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Next-Gen Embedded System Design

Silicon to System: Master the complete journey of transforming raw code into intelligent, functioning hardware. The Edge AI Edge: Learn to deploy "tiny" Machine Learning models directly onto microcontrollers for real-time decision making. Architecting the IoT: Build seamless communication bridges between sensors, local hardware, and the global cloud. Debug Like a Pro: Get hands-on with industry-standard logic analyzers and digital oscilloscopes to "see" your code in action. Future-Proof Protocols: Deep dive into high-speed communication standards like I2C, SPI, and CAN Bus used in Tesla-level automotive tech.

Duration

2 Weeks

Skill Level

Moderate

Starts From:

2026-07-06

Category

Science And Technology

Overview

This hands-on workshop explores the shift from traditional microcontrollers to next-gen embedded system design, focusing on high-performance, power-efficient, and intelligent hardware. Participants will dive into modern architectures, such as ARM Cortex and RISC-V, while integrating advanced features like Edge AI, IoT connectivity, and real-time operating systems (RTOS). The session bridges the gap between hardware abstraction and low-level optimization, empowering learners to build scalable, secure, and responsive systems. By working with industry-standard development boards and debugging tools, attendees will master the end-to-end prototyping process required for the rapidly evolving landscape of smart electronics and industrial automation.


Outcomes

  1. Architect Heterogeneous Systems: Design and evaluate complex embedded architectures by integrating general-purpose CPUs (like ARM or RISC-V) with domain-specific accelerators (NPUs/GPUs) to maximize performance-per-watt.

  2. Deploy Edge AI Models: Develop and optimize TinyML pipelines—including model quantization and pruning—to enable real-time on-device intelligence without relying on cloud connectivity.

  3. Implement Software-Defined Lifecycle Management: Build robust over-the-air (OTA) update systems and containerized environments that allow hardware functionality to be securely evolved and patched post-deployment.

  4. Engineer Hardware-Rooted Security: Construct "security-by-design" frameworks using Trusted Execution Environments (TEEs) and secure boot to protect systems against physical and network-layer vulnerabilities.

  5. Design for Sustainability and Connectivity: Create ultra-low-power systems that utilize modern protocols (like Matter or 5G RedCap) and integrate energy harvesting techniques to extend or eliminate battery life.


Modules

  1. High-Performance Architectures & RISC-V: Move beyond standard MCUs to explore heterogeneous computing (mixing CPU, GPU, and NPU). This module covers the RISC-V open ISA, chiplet design concepts, and how to optimize hardware for domain-specific tasks.

  2. Edge AI & TinyML Implementation: Focus on deploying intelligence directly on the metal. You'll learn model quantization and pruning, hardware acceleration for neural networks, and real-time inference for "physical AI" applications like robotics and predictive maintenance.

  3. Software-Defined Hardware & OTA: Learn to build flexible systems using hardware abstraction layers (HALs) and containerization (like Docker for embedded). This includes designing robust Over-the-Air (OTA) update pipelines to evolve device functionality post-deployment.

  4. Modern Security & Trust Zones: Shift from basic encryption to Hardware Root of Trust (HRoT). This module covers implementing Trusted Execution Environments (TEEs), secure boot, and preparing for Post-Quantum Cryptography (PQC) to meet new global compliance standards.

  5. Connectivity & Sustainable Design: Master the next-gen wireless stack, including 5G RedCap, Wi-Fi 6E/7, and Matter. This also covers "Green Engineering"—optimizing for ultra-low power and integrating energy harvesting (solar/thermal) to create battery-less devices.



Our Trainers

MR. ABHIGYANAM GIRI
A Passionate and dynamic IoT and Embedded design professional with 10+ years experience in designing and developing different Embedded and IoT based products. CURRENT ORGANIZATION INDEYES INFOTECH PVT LTD- AUG 2015 TO PRESENT DESIGNATION: SENIOR HARDWARE DEVELOPER  ROLES AND RESPONSIBILITY Team lead - R&D of new project design Responsible for development of new IoT Based projects Provide technical support on complex and critical issues Research and development for new and existing products Implementation of various prototype hardware and code Connecting iot boards and sending sensor data to cloud Investigate and fix software defects found by test/review team to ensure product quality Performing the product review, provide documentation Provide training on products and technology Coach and mentor team members regarding technology, software design, tools, methods, and various aspects. RECENT PROJECTS IBY BOARD-MODEL 1 & 2 TECHNOLOGY-IOT This is all in one board which can be used to design and develop different iot based applications. AQUA TANK TECHNOLOGY-IOT Aqua tank is a smart water level monitor system which sends the data to the customer wirelessly on phone through cloud. WIRELESS ELECTRONIC NOTICE BOARD TECHNOLOGY-EMBEDDED SYSTEMS A smart notice board which is used to display the information sent through bluetooth.  SMART ENERGY METER ALERT TECHNOLOGY-EMBEDDED SYSTEMS This system informs the user about the electricity uses automatically and according to threshold set by the user it alerts also. ACHIEVEMENTS DEVELOPED MORE THAN 50 PROJECTS CONDUCTED VARIOUS WORKSHOPS PROVIDED SEVERAL TECH TRAININGS

Contact

Name: Prof. Priya Sharma

Mobile No: 8889387434

Email: [email protected]


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This Premium course is included in plans

₹ 1000/-

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