Program Plan at a Glance
Total number of credits: 64 (17 Core + 21Soft Core + 26 Thesis Project)
Term |
| Research | Other | |||
Sem 1 (Aug-Dec) | E1241 (3) (Core) | CP220(3) (Core) | CP214 (3:1) (Core) | SoftCore (3) | Optional | |
Sem 2 (Jan-Apr) | CP230 (2:1) (Core) | CP280 (1:2) (Core) | Soft Core (3) | SoftCore (3) | CP210 (0:1) | Assignment of Thesis Project Advisor |
Summer (May-Jul) | CP282(Soft Core) | Thesis Project (3) | ||||
Sem 3 (Aug-Dec) | Soft Core/Elective (3) | Soft Core/Elective(3) | Thesis Project (8) | Placement Interviews | ||
Sem 4 (Jan-Apr) | Soft Core/Elective (3) | Thesis Project(15) | ||||
Notes:
- 17 Credits are from the mandatory (Core) courses
- List of Soft Core courses is below
- Electives can be any course offered in IISc (with due permission of the instructor)
Final project will focus on research or technology innovations for industrial or research problems, and will include a mix of analysis, design and implementation.
Program Details
Note: Explanation of the credits – a:b => ‘a’ hours/week of lectures and ‘b’x 3 hours/week of laboratory work.
Core Courses:
Course No | Course Name | Course Contents in Brief | Credits | Instructor | Semester |
E1241 | Dynamics of Linear Systems | State space modeling, Linear Systems, Linear Control | 3:0 | Vaibhav Katewa | Aug-Dec |
CP 220 | Mathematical Techniques | Intro to Probability, Linear Algebra, Bayesian Inference, Introduction to Optimization | 3:0 | Bharadwaj Amrutur | Aug-Dec |
CP230 | Motion Planning for Autonomous Systems | Navigation and planning for autonomous robots | 2:1 | Debasish Ghose/Mukunda | Jan-Apr |
CP280 | Experimental Techniques for Robotics & Automation | This is an interdisciplinary course on the experimental techniques in robotic systems, inviting students from all departments. It provides hands-on experience with specifying, designing and building robotic systems with the requisite background on the mechanical, electrical and control/navigation sub-systems. | 1:2 | Bharadwaj/Naveen/Ashish/Kaushik | Jan-Apr |
CP214 | Foundations of Robotics | Modelling and simulation of robots | 3:1 | Shishir NY | Aug-Dec |
CP210 | Seminar | Exposure to latest topics in research and industry | 0:1 | Ashitava Ghosal/Pushpak/Naveen | Jan-Apr |
RBCCPS Soft Core courses & Electives:
Course No | Course Name | Course Content | Credits | Faculty | Semester |
CP218 | Theory and Applications of Bayesian Learning | Descriptive Statistics, Introduction to Probabilities, Bayes Rules, Probability Distributions, Maximum Likelihood Estimation, Bayesian Regression and Classification, Expectation Maximization, Frequentist vs Bayesian Learning, Conjugate Priors, Graph Concepts, Bayesian Belief Networks, Probabilistic Graphical Models (PGMs), Probabilistic and Statistical Inferencing, Bayesian Estimation, Structure Learning, Bayesian Optimization, Markov Random Fields, Markov Chain Monte Carlo, PGM examples and applications (including industry and smart cities applications | 2:1 | Punit Rathore | Jan-Apr |
AE372 | Applied Optimal Control and State Estimation | Calculus of Variations & optimal control formulation, Two-point boundary value problems, LQR, STM,SDRE,HJB theory, MPSP design & extension etc | 3:0 | RadhakantPadhi | Jan-Apr |
E1242 | Nonlinear Systems and Control | Consensus over networks with applications in synchronization & opinion dynamics, stabilization over rate limited & quantization channels, Network protocol design, Decentralized optimal control & information patterns, security & privacy in networked control systems | 3:0 | Pavan T | Jan-Apr |
E1246 | Topics in Networked and Distributed Control | Relevant background topics in control,Estimation & control under communication constraints,event triggered control,connectivity maintenance,security in networked & distributed control systems,applications in robotics & transportation | 3:0 | Vaibhav L./Pavan T | Aug-Dec |
E1277 | Reinforcement Learning | MDP, Reinforcement Learning | 3:1 | Shalabh B/GuganThoppe | Jan – Apr |
