Cyber & Systems · Advanced Career
Embedded Systems Programming
Write the code. Read the signal. Control the device.
Program real hardware—from registers and protocols to RTOS and intelligent edge devices.
Advanced layer includedIndustry Edge tools and scenario-based labs beyond the recognized core. Curriculum v1.1 • Updated Jul 2026
Recognized curriculum, prerequisites, assessments, and public fees disclosed before counselling.
Industry Edge Lab includedAdvanced tools, emerging patterns, and scenario-based labs beyond the recognized core.Registration and admissions follow-up continue securely in BharatCampus ONE.
Included beyond the published curriculum
The recognized core is your foundation—not the finish line.
Every Embedded Systems Programming cohort also enters the CohortAI Industry Edge Lab: an evolving layer of advanced tool categories, emerging architecture and production patterns, and scenario-based labs. A guided counselling preview connects the most relevant capabilities to your target role, followed by a release-governed lab sequence after enrollment.
Release-governed advanced tools Emerging architecture patterns Scenario-based labs
Fit before enrollment
Who should join
ECE/EEE/EIE/CSE graduates, diploma holders and developers seeking firmware, embedded or IoT roles.
Role pathways
Your starting point
Basic programming curiosity and high-school electronics. C and digital-electronics bridges are included.
This is not an exclusion filter. It helps us confirm whether you can start directly or would benefit from a short bridge before the cohort.Recognized core
Skills and technology stack
These employability foundations are part of the public learning promise and remain visible before registration.
C/C++ ARM Cortex-M STM32/ESP32-class boards GCC/GDB Git UART SPI I2C CAN FreeRTOS Oscilloscope/logic-analyser concepts
Build-first curriculum journey
9 missions. One defensible portfolio.
Mentor-led hybrid learning with 1.5-hour live instruction, all-day supervised practice access, weekly build evidence and a version-locked capstone.
M013 weeks · 22.5 live hours
C programming, memory and bitwise programming
Memory Maze: trace every byte and eliminate an intermittent corruption defect.
- C syntax, control flow and functions
- Pointers, arrays and strings
- Memory layout, stack, heap and lifetime
- Structures, unions and enums
Guided labImplement a reusable bit-manipulation and peripheral-register simulation library with tests.
Portfolio evidenceC utility library, memory diagrams and test report.
AssessmentPointer/memory practical and code-review rubric.
M022 weeks · 15 live hours
Electronics and digital-system foundations
Signal Detective: explain why a correct program still produces a wrong reading.
- Voltage, current, resistance and power
- Digital logic and number systems
- Pull-up/pull-down, debouncing and level compatibility
- Sensors, actuators and signal conditioning
Guided labBuild and measure a sensor-to-controller circuit, diagnose noise and document safe operating limits.
Portfolio evidenceAnnotated schematic, measurement sheet and component-selection note.
AssessmentBench practical and datasheet interpretation test.
M032 weeks · 15 live hours
Microcontroller architecture and toolchain
From Reset to Main: explain every step before application code executes.
- CPU, registers, buses and memory map
- Flash, SRAM, boot and vector table
- Clock tree and reset
- Compiler, linker and startup code
Guided labCreate, flash and debug a bare-metal project from startup through the main loop.
Portfolio evidenceToolchain project, memory map and debug session notes.
AssessmentArchitecture viva and debugger practical.
M042 weeks · 15 live hours
GPIO, timers, ADC and interrupts
No Busy Waiting: redesign a blocking prototype into an event-driven device.
- GPIO modes and electrical behaviour
- Interrupts, priorities and latency
- Timers, counters and PWM
- ADC sampling and conversion
Guided labBuild an interrupt-driven sensor controller with PWM output and timed sampling.
Portfolio evidencePeripheral drivers, timing diagram and latency measurements.
AssessmentReal-time behaviour demonstration and driver review.
M052 weeks · 15 live hours
UART, SPI, I2C and CAN protocols
Bus Clinic: recover communication after addressing, timing and wiring faults.
- Serial framing and timing
- UART drivers and debugging
- SPI modes and chip selection
- I2C addressing, arbitration and recovery
Guided labIntegrate multiple sensors and a CAN/UART diagnostic interface; capture and analyse bus traffic.
Portfolio evidenceProtocol drivers, analyser traces and interface-control document.
AssessmentProtocol fault-injection practical.
