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Grant-Funded Projects

Leading innovative research projects that advance the frontiers of quantitative MRI

Driving Innovation Through Collaboration

Our grant-funded projects demonstrate GSP's leadership in advancing quantitative imaging through partnerships with world-class institutions

NEUROQUANT

Active

Neurovascular MR Coil Powered by Quantitative Neuroimaging Technologies

£213K

Innovate UK & InnoSuisse

2025-2026

Multi-partner consortium developing advanced phantoms and protocols for quantitative brain imaging.

Key Objectives

  • Design novel phantoms for neuroimaging applications
  • Integrate field monitoring technology for enhanced accuracy
  • Develop optimised RF coil configurations
  • Establish new standards for brain quantification

Project Partners

Skope MR Technologies
Skope MR Technologies

Field monitoring technology

MR CoilTech
MR CoilTech

RF coil optimisation

Expected Impact

Setting new standards for quantitative neuroimaging, particularly for neurodegenerative disease research.

MARRS

Active

MedTech Accelerator: Rapid Regulatory Support Fund

£30K

CPI

2025

Accelerated regulatory support to fast-track medical device approvals and market entry.

Key Objectives

  • Expedite regulatory pathway for key products
  • Enhance compliance documentation
  • Accelerate time-to-market for new innovations

Expected Impact

Reducing regulatory approval timelines and accelerating delivery of innovation to clinical practice.

CHARM

Active

Calibration for Hyperpolarised Applications in Research and Medicine

£440K

Innovate UK

2024-2025

Comprehensive calibration solution for hyperpolarised 13C-labelled pyruvate MRI (metabolic MRI), enabling standardised assessment across hospitals.

Key Objectives

  • Develop calibration kit for metabolic MRI
  • Create advanced engineering prototype phantom
  • Establish online calibration platform
  • Integrate calibration into data processing tools
  • Validate solution at multiple clinical sites

Project Partners

University College London
University College London

Clinical validation and research

N-Vision Imaging
N-Vision Imaging

Hyperpolariser technology

Expected Impact

Enabling distinction between aggressive and indolent prostate cancers, avoiding overdiagnosis and overtreatment through standardised metabolic imaging.

PREDICT

Active

Prostate Cancer Diagnosis Enhancement through Calibrated Imaging

£2.0M

EIC Accelerator

2023-2025

Revolutionary in-vivo calibration technology for enhanced prostate cancer diagnosis using the METRION embedded phantom system.

Key Objectives

  • Develop temperature-stable embedded phantom for patient scanning
  • Create AI-powered calibration software for real-time ADC correction
  • Clinical validation across 3 UK hospitals
  • Regulatory approval pathway for CE marking and FDA approval

Project Partners

University College London
University College London

Clinical validation

National Physical Laboratory
National Physical Laboratory

Metrology standards

Bioxydyn
Bioxydyn

Data management and analytics

Expected Impact

Reducing ADC measurement variability to under 5%, enabling quantitative biomarkers for prostate cancer.

2 peer-reviewed conference abstracts to date

HealthTech Regulatory Programme

Completed

HealthTech Regulatory and Innovation Programme

£30K

CPI

2022-2023

Regulatory support programme to enhance compliance and accelerate product development.

Key Objectives

  • Strengthen regulatory compliance framework
  • Develop robust quality management systems
  • Accelerate regulatory approvals

Expected Impact

Enhanced regulatory readiness and compliance infrastructure for medical device development.

Statistical Inference for DWI

Completed

Statistical Inference for Diffusion Measurements in Prostate MRI

£27K

Innovate UK (A4I)

2022-2023

Advanced statistical methods for improving the accuracy and reliability of diffusion-weighted imaging measurements.

Key Objectives

  • Develop robust statistical inference frameworks
  • Improve measurement precision in prostate DWI
  • Create validation methodologies

Project Partners

National Physical Laboratory
National Physical Laboratory

Metrology standards

Expected Impact

Enhanced statistical rigor in quantitative diffusion imaging for prostate cancer assessment.

ASPIRE (Eurostars)

Completed

ASL Scanner- and Patient-Independent Robust Diagnostic Evaluation

£531K

Eurostars

2020-2023

Development of the QASPER phantom for standardised ASL perfusion imaging and one-click perfusion analysis software (ExploreASL) for contrast agent free brain imaging.

Key Objectives

  • Develop QASPER phantom for multi-site ASL calibration
  • Create one-click perfusion analysis prototype (ExploreASL)
  • Establish scanner-independent perfusion standards
  • Enable automated ASL image analysis for clinical workflows
  • Support Alzheimer's Disease diagnosis and treatment monitoring

Project Partners

mediri GmbH
mediri GmbH

Image analysis software (mTRIAL platform)

Hochschule Darmstadt
Hochschule Darmstadt

Research and development

Amsterdam UMC
Amsterdam UMC

Clinical validation

Expected Impact

Delivered QASPER phantom for reliable ASL imaging calibration and ExploreASL software integrated into mTRIAL platform for automated perfusion analysis in clinical trials and neurodegenerative disease research.

Automatic Calibration for Prostate MRI

Completed

Automatic Calibration of Quantitative Imaging Biomarkers for Increased Precision in Prostate Cancer Detection

£100K

Innovate UK

2018-2019

Pioneering work on automated calibration systems for quantitative biomarkers in prostate cancer imaging.

Key Objectives

  • Develop automated calibration workflows
  • Improve biomarker precision
  • Reduce operator variability

Expected Impact

Foundation for current automated calibration technologies in prostate MRI.

Porous Modelling for Perfusion

Completed

Porous Modelling within a Perfusion Phantom

£102K

Innovate UK (A4I)

2018-2019

Advanced modelling of porous materials to create realistic perfusion phantom tissue mimics.

Key Objectives

  • Model porous media for perfusion simulation
  • Develop tissue-mimicking materials
  • Validate against in-vivo perfusion

Project Partners

National Physical Laboratory
National Physical Laboratory

Metrology standards

Expected Impact

Advanced phantom materials enabling more realistic perfusion imaging validation.

Traceable MRI Perfusion Calibration

Completed

Traceable Calibration for MRI Perfusion Measurement

£50K

Innovate UK (A4I)

2017-2018

Investigating metrological traceability for MRI perfusion measurements.

Key Objectives

  • Develop traceable perfusion standards
  • Link MRI measurements to SI units
  • Establish calibration protocols

Project Partners

National Physical Laboratory
National Physical Laboratory

Metrology standards

Expected Impact

Foundation for NIST-traceable perfusion imaging standards.

QASPER Development (Phase 2)

Completed

A Gold Standard Perfusion Phantom for Quantitative MRI: Phase 2

£1.0M

SBRI

2016-2017

Full development and commercialisation of the QASPER perfusion phantom.

Key Objectives

  • Complete QASPER phantom engineering
  • Achieve regulatory clearance
  • Establish manufacturing processes
  • Launch commercial product

Expected Impact

QASPER became the world's first commercial ASL perfusion phantom, now used globally.

15 peer-reviewed publications to date

QASPER Development (Phase 1)

Completed

A Gold Standard Perfusion Phantom for Quantitative MRI: Phase 1

£100K

SBRI

2015

Feasibility study and prototype development for the QASPER perfusion phantom.

Key Objectives

  • Demonstrate technical feasibility
  • Develop initial prototype
  • Validate concept with clinical partners

Expected Impact

Proof of concept that led to QASPER and GSP's founding.

Innovation by Numbers

£4.6M

Grant Funding Secured

30+

Research Partners

12

Research Projects

27

Publications

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