1) Executive Summary

By 2030, the collection truck evolves into a quiet, zero‑emission, sensor‑rich mobile data node. It pairs high‑energy batteries (or fuel cells/RNG hybrids) with advanced driver assistance, a panoramic camera and radar stack, and Small Language Models (SLMs) at the edge to triage events, draft notes, and guide operators. The truck natively speaks GIS, synchronizing routes, events, and maintenance signals to city platforms while enforcing privacy and data minimization.

2) Vehicle Platform

Chassis & Body

  • Modular Class 7–8 chassis with low‑entry cab; composite body with corrosion‑resistant liners.
  • Automated side‑loader or rear‑loader variants with smart arm and hopper shielding.
  • Independent front suspension tuned for reduced NVH; regenerative braking up to 0.25g.

Thermal & Environmental

  • Liquid‑cooled power electronics; heat‑tolerant design for extreme heat days.
  • Sealed electronics bay (IP6K9K) with positive pressure filtration.

Human Factors

  • Panoramic low‑glare windshield, 270° camera mirror system, ergonomic controls.
  • Cabin NVH < 72 dBA at 30 km/h residential runs; active seat damping.
  • Heads‑up cues for hazards, contamination alerts, geofence warnings.

3) Power & Energy

Zero‑Emission Options

  • Battery‑Electric (BEV): 350–500 kWh pack, 600–800 V bus, depot charging (300–500 kW DC). Range: 80–140 km with full compaction duty.
  • Fuel Cell‑Electric (FCEV): 70–100 kW stack + 60–120 kWh buffer; hydrogen at 350 bar; suited for long or hilly routes.
  • RNG‑Hybrid (transitional): CNG/RNG engine + 80–150 kWh e‑axle hybrid for regen and silent zones.

Energy Management

  • Adaptive route planning with SOC constraints and cool‑soak windows on heat days.
  • Smart PTO scheduling to align compaction draws with regen opportunities.
  • Depot microgrid: PV + stationary storage; load‑shaped charging after midnight.

4) Autonomy & Driver Assist

5) Sensing & Perception Suite

Core Sensors

  • 8–12 HDR cameras (front, sides, rear, hopper/arm, overhead bay).
  • Short‑range radar (SRR) at corners; optional solid‑state LiDAR for dense urban routes.
  • Acoustic mics for anomaly cues (non‑content features only).
  • Environmental: TVOC, methane, temperature, humidity; thermal IR for battery fire risk.
  • IMU, GNSS (multi‑band), wheel speed; optional bin‑tag RFID and on‑board scales.

Perception Features

  • Contamination detection (plastics in organics, HHW cues) with confidence bands.
  • Right‑of‑way hazards: bike lane obstruction, near‑miss logging, pedestrian proximity.
  • Asset condition: pavement/pothole impulse detection, curb damage, overflowing bins.

6) On‑Board Compute & SLMs

7) Edge Apps & Workflows

Driver UI

  • Offline‑first map (ArcGIS/QGIS offline areas) with stop list and geofences.
  • One‑tap event review: accept/reject, severity, quick note (SLM suggested).
  • Heat/air‑quality advisories; EV range status; depot ETA.

Back Office

  • Feature layers for events, tracks, contamination hotspots; attachments for clips.
  • Dashboards for KPIs (on‑time, fuel/energy, safety incidents, route exceptions).
  • Open311/case management and work‑order system integration.

8) Safety, Compliance & Privacy

9) Data Model & APIs

GIS‑native features with small, stable attributes. Media is attached or referenced by URL. Example payloads below.

9A) Event Feature (GeoJSON excerpt)

{
  "type":"Feature",
  "geometry":{"type":"Point","coordinates":[-122.3352,47.608]},
  "properties":{"event_id":"e6b3…","ts_utc":"2030-05-18T16:12:44Z","route_id":"R-12A",
    "event_type":"contam_flag","severity":2,"confidence":0.86,"media_url":"s3://…/clip_161244.mp4"}
}

9B) Add Features (ArcGIS REST)

POST /arcgis/rest/services/truck_events/FeatureServer/0/addFeatures
f=json&token=<ACCESS_TOKEN>&features=[{"attributes":{"event_id":"e6b3…","ts_utc":1895031164},
"geometry":{"x":-122.3352,"y":47.608,"spatialReference":{"wkid":4326}}}]

9C) Outbox Table (SQLite)

ColumnTypeNotes
idTEXTUUID
payloadTEXTJSON feature
retriesINTEGERExponential backoff
next_attempt_utcTEXTISO‑8601
statusTEXTqueued/sent/error

10) Operations & Maintenance

11) Depot, Charging & V2X

12) Procurement Checklist

CategoryKey Questions
PowertrainPack size & chemistry, fast‑charge rate, duty‑cycle energy model, thermal strategy
SensorsCamera count/FoV, radar/LiDAR options, environmental sensors, calibration tools
AI/SLMsOn‑device models, redaction pipeline, explainability, retraining process
GIS & APIsArcGIS/QGIS integration, attachments, offline areas, outbox robustness
SafetyFunctional safety evidence, driver assist validation, incident logging
SecurityIdentity & access control, signed updates, audit logs, data retention
DepotCharger mix, EMS integration, V2B/V2G readiness, microgrid options

13) 2030 Spec Sheet (example)

ChassisClass 8 low‑entry, 6x4, 18–20 t GVW
BodySide‑loader 28–32 yd³, composite liners
EnergyBEV 450 kWh, 800 V bus; DCFC up to 350 kW
Range120 km typical urban duty (full compaction)
Sensors10 HDR cams, 4 SRR radars, thermal IR, TVOC, CH₄, IMU/GNSS
ComputeRugged GPU/TPU carrier, dual 2 TB SSD (mirror), LTE/5G
Noise< 72 dBA city run, < 60 dBA idle
ADASLane keep assist, AEB, blind‑spot, cross‑traffic, yard autopark
PrivacyOn‑device redaction, short raw retention, RBAC
GISArcGIS/QGIS native sync, offline areas, attachments

14) Roadmap to 2030

  1. 2025–2026: Pilot BEV routes, camera‑based contamination, pothole/asset detection, ArcGIS/QGIS sync.
  2. 2027–2028: Scale ADAS, add thermal/TVOC for HHW risk, deploy SLM triage and driver guidance.
  3. 2029–2030: Yard automation, V2B readiness, microgrid optimization, fleet‑wide predictive maintenance.