RESEARCH & DEVELOPMENT

Quantum frequency combs are advanced light sources that produce a spectrum of precise, evenly spaced frequencies, making them ideal for ultra-sensitive spectroscopic analysis. In MUQUABIS, these combs are developed to identify and study biological molecules with high precision, allowing researchers to monitor molecular interactions and structural changes at a new level of detail. This technology has the potential to enhance our understanding of complex biochemical processes that play critical roles in health and disease.

Infrared lasers are a powerful tool in biomedical research, as they penetrate biological tissues with minimal damage. MUQUABIS employs advanced infrared lasers for non-invasive imaging and spectroscopy, allowing researchers to investigate cellular structures and molecular compositions deeply within tissues. This capability is crucial for studying biological samples in their natural states and is expected to have a significant impact on diagnostic methods and therapeutic monitoring.

Low-light spectroscopic imaging is a technology that enables the study of biological molecules with minimal exposure to potentially harmful light. In MUQUABIS, this imaging technique is optimized to capture highly sensitive data on cellular proteins and metabolites, even in very faint light conditions. This approach is particularly valuable for examining delicate biological samples, such as living tissues, without interfering with their natural function.

Hybrid sensors combine optical and magnetic sensing capabilities to simultaneously detect multiple types of biological signals. In MUQUABIS, these sensors integrate optical and magneto-microscopic techniques to observe both electric and magnetic fields in biological samples, such as cardiac cells. This dual-sensing approach provides comprehensive insights into the electrophysiological and biochemical activity of cells, offering a powerful tool for studying complex biological processes like cardiac arrhythmias and cellular signaling.