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Professor Mark Wheatley and collaborators from Aston University, Dr John Simms and Professor David Poyner, have been awarded a grant of £177,497 from the BBSRC Follow-on Fund to develop new technology that will potentially revolutionise the drug discovery process.
Using Real-Time Cell Metabolic Analysis to establish how physiological and pathophysiological concentrations of FA impact mitochondrial function, capacity and substrate utilisation in human skeletal muscle cells.
This project focused on enhancing physical activity with aging people through recreational football activities.
The main focus of CARD is to support allied health professionals working in the NHS undertake translational research, particularly in the field of nursing.
Dr Christopher Mee's project looking at the ability of the liver to fully regenerate after injury.
The use of a blended diet as an alternative to prescribed formula feeds has provoked strong opinion in research and among professionals. The aims of the report will be to examine the evidence for best practice with regards to providing a blended diet via gastrostomy tube.
Coventry University were tasked with providing a longitudinal evaluation of the Teenage Cancer Trust's pilot scheme in the North West.
Professor Mark Wheatley and collaborators have been awarded a grant from the BBSRC to investigate the G-protein-coupled receptor (GPCR) family of proteins.
This study sought to pilot an innovative intervention for pre-schoolers whereby movement is linked to storytelling in a fun and accessible manner.
This project examined the effect of engaging in the BWF Shuttle Time programme, compared to traditional Physical Education, on children's current and future engagement in sport and physical activity and health.
The commercialisation of Professor Maddock's academic research started with a vision that there was a fundamental need within the Pharmaceutical Industry for the development of improved physiological relevant model to assess cardiac contractility.
We seek to apply cutting-edge advanced sampling molecular dynamics simulations to address the complex biological issue of how G protein-coupled receptors (GPCRs) transition between multiple active states.
This research considers ways we can deliberately “manipulate” our predictive brains by using various interventions to modify our beliefs/expectations about an important perceptual-motor skills.
The aim of this project was to test the concept of a higher throughput functional cardiac cell contractile assay under truly physiological conditions, advancing information on how the heart behaves functionally and enabling the testing of inotropic drugs in these conditions.
A lifestyle intervention designed by people with POTS, for people with POTS.
This project carried out a longitudinal evaluation of the model of care delivered to children, young people and families with complex care needs by organisation WellChild.
In 2015 the UK Government gave Sport England a new remit to support children aged 5-14 years. SE commissioned Duncan, Eyre and colleagues to undertake a review (completed in March 2017) to inform the body’s response to this.
Contractome-AI’s combination of novel assay and computational methods improves early detection of heart contractility issues, helping avoid expensive downstream problems.
The goal of the project is to identify and subsequently characterise the dsRNA dimension of the animal gut microflora (both the differential presence of antisense bound to mRNA and phage dsRNAs containing novel genetic information in response to AB pressure). Identification of novel functional dsRNAs (asRNA bound to its target and phage dsRNAs involved in AR) will mark a paradigm shift in our understanding of the development of AR and future approaches to treating infections.
The aim of the project is to assess heart rate variability using novel disposable ECG leads in healthy subjects, and to assess the agreement between heart rate variability measures obtained using disposable and reusable electrocardiography leads.