Contractor for IQDA project | Relevant industry problems for DAQ and DAQC

20. September 2024

We are looking for contractors for our IQDA project to solve relevant industrial problems using Digital Analog Quantum Computing (DAQ) and Digitised Adiabatic Quantum Computing (DAQC). Participation in the tender process is possible under TED 546134-2024 | Subreport E31374892. The submission deadline is 15 October 2024 at 2 pm.


The IQDA project of the DLR Institute of Software Technologies will further develop and optimise the promising technology of ion traps for digital-analogue quantum computing. Ion traps are one of the leading platforms in quantum computing, as they make it possible to precisely control individual ions and utilise them as quantum bits (qubits). Due to their stability and reliability, these qubits can be used particularly well for complex quantum calculations. Within the IQDA project, a particular focus is on researching and implementing technologies for Digitised Adiabatic Quantum Computing (DAQC) and Digital-Analog Quantum Computing (DAQ). In DAQC, the adiabatic computing process, in which the system is slowly transformed from an initial state to a final state, is converted into a sequential digital form. This allows the benefits of adiabatic processes to be utilised while retaining the flexibility and precision of digital control. The DAQ, on the other hand, combines digital and analogue calculation steps in a hybrid approach. This approach utilises the advantages of both worlds: The high precision and fault tolerance of digital controls are combined with the natural dynamics and efficiency of analogue systems. These hybrid approaches can deliver promising results, particularly when using ion traps, as the ions in the traps can be used for both digital logic gates and analogue interactions.

The IQDA project aims to adapt these advanced computing methods specifically to the properties and challenges of ion traps. Co-design elements are also being integrated to enable close integration of hardware and software development. By combining digital and analogue quantum computing, more efficient and scalable quantum computers could be developed in the future that fully exploit the advantages of both computing approaches. The research conducted as part of the IQDA project is therefore making a decisive contribution to laying the foundations for the next generation of quantum computers.

Cooperation in the IQDA project

Specifically, as part of this mandate, we require, among other things

  • the development of relevant industrial problems that are solved with the help of Digital Analog Quantum Computing and Digitised Adiabatic Quantum Computing,
  • the provision of a library for problems that are solved using quantum algorithms on ion traps. Focus: Quantum Fourier Transform and Quantum Approximate Optimisation Algorithm (QAOA). Other algorithms can also be treated,
  • the provision of a pool of problems for both simulation and hardware purposes (taking into account the coherence time and the available qubits) & integration of the library into the software to be delivered,
  • the delivery of software for the translation (compiler) of the above-mentioned algorithms in Digitised Adiabatic Quantum Computing Frame into logical qubits,
  • The delivery of simulation software that simulates the compiled circuits on ion traps. (The software should include a package to simulate noise and possible error sources & error mitigation methods should be implemented in the simulation software to minimise noise after the readout process),

All information can be found in the tender documents including the specifications under TED 546134-2024 | Subreport E31374892.