B.Tech. Computer Science and Engineering (Quantum Computing) B.Tech. Computer Science and Engineering (Quantum Computing)

B.Tech. Computer Science and Engineering (Quantum Computing)

Programme Overview

This newly launched B.Tech. in Computer Science and Engineering (Quantum Computing) programme, positions MIT-WPU alongside elite peers as a South Asian pioneer in undergraduate quantum engineering. Aligned with India's National Quantum Mission (NQM), the programme transitions students from classical Boolean logic to quantum information processing using industry-standard SDKs (Qiskit, Cirq, PennyLane) and cloud platforms (AWS Braket, IBM Quantum APIs). The curriculum merges computer science core foundations with quantum mechanics, complex linear algebra, post-quantum cryptography, and quantum machine learning to build future-ready engineers capable of solving complex multi-variable problems in finance, defense, healthcare, and logistics.

Major Tracks

  • Quantum Software Architectures
  • Quantum Machine Learning

Duration & Fees

Duration

4 Years

Last Date to Apply : 15 April 2027

Fee Per Year

₹ 4,30,000

Cautionary Deposit: Rs. 25,000/- Refundable

Scholarship

Scholarship for AY 2027-28 JEE Main Percentile MH-CET Percentile

Dr. Vishwanath Karad Scholarship (100%)

94 & Above

95 & Above

MIT-WPU Scholarship I (50%)

92 & Above

93 & Above

MIT-WPU Scholarship II (25%)

91 & Above

92 & Above

Note: Scholarships are offered based on performance in entrance examinations (JEE 2027 / MHT- CET 2027 / PERA-CET 2027) and academic achievements.

Terms & Conditions Apply

  • All Scholarships are awarded on a First Come First Serve basis. All Scholarships are awarded as fee adjustments.
  • To continue the scholarship for the entire duration of the programme, a minimum level of the academic score has to be maintained at an 8 CGPA across all semesters, attendance is to be maintained at a minimum of 80 percent, with no live backlogs in any subject/programme and no semester break, and there should be no disciplinary action against the student.

For more detailed information visit our website: https://mitwpu.edu.in/scholarships

Eligibility

A minimum of 50% aggregate marks in Class 10+2/ HSC, with English as a compulsory subject and A minimum of 50% aggregate marks in any one of the following subject groups :

  • PCM (Physics, Chemistry, Mathematics),
  • Physics & Mathematics with any Technical Vocational Subject
  • PCB* (Physics, Chemistry, Biology*),

[*Biology/Biotechnology is applicable only for the Bioengineering Programme.] (Minimum 45% aggregate marks for candidates belonging to the Reserved Category from Maharashtra State).
OR
A minimum 60% aggregate marks in a Diploma in Engineering & Technology in a relevant branch from a government-approved technical board.

Selection Process

Admissions are based on the scores of JEE 2027/ MHT-CET 2027/ PERA-CET 2027, OR
MHT-CET-B* 2027/ NEET 2027* (*applicable only for the Bioengineering programme), along with a 500-word Statement of Purpose (SOP) written by the candidate.

Programme Highlights

  • Global Benchmarking : Purpose-built undergraduate degree in Quantum Computing integrated with Computer Science and Engineering, positions MIT-WPU alongside elite peers as a South Asian pioneer in quantum computing.
  • NQM Aligned : Aligned with India’s National Quantum Mission (NQM) to secure critical infrastructure, accelerate clean-tech, and optimise rural logistics networks.
  • Experiential Learning : Hands-on access to the ₹50 Lakhs GPU & Simulation Lab, live execution on AWS Braket and IBM Quantum APIs, capstones, and industry internships.
  • Research & Innovation : R&D opportunities in Post-Quantum Cryptography (PQC), Quantum Key Distribution (QKD), Quantum Machine Learning (QML), and molecular simulation.
  • Employability & Career Readiness : Direct pipeline into specialised roles (Quantum Software/Hardware Engineer, PQC Analyst, QML Specialist) addressing a global 30:1 demand deficit.
  • Industry Standard SDK Mastery : In-depth training on production SDKs including Qiskit, Cirq, and PennyLane.
  • Global Outlook : Benchmarking against international universities and globally relevant technologies.
  • Entrepreneurship & Innovation : Incubates deep-tech spin-offs and high-value IP/patents in quantum algorithms, cybersecurity protocols, and domain optimization software.
  • Experiential Immersions : Includes mandatory Rural Immersion, National Academic Immersion, and International Exposure Programmes.

Career Prospects

Quantum Software Engineer

Post-Quantum Cryptography (PQC) Analyst

Quantum Applications Specialist

Quantum Hardware Engineer

Associate Quantum Consultant

Programme Outcomes

  • Engineering Knowledge : Apply mathematics, complex linear algebra, classical computer science, and quantum physics to solve complex quantum engineering problems.
  • Problem Analysis : Identify, formulate, and analyse high-dimensional computational problems in quantum algorithm design, post-quantum security, and optimisation.
  • Design/Development of Solutions : Design quantum circuits, hybrid quantum- classical
  • Conduct Investigations of Complex Problems : Use research-based knowledge to simulate quantum systems, model hardware noise, and analyse QPU execution results across different physical modalities.
  • Modern Tool Usage : Create, select, and apply modern quantum SDKs (Qiskit, Cirq, PennyLane), high-performance GPU emulators, and cloud execution environments (AWS Braket, IBM Quantum).
  • The Engineer and Society : Assess societal, legal, and privacy implications associated with quantum technological breakthroughs (e.g., RSA decryption threats, data governance).
  • Environment and Sustainability : Evaluate the environmental impact of energy- intensive classical computing versus quantum-accelerated solutions for sustainable computational growth.
  • Ethics : Apply ethical principles, data integrity standards, and responsible innovation practices guided by MIT-WPU's Peace & Ethics framework.
  • Individual and Team Work : Function effectively as an individual and as a member or leader in interdisciplinary teams spanning physics, computer science, and industry domain tracks.
  • Communication : Communicate complex quantum concepts, algorithm architectures, and technical proposals clearly to both technical experts and non- specialist stakeholders.
  • Project Management and Finance : Apply engineering and financial management principles to quantum software deployment, cloud resource budgeting, and deep-tech project execution.
  • Life-long Learning : Recognise the need for, and engage in, independent and continuous learning to adapt to rapid advancements in quantum hardware, SDKs, and post-quantum standards.

FAQs

Standard B.Tech. CSE focuses on classical computing, programming, software development, AI, and data science. B.Tech. CSE (Quantum Computing) integrates these core subjects with quantum mechanics, quantum algorithms, and quantum technologies to prepare students for emerging quantum computing applications and careers.

No. While quantum computing historically relied on PhD researchers, industry demand is rapidly shifting toward quantum software engineers, systems integrators, and algorithm specialists. This engineering-first undergraduate degree equips you directly with software SDKs (Qiskit, Cirq, PennyLane) and cloud platforms to enter corporate and R&D roles immediately after graduation.

Yes. Graduates are eligible for positions across national labs and defense organizations (DRDO, ISRO, C-DAC) as well as post-graduate M.Tech/M.S./Ph.D. degree tracks in Quantum Information, Post-Quantum Cryptography, and Quantum Engineering at top institutions in India and abroad (such as IITs, IISc, ETH Zurich, University of Waterloo).

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