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Isotopic signatures, decoded into medicines

We investigate isotopic ratios and interactions of non-radioactive atoms (isotopes) within biological molecules, cells, and tissues, and their effects on healthy homeostasis.

THE FOUNDATION

Metallomics

Metallomics is a multidisciplinary science that merges the fields of chemistry, biology, physics, and medicine to study the biological roles of metals and their impacts on human health.

About Metallome

Metallome is a fundamental concept in the field of metallomics, which represents the function of metal and metalloid species within a molecule, cell, tissue, organ, or organism.

Cold Isotopes

Stable isotopes of metallome elements play an integral and critical role in human biology and have become an important area of study in the field of isotopic metallomics.

Our Scientific Stance

Isotopic signatures are instrumental for understanding the etiology of diseases and for developing the innovative therapies to repair cellular homeostasis.

Our Drug Discovery

Research shows that healthy cells/tissues are enriched in light isotopes, whose ratios shift toward a greater prevalence of heavy isotopes as people develop diseases. 

Our ISM Biotechnology

Our Isotope-Selective Modulation therapy is at the forefront of developing innovative treatments, leveraging our deep insights into the behavior of isotopic signatures.

​Cold isotope therapies represent an innovative and promising evolution of targeted treatments, building upon the foundation of broad physiological function and inherent safety of metallome elements in human biology​.

One network regulating biology

The metallome is intricately connected to other “omes” — influencing and being influenced by them through essential metal ion regulation. It is critical for protein synthesis, charge balance, DNA integrity and repair, and the structure, signaling and stem-cell function of tissues.

Zinc plays an important role in human physiology. Our current focus is exploring the broad therapeutic potential of isotopically modified 64Zn — translating the metallome insights into a disruptive pharmaceutical platform to treat disease and promote health