces historical drift patterns by zone, time of day, caregiver, and payer with heatmaps and trend lines. Suggests schedule buffers, route reshuffles, or caseload swaps based on real bottlenecks. Empowers managers to make data‑backed adjustments that stick.
Define and compute core drift KPIs (e.g., on-time rate, early/late variance, dwell time, route deviation, missed/short visits) across dimensions (zone, time-of-day, caregiver, payer). Establish baselines and thresholds, normalize by service type and visit length, and support time-bucketing (hourly/daily/weekly). Handle incomplete or conflicting signals (EVV, GPS, voice notes, IoT sensors) via reconciliation rules. Expose a consistent metrics API for visualizations, recommendations, and reporting. Ensure timezone-aware calculations, data lineage, and versioned metric definitions for auditability.
Provide interactive, mobile-first heatmaps and trend lines that surface drift patterns by zone, time-of-day, caregiver, and payer. Support filtering, multi-select comparisons, and drill-down from org-wide to caregiver-level views. Include tooltips with metric definitions, anomaly markers, and confidence indicators. Enable pinch/zoom on mobile, fast rendering for 12–24 months of data, and export as PNG/CSV. Respect role-based access, masking PHI where required.
Generate data-backed suggestions such as schedule buffers, route reshuffles, or caseload swaps to reduce drift. Optimize under operational constraints (caregiver qualifications, payer rules, visit windows, travel time, labor limits). Provide confidence scores, expected impact (on-time rate, drive time), and plain-language rationale. Offer one-click application to create draft schedule changes in CarePulse with undo/rollback and change logs.
Allow managers to test hypothetical changes (e.g., add 10-minute buffers to AM visits in Zone A, swap caregiver assignments on Tuesdays) and preview projected KPIs (on-time rate, overtime risk, mileage). Support side-by-side scenario comparison, save/share scenarios, and annotate decisions. Use the same constraints and cost models as the recommendation engine to ensure fidelity.
Ingest, normalize, and sync data from scheduling, EVV/telephony, GPS, voice notes, and optional IoT sensors in near real time. Implement id mapping, deduplication, late-arriving data handling, and backfill. Perform data quality checks with alerts for anomalies (e.g., missing clock-ins). Ensure scalable storage for 24 months, GDPR/HIPAA-aligned retention, and low-latency updates to metrics and visualizations.
Produce one-click, exportable reports (PDF/CSV) summarizing drift trends, root causes, and actions taken, segmented by payer and location. Include metric definitions, methodology notes, and change history for schedule modifications applied via Drift Insights. Support scheduled delivery, branding, and secure sharing with auditors and payer partners, respecting role-based permissions.
Maintains drift detection and ETA estimates when connectivity drops by caching routes, maps, and geofences on device. Queues actions and EVV stamps for automatic sync once online. Keeps rural, elevator, and basement visits compliant and on‑time even off‑grid.
Prefetch and store route legs, turn-by-turn instructions, map tiles (with configurable radius buffer around planned routes), and geofence definitions on the device at shift start and on route updates. Cache must be encrypted at rest, support versioning, LRU eviction, TTLs, and a configurable storage cap. Provide graceful fallback to last-known good cache if refresh fails. Support background prefetch triggers upon assignment changes. Ensure compatibility with iOS/Android offline map capabilities and handle tile compression for low storage devices. Expose cache health metrics and per-visit cache readiness to the UI.
Compute ETAs and on-route drift locally using GPS, cached maps, and schedule data when the device is offline. Detect deviations from planned route or schedule using configurable thresholds (distance/time). Continuously update ETA and provide in-app and local notifications for drift, including suggested corrective actions based on cached routing. Record drift events and ETA history for later sync. Support degraded positioning (e.g., last known fix, accelerometer dead-reckoning) when GPS is weak. Ensure CPU/battery use stays within mobile constraints and runs reliably in the background.
Capture EVV artifacts offline, including visit start/stop timestamps (using a monotonic clock), GPS coordinates, geofence enter/exit, client signature, photos, voice notes, and optional IoT sensor readings. Store events in an append-only, encrypted queue with hash chaining and device-bound keys to ensure tamper evidence. Prevent edits to signed EVV entries; allow addenda with linkage. On reconnect, auto-sync in order with idempotency keys and duplicate detection. Validate minimum data required for state EVV compliance and flag deficiencies for user remediation. Handle partial sync failures with per-item retries and clear status.
Queue all user actions performed offline (e.g., note edits, task completion, medication logs, attachments) with deterministic IDs and causal ordering. Apply idempotency tokens so replays do not duplicate records. On sync, reconcile against server state using field-level merge strategies, last-write-wins defaults, and user prompts for critical conflicts (e.g., medication administration). Provide per-action states (queued, syncing, retried, failed) and user-visible error recovery. Enforce queue size limits and surface storage usage with options to purge non-critical cached assets.
Continuously detect connectivity changes and online readiness (e.g., captive portal, DNS reachability, token freshness). When online, trigger prioritized background sync: EVV first, then queued actions, then cache refreshes. Respect OS background execution limits (iOS BGTaskScheduler, Android WorkManager), battery saver modes, and user data preferences (Wi‑Fi-only toggle, roaming avoidance). Implement exponential backoff with jitter, resumable uploads, and per-item failure isolation. Display last sync time and upcoming scheduled syncs, and only notify the user when intervention is required.
Create a cryptographic audit trail for offline activity by signing events with a device-bound key and maintaining a verifiable hash chain. On server receipt, verify chain continuity, timestamps within allowable skew, and signature authenticity; flag gaps or anomalies. Persist verification results in an immutable audit log. Provide a one-click, audit-ready report that clearly denotes offline periods, drift alerts, EVV provenance, and verification status. Ensure HIPAA-compliant storage, access controls, and export options with PHI redaction as configured.
Expose clear UI indicators for connectivity state, cache readiness, queued item counts, and last sync time at both global and per-visit levels. Provide contextual guidance when required assets are missing (e.g., maps outdated) and offer manual actions (prefetch now, retry sync). Gate or adjust features that cannot function offline with transparent messaging about deferred behavior. Ensure accessibility compliance (WCAG AA) and localization for key languages. Log user-visible offline states for support diagnostics.
One‑tap, context‑aware permission elevation that grants the least access needed for the task at hand—limited to the specific client, chart section, and time window. Elevations auto‑revoke on timer or task completion and can require lightweight approval for higher‑risk scopes. Caregivers resolve urgent triage issues without waiting on admins, while compliance teams get safer, tighter access by default.
Implements a rules-driven scope engine that derives the minimum permissions required from the user’s current context (client, chart section, action, route step, and time). It composes a temporary, constraint-bound token (resource + permitted actions + client_id + section_id + duration cap) that is valid only within that scope. Integrates with existing RBAC/ABAC, respects role baselines, and supports policy-injected constraints such as after-hours limits. Exposes SDK hooks to request or pre-check elevation and fails closed with clear messaging and safe fallbacks to non-elevated flows.
Delivers an inline, single-tap prompt when an action is blocked, summarizing the requested scope, risk level, max duration options, and affected client/section. Supports quick justification via short text or a 5‑second voice note, and indicates if approval is required before proceeding. Optimized for small screens with large touch targets, accessibility support (screen readers, haptics), offline string caching, and localization. Integrates seamlessly with existing CarePulse UI patterns and visit workflows.
Automatically revokes elevated access on countdown expiry or upon task completion signals such as note saved, route step completed, or chart section closed. Enforces hard caps, runs a background watchdog to clean up stale grants, and supports offline-safe TTLs that revoke upon reconnect. Emits revocation events to clients and server, records precise timestamps, and ensures no residual elevated session or cached data remains after revocation.
Provides a tiered approval workflow for higher-risk scopes based on policy rules such as scope size, PHI exposure, and after-hours. Routes requests to on-call approvers with push/in-app notifications, supports one-tap approve/deny with SLA timers, and includes escalation chains and auto-expire. Offers emergency override flags with stricter auditing and shorter caps. Binds approvals cryptographically to the exact requested scope and duration to prevent over-broad grants.
Captures immutable, tamper-evident logs for every elevation request, grant, denial, approval, and revocation, including user, role, device, location (if permitted), scope details, timestamps, and rationale. Links events to visits, notes, and clients for operational context. Generates one-click, audit-ready reports filterable by timeframe, user, client, risk level, and outcome, with CSV/PDF export and API access. Applies retention and redaction policies aligned with HIPAA and agency-specific requirements.
Delivers an admin interface to define, manage, and simulate elevation policies: allowed scopes per role, max durations, approval thresholds, after-hours rules, geofencing, and device trust requirements. Provides prebuilt templates for common roles and scenarios (e.g., triage, note correction), a dry‑run simulator to test policy outcomes, change history with audit trails, and feature flags for gradual rollout. Exposes APIs for policy import/export and CI-style validation.
Adds layered safeguards to elevation: biometric or PIN confirmation, device health checks, jailbreak/root detection, secure storage of short‑lived tokens, rate limiting, behavioral anomaly detection, and IP/geofence constraints. Supports step-up authentication (e.g., OTP or SSO re-auth) for sensitive scopes and immediate revocation on logout or device un‑enrollment. Ensures tokens are signed, non‑reusable, and expire aggressively to reduce risk.
Shift‑bound access tokens that end exactly at shift close, with idle‑timeout failsafes and local device timers that still revoke access if the phone goes offline. Prevents forgotten logins and after‑hours drift, while ensuring in‑progress notes are safely saved and resumable by authorized staff. Reduces PHI exposure without interrupting legitimate work.
Issue and manage access tokens that are cryptographically bound to a caregiver’s scheduled shift window. Tokens are created at shift start and set to expire exactly at shift end using server-authoritative time, with immediate revocation at boundary crossing. Support split and overlapping shifts, mid-shift schedule updates, and real-time revocation when shifts are ended early or reassigned. Integrate with CarePulse Scheduling to derive start/stop times and react to changes via events. Enforce least-privilege scopes per visit/patient, and ensure consistent behavior across iOS, Android, and web clients with clock-skew tolerance.
Implement configurable inactivity detection that monitors meaningful user activity (note editing, voice capture, route navigation) across foreground and background states. Display pre-timeout warnings and soft-lock the session on idle, auto-saving drafts before lock. Require quick re-authentication to resume within the same active shift without data loss. Provide role-based timeout policies, accessibility-friendly alerts, and safe handling of long-running actions (e.g., continuous audio recording) to prevent unintended lockouts.
Enforce token expiry locally using a secure device timer and signed token claims so access is revoked even without network connectivity. Run a background watchdog that invalidates credentials, locks PHI views, and clears decrypted caches at the exact expiry time. Detect and mitigate clock tampering via monotonic time checks and rollback detection. On reconnection, reconcile any state changes with the server and record a tamper-evident audit entry. Ensure compliance with iOS/Android background execution limits and low-power modes.
Continuously autosave in-progress notes, voice clips, and sensor-derived entries to encrypted local storage and sync to the server when available. On idle-lock or token expiry, preserve drafts without leaving them accessible to the expired user. Provide a handoff workflow that allows authorized staff (e.g., next-shift caregiver or supervisor) to resume and complete the documentation with full version history and attribution. Enforce PHI protections, prevent data loss, and maintain clear auditability of who authored and finalized each entry.
Enable managers to issue tightly scoped, time-limited access extensions past shift end with mandatory justification codes, notes, and 2FA confirmation. Apply extensions at the minimum necessary scope (per patient, visit, or task) with configurable hard caps and automatic revocation at the new boundary. Notify affected users, log all actions immutably, and surface policy compliance checks. Provide immediate revoke capability for erroneous or abused extensions.
Capture comprehensive, immutable events for token issuance, refresh, idle warnings, locks, local and remote expiries, overrides, draft saves, handoffs, and re-authentications with timestamps, user/device identifiers, and optional location (per policy). Integrate with CarePulse’s reporting to deliver one-click, audit-ready exports filtered by date range, user, patient, or visit. Enforce retention, redaction, and access controls suitable for HIPAA-aligned auditing and incident response.
Compute precise expiry across time zones, DST transitions, cross-midnight shifts, and last-minute schedule changes using server-authoritative time. Handle caregivers traveling across time zones mid-shift and ensure countdowns and warnings remain accurate on-device with clock-skew tolerance. Automatically reissue or adjust tokens when schedules are edited during an active shift, and provide extensive automated tests for edge cases and regressions.
Emergency override for true edge cases with mandatory reason codes, short default durations, and instant notifications to supervisors. Access is narrowly scoped, watermark‑tagged, and heavily audited, then auto‑locks when the window ends. Enables fast client safety actions while keeping exceptional access transparent and accountable.
Implements narrowly scoped, temporary permission elevation that unlocks only the minimum data and actions required during an emergency (e.g., locked visit notes, client medication list, emergency contacts, route/geofence override). The override is bound to a specific client, session, and action set, integrates with existing CarePulse RBAC, and issues a time-limited permission token with explicit scope tags. Non-essential PHI remains masked. Works across mobile and web with consistent policy enforcement at the API gateway. Expected outcome: caregivers can act quickly while exposure is minimized and fully attributable.
Requires users to select an admin-configured reason code and provide concise free-text context before activating BreakGlass. Automatically captures client ID, visit ID, user ID, timestamp, GPS location, device ID, and optionally attaches a short voice note or photo for richer context (including optional IoT sensor snapshot if available). The form is mobile-first, accessible, and cannot be bypassed. All captured context is linked to the event ID and stored immutably for audit and reporting.
Applies a short, admin-configurable default duration (e.g., 15 minutes) with a visible countdown banner and automatic re-lock when the window ends. Supports a controlled extension flow that requires re-confirmation and, optionally, supervisor approval beyond a maximum threshold. Ensures data re-masking on expiry, revokes tokens across devices, and handles offline scenarios with a local timer and queued server reconciliation. Prevents backgrounded sessions from silently retaining elevated access.
Sends immediate notifications to assigned supervisors and on-call rotations via push, SMS, and/or email containing who triggered BreakGlass, client, scope, reason code, location, and duration. Includes secure deep links for real-time monitoring and a required acknowledgment workflow with configurable escalation if not acknowledged in time. Respects PHI minimality in transports and requires authentication to view details. Tracks delivery and read receipts for audit completeness.
Displays persistent, high-contrast visual indicators during active BreakGlass (e.g., red banner and screen watermark with user and timestamp) across mobile and web. Automatically tags all affected artifacts—visit notes, voice transcripts, route changes, GPS logs, uploads—with the BreakGlass event ID and includes visible watermarks on generated PDFs and exports. Tags propagate through APIs and reports for consistent downstream visibility without degrading accessibility or usability.
Captures an append-only, tamper-evident log (hash-chained) of every access and action taken under BreakGlass, including before/after states where applicable, actor, timestamps, client, device, IP, GPS, scope tags, and notification/ack events. Provides filters and exports (CSV/PDF) and a one-click, audit-ready narrative timeline report per event or date range. Supports retention policies, privacy controls, and a query API for BI tools to meet regulatory and customer audit needs.
Offers an admin console to configure BreakGlass policies: eligible roles, permissible scopes, default/maximum durations, required MFA methods, reason codes, notification channels, escalation rules, offline behavior, rate limits, cooldown between uses, and geofence override parameters. Enforces MFA at activation (e.g., push, OTP, or biometric) with fallbacks appropriate for field conditions. Supports environment-specific presets, versioned policy changes, and full audit of configuration edits.
Sensitive fields (addresses, SSNs, medications) are masked by default and revealed only with a press‑to‑peek that logs who saw what and why. Minimizes casual exposure during triage calls or crowded environments, while keeping critical details one tap away when clinically necessary. Boosts privacy without slowing down care.
Mask predefined sensitive fields (e.g., patient addresses, SSNs, medication lists) across all CarePulse surfaces by default, including list views, detail screens, search results, notifications, exports, and voice-to-note transcripts. Implement consistent mask patterns and partial reveals (e.g., last 4 digits) where appropriate. Enforce server-side redaction to prevent over-the-wire exposure, with client rendering of masked placeholders. Provide a centrally managed, extensible catalog of sensitive fields and masking rules. Ensure negligible performance overhead and compatibility with mobile-first UX and web portal. Redaction state must persist per view and immediately reapply after navigation, inactivity, or app backgrounding.
Provide an accessible press-and-hold/tap-to-peek interaction that temporarily reveals a masked field for a policy-defined duration (e.g., 2–10 seconds), then auto-remasks. Support both touch and keyboard interactions, with clear visual affordances, optional haptic feedback, and immediate re-mask on release, navigation, or app backgrounding. Prevent text selection/copy while revealed and block long-lived persistence (e.g., no caching in screenshots or app switcher). Allow consecutive reveals of multiple fields with independent timers and a manual “hide now” action.
Capture a justification for reveals via a lightweight prompt using admin-configured quick reasons plus optional free text. Support configurable frequency (every reveal, first reveal per record, or once per session/context) and enforce minimum reason requirements per policy. Include an emergency “break-glass” flow with explicit confirmation and stronger logging. Localize reason lists, prefetch for low latency, and validate input offline with later sync. Associate each justification with its corresponding reveal events for compliance traceability.
Record each reveal event with immutable, append-only logs capturing user, role, org, patient/record IDs, field name, timestamp, duration of visibility, geolocation (if permitted), device info, IP, session ID, call state (e.g., triage), active policy version, and the justification provided. Chain log entries with hashes for tamper evidence and apply time-based retention. Expose filters and one-click export that integrates with CarePulse’s existing audit-ready compliance reports (CSV, NDJSON, and API). Provide anomaly alerts (e.g., excessive reveals per user or outside shift) and redact logs for tenant-to-tenant isolation.
Implement an admin-managed policy engine defining which roles can reveal which fields under which contexts (e.g., during active visit, on triage call, off-shift, geofenced office vs. public). Policies can enforce re-auth, maximum reveal duration, justification requirements, rate limiting, and denial conditions. Evaluate policies client-side for UX responsiveness with server-side authority and real-time updates. Provide versioning, rollback, and default policy templates aligned with least-privilege. Include a test sandbox to simulate policy outcomes before deployment.
Activate platform-level secure display protections during revealed states: set FLAG_SECURE on Android, use UISecure in iOS, and blur content in app switchers. On web, provide watermarks and visibility-change detection to auto-remask and warn users; degrade gracefully if browser restrictions apply. Obfuscate sensitive values in push notifications and widgets. Detect and log screenshot/recording attempts where detectable, and ensure WCAG-compliant contrast and screen-reader labels that avoid speaking masked content unless explicitly revealed.
Allow controlled reveals when offline by requiring recent re-auth and device passcode/biometric, storing minimal field data in an encrypted, ephemeral cache with short TTL and wipe-on-exit. Queue audit logs and justifications for secure sync with retries and conflict handling. Respect policy flags that disallow offline reveals for certain fields. Provide clear, actionable messaging when a reveal is blocked due to policy or connectivity and offer a break-glass path if enabled by admins.
Pre‑built, scenario‑based permission sets (After‑Hours Triage, RN Review, Intake Start‑of‑Care) that align with payer and policy rules. Admins assign or schedule blueprints per shift, and users see only the clients and modules relevant to their role and timeframe. Cuts setup time and reduces misconfigurations that lead to audit risk.
