Build Cloud-Connected IoT Products in 45 Days. Walk Out Internship-Ready.

Master MQTT, LoRaWAN, ThingsBoard, Edge AI and Flutter on real hardware. Ship a working device-to-cloud-to-mobile product, secured end-to-end, by Day 45.
configuration

70% Hands-On • 30% Theory — no death-by-slides

robotic

Live capstone reviewed by industry mentors from Tata Elxsi, Bosch, Ola Electric

Certificate

Internship-Ready certificate from Elysium Embedded School

team-management

2-student-per-bench ratio, real ESP32 + Pi + LoRa kits, take-home portfolio

certificate

Module Completion Certificate from Elysium Embedded School

Duration

45 Days

Daily Session

1.5 Hours

Ages

10–14 Yrs

Format

Lab + Live

Level

Beginner
What we don't promise

Urgency / Scarcity Strip

Next batch starts in 18 days. 12 seats left of 24. Early-bird fee locked until the cohort fills.
Program Highlights

Start Your Learning Journey With Confidence

There is a quiet shift happening across India's industrial floor right now. Pumps, motors, conveyors and tractors are quietly growing antennas, sending their heartbeats to dashboards in Bangalore, Pune and Chennai. The people who can wire that up — sensor, firmware, cloud, mobile app — are being paid handsomely to do it, and most engineering colleges are still teaching the syllabus from 2014.

Embedron+ Module 2 was built to close that gap. It is the second of four modules in our flagship intermediate program for B.E. and B.Tech students, but it is also the first module where you ship a complete, sellable product. Across 45 days, you will move from a single ESP32 blinking an LED to a multi-node, LoRa-meshed, cloud-secured, mobile-app-controlled system that any product manager in the country would recognise as the real thing.

The pedagogy is deliberate. Each 90-minute session opens with a 15-minute concept briefing, drops you into a 45-minute lab, and ends with a debug huddle and logbook entry. There is no abstract lecturing. You touch the protocol — MQTT, LoRa, BLE, OPC-UA — before you read about it. By Week 6 you are arguing about TLS cipher suites without prompting, because you have just watched a clear-text MQTT packet getting sniffed off the air.

Why This Course Matters Right Now

India's IoT market is projected to cross USD 9.3 billion by 2025, with industrial deployments leading the surge. NASSCOM places IoT and Edge AI among the top five hiring sectors for fresh engineers. Companies like Stellapps, CropIn, Ather, Ola Electric, Tata Elxsi, L&T Technology Services and a long tail of MSMEs are hiring for one specific person: someone who can take a sensor reading, route it through a wireless link, land it in a cloud database, and surface it on a phone — securely, reliably, at scale. This is exactly that person. Module 2 produces them in 45 days.

From Beginner to Builder — Your 45-Day Arc

Week 1, you wire up Wi-Fi and watch your ESP32 reach the internet for the first time. Week 2, you bring up an MQTT broker, secure it with TLS, and watch your data appear on a ThingsBoard dashboard. Week 3, you stand on the campus lawn with two LoRa nodes and measure how far the signal really reaches. Week 4, you bring up a Raspberry Pi as a gateway, install Node-RED and InfluxDB, and start designing alerts. Week 5, you open Flutter for the first time and build a phone app that talks to your hardware. Week 6, you break your own system on purpose and learn how to harden it. Then you ship the capstone.

Real-World Use Cases You Will Build

  • A LoRa-connected soil moisture network for a 1-acre farm with mobile alerts.
  • A motor health node streaming current and vibration data to a Grafana dashboard with anomaly alarms.
  • A perimeter sensor mesh with TLS-encrypted MQTT and dead-man telemetry.
  • A vehicle telemetry tracker publishing GPS and harsh-event data to a fleet map.
  • A signed OTA pipeline that pushes new firmware to a deployed device over HTTPS.

Outcomes are framed in measurable language so that hiring managers, internship coordinators and accreditors can verify them objectively.

Technical Skills

  • Implement at least 6 production-grade communication protocols (Wi-Fi, BLE, MQTT, HTTP/REST, LoRa, OPC-UA basics).
  • Build and deploy 4 working IoT prototypes across the module, all available on a public GitHub portfolio.
  • Demonstrate sub-second latency on a phone-to-device control loop over BLE and over MQTT-on-Wi-Fi.
  • Pass a 24-hour soak test on the capstone device with zero data loss and automatic reconnect.

