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- 1. Why Hardware-in-Loop — The Validation Revolution
- 2. Program Levels — Choose Your Track
- 3. Who Should Attend
- 4. Curriculum Overview
- 5. Lab Infrastructure — Micelio Discovery Studio
- 6. Meet the Trainers
- 7. What You'll Gain
- 8. Program Snapshot
- 9. Career & Industry Outcomes
- 10. Frequently Asked Questions
- 11. Get Started — Request Training Proposal
Lab-First Training — Offline + Online — 2 Levels
DIYguru × Micelio Mobility
Hardware-in-Loop (HIL) Training Program — EV, ADAS & Powertrain Validation
DG
DIYguru eMobility Academy
Curriculum · Certification · Enrollment
×
M
Micelio Mobility
HIL Lab · OEM Benches · Industry Trainers
NEAT AICTE Impanelled
ASDC Certified
Level 1 & Level 2
Corporate & Academic Batches
1. Why Hardware-in-Loop — The Validation Revolution
Modern vehicles are increasingly software-driven, with Electronic Control Units controlling critical functions across powertrain, safety, and driver assistance systems. Validating these systems directly on vehicles is expensive, time-consuming, and often unsafe. Hardware-in-Loop testing has therefore become the industry standard for safety-critical validation under ISO 26262, enabling real ECUs — BMS, MCU, VCU, and other controllers — to be tested using real-time vehicle simulations.
In a HIL setup, the real ECU is connected to a simulator that replicates the vehicle environment. The controller operates as if it were inside a running vehicle, responding to sensor signals and actuator feedback, while engineers run test cases, inject faults, and observe behaviour in a fully controlled environment. Critical validation begins long before a physical prototype exists — reducing risk, cutting development time, and giving engineers the ability to reproduce issues that are impossible to reliably catch on a dyno or test track.
The global automotive HIL testing market is projected to grow from US $664.5 million in 2025 to $1,348.7 million by 2032 at a 10.6% CAGR. Despite this growth, most automotive engineers have theoretical exposure to HIL but lack hands-on experience with actual benches, real ECUs, and structured validation workflows. This program bridges that gap through lab-first training on deployment-grade OEM-style benches — the same infrastructure that OEMs and Tier-1 suppliers use for production validation.
$1.35B
Global Auto HIL Market 2032
10.6%
CAGR 2025–2032
Real ECUs
OEM-Style Bench Training
2 Levels
Foundational + Intermediate
2. Program Levels — Choose Your Track
Level 1
HIL Foundational / Introductory
For students & early-career professionals building core validation skills
Duration: 3–5 days
Mode: Offline (hands-on) + Online (demo + theory)
Eligibility: 2nd–3rd year B.Tech in EEE, ECE, Mechanical, Mechatronics, Automobile, or Instrumentation. Diploma holders. Basic EV systems knowledge. MATLAB/Simulink familiarity recommended but not mandatory.
Focus: HIL fundamentals, why HIL matters, MIL to SIL to HIL workflow, signal checks, CAN basics, test case design, simple HIL runs, introduction to OEM-style benches.
Mode: Offline (hands-on) + Online (demo + theory)
Eligibility: 2nd–3rd year B.Tech in EEE, ECE, Mechanical, Mechatronics, Automobile, or Instrumentation. Diploma holders. Basic EV systems knowledge. MATLAB/Simulink familiarity recommended but not mandatory.
Focus: HIL fundamentals, why HIL matters, MIL to SIL to HIL workflow, signal checks, CAN basics, test case design, simple HIL runs, introduction to OEM-style benches.
Level 2
HIL Intermediate
Practising engineers learn structured HIL workflows for production validation
Duration: 5–10 days
Mode: Offline (lab) + Online (theory)
Eligibility: Level 1 completion or equivalent EV systems knowledge (BMS, motors, etc.). BE/B.Tech with 1+ year industry exposure. Basic MATLAB/Simulink coding and modelling knowledge.