Provides a catalog of pre‑built, payer- and policy-aligned role blueprints (e.g., After‑Hours Triage, RN Review, Intake Start‑of‑Care) with versioning, metadata (payer, state, effective dates), and dependency mapping to CarePulse modules. Supports cloning and safe customization, diff/compare between versions, deprecation notices, and compatibility validation. Delivers seeded defaults per region and payer, and exposes CRUD APIs to manage blueprint lifecycle. Ensures multi-tenant isolation and secure distribution across agency branches.
Allows admins to assign and schedule role blueprints to users or groups by shift with time‑zone awareness, effective start/end times, recurrence (e.g., weekly patterns), and exceptions. Resolves conflicts via deterministic precedence rules and provides preview of resulting access. Integrates with scheduling and routing so assignments follow live rosters and handoffs. Propagates changes to mobile within 60 seconds and auto-revokes access at shift end. Includes notifications and APIs for bulk assignment.
Enforces contextual filtering so users only see clients, visits, and modules permitted by their active blueprint and timeframe. Applies least‑privilege read/write scopes across scheduling, documentation, voice note capture, IoT data, and reports. Supports multiple concurrent assignments, on‑call scenarios, and offline mode with secure local caching and time‑boxed tokens. Handles denials with clear messaging and logs decisions for audit. Guarantees near‑real‑time updates without degrading app performance.
Encodes payer and policy constraints as rules mapped to each blueprint, including documentation requirements, visit types, supervision limits, and geographic restrictions. Evaluates rules at assignment time and at runtime where needed, honoring effective dates and jurisdiction. Provides a test harness, rule packs by payer/state, and safe updates with staged rollout. Surfaces validation errors to admins and flags impacted blueprints when policies change.
Captures immutable logs of blueprint creation, edits, approvals, assignments, activations, revocations, and access decisions with user, timestamp, device, and policy version. Generates one‑click, audit‑ready reports that align to payer audit checklists and include scope of access during specific time windows. Supports retention policies, export (PDF/CSV), and API retrieval, and integrates with CarePulse reporting dashboards and alerts.
Adds a guided setup with scenario selection, permission preview, and a simulator that runs a “view as user” session for a defined timeframe to validate access before deployment. Detects misconfigurations (e.g., excessive PHI scope, missing documentation rights) with explainable warnings and suggested fixes. Includes best‑practice presets, inline documentation, and a policy‑lint that blocks risky publishes unless explicitly overridden.
Provides a controlled, time‑limited emergency override (“break‑glass”) that grants elevated access with mandatory justification, optional supervisor approval, and automatic revocation. Sends real‑time alerts to compliance, logs all actions with enriched context, and enforces scope caps (e.g., client count, duration). Supports geofencing, offline issuance with delayed sync, and post‑event review workflows.
Adaptive multi‑factor prompts that trigger only when risk rises—new device, unusual time, or elevated scope. Supports biometric, push, and hardware key options for quick, secure verification on low‑end phones. Keeps routine actions frictionless while adding extra protection to sensitive operations.
Implement a lightweight, real‑time risk engine that evaluates each login and sensitive action using contextual signals (new/unknown device fingerprint, session age, time-of-day anomalies, geo/IP reputation variance, role/scope of requested operation, and recent failed attempts). The engine assigns a risk band that determines whether to suppress, require, or escalate MFA. Designed for mobile-first, low-end devices with minimal CPU/memory impact and privacy-by-design (no storage of raw biometrics or precise location). Exposes a policy API consumable by CarePulse mobile and web clients, and returns decision metadata for downstream logging and analytics. Expected outcome: frictionless access under normal conditions with automatic, consistent prompts when risk increases.
Provide a flexible MFA layer that supports biometric (Android BiometricPrompt, iOS LocalAuthentication), in-app push approvals (FCM/APNs) with number matching, and FIDO2/WebAuthn hardware keys for web and compatible mobile browsers. Implement automatic factor selection based on device capability, connectivity, and user preference, with resilient fallbacks (TOTP, limited-use backup codes, resident keys) for low-end phones and offline scenarios. Enforce rate limiting, replay protection, and secure channel binding. Ensure accessibility (screen readers, haptics) and sub‑2s average prompt round-trip on typical 3G connections. Expected outcome: quick, reliable verification on a wide range of devices without locking out users.
Define and enforce step‑up MFA for high‑risk operations (e.g., exporting PHI, modifying completed visit records, changing caregiver credentials, altering compliance settings, viewing GPS route history, generating audit reports). Integrate with API and UI routes to require elevation when risk or operation scope warrants it. Grant short‑lived elevated tokens/claims after successful verification, with configurable TTL and per‑role policies. Support exemptions for recently elevated, trusted sessions to minimize friction. Expected outcome: stronger protection for critical workflows with minimal interruption to normal scheduling and documentation tasks.
Introduce device registration and trust management to identify known devices and flag anomalies. Maintain a per-user trusted device list with metadata (OS, model, last seen), detect new/changed devices via fingerprinting and platform identifiers, and leverage optional device attestation (Play Integrity/SafetyNet, Apple DeviceCheck) plus jailbreak/root indicators where available. Trigger step‑up on first use, material changes, or risk spikes; notify users and admins on new device sign-ins; and provide self‑service revoke/rename. Designed to work on low-end Android devices with minimal storage and intermittent connectivity. Expected outcome: rapid containment of unauthorized access while reducing prompts on familiar devices.
Capture immutable, tamper‑evident logs for all risk decisions and MFA events, including timestamp, operation scope, risk band, factor used, device class (non‑PII), coarse location/IP, and policy version applied. Store with signed hashes and clock synchronization. Provide one‑click, audit‑ready reports integrated with CarePulse reporting (CSV/PDF) and export to SIEM via webhook/API. Enforce least‑data logging to avoid sensitive content while meeting HIPAA/SOC2 evidence needs. Include filters by user, device, factor, outcome, and time range. Expected outcome: transparent traceability for audits and incident response without compromising privacy.
Deliver a tenant-level admin UI to configure Step‑Up MFA policies: allowed factors by role, risk thresholds, operation-to-scope mappings, elevation TTL, push timeouts, and fallback allowances. Provide guardrails and previews to prevent lockouts and simulate impact. Offer analytics on prompt frequency, success rates, average latency, factor adoption, and anomalies, with drill-down to user/device level. Support per-environment settings and versioned policy changes with rollback. Expected outcome: admins can tune security to match caregiver workflows, improving protection while minimizing friction.
A real‑time, human‑readable timeline of who accessed what, when, from where, and under which scope or override. Includes filters, anomaly highlights, and one‑click, audit‑ready exports for payers and state reviews. Gives Compliance Sentinels and Agency Principals instant visibility and simplifies audit prep.
Implement a low-latency event pipeline that captures and normalizes all access events across mobile apps, web, APIs, background jobs, and integrated IoT sensors into a unified schema. Each event must include actor identity, role/scope at time of access, resource type and identifier, action (read/write/export/delete), timestamp (UTC), IP/device fingerprint, geolocation (if permitted), session/correlation IDs, result (success/failure), and override/justification metadata. Ensure at-most-once display with exactly-once storage semantics, sub-2s end-to-ledger latency for 95% of events, and durable, append-only persistence. Integrate with CarePulse identity and RBAC so scope is resolved at event time, and mask PHI fields while preserving human-readable context in the UI.
Deliver a mobile-first, real-time timeline that renders access events in clear, natural language with recognizable actor avatars, resource names, action icons, and relative/absolute timestamps. Provide infinite scroll, sticky summary header (selected filters, counts, time window), and an expandable event details drawer showing full context and raw JSON when needed. Support quick actions (copy event ID, open resource, flag event) and accessibility (WCAG AA, large text, high contrast). Maintain P95 timeline load under 500 ms for the last 24 hours of activity, with live updates via websockets/server-sent events.
Provide multi-facet filtering and search across actor, role/scope, resource type, patient/client, action, date/time range, location/IP/device, outcome, override flags, and anomaly tags. Include free-text search over actor and resource names, plus prefix search on IDs. Enable combinable filters with AND/OR, time bucketing, quick presets (Last 24h, Shift Hours, Last Audit), and the ability to save and share named views with permissions. Ensure filter operations and pagination are performant on datasets up to 1M events with server-side query execution.
Implement rule-based anomaly detection to flag events such as after-hours access outside assigned shift, access from new or distant geolocation/IP, repeated failed logins, bulk record viewing, export surges, and overrides without justification. Assign severity levels, visually highlight anomalies in the timeline, and provide an explanation and evidence for each flag. Allow admins to tune thresholds, whitelist known devices/locations, and mute specific rules per user or resource. Store anomaly tags with events for filtering and reporting.
Record the precise authorization context for each access, including current role, effective permissions, delegation or impersonation source, and any break-glass/override with required reason codes and optional attachments. Enforce inline capture of justification when an override is triggered and link to approver workflow when policy requires approval. Display this context prominently in event details and include it in exports to satisfy payer and state audit requirements.
Provide one-click exports (CSV and paginated PDF) that respect current filters, include column dictionary, timezone note, and export metadata (requestor, timestamp, filter snapshot). Generate a cryptographic receipt (hash of export contents and parameters) and optionally sign with the agency’s key for immutability verification. Support batched exports up to 50,000 events per file with progress indicator, download history, and watermarks indicating confidentiality. Offer redaction options to exclude sensitive fields where allowed.
Apply configurable retention policies aligned to regulatory needs, with encryption in transit and at rest, role-based access controls to the ledger, and immutable, append-only storage with chained hashes to detect tampering. Provide administrative retention settings with audit trail of changes, legal hold capability, and export of integrity proofs for a given time window. Ensure time synchronization and signed server timestamps to strengthen evidentiary value.
Detects likely documentation misses in real time using voice‑note transcripts, EVV stamps, plan‑of‑care rules, and payer‑specific checks. Surfaces a bite‑sized tip only when needed, right where the caregiver is working, so issues are fixed in‑flow and end‑of‑shift rework drops.
Implement a low-latency evaluation service that ingests voice-note transcripts, EVV time/GPS stamps, plan-of-care tasks, and payer policy metadata to detect likely documentation misses in under 300 ms and emit structured “trigger” events. The engine must support declarative rules (JSON/YAML), rule chaining, severity levels, per-agency feature flags, and suppression logic to avoid duplicate nudges. It integrates with CarePulse’s mobile SDK and backend event bus, processes streaming updates (e.g., incremental transcript tokens), and publishes outcomes to the in-app nudge layer and audit log. It must be horizontally scalable, fault-tolerant, and operate in offline-degraded mode by queueing local evaluations until connectivity resumes.
Deliver lightweight, non-blocking UI components embedded directly within notes, task checklists, and clock-in/out flows that surface a single actionable tip only when needed. Nudges must include concise copy, severity iconography, one-tap fix actions (e.g., insert missing vitals block), or deep links to the relevant screen. The UI must support accessibility (WCAG AA), localization, haptic feedback, auto-dismiss, and rate limiting to avoid alert fatigue. It integrates with the trigger event stream, respects caregiver focus states, works offline with queued actions, and records telemetry for acceptance/dismissal outcomes.
Provide an admin console for operations managers to author, version, and schedule payer-specific checks and plan-of-care requirements with effective dates, jurisdictions, and agency-level overrides. The configurator includes validation to prevent conflicting rules, a sandbox with sample visits for test runs, rule templates for common payers, change audit logs, and one-click rollback. It integrates with the rule engine via a signed rules registry, enforces permissions/approvals, and supports migration between staging and production environments.
Build an NLP layer that converts short streaming voice clips into structured data (entities like vitals, ADLs, meds, dosages, times, negations) and maps them to plan-of-care tasks to infer omissions with confidence scoring. The module must handle accents, background noise, and multiple languages, perform PII redaction, and emit incremental events compatible with the rule engine. When connectivity is limited, use on-device transcription with deferred enrichment. Provide tunable thresholds and evaluator tools to review false positives/negatives and improve models over time.
Implement checks that validate clock-in/out events against scheduled windows, payer-specific tolerances, and geofenced visit locations, with configurable drift buffers for rural areas. The system flags early/late or out-of-geo events, suggests corrective actions (e.g., add justification note), and can auto-insert compliant documentation snippets when approved. It must function offline with cached geofences, reconcile when back online, and expose a supervisor review queue for exceptions. All events feed the trigger engine and compliance reporting.
Create a dashboard and data pipeline that aggregates trigger rates, acceptance/dismissal outcomes, false-positive reports, and time-to-fix by agency, caregiver, payer, and rule version. Provide experiment support (A/B thresholds, copy variants), alert fatigue monitoring, and export APIs for BI tools. Include a feedback loop that lets users mark a nudge as “Not Relevant,” feeding back to the rule engine to adjust thresholds or suppress patterns. Ensure privacy controls, data retention policies, and audit-ready summaries for regulators.
Tailors coaching to caregiver role, credential, payer, and client diagnosis. Shows only relevant cues—RN wound care phrases vs. HHA ADL prompts—so guidance feels personal, reduces noise, and boosts completion rates without slowing visits.
Compute a real-time visit context profile by resolving caregiver role and credentials, client diagnosis codes and care plan, payer and plan policy, visit type, and current workflow steps. Pull required attributes from existing CarePulse entities (user profile, scheduled visit, client chart) and enrich locally with recent voice clip keywords and available IoT sensor signals. Cache non-PHI lookup tables on device and refresh on login to support offline use. Expose a lightweight context object to downstream components to drive RoleFit Card selection without additional network calls. Guarantee sub-200ms local resolution on mid-tier devices and graceful degradation when some inputs are unavailable, ensuring the feature never blocks documentation or routing
Select and rank RoleFit Cards using a configurable rule engine that matches the context profile to card eligibility rules across role, credential, payer, diagnosis, visit type, and task state. Support boolean logic, effective dates, plan overrides, and mutually exclusive groups to prevent noise. Provide deterministic tie-breaking and frequency capping so cards remain concise and non-repetitive during a visit. Run on-device where possible with a compact rules bundle; fall back to server evaluation when needed. Integrate with CarePulse feature flags to enable phased rollouts and with the documentation module to surface only cards that can map to structured note fields or compliant phrases
Provide an admin experience to author, localize, and version RoleFit Card content with templates for RN wound care phrases, HHA ADL prompts, medication reminders, and payer-specific wording. Allow tagging by role, credential, diagnosis (ICD-10), visit type, and payer plan, with start/end effective dates. Include preview against sample contexts, draft/publish workflows, rollback to prior versions, and change history with editor and timestamp. Deliver content to devices via delta updates and validate for conflicts and missing mappings before publish. Ensure content blocks map to structured note fields and phrase libraries used by CarePulse auto-population to maintain consistency across documentation and reporting
Design a mobile-first card interface that surfaces only a small, prioritized set of relevant cues inline with the visit workflow. Support quick interactions: swipe to dismiss, tap to expand details, and one-tap insert of approved phrases into the active visit note section with proper attribution and time-stamping. Respect accessibility settings, dark mode, and large text, and maintain 60fps scrolling on low-end devices. Preload the next likely cards to avoid jank and operate fully offline with queued inserts that sync when connectivity returns. Avoid obstructing navigation, timers, or voice capture, and ensure cards can be recalled from a compact tray within two taps
Map each card and inserted phrase to payer policy references, plan identifiers, and visit requirements, storing these links with the visit record. Log card impressions, dismissals, and insertions with user, timestamp, context profile hash, and content version to support one-click, audit-ready reports. Validate that inserted phrases meet payer wording constraints before committing to the note, and flag conflicts for user confirmation. Expose exports and APIs consumed by CarePulse compliance reporting so agencies can demonstrate that guidance shown and documentation captured aligned to payer and diagnosis at the time of service
Capture anonymized telemetry on card display rate, interaction types, insert conversions, task completion impact, and dwell time, attributed to context dimensions (role, credential, payer, diagnosis) and content versions. Provide dashboards and export to existing CarePulse analytics to track completion-rate lift and time-on-doc reductions. Enable remote A/B tests for card wording, order, and selection thresholds with guardrails to prevent compliance regressions. Feed insights back into content management and rule tuning to continually reduce noise and improve outcomes
Detects when expected IoT readings (vitals, activity, medication dispenser) are missing or stale and nudges the caregiver to re‑pair, capture a reading, or log a reason. Keeps notes clinically complete and defensible with minimal extra taps.
Continuously track last-seen timestamps for each expected patient sensor (vitals, activity, medication dispenser) and compare against configurable freshness thresholds tied to the patient’s care plan and scheduled visit window. Classify each sensor-task as expected, received, stale, or missing, and update state in near real time by subscribing to the IoT ingestion stream. Support per-device, per-patient overrides, and suppress checks when devices are intentionally paused or not assigned for the visit. Expose detection state to the mobile app and API, and persist an auditable event log for compliance reporting.
Trigger real-time, non-intrusive in-app prompts when a required reading is stale or missing, offering single-tap options: Re-pair device, Capture reading now, Log reason, or Snooze. Tailor prompt text and actions by device type and associated care task, ensure accessibility and localization, and throttle to avoid notification fatigue. Respect active workflows (e.g., do not interrupt dictation), and provide a persistent notification center entry for later action. Capture analytics on prompt outcomes to inform product improvements.
Provide a step-by-step pairing flow for supported Bluetooth and Wi‑Fi sensors that auto-detects known devices assigned to the patient, verifies identity via QR code/serial, handles OS permissions, and confirms stable connectivity. Implement retries with exponential backoff, vendor-specific pairing plugins, and a manual fallback when auto-discovery fails. Cache secure pairing tokens bound to patient and device, and log outcomes (success, timeout, failure reason) to the audit trail for defensibility and support.
Enable caregivers to record standardized reasons when a reading cannot be captured, using agency-configurable reason codes (e.g., patient refused, device lost, battery dead, not clinically indicated). Enforce required evidence by code (voice note, photo, free text), auto-stamp entries with time, visit, user, and device, and validate that a logged exception fulfills the care-plan requirement for compliance. Store exceptions for inclusion in audit-ready reports and for export via API.
When readings are captured or exceptions logged, automatically populate visit notes with structured data (values, units, device ID, method, exception code/details) and link entries to the underlying sensor records and pairing events. Lock fields upon submission while maintaining edit history and signatures for traceability. Accept optional voice clip transcription as supplemental context. Reduce duplicate data entry and ensure notes are clinically complete and aligned to compliance requirements.
Identify repeated or prolonged sensor data gaps across visits or monitoring windows and escalate based on configurable rules (thresholds, durations, patient cohorts). Notify operations managers via push/email and surface issues on the Compliance dashboard with trend charts and root-cause indicators (e.g., frequent pairing failures). Provide drill-down from patient to visit-level events and include these gaps and resolutions in one-click, audit-ready reports and exports.
Allow caregivers to pair devices, capture readings, and log exceptions while offline by securely queuing actions and data locally. Record device and app timestamps, reconcile upon reconnect using server time, and deduplicate/resolve conflicts. Provide clear sync status and error recovery in the app, and re-run compliance checks after sync to update visit state and downstream reports without requiring user re-entry.
Delivers 20–30 second audio micro‑lessons with optional call‑and‑repeat prompts. Caregivers can keep gloves on and eyes on the client while learning the exact phrasing or steps that satisfy payer checks and agency policy.
Enable wake-word and tap-to-talk controls to start and control 20–30 second micro-lessons without touching the screen. Implement on-device hotword detection with noise suppression, configurable push-to-talk fallback, and clear audio cues (beep/haptic) for start/stop to support gloved workflows. Integrate with iOS/Android audio focus, microphone permissions, and Bluetooth headsets (including bone-conduction) to ensure reliable playback in clinical environments. Provide privacy safeguards: hotword processed on-device, no continuous audio streaming, and auto-timeout after inactivity. Expose settings for sensitivity, headset preference, and auto-resume after interruptions (calls, alarms).
