Stamford Robotics Club - SRC

Forums and Clubs Executive Committee 2026 Organises First Central Iftar at Stamford University

Stamford University Bangladesh held its first central iftar this Ramadan, an initiative spearheaded by the Forums and Clubs Executive Committee 2026 to bring all student forums and clubs under a single arrangement.

The event brought together members of the university’s academic and administrative leadership, alongside students from different faculties and batches. It marked the first time that representatives of all forums and clubs gathered for a unified iftar on campus, reflecting a growing emphasis on collaboration within the co-curricular sphere.

The programme was graced by the Chairman of the Board of Trustees, Prof Dr Farahnaaz Feroz, who attended as chief guest. Acting Vice-Chancellor Prof Dr Mohammad Jeaul Hasan was also present. Among the senior faculty members in attendance were Dean of the Faculty of Arts and Social Science Prof Quazi Abdul Mannan, Dean of the Faculty of Engineering Prof B C Basak, and Dean of the Faculty of Science Prof Dr Ahmed Kamruzzaman Majumder.

Proctor Dr Mrityunjoy Acharjee and Advisor of the Students’ Welfare Office Tamanna Zerin joined the gathering as well. Chairmen and heads of departments, including administrative heads, conveners of different forums, and both current and former members of clubs and societies were also present. The wide participation signalled strong institutional backing for the student-led initiative.

Organisers said the central iftar was arranged to create a shared space where different forums and clubs could engage beyond their individual activities. By hosting a single programme, the Executive Committee aimed to strengthen ties among student organisations and encourage greater coordination in future initiatives.

Addressing the gathering, Prof Dr Farahnaaz Feroz welcomed the initiative and commended the organisers for fostering unity on campus. She observed that collective arrangements of this nature help reinforce shared values, particularly during the holy month of Ramadan. She also encouraged the continuation of similar collaborative efforts in the years ahead.

Participants described the evening as both meaningful and memorable. Many said the occasion provided an opportunity to interact across academic disciplines and organisational lines in a relaxed setting.

The successful organisation of the first central iftar is expected to pave the way for further joint programmes, strengthening the sense of community at Stamford University Bangladesh.

Photography by: Stamford University Photographic Society (SUPS)

Stamford Robotics Club

Organized by :

All Forums and Clubs

Executive committee members - 2026

আগামীকাল বৃহস্পতিবার ফোরাম ও ক্লাবের এক্সিকিউটিভ কমিটি ২০২৬ এর শিক্ষার্থীদের আয়োজনে ইফতার, আলোয় আলোয় সাজানো বিশ্ববিদ্যালয় বাস্কেটবল গ্রাউন্ড ।

রেজিস্ট্রেশন করেছে শতাধিক সদস্য, উপস্থিত থাকবেন বিশ্ববিদ্যালয়ের বোর্ড অব ট্রাস্টিজ এর চেয়ারম্যান, উর্ধ্বতন কর্মকর্তা, ডিন, চেয়ারম্যান ও কনভেনারবৃন্দ ।

"আমার ভাইয়ের রক্তে রাঙানো একুশে ফেব্রুয়ারি, আমি কি ভুলিতে পারি..."

আজ মহান ২১শে ফেব্রুয়ারি— শহীদ দিবস ও আন্তর্জাতিক মাতৃভাষা দিবস। ১৯৫২ সালের এই দিনে মাতৃভাষা 'বাংলা'-এর অধিকার ও সম্মান রক্ষার্থে যারা বুকের তাজা রক্ত রাজপথে ঢেলে দিয়েছিলেন, সেইসব অকুতোভয় ভাষা শহীদদের প্রতি Stamford Robotics Club-এর পক্ষ থেকে বিনম্র শ্রদ্ধাঞ্জলি।

সালাম, বরকত, রফিক, জব্বার, শফিউরসহ নাম না জানা সকল শহীদের আত্মত্যাগের বিনিময়েই আজ আমরা গর্বের সাথে বাংলায় কথা বলতে পারি। আমাদের লাল-সবুজ অহংকার আর 'অ আ ক খ'-এর প্রতিটি অক্ষরে মিশে আছে বায়ান্নর সেই অদম্য চেতনা।

