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Weak radio-frequency EMFs can disrupt biology without heating tissue. Researchers exposed European robins to oscillating magnetic fields at different frequencies. A field oscillating at 1.3 MHz, thousands of times weaker than the Earth’s magnetic field, disrupted the birds’ ability to orient themselves. When the frequency was increased or decreased, the effect became weaker. To understand why, you need to know how European robins find their way across thousands of kilometers: They use the Earth’s magnetic field. That field is extremely weak, around 30–70 microtesla, roughly 1/100 the strength of a typical fridge magnet. The energy it gives a molecule is less than a billionth of what it takes to break or form a chemical bond. Yet the robin detects it. The leading explanation is a quantum compass in the eye. Light hits a protein called cryptochrome and creates a radical pair: two molecules, each with one unpaired electron. The spins of those electrons oscillate between two states, and each state produces different chemistry. So the Earth’s field doesn’t need to supply the energy to break a bond. It only needs to tip the balance between the two states. Physical chemist Peter Hore compared it to a one-kilogram block of granite balanced on its edge. A fly could never push it over if it were lying flat. But if it’s already balanced between falling left or right, a fly can decide which way it falls. The radical-pair theory made a prediction: Particular radio frequencies should disrupt the compass. That is exactly what happened. Quantum physicist Jim Al-Khalili and molecular geneticist Johnjoe McFadden describe the result in Life on the Edge. Later experiments at the University of Oldenburg found that electromagnetic noise from electronic devices leaking into the birds’ wooden huts disrupted their magnetic orientation. When the birds were moved into aluminium-screened huts that blocked around 99% of the electromagnetic noise, their magnetic compass worked again. The robin experiments show that an electromagnetic field does not need to heat tissue or break chemical bonds like X-rays to affect biology. It only needs to interact with a biological system already balanced between different quantum states. In the robin, that is enough to disrupt the direction it flies.