Deliver Calm, Not Chaos
ZipTrail is a lightweight SaaS that provides real-time last-mile tracking and branded customer notifications via simple web and mobile dashboards. It helps small restaurants, neighborhood shops, and independent couriers auto-sync driver GPS progress into route-aware ETAs, reduce missed drops and ETA calls, and improve on-time delivery with measurable time savings.
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Detailed profiles of the target users who would benefit most from this product.
- Age 34; event catering manager at mid-size caterer (12 drivers). - Based downtown; serves office parks, hospitals, campuses, and venues. - Bachelor’s in hospitality; owns delivery tooling and staffing budget. - Compensation $70–90k; peak seasons spring graduations and holidays.
Started as banquet captain, promoted after rescuing a chaotic 300-meal drop. A near-disaster from parking delays pushed Casey to digitize routing and client updates.
1. Venue-aware ETAs with parking notes attached. 2. Bulk message blasts to anxious coordinators. 3. Rapid reroute when a driver runs late.
1. Dock access delays derail entire lunch windows. 2. Coordinators calling repeatedly for status reassurance. 3. Drivers skipping instructions buried in spreadsheets.
- Lives by tight timelines and contingencies. - Hates uncertainty; craves proactive communication. - Measures success in calm, warm arrivals. - Trades hacks that shave minutes daily.
1. Email - client updates 2. WhatsApp - driver group 3. Google Calendar - event holds 4. LinkedIn - catering groups 5. YouTube - routing tips
- Age 38; pharmacy delivery lead at regional chain. - Suburban hub; dispatches 8 couriers across 20 miles. - Certified pharmacy tech; HIPAA compliance owner for delivery workflows. - Salary $60–75k; rotating on-call for controlled runs.
Former pharmacy tech who built a makeshift delivery log after an audit scare. A critical missed refill cemented Morgan’s zero-miss, privacy-first playbook.
1. HIPAA-safe notifications excluding PHI details. 2. Reliable ETAs to reduce patient anxiety. 3. Clear audit trail for late deliveries.
1. Paper logs crumble under audits. 2. Patients waiting for critical meds. 3. Gated communities block timely access.
- Patient safety over everything else. - Privacy zealot; avoids exposing PHI anywhere. - Trusts systems, not heroic memory. - Prepares Plan B for every route.
1. Email - SOP updates 2. Microsoft Teams - pharmacy chat 3. SMS - driver alerts 4. LinkedIn - pharmacy operations 5. YouTube - compliance refreshers
- Age 41; operations lead for 15 quick-service locations. - Mixed urban/suburban markets; hybrid in-house drivers. - Business degree; accountable for on-time and NPS KPIs. - Compensation $95–120k; owns tooling budget.
Rose from GM to regional ops, standardizing curbside during pandemic pivots. Promo-driven call spikes forced Fiona to seek consistent, branded updates across locations.
1. Multi-store dashboard with rollups. 2. Location-level KPIs and exports. 3. Notification templates shareable network-wide.
1. Inconsistent ETAs between stores. 2. Blind spots when drivers no-show. 3. Support calls surge during promos.
- Scale first; eliminate heroics. - Obsessed with comparable, clean metrics. - Brand consistency over improvisation. - Pragmatic, training-light solutions.
1. Email - executive updates 2. Slack - ops channel 3. LinkedIn - franchise networks 4. Webinars - vendor demos 5. Google Sheets - KPI tracking
- Age 29; D2C owner for specialty coffee brand. - Downtown micro-warehouse; offers 5-mile same-day delivery. - Two part-time couriers; self-taught operator. - Revenue ~$35k/month; margins tight, cash-conscious.
Scaled from pop-ups to online, then added local drops after customer DMs. Text chaos and late handoffs pushed Leo to automate tracking.
1. One-click Shopify order import. 2. Live tracking links at checkout. 3. Fast batch routing during peaks.
1. Customers DMing nonstop for ETAs. 2. Manual routing burning evenings. 3. Drivers confused on handoffs.
- Customer-obsessed; replies fast. - Automation fan; hates repetitive chores. - Scrappy, tests and iterates weekly. - Protects brand vibe at all touchpoints.
1. Instagram - product drops 2. Shopify Inbox - customer chats 3. SMS - drivers and customers 4. YouTube - how-to tutorials 5. Reddit r/Entrepreneur - advice
- Age 36; scheduler at regional appliance repair firm. - Suburban territory; five technicians with vans. - Ten years dispatching; associate degree in business. - Salary $55–65k; bonus on first-visit resolution.
Moved from call center after mastering upset-customer triage. Late arrivals tanked reviews, so Sam adopted visible ETAs to set expectations.
1. Accurate tech ETAs visible to customers. 2. Easy rescheduling when jobs overrun. 3. Heads-up alerts for traffic delays.
1. Double-booked or slipping appointment windows. 2. Customers stepping out during waits. 3. Techs forgetting to update status.
- Punctuality evangelist; promises sparingly. - Clear, proactive communicator. - Fixes root causes, not symptoms. - Calm under chaotic back-to-backs.
1. Phone - inbound customers 2. Google Calendar - scheduling 3. SMS - appointment updates 4. Facebook - local reach 5. Email - confirmations
- Age 33; florist owner-operator with three drivers. - Urban neighborhoods; huge spikes on Valentine’s and Mother’s Day. - Design school graduate; hands-on in shop and deliveries. - Monthly revenue $25–40k; lean staffing, seasonal temps.
V-Day chaos with missed doors and angry callers forced a rethink. Paige ditched paper tags for live links and tighter ETAs.
1. Holiday surge routing that adapts mid-run. 2. Branded delivery updates to senders. 3. Parking notes visible per stop.
1. Nonstop where-is-my-bouquet calls. 2. Parking detours blowing tight windows. 3. Recipients not home on first attempt.
- Perfectionist presentation, timing-obsessed. - Relationship-driven; delights senders and recipients. - Frugal but invests for peak days. - Loves repeatable, checklist-friendly workflows.
1. Instagram - portfolio sharing 2. Google Business - reviews 3. SMS - customer updates 4. WhatsApp - driver chat 5. Email - order confirmations
Key capabilities that make this product valuable to its target users.
Automatically tunes each Magic-Link’s lifetime to the live route: long enough to be useful, auto‑shortening after drop-off. Recipients can extend once (e.g., +15 minutes) with a tap if delays occur, while completed orders hard-expire. This preserves privacy without cutting off access mid‑delivery, reducing support pings during slips.
A service that computes and updates Magic-Link expiry based on live route signals (dispatch time, driver GPS, ETA drift, arrival, drop-off confirmation). Keeps links active throughout the delivery window and progressively contracts TTL as milestones are reached, within tenant-defined caps and floors. Integrates with the event bus and token service to recalculate and set absolute expiry timestamps on relevant events. Propagates changes to edge caches/CDN to ensure immediate effect across sessions. Expected outcome: fewer mid-route cutoffs, accurate access windows, and automatic privacy-preserving expiry post-completion.
Upon delivery completion events (e.g., proof-of-delivery, merchant marked delivered), immediately invalidate associated Magic-Links with an optional short grace period and purge cached content. Show a completion state that hides location and sensitive order details while confirming delivery. Ensure token revocation in the auth layer prevents reactivation or replay. Integrate with audit logs and support tooling for dispute resolution. Expected outcome: privacy preserved after delivery with zero lingering access.
Enable recipients to extend their Magic-Link once by a configurable duration (e.g., +15 minutes) prior to drop-off. Provide a clear CTA on the tracking page with real-time countdown, disable after single use, and reflect updated expiry instantly across devices. Validate eligibility server-side (not expired, not completed, within max cap) and record an audit trail. Outcome: fewer support contacts during delays and improved customer experience.
Deliver tenant-level configuration for default link lifetimes, minimum/maximum TTL, extension allowance, extension duration, and post-completion grace. Support per-order overrides via API for special cases and expose settings in the ZipTrail dashboard with role-based access and revision history. Validate inputs on save and propagate effective policy to the runtime engine. Expected outcome: consistent, governance-aligned behavior tailored to each business’s risk and customer experience posture.
Issue signed, time-bounded tokens for Magic-Links with embedded claims (order ID, tenant, expiry, extension_used) and enforce validation at the edge on every request. Implement fast revocation lists and cache-busting on expiry or completion, with protection against replay and reuse after invalidation. Rate-limit extension requests, bind tokens to channel entropy where feasible, and avoid PII in URLs or error messages. Expected outcome: strong privacy and security with minimal latency overhead.
Present a visible countdown and contextual messaging on the tracking page, including pre-expiry warnings, extension availability, and post-expiry states (“Delivery in progress,” “Delivery complete,” “Link expired”). Provide localized copy, accessible components, and consistent behavior across web and mobile. Offer a fallback CTA (contact store/support) when extensions are unavailable and avoid revealing order details after expiry. Expected outcome: clear, low-friction UX that reduces confusion and support pings.
Capture events and metrics for expiry updates, extension requests, approvals/denials, expiry reasons, and post-drop-off access attempts. Provide dashboards and exportable reports showing extension adoption, average TTL by route state, support contact correlation, and privacy KPIs. Emit alerts for anomalies (e.g., unusually high extension rates) and suggest policy adjustments. Expected outcome: data-driven optimization of Adaptive Expiry and demonstrable impact on support reduction and privacy.
Enables controlled delegation by creating a limited-scope sub-link for a doorman, receptionist, or neighbor. Sub-links mask address details, hide driver contact, and only show arrival window and confirmation within a small geofence. Full view/forward audit and auto-expiry at handoff cut office/apartment missed drops while keeping data private.
Implements creation of a limited-scope sub-link tied to a specific order/stop that delegates minimal access to a third party (e.g., doorman/receptionist). Supports policy configuration for permissions (view arrival window, confirm handoff), time-based and event-based expiry, single-use vs. reusable tokens, geofence radius, and forward limits. Generates cryptographically secure, non-guessable tokens with short TTLs and tenant branding. Integrates with ZipTrail order/route models, respects multi-tenant isolation, and records metadata for audit and analytics. Provides UI and API endpoints for creation, preview, and management.
Enforces location-gated visibility for sub-links so that detailed information is revealed only within a small configured geofence around the delivery point. Outside the geofence, the view shows minimal, non-sensitive context (e.g., generic arrival window). Uses browser/mobile location with graceful fallbacks (network-based approximation), clear permission prompts, and denial handling. Continuously updates ETAs and gate state in real time with low battery impact and resilient behavior in GPS-poor environments (urban canyons, high-rises). Compatible with mobile web, PWA, and native WebView contexts.
Provides a redaction service that masks customer address details and driver contact information across sub-link views, notifications, and webhooks. Displays coarse location cues (e.g., building name or block-level indicators) and role-based initials instead of full names or phone numbers. Applies consistent policies per tenant, with configuration for granularity and exceptions. Ensures redacted data cannot be reconstructed client-side, enforces encryption in transit and at rest, and logs redaction policy versions for compliance.
Introduces controlled forwarding with per-tenant policies for allowed channels (SMS, email, apps), maximum forwards, device binding, and single-use options. Each forward generates a unique child token. Captures and stores detailed event telemetry (created, viewed, forwarded, geofence-entered, confirmed, expired) with timestamps, approximate location, IP, and user-agent. Presents a chronological audit trail in the dashboard with export and retention controls, and flags suspicious patterns for review.
Delivers a simple, friction-light confirmation flow that lets the delegate acknowledge receipt via one-tap confirmation, optional OTP/PIN from the driver, or QR scan. On confirmation, marks the stop as delivered-to-delegate, emits real-time updates to driver, dispatcher, and customer, and auto-expires all related sub-links. Supports optional photo/signature capture, short undo window for owner-led corrections, and immutable proof-of-handoff records for compliance and analytics.
Provides owners with immediate revocation of any active sub-link and real-time propagation of policy changes (expiry, geofence radius, forward limit, confirmation requirements). Includes admin UI and API for bulk actions, per-tenant defaults, and per-order overrides. Handles offline and latency scenarios with cached denial states and clear messaging. Emits webhooks/events for revoke and policy updates to keep external systems in sync.
Enables sending sub-links through SMS, email, and WhatsApp with tenant-branded templates, localized content, and clear expiry/geofence cues. Supports deep links, rich previews, sender ID configuration, rate limiting, retries, and deliverability tracking. Provides a copy-link fallback and in-dashboard preview of messages. Ensures no sensitive data appears in notifications and that links resolve to the redacted, scoped view.
Lets dispatchers or drivers revoke or refresh any Magic-Link in one tap. Mistyped number? Issue a fresh, signed link and instantly invalidate the old one. This tight control prevents unauthorized viewing and resolves edge cases fast—without exposing personal information.
Add single-tap revoke and refresh actions to ZipTrail’s web and mobile dashboards for any active Magic-Link. The UI surfaces context (order ID, recipient channel, last accessed time) without exposing PII and requires lightweight confirmation to prevent accidental taps. On refresh, the system generates a new, signed link, associates it with the same order/route, and automatically invalidates the prior link. Success and error states are clearly communicated with toasts and inline messaging, and the list view reflects state changes in real time. This integrates with the tracking page, notifications, and route-aware ETA logic so that active viewers are gracefully redirected or blocked according to the new link state.
Issue Magic-Links as signed, short-lived, versioned tokens that encode minimal scope (tenant, order/route, permissions) and a monotonically increasing version field. Tokens are cryptographically signed (e.g., HMAC or asymmetric keys) and include anti-replay fields (nonce, issued-at, TTL) to prevent reuse. Revocation increments the stored version for the link key in a low-latency data store; any token with an older version fails verification without needing server-side session lookups. The token format supports link regeneration, QR rendering, and deep links to the branded tracking page, and avoids embedding PII in the URL. Key rotation and per-tenant secrets are supported to meet security and compliance requirements.
Ensure revocations propagate globally within seconds via pub/sub events and edge cache busting. When a link is revoked or refreshed, emit an event that updates the in-memory revocation/version map, purges edge/CDN caches for affected resources, and pushes a client-side signal to any open tracking sessions to block further access or prompt for the refreshed link. Define an eventual consistency target (p95 < 2s, p99 < 5s) and provide observability (metrics, traces) to verify SLA. Integrate with existing ZipTrail notification flows so that customers attempting to access a revoked link receive a friendly, branded message with guidance or an option to request the updated link.
Enable dispatchers and drivers to send the refreshed Magic-Link through the recipient’s preferred channel (SMS, email, WhatsApp, push) with one action. The system pre-fills the last known recipient contact from the order, masks sensitive fields, and validates the destination before send. It enforces rate limits and templates branded messages that include the new link and context (order nickname, ETA), while ensuring the previous link is already invalidated. Delivery status (queued, sent, failed) is surfaced in the UI, and failures suggest corrective actions (edit contact, choose alternate channel). Integrates with existing communications providers and ZipTrail’s notification preferences.
Record an immutable audit trail for every revoke and refresh event, including actor (user or API key), timestamp, IP/device, reason code, affected order/route, and resulting token version. Expose searchable logs in the dashboard with filters and export, while respecting tenant data retention policies. Generate configurable alerts for anomalous patterns (e.g., high-frequency revocations from one user, repeated resends to different numbers) and route them to Slack/email/webhooks. Provide evidence for compliance and security reviews, and support incident investigation without revealing recipient PII.
Add granular permissions that govern who can revoke or refresh links (e.g., Dispatcher:Revoke, Driver:Resend, Admin:Bypass Limits). Include safeguards such as confirmation prompts, contextual warnings (large audience links, high-order value), soft-undo windows where feasible, and per-user/org rate limits. Enforce least-privilege defaults for new users and support per-tenant policy overrides. All safeguards interoperate with mobile and web clients consistently to reduce accidental or malicious actions.
Provide REST/GraphQL endpoints to revoke and refresh Magic-Links programmatically, with idempotency keys, strong authentication (OAuth2/service tokens), and clear error semantics (already revoked, version conflict, rate limited). Publish webhooks for revocation and refresh events so external systems can react (e.g., resend through a custom channel). Supply client SDK methods (JS, iOS, Android) for easy integration in partner apps and internal tools. Comprehensive documentation and examples ensure consistent adoption without exposing PII in logs or URLs.
Adds no-login actions on the tracking page—Add Drop-Off Note, Gate Code, I’m Away (reschedule), or Call Me. Inputs sync to the order in real time and nudge ETAs as needed, reducing failed attempts and back-and-forth calls for busy rushes.
Embed one-tap actions—Add Drop-Off Note, Gate Code, I’m Away (reschedule), and Call Me—directly on the public tracking page without requiring authentication. Provide compact, mobile-first UI widgets with inline validation, optimistic updates, and clear confirmations. Ensure components load fast (<1s on 4G), degrade gracefully if JS is disabled, and expose a consistent event model for analytics. Persist unsent inputs locally for 15 minutes in case of connectivity loss. Support theme/brand config so widgets inherit merchant branding and language settings.
Authorize no-login actions via short-lived, single-order signed tokens embedded in tracking links. Validate tokens server-side, scoped to order ID and customer contact, with rolling expiration and one-time nonce per mutation to prevent replay. Implement per-IP and per-order rate limits, soft CAPTCHA escalation on anomalies, and audit logs for all updates. Strip PII from logs and encrypt sensitive fields at rest. Provide token rotation on link re-issue and invalidate on order close.
On submission of any quick reply, update the order record in real time and broadcast changes to the driver app and dispatcher console via WebSocket/push. Show inline toasts on recipient page, in-app banners for drivers, and activity feed entries for dispatch. Guarantee at-least-once delivery with idempotent mutation keys and a retry queue for offline drivers. Expose a webhook for POS/OMS to ingest updates. Maintain a change timeline with timestamp, actor type, and previous values.
Provide an “I’m Away” flow that lets recipients pick a later window (e.g., 30/60/120 minutes or date/time), then automatically pause the stop, resequence the route, and recalculate ETAs for remaining deliveries. Respect business rules (cutoff times, perishables, driver shift end) and capacity constraints. Surface the new ETA to the recipient, driver, and dispatch with clear reasoning. Allow dispatch override and lockouts. Log the previous schedule and applied constraints.
Enable recipients to request a callback by confirming or editing their phone number, with SMS verification for edits. Create a time-limited “Call Me” flag on the stop that notifies the driver and dispatch. Integrate number masking via telephony proxy so calls route through ZipTrail while preserving privacy and generating call logs/recordings (where permitted). Auto-clear the flag after successful connection or timeout and capture outcome metrics.
Capture gate codes and drop-off notes with field-level privacy controls so only the assigned driver and dispatch can view them. Mask sensitive values in notifications, encrypt at rest, and redact in customer-facing histories. Provide structured fields (code, building, buzzer, note) with validation and optional one-time use toggles. Offer opt-in to save instructions to a customer profile for future orders per merchant policy, with clear consent copy.
Track usage and outcomes of each quick reply type (submissions, success, retries, error rates) and correlate with delivery KPIs (first-attempt success, on-time rate, support call reduction). Provide merchant dashboard widgets and exportable reports, plus event hooks to BI. Include funnel and latency metrics (time to sync, time to driver view) and segment by channel, device, and language. Anonymize recipient data and aggregate by merchant or route.
Detects device language and region to localize SMS and the tracking page—language, time format, units, RTL, and high-contrast mode. Clear, familiar ETAs reduce confusion and increase open-to-understand rates across diverse recipients.