Focus: End-to-end HIL validation workflows, real-time plant modelling, HIL architecture design, Power HIL setups, automated regression suites, fault injection methods, multi-ECU integration testing, ISO 26262 alignment.
Mode: Offline (lab) + Online (theory)
Eligibility: Level 1 completion or equivalent EV systems knowledge (BMS, motors, etc.). BE/B.Tech with 1+ year industry exposure. Basic MATLAB/Simulink coding and modelling knowledge.
Focus: End-to-end HIL validation workflows, real-time plant modelling, HIL architecture design, Power HIL setups, automated regression suites, fault injection methods, multi-ECU integration testing, ISO 26262 alignment.
3. Who Should Attend
A. Industry Professionals
BMS / MCU / VCU / ECU Manufacturers
Engineers designing automotive controllers who want to strengthen their HIL validation skills. Learn I/O verification, network communication testing, diagnostics, and fault injection on real benches.
Automotive & EV OEM Engineers
Engineers in integration and system validation seeking hands-on HIL experience. Learn to plan feature validation, regression testing before vehicle builds, and powertrain integration in virtual environments.
HIL Architects & Validation Leads
Senior engineers responsible for HIL architecture and validation strategy. Learn to design scalable HIL benches, fault-injection methods, and processes that grow with larger product portfolios.
Teams Facing Reproducibility Issues
Engineering teams converting real-world failures into repeatable lab-based test scenarios. Turn hard-to-catch dyno or vehicle issues into controlled HIL simulations that shorten debug cycles.
B. Students & Academia
Pre-Final & Final Year Students
Engineering students seeking practical exposure to automotive validation and HIL workflows. Build HIL-oriented mini-projects around BMS, motor control, or EV systems for resumes and placements.
Faculty & Academic Institutions
Faculty members looking to introduce industry-style HIL concepts and lab practices into curricula. Understand real bench setups and how to phase in lab upgrades aligned with industry practice.
4. Curriculum Overview
The curriculum is modular and customisable based on audience (corporate vs academic), level (L1 vs L2), and specific validation focus. Actual duration and depth are adjusted per batch requirements.
Module 1 — HIL Fundamentals & V-Cycle Context
| Topic | Coverage | Level |
|---|---|---|
| What is HIL & Why HIL? | HIL as a safe space for high-risk testing. Why HIL should be a core development cycle step, not a last-minute debug tool. Cost, time, and safety benefits quantified. | L1 + L2 |
| V-Model & Development Lifecycle | Model-Based Development workflow: Requirements to MIL to SIL to HIL to Vehicle Testing. Where HIL fits in the V-cycle. | L1 + L2 |
| HIL Architecture Overview | Real-time simulator components: FPGA and processor boards, I/O cards, signal conditioning, communication interfaces (CAN, LIN, Ethernet, FlexRay). Plant model concepts. Open-loop vs closed-loop testing. | L1 + L2 |
| EV Architecture for HIL | EV powertrain architecture: BMS, MCU, VCU, motor controller, charger controller. How each ECU maps to HIL test requirements. Sensor and actuator emulation concepts. | L1 + L2 |
Module 2 — Signal & I/O Validation
| Topic | Coverage | Level |
|---|---|---|
| I/O Verification & Signal Conditioning | Analog and digital I/O mapping, signal types (PWM, resistive, voltage, current), sensor emulation (temperature, pressure, speed), actuator loading. Hands-on: connecting real ECU to HIL bench I/O. | L1 + L2 |
| Network Communication Testing | CAN 2.0A/B, CAN FD, LIN, Ethernet (DoIP, SOME/IP). DBC file interpretation, message monitoring, signal manipulation. Network gateway testing for multi-ECU architectures. | L1 + L2 |
| Diagnostics & UDS | UDS (ISO 14229). DTC reading and clearing, security access, ECU programming, diagnostic session management. On-bench diagnostic validation. | L1 + L2 |
| Safety Function Testing | Functional safety verification aligned with ISO 26262. Safety goal testing, FMEA-driven test cases, watchdog testing, safe-state validation. ASIL decomposition concepts. | L2 |
| Feature Logic & Regression Testing | End-to-end feature validation: state machine testing, mode transitions, interlock logic. Automated regression suites for continuous integration. Test case design methodology. | L2 |
