# Event Details

- **Event Name**: Quantum Engineering Workshop 2026, Caltech
- **Event Start and End Date**: Thu, 28 May, 2026 at 08:40 am – Thu, 28 May, 2026 at 05:30 pm
- **Event Description**: The 6th annual Quantum Engineering Workshop, May 28th, 2026, CaltechAbout this EventHybrid Event (Online/Remote & In-Person at Caltech)For in-person resenvations please email Dr. Farbod Khoshnoud: farbodk@caltech.eduThe online link will be emailed to the registered attendees closer to the event date.8:50 am - 9:00 am (PST)Opening welcome and introductionOrganizers: Dr. Marco Quadrelli and Dr. Farbod KhoshnoudKeynote talks/Distinguished speakers:9:00 am - 10:00 am (PST)President Thomas F. Rosenbaum,Professor of Physics and President of Caltech"Dynamics of Disordered Quantum Magnets"10:00 am - 10:45 am (PST)Prof. Alan E. Willner, UCS11:00 am - 11:30 am (PST)Prof. Rana Adhikari, Caltech11:30 am - 12:00 pm (PST)Prof. Nick Hutzler, Caltech12:00 pm - 1:30 pm Break1:30 pm - 2:00 pm (PST)Prof. Alireza Marandi, Caltech2:00 pm - 2:30 pm (PST)Dr. Dolev Bluvstein, Caltech2:30 pm - 3:00 pm (PST)Dr. Lee McCuller, Caltech3:00 pm - 3:30 pm (PST)Dr. John L. Callas, JPL3:30 pm - 4:00 pm (PST)Prof. Keivan Navi, Cal Poly Pomona4:00 pm – 4:30 pm (PST)Prof. Nader Bagherzadeh, UCI4:30 pm - 5:00 pm (PST)Q&A, and adjournSupported by CAST, Caltech, Cal Poly Pomona, JAVS, ASME28 May, 2026, A 1-day free hybrid workshopPushing the engineering boundaries beyond classical techniques, supported by the CAST Caltech, Journal of Autonomous Vehicles and Systems (JAVS), American Society for Mechanical Engineers (ASME), and College of Engineering, Cal Poly PomonaTalk Abstracts:9:00 am - 10:00 am (PST)President Thomas F. Rosenbaum,Professor of Physics and President of CaltechThomas F. Rosenbaum is the ninth president of the California Institute of Technology and Professor of Physics. He is an expert on the quantum mechanical nature of materials, conducting research at Bell Laboratories, IBM Watson Research Center, and the University of Chicago, where he served as Vice President for Research and for Argonne National Laboratory and then provost, before moving to Caltech in 2014. He received his bachelor's degree in physics with honors from Harvard University and a Ph.D. in physics from Princeton University. He serves as the Chair of the Board of Trustees of the Society for Science, as a Board member of the Aspen Center for Physics, and on the American Academy of Arts & Sciences Los Angeles Program Committee.Talk:Title: "Dynamics of Disordered Quantum Magnets"Thomas F. Rosenbaum, CaltechAbstract: I will briefly talk about some of the compelling science being addressed at Caltech and then segue into a more technical discussion of my own work in quantum dynamics. What are the fundamental quantum processes that determine a disordered magnet’s approach to its ground state? I will address this question for three instances involving L(Ho,Y)F4, a physical realization of the Ising model in transverse field. Here, the transverse magnetic field acts as a quantum knob in the laboratory and permits the direct comparison of quantum and classical pathways to relaxation in the same system. (1) I will present experiments that quantitatively compare quantum and classical annealing protocols in the disordered ferromagnet, and demonstrate quantum speedup for reasons that can be understood at a microscopic level. This approach follows from Richard Feynman’s concept of a quantum computer and underlies the power of D-Wave machines. (2) Measurements of Barkhausen or “crackling noise” reveal the tunneling characteristics of the magnetic domains as they are driven around a hysteresis loop, and (3) We seek to develop a fundamental model of the quantum spin glass based on experiments that demonstrate strong rejuvenation and quantum erasure of memories.10:00 am - 10:45 am (PST)Prof. Alan E. Willner, UCSAlan Willner received a Ph.D. (1988) from Columbia University, as well as a B.A. (1982) and Honorary Doctorate (2012) from Yeshiva University. He has worked at AT&T Bell Labs and Bellcore, and is a Distinguished Professor and the Andrew & Erna Viterbi Professorial Chair at the Univ. of Southern California. His honors include: Member of US