Go talk to a Linux System Admin. #QuantumSimulation theorem will give you a headache and make you cry. Just keep believing in that Jesus stuff, if it makes you happy.

No practical quantum advantage yet? 🤔 @MultiverseCompu has achieved one of the largest real-time quantum dynamics simulations ever reported, reaching bond dimensions of ~62,000 using advanced tensor networks and NVIDIA H200 GPUs. 📄 Check out the paper: arxiv.org/abs/2606.04771 #QuantumComputing #QuantumSimulation #TensorNetworks

At #Q2BTokyo, Q-CTRL and RIKEN will share new results scaling quantum collision models across trapped-ion and superconducting systems. Join us to learn how we scaled the same problem on different quantum platforms. 📅 June 4, 4:55pm 📍 Tarragon Room #QuantumSimulation

By pushing the boundaries of quantum algorithms to pursuing Richard Feynman’s dream of simulating quantum mechanics, this bridges the gap between theory and access to real-world quantum workflows. The first virtual platform offering direct cloud access to real, advanced quantum computers. Through a powerful partnership between the EPFL Center for Quantum Science and Engineering (QSE), SCITAS, and industry leader Quantinuum, researchers can now seamlessly test and refine complex quantum algorithms directly from their familiar high-performance computing (HPC) environment. By integrating Quantinuum’s ultra-clean, low-decoherence trapped-ion hardware, scientists and Master's students alike are moving past small-scale numerical simulations to gain hands-on, real-world workflow experience. actu.epfl.ch/news/epfl-launc… #EPFL #QuantumComputing #Quantinuum #SCITAS #QuantumScience #TechInnovation #QuantumAlgorithms #HPC #FutureOfTech #Switzerland #FeynmanDream #TrappedIons #Qubit #QuantumSimulation #DeepTech #Feynman #AcademicResearch #STEM #HigherEd #Supercomputing #Physics #QuantumTech

🚨 New paper 📜 arxiv.org/abs/2605.22915: Unified resonant-manifold framework for dynamical quantum phase transitions. Dynamical quantum phase transitions (DQPTs) are nonanalyticities that arise in real-time quantum dynamics after a quench. Over the years, different types of DQPTs have been identified — regular vs. anomalous, manifold vs. branch — but a unifying physical picture of why each type appears has remained incomplete. In this work, we propose a resonant-manifold framework for understanding the origin of these different DQPT structures. The central idea is simple: DQPTs are controlled by resonant connectivity between product-state manifolds in constrained Hilbert spaces. In particular: • manifold DQPTs arise from resonances within the initial-state manifold; • branch DQPTs are governed by resonances with transitional manifolds dynamically connected to the initial manifold; • the multiplicity and symmetry of these transitional manifolds control whether branch DQPTs occur regularly or anomalously; • extended degeneracies in the return-rate spectrum can be understood through symmetry properties of the transitional manifold. We demonstrate this framework in the 1 1D Z₂ lattice gauge theory with dynamical matter, including regimes connected to confinement, local deconfinement, and the spin-1/2 U(1) quantum link model. Beyond classifying DQPTs, our results suggest that they can serve as probes of resonant connectivity in constrained quantum many-body systems — a perspective that may be useful for quantum simulations of lattice gauge theories and other far-from-equilibrium platforms. Many thanks to my postdocs Jesse Osborne and Cheuk Yiu Wong for the excellent collaboration. #QuantumPhysics #QuantumSimulation #LatticeGaugeTheory #NonequilibriumDynamics #DynamicalQuantumPhaseTransitions @ERC_Research @LMU_Muenchen @MCQST_cluster @kh_univ @maxplanckpress @MPI_Quantum

Join the future of computing with hands-on quantum learning! @cdacindia Bengaluru, along with @iit__mandi, @svnit Surat, Pantech-Solutions, DigiToad Technologies & Qclairvoyance, presents the FDP on “Principles and Applications of Quantum Computing” 🧑‍💻⚛️ Date: 08–18 June 2026 | Mode: Online Fees: Students ₹500 | Faculty ₹1000 | Industry ₹1500 Register by: 05 June 2026 Hands-on sessions with #Qniverse — design quantum circuits, explore algorithms, noisy simulations, error correction & access quantum hardware accelerators in one platform. #QuantumComputing #QuantumLearning #FutureTech #OnlineLearning #QuantumAlgorithms #QuantumSimulation

