A touch member, comprising: a first detection electrode (IE1) including a plurality of sub-detection electrodes (IE1a to IE1i) arranged in a first direction (D1); a second detection electrode (IE2) including a plurality of sub-detection electrodes (IE2a to IE2i) arranged in a second direction (D2) intersecting the first direction and a connecting portion electrically connecting adjacent second sub-detection electrodes (IE2a to IE2i); an island electrode (IS) disposed in the second detection electrode (IE2) and isolated from the first detection electrode (IE1); and a bridge electrode (BE) electrically connecting a sub-detection electrode (IE1a to IE1i) of the first detection electrode (IE1) to the island electrode (IS), wherein the bridge electrode (BE) is formed of a first conductive layer, the sub-detection electrodes (IE1a to IE1i) of the first detection electrode (IE1), the connecting portion, the sub-detection electrodes (IE2a to IE2i) of the second detection electrode (IE2), and the island electrode (IS) are formed of a second conductive layer , an insulating pattern (IL1) is disposed between the bridge electrode (BE) and a part of the second conductive layer overlapping the bridge electrode (BE), wherein the insulating pattern (IL1) does not overlap a part of the bridge electrode (BE), the second conductive layer is disposed on the insulating pattern (IL1) that is disposed on the first conductive layer, characterized in that the bridge electrode (BE) extends in a third direction different from the first and second directions, and a part of the insulating pattern (IL1) overlapping with the bridge electrode (BE) extends in the third direction, and in a plan view, the insulating pattern (IL1) has a rectangular shape and the insulating pattern (IL1) has a long side (L2) extending in the third direction and a short side (L3) extending in a fourth direction that intersects the third direction. a first detection electrode (IE1) including a plurality of sub-detection electrodes (IE1a to IE1i) arranged in a first direction (D1); a second detection electrode (IE2) including a plurality of sub-detection electrodes (IE2a to IE2i) arranged in a second direction (D2) intersecting the first direction and a connecting portion electrically connecting adjacent second sub-detection electrodes (IE2a to IE2i); an island electrode (IS) disposed in the second detection electrode (IE2) and isolated from the first detection electrode (IE1); and a bridge electrode (BE) electrically connecting a sub-detection electrode (IE1a to IE1i) of the first detection electrode (IE1) to the island electrode (IS), wherein the bridge electrode (BE) is formed of a first conductive layer, the sub-detection electrodes (IE1a to IE1i) of the first detection electrode (IE1), the connecting portion, the sub-detection electrodes (IE2a to IE2i) of the second detection electrode (IE2), and the island electrode (IS) are formed of a second conductive layer , an insulating pattern (IL1) is disposed between the bridge electrode (BE) and a part of the second conductive layer overlapping the bridge electrode (BE), wherein the insulating pattern (IL1) does not overlap a part of the bridge electrode (BE), the second conductive layer is disposed on the insulating pattern (IL1) that is disposed on the first conductive layer, characterized in that the bridge electrode (BE) extends in a third direction different from the first and second directions, and a part of the insulating pattern (IL1) overlapping with the bridge electrode (BE) extends in the third direction, and in a plan view, the insulating pattern (IL1) has a rectangular shape and the insulating pattern (IL1) has a long side (L2) extending in the third direction and a short side (L3) extending in a fourth direction that intersects the third direction. <EOS>