প্রযুক্তি, রোবোটিক্স এবং উদ্ভাবনের এই যুগেও মাতৃভাষার মর্যাদা রক্ষা করা আমাদের সবার দায়িত্ব। ৫২-এর চেতনা আমাদের যুগ যুগ ধরে প্রেরণা জোগাক নতুন কিছু শেখার, নতুন কিছু গড়ার। প্রযুক্তির বিশ্বমঞ্চেও আমাদের প্রাণের ভাষা 'বাংলা' মাথা উঁচু করে দাঁড়াক— এটাই হোক আমাদের আজকের অঙ্গীকার।

সকল বীর শহীদদের আত্মার মাগফিরাত কামনা করছি। সকলকে আন্তর্জাতিক মাতৃভাষা দিবসের শুভেচ্ছা।

শুভেচ্ছান্তে,

Stamford Robotics Club (SRC) #একুশেফেব্রুয়ারি #ভাষাআন্দোলন #আন্তর্জাতিকমাতৃভাষাদিবস #শহীদদিবস

Warmest congratulations and a sincere welcome to Dr. Sharif N As-Saber on assuming the office of Vice-Chancellor of Stamford University Bangladesh.

Your distinguished academic career, global leadership experience, and commitment to institutional excellence mark the beginning of a promising new chapter for the university. We are confident that, under your visionary guidance, Stamford University Bangladesh will continue to advance in research, innovation, and academic quality.

Stamford Robotics Club looks forward to supporting the university’s mission and contributing meaningfully to its continued growth and success.

Wishing you every success in this important role.

The New Frontier: Robotics in Extraordinary Environments
Space is arguably the most hostile workplace in existence. Between the vacuum, extreme temperature swings, and relentless radiation, it’s a environment where humans are fragile and expensive to maintain. This is why robotics isn't just a luxury for space agencies—it’s the backbone of modern exploration.
1. Types of Space Robots
We generally categorize space robotics into three primary roles based on their mission profile:
* Rovers and Landers: These are our "boots on the ground." From the Mars Curiosity rover to the Perseverance, these robots act as mobile laboratories, drilling into regolith and sniffing for signs of ancient life.
* Orbital Servicers: These robots stay in space to maintain our infrastructure. They are designed to refuel satellites, clear space debris, or even assemble large structures that are too big to launch in a single rocket fairing.
* Remote Manipulators: Think of the Canadarm2 on the International Space Station (ISS). These are giant robotic limbs used to "catch" visiting spacecraft and assist astronauts during spacewalks.
2. The Autonomy Challenge
In movies, robots respond instantly. In reality, the speed of light creates a massive lag. A signal sent to Mars can take anywhere from 3 to 22 minutes to arrive.
Because of this, space robots are moving away from "remote control" and toward High Autonomy. Modern rovers use AI to:
* Self-Navigate: Identifying obstacles and plotting paths without waiting for a human to say "turn left."
* Target Selection: Identifying "scientifically interesting" rocks to zap with lasers automatically.
* Fault Protection: Detecting a system failure and putting themselves into a "safe mode" to prevent permanent damage.
3. The Future: From Tools to Teammates
The next generation of space robotics focuses on Human-Robot Collaboration.
* Humanoids: NASA’s Valkyrie and Robonaut are designed with human-like dexterity to use the same tools as astronauts, allowing them to perform high-risk external repairs so humans don't have to.
* Swarm Robotics: Instead of one billion-dollar rover, agencies are looking at "swarms" of tiny, cheap robots that can cover more ground and survive the failure of a few individual units.

4. Deep Dive: AI-Driven Navigation (The Martian "Brain")
When we talk about AI on Mars, we aren't talking about a robot that "thinks" like a human. Instead, it uses Computer Vision and Probabilistic Robotics.
How the Rover "Sees"
The rover doesn't just take a photo; it creates a disparity map. By comparing images from two slightly offset cameras, the AI calculates the distance to every pebble and crater.
The Decision Loop
* Stereo Vision: It identifies "Geometry Hazards" (rocks too tall for the belly to clear) and "Slope Hazards" (inclines so steep the rover might slip).
* Grid Mapping: The AI overlays a grid on the terrain. Each square is marked as Green (Safe), Yellow (Cautious), or Red (Danger).
* Pathfinding: It uses an algorithm called Field DStar (D)*. This allows the rover to find the shortest path while being able to "re-plan" instantly if it discovers a new obstacle halfway through its move.
5. Deep Dive: Humanoid Robots (The Astronaut's "Teammate")
Humanoid robots like Valkyrie or the Apollo robot are designed because our entire space infrastructure—the handles on the ISS, the airlocks, the switches—was built for human hands and legs.
Why the Human Shape?
* Interoperability: If a robot has five fingers and two arms, it can use the same drills and wrenches an astronaut uses. We don't have to build "special" robotic versions of every tool.
* Mobility in Habitats: Mars bases will have ladders, narrow corridors, and stairs. A wheeled rover is useless inside a base; a humanoid can climb and navigate these tight spaces.
Key Technologies
* Torque Sensing: Unlike factory robots that move to a rigid point, space humanoids use "force control." If they touch an astronaut, they feel the resistance and stop immediately, making them safe to work alongside.
* Telepresence: Sometimes, a human on the ISS wears a VR headset and gloves to "pilot" the humanoid on the surface below. This gives the human the feeling of being on the planet without the risk of radiation or vacuum.

