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M.Sc Neuroscience with specialization in Cognitive Computing

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M.Sc Neuroscience with specialization in Cognitive Computing

   Department of Biomedical Sciences

Programme Level

Post Graduate

Duration

2 Years

About the Programme

A Masters in Neuroscience with Cognitive Computing is a fascinating interdisciplinary field that combines the study of the brain and nervous system (neuroscience) with the principles of computational models and artificial intelligence (cognitive computing). It covers areas like Neuroscience i.e. how the brain works, including neural networks, brain functions, cognitive processes, and how these processes contribute to behavior and decision-making. This course will also have specialization in Cognitive Computing that focuses on creating systems that can mimic human cognitive functions like perception, learning, reasoning, and decision-making. It involves artificial intelligence (AI), machine learning, and data science techniques to develop systems that process and analyze complex data, often in ways that parallel how humans process information.

Eligibility

Minimum 50% marks in Graduation in Physics, Chemistry, Biotechnology, Nanoscience, Materials Science, Nanotechnology, Electronics, Mechanical, Biotechnology, Chemical Engineering, or related fields.
Candidates with GATE/NET/JRF/CUET qualifications will be given preference in merit-
based admission.

Students with a CUET score will be given preference in the merit list.

Fee Structure

Duration
2 Years
Tuition Fee (per annum)
60,000
Exam Fee (per annum)
20,000

Program Structure

Program Structure

Career Pathways

Graduates of the M.Sc. Neuroscience program have diverse career opportunities, including:

  • Neuroinformatics: Using computational models and data analysis to understand brain activity and neurological diseases. 
  • Artificial Intelligence in Neuroscience: Applying AI techniques to better understand cognitive functions and neurological conditions. 
  • Cognitive Robotics: Designing intelligent systems and robots that simulate human-like behaviors or interactions. 
  • Healthcare & Medical Research: Developing computational tools to support neuroscience research, including diagnostic tools or brain-computer interfaces (BCIs). 

Programme Objectives

01

Integrated Knowledge of Brain and Behavior: To provide a comprehensive understanding of the structure and function of the nervous system, brain–behavior relationships, and cognitive processes.


02

Foundations of Cognitive Science and AI: To introduce students to cognitive theories, artificial intelligence (AI), and machine learning principles relevant to modeling human cognition and neural processing.


03

Experimental Neuroscience Techniques: To train students in neurobiological methods such as EEG, fMRI, brain stimulation, neuroimaging analysis, and electrophysiological recordings.


04

Computational Neuroscience and Neural Modeling: To develop skills in simulating brain function through computational models, neural networks, and data-driven cognitive architectures.


05

Research and Data Analysis Proficiency: To foster scientific inquiry, research design, and data interpretation using statistical tools and programming languages like Python, R, and MATLAB.


06

Ethical and Responsible Neuroscience Practice: To promote understanding of ethical, legal, and social issues related to brain research, neuroethics, and human-computer interaction.


07

Translational Neuroscience and Clinical Applications: To connect basic neuroscience with clinical implications in neurodevelopmental, neurodegenerative, and psychiatric disorders.


08

Technological Integration in Neuroscience: To build competence in brain-computer interface (BCI), cognitive computing tools, and human-AI collaborative systems.


09

Interdisciplinary Collaboration and Innovation: To encourage cross-disciplinary collaboration across neuroscience, computer science, psychology, and biomedical engineering domains.


10

Career and Research Preparedness: To prepare students for advanced research, academic positions, neuroinformatics roles, cognitive technology innovation, and neuroscience-based industrial careers.


Programme Outcomes

01

Neuroscience and Cognitive Psychology Knowledge: Possess knowledge and comprehension of the core and basic knowledge associated with the profession of Neuroscience and Cognitive Psychology.


02

Planning Abilities: Demonstrate effective planning abilities including time management, resource management, delegation skills and organizational skills. Develop and implement plans and organize work to meet deadlines.


03

Problem analysis: Utilize the principles of Analytical thinking, clearly and critically, while solving problems and making decisions for designing and developing cognitive computing systems that can be applied to fields like healthcare (e.g., neuroprosthetics), robotics, human-computer interaction, and autonomous systems systematically and making decisions related to it.


04

Modern tool usage: Learn and apply modern and appropriate practical applicable tools of research methods like neuroimaging, electrophysiology, and computational modeling to investigate cognitive phenomena and brain function.


05

Leadership skills: Understand and consider the human reaction to change, motivation issues, leadership and team-building when planning changes required for fulfillment of practice, professional and societal responsibilities. Assume participatory roles as responsible citizens or leadership roles during the conduction of their job to facilitate improvement in cognitive health and wellbeing.


06

Professional Identity: Understand, analyze and communicate the value of their professional roles in society (e.g. in research, AI development, healthcare technology, cognitive robotics, and more.)


07

Neuroscience and Cognitive Psychology Ethics: Honor human values and apply ethical principles in professional and social contexts. Demonstrate behavior that recognizes cultural and personal variability in values, communication and lifestyles. Use ethical frameworks; apply ethical principles while making decisions.


08

Communication: Communicate effectively with the Neuroscience community and write effective reports, make effective presentations and documentation, and give and receive clear instructions.


09

The Neuroscience and Cognitive Psychology and society: Apply reasoning informed by the contextual knowledge to assess societal, health, safety and legal issues and the consequent responsibilities relevant to the Neuroscience practice.


10

Environment and sustainability: Understand the impact of the Neuroscience and cognitive psychology solution in societal and environmental contexts, demonstrate the knowledge of, and need for sustainable development.


11

Life-long learning: Recognize the need for, and have the preparation and ability to engage in independent and life-long learning in the broadest context of technological change. Self-access and use feedback effectively from others to identify learning needs and to satisfy these needs on an ongoing basis.


Programme Educational Objectives

01

Advanced Knowledge in Neuroscience – Post-graduates will acquire in-depth knowledge of neuroscience concepts and develop a deep understanding of the neural systems, brain structures, and mechanisms involved in cognitive processes like perception, memory, learning, and decision-making.


02

Research and Innovation – Post-graduates will develop research skills to conduct studies in cognitive neuroscience and apply computational approaches to generate new insights or innovate in fields like brain-computer interfaces, neuroengineering, or AI-based cognitive modeling.


03

Professional and Ethical Leadership – Post-graduates will understand the ethical implications of cognitive computing and brain-related technologies, especially as they pertain to privacy, autonomy, and healthcare applications.


Programme Specific Outcomes (PSOs)

01

Neuroscience and Neuroinformatics data Analysis – Acquire skills in analyzing large-scale brain data (e.g., fMRI, EEG) and applying computational models to interpret these data, enabling advancements in neuroscience research and cognitive computing applications.


02

Neurotechnological Proficiency – Utilize advanced neuroscience techniques, including electrophysiology, neuroimaging, and computational modeling, to investigate brain function and Neurological and Cognitive disorders.


03

Translational Neuroscience and Clinical Application – Apply neuroscience research to develop innovative therapeutic strategies for neurological and psychiatric disorders, bridging the gap between fundamental research and clinical practice.


Apply Now

Minimum 50% marks in Graduation in Physics, Chemistry, Biotechnology, Nanoscience, Materials Science, Nanotechnology, Electronics, Mechanical, Biotechnology, Chemical Engineering, or related fields.
Candidates with GATE/NET/JRF/CUET qualifications will be given preference in merit-
based admission.

Students with a CUET score will be given preference in the merit list.