A DASH OF 'QUANTUM WEIRDNESS' ADDS AN INTRIGUING NEW ASPECT TO THE THEORY OF EVOLUTION

Just suppose survival of the fittest had a quantum element. What would that mean for life on Earth?

In 1990, while at Haverford College, I embarked on a transformative academic journey into biophysics the captivating intersection of physics and biology.

It was during this time that I delved into the tantalising notion of quantum mechanics operating within living organisms.

Unbeknown to me, this exploration would etch an enduring imprint on my scientific voyage, kindling a lifelong fascination with biophysics. Ultimately, I charted my research course in quantum cosmology, but the echoes of biophysics persisted.

One of the most potent strategies in unveiling new truths in physics arises from principles that unify seemingly disparate phenomena. Einstein's principle of relativity, for instance, harmonised electromagnetism with the fabric of four-dimensional spacetime.

Similarly, physicists like Richard Feynman and Paul Dirac achieved remarkable feats by bringing together disparate principles, uniting quantum theory with relativity to birth a new perspective on the quantum field. This yielded predictions like the existence of antimatter and the Standard Model of elementary particles, which have since been validated at particle accelerators around the world.

During my tenure as a physics professor at Dartmouth College, I met Dr Salvador Almagro-Moreno, a remarkable molecular biologist. Over numerous intellectual exchanges, Salvador and I discerned a common thread weaving through our distinct fields: the potential for a symbiosis between physics and biology.