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The enhancement of photovoltage and photocurrent of material is fundamentallysignificant owing to the many interesting phenomena found and the potentialapplications. However, vast altering of magnitude-orders of photoelectricityhas been technologically challenging. Here we report two dielectric materialsLi2ZnSiO4 and Li2SiO3 showing high photovoltage and photocurrent tunability.When magnetic field increasing from 0.00015T up to 0.44T,it is found that 3850%of photovoltage tunability and 3841 % of photocurrent tunability in Li2ZnSiO4 ,and 132.8% of photovoltage tunability and 132.5% of photocurrent tunability inLi2SiO3. A simple model that considers the effects of spin mixing/interactionand magnetically-tunable charge gradient is used to explain this interactionbetween magnetic field and the photoelectricity. This result indicates amagnetic approach can be potentially used for energy efficiency.

Giant magnetic pumping of photovoltage and photocurrent using dielectric lossy material