Edge AI Models & Algorithms

The Brains Behind Every Smart Device.

Every intelligent edge product — from a vehicle ECU to an energy meter — thinks because of its model. We design and deploy optimized AI models that bring perception, prediction, and decision-making into your embedded hardware. Fast, efficient, and secure.

How AI Thinks at the Edge

Cloud AI is built for scale. Edge AI is built for speed and autonomy. Instead of shipping data to remote servers, trained models run inside MCUs, MPUs and NPUs — analyzing sensor signals and acting in milliseconds with full privacy.

Cloud-first

High latency, internet dependency, and bandwidth cost. Best for batch analytics and massive training.

Edge-first

Millisecond decisions, private by design, resilient offline. Ideal for real-time control and safety.

Core Edge AI Model Categories

Choose the right brain for the job. Six families power most embedded products.

MCU → NPU

Classification

Identify events or patterns (OK/Fault, occupancy, appliance type).

SVM • 1D-CNN • TinyMLP

Vision / Events

Detection & Localization

Find multiple objects/events (ADAS perception, inspection lines).

YOLO-Nano • MobileNet-SSD

Unsupervised

Anomaly Detection

Spot deviations without predefined labels (motors, CAN, tamper).

Autoencoder • One-Class SVM

Time-series

Forecasting & Predictive

Predict future signals (load, RUL, temperature) with small windows.

ARIMA • LSTM • TCN

Multi-sensor

Sensor Fusion

Combine sensors for robust context (camera+radar, PIR+CO₂).

Kalman • CNN-LSTM Fusion

Closed-loop

Optimization & Control

Continuously tune behavior (HVAC, irrigation, robotics, EV powertrain).

RL • MPC • Adaptive PID

Algorithm Foundations

We combine classical ML, deep learning, and DSP so models are accurate and deployable on constrained hardware.

Signal

Raw Sensor

Vibration • Current • Camera • IMU

Features

DSP Extract

FFT • MFCC • RMS • Kurtosis

Model

ML/DL Inference

SVM • CNN • LSTM • AE

Action

Decide & Act

Relay • CAN Tx • MQTT • UI

Embedded Optimization

Hardware-aware techniques ensure models run in real time with minimal power.

Quantization

INT8/INT16 fixed-point inference with TFLM, CMSIS-NN, eIQ, TIDL, TensorRT.

Pruning & Fusion

Remove redundancy, fuse ops for cache/memory friendliness.

Memory & Scheduling

Arena tiling, zero-copy DMA paths, RTOS task graphs for determinism.

Model → Industry Mapping

Examples of how model families power real products.

IndustryUse CaseModel TypeRuntime Stack
AutomotiveCAN anomaly detectionAutoencoder / One-Class SVMNXP S32K3 + eIQ
EnergyNILM (appliance ID)1D CNN / Random ForestSTM32H7 + Cube.AI
IndustrialMotor health analysisFFT + MLP / AutoencoderSTM32H7 + CMSIS-NN
HVACOccupancy optimizationLSTM / Forecast + Controli.MX93 + FreeRTOS
ADAS / VisionObject detectionTiny YOLO / EfficientDet-LiteJetson Orin + TensorRT

Our Approach to Model Engineering

1) Understand the Signal — sampling, noise, physics, and operating envelopes.
2) Design the Model — architecture chosen for latency, memory, and accuracy targets.
3) Train & Quantize — real datasets, calibration sets, INT8/INT16 pipelines.
4) Deploy & Profile — measure accuracy, RAM/Flash, inference time on target hardware.
5) Secure & Scale — encrypted models, secure boot, OTA with rollback and telemetry.

Bring Intelligence to Your Hardware

Need a TinyML classifier on an MCU or a vision detector on an NPU? We’ll design and deploy the right model for your device, data, and product goals.