Surface the most relevant micro-lesson automatically based on visit context (payer, visit type, care plan tasks, diagnosis codes, and current workflow step) and caregiver location/arrival status. Define a rules engine that maps schedule/EMR metadata and payer policy tags to specific lessons, with configurable priorities and fallbacks. Support voice search (“play wound care phrasing”) when no rule matches. Provide an SDK hook so scheduling and routing can request a lesson at step transitions (e.g., check-in, vitals, ADLs). Log trigger source and selection rationale for transparency and tuning.
Offer optional call-and-repeat prompts that ask caregivers to repeat key phrases or steps. Implement lightweight on-device voice activity detection and keyword/phoneme matching to confirm completion without storing raw audio. Provide immediate feedback (success/try again/skip) and configurable thresholds per lesson. Handle noisy environments with adaptive gain control and background noise modeling. Record only structured outcomes (e.g., repeated, confidence score, attempts, duration) for compliance without capturing PHI. Allow agencies to disable or require verification per payer policy.
Deliver an admin console to author, upload, and manage 20–30 second audio micro-lessons with enforced duration limits, optional scripts, and multi-language variants. Tag lessons by payer policy, procedure/task, diagnosis, and care setting; map each lesson to contextual trigger rules. Support recording, TTS synthesis, waveform trimming, loudness normalization, and versioning with approval workflow (draft→review→published) and rollback. Include effective/expiry dates, changelogs, and impact analysis (where used). Provide permissions (Admin, Compliance Reviewer) and audit logs for every publish action.
Pre-fetch and cache all lessons likely needed for the day’s scheduled visits, including language variants and prompts, with automatic low-bitrate fallback for weak networks. Expose cache status per route and per visit, retry policies, and automatic cleanup after visit completion or 7 days of inactivity. Ensure seamless playback when offline and graceful degradation to text-only scripting if audio assets are missing. Respect device storage constraints with configurable quota and LRU eviction.
Automatically attach structured coaching events to the visit record: lesson ID/version, trigger source, timestamps, caregiver ID, playback completion, repeat verification outcome, and device/network state. Surface these in CarePulse’s one-click audit reports and export via CSV/JSON and API. Enforce HIPAA-aligned data minimization (no raw audio stored), role-based access, retention controls, and immutable audit trails with digital signatures. Provide dashboards for completion rates and gaps to inform policy updates and training needs.
Support lesson content and prompts in multiple languages and dialects with caregiver-level language preferences and automatic fallback. Provide adjustable playback speed, volume boost, and optional haptic cues for noisy environments or hearing assistance. Validate TTS quality (SSML support, pronunciation dictionaries) and allow upload of human-recorded voice. Ensure WCAG-compliant captions/transcripts accessible when hands-free is not required and provide quick-switch language commands via voice.
An authoring hub for educators to create, localize, and A/B test cards. Drag in screenshots, short clips, or sample text; tag to forms, payers, and triggers; schedule rollouts; and track impact—no IT ticket required.
Provide a WYSIWYG authoring interface to create in-app guidance cards with drag-and-drop support for images, short video clips, and sample text. Include rich text formatting, reusable templates, inline media embedding, and metadata fields (title, tags, objectives). Enable live mobile previews for iOS/Android form factors, autosave, versioning with compare/rollback, and accessibility checks (contrast, captions, alt text). Validate content for safe HTML and size limits. Integrate with CarePulse objects so cards can reference forms, visit types, and payer-specific policies. Result: educators can rapidly produce polished, compliant cards without engineering assistance, and caregivers will see consistent, high-quality content in the mobile app.
Implement a rule builder to target cards by audience and context and to control when they appear. Support tagging to forms, payers, visit types, caregiver roles, locations, routes, and states. Provide event-based triggers such as “on open form,” “on route start,” “on missing signature,” or “after visit if time > SLA,” including IoT-derived signals (e.g., door sensor). Allow inclusion/exclusion rules, frequency caps, and priority resolution when multiple cards match. Ensure low-latency evaluation on-device with offline caching and server-side sync. Outcome: caregivers receive relevant nudges at the precise moment of need, improving compliance and reducing documentation time.
Enable creators to schedule card releases with start/end times, phased percentage rollouts, and blackout windows. Add a lightweight approval workflow with configurable roles (creator, reviewer, approver) and tracked sign-offs. Maintain a change log capturing who changed what and when, with the ability to pause or roll back a rollout instantly. Provide notifications to stakeholders on submit/approve/publish events. Integrate with CarePulse tenancy to scope rollouts to specific agencies or regions. Outcome: controlled, auditable deployments that minimize risk and align with compliance requirements.
Introduce an asset pipeline for uploaded screenshots and short clips: virus scan, metadata extraction, automatic transcoding to mobile-optimized formats and bitrates, thumbnail generation, caption/alt-text attachment, and image compression. Store assets in encrypted, versioned storage with signed URLs and CDN delivery for low-latency global access. Provide usage quotas, lifecycle policies (expiry/archival), and duplicate detection. Expose an asset library with search, tags, and reuse across cards. Outcome: fast-loading, secure media that performs well on variable mobile networks and devices.
Provide out-of-the-box analytics to measure nudge reach and outcomes: impressions, dismissals, click-throughs, and downstream task completion (e.g., form completion, reduced errors, on-time visits). Support pre/post and cohort comparisons, payer-specific breakdowns, and customizable primary metrics. Attribute impact using rules linking a card view to subsequent events within a configurable window. Surface dashboards, email summaries, and CSV export. Ensure privacy-aware aggregation and tenant isolation. Outcome: stakeholders can quantify effectiveness, prioritize content, and demonstrate ROI.
Enable multi-language support with key-based strings, media alternates per locale, and automatic fallbacks. Support right-to-left layouts, locale-aware formatting (dates, numbers), and region-specific policy references. Provide translation workflows: export/import (CSV/XLIFF), translation memory, and in-context preview on target devices. Allow audience targeting by locale and create content variants for cultural or payer differences while maintaining a shared version history. Outcome: caregivers receive accurate, culturally appropriate guidance in their preferred language without duplicating content.
Add experiment capabilities to create multiple card variants, allocate traffic (fixed split or ramp), and define primary/secondary metrics sourced from CarePulse events. Implement consistent user bucketing, eligibility filters, holdout groups, and mutually exclusive experiment groups to avoid cross-test interference. Provide guardrails (e.g., error rate, latency) and automatic pause criteria. Display experiment readouts with confidence indicators and sample-size progress. Integrate with analytics for attribution and with rollout scheduler for progressive delivery. Outcome: educators learn which content performs best and systematically improve caregiver outcomes.
Aggregates misses by field, payer, team, shift, and device type to reveal friction hot spots. Recommends new cards and quantifies lift in note completeness and correction time, helping leaders target training where it counts.
Implement a real-time, fault-tolerant pipeline that captures, normalizes, and classifies “miss” events from scheduling, visit notes, voice-to-text, IoT sensors, device telemetry, and compliance checks. Define a canonical miss schema (type, severity, timestamp, visit/user/team/payer identifiers, device type, shift, field identifier) and rules to detect incomplete fields, missing signatures, late/early check-in/out, sensor discrepancies, and correction cycles. Provide idempotent processing, deduplication, and backfill jobs, with data quality metrics and monitoring to ensure accuracy before downstream aggregation.
Build an incremental aggregation layer that computes counts, rates, severity-weighted scores, and time-to-correct distributions for misses across dimensions (field, payer, team, shift, device type) and time windows (hour/day/week/month). Support filters, comparisons (period-over-period, cohort vs. org), and top-N hotspot queries with sub-2s query latency on mobile. Include caching, pre-aggregation for common queries, data freshness indicators, and export endpoints to feed other CarePulse modules and audit reports.
Deliver a responsive heatmap UI that visualizes hotspot intensity with accessible color scales, tooltips, and trend indicators. Enable filtering by date range, dimension, miss type, and severity; provide drilldowns from cells to affected visits, users, and raw miss events with breadcrumb navigation. Support saved views, shareable links respecting role-based access, and offline-ready snapshots for field supervisors. Ensure mobile-first performance (<1.5s initial render on median devices) and WCAG AA accessibility.
Add configurable thresholds and anomaly detection for hotspot metrics with in-app, email, and push notifications. Allow users to subscribe to dimensions (e.g., payer X, team Y, night shift) and set schedules (immediate, daily digest, weekly). Include noise controls (hysteresis, cooldowns, suppression windows), routing rules by role, and one-click navigation from alerts to the corresponding heatmap view. Log alert deliveries and outcomes for auditing.
Generate data-driven recommendations that propose targeted workflow cards and micro-coaching content for hotspots (e.g., payer-specific documentation tips, device checklists, shift-based reminders). Rank recommendations by expected impact and effort, show rationale (top contributing fields/teams), and enable one-click publish to CarePulse surfaces (home, pre-shift, in-note). Capture user feedback and outcomes to refine models and avoid recommendation fatigue.
Provide built-in experimentation and cohort analysis to quantify lift from deployed interventions: define baselines, compare pre/post and control vs. exposed groups, and report changes in note completeness, correction time, and miss severity. Include confidence indicators, trend charts, payer/team breakouts, and one-click export to audit-ready PDFs/CSVs and compliance report packs used elsewhere in CarePulse.
Enforce HIPAA-aligned analytics practices: aggregate or de-identify data for heatmap views, apply minimum cell-size thresholds, and mask PHI in UI and exports. Implement role-based access controls, per-tenant data isolation, encryption in transit/at rest, audit logs for access and export, and configurable data retention. Provide a privacy impact configuration panel to align with agency policies without degrading analytic utility.
Links each nudge to the resulting correction, time/location context, and final EVV record. One‑click exports provide a clean evidence trail for QA and payer audits, proving timely corrective action and lowering denial risk.
Automatically bind each system-generated or manual nudge to its subsequent corrective action(s) and the final EVV event to form a complete, canonical evidence chain. Listens to events from scheduling, EVV, documentation, routing, and mobile actions, matching by visit, caregiver, time window, and geofence tolerances. Supports multi-step remediation, partial fixes, superseded actions, and retries, maintaining normalized relationships and versioning. Outputs linkage objects consumable by UI timelines and export services, delivering end-to-end traceability that speeds QA validation and reduces claim denials.
Capture and persist comprehensive context for both nudges and corrections, including timestamps, GPS coordinates with accuracy metadata, geofence status, caregiver identity, device and app version, network state, and route segment. Validate geolocation integrity signals and handle online/offline modes with secure local queueing and clock-sync safeguards. Store context snapshots alongside linkage records to provide objective proof of timely corrective action and situational conditions, enabling stronger audit packages and root-cause analysis.
Provide a single-action export that compiles linked nudges, corrective actions, contextual snapshots, and final EVV into audit-ready artifacts. Support configurable templates per payer and jurisdiction, outputting paginated PDFs and machine-readable CSV/JSON with index pages, preparer metadata, timestamps, digital signatures, and checksums. Enable presets, filters by date range/visit/payer, bulk export with queued processing, and artifact retention with access-controlled retrieval. Delivers consistent, rapid responses to audits while minimizing manual assembly.
Record all nudge, correction, and linkage events into an append-only, tamper-evident ledger using hash chaining and server-enforced write-once storage. Generate per-record fingerprints surfaced in UI and included in exports to enable independent verification. Incorporate signed actor attribution, clock-drift detection, and retention/legal hold policies. This strengthens audit defensibility by ensuring the integrity and non-repudiation of evidence records across their lifecycle.
Present a chronological, mobile-friendly timeline per visit that visualizes the nudge, each corrective action, associated context snapshots, and the resulting EVV record. Provide deep links to the original schedule, visit notes (including voice-to-text artifacts), IoT sensor readings, and caregiver profile. Include filters, hover details, and anomaly flags to accelerate investigation. This interface streamlines QA review and operational troubleshooting while anchoring navigation across CarePulse modules.
Enable QA users to annotate evidence chains, request rework from caregivers, and approve finalized traces with e-sign attestation. Provide status transitions, SLA timers, notifications, and audit notes that are incorporated into exports. Track who approved what and when, ensuring a formalized corrective-action process that is consistent, measurable, and audit-ready.
Apply role- and attribute-based access controls and minimum-necessary redaction to evidence views and exports. Mask PHI/PII fields per payer template and jurisdiction, enforce watermarks and viewer identity on exports, and log all access. Support just-in-time access grants and enforce the same policies on mobile, including offline scenarios. This reduces data exposure risk and ensures HIPAA and state-level compliance while preserving evidentiary value.
One-click, payer-tailored export templates that stay in sync with each portal’s quirks—codes, modifiers, unit rounding, EVV placement, file naming, and column order. Presets are versioned and auto-updated, so Billing and Compliance can export correctly the first time without memorizing rule changes or reformatting files.
Centralized repository of payer-specific export templates that encode portal quirks—billing codes, modifiers, unit rounding rules, EVV data placement (header vs. line-level), file naming patterns, and column order. Each preset is versioned with effective dates and changelogs, supports deprecation and migration notes, and can be pinned per payer/client. Integrates with CarePulse’s export pipeline to apply the selected preset at runtime, ensuring consistent, compliant output across CSV/XLSX and other supported formats.
Background sync service and admin workflow that detect and apply payer rule changes to presets, updating codes, modifiers, rounding thresholds, EVV placement, filename schemas, and column layouts. Supports safe rollout with notifications, preview diffs, sandbox validation, effective-date scheduling, and automatic fallback to pinned versions when needed. Monitors sync health and logs changes for auditability without disrupting in-progress billing cycles.
Single-action export that applies the selected payer preset and runs preflight validation against required fields, code/modifier compatibility, unit rounding outcomes, EVV token presence/placement, filename conformance, and column ordering. Returns actionable errors and warnings with record-level detail and quick-fix suggestions, supports batch exports by date/payer/location, and outputs in portal-acceptable formats to maximize first-pass acceptance.
Configurable mapping layer that translates CarePulse service items into payer-specific billing codes and modifiers, applies payer-defined unit rounding (e.g., 7/8 rounding, minimum thresholds), and injects EVV identifiers at the correct hierarchy per payer. Pulls EVV data from visits and routes, validates completeness, and formats values according to portal schemas to eliminate manual data editing.
Controlled override framework allowing agencies to tailor aspects of a preset—such as filename suffixes, column suppression/reordering within allowed bounds, rounding edge-case handling, and default modifier application—without breaking core compliance rules. Includes role-based access control, approval workflow, change diffs, revert-to-default, inheritance for multi-location orgs, and an audit trail of who changed what and when.
Immutable logging for each export capturing preset name and version, export parameters, user, timestamp, file checksums, generated filenames, validation results, and optional portal submission receipts. Provides search, filters by payer/date/user, and export of logs for audits. Enforces retention policies and ensures every report is traceable back to the exact ruleset used at generation time.
A preflight validator that runs payer-specific checks before you export, catching missing auth numbers, unit mismatches, modifier order, visit overlaps, and EVV window gaps. It explains why each issue fails and offers one-tap fixes or safe defaults, boosting clean-claim rates and slashing avoidable rejections.
A centralized, versioned repository of payer-specific validation rules (e.g., required auth numbers, unit caps, modifier order, diagnosis pairings, place-of-service constraints, EVV tolerance windows, overlap policies) that Denial Shield uses to evaluate claims prior to export. Supports rule scoping by payer, plan, state, and effective dates with rollback, draft/publish workflow, and change history. Includes a rule editor with validation, import/export (JSON/CSV), and a test harness with sample claims to verify rule behavior before publishing. Integrates with CarePulse patient profiles, visit notes, and export modules to pull necessary data fields at validation time.
When a user initiates a claim export (e.g., 837P/837I, UB-04, CSV), Denial Shield runs a preflight pass that executes the relevant payer rules across all selected visits/claims. The validator categorizes findings by severity (Errors block export; Warnings allow export with notice), supports batch processing, and returns results within defined SLAs (e.g., under 5 seconds for 500 claims) with progress feedback. Users can drill into claim-level details, apply fixes, and re-run validation without leaving the export flow. Clean-claim rate and common failure trends are summarized to guide operational improvements.
For each failed check, provide context-aware resolutions that can be applied with a single tap or in bulk, with preview and undo. Examples include inserting modifiers in the correct payer-specific order, allocating units within authorized caps, selecting safe default values when allowed, splitting overlapping visits, and adjusting EVV timestamps within permitted tolerances. Enforce role-based permissions, confirm irreversible changes, and write all modifications back to the appropriate CarePulse records while preserving data integrity and triggering a revalidation.
Each validation issue includes a plain-language explanation, the fields involved, the rule that fired, and guidance on how to fix it. Provide links or citations to payer policies, effective dates, and internal rule IDs for traceability. Highlight impacted data in context (e.g., visit notes, patient insurance, authorization records) and show data provenance. Group similar issues, support inline tooltips, and allow downloading a summary of failed checks with references for internal reviews or payer audits.
Detect and flag EVV window gaps, clock-in/out anomalies, and caregiver/patient visit overlaps according to payer and state rules. Normalize timestamps across time zones and daylight saving changes, de-duplicate late EVV uploads, and reconcile mobile and IoT sensor data. Provide suggested remediations such as splitting visits, adjusting to nearest valid window within tolerance, or marking exceptions with required notes. Integrates with CarePulse scheduling and route data to ensure consistency and prevent double-billing.
Maintain an immutable audit trail for each validation run and applied fix, capturing user, timestamp, original and updated values, associated rule version, and reason. Generate one-click, audit-ready reports (PDF/CSV) that summarize checks performed, failures found, actions taken, and residual warnings, suitable for internal QA and external payer audits. Expose filters by payer, date range, rule, user, and outcome, and enforce retention policies aligned with regulatory requirements.
Automatic attachment bundling that assembles the exact supporting documents each payer demands—visit notes, orders, signatures, EVV logs—sequenced and named per portal rules. It can merge into a single PDF or split files as required, apply redactions, and compress for size limits, ensuring submissions are complete and compliant.
Configurable engine to define and manage per-payer attachment requirements, including required document types (visit notes, orders, signatures, EVV logs, IoT readings), sequencing, file naming templates, merge/split logic, accepted formats, maximum file sizes, redaction policies, and delivery channels. Provides a self-serve admin UI with versioning, effective dates, cloning, validation tests on sample claims, and change logs. Integrates with CarePulse data models to map document sources and with Smart Attach assembly to evaluate rules at runtime, ensuring every package conforms to payer-specific portal rules.
Event-driven and batch-capable pipeline that aggregates required artifacts for a visit or claim, renders them to payer-specified formats, applies sequencing and naming, and outputs either a single merged PDF or multiple files per rules. Supports manual and automatic triggers, idempotent re-runs, progress states, retries, and background queuing. Fetches inputs from visit notes (including voice-to-text), physician orders, caregiver and patient signatures, EVV logs, and optional IoT data. Exposes preview and approve actions, and posts results to downstream delivery or download.
Rule-based redaction service that masks sensitive fields and sections according to payer policies (e.g., SSN, partial DOB, addresses on EVV maps), supporting both pattern-based and field-aware redactions. Provides a preview overlay, audit annotations, and irreversible flattening upon finalize to prevent removal. Integrates with the rules engine to vary redactions by payer and with the assembly pipeline to apply redactions before compression and delivery.
