Atmospheric oxidation generating voltage?

AI Thread Summary
The discussion centers on the potential for a uniform, amorphous composite material placed between two electrodes on an insulating chip to generate a voltage. Participants explore whether oxidative processes in the atmosphere could lead to charge diffusion—specifically electrons, holes, or ions—resulting in a voltage difference between the electrodes. The conversation also contrasts this phenomenon with standard battery chemistry, questioning how the mechanisms of charge generation and potential creation differ from traditional electrochemical processes. The feasibility of such materials and their behavior under various conditions is a key point of interest.
Hyo X
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Imagine a sample on an insulating chip. The material sample is contacting two electrodes.

The material (a composite, could have liquid component) has a uniform, presumably amorphous, structure between the electrodes - i.e. it is not patterned with different layers.

Is there such a material that would generate a voltage between two electrodes?

Could some oxidative process occur in atmosphere that would result in charge (electron, hole, or ion) diffusion through the sample and for some reason the creation of potential between the electrodes?
 
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Hyo X said:
Imagine a sample on an insulating chip. The material sample is contacting two electrodes.

The material (a composite, could have liquid component) has a uniform, presumably amorphous, structure between the electrodes - i.e. it is not patterned with different layers.

Is there such a material that would generate a voltage between two electrodes?

Could some oxidative process occur in atmosphere that would result in charge (electron, hole, or ion) diffusion through the sample and for some reason the creation of potential between the electrodes?

How is this different from standard battery chemistry?
 
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