Module 3 — Power Electronics & Battery Control Validation
| Topic | Coverage | Level |
|---|---|---|
| Power HIL Architecture | Power amplifiers, battery emulators, motor emulators, load banks. When to use power-level vs signal-level validation. Safety considerations for high-voltage bench setups. | L2 |
| Battery & BMS Validation | Real-time battery pack model on HIL. Cell-level emulation, SOC/SOH estimation validation, charging protocol testing (CC-CV, preconditioning), thermal management validation, fault injection including over-voltage, under-voltage, over-temperature, over-current, and cell imbalance. | L2 |
| Motor & Inverter Validation | Real-time motor model (PMSM, BLDC, induction). Inverter control validation, torque-speed characteristic testing, field-weakening, regenerative braking logic. Motor emulator setup for closed-loop testing. | L2 |
| Powertrain Integration | Full e-powertrain virtual integration: motor, inverter, battery, and charger in closed loop. Driveability testing, range estimation validation, energy management strategy testing. | L2 |
| Fault Injection & Edge Cases | Systematic fault injection: sensor failures, actuator faults, communication loss, thermal runaway scenarios, short circuits. Reproducing hard-to-catch vehicle and dyno issues in HIL. | L2 |
Module 4 — Real-Time Modelling & Test Automation
| Topic | Coverage | Level |
|---|---|---|
| Real-Time Plant Modelling | MATLAB/Simulink model-based design for HIL. Building powertrain, battery, and vehicle system models. FPGA deployment of real-time models. Model fidelity vs execution speed trade-offs. | L2 |
| Test Automation & Scripting | Automated test execution: scripting, test management tools, CI/CD integration. Overnight regression runs. Test result analysis, report generation, traceability to requirements. | L2 |
| HIL Strategy & Scaling | Designing HIL architectures that scale with products and teams. Bench sharing, resource management, and building a business case for HIL investment in your organisation. | L2 |
5. Lab Infrastructure — Micelio Discovery Studio
Training is conducted at the Micelio Discovery Studio HIL Farm, Jigani, Bengaluru — one of the most advanced automotive validation environments available for training in India. Participants work on the same types of benches used by OEM validation labs, with real ECUs, real-time simulators, and automated test execution frameworks.
Micelio Discovery Studio — HIL Farm, Jigani, Bengaluru
Real-time HIL software interface
OEM-style HIL test bench setup
| Facility | Details |
|---|---|
| Location | Micelio Discovery Studio, Jigani Industrial Area, Bengaluru 560105 — Plot No. 33, Sy. No. part of 83 & 99, Anekal Taluk, Phase 2 |
| HIL Farm | Multiple Hardware-in-Loop systems: Signal HIL benches, Power HIL setups with real ECUs, real-time simulators, and automated test rigs mirroring OEM validation labs |
| Battery Testing | Battery cyclers for performance and longevity evaluation, cell cyclers for individual cell characterisation, environmental test chambers for temperature and humidity cycling |
| Working Days | Lab sessions scheduled Monday–Saturday. Food provided during training days. Travel and accommodation to be arranged by participants or the sponsoring organisation. |
Not just slides — real OEM-style benches: Participants work with actual ECUs, real-time models, and automated test setups that mirror what OEM validation labs use for production programs. You move from just knowing HIL to using it as a lever for faster iteration, stronger validation, and more confident product decisions.
6. Meet the Trainers
CS
Chetan Singh
Deputy Manager — HIL Testing & Validation, Micelio Mobility
8+ years in automotive embedded systems, model-based development, and test automation. Expertise in MATLAB/Simulink MBD, SIL, and HIL workflows covering BMS, MCU, VCU, and other ECU applications. Has developed real-time plant models, designed HIL architectures, implemented Power HIL test setups, and built automated regression suites. Led several production programs from early prototype to SOP with focus on functional safety, diagnostics, and robustness in real-world EV scenarios.