E0272 | Formal Methods in Software Engineering | Model checking, program verification | 3:0 | Deepak D. Souza/K V Raghavan | Jan-Apr |
E3258 | Design for IoT | Introduction to IoT, Challenges in IoT – Power, Security, Identification, Location, Low Power Design, Energy harvesting systems, Power management algorithms, ARM processor low power features, multiprocessor systems, Lifetime estimation, RFID and its applications, Backscattering techniques, Working with protocols such as MQTT, COAP, for low power and energy harvesting sensor nodes, Low power wireless networks – Bluetooth Low Energy (BLE), and IEEE 802.15.4e TSCH. Low Power Wide Area Networks – LORA, NBIoT and power-saving modes, CAT-LTE-M1. | 2:1 | T V Prabhakar | Aug-Dec |
CP312 | Design of CPS -II | C/C++, Realtime OS, Embedded Programming | 2:1 | DarshakVasavada/Ashish Joglekar | Jan-Apr |
CP212 | Design of CPS-I | Sensor Front ends, Actuators, Motors and Motor Drives, EMI/EMC, Sensor Noise and data conversion, Imaging/acoustic/infrared/lidar/radar transducers | 2:1 | Ashish Joglekar/DarshakVasavada | Aug-Dec |
CP232 | Swarm Robotic System | Autonomous operation of Drone/Robots, Swarm Intelligence (Self-Organization & emergence). Motion control, planning, target tracking, predator-prey, formation, Cooperation and Coordination, Market, team theory, game theoretic approaches, decision making under uncertainty | 2:1 | Suresh Sundaram/JishnuKeshavan | Jan – Apr |
PD232 | Human-Computer Interactions | Basic psychology of Perception and Motor Action, Collaborative Robots, Introduction to AR/VR and Haptics systems, Facial Expression Recognition, Case studies on HRI | 2:1 | Pradipta Biswas | Aug-Dec |
CP315 | Robot Learning and Control | Machine learning based control for robotic systems | 2:1 | Shishir NY | Jan-Apr |
CP316 | Real Time Embedded Systems | The course is organized in three parts: standalone (OS less) systems, multi-tasking systems with RTOS and systems with embedded OS. The course involves significant programming in C on embedded platforms running RTOS / embedded Linux. Part 1: Standalone systems: 4 weeks Software architecture: control loop, polling and interrupt driven systems, PID control and finite state machine Experiments: interfacing sensors and actuators to implement a standalone control system on an ARM based hardware platform. Part 2: Multi-tasking systems: 6 weeks Introduction to real-time systems, multitasking, scheduling, inter-task communication, memory management and device drivers Experiments: build a multitasking system involving multiple simultaneous activities involvingcomputing algorithms, IO processingand a user interface. Part 3: Embedded Linux: 4 weeks Building an embedded Linux system;processes and threads, memory management, file-system, drivers. Real-time limitations and extensions. Experiments: build connected application withsensor/actuator front-end and embeddedLinux for UI and connectivity. | 2:1 | Pushpak Jagtap/Darshak Vasavada | Jan-Apr |
CP260 | Perception & Intelligence | Localization & Mapping, Multi-Sensor Perception, Knowledge Representation, Reasoning | 2:1 | Bharadwaj Amrutur/Raghu K | Jan-Apr |
CP216 | Industrial IoT systems | Industrial protocols such as Time Triggered Ethernet, Time Sensitive Networks, Detnets, Modbus/TCP, PLC systems, Construction of Digital twins, Condition monitoring, | 2:1 | TV Prabhakar | Jan-Apr |
CP242 | Human Robot Interactions | Introduction; Cross-disciplinary foundation; Hardware and Software components and architecture; Research themes; Building blocks; Navigation, Interaction, Manipulation, and Behavioral aspects for Social Robots; AI for social robots (including Autonomy and Learning for Social Intelligence); Designing a social robot (including Humanoid, mobile and interactive robots); User Studies; Pointers to advanced Topics in the domain. | 2:1 | Pradipta Biswas/Amit Pandey/Sridatta Chatterjee | Jan-Apr |