Industry & Career Readiness

Research & Development
Hold an Embedron+ Internship-Ready credential, the threshold marker partner companies actively scan for.
IoT Product Engineer
Maintain a public GitHub with four well-documented repositories, each with a README, BOM and demo video.
Robotics Technician
Pitch the capstone product live to an external mentor panel within a 10-minute slot with clear demonstrations.
Embedded Systems
Pass entry-level interview screens for IoT firmware, IoT cloud, or junior IoT product engineer roles with strong fundamentals.

This course is built for a specific kind of learner — someone who has touched a microcontroller before and is now hungry to take a product from the bench to the cloud to a customer's phone. 

Ideal Fit

Equally Welcomed

  • 2nd, 3rd and 4th-year B.E./B.Tech students — ECE, EEE, CSE, IT, Mechatronics, AI&DS — looking for an internship in the next 4 to 6 months.
  • Final-year project teams — students who want a capstone project that will actually impress a placement panel.
  • Working junior engineers — 1 to 2 years of experience, looking to specialise in IoT or move from a services company to a product company.
  • Career switchers — from IT services, testing or non-core engineering, who want a hardware-adjacent skill that AI cannot easily eat.
  • Founders & MSME owners — anyone planning to add a connected layer to an existing physical product (agri, manufacturing, fleet, automation).
  • Hobbyists graduating to product engineers — Arduino tinkerers ready to learn cloud, security and mobile properly.

Prerequisites

  • Completion of Embedron+ Module 1 (or demonstrated equivalent — basic C, GPIO, ADC, I2C/SPI on Arduino/ESP32).
  • Comfort using a laptop for code, Git, and a serial console.
  • An Android phone for the mobile-app weeks (iOS not blocked, but Android is the default teaching surface).
  • A willingness to break things and ask questions — this is a lab, not a lecture hall.

Every feature below is delivered, not promised. None of them is a marketing flourish.

FeatureWhat It Actually Means
Live Hands-On Labs30 graded experiments, executed on real ESP32, Raspberry Pi, LoRa and BLE hardware. Logic analyzer and oscilloscope access included.
4 Portfolio Projects3 track-specific mini projects + 1 full-stack capstone. All committed to your public GitHub with README and demo video.
Track SpecialisationPick Agriculture, Manufacturing, Defense or Transport at week one. Every project deliverable is then aligned to that vertical.
Internship-Ready TagCleared learners are flagged 'Internship-Ready' on the Elysium Talent Portal — actively scanned by hiring partners.
Industry MentorsExternal reviewer panel for every capstone, drawn from product companies and EMS partners across India.
Take-Home KitStandard kit includes ESP32, LoRa SX1278, sensors, OLED, RTC, microSD module and a Pi-class gateway for shared use.
LMS + Recorded ContentDaily session recordings, slide decks, lab manuals and code repositories accessible for 12 months after enrolment.
1:8 Trainer-Student RatioLab support is genuinely interactive — never more than 8 students per trainer during the hands-on block.
Career SupportResume review, GitHub review, LinkedIn portfolio post, mock interview, and one-on-one capstone mentorship.
Community AccessPrivate discord + alumni network. Senior students review your projects; you review the next cohort's.
CertificationEmbedron+ IoT Specialist Certificate with verifiable QR-code credential and a transcript of all 30 lab experiments.
Continuing UpdatesCurriculum refreshed every 6 months. Enrolled students get free access to revised lab manuals for one year.​
What we don't promise

What we don't promise

We don't promise that your child will become an engineer in 45 days. We do promise that they will know — in their body, not just their head — what it feels like to build something that works. That feeling is the seed everything else grows from.

The Industrial IoT and Edge AI markets are the rare overlap of three favourable forces: rapid enterprise adoption, India-specific policy tailwinds (Production-Linked Incentives, Smart Cities 2.0, Semicon India), and a generation of MSMEs urgently digitising. The result is a hiring market where supply is short and salaries reflect it.

