AbstractThe idea that quantum-mechanical phenomena can play nontrivial roles in biology has fascinated researchers for a century. Here we review some examples of such effects, including light-harvesting in photosynthesis, vision, electron- and proton-tunneling, olfactory sensing, and magnetoreception. We examine how experimental tests have aided this field in recent years and discuss the importance of developing new experimental probes for future work. We examine areas that should be the focus of future studies and touch on questions such as biological relevance of quantum-mechanical processes. To exemplify current research directions, we provide some detailed discussions of quantum-coherence in photosynthetic light-harvesting and highlight...
Almost all life on Earth depends on the products of photosynthesis - the biochemical process whereby...
Dynamic quantum effects in biological systems is a hotly debated question, which since recently has ...
We humans always want to believe that we can overpower nature. However, the reality is that nature o...
AbstractThe idea that quantum-mechanical phenomena can play nontrivial roles in biology has fascinat...
Photosynthesis is a highly optimized process from which valuable lessons can be learned about the op...
AbstractThis session introduced the novel area of quantum effects in biological systems: it presente...
How could quantum mechanics possibly be important in biology We will discuss this question in the li...
Despite certain quantum concepts, such as superposition states, entanglement, ‘spooky action at a di...
Long-lived electronic coherences in various photosynthetic complexes at cryogenic and room temperatu...
AbstractQuantum coherence improves the quantum efficiency of excitonic energy transport within the F...
AbstractPhotosynthetic light harvesting is a paradigmatic example for quantum effects in biology. In...
AbstractLong-lived electronic coherences in various photosynthetic complexes at cryogenic and room t...
The majority of biology can be adequately described by classical laws, yet there are suggestions tha...
Ultrafast spectroscopy experiments show that photosynthetic systems can preserve quantum beats in th...
During the first steps of photosynthesis, the energy of impinging solar photons is transformed into ...
Almost all life on Earth depends on the products of photosynthesis - the biochemical process whereby...
Dynamic quantum effects in biological systems is a hotly debated question, which since recently has ...
We humans always want to believe that we can overpower nature. However, the reality is that nature o...
AbstractThe idea that quantum-mechanical phenomena can play nontrivial roles in biology has fascinat...
Photosynthesis is a highly optimized process from which valuable lessons can be learned about the op...
AbstractThis session introduced the novel area of quantum effects in biological systems: it presente...
How could quantum mechanics possibly be important in biology We will discuss this question in the li...
Despite certain quantum concepts, such as superposition states, entanglement, ‘spooky action at a di...
Long-lived electronic coherences in various photosynthetic complexes at cryogenic and room temperatu...
AbstractQuantum coherence improves the quantum efficiency of excitonic energy transport within the F...
AbstractPhotosynthetic light harvesting is a paradigmatic example for quantum effects in biology. In...
AbstractLong-lived electronic coherences in various photosynthetic complexes at cryogenic and room t...
The majority of biology can be adequately described by classical laws, yet there are suggestions tha...
Ultrafast spectroscopy experiments show that photosynthetic systems can preserve quantum beats in th...
During the first steps of photosynthesis, the energy of impinging solar photons is transformed into ...
Almost all life on Earth depends on the products of photosynthesis - the biochemical process whereby...
Dynamic quantum effects in biological systems is a hotly debated question, which since recently has ...
We humans always want to believe that we can overpower nature. However, the reality is that nature o...