CP274 | Formal Analysis and Control of Autonomous Systems | This course will provide an end-to-end overview of different topics involved in designing or analyzing autonomous systems. It begins with different formal modeling frameworks used for autonomous systems including state-space representations(difference equations), hybrid automata, and in general labeled transition systems. It also discusses different ways of formally modeling properties of interest for such systems such as stability, invariance, reachability, and temporal logic properties.As a next step, the course will cover different techniques on the verification of such systems including Lyapunov functions, reachability, barrier certificates, and potentially model checking. Finally, the course will introduce students to several techniques for designing controllers enforcing properties of interest over autonomous systems. | 3:0 | Pushpak Jagtap | Jan-Apr |
NE250 | Entrepreneurship | Entrepreneurship, Ethics & Societal Impact | 1:0 | Madhu Atre | TBD |
CP282 | Field Robotics | Competition Style, Team Based Robotics Project | 0:3 | TBD | Summer |
E1244 | Detection & Estimation Theory | 3:0 | Vaibhav Katewa | Jan-Apr |
Laboratory Modules (will be embedded in the courses as well as in CP280):
Name | Contents |
Mobile Robot Programming | Learn to program mobile robots to navigate around an obstacle course |
Control of Industrial Robot Arms | Learn to program industrial robot arms to do various tasks like pick and place, movements, gripping, welding etc. Program collaborative arms. |
Programming of Drone Systems | Program drones for landing, sorties, pattern flying, etc. |
Tele robotics | Control robot arms/humanoids over the network. |
Robot simulation frameworks | Exercises in Simulation frameworks like PyBullet, Gazebo by creating robot and world models, demonstration of various algorithms |
VR/AR & Speech Interfaces | Programming VR/AR, haptics and speech interfaces to machines/robots |
Human Robot Interaction | Interfacing Robots with interactive devices like gesture and speech recognition systems, eye gaze tracker, Industrial CoBoT, TeleRobotics, HRI for semi-autonomous vehicle, cognitive load estimation (“human/operator state” might be a broader term?) |
ROS/ROS2 Software Stacks | Robot programming using ROS/ROS2 |
Machine Learning for Robots | ML based Control for Grasping and Manipulation |
Robot Sensor and Actuator Systems | Integrate new sensor and actuator system to a robot’s perception system |
3D Design and Prototyping for Robotics | 3D CAD design, URDF model creation, 3D printing of part and attachment to a robot |
Drone piloting | Learn to fly drones in IISc testbed |
Multi-sensor odometry | Wheel, IMU, GPS, Lidar, wireless, and combinations by filter-based fusion |
Visual navigation | Tag-based, landmark-based, feature based, direct methods, deep learning based, monocular and stereo methods |
Relevance and Need of the Program
Robotics and autonomous systemsare an integral part of Industry 4.0 and robotic automation will see an exponential growth in the future. The shortage of skilled labor in transport, agriculture, and supply chain management; operations in hazardous environment like mines and waste processing and recovery; remote monitoring, space explorations and defense will drive the future of robotic automation solutions. Co-design of Cyber and Physical componentsof such systems and their safeoperation along with humansin unstructured and uncertain environments will be key characteristics of such systems.
Robotics and Autonomous Systems have also changed over the last decade – with the confluence of AI/ML with cheap sensors/Actuators and Battery technologies
With substantial investments by the Govt of India and Govt. Of Karnataka in this area at IISc through the AI & Robotics Park Initiative (ARTPARK), as well as investments from companies like Cisco, Nokia, Garrett etc. via CSR grants – IISc has started developing state of the art experimental facilities in Connected Robots and Autonomous Systems. These facilities to not only support our research, but also develop rich experiential/laboratory-based training programs for the students.