Automated optimization that compresses and linearizes PDFs/images to meet payer-specific size limits while preserving legibility. Applies DPI tuning, grayscale/mono conversion, font subsetting, and duplicate page/image deduplication. Adds full-text OCR layers for scanned content to keep bundles searchable post-compression. Supports PDF/A output when required and strips non-essential metadata to reduce file size and PHI exposure.
Preflight validation that checks package completeness against payer rules before assembly and delivery: required documents present, valid signatures, current orders, EVV timestamps within required windows, correct naming/sequence, and file size/format compliance. Produces actionable errors and warnings with suggested fixes and blocks submission until critical issues are resolved. Integrates with notifications to alert responsible users and with tasking to create follow-ups.
Delivery module that outputs packages per payer channel: direct API/SFTP where available, or secure download for manual portal uploads. Enforces payer naming conventions, handles rate limits and timeouts, and supports automatic retries with exponential backoff. Captures delivery receipts or upload confirmations when provided and encrypts files at rest and in transit. Provides a submission log and integrates with CarePulse claims to update submission status.
Comprehensive traceability for each package: immutable record of inputs used, rule version applied, transformation steps (redactions, merges, compressions), timestamps, user actions, and cryptographic hashes of outputs. Enables one-click regeneration using the original rule version and data snapshot. Provides an exportable audit report suitable for external reviews and internal QA, integrated with CarePulse’s reporting module.
Intelligently chooses the right lane for each payer—EDI 837, CSV, SFTP, API, or guided portal upload—then manages batch sizes, throttling, and cut-off windows. Built-in retries and confirmations reduce manual juggling, so teams submit faster with fewer late-file risks.
Implements an intelligent routing layer that selects the optimal submission lane per payer (EDI 837, CSV, SFTP, API, or guided portal upload) using configurable rules, payer preferences, claim type, volume, and service date constraints. The engine evaluates eligibility, fallbacks, and manual overrides, logs the decision path, and exposes the chosen route to downstream orchestration. It integrates with CarePulse’s scheduling and compliance modules to prioritize on-time submissions and supports idempotent routing to prevent duplicates when resubmitting.
Provides a centralized, versioned configuration for each payer, including allowed channels, endpoints, credentials, schema/companion guide references, batching constraints, throttling rates, time zone–aware cut-off windows, required acknowledgments, file naming conventions, and error taxonomies. Includes sandbox/production separation, change history, and guardrails for safe edits. Secrets are stored securely and tied to CarePulse RBAC, enabling operations to update profiles without code changes while ensuring compliance and consistency across all submissions.
Generates HIPAA-compliant 837P/837I payloads from CarePulse visit and documentation data, applying payer-specific companion guide rules and required loops/segments. Performs pre-submission validation (e.g., SNIP-level checks) to catch structural and content errors, normalizes identifiers (NPI, taxonomy, payer IDs), and supports test vs. production modes. Produces human-readable previews and hashes for integrity, and feeds validation results back to claim records to reduce rework and increase first-pass acceptance.
Delivers reusable connectors to transform internal claim data into payer-specific CSV schemas or API payloads, manage schema versions, and handle secure transport (SFTP with key management, TLS, optional PGP encryption, OAuth2/API keys). Includes a mapping UI with templates, field-level validations, and test fixtures for quick onboarding of new payers without custom code. Connection health checks and retries are built in to maintain reliable, compliant transmissions.
Provides a step-by-step workflow for payers that require manual portal submissions, pre-packaging files with correct names and metadata, showing tailored instructions, and capturing timestamped proof (confirmation numbers, screenshots, and upload receipts). Tracks completion status, associates evidence with the batch, and triggers reminders before cut-offs. This creates an auditable trail and reduces the risk of missed or late submissions when automation is not possible.
Implements a queue-based orchestrator that groups claims by payer and channel, computes optimal batch sizes, and enforces rate limits and concurrency to avoid rejections. Schedules submissions around payer cut-off windows with time zone awareness and predictive backlog warnings. Supports pause/resume, deduplication, and idempotent replays, and surfaces schedule commitments to CarePulse dashboards so teams can proactively manage high-volume days.
Continuously ingests and parses acknowledgments (e.g., 999/277CA, CSV receipts, API responses), correlates them to batches and individual claims, and updates statuses through a clear submission lifecycle. Implements automatic retries with exponential backoff for transient faults and routes hard rejections to a work queue with root-cause details and suggested fixes. Provides alerts for cut-off risk, aggregates KPIs (first-pass acceptance, rejection rate, mean time to resubmit), and writes an auditable timeline for compliance reporting.
End-to-end status tracking that ingests payer acknowledgments and portal receipts (e.g., 999/277CA for EDI) and translates them into clear states: Accepted, Pending, or Rejected with reason codes. Links directly back to the export and the exact records to fix, enabling quick corrections and re-submission.
Implement a secure, scalable ingestion pipeline for payer acknowledgments (e.g., X12 999 and 277CA) via AS2 and SFTP, with support for PGP encryption, certificate rotation, and idempotent processing. Parse and validate ISA/GS/ST envelopes, correlate acknowledgments to outgoing submissions using control numbers, deduplicate files, and extract per-claim/visit statuses and reason codes. Persist both raw files and normalized artifacts, handle TA1/interchange errors, and expose processing health metrics, retries, and alertable failures. Deliver near real-time updates to downstream Receipt Loop components while maintaining HIPAA-compliant handling of PHI.
Provide a connector framework to retrieve receipts and acknowledgments from payer portals that lack EDI, using native APIs when available or secure headless browser automation where permitted. Store credentials in an encrypted vault, support MFA flows (e.g., OTP/app prompts) through delegated tokens, schedule polling with exponential backoff, and ingest email or PDF receipts via a secure parsing pipeline (including OCR when necessary). Normalize retrieved artifacts to the same schema as EDI, respect portal terms of use, and provide robust error handling, fallbacks, and observability for connector health.
Translate heterogeneous acknowledgment payloads into a canonical state model of Accepted, Pending, or Rejected, enriching each item with payer-specific reason codes and human-readable guidance. Maintain versioned mapping tables per payer, support rapid updates to new codes, and record original raw codes for traceability. Aggregate multi-stage acknowledgments into the most relevant current state while surfacing timestamps and sources. Provide a configuration UI/service to manage mappings and display concise, actionable messages that indicate likely fixes.
Establish end-to-end linkage from each acknowledgment back to the originating export batch and the exact records (claims/visits) it affects. Persist identifiers such as file names, batch IDs, control numbers, and segment references to enable deep links to the source record and field-level context. Support one-to-many and many-to-one relationships across batches and corrections, enforce role-based access, and surface lineage in the UI so users can navigate from a rejection directly to the item requiring attention.
Enable an accelerated correction flow that can be launched from a rejected item, pre-populating relevant fields, validating edits against payer and EDI rules, and saving changes as a new version. Regenerate the export payload for the corrected records, prevent duplicate submissions, and route the resubmission to the correct destination with proper control numbers. Track resubmission attempts and outcomes, support optional approval steps, and update Receipt Loop statuses automatically upon new acknowledgments while preserving a complete history.
Provide a dashboard that summarizes Accepted, Pending, and Rejected counts by payer, batch, and time range, with filters, trends, and drill-down to affected records. Trigger configurable email and mobile push notifications for new rejections, prolonged pending states, and connector/ingestion failures. Include SLA timers, aging indicators, CSV export, and multi-tenant scoping, ensuring time zone awareness and accessibility on mobile devices to align with CarePulse’s mobile-first approach.
Capture an immutable, tamper-evident audit trail of submissions, acknowledgments, user actions, corrections, approvals, resubmissions, and configuration changes. Store hashed references to raw and normalized artifacts, enforce least-privilege access, and encrypt PHI in transit and at rest. Provide retention controls (e.g., seven-year retention), legal hold, and one-click export of audit-ready reports showing who did what and when, aligning with HIPAA and SOC 2 expectations.
A focused workbench for export exceptions where users can edit fields inline with compliance guardrails, apply corrections across similar claims, and add standardized reason notes. Every change is audited, synced to source records when appropriate, and ready for one-click re-export.
Provide inline editing of exception-related fields directly within the Fix-Forward Queue with payer- and state-specific validation rules, field masks, and dependency checks. Enforce guardrails that block noncompliant combinations (e.g., visit duration vs. service code constraints), surface real-time error messages and corrective suggestions, and restrict edits based on role permissions. Support autosave with optimistic concurrency, dirty-state indicators, undo for the last action, and keyboard-first navigation. Preserve mobile-first usability with responsive layouts and accessible controls.
Detect and group exceptions that are materially similar using configurable rules (payer, error code, service line, date range, location, caregiver) and enable preview-and-apply bulk corrections. Allow users to scope changes to selected fields, simulate impact with a diff view, and apply changes atomically per claim with partial-failure reporting and easy rollback. Provide progress feedback, rate limiting, and safeguards to avoid over-application (e.g., cap batch size, require confirmation for high-impact updates).
Offer a curated library of standardized reason notes with payer mappings and templates, requiring a note for specific change types and automatically attaching the selected reason to audit logs and export payloads where supported. Support tokenized templates (e.g., {service_code}, {date}) autocompleted from context, allow agency-level customization with admin approval workflow, and provide search, favorites, and recently used notes. Ensure consistency for audits and facilitate downstream reconciliation by including normalized codes.
Record an immutable, append-only audit trail for every change in the Fix-Forward Queue including before/after values, user, timestamp, reason note, source of change (UI, bulk, API), and correlation IDs to linked records. Provide field-level versioning with a readable timeline, exportable audit reports (CSV/JSON), and APIs for compliance review. Enforce tamper-evidence, time synchronization, and retention policies aligned with regulatory requirements.
Propagate approved corrections from exceptions back to source records (e.g., visit notes, caregiver profile, payer settings) when appropriate, using idempotent updates and provenance tagging. Detect and resolve conflicts via optimistic locking and a human-friendly diff/merge screen, with options to keep source, keep fix, or merge field-by-field. Queue background sync jobs with retries, send notifications on conflicts, and expose a sync status indicator per item.
Enable a one-click re-export that bundles corrected items, runs preflight checks (completeness, format, payer-specific rules), and submits via the appropriate connector (e.g., EDI, CSV, API). Provide idempotent submission with export receipts, per-item status, retry with exponential backoff, and clear error messaging for any remaining blockers. Maintain an export ledger to prevent duplicates and support audit-ready re-export reports.
Provide robust triage tools including advanced filters (payer, error code, severity, age, assignee), saved views, sorting, and bulk selection. Allow assigning items to users or teams, show SLA badges and aging indicators, and support real-time counts with websocket updates. Offer keyboard shortcuts, pagination/infinite scroll, and notifications for new assignments or nearing SLAs to keep work flowing efficiently.
A continuously curated rulefeed that monitors payer changes and updates Portal Presets automatically. Users get concise change alerts plus a sandbox mode to test exports against the new rules before go-live, preventing surprise denials when payers shift requirements.
Continuously monitor and ingest payer policy updates from payer portals, EDI companion guides, bulletins, APIs, and uploaded documents; normalize them into the RulePulse schema; detect and classify deltas affecting documentation fields, billing codes, export formats, and timing; tag by payer, plan, region, line of business, and effective/expiry dates; deduplicate noise; surface a QA review queue; and publish validated changes to downstream services. Integrates with CarePulse by feeding Auto-Update of Portal Presets, Alerts, Sandbox Validation, and Audit Trail. Includes resilience (retries, backoff), observability (metrics, tracing), and secure handling of credentials and documents.
Automatically apply validated rule changes to Portal Presets with semantic versioning, human-readable diffs, pre-apply impact analysis, and rollback. Propagate updates to visit note templates, validation rules, export mappings, and scheduling constraints where applicable. Enforce guardrails (e.g., blocking unsafe updates, staging in test orgs first), idempotency, and dependency checks. Provide org-level configuration for auto-apply vs manual approval, and notify affected teams. Ensures configurations stay current, reducing denials and manual rework.
Provide a safe sandbox where users can run sample and historical exports against upcoming rules before go-live. Simulate effective dates, payer/plan variations, and grace periods; generate detailed validation reports with pass/fail status, line-level errors, and suggested remediations; compare current vs next-rule outcomes; and track results over time. Support batch selection by date range, payer, and caregiver; no writes to production; parity with production export formats; and API/CLI hooks for CI-style checks. Enables proactive fixes and prevents surprise denials.
Deliver concise, actionable change alerts summarizing what changed, who is impacted, effective dates, required actions, and links to diffs and sandbox tests. Support in-app notifications, email, and mobile push; per-user preferences (frequency, channels, payers, severity); agency-level defaults; and digest mode to group related changes. Include acknowledgment tracking, snooze/defer, localization, WCAG-compliant templates, and rate limiting. Integrates with Audit Trail and opens Sandbox with preloaded context.
Orchestrate the lifecycle of rules with effective/expiry dates, grace periods, and phased rollouts by payer, plan, region, and product line. Allow agencies to schedule adoption windows, set overrides (defer or accelerate) with reason capture and approval workflow, and preview conflicting rules. Provide calendar and timeline views, conflict resolution logic when overlapping rules exist, and guardrails to prevent noncompliant exports after grace. Coordinate with Auto-Update and Alerts to execute go-live safely.
Create an immutable, queryable audit trail capturing detected rule changes, approvals, preset versions, auto-update actions, user acknowledgments, sandbox test runs and outcomes, overrides, and go-live events. Provide time-stamped, actor-attributed records with diffs and artifacts; exportable audit-ready reports (PDF/CSV) by payer, plan, date range, and organization; and APIs/webhooks for external compliance systems. Enforce retention policies, encryption at rest/in transit, and role-based access. Demonstrates diligence and speeds payer audits.
Auto‑converts clinical notes and vitals into a short, friendly update after each visit, using lay terms, tone‑aware phrasing, and a simple status badge (Stable, Improving, Needs Attention). Highlights what was done, what changed, and anything to watch, while filtering out jargon and non‑shareable fields. Families grasp the essentials in seconds, reducing reassurance calls and confusion.
Implements a configurable filtering engine that ingests clinical notes, vitals, voice-clip transcriptions, IoT sensor readings, and visit metadata, then automatically removes or redacts non-shareable items (e.g., internal staff remarks, billing codes, sensitive diagnoses, free-text that may include PHI) before family distribution. Enforces consent and privacy policies at the agency, patient, and recipient levels, applying the minimum necessary principle and honoring exemptions. Provides an admin UI to map source fields to shareable categories, define redaction patterns, and test sample outputs. Integrates with CarePulse’s visit completion workflow so the digest is generated only after documentation is signed. Produces a sanitized payload for downstream summarization while logging decisions for auditability.
Transforms sanitized clinical inputs into plain-language, friendly text at a target reading level (e.g., Grade 6–8), replacing jargon with lay equivalents via a curated glossary and rule-based/ML paraphrasing. Supports tone profiles (reassuring, neutral, urgent-aware) that adapt phrasing without minimizing risk. Includes length controls, simple section headers, and bullet-style highlights for mobile readability. Provides guardrails to avoid medical advice, include appropriate disclaimers, and fall back to safe templates when confidence is low. Integrates with CarePulse’s content services for model versioning, feature flags, and QA review hooks.
Calculates a visit-level status badge (Stable, Improving, Needs Attention) using configurable rules that consider current vitals, short-term trends, adherence to care plan tasks, symptom changes, and clinician flags. Supports patient-specific baselines and alert thresholds, clinician overrides with required rationale, and an explanation snippet (e.g., "Improving: blood pressure trending toward baseline"). Exposes scores and inputs for audit and debugging. Runs synchronously at visit close-out and asynchronously if late-arriving IoT data changes the assessment, triggering digest updates when permitted.
Identifies and summarizes what was done (completed tasks, meds administered, exercises), what changed (vital deltas, symptom updates, mobility/behavior notes), and what to watch (early warning signs) from structured fields, voice-clip notes, and sensor events. De-duplicates across sources, ranks by clinical significance, and formats outputs as short, mobile-friendly bullets. Incorporates visit context (date/time, caregiver, route) and links to relevant care plan goals. Provides clinician review/edit surfaces prior to release when agency policy requires human-in-the-loop.
Manages recipient lists, consent records, and per-recipient delivery preferences (email, SMS link, family portal push). Enforces opt-in/opt-out, quiet hours, throttling, and rate limits. Supports language preference selection per recipient and patient, and sends previews to clinicians when required. Tracks delivery status, bounces, opens (where permissible), and auto-retries with channel fallback. Integrates with CarePulse identity, patient profiles, and compliance settings to ensure only authorized recipients receive the digest.
Creates an immutable audit log for each digest generation and delivery, including inputs used (field list, timestamps), applied redactions, model/glossary versions, badge score rationale, clinician overrides, recipients, and delivery outcomes. Attaches a read-only snapshot of the digest to the visit record for future reference and one-click inclusion in CarePulse’s compliance reports. Supports export to CSV/PDF and secure sharing for audits, with retention aligned to agency policy.
Provides multilingual digest generation and UI localization for common agency languages, with right-to-left support where needed. Ensures accessibility with screen-reader-friendly structure, color-blind-safe status badge palette, high-contrast mode, readable font sizes on mobile, and alt text for icons. Offers a read-aloud option and downloadable plain-text versions. Maintains glossary entries per language to preserve lay meaning and tone. Configurable per patient and per recipient with safe fallbacks when a requested language is unavailable.
Lets agencies define share groups (e.g., Immediate Family, Care Proxy, Financial Contact) with field‑level visibility and time‑boxed access. Invites are verified, expirable, and revocable, with an approval trail so only the right people see the right details. This keeps updates compliant and personalized without IT overhead.
Provide out‑of‑the‑box share group templates (e.g., Immediate Family, Care Proxy, Financial Contact) and allow agencies to create, clone, and customize groups per client or globally. Support membership management (invite, role/label, contact method), reusable templates, and assignment to individual clients or cohorts. Integrate with CarePulse’s client profiles, visit notes, scheduling, and reporting so that group membership determines what data is eligible to be shared. Include bulk assignment, search, and safeguards to prevent duplicate or conflicting groups. Ensure mobile-first management with offline-safe drafts and server-side validation.
Implement a field taxonomy and rules engine that maps data elements (e.g., vitals, meds, diagnoses, visit notes sections, schedules, addresses, billing fields, file attachments, IoT readings, voice-transcribed notes) to share groups. Provide a UI to configure visibility per field/section with presets and inheritance, plus redaction masks for partially visible fields (e.g., last‑4 only). Enforce rules across mobile and web UI, exports, and API responses, ensuring hidden fields are excluded or redacted at render and transport layers. Maintain configuration versioning and test previews (“view as group”). Validate changes with impact analysis and provide safe defaults aligned to compliance standards.
Enable per‑invite and per‑group access windows with start/expiry times, optional recurrence/renewal, and time zone awareness. Support read‑only vs. download permissions and session duration limits. Provide auto‑expire, manual extension, pending/paused states, and expiring access reminders. Enforce at token and session levels, including signed URL expiry for attachments. Log all expirations and changes for audit. Integrate with scheduling to suggest access windows aligned to visit plans or episode periods.
