Please note that a publication can be assigned to several endpoints, i.e. the sum of publications from the individual thematic points and subpoints can be greater than the total sum of actual publications.
| Authors | Year | Exposed system | Parameters | Magnetic flux density/field strength |
|---|---|---|---|---|
| Austvold CK et al. | 2024 | isolated bio./chem. substance, human electron transfer flavoenzyme | static magnetic field, DC | - |
| Chen H et al. | 2023 | bacterium, <i>Magnetospirillum magneticum</i>/AMB-1 | static magnetic field, geomagnetic field | - |
| Ricker B et al. | 2023 | isolated bio./chem. substance, electromagnetic perceptive gene (EPG) | static magnetic field | - |
| Doltchinkova V et al. | 2023 | intact cell/cell culture, erythrocytes (healthy human and patientes with β-thalassemia) | static magnetic field | - |
| Wang Q et al. | 2023 | bacterium, microorganisms in sludge | static magnetic field, co-exposure, also other exposures without EMF | - |
| Takeuchi Y et al. | 2023 | isolated bio./chem. substance, monosodium urate (MSU) and calcium pyrophosphate (CPP) crystals | static magnetic field | - |
| Ma S et al. | 2023 | bacterium, swine manure samples | static magnetic field | - |
| Sun Y et al. | 2023 | animal, C57BL/6 mouse | static magnetic field | - |
| Fan Y et al. | 2023 | intact cell/cell culture, PC12 (rat pheochromocytoma cells), C57BL/6 mouse | static magnetic field | - |
| Li C et al. | 2023 | plant, yellow iris (<i>Iris pseudacorus</i>) | static magnetic field | - |
| Shui X et al. | 2023 | bacterium, mixed photosynthetic bacteria (<i>Rhodopseudomonas palustris</i>, <i>Rhodobacter sphaeroides</i>,<i> Rhodospirillum rubrum</i>, <i>Rhodobacter capsulatus</i> and <i>Rhodopseudomonas capsulate</i>) | static magnetic field | - |
| Mattila H et al. | 2022 | thylakoids of pumpkin | static magnetic field, also other exposures without EMF, co-exposure | - |
| Tong L et al. | 2022 | isolated organ, muscle of sea brass | static magnetic field, also other exposures without EMF, co-exposure | - |
| Zhan A et al. | 2022 | animal, C57BL/6J mouse | geomagnetic field, shielding/field deprivation | - |
| Zablodskiy M et al. | 2022 | bacterium, methane-forming bacteria | electric field, magnetic field, static magnetic field, 50/60 Hz, also other exposures without EMF | - |
| González-García Y et al. | 2022 | bacterium, <i>Komagataeibacter xylinus</i> | static magnetic field, also other exposures without EMF | - |
| Yamaguchi-Sekino S et al. | 2022 | human | static magnetic field, DC, MRI, occupational | - |
| Chen R et al. | 2022 | bacterium, microorganisms in sludge | static magnetic field, also other exposures without EMF, co-exposure | - |
| Hassanpour H et al. | 2022 | intact cell/cell culture, microalga (<i>Haematococcus pluvialis</i>) | static magnetic field, co-exposure, also other exposures without EMF | - |
| Darwish SM et al. | 2022 | isolated bio./chem. substance, Tau protein sample | static magnetic field | - |
| Stepanova OA et al. | 2022 | virus/bacteriophages, Black Sea algal viruses (different strains) | static magnetic field | - |
| Shalatonin V et al. | 2022 | isolated bio./chem. substance, microsphere suspension in deionized water | static magnetic field | - |
| Mao X et al. | 2022 | bacterium, sediment microcosm samples (in rich of two wild-type magnetotactic bacteria (Magnetobacterium bavaricum and cocci)) | magnetic field, static magnetic field, shielding/field deprivation | - |
| Hu B et al. | 2022 | bacterium, waste water, <i>Proteobacteria</i>, <i>Bacteroidetes</i>, <i>Planctomycetes</i>, <i>Chloroflexi</i>, <i>Nitrospirae</i>, <i>Acidobacteria</i> | static magnetic field | - |
| Yan HJ et al. | 2022 | bacterium | static magnetic field | - |
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