{
  "api": "assay-systems/v1",
  "key_tier": "none",
  "retrieved": "2026-10-16T06:29:32Z",
  "source": "Assay Systems register, https://assay-systems.com/register/",
  "access_notice": "On 15 November 2026, automated access to assay-systems.com closes. After that date, access is available only under a paid annual subscription contract. Contact: contact@assay-systems.com",
  "data": {
    "id": "ASY-CA-1EOZVRS14U",
    "type": "grant",
    "country": "ca",
    "name": "University of Warwick: federal grants and contributions",
    "url": "https://assay-systems.com/register/ca/grants/r/university-of-warwick/",
    "summary": "2 federal grant and contribution agreements worth $1.0M with University of Warwick, 2022–2025.",
    "figures": [
      {
        "label": "agreements",
        "value": 2,
        "unit": "count"
      },
      {
        "label": "value",
        "value": 1000000,
        "unit": "money",
        "currency": "CAD",
        "approximate": true,
        "display": "$1.0M"
      },
      {
        "label": "departments",
        "value": 1,
        "unit": "count"
      },
      {
        "label": "programs",
        "value": 1,
        "unit": "count"
      }
    ],
    "text": [
      "The project focuses on developing an advanced, high-sensitivity magnetic field sensor utilizing a novel quantum material system based on a twodimensional hole gas (2DHG) in compressively strained germanium on silicon (cs-GoS). Magnetic field sensing is essential in various applications, from healthcare and automotive industries to quantum computing and space exploration. Existing sensors, such as those using NV centres, NMR or classical Hall effect technology, have limitations in scalability, stability, cost, and sensitivity. The cs-GoS-based sensors aim to overcome these challenges, offering",
      "A new material platform based on hole Ge/SiGe structures for quantum applications will be developed. This material is fully compatible with the large-scale state-of-the±art silicon foundries for mass production and also has a number of attractive superior properties compared to other material systems. Quantum dot devices containing just a few holes will be developed. A special attention will be paid to improved sensitivity and the bandwidth of quantum spin readout sensors based on Superconducting Quantum Interference Devices (SQUID). A fast sensitive readout is critical in quantum technologies"
    ],
    "records": [
      {
        "name": "in the contract register",
        "url": "https://assay-systems.com/register/ca/university-of-warwick/"
      },
      {
        "name": "grants and contributions register",
        "url": "https://assay-systems.com/register/ca/grants/"
      },
      {
        "name": "National Research Council Canada",
        "url": "https://assay-systems.com/register/ca/grants/department/national-research-council-canada/"
      }
    ],
    "assay_record": "ASY-CA-1EOZVRS14U",
    "cite_as": "Assay Systems, \"University of Warwick: federal grants and contributions\", https://assay-systems.com/register/ca/grants/r/university-of-warwick/"
  }
}