Market Demand Snapshot

practical model
India IoT market projected at USD 9.3 Bn by 2025, growing at ~17% CAGR (NASSCOM).
Embedded Foundation
Edge AI / TinyML hiring grew 38% year-on-year on major Indian job boards in 2024.
Mentors
Top hiring metros: Bengaluru, Pune, Chennai, Hyderabad, Coimbatore, Delhi-NCR.
Engineer
Median entry CTC for a fresher IoT engineer with a portfolio: ₹4.5 – ₹7.5 LPA. With Edge AI: ₹7 – ₹12 LPA.

Job Roles You Are Eligible For After Module 2

Job RoleExperienceIndicative CTC (₹ LPA)
IoT Firmware Engineer (Junior)Fresher / 0-1 yr4.5 – 7.5
IoT Cloud Integration EngineerFresher / 0-1 yr5.0 – 8.0
Embedded Connectivity EngineerFresher / 0-2 yr
4.5 – 8.5
LoRa / LoRaWAN Network EngineerFresher / 0-2 yr5.0 – 9.0
Edge AI Engineer (Junior)Fresher / 0-2 yr7.0 – 12.0
Industrial IoT Application EngineerFresher / 0-2 yr5.0 – 9.0
Flutter IoT App DeveloperFresher / 0-2 yr4.5 – 8.5
IoT QA / Field Test EngineerFresher / 0-1 yr4.0 – 6.5
Solution Engineer — IoT VerticalFresher / 0-2 yr5.5 – 9.0
Junior Product Engineer — IoTFresher / 0-2 yr5.5 – 10.0
IoT Security Analyst (Entry)Fresher / 1-2 yr6.0 – 10.0
EV Telematics EngineerFresher / 0-2 yr5.5 – 9.5
AgriTech IoT EngineerFresher / 0-1 yr4.5 – 7.5
Predictive Maintenance EngineerFresher / 0-2 yr6.0 – 10.0
Smart City Solutions EngineerFresher / 0-2 yr5.0 – 8.5
Founder / Co-Founder — Deep TechVariableEquity-based

Hiring Industries

  • AgriTech — Stellapps, CropIn, Fasal, DeHaat, Jain Irrigation, ITC ABD
  • Manufacturing & MSME — Tata Motors, Bajaj Auto, L&T, Bosch, Siemens India, Maruti
  • EV & Mobility — Ola Electric, Ather, TVS Motors, Mahindra Electric, Tata Passenger EV
  • Defense & Aerospace — DRDO, BEL, BDL, HAL, Tata Advanced Systems, iDEX startups
  • Smart City & Utilities — Genus, Secure Meters, HPL, Atomberg, Bharti Smart City
  • EMS & Product Services — Tata Elxsi, L&T Technology Services, Tessolve, Cyient, Sasken
  • Healthcare IoT — Forus Health, 5C Network, Niramai, Yostra Labs
  • Logistics & Fleet — Delhivery, BlackBuck, FreightTiger, Locus.sh

Global Opportunity Snapshot

India-trained IoT engineers are increasingly hired by global product companies for remote and onsite roles in the UAE, Singapore, Germany and the US. Edge AI specialists in particular command global premiums because the skill is genuinely scarce. Module 2's project portfolio is structured to translate cleanly to a remote-first international hiring funnel.

Career Pathway Roadmap

The path below maps the typical 0-to-5-year trajectory of someone who clears Embedron+ Module 2 with distinction and stays in the IoT / Edge AI track.
StageTypical RoleSkill Stack You Add
Year 0 (now)Junior IoT Firmware / IoT Cloud EngineerWi-Fi, MQTT, basic dashboards, vendor SDK fluency
Year 1-2IoT Application Engineer / Edge AI EngineerOPC-UA, OTA, security hardening, TinyML deployments
Year 2-3Senior IoT Engineer / Tech Lead — IoTSolution architecture, multi-protocol gateways, team mentoring
Year 3-4IoT Product Engineer / Platform ArchitectRoadmap ownership, cross-cloud strategy, regulatory compliance
Year 4-5+Principal Engineer / Engineering Manager / FounderOrg-scale architecture, P&L thinking, founding your own deep-tech company

Future Learning Roadmap

After Module 2, the natural next step is Embedron+ Module 3 (Robotics & Drones) and Module 4 (Industrial Automation & Capstone). Beyond that, the technology landscape is moving in a few specific directions worth keeping an eye on.