Space robotics has evolved from simple remote-controlled tools into autonomous partners capable of navigating treacherous worlds and maintaining complex infrastructure. By combining the endurance of specialized rovers with the versatile dexterity of humanoid assistants, we are extending the reach of human intelligence far beyond our own biological limits. These machines are no longer just our scouts; they are the essential architects of our future among the stars.

Sayed Hossain

Alumni Relation Secretary

Topic:Using Robot for solving mathematical problem
1️⃣ Autonomous Code Testing & CI/CD Robotics

Problem: Manual testing and deployment pipelines are slow, error-prone, and inconsistent.

Robotic Solution: Physical and virtual robotic test systems integrated with CI/CD pipelines that automatically build, test, and validate software across hardware configurations.

Example: Robotic device testing labs used by companies like Google to physically test Android devices at scale.

Summary:
Robotic arms simulate user interactions (touch, swipe, button press) while automated scripts execute regression tests. This ensures reproducibility, reduces deployment risk, and accelerates release cycles through deterministic automation.

2️⃣ Robotic Process Automation (RPA) in Software Systems

Problem: Repetitive digital workflows waste engineering time (data entry, system integration tasks).

Robotic Solution: Software “bots” that mimic human interaction with applications and APIs.

Example: Platforms like UiPath.

Summary:
RPA systems automate rule-based workflows using event triggers and scripted logic. While not physical robots, they function as robotic agents in digital environments, reducing manual coding overhead for repetitive tasks and improving operational efficiency.

3️⃣ Autonomous Cybersecurity Monitoring Robots

Problem: Real-time detection of vulnerabilities and network intrusions is computationally intensive and continuous.

Robotic Solution: AI-driven cybersecurity agents that autonomously scan systems, patch vulnerabilities, and isolate threats.

Example: AI security systems developed by Darktrace.

Summary:
These robotic agents use anomaly detection, machine learning classification, and behavioral modeling to identify suspicious patterns. They reduce response time from hours to seconds and autonomously mitigate threats.

4️⃣ Automated Hardware Debugging & Chip Testing

Problem: Debugging embedded systems and microprocessors requires high-precision physical testing.

Robotic Solution: Robotic probe systems for automated PCB and semiconductor testing.

Example: Automated testing platforms from Teradyne.

Summary:
Robotic probe arms position test needles with micron-level precision, executing scripted diagnostics and collecting signal data. This integrates mechanical robotics with embedded system validation and firmware debugging.

5️⃣ AI Pair-Programming & Code Generation Agents

Problem: Developers spend significant time writing boilerplate code and debugging repetitive patterns.

Robotic Solution: AI-powered coding agents functioning as digital robotic collaborators.

Example: Tools developed by OpenAI such as GitHub Copilot.

Summary:
These AI systems analyze context, predict code completions, suggest optimizations, and detect logical errors. They operate as autonomous software agents that augment programmer productivity through probabilistic language modeling and real-time inference.
MD.Shakir Kashmir
CSE Department
Sports and Recreational secretary.

Biology is not just influencing robotics — it is redefining it.

Below is a comprehensive scientific overview of how biology is reshaping robotics, supported by real-world existing examples.
🔹 Neurons → Artificial Neural Networks

Biological neurons receive, integrate, and transmit signals via dendrites, soma, axons, and synapses.

Artificial Neural Networks (ANNs) abstract this into:

Output=f(∑wixi+b)

Applications in robotics:

Object recognition

Speech processing

Autonomous navigation

Real-time pattern detection

Deep learning architectures such as CNNs, RNNs, and Transformers evolved from this biological analogy.
🔹 Reinforcement Learning → Brain Reward Systems

The human brain uses dopamine-based reward loops for learning. Robotics translates this into reinforcement learning (RL):

Agent

Environment

Reward signal

Policy update

Used in:

Self-balancing robots

Robotic arms optimizing motion

Autonomous vehicles

🔹 Neuromorphic Computing → Brain-Inspired Chips

Traditional computers follow Von Neumann architecture. The brain operates via massively parallel, energy-efficient spike signaling.

