Quantum Reference Facility: SRM AP's 100‑Qubit Testbed Opens on World Quantum Day
SRM University‑AP inaugurated the Quantum Reference Facility on World Quantum Day, April 14, 2026 , with Andhra Pradesh Chief Minister N. Chandrababu Naidu presiding over the ceremony. The facility — developed with Amaravati Quantum Research Facility and Qubit Force and supported by the Government of Andhra Pradesh — was commissioned in under eight months from conceptualisation.
Introduction: A milestone for Indian quantum science and Amaravati Quantum Valley
The Quantum Reference Facility (QRF) on the SRM AP campus is billed as India’s first campus‑based QRF and a cornerstone for the planned Amaravati Quantum Valley. It is described as a fully instrumented hardware testbed for validation, benchmarking and certification of quantum technologies under real operational conditions.
This launch ties state support, private partners and academic talent into a single node meant to accelerate research, industry partnerships and workforce development. For students and researchers in Andhra Pradesh and beyond, the QRF promises hands‑on exposure to quantum hardware and real experiments rather than only simulations.
What is the Quantum Reference Facility at SRM AP?
The Quantum Reference Facility is a laboratory installation intended as a quantum testbed where devices and algorithms can be validated against hardware. The official description calls it a fully instrumented setup to perform real‑time validation, benchmarking and certification of quantum technologies.
The facility uses a dual‑system architecture named Amaravati 1S and Amaravati 1Q. Specific hardware component lists and vendor models have not been published, but the setup is reported to support testing of quantum processes up to 100 qubits . That gives researchers a campus access point to experiment with medium‑scale quantum circuits and system benchmarking.
Key capabilities (as announced)
- Hardware testbed for validation, benchmarking and certification under operational conditions.
- Dual system architecture: Amaravati 1S and Amaravati 1Q (architecture names confirmed; technical specs not published).
- Reported ability to test processes up to 100‑qubit size.
Key partners, timeline and launch details
SRM AP developed the QRF in partnership with the Amaravati Quantum Research Facility and Qubit Force, with support from the Government of Andhra Pradesh. The facility was inaugurated on 14 April 2026 by Chief Minister N. Chandrababu Naidu, with guests from central and state science bodies, DRDO scientists and academics from IITs and TIFR present.
Officials highlighted the university’s emphasis on hands‑on learning; SRM AP says students helped assemble the facility. SRM AP also frames the QRF as a platform for democratising access to quantum hardware and for building indigenous capability.
Primary applications and real use cases
The QRF is being positioned to support several high‑impact application areas. Announced focus areas include:
- Drug discovery and healthcare research using quantum‑accelerated simulation and optimisation.
- Cryptography and quantum cybersecurity research, including benchmarking cryptographic protocols on near‑term hardware.
- Artificial intelligence and machine learning tasks where quantum algorithms may offer advantages for optimisation and sampling.
- Quantum sensing and radar research, which require integration of sensitive hardware and calibrated benchmarking.
Beyond these, the QRF aims to help translate algorithms from paper to hardware, enabling engineers to find practical bottlenecks and to benchmark performance against classical baselines. That makes it useful for startups and defence‑related applied research as well as academic projects.
Workforce development and education opportunities
SRM AP has explicitly pitched the QRF as a hands‑on training ground. The university says the facility will play a pivotal role in workforce development by offering practical training in quantum hardware — a gap in most Indian university programmes that focus more on theory.
What that could look like for you as a student:
- Short lab modules and workshops that let you run small experiments on real quantum hardware.
- Research internships where you help benchmark devices or port algorithms from simulators to hardware.
- Certification courses that combine basic quantum theory with hardware lab skills and benchmarking methods.
The announcement confirms the institution’s intention to democratise access, but exact course formats, certificates and schedules have not been published. Still, having a campus QRF puts SRM AP students in a strong position to gain early hardware experience compared with peers who only get simulator access.
Strategic impact: Amaravati Quantum Valley and national scale ambitions
SRM AP positions the facility as a cornerstone for Amaravati Quantum Valley. The idea is to create a local quantum cluster that attracts startups, researchers and investment while connecting to national missions in quantum technology.
A campus QRF can serve as a replicable model: if standard operating procedures, benchmarking protocols and federated access are developed here, similar nodes can be created across states to form a distributed national quantum infrastructure.
That network effect matters: a single 100‑qubit testbed is useful, but a network of validated, interoperable testbeds allows researchers to run experiments on different hardware backends, compare results and scale collaborative projects.
Practical details, access and missing information
The public announcement gives a clear statement of intent and capacity but leaves several practical questions unanswered. Below are the confirmed facts and key gaps you should know before planning projects or applications.
Important dates and quick facts
| Event | Date / Detail |
|---|---|
| Inauguration (World Quantum Day) | 14 April 2026 |
| Article update / publication | 15 April 2026 |
| Time from conceptualisation to commissioning | Under eight months |
| Reported qubit testing capacity | Up to 100‑qubit |
What is confirmed vs what is not published
| Topic | Confirmed | Not published / Missing |
|---|---|---|
| Partners | Amaravati Quantum Research Facility, Qubit Force, Govt. of Andhra Pradesh, SRM AP | Full vendor list and component models |
| Architecture | Dual system: Amaravati 1S and Amaravati 1Q | Hardware specifications for each system, qubit type (superconducting, trapped ions, etc.) |
| Use cases | Drug discovery, healthcare, cryptography, AI/ML, optimisation, quantum radar and sensing | Specific validated benchmarks, published performance data |
| Access policy | Commitment to democratise access and workforce training | Eligibility rules, application process, fees/funding model, public access timeline |
| IP and collaborations | Aimed at industry/academic partnerships | IP policy, placement pathways, commercial terms for startups |
Because those operational details are missing, you should treat the launch as a major capability announcement rather than a full programme rollout. Expect the university to publish access guidelines, course schedules and technical specifications in follow‑up communications.