Implement a multi-signal locale detection pipeline that determines language, region, script, text direction, timezone, time format (12/24h), unit system (metric/imperial), and contrast preference for each recipient session. Source signals include device/browser settings (Accept-Language, Intl APIs), mobile app OS locale, explicit URL/query parameters, merchant account defaults, and coarse geo fallback where legally permissible. Define a deterministic precedence order and produce a standardized locale context object accessible to web, mobile, and notification services. Persist ephemeral context in a short-lived cookie/session and attach to order events for consistency between SMS and tracking page. Provide a user-facing locale switcher and remember overrides. Enforce privacy-by-design: avoid storing PII-rich geo data, honor DNT/consent flags, and comply with regional regulations (e.g., GDPR/CCPA). Include robust fallback behavior and error handling to ensure a valid default (e.g., en-US) under all conditions.
Internationalize the tracking page with locale-specific strings, pluralization rules, and number/date formatting using an i18n framework. Dynamically load language bundles at runtime with caching and versioning. Apply locale-driven presentation rules: 12/24-hour clocks, local date formats, decimal/thousand separators, and unit labels. Provide full right-to-left (RTL) support including layout mirroring, directional-aware components (maps, progress bars, steppers), appropriate fonts, and bidi-safe text rendering. Ensure graceful fallback to English for missing keys and clear visual indicators when a translation is unavailable. Include an inline locale switcher, persist the chosen locale, and keep UI state consistent across sessions and deep links. Validate performance budgets for bundle sizes and render times across locales.
Build a template engine to generate localized SMS messages with placeholders for recipient name, merchant brand, driver name, ETA (relative/absolute), and tracking link. Maintain per-locale templates, including RTL variants, with translation keys managed via a TMS workflow. Detect GSM‑7 vs UCS‑2 encoding and apply character-safe substitutions to minimize segment count while preserving meaning; estimate message length and segment billing before send. Support regional sender ID capabilities, opt-out keywords, legal disclaimers, and compliance rules per country. Choose template locale based on the locale context with merchant-defined fallback chains. Shorten links and preserve locale parameters for continuity into the tracking page. Provide preview/testing tools in the dashboard and auditable logs of sent content and chosen locales.
Create a formatter service that renders ETAs and distances according to local conventions. Support configurable rules for when to show relative time (e.g., “in 7 minutes”) vs absolute time (e.g., “by 14:32”), with locale-specific phrasing, pluralization, rounding, and threshold logic. Respect the recipient’s timezone and 12/24h preference. Convert and display distances and speeds using metric or imperial units with correct abbreviations and spacing per locale. Handle edge cases such as “arriving now,” delays, and stale GPS data with clear, localized copy. Expose the formatter as a shared library for both SMS generation and the tracking page to maintain consistency, with unit tests and snapshot tests per locale.
Detect user contrast preferences (e.g., prefers-contrast, OS accessibility settings) and automatically apply a high-contrast theme that works in both LTR and RTL locales. Ensure localized UI elements meet WCAG 2.2 AA contrast and legibility requirements, including focus states, error messaging, and link visibility. Localize ARIA labels, live region announcements for ETA updates, and keyboard navigation hints. Provide a user-accessible toggle to enable/disable high-contrast mode and remember the choice. Validate with screen readers across major languages and scripts, and include automated accessibility checks in CI for each supported locale.
Add dashboard settings for merchants to configure localization behavior: default locale, allowed languages, priority fallback order, forced locale (for branded campaigns), and toggles for auto-detection sources (e.g., disable IP-based hints). Provide per-market SMS template selection, preview across languages/RTL, and sandbox test sends. Allow per-order overrides via API and UI. Let merchants choose default unit system and time format when detection is ambiguous. Document configuration impacts and surface warnings for incomplete translations. Ensure changes propagate to both SMS generation and the tracking page in real time without redeploys.
Instrument locale detection, template selection, and rendering to capture success vs fallback rates, detection sources used, missing translation keys, and encoding-induced SMS segmentation. Track comprehension proxies (e.g., SMS click-through to tracking page, time-to-first-meaningful-view, repeat opens) by locale. Provide dashboards and alerts when fallback or error rates exceed thresholds. Add pseudo-localization, RTL flip testing, and screenshot automation to CI to catch layout/text overflow issues early. Define data retention and anonymization policies to protect user privacy while enabling actionable insights.
Provides store-level analytics for Magic-Link engagement: delivery and open rates, time-to-open vs. ETA, reshares, and call deflection. Actionable recommendations (e.g., send earlier, tweak copy) help teams prove ROI and steadily cut “where’s my order” volume.
Capture and persist all Magic-Link lifecycle events with normalized metadata to power store-level analytics and ROI calculations. Events include link_sent, message_delivered, link_opened (first and repeat), link_reshared, support_call_received, and delivery_outcome, each stamped with order/store IDs, channel, timestamps, driver ETA at send, device/OS, locale, and campaign/copy variant. Implement server-side computation for time-to-open vs. ETA, de-duplication and debouncing of rapid events, and resilience to late/out-of-order events. Ensure privacy by hashing customer identifiers, enforcing data retention policies, and honoring opt-outs. Provide idempotent ingestion APIs, SDK hooks in notification pipeline, and a validated schema with versioning to guarantee data quality and backward compatibility across dashboards and exports.
Deliver an interactive dashboard that surfaces key Magic-Link engagement KPIs by store and time range, including message delivery rate, open rate, time-to-first-open vs. ETA distributions, reshare counts, and estimated call deflection. Provide filters for store, channel, campaign/copy, device, and time window; include drill-down from aggregate tiles into order-level event streams. Support saved views, timezone-aware rendering, mobile responsiveness, and export from any chart. Define clear metric definitions and tooltips to prevent ambiguity. Optimize queries via pre-aggregations and caching to ensure sub-second load for common ranges (last 7/30/90 days). Enforce role-based access so users only see their stores.
Attribute reductions in inbound “where’s my order” calls to Magic-Link engagement by integrating call data and modeling expected baseline volume. Ingest call logs via telephony integrations (e.g., webhooks, CSV) or manual entry, map calls to orders using phone numbers, order IDs, and time windows, and classify reason codes. Compute deflection by comparing cohorts with/without opens and pre/post adoption baselines, adjusting for volume and seasonality. Present deflection rate, avoided calls, and estimated cost savings per store and campaign. Provide data quality checks, conflict resolution for ambiguous mappings, and configuration for business hours and SLAs.
Generate actionable recommendations to improve engagement and deflect calls by optimizing send timing and message copy. Analyze historical performance by store, channel, and audience to propose earlier/later send offsets relative to driver departure and ETA, and suggest copy variants that correlate with higher open rates and faster time-to-open. Present recommendations as ranked cards with expected impact, confidence, and supporting evidence; allow one-click application to create experiments or update templates. Track post-implementation lift with holdout/A-B tests and automatically retire underperforming suggestions. Support guardrails (e.g., quiet hours, compliance) and localization.
Detect and measure reshares of Magic-Links to understand multi-viewer engagement and their impact on delivery success. Implement share intents and unique viewer tokens to distinguish the original recipient from additional viewers while preserving privacy via hashed identifiers and short-lived params. Aggregate unique viewers, viewing sessions, and reshare pathways (e.g., SMS forward, copy link), and correlate reshares with reduced delivery failures and call rates. Provide controls to disable/share tracking per jurisdiction, and handle bot/preview fetches with robust user-agent filtering and throttling.
Enable secure access to Link Insights data outside the dashboard via CSV exports, scheduled email reports, and a REST API. Provide endpoints for aggregated metrics and order-level events with pagination, filtering, and time-zone parameters. Include webhooks for threshold breaches (e.g., open rate drop) and daily summaries. Enforce OAuth2 with store-scoped permissions, rate limits, and audit logs. Guarantee data freshness SLAs (e.g., <5 minutes for engagement metrics) and schema documentation with versioning and deprecation policies.
Provide configurable alerts and peer benchmarks to surface performance deviations early. Let users set thresholds for KPIs (open rate, delivery rate, time-to-open vs. ETA) and receive notifications via email/Slack when breached. Offer automatic anomaly detection and benchmarking against similar stores (size, region, channel) with anonymized aggregates. Include alert suppression windows, escalation rules, and links to suggested fixes. Log alert history and outcomes to evaluate effectiveness of interventions.
Dynamically adjusts the geofence (e.g., 10–50 meters) based on venue type and GPS confidence, only activating codes when both parties are truly co-located. Cuts “I’m here but it won’t work” moments at towers and malls, speeding confirmations and reducing support pings.
Implement a dynamic geofence engine that computes a per-stop radius (default 10–50 meters, merchant-configurable) using inputs such as venue type, current GPS accuracy/HDOP, speed, map-matching to road/entrance polygons, and recent location variance. The engine must run primarily on-device for sub-150 ms decisions, with server-side fallback when signals are limited. Apply hysteresis and dwell thresholds to prevent flapping (e.g., require N seconds within radius before switching to WITHIN_RADIUS). Expose a state machine (OUT_OF_RADIUS, APPROACHING, WITHIN_RADIUS, CO_LOCATED) to the driver app, customer web view, and ZipTrail backend so downstream features (ETAs, notifications, code activation) can react consistently. Support offline operation with last-known venue rules and sync decisions when connectivity returns. Provide per-client overrides via remote config and a REST endpoint for server-side evaluation during web-only flows.
Create and maintain a venue taxonomy (e.g., residential house, apartment tower, shopping mall, office park, campus) mapped to default radius bands, dwell times, and entrance heuristics. Ingest venue metadata from address geocoding, POI polygons, and merchant-tagged locations; allow operators to override per-location rules in the ZipTrail dashboard. Store canonical entrance points (lobby, dock, curbside) and apply entrance snapping for approach logic. Provide APIs to fetch venue rules by job/stop ID. Changes must version and propagate safely to devices via remote config, with audit logs for compliance and rollbacks.
Gate activation of time-sensitive actions (PIN/QR code reveal, “I’m Here” button, proof-of-delivery capture) behind a co-location decision that requires both driver proximity (engine state WITHIN_RADIUS + dwell) and recipient/venue confirmation signals when available (customer device location consent, scanned QR at entrance, BLE beacon, or merchant kiosk check-in). Provide configurable fallback paths when recipient signals are absent (e.g., require photo + name capture). Record decision inputs and outcomes for auditability. Expose a single policy object per client to tune strictness by venue type and risk profile, ensuring reduced false negatives at towers/malls without opening fraud vectors.
Continuously assess signal quality (accuracy radius, HDOP, satellite count, speed jitter) and adapt behavior when GPS is degraded. Fuse alternative signals—Wi‑Fi SSIDs, cell triangulation, barometer for floor change, compass heading, and map-matching—to stabilize position near complex venues. When confidence is low, automatically widen the candidate radius within policy bounds and require additional corroboration (extended dwell, QR scan). Provide a manual override workflow gated by merchant policy with reason capture. Ensure low-power operation and graceful degradation on older devices.
Deliver step-by-step, brandable prompts to drivers and customers during approach and arrival: entrance hints ("Use Loading Dock B"), move-closer cues when just outside radius, and tips when GPS is poor. For customers, send real-time, venue-aware notifications with clear next actions ("Meet driver at Tower A lobby") when co-location is required. Localize text, support merchant theming, and throttle messages to avoid spam. Integrate with existing ZipTrail notification pipeline and respect user consent and quiet hours.
Instrument end-to-end metrics and logs for Smart Radius: radius chosen vs. venue type, confidence scores, dwell times, false positive/negative rates, activation successes/failures, and time-to-confirmation. Provide a dashboard in ZipTrail to visualize trends and slice by client, city, and venue. Enable remote configuration and A/B testing of thresholds and policies, with guardrails to prevent regressions. Surface anomalies and suggested policy tweaks (e.g., widen mall radius at specific POIs) based on historical outcomes, and feed back into the venue knowledge base after approval.
Guides a quick photo capture of the recipient and an ID/name label, with on-device text match to the order name. Shows a simple green check for drivers and stores encrypted evidence for audit—minimizing disputes in regulated drops without slowing the handoff.
Provide a fast, step-by-step capture experience in the driver app that first frames the recipient’s face and then the ID/name label (e.g., package sticker or government ID), with on-screen guides, auto-focus, glare/low-light detection, and auto-crop. Enforce a single-tap capture with instant review and quick retake to minimize friction. The flow must timebox each step to keep handoffs under 10 seconds and support iOS and Android camera APIs. Images should be normalized (crop, de-skew, denoise) on-device before match, and the UI must be accessible (large buttons, haptics, high-contrast). Integrate with the active order context so captured evidence is auto-associated with the correct stop and route segment in ZipTrail.
Perform on-device OCR to extract the presented name text and match it against the order’s recipient name using configurable fuzzy logic (case-insensitive, nickname mapping, initials, hyphenation, diacritics). Support printed labels and government IDs where name appears in Latin scripts at launch, with an extension point for additional languages. Return a simple green check on match and a clear reasoned prompt on mismatch (e.g., suggest alternate order name or manual verify flow). Enforce sub‑1.5s median processing on mid-tier devices without network calls. Do not upload raw images before match; compute and store only minimal features required for the decision until evidence is committed post-handoff.
Encrypt captured photos and match metadata end-to-end (device at-rest via Keychain/Keystore + file-level AES-256, in-transit via TLS 1.2+). Store evidence in ZipTrail with tenant-scoped keys and link to order, stop, driver, timestamp, and GPS location. Provide configurable retention (e.g., 30–365 days), auto-purge schedules, and hard-delete on data subject request. Offer privacy minimization options (store cropped name region only; optionally blur or hash facial region) while preserving audit value. Maintain tamper-evident hashes and immutable event logs for chain-of-custody. Enforce role-based access and redact sensitive fields in downstream exports.
Enable full capture and match offline, queuing encrypted evidence and decisions locally with durable storage and background retries using exponential backoff. Stamp records with device time, GPS, and app build to preserve provenance. Display the green check to the driver offline, and surface sync status badges in the stop timeline. Reconcile conflicts on reconnect (e.g., duplicate uploads) and ensure eventual consistency with the order timeline and analytics. Provide admin visibility into sync lag and failure reasons without exposing PII.
Present a configurable, localized consent notice prior to capture that explains purpose, retention, and contact info. Support tap-to-consent, checkbox, or signature where required by policy, and store a consent artifact linked to the evidence and notice version. Provide policy toggles per tenant to redact facial regions, limit storage to text crops, or disable face capture for non-regulated drops. Ensure the flow remains under the target handoff time and degrades gracefully if a recipient declines (fallback to manual verification with reason capture).
Deliver an admin web view to search and retrieve evidence by order, customer name, driver, date range, and route. Show redacted thumbnails, detail view with metadata, and links to the ZipTrail route timeline. Enforce role-based access, watermark previews, expiring share links, and full access logging. Allow export of a dispute-ready bundle (PDF/ZIP) with images, match result, and chain-of-custody log. Indicate retention status and purge dates, and support bulk export under lawful requests. Target sub‑2s search response for typical tenants.
Enables secure, time-sliced codes to validate even with spotty coverage. Drivers complete the duo-code check offline; events auto-sync when back online, giving dispatch a clear “verified offline” status and preserving a compliant audit trail.
Implements a driver-side verification flow that works fully offline using time-sliced rolling codes preloaded for assigned stops. The app prefetches a limited, per-stop code schedule during route start or when connectivity is available, then validates a two-factor check at the doorstep: the delivery token associated to the stop plus a recipient confirmation code (e.g., PIN/one-time code), without server roundtrips. Validation enforces code window tolerances, configurable clock-skew, single-use consumption, replay prevention, and attempt limits. Includes graceful fallbacks when cache is unavailable (e.g., capture reason code and alternate proof like photo/signature) and prevents completion if policy thresholds are exceeded. Integrates with route assignment services, mobile SDK, and server code issuance endpoints to ensure codes are scoped to driver, device, stop, and time slice for security and traceability.
Provides encrypted, tamper-resistant local storage for time-sliced codes and related metadata, bound to the specific device, driver session, and app build. Utilizes platform keystores/secure enclaves, encrypts at rest with rolling keys, and wipes cached material after use, route completion, or policy-defined TTL. Enforces jailbreak/root detection, rate limiting, and lockout after consecutive failures. Limits cached scope to active stops only, supports remote invalidation on next contact, and rotates server-side master keys regularly. All cryptographic materials and token formats avoid storing or exposing full plaintext codes while still enabling offline validation.
Captures offline verification outcomes as durable, ordered events with metadata (timestamps, GPS fix, driver/device IDs, stop IDs, code slice indices, and attempt counts) in a local queue. Implements deduplication via UUIDs, idempotent server endpoints, and conflict resolution rules to merge with server state. Automatically synchronizes when connectivity resumes using an efficient, battery-aware retry strategy with exponential backoff and transport compression. Guarantees event ordering per stop and preserves causality across related actions (arrive, verify, complete). Exposes sync status to the UI and provides retry visibility for support and drivers.
Surfaces a clear “verified offline” marker across mobile and web dashboards, timelines, and reports, distinguishing it from online verifications. Includes badges, tooltips, and filters, with drill-down details such as verification time window, GPS accuracy, code slice index, and attempt count. Extends APIs and webhooks with a verification_mode=offline flag and supporting metadata for partner integrations. Ensures accessible color/label choices and consistent behavior across light/dark modes. Supports bulk views for dispatch to triage exceptions and export lists of offline-verified stops for operational review.
Generates tamper-evident audit records for each offline verification, including hashed/truncated code artifacts, signed event envelopes, and optional hash-chaining to prove sequence integrity. Stores server-side immutable logs with retention controls, timezone-normalized timestamps, and data minimization for privacy. Provides export (CSV/JSON) and a human-readable audit viewer, plus verification utilities to validate signatures and event integrity during investigations. Ensures alignment with organizational policies and applicable regulations by keeping PII minimal and implementing role-based access to detailed artifacts.
Adds organization-level settings to tailor offline verification behavior: cache warm-up timing, per-stop cache size, code validity window, allowable clock skew, maximum offline duration, geo-fencing requirements, attempt limits, and conditions under which offline completion is blocked. Includes role-based permissions, environment-based defaults, and change audit logs. Provides safe configuration rollout with validation and preview, plus APIs and UI to manage policies. Emits alerts or dashboard warnings when drivers approach policy thresholds (e.g., cache nearly expired or offline too long).
Issues a limited-scope proxy code for authorized intermediaries (front desk, doorman, nurse station). Scoped to a tight geofence and short window, it masks sensitive details while still closing the loop with a verified handoff, reducing lobby runarounds.
Generate a unique, limited-scope proxy code tied to a specific delivery, with configurable parameters for geofence radius, valid time window, and single/multi-use limits. Provide code formats as numeric PIN and QR for scan-and-confirm workflows. Support creation from dispatcher web, driver mobile, and API, with server-side tokenization, expirations, revocation, and association to order ID without exposing recipient PII. Persist lifecycle events (created, viewed, redeemed, expired, revoked) and surface state to the order timeline and driver workflow.
Validate proxy code redemption only when the courier device location is within the configured geofence of the drop-off site and within the active validity window, with configurable grace periods and indoor GPS drift handling. Support fallback station devices (e.g., front desk tablet) via registered device IDs and network/location constraints. Log rejected attempts with reasons and expose override workflows gated by role-based permissions and reason capture. Integrate enforcement checks into driver app, scanning flows, and backend redemption API.
