THEME: "Novel Insights and Challenges in Neurology and Therapeutics"
CEO, QuantalX Neuroscience Ltd, Israel
Title: DELPHITM In the Detection Of Neurological Conditions And White Matter Pathologies
Dr. Iftach Dolev is a Neuroscientist and an
entrepreneur. He completed his PhD and Post-Doctoral fellowship at the Tel-Aviv
University in the field of Neuroscience during which he specialized in
electrophysiology and non-invasive brain stimulation at Harvard Medical School.
Iftach is the co-founder and CEO of QuantalX NeuroScience developing the DELPHI
technology, the first bed-side tool for the evaluation and monitoring of brain
function in health and disease using direct, non-Invasive, patient independent
brain Network Electrophysiology.
The
disruption of normal patterns of structural brain connectivity is believed to
play a central role in the pathophysiology of many neurological and psychiatric
disorders, such as, dementia, movement disorders, stroke, traumatic brain
injury (TBI) etc., Particularly, white matter changes lay in the heart of the
onset of many pathologies.
Traditional brain imaging technologies are expensive,
inaccessible, and fail to provide actionable insights regarding brain network
health. Therefore, there is a huge need, for a simple, precise and accessible
tool that objectively evaluates brain functional status.
DELPHITM is an active system for the
visualization of brain health. It is a proprietary acquisition and analysis AI
based algorithm that interfaces with available ‘Off-the-Shelf’ hardware to
enable direct stimulation and monitoring of the brain (TMS-EEG).
DELPHI’s output measures, which are indicative for
several electrophysiological features were significantly different between age defined
groups as well as mild Dementia patients and age matched healthy controls.
In a
multidimensional approach the DELPHI output measures ability in identification
of brain white matter fibres connectivity damage in stroke and traumatic brain
injury (TBI) was tested. DELPHI output measures were able to classify healthy
from unhealthy with a balanced accuracy of 0.81±0.02 and AUC of 0.88±0.01. additionally,
DELPHI output measures, differentiated successfully, between cerebral small vessle
disease (cSVD) diagnosed subjects and age matched healthy controls, with AUC of
0.88 (p<0.0001), sensitivity of 0.83 and specificity of 0.75.
These
results indicate DELPHI as a possible aid for early detection of white matter integrity
and pathologies.