NC
Noel Cheriyan
HIL Engineer, Micelio Mobility — M.Tech EV Technology
M.Tech in EV Technology with 2 years hands-on HIL testing experience. Worked on HIL testing for 2-wheeler powertrain controllers, heavy-vehicle BMS, and Power-HIL setups for high-voltage motors and inverters. Specialises in model-based design for HIL — designing and validating real-time powertrain models, implementing on FPGA devices, configuring hardware interfaces, and building automated test scenarios for real-world driving and fault conditions.
7. What You'll Gain
For Industry Professionals
Clear HIL Foundations
Learn why HIL should be a core development cycle step — from requirements through regression testing, not a last-minute debug tool.
Designing Strong Test Suites
Build I/O, network, diagnostics, and safety test cases that run across multiple ECUs and full vehicle features.
Finding & Fixing Issues Faster
Turn hard-to-reproduce vehicle or dyno issues into repeatable HIL scenarios that shorten debug cycles significantly.
Scaling Lab Workflows
Design HIL architectures, fault-injection methods, and processes that grow with more products and larger teams.
For Students & Freshers
Job Readiness
Gain exposure to EV architectures, ECUs, and HIL workflows that match what OEMs and Tier-1s use — contributing from day one in validation roles.
Project-Ready Portfolio
Create HIL-oriented mini-projects or case studies around BMS, motor control, or EV systems for resumes and viva presentations.
Placement Advantage
Speak confidently about HIL concepts, tools, and scenarios in interviews for EV, controls, and validation roles at OEMs, Tier-1s, and startups.
Lab-Level Practical Skills
Move beyond classroom theory into signal checks, CAN basics, test case design, and simple HIL runs on actual equipment.
8. Program Snapshot
| Parameter | Details |
|---|---|
| Program Title | Hardware-in-Loop (HIL) Training Program — EV, ADAS & Powertrain Validation |
| Joint Partners | DIYguru eMobility Academy × Micelio Mobility |
| Format | Hybrid — Offline lab sessions at Micelio Discovery Studio, Bengaluru + Online theory sessions. Can be delivered fully onsite at client facilities. |
| Levels | Level 1 (Foundational) for students & entry-level engineers | Level 2 (Intermediate) for practising engineers with MIL/SIL exposure |
| Duration | Customisable — typically 3–5 days (Level 1) or 5–10 days (Level 2). Corporate batches tailored to specific requirements. |
| Batch Size | Minimum 10 participants (corporate/academic batches) |
| Lab Facility | Micelio Discovery Studio HIL Farm, Jigani Industrial Area, Bengaluru 560105 |
| Certification | DIYguru × Micelio Joint Certificate in Hardware-in-Loop Testing & Validation (ASDC-aligned) |
| Inclusions | Training, food during lab days, digital course material, lab bench access, certification. Excludes: participant travel & accommodation. |
| Pricing | Contact for custom quote — pricing varies by level, duration, batch size, and delivery format. |
9. Career & Industry Outcomes
| Role | Typical Employers | Indicative Salary (India) |
|---|---|---|
| HIL Test Engineer | dSPACE, National Instruments, Vector, KPIT, Tata Elxsi, ETAS, Bosch | Rs. 6–18 LPA |
| BMS Validation Engineer | Tata Motors, Mahindra, Ather, Ola, Log9, Exponent Energy, TVS | Rs. 6–16 LPA |
| Embedded / Controls Engineer (EV) | Bosch, Continental, ZF, KPIT, Tata Technologies, L&T Technology Services | Rs. 5–15 LPA |
| ADAS Validation Engineer | Aptiv, Continental, Bosch, NVIDIA, Qualcomm, Intel Mobileye, Visteon | Rs. 8–22 LPA |
| HIL Architect / Validation Lead | OEMs (Tata, Mahindra, Hyundai, Stellantis), Tier-1 R&D centres | Rs. 15–35 LPA |
| System Integration Engineer | OEMs, EV startups (Ather, Ola, Ultraviolette, Simple Energy, Revolt) | Rs. 7–18 LPA |
Key hiring companies for HIL roles in India: dSPACE, National Instruments, Vector Informatik, ETAS, Bosch, Continental, KPIT Technologies, Tata Elxsi, Tata Technologies, L&T Technology Services, Mahindra & Mahindra, Tata Motors, Ather Energy, Ola Electric, Bajaj Auto, TVS Motor, Hyundai Motor India, Stellantis, Aptiv, Visteon.