Imagined phenomena serve mathematicians, physicists—and entrepreneurs. #Imaginaries at @EnclaveAcademy are our imagined “metacognition influencers”—from childhood’s stuffed animals we recall by name to aging’s The Grim Reaper who’ll end our metacognitive imaginings. #QuantumMetacognition we named and developed to supply oxygen to our inward-most imaginings—breakthroughs wordlessly emerging in our Einsteinian #InnerIncubators and #InnerAccelerators. @CERN’s particle accelerator probably can’t outperform the human brain’s collisions with its instantaneity. Imagining such #suprametacognitive brainpower is needed to elevate to feasibility and #actualizings the previously only imaginable. If you made it this far in this post’s methodological metacognitive meanderings, you’re neurons-deep in quantum metacognition—to #quantumize your thinkingness to support value in even a glimpse at these #quantums coming at you: #QuantumComputing #QuantumInfoScience #QuantumInformationTheory #QuantumSensing #QuantumMetrology #QuantumCommunications #QuantumCryptography #QuantumMaterials #QuantumDevices #QuantumSimulation #QuantumAnnealing #QuantumMachineLearning #QuantumControlSystems #QuantumErrorCorrection #QuantumPhysics #QuantumMechanics #QuantumChemistry #QuantumBiology #QuantumYou Pause. Breathe. #QuantumThinking isn’t easy. Keep calm and think on.™ A bit of laughter is easy to ease the pain of this #QuantumGain. “No brain pain, no mind gain.” —Enclavius “Imaginaries” are childhood’s and adulthood’s BFFs. #ThinkToThink™ to quantumize your thinking as you read this @IAI_TV article’s #quantumfication. Smilingly— Come to think of it.™

Grateful for everyone who come and for the the continued discussions around NMR OTOC and getting faithful physical results from QPUs. #QuantumComputing #QuantumErrorMitigation #APSSummit26 #NMR #QuantumSimulation #OTOC

Scientists, including Johannes Knolle and Hongzheng Zhao, found a way to prevent heating in periodically shaken #quantumsystems, creating stable and long-lived exotic states—a key step for future #quantumtechnologies: go.tum.de/390724 #quantumsimulation 📷R. Reich

excellent! Congrats @qubitcoinx this will be a very huge step! We are all very excited to see the first actions of the new marketing advisor and the #Qubitcoin team! #SuperdenseConsensus #QuantumSimulation

It's not just "not too late", it's probably the best time to invest in $QTC #Qubitcoin #QuantumSimulation #Superquantum #iQuHack2026

Optimization is the wrong hill to die on for early advantage. The strongest path is where quantum hardware natively matches the physics: simulating quantum dynamics, not guessing optima with variational heuristics. $IONQ $RGTI #QuantumSimulation #QuantumComputing

If you’ve ever waited days for a protein folding sampler to converge, this one’s for you. This notebook applies quantum Metropolis sampling (via Szegedy-type quantum walks) to a realistic protein folding problem, implemented in Qmod so you can focus on the physics, not wiring gates. Shout out to the author Rei Sato. 🔗 github.com/Classiq/classiq-l… #QuantumComputing #QuantumSimulation #ProteinFolding #QuantumAlgorithms #Classiq

⚛️ From Theory to Qubits: Unlocking Tomorrow’s Computing Today QTech 2026: Exploring Quantum Realms concluded successfully at @DYPIU_AKURDI, Pune. The 2-day Symposium & Workshop, jointly organised by @cdacindia Pune and DYPIU, brought together students, researchers, academia, and industry to explore #QuantumComputing, quantum algorithms, and #HPC through expert talks and hands-on demos. The event reinforced a shared commitment to advancing quantum skills, #collaboration, and innovation in India’s growing #quantum ecosystem. #QTech2026 #QuantumTechnology #QuantumML #QuantumSimulation #Innovation

