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All Federal Grant Awards
Project Grant FA95502310636
Award Date
9/1/23
Completion Date
8/31/27
Dollars Obligated
$2.6M
Overview
Activity
2
Transactions
2
Subawards
2
Similar Awards
Funding Federal Agency
USAF DFAS
Awarding Federal Agency
Air Force Research Laboratory
Awardee
University Of Notre Dame DU Lac (FPU6XGFXMBE9)
Federal Grant Program
12.800
Assistance Type
Project Grant
Place of Performance
Indiana, USA
Update #1
Update #2
LONG-COHERENCE HIGH-FIDELITY ELECTRON QUBITS ON QUANTUM SOLIDS
Posted 8/24/23
5
1
Mod #
Description
ReasonForModification
Federal Obligation
Date
Not listed
LONG-COHERENCE HIGH-FIDELITY ELECTRON QUBITS ON QUANTUM SOLIDS
$444.1k
6/3/26
Not listed
LONG-COHERENCE HIGH-FIDELITY ELECTRON QUBITS ON QUANTUM SOLIDS
$2.2m
8/24/23
5
1
GrantNumber
Description
Subgrantee
Prime Award
Dollars Obligated
Updated At
204833SUS
In this 4-year program, the Stanford team will closely collaborate with the Notre Dame and Harvard teams and play critical roles in the following tasks: 1. Setting up a dilution refrigerator system that can produce the electron-on-solid-neon (eNe) two- dimensional electron system (2DES) and conduct the quantum microwave and transport measurements described in the proposal. 2. Designing and fabricating eNe-based spin-qubit devices with spin-motion coupling enabled by a magnetic field gradient from a micromagnet and/or a line current. 3. Achieving eNe-based spin qubits driven by quantum microwaves via electric dipole spin resonance (EDSR) and readout via dispersive shift. 4. Characterizing the key performance metrics (relaxation time, coherence time, gate fidelity, and readout fidelity) of the eNe spin qubits. 5. Exploring various techniques to enhance the charge-photon and spin-photon coupling strength. 6. Pursuing two-qubit entangling gates and characterizing the two-qubit gate fidelity. 7. Proposing or making some prototype devices that show unique scalability of the eNe qubit platform in 1D, 2D, or 3D. 8. Developing some software or firmware for integrated multi-qubit measurements.
The Leland Stanford Junior University
Project Grant FA95502310636
$876.8k
8/27/26
204833HCS
In this 4-year program, the Harvard team will closely collaborate with the Notre Dame and Stanford teams and play critical roles in the following tasks: 1. Setting up a new dilution refrigerator system that can produce the electron-on-solid-neon (eNe) two- dimensional electron system (2DES) and conduct the quantum microwave and transport measurements described in the proposal. 2. Performing comprehensive transport studies of the eNe 2DES and pushing the system into the quantum- degeneracy regime with highest possible electron density and mobility. 3. Fabricating aluminum (Al) Josephson-junction-based single-electron transistors (SETs) on sapphire or silicon substrates and using such SETs as charge sensors to demonstrate single-electron counting for eNe. 4. Achieving eNe-based double-quantum-dot (DQD) charge qubits and utilizing the made SETs for charge-state readout. 5. Characterizing the key performance metrics (relaxation time, coherence time, gate fidelity, and readout fidelity) of the eNe DQD charge qubits. 6. Exploring various ways to couple two eNe DQD charge qubits, including but not limited to using straight niobium (Nb) capacitive couplers and titanium nitride (TiN) high kinetic-inductance superconducting resonators. 7. If the quantum-degeneracy regime for the eNe system (refer to #2 above) is experimentally reachable, pursuing to realize eNe-based spin singlet-triplet (ST0) qubits. 8. If the quantum-degeneracy regime for the eNe system (refer to #2 above) is experimentally challenging, carrying out some studies of the classical Wigner phase in the eNe 2DES.
President And Fellows Of Harvard College
Project Grant FA95502310636
$639.3k
7/24/26