M063 weeks · 22.5 live hours
Real-time operating systems
RTOS Traffic Control: remove races and missed deadlines from a busy device.
- Tasks, scheduling and priorities
- Queues, semaphores and mutexes
- Timing, deadlines and priority inversion
- Memory and resource management
Guided labRefactor a bare-metal controller into concurrent tasks with deterministic communication.
Portfolio evidenceRTOS application, task-state model and timing analysis.
AssessmentConcurrency fault diagnosis and design review.
M072 weeks · 15 live hours
Debugging, testing and optimisation
Firmware ER: stabilise a device with only symptoms, traces and limited access.
- Debugger workflow and fault registers
- Logic-analyser and oscilloscope evidence
- Unit, integration and hardware tests
- Static analysis and coding standards
Guided labDiagnose a set of firmware failures spanning memory, timing, protocol and hardware interaction.
Portfolio evidenceDefect reports, automated tests and optimisation evidence.
AssessmentEmbedded debugging challenge and peer postmortem.
M081 week · 7.5 live hours
IoT and edge integration
Edge-to-Cloud Relay: keep the device useful even when the network disappears.
- Device-to-cloud architecture
- MQTT/HTTP messaging concepts
- Provisioning and device identity
- Telemetry, commands and local buffering
Guided labConnect a device to a local/cloud service, publish telemetry and handle commands with offline recovery.
Portfolio evidenceConnected-device prototype, message contract and security/threat model.
AssessmentEnd-to-end device flow and security review.
M091 week · 7.5 live hours
Embedded capstone
Device Launch Review: prove functionality, timing, safety, recoverability and maintainability.
- Requirements and hardware selection
- Driver and RTOS architecture
- Protocol integration
- Testing and reliability
Guided labBuild a production-style embedded product prototype with sensors, communication, concurrency and diagnostics.
Portfolio evidenceFirmware repository, schematics, test evidence, demo video and engineering report.
AssessmentHardware Demo Day and embedded interview simulation.
The week feels different here
A repeatable rhythm from concept to evidence
Weekly rhythm
- 1Concept sprint and visual roadmap
- 2Guided implementation lab
- 3Independent build challenge
- 4Debug, review and production-pattern clinic
- 5Skill check, demo and learning reflection
Learner experience
CohortAI Skill Passport with milestone badges
Build-first weekly checkpoints rather than lecture-only completion
Peer demo and code/design review rituals
Mentor office hours and all-day practice-lab access
Capstone Demo Day with a business narrative, technical walkthrough and interview-style defence
Responsible AI-assisted learning policy: explain, verify and own every submitted artifact
Interview-ready proof
What you will be able to show—not merely claim
These are tangible outputs you can demonstrate, explain, and defend through a technical walkthrough, business narrative, or interview conversation.
Register-level peripheral drivers
Multi-protocol sensor and actuator system
RTOS-based concurrent firmware
Connected edge device with secure update plan
Hardware-in-the-loop embedded capstone
Transparent evaluation
How your progress is assessed
Completion standard
Minimum 70% overall, mandatory capstone pass, at least 80% lab submissions and versioned portfolio evidence.
CohortAI Industry Edge Lab
Your published curriculum is the foundation. The Industry Edge is what keeps it moving forward.
The Edge Innovation Lab extends the program with RTOS, open processor architecture, memory-safe firmware, TinyML and secure device-lifecycle scenarios.
Your counselling preview connects relevant capability categories to your target role. The complete release-governed lab sequence becomes part of the enrolled learning plan.Version-controlled learning promise
EMBEDDED-SYSTEMS@1.1.0
Released 24 July 2026 under catalog CAT-2026.09.1. This page presents the approved curriculum, learner outcomes, duration, and public fee for informed comparison.
Straight answers
Frequently asked questions
Who is the Embedded Systems Programming program designed for?
ECE/EEE/EIE/CSE graduates, diploma holders and developers seeking firmware, embedded or IoT roles.
What prerequisites do I need?
Basic programming curiosity and high-school electronics. C and digital-electronics bridges are included.
What is included in the public curriculum?
The public curriculum includes the recognized stack, all 9 module themes, guided labs, portfolio artifacts, assessment model, duration, and public fees. The Industry Edge Preview explains how advanced capability categories extend this foundation for your target role.
Where do counselling and enrollment happen?
CohortAI supports public discovery and program comparison. Registration, consent, counselling follow-up, application updates, and enrollment are managed securely in BharatCampus ONE.