When a proxy pass is active, minimize exposed recipient data across courier and intermediary views by showing only essentials (order alias, building/floor, instructions) while hiding phone numbers, full names, and item details. Allow org-level configuration of what fields are masked, and ensure masking applies consistently to notifications, QR screens, and printed slips. Maintain internal linkage so ZipTrail can reconcile events and ETAs without leaking PII to intermediaries.
Require a verified handoff flow that combines proxy code redemption with at least one evidence type (photo, digital signature, or badge/name entry), plus timestamp and geolocation. Emit a "Proxy Handoff Confirmed" event that closes the order loop, updates ETA state to completed, and triggers branded notifications to the customer and dispatcher. Store artifacts securely with retention policies, and make them viewable in the order timeline and exportable for dispute resolution and SLA reporting.
Deliver proxy codes to authorized intermediaries via secure, expiring links over SMS and email with branded templates, localized content, and clear instructions. Enforce link expiry aligned to the proxy time window, rate limit resend attempts, and track delivery/open events. Support fallback printable/QR lobby cards for buildings without device access, with safeguards to prevent reuse after expiry or revocation.
Provide organization-level controls for maximum geofence radius, maximum validity duration, required evidence types, allowed delivery channels, and who can override enforcement. Maintain a tamper-evident audit trail of proxy pass actions (created, viewed, redeemed, overridden, revoked) including actor, timestamp, device, and location. Offer search, filters, exports, and retention settings to support compliance and incident reviews.
Expose API endpoints to create, fetch, and revoke proxy passes, and to redeem codes from scanning devices, secured with OAuth scopes and idempotency keys. Provide webhooks for key lifecycle events (created, viewed, redeemed, expired, revoked) with signed payloads and retry policies. Publish developer docs and a sandbox with test tokens to enable partner integrations and automation within existing dispatch systems.
When a match fails or the recipient isn’t present, auto-generates a fresh pair of duo-codes tied to a short retry window and nudges both parties via SMS. Prevents stale codes, keeps privacy intact, and salvages deliveries without dispatcher juggling.
When a delivery attempt fails because codes don’t match or the recipient is unavailable, the system instantly generates a fresh pair of short-lived duo-codes bound to the same order, current driver, and a defined retry window. Previous codes are invalidated atomically to prevent reuse. Codes are created using cryptographically strong randomness, are non-sequential, and scoped so they cannot be reused across orders. Driver-facing code is displayed in the courier app; recipient-facing code is only sent via SMS and never shown in the dashboard to protect privacy. All code creation and invalidation events are idempotent and traceable.
The platform determines when to initiate a reattempt by listening to explicit driver actions (e.g., “No match,” “Recipient not present”), failed code validation events, geofenced arrival with elapsed wait threshold, and customer no-response within a configurable time. The trigger logic deduplicates concurrent events, enforces per-order cooldowns, and records the failure reason. It works offline by queuing triggers on-device and reconciling once connectivity returns. Edge cases like order cancellation, driver reassignment, or delivery window expiry are honored to avoid creating invalid reattempts.
Each duo-code pair has a configurable validity window (e.g., 15–30 minutes) enforced server-side with clock drift tolerance. After expiry or on successful delivery, codes are invalidated and cannot be reused. The system supports a maximum number of reattempt rounds per order, configurable per account, and escalates the order status when the cap or overall SLA window is reached. Countdown timers persist across app restarts and offline periods, with background jobs cleaning up expired codes to minimize attack surface.
Upon reattempt creation, branded SMS messages are sent to both courier and recipient with the new code (only the relevant half), the short retry window, and a clear call to action. Messages use localized templates, support sender IDs/short codes per region, include opt-out language, and retry on delivery failures with backoff. The system masks PII, prevents leak of the other party’s code, rate-limits notifications to avoid spam, and records delivery receipts. Links in SMS open a lightweight web view that can confirm availability or request a later reattempt within the allowed window.
Courier mobile and web dashboards show a prominent reattempt status with a live countdown, the driver-side code, and next steps. The recipient-side code is never displayed to staff to preserve privacy. Status chips and activity feed entries indicate failure reason, when codes were rotated, and when the next expiration occurs. UI supports accessibility requirements (WCAG AA) and offline behavior with state reconciliation on reconnect. Admins can view read-only details and cancel reattempts if policy requires.
When a reattempt is initiated, the route engine recalculates the stop’s ETA based on the courier’s current GPS and route constraints and pushes the updated ETA to the recipient notification and the dashboard. The system avoids churn by throttling recalculations and ensures downstream analytics treat reattempts as a continuation of the same stop, not a new order. Existing webhook and integration payloads include a reattempt flag and new ETA.
The service records a full audit trail for each reattempt: trigger source, reason, code generation/invalidation timestamps, SMS send and delivery outcomes, validation attempts, and final disposition. Sensitive values are redacted or hashed at rest. Product analytics include salvage rate, average time to successful reattempt, SMS deliverability, and reduction in dispatcher contacts. Exports are available via CSV and API, and dashboards can be filtered by account, driver, and time range.
Captures a signed, time-stamped record of both code entries, GPS fix, photo, and name note. One-click exports (PDF/CSV) and API access make compliance reviews fast and give teams defensible proof to resolve chargebacks and complaints.
Deliver a guided capture flow on mobile and web that records, in a single atomic event, the recipient’s delivery code entry (4–6 digits), a digital signature, a precise GPS fix with timestamp, a handoff photo, and a typed recipient name note. The flow must attach the event to the correct order/stop, driver, and route context, validate inputs (e.g., enforce code match, minimum GPS accuracy threshold, photo present), and prevent duplicates. Support offline-first operation with local secure storage and queued sync on reconnect, while detecting device time drift and flagging low-accuracy GPS or missing artifacts with reason codes. Each event must include device/driver identifiers, capture method, and validation outcomes, and be encrypted at rest and in transit. Errors should surface actionable guidance to the driver and log diagnostics for support. The outcome is a complete, consistent, and verifiable handoff record that reduces failed deliveries and disputes.
Store each handoff event as an immutable, tamper‑evident record using hash chaining (including artifact hashes for photos and signatures), write-once storage semantics, and server-side timestamps. Maintain a full audit trail of who created, viewed, exported, or accessed each record, with IP/device metadata and reason codes for any administrative redactions. Enforce tenant-scoped RBAC/ABAC, encryption at rest and in transit, and configurable data retention policies with legal hold support. Provide integrity verification endpoints and an internal verification service that can prove record authenticity for audits and disputes. Any post-capture corrections must generate append-only events linked to the original record, never overwriting primary evidence. The outcome is defensible, verifiable proof with clear chain-of-custody.
Enable users to generate exports for one or many orders with a single action, producing branded PDFs and CSVs suitable for audits and customer communications. PDF packets must include order metadata, event timestamps, driver and recipient details (respecting redaction settings), GPS map snapshot, photo(s), signature image, code verification status, and integrity verification badge/QR linking to an authenticity check page. CSV exports must include normalized fields for bulk review. Provide filters (date range, driver, route, status, tags), batch selections, pagination-aware export, and asynchronous generation with email or shareable, expiring links. Support configurable branding (logo, colors), watermarks, page numbering, and optional PII redaction toggles. Log export actions to the audit trail. The outcome is fast, consistent evidence packets that reduce time spent on compliance reviews.
Provide a stable, versioned REST API to list, filter, and retrieve handoff ledger entries and their artifacts (photos, signatures, verification metadata), with pagination, sorting, and rich filtering (order ID, external reference, driver, time window, validation outcomes). Implement OAuth2 client credentials for server-to-server access, tenant-scoped tokens, rate limiting, idempotency keys for uploads, and HMAC-signed webhooks for new/updated handoff events and export completion. Include field-level redaction options, ETag/conditional requests, and error contracts. Deliver comprehensive API documentation and example clients. All accesses must be audited. The outcome is seamless integration with partner systems and back-office tooling.
Add a workspace to assemble dispute-ready packets from one or more ledger entries, including a chronological timeline, annotated evidence (photos, signature, GPS map), and a narrative summary. Allow users to attach internal notes, categorize the dispute, and generate a shareable, expiring link or branded PDF bundle. Provide quick-apply templates (e.g., “No recipient present”, “Address mismatch”), redact sensitive fields as configured, and include an authenticity verification badge. Track packet status (Draft, Submitted, Resolved), owners, and external references (RMA/case IDs). Log all actions to the audit trail. The outcome is a faster, standardized process to resolve complaints and chargebacks with defensible evidence.
Provide an admin UI and policy engine to define capture requirements by scenario (e.g., alcohol, high-value, contactless), geography, order tags, or order value. Rules can require or relax artifacts (signature, photo, code), set minimum GPS accuracy, enforce geofence within a distance of destination, and mandate reason codes and reattempt flows on failure. Support per-tenant branding and consent text, localization, accessibility options, and training tooltips in the driver app. Expose rule evaluation outcomes in the ledger and APIs. Include real-time validation feedback to drivers and configurable escalation (e.g., call customer, notify manager). The outcome is consistent, policy-compliant captures that adapt to business and regulatory needs.
Forecasts ETA slips before they happen by analyzing live GPS speed, dwell patterns, traffic, and prep signals. Flags at‑risk stops with minute‑by‑minute risk scores and proposes the smallest corrective action to keep promises. Act early, cut missed drops, and prevent “where’s my order” calls during rush.
Continuously ingest driver GPS traces, speed, and dwell events; third‑party traffic conditions; and merchant prep signals (e.g., order ready times) into a unified real‑time stream tied to each route and stop. Normalize heterogeneous data into a consistent schema, correct clock skew, snap GPS to roads, map points to route legs and stops, and deduplicate overlapping events. Provide back‑pressure handling, retries, and idempotency to ensure reliable processing during peak load and intermittent connectivity. Expose ingestion via SDKs and webhooks with authentication and rate limits, and store a rolling time window for model features and auditability. Integrate with ZipTrail’s existing route model so that each signal is associated with the correct courier, route, and stop. Target end‑to‑end data latency under 5 seconds with at‑least‑once processing guarantees and PII minimization consistent with ZipTrail privacy standards.
Compute a per‑stop ETA slip risk score (0–100) that updates at least once per minute while a route is active, using features such as current speed vs. expected, dwell duration, traffic slowdown, distance/time remaining, merchant prep readiness, historical driver pace, and promised delivery window. Ensure scoring latency under 1 second per batch with horizontal scalability. Provide calibrated thresholds for Low/Medium/High risk and expose top contributing factors for each score to support operator trust and explainability. Persist scores and explanations for analytics and model monitoring. Integrate with the existing ETA engine to compare predicted arrival with promise windows and identify potential slips before they occur.
Trigger early warnings when a stop’s risk score crosses configurable thresholds, with hysteresis and rate limiting to avoid alert noise. Route alerts to the right party (dispatcher, driver, merchant) based on role, territory, and shift, and support in‑app banners, push, and optional SMS/email within ZipTrail’s notification framework. Provide acknowledgement, escalation, and auto‑resolve rules tied to risk decay or action taken. Maintain an alert log with timestamps, recipients, delivery status, and outcomes for audit and optimization.
Generate ranked, least‑disruptive corrective actions for an at‑risk stop, such as resequencing the next two stops, reassigning to a nearby courier, nudging prep to expedite or hold, suggesting a short detour to avoid congestion, or proactively adjusting the customer ETA. Estimate impact (minutes saved, promise kept probability) and operational cost for each option, respecting constraints like driver capacity, service zones, and merchant prep readiness. Provide one‑click apply with confirmation, simulate effects on downstream stops, and support rollback if outcomes degrade. Integrate with existing route editing and notification systems to execute selected actions.
Embed a route and stop‑level visualization in ZipTrail’s web and mobile dashboards showing current risk states on map and list views, with color‑coded scores, trend sparklines, top reasons, and recommended actions. Support filtering by fleet, zone, merchant, driver, and risk level; sorting by lead time to slip; and a timeline view to monitor how risk evolves minute by minute. Provide quick actions (acknowledge, apply recommendation, snooze) and tooltips with explanations to improve operator confidence. Ensure responsive performance with real‑time updates and accessibility compliance.
When risk persists beyond a configurable lead time, automatically adjust branded customer notifications with revised ETAs and clear reasons (e.g., traffic delay), linking to the live tracker. Respect merchant preferences, quiet hours, and channel policies, and throttle updates to prevent over‑messaging. Support multilingual templates and A/B testing to measure impact on WISMO calls and CSAT. Seamlessly integrate with ZipTrail’s existing notification service and maintain delivery and engagement metrics for analysis.
Capture outcomes for every at‑risk stop, including actions taken, actual arrival time vs. promise, customer notification sent, and whether a slip was prevented. Compute precision, recall, lead time, and action ROI to monitor model health and operational value. Provide dashboards and exports, trigger alerts on model drift, and feed labeled data back into training pipelines on a scheduled cadence with versioning and rollbacks. Ensure data retention, privacy compliance, and experiment support to compare policy and threshold changes over time.
Evaluates every feasible driver‑stop swap in real time and ranks options by net time saved, added detour, driver capacity, and proximity. Shows clear before/after ETAs and impact badges so dispatchers can apply the best fix in one tap. Stabilizes routes while rescuing late orders with minimal disruption.
Evaluates all potential driver–stop swaps in real time by ingesting live GPS pings, current route sequences, stop time windows, driver capacity, vehicle constraints, and service zones. For each candidate, simulates insertion/removal using the routing ETA service to compute incremental travel time, stop dwell, and knock-on effects across the affected routes. Filters out infeasible options (capacity overflow, zone/shift violations, SLA breaches) and annotates remaining candidates with constraint status and reasons for exclusion. Operates continuously with streaming updates and returns a bounded candidate set optimized for sub-second UI responsiveness. Integrates with ZipTrail’s routing, driver, and order services via internal APIs with idempotent requests and structured error handling. Outcomes are a clean, accurate pool of viable swaps ready for scoring.
Assigns a composite score to each feasible swap using configurable weights across net time saved, added detour, proximity, route stability cost (stops reordered), driver workload balance, remaining shift time, and customer SLA impact. Supports organization-level default weights and per-queue overrides, with safe ranges and presets (Speed, Stability, Balance). Produces a stable, deterministic ranking and exposes the top N candidates with tie-breaking rules. Provides telemetry on score components for transparency and tuning. Designed to compute at stream rates and cache results until new telemetry invalidates inputs.
Presents a clear, side-by-side preview of before/after ETAs for every stop affected by a candidate swap across both drivers’ routes. Highlights changes with color coding, delta minutes, and badges such as Rescues Late, +Detour, Capacity OK, and SLA Risk. Supports drill-down into per-stop details (distance, dwell assumptions) and aggregates total route impact. Optimized to render instantly from precomputed swap payloads and resilient to live data refreshes, preserving the current comparison state until dismissed.
Allows dispatchers to apply a selected swap in one tap with transactional updates to assignments, route sequences, and ETAs. Executes final pre-commit validations against the latest telemetry and locks affected routes during the transition to prevent conflicts. Notifies assigned drivers via the mobile app with turn-by-turn updates and acknowledges acceptance if configured; sends updated customer ETA notifications under the brand settings. Provides a time-boxed undo that fully rolls back changes and emits an audit log (who, what, when, before/after). Ensures idempotency and partial-failure recovery with compensating actions.
Keeps swap suggestions and previews synchronized with live GPS and ETA updates while preventing race conditions from multi-user edits. Implements optimistic concurrency with versioned route snapshots; flags stale previews and auto-refreshes scores when inputs change. Provides clear conflict messages and guided retry if another user modified the routes, and ensures consistent state through short-lived locks during apply. Includes performance guardrails to throttle recomputation under telemetry spikes.
Continuously monitors orders trending late using predictive ETA risk scoring and raises proactive swap suggestions when risk crosses configured thresholds. Surfaces a focused alert panel with the top recommended swaps per at-risk order, including expected minutes rescued and disruption level. Provides configurable business rules (e.g., exclude VIP customers from disruption, prefer same-zone swaps) and quiet hours. Integrates with notifications to prompt dispatchers without overwhelming them, with rate-limiting and snooze.
Ingests live prep times from POS/KDS or quick-tap kitchen updates so the engine schedules around what’s truly ready. Prioritizes ready‑first orders and pairs them to nearby drivers finishing soon, shrinking counter pileups and keeping food hot to the door.
Build and maintain secure integrations to major POS/KDS systems (e.g., Square, Toast, Clover, Lightspeed) to ingest real-time prep signals (order created, prep started, item ready, order ready). Support webhooks where available with signature verification and replay protection; fall back to efficient polling with delta windows when webhooks are unavailable. Map external order and item identifiers to ZipTrail orders, including partial readiness for multi-item orders. Ensure idempotent event processing with retries and exponential backoff. Provide a self-serve configuration UI for merchants to authorize connections (OAuth2 or API keys), select locations, and map order channels to ZipTrail. Enforce multi-tenant isolation and rate limiting with backpressure handling. Performance targets: p50 ingestion-to-availability under 3 seconds, p95 under 8 seconds per event. Deliver operational resilience with dead-letter queues, vendor-specific health checks, and automated failover to heuristics if feeds degrade.
Provide a lightweight, low-latency kitchen interface (web and mobile) that allows staff to quickly update order status via large, glove-friendly buttons: prep started, paused, item ready, order bagged/ready. Enable quick access via PIN/QR code with role-based permissions (kitchen, expo). Include order lookup by name, order number, or barcode/QR scan; show prioritized queue with clear visual states and color contrast for high visibility. Support offline operation with local queueing and automatic sync on reconnect. Offer multi-station support with station-specific item ownership and merge of item-level events into order-level readiness. Include haptic/audio confirmations, configurable shortcuts (e.g., mark all sides ready), and multilingual labels. Ensure minimal training by following common KDS patterns and provide a compact widget mode that can embed alongside existing KDS screens.
Create a unifying data model that merges prep signals from POS/KDS, manual kitchen taps, and historical behavior into a single predicted ready-at timestamp per order. Compute a confidence score (0–1) based on signal freshness, source reliability, and agreement across sources. Detect and flag stale or conflicting signals; auto-resolve using recency, source priority, and item-level completion rules (slowest-item or bagging thresholds). Implement category-aware heuristics (e.g., pizza vs. salads) and time-of-day modifiers, with per-location overrides. Expose normalized fields via API and internal services: ready_at, ready_confidence, source_of_truth, and last_signal_at. Provide operational fallbacks when live signals are missing, including historical averages and dynamic adjustments derived from real-time kitchen throughput. Surface confidence and reasons in dashboards to help staff and dispatchers trust the data.
Enhance the scheduling engine to prioritize orders by readiness and proximity, pairing ready or near-ready orders with drivers who will finish current drops nearby. Incorporate constraints such as driver capacity, maximum counter dwell time, temperature windows, pickup time promises, and customer SLAs. Support batching of compatible orders when routes are aligned and thermal/hold-time limits are respected. Introduce configurable weighting between readiness, driver ETA to store, and promised delivery windows, with per-tenant tuning. Continuously re-optimize as new prep signals arrive, minimizing idle counter time and reducing missed drops. Provide what-if simulation and A/B toggles to compare outcomes against legacy dispatch rules, with key metrics (counter dwell, on-time rate, driver idle, hot-hold violations).
