The IoT and Embedded Systems Lab aims to develop a connected, secure, and smart Internet of Things (IoT) based platform, empowered with machine learning and data analytics, to address economic, social, and environmental, and business needs. The lab provides opportunities to work with new and existing datasets, apply information science and AI procedures to reveal new experiences and important data or, fabricate new applications in healthcare, agriculture, retail, etc.
Introduce industry-relevant courses in the autonomous curriculum, and conduct hands-on courses and workshops
Create opportunities for students and faculty members to execute industry consulting projects
Support students with the necessary resources to participate in national competitions
Involve students in interdisciplinary projects under the banner of the Central Project Review Committee (CRPC)
Introduce industry-relevant courses in the autonomous curriculum, and conduct hands-on courses and workshops
Create opportunities for students and faculty members to execute industry consulting projects
Support students with the necessary resources to participate in national competitions
Involve students in interdisciplinary projects under the banner of the Central Project Review Committee (CRPC)
The industry collaborations of IoT and Embedded Systems Lab enable faculty members, research scholars, and students to get exposure to the world of IoT and Industry 4.0 using existing/future commercial products and solutions. Our partners include:
E-resources, including Basic Embedded Systems lecture series, Advanced Level Embedded System training series, and Version Control in Github (video training series). |
Major equipment like PCB drill machine, micro solder station, Arduino Mega, Ethernet shield, Arduino Uno GSM shield, Raspberry pi display, Turbidity sensor, IR flame detection sensor, etc. |
Microcontroller development platforms - an Arduino IoT development platform, Node MCU wifi boards, Bluetooth, LoRa, GSM/GPRS, Zigbee - to realize seamless connectivity in the digital domain. |
Dedicated Printed Circuit Board (PCB) design software like Eagle PCB to create marketable prototypes |
Open Source text based services like the MQTT server/client model |
Surface Mount Devices (SMD) for building compact IoT systems |
The Lab will utilize the power of physical parameter sensing devices or sensors to provide exhaustive solutions in the IoT domain. We influence the use case of Single Board Computers (SBC) to run applications by understanding different applications, including network traffic checking, web execution, and security and protection research. Devices available include:
DEVELOPMENT BOARDS | SENSORS | RF MODULES |
---|---|---|
Node MCU (cp2102) |
PH Sensor |
RF TX-RX 433MHz |
ESP32 kit |
ADXL335 Accelerometer |
Zigbee |
Raspberry Pi 4 (Model B) |
DHT11/DHT22 |
LoRa |
Camera module |
Peltier Module |
Wi-Fi |
Beaglebone Black |
Sound Module |
GSM/GPRS |
Arduino Uno |
Rotary Encoder |
RFID |
Arduino Nano |
MQ2/MQ6 Gas Sensor |
BLE |
Arduino Mega 2560 |
LDR Module |
NRF24L01 (2.4GHz) |
Ethernet Shield for Arduino Uno |
Flame detector |
|
GSM Shield for Arduino Uno |
Flow meter |
|
ARM7 LPC2148 Development Kit |
Turbidity Sensor, Vibration Sensor, Soil Moisture Sensor, PIR Sensor |
The training program is focused on Project management, Embedded Systems, and Internet of Things (IoT) system design which will help the students to get skilled in cutting edge technologies. Industry experts from Phoenix Robotix Pvt. Ltd., Bhubaneswar, take the training. The student selection was done through an idea competition ‘DATOMS Industrial IoT Innovation Challenge 2021’.
Students will gain a thorough understanding of the product design life cycle. They will learn to use the various tools for product/prototype development.
Overall, 15 students from different branches got selected by Phoenix Robotix Pvt. Ltd., Bhubaneswar. These students will work on five industry-guided, cutting-edge IoT projects to make marketable POC (Proof-of-Concept). The projects are as below:
This training aimed to help participants learn and upgrade their skills and experience in REST API development using Node.js. and various Node.js REST API projects.
The training discussed the following REST API projects:
The objective of this training program is to provide Hands-on practice on various wireless technologies and interfacing schemes.
The participants received the basic understanding of various wired/wireless communication modules used for IoT system design and development.
The concepts behind the interfacing mechanism of physical layer protocols and hardware modules for interfacing with arduino/ESP series microcontrollers as well as 8051 series microcontrollers are discussed in this training program.
The main objective of conducting the STTP on 'Industrial Automation and Control for Industry 4.0' as an interactive program is to fulfill the gap between the industries and academic institutes. The industrial systems of the future are seen as complex systems composed of vast numbers of devices continuously interacting with each other and with enterprise systems.
Modern technologies and concepts such as web services, Service Oriented Architectures (SOA), cloud computing, smart sensors, and systems can be used to construct sophisticated infrastructures to fulfill future industrial needs.
In this STTP, we will treat and justify the case for different types of sensors for the measurement of flow, level, temperature, pressure, and acceleration. The training will discuss MEMS and MOEMS sensors, various PID Controller schemes, Automation & Control using PLC, Automation & Control using National Instruments LabVIEW.
We will also learn about Optical Sensing Systems for wide-area industrial automation and control, distributed measurement technologies using Fibre Bragg Grating sensors, big data enabled machine learning, AI, and IoT frameworks for smart industrial automation and control.
Researchers at the SiliconTech IoT and Embedded Systems Lab are developing a cardiac monitoring mechanism by integrating Internet of Things (IoT) and Optical Sensors. The Proof of Concept (POC) conveys the possible applications of FBGs in the field of biomedical engineering.
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The IoT and Embedded systems Lab is developing prediction algorithms that can improve the maintenance of diesel engines. This can lead to benefits for the environment and human health.
READ MORE
Researchers at the SiliconTech IoT and Embedded Systems Lab are developing a cardiac monitoring mechanism by integrating Internet of Things (IoT) and Optical Sensors. The Proof of Concept (POC) conveys the possible applications of FBGs in the field of biomedical engineering. READ MORE
The IoT and Embedded systems Lab is developing prediction algorithms that can improve the maintenance of diesel engines. This can lead to benefits for the environment and human health. READ MORE