Two-dimensional image read-out sensor device

Claim 2

A two-dimensional image read-out device comprising: an insulating substrate; a plurality of Y-line electrodes formed on the insulating substrate and arranged parallel with each other; a plurality of X-line electrodes formed over the insulating substrate and arranged parallel with each other in a direction perpendicular to the Y-line electrodes; a photoconductive layer interposed between the Y-line and the X-line electrodes; gate electrodes for selecting a pair of the Y-line and the X-line electrodes; and scanning circuit means for selecting some of the Y-line electrodes, and some of the X-line electrodes, and at least one of the gate electrodes, respectively.

Claim 3

A two-dimensional image read-out sensor device comprising: an insulating substrate; a plurality of Y-line electrodes formed on the insulating substrate and arranged parallel with each other, the Y-line electrodes being divided to groups of the Y-line electrodes, each group of the Y-line electrodes having the first to the L-th (L: an integral ≧2) Y-line electrodes in which "l"-th (l: 1-L) Y-line electrodes selected from each of the groups of the Y-line electrodes are connected in common to provide Y-side terminals of "L", a plurality of X-line electrodes formed over the insulating substrate and arranged parallel with each other in a direction perpendicular to the Y-line electrodes, the X-line electrodes being divided into groups of the X-line electrodes, each of groups of the X-line electrodes having the first to the K-th (K: an integral ≧2) X-line electrodes in which k-th X-line electrodes (k: 1-K) selected from each of the groups of the X-line electrodes are connected in common to provide X-side terminals of "K"; a photoconductive layer interposed between the Y-line and the X-line electrodes; a plurality of gate electrodes for selecting a pair of the X-line and the Y-line electrodes, the gate electrodes being divided to groups of the gate electrodes, the gate electrodes in every group being connected to each other in common to provide a single gate terminal, said each of the groups of the gate electrodes being extended over each area including the Y-line electrodes of "L" and the X-line electrodes of "K" arranged in a matrix; Y-side scanning means, connected to the Y-side terminals, for selecting some of the Y-line electrodes; X-side scanning means, connected to the X-side terminals, for selecting some of the X-line electrodes, and gate scanning means, connected the gate terminals, for selecting at least one of the gate electrodes.

Claim 4

A two-dimensional image read-out sensor device comprising: an insulating substrate; a plurality of Y-line electrodes formed on the insulating substrate and arranged parallel with each other, the Y-line electrodes being divided to groups of the Y-line electrodes, each group of the Y-line electrodes having the first to the L-th (L: an integral ≧2) Y-line electrodes in which "l"-th (l: 1-L) Y-line electrodes selected from each of the groups of the Y-line electrodes are connected in common to provide Y-side terminals of "L", a plurality of X-line electrodes formed over the insulating substrate and arranged parallel with each other in a direction perpendicular to the Y-line electrodes, the X-line electrodes being divided into groups of the X-line electrodes, each of groups of the X-line electrodes having the first to the K-th (K: an integral ≧2) X-line electrodes in which k-th X-line electrodes (k: 1-K) selected from each of the groups of the X-line electrodes are connected in common to provide X-side terminals of "K"; a photoconductive layer interposed between the Y-line and the X-line electrodes; a plurality of gate electrodes for selecting a pair of the X-line and the Y-line electrodes, the gate electrodes being divided to groups of the gate electrodes, the gate electrodes in every group being connected to each other in common to provide a single gate terminal, said each of the groups of the gate electrodes being extended over each area including the Y-line electrodes of "L" and the X-line electrodes of "K" arranged in a matrix; Y-side scanning means, connected to the Y-side terminals, for selecting some of the Y-line electrodes; X-side scanning means, connected to the X-side terminals, for selecting some of the X-line electrodes, and gate scanning means, connected the gate terminals, for selecting at least one of the gate electrodes.

Claim 5

The device of claim 2, wherein the gate electrode groups are interposed in the photoconductive layer and are formed in a mesh shape.

Claim 6

The device of claim 3, wherein each of the gate electrode groups controls the current amount in the photoconductive layer by changing the gate electrode potential.

Claim 7

The device of claim 3, further comprising an insulating layer for covering on the surface of each of the gate electrode groups which is in contact with the photoconductive layer.

Claim 8

The device of claim 3, further comprising a schottky junction formed at the interface between the each of the mesh type gate electrode groups and the photoconductive layer in which the surface of the gate electrode is in contact with the photoconductive layer.

Claim 9

The device of claim 3, further comprising a p-N junction formed at the interface between each of the mesh type gate electrode groups and the photoconductive layer.

Claim 10

The device of claim 2, further comprising a schottky junction formed at the interface between each of the Y-line electrodes and the photoconductive layer.

Claim 11

The device of claim 2, further comprising a schottky junction formed at the interface between each of the X-line electrodes and the photoconductive layer.

Claim 12

The device of claim 2, wherein the gate electrode is provided with a thin film transistor inserted into a current path between each of the Y-line electrodes and each of the X-line electrodes.

Claim 13

The device of claim 1 wherein said gate electrodes are arranged into a plurality of gate electrode groups, said gate electrode groups being interposed in the photoconductive layer and formed in a mesh shape.

Claim 14

The device of claim 11, wherein each of the gate electrode groups controls the current amount in the photoconductive layer by changing the gate electrode potential.

Claim 15

The device of claim 11, further comprising an insulating layer for covering on the surface of each of the gate electrode groups which is in contact with the photoconductive layer.

Claim 16

The device of claim 11, further comprising a schottky junction formed at the interface between the each of the mesh type gate electrode groups and the photoconductive layer in which the surface of the gate electrode is in contact with the photoconductive layer.

Claim 17

The device of claim 11, further comprising a P-N junction formed at the interface between each of the mesh type gate electrode groups and the photoconductive layer.

Claim 18

The device of claim 1, further comprising a schottky junction formed at the interface between each of the Y-line electrodes and the photoconductive layer.

Claim 19

The device of claim 1, further comprising a schottky junction formed at the interface between each of the X-line electrodes and the photoconductive layer.

Claim 20

The device of claim 1, wherein the gate electrode is provided with a thin film transistor inserted into a current path between each of the Y-line electrodes and each of the X-line electrodes.