Recompute pickup and delivery ETAs whenever prep readiness changes, updating driver assignments and customer-facing timelines in real time. Apply smoothing and rate limits to avoid notification churn (e.g., suppress updates for deltas under a configurable threshold). Trigger branded customer notifications via SMS, email, and push that reflect states like Preparing, Bagged, Driver En Route, and Adjusted ETA, with localized templates and quiet-hours rules. Update courier apps with precise pickup windows and alert when an order flips to ready or risks exceeding counter dwell limits. Expose an event timeline in the tracking view so customers and staff can see key milestones and sources of change. Ensure all notifications are compliant with messaging regulations and include opt-out mechanisms.
Implement end-to-end observability for PrepPulse Sync: metrics for event latency, throughput, error rates per vendor/location, backlog depth, and confidence distribution. Provide dashboards and alerting for missing webhooks, elevated retries, or stalled locations, with automated runbooks and circuit breakers that switch to heuristic mode when feeds degrade. Maintain an immutable audit log of readiness-related events capturing who/what changed status, timestamps, source system, and before/after values. Expose an admin view to search and export audits for dispute resolution and support, with data retention and redaction policies (e.g., 90 days default, PII minimized). Enable dead-letter queues with replay tools to recover from transient failures without duplicating state.
Secure all integrations and user interactions for PrepPulse Sync with least-privilege access to POS/KDS APIs (scoped OAuth), encrypted secrets management, and signed webhooks over TLS. Enforce strict tenant isolation across data pipelines and storage; minimize PII in ingested payloads and scrub logs. Provide role-based access control for kitchen and dispatch roles, optional SSO for larger tenants, and session hardening on shared devices (auto-logout, kiosk mode). Implement rate limiting and abuse detection on public endpoints. Align with compliance frameworks (e.g., SOC 2 controls) and maintain consent/opt-out management for customer messaging. Document data flows and provide a Data Processing Addendum addendum covering prep signal processing.
Sets guardrails the engine must honor: lock critical stops to a driver, require skills (ID check, age‑restricted), cap route stretch, avoid bike‑unfriendly/toll segments, and define max stop counts. Prevents risky or non‑compliant reassignments while still optimizing the rest.
Enable dispatchers to hard-lock specific stops to a designated driver so that the optimizer treats those tasks as immutable anchors during initial planning and any re-optimization. Locked stops persist across sessions, mobile reconnects, and batch edits, and are clearly indicated in web and mobile UIs. The routing engine must exclude locked stops from swap, merge, or reassignment operations while continuing to optimize all other stops. Provide single and bulk lock/unlock actions, effective-now or scheduled locks, and permissioned override with reason capture. Expose lock state via APIs, enforce on import/webhooks, and record all changes in an audit log. Mobile apps display lock badges and prevent self-reassign for locked tasks.
Support skill and certification tagging on drivers (e.g., ID verification, age-restricted delivery, hazmat, refrigeration) and required-skill markers on stops/orders. During planning and re-optimization, the engine must only assign stops to drivers possessing all required active skills, honoring expirations and effective dates. Validate skill requirements on ingestion and edit, surfacing real-time warnings when no eligible driver exists. Provide configurable fallbacks (e.g., allow override by role, place on hold queue) with explicit reason codes. Expose management via UI and API with bulk edit, import/export, and audit trails. Include reporting to monitor coverage gaps and upcoming expirations.
Allow configuration of maximum allowable route stretch per driver or fleet, defined as percentage and absolute caps on added time and distance versus a baseline (initial plan, SLA, or historical average). During rebalancing, the optimizer must reject or limit moves that would exceed the cap, and return structured reason codes for blocked changes. Support per-shift and time-window caps, with separate thresholds for pickup vs. drop segments. Provide admin UI to set defaults and overrides, API for programmatic control, and analytics to visualize stretch impact and exceptions. Include simulation mode to preview effects before applying to live routes.
Introduce vehicle- and policy-aware routing profiles that avoid bike-unfriendly paths (stairs, tunnels, high-speed arterials), toll roads, and restricted highways based on map tags and jurisdiction rules. Constraints are configurable per vehicle type, driver, fleet, and time window, with fallbacks when avoidance makes a stop unreachable. When constraints are relaxed, the system must log the exception and explain the chosen path. Provide toggles in the planner UI, profile assignment at driver level, and API flags. Include regular map data updates and a validation layer to detect contradictory settings (e.g., bike profile with highway-only access).
Enable hard and soft caps on the number of stops per driver, route, or shift, with configurable thresholds by service type and time window. The engine must respect hard caps during initial planning and re-optimization, and treat soft caps as a cost that discourages overloading unless necessary. Include validation on import and bulk assign actions, visual indicators when nearing limits, and suggestions to split or defer excess stops. Provide per-driver overrides with permissions, and ensure locked stops count toward the cap. Expose limits in APIs and include cap-related metrics in route summaries.
When locks or limits prevent reassignment or routing changes, generate clear, structured explanations that identify the blocking rule(s), the affected stops/drivers, and the attempted action. Present actionable guidance (e.g., unlock stop X, assign driver with skill Y, increase stretch cap to Z%) and allow one-click remediation for users with permission. Provide an explanations panel in the planner UI, include reason codes in API responses, and log conflicts to the audit trail for postmortem review. Support export of conflict reports and telemetry to help tune policies over time.
Deliver a centralized settings console and REST API to manage all Lock & Limits policies, including CRUD for locks, skills, caps, segment preferences, and stop limits. Implement RBAC with granular permissions (view, set, override), bulk operations, CSV import/export, versioning with effective dates, and sandbox mode to test policies against sample routes. Provide webhooks for policy changes, monitoring dashboards for policy hits/violations, and a complete audit log with user, timestamp, and reason. Ensure high availability and idempotent endpoints to support integrations.
Executes approved swaps end‑to‑end without dispatcher juggling: alerts the new driver, resequences their queue, updates turn‑by‑turn, and auto‑notifies recipients with a refreshed branded ETA. Keeps everyone aligned and reduces chaos during peak periods.
Provide UI and API to initiate a swap of one or more stops/orders from one driver to another with minimal clicks. Enforce role-based permissions, capture reason codes and optional notes, and pre-validate eligibility (recipient driver on-shift, geo proximity, capacity, service/time-window constraints). Present an impact preview showing ETA deltas and service risks before confirmation. Support bulk selection, auto-approval rules for peak periods, and manual approval with a full audit trail. Integrate within the dispatcher web dashboard and mobile admin views, and expose an idempotent endpoint for external systems to request/approve swaps.
Upon swap approval, automatically re-optimize the recipient driver’s stop order based on current GPS position, live traffic, time windows, priorities, and vehicle constraints, while preserving any locked or service-critical stops. Recompute ETAs for both the donating and receiving drivers, update route scores, and publish before/after views to the dispatcher. Apply business rules (e.g., item restrictions, driver certifications) and commit all changes within seconds to maintain real-time accuracy. Scale to handle bursts during peaks without degrading ETA quality.
Notify the recipient driver instantly via push/in-app banner with a concise summary (stop count, next stop, ETA impact, special instructions) and provide one-tap Accept/Decline. Configure a timeout with auto-assign or fallback routing based on policy. Offer SMS/voice fallback if the app is offline, and escalate to dispatcher on non-response. Track acknowledgement timestamps and surface status in the dispatcher dashboard. Localize content and support lock-screen actionable notifications for minimal friction.
Seamlessly update the driver app’s navigation queue after acceptance: remove transferred stops from the original driver and insert them into the recipient driver’s queue with correct ordering and guidance. If the driver is mid-leg, recalculate the current leg and provide an immediate next maneuver. Support deep links into native navigation (Apple/Google Maps) and preserve checklists and special handling notes. Ensure background sync for offline scenarios and reconcile upon reconnect without duplications.
Automatically notify affected recipients when a swap changes their delivery/pickup ETA, using branded SMS, email, and push according to their preferences and quiet hours. Include a refreshed live tracking link, updated ETA window, driver identity (subject to privacy settings), and a brief reason message. Localize templates, handle bounces/retries, and rate-limit to avoid spam. Update the customer tracking portal and message center in real time and log delivery/engagement events for reporting.
Execute swaps as atomic transactions across orders, routes, notifications, and navigation updates to prevent partial states. Use idempotency keys, retry/backoff, and compensating actions for failure scenarios. Emit structured events for observability, maintain a tamper-evident audit log (who, what, when, why), and expose metrics/SLOs (e.g., p95 swap commit <5s, recipient notification <15s). Provide admin tools to view history and export logs for compliance.
Enforce safety and policy constraints during silent hand-offs: block swaps during proof-of-delivery or payment capture, verify driver eligibility for restricted items, honor geofences and service zones, and prevent swaps that violate legal constraints or store policies. Provide graceful degradation for offline drivers, rollback on failure with clear dispatcher alerts, and guidance to resolve conflicts. Include configurable rule sets per tenant.
Optimizes with promised windows at the core. Weights VIPs, hot items, and narrow windows so rebalances protect commitments first. Visual risk heat and swap rationale make trade‑offs transparent and help teams defend on‑time performance.
Introduces a real-time optimization engine that centers promised delivery windows in decision-making. It ingests live driver GPS, stop ETAs, traffic, and order attributes to score each delivery by breach risk, applying configurable weights for VIP customers, hot items, and narrow windows. The engine continuously rebalances assignments and suggests swaps to minimize SLA violations while maintaining route feasibility and driver constraints. It integrates with ZipTrail’s existing routing and ETA services, surfaces protected commitments, and outputs updated routes and ETAs to web and mobile dashboards. Expected outcomes include higher on-time rate, fewer missed drops, and reduced manual triage.
Provides early-warning notifications when a delivery approaches SLA risk thresholds based on live ETA deltas and confidence intervals. Alerts trigger in-app, via email, SMS, or push with severity levels and recommended actions (swap, resequence, customer notify). The module ties into ZipTrail’s notification service, respects user roles and quiet hours, and throttles to avoid alert fatigue. It logs acknowledgments and resolutions to support accountability and later analysis. Expected outcome is earlier intervention and fewer SLA breaches.
Adds a visual, route-aware heatmap that highlights current and forecasted SLA risk across all active orders and drivers. Uses color gradations, countdown timers to window end, and confidence bands to convey urgency at a glance. Supports filtering by VIP tier, item type, region, and driver, and pins narrow-window stops for fast triage. Integrates with existing ZipTrail dashboards and links directly to swap actions and customer messaging. Expected outcome is faster situational awareness and targeted resource focus.
Explains every auto- or suggested rebalance with plain-language rationale (e.g., ETA improvement, VIP weight, window tightness) and quantitative impact (minutes saved, risk reduced). Captures before/after route metrics and preserves a searchable audit log of changes, actors, and timestamps. Integrates with optimizer outputs and dashboard UI components to display justifications inline and in a detailed modal. Expected outcome is transparent decision-making that builds trust and enables post-shift reviews.
Introduces admin-configurable policies for SLA protection, including VIP tiers, hot item definitions, narrow-window thresholds, penalty curves for lateness, and driver constraints (capacity, shift limits). Supports per-tenant presets, effective-dated changes, and safe defaults. Includes validation, preview of policy impact on sample routes, and API endpoints for automated updates. Expected outcome is alignment of optimization behavior with each business’s priorities without code changes.
Provides a sandbox to simulate candidate changes—driver swaps, stop resequencing, start times, or temporary traffic slowdowns—and projects their effect on SLA risk, ETAs, and driver workload before committing. Runs fast, side-by-side comparisons with the current plan and highlights trade-offs. Integrates with the optimizer in read-only mode and permits one-click apply with permission controls. Expected outcome is better decisions through safe exploration of alternatives.
Delivers analytics on on-time percentage, breach counts, minutes saved, and commitments protected, sliced by store, route, VIP tier, item type, and time. Includes trend lines, cohort comparisons pre/post SLA Shield, and exportable reports. Pulls from the audit trail and delivery events to attribute outcomes to specific rebalances and alerts. Expected outcome is measurable ROI and continuous tuning of policies based on evidence.
Maintains driver trust during rebalances by tracking workload and earnings across swaps. Suggests equitable assignments and auto‑splits tips or incentives when orders move, reducing friction and improving acceptance of dynamic load balancing.
Provide an immutable, event-sourced ledger that records all assignment, pickup, handoff, and completion events per order and driver, tracking workload metrics (time on task, distance, stops, wait time) and mapping them to earnings, tips, and incentives. On every swap, persist the split calculation, rationale, policy version, and before/after balances to ensure transparency and payroll-grade accuracy. Integrate with ZipTrail’s GPS telemetry and route-aware ETAs to compute effort attribution in real time, support idempotent event ingestion, backfill of late events (e.g., late-arriving tips), export for payroll/accounting, and API access for partner systems. Expose read-only views to drivers for trust while guarding sensitive peer data via role-based access controls.
Implement a scoring engine that recommends rebalances based on a fairness index combining live workload (active orders, route slack), effort-to-earnings ratio, proximity to next stop, historical shift earnings, vehicle capacity, and driver preferences. Surface ranked suggestions in the dispatcher dashboard with explanations of fairness impact and on-time delivery probability, enforcing constraints like maximum reassignments per order and cooldowns. Leverage ZipTrail’s ETA models to avoid degrading delivery SLAs, log decisions for audit, and expose metrics (acceptance rate, on-time rate, fairness variance) for continuous tuning.
Automatically calculate and apply tip/incentive splits when orders move between drivers, supporting policy options (fixed %, time-based, distance-based, step-bonus thresholds) and handling multi-driver handoffs. Ingest POS/gratuity events and promotions, hold late-arriving tips for deferred settlement, and reconcile deltas to the ledger with traceable adjustment entries. Implement rounding, currency, and minimum-guarantee rules; handle edge cases (cancellations, partial completions, batched orders) while reflecting updates instantly in driver balances and dashboards.
Add a driver-facing screen that previews the earnings and workload impact of a proposed swap before acceptance, including breakdown of base pay, tips, incentives, and fairness rationale. Provide accept/decline with response timers, offline-safe caching, accessibility and localization support, and secure acknowledgment logging. Integrate with in-app and push notifications to ensure drivers are informed in real time, and sync accepted/declined outcomes back to the scoring engine and ledger.
Enable a structured workflow for drivers to dispute a split or assignment within a configurable window, attach evidence (notes, photos, telematics markers), and receive rule-based auto-resolution or admin review. Provide admin tools to propose adjustments, request info, and finalize outcomes that post compensating entries to the ledger with full audit trails. Notify involved drivers of status changes, enforce SLAs, and expose dispute analytics to identify policy tuning opportunities.
Offer an admin console to configure fairness weights, split rules, caps, and regional exceptions, with versioning and safe rollout (by merchant, fleet, or region). Provide a simulation mode that replays historical routes and swaps to compare policy variants on fairness, acceptance rate, and on-time delivery. Support A/B tests, publish policy change logs, and surface monitoring dashboards to detect regressions and guide continuous optimization.
Automates test sizing and stopping so you only ship messages that truly reduce support pings. It calculates the right sample per store, monitors results in real time, and auto-ends tests once a clear winner emerges—protecting small locations from underpowered trials and preventing false winners. Clear win badges and projected impact make decisions effortless.
Compute statistically valid sample sizes per store for A/B tests of customer notifications aimed at reducing support pings. Leverage historical order volume and baseline ping rate to set minimum detectable effect, power, and alpha, then output required exposures per variant and projected test duration by store. Apply guardrails for low-volume locations (e.g., minimum sample floors, clustering/pooling) to avoid underpowered trials and cap maximum test length. Dynamically re-calculate targets as live traffic deviates, publish sizing to the experiment config, and expose sizing rationale in the dashboard. Integrates with ZipTrail’s store catalog, event schema, and analytics warehouse.
Stream low-latency exposure and outcome events to measure the impact of notification variants on support pings in near real time. Capture variant assignment, notification send/open, and a unified “support ping” outcome from inbound calls, SMS replies, chat, or help taps within a defined attribution window. De-duplicate events, handle late arrivals, and standardize across web and mobile SDKs and server-side sends. Provide per-store, per-variant metrics (conversion, ping rate, lift) with sub-minute freshness SLAs and emit metrics to the Smart Significance engine and dashboards.
Continuously monitor experiment results and automatically stop tests per store once stopping criteria are met (e.g., required sample reached and winner confidence threshold achieved). Optionally auto-promote the winning variant to 100% traffic with a configurable cooldown and rollback option. Support global or per-store stopping, freeze windows, and alerts to stakeholders via email/Slack. Persist decision artifacts (time, threshold, metrics) and update routing to enforce the new allocation immediately.
Implement sequential testing or Bayesian decision rules to control false positives across repeated looks at the data. Enforce minimum exposure thresholds, alpha spending/multiplicity adjustments across variants and stores, and practical significance checks to prevent promoting trivial lifts. Validate rules via simulation on historical data, and expose decision thresholds, posterior/confidence intervals, and error rates in an auditable log for each test decision.
Provide clear visual badges and summaries in the dashboard showing current winner/loser status, observed lift with confidence/posterior intervals, and projected monthly reduction in support pings and time saved for each store and network-wide. Include tooltips explaining why a variant is declared a winner, sample counts versus targets, and sensitivity to assumptions. Enable exportable reports and API access for sharing results with stakeholders.
Provide deterministic bucketing (e.g., by order or customer ID) to ensure stable variant assignment across the delivery journey, with per-store traffic allocation controls and ramp schedules. Define eligibility rules to exclude ineligible orders (test orders, manual deliveries, GPS failures, out-of-coverage routes) to prevent contamination. Persist assignment for auditability and ensure cross-experiment isolation to avoid interference.
Continuously monitor data freshness, event volumes, attribution latency, clock skew, and GPS sync signals. Detect anomalies (e.g., sudden drop in exposure events or surge in pings), surface them in the dashboard, and auto-pause or flag impacted tests until data quality recovers. Provide backfill mechanisms for late events and maintain an audit trail of incidents, pauses, and resumes.
Optimizes when each SMS lands based on order stage, promised window, and past engagement. It learns per store and zone, then selects the minute that maximizes opens and link taps without spamming. Staggers bursts during rush, prioritizes pre‑arrival nudges, and measurably cuts “where’s my order” calls with zero manual scheduling.
Unify order lifecycle events (placed, accepted, ready, picked up, approaching, delivered, canceled) with promised delivery windows, route ETAs, and driver GPS to maintain a real-time stage context that Send‑Time Lift uses to decide when to schedule SMS. Ingest from POS, order APIs, and mobile SDK; normalize to a canonical state machine; include timestamps, zone, store ID, and customer timezone; handle late/missing events with timeouts. Emit idempotent updates and provide a queryable context so the scheduler can evaluate rules per order. Expected outcome: accurate, timely stage detection that triggers scheduling decisions and prevents messages after delivery/cancel.
Implement a learning algorithm that determines the optimal minute to send each SMS per store and delivery zone, conditioned on order stage, promised window, and historical engagement (open/tap). Start with heuristic baselines (e.g., X minutes after pickup, Y minutes before ETA) and progressively adapt using bandit or Bayesian optimization to maximize opens and link taps while minimizing frequency. Model must support cold-start defaults, confidence thresholds, decay of stale data, and guardrails (max N SMS per order). Provide explainable outputs and override hooks. Persist model parameters per store/zone and surface a scoring API for the scheduler.
Capture SMS engagement metrics by instrumenting tracked short links and delivery receipts. Generate unique per-message short URLs with redirect service, log opens (clicks), downstream actions (track page views), and correlate with order, store, zone, stage, and send timestamp. Ingest carrier delivery/failure receipts to compute deliverability. Store aggregated cohorts for modeling and reporting with privacy safeguards and TTL. Expose events to analytics and experimentation layers.