National Academy of Engineering; Int'l Fellow of UK Royal Academy of Eng; IEEE Eric Sumner Technical Field Award; NSF Presidential Faculty Fellows Award from White House; Fulbright, Guggenheim, Packard, and US DoD Vannevar Bush Faculty Fellowships; Thomas Egleston Medal from Columbia Eng. Alumni Association; IET JJ Thompson Medal; Ellis Island Medal of Honor; Optica Forman Eng. Excellence Award; IEEE Photonics Society Eng. Achievement Award; Eddy Best Technical Paper Award; Fellow of the National Academy of Inventors; and SPIE President’s Award. His activities include: Co-Chair of U.S. National Academies Study on Optics & Photonics; President of Optica and of IEEE Photonics Society; Editor-in-Chief of Optics Letters, IEEE/OSA J. of Lightwave Technology, and IEEE J. of Selected Topics in Quantum Electronics; Chair of National Photonics Initiative; and Member of the US Army Science Board and the Defense Sciences Research Council. He is a Fellow of AAAS, IEEE, IET, Optica, and SPIE. His research is primarily in optical communications, sensing, and signal processing.Talk:Title: “Transverse and Longitudinal Structured Light for Communications, Sensing and Dynamic Behavior"Abstract: Light can be “structured” so that they can have unique amplitude and phase spatial distribution in the transverse X-Y plane at any given distance. This is exemplified by light being composed of one or more orthogonal spatial modes from a modal basis set, such as Laguerre Gaussian modes. Moreover, light can be structured in the longitudinal direction along the propagation path, such that the light can be tailored to exhibit various properties at different distances. This can be achieved, for example, by manipulating the Bessel longitudinal wavenumber.This presentation will highlight novel structuring of light for communications, sensing and dynamic behavior. Although most examples will be for classical beams, issues to be explored hold promise for quantum systems as well. Topics will include:(1) Communications: Photon efficiency can be increased by encoding each bit on a different orthogonal mode from a larger basis set, capacity can be increased by multiplexing data-carrying channels that are on orthogonal modes, and physical-layer security can be enhanced by simultaneously transmitting a data channel and a noise beam such that the noise is diminished only at an intended receiver’s location. Moreover, degrading effects of turbulence and possible mitigation approaches will be discussed.(2) Sensing: Since light can be structured to have controllable parameters at different longitudinal distances (e.g., waist, spatial mode, polarization), various properties can be probed as a function of distance by varying the location at which certain properties appear. Furthermore, accurate ranging can be achieved by measuring the light's features that evolve with propagation distance.(3) Dynamic Behavior: Spatio-temporal optical wave packets can be created by coherently combining different sets of photons that exist at different frequencies and different spatial modes. When considering a given propagation distance, this multi-frequency light can be tailored such that its characteristics (e.g., spatial intensity and phase, polarization state) can dynamically change with time.11:00 am - 11:30 am (PST)Prof. Rana Adhikari, CaltechRana Adhikari is a Professor of Physics at Caltech, and a member of the Institute for Quantum Information and Matter, and the LIGO Laboratory. At Caltech, his group focuses on quantum measurement, AI for physics experiments, inertial confinement laser fusion, and the next generation of gravitational wave detectors.Talk:Title: Designing Quantum-Limited Experiments for Fundamental PhysicsAbstract: The field of quantum metrology emerged from the requirements of gravitational-wave detection. Achieving the strain sensitivities necessary for LIGO required direct engagement with the quantum limits of measurement, and four decades of development have produced a mature toolkit: squeezed-light injection, quantum non-demolition readout, and macroscopic mechanical systems operating near their motional ground state. These techniques are not specific to gravitational waves. They are applicable to any