Trapped-Ion Quantum Computers - cloud emulator and H-Series devices
Awarded
The competition has ended and a winner has been selected.
- Qualification deadline
- Jun 17,Expired
- Award
Brief
Danmarks Tekniske Universitet - DTU has entered into an agreement with Quantinuum to deliver cloud access to high-fidelity trapped-ion quantum computing hardware and its efficient emulation software for a research project in Byen København. The services, which include 80,000 HQC credits and 400,000 emulator credits, are for a duration of 1 year, with a total value of 840,000 USD. The project requires access to a quantum computing platform with fully connected qubits, capable of mid-circuit measurement, and efficient emulation software that can emulate hardware-specific noise, to demonstrate a novel Quantum Phase Estimation (QPE) algorithm on real quantum hardware.
Datamaskinhandel og tilhørende utstyr
Result
- QuantinuumWinner
- 1Number of bids
- $840,000Contract value
Custom Assessment Criteria
Get answers to your bid/no-bid criteria
Set them up once and Cobrief answers them in every tender
Will you bid?
The agent sets up the bid and writes the first draft. Free for 14 days.
Award Criteria
Description
Given the nature of the procurement, quality constituted a decisive factor
Source
No source found in the documents. Check the weight against the tender documents.
Previous winners
Who are you up against?
The suppliers who have won similar contracts at Danmarks Tekniske Universitet - DTU
From the notice
Type: Cloud access to high fidelity trapped-ion quantum computing hardware, with fully connected qubits and capable of mid-circuit measurement, as well as cloud access to its efficient emulation software capable of emulating hardware-specific noise. Amount: HQC credits: 80,000 Emulator credits: 400,000 The research project, for which this quantum computing access is needed, aims to demonstrate a novel Quantum Phase Estimation (QPE) algorithm on real quantum hardware. The experiment targets an ion-trap platform with full connectivity and high-fidelity two-qubit gates that is ideally suited for testing the scalability and practical feasibility of energy-estimation algorithms in quantum chemistry. The project will compute ground-state energies of small to intermediate molecular Hamiltonians characterized by all-to-all fermionic interactions – systems that challenge traditional computational chemistry methods. By running the algorithm across systems of increasing size (range of several dozen qubits) and varying circuit depths (up to thousand two-qubit gates), the project will map the trade-off between precision and scalability.
Contact
Anna Storchaasst@dtu.dk- Result · PrequalificationType
- Byen KøbenhavnLocation
- 30211100Main codeSuper computer