Recommended Next Steps Inside Elysium

  • Embedron+ Module 3 — Robotics, Drones & Mechatronics (45 days).
  • Embedron+ Module 4 — Industrial Automation, AI Integration & Capstone (45 days).
  • Industry Certification Bridge Course — AWS IoT Specialty or Microsoft AZ-220 exam prep (2 weeks).

Higher Education Routes

  • M.Tech in Embedded Systems / IoT from NITs, IIITs, BITS, VIT, SRM, Anna University.
  • PG Certificate in Industry 4.0 from IISc, IITs and TalentSprint.
  • MS abroad in Embedded / Robotics / Connected Systems — Embedron+ portfolio is strong SoP material.
  • Sponsored fellowships via DST, DRDO, MEITY for IoT research projects.

Emerging Tech to Track

  • Matter / Thread — the cross-vendor smart-home interop standard backed by Apple, Google, Amazon and Samsung.
  • 5G RedCap modems — replacing NB-IoT in many use cases with cheaper, faster cellular IoT.
  • RISC-V on the edge — ESP32-C6 and CH32V chips making open ISA mainstream.
  • On-device LLMs — compact language models running on Cortex-M55 / NPU-equipped MCUs.
  • Post-Quantum Cryptography — NIST has standardised; IoT rollout starts 2025–26.
  • Asset Administration Shell (AAS) — Industry 4.0 standard for self-describing assets at every plant.

Detailed Syllabus

Module 2 runs for 45 working days, 6 days a week, 90 minutes per session. The structure below is the same one delivered in the classroom — every entry is mapped to a lab in the workbook.

Module Snapshot

AttributeDetail
Module CodeEBR-M2-IIOT-EAI
Duration45 days × 1.5 hours = 67.5 contact hours
Practical : Theory02-01-1900 22:30:00
Primary PlatformsESP32, ESP8266, Raspberry Pi 4, LoRa SX1278, SIM800L, NB-IoT BC95
Pre-requisiteEmbedron+ Module 1 certificate or equivalent
Career MilestoneInternship-Ready
CapstoneEnd-to-end IoT product — device, gateway, cloud, mobile app
Cohort Size24 (max 30) — 1:8 trainer-to-student lab ratio

Week 1 — Wi-Fi, HTTP, WebSockets, Provisioning

Week 1 lifts you off the bench and onto the internet. By Friday, your ESP32 is hosting its own captive portal, accepting Wi-Fi credentials, and posting JSON telemetry to a public REST endpoint.
  • Day 1 — Wi-Fi & TCP/IP foundations, OSI layers, sockets. Lab: ESP32 station mode, scan, connect.
  • Day 2 — HTTP client, REST APIs, JSON. Lab: POST to httpbin and OpenWeatherMap.
  • Day 3 — HTTP server on ESP32. Lab: build a sensor dashboard served from the device.
  • Day 4 — WebSockets for real-time push. Lab: live temperature graph in browser.
  • Day 5 — mDNS, captive portals, SoftAP. Lab: ESP32 SoftAP with Wi-Fi provisioning.
  • Day 6 — WiFiManager, production-style provisioning. Lab: provisioning UX with EEPROM persistence.

Week 2 — MQTT, Cloud Brokers, TLS

Week 2 is when the IoT pieces snap into place. You stand up a Mosquitto broker, then graduate to a TLS-secured cloud broker. Every learner sees their first dashboard light up here.
  • Day 7 — MQTT fundamentals: pub/sub, QoS, retained, will. Lab: Mosquitto broker + MQTT Explorer.
  • Day 8 — MQTT on ESP32: reconnect logic, LWT. Lab: ESP32 publishing telemetry, subscribing to commands.
  • Day 9 — TLS-secured MQTT: certificates, port 8883. Lab: secure connect to HiveMQ Cloud.
  • Day 10 — ThingsBoard setup: devices, telemetry, dashboards. Lab: end-to-end dashboard with widgets.
  • Day 11 — Blynk IoT 2.0: datastreams, virtual pins. Lab: phone-control panel for an LED + sensor.
  • Day 12 — Firebase Realtime DB + Auth. Lab: ESP32 → Firebase, mobile app reads in real time.