experiment whose sensitivity is set by quantum noise, and a growing class of searches for physics beyond the Standard Model — dark matter candidates, signatures of quantum gravity, and tests of the quantum mechanical description of macroscopic objects — now operates at or near the quantum limit. This talk will address the design of such experiments as a formal optimization problem: given a target signal, what is the optimal choice of quantum state, readout strategy, and mechanical configuration?11:30 am - 12:00 pm (PST)Prof. Nick Hutzler, CaltechNick Hutzler is a Professor of Physics at Caltech where he leads a group that engineers and studies complex molecules for fundamental physics.Title: Engineered Molecular Clocks for Sensing Fundamental PhysicsAbstract: Molecules are sensitive probes for a wide range of fundamental nuclear, particle, and chemical physics. Many applications, especially those with the goal of studying complex nuclei, require molecules with a very complicated structure that renders proven methods to be impractical. We proposed and demonstrated a new approach of engineered molecular clocks, where we use external static electromagnetic fields to tune the molecular properties in-situ and create clock transitions which are insensitive to external fields but still sensitive to the physics of interest. This approach is applicable in a wide range of species, has simple experimental protocols, and enables simultaneous co-sensing of environmental conditions. We discuss the use of this approach to sense fundamental symmetry violating physics in the ytterbium nucleus, and ongoing work to extend these methods to molecules with exotic nuclei such as radium.1:30 pm - 2:00 pm (PST)Prof. Alireza Marandi, CaltechAlireza Marandi is a Professor of Electrical Engineering and Applied Physics at Caltech. He received his PhD from Stanford University in 2013. Before joining Caltech, he held positions as a postdoctoral scholar and a research engineer at Stanford, a visiting scientist at the National Institute of Informatics in Japan, and a senior engineer in the Advanced Technology Group of Dolby Laboratories. Marandi is a Senior Member of OSA and IEEE and has been the recipient of NSF CAREER award, the AFOSR YIP award, ARO Early Career Award, DARPA Young Faculty Award and Director’s Fellowship, and the Young Scientist Prize of the IUPAP. He is named the 2019 KNI-Wheatley Scholar and a 2023 Sloan Foundation Fellow. Marandi is a co-founder and a member of board of directors of PINC Technologies Inc., which is a startup company in Pasadena developing photonic integrated nonlinear circuits.Talk:Title: "Ultrafast quantum and classical nonlinear nanophotonic circuits"Ultrafast sciences and technologies are founded on the principles of ultrashort-pulse nonlinear optics. Until now, their discrete and bulky nature has hindered the utilization of their vast functionalities for many applications, ranging from sensing to computing and quantum information processing. In the past few years, nanophotonic lithium niobate (LN) has emerged as one of the most promising platforms for integrated photonics, characterized by strong quadratic nonlinearity. In this talk, I will present recent experimental progress in the realization and utilization of ultrafast nonlinear devices in nanophotonic LN, which outperform their table-top counterparts. These advancements include intense optical parametric amplification [1], ultrafast ultra-low-energy all-optical switching [2], few-cycle vacuum squeezing [3], ultrafast laser mode-locking [4], ultrabroadband coherent light sources [5, 6], generation of two-cycle pulses [7], and topological soliton combs [8]. I will also discuss ongoing efforts toward the miniaturization of ultrafast technologies and the development of chip-scale ultrafast nanophotonic circuits in both the classical and quantum regimes.References[1] L. Ledezma, R. Sekine, Q. Guo, R. Nehra, S. Jahani, A. Marandi, “Intense optical parametric amplification in dispersion engineered nanophotonic lithium niobate waveguides,” Optica 9 (3), 303-308 (2022).[2] Q. Guo, R. Sekine, L. Ledezma, R. Nehra, D. J. Dean, A. Roy, R. M. Gray, S. Jahani, A. Marandi, “Femtojoule femtosecond all-optical switching in lithium niobate nanophotonics,”  16, 625–631 (2022).