TQT Transformative Quantum Technologies logo
Login
  • En
  • Fr
Get Connected
TQT Transformative Quantum Technologies logo
Login
Get Connected

"Find People, Projects, etc."

Generic selectors
Exact matches only
Search in title
Search in content
Post Type Selectors
job
publications
equipment
media
research
projects
people
events
labs
Filter by Categories
Committee
Leadership
Science
Staff
  • Home
  • Research
  • Opportunities
  • Events
  • About
  • Get Connected
  • Institute for Quantum Computing

    Molecular Scale Magnetic Resonance Imaging

    Go Back Back

    More Topics

    grand challenge imaging device physics & astronomy sensing

    Summary

     

    Through its phenomenal ability to image soft tissues, magnetic resonance imaging (MRI) has revolutionized both clinical medicine and research biomedicine. Nowadays, MRI scanners used clinically have spatial resolutions in the range of 0.5 mm. This enables identification and monitoring of disease processes throughout the body and visualization of minute brain structures. Magnetic resonance microscopy (MRM) brings the resolution down to the micron scale, so that cells and parts of cells can be seen. Using ultrasensitive silicon nano-wired mechanical resonators, we are working to distinguish small ensembles of nuclear and electron spins. In doing so, we are striving to bring MR down to the nanometer scale, allowing imaging of single viral particles. Subsequently, extending the approach to the Angstrom scale, our goal is to demonstrate MR imaging of individual protein molecules.

     

    Principal Investigator (PI) or Team Coordinator

    Raffi Budakian

    sidebar icon sidebar icon sidebar icon
    Group sensing icon

    Share

    • Share on Twitter
    • Share on Facebook
    • Share on LinkedIn

    Related Content

    Quantum Material Multilayer Photonic Devices and Network
    TQT Computation

    Quantum Material Multilayer Photonic Devices and Network

    Summary  Realizing highly integrated quantum photonic devices on a chip can enable new opportunities for photonic quantum computation. In this project, we explore heterostructures of stacked two-dimensional (2D) materials, such transition metal dichalcogenides (TMDC) or graphene, combined with optical microcavities as a platform for such devices. 2D materials are extremely thin and flexible, and have […]

    December 12, 2019

    PI: Na Young Kim

    Skip Tags 2d carbon + 14 Additional

    • Share on Twitter
    • Share on Facebook
    • Share on LinkedIn
    • Go to Quantum Material Multilayer Photonic Devices and Network

    Fabrication of Ultra Low Noise RF SQUID Amplifiers

    A superconducting quantum interference device (SQUID) is an extremely sensitive magnetic field detector.

    June 1, 2017

    PI: Jan Kycia

    Skip Tags physics & astronomy seed fund + 1 Additional

    • Share on Twitter
    • Share on Facebook
    • Share on LinkedIn
    • Go to Fabrication of Ultra Low Noise RF SQUID Amplifiers
    Rydberg Atom Array Quantum Simulator
    TQT Computation

    Rydberg Atom Array Quantum Simulator

    Summary  Quantum simulators enable probing the static and dynamic properties of correlated quantum many-body systems that would otherwise be numerically inaccessible using classical simulators. We are developing quantum simulators based on arrays of neutral atoms excited to Rydberg states. Such Rydberg atom arrays are advantageous for simulating the dynamics of interacting spin systems (Ising spin […]

    February 27, 2020

    PI: Alexandre Cooper-Roy

    Skip Tags atom arrays computation + 8 Additional

    • Share on Twitter
    • Share on Facebook
    • Share on LinkedIn
    • Go to Rydberg Atom Array Quantum Simulator
    Cryo-CMOS to Control and Operate 2D Fault-Tolerant Qubit Network
    TQT Computation

    Cryo-CMOS to Control and Operate 2D Fault-Tolerant Qubit Network

    Summary   Large-scale, fault-tolerant quantum computation requires precise and stable control of individual qubits. This project will use complementary metal-oxide-semiconductor (CMOS) technology to provide a cost-effective scalable platform for reliable and high-density control infrastructure for silicon spin qubits. We will use sub-micron CMOS technology to address device and circuit-level challenges and explore the integration of […]

    June 14, 2018

    PI: Lan Wei

    Skip Tags CMOS computation + 3 Additional

    • Share on Twitter
    • Share on Facebook
    • Share on LinkedIn
    • Go to Cryo-CMOS to Control and Operate 2D Fault-Tolerant Qubit Network

    Connect with Us

    Join us at the frontier of quantum technology development. Request a visit, explore opportunities, and stay informed.

    Get Connected
    TQT Logo
    First Canada Logo
    • twitter icon
    • facebook icon
    • youtube icon
    • Home
    • Research
    • Opportunities
    • Events
    • About
    • Get Connected
    • Institute for Quantum Computing
    TQT Logo
    • Home
    • Research
    • Opportunities
    • Events
    • About
    • Get Connected
    • Institute for Quantum Computing
    • twitter icon
    • facebook icon
    • youtube icon
    First Canada Logo
    TQT Logo
    • twitter icon
    • facebook icon
    • youtube icon
    • Research
    • Overview
    • Updates
    • Projects
    • Publications
    • Labs
    • Quantum Innovation Cycle
    • Opportunities
    • Overview
    • Quantum for Health Design Challenge
    • Quantum Seed
    • Technology Development
    • Open Positions
    • Events
    • All Events
    • About
    • Overview
    • People
    • Media
    • Contact
    First Canada Logo