How researchers and students can prepare to engage
You don’t need the QRF to start building useful skills. But if you want to work with hardware and be ready when the facility opens access, focus on a mix of theory, software and lab skills.
Core technical skills to prioritise:
- Strong maths foundation: linear algebra and probability.
- Quantum basics: qubits, superposition, entanglement, measurement, basic quantum algorithms.
- Programming: Python, plus quantum SDKs such as Qiskit or Cirq for circuit design and experiments.
- Hardware lab skills: careful electronics practice, signal measurement basics and experimental logging (basic familiarity helps; specialised cryogenics/electronics training may follow later).
- Data analysis: noise characterisation, error mitigation techniques and benchmarking methods.
Short learning paths you can follow now:
- Intro courses in quantum computing and linear algebra (university electives or online platforms).
- Hands‑on tutorials in Qiskit/Cirq and cloud‑hosted quantum backends (these prepare you for porting to local hardware).
- Small projects: reproduce a published small‑scale quantum experiment on a simulator, then run it on a cloud backend and practice error analysis.
How to approach the QRF once access opens:
- Start with benchmarking projects: propose clear metrics and baselines before asking for hardware time.
- Offer to support facility operations: student lab assistants often get priority access and deeper training.
- Design short, well‑scoped experiments that show measurable outcomes — these are easier to schedule and publish.
Potential roadmap: from campus QRF to national quantum network
If the Amaravati QRF follows a scaling path, the likely steps would include:
- Standardisation: publish benchmarking and validation protocols so results are comparable across sites.
- Federated access: build tools that let researchers queue experiments across multiple QRF nodes.
- Certification: create national certification standards for devices and algorithms to support industry adoption.
Public‑private partnerships and state‑level missions will be central to that scaling. Success benchmarks to watch for include measurable workforce outputs (trained students and certified technicians), peer‑reviewed publications that use the QRF, startup spinouts using validated hardware, and adoption of benchmarking protocols by other nodes.
What this means for industry, defence and startups
A campus QRF lowers friction for small teams and startups that cannot yet buy or maintain medium‑scale quantum hardware. Industry players can co‑design experiments, test integration workflows, and benchmark hardware‑software stacks before committing to procurement.
For defence and strategic research, a validated testbed provides a controllable environment for prototyping quantum sensing and secure communications. The presence of DRDO representatives at the launch signals interest from strategic stakeholders but does not disclose specific projects or classified work.
Risks and realistic timelines
A 100‑qubit testing capability is promising but not a guarantee of quantum advantage. Near‑term devices remain noisy; the near future will be about incremental improvements, error characterisation and application‑specific gains rather than broad replacement of classical computing.
Expect a phased rollout: initial access will likely prioritise university projects and partnered labs, with broader access and formal training programmes announced later. Keep watch on official SRM AP communications for timelines and application details.
FAQs
What is the Quantum Reference Facility at SRM AP?
The Quantum Reference Facility is a fully instrumented hardware testbed on the SRM University‑AP campus for validation, benchmarking and certification of quantum technologies under operational conditions.
Who inaugurated the facility and who developed it?
The facility was inaugurated by Andhra Pradesh Chief Minister N. Chandrababu Naidu on 14 April 2026 . It was developed in partnership with Amaravati Quantum Research Facility and Qubit Force, with the support of the state government and SRM AP.
What applications will the facility support?
Announced applications include drug discovery, healthcare research, cryptography and quantum cybersecurity, artificial intelligence and machine learning, optimisation problems, and quantum sensing and radar.
What is the reported qubit capacity?
The facility is reported to be able to test quantum processes up to 100 qubits .
Can students get access and when will courses start?
SRM AP has emphasised workforce development and hands‑on training, but the university has not yet published a schedule or access policy. Expect short labs, internships and certification programmes to be announced by SRM AP in follow‑up notices.
Are detailed hardware specs and benchmarking results available?
No. The public announcement confirms architecture names (Amaravati 1S and Amaravati 1Q) and qubit capacity but does not publish detailed component specifications or performance benchmarking data.
How can I prepare to use the QRF?
Focus on linear algebra and quantum fundamentals, learn Python and quantum SDKs (Qiskit/Cirq), practise small experiments on cloud backends, and gain basic lab and data‑analysis skills. Offer to support facility operations when access opens.
Who should I contact for research access?
The university has not published a dedicated contact or application process. Watch SRM AP’s official channels for detailed access procedures and calls for proposals.
Conclusion: why this matters for you
A campus Quantum Reference Facility is a tangible step toward hands‑on quantum education and a local testing ground for research and startups. For students and early‑career researchers, being near a QRF means earlier hardware exposure — a valuable advantage when hiring moves from theory to systems work.
Keep an eye on SRM AP’s official announcements for access policies, course offerings and technical specs. In the meantime, build the core skills listed above so you’re ready to make the most of the QRF once detailed programmes and application windows open.