[3] R. Nehra, R. Sekine, L. Ledezma, Q. Guo, R. M. Gray, A. Roy, A. Marandi, “Few-cycle vacuum squeezing in nanophotonics,”  377, 1333–1337 (2022).[4] Q. Guo, B. K. Gutierrez, R. Sekine, R. M. Gray, J. A. Williams, L. Ledezma, L. Costa, A. Roy, S. Zhou, M. Liu, A. Marandi, “Ultrafast mode-locked laser in nanophotonic lithium niobate,”  382, 708-713 (2023).[5] A. Roy, L. Ledezma, L. Costa, R. Gray, R. Sekine, Q. Guo, M. Liu, R. M. Briggs, A. Marandi, “Visible-to-mid-IR tunable frequency comb in nanophotonics,”  14 (1), 6549 (2023).[6] R. Sekine, R. M. Gray, L. Ledezma, S. Zhou, Q. Guo, A. Marandi, “Multi-octave frequency comb from an ultra-low-threshold nanophotonic parametric oscillator,”  19, 1189–1195 (2025).[7] R. M. Gray, R. Sekine, M. Shen, T. Zacharias, J. Williams, S. Zhou, R. Chawlani, L. Ledezma, N. Englebert, A. Marandi, “Two-optical-cycle pulses from nanophotonic two-color soliton compression,”  (15), Article number: 107 (2026).[8] N. Englebert, R. M. Gray, L. Ledezma, R. Sekine, T. Zacharias, R. Ramesh, B. K. Gutierrez, P. Parra-Rivas, A. Marandi, “Topological Soliton Frequency Comb in Nanophotonic Lithium Niobate,” .2:00 pm - 2:30 pm (PST)Dr. Dolev Bluvstein, CaltechDolev Bluvstein did a physics bachelors at UC Santa Barbara and a physics PhD at Harvard. During his PhD he developed an approach for quantum computing based on reconfigurable atomic arrays, and using this approach for realizing fault-tolerant quantum computation. He came to Caltech in 2025 as a visiting associate professor and launched an interdisciplinary research program to accelerate research toward a fault-tolerant quantum computer. The program's early successes showed that utility-scale quantum computation may be possible sooner than expected, which led Dolev and his colleagues to start a company, Oratomic. Caltech and Oratomic are working together to build a fault-tolerant quantum computer.Talk:Error-corrected quantum processing with neutral atomsQuantum computers open new scientific avenues and computational paradigms, but only if they can be made fault-tolerant. Control complexity and large error-correction overheads have made developing such a computer a longstanding challenge. Here we will describe the development of quantum computing with reconfigurable arrays of neutral atoms and their use for realizing a fault-tolerant quantum computer. Quantum processing in this approach is based on the coherent transport of atoms shuttled by optical tweezers, enabling any-to-any connectivity, high-fidelity programmable logic, and mid-circuit processing within a zoned architecture. Fault-tolerant processing is greatly facilitated by parallel control, transversal operations, and long-range connectivity, and are utilized for experiments ranging from precise quantum scrambling simulation to realizing a universal fault-tolerant processing architecture. Theoretical advances, leveraging the long-range connectivity of the reconfigurable processor, enable greatly reduced error-correction overheads and the potential of utility-scale computation with as few as 10000 reconfigurable atomic qubits. We will discuss the potential of this approach to enable fault-tolerant quantum computing in the near term.2:30 pm - 3:00 pm (PST)Dr. Lee McCuller, CaltechLee McCuller is an assistant professor of physics at Caltech, with a research focus in experimentally applying quantum optics to enhance gravitational-wave astrophysics and searches for fundamental physics. Prof. McCuller was previously a research scientist with the LIGO Laboratory at the MIT Kavli Institute, developing and deploying frequency-dependent squeezing in Gravitational-Wave observatories. Lee received his PhD in physics from the University of Chicago and his BS in physics and mathematics from the University of Texas at Austin.Talk:Title: "Utility-Scale Quantum Advantage in detecting black holes with Gravitational-Wave Observatories is not science fiction"Abstract:Optical interferometer observatories such as LIGO have begun a new era of astrophysics by measuring the length of their vast arms to such precision that gravitational waves from distant collisions of black holes and neutron stars