5-day hands-on programme · 17 Nov – 21 Nov 2026

Build the future of Smart Health.

A focused Skill Development Programme connecting biomedical signals, sensors, embedded systems, PCB design and IoT dashboards to real-world healthcare innovation.

◷ Daily: 2:00–5:00 PM ⅁ Hands-on learning ✦ Prototype-focused
Smart Health Monitoring Ecosystem
〰Biomedical
Signals
⅁Connected
Devices
⌘PCB &
Embedded AI
▥Live Health
Dashboard
5 DaysFocused learning
15 HoursContact programme
2–5 PMDaily schedule
1 PrototypeBuild & demonstrate
About the SDP

From biosignal to connected health solution.

Designed as a compact, practical learning experience, the programme moves from the fundamentals of biomedical signals to sensor interfacing, cloud logging and a demonstrable smart-health prototype.

⅁

Learn by building

Explore biomedical sensors and acquisition, signal conditioning, circuit simulation, PCB design and embedded boards through guided demonstrations and practical activities.

ECG · EMG · EEG · PPGArduino / ESP32PCB Design
▥

Connect data to decisions

Collect sensor data, visualise it with MATLAB or Python, send readings to cloud platforms and explore dashboards, remote monitoring and basic alerts.

Python / MATLABThingSpeakHealth dashboards
Programme roadmap

Five afternoons. One connected journey.

All sessions run from 2:00 PM to 5:00 PM (17 Nov – 21 Nov 2026). Session faculty allocations are based on the updated programme plan.

NOV17TUE

Smart Health Systems & Biomedical Signals

Day 1 · Foundations and acquisition

2:00–2:15
Inauguration and SDP overviewOrganising Committee
2:15–2:45
Biomedical engineering and smart healthcareDr. Shiva Sharma
2:45–3:15
ECG, EMG, EEG and PPG biosignalsDr. Shiva Sharma
3:15–3:45
Signal acquisition, noise and artifactsDr. Manoj Kr. Sharma
3:45–4:00
Tea break Break
4:00–4:40
Live ECG/EMG acquisition demonstrationDr. Manoj Kr. Sharma
4:40–5:00
IoT applications, discussion and Q&AMrs. Dipika Sharma / Mentors
2:00–2:30
Biomedical sensors and ECG/EMG electrodesMs. Sweety Pal
2:30–3:10
Instrumentation amplifiers: AD620, INA333 and TL074Dr. Manoj Kr. Sharma
3:10–3:40
Analog filters, gain stages and circuit safetyMrs. Dipika Sharma
3:40–3:55
Tea break Break
3:55–4:35
Proteus/Falstad simulation and signal-conditioning demonstrationDr. Manoj Kr. Sharma
4:35–5:00
Signal observation, troubleshooting and Q&AMrs. Dipika Sharma / Mentors
2:00–2:25
PCB design flow: schematic, layout and routingMrs. Dipika Sharma
2:25–2:55
KiCad, EasyEDA and AI-assisted PCB toolsDr. Manoj Kr. Sharma
2:55–3:35
Designing a one-channel amplifier PCBMrs. Dipika Sharma / Dr. Manoj Kr. Sharma
3:35–3:50
Tea break Break
3:50–4:30
Component placement, routing, 2D/3D viewer and design checksDr. Manoj Kr. Sharma
4:30–5:00
Gerber files, BOM, manufacturing overview and design reviewMentors
2:00–2:30
IoT applications in smart healthcare & embedded architecturesDr. Rakhi Bhardwaj / Mrs. Dipika Sharma
2:30–3:05
Arduino & ESP32 biomedical sensor interfacing (ADC, BLE & Wi-Fi)Dr. Manoj Kr. Sharma
3:05–3:20
Tea break Break
3:20–4:15
Cloud logging: Streaming data to Firebase Realtime DB & Google SheetsDr. Manoj Kr. Sharma / Mentors
4:15–5:00
Real-time smartphone dashboards, data visualisation & alertsMentors
2:00–2:45
End-to-end prototype integration: Sensor front-end to cloud dashboardDr. Manoj Kr. Sharma / Mentors
2:45–3:45
Group-wise project presentations and live prototype demonstrationsParticipants
3:45–4:00
Tea break Break
4:00–4:30
Technical evaluation, panel feedback and future directionsFaculty Panel / Mentors
4:30–5:00
Certificate distribution, valedictory address and vote of thanksOrganising Committee
Laboratory Repository & Downloads

