Invention Description
Treating and monitoring deep brain regions is challenging due to the limitations of current neurotechnology, which often relies on invasive implants or inefficient transcranial methods. These approaches can involve surgical risks, bulky hardware, and limited precision in targeting specific neural pathways. Additionally, delivering energy or therapeutic effects deep within the brain remains difficult without compromising safety or effectiveness.
Researchers at Arizona State University have developed an advanced neurotechnology that utilizes a novel and unexplored anatomical pathway to deliver electromagnetic energy directly to deep brain regions. This system enables wireless, battery-free neurostimulation and sensing with improved power efficiency and communication reliability. It allows precise modulation of neural pathways involved in conditions such as opioid addiction and chronic pain, and supports targeted hyperthermia treatment for deep brain tumors like pituitary adenomas. By avoiding invasive implants and overcoming the limitations of traditional transcranial approaches, the platform improves safety, reduces device size, and enhances scalability for clinical use.
This novel, minimally invasive platform enables efficient wireless delivery of RF electromagnetic energy to deep brain structures for neuromodulation, sensing, and therapy.
Potential Applications
- Wireless closed-loop neurostimulation systems for epilepsy and neurological disorders
- Noninvasive neuromodulation therapies targeting addiction and chronic pain pathways
- Precise hyperthermia treatment for deep brain tumors including pituitary adenomas
- Implantable, battery-free neuromodulation and neural sensing devices
- Research tools for investigating neural activity modulation and brain disorder treatment
- Medical devices addressing opioid addiction and postoperative pain based on electrophysiological modulation
Benefits and Advantages
- Minimally invasive access via wireless devices
- Wireless and battery-free operation for long-term implantable neurostimulation and sensing
- Enhanced electromagnetic power delivery efficiency and communication through a favorable anatomical path reducing signal attenuation
- Wide frequency range utilization enabling versatile RF pulse designs
- Reduced hardware footprint
- Improved safety profile with diminished tissue heating and off-target effects
- Capability for precise localized stimulation and thermal control
- Supports multifunctional applications including electrical stimulation, sensing, and hyperthermia therapy
- Compatible with magnetic nanomaterial-enhanced tumor treatments