Example: IBM TrueNorth

Developed by IBM

Features:

Event-driven computation

Spike-based signaling

Ultra-low power usage

Applications:

Edge robotics

Real-time sensory processing

Energy-efficient AI systems

🦾 2️⃣ Biomechanics → Natural Movement

Biomechanics studies how muscles, tendons, and joints generate movement. Robotics now integrates these biological principles for natural, efficient locomotion.

🔹 Humanoid Robotics
Example: Atlas

Developed by Boston Dynamics

Biological principles used:

Center of mass control

Inverted pendulum balance model

Real-time torque control

Dynamic gait adaptation

Atlas performs parkour, jumping, and obstacle avoidance — mimicking human locomotion.

🔹 Exoskeleton Systems
Example: Ekso Rehabilitation Suit

Produced by Ekso Bionics

Based on:

Gait cycle timing

Load sharing mechanics

Muscle fatigue reduction

Used in:

Stroke rehabilitation

Spinal cord injury recovery

Industrial heavy lifting

🧸 3️⃣ Soft Robotics → Inspired by Biological Tissue

Unlike rigid industrial robots, biological organisms are compliant and flexible.

🔹 Octopus-Inspired Soft Robots

Research led by Harvard University

Materials:

Silicone elastomers

Pneumatic chambers

Flexible polymers

Applications:
Delicate object manipulation

Surgical robotics

Underwater exploration
🦠 4️⃣ Microbiology → Living Microrobots

Biology is not only inspiring structure — in some cases, living cells are becoming components of machines.

🔹 Magnetotactic Bacteria Microrobots

Example organism: Magnetospirillum magneticum

Properties:

Magnetotaxis (movement via magnetic field)

Flagella-based propulsion

Applications:

Targeted drug delivery

Tumor targeting
Biofilm pe*******on

Because tumors are hypoxic, certain bacteria naturally accumulate there, enabling localized therapy.

🧬 5️⃣ Synthetic Biology → Programmable Cells

Cells function like biochemical computers. Synthetic biology engineers genetic circuits that behave like logic gates.

Tools include:

CRISPR gene editing

Toggle switches

Oscillators

AND/OR biological logic gates

Applications:

Smart probiotics

In vivo disease sensing

Programmable drug production
💧 6️⃣ Biomaterials → Self-Healing & Adaptive Robots

Biomaterials are inspired by or derived from biological systems.

🔹 Hydrogels & Biopolymers

Common materials:

Chitosan

Collagen

Alginate

Cellulose

Properties:

High water content

Tissue-like softness

Stimuli responsiveness (pH, temperature, light)

Applications:

Artificial muscles

Implantable devices

Soft robotic grippers

🔹 Self-Healing Materials

Inspired by skin repair:

Reversible hydrogen bonds

Microcapsule healing agents

Polymer network reformation

Applications:

Space robotics

Long-term implants

Harsh environment machines
Long-term implants

Harsh environment machines

🌍 Global Impact
Sector Biological Inspiration Robotic Impact
Healthcare Neural plasticity Prosthetics, surgery
Environment Swarm intelligence Pollution cleanup
Agriculture Insect locomotion Bio-inspired drones
Space Energy optimization Autonomous rovers

🔮 Future Directions

Research frontiers include:

Organoid-based neural controllers

Artificial robotic skin with tactile sensing

Biohybrid muscle actuators

Self-growing robotic tissues

The next generation of robots may:

Adapt autonomously

Repair themselves

Integrate with living tissue

Operate sustainably
🧠 Final Insight

Biology teaches:

Efficiency

Adaptation

Resilience

Sustainability

Engineering provides:

Precision

Scalability

Control

The fusion of these two domains represents the most transformative technological shift of the 21st century.