Hands-on Project Assets & Hardware Kits

Access and download complete circuit schematics, Gerber PCB archives, Arduino and ESP32 firmware, Python telemetry bridges, and companion Android applications for the SDP laboratory sessions.

▥ PCB Fabrication
4 Files KIT-01

Bio-Signal Front-End PCB Kit & Schematics

Analog Front-End (AFE) Hardware Package

Complete multi-lead biosignal acquisition hardware package for ECG, EMG, and EEG. Includes production Gerber archives, verified component Bill of Materials (BOM), and circuit schematics.

EasyEDA Gerber Archive BOM Sheet Multi-Lead AFE

Real-time Human-Machine Interface (HMI) using Electromyography (EMG) signals. Forearm muscle contractions trigger jumps in the Chrome Dino game via Arduino Uno and ESP32.

Electromyography Arduino Uno ESP32 Biosignal HMI

Direct WiFi telemetry pipeline pushing calibrated EEG voltage frames from ESP32 into Google Firebase Realtime Database for instantaneous low-latency live web charting.

ESP32 WiFi Firebase Realtime DB Live Web Charts Cloud IoT

Automated clinical recording pipeline capturing zero-centered EEG biosignals, serializing via Python bridge, and logging directly into Google Sheets. Includes the official student laboratory guide.

ESP32 Centering Google Sheets API Jupyter Notebook Lab Guide PDF

Embedded digital signal processing executing on-chip Fast Fourier Transform (FFT) algorithms on raw EEG data to decompose rhythms into Delta (0.5-4Hz), Theta (4-8Hz), Alpha (8-13Hz), and Beta bands.

FFT Spectral Analysis Delta/Theta/Alpha/Beta ESP32 DSP Band Power
Programme contributors

Faculty & mentoring team

Faculty names are shown as listed in the previous SDP plan. Final session allocations may be updated by the organisers.

Dr. Shiva Sharma

Dr. Shiva Sharma

Smart healthcare, biomedical signals and biosignal fundamentals

Dr. Manoj Kr. Sharma

Dr. Manoj Kr. Sharma

Signal acquisition, instrumentation, PCB, embedded systems and IoT integration

Mrs. Dipika Sharma

Mrs. Dipika Sharma

Signal conditioning, IoT and hands-on demonstrations

Ms. Sweety Pal

Ms. Sweety Pal

Biomedical sensors and electrodes

Dr. Rakhi Bhardwaj

Dr. Rakhi Bhardwaj

IoT applications in smart healthcare

MT

Mentors & Organising Committee

Practical guidance, project evaluation and programme coordination

What participants will explore

Skills to take beyond the workshop.

By the end of the SDP, participants will have followed a practical workflow from signal acquisition to a connected monitoring concept.

01 / ACQUIRE

Understand biosignals

Identify common biomedical signals and learn the basics of acquisition, artifacts, electrodes and signal conditioning.

02 / ENGINEER

Design & interface

Explore PCB workflows, embedded boards, sensor interfacing and common communication protocols.

03 / CONNECT

Visualise & demonstrate

Stream, log and visualise sensor data using software and cloud dashboards, then present a prototype concept.

Mark your calendar

Smart Health Systems SDP · 2026

17 November – 21 November 2026 · Daily from 2:00 PM to 5:00 PM

Explore the schedule ↑