Clarice D. Aiello

This study examines how Escherichia coli K-12 responds to hypomagnetic versus geomagnetic conditions through RNA sequencing, identifying 81 differentially expressed genes linked to metabolic changes.

The paper introduces an open-source platform for high-throughput screening of magnetic field effects in live bacteria using magnetofluorescence imaging.

The paper models how magnetic fields affect fluorescence in flavoproteins by analyzing parameter sets that enable spin-state-dependent fluorescence contrast.

This study shows that E. coli K12 has a longer lag phase but similar log-phase growth rate under hypomagnetic (19 nT) compared to geomagnetic conditions.

The paper measures the magnetic field-dependent fluorescence of MagLOV2 in E. coli and finds non-monotonic behavior consistent with the radical pair mechanism.

This study shows that Xenopus laevis embryos develop faster in the absence of Earth's magnetic field, suggesting a measurable biological response to weak magnetic fields.