AI Edge Computing
Module
TS-E588

Products Positioning

The AI edge computing module is equipped with a high-performance processor and a rich set of peripheral interfaces to meet the high computing power requirements of robots, supporting complex sensor fusion algorithms and high-definition video encoding and decoding. Advanced edge computing technology enables robots to process data locally, significantly reducing data latency, improving response speed, and providing users with a smoother, smarter, and more efficient robot service experience.

Core Features

Product core Advantages
AIoT Processor

Equipped with an 8-core, 64-bit high-performance AIoT processor RK3588S (8nm, 2.4GHz), providing robust computing power for AI applications.

Video Encoding & Decoding

Supports decoding up to 8K@60fps H.265/VP9, 8K@30fps H.264, 4K@60fps AV1; encoding up to 8K@30fps H.265/H.264.

Exceptional Computing Power

Delivers up to 6 TOPS, supporting mixed INT4/INT8/INT16 operations for smarter data processing, speech recognition, and image analysis—ideal for most edge AI applications.

Application Scenarios: Edge computing, private deployment of large models, artificial intelligence, computing power services, intelligent security/industry, etc.

Designed based on the Rockchip platform.

Local AI Functions

Private Model Deployment

Supports private deployment of large-scale Transformer-based models, including Gemma, Qwen, ChatGLM, Phi, and other major large language models (LLMs). Fully compatible with Docker container management for flexible and efficient model operation.

Application Scenarios

Intelligent Quality Inspection

On automotive parts and electronic component production lines, the module runs machine vision algorithms locally to analyze surface defects in real time (e.g., scratches, dimensional deviations). Detection latency is reduced to the millisecond level with accuracy exceeding 99%, replacing manual inspection and improving efficiency by 3–5×, while avoiding cloud data upload risks.

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Predictive Equipment Maintenance

By integrating vibration and temperature sensor data from machine tools and robotic arms, the edge module runs AI-based fault diagnosis models locally. It monitors equipment operation in real time, providing early warnings for potential issues such as bearing wear or motor overheating, reducing downtime by over 40% and lowering maintenance costs.

02

Flexible Production Scheduling

In flexible manufacturing workshops, the module processes real-time data from AGV robots and production line equipment, including location and task queue information. Local optimization of scheduling paths enables dynamic adjustments for material transport and process transitions, increasing workshop production efficiency by 20–30%.

03

Advanced Driver Assistance (ADAS)

In-vehicle edge modules process multi-source data from cameras, LiDAR, and millimeter-wave radar locally, running object detection and path planning algorithms. Pedestrians and vehicles are identified, obstacles are avoided, and vehicle speed is controlled with end-to-end latency <20ms, meeting real-time L2+ autonomous driving decision-making requirements, unaffected by cloud network fluctuations.

04

Intelligent Roadside Units (RSU)

At intersections and highways, the module integrates data from roadside cameras and radar to perform local traffic flow analysis, detect violations (e.g., running red lights, lane crossing), and provide early warnings for accidents. Real-time results are synchronized with traffic management platforms, improving road efficiency and safety.

05

Smart Parking

Edge modules at parking lot entrances use image recognition to identify license plates and vehicle types, automatically managing entry registration and payment settlements without relying on cloud interaction, enabling “seamless access.” Parking occupancy is monitored locally and navigation information is dynamically updated, reducing time spent searching for a spot.

06

Clinical Diagnostic Assistance

In primary hospitals or emergency scenarios, the module runs medical image analysis algorithms locally (e.g., X-ray, ultrasound), quickly locating lesions and marking abnormal areas for doctors’ instant reference. Diagnosis cycles are shortened—particularly valuable in remote areas—while patient data privacy is preserved.

07

Infection Prevention and Control Monitoring

Deployed in hospital corridors and wards, the module monitors mask compliance, hand hygiene, and visitor violations in real time, issuing alerts and tracking personnel locally to support contact tracing and reduce cross-infection risks.

08

Wearable Device Health Monitoring

In smart wearables such as fitness bands and glucose monitors, the edge module processes physiological data locally (heart rate, blood sugar, sleep). Abnormal fluctuations (e.g., sudden heart rate spikes, elevated glucose) trigger instant alerts to users or healthcare providers, enabling timely health interventions.

09

Smart Home Appliances

In refrigerators, air conditioners, and robotic vacuum cleaners, the module supports local voice recognition (e.g., “Turn on the AC,” “Adjust temperature”) and scene automation (e.g., adjusting AC mode based on temperature and humidity). Functions work offline with latency <100ms, and user habits (frequent temperatures, cleaning paths) are analyzed locally to optimize operations.

010

Intelligent Device Interaction

In smartphones and tablets, the module runs AI algorithms locally for real-time beauty effects, background blur, and voice-to-text conversion, reducing cloud computing and network usage. In smart speakers, it enables local wake word detection and short command execution, ensuring functionality even during network interruptions.

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AR/VR Devices

Edge modules support AR glasses and VR headsets by processing environmental perception data locally (spatial positioning, object recognition). This enables immersive mixed-reality experiences (AR navigation, VR game rendering) with reduced cloud-induced latency and smoother visuals.

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Intelligent Security Monitoring

In city streets, communities, and commercial areas, the module performs local facial recognition and abnormal behavior detection (e.g., fights, theft, objects thrown from heights), triggering real-time alerts (linked to law enforcement or community security) while reducing bandwidth pressure from mass surveillance data.

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Smart Energy Management

In power grids, photovoltaic plants, and charging stations, the module collects operational data (voltage, current, energy consumption) locally, analyzes load conditions, optimizes energy distribution (e.g., dynamic power allocation for charging stations), predicts equipment faults, and reduces energy waste, all while preventing data leaks.

014

Environmental Monitoring and Early Warning

In urban air quality monitoring stations and river water quality sites, the module processes sensor data locally (PM2.5, water pH), analyzes pollutant levels in real time, and issues instant alerts when thresholds are exceeded, providing rapid response guidance without relying on cloud transmission.

015

Intelligent Pest and Disease Detection

Deployed on farmland cameras and drones, the module processes crop leaf images locally, identifying pest and disease types (e.g., aphids, powdery mildew) and infection levels, providing real-time treatment recommendations (pesticide type, dosage) for timely intervention, even in remote fields.

016

Precision Irrigation and Fertilization

The module analyzes soil moisture and fertility data locally, adjusting irrigation and fertilization dynamically according to crop needs for “on-demand supply,” reducing water and fertilizer waste. It can also incorporate local weather forecasts to optimize irrigation timing.

017

Crop Growth Monitoring

Using image recognition algorithms, the module locally evaluates plant height, leaf area, and maturity, assessing growth status and predicting harvest time, providing farmers with actionable insights for crop management (e.g., harvest scheduling, market timing).

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