6
talks
1
posters
0
committee roles
0
leadership roles
2017–2025
years active
Contributions
QIP QCrypt TQC presenter award · △program ◇steering ○organising □local · filled = chair
Talks
| Title | Conference | Type | Co-authors |
|---|---|---|---|
| Robust device-independent quantum key distribution | QCRYPT 2020 | regular | René Schwonnek, Ignatius W. Primaatmaja, Ernest Y.-Z. Tan, Ramona Wolf, Valerio Scarani, Charles C.-W. Lim |
| Computing secure key rates for quantum key distribution with untrusted devices | QIP 2020 | regular | Ernest Y.-Z. Tan, René Schwonnek, Ignatius William Primaatmaja, Charles Ci Wen Lim |
| A numerical method for computing reliable secret key rates for device-independent quantum key distribution Abstract | QCRYPT 2019 | regular | René Schwonnek, Ernest Y.-Z. Tan, Ramona Wolf, Charles C.-W. Lim |
| Almost-tight and versatile security analysis of measurement-device-independent quantum key distribution Abstract | QCRYPT 2019 | regular | Ignatius William Primaatmaja, Emilien Lavie, Chao Wang, Charles Ci Wen Lim |
| All pure bipartite entangled states can be self-tested | QIP 2018 | regular | ▸Andrea Coladangelo, Valerio Scarani |
| All Pure Bipartite Entangled States can be Self-Tested | TQC 2017 | regular | Andrea Coladangelo, Valerio Scarani |
Posters
| Title | Conference | Co-authors |
|---|---|---|
| Self-testing Quantum Randomness Expansion using Silicon Photonic Chip | QCRYPT 2025 | Gong Zhang, Ignatius William Primaatmaja, Yue Chen, Si Qi Ng, Hong Jie Ng, Xiao Gong, Chao Wang, Charles Lim |
The power of quantum random number generation is more than just the ability to create truly random numbers. It can also enable self-testing, which allows the user to verify the implementation integrity of critical quantum components with minimal assumptions. In this work, we develop and implement a self-testing quantum random number generator (QRNG) chipset capable of generating 15.33 Mbits of certifiable randomness in each run, producing an expansion rate of 5.11×10-4 at a repetition rate of 10 MHz. The chip design is based on a highly loss-and-noise tolerant measurement-device-independent protocol, where random coherent states encoded using quadrature phase shift keying (QPSK) are used to self-test the quantum homodyne detection unit, well-known to be challenging to characterise in practice. Importantly, this proposal opens up the possibility to implement miniaturised self-testing QRNG devices at production scale using standard silicon photonics foundry platforms. |
||
Collaborators
| Co-author | Joint talks |
|---|---|
| Ernest Y.-Z. Tan | 3 |
| Ignatius William Primaatmaja | 3 |
| René Schwonnek | 3 |
| Valerio Scarani | 3 |
| Andrea Coladangelo | 2 |
| Chao Wang | 2 |
| Charles C.-W. Lim | 2 |
| Charles Ci Wen Lim | 2 |
| Ramona Wolf | 2 |
| Charles Lim | 1 |
| Emilien Lavie | 1 |
| Gong Zhang | 1 |
| Hong Jie Ng | 1 |
| Ignatius W. Primaatmaja | 1 |
| Si Qi Ng | 1 |
| Xiao Gong | 1 |
| Yue Chen | 1 |