Research Domains

Integrating ground-based fiber systems with satellite links for global secure communication

Enabling secure communication for moving platforms including vehicles, ships, and aircraft

Leveraging free-space QKD expertise for urban and remote deployment scenarios

Creating scalable quantum memory and entanglement swapping systems

Developing standardized communication protocols for quantum internet deployment

Providing monitoring and optimization tools for quantum communication networks

Ensuring ultra-secure transaction processing and data protection

Providing quantum-secured channels for sensitive information exchange

Enabling secure patient data sharing across medical institutions

Using Leggett-Garg inequality violations for provably secure randomness generation

Providing on-demand certified random numbers via API integration

Delivering gigabit-rate quantum random number streams for real-time cryptographic applications

Ensuring physical security of random number generation systems

Ensuring all quantum technologies meet highest security standards

Protecting against both classical and quantum computational attacks

Combining traditional security with quantum-enhanced verification methods

Providing non-repudiation and authentication using quantum mechanical principles

Integrating quantum technologies with existing security infrastructure

Using bulk nonlinear crystals for generating entangled photon pairs with high brightness and spectral purity

Providing cost-effective single-photon approximations for practical quantum communication and computing applications

Delivering true single photons on-demand through photon-number-resolving detection and conditional preparation

Creating chip-scale quantum light sources for scalable quantum technology deployment

Supporting multiple applications through modular photonic systems

Eliminating exponential scaling limitations of traditional methods

Enabling continuous quantum system optimization and error detection

Supporting qudit-based quantum computing systems

Addressing supply chain, logistics, and resource allocation challenges

Maximizing computational efficiency through intelligent resource and process optimization

Applying quantum computing techniques to enhance sensing and communication capabilities

Simplifying quantum algorithm development for non-specialists

Offering accessible quantum computing resources through managed services

Providing superior resolution while reducing radiation exposure

Enabling non-destructive testing with unprecedented sensitivity

Achieving sub-shot-noise imaging for biological and materials research

Providing early disease detection with minimal patient impact

Developing quantum sensors compatible with existing clinical workflows

Delivered in native languages with scope of mentorship and career guidance

Bridging academic learning with practical applications

Connecting research institutions with commercial quantum development