Robotics and Autonomous System has always fascinated our UG students as evidenced by their keen participation in many robotic competitions. However, there is no comprehensive course program in this domain in the country that can train then in the foundational aspects as well as the experimental aspects of the subject.
Key Learning Outcomesof the program
- Foundational concepts in Mathematical Foundations like Linear Algebra, Computational Techniques,Probability and Statistics, Control & Optimization, Statistical Signal Processing,Planning &Decisions, Stochastic and Data driven Control, AI for Robotics, Dynamics & Kinematics, Formal Techniques for CPS
- Applied concepts in Networking for Robotics & Autonomous Systems, Real-Time Embedded Systems, Sensing & Actuation Systems, Applied Machine Learning for Speech&Vision, Reinforcement Learning for Robot Control, Swarm & Team Robotics, Human-Machine Interactions& social robotics, Security, Safety& Privacy forAutonomous Systems, Autonomous ground/air Robots, Navigation& Guidance, Perception via Signal & Image Processing
- Experiential learning via laboratory modules for: Mobile robot programming, Control of Industrial Robot Arms, Programming of Legged Robots, Programming of Drone Systems, Tele-Robotics, Secure Data Pipelines, Robot Simulation Frameworks, VR/AR & Speech Interfaces for Robots, ROS/ROS2 Software stacks, Machine Learning for Robots, Robot hardware for Sensor & ActuatorSystems, 3D Design and Prototyping for Robotics, Drone Piloting, Game engine programming, GPU Programming.
About RBCCPS
RBCCPS under Div. Of Inter-Disciplinary Sciences, is in a unique intersection of Div. Of EECS and Mechanical Sciences and hence can offer such training spanning both the disciplines – and will be the pillar of this program. ARTPark (AI & Robotics Technologies Park) has been incubated by RBCCPS and will provide laboratory support.
How will this program benefit Industry?
Graduates will have a good exposure to foundational and applied topics in Robotics and Autonomous Systems. Hands on exposure to engineering with robots – including mechanical prototyping, ROS/ROS2 programming, AI/ML based programming, VR/AR and other HCI Technologies, 5G and WiFi6 experimentation, indoor and outdoor ground, and aerial robot experiences, will make them well rounded and prepared for many industry problems. They will be able to contribute effectively to create innovative technologies and products in the emerging AI & Robotics applications in industry 4.0, medical, agriculture, mining, defense, smart cities etc.
How will this program benefit academia?
Good theoretical and practical grounding will prepare the graduates of this program to participate in innovative experimental research in Robotics and Autonomous Systems.
Target Audience
Students with UG/PG background in EE, ECE, CS, Mech, Aero and related fields
Target Stakeholder Beneficiaries
Industries in Robotics and Autonomous Systems like: ABB, Bosch, TCS, Wipro, GE, Defense PSUs, Amazon, Flipkart, Target, Nokia,Google, CAIR, ADA, NAL, Intel, Siemens, etc. and many startups
Research Labs in academia like in IISc and IITs.
Laboratory Facilities:
- Robot Arms,
- Indoor Mobile Robots & Drones,
- Outdoor Mobile Robots& Drones,
- Outdoor autonomous driving testbed
- Indoor Connected Robots Lab
- Humanoid Robots,
- Legged Platforms& Treadmills,
- Indoor Mocap system,
- Indoor Drone Testbed, Windshaping Facility & Indoor Drones,
- Ware-house Robotics Testbed,
- Electronics and Mechanical Prototyping Facilities
Fees:
As per IISc Norms
Selection:
- Background Degree: BE, BTech, BS (4years)/Equivalent with Gate about cutoff.
- For Ministry of Education (MOE) Scholarship: GATE neededin one of (EE, EC, ME, AE, IN, CS)
- Sponsored Candidates: Selection as per institute norms
- Selection based on : Gate (70%) + Interview (30%)
Numbers:
30/year for first two years – increasing to 50/year post that. Allot 10% for sponsoredstudents.