Week 3 — LoRa, LoRaWAN, Cellular IoT, BLE

This is the long-range week. By the end of it, you have walked across the campus with one node in your hand and another at the bench, and you know exactly how far your signal really reaches.
  • Day 13 — Sub-GHz RF & LoRa modulation, chirp spread spectrum, SF/BW. Lab: two ESP32+SX1278 P2P range test.
  • Day 14 — LoRa star network design, gateway + nodes. Lab: 1 gateway + 3 nodes with polling.
  • Day 15 — LoRaWAN & The Things Network (TTN). Lab: register a device, send telemetry, view in TTN console.
  • Day 16 — TTN integrations and decoders. Lab: forward TTN payload to ThingsBoard via MQTT bridge.
  • Day 17 — Cellular IoT (2G / 4G / NB-IoT). Lab: SIM800L AT commands; SIM7600 4G MQTT publish.
  • Day 18 — BLE fundamentals: GAP, GATT, services, characteristics. Lab: ESP32 BLE peripheral exposing sensors.

Week 4 — Edge Gateways, Node-RED, Local Processing, OTA

Week 4 introduces the Raspberry Pi as an industrial-grade IoT gateway. You install Mosquitto, Node-RED, InfluxDB and Grafana, and you discover why local processing matters in any deployment where the internet is not infinitely reliable.
  • Day 19 — Raspberry Pi as IoT gateway, headless setup. Lab: provision Pi, SSH, install Mosquitto + Node-RED.
  • Day 20 — Node-RED flow programming. Lab: multi-sensor live dashboard with rules.
  • Day 21 — MQTT → InfluxDB → Grafana pipeline. Lab: time-series storage with alerts.
  • Day 22 — Edge filtering & buffering, store-and-forward. Lab: local buffer surviving a 1-hour internet outage.
  • Day 23 — OTA firmware updates, dual-bank A/B partitions. Lab: push OTA to ESP32 from a local server and from HTTPS.
  • Day 24 — MQTT bridging & federation. Lab: bridge Pi broker to HiveMQ Cloud, multi-site demo.

Week 5 — Flutter Mobile App for IoT

Week 5 closes the loop. Your phone becomes part of the product — scanning for BLE peripherals, subscribing to MQTT telemetry, receiving FCM push notifications, and pushing control commands back to the device.
  • Day 25 — Flutter quickstart, Dart, widget tree, state. Lab: counter, then a sensor card UI.
  • Day 26 — Flutter BLE with flutter_blue_plus. Lab: connect mobile to ESP32 BLE node, live values.
  • Day 27 — Flutter MQTT client. Lab: phone subscribes to telemetry and sends commands.
  • Day 28 — Push notifications via FCM. Lab: send 'soil dry!' alert from cloud → phone.
  • Day 29 — Charts & UI polish with fl_chart. Lab: live chart, history view, settings screen.
  • Day 30 — App distribution, signed APK, Play Console basics. Lab: build signed APK, share with classmates.

Week 6 — IoT Security & Reliability

Week 6 is the unsung hero of the module. You spend a full week deliberately breaking systems — sniffing, spoofing, replaying — and then learn how to harden them properly.
  • Day 31 — IoT threat landscape, OWASP IoT Top 10. Demo: sniffing MQTT in clear, replay attack, MITM.
  • Day 32 — TLS, X.509, certificate pinning. Lab: issue self-signed CA, deploy device certs.
  • Day 33 — Secure boot, flash encryption on ESP32. Walk-through on a sacrificial chip.
  • Day 34 — Signed OTA, rollback counter. Lab: build signed firmware bundle, deploy via signed OTA.
  • Day 35 — Watchdogs, brownout, panic handlers. Lab: stress test — yank power, drop network, hang firmware.
  • Day 36 — Diagnostics, crash dumps, remote logs. Lab: send crash reports and runtime metrics to a debug dashboard.

Week 7 — Track-Specific Mini Projects

By Week 7, you have all the building blocks. Now you assemble them into three industry-aligned mini projects in your chosen track.

