Physical AI Across Industries: From Sensing to Action
Explore twelve sectors, including medicine, and turn an operational problem into a measurable hardware and software project.
Read the guide →Explore applications across industries, including healthcare. Then go deeper into the sensing, hardware and software that make them work.
Choose a guide to connect your use case, hardware and validation plan.
Explore twelve sectors, including medicine, and turn an operational problem into a measurable hardware and software project.
Read the guide →Connect perception, edge computing and motion through clear interfaces, simulation and real-world validation.
Read the guide →Explore medical sensing, laboratory automation and healthcare robotics with a clear development and validation scope.
Read the guide →Practical notes on sensing, compute, interfaces and custom product development.
Understand onboard satellite AI: sensor preprocessing, inference, cloud filtering, data prioritization, downlink limits and ground validation.
Read the engineering guidePlan satellite payload processing hardware: CPU and FPGA trade-offs, power, thermal design, radiation risks, fault recovery and verification evidence.
Read the engineering guideChoose an SDK, inspect a recording and define the event-processing pipeline before an embedded pilot.
Read the guide →Build a reproducible model-deployment workflow and separate accuracy, inference time and end-to-end performance.
Read the guide →Compare a ready board with a custom carrier using installation constraints, system cost and lifecycle requirements.
Read the guide →Prepare a useful design brief and understand the work, dependencies and deliverables behind an NRE quotation.
Read the guide →Design vibration monitoring for predictive maintenance: sampling, edge AI, thermal imaging, operating-state baselines and useful maintenance evidence.
Read the note →Plan industrial IoT and smart farming networks with local buffering, priority messages, energy budgets and recovery when cellular links fail.
Read the note →Connect PLC and SCADA systems through an industrial IoT gateway. Plan Modbus, CAN bus, timestamps, data mapping and trace recording.
Read the note →Plan camera, LiDAR and IMU sensor fusion: timestamps, calibration, latency budgets and edge computing for robotics and industrial perception.
Read the note →Choose a camera approach by application, compare timing boundaries and design a reproducible evaluation.
Read the note →Compare processor roles, calculate a multi-camera memory budget and plan a repeatable architecture evaluation.
Read the note →Design a fanless industrial PC for edge AI: sustained thermal performance, embedded Linux, power protection, interfaces and system validation.
Read the note →Explore a motor-specific pilot: vibration, local temperature and magnetic-field measurements, a mounting package and a path towards maintenance analysis and digital twins.
Read the motor monitoring guide ↗Compare edge AI and cloud AI for industrial devices: latency, offline operation, data handling and complete workload testing.
Select industrial sensors around the measurement, interface, mounting and calibration requirements of a custom monitoring system.
Explore edge AI monitoring concepts for biomass, wind, solar and geothermal equipment, with sensor integration and pilot planning.
Turn an Arduino prototype into custom industrial hardware with a clear interface specification, PCB design and production test plan.
Understand battery monitoring and BMS design boundaries, measurement interfaces, protection responsibilities and validation planning.