Support invitation delivery via email/SMS with secure, expirable, single‑use links. Require recipient verification using OTP and device binding; optionally collect light identity proofing (DOB check, relationship confirmation, or document scan where policy requires). Implement rate limiting, domain allow/deny lists, and signed tokens with short TTL and rotation. Provide fallback manual verification with reason capture and supervisor approval. Store verification outcomes as evidence and restrict access until verification passes. Integrate with CarePulse user directory for existing contacts and handle NPI/proxy identifiers where applicable.
Introduce a configurable approval workflow where designated approvers (e.g., clinician, care proxy, supervisor) must approve new shares, extensions, or scope changes before activation. Capture who approved, timestamps, scope diffs, and rationale, with immutable, tamper‑evident logs. Provide an approval queue, notifications, SLAs, and escalation paths. Generate audit‑ready artifacts showing what was shared, with whom, which fields, and for how long. Integrate with CarePulse reporting for one‑click export to auditors and link each event to the client record and scheduler context.
Allow immediate revocation of group membership, individual invites, or entire groups with instant token invalidation and cache purge across web, mobile, and API. Propagate changes to open sessions, revoke signed URLs, and trigger redaction on refresh. Support reason codes, notifications to affected parties, and optional silent revocation. Provide undo within a grace period where policy allows, with full logging. Ensure resilience with eventual consistency safeguards and background reconciliation jobs to catch stragglers. Reflect revocation in all exports and activity logs.
Maintain versioned consent records that capture consent scope, field mappings, recipients, durations, and legal language at the time of activation. Support e‑signature from clients or authorized proxies, multi‑language templates, and accessible presentation. Generate immutable PDFs and machine‑readable JSON, linked to the client and share group. Surface historical versions with effective and expiry dates and provide “what changed” diffs. Ensure signatures and versions are available in one‑click compliance reports and can be re‑presented to recipients on demand.
Delivers read‑only daily SMS summary links that are one‑tap, one‑time, and time‑bound, protected by a simple PIN/OTP. Links adapt to the recipient’s device, auto‑expire, and log view receipts so staff know when updates were seen. Families get effortless, secure access without installing an app; agencies keep tight control and auditability.
Generate signed, single-use URLs for daily read-only care summaries with configurable time-to-live (e.g., 24 hours by default) and immediate revocation on consumption or when a new link is issued. Tokens embed least-privilege claims (patient, date scope, content flags) and are resistant to tampering via rotating signing keys. Handle clock skew, regenerate flows, and edge cases (duplicate taps, offline opens) while enforcing strict cache-control headers and noindex to prevent persistence or discovery. Integrates with CarePulse scheduling and notes to assemble the minimal PHI snapshot at link creation time, not on open, to ensure consistency and auditability.
Send daily summary links via compliant SMS using a vetted gateway with delivery status callbacks, per-country sender ID rules, STOP/HELP handling, and rate limiting. Format messages with short branded URLs, preview text, and fallback long URLs when link wrapping is blocked. On open, detect device and render the optimal view (mobile-first, desktop-capable) without requiring app install, supporting default browsers and in-app viewers. Queue and retry undelivered messages, surface delivery outcomes to staff, and localize content where agency templates require.
Require a simple 4–6 digit code before the summary loads, supporting both on-demand OTP via SMS and optional pre-shared PIN per contact. Provide frictionless entry (numeric keypad, accessible focus) with configurable attempt limits, exponential lockouts, IP/device throttling, and secure resend flows that do not disclose account existence. Store only salted PIN hashes, never raw codes, and prevent code reuse within TTL. Maintain user-centric error messaging and support fallback verification for shared phones where allowed by agency policy.
Render a responsive, accessible, read-only summary showing today’s visit status, arrival window, key vitals/observations, and next steps with minimal PHI. Disable editing, form inputs, and file download endpoints; set strict no-store caching and content-security policies; obfuscate patient identifiers beyond what’s essential. Support large text, screen readers, high-contrast themes, and multilingual copy where configured. Ensure the view degrades gracefully on low bandwidth and avoids heavy assets so one tap loads quickly on budget devices.
Capture a full event timeline per link: SMS sent/queued/failed, link opened, OTP verified, view rendered, expiration or revocation reason, and subsequent access attempts. Record sanitized metadata (timestamps, delivery provider IDs, coarse geolocation, device type) without logging PHI in transport logs. Expose receipts in CarePulse for staff, enable exportable audit reports, and surface alerts when links aren’t viewed within a configurable window. Respect retention policies and provide search/filter across patients, recipients, and campaigns.
Provide an admin console for agencies to configure expiry duration, OTP length and mode (PIN vs OTP), delivery windows, resend rules, and per-recipient access scope. Support branded SMS templates with variable placeholders (patient first name initial, date, agency name) and preview/testing tools. Allow bulk sending for daily batches, ad-hoc resend with reason capture, and one-click revoke/regen. Enforce role-based permissions and change logs for all configuration edits.
Enforce TLS 1.2+ with HSTS, signed/expiring tokens (JWT or equivalent) with rolling keys, at-rest encryption for link metadata, and secrets management. Implement brute-force protections, WAF rules, and anomaly detection on OTP attempts and link opens. Ensure HIPAA-aligned practices: minimum necessary data in messages and views, BAAs with providers, documented retention and access controls, and regular vulnerability scans and penetration tests. Provide incident logging with tamper-evident storage and playbooks for key rotation and revocation.
Automatically translates updates into each recipient’s preferred language and reading level, with nurse‑approved phrasing and optional audio read‑outs. Includes a mini glossary for common terms (e.g., edema → swelling) to avoid alarming or confusing language. More relatives can understand and align on care without relying on a single translator.
Per-recipient profile storing preferred language(s), reading level (e.g., CEFR or grade level), dialect, tone sensitivity, audio read-out preference, and delivery channel (in-app, SMS, email). Integrated with CarePulse’s contact directory and care teams, this profile is applied at send time to select the correct translation, simplify phrasing to the appropriate reading level, apply nurse-approved glossary substitutions, and attach audio read-outs when requested. Supports fallbacks (e.g., if a dialect is unavailable, use the base language), per-message overrides, and consent tracking. Syncs across mobile and web, enforces role-based access controls, and records an audit trail for profile edits.
Server-side service that translates outbound updates (visit summaries, schedule changes, medication reminders) into each recipient’s preferred language and simplifies text to the configured reading level without losing clinical accuracy. Applies nurse-approved phrase library and mini glossary to replace clinical terms with plain-language equivalents and avoid alarming wording. Preserves structured placeholders (names, dates, vitals) and units, detects negations, and handles time-sensitive content. Batch-processes multi-recipient messages, supports retry logic and rate limiting, and returns per-recipient confidence scores. Integrates with CarePulse messaging APIs and adheres to HIPAA-compliant data handling, encryption, and logging standards.
Centralized, versioned repository of clinically reviewed phrases and term mappings (e.g., edema → swelling) per language and dialect, with context tags (symptoms, medications, risks) and contraindicated phrasing lists. Includes an editorial workflow for nurses to propose, review, approve, and publish updates, with rollback and change history. Integrates with the translation engine to enforce substitutions and tone guidance at render time. Supports agency-level customization, synonyms, examples, and inline tooltips for recipients to ensure consistent, reassuring wording across all messages.
Text-to-speech generation for each translated message using high-quality, nurse-approved voices per language, with adjustable speed and optional SSML for correct pronunciation of names and medications. Provides tap-to-play in-app, audio attachments for email/SMS where supported, and a phone-call fallback for recipients without smartphones. Caches audio on-device with secure storage and automatic expiration, supports offline generation for common phrases, and logs playback events for audit and analytics. Respects accessibility settings and includes captions/transcripts for compliance.
Sender-facing preview that renders how a message will appear for each recipient, showing language, reading level grade, and highlighted glossary substitutions. Enables quick edits, per-recipient notes, and routing to a nurse for approval when confidence is low or content matches sensitive categories. Supports batch approval, scheduled send, and mobile-friendly layouts with side-by-side or carousel views. Integrates with CarePulse notification workflows and enforces approval gates for critical communications.
End-to-end logging of original text, translation versions, glossary rules applied, approver identity, timestamps, recipient preferences used, delivery status, read receipts, and audio playback events. Generates audit-ready, one-click reports linked to specific visits or incidents, integrating with CarePulse’s compliance reporting. Implements fine-grained access controls, retention policies, and export to CSV/PDF with redaction where required. Provides dashboards to track comprehension proxies (e.g., replay count) and surface languages or terms that need additional glossary refinement.
Shows a simple, forward‑looking timeline of upcoming visits, key care goals, and expected milestones, plus brief “How you can help” tips. Sets expectations about what happens next (e.g., therapy tomorrow, new medication pickup) and flags any dependencies. Families feel prepared and engaged, which reduces last‑minute questions and missed tasks.
Aggregate and normalize upcoming visits, care goals, milestones, tasks, medication events, and route data into a single forward‑looking timeline. Provide a canonical event model with start/end times, owners, dependencies, and status, fed by existing scheduling and care plan modules. Expose a timeline service API for mobile and web clients, with pagination, filtering (by patient, caregiver, timeframe), and real‑time updates via lightweight subscriptions. Ensure data freshness with incremental sync and conflict handling, and map events to compliance metadata so the timeline can feed audit reporting.
Enable clinicians to define, edit, and track patient‑specific care goals and expected milestones with target dates, progress indicators, and evidence links (e.g., last PT assessment). Display milestones inline on the timeline, automatically adjust their status based on incoming documentation and sensor signals, and surface slippage risk when targets are approaching without progress. Support templates for common conditions (e.g., post‑op, CHF) and allow agency‑level customization.
Model and detect prerequisite relationships (e.g., prior auth, lab result, medication pickup) for timeline events. When prerequisites are unmet or at risk, flag the related visit or milestone with clear badges and callouts, and generate suggested remediation tasks. Integrate with tasking to assign owners and due times, and show dependency chains to reduce missed steps. Provide simple risk scoring based on due dates, completion status, and historical delays.
Generate brief, role‑appropriate tips for each upcoming event using rules and templates driven by the patient’s plan of care, goals, and recent activity (e.g., "Have the new inhaler ready for tomorrow’s visit"). Allow caregivers to edit or pin tips, and localize for multiple languages at a sixth‑grade reading level. Ensure tips exclude sensitive PHI when shared externally and link to simple checklists where applicable.
Deliver timeline views tailored for operations, field caregivers, clinicians, and family members, each with scoped data visibility. Implement HIPAA‑compliant sharing via consented invites or time‑limited secure links with PHI redaction rules. Provide per‑role filters (e.g., my patients, my shifts), and allow agencies to configure which event fields appear in family view. Log access and sharing events for audit.
Send proactive reminders and daily/weekly digests summarizing upcoming visits, milestones, and flagged dependencies. Support push, SMS, and email with per‑user preferences, quiet hours, and escalation rules for high‑risk items. Include deep links back to the timeline and one‑tap completion for simple prep tasks, with delivery and engagement tracking to measure effectiveness.
Provide offline access to the next 7–14 days of timeline data on mobile with local caching, optimistic updates, and background sync. Implement record‑level delta synchronization and conflict resolution policies (e.g., last‑writer‑wins with audit trail, or field‑level merge for notes). Clearly indicate offline state and pending changes, ensuring critical actions (acknowledging a tip, marking a task done) are queued and reliably synced.
Per‑contact notification settings that respect quiet hours, allow topic filters (meds, therapy, vitals), and choose cadence (daily digest, weekly roll‑up, urgent‑only). Smart bundling prevents alert overload while ensuring critical items still break through. Families receive the right information at the right time, creating trust without constant pings.
Provide a unified mobile-first and web settings experience to configure notification preferences at the individual contact level (e.g., each family member or caregiver) across topics, cadence, quiet hours, and delivery channels. Include secure backend APIs to read/write preferences, role-based access (family, caregiver, ops admin), sensible defaults, and bulk-apply templates at the agency level. Preferences must sync in real time across devices, respect user time zones, and be resilient offline with queued updates. Ensure accessibility (WCAG AA), localization, and a clear preview of what a recipient will receive given current settings.
Enable per-contact quiet hours with flexible schedules (daily windows and exceptions), automatic time zone handling, temporary Do Not Disturb timers, and granular overrides for urgent/critical events. Non-urgent alerts are deferred to the next allowed window; critical alerts break through with distinct presentation and optional confirmation by the sender. Include escalation rules (e.g., if not acknowledged within X minutes, retry or switch channel), and audit all overrides for compliance. Provide a simple UI to test whether a sample alert would deliver now or be deferred.
Define and manage a versioned taxonomy that maps platform events (meds, therapy, vitals, schedule changes, compliance flags, messages) to user-facing topics. Allow agencies to enable/disable topics and customize mappings within guardrails. Surface topic filters per contact so recipients can opt in/out by topic while preserving mandatory compliance notifications. Provide an admin tool to validate mappings, a fallback classification for unmapped events, and analytics to show topic distribution and opt-in rates.
Implement a digest builder that aggregates non-urgent events per contact and topic into scheduled daily and weekly summaries. Support configurable send times, localized date/time formatting, and accessible, branded templates with deep links to full context. Include idempotent generation, retry policies, handling of missed windows (e.g., catch-up digests), and storage of rendered artifacts for re-send and audit. Summaries should include key highlights (e.g., vitals trends), counts, and clear reasons why items were included or excluded based on settings.
Create server-side logic to bundle related events within configurable time windows, de-duplicate near-identical alerts, and apply rate limits per contact and topic to prevent alert storms. Implement suppression rules (e.g., minimum spacing between similar alerts) and dynamic backoff during spikes, while ensuring urgency rules allow critical items to bypass throttling. Provide tunable parameters, A/B configuration support, observability metrics (bundle rate, suppression count, breakthrough rate), and transparent explanations attached to notifications indicating bundling decisions.
Support push, SMS, and email delivery per contact with selectable primary and fallback channels. Implement delivery and read receipts where available, timely failover (e.g., if push not delivered in X minutes, send SMS), and multi-channel escalation for critical alerts. Ensure compliance for messaging (opt-in/opt-out flows, STOP/HELP for SMS, verified sender domains, 10DLC registration) and cost controls (rate limiting, batching). Provide deep links to the app, device-level notification categories, and graceful degradation for recipients without the app installed.
Maintain immutable audit logs for preference changes, deliveries, suppressions, overrides, and breakthrough events with timestamps, actor identity, and reason codes. Capture and store explicit consent for each delivery channel, manage expirations, and support per-jurisdiction retention policies. Provide exportable, audit-ready reports and an admin query UI with filters (contact, patient, timeframe, topic, outcome). Ensure data is encrypted at rest and in transit, with least-privilege access and alerting on anomalous access patterns.
Instantly re-establishes lost sensor connections in the background, rotating through known channels and cached keys. If a device truly drops, it prompts a single-tap rebind with prefilled client pairing. Readings continue streaming and are backfilled, while a clean audit trail records the fix—preventing gaps in visit notes and keeping EVV aligned.
A background service that detects sensor disconnects and automatically re-establishes connections without user intervention. It cycles through known transport channels (e.g., BLE, Wi‑Fi, hub/LTE) using cached credentials, applies exponential backoff with jitter, and respects mobile OS constraints (iOS CoreBluetooth state restoration/background tasks; Android Foreground Service). It enforces battery and CPU budgets, aborts when a visit ends or a device is intentionally unbound, and emits structured events for UI and server-side listeners. The orchestrator degrades gracefully: if reconnection fails within a configurable threshold, it escalates to a one-tap rebind prompt. Telemetry and feature flags allow tuning of retry strategies per device model and firmware.
Encrypted, on-device storage of sensor pairing credentials and channel preferences that enables instant rebinds without re-entering secrets. Uses OS keystores (iOS Keychain/Android Keystore) with hardware-backed protection, per-client scoping, and key TTL/rotation policies. On reconnect attempts, the module rotates through known channels and performs a lightweight re-auth handshake; it handles key invalidation, revocation on unbind, and migration across app updates. Supports multiple sensors per client, conflict resolution, and ensures keys never leave the device, aligning with HIPAA/SOC2 practices.
A minimal-friction UI that appears only when automatic reconnection exceeds a time threshold or definitively fails. It preselects the active visit’s client and most likely sensor, validates proximity/identity, and completes rebind with a single tap. Guardrails prevent cross-client pairing, enforce role-based access, and work offline-first with queued confirmations. Includes accessibility compliance, localization, clear progress/error states, and deep links from notifications. Prompts are rate-limited to avoid alert fatigue and dismiss automatically on successful background rebind.
Local buffering and resumable upload of sensor readings to prevent data gaps in visit notes. During disconnects, readings are timestamped, sequence-numbered, and encrypted at rest; upon reconnection, the client performs ordered, idempotent backfill with de-duplication and gap detection. Clock skew correction, provenance tagging, and partial-gap flags ensure clinical context is preserved. Storage quotas and eviction policies protect device resources, while backpressure management maintains app responsiveness. The ingestion API supports resume tokens and validates ordering to guarantee continuity end-to-end.
Logic that keeps Electronic Visit Verification timestamps accurate across disconnects and rebinds. It reconciles sensor timelines with EVV check-in/out, marks and auto-resolves brief drops, and raises exceptions when gaps exceed jurisdictional thresholds. Generates EVV-consistent events, aligns with scheduling windows, and integrates with external EVV providers via API/webhooks. Caregiver-facing hints surface only when action is required, minimizing disruption while preventing claim rejections and penalties.
An immutable, append-only log of connection states and rebind activities tied to the visit, client, caregiver, and device. Each entry captures timestamp, device fingerprint, channel used, reason codes, outcome, duration, and data continuity status, with secrets redacted. Logs are tamper-evident (hash-chained), retained per policy, exportable in one-click audit reports, and queryable in the admin console. Correlation IDs link app telemetry, server ingestion, and EVV events to provide a clean compliance narrative.
Predicts battery depletion days in advance using usage patterns and last-seen voltages. Flags high-risk devices on the day’s schedule, suggests battery swaps, and adds spare reminders to caregiver prep. Prevents mid-visit sensor shutdowns and the missed vitals that trigger rework or denials.
Implement ingestion and normalization of battery-related telemetry from IoT sensors and mobile devices, including voltage readings, last-seen timestamps, transmission frequency, and usage events. Support vendor APIs, webhooks, MQTT/BLE gateways, and manual entry fallbacks. Normalize units and sampling rates, de-duplicate records, handle clock skew, and map each reading to the correct device, patient, and upcoming visit. Provide offline caching on mobile with retry, error handling with backoff, and health metrics for data freshness. Ensure data is HIPAA-safe, encrypted in transit/at rest, and constrained to least-necessary fields for prediction.
Deliver a predictive service that estimates days-to-depletion per device using last-seen voltages, historical discharge curves, temperature and usage patterns, and device model characteristics. Output a predicted depletion date with confidence bounds and a health score, updating on new telemetry and at least nightly. Provide model versioning, per-model calibration, fallback heuristics when data is sparse, and configurable horizons (e.g., 1, 3, 7 days). Expose results via API and internal cache with SLAs, include guardrails against stale inputs, and support A/B evaluation for threshold tuning.
Classify devices as low/medium/high risk for the current and upcoming visit windows based on predicted depletion date, confidence, and data freshness. Allow configurable thresholds per device type and care program, including conservative modes for critical patients. Include rules for stale or missing telemetry (e.g., auto-elevate risk). Provide overrides and justifications, with audit of who changed thresholds and when.