✍️ অমিত সরকার
Microbiology 🦠 Department
Members Secretary

Topic :

Robotics in research

Robotics in research isn't just about building the robots themselves; it’s about using robots as advanced tools to push the boundaries of science, medicine, and environmental discovery. As of 2026, the field has shifted from simple automation to Physical AI, where robots don't just follow a script but "reason" through scientific experiments.
Here is an elaboration on the primary pillars of robotics research today:
1. Laboratory Automation & "Self-Driving Labs"
In chemistry and biology, research used to be slowed down by "pipetting by hand." Today, Collaborative Robots (Cobots) and automated systems are creating what are known as "Self-Driving Labs."
* High-Throughput Screening: Robots can run thousands of chemical reactions or biological assays in a single day, far exceeding human capacity.
* Closed-Loop Discovery: AI-powered robots now perform an experiment, analyze the results, formulate a new hypothesis, and then start the next experiment automatically. This is accelerating drug discovery for diseases like cancer and Alzheimer’s.
* Precision Handling: Micro-robots can manipulate individual cells or even DNA strands, allowing for research into gene editing (CRISPR) at a scale never seen before.
2. Space & Planetary Exploration
Space research is the ultimate "dangerous" environment. Robots are our primary scientific ambassadors to other worlds.
* Autonomous Rovers: Current research focuses on rovers like those in the JAXA MMX mission (2026) to Phobos and ISRO's lunar initiatives. These robots must navigate "blind" because the signal delay to Earth is too long for remote control.
* Extreme Terrain Exploration: Researchers are developing robots that can descend into lava tubes (underground tunnels) on the Moon and Mars. These tubes could potentially shelter future human bases from radiation.
* Satellite Servicing: New startups (like Aule Space) are developing robotic "jetpacks" that can dock with old satellites to refuel or repair them, turning space debris back into active research assets.
3. Environmental & Climate Research
Robots are the frontline observers of climate change, reaching places where data collection was previously impossible.
* Autonomous Underwater Vehicles (AUVs): These "gliders" travel through the deep ocean for months, measuring salinity, temperature, and carbon levels to help scientists model melting ice caps.
* Aerial Reforestation: Research-driven drones are now being used to fire "seed pods" into deforested areas at a rate of thousands per day, using multispectral imaging to choose the best soil for the specific tree species.
* Soft Robotics for Fragile Ecosystems: To study coral reefs or deep-sea life without damaging them, researchers use "soft robots" made of flexible polymers that mimic the movements of jellyfish or octopuses.
4. Human-Centered & Medical Research
This branch focuses on how robots can interface directly with the human body or social environments.
* Tele-surgery Research: Recent breakthroughs in 2026 have enabled surgeons to perform complex operations with ultra-low latency over long distances (e.g., a surgeon in Gujarat operating on a patient in Delhi).
* Bionic & Prosthetic Research: Researchers are working on "neural-link" prosthetics that allow a user to feel "touch" from a robotic hand by sending signals directly back to the brain.
* Human-Robot Interaction (HRI): Social robotics research explores how robots can assist in therapy for children with autism or provide cognitive support for the elderly, focusing on emotional intelligence and natural language processing.

In conclusion, Robotics in Research has evolved from being a simple subject of study to becoming the very engine of scientific discovery itself. As we move through 2026, the field is defined by several transformative shifts:
* From Tools to Partners: We are no longer just building robots; we are building "Robotic Scientists." These systems use Physical AI and Agentic Ecosystems to independently plan, execute, and analyze experiments in "Self-Driving Labs."
* Expansion of Human Reach: Research robotics is our primary means of exploring "impossible" frontiers—from the crushing depths of the oceans to the radiation-filled lava tubes on Mars.
* Biomimicry and Soft Robotics: By mimicking the flexibility of nature, research is creating a new class of "compliant" robots that can safely interact with delicate biological tissues and fragile ecosystems.
* The Ethical Imperative: As robots gain autonomy in decision-making—whether in a surgical suite or a military lab—the focus of research is shifting toward Safety and Accountability. Ensuring these systems operate within human-defined ethical boundaries is as critical as the mechanical engineering behind them.
Ultimately, the future of this field lies in Human-Robot Collaboration. The most impactful research no longer seeks to replace the human scientist but aims to augment human curiosity with the tireless precision and processing power of robotic agents.

Tasnimul Islam Newton

Social media secretary

Stamford Robotics Club

Arduino vs Raspberry Pi: কোনটা কখন? 🤖⚡️💻

একজন বিগিনার যখন Robotics (রোবোটিক্স), IoT (ইন্টারনেট অফ থিংস) বা Embedded System শেখা শুরু করে—প্রথম বড় কনফিউশন হয়:
“Arduino নেব, নাকি Raspberry Pi?”

