
Texas College of Management & IT runs Robotics and IoT classes for BIT students in their very first semester. Instead of waiting until your final year to touch hardware, you start with sensors, microcontrollers and working project builds within weeks of joining the programme.
2 Weeks
Class duration
1st Sem
BIT students
5
Live projects
ℹ️ 2026 batch: classes began on 26 July 2026 and ran for two weeks, open to BIT first-semester students at Texas College of Management & IT, Kathmandu.
In This Article
- What the Robotics and IoT classes cover
- The projects BIT students build
- Why robotics and IoT classes matter for BIT students
- How the classes are taught
- What this means if you are choosing a BIT college
- Frequently asked questions
What the Robotics and IoT classes cover
Robotics is about machines that sense, decide and move. The Internet of Things is about everyday devices that collect data and talk to each other over a network. Put them together and you get most of the technology that now sits between software and the physical world, from a smart door lock to a delivery drone.
The classes are built around eight practical areas:
- IoT fundamentals, including how connected devices send and receive data
- Robotics basics, covering movement, control and feedback
- Sensors and where each type is actually used
- Devices and components, so you can read a parts list and build from it
- Microcontrollers and the basics of device control
- Programming for IoT applications
- Real applications of robotics and IoT in homes, campuses and industry
- Problem solving with technology, from spotting the problem to testing the fix
You do not need an electronics background to follow along. The classes start from first principles, which matters because most BIT students arrive from a +2 science or management stream with no hands-on hardware experience.
The projects BIT students build

The classes are project-led. You spend less time listening and more time deciding what to build, choosing the components, writing the control code and finding out what breaks. That last part is the point. Debugging a robot that will not turn teaches more than a slide about motor drivers.
Projects from the current batch
- ARIS, an AI reception robot
- Prosthetic robotic hand
- Smart door access system
- Reverse vending machine for recyclable containers
- Delivery drone
Projects from previous batches
- RC plane
- Drone
- Smart home system
- Obstacle-avoiding robot
- Smart lock system
💡 Keep photos, code and a short write-up of whatever you build. A first-semester project you can actually demonstrate is worth more in an internship interview than a line on a CV.
Why robotics and IoT classes matter for BIT students
A BIT degree gives you a strong grounding in computing and software. Robotics and IoT add the layer that most graduates only meet at work, which is what happens when your code has to control something physical and unreliable.
Starting in the first semester gives you four practical advantages:
- You build technical range early. Programming, electronics and networking stop being separate subjects and start being one workflow.
- You get project experience before you need it. Semester assignments, your final-year project and your portfolio all get easier once you have shipped something once.
- You find out what you like. Some students discover embedded systems here. Others confirm they would rather stay in software. Both answers are useful in semester one.
- You lay groundwork for later subjects. Embedded systems, automation, smart devices and data-driven applications are all easier when the basics are already familiar.
Key point: the value is not the two weeks. It is the seven semesters afterwards, where you already know how to take a project from idea to working build.
How the classes are taught
Each topic follows the same four steps, so nobody is left guessing what to do with a box of components.
- Explanation. The concept and where it is used in real systems.
- Demonstration. The instructor builds or runs it in front of the class.
- Practice. You repeat it yourself with support on hand.
- Project work. You apply it to your team’s build and troubleshoot what goes wrong.
Instructors are selected for practical experience in robotics and IoT rather than classroom teaching alone, so questions about why a circuit behaves oddly get answered from experience.
What this means if you are choosing a BIT college
Most BIT syllabi in Nepal look broadly similar on paper. What separates colleges is what happens outside the prescribed courses. At Texas College of Management & IT, the Robotics and IoT classes are one part of that, running alongside the regular BIT curriculum rather than replacing any of it.
As a first-semester student you come away with:
- A completed project you helped design and build
- Working knowledge of sensors, microcontrollers and device control
- Practice turning classroom theory into something that runs
- An early view of where IT is heading, so you can choose a direction on purpose
You can read the full curriculum, eligibility and fee structure on the TCMIT BIT programme page, and also see other short courses and bootcamps.
- ✓ Robotics and IoT classes run for two weeks and are open to BIT first-semester students.
- ✓ You cover sensors, microcontrollers, device control and IoT programming from the basics up.
- ✓ Teams build real projects, including an AI reception robot, a prosthetic hand and a delivery drone.
- ✓ No prior electronics or hardware experience is needed.
- ✓ The classes run alongside the BIT curriculum, not instead of it.
Frequently asked questions
Who can join the Robotics and IoT classes?
They are run for first-semester BIT students at Texas College of Management & IT.
Do I need to know programming or electronics first?
No. The classes begin with fundamentals, including basic device control and programming for IoT applications, so first-semester students can follow without prior hardware experience.
How long do the classes run?
Two weeks. The 2026 batch began on 26 July 2026.
What kind of projects will I work on?
Teams work on hardware builds that combine sensors, microcontrollers and code. Recent examples include an AI reception robot, a prosthetic robotic hand, a smart door access system, a reverse vending machine and a delivery drone.
