Research & Development – ​​neural prostheses and AI

Research and Development in Neurological Prosthetics and Artificial Intelligence

• We develop innovative neurological prostheses, integrated with artificial intelligence, to significantly improve the quality of life of people with motor or neurological impairments.
• Pushing the Limits: Research and Development in Neurological Prosthetics and AI
• We are dedicated to the research and development of state-of-the-art neurological prostheses that use artificial intelligence to provide superior functionality and control. Our goal is to restore mobility, independence and quality of life for people with amputations, spinal cord injuries or other neurological conditions.
• Domeniile noastre cheie de cercetare includ:
  • Interfețe creier-computer (BCI): Dezvoltăm interfețe avansate care permit controlul intuitiv al protezelor prin activitatea cerebrală.
  • Algoritmi de inteligență artificială pentru controlul protezelor: Implementăm algoritmi de învățare automată care adaptează funcționarea protezei la nevoile și intențiile utilizatorului.
  • Senzori avansați și feedback senzorial: Integrăm senzori performanți pentru a oferi feedback tactil și proprioceptiv, îmbunătățind senzația de control și realism.
  • Materiale biocompatibile și design ergonomic: Utilizăm materiale avansate și design ergonomic pentru a asigura confortul și siguranța utilizatorului.

The Future of Mobility: Intelligent Neurological Prostheses

• We believe in a future where technology can overcome the limitations imposed by neurological conditions. Through our research, we aim to provide innovative solutions that enable prosthetic users to live more active and independent lives.
• Beneficiile tehnologiei noastre:
  • Control intuitiv și natural: Interfața creier-computer și algoritmii AI permit un control precis și natural al protezei.
  • Adaptabilitate personalizată: Proteza se adaptează la nevoile și stilul de viață al fiecărui utilizator.
  • Îmbunătățirea mobilității și independenței: Utilizatorii pot efectua activități zilnice cu mai multă ușurință și încredere.
  • Creșterea calității vieții: Refacerea mobilității contribuie la îmbunătățirea stării emoționale și a calității vieții.

Partnerships for Innovation: Research in Neurological Prosthetics and AI

• We collaborate with research institutes, universities and medical and technology companies to accelerate the development of intelligent neurological prostheses. We believe in the power of interdisciplinary collaboration to bring about significant innovation in this field.

EXAMPLES OF RESEARCH PROJECTS

There are many innovative projects in neurological prosthetics research, and the field is evolving rapidly. Here are some of the key directions and projects, grouped by category for better understanding:

Advanced Brain-Computer Interfaces (BCIs):

• Improved non-invasive BCIs: More advanced EEG (electroencephalography) technologies are being developed that can decode brain signals with greater precision without requiring surgery. The goal is to enable finer and more intuitive control of prosthetics by thought alone.
• Minimally Invasive BCIs: These involve the implantation of small electrodes on the surface of the brain or inside it, providing a higher signal quality than EEG. A notable example is the technology developed by Neuralink (Elon Musk's company), which uses very fine electrodes to read neural activity.
• Decoding complex intentions: Researchers are focusing on developing algorithms that can decode not only simple movements, but also more complex intentions, such as grabbing an object with a certain force or performing coordinated movements.

AI Integration

• Adaptive learning: Machine learning algorithms allow prosthetics to adapt to the lifestyle and specific needs of each user. The prosthesis "learns" from user interaction and optimizes its performance over time.
• Predictive control: AI is used to anticipate the user's intentions and initiate prosthetic movements even before the user consciously executes them, providing a more natural experience.
• Artificial sensory feedback: Systems are being developed that can provide sensory (tactile, proprioceptive) feedback to the user of the prosthesis, creating a more realistic feel and improving control.

Innovative Materials and Design:

• Advanced biocompatible materials: New materials that are lighter, stronger and better tolerated by the body are being researched to improve the comfort and durability of prostheses.
• Modular and customized design: Tends to prostheses with a modular design, which can be adapted to the specific needs of each user and which can be easily repaired or upgraded.
• 3D printing: 3D printing technology allows the creation of customized prostheses at lower costs and in a shorter time.

Examples of Notable Projects:

• Projects funded by government agencies (eg DARPA in the US): These often focus on the development of advanced prosthetics for war veterans, with an emphasis on BCI control and sensory feedback.
• Academic research in prestigious universities (eg MIT, Caltech, Stanford): These explore new technologies and approaches in BCI, AI and prosthetic materials.
• Private companies (eg Neuralink, Open Bionics): These develop commercial prostheses with innovative technologies, with the aim of making them accessible to a wider audience.

Specific Examples (with the mention that the field is constantly changing and new things are constantly appearing):

• Thought Control Upper Limb Prostheses: These allow users to control complex hand and arm movements through brain activity alone.
• Prostheses with integrated sensory feedback: These provide tactile and proprioceptive sensations, allowing users to feel the objects they touch with the prosthesis.
• Neurally controlled robotic exoskeletons: These can provide support and movement assistance for people with paralysis or muscle weakness.

Where you can find more information:

• Scientific publications: Journals such as "Science", "Nature", "Journal of Neural Engineering" publish research studies in the field of neurological prostheses.
• Websites of universities and research institutes: Many universities and research institutes have web pages dedicated to their projects in this field.