Nanotechnology for humankind

   Galiana Technology Inc. is dedicated to transforming the lives of individuals with quadriplegia by developing a revolutionary Brain-Machine Interface (BMI) that restores limb function. We envision a future where groundbreaking neurological solutions are accessible, safe, and profoundly life-changing.

   Millions face the debilitating challenges of severe paralysis, with current BMI solutions often requiring risky, invasive brain surgery and permanently implanted probes. Galiana is poised to change this paradigm.

   Galiana's proprietary technology is redefining Brain-Machine Interfaces. Unlike conventional approaches, our innovative solution achieves direct intra-neuronal communication without the need for chronic, permanently implanted probes. 

   Our patented Intracellular Monitoring Devices (IMDs) (U.S. Patent #12268512-B2) are precisely introduced using temporary micro-needling technology. Once in proximity, these peptide-coated IMDs leverage biological processes like endocytosis to seamlessly and completely integrate within individual neurons, enabling unprecedented high-resolution neural data capture directly from within the cell, meaning: 

• Significantly reduced surgical risk & recovery,
• Enhanced patient safety & acceptance,
• True intra-neuronal precision for superior data, and
• Potential for broader application and accessibility.

Galiana Technology Inc. is driven by a powerful synergy of seasoned leadership and cutting-edge engineering expertise:

• Mark A. Wells, President:  A veteran in scaling disruptive technologies, Mark is the co-inventor of our core patent and brings over two decades of experience in the wireless, IoT, and tech startup sectors. With a history of founding, growing, and successfully exiting companies (including Zucotto Wireless and DSP Communications, acquired by Intel), Mark's business acumen, product strategy, and materials science background are invaluable to Galiana's trajectory.
• Gregory Sutton, Engineer: A key engineer and co-inventor of our core patent, Gregory provides profound scientific and engineering expertise in bio-inspired robotics, neuro-mechanics, and neural control. His deep understanding of neural circuits and biomechanics is critical to developing our advanced BMI solutions for precise limb control.

   What if we could read the full language of thought—not just fragments, but the complex symphony of abstract ideas, memories, emotions, and intentions that define what it means to be human?

   To achieve this, we must move beyond today’s limits and imagine a system capable of recording binarized neural activity from all 30 billion neurons in the human cortex. The human brain encodes meaning not through bulk activity, but via intricate, fleeting “patterns” of sparsely distributed neurons—neuronal ensembles—analogous to the pixel arrangements that encode information in a QR code. Each ensemble is a unit of thought, and with enough of them, AI can begin to map the living architecture of cognition.

But there’s a problem. Today’s technologies—electrode arrays and calcium imaging—capture mere thousands of neurons at best. Biological and physical constraints make it virtually impossible for them to ever reach beyond 0.01% to 0.1% of the cortex. The resolution we need to decode full cognition has been out of reach... Until now.

   We are pioneering a breakthrough system based on intracellular, one-micron-sized sensors called nanofids—a radically new interface technology that aims to reach every neuron in the human cortex with single-neuron resolution. Each nanofid responds to intracellular activity by emitting a unique near-infrared (NIR) optical code, serving as a digital beacon of that neuron’s activation. This NIR signal is then captured by a non-invasive optical fiber array and rapidly decoded using a solid-state optical sorting system, converting biological activity into high-speed digital signals ready for real-time AI analysis.

   Once inserted, the system becomes a silent observer—ultralight, motion-tolerant, requiring no genetic manipulation and minimal signal processing. And unlike the probes of today that struggle to interface with the living brain, nanofids whisper their messages without damaging tissue or being rejected.

   This is not just a brain-computer interface. It is a neural mirror—one that reflects the true complexity of the human mind in real time and unlocks a new era of cognitive symbiosis between humans and AI.

   We’re not just reading signals.   We’re decoding consciousness.