In MRI, composite pulses are used to make physical operations more robust by arranging multiple pulses so that their errors interfere destructively.
Prof. Haim Suchowski, our Chief Architect and Co-Founder, saw how that same principle could be brought into integrated #photonics.
Quantum computing will not scale unless we reduce error at the physical level.
In photonic quantum computers, every device matters. Every qubit, every gate, every splitting ratio, every phase error can affect the performance of the full system.
As Prof. Mordechai “Moti” Segev explains, the lower the physical error, the more we can reduce the number of devices needed for error correction — and the shorter the computation time can become.
That is where Quantum Pulse Ventures comes in.
Our technology addresses errors at the level of the individual photonic device. It has been proven in the lab to reduce error in both the splitting ratio between channels and the phase.
This is why we see Quantum Pulse as an enabling technology for photonic quantum computing.
Because without reducing physical error, building a full-scale quantum computer becomes extremely difficult.
Read more at: https://t.co/cvElPSod72
#QuantumComputing #Photonics #IntegratedPhotonics #QuantumTechnology
In photonic quantum computing, reducing physical error is not a detail. It is a requirement for scalability.
Improving splitting-ratio accuracy and phase control means improving the fidelity of the photonic building blocks that quantum systems depend on.
That is exactly the challenge Quantum Pulse Ventures is built to address.
Read more at: https://t.co/cvElPSod72
#QuantumComputing #Photonics #IntegratedPhotonics #QuantumTechnology
New coverage in @GoPhotonics on Quantum Pulse 2.0.
QP2.0 is designed to improve operational fidelity and robustness against fabrication variability across integrated photonics platforms, supporting quantum computing, quantum routing, and advanced optical systems.
https://t.co/NxLRc4tZsm
Prof. Segev was elected to the Israel Academy of Sciences, the National Academy of Sciences in the United States and the American Academy of Arts and Sciences.
Read more at: https://t.co/QtlY3ybqXj
#MeetTheTeam#QuantumTechnology#Photonics#Physics#DeepTech
Meet Prof. Mordechai “Moti” Segev, Board Director of Quantum Pulse Ventures.
Prof. Segev is the Robert J. Shillman Distinguished Professor of Physics and Electrical Engineering at the @TechnionLive, Israel.
That is why reducing physical error is such an important step.
Once you bring physical error below the threshold, you move closer to practical fault-tolerant quantum computation.
Read more at: https://t.co/QtlY3ybqXj
#QuantumTechnology#Photonics
Quantum computers are extremely delicate systems.
The biggest problem is noise.
To run quantum computing applications — analyzing massive amounts of data and solving problems beyond classical systems—quantum computers need to become fault-tolerant.
#quantum#ErrorCorrection
At Quantum Pulse Ventures, we started with the theory and simulations, then proved the approach in the lab.
We fabricated new designs, compared them to existing designs, and showed that we could reduce the error — or, in another language, increase the fidelity of the quantum gate
At Quantum Pulse Ventures, he brings deep scientific leadership across quantum theory, computation, and the foundations of next-generation quantum technologies.
Read more at: https://t.co/QtlY3ybqXj
#quantumtheory
Meet Prof. Yaron Oz, Chief Scientist, Co-Founder, and Board Director of Quantum Pulse Ventures.
Professor at @TelAvivUni, Prof. Oz’s research spans high-energy particle physics, quantum field theories, quantum information, and computation.
#QuantumTechnology#QuantumComputing
He served as Rector of Tel Aviv University and President of the Israel Physical Society, and today heads the Tel Aviv University Center for Quantum Science and Technology.
Prof. Oz earned his Ph.D. from @TechnionLive.
#Photonics#DeepTech
In MRI, composite pulses are used to make physical operations more robust by arranging multiple pulses so that their errors interfere destructively.
Prof. Haim Suchowski, our Chief Architect and Co-Founder, saw how that same principle could be brought into integrated #photonics.
Small manufacturing variations can directly affect gate #fidelity, and accumulated errors can limit the performance of larger circuits.
We are building technology to improve the fidelity and robustness of the photonic building blocks behind quantum computing and quantum routing.
He leads the Femto-Nano Laboratory and holds 15 patents, including 3 patents in quantum integrated photonics.
Prof. Suchowski earned his Ph.D. from the @WeizmannScience and completed postdoctoral work at @UCBerkeley.
Read more at: https://t.co/QtlY3ybqXj
#QuantumTechnology
Meet Prof. Haim Suchowski, Chief Architect, Co-Founder, and Board Director of @QuantumPulseVen
Professor at @TelAvivUni, his research focuses on several fronts of light-matter interaction, including quantum coherent control, non-linear optics, and quantum integrated photonics.