The detector of claim 1, further comprising:</claim-text> at least one analog-to-digital (A/D) converter integrated with said first and second wells and formed as a monolithic integrated circuit, said first and second wells being coupled to at least nput of said at least one A/D converter for converting a respective one of the first and second photocurrent into a digital output. view more

The detector of claim 16, wherein further comprising:</claim-text> a multiplexer coupled between said first and second wells and an input of said A/D converter, said multiplexer for selectively coupling the first and second photocurrents to the input id A/D converter. view more

The detector of claim 16, wherein said at least one A/D converter integrates a respective one of the first and second photocurrents over a sufficient time period to average a ripple in the incident light caused by alternating current (AC) lighting.

The method of claim 28, further comprising:</claim-text> providing at least one analog-to-digital (A/D) converter with the first and second wells to form a monolithic integrated circuit, the first and second wells being coupled to at least one input e at least one A/D converter for converting a respective one of the first and second photocurrent into a digital output. view more

The method of claim 43, wherein the at least one A/D converter integrates a respective one of the first and second photocurrents over a sufficient time period to average a ripple in the incident light caused by alternating current (AC) lighting.

The method of claim 43, further comprising:</claim-text> establishing a spectral content response based on an output of the at least one A/D converter, the spectral content response configured to simulate that which would be observed by a human eye.