
r/QuantumComputing

masters support group
hi guys! anyone else looking to join masters degrees in quantum computing/technology/information in the 2027 fall session? im very lost and just looking for some sort of support group of people going through the same with how frustrating all of this is.
Q-Hack India 2026 - The Quantum Build Challenge
Are you a student interested in Quantum Computing, Quantum AI, Cryptography, Chemistry, or emerging quantum technologies?
Q-HACK INDIA 2026 is a national-level quantum hackathon hosted by QuantumRIT, Bengaluru, as part of Quantum Week 2026 : https://www.quantumweek.tech/
Hackathon at a Glance
- Format: 2 Rounds + Grand Finale
- Team Size: 3–4 members
- Eligibility: Undergraduate & Postgraduate Students
- Format: Online + In-person Finale
- Finale: Ramaiah Institute of Technology, Bengaluru
- Round 1 Deadline: 7 October 2026, 11:59 PM IST
Timeline
Round 1 — Idea & Prototype Submission
27 September – 7 October 2026
Round 2 — Enhancement Sprint
10 – 29 October 2026
Grand Finale
30 – 31 October 2026
📍 Ramaiah Institute of Technology, Bengaluru
Tracks
- Quantum Biotech & Chemistry
- Quantum Security & Cryptography
- Quantum AI & Software
- Open Quantum Innovation
You are free to define your own problem and solution within your chosen track. The quantum component should play a meaningful role in your approach.
What You Need for Round 1
Your submission should include:
- Idea PPT — Maximum 10 slides
- Demo Video — Maximum 3 minutes
- Minimal Prototype
- GitHub Repository
PPT Template
Use the official hackathon PPT template:
Note: Make a copy of the template before editing.
Important
- Teams must have 3–4 members.
- All team members must register individually on Devfolio.
- Form your team on Devfolio before submitting Round 1.
- Only the Team Lead should submit the Round 1 project form.
- The submitted project should include the required PPT, demo video, prototype and GitHub repository.
Register on Devfolio
Submit Round 1
Deadline: 7 October 2026, 11:59 PM IST
If you're curious about quantum but haven't built with it before, this is also a good opportunity to learn by building. You don't need to wait for the perfect idea — form your team and start.
Organised by QuantumRIT | Ramaiah Institute of Technology, Bengaluru
Hamiltonian simulation at square-root sparsity cost, without the hidden overhead
substack.comA tiny semiconductor device lifts quantum photon interference visibility to 90%
Light particles intended for quantum communication can lose their usefulness because of the order in which they emerge. A semiconductor experiment has shown how controlling that sequence can produce photons that interfere much more reliably.
The work brings quantum dots closer to supplying high-quality light for advanced quantum communication schemes. It also exposes a practical tradeoff: improving photon coherence does not automatically make both particles easy to collect.
Scientists from the University of Basel, Paderborn University and Ruhr University Bochum reported the findings in Physical Review Letters. Their device uses an optical cavity to change how quickly a tiny semiconductor structure releases its two photons.
Compact particle accelerator uses terahertz waves to accelerate electrons to 99.99% light speed
Particle accelerators are usually associated with sprawling research facilities, massive magnets and long tunnels. A different approach uses laser-generated terahertz radiation to manipulate electrons inside a structure only millimeters across.
Researchers from the University of Manchester, Lancaster University and collaborating institutions demonstrated the technique using electrons already traveling at 99.99% of the speed of light. Their experiment accelerated relativistic electron bunches with charges as high as 60 picocoulombs, while also showing that terahertz fields can probe their structure on extraordinarily short time scales.
Published in Nature Photonics, the proof-of-principle experiment marked an important step toward compact accelerators driven by light rather than conventional radio-frequency technology. Since then, researchers have substantially increased the acceleration gradients and energy gains achievable with terahertz systems.