Build a scheduling and queuing layer that smooths bursts during rush periods by staggering sends across orders while respecting carrier throughput and per-sender limits. Implement per-store, per-zone, and per-SMS-number rate limits; backoff and retry on provider 429s; ensure ordering fairness; and preserve priority for time-sensitive messages. Provide minute-level scheduling with timezone awareness and failover between SMS providers if capacity saturates.
Ensure messages intended to reduce missed drops (e.g., “driver arriving soon”) are prioritized in the scheduler and bypass non-critical throttling when within a configurable window before ETA. Include logic to re-evaluate ETA drift from GPS; cancel or reschedule if arrival passes; enforce per-order frequency caps and deduplication. Provide templates and tokens for dynamic content (driver name, updated ETA, tracking link).
Enforce consent, opt-out, and quiet-hour policies automatically. Honor STOP/HELP flows, maintain opt-in status per phone number and brand, and block sends during store- or zone-defined quiet hours based on customer timezone. Apply frequency caps per order and per day; scrub PII from analytics; and provide audit logs for message decisions. Integrate with carrier compliance requirements (A2P 10DLC, sender IDs) and validate template content for required disclosures.
Provide an experimentation framework to quantify the impact of Send‑Time Lift versus fixed schedules. Support holdout groups, per-store/zone experiments, and statistical reporting on open rate, tap rate, conversion proxies, and reduction in “where’s my order” (WISMO) calls. Attribute WISMO reductions by correlating inbound support calls with order timelines. Expose results in dashboards and export via API.
Generates on‑brand, multilingual variants with one click and guards tone and phrasing to match your style. It highlights clarity issues, suggests concise CTAs (e.g., Add Gate Code), and auto-includes safe variables like ETA ranges. Side‑by‑side previews and readability tips help teams publish stronger copy faster.
Enable tenants to create and manage reusable brand voice profiles (tone, style descriptors, do/don’t phrases, reading level targets) and enforce them during copy generation and edits. Copy Coach must validate outputs against each profile’s rules, flag violations (e.g., off-tone wording, banned phrases), and propose compliant alternatives. Profiles are selectable per template and channel, ensuring consistent voice across SMS, email, and push. Enforcement applies across languages and preserves intent while adapting idiomatically. The service integrates with ZipTrail’s notification templating engine, supports auditability of rule hits, and exposes a policy evaluation API for pre-publish checks.
Provide a centrally managed whitelist of safe variables (e.g., ETA window, tracking link, order short ID, driver first name initial) with formatting rules and localization patterns. Copy Coach must preserve and auto-inject required variables if missing, validate placeholders, and block unapproved or PII-revealing fields. It should render channel-aware fallbacks when data is unavailable and standardize formats (e.g., ETA 12:10–12:25 local time). Pre-publish validation runs inline and in CI for templates, integrating with ZipTrail’s notification runtime to ensure runtime-safe substitution. This reduces support calls and compliance risk while ensuring critical delivery context is always present.
Allow users to generate on-brand variants for selected locales in one click, preserving placeholders and style rules. Support a per-tenant localization glossary and do-not-translate lists for brand terms, plus right-to-left rendering and locale-specific punctuation/date formats. Include translation memory to reuse previously approved segments and a fallback strategy when a locale variant is unavailable. Bulk-generate across channels and export/import glossary files. Integrates with brand voice enforcement and safe variable handling to ensure semantic fidelity and compliance across languages.
Provide real-time readability scoring (e.g., grade level ranges) and clarity diagnostics that highlight long sentences, jargon, passive voice, and ambiguous phrasing. Offer inline, one-click rewrites that preserve variables and tone, plus channel-specific guidance (e.g., SMS segment limits, subject line length). Display predicted comprehension impact and show before/after diffs. The analyzer runs client-side for immediate feedback and server-side for final checks, integrating with previews and approval workflow.
Generate concise, context-aware CTAs based on delivery stage, data completeness, and channel (e.g., “Add gate code,” “Confirm drop spot,” “Track your driver,” “Reply STOP to opt out”). Use business rules and models that evaluate order metadata and past outcomes to prioritize the most impactful CTA per message. Provide a curated library with performance notes and allow one-click insertion with deep links. Ensure CTAs comply with carrier policies and include opt-out language when required.
Display synchronized previews for SMS, email, and push (including dark mode) with live variable substitution using safe sample data. Show SMS character counts and segmenting, email subject/preview text, push title/body limits, and link tracking indicators. Provide device and client presets to visualize truncation and line wrapping. Support locale toggling to verify multilingual layout and right-to-left rendering. Previews integrate with readability checks and pre-publish validation to prevent broken templates.
Implement a lightweight workflow with Draft, In Review, Approved, and Published states, including role-based permissions, required checks (voice compliance, variable validation), and audit logs of changes, comments, and rule violations. Maintain version history with diffing and one-click rollback. Publishing propagates approved variants to ZipTrail’s Notification Template Library used by automations, with environment targeting (staging/production) and scheduled release options.
Drops in live, privacy‑safe tokens—ETA window, driver initials, building tips—with automatic fallbacks if data is missing. Previews across languages and time formats ensure messages read cleanly for every recipient. This removes manual edits while keeping sensitive details masked.
Implement a standardized token system that renders dynamic, privacy‑safe placeholders (e.g., ETA window, driver initials, building tips) into outbound messages across SMS, email, and push channels. Define a token schema and syntax (e.g., {{eta_window}}) with strict type validation, channel-aware formatting, and deterministic outputs given a render context (order, route, locale, tenant policy). Integrate with existing ZipTrail data sources for GPS/ETA and order metadata, support derived values (e.g., time window rounding), and ensure render performance meets SLA targets (<100ms p95 per token set). Provide error handling for unresolved tokens, safe defaults, and sandbox rendering for previews without touching production sends.
Create a configurable rules engine that supplies meaningful default values when token data is missing, stale, or outside policy. Support per-tenant fallback hierarchies (specific -> generic -> omit), staleness thresholds (e.g., ETA older than N minutes), and display-safe phrasing (e.g., "Your order is on the way" when precise ETA is unavailable). Allow token-level fallback definitions, preview of fallback outcomes, and versioned rule sets with rollback. Ensure fallbacks are applied consistently across channels and are logged for diagnostics.
Provide a preview system that renders templates across languages, locales, and time formats prior to send. Support ICU MessageFormat for pluralization and variable substitution, right‑to‑left scripts, timezone normalization, and locale-specific time representations (12/24h, regional date formats). Enable switching sample recipients to validate how tokens (e.g., ETA windows) appear per locale and device. Ensure previews respect tenant privacy policies (masked outputs) and simulate channel constraints (SMS length, push title/body limits) to avoid truncation.
Enforce privacy by default for all dynamic blocks with configurable, token-level masking policies (e.g., initials only for drivers, redact unit numbers from building tips). Implement automatic PII detection and redaction for free-text fields, ensure encryption in transit and at rest for render contexts, and prevent sensitive values from being persisted in logs or analytics. Provide tenant-level policy settings, auditability of applied masks, and compliance safeguards (e.g., GDPR data minimization, data retention controls). Validate outputs via a privacy linter during preview and render.
Deliver a web-based editor that lets users insert and configure dynamic blocks from a curated library (ETA window, driver initials, building tips) with drag‑and‑drop placement, inline token configuration, and per-token fallback settings. Include real-time validation, syntax highlighting, and preview panes for locale/channel variations. Support versioning, draft/publish workflows, permissioned access, and change history with rollback. Provide test sends to sample recipients and import/export of templates via JSON for CI/CD integration.
Capture structured logs for every render event, including token resolution outcomes, fallbacks used, locale/channel, and render latency. Provide dashboards and exportable reports showing fallback rates, unresolved tokens, and privacy masks applied, with alerting thresholds to flag template issues. Ensure logs exclude raw PII, support tenant scoping and retention policies, and expose a query API for support and troubleshooting.
Picks different winners for different audiences (first‑time vs. repeat, apartment vs. house, language, VIP/SLA critical). Routing happens automatically, so each recipient gets the version proven to drive fewer calls and faster confirmations for their context.
Implements a low-latency decisioning service that classifies each recipient into a defined audience segment (e.g., first-time vs. repeat customer, apartment vs. house, language preference, VIP/SLA-critical) at the moment a notification trigger fires. Ingests order metadata, address type signals, historical interaction data, language settings, and SLA flags from ZipTrail’s existing data sources and event bus. Attaches the computed segment label to the notification event context and persists it for analytics. Provides a deterministic rules layer with optional model hooks, supports caching, and guarantees p95 <50 ms added latency. Includes default and fallback segment behavior when inputs are incomplete, plus audit logs of inputs and final segment decision. Integrates with the notifications pipeline, experimentation layer, and dashboards.
Provides a centralized catalog to create, version, and manage multiple notification variants per touchpoint (e.g., Out for Delivery, ETA Update, Arrival). Supports differences in copy, CTA layout, timing, and channel mix (SMS, push, email). Enables per-segment testing strategies including A/B and multi-armed bandit with configurable exposure, minimum sample sizes, cooldowns, and guardrails. Uses deterministic assignment via hashing to ensure consistency across events. Integrates with template localization, segmentation context, and ZipTrail’s messaging services. Includes approvals, change history, previews, and rollback of templates, ensuring safe iteration without service disruption.
At send time, selects and dispatches the current best-performing variant for the recipient’s segment, based on live performance data and configured guardrails. Supports per-segment winner thresholds, traffic ramping, and automatic fallback to a default or safe variant when data is sparse or performance degrades. Enforces SLA-critical policies (e.g., pin conservative variant for VIP/SLA segments) and logs decision rationale for observability. Meets a total decision latency budget of <100 ms, is idempotent, and resilient to partial outages via cached winner snapshots. Integrates tightly with the notifications pipeline and experimentation framework.
Defines and computes the core success metrics that determine winners per segment, such as post-notification call rate reduction, confirmation time to tap/click, read rate, and cancellation reduction. Implements attribution windows and event joins across notifications, support calls, and confirmation actions. Feeds an analytics store and dashboards with per-segment, per-variant time series and statistical outcomes. Supports alerts when performance regresses or when a winner’s confidence falls below thresholds. Ensures privacy by aggregating metrics, minimizing PII, and honoring data retention policies.
Adds dashboard controls to define segment rules, set winner thresholds, configure experimentation modes, and specify SLA/VIP guardrails. Provides manual override to force or pause a winner for a segment, with scheduled windows and instant rollback. Includes preview-by-segment, test-send, role-based access control, and full audit trails of changes. Surfaces real-time status of active winners, exposure allocations, and recent performance so operators can act quickly. Optimized for desktop and mobile admin flows within ZipTrail’s existing UI.
Enforces channel-specific consent, opt-out handling, quiet hours, and rate limits per segment and region. Routes recipients to localized templates based on stored preferences and locale detection, with graceful fallback to a default language. Ensures accessibility standards for message content and preserves critical SLA notifications in compliant form. Handles unknown or conflicting attributes (e.g., ambiguous address type) by applying safe defaults. Documents data flows, limits PII in decisioning, and aligns with applicable regulations.
Bakes in STOP/START handling, quiet hours, and region‑specific rules so tests stay compliant everywhere you operate. Consent tracking and audit logs protect your brand while ensuring recipients only get helpful, expected updates.
Introduce a policy-driven rules engine that automatically applies region-specific messaging regulations at send time. Policies define permitted channels (SMS, email, push), mandatory consent states, required disclosures, quiet-hour windows, keyword handling, frequency caps, and content restrictions per country/state/province. Recipient region is resolved via phone country code, delivery address geocoding, or account locale, with fallbacks. Policies are versioned, testable, and roll-backable, and are evaluated synchronously in the notification pipeline to allow, suppress, reschedule, or reroute messages. Multi-tenant scoping ensures merchants can adopt default ZipTrail policy packs or override with stricter settings. Integrates with routing/ETA events to gate transactional vs. marketing messages appropriately.
Implement configurable quiet-hour windows that suppress or defer outbound notifications based on the recipient’s local time. Resolve timezone using ranked signals: delivery address geocode, user profile, order metadata, and phone country/area code. Support DST changes, holiday exceptions, and merchant-level overrides. Provide options to reschedule deferred messages to the next permissible window and to allow critical operational alerts (e.g., "driver arriving now") with compliance-safe templates. Expose APIs and UI for merchants to configure defaults per region and per notification type. Fully integrated into the notification scheduler and route-aware ETA triggers.
Support industry-standard opt-out/opt-in keywords (e.g., STOP, START, UNSTOP, HELP) with multilingual variants and fuzzy matching. On receipt of an opt-out, immediately suppress future sends on that channel, send compliant confirmation, and propagate the consent state across channels per policy (e.g., apply to SMS only or all). Maintain channel- and brand-scoped preferences, throttle automated replies, and handle carrier-required help responses. Provide webhooks and APIs for external systems to update or query consent states. Integrate with the rules engine to enforce opt-outs at send time and to record state transitions in the consent ledger.
Create an append-only consent ledger that records every consent event (opt-in, opt-out, double opt-in, scope changes) with timestamps, channel, brand, source, IP/agent, and evidence (e.g., message IDs, UI action). Implement WORM-style immutability via cryptographic hash chaining and periodic anchoring to provide tamper-evidence. Encrypt PII at rest, enforce retention policies per region, and provide exportable, filterable audit reports for regulators and enterprise customers. Surface consent state snapshots for runtime enforcement and detailed drill-downs for support. Integrates with identity, notification services, and the rule engine.
Provide a self-serve simulator (UI and API) to test whether a proposed message would be sent, suppressed, or rescheduled for a given recipient profile, region, and time. Show the full decision trace: matched policy pack, quiet-hour evaluation, consent checks, keyword state, and resulting action. Support batch simulations for new policy versions to estimate impact before rollout. Include safe test numbers/addresses and synthetic routes to validate route-aware exceptions. Results can be exported and attached to change approvals.
Emit real-time alerts when attempted sends would violate a policy, including rule identifiers, affected tenant, channel, and recommended remediation. Provide dashboards with suppression rates, opt-out trends, quiet-hour deferrals, and regional compliance scores over time. Offer weekly emailed reports and webhooks for downstream monitoring tools. Include drill-downs to message templates, routes, and merchants contributing most to violations to guide corrective actions.
Deliver an admin UI for creating, editing, reviewing, and publishing policy packs with semantic versioning, draft/approval workflow, and change logs. Support environment scoping (sandbox, staging, production), effective dates, and staged rollouts by tenant or region. Allow time-bound emergency overrides with required justification and automatic expiry, fully audited. Provide RBAC to restrict who can view, edit, approve, or override policies. Integrates with the rules engine runtime and simulator for safe deployments.
Scrub through past days by hour to watch lateness bloom and fade on the map. See which blocks slip at lunch vs. dinner, compare weekdays to weekends, and export the exact windows that need attention. Turns hunches into targetable patterns in minutes.
Interactive timeline control that lets users scrub through historical delivery performance by hour (with 5-minute bucket granularity), play/pause, step forward/back, and adjust playback speed (0.5x–4x). The scrubber stays synchronized with the map viewport and updates the lateness layer and stats panel in real time. Supports keyboard accessibility, touch/drag on mobile, and timezone alignment per tenant. Implements debounced layer updates and frame-throttled rendering for smooth animation without overloading the client or API. Exposes an API to fetch bucketed data for a given date/daypart/hour range and persists UI state across sessions.
Server-side pipeline that computes and stores lateness metrics in fixed time buckets for efficient playback. Defines lateness as the route-aware delta between promised ETA and actual door time (fallback to predicted vs scheduled when actual is missing), with configurable thresholds and handling for outliers and canceled drops. Aggregates counts, mean/median, P90/P95, and standard deviation by tenant, date, day-of-week, hour, and spatial unit (block/zone). Provides backfill over a configurable retention window (e.g., 90 days), incremental daily updates, and query indexes optimized for timeband and comparison queries. Ensures PII safety (no customer addresses), adheres to data retention, and emits data quality metrics (coverage, sample size).
Standardizes spatial units used in Timeband Replay by mapping deliveries to consistent blocks and zones. Implements block-level segmentation using H3 (configurable resolution) or street-block geometry, with GPS trace snapping and tolerance for drift. Maintains a mapping table from delivery stops and routes to block_id/zone_id, supports merchant-defined zones, and exposes both views in queries and the UI. Handles multi-city coordinate systems, ensures idempotent mapping for replays, and caches results for low-latency lookups.
WebGL-powered map layer that visualizes lateness magnitude and volume over time as an animated heatmap. Supports absolute minutes late, percentile-based normalization, and z-score modes with a clearly labeled legend. Provides tooltips with key stats (n, median, P90, trend vs baseline) and sample-size gating to avoid misleading visuals. Implements smooth transitions between time buckets, colorblind-safe palettes, and clustering for sparse areas. Integrates with the existing ZipTrail map stack and adapts to mobile and low-powered devices with a simplified render mode.
Filtering and comparison controls that let users analyze lunch vs dinner, weekdays vs weekends, and custom dayparts. Includes predefined dayparts (e.g., 11:00–14:00, 17:00–21:00) with tenant-level configurability. Offers split-view side-by-side playback with synchronized scrubbers and a difference mode that highlights changes between two selected periods. Persists selections, supports sharing via encoded state, and uses optimized comparative aggregate queries for responsive interaction.
Export capability to capture selected time windows and geographic areas with their lateness metrics as CSV/JSON, plus optional PNG snapshot of the map. Generates shareable, expiring links that rehydrate the exact state (date range, timeband position, filters, map extent, comparison mode) for collaboration. Enforces role-based access, audit logging, rate limits, and PII-safe exports (aggregate at block/zone only). Provides an API endpoint for scheduled exports to sync with external BI tools.
Toggle overlays that attribute late drops to the biggest drivers—kitchen prep lag, traffic slowdowns, parking/entry friction, recipient unreachable, or route overload. Each hotspot shows top causes, supporting evidence, and impact share so you know what to fix first.
Real-time service that attributes each late drop to one or more standardized root causes (kitchen prep lag, traffic slowdown, parking/entry friction, recipient unreachable, route overload) with explainable scores and an impact share. Consumes normalized event timelines per order/stop and compares observed durations to learned baselines and SLA thresholds. Outputs primary cause, secondary contributors, confidence, and percent impact to overall lateness, with deterministic fallbacks when signals are sparse. Exposes gRPC/REST endpoints and stream topics for the UI overlays and reporting, supports backfill for historical ranges, and runs within 60 seconds of drop completion.
Connectors and pipelines that ingest and normalize heterogeneous signals into a unified delivery timeline: POS/kitchen prep timestamps, driver GPS and status events, traffic speed tiles/ETA deltas, call/text attempt logs, building entry/parking dwell events, and route capacity metrics. Handles OAuth/API keys for third parties, retries and deduplication, clock skew correction, timezone handling, and PII redaction. Produces a canonical schema with ordered events and derived durations at second-level resolution for each stop, available via stream and warehouse tables.
Interactive web and mobile map overlays that allow users to toggle visibility of each root cause layer and view its spatial distribution over a selected time window. Includes a legend with counts and impact share, persistent user preferences, keyboard and screen reader support, and responsive performance for up to 10k points with sub-second toggle latency. Integrates with existing ZipTrail dashboards and honors team/location filters.
