"[We are] doing both experimental research and [...] theoretical research on interaction of electromagnetic field and biology [...] both sides, because fields affect biology and biology generates fields."
"What people typically know is that light emitted by [...] specific organisms like [...] fireflies or jellyfish — they glow to the level that you can see it by naked eye. What people know less, but is very well established as well scientifically, is that basically any organic matter [...] when it's in contact with oxygen glows. So that means for example that also humans glow, and this is measurable, and this was actually part of my master thesis."
"There is still a huge area in [...] microwave, terahertz range, bit of [...] infrared, where [...] it is not firmly established whether cells and tissues generate electromagnetic field or electromagnetic activity."
"Microtubules [...] do have rather exceptional electrical properties [...] tubulin has few-fold higher charge than the [...] average protein and also few-fold higher [...] dipole than the average protein."
"Anthropogenic electromagnetic radiation is a very mild stressor and we have myriads of them. I believe our lifestyle choices are much more profoundly affecting our health quality than the anthropogenic electromagnetic radiation."
"This particular community in bioelectromagnetics is very careful to actually publish even the negative findings because it's so important as we are so swamped by electromagnetic radiations which we produced, for the safety perspective. This is one of the best examples across different research fields where the community makes an effort to publish negative results, and thanks to that we don't have such a large bias in the knowledge compared to other research fields. [...] I know people who tried really hard to find any effect and they could not in certain different setups. So we are not speaking of one or a few papers, it's now thousands of papers studying the effects of weak electromagnetic radiation on the cells or tissues, and the consensus is that you don't usually see the effects."
"However, what is interesting — if you hit certain particular parameters, then you might get to the region where the field doesn't need to be strong to do something. And that's exactly where I see the most interesting way going — effects of magnetic fields which are not that strong on the chemistry of free radicals, because there is the strongest evidence both from theory and experiments that magnetic fields can affect the spin of electrons in free radicals."