are now regularly observed. The global gravitational wave network recently entered a new era, whereby every detector has enhanced sensitivity using quantum squeezed states of light, limited by measurement back-action and optical loss. In its latest observing run, LIGO is now operating with its, "Frequency-dependent squeezing" upgrade to now surpass two limitations to its quantum-limited sensitivity. Given the proven and maturing effectiveness of squeezing, we should now explore what are future avenues to utilize quantum mechanics to improve Gravitational-Wave observatories, interferometers, and physics experiments in general. This talk will outline the information theoretic basis of squeezing's effectiveness, it's fundamental limitations, and outline how emerging technologies such as atomic quantum memories can implement alternate non-Gaussian quantum enhancements that surpass squeezing for certain astrophysics and fundamental physics science goals.3:00 pm - 3:30 pm (PST)Dr. John L. Callas, JPLDr. John Callas is a physicist at NASA's Jet Propulsion Laboratory in Pasadena, California. He is deputy director of JPL's Quantum Space Innovation Center and manages fundamental physics research for JPL and NASA. Previously he managed NASA's Mars Exploration Rover Project with rovers Spirit and Opportunity and the joint NASA-NSF Exoplanet Observational Research program. He teaches mathematics at Pasadena City College as an adjunct assistant professor. He holds a Ph.D. in Physics from Brown University.Talk:"The JPL Quantum Space Innovation Center"Abstract:The JPL Quantum Space Innovation Center is a virtual center within JPL to harness and leverage breakthrough quantum technologies that enable new science, and a Hub to build connections with universities and industry to exploit collaborative opportunities and develop a quantum workforce.3:30 pm - 4:00 pm (PST)Prof. Keivan Navi, Cal Poly PomonaKeivan Navi received his Ph.D. degree in Computer Architecture from Paris XI University, Paris, France, in 1995. He also received his M.Sc. degree in Electrical Engineering from Sharif University of Technology, Tehran, Iran in 1990. He was promoted to Full Professor in the Faculty of Electrical and Computer Engineering of Beheshti University. His research interests include but are not limited to: Quantum Computing, Cryptography, AI system design, Emerging Technology circuit design and Bio inspired Systems. He currently works at California Polytechnic, Pomona University and University of California, Irvine as lecturer and researcher.Talk:What is Quantum Arithmetic: FA and FA-2 Quantum Reversible GatesFacing limitations in traditional computing circuits, such as heat dissipation, energy loss, and computational errors, the field of quantum computing is exploring innovative solutions. These include reversible systems like arithmetic logic gates and majority circuit gates, designed to minimize information loss and decrease errors, thereby increasing efficiency. Further, techniques such as Full Adder (FA) and its advanced version, Full Adder2 (FA-2), are being implemented. These strategies are aimed at proactively averting errors through system design modifications and redundancy, respectively. This study focuses on designing a quantum reversible gate that simultaneously implements both FA and FA-2 operations, contributing to the development of quantum computers that are more efficient, accurate, and resilient. The successful creation and implementation of this gate could potentially broaden the design space for reversible arithmetic circuits and support scalable quantum computation.4:00 pm – 4:30 pm (PST)Prof. Nader Bagherzadeh, UCINader Bagherzadeh, an IEEE Fellow, is a Professor of Computer Engineering in the Department of Electrical Engineering and Computer Science at the University of California, Irvine, where he served as Department Chair from 1998 to 2003. Since earning his Ph.D. from the University of Texas at Austin in 1987, he has pioneered research in microarchitecture hardware/software optimization, reconfigurable computing, Network-on-Chip, and 3D IC systems. His current work focuses on next-generation frontiers, including machine learning accelerators and quantum computing. Professor