Diabetic neuropathy causes severe disability, with pain, loss of sensation and weakness. The current project will assess the utility of a new testing method, known as nerve excitability assessment, as a method of detecting early changes in nerve function in diabetic patients. If this technique proves useful in detecting early nerve damage, it will assist in the development of therapeutic and preventative treatments for neuropathy in diabetic patients.
Nerve Excitability Assessment: A Novel Biomarker For The Early Detection Of Diabetic Neuropathy.
Funder
National Health and Medical Research Council
Funding Amount
$375,203.00
Summary
Australia has one of the highest rates of diabetes in the world. Diabetes may be complicated by the development of nerve damage, causing weakness and pain in the upper and lower limbs. The cause remains unclear and there are no tools available for its early detection. This study will provide further information about the cause of diabetic neuropathy and will investigate more sophisticated means for its early detection.
The Biophysical Basis Of HCN Channels In Human Peripheral Nerve
Funder
National Health and Medical Research Council
Funding Amount
$50,315.00
Summary
Hyperpolarization-activated cyclic nucleotide-gated (HCN) channels play an important role as pacemakers in the cardiac and nervous systems. HCN channel dysfunction is implicated in a number of disorders including neuropathic pain and epilepsy. My aim is to determine the kinetics and voltage dependence of HCN channels in human peripheral nerve in vivo. Understanding these channels is a prerequisite to the development of safe targeted therapies against neuropathic pain.
Promoting Regrowth Of Nerve Fibres Into The Epidermis During Diabetic Neuropathy By LRP Agonists
Funder
National Health and Medical Research Council
Funding Amount
$427,102.00
Summary
Nerve damage can develop post injury or disease and is often very debilitating, slow to heal and can cause increased pain. Our work aims to examine a new class of molecules that we show can activate selected fat-receptors on nerve cells to guide the growth of regenerating nerves. We will determine how these receptors function with the aim of developing a novel class of therapeutics directed at healing nerve damage.