Abstract:
In a semiconductor device and a method of manufacturing the same a fuse structure may be formed during formation of first to third contact plugs connected to a transistor. The fuse structure may include first and second fuse contact plugs having the same height as the first and second contact plugs, and a connection pattern having the same height as the third contact plug. The connection pattern may be connected between the first and second fuse contact plugs.
Abstract:
The inventive concepts provide semiconductor devices and methods of manufacturing the same. One semiconductor device includes a substrate, a device isolation layer disposed on the substrate, a fin-type active pattern defined by the device isolation layer and having a top surface higher than a top surface of the device isolation layer, a first conductive line disposed on an edge portion of the fin-type active pattern and on the device isolation layer adjacent to the edge portion of the fin-type active pattern, and an insulating thin layer disposed between the fin-type active pattern and the first conductive line. The first conductive line forms a gate electrode of an anti-fuse that may be applied with a write voltage.
Abstract:
A variable resistance memory device includes a gate pattern and a dummy gate pattern provided at the same level on a substrate, a first contact pattern provided on the dummy gate pattern, and a variable resistance pattern provided between the dummy gate pattern and the first contact pattern. The gate pattern and the dummy gate pattern define conductive electrodes of functional and non-functional transistors, respectively. The first contact pattern and the dummy gate pattern define upper and lower electrodes on the variable resistance pattern, respectively. Related fabrication methods are also discussed.
Abstract:
A variable resistance memory device includes a gate pattern and a dummy gate pattern provided at the same level on a substrate, a first contact pattern provided on the dummy gate pattern, and a variable resistance pattern provided between the dummy gate pattern and the first contact pattern. The gate pattern and the dummy gate pattern define conductive electrodes of functional and non-functional transistors, respectively. The first contact pattern and the dummy gate pattern define upper and lower electrodes on the variable resistance pattern, respectively. Related fabrication methods are also discussed.
Abstract:
A semiconductor device is disclosed. The semiconductor device including writing and reading gate electrodes respectively on first and second active regions on a substrate, a first gate insulation pattern between the first active region and the writing gate electrode, a second gate insulation pattern between the second active region and the reading gate electrode, first and second source/drain junction regions in the first and second active regions at sides of the writing and reading gate electrodes, and a connection structure that connects the first and second source/drain junction regions. The first active region has the same conductivity type as the source/drain junction regions. The second active region has a different conductivity type from the source/drain junction regions.
Abstract:
In a semiconductor device and a method of manufacturing the same a fuse structure may be formed during formation of first to third contact plugs connected to a transistor. The fuse structure may include first and second fuse contact plugs having the same height as the first and second contact plugs, and a connection pattern having the same height as the third contact plug. The connection pattern may be connected between the first and second fuse contact plugs.
Abstract:
The inventive concepts provide semiconductor devices and methods of manufacturing the same. One semiconductor device includes a substrate, a device isolation layer disposed on the substrate, a fin-type active pattern defined by the device isolation layer and having a top surface higher than a top surface of the device isolation layer, a first conductive line disposed on an edge portion of the fin-type active pattern and on the device isolation layer adjacent to the edge portion of the fin-type active pattern, and an insulating thin layer disposed between the fin-type active pattern and the first conductive line. The first conductive line forms a gate electrode of an anti-fuse that may be applied with a write voltage.