Bagherzadeh has authored more than 350 articles in leading peer-reviewed journals and conferences.Talk:"Decoding the Quantum Frontier: AI-Driven Error Correction for Fault-Tolerant Computing"Nader Bagherzadeh, EECS, UCISamira Sayedsalehi, EECS, UCIAbstractThe path to fault-tolerant quantum computing is fundamentally gated by our ability to perform real-time Quantum Error Correction (QEC). While surface codes provide a robust geometric framework for topological protection, the classical control layer currently faces a scaling crisis. Traditional decoding algorithms, such as Minimum-Weight Perfect Matching (MWPM), are increasingly insufficient for large-scale lattices, struggling with both the exponential growth of computational complexity and the nuanced, correlated noise patterns inherent in modern hardware.In this talk, we present a paradigm shift in the QEC stack: replacing rigid classical decoders with adaptive, AI-driven neural architectures. We demonstrate how the 2D lattice geometry of surface codes can be effectively treated as a dynamic "image" problem, allowing for the application of Vision Transformer (ViT) and sequence-based Transformer models to decode syndrome signals. By leveraging self-attention mechanisms, these neural decoders can identify non-local error correlations that traditional algorithms miss, significantly improving logical error rates at scale.Beyond the algorithmic advantages, we explore the engineering realities of implementing these models within the cryogenic control loop. We discuss techniques such as model distillation, quantization, and FPGA-based co-processor integration, aimed at achieving the sub-microsecond latency required for real-time error correction. We conclude by framing the future of quantum computing not merely as a quest for more physical qubits, but as an optimization challenge for the classical "classical brain" that keeps those qubits alive. Attendees will gain an understanding of how integrating LLM-inspired architectures into the quantum stack is the essential, missing component for transitioning from noisy intermediate-scale devices to utility-scale fault tolerance.
- **Event URL**: https://allevents.in/pasadena/quantum-engineering-workshop-2026-caltech/100001988732779278
- **Event Categories**: it, science-fair, workshops, business, contests, virtual
- **Interested Audience**: 
  - total_interested_count: 0
- **Event Highlights**: 
  - Duration: 8 hours 50 minutes
  - Location: California Institute of Technology
  - Languages: English

## Ticket Details

- **Ticket Price Range**: min: 0, max: 0, currency: USD

## Event venue details

- **city**: Pasadena
- **state**: CA
- **country**: United States
- **location**: California Institute of Technology
- **lat**: 34.1376576
- **long**: -118.125269
- **full address**: California Institute of Technology, 1200 East California Boulevard, Pasadena, United States

## Event gallery

- **Alt text**: Quantum Engineering Workshop 2026, Caltech
  - **Image URL**: https://cdn-az.allevents.in/events6/banners/4813bff28f96a8a01c4f2573ad5bd0c1bdbbe55d5a699c63a4035b7d142a50d1-rimg-w1200-h808-dc2a2f33-gmir.jpg?v=1777862049

## FAQs

- **Q**: When and where is Quantum Engineering Workshop 2026, Caltech being held?
  - **A:** Quantum Engineering Workshop 2026, Caltech takes place on Thu, 28 May, 2026 at 08:40 am to Thu, 28 May, 2026 at 05:30 pm at California Institute of Technology, 1200 East California Boulevard, Pasadena, United States.
- **Q**: Who is organizing Quantum Engineering Workshop 2026, Caltech?
  - **A:** Quantum Engineering Workshop 2026, Caltech is organized by Dr. Farbod Khoshnoud.
- **Q**: Who is this event for? Is it right for me?
  - **A:** Quantum Engineering Workshop 2026, Caltech is ideal for curious learners, students, and skill-builders looking to gain hands-on knowledge and practical expertise in a focused, interactive setting. Whether you're a first-time attendee or a longtime enthusiast in Pasadena, this event is thoughtfully curated to deliver a standout experience worth every moment. If Quantum Engineering Workshop 2026, Caltech sounds like your kind of event, don't wait - spots fill up fast.

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