Integrate risk outcomes into the daily schedule and route views by flagging visits linked to high-risk devices with clear, accessible indicators. Surface inline suggestions such as "Swap battery at start of visit" with estimated time impact and required battery type. Provide quick actions to confirm swap done, view device details, and re-check prediction post-swap. Ensure mobile-first UI, offline tolerance, and WCAG-compliant color/contrast with icon + text redundancy.
Automatically add spare battery reminders to the caregiver’s prep checklist based on the day’s assigned visits and predicted depletion risk, calculating required quantities and battery types. Sync reminders to mobile, allow print/export, and track completion status. Adjust reminders dynamically if routes change, and avoid duplicate suggestions across clustered visits. Provide admin configuration for default spare counts and vendor-specific battery mappings.
Send proactive notifications when a device is predicted to deplete within configurable horizons or during a scheduled visit window. Support in-app, push, and SMS channels with quiet hours, rate limiting, and opt-in/out preferences. Provide escalation to on-call supervisors when high-risk alerts are unacknowledged, with clear context (patient, device, predicted depletion date, next visit). Localize content and keep messages HIPAA-minimal while actionable.
Record prediction inputs, model version, outputs, thresholds applied, alerts sent, user overrides, and swap confirmations with timestamps and actor identity. Integrate with CarePulse’s one-click, audit-ready reports to demonstrate proactive risk management and reduce denial risk due to missed vitals. Provide export to CSV/PDF, retention policies, and integrity checks to ensure reports are defensible during audits.
A 15‑second pre-visit diagnostic that verifies pairing, signal strength, last reading time, clock sync, and a sample value check. Clears green when ready or offers step-by-step self-heal actions when not. Cuts room-entry troubleshooting and speeds caregivers to care tasks.
Implements a single-tap, time-boxed diagnostic that runs all checks (device pairing, connectivity, clock sync, last reading freshness, and sample value sanity) in parallel with a hard 15-second completion target. Orchestrates asynchronous probes with graceful timeouts, aggregates results into a normalized readiness payload, and exposes a consistent interface to the app shell. Provides progress feedback, cancellability, and resilient retries within the time budget. Supports offline-degraded behavior where only local checks run. Integrates with device SDKs, CarePulse’s session context (scheduled visit, caregiver, patient), and telemetry for performance monitoring. Ensures permissions prompts are pre-fetched and handled without blocking the SLA. Outcome is a deterministic pass/warn/fail signal consumed by UI and compliance logs.
Detects and verifies the presence and pairing status of required sensors (e.g., BLE, NFC, or Wi-Fi devices) for the upcoming visit. Confirms pairing tokens, supported services, battery level, and firmware compatibility against a maintained device support matrix. Maps detected devices to the patient’s care plan requirements and flags missing or mismatched devices. Normalizes vendor-specific responses into standardized states (paired, discoverable, missing, incompatible) and surfaces remediation hints. Writes results to the visit context and caches device identities in the caregiver’s device registry for faster subsequent checks.
Assesses network and local radio conditions relevant to the visit. Measures internet reachability (API ping/latency), Wi-Fi/cellular availability, and expected stability. For sensors, samples BLE RSSI and connection quality to estimate reliability within the care environment. Applies configurable thresholds to classify results as pass/warn/fail and provides actionable guidance (move closer to router, switch to cellular, reposition near sensor). Operates within the 15-second SLA, avoids excessive battery drain, and records metrics for route-level coverage insights. Degrades gracefully when offline by running only local checks and flagging sync risks.
Validates device clock alignment and data freshness. Compares mobile OS time to trusted sources (server/NTP) to detect drift beyond a configurable threshold, and confirms sensor clocks where supported. Checks the latest available reading timestamp per required device against care plan freshness windows to ensure audit-ready timing. Handles time zones, daylight saving, and offline scenarios by queuing a resync when back online. Provides remediation options (auto time sync, prompt to enable network time) and writes any detected drift and freshness status into the diagnostic results for compliance reporting.
Performs a lightweight, non-clinical sample read from each required sensor to validate communications and plausible value ranges without storing it as patient data. Executes vendor-recommended dry-run or self-test commands where available; otherwise, captures a transient reading flagged as diagnostic-only and excluded from the clinical record. Applies device-specific plausibility rules and warm-up handling to avoid false failures. Ensures permissions and privacy safeguards, and returns a simple pass/warn/fail per device with remediation hints. Results are aggregated into the overall readiness signal.
Delivers contextual, step-by-step remediation when a check fails or warns. Generates targeted actions such as toggling Bluetooth, re-pairing, moving closer to a sensor, enabling network time, or updating firmware, and automates safe actions where possible. Provides estimated time-to-fix, clear visual affordances, and accessibility-compliant instructions with localization support. Allows retry of individual checks or a full rerun within the session, tracking attempts and outcomes. Offers escalation paths (in-app support contact, knowledge base) and logs self-heal steps for quality and training analysis.
Presents a concise green/yellow/red readiness banner with detail drill-down and integrates policy-based gating of the Start Visit action. Allows configurable overrides by role with reason capture and timestamp. Persists a signed diagnostic summary (checks run, results, durations, versions, and actor) into the visit record for audit readiness and includes it in CarePulse one-click compliance reports. Supports admin configuration of thresholds, device requirements by visit type, and gating rules. Implements accessible UI (color-blind-safe indicators, haptics) and exposes results via API/webhooks for downstream reporting.
A live timeline per client that visualizes device heartbeats, gaps, RSSI strength, and firmware version. Highlights chronic dead zones and trend windows, with placement tips for hubs or extenders. Gives IoT Integrators and RNs fast insight to fix root causes, not just symptoms.
Implement near real-time ingestion and storage of device heartbeat telemetry per client and device, rendering a mobile-first, horizontally scrollable timeline that auto-refreshes without page reloads. Each device appears as a distinct lane with color-coded states (healthy, degraded, offline) and time-aligned markers for heartbeats. Support WebSocket/SSE for live updates, 24–72h time windows, pinch-to-zoom, and quick range presets (Last 2h, 24h, 7d). Integrate with the client profile in CarePulse, respecting existing auth scopes and tenancy. Persist user-selected view settings per user/device. Optimize for low-latency rendering on mid-range mobile devices via virtualized drawing (e.g., canvas/WebGL) and batched updates.
Normalize and display RSSI values along the timeline with a color gradient and labeled threshold bands (Excellent, Good, Fair, Poor) configurable per device class. Provide tooltips showing min/avg/max over selected windows, and smoothing options to reduce noise while preserving drops. Surface brief annotations for antenna type or placement metadata if available. Ensure units (dBm) and sampling cadence are consistent, and handle missing or stale readings gracefully. Expose a settings panel to adjust thresholds at tenant or site level, and store changes for auditability.
Detect and mark intervals where expected heartbeats are missing beyond a configurable tolerance, highlighting gaps directly on the timeline with start/end timestamps and duration badges. Compute time since last heartbeat and show an "Offline since" banner for prolonged outages. Support device-specific heartbeat cadences, ignore scheduled maintenance windows, and suppress duplicate noise during known network incidents. Provide a summary widget aggregating total downtime and mean time to recovery over the selected range. Expose simple API endpoints to fetch gap events for downstream reporting.
Overlay firmware versions as inline labels and change markers on the timeline, indicating when a device upgraded or downgraded. Cross-check against a firmware catalog to flag deprecated or vulnerable versions and annotate known issues. Allow filtering the timeline by firmware version and provide quick links to device details for remote update actions where available. Ensure version metadata is cached and displayed even if signal data is sparse. Include audit logs for version state changes.
Analyze historical RSSI and gap patterns to identify chronic low-signal areas and recurring outage windows for each client location. Surface these as shaded trend windows on the timeline with confidence scores, recurrence patterns (e.g., weekdays 6–9 PM), and contributing factors (low RSSI, high packet loss). Provide a drill-down view summarizing last 7/30 days with heatmaps and statistics (percent time below threshold, longest outage). Support geotagged devices and room-level tags when available; otherwise infer from device assignment and visit schedules. Allow export of a brief trend summary for stakeholders.
Generate context-aware placement tips when chronic weak signal or frequent gaps are detected, recommending hub/extender relocation or antenna adjustments. Combine RSSI gradients, device density, and building metadata (if provided) to suggest better placements and expected impact (e.g., +8–12 dBm). Provide step-by-step guidance, validation checks (retest RSSI), and a feedback loop for users to confirm outcomes to refine future recommendations. Clearly indicate assumptions and limits of recommendations to avoid overconfidence.
Deliver tailored default views and filters for IoT Integrators vs RNs (e.g., integrators see device lanes and technical metrics by default; RNs see simplified health states). Provide intuitive pinch-to-zoom, pan, and time-range presets, plus quick filters (device, room, firmware, state). Enable one-click generation of a shareable snapshot (PNG/PDF) of the current timeline view with captioned context (time range, filters, client), adhering to CarePulse access controls and excluding PHI beyond device identifiers permitted by role. Store recently used filter sets per user for rapid reuse.
Guided device replacement that transfers pairing, calibration, and documentation to a backup sensor in under a minute. Auto-updates visit notes and chain-of-custody logs, and notifies stakeholders of the swap. Keeps care moving without IT tickets while preserving compliance.
A mobile-first, step-by-step wizard that guides caregivers through replacing a failing or expired sensor with a backup in under a minute. The flow includes scanning the backup device via QR/NFC/BLE, confirming the associated patient and active visit, authenticating the caregiver (PIN/biometric), and presenting real-time checks (connectivity, battery, firmware, compatibility). It provides clear progress indicators, inline tips, and recoverable error handling (retry scan, manual entry, cancel/rollback). The wizard operates offline by caching the swap event and deferring server updates until connectivity resumes, with conflict resolution rules to prevent duplicate or out-of-order swaps. Accessibility, localization, and role-based access are supported. Telemetry captures completion time and failure reasons to continuously improve guidance and reliability.
Securely transfers active device pairing and patient/visit association from the old sensor to the backup sensor, ensuring a seamless data stream with no duplicate or missing records. The process handles BLE pairing, key exchange, and device registry updates, then gracefully unpairs or revokes the old sensor while bringing the new sensor online. It timestamps the swap event, stops the old data feed, starts the new feed, and guarantees idempotency if a retry occurs. APIs update the server-side device-to-patient mapping, and the mobile client persists state for recovery after app restarts or network loss. All changes are auditable and respect role permissions.
Migrates applicable calibration parameters from the old sensor to the backup sensor and verifies accuracy before resuming monitoring. If direct transfer is not compatible (e.g., different model/firmware), the system runs a 30–60 second guided auto-calibration and validates baseline readings against acceptable ranges. The workflow records calibration method, parameters, and validation results, and enforces a fail-safe that blocks completion if accuracy cannot be verified. Cross-model mapping rules and firmware compatibility matrices are maintained server-side and cached client-side for offline operation.
Evaluates swap eligibility before execution by checking device model compatibility, firmware version, battery level thresholds, maintenance/sterility status, program-specific requirements, and policy constraints (e.g., payer/regional rules). Hard blocks are enforced for noncompliant swaps with clear reasons and next-step guidance, while soft warnings are surfaced for non-critical issues. The system recommends compliant backup devices from available inventory if the selected device fails checks. All gate decisions are logged for auditability and can be configured by administrators.
Automatically generates an immutable chain-of-custody record for each swap, capturing old/new device IDs, patient and caregiver identifiers, timestamps, location (if permitted), reason codes, calibration checksum, and pre/post reading snapshots. The event is digitally signed, tamper-evident, and stored in the compliance data store, with retention policies applied. The log is instantly available in one-click, audit-ready reports and exportable via API and standardized formats. Optional caregiver and supervisor e-signatures can be required based on policy.
Updates the active visit note in real time with a structured swap annotation that includes device details, timestamps, calibration status, and any care impact notes. It adjusts charts to indicate the swap point, reconciles any brief data gaps, and links to the chain-of-custody entry. The update synchronizes to the EMR/export targets and respects documentation templates by payer/program. Tasks can be auto-generated to verify post-swap readings or perform follow-up checks.
Sends role-based, templated notifications about the swap to relevant stakeholders (e.g., supervisor, family, compliance) via push, SMS, or email, including deep links to the event and visit context. Notifications respect user preferences, quiet hours, and privacy settings, and they are queued for delivery with retries if offline. Throttling and deduplication prevent alert fatigue, and all deliveries are logged with status and receipt confirmations where available.
Client-locked pairing using QR codes and geofenced checks to prevent cross‑patient binds. Warns on mismatches, quarantines unknown devices, and enforces unpair workflows with reason codes. Protects data integrity and makes audits straightforward.
Implements a secure, client-specific QR-based pairing flow that binds caregiver apps to approved devices/sensors only for the intended client. QR codes encode an ephemeral, signed token (client ID, visit ID, scope, expiration) with no PHI, verified on-device before establishing the association over BLE/NFC/Wi‑Fi. Tokens are single-use and time-bound to prevent reuse. The flow prevents manual identifier entry, guides caregivers through a simple scan-and-confirm UI, and writes an immutable, tamper-evident pairing record containing token metadata, device fingerprint, caregiver ID, and timestamps. Integrates with CarePulse scheduling and client profiles to fetch valid tokens and ensures pairing is tied to the active visit context.
Validates each pairing attempt against configurable client geofences and scheduled visit windows to prevent cross-patient binds and misuse. Uses on-device GPS (with mock-location detection), network fallback, and accuracy thresholds to confirm the caregiver is within the allowed radius and within the appointment time (with grace periods). Policy-driven outcomes allow block, warn, or supervisor override. Captures precise lat/long, accuracy, and timestamp in the pairing record. Integrates with route sync and scheduling so validations align with live routes and planned visits; supports per-client radius configuration and agency-wide defaults.
Automatically quarantines unrecognized devices on detection, blocking pairing until an admin approves. Builds a device fingerprint from MAC/serial/BLE IDs and classifies by sensor type. Presents an admin approval queue with device details, attempted client, caregiver, time, and geolocation. Supports allowlists/denylists and auto-approval rules by vendor/model. Sends notifications to admins for pending approvals and logs quarantine reasons and outcomes. Approved devices can be assigned to a client or the organization with effective dates; denied devices are blocked with rationale recorded in compliance logs.
Detects and responds to pairing mismatches including client-device mismatches, out-of-geofence attempts, reused or expired tokens, or caregiver not assigned to the visit. Provides immediate in-app warnings with clear resolution steps, enforces policy-based blocks, and issues real-time notifications (push/email) to supervisors. Automatically creates incident records with metadata (who, when, where, device fingerprint, visit context) and requires acknowledgment. Includes alert throttling and escalation rules for repeated violations. Integrates with CarePulse notifications, compliance dashboards, and audit logging.
Provides a guided unpairing process requiring selection of standardized reason codes (e.g., device replacement, client discharge, correction of error) with optional notes, photos, and supervisor approval for high-risk categories. Enforces role-based permissions to restrict who can unpair and under what conditions. Captures full context (user, timestamps, geolocation, device fingerprint, associated visit) and records to an immutable audit log. Prevents silent or accidental unpairing and syncs all unpair events into compliance reports and client/device histories.
Generates configurable, one-click reports that summarize pairing and unpairing activity by client, caregiver, device, and date range, including geofence validations, visit linkage, violations, quarantine outcomes, and reason codes. Produces exportable CSV and PDF with digital signatures, timestamps, and integrity checksums. Supports secure, expiring share links and fine-grained filters. Integrates with CarePulse’s reporting module, enabling agencies to satisfy auditor and payor requests quickly with clear, traceable evidence.
Enables caregivers to perform QR-based pairing while offline by capturing the token, device fingerprints, and local GPS, marking the association as provisional. Defers geofence, policy, and token checks until connectivity resumes, then reconciles automatically. If validation fails, triggers incident workflows, notifies supervisors, and optionally auto-unpairs per policy. Clearly indicates provisional vs. confirmed states in the UI and can block visit documentation submission until confirmation. Handles clock drift by requiring network time sync during reconciliation and preserves a robust local audit trail for offline periods.
Locally caches readings when connectivity hiccups occur, then backfills them to the chart with exact timestamps and provenance once online. Shows queued/posted status so caregivers know nothing was lost. Maintains clinical completeness and EVV accuracy in dead zones.
Locally stores all visit events (check-in/out, vitals readings, route pings, voice note attachments, sensor packets) when connectivity is unavailable or unstable. Uses an encrypted write-ahead log with per-record metadata (UTC timestamp, device clock offset, caregiver ID, visit ID, source type, geolocation sample, integrity hash). Writes are atomic and resilient to app restarts and OS kills. Integrates with CarePulse data models so records can be replayed exactly once to the server. Ensures continuity of documentation, preserves EVV-critical fields, and isolates PHI at rest with platform keychain/keystore.
Detects network restoration and backfills buffered records to the server in order, preserving original timestamps and provenance. Implements retry with exponential backoff, batching by visit, and idempotent upserts using deterministic record IDs. Validates server acknowledgement before purging local entries. Handles partial failures, resumes interrupted uploads, and provides hooks to update UI counters. Aligns with CarePulse APIs and emits events for charts and schedules to reconcile as data arrives.
Provides real-time offline/online indicators and per-item states (Queued, Syncing, Posted, Error) within visits, charts, and the global activity tray. Shows counts and time since last sync, allows manual retry on failures, and links to error details. Displays a non-blocking banner during offline mode and a confirmation toast when backlog is cleared, reassuring caregivers that entries are preserved. Accessible, low-latency UI that works in constrained devices and aligns with CarePulse design system.
Captures EVV-required artifacts while offline, including accurate UTC timestamps, geolocation snapshots where available, caregiver identity, and device identifiers. Applies monotonic clock safeguards and corrects for drift on sync by reconciling with server time, while preserving original capture time for audit. Signs records with a local integrity hash to detect tampering and validates on server. Ensures audit-ready EVV trails and consistent compliance reporting even without connectivity.
Prevents duplicate or conflicting entries during backfill by using idempotency keys, sequence numbers, and server-side merge strategies. Detects overlaps (e.g., duplicate vitals or check-ins) and applies configurable policies (merge, last-write-wins, or prompt caregiver). Presents lightweight review prompts only when human input is required, minimizing disruption. Guarantees that charts and visit timelines remain accurate after reconnection.
Enforces local storage limits for buffered PHI, with compression for large payloads (audio, images) and automatic purge of items after confirmed server receipt. Provides early warnings when nearing quota, offers guidance to free space, and preserves the most recent and compliance-critical entries first. Operates within mobile OS background and disk constraints to avoid data loss and app instability.
Accepts IoT sensor readings and short voice clips offline, tagging each with device/source metadata and exact capture time. Queues audio for server-side transcription and sensor payloads for validation pipelines, with on-device checksums to ensure integrity. Maintains lightweight previews and allows playback while offline. On sync, associates assets with the correct visit note and updates charts automatically.
A real‑time rules brain that encodes each payer’s plan‑of‑care frequencies, spacing constraints (e.g., not back‑to‑back), and authorization caps by discipline. As schedulers drag or propose visits, it validates instantly and explains the “why” behind any block or warning. Route Orchestrators and RN Case Planners stop guessing and book confidently, preventing over/under frequency and costly authorization breaks.