Server- and client-side clustering that aggregates late drops into geospatial hotspots by zoom level and time bucket. Displays heatmaps and cluster markers with tooltips showing total late drops, average minutes late, and top three causes with shares. Supports time scrubber, weekday/time-of-day presets, and fast filtering by courier, store, service tier, and weather. Scales to metropolitan areas without degrading map interaction.
Detail side panel that opens from a hotspot or cluster and presents supporting evidence: representative orders, prep-time variance vs baseline, traffic speed anomalies, parking dwell distributions, recipient contact outcomes, and driver notes. Ranks causes by calculated impact share and suggests the top fix. Provides export to CSV/PDF and copyable links that preserve filters and map state.
Workflow for users to correct misattributed causes at the drop or hotspot level, add notes, and submit evidence. Captures labeled feedback into a governance queue, applies versioned rules/model updates, and tracks attribution accuracy over time. Includes role-based permissions, audit logs, and rollback. Incorporates active learning to adjust baselines by store, daypart, and weather without degrading current SLAs.
Auto‑groups adjacent blocks into stable microzones with a rolling SLA risk score. Reduces noise from one‑off blips and highlights persistent trouble pockets you can own, coach, and measure over time.
Implements an algorithm to auto-group adjacent street blocks into contiguous, stable microzones that persist over time. The engine ingests geocoded delivery events, driver GPS traces, and base map data (blocks/segments or geohash cells) to form clusters within configurable constraints (min/max blocks per zone, maximum radius, contiguity). It applies hysteresis and change thresholds to avoid thrashing from one-off blips, ensuring boundaries change only when underlying patterns consistently shift. Outputs include unique microzone IDs, polygon boundaries, and mappings of historical and real-time deliveries to zones. Results are stored for reuse by dashboards, APIs, and analytics, with nightly recomputation and optional incremental updates after peak windows.
Calculates a rolling SLA risk score for each microzone that reflects the likelihood of late or missed deliveries. The score aggregates multiple signals over configurable windows (e.g., 7/28 days) with decay weighting: late-drop rate vs SLA, ETA volatility, driver dwell time, stop density, cancellations/returns, time-of-day and day-of-week effects, weather/traffic overlays when available. Supports per-merchant SLA profiles and normalization across service areas to enable fair comparisons. Outputs a 0–100 score plus categorical bands (low/medium/high) and contributing factors for explainability. Scores update on a scheduled cadence and in near real-time when sufficient new data arrives, feeding dashboards, alerts, and coaching workflows.
Introduces version control for microzone boundaries and attributes to ensure stability and traceability. Each recomputation produces a new version with effective dates, while preserving stable microzone IDs when changes are within tolerance. When thresholds are exceeded, the system creates new IDs and a mapping from old to new zones for historical continuity. Provides a detailed change log (added/removed blocks, area delta, population of stops affected) and supports diffs by date range. Exposes query-by-date semantics in the API and UI so historical analytics align with the correct zone definitions, enabling longitudinal measurement of interventions.
Delivers interactive web and mobile map layers that render microzone polygons with color-coded risk heat, tooltips with key metrics (risk score, late rate, volume), and labels for zone IDs. Includes filters for merchant, time window, service level, and time-of-day segments, with drill-down to recent deliveries and driver traces within a zone. Supports pan/zoom performance at city scale, clustering of markers, and server-side tile generation for responsiveness. Provides export of views (PNG/CSV) and deep links to specific zones for collaboration and coaching sessions.
Enables configurable alerting when a microzone’s risk exceeds thresholds for sustained periods (e.g., high risk for 3 consecutive days or during specific dayparts). Users can subscribe by merchant, geography, or owned zones and choose channels (in-app, email, SMS) with quiet hours and de-duplication to prevent alert fatigue. Alerts include context (trend, top contributing factors, recent incidents) and one-click deep links to the zone detail. Maintains an alert audit trail with acknowledgment state to support operational runbooks and postmortems.
Adds the ability to assign microzones to owners, track interventions (e.g., driver coaching, route tweaks, staging changes), and measure impact over time. Provides a lightweight task and notes system, status pipelines (New, Investigating, Actioned, Monitored), and automatic before/after comparisons of risk and SLA performance. Integrates with the map and alerts to create or update action items directly from a zone. Generates weekly summaries of owned zones, open actions, and outcome metrics to reinforce accountability and continuous improvement.
Simulate staffing by zone and hour: +1 driver, swap car‑to‑bike, add a runner, or widen windows. See projected SLA lift and cost per saved late before you publish the schedule. Build smarter shifts that hit promises without overspending.
Compute hourly order demand per delivery zone by ingesting historical orders from ZipTrail, real-time signals (day-of-week, seasonality, holidays, events, and weather), and travel-time distributions from GPS traces. Produce a forecast matrix (zone x hour) with confidence intervals that the simulator and scheduler consume. Provide cold-start handling via similarity clustering and configurable priors, plus manual overrides at zone/hour level. Refresh forecasts daily and allow on-demand updates when major conditions change. Expose a read API and internal cache for low-latency access by the ShiftFit Planner UI and optimization engine.
Deliver a responsive UI and backend engine to model staffing changes at zone-hour granularity, including +1/-1 driver, vehicle swaps (car ↔ bike), assigning a runner for store handoffs, and widening or narrowing delivery windows. Allow editing shift start/end times, breaks, and role composition. Leverage the route-aware ETA model and current travel-time distributions to simulate assignment load, route saturation, and slack. Support side-by-side scenario comparison, cloning, and quick toggles. Ensure results compute within seconds with cached inputs and parallelized calculations.
For any scenario, calculate projected change in on-time delivery rate versus baseline, number of late orders avoided, incremental labor and vehicle costs, and cost per saved late. Incorporate pay rates by role, on-cost multipliers (tax, benefits), vehicle operating costs, and batching effects. Present confidence bands derived from forecast and travel-time uncertainty. Surface marginal ROI and highlight the most efficient zone-hour adjustments. Provide CSV export and API access for finance review.
Implement a constraint layer that validates scenarios against labor rules and operational policies: min/max shift lengths, required breaks, daily/weekly hour caps, role/vehicle eligibility per zone, skill tags, coverage targets, and individual availability. Support hard and soft constraints with penalty scoring and clear explanations of violations. Ensure the simulator and recommendations respect constraints and provide actionable fixes (e.g., stagger start times, reassign zones). Log decisions and constraint evaluations for auditing.
Enable creation, naming, and storage of multiple schedule scenarios with diff views on key metrics. Provide approval gates, role-based permissions, and an audit trail of changes. Allow publishing of a selected scenario to Dispatch with effective dates and zone mappings, send notifications to stakeholders, and support rollback to prior versions. Include tags and notes for context and link each published schedule to its source scenario for traceability.
After publishing, capture realized demand, route progress, SLA outcomes, late saves, and actual labor cost. Compare against forecasts and scenario predictions to compute plan adherence and variance. Feed deltas back into the forecasting and simulation models for continuous calibration, with drift detection alerts when accuracy degrades. Provide dashboards and an API exposing realized vs predicted metrics by zone and hour.
Layer in weather, road works, school schedules, and local events to see how each correlates with late spikes. Get early heads‑up when new events intersect with known hotspots and receive simple prep and routing recommendations.
Build and maintain connectors to ingest weather, road works, school calendars, and local event feeds (APIs, ICS, CSV, and webhooks), normalize them into a unified geo-temporal schema (geometry, time window, category, severity), and persist them with deduplication, geocoding, and enrichment. Provide source configuration (API keys, polling cadence, toggles), rate-limit handling, retries, and caching to ensure reliable, near real-time updates. Map events to ZipTrail service areas and driver territories to support downstream correlation. Ensure data quality metrics and observability (ingest lag, error rates) and adhere to privacy and licensing constraints.
Implement a geo-temporal correlation service that matches incoming events to active routes and historical deliveries using road network topology, proximity buffers, and time overlap. Compute an impact score and predicted ETA deltas per route/stop, factoring severity, duration, route slack, and historical lateness patterns. Support historical backfill (e.g., 90 days) for analysis and model training. Expose correlations via API for dashboards and notifications, with configurable thresholds and confidence levels. Persist correlation records for auditability and downstream analytics.
Add interactive map layers in web and mobile dashboards to display weather, road works, school schedules, and local events alongside live routes and driver locations. Provide layer toggles, severity color-coding, clustering, and time slider playback to inspect past, current, and forecast windows. Include tooltips with source details and impact scores, filters by route/driver/time/radius, and quick actions to jump to affected stops. Optimize rendering for low-latency interactions and ensure accessibility and responsive behavior across devices.
Detect intersections between newly ingested events and predefined delay hotspots (geofences derived from analytics or configured manually). Generate early heads-up alerts when intersections are predicted within a configurable horizon (e.g., next 2–6 hours), deduplicate repeated alerts, and respect quiet hours. Include impacted routes, drivers, and stops in the alert payload and link to the map view. Log alert lifecycle events for traceability and performance tuning.
Translate impact assessments into clear, low-friction recommendations such as advancing prep times, adjusting batch sizes, resequencing stops, or applying detours via the routing engine. Present expected time savings, confidence, and rationale in plain language with the option to simulate changes before applying. Enable one-click apply to update the current plan and propagate adjusted ETAs to customers. Maintain an audit trail of recommendations, decisions, and outcomes for learning and accountability.
Provide configuration for recipients, channels (in-app, push, SMS, email), thresholds (impact score, affected orders), frequency (immediate vs. digest), branding templates, and per-location schedules with quiet hours. Enforce user notification preferences, handle channel failover on delivery errors, and record delivery/read receipts. Integrate with existing ZipTrail notification services and customer messaging to keep communication consistent and on-brand.
Deliver analytics that correlate events with late spikes over time, including breakdowns by event category, location, route, weekday, and school calendar periods. Compare performance before/after recommendations, estimate avoided delay minutes, and surface top recurring hotspots and event types. Provide downloadable CSVs and an API endpoint for BI tools, with privacy-safe aggregation and data retention controls aligned with ZipTrail policies.
Get instant alerts when a hotspot is forming right now—“3 blocks trending late in Midtown 12–1 PM.” One tap opens the map with recommended actions (swap, resequence, message) so you can intervene before SLAs are breached.
Continuously ingest driver GPS pings, order lifecycle events, and ETA deltas to compute geo-temporal hotspots where lateness is accelerating. Implement streaming analytics with sliding time windows (e.g., 15–30 minutes) over a configurable spatial grid to detect “forming” conditions based on deviation from dynamic baselines by neighborhood, weekday, and hour. Emit hotspot entities containing severity score, confidence, affected orders/drivers, and time band (e.g., 12–1 PM). Calibrate sensitivity with minimum sample sizes and noise filtering to avoid false positives. Ensure sub-10s detection latency, horizontal scalability to thousands of concurrent routes, and graceful degradation when data is sparse or delayed. Integrate with existing ETA engine and telemetry pipeline using idempotent eventing so downstream systems can react reliably.
Transform hotspot detections into actionable alerts with severity levels and human-readable summaries (e.g., “3 blocks trending late in Midtown 12–1 PM”). Route alerts to the right recipients based on role, store/region ownership, and on-shift status across web and mobile clients. Support push notifications, in-app banners, and email fallbacks with per-user preferences, quiet hours, and frequency caps to prevent alert fatigue. Deduplicate overlapping alerts, coalesce updates, and allow acknowledge/snooze/resolve actions with real-time state sync. Guarantee at-least-once delivery with idempotent identifiers and retry/backoff; capture delivery outcomes for analytics. Localize content and align with brand settings for each tenant.
Enable a single tap from an alert to open the ZipTrail map centered on the hotspot with an overlaid heat polygon, severity, and time band. Preload context including impacted routes, drivers, and orders, with sortable lists and filters (ETA risk, SLA window, distance). Provide quick-access controls for recommended actions (swap, resequence, message) and show immediate impact estimates after selection. Optimize for fast render under spotty networks with cached tiles and progressive data loading; provide accessible interactions and keyboard shortcuts on web. Ensure deep links are shareable, respect tenant/role permissions, and expire securely.
Generate ranked, context-aware intervention suggestions for each hotspot, including driver-package swaps, stop resequencing, and templated customer/driver messages. Use constraints such as driver proximity, vehicle capacity, delivery windows, prep readiness, and traffic forecasts to estimate the SLA impact and feasibility for each action. Provide transparent rationale and expected delta in on-time probability and ETA. Support one-tap apply with confirmation, rollback on failure, and full audit logging. Integrate with route optimization APIs, driver apps, and messaging services to execute changes atomically and notify affected parties.
Offer an admin interface to define SLA policies and hotspot detection thresholds by tenant, store/region, service level, and time-of-day. Configure baseline definitions, time-window lengths, minimum sample sizes, sensitivity curves, and quiet hours. Allow versioned configurations with staged rollout, per-environment overrides, and permissioned access. Provide safe defaults and validation to prevent nonsensical settings. Changes should propagate in real time to the detection and alerting services with audit history for compliance.
Track end-to-end outcomes from hotspot detection through alert delivery to action and resolution, attributing improvements in on-time performance to interventions. Provide dashboards and exports showing counts, response times, action types, avoided SLA breaches, and false-positive rates by region, store, and time. Maintain an immutable event timeline for each hotspot and related orders/drivers, including who acknowledged, what actions were taken, and resulting ETA changes. Support cohort analysis and A/B toggles to tune thresholds. Enforce data retention policies and protect PII in accordance with tenant agreements.
After scanning a ZipTrail onboarding QR, the app verifies the signed token and auto-selects the correct organization, store, and role—even for multi-brand drivers—while preventing wrong joins. A clear store name/logo confirmation minimizes mistakes, and pre-authorized role overrides are supported. This removes invite back-and-forth and misconfigurations so drivers are route-ready in seconds.
Validate and enforce authenticity, integrity, and freshness of the onboarding QR token before any account linkage occurs. The app must verify the token signature against ZipTrail’s keyset, confirm audience and issuer, and enforce short TTLs with clock skew handling. Claims must include a nonce (jti) to prevent replay, org/store identifiers, permitted roles, and optional geofence hints. The client initiates verification over HTTPS and the server performs authoritative checks, returning a scoped onboarding session on success. Failures surface precise, localized error states (expired, invalid signature, revoked, reused) with safe retries and telemetry. This provides a secure foundation that blocks spoofed or stale invites while enabling instant, trusted onboarding.
Automatically determine and set the driver’s correct organization, store, and role from verified token claims and existing account memberships. On success, prefetch org/store configuration and permissions, bind the active context to the device session, and update the local profile without user input. When multiple valid stores or roles exist, compute a recommended default using heuristics (token scope, recent activity, proximity) and pass remaining options to the confirmation UI. The flow must be idempotent, complete within seconds on average networks, and minimize PII handling by caching only required identifiers. This eliminates manual dropdowns and misconfiguration while making drivers route-ready immediately.
Present a concise confirmation screen that clearly displays the selected brand logo, store name, address, and optional distance to the store, with the recommended option preselected. Require a single explicit confirm action to finalize context, and provide an unobtrusive link to view other eligible stores when applicable. The UI must be accessible (WCAG AA), support localization, dark mode, and low-connectivity fallback assets. Guardrails warn when the target org differs from the currently active one and prevent accidental taps via debounce. This reduces wrong joins by giving drivers an unmistakable visual checkpoint before committing.
Enable drivers with pre-approved permissions to switch into a higher or alternate role during onboarding when allowed by policy encoded in the token (e.g., allowed_roles with time bounds). The app surfaces eligible roles with concise permission deltas, defaults to the safest option, and applies the override only after explicit confirmation. Server enforces constraints (time-limited, store-limited, one-time use) and records a tamper-proof audit trail linked to the onboarding session. The override propagates to access control and dashboard capabilities immediately, and can auto-revert at session end. This removes admin back-and-forth while maintaining strict control and traceability.
Implement layered protections that prevent mis-association and token abuse. Server-side checks include single-use or limited reuse tokens, device fingerprint binding on first success, optional geofence proximity checks, cross-org mismatch detection, and rate limiting on verification attempts. The client provides clear, actionable error states and a safe exit path that avoids partial joins. Suspicious events (e.g., repeated cross-region attempts) trigger soft blocks and alerting. All denials are recorded with redacted context for support. These safeguards materially reduce support tickets and protect organizations from accidental or malicious joins.
Support drivers who serve multiple brands by maintaining multiple saved org/store profiles and switching the active context instantly upon scanning a valid QR. Preserve each context’s cached configurations, notification channels, and route settings without overwriting others. Ensure background syncs and notifications are re-registered for the new context, pause any active tasks from the previous context with user prompts, and complete the switch with minimal taps and no credential re-entry. Provide a lightweight selector for manual switching when online, with offline-readiness using previously cached manifests.
Capture and expose a structured event stream for the onboarding funnel: qr_scanned, token_verified, auto_resolved, user_confirmed, override_applied, blocked_join, and context_switched. Compute metrics such as success rate, median time-to-ready, and top error codes, and surface them in the admin console with filtering by org/store/time window. Provide exports and webhooks for BI tools, while enforcing data minimization and retention policies with PII redaction. This visibility enables organizations to monitor adoption, diagnose failures, and iteratively improve their QR invite processes.
A guided, staged flow that explains why each permission is needed (location, notifications, motion) and triggers OS prompts at the ideal moment with quick validation checks (GPS ping, background refresh test). If denied, one-tap “fix now” paths appear. Drivers complete setup with proven signal quality, reducing “dot not moving” tickets and first-shift confusion.
Orchestrates a guided, staged permission request flow inside the Driver app that triggers OS permission prompts (location: precise + background, motion/activity, push notifications) at the most relevant moment in onboarding and during first route start. The flow gates each step, surfaces pre-permission rationale, handles per-OS/version nuances (iOS/Android), rate-limits re-prompts, and resumes where the user left off. Integrates with ZipTrail’s session state to defer prompts until user intent is clear (e.g., tap “Start Shift”), reducing denial rates and confusion while ensuring the right scopes are requested for reliable last‑mile tracking.
Provides concise, branded explainer screens before each OS prompt that show what data is requested, why it’s necessary for accurate ETAs and notifications, and how privacy is protected. Content is localized, configurable by admin (copy, icons, examples), and dynamically tailored based on merchant type and OS (e.g., “Always Allow” on iOS for background tracking). Integrates with analytics to A/B test headlines and examples, aiming to increase allow rates while maintaining transparency and trust.
Immediately verifies that each granted permission functions correctly through lightweight checks: GPS fix within X seconds with acceptable accuracy, motion sensor event detection, push notification receipt, and background refresh viability. Displays real-time pass/fail with actionable hints and auto-retry. Sends a test ping to ZipTrail’s backend to confirm telemetry ingestion and associates results with the device profile for future diagnostics.
Offers “Fix Now” paths whenever a check fails or a permission is denied, with deep links into OS settings (app permissions, location precision, notifications) and contextual instructions for common states such as Limited Accuracy (iOS), “Allow only while using,” battery saver/low power mode, and OEM background restrictions. After the user returns, an automatic re-check confirms resolution. Handles hard denials (“Don’t ask again”) with persistent yet non-blocking guidance and scheduled soft re-prompts.
Computes a readiness score that aggregates validation results (GPS accuracy, update frequency, background capability, notification reachability, battery constraints) and blocks or warns on shift start until thresholds are met. The score and specific failing criteria are shown to the user and logged to Ops dashboards, reducing “dot not moving” tickets and enabling proactive support. Thresholds are configurable per organization and route type.
