Exploring the fundamental structure of the brain

Pioneering research at the intersection of quantum mechanics and neuroscience.

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Welcome to IQCN

The Institute for Quantum Computation and Neuroscience focuses on unlocking the secrets of the brain's fundamental structure, connectivity, and function by harnessing the power of quantum field theory and advanced computation. We aim to transform our understanding of the brain into actionable innovations by bridging groundbreaking discoveries with real-world clinical and technological applications.

Our interdisciplinary team combines expertise in experimental neuroscience, particle physics, and condensed matter physics with cutting-edge biomedical signal processing. Through this integrative approach, our projects seamlessly connect neuroscience and biomedicine with the realms of physics, computer science, and mathematics, driving innovation at the intersection of these dynamic fields.

frontiers of neuroscience

From exploring the frontiers of neuroscience and quantum physics to developing transformative biomedical technologies, our institute is at the forefront of research that shapes the future. This noble pursuit embodies our commitment to excellence, innovation, and the pursuit of solutions that make a global impact

a very large purple object in the middle of the night sky
a very large purple object in the middle of the night sky
Interdisciplinary team
Quantum Mechanics Insight
Unconventional Questions

Most profound and fringed questions about the brain are asked. These inquiries often transcend conventional paradigms, exploring uncharted territories like superconductivity, electromagnetism,

The team brings together ideas from physics, mathematics, chemistry, and biology to tackle questions that challenge traditional boundaries in the field. For instance, the application of quantum physics to neural processes or the use of advanced computational algorithms to model brain networks allows for novel insights into cognition, and behaviour. 

Is the brain a classical system or a quantum system or both? Which line of investigation is likely to unravel the deeper structure of the brain?

Centres & Laboratories

Our research institute is home to a dynamic network of cutting-edge centres and laboratories dedicated to advancing knowledge and innovation in their respective fields. These state-of-the-art facilities serve as hubs for interdisciplinary collaboration, bringing together experts in science, technology, and medicine to tackle complex challenges and pioneer groundbreaking discoveries.

Electrophysiology Lab

The Electrophysiology Laboratory is dedicated to uncovering the intricacies of brain function using the mouse model. The lab investigates fundamental questions about cognition, motor function, and neural connectivity by employing cutting-edge techniques such as extracellular and intracellular recordings, as well as optogenetics.

Atom Lab

The atom lab investigates molecular interactions, signalling pathways, and chemical changes that drive brain function and behaviour, by leveraging advanced tools and techniques from analytical chemistry, such as mass spectrometry and spectroscopy. This involves recreating and studying the brain's ions outside the brain.

Computation Lab

The Computation Laboratory leverages advanced mathematical models and computational tools to investigate the underlying mechanics of behavior, cognition, and motor function. By integrating principles of mathematics, physics, and neuroscience, the lab seeks to unravel complex brain processes and develop predictive models of neural activity.

Neuroimaging Lab

The Neuroimaging Laboratory explores the intricate dynamics of the brain using advanced imaging techniques, including electroencephalography (EEG). Focused on understanding neural activity underlying perception, vision, and other cognitive processes, the lab combines high-resolution data acquisition with innovative analytical methods

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Quantum Neuroscience

Exploring brain function through quantum mechanics and electrophysiological techniques.

A small green circuit board with various components such as microchips and wiring sits on a graph paper covered in handwritten mathematical equations. The board is mounted on a frame with black arms extending from its corners.
A small green circuit board with various components such as microchips and wiring sits on a graph paper covered in handwritten mathematical equations. The board is mounted on a frame with black arms extending from its corners.
A high-tech laboratory environment featuring multiple digital screens displaying complex graphical data, including a large DNA helix. The room contains advanced laboratory equipment on a sleek table and a chair draped with a white lab coat. Soft lighting and a futuristic aesthetic contribute to the overall ambiance.
A high-tech laboratory environment featuring multiple digital screens displaying complex graphical data, including a large DNA helix. The room contains advanced laboratory equipment on a sleek table and a chair draped with a white lab coat. Soft lighting and a futuristic aesthetic contribute to the overall ambiance.
A complex tangle of multicolored wires is connected to several electronic breadboards and circuits, suggesting an environment of experimentation or electronic prototyping. The wires cover a significant portion of the wall space, intertwining in a chaotic but purposeful manner.
A complex tangle of multicolored wires is connected to several electronic breadboards and circuits, suggesting an environment of experimentation or electronic prototyping. The wires cover a significant portion of the wall space, intertwining in a chaotic but purposeful manner.
A laboratory setting featuring a large, square room with padded, soundproof walls arranged in a grid pattern. In the foreground, a large directional antenna or device with wires is positioned on a wooden stand. In the center of the room, blue foam pyramids are arranged on a platform, likely used for acoustic testing, with some red cubes and additional equipment in the background.
A laboratory setting featuring a large, square room with padded, soundproof walls arranged in a grid pattern. In the foreground, a large directional antenna or device with wires is positioned on a wooden stand. In the center of the room, blue foam pyramids are arranged on a platform, likely used for acoustic testing, with some red cubes and additional equipment in the background.
Research

Exploring quantum mechanics and brain function together.

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inquires@iqcns.com

+233265657751

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