A centralized, versioned catalog to encode payer-, plan-, state-, and discipline-specific plan-of-care rules, including weekly frequency targets, minimum/maximum spacing, daily limits, visit/time-based authorization caps, and effective date ranges. Provides an admin UI for creating, testing, and approving rule sets with citations, notes, and source attachments. Supports inheritance and patient-level overrides, JSON/CSV import, and validation-ready normalized schema. Exposes a read-optimized API and change webhooks for downstream caches in the Scheduler and Route Orchestrator. Maintains full change history and rollbacks to ensure traceability and safe updates.
Low-latency validation invoked on drag, drop, or propose actions in the Scheduler, returning allow/warn/block decisions within a 100 ms p95 budget. Responses include human-readable explanations, rule references, and reason codes suitable for UI tooltips and inline badges. Supports batch validation for multi-visit changes, partial-day constraints, and cross-discipline checks. Degrades gracefully with local rule caching and eventual sync when offline or degraded network. Internationalization-ready message templates and accessibility-compliant annunciation of warnings and blocks.
Real-time tracking of authorization balances per patient, payer, episode, and discipline, supporting both per-visit and time-based units (e.g., 45 minutes, 1 hour). Automatically decrements on tentative hold and final booking, restores on cancellation/no-show resolutions based on agency policy, and accounts for documented split visits. Configurable soft thresholds (warnings) and hard stops (blocks) with override workflows and audit notes. Displays remaining units in the Scheduler and exposes balances via API for Route Orchestrator optimization.
An episode-aware engine that models 30/60-day (or custom) plan-of-care periods with weekly frequency targets and permissible carryover logic. Computes compliance status for each week and episode in real time as visits are placed, highlighting under- or over-servicing against the plan. Supports recertification rollovers, mid-episode plan changes with effective dates, and payer-specific week boundary definitions (calendar week vs rolling). Provides summaries to RN Case Planners and feeds compliance KPIs to reports.
Enforcement of spacing constraints, including minimum and maximum days between visits, prohibition of back-to-back days, daily visit caps, and rest-day rules, scoped per discipline and payer. Considers weekends, holidays, and time-zone/daylight-saving transitions to avoid accidental violations. Handles companion rules such as required separation between disciplines or required sequencing (e.g., PT before OT start). Allows documented clinical overrides with reason capture and visibility to downstream reports.
A simulation service that validates proposed multi-week schedules and route drafts before committing, evaluating frequency attainment, spacing rules, and authorization consumption in aggregate. Supports what-if scenarios, comparing alternatives with conflict counts and projected authorization exhaust dates. Offers APIs for Route Orchestrator to request auto-adjust suggestions (e.g., shift by ±1 day) to achieve compliance with minimal disruption. Presents scenario diffs and guidance in the Planner UI.
Immutable audit logging of all validation decisions and overrides, including inputs (patient, discipline, proposed slot), rule set version, decision outcome, rationale, user, timestamp, and before/after authorization balances. Provides one-click, audit-ready exports per patient, episode, and date range in CSV and JSON, with embedded rule citations and timestamps. Integrates with CarePulse reporting to surface payer-specific compliance metrics and retains records per configurable retention policies.
Always‑on counters that show used vs. remaining visits per authorization window (week/month/episode), with color cues and a “days left to stay compliant” ticker. Updates live as you reschedule and supports multi‑discipline views. Users see risk before it becomes a denial, cutting rework and last‑minute scrambles.
Implements a performant service that calculates used vs. remaining visits per authorization window (week/month/episode) and per payer rules, updating instantly as visits are scheduled, rescheduled, canceled, or documented. Supports configurable window boundaries, time zones, overlapping authorizations, and episode-of-care logic. Applies inclusion/exclusion rules by visit status and type, partial-unit rounding (e.g., 15-minute units), and backdated documentation. Provides incremental recalculation and caching to keep UI counters always-on and responsive, emits events for UI components, and reconciles retroactive payer or authorization changes. Integrates with CarePulse scheduling, visit notes, and device/voice-driven completion signals to determine countable utilization.
Adds configuration and logic to compute quotas by discipline (e.g., PT, OT, ST, RN) and combined, honoring payer-specific aggregation, unit accounting (visits vs. minutes/units), and discipline inclusion/exclusion rules. Handles multiple concurrent authorizations, cross-coverage scenarios, and discipline mapping from agency codes to standardized disciplines. Provides UI filters and toggles to view per-discipline or rolled-up quotas and ensures parity between displayed counts and billing rules. Ships with editable payer templates and validation to prevent misconfigured rules.
Delivers always-on visual indicators that reflect utilization risk using accessible color cues (green/amber/red/grey) and a dynamic "days left to stay compliant" ticker per authorization window. Thresholds are configurable (e.g., percentage remaining, projected cadence shortfall), and tooltips explain the current state and next recommended action. Indicators update live as the schedule changes, support offline-read with background sync, and respect locale/time zone settings. Designed for mobile-first responsiveness and WCAG-compliant contrast.
Provides an interactive preview that shows how proposed scheduling changes will affect quotas and compliance before confirmation. When dragging, editing, or bulk-rescheduling visits, the UI displays projected remaining counts, risk state changes, and warnings about potential denials or underutilization. Includes low-latency calculations via pre-fetched authorization context, supports undo, and suggests compliant alternatives when conflicts are detected.
Captures a complete, immutable audit trail of quota-affecting events (schedule edits, documentation status changes, authorization updates), including actor, timestamp, source, and old/new values. Generates one-click, audit-ready PDF/CSV reports by patient, payer, authorization window, or timeframe, summarizing utilization, exceptions, and corrective actions. Integrates with CarePulse reporting, supports branding and electronic signatures, and redacts PHI according to export role and purpose.
Implements RBAC to control access to quota data: caregivers see only their caseload and minimal PHI; coordinators and managers can view/edit broader scopes; compliance officers can access audit views. Enforces API scopes, field-level masking, and least-privilege defaults. Logs access events, encrypts data in transit and at rest, and aligns with HIPAA and applicable regional privacy requirements without exposing unnecessary patient details in counters or indicators.
Provides an admin console to configure risk thresholds, color mappings, payer rule templates, discipline mappings, cadence definitions, grace periods, and holiday exceptions. Supports versioned configurations with preview and rollback, import/export for multi-agency setups, and validation to catch conflicting rules. Changes propagate safely with feature flags and background re-computation where needed to keep counters accurate.
One‑tap recommendations for the next compliant timeslot that honor plan‑of‑care rules, caregiver credentials, client preferences, and live route realities. Presents the top three slots with a short rationale (meets 2x/week spacing, within auth window, minimal detour). Schedulers place visits faster and keep teams on‑time and in‑policy.
Implements a centralized rules engine that evaluates candidate timeslots against each client’s plan-of-care (frequency per period, spacing between visits, time-of-day constraints), payer authorization windows (start/end dates, service units, daily/weekly caps), visit duration, and service-type rules. Integrates with CarePulse’s plan-of-care records and payer authorization data to produce pass/fail results with machine-readable reason codes. Supports hard vs. soft rules, multiple payers per client, and effective-dated rule changes. Exposes a scoring API consumed by Slot Assist to filter and rank only billable, policy-compliant slots, ensuring recommended times can be submitted and reimbursed without exceptions.
Validates caregiver eligibility for a proposed slot by checking active licenses/certifications, skill tags, background clearance, territory coverage, language, and union/contract constraints against the client’s service and preferences (e.g., continuity of care, gender/language preferences, do-not-assign lists). Pulls real-time caregiver availability and maximum daily/weekly hours to avoid overages. Produces an eligibility verdict with reasons (e.g., "license LPN required", "client prefers female caregiver"). Feeds Slot Assist with only caregiver-client-slot combinations that are safe, legal, and preference-aligned.
Calculates travel-time impact and lateness risk for inserting a visit into a caregiver’s live route by leveraging GPS location, current day schedule, visit durations, service location geocodes, and live traffic from the mapping provider. Computes incremental detour minutes, on-time probability, and buffer adherence while respecting parking/walk-in offsets and mandated rest/travel buffers. Returns a normalized score and key metrics for each candidate slot to help Slot Assist prioritize minimal-detour, on-time options.
Provides a mobile-first UI component that displays the top three compliant timeslots, each with a concise rationale string (e.g., "meets 2x/week spacing; within auth window; +4 min detour"). Supports one-tap placement that atomically books the selected slot, updates the caregiver’s route, and creates the visit in CarePulse scheduling. Shows confidence indicators, visit duration, and arrival window. Designed for accessibility (WCAG AA), fast interaction, and small-screen usability. Integrates with conflict detection to prevent double-booking at confirmation time.
Continuously syncs with schedule, authorization balances, and caregiver availability to invalidate stale recommendations when inputs change (e.g., new booking, cancellation, auth cap reached). Implements optimistic locking and atomic transaction boundaries on placement to prevent overlaps, over-allocations, or expired auth booking. Provides graceful fallbacks (auto-advance to next slot), and user notifications when a selection becomes invalid. Ensures Slot Assist remains trustworthy in dynamic, multi-user environments.
Captures and stores an audit record for each recommendation and placement, including input snapshot (rules, credentials, route metrics), rule evaluations, scores, rationale text, user actions, and timestamps. Exposes an audit view and export suitable for compliance reviews and payer audits, showing exactly why a slot was recommended or filtered out. Applies data minimization and role-based access controls to protect PHI while enabling transparent, defensible scheduling decisions.
Sets and enforces service-level targets for Slot Assist: p95 recommendation latency under 500 ms for typical day schedules, graceful degradation when traffic or auth services are unavailable (cached rules, last-known travel times), retry/backoff with circuit breakers, and offline-ready UI states with deferred placement when connectivity returns. Adds observability (tracing, metrics, structured logs) and alerting to maintain reliability during peak scheduling hours.
Enforces payer‑specific grace windows and min/max spacing automatically, flagging soft vs. hard stops and proposing allowed catch‑up patterns. Accounts for holidays, client cancellations, and weather exceptions with documented, audit‑ready reason codes. Keeps schedules flexible without slipping into non‑compliance.
Implement a centralized, configurable rules engine that models payer-specific grace windows (early/late arrival thresholds), minimum/maximum visit spacing, allowable frequencies per plan-of-care period, and constraint severity (soft warn vs. hard block). Rules must support effective dating, payer-level defaults with client-level overrides, and reference citations to payer manuals. Expose a deterministic API used by scheduling, routing, mobile, and reporting services to evaluate any proposed or completed visit. Persist decisions with rule IDs and versions to ensure reproducible, audit-ready outcomes. Provide admin UI to author, import, test, and stage rules before promotion to production.
Add live validation in web and mobile scheduling that evaluates visits against the rules engine on create, drag-and-drop, edit, or bulk actions. Flag violations as soft (warning with rationale) or hard (blocking) and display precise, human-readable explanations linking back to the rule and payer reference. Allow soft-stop overrides with required reason codes and capture who/when/why; block hard stops unless an approved exception policy applies. Operate with sub-200ms response time online and provide offline-cached evaluations with eventual sync. Log all decisions to an immutable audit trail for later reporting.
Provide standardized exception handling for holidays, client cancellations, weather events, provider outages, and facility lockdowns using a payer-mapped reason code taxonomy. Maintain region-aware holiday calendars and integrate with a weather service to suggest valid weather exceptions based on time and geolocation. Require selection of reason codes (and optional attachments like photos, voice notes, GPS stamps) when overriding soft stops or requesting hard-stop exemptions. Store all exception metadata with the visit, including evidence and approver, to produce audit-ready documentation. Ensure codes are configurable per payer and exportable for compliance reviews.
When a visit is missed, canceled, or out of tolerance, generate ranked, compliant rescheduling options that satisfy payer grace windows, min/max spacing, frequency limits, and client preferences. Consider caregiver availability, existing routes, travel times, and overtime thresholds to minimize operational impact. Present multiple patterns (same-day, next allowed day, redistributed across the week) with scores and rule rationales, and support one-click apply to update schedules and notify stakeholders. Respect holidays and exceptions, and re-validate choices in real time. Provide APIs to trigger suggestions from external workflows.
Enhance calendar, list, and route views to visualize grace windows as time bands around visits and indicate min/max spacing constraints between successive visits. Use color-coded compliance states (ok, soft risk, hard block) and inline tooltips that explain the active rule and remaining buffer. Support drag-and-drop with continuous compliance feedback and snap-to-allowed windows on mobile and web. Include accessibility accommodations (contrast, screen reader labels) and user preferences for visualization density. Ensure visuals remain accurate offline using cached rules and sync updates when online.
Generate payer-specific, one-click compliance reports that summarize on-time performance, violations by type and severity, exceptions with reason codes and evidence, and resolution timelines. Include the exact rules engine version, rule IDs applied, and decision logs for each variance to ensure reproducibility. Provide filters by date range, payer, client, caregiver, and location with export to PDF/CSV and secure sharing links. Protect report integrity with immutable timestamps and tamper-evident hashes. Schedule automated delivery to stakeholders and support ad hoc drill-down from summary to visit-level detail.
Tracks carryover eligibility and rules to bank or make up missed visits when allowed, preventing unauthorized “borrowing” when it’s not. Suggests compliant make‑up sequences and logs a clean ledger of banked vs. used visits per payer. Agencies preserve revenue while staying within policy lines.
Build a configurable engine to encode payer-specific visit banking policies, including whether carryover is allowed, permissible carryover windows (e.g., same week, same month, within authorization period), maximum bankable visits, expiration rules, cross-discipline allowances, daily/weekly caps, provider type restrictions, and required documentation codes. Support effective dating and versioning of rules, provenance links to policy sources (attachments/URLs), and a low-code admin UI for operations to update rules safely. Expose validation services used by scheduling, documentation, and reporting, with real-time evaluation and clear, human-readable explanations of pass/fail outcomes. Provide a sandbox to test rule changes against historical data before publishing and feature flags to roll out per payer or branch.
Implement a computation service that determines which missed visits qualify to be banked, calculates available/pending/expired balances, and attaches expiration dates per patient–payer–authorization–service line. Account for edge cases such as partial visits, cancellations, patient refusals, rescheduled visits within window, authorization changes, and retroactive documentation updates. Perform incremental recalculation on relevant events (visit completion, cancellation, rule change) and write results to a fast, queryable store. Surface current balance and expiry countdown within patient header, scheduler views, and the mobile app, with consistent totals across devices and offline-safe caching.
Provide an intelligent suggestion engine that proposes compliant make-up visit sequences that prioritize soonest-to-expire balances while minimizing caregiver travel and respecting patient availability, caregiver qualifications, daily/weekly caps, and payer rules. Integrate directly into the scheduler to offer one-click insertion of suggested visits into routes, with conflict detection and resolution tips. Include a what-if mode to simulate different scheduling choices and lock selected sequences. Expose an API for optimization runs and support graceful degradation to heuristic suggestions when optimization services are unavailable or offline.
Create an immutable ledger that records every bank, use, expiration, and adjustment event with timestamps, actor, source event (e.g., missed visit, override approval), rule version applied, before/after balances, and links to underlying artifacts (visit notes, voice clips, GPS). Support reversible adjustments via compensating entries with required reason codes and approver identity. Provide sortable, filterable views at patient, payer, branch, and agency levels and enable export in audit-ready formats. Ensure entries are tamper-evident and traceable for compliance audits.
Embed real-time guardrails in the web and mobile schedulers to block or warn on unauthorized borrowing or over-scheduling beyond payer caps and carryover windows. Provide clear, actionable messaging explaining the violated rule and showing compliant alternatives. Support role-based overrides with justification, approver workflow, and automatic ledger entries for all overrides. Validate bulk scheduling actions and route optimizations, and function in offline mode with locally cached rules and balances, reconciling on re-connect.
Deliver proactive notifications when banked visits approach expiration, with configurable thresholds per payer and branch. Send alerts via in-app, mobile push, and email to the responsible scheduler, caregiver lead, and account owner. Provide daily/weekly digests summarizing soon-to-expire balances and one-click actions to schedule suggested make-ups. Support acknowledgement, snooze, quiet hours, and a full alert audit trail, respecting user notification preferences and HIPAA constraints.
Generate one-click, audit-ready reports per payer and patient showing banked, used, pending, and expired visits, rule versions applied, override counts, and associated documentation artifacts. Include trend and aging views, revenue-at-risk estimates, and filters by date range, branch, payer, and service line. Support CSV/XLSX exports and payer-specific templates, scheduled delivery, and API access for BI tools. Enforce tenant isolation and PHI-safe exports with access controls and watermarking.
When an RN updates the plan of care, generates a suggested schedule realignment: which visits to move, add, or drop to remain compliant. Users approve in one sweep, and caregivers receive updates automatically. Maintains clinical intent and payer alignment without manual calendar surgery.
Continuously monitor RN-entered plan-of-care updates (frequency, visit type, start/end dates, duration, authorization units) and detect material changes in real time. On detection, version the plan, validate required fields, and trigger PlanSync to generate a new schedule proposal. Support updates originating in-app or via integration, apply debouncing to batch rapid edits, enforce role-based permissions, and log all change events. Must handle time zones, effective-dating, and overlapping orders without data loss.
Provide a configurable, versioned rules engine encoding payer, program, and state regulations: visit frequency and spacing, eligible disciplines, time-of-day windows, blackout days, authorization unit limits, documentation prerequisites, and escalation thresholds. Evaluate current and proposed schedules for compliance, produce human-readable rationales for each suggested add/move/drop, and flag irreconcilable conflicts with recommended exceptions. Support rule effective dates, payer-specific overrides, and per-patient custom constraints.
Generate a ranked set of schedule adjustments (adds/moves/drops) that preserve clinical intent while minimizing disruption. Optimize against caregiver availability and skills, continuity-of-care preferences, live route travel times, overtime/union constraints, patient time windows, and authorization budgets. Respect existing appointments where possible, avoid double-booking, and compute proposals within 5 seconds for a typical caseload. Provide scoring explanations and allow configurable optimization weights per agency.
Deliver a mobile-first review screen showing a clear diff between current and proposed schedules, with grouped changes by patient and caregiver. Enable one-click approve-all, selective accept/reject, inline edits, and conflict resolution prompts. Display compliance impacts, cost/authorization deltas, and travel implications before commit. Require RN sign-off for clinical-impacting changes, support undo and draft states, and write-back approvals atomically with optimistic concurrency.
Automatically deliver approved changes to caregivers via in-app push with SMS/email fallback, including updated routes, visit notes highlights, and required documentation changes. Require acknowledgment within a configurable SLA, with reminders and escalations for non-response. Handle offline mode with queued sync, de-duplicate notifications across channels, and update external calendars when linked. Capture acknowledgments and reasons for declines, and notify schedulers of unfillable assignments.
Capture immutable, time-stamped records of plan updates, rule evaluations, optimizer outputs, user approvals/overrides, and caregiver notifications/acknowledgments. Provide one-click, audit-ready reports linking the final schedule back to plan-of-care intent, payer rules applied, and justifications for exceptions. Support PDF/CSV export, patient-level and agency-level filters, and retention policies aligned with regulatory requirements.
Allow users to stage plan-of-care edits in a sandbox and preview projected compliance, staffing feasibility, cost/authorization consumption, and travel impact before committing. Compare scenarios side-by-side, highlight risk areas (e.g., unfillable visits), and save drafts for later approval. Simulations must not notify caregivers until an approval is executed.
Innovative concepts that could enhance this product's value proposition.
Track live GPS against planned routes; flag drift and auto-suggest reroutes or swaps to keep visits on-time. Cuts late arrivals with five‑minute early warnings.