10. Frequently Asked Questions
What is Hardware-in-Loop (HIL) testing?
HIL testing is a real-time validation technique where actual ECUs (BMS, MCU, VCU) are connected to a simulation of the vehicle and its environment. The simulator emulates system dynamics, actuators, and sensors, creating a closed-loop environment for the controller. Engineers can test real-life situations — edge cases, fault injections, hazardous conditions — without needing a physical vehicle, making development faster, safer, and more cost-effective.
Do I need a physical battery pack or motor for HIL testing?
No. All functional tests — battery fault scenarios, motor control validation, powertrain integration — can be carried out without the actual physical components using the HIL equipment's real-time simulators and emulators. The simulation models mimic real-world behaviour with high fidelity.
What lab equipment will I work with?
Training is at the Micelio Discovery Studio HIL Farm, Jigani, Bengaluru. You will work with real HIL benches (I/O cards, CAN/LIN/Ethernet interfaces), Power HIL setups (battery emulators, power amplifiers, motor emulators), real ECUs (BMS, MCU, VCU), real-time simulators with FPGA deployment, automated test execution frameworks, battery cyclers, and environmental test chambers.
What is the difference between Level 1 and Level 2?
Level 1 (Foundational) is for students and early-career engineers — HIL fundamentals, MIL/SIL/HIL workflow, basic signal checks, CAN basics, and introductory bench exposure. Level 2 (Intermediate) is for practising engineers who want structured end-to-end HIL workflows — real-time modelling, Power HIL setups, automated regression, fault injection, and scalable HIL architecture design.
Can this be customised for our company or institution?
The curriculum is fully modular. You can request specific track focus, adjusted depth and duration, corporate-specific case studies, academic lab-upgrade roadmap sessions, or a combination of Level 1 and Level 2 for mixed-experience batches. A pre-training consultation ensures the content matches your exact requirements.
What certificate do participants receive?
Participants receive a DIYguru × Micelio Joint Certificate in Hardware-in-Loop Testing & Validation (ASDC-aligned), specifying the level completed, training hours, and assessment results. DIYguru certificates are recognised through NEAT AICTE impanelment and ASDC certification.
How does this compare to other HIL training providers?
This program's differentiator is lab-first, deployment-grade training on real OEM-style benches — not classroom-only theory. The program mirrors how OEM validation labs work: end-to-end workflows tying models, benches, and test cases directly to product decisions. The Micelio Discovery Studio infrastructure provides equipment access typically available only to funded OEMs and Tier-1s.
11. Get Started — Request Training Proposal
Before you enquire
Watch the Free Introductory Session
Get a feel for the content, the trainers, and a live HIL demo before you reach out. Presented by Chetan Singh and Noel Cheriyan.
Hardware-in-Loop (HIL) Training — DIYguru × Micelio Mobility
Level 1 (Foundational) & Level 2 (Intermediate). Real OEM-style benches at Micelio Discovery Studio, Bengaluru. Corporate & academic batches, minimum 10 participants. Contact our team for a customised training proposal.
Request Training Proposal Call Now
Next step: Contact our team to schedule a consultation call. We will understand your team's ECU types, validation maturity, and training objectives, then prepare a customised proposal with curriculum, timeline, pricing, and logistics.