আমাদের Robotics Club -এ নতুন যারা আসে, তাদের ৮০% এই প্রশ্নই করে। তাই আজ এক পোস্টেই সহজভাবে বুঝিয়ে দিচ্ছি—Arduino vs Raspberry Pi difference, কোনটা কখন ব্যবহার করবেন, আর বিগিনারদের জন্য কোনটা বেস্ট।

১) Arduino কী?

Arduino হচ্ছে একটা microcontroller board—মানে এটা ছোট “কন্ট্রোলার” যেটা সেন্সর থেকে সিগনাল নেয়, তারপর মোটর/লাইট/বাজার/রিলে চালায়।

Arduino-এর কাজ কী ধরনের?

সেন্সর থেকে ডাটা নেয় (IR, Ultrasonic, LDR, DHT11, Gas sensor)

মোটর চালায় (DC motor, Servo motor, Stepper motor)

রোবটকে নির্ভুলভাবে কন্ট্রোল করে

খুব দ্রুত “একটা কাজ” করে (real-time control)

📌 Robotics Projects উদাহরণ (Arduino দিয়ে):

Line Follower Robot

Obstacle Avoiding Robot

Robotic Arm (basic)

Smart Irrigation System (basic IoT)

Bluetooth Controlled Car

👉 সহজভাবে: Arduino = Robot control-এর “Brain” (simple, fast, reliable)

২) Raspberry Pi কী? (Simple Definition) ✅

Raspberry Pi হচ্ছে একটা mini computer—মানে ছোট একটা কম্পিউটার যেটায় Linux OS চলে, ঠিক ল্যাপটপের মতো কাজ করতে পারে।

Raspberry Pi-এর কাজ কী ধরনের?

ক্যামেরা/ভিডিও প্রসেসিং (Computer Vision)

AI/ML (basic level) রান করা

বড় প্রোগ্রাম/সিস্টেম চালানো

ওয়েব সার্ভার, ড্যাশবোর্ড, ডাটা লগিং

Wi-Fi/Internet-based smart system

📌 Projects উদাহরণ (Raspberry Pi দিয়ে):

Face Recognition Door Lock

Smart Surveillance Robot

IoT Dashboard + Data Logging

Camera-based Line Following / Object Detection

Home Automation Server

👉 সহজভাবে: Raspberry Pi = Smart processing + Camera/AI + Internet projects-এর “Computer”

৩) Arduino vs Raspberry Pi — মূল পার্থক্য

✅ Arduino ভালো যখন…

আপনার কাজ হলো sensor reading + motor control

আপনার দরকার real-time response (এক সেকেন্ডও দেরি নয়)

আপনি বানাচ্ছেন Robotics beginner projects

আপনি চান কম খরচে, সহজে শেখা

✅ Raspberry Pi ভালো যখন…

আপনার দরকার camera, image processing, AI, ML

আপনি বানাচ্ছেন advanced IoT system + dashboard

আপনি Linux দিয়ে বড় সফটওয়্যার/সার্ভার চালাবেন

আপনার প্রজেক্টে high-level computation লাগবে

৪) কোনটা বিগিনারদের জন্য বেস্ট? (Robotics Learning Roadmap)

আপনি যদি একদম নতুন হন এবং Robotics শেখা শুরু করতে চান—
✅ Arduino দিয়ে শুরু করাই বেস্ট।
কারণ Arduino দিয়ে আপনি শিখবেন:

Sensor কীভাবে কাজ করে

Motor control কীভাবে হয়

Circuit + wiring discipline

Logic building (if-else, loops, PWM)

তারপর আপনি যখন IoT / AI / Computer Vision দিকে যাবেন—
✅ তখন Raspberry Pi add করবেন।

৫) তাহলে কি দুইটা একসাথে ব্যবহার হয়? হ্যাঁ!

অনেক advanced robotics project-এ দুইটাই থাকে:

Arduino → মোটর/সেন্সর রিয়েল-টাইম কন্ট্রোল

Raspberry Pi → ক্যামেরা/AI/ডাটা প্রসেসিং + IoT কানেক্টিভিটি

📌 উদাহরণ: Smart Delivery Robot

Arduino মোটর চালাবে

Raspberry Pi ক্যামেরা দিয়ে obstacle detect করবে + internet updates দিবে

Quick Decision :

Robotics (Line follower/Obstacle avoiding) → Arduino

IoT (Dashboard/Server/Data logging) → Raspberry Pi

AI + Camera + Computer Vision → Raspberry Pi

Motor + Sensor real-time control → Arduino

✍️ দীপ সরকার
Academic affairs Secretary