Time-bound, role-scoped permissions that auto-expire at shift end, with one-tap just-in-time elevation and full audit trail. Protects PHI during after-hours triage.
Bite-sized, in-flow tips triggered by common documentation misses; 30‑second micro-lessons with one-tap retry. Lifts note completeness without training sessions.
One-click exports shaped to each payer portal’s quirks—codes, units, EVV stamps—using saved presets. Slashes denial risk for mixed-payer agencies.
Secure, read-only updates translating clinical notes into plain language with optional daily SMS summary links. Reduces phone tag and boosts family trust.
Monitors IoT pairings and data freshness; sends self-heal prompts and auto-rebinds devices when signal drops. Prevents missing vitals in visit notes.
Enforces plan-of-care visit frequencies in scheduling; warns on under/over visits and suggests compliant slots. Prevents costly authorization breaks.
Imagined press coverage for this groundbreaking product concept.
Imagined Press Article
Austin, TX — September 5, 2025 — CarePulse, the mobile‑first operations and documentation platform built for small and midsize home‑health agencies, today announced the PayerFit Scheduling Suite, a real‑time rules and routing layer that prevents authorization breaks at the moment of scheduling. By encoding payer‑specific visit frequencies, spacing requirements, grace windows, and carryover rules into an intuitive workflow, the suite gives schedulers and supervising nurses instant clarity about what can be booked, when, and by whom—before a single visit goes out of compliance. Home‑health scheduling has grown more complex as payer plans diverge and authorizations tighten. Under‑frequency, back‑to‑back spacing, and out‑of‑window visits are among the most common causes of denials and rework. PayerFit replaces guesswork with live validation and simple explanations, while coordinating with live routes so visits land where they’re both compliant and practical. The PayerFit Scheduling Suite includes: • PayerFit Engine: A continuously updated rules brain that validates visit counts, frequencies, and spacing by payer and discipline in real time, explaining any blocks in plain language. • Quota Meter: Always‑on counters that show used versus remaining visits per authorization window, with color cues and “days left” tickers that update as users drag and drop. • Slot Assist: One‑tap recommendations for the next compliant timeslot, balancing plan‑of‑care rules, caregiver credentials, client preferences, and live route realities. • Grace Guard: Built‑in enforcement for payer‑specific grace windows and exceptions with reasons that export cleanly for audits. • Visit Bank: A ledger that tracks carryover eligibility and suggests compliant make‑up patterns when allowed. • PlanSync Review: A smart realignment step that proposes schedule updates when an RN modifies a plan of care, keeping clinical intent and payer alignment in lockstep. “Agencies shouldn’t need a PhD in every payer’s rules to build a safe, compliant day,” said Maya Chen, CEO of CarePulse. “PayerFit gives Route Orchestrators and RN Case Planners a single source of truth that reacts as fast as they do—so the first schedule is the right schedule, denials are prevented, and caregivers arrive on time.” Early adopters report material gains. Across a three‑month pilot involving mixed‑payer agencies, partners saw a 27% reduction in out‑of‑window visits, a 22% cut in last‑minute reschedules due to rule conflicts, and a measurable lift in clean‑claim rates tied to better spacing and authorization adherence. Coordinators describe the Slot Assist recommendations as “confidence builders” that shorten booking times while respecting caregiver availability and route flow. “As a supervising RN, I used to spend hours checking whether a make‑up visit would break spacing or cap rules,” said Linda Romero, RN Case Planner at a midwestern home‑health agency. “Now, the Quota Meter and Grace Guard tell me instantly what’s safe. I can focus on patient needs and let the system handle the math.” For dispatch and operations teams juggling live changes, PayerFit works hand‑in‑hand with CarePulse’s route intelligence. When traffic, weather, or caregiver availability shift, Slot Assist surfaces the top three compliant options with a short rationale (meets 2x/week spacing, within auth window, minimal detour). The result is faster decisions and fewer phone calls, without slipping outside payer policy. The suite also tightens compliance handoffs. PlanSync Review converts an RN’s plan‑of‑care update into actionable scheduling moves—what to add, drop, or shift—so teams can approve in one sweep. Every change is logged with reasons and timestamps, feeding clean, audit‑ready exports that help Compliance and Billing avoid end‑of‑month scrambles. “Compliance shouldn’t be an after‑the‑fact clean‑up,” said Brianna Lewis, a Compliance Sentinel at a Texas agency. “With PayerFit, risk is flagged in the moment work gets scheduled. It’s proactive instead of punitive, and it shows our teams the why behind each rule.” Availability and onboarding: The PayerFit Scheduling Suite is available today to all CarePulse customers in North America, with expansion to select international payers underway through RulePulse Updates. Agencies can activate the suite without IT tickets; Role Blueprints help leaders assign capabilities by shift and job function. New customers can request a 30‑day guided trial that includes baseline analysis of authorization usage and drift patterns, and live training for dispatchers and RN reviewers. Pricing and packaging: PayerFit Engine, Quota Meter, and Slot Assist are included in the CarePulse Scheduling tier. Grace Guard, Visit Bank, and PlanSync Review are available in the Compliance tier or as an add‑on bundle for qualified customers. Volume pricing is offered for multi‑site agencies. CarePulse is the lightweight, mobile‑first SaaS that centralizes scheduling, documentation, and compliance for home‑health operations managers and caregivers. The platform syncs live routes, auto‑populates notes from short voice clips and optional IoT sensors, and produces one‑click, audit‑ready reports—cutting documentation time in half while improving on‑time, compliant visits. Media contact Elena Park, Head of Communications CarePulse press@carepulse.io +1 415 555 0135 www.carepulse.io
Imagined Press Article
Austin, TX — September 5, 2025 — CarePulse, the mobile‑first platform for home‑health scheduling, documentation, and compliance, today introduced the Family Calm Pack, a privacy‑first communications layer that turns visit notes and vitals into clear, compassionate updates families can actually use—without asking anyone to download an app. By combining auto‑summarization with consent controls and one‑time secure links, the Family Calm Pack reduces phone tag, builds trust, and keeps agencies firmly in compliance. Family communication is always urgent and often messy. Clinicians document in professional terms; families need plain language, the right context, and options that fit their day. Meanwhile, agencies must maintain strict privacy controls and audit trails. The Family Calm Pack meets all three needs at once. The Family Calm Pack includes: • PlainSpeak Digest: Converts clinical notes into short updates in lay terms with an easy status badge—Stable, Improving, Needs Attention—highlighting what was done, what changed, and what to watch. • Consent Circles: Simple, agency‑defined share groups (Immediate Family, Care Proxy, Financial Contact) with field‑level visibility and time‑boxed access, plus an approval trail for compliance. • SafeLink OTP: Read‑only daily summary links delivered by SMS or email that are one‑tap, one‑time, and time‑bound, protected by PIN/OTP and view receipts. • Language Lens: Automatic translation into each recipient’s preferred language and reading level, with nurse‑approved phrasing and a mini glossary to de‑jargonize terms. • Next‑Step Timeline: A forward‑looking timeline that shows upcoming visits, care goals, and “how you can help” tips, setting expectations and reducing day‑of surprises. • Calm Controls: Per‑contact notification settings that respect quiet hours and let families choose cadence and topics, preventing alert fatigue while keeping critical items urgent. “Families deserve clarity without compromising privacy,” said Maya Chen, CEO of CarePulse. “The Family Calm Pack moves agencies beyond ad hoc phone calls and screenshots. It delivers secure, human updates that keep loved ones informed and clinicians focused on care.” Early users report fewer inbound calls and more prepared household caregivers. One agency saw a 35% drop in non‑urgent after‑hours calls within two weeks, and another reported higher satisfaction scores tied to the Next‑Step Timeline setting expectations for therapy sessions and medication pickups. Because SafeLink OTP requires no app install, adoption was immediate, even among older relatives. For client relations teams, PlainSpeak Digest cuts the translation burden by summarizing in seconds and filtering out non‑shareable data. “I used to spend evenings rewriting notes into something families could absorb,” said Felix Ortega, Client Relations Coordinator at a southeastern agency. “Now the Digest gives me a safe starting point. I can add a line or two of context and send a secure link in under a minute.” Compliance is embedded from invite to view. Consent Circles ensure only the right people see the right details, with verified invites, expirations, and revocations that take seconds—not tickets. Every SafeLink view is logged, and any redacted field remains masked no matter how a link is retrieved. For agencies with stricter policies, links can be limited to in‑country numbers, weekdays, or clinic hours, and Role Blueprints let leaders decide who can send which updates under which conditions. The Family Calm Pack is designed to work in the flow of care. Caregivers can trigger PlainSpeak Digests automatically at visit completion; RN Case Planners can attach a brief guidance note for trends; and Family Touchpoint teams can schedule weekly roundups for those who prefer a digest cadence. Language Lens supports dozens of languages, with tone‑aware phrasing that avoids alarming words when describing routine changes. The Pack ties into the broader CarePulse platform so agencies don’t have to copy and paste between systems. Updates pull from the same voice‑driven documentation and IoT readings that feed audit‑ready reports. SafeLink OTP piggybacks on the platform’s security model, with Step‑Up MFA for staff when risk rises and an Access Ledger that shows who shared what, when, and with whom—crucial for payor reviews and family disputes alike. “Clear communication is half of clinical quality,” said Talia Nguyen, a training lead at a New England agency. “Calm Controls let us match each family’s preference so we’re helpful, not noisy. And when something truly needs attention, it cuts through.” Availability and onboarding: The Family Calm Pack is available today for all CarePulse customers in North America and select international markets. Agencies can start with a guided configuration of Consent Circles and a short policy alignment workshop to ensure share settings mirror agency rules. Templates for common updates—therapy progress, medication changes, vitals trends—are included. Pricing and packaging: PlainSpeak Digest and Calm Controls are included in the Core platform. Consent Circles, SafeLink OTP, Language Lens, and Next‑Step Timeline are available in the Family Engagement add‑on. Volume pricing is available for agencies serving multi‑state populations. CarePulse is a lightweight, mobile‑first SaaS that centralizes scheduling, documentation, and compliance for home‑health operations managers and caregivers. It syncs live routes, auto‑populates visit notes from short voice clips and optional IoT sensors, and delivers one‑click, audit‑ready reports to halve documentation time and ensure on‑time, compliant visits. Media contact Elena Park, Head of Communications CarePulse press@carepulse.io +1 415 555 0135 www.carepulse.io
Imagined Press Article
Austin, TX — September 5, 2025 — CarePulse, the mobile‑first platform trusted by home‑health agencies to run schedules, documentation, and compliance, today announced IoT Reliability Guardrails, a coordinated set of device‑aware features that keep sensors connected, vitals flowing, and visit notes complete—even when connectivity or batteries falter. The release helps agencies standardize IoT at the point of care without adding IT tickets, while preserving a clean audit trail across every reading and recovery. IoT can elevate outcomes, but only when the data shows up at the chart reliably. In the real world, caregivers face dead zones, low batteries, and pairings that slip. The result is rework, missed documentation, and denials driven by gaps. IoT Reliability Guardrails turn these risks into routine, self‑healing events. The release includes: • Auto Rebind: Invisible background reconnection that rotates through known channels and cached keys to recover sensor streams. If a device truly drops, a single‑tap rebind with prefilled client pairing gets readings flowing again in seconds. • Battery Scout: Predictive battery alerts that flag high‑risk devices days in advance, add reminders to caregiver prep, and suggest in‑route swaps. • Tap Test: A 15‑second pre‑visit diagnostic that verifies pairing, signal strength, time sync, and a sample value, clearing green when ready or guiding a self‑heal when not. • Signal Timeline: A per‑client visualization of heartbeats, gaps, RSSI strength, and firmware version, with placement tips for hubs or extenders so teams fix root causes—not just symptoms. • Hot Swap: Guided replacement that transfers pairing, calibration, and documentation to a backup sensor in under a minute, auto‑updating visit notes and chain‑of‑custody logs. • PairLock: Client‑locked pairing enforced with QR codes and geofenced checks to prevent cross‑patient binds, with quarantines for unknown devices and clear unpair workflows. • Offline Buffer: Local caching for readings during connectivity hiccups, with exact timestamps and provenance backfilled to the chart once online. • Sensor Aware: Real‑time nudges when expected readings are missing or stale, prompting a re‑pair, a reading capture, or a logged reason that flows into the audit trail. “Agencies shouldn’t need a network engineer on every shift to roll out sensors,” said Darius Patel, VP of Product at CarePulse. “With Reliability Guardrails, a caregiver can tap test, bind, and swap a device in less than a minute. Data keeps flowing and notes stay defensible.” Operational benefits show up fast for both field teams and coordinators. Tap Test reduces room‑entry troubleshooting and gives caregivers confidence that the first vitals reading will land. Signal Timeline arms IoT Integrators with the visibility to spot chronic dead zones and plan fixes that stick. Meanwhile, Auto Rebind and Offline Buffer protect EVV alignment and clinical completeness in basements, elevators, and rural routes. “The difference is night and day,” said Theo Wilson, a therapy lead at a multi‑disciplinary home‑health organization. “Before, we’d lose a therapy session trying to sort out a sensor. Now we get a green check up front, and if anything wobbles, the app heals it while we keep working with the client.” Compliance is first‑class throughout. PairLock prevents cross‑patient binds and captures reason codes for any unpair. Sensor Aware logs when a caregiver chose a safe default or recorded a reason for a missing reading, and Access Ledger tracks who viewed or adjusted device settings. For audits, a single export assembles the readings, the recovery steps, timestamps, and the final note—turning troubleshooting into evidence. Reliability Guardrails dovetail with CarePulse’s broader scheduling and documentation workflows. Battery Scout feeds Route Orchestrators advance warnings so spare batteries ride along on the right routes. Hot Swap notifies RN Case Planners and family contacts (when consented) that a device changed, keeping everyone aligned on care. Availability and onboarding: IoT Reliability Guardrails are available today for CarePulse customers using supported vitals sensors and activity devices. Agencies can enable Tap Test and PairLock broadly and roll out Auto Rebind and Hot Swap by device family. Implementation takes hours, not weeks, and comes with a quick‑start playbook for IoT Integrators and field staff. Pricing and packaging: Auto Rebind, Tap Test, Offline Buffer, and Sensor Aware are included in the Core platform. Battery Scout, Signal Timeline, Hot Swap, and PairLock are available in the IoT Reliability add‑on bundle. Volume‑based pricing is available for agencies with large sensor fleets. CarePulse is the lightweight, mobile‑first SaaS that centralizes scheduling, documentation, and compliance for home‑health operations managers and caregivers. The platform syncs live routes, auto‑populates notes from short voice clips and optional IoT sensors, and produces one‑click, audit‑ready reports—helping agencies halve documentation time and ensure on‑time, compliant visits. Media contact Elena Park, Head of Communications CarePulse press@carepulse.io +1 415 555 0135 www.carepulse.io
Imagined Press Article
Austin, TX — September 5, 2025 — CarePulse, the mobile‑first platform that centralizes scheduling, documentation, and compliance for home‑health agencies, today announced expanded just‑in‑time access and audit controls designed to keep after‑hours triage fast, safe, and compliant. The release brings together granular permission elevation, shift‑bound tokens, emergency overrides, adaptive MFA, and a real‑time access ledger so teams can resolve urgent issues without exposing protected health information. Night and weekend operations are where policy meets pressure. On‑call supervisors handle exceptions, caregiver substitutions, and safety checks—often from low‑end phones and spotty networks. Too much access puts PHI at risk; too little access slows response. CarePulse’s new controls calibrate access to the task at hand and document every step automatically. The release includes: • JIT Elevate: One‑tap, context‑aware permission elevation that grants the least access necessary for the task—limited to a specific client, chart section, and time window—with auto‑revocation on completion or timer. • Auto‑Expire Guard: Shift‑bound access tokens with idle timeouts and local device timers that revoke access even if a phone goes offline, protecting against forgotten logins and after‑hours drift. • BreakGlass Override: A true‑emergency override with mandatory reason codes, short default durations, and instant supervisor notifications. Access is narrowly scoped, watermark‑tagged, and heavily audited. • Redacted Reveal: Sensitive fields are masked by default and revealed only with a press‑to‑peek that logs who saw what and why—ideal for triage calls and crowded environments. • Role Blueprints: Scenario‑based permission sets (After‑Hours Triage, RN Review, Intake Start‑of‑Care) that align with payer and policy rules, assignable per shift so users see only what’s relevant. • Step‑Up MFA: Adaptive prompts that trigger only when risk rises—new device, unusual time, or elevated scope—supporting biometric, push, and hardware key options for quick verification. • Access Ledger: A human‑readable timeline of who accessed what, when, from where, and under which scope or override, with filters, anomaly highlights, and one‑click, audit‑ready exports. “Fast matters in triage, but so does restraint,” said Maya Chen, CEO of CarePulse. “We designed these controls to let teams act without over‑opening the vault. Every peek, override, and elevation is intentional, time‑boxed, and visible.” Field leaders say the impact is immediate. “I used to keep a ‘kitchen sink’ account for weekends because I couldn’t risk being blocked,” said Andre Morales, an after‑hours supervisor at a multi‑site agency. “Now JIT Elevate gives me what I need for that client and that chart section—nothing more. When the timer ends, it closes itself.” Compliance and QA teams gain continuous visibility instead of retroactive forensics. With Access Ledger, reviewers see the exact sequence of events—who requested elevation, who approved, what was viewed, what changed, and when the window closed—tightened by Step‑Up MFA where risk spiked. Exports align to payer and state expectations, reducing prep for audits and eliminating the need to stitch together logs from multiple systems. The controls pair tightly with everyday workflows. Credential Swap and ETA tools can trigger JIT Elevate when a late‑breaking substitution requires access to a client’s instructions or door codes. Redacted Reveal keeps sensitive fields masked during phone consults, revealing only what’s necessary with a fingerprint or code—perfect for noisy ER settings. If a true emergency arises, BreakGlass Override grants narrowly scoped access with reasons and alerts so supervisors can intervene in real time. Security is balanced with practicality in low‑connectivity situations. Auto‑Expire Guard’s local timers revoke access even if a device drops offline, while in‑progress notes are saved safely and resumable by authorized staff. Step‑Up MFA offers fallbacks that work on low‑end phones without creating lockouts. Availability and onboarding: The expanded access and audit controls are available today for all CarePulse customers. Agencies can start by adopting Role Blueprints for after‑hours teams, then enable JIT Elevate with lightweight approvals for higher‑risk scopes. A guided policy workshop helps align timers, reasons, and reveal rules to each agency’s compliance posture. Pricing and packaging: JIT Elevate, Auto‑Expire Guard, Redacted Reveal, and Step‑Up MFA are included in the Core platform. BreakGlass Override and advanced Access Ledger exports are available in the Compliance tier. Volume discounts apply for multi‑site deployments. “Security that slows care isn’t security—it’s friction,” said Darius Patel, VP of Product at CarePulse. “These controls respect the reality of home‑health work while raising the bar on privacy and accountability.” CarePulse is a lightweight, mobile‑first SaaS that centralizes scheduling, documentation, and compliance for home‑health operations managers and caregivers. The platform syncs live routes, auto‑populates notes from short voice clips and optional IoT sensors, and delivers one‑click, audit‑ready reports—helping agencies halve documentation time and keep visits on‑time and compliant. Media contact Elena Park, Head of Communications CarePulse press@carepulse.io +1 415 555 0135 www.carepulse.io
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