Physics & Biophysics

How the geometry of your aorta's fork could predict heart attacks better than standard tests.

Cancer cells may only invade when a molecular switch makes them physically soft enough — and a known drug could reset that switch.

Bacteria switch which internal clock controls their size depending on how fast they're growing.

Measuring the 'complexity' of heartbeat pressure waves could reveal arterial aging without settling an ongoing scientific debate.

Bacteria waste energy at cell division, but the real precision clock ticks at the moment DNA copying begins.

Tracking how fast diseased protein droplets 'solidify' could reveal a hidden clock in ALS progression.

Losing a protein 'cage' around cancer cell nuclei may cause DNA to shatter, making tumors more aggressive over time.

In rare muscle cancers, too much cellular force may actually stop tumors from spreading — more power, less invasion.

Two muscle proteins may act as a tag-team force field that blocks cancer cells from spreading through tissue.

Mapping how efficiently your arteries branch could reveal aging and heart risk better than current blood pressure tests.

The geometry of your aorta set before birth may quietly predict how fast your arteries age over a lifetime.

Photosynthesis may work as a quantum team sport, with energy vibrations leaping between separate cellular machines.

Tracking how differently-sized probes move inside disease proteins could reveal when cells lose the ability to dissolve toxic clumps.

Measuring binding energy could predict which bacterial mutations will actually resist a virus — and which ones cost too much to survive.

Measuring how 'liquid' a cell's droplets are by tracking whether molecules move in sync — no physics model required.

Bacteria may tune their energy efficiency during stress by physically twisting their DNA to blur internal counting signals.

Cancer cells may invade surrounding tissue in rhythmic pulses timed by the slow snap-and-recover cycle of their internal scaffolding.

The energy a bacterium burns, not random molecular collisions, may be the true limit on how precisely it copies its DNA.

Bacteria may balance cell growth noise like a financial portfolio, trading precision for energy efficiency.

A physics quirk about how systems cool could reveal why some proteins misfold into brain-destroying clumps.

Could the speed of cooling dictate which dangerous protein shape forms — and could a physics quirk help us control it?

Protein vibrations in plant cells may keep quantum effects alive long enough to supercharge photosynthesis.

Physics equations from cell adhesion could predict the minimum bacterial receptor density needed for viruses to infect — and make phage therapy more precise.

A heat-resistance test for bacteria-killing viruses could help doctors choose the right phage therapy for feverish patients.

A single lab test run at three temperatures could identify the best viruses to treat stubborn urinary tract infections.

Bacteria may tune cell division timing using a physical law that links speed, accuracy, and energy costs.

A precise heat-measurement trick could help engineer bacteria-killing viruses that dodge our immune system.

The rate at which proteins shed disorder could reveal whether they fold correctly or misfold into disease-causing clumps.

A quirky physics phenomenon about water cooling could inspire smarter drugs to stop Alzheimer's proteins from clumping.

Bacteria may use energy inefficiency as a feature, not a bug, to reliably control their own size.

A molecular ratio in tumors may act like a clock that controls when immune cells can — or can't — get inside.

Heat-shock proteins may accidentally trigger a physics shortcut that helps misfolded proteins reach healthy states faster.

A physics fingerprint could reveal why immune cells get stuck at the edge of tumors.

A physics model of network connectivity could predict whether immune cells can infiltrate tumors.

Stiffening tumor scaffolding may hit a tipping point that physically locks immune cells out of cancers.

Physics models of connectivity could reveal how tumors physically wall off immune cells — if the math holds up.

Could a math model from physics predict the right drug dose to stop tumors from hiding from the immune system?

The same protein quirk that helps some molecules fold lightning-fast may also make them dangerously prone to misfolding diseases.