TrackMini Project 4Mini Project 5Mini Project 6
AgricultureLoRa soil + air node → Pi gateway → ThingsBoard with field mapCloud dashboard with WhatsApp irrigation alertsFlutter app with valve override and OTA trigger
ManufacturingMotor health node — current + vibration + temp → MQTTOEE dashboard + predictive alarm previewSupervisor mobile app with shift summary
DefensePerimeter event node with LWT 'dead-man' detectionEncrypted gateway with command-center dashboardMobile app with silent mode and event log
TransportVehicle telemetry — GPS, speed, harsh eventsLive map + trip history dashboardDriver-score mobile app with geofencing

Week 8 — Capstone Build, Polish, Demo Day

The final 3 days are a focused capstone sprint. Day 43 is integration, Day 44 is polish and documentation, Day 45 is a 10-minute live demo to an external industry panel.
Every capstone must include: at least one battery-powered field device, a Raspberry Pi gateway running Mosquitto + Node-RED + InfluxDB, a cloud dashboard on ThingsBoard or Grafana, a Flutter app with live data and at least one control action, TLS end-to-end, a working OTA pipeline, and a complete documentation pack.

Week 1 — Wi-Fi & Cloud Connectivity

Overview
Week 1 takes a microcontroller from a self-contained gadget to a participant on the internet. Learners cover the TCP/IP stack from a working engineer's perspective, then immediately build an HTTP client, an HTTP server, a WebSocket pipeline, and a production-style provisioning UX.
Topics Covered
• OSI layers, TCP vs UDP, sockets
• HTTP verbs, status codes, JSON payloads
• Async HTTP server on ESP32
• WebSocket framing and real-time push
• Captive portals, mDNS, SoftAP, WiFiManager
Outcome
By Friday, learners can take any ESP32 board, hand it to a customer with no Wi-Fi credentials baked in, and have that customer provision it in under 60 seconds from a phone. They can also POST sensor data to any REST API in the world.

Week 2 — MQTT, Cloud Brokers, TLS

Overview
This is the spine of modern IoT. Learners build MQTT pipelines from scratch on a local Mosquitto, then graduate to TLS-secured cloud brokers, and finally connect three different cloud platforms — ThingsBoard, Blynk, and Firebase — to compare strengths.
Topics Covered
• Pub/sub, QoS 0/1/2, retained messages, LWT
• MQTT over TLS, port 8883, certificate validation
• ThingsBoard device, telemetry, dashboard, rules
• Blynk IoT 2.0 datastreams and mobile widgets
• Firebase Realtime DB, auth tokens, security rules
Outcome
Learners can architect a secure, broker-mediated IoT pipeline and choose between three mainstream cloud platforms based on cost, mobile-app needs, and ops maturity.

Week 3 — LoRa, LoRaWAN, Cellular & BLE

Overview
Wireless choices is where most junior engineers blank in interviews. Week 3 closes that gap with a tour of every realistic wireless option for an Indian deployment, capped with a hands-on campus range test.
Topics Covered
• Chirp Spread Spectrum, SF7–SF12, bandwidth, sensitivity
• Star network design, downlink challenges, duty cycle
• LoRaWAN ABP vs OTAA, Class A/B/C, ADR
• The Things Network registration, decoders, integrations
• Cellular IoT (2G / 4G / NB-IoT) AT-command basics
• BLE GAP, GATT, services, characteristics
Outcome
Learners can defend a wireless technology choice for any product brief. They have walked the kilometres themselves and can quote actual numbers from the campus range test.

Week 4 — Edge Gateways, Node-RED & OTA

Overview
Real IoT systems do not push every byte to the cloud. They filter, buffer, transform and forward — at the edge, on a small Linux box near the assets. This week builds that gateway end-to-end.
Topics Covered
Raspberry Pi 4 headless setup, systemd, SSH hardening
• Mosquitto local broker, Node-RED flow programming
• InfluxDB time-series storage, Telegraf, Grafana dashboards
• Store-and-forward, exponential backoff, dedup
• Dual-bank OTA firmware updates with rollback
• MQTT bridging, federation, multi-site setups
Outcome
Learners can stand up a production-style gateway that buffers through a one-hour internet outage and OTA-updates its downstream devices without losing data.