Instruments the entire Permission Coach funnel with event tracking to measure view/allow/deny rates, time to completion, failure reasons, OS/version breakdowns, and impact on first-shift success. Provides export and dashboard views, plus hooks for A/B testing copy, sequencing, and prompt timing. Emits alerts when allow rates drop or when OEM-specific issues spike, informing content tweaks and engineering fixes.
Runs an instant health check for high-accuracy GPS, battery optimization, background activity, and OEM-specific quirks (MIUI, OneUI, EMUI). Shows a single pass/fail card with targeted deep links to exact settings. Coordinators see preflight status in their dashboard, ensuring new drivers are dispatch-ready the moment onboarding ends.
Runs a fast device diagnostics routine that validates high-accuracy GPS mode, required location permissions (fine and background), battery optimization exclusions, background activity/autostart, motion/activity recognition, network connectivity, and Google Play Services availability. Aggregates results into a single pass/fail card with a concise list of failing checks and remediation count. Exposes a re-check action and auto-runs on app launch and before going on-duty. Integrates with ZipTrail’s mobile SDK and persists normalized results to the Preflight service for coordinator visibility and reporting.
Provides device- and OS-specific deep links to the exact settings screens required to fix failed checks across MIUI, OneUI, EMUI, ColorOS, OxygenOS, Realme UI, and stock Android. Detects OEM and OS version at runtime to select precise intents, with safe fallbacks to generic settings when proprietary paths are unavailable. Presents clear, localized guidance and icons for each action, and verifies resolution on return to the app. Centralizes mappings in a remotely updatable configuration so deep-link targets can be refined without a full app release.
Surfaces each driver’s latest preflight status, last check timestamp, failing categories, and device metadata (model, OS version, app version) in the coordinator dashboard. Supports filtering, sorting, and search by status (Passed, Failed, Unknown), and shows compact readiness badges on dispatch and assignment screens. Provides near real-time updates via WebSocket or periodic polling and enables drill-down to view detailed results and remediation steps. Includes CSV export and audit history for operational oversight and compliance.
Integrates preflight into the driver onboarding flow, requiring a passing result before a driver is marked dispatch-ready. Enforces blocking of assignment and start-shift actions when the status is Failed, while offering a re-check button and guided remediation steps. Provides a role-based override for coordinators/admins with mandatory reason capture and automatic follow-up reminders. Supports configurable grace periods and re-check cadence by tenant.
Enables preflight execution and result display without network connectivity using local capability checks and cached guidance. Marks status as Unknown when server sync is unavailable and stores a signed local result for later upload. Implements a queued submission with exponential backoff, background sync, and conflict resolution based on most recent timestamp. Clearly communicates offline mode, pending sync state, and next retry time to the user.
Delivers authenticated REST endpoints to submit preflight results from devices, retrieve readiness status by driver or fleet, and register webhooks for pass/fail state changes. Enforces OAuth 2.0 service tokens, request signing, and rate limiting. Normalizes payloads across platforms, timestamps events in UTC, and supports tenant-configurable data retention and redaction of device identifiers. Emits analytics events for pass rates, time-to-remediation, and common failure causes to inform product improvements.
Generates rotating, time-boxed QR posters for storefronts and hubs. Each code is scoped to a specific store and role, caps the number of joiners, and auto-expires after a shift window. Scan analytics reveal who started and completed onboarding. Ideal for pop-up or holiday staffing without manual invites or spreadsheets.
Provide a backend and UI service that generates QR codes scoped to a specific store and role, embedded with signed, time-bound tokens that auto-expire at the end of a defined shift window. Support two display modes: (1) Digital Kiosk mode that auto-rotates the QR at a set interval to mitigate screenshot reuse; (2) Printable poster packs that pre-generate a sequence of time-sliced codes for the shift window. Each QR encodes a short URL that resolves to a pre-auth landing with store, role, and capacity metadata. Include branding controls (logo, colors, headline) to produce on-brand posters. Integrate with ZipTrail’s org/store/role models to ensure correct scoping and revocation. Rotation and expiration must be deterministic and independent across stores. Admins can revoke or extend validity in real time without reprinting in digital mode. Tokens include exp/nbf, storeId, roleId, posterId, and signature (HMAC or asymmetric) to prevent tampering.
Implement a rules engine to define and enforce shift windows (start/end, timezone, recurrence) and per-poster capacity caps (e.g., maximum number of joiners). On scan, the engine validates the current time against the shift window, remaining capacity, and role eligibility before allowing onboarding to proceed. Capacity is decremented on successful onboarding completion and can optionally hold a spot at the start of verification with a short timeout to prevent overbooking. Support live edits (extend window, increase cap) with immediate effect and maintain consistency across rotating codes within the same poster. Handle edge cases like daylight savings transitions and overlapping windows. Expose rules configuration via API and dashboard, with audit logs for changes.
Create a streamlined mobile-first onboarding flow that opens from the QR short URL and auto-contextualizes the store, role, and shift window from the token. Flow includes consent screens, phone or email OTP verification, duplicate account detection, and pre-population of role-specific requirements (e.g., driver license photo for couriers). On success, create or link a ZipTrail user, assign the correct role and store, and deep-link drivers to the ZipTrail Driver app if needed. Provide progress save/resume within the active window, clear error handling for expired/invalid tokens, and localized instructions on what the shift entails. Enforce minimal data entry to reduce abandonment, and log funnel steps for analytics. Support fallback to a short code entry if a camera scan fails.
Capture and surface end-to-end analytics for each poster: scans, unique visitors, verification starts, completions, and drop-off points, with timestamps, device type, approximate location, and referring mode (digital kiosk vs. printed). Attribute events to store, role, shift window, and posterId to compare performance across locations and time. Provide a dashboard funnel visualization, conversion rates, and time-to-complete metrics, plus CSV export and REST API access. Respect privacy by anonymizing pre-verification events and only attributing identities post-verification. Include configurable data retention and consent capture for analytics where required by local regulations.
Deliver a manager-facing dashboard to create, preview, and manage Kiosk QR posters. Features include store/role selection, shift window and capacity configuration, visual poster preview with branding, one-click PDF export for print packs, and a live Digital Kiosk mode that rotates codes on supported displays. Provide controls to pause/resume a poster, regenerate codes, extend windows, and view real-time remaining capacity. Ensure role-based access control so multi-store users can manage only their assigned locations. Include printable instructions for staff to set up the kiosk, plus an embeddable link for tablets/TVs. All actions are audited.
Harden the feature against misuse by using signed, time-boxed tokens (JWS or HMAC) with short-lived rotation and replay protection. Implement rate limiting, optional CAPTCHA, and geo-fencing so scans far outside the store area are flagged or blocked. Enforce single active onboarding per person per window and detect suspicious sharing (e.g., multiple verifications from the same token across distant locations). Provide server-side revocation lists for compromised posters and immediate invalidation controls. Store only necessary PII with encryption at rest and in transit, and maintain detailed audit logs for all access and configuration changes. Conduct threat modeling and add automated tests for token validation and expiry edge cases.
Send real-time notifications when key events occur: first scan detected, capacity threshold reached, capacity full, onboarding completions, and poster expiry. Allow per-poster configuration of channels (email, SMS, Slack) and quiet hours. Expose outbound webhooks for external systems (e.g., scheduling apps) with signed payloads that include store, role, posterId, and event details. Provide retries with exponential backoff and delivery logs. Integrate with ZipTrail’s existing notification infrastructure to ensure consistency and centralized preferences.
Auto-creates the driver account after scan: pre-fills org, store, and shift zone, verifies phone via OTP, and assigns default vehicle and notification settings. No passwords or long forms. Drivers can begin receiving stops right away while details sync to the coordinator’s roster.
Creates driver profiles instantly from a scannable QR code or short link tied to an organization, store, and shift context. On scan, launches a streamlined flow that captures only the phone number, triggers verification, and auto-provisions the account with a passwordless session. Sets initial availability to receive stops immediately, while deferring non-critical profile details to background sync. Ensures links/QRs are single-use, short-lived, and signed to prevent misuse, and supports both mobile web and in-app deep links for a zero-friction start.
Automatically binds the new driver profile to the correct organization, store, and active shift zone using metadata encoded in the scanned link and validated against backend rules. Handles multi-store organizations, overlapping zones, and time-bounded shifts, with graceful fallbacks (e.g., coordinator prompt) if context is missing or expired. Persists associations to the assignment engine so route-aware ETAs and dispatch eligibility are accurate from the first stop.
Verifies driver phone ownership using a one-time passcode delivered via SMS with voice and WhatsApp fallbacks. Implements automatic code retrieval where supported, retry/backoff, and lockout after configurable failed attempts. Enforces per-number and per-device rate limits, monitors deliverability, and surfaces clear error states. Successful verification binds the phone to the profile for secure login, notifications, and roster deduplication.
Applies organization-defined defaults for vehicle type, capacity, and operational role during instant profile creation to enable correct ETA modeling and capacity checks immediately. Allows optional in-flow edits and post-onboarding changes, validates against org policies, and records an audit trail of defaults vs. user overrides. Ensures the assignment engine and telemetry pipelines receive the initial vehicle attributes without blocking onboarding.
Pre-configures driver notification preferences (push, SMS, email/WhatsApp where available) based on org defaults and requests OS-level permissions in a single, minimal consent step. Ensures critical alerts (new stop, reassignment, ETA changes) are enabled by default with fallbacks if push is denied. Supports language localization, quiet hours, and double opt-in where required, storing consent artifacts for compliance.
Synchronizes new driver profiles to the coordinator’s roster in real time, merging with existing records based on verified phone and org scope to prevent duplicates. Updates presence, availability, and device info, emits webhooks/audit logs for admin visibility, and provides idempotent retries for transient failures. Ensures coordinators can assign stops immediately and maintain an accurate, searchable roster.
Keeps onboarding moving in low-signal environments. The QR carries essential config so the app can initialize offline, cache the 60‑second microtour, and queue account creation plus permission checks. If store install is blocked, a fallback SMS link and lightweight landing ensure progress. Everything syncs once online, so garages and basements aren’t blockers.
Implement a compact, signed QR payload that carries essential bootstrap configuration to enable app initialization without internet connectivity. The payload includes tenant identifier, environment/region, API base URLs, feature flags for offline mode, minimum app version, short‑lived bootstrap token, and branding references. Use a JOSE/PKI signature to prevent tampering, with payload TTL, max-scan count, and revocation support. The mobile app must parse and validate the signature completely offline, initialize local tenant context, and gracefully handle invalid/expired codes with actionable error states. Integrate QR generation into the ZipTrail admin console with audit logging and download/print options for store kits.
Provide an offline-first initialization flow that creates local app state from the QR payload, seeds minimal navigation, and displays a 60‑second onboarding microtour without requiring network access. Bundle a lightweight, brandable microtour (sub‑2 MB) with localized text and images; when online, replace it with tenant-specific assets via background sync. Persist an "Offline Mode" banner and progress indicator, ensuring the user can proceed through setup steps, review privacy notices, and understand GPS/notification requirements immediately. Store all assets, preferences, and progress in encrypted local storage to survive app restarts until sync completes.
Enable users to enter profile details (name, phone, vehicle) and pre-consent to required permissions while offline. Queue account creation, device registration, and team join requests locally with encryption-at-rest, recording timestamps and consent artifacts. Perform device capability checks offline and stage OS permission prompts for the earliest appropriate moment, minimizing duplicate prompts. Validate inputs client-side and assign a temporary local user ID that maps to the server account on sync. Provide clear UX for pending steps and allow users to edit queued data prior to submission.
Implement a background sync engine that monitors connectivity and power state to submit queued bootstrap actions when a connection becomes available. Use idempotency keys and transactional journaling to safely create accounts, register devices, exchange keys, download branding, and fetch policy/feature flags without duplicates. Support exponential backoff, jitter, and retry budgets; handle partial failures with deterministic resume from last good checkpoint. Resolve conflicts (e.g., phone already registered) with server-guided reconciliation and clear user messaging. Emit progress events to the UI and capture metrics for time-to-completion.
Provide a fallback flow when app store installation or captive portals block onboarding. From the QR payload, direct users to a lightweight landing (sub‑50 KB critical path) that confirms tenant context, shows next steps, and collects a phone number to send an SMS deep link to the correct store listing or direct app page. Offer alternative options (copy setup code, email link) and a minimal PWA that can display the microtour and instructions offline until installation is possible. Ensure links preserve bootstrap context securely and expire appropriately.
Extend the ZipTrail admin console to manage offline bootstrap settings: upload brand assets used by the microtour and landing, set payload TTLs and max activations, scope QR codes to locations/regions, and revoke codes instantly. Provide role-based access, audit logs, and usage analytics (scans, completions) once devices sync. Allow toggling of offline-enabled features via flags, plus version gating to prevent unsupported clients from initializing. Export printable QR sheets with instructions optimized for back-of-house install kits.
Capture a privacy-safe local event log of offline bootstrap steps, errors, and environment signals (connectivity, OS version, permissions state) for later upload. Redact PII and secure logs with encryption; provide a shareable diagnostic code that support can request after sync to correlate device sessions. On upload, aggregate metrics such as time-in-offline-setup, retry counts, and completion rates to dashboards to identify friction points and improve the flow without field visits.
Context-aware tip suggestions and one-tap checkout embedded in the tracking page. Suggests fair amounts based on order total and local norms, with Apple Pay/Google Pay and local currency rounding. Clear, optional prompts reduce friction and increase tip conversions without pressure—lifting driver earnings while keeping the experience on‑brand.
Compute dynamic tip options using order total, locale-specific tipping norms, delivery distance and difficulty (e.g., weather, hills, apartment access), time-of-day, and historical acceptance patterns. Provide both percentage and flat-amount suggestions with real-time updates as order details change. Include merchant-configurable presets, guardrails (min/max caps, fairness rules for very low/high order totals), and robust fallbacks if context signals are unavailable. Deliver suggestions via a lightweight API/SDK to the tracking page without exposing personal data, honoring consent flags and privacy policies.
Enable tipping directly on the tracking page with Apple Pay, Google Pay, and Payment Request API support, falling back to a secure card form when wallets are unavailable. Use PSP tokenization (e.g., Stripe/Adyen) with idempotency, SCA/3DS flows where required, and zero PCI data stored by ZipTrail. Ensure instant authorization, clear loader/error states, receipt generation, refunds, and retries for intermittent failures. Associate tips to the correct order and current driver, supporting pre‑ and post‑delivery tips. Validate merchant domain association and merchant IDs for wallets; ensure cross‑browser/mobile compatibility.
Detect and display amounts in the customer’s local currency based on order locale and wallet settings, applying culturally appropriate rounding rules (.00, .50, .95, or next whole). Respect markets with no tipping or mandatory service fees by adapting or suppressing prompts. Support jurisdiction-specific tax handling for tips (taxable/non‑taxable), tip pooling policies, and merchant-configurable rules. Handle cross‑currency scenarios using daily FX rates and present transparent conversions. Offer a "round up" option and prevent awkward cent values via configurable rounding constraints.
Provide an embeddable, themeable tipping component that matches each merchant’s brand (colors, fonts, logo) and ZipTrail styling. Ensure WCAG 2.2 AA accessibility (contrast, focus order, keyboard support, ARIA labels, screen reader announcements) and clear opt‑out with a visible "No tip" option. Localize all copy and amounts; avoid pressure language and dark patterns. Optimize for performance (<100 ms render, <50 KB additional JS) with responsive layouts for web and mobile, trust indicators for secure payments, and compliance with app store and local disclosure requirements.
Control when and to whom prompts appear based on order lifecycle (accepted, en route, near arrival, delivered), prior tip status, merchant rules, and customer profile flags (e.g., corporate or pre‑paid). Provide pre‑delivery, in‑transit banner, and post‑delivery follow‑up within a configurable window, with frequency caps and respect for dismissals. Handle driver swaps and multi‑stop routes by attributing tips to the active driver at payment time. Include offline‑safe queues and retry logic for intermittent connectivity on mobile devices.
Instrument the funnel (impressions, interactions, selections, conversions, value, declines/errors) with privacy‑safe telemetry. Provide A/B/n testing for copy, suggested amounts, layout, timing, and rounding options. Expose merchant dashboards for tip rate, average tip, lift vs. control, and breakdowns by locale, time, device, and order value. Offer exports and webhooks to BI tools (GA4, Segment, Snowflake) with consent handling and configurable retention. Support gradual rollouts, audience targeting, and kill switches for rapid reversions.
Provide merchant‑facing settings to enable/disable Smart Tip Nudges and configure default percentage tiers, flat presets, min/max caps, rounding behaviors, locale‑specific copy, eligible order types, scheduling windows, and regulatory disclosures. Allow selection of supported payment methods per market, tax treatment, and fallback behaviors. Include role‑based access control, audit logging, preview/sandbox mode, and versioned, staged configuration rollout with safe revert.
Automatically allocates each tip across drivers who touched the order—even when stops are reassigned mid‑route. Uses time on task, distance driven, and handoff role with configurable weights. Drivers get a transparent breakdown; coordinators see a verifiable audit trail. Prevents disputes and keeps dynamic operations fair.
Capture and persist all driver–order touch events in real time, including pickup, assist, handoff, drop, and reassignment, with timestamps, driver identities, GPS traces, and handoff role metadata. Ensure idempotent ingestion with deduplication keys, offline buffering with backfill on reconnect, and an immutable per-order timeline that survives mid-route swaps. Integrate with existing ZipTrail mobile SDKs and tracking to minimize added instrumentation. Provide sub-second ingestion latency targets and 99.9% availability, enabling the allocation engine to compute accurate, up-to-date splits.
Provide an admin interface and backend configuration to set and manage weights for time on task, distance driven, and handoff role factors. Support org-level defaults, fleet/team overrides, effective-dated versions, and validation that weights are within allowed ranges and normalize correctly. Include preview templates, safe rollout via feature flags, and an API for reading/updating configurations. Emit change events so downstream calculators rehydrate configs without downtime, and retain historical versions for reproducibility of past allocations.
Implement a deterministic computation service that calculates per-driver tip shares from the order timeline, continuously re-evaluating on new events or reassignments. Apply configured weights, enforce floors/caps, prevent double counting of overlapping time/distance, and handle zero/negative tips, cash tips, and partial refunds. Guarantee idempotency and versioned calculation records, produce transparent calculation artifacts, and meet a p95 processing time under 2 seconds per order. Support on-demand recalculation and emit events on allocation updates.
Deliver a transparent per-order breakdown to drivers showing their tip share, roles performed, key factors used, and any adjustments, with clear pending/finalized states. Provide in-app views plus SMS/email notifications based on user preference, multilingual support, and alerts when recalculations occur. Include period summaries and drill-downs, load within 500 ms p95, and integrate with the existing ZipTrail driver dashboard and notification services. Link to a guided dispute initiation flow without exposing other drivers’ PII.
Maintain a tamper-evident audit trail for all inputs, configuration versions, calculations, and changes, including who/when provenance and hash-chained records. Provide export (CSV/JSON) and API access, and enable role-restricted overrides with mandatory reason codes, attachments, and optional dual-approval. Trigger automatic recalculation, re-notification, and preservation of before/after states on any override. Enforce RBAC, redact sensitive data, and comply with retention policies to support dispute resolution and compliance reviews.
