JarvisBitz Tech
How AI Works

Edge AI

Intelligence at the edge. On-device inference, model compression, quantization, and real-time AI without cloud latency.

Cloud vs Edge

Where should AI run?

Cloud gives you unlimited compute. Edge gives you zero latency, offline capability, and data privacy. The right answer depends on your constraints.

Cloud AI

Unlimited compute, always connected

  • 100–500ms latency per request
  • Virtually unlimited model size
  • Requires network connectivity
  • Pay-per-token economics
  • Centralized data processing

Edge AI

Low latency, works offline

  • 1–50ms latency on-device
  • Constrained to device memory
  • Fully offline capable
  • Fixed hardware cost
  • Data never leaves the device

When to use each

Choose Cloud When
  • You need frontier API capabilities (OpenAI, Anthropic)
  • Long-context processing (100K+ tokens)
  • Training and fine-tuning workloads
  • Variable, bursty traffic patterns
Choose Edge When
  • Latency budgets under 50ms
  • No reliable network connectivity
  • Data must not leave the device (privacy, regulation)
  • Predictable, fixed-cost inference
Optimization Techniques

Making models fit the edge

Six techniques that shrink, accelerate, and optimize models for resource-constrained hardware.

Quantization

Reduce numerical precision from FP32 to INT8 or INT4. Each weight uses fewer bits, shrinking model size and accelerating inference on hardware with integer math units.

How it works

Post-training quantization (PTQ) maps floating-point weights to lower-precision integers using calibration data. Quantization-aware training (QAT) simulates low-precision during training for higher accuracy retention.

Size Reduction
2–8×
Accuracy Impact
INT8: <1% loss. INT4: 1–3% loss on most benchmarks.
Hardware Landscape

Edge AI silicon

From GPUs to TPUs to NPUs — the hardware accelerators purpose-built for on-device intelligence.

NVIDIA Jetson

Specs

Up to 275 TOPS (Orin). CUDA cores + Tensor Cores. 32GB unified memory.

Best For

Robotics, autonomous vehicles, industrial vision. Full CUDA ecosystem at the edge.

Apple Neural Engine

Specs

18 TOPS (M-series). 16-core ANE. Unified memory architecture.

Best For

iOS/macOS apps, on-device Siri, Core ML models. Optimized for Apple silicon.

Google Coral TPU

Specs

4 TOPS (Edge TPU). 2W power. USB or PCIe form factor.

Best For

Low-power IoT, smart cameras, embedded classification. TFLite models only.

Qualcomm AI Engine

Specs

Up to 75 TOPS (Snapdragon X Elite). Hexagon DSP + NPU.

Best For

Mobile phones, always-on AI, on-device LLMs. Android ecosystem.

Intel OpenVINO

Specs

Software toolkit. Runs on CPU, iGPU, VPU, FPGA.

Best For

x86 edge servers, retail analytics, existing Intel infrastructure. Framework-agnostic.

Deployment Patterns

How to deploy at the edge

Four deployment architectures — from fully local to federated learning — each with distinct trade-offs.

On-Device Only

The model runs entirely on the local device. No network calls, no cloud dependency. Maximum privacy, minimum latency. Best for real-time safety-critical applications.

Zero latency overhead
Complete data privacy
Offline-first by default
Limited model size
No centralized learning
Update requires OTA push

Edge-Cloud Hybrid

Small model runs locally for instant response. Complex queries escalate to cloud. Local model handles 80–90% of requests; cloud handles edge cases requiring larger models.

Best of both worlds
Graceful degradation
Cost-optimized
Architecture complexity
Consistency management
Network dependency for fallback

Federated Learning

Models train on-device using local data. Only gradient updates are sent to a central server. Data never leaves the device. The global model improves from distributed experience.

Privacy by design
Learns from real usage
Scales with user base
Communication overhead
Non-IID data challenges
Byzantine fault tolerance

OTA Model Updates

Over-the-air deployment of updated models to edge devices. Delta compression minimizes bandwidth. A/B testing at the edge validates improvements before full rollout.

Continuous improvement
Minimal downtime
Rollback capability
Bandwidth constraints
Version fragmentation
Validation at scale
Use Cases

Edge AI in production

Five domains where on-device intelligence is not optional — it is the only viable architecture.

Real-Time Video Analytics

<30ms

Object detection, tracking, and anomaly detection at 30+ FPS on edge hardware. Security cameras, traffic monitoring, and quality inspection without streaming raw video to the cloud.

Autonomous Vehicles

<10ms

Perception, path planning, and decision-making with sub-10ms latency budgets. LiDAR processing, camera fusion, and obstacle detection on dedicated AI accelerators.

Smart Manufacturing

<50ms

Predictive maintenance, defect detection, and process optimization at the factory floor. Models run on industrial PCs or embedded GPUs alongside PLC controllers.

Mobile Applications

<100ms

On-device speech recognition, text prediction, photo enhancement, and AR effects. Core ML, TFLite, and NNAPI enable models to run natively on phones.

IoT Sensors

<5ms

Keyword detection, anomaly classification, and predictive analytics on microcontrollers. TinyML models running inference in milliwatts on Cortex-M class processors.

Deploy AI at the edge.

Describe your hardware constraints and latency requirements. We'll optimize and deploy models for edge inference.