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NeuroXess

NeuroXess develops high-density, flexible brain electrodes for invasive brain-computer interfaces. These electrodes are designed to advance brain research and aid in disease diagnosis by providing detailed neural data.

Updated 2 months ago

Funding

Funding not disclosed

ZC
Funding rounds are not available yet.

Founders

Product

Problem

Current invasive brain-computer interfaces rely on rigid electrodes that can cause inflammation and damage to neural tissue, limiting long-term performance and biocompatibility. Existing technologies also struggle to capture high-resolution neural data from a large number of neurons simultaneously, hindering advancements in brain research and disease diagnosis.

Solution

NeuroXess is developing flexible, high-density brain electrodes for invasive brain-computer interfaces, designed to minimize tissue damage and maximize neural data acquisition. Their electrodes utilize a proprietary microfabrication process to create ultra-thin, flexible circuits that conform to the brain's surface, reducing inflammation and improving long-term stability. These electrodes enable the simultaneous recording of neural activity from thousands of channels, providing detailed insights into brain function and potential therapeutic interventions. The company's technology aims to advance brain research and improve the diagnosis and treatment of neurological disorders.

Target Audience

The primary customers are neuroscientists, clinical researchers, and medical professionals focused on brain research, neurological disorder diagnosis, and the development of brain-computer interface technologies.

Features

  • High-density electrode arrays with up to 2048 channels for comprehensive neural recording
  • Flexible and biocompatible materials to minimize tissue damage and inflammation
  • Microfabricated circuits for precise electrode placement and signal acquisition
  • Integrated system for neural signal acquisition, processing, and analysis
  • Solutions for collecting neuronal action potential (Spike) signals, local field potential (LFP) signals, and electrocorticography (ECoG) signals
  • Cloud-based algorithm platform (MindExplorer) for data analysis and visualization
  • Intelligent surgical robot for precise electrode implantation
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