Week 5 — Flutter Mobile App Development

Overview
A product without a phone app is not a product anymore — at least not for any consumer- or operator-facing IoT system in India. Week 5 makes the learner conversational in Flutter, with enough fluency to ship a usable APK.
Topics Covered
• Dart, widget tree, stateful vs stateless widgets
• flutter_blue_plus for BLE scan, connect, subscribe
• mqtt_client for telemetry and command channels
• Firebase Cloud Messaging push notifications
• fl_chart for live charts, themes, navigation
• APK signing, Play Console basics, share-build flow
Outcome
Learners walk out with a signed APK of their own IoT app installed on their phone. They can also debug the BLE permissions dance on Android, which trips up most beginners.

Week 6 — IoT Security & Reliability

Overview
The 'oh no' week. Learners sniff their own MQTT, replay it, MITM it, and then learn how to slam every door shut. The week ends with a soak-test of the capstone-in-progress, where the trainer deliberately yanks power, drops Wi-Fi, and hangs the firmware to see what survives.
Topics Covered
• OWASP IoT Top 10, common attack vectors
• TLS 1.3, X.509, mutual auth, certificate pinning
• ESP32 secure boot v2, flash encryption, eFuses
• Signed OTA bundles, rollback protection
• Hardware and software watchdogs, brownout handling
• Crash dump capture, remote diagnostics
Outcome
Learners can audit a junior engineer's IoT design against OWASP IoT Top 10 and produce a written hardening report. This is a directly billable consulting skill.

Module 1 - Deep-Dive Document

This section serves as the standalone, deep-dive companion to the landing page. It can be reused on a dedicated /module-1/ page or downloaded as a brochure PDF.

Curriculum Framework

The framework documents how Module 2 is delivered every day, every week, every hour. It is intentionally transparent so partner colleges and parents can audit pedagogy.

Practical : Theory Split

  • 47 hours of hands-on labs (70%) over the 67.5 contact hours
  • 20.5 hours of just-in-time theory (30%), delivered in 10–20 minute pre-lab briefings
  • No standalone lecture blocks — every concept attaches to a hardware moment

Daily Session Blueprint (90 minutes)

TimeActivity
0 – 5 minRoll-call, recap, today's objective on board
5 – 20 minConcept briefing with whiteboard and datasheet excerpts
20 – 32 minTrainer-led live demo on projector while learners set up kits
32 – 77 minHands-on lab in pairs — one driver, one navigator
77 – 84 minGroup debug, common-error walkthrough, peer code review
84 – 90 minLogbook entry, photo capture, tomorrow's preview

Assessment Architecture

ComponentWeightWhat's Assessed
Practical Lab Assessment25%Live random experiment + on-spot debugging
Mini Project Reviews (×3)15%Design review + demo for each project
Capstone Project35%Full rubric — build, firmware, cloud, app, security, docs
Viva Voce10%Protocols, security, debugging scenarios
Logbook + Technical Blog10%Daily log + one public blog post
Attendance & Innovation5%Min 80% attendance + bonus features

Pedagogical Pillars

  • Problem-First Learning — every topic opens with an industry problem in your chosen track.
  • Failure-Driven Mastery — trainers seed common errors so debugging intuition is built, not lectured.
  • Iterative Build Cycles — every project moves through breadboard → prototype → enclosure → deploy.
  • Public Demonstration — capstones are pitched live to an external panel; videos enter the portfolio.

Frequently Asked Questions

Answers below are written to be helpful first and SEO-friendly second. They are also formatted to drop directly into a FAQ schema markup (see Section 20).

Is Embedron+ Module 2 suitable for a beginner?

What is the duration of this course?

Will I get an internship after this course?

What hardware will I receive?

Do I need an Android phone for this course?

What is the fee for Module 2?

Will I get a certificate?

What is the placement support like?

Can working professionals join?

Which cloud platforms will I learn?

Is this course aligned to a specific industry?

What if I miss a class?

Will I learn Edge AI / TinyML in Module 2?

Can I take Module 2 without Module 1?

What kind of projects will be on my GitHub at the end?

Does this course cover Modbus and OPC-UA?

What is the cohort size?

Are there scholarships available?

What support is available after the course ends?

How is this different from generic online IoT courses?