TECHNOLOGY
The MUQUABIS project is dedicated to advancing quantum-based technologies to transform biomedical research and diagnostics. By integrating state-of-the-art tools such as quantum bioimaging, quantum spectroscopy, ultra-sensitive quantum sensors, and diamond NV-center magneto-microscopy, MUQUABIS aims to achieve unprecedented precision in studying biological structures and processes.
These technologies are designed to be non-invasive and highly sensitive, allowing for detailed insights into cellular and molecular behavior in ways that conventional methods cannot match. With applications ranging from cardiac health to molecular biology, MUQUABIS technologies set new standards in bioimaging and open pathways for innovative diagnostic tools that will impact healthcare and scientific understanding globally.
The MUQUABIS project develops advanced quantum technologies tailored to biomedical research and diagnostics, including:
QUANTUM BIOIMAGING
Quantum bioimaging focuses on developing non-invasive, ultra-high-resolution imaging tools to visualize biological structures at cellular and molecular levels. By leveraging quantum-enhanced imaging techniques, this technology aims to reveal complex cellular dynamics and molecular interactions that are beyond the reach of conventional imaging methods. These advanced imaging capabilities will play a crucial role in understanding conditions like cardiac arrhythmias, providing a window into the intricate workings of heart cells and tissues.
QUANTUM SPECTROSCOPY
Quantum spectroscopy utilizes quantum light sources, such as quantum frequency combs, to enable precise spectroscopic analysis of biological molecules. This technique provides an unprecedented level of detail about the molecular composition and functional states of biological systems. Quantum spectroscopy can be used to study the properties of proteins, metabolites, and other biomolecules with high sensitivity, making it invaluable for investigating complex biological pathways and potential biomarkers for diseases.
QUANTUM SENSORS
The MUQUABIS project develops advanced quantum sensors capable of detecting extremely faint biological signals with high accuracy and minimal invasiveness. These sensors are designed to capture minute fluctuations in electromagnetic and chemical environments, allowing for detailed observation of cellular and molecular activity. Quantum sensors have the potential to revolutionize diagnostics by providing real-time, non-invasive measurements of physiological processes, significantly improving early disease detection and monitoring.
DIAMOND NV-CENTER MAGNETO-MICROSCOPY
Diamond NV-center magneto-microscopy, uses nitrogen-vacancy centers in diamond to map magnetic fields at the nanoscale. This approach is particularly powerful for studying electrical and magnetic activity in biological tissues, such as cardiac cells. By capturing both magnetic and electric field dynamics in real time, diamond NV-center magneto-microscopy offers a unique perspective on cellular electrophysiology, contributing critical insights into heart health and disease mechanisms.
APPLICATIONS
Study of
Cardiac Cells
Quantum imaging and sensing technologies enable detailed, non-invasive observation of cardiac cells, providing insights into cell structure and function critical for understanding heart conditions and arrhythmias.
Detection of Proteins and Metabolites
Advanced quantum spectroscopy techniques allow precise detection and analysis of proteins and metabolites in biological tissues, aiding in the study of cellular health and disease indicators.
Cardiac Electrophysiology
By measuring electromagnetic fields in cardiac tissue, diamond-based magneto-microscopy helps monitor electrical activity in the heart, supporting research on arrhythmias and other heart disorders.
Future
Applications
The tools developed in MUQUABIS have potential beyond cardiology, offering promising applications in fields like neuroscience, oncology, and regenerative medicine, where precise, non-invasive imaging and sensing are critical.