HypFlow | Inexhaustible Spring of Hyperpolarization For Magnetic Resonance

Summary
Nuclear magnetic resonance (NMR) has become a well-established and versatile tool in numerous fields of research and in industry, but features a relatively low sensitivity which prevents solving today’s most pressing challenges in modern science.
Hyperpolarization by dissolution dynamic nuclear polarization (dDNP) provides a partial solution by enhancing sensitivity 10’000-fold. However, hyperpolarized solutions are available only once (single-shot), and are contaminated and diluted. This is incompatible with most NMR experiments, except for some niche applications.
HypFlow will reach the ground-breaking overall aim of providing inexhaustible (multi-shot) and pure (unpolluted and undiluted) hyperpolarization, thus truly compatible with NMR by:
1) designing and building a pulsed-DNP freeze&flow polarizer,
2) integrating the use of hyperpolarizing matrices with polarized electrons, and
3) validating multi-scan applications in metabolomics, drug discovery, and chemistry.
Liquid NMR samples will freeze in the HypFlow system where high levels of polarization will be generated, will then melt and flow toward the spectrometer, and will recirculate repeatedly. This will offer, for the first-time, inexhaustible and pure hyperpolarization with a 10’000-fold boost in sensitivity.
The PI has a unique combined leading expertise in most recent instrumental, methodological and chemical developments in dDNP that will empower him to tackle the scientific challenges of HypFlow.
HypFlow will deepen the fundamental scientific knowledge of nuclear and electron spin polarization generation, transfer, and relaxation phenomena. It will enable detection of hyperpolarized samples in a fully compatible way with a broad range of NMR applications, radically transforming and democratizing the practice of hyperpolarized NMR in research laboratories and industries.
Results, demos, etc. Show all and search (0)
Unfold all
/
Fold all
More information & hyperlinks
Web resources: https://cordis.europa.eu/project/id/101044726
Start date: 01-01-2023
End date: 31-12-2027
Total budget - Public funding: 2 990 000,00 Euro - 2 990 000,00 Euro
Cordis data

Original description

Nuclear magnetic resonance (NMR) has become a well-established and versatile tool in numerous fields of research and in industry, but features a relatively low sensitivity which prevents solving today’s most pressing challenges in modern science.
Hyperpolarization by dissolution dynamic nuclear polarization (dDNP) provides a partial solution by enhancing sensitivity 10’000-fold. However, hyperpolarized solutions are available only once (single-shot), and are contaminated and diluted. This is incompatible with most NMR experiments, except for some niche applications.
HypFlow will reach the ground-breaking overall aim of providing inexhaustible (multi-shot) and pure (unpolluted and undiluted) hyperpolarization, thus truly compatible with NMR by:
1) designing and building a pulsed-DNP freeze&flow polarizer,
2) integrating the use of hyperpolarizing matrices with polarized electrons, and
3) validating multi-scan applications in metabolomics, drug discovery, and chemistry.
Liquid NMR samples will freeze in the HypFlow system where high levels of polarization will be generated, will then melt and flow toward the spectrometer, and will recirculate repeatedly. This will offer, for the first-time, inexhaustible and pure hyperpolarization with a 10’000-fold boost in sensitivity.
The PI has a unique combined leading expertise in most recent instrumental, methodological and chemical developments in dDNP that will empower him to tackle the scientific challenges of HypFlow.
HypFlow will deepen the fundamental scientific knowledge of nuclear and electron spin polarization generation, transfer, and relaxation phenomena. It will enable detection of hyperpolarized samples in a fully compatible way with a broad range of NMR applications, radically transforming and democratizing the practice of hyperpolarized NMR in research laboratories and industries.

Status

SIGNED

Call topic

ERC-2021-COG

Update Date

09-02-2023
Images
No images available.
Geographical location(s)