Check out our new results: Sample-based Krylov Quantum Diagonalization https://t.co/97spVqDNg9 @ORNL @ORNLComputing @IBM @IBMResearch

Actually if you want to know what the real ‘secret’ is 😀 it’s world-class research AND world-class engineering AND world-class infra all working closely together with relentless focus and intensity…

Our team, together with Oak Ridge National Laboratory, has performed the largest quantum ground state simulation of the Anderson model to date. This is the first simulation beyond the reach of exact diagonalization. The study used 70 qubits, four impurities, seven bath sites per

Weak nonunital noise allows local quantum circuits to perform computations of exponential depth without midcircuit measurements for error correction, thereby achieving computational complexity on par with noiseless quantum computers. @kunalsharmaq https://t.co/Sqo8Ge7lqD

#QSim2025 Thanks everyone for participating!

Panel discussion during #QSim2025 Panel: Monika Aidelsburger, Andrew Childs, Oliver Dial, Mikhail Lukin, Vadim Smelyanskiy, Birgitta Whaley Moderators: Ryan Babbush, Hannes Pichler

After @jmchow welcome speech, we officially kicked off #QSim2025 with @sitanch talk on Bell sampling is (almost) all you need

We’re delighted to host the RQS summer school at @IBM and look forward to welcoming #QSim2025 attendees tomorow! https://t.co/FOEAoMUVb7

RQS Summer School is underway at @IBM's NYC HQ! Nathalie De Leon of @Princeton helped kicked things off with a deep dive into #quantum sensing. This event brings together grad students & postdocs to explore challenges in quantum simulation and spark new collaborations.

Our work on symmetric Clifford twirling is published in npj Quantum Information. Congrats Kento! https://t.co/0hXhN4K7dp

1/ From surface codes to BB codes — here’s how we’re rethinking the roadmap to fault-tolerant quantum computing (FTQC). 🧵

We’re excited to share our plans for IBM Quantum Starling, expected to be the world’s first large-scale, fault-tolerant quantum computer. This new system, to be delivered to clients by 2029, is expected to perform 20,000x more operations than today’s quantum computers. Read more

In our preprint https://t.co/qHd4vSGI1D on the arxiv today, @Quantum_GiaGuar @A_Mezzacapo and I present a sample-based method to simulate thermodynamic uncertainty relations (TURs) with classical and quantum computers (up to 130 qubits).

Excited to co-organize #QSim2025 at @IBM Quantum! Please apply

Happy to share my new work with Michael Gullans on the effects of non-Markovian noise on randomized benchmarking! @JointQuICS https://t.co/w3SdEXD1HT

It was a great experience to present a poster in 47th AICBC @niserbbs. Didn't expect to get the best poster award in my very first poster presentation. Felt so good and motivated after receiving the award 😊

Congratulations to 🎉👏🏻 @Kanika2895 from @ubl_rna for the best poster award at #AICBC2024 @DBS_IISERM

Happy to post a new paper, on graph states and IQP circuits, with collaborators from @UCBerkeley and @CWInl! 😀 How powerful are highly unstructured but easy-to-prepare quantum circuits? Let's try to answer in three parts. https://t.co/DJI8uoKVEg #Quantum 1/6 📜

Virat = 🐐

Can we get practical quantum advantage from random circuit sampling at extremely shallow (even constant!) depth? 🔬 My new paper with friends from @williamandmary @UofMaryland @UWaterloo @QuantumIQC and @UChicago is a step towards the answer! 😃 https://t.co/fAOgTqN0te 1/9 📜