Abstract: An electrostatic capacitive touch panel comprises a first substrate; a first electrode extending in a first direction and a first wiring line connected to the first electrode provided on the first substrate; a second substrate; a second electrode extending in a second direction that is perpendicular to the first direction and a second wiring line provided on the second substrate, wherein the first wiring line includes a first extension portion, the second wiring line includes a second extension portion, the second electrode includes: a first capacitance portion overlapping the first electrode in a plan view; and a first connecting portion having a smaller width in the first direction than does the first capacitance portion, and, with respect to the first extension portion, the second extension portion is located in the positive direction where the first connecting portion is adjacent to the first capacitance portion in the second direction.

Abstract: Provided is a display device capable of preventing or reducing short-circuiting in an alternating high and low temperature environment. The display device is configured to display an image in a display region and includes: an insulating substrate; conductive lines provided on the insulating substrate and extending from the display region to a frame region exterior to the display region; a driver provided in the frame region and connected to the conductive lines; an organic protective film overlapping the conductive lines and extending from the display region to a region between the display region and the driver; an anisotropic conductive film provided under the driver and covering an end of the organic protective film between the display region and the driver; and a moisture-proof resin film overlapping the anisotropic conductive film and covering the end of the organic protective film between the display region and the driver.

Abstract: The present invention provides a method for producing a light guide plate including a light-diffusing surface. The method includes (1) applying a protonic polar solvent to a surface of a polycarbonate substrate, and (2) heating the polycarbonate substrate in a water-containing environment to cause precipitation of bisphenol A particles each having a particle size of 10 ?m or smaller on the surface of the polycarbonate substrate.

Abstract: Provided is a display device capable of preventing or reducing short-circuiting in an alternating high and low temperature environment. The display device is configured to display an image in a display region and includes: an insulating substrate; conductive lines provided on the insulating substrate and extending from the display region to a frame region exterior to the display region; a driver provided in the frame region and connected to the conductive lines; an organic protective film overlapping the conductive lines and extending from the display region to a region between the display region and the driver; an anisotropic conductive film provided under the driver and covering an end of the organic protective film between the display region and the driver; and a moisture-proof resin film overlapping the anisotropic conductive film and covering the end of the organic protective film between the display region and the driver.

Abstract: The present invention provides a method for producing a light guide plate including a light-diffusing surface. The method includes (1) applying a protonic polar solvent to a surface of a polycarbonate substrate, and (2) heating the polycarbonate substrate in a water-containing environment to cause precipitation of bisphenol A particles each having a particle size of 10 ?m or smaller on the surface of the polycarbonate substrate.

Abstract: A polarizing plate includes: a polarizer; a hard coat layer; and a recess formed at an outer edge of the polarizing plate or a through hole bored through the polarizing plate in a thickness direction. At least the polarizer and the hard coat layer are stacked, and the hard coat layer is not formed in a stress concentration part, included in the edge at which the recess or the through hole is formed, in which stress concentrates in a case where a change in temperature of the polarizing plate is effected with the hard coat layer formed all over the polarizer.

Abstract: A display device includes a display module including a display surface, a light transmissive panel, a first fixing layer, a case, a second fixing layer, a first area, a second area, and a third area. The light transmissive panel includes a fixing plate surface opposed to the display surface. The first fixing layer is disposed between the fixing plate surface and the display surface. The case includes a fixing-plate-surface opposed surface opposed to the fixing plate surface. The second fixing layer is disposed between the fixing plate surface and the fixing-plate-surface opposed surface. The fixing plate surface includes the first area, the second area, and the third area located between the first area and the second area. The first area overlaps the first fixing layer. The second area overlaps the second fixing layer. The third area has wettability less than wettability of the first area and the second area.

Abstract: A display device includes a display module including a display surface, a light transmissive panel, a first fixing layer, a case, a second fixing layer, a first area, a second area, and a third area. The light transmissive panel includes a fixing plate surface opposed to the display surface. The first fixing layer is disposed between the fixing plate surface and the display surface. The case includes a fixing-plate-surface opposed surface opposed to the fixing plate surface. The second fixing layer is disposed between the fixing plate surface and the fixing-plate-surface opposed surface. The fixing plate surface includes the first area, the second area, and the third area located between the first area and the second area. The first area overlaps the first fixing layer. The second area overlaps the second fixing layer. The third area has wettability less than wettability of the first area and the second area.

Abstract: A method of the present invention includes the steps of forming an amorphous semiconductor layer on an insulative surface, adding a catalyst element capable of promoting crystallization to the amorphous semiconductor layer and then performing a first heat treatment so as to crystallize the amorphous semiconductor layer, thereby obtaining a crystalline semiconductor layer, performing a first gettering process to remove the catalyst element from the semiconductor layer, and performing a second gettering process that is different from the first gettering process to remove the catalyst element from the semiconductor layer. The first gettering process includes removing at least large masses of a semiconductor compound of the catalyst element present in the crystalline semiconductor layer.

Abstract: A method of the present invention includes the steps of forming an amorphous semiconductor layer on an insulative surface, adding a catalyst element capable of promoting crystallization to the amorphous semiconductor layer and then performing a first heat treatment so as to crystallize the amorphous semiconductor layer, thereby obtaining a crystalline semiconductor layer, performing a first gettering process to remove the catalyst element from the semiconductor layer, and performing a second gettering process that is different from the first gettering process to remove the catalyst element from the semiconductor layer. The first gettering process includes removing at least large masses of a semiconductor compound of the catalyst element present in the crystalline semiconductor layer.