Abstract: An integrated circuit includes a first standard cell including a first plurality of patterns extending in a first direction, the first standard cell having a first pitch; a second standard cell including a second plurality of patterns extending in the first direction, the second standard cell having a second pitch different from the first pitch, the second standard cell spaced apart from the first standard cell in the first direction; a signal transfer filler cell between the first standard cell and the second standard cell, the signal transfer filler cell including at least one jog pattern connecting one pattern in the first plurality of patterns to one pattern in the second plurality of patterns; a first power rail having a first width in a second direction perpendicular to the first direction above the first standard cell; and a second power rail having a second width different from the first width.

Abstract: The present invention relates to a rehabilitation assistive device utilizing wireless electrical stimulation based on a high-frequency induction coil and conductive hydrogel. Specifically, the present invention concerns a nerve regeneration device using wireless electrical stimulation, which is based on the phenomenon where current is induced within the conductive hydrogel by the electromagnetic waves generated from a coil carrying high-frequency alternating current. The present invention can be applied as a nerve regeneration-promoting system, wherein conductive hydrogel is injected into the damaged area of the subject's nerve tissue using the wireless electrical stimulation device, thereby aiding in nerve regeneration.

Abstract: The present disclosure relates to a muscle or nerve function rehabilitation assistance device using electrically conductive hydrogel. The electrically conductive hydrogel (IT-IC) provides an electrophysiological interface function between electrically active tissues, enabling the filling of lost muscle or nerve tissue for immediate rehabilitation in the early stages. It facilitates electrophysiological signal transmission between tissues and accelerates myofiber regeneration during the recovery phase. Particularly, when the electrically conductive hydrogel (IT-IC) is applied, the transmission of electrical signals generated in the muscle can be precisely controlled by a closed-loop device capable of being feedback in conjunction with peripheral nerve stimulation and electromyogram (EMG) monitoring.

Abstract: An integrated circuit includes at least one decoupling cell, wherein the at least one decoupling cell includes at least one P-type decoupling MOSFET and at least one N-type decoupling MOSFET, and a number of the at least one P-type decoupling MOSFET is different from a number of the at least one N-type decoupling MOSFET.

Abstract: A semiconductor device includes a standard cell, which includes first to fourth active areas that are extended in a first direction, first to fourth gate lines that are extended in a second direction perpendicular to the first direction over the first to fourth active areas and are disposed parallel to each other, a first cutting layer that is disposed between the first active area and the second active area and separates the second and third gate lines, a second cutting layer that is disposed between the third active area and the fourth active area and separates the second and third gate lines, a first gate contact that is formed on the second gate line separated by the first cutting layer and the second cutting layer, and a second gate contact that is formed on the third gate line separated by the first cutting layer and the second cutting layer.

Abstract: An integrated circuit includes at least one decoupling cell, wherein the at least one decoupling cell includes at least one P-type decoupling MOSFET and at least one N-type decoupling MOSFET, and a number of the at least one P-type decoupling MOSFET is different from a number of the at least one N-type decoupling MOSFET.

Abstract: A semiconductor device includes a standard cell, which includes first to fourth active areas that are extended in a first direction, first to fourth gate lines that are extended in a second direction perpendicular to the first direction over the first to fourth active areas and are disposed parallel to each other, a first cutting layer that is disposed between the first active area and the second active area and separates the second and third gate lines, a second cutting layer that is disposed between the third active area and the fourth active area and separates the second and third gate lines, a first gate contact that is formed on the second gate line separated by the first cutting layer and the second cutting layer, and a second gate contact that is formed on the third gate line separated by the first cutting layer and the second cutting layer.