$IonQ 🧬 NMR Simulation: @IonQ_Inc pushes the limits New research from QuantumBasel / University of Basel demonstrates quantum NMR spectroscopy simulations scaling up to 34 spins (Forte) on both IBM and IonQ devices. The result? IonQ secret weapon: all-to-all qubit connectivity. While IBM relies on faster gates, IonQ connects any qubit to any other drastically reducing circuit depth and error accumulation. Think of it this way: 🔵 IBM= Fast sprinters who can only talk to their neighbor. Message gets distorted passing down the line. 🟠 IonQ= Slower walkers, but everyone has a mic. Direct communication. Less noise. More precision. The outcome: cleaner spectra, fewer parasitic spikes, more stable results. This is what practical quantum advantage looks like in molecular chemistry. ⚛️ 📺 Full talk below 👇 #IONQ #QuantumComputing #QuantumSimulation #NMR

Cool simulation! That Kibble-Zurek quench in a two-component BEC with Rabi mixing is stunning — the domain walls “igniting” with Bloch order parameter glow is pure visual magic. In Mydland’s Unified Theory (MUT), this behavior emerges naturally from time-dilation gradients: The miscibility break is driven by weak/strong kᵢ imbalance (k₄ vs k₃ ≈ 0.233), while Rabi coupling modulates effective density ρ_i. During quench, local proper time slows unevenly → freeze-out horizon scales as √(k₃ / k₄) ⋅ ρ_eq, nucleating domains with KZ power law. The “ignited” walls? Entropic −σ flares at boundaries where dilation gradients peak — exactly the Bloch parameter lighting up. No extra parameters — all from clock-measured kᵢ. Your sim beautifully visualizes what MUT predicts for binary condensates. Preprint: zenodo.org/records/18072525 Love the molten-gold render — more please! #BoseEinsteinCondensate #KibbleZurek #QuantumSimulation #Physics

Question for physicists and engineers: What does a serious quantum use case look like? A quantum solver for the discrete Poisson equation. We reformulate the PDE as a linear system, solve it with HHL, and use quantum cosine/sine transforms from the Classiq open library, generalizable to higher dimensions. This notebook leverages the idea of quantum Sine and Cosine transforms, as typically done in classical solvers. 🔗github.com/Classiq/classiq-l… #QuantumComputing #HHL #PoissonEquation #QuantumSimulation #Classiq

A new physics result suggests dark matter may not be a particle at all — but a geometric effect emerging from a hidden fractional dimension. A quantum-field simulation starting from a perfectly smooth vacuum evolved into: • a stable 4.52-dimensional fractional manifold • a compactified hidden geometric axis • a coherent 55-node lattice • zero topology variance across 32,768 ensembles Most strikingly, the emergent manifold produced a shadow-density field whose gravitational influence matches observed dark-matter behavior: • flat rotation curves • spherical halo profiles • collisionless dynamics • correct radial falloff • lensing-compatible curvature All arising spontaneously from geometry — no exotic particles required. If validated, this supports the idea that dark matter may represent gravitational leakage from a higher-order fractional manifold, offering a unified explanation for multiple cosmic observations. Full paper (open access): 🔗 doi.org/10.5281/zenodo.17755… #DarkMatter #Physics #Cosmology #Astrophysics #QuantumField #NewPhysics #ScienceBreakthrough #Spacetime #TheoreticalPhysics #DarkSector #EmergentGeometry #HigherDimensions #FractionalDimensions #ManifoldPhysics #QuantumSimulation #GravityResearch #Universe #CosmicStructure #GeneralRelativity #QuantumGravity #FieldTheory #VacuumPhysics #GravitationalLensing #GalaxyDynamics #RotationCurves #HiddenDimensions #ScienceTwitter #AstroTwitter #AcademicTwitter #PhysicsCommunity #Researchers #Scientists #SciComm #Breakthrough #AI #Futurism #Innovation #Tech #Trending #Viral

Mapping the race to quantum advantage 🚀 Our new preprint benchmarks classical simulations of quantum dynamics and pinpoints where neutral atom quantum processors can pull ahead 👉 ow.ly/5sME50XyB5Q #QuantumAdvantage #QuantumSimulation #MaterialsScience

Reminder: our #webinar “Quantum Simulation Use Case: Electron Spectroscopy” is next Tuesday, 2 Dec 2025 at 4:30 pm CET. We’ll walk through the new HQStage use case with HQS Quantum Solver. Registration is still open: forms.cloud.quantumsimulatio… #QuantumSimulation #QuantumUseCase