Standardize rounding and settlement policies to eliminate discrepancies between displayed and paid amounts. Support currency-specific minor units, round-half-even rules, and org-level choices for when allocations finalize (on order complete vs end-of-day). Lock allocations post-payout while allowing reclass adjustments with full traceability. Provide exports and API endpoints for payroll/finance systems and automated reconciliation checks that flag mismatches between allocated tips and payouts.
Expose secure endpoints to ingest tip declarations/updates and to query current and historical allocations, with OAuth2 scopes, rate limiting, and idempotency. Publish webhooks for allocation_finalized, allocation_adjusted, and dispute_opened events with signed payloads and retry/backoff. Provide versioned schemas, a sandbox environment, and comprehensive documentation with examples. Ensure backward-compatible changes and alignment with ZipTrail API standards for easy partner integration.
Enable pooled tips for a shift, store, or microzone. Contributions can track by active minutes, completed stops, or revenue handled. Real‑time pool totals motivate teams, and at shift end, payouts distribute instantly to each wallet. Ideal for kitchens + runners or holiday surges.
Allow admins to create and manage pooled tip groups scoped by shift, store, or microzone, configure contribution metric (active minutes, completed stops, or revenue handled) with optional weighting, set schedule (start/end, auto-close), define participant roster and eligibility rules, apply default templates per location, and override settings per shift. Support minimum/maximum share caps, rounding rules, service-fee/tax exclusions, currency and timezone handling, preview of distribution outcomes, and cloning of configurations. Integrate with ZipTrail shift scheduling, route zones, and existing user/role models, with full UI and API endpoints for creation, update, and retrieval.
Provide participant check-in/out on mobile and web tied to shift assignments, auto-detect on-duty status from GPS activity and task acceptance, and track active minutes including break/paused states. Enforce eligibility constraints (role, location, minimum participation time), handle mid-shift joins/exits, and prevent double-dipping across concurrent pools. Sync presence with ZipTrail driver app events and support manager overrides with approval logs while maintaining accurate time windows for contribution calculations.
Implement a real-time, idempotent computation pipeline that ingests events (stop completions, order revenue, tip amounts, on-duty minutes) and calculates each participant’s contribution and projected share per configured rules. Support metric selection and hybrid weighting, configurable rounding, minimum guarantees, caps, tie-breakers, and late-arriving events. Handle refunds, cancellations, order splits, and reassignments with automatic recalculation and versioned snapshots for consistency across web and mobile. Provide <2s update latency and backfill/replay capabilities for data integrity.
Deliver live dashboards for managers and participants showing current pool total, individual projected shares, contribution breakdowns by metric, and progress toward goals. Support privacy modes (show/hide individual shares), multi-pool views, and filter by store or microzone. Provide branded push/SMS/in-app notifications for milestones (pool created, thresholds hit, pool closing) and adjustments. Ensure mobile-first responsive UI with accessibility standards, role-based access control, and streaming updates with optimistic UI synchronized to the computation engine.
Automatically close pools at shift end, finalize shares, and instantly disburse amounts to each participant’s ZipTrail Wallet with itemized ledger entries and downloadable receipts. Integrate with external payout rails (e.g., Stripe Connect, ACH, RTP) for cash-out, support partial settlements when orders are pending refund windows, and enable post-settlement adjustments with audit trails and clawbacks. Provide compliance settings for gratuity classification, export to payroll/accounting, and settlement webhooks for downstream systems.
Integrate with POS and ordering platforms to ingest tip and revenue data via APIs, webhooks, and CSV imports. Normalize and deduplicate records, map orders to stops and participants, apply currency conversion and tax/service fee exclusions, and reconcile late or corrected transactions. Provide connection health monitoring, retry queues, configurable field mappings, and a sandbox mode for testing before going live.
Maintain immutable audit logs for all pool events, configuration changes, calculations, and payouts. Offer an admin console to issue adjustments with reason codes and approval workflows, notify affected participants, and recalculate shares with versioning. Provide participant-facing statements explaining share calculations, CSV/JSON exports, data retention policies, anomaly detection alerts, and a dispute ticket workflow with SLAs and resolution tracking to build trust and meet compliance requirements.
Give drivers immediate access to tips via push‑to‑debit, bank transfer, or an in‑app virtual card. Optional auto‑cashout thresholds and a daily free withdrawal minimize fees. Faster liquidity improves retention and acceptance of tougher routes without waiting for payroll.
Implement a per-driver wallet with an event-sourced ledger that records all tip credits, fees, holds, reversals, and payouts in real time. Ingest tip events from ZipTrail orders to credit balances within 2 seconds; separate pending vs. available funds based on settlement rules. Support partial and full cashouts, balance reservations during payout initiation, and idempotent operations with concurrency safety. Provide secure APIs and mobile/web UI to display balance, ledger entries, fees, and eligibility; include exportable audit logs and reconciliation reports. Handle adjustments, disputes, and chargebacks via compensating entries. Encrypt sensitive data at rest and in transit, and enforce role-based access for drivers, admins, and support.
Enable instant cashouts to debit cards via push-to-card rails (e.g., Visa Direct/Mastercard Send) using a PCI-compliant tokenization partner. Collect and tokenize card details in-app, store non-sensitive metadata (brand, last4), and initiate payouts within 3 seconds with clear, branded progress states and ETAs. Implement webhooks for asynchronous success/failure, idempotency keys, exponential backoff retries, and detailed error mapping for user-friendly messages. Enforce per-transaction and daily limits, fees, and velocity controls; surface fees pre-confirmation and net amount post-transfer. Provide observability (metrics, structured logs, alerts) and sandbox test flows.
Offer bank transfer cashouts as a low-cost option with link-and-verify flows via OAuth (e.g., Plaid) or micro-deposits. Support Standard and Same Day ACH with configurable cutoffs, display expected arrival windows, and handle returns (R01, R03, etc.) with automated notifications and reattempt policies. Implement name matching and account validation to reduce fraud; tokenize and encrypt bank details. Provide user flows to manage linked accounts, select payout method, and review fees. Integrate ACH status webhooks for real-time updates to the ledger and customer notifications.
Issue an in-app virtual card funded from the driver wallet through an issuer processor (e.g., Marqeta), enabling immediate spend without external transfers. Support instant provisioning, card display with PAN controls, tokenization to Apple Pay/Google Pay, and real-time authorization against wallet balance. Configure spend controls (MCC restrictions, per-transaction/daily limits, geofencing), and provide freeze/unfreeze, replace, and close actions. Show live transaction notifications and receipts, and reconcile settlements back to the ledger. Gate issuance behind KYC and terms acceptance, and include dispute initiation and case tracking.
Allow drivers to configure automated cashouts based on thresholds (e.g., when available balance ≥ $X), schedules (daily at a chosen time, weekly), or route completion events. Enforce one free withdrawal per day across all payout rails; apply transparent fees to subsequent withdrawals with pre-confirmation disclosure. Implement a reliable scheduler with deduplication, rate limits, and backoff to avoid duplicate payouts. Provide admin overrides, org-level defaults, and eligibility checks (KYC passed, balance limits). Send confirmations and reminders, and surface an activity log of scheduled and executed cashouts.
Integrate identity verification (document + liveness or SSN last4 + DOB), sanctions screening (OFAC), and watchlist checks before enabling cashouts or card issuance. Implement configurable per-user and per-organization limits (transaction, daily, rolling 30-day) and risk rules (velocity, anomalous geolocation, device fingerprint). Queue and review flagged transactions with support tooling and auditable decisions. Minimize PCI scope via tokenization; encrypt PII, enforce data retention policies, and capture explicit consents. Provide year-end exports and payout summaries, and maintain comprehensive audit logs for regulatory and partner reviews.
A searchable, exportable ledger with line‑item detail—order ID, tip source, amount, split logic, payout status, and adjustments. Tax‑ready summaries by driver and store (CSV/PDF/API) simplify 1099 and bookkeeping while giving micro‑fleets clear, defensible records.
Implement ingestion pipelines to collect tip data from multiple sources (POS, third‑party marketplaces, ZipTrail in‑app checkout, and manual cash entries) and normalize them into a canonical tip record linked to Order ID and stop. Support webhooks, scheduled imports, manual CSV upload, and REST API endpoints with idempotency keys and deduplication using a composite key (order_id + source + timestamp + amount). Standardize fields (source, tip_type, currency, store_id, driver_id, timestamps, amounts, fees, reference IDs), convert currencies to store default using daily FX rates, and apply store timezones for period/1099 alignment. Handle edge cases including voids, refunds, chargebacks, partial cancellations, and late post‑delivery tips. Provide a retryable dead‑letter queue, validation error reporting, and observability (metrics, logs) to ensure data completeness and integrity.
Deliver a rules engine to calculate driver/store tip allocations based on configurable policies per store, team, or driver group. Support percentage and fixed splits, tiered/threshold logic, pooled tips by shift window, platform fee offsets, rounding rules, minimum guarantees, caps, and exception overrides. Rules must be versioned and effective‑dated, with retroactive recompute for backfilled data and a simulation mode to preview impacts before publishing. Persist computed allocations as line items with references to rule versions and provide clear breakdowns on each ledger row. Prevent invalid configurations with validation, offer rule change diffs, and maintain full transparency for defensible records.
Provide a responsive web and mobile ledger with fast, multi‑facet search and filtering by date range, driver, store, order ID, source, tip_type, split rule version, payout status, and adjustment flags. Enable full‑text search on order/driver/store references, column selection, sorting, pagination/infinite scroll, and saved views. Offer row‑level drill‑down showing source amounts, split breakdowns, applied rules, fees, and audit history. Support bulk selection for export, status updates, and adjustments with role‑based column visibility. Reflect new records and status changes in near real time with unobtrusive refresh indicators.
Generate tax‑ready summaries and detailed exports by driver and store in CSV and PDF with configurable date ranges and fiscal/calendar year boundaries. Include gross tips, net after splits, adjustments, fees, payout totals, outstanding balances, and period subtotals suitable for 1099/booking workflows. Provide one‑click exports from saved views, scheduled deliveries via email/S3, checksum and gzip options, and consistent column schemas with data dictionary. Expose reporting endpoints (OAuth2, scoped tokens) to fetch summaries and line‑item details, plus webhooks for export job completion. Respect locale formatting, timezone normalization, and PII redaction options for sharing with accountants.
Track payout lifecycle for each ledger item with statuses (Unpaid, Pending, Partially Paid, Paid, Failed, Reversed, Locked) and batch identifiers. Allow creation of payout batches with exportable remittance files and support import of bank/processor confirmations (CSV/API) to auto‑match payments by order/driver/amount/date with tolerances. Handle partial payouts, reversals, and adjustments with clear audit notes. Provide permissioned actions to mark/rollback statuses and lock periods post‑close to prevent drift. Surface reconciliation dashboards showing unmatched items, variance, and aging to reduce missed or duplicate payouts.
Implement role‑based access controls (Owner, Manager, Accountant, Driver) with store‑scoped permissions so that drivers only see their own tips, managers see assigned stores, and accountants access exports but not rule editing. Record an immutable audit trail for all material changes (ingested data, adjustments, rule edits, payout status changes) including who, when, before/after values, and source IP. Provide exportable audit logs for compliance and dispute resolution. Enforce encryption in transit and at rest, retention policies with configurable periods, and data deletion/anonymization flows to satisfy privacy requests while preserving financial aggregates where permissible.
Built‑in fraud and dispute protection for gratuities: 3D Secure/SCA, risk scoring, velocity limits, and instant receipts. Configurable refund windows and small rolling reserves protect drivers from clawbacks while keeping customer support simple and fair.
Implement conditional 3D Secure (3DS) and Strong Customer Authentication (SCA) for gratuity payments across web and mobile checkouts. Flow should support frictionless and challenge modes based on card/network and regional rules, with fallback to step-up authentication on elevated risk signals. Integrate via provider-agnostic payment abstraction with tokenization, idempotency, and liability shift tracking. Store auth results, liability shift status, and challenge outcomes in the transaction record for downstream dispute handling. Provide configuration toggles per merchant for mandatory/optional 3DS, and auto-detection for regions requiring SCA. Ensure minimal UX friction by re-using existing customer session and payment method fingerprints within ZipTrail’s branded tracking pages and apps. Emit events and webhooks for auth status to drive real-time UI badges and receipts.
Build a real-time risk scoring service that evaluates each tip transaction using features such as device fingerprint, historical customer behavior, order value vs tip amount ratio, geolocation mismatch, card BIN risk, prior disputes, and delivery route anomalies from ZipTrail GPS data. Produce a normalized risk score with reason codes and thresholds mapped to actions (allow, step-up auth, hold in reserve, block). Provide merchant-configurable policies and thresholds. Persist scores and reasons to enable analytics and support case evidence. Expose score to dashboards and notifications to support staff. Continuously learn via feedback loops from disputes and refunds.
Implement configurable velocity rules that cap tip attempts and approvals by dimensions such as customer account, card fingerprint, IP/device, driver, route, and merchant per time window (e.g., per hour/day/week). Support both soft-block (challenge or hold) and hard-block actions, with audit logs. Provide real-time counters and sliding window calculations with low latency. Add admin UI to define templates (e.g., max 3 tips per card per hour, max $200 tips per day per customer). Show clear customer-facing error or step-up prompts when limits are hit. Export limit events via webhook for external SIEM.
Generate and deliver branded digital receipts immediately after tip authorization, including order reference, driver details, amount breakdown, last-four of card, authentication status, and refund window end time. Support delivery via SMS, email, and in-app push using ZipTrail notification infrastructure. Include a secure link for viewing receipt details and self-serve refund requests within allowed windows. Log delivery and open events for support visibility. Localize content and support ADA-compliant formats.
Provide merchant-level settings to define a refund window for tips (e.g., 2 hours to 7 days) with options for full versus partial refunds, minimum refundable amounts, and automated cooldowns. Enforce windows at the API and UI, showing countdown timers in receipts and dashboards. Route refund requests through defined approvals for larger amounts or high-risk scores. Update driver earnings projections in real time upon refund submission and completion. Record complete audit trails and notify customers and drivers of outcomes.
Implement a configurable rolling reserve mechanism that withholds a small percentage of tip payouts for a defined period to cover potential disputes and refunds. Support tiered reserve percentages based on risk score, velocity events, or merchant history. Maintain a ledger with accrue, release, and adjustment entries, reconcilable to payment processor reports. Provide transparency to drivers and merchants via dashboards showing held amounts, release dates, and reasons. Automate scheduled releases and handle manual overrides with permissions and audit logging.
Upon dispute notifications from processors, automatically compile an evidence package including 3DS/SCA results, receipt delivery proof, GPS delivery trace, customer communications, refund window policy, and driver handoff confirmation. Provide a review UI for support to add notes and submit within processor deadlines. Emit real-time webhooks and in-app alerts when disputes are opened, approaching deadlines, or resolved. Store outcomes to feed back into risk scoring and merchant reporting.
Keep the tracking link tip‑enabled for a short, configurable period after delivery so recipients can add or increase a tip once they’ve confirmed a great experience. A gentle, branded reminder boosts total tips without pressure, improving earnings with zero dispatcher effort.
Provide organization-level settings to keep the tracking link tip-enabled for a defined period after delivery. The window is anchored to a clear delivery event (driver marks delivered and/or recipient confirms) and defaults to a safe value (e.g., 30 minutes) while allowing per-merchant overrides, per-region policies, and the ability to disable. The setting controls link state so live location is suppressed post-delivery while the tipping UI remains active until expiry. Include eligibility rules (e.g., exclude corporate/no-tip orders), time zone handling, audit logging of changes, and resilient behavior if delivery status is reversed or edited. Expose configuration via dashboard and API, and surface the window state to clients for consistent UI behavior across web and mobile.
Replace the live tracking view with a branded, accessible thank-you and tipping screen once delivery is complete. Present preset tip amounts and a custom entry with currency-aware validation, show optional lightweight satisfaction confirmation, and provide a clear dismiss path. Honor brand themes, localization, and responsiveness across devices. Ensure the link is secure and idempotent, suppress driver location and personal data, and persist minimal state to recover from refreshes. Emit client events for analytics and gracefully handle expired windows by showing a friendly timeout message.
Process additional tips using the original order context with minimal friction. Reuse an existing payment token when available via merchant PSP integrations; otherwise support Apple Pay, Google Pay, and secure card entry via hosted fields. Enforce idempotency by order and request, support SCA/3DS when required, and respect currency and merchant country rules. Attach the tip to the original order for reconciliation, emit receipts via existing channels, and expose webhooks/events for merchants. Handle edge cases including partial authorizations, refunds/chargebacks, and voids, and record settlement metadata to ensure accurate driver allocation and ledgering.
Send a single, polite reminder within the configured window via the merchant’s selected channels (SMS, email, push) only if a tip has not been added or can be increased. Use branded, localized templates with deep links to the tip screen, respect consent and quiet hours, and enforce frequency caps. Support rules for suppression (e.g., bad delivery outcomes) and retries on transient failures. Provide dashboard controls for timing, channel selection, and copy variants, and capture delivery/open/click metrics for performance tracking.
Attribute top-up tips to the correct driver and order, update the earnings ledger in real time, and include the amounts in scheduled payouts. Support tip pooling or split rules where configured, and reflect changes in driver and dispatcher dashboards. Provide exports and webhooks for payroll/accounting systems, maintain a complete audit trail (who/when/how much), and handle corrections for driver reassignment, returns, or order cancellations. Ensure amounts are clearly separated from delivery fees and taxes per jurisdictional requirements.
Protect the top-up flow with expiring, signed links, per-order tip caps, and rate limiting. Evaluate risk signals (IP/device, velocity, prior fraud) to selectively require CAPTCHA or 3DS challenges. Prevent post-delivery location leakage by disabling map updates and redacting sensitive data. Log access attempts, monitor anomalies, and alert on abuse patterns. Keep PCI scope minimized via tokenization and hosted fields, and meet GDPR/CCPA requirements for consent, data retention, and data subject requests.
Provide dashboards and APIs showing conversion rate, average top-up amount, time-to-tip, and reminder effectiveness, with segmentation by merchant, channel, and region. Define a clean event schema for view, click, add, and payment success, and support CSV export. Enable A/B testing of UI and reminder variants with rollout controls and statistical summaries, and report incremental revenue and driver earnings uplift to quantify impact.
Innovative concepts that could enhance this product's value proposition.
Send expiring, signed tracking links requiring no login; recipients tap once to see live driver dot and precise ETA. Cuts support calls and keeps privacy.
Geofenced one-time codes for both driver and recipient confirm delivery within 30 meters, capturing photo and name for audit. Reduces disputes in regulated drops.
Auto reassigns stops when ETAs slip, using live GPS and prep times to balance loads and hit promised windows. Saves missed drops during dinner rush.
Build and test branded SMS templates per store; auto-pick winners by click and reply rates. Cuts “where’s my order” calls without extra staff.
Visualize late deliveries by block and hour on a heatmap; get zone-level root causes and recommendations. Target coaching and shift planning where it matters.
Drivers scan a QR to auto-install, join the right org, enable permissions, and run a 60‑second microtour. Slashes onboarding time on busy shifts.
Collect digital tips on tracking pages; auto-split to assigned drivers with instant payouts and exportable summaries. Boost earnings and retention for micro-fleets.
Imagined press coverage for this groundbreaking product concept.
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