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Six units, from the first line of firmware to a fleet of updated devices. Each ends in a build.
$155K+
Typical pay for a senior hardware engineer in San Jose is $155K–$215K, per Glassdoor, Levels.fyi, Payscale and Indeed.
30K+
Trusted by 30,000+ Students. Join thousands who have chosen our programs.
144+
Serving professionals in 144+ countries, shaping global access to premier tech solutions.



Most AI is written for a data centre. The systems that touch the world run on devices with kilobytes of memory, milliwatts of power and a deadline measured in microseconds. This bootcamp teaches you to build for those limits: to write firmware that never misses a deadline, and to make a model small, fast and efficient enough to live on the device.
You start from the electronics and the microcontroller, move through real-time software and signal processing, then bring machine learning down onto the hardware with quantisation, pruning and distillation. Accelerators, connectivity and security close the programme, so a device you build can be shipped, updated and trusted.
It is written for software engineers who want to understand the hardware beneath them, for electrical and mechanical engineers moving toward intelligent devices, and for machine learning practitioners whose models have to leave the cloud. C and Python and some first-year mathematics are the starting point.





Each unit has a lab on a development board or an accurate simulator, so the code you write runs on silicon.
Each unit's work accumulates into projects you can run, show and explain, ending in a capstone device.
Every project has a budget for memory, latency or energy that you have to meet, because that is the job.
C and C++, Python, Zephyr and FreeRTOS, TensorFlow Lite, ONNX Runtime and standard debug probes.
A complete path for a machine learning model: train it, compress it, deploy it, measure it and update it in the field.
Round-the-clock help from the Academy's AI study assistants, for the mathematics, the code and the debugging.



Design and write the firmware and low-level software that make hardware do its job reliably.
Take machine learning models from the cloud to devices, compressing and optimising them for real constraints.
Own the code closest to the metal: drivers, bootloaders, real-time tasks and updates.
Design and validate the electronics and systems around the silicon, and the interfaces to software.
Build connected products end to end, from sensor to cloud, with security and updates in mind.
LUNARTECH AI stands as more than just another online education platform; it emerges as a pivotal beacon for those who have felt overlooked in the wave of technological advancement.

LunarTech is not just teaching data science; it's reshaping the very fabric of educational accessibility in the tech realm.
LunarTech’s solutions offer cutting-edge AI education, empowering individuals with in-demand skills to lead in tech.
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Circuits and signals, analogue-to-digital conversion, GPIO, timers and interrupts, and the serial buses that connect parts together: I2C, SPI and UART. You program ARM Cortex-M microcontrollers in C, reading datasheets and reference manuals until they stop being intimidating.








Real-time operating systems, scheduling, priorities and the bugs that live in them: races, priority inversion and stack overflows. Memory layout, drivers, low-power design, and debugging with JTAG and logic analysers.





Signal conditioning, filtering, the Fourier transform and the digital signal processing built on it. Sensors for motion, sound, light, temperature and distance; motor control with PWM and driver circuits; and the power electronics that keep it all running.








Quantisation, pruning, knowledge distillation and architecture choice, evaluated against the three budgets that decide everything on a device: latency, memory and energy. You deploy with TensorFlow Lite and ONNX Runtime, run a keyword spotter on a microcontroller, and learn to measure what a compressed model actually loses.








GPUs, NPUs, DSPs and FPGAs: what each does well, how memory bandwidth decides performance, and how to benchmark honestly. You work on a Jetson-class edge board, then meet FPGAs and high-level synthesis for the workloads that need a custom data path.








Wireless protocols, BLE, Wi-Fi and LoRa; MQTT and device-to-cloud design; secure boot, encryption and key handling; over-the-air updates and fleet management; and the testing and reliability practices that keep thousands of devices running.





Master Embedded Intelligence From the Firmware Up with Our Embedded & Edge AI Bootcamp
Put intelligence on the device. Firmware, real-time systems and model compression, taken down to the hardware that has to run them.





























