Abstract: The present disclosure provides a method of manufacturing a semiconductor device with a controlled doped concentration of a channel film that is run-through a plurality of memory stacks. In one aspect of the present disclosure, the method may include forming a hole, forming a channel film on an inner surface of the hole, forming a buffer film on an inner surface of the channel film, forming a dopant supply film to fill the hole, and doping the channel film via a dopant diffusion from the dopant supply film into the channel film.

Abstract: The present disclosure provides a method of manufacturing a semiconductor device with a controlled doped concentration of a channel film that is run-through a plurality of memory stacks. In one aspect of the present disclosure, the method may include forming a hole, forming a channel film on an inner surface of the hole, forming a buffer film on an inner surface of the channel film, forming a dopant supply film to fill the hole, and doping the channel film via a dopant diffusion from the dopant supply film into the channel film.

Abstract: A nonvolatile memory device comprises a gate insulating layer, a floating gate and a dielectric layer sequentially formed over a semiconductor substrate, a capping layer formed over the dielectric layer, and a control gate formed over the capping layer, wherein the control gate includes nitrogen or carbon as an additive.

Abstract: A method of manufacturing nonvolatile memory devices comprises forming a plurality of floating gates spaced from each other over a semiconductor substrate, forming a dielectric layer on a surface of the floating gates, forming a capping layer on a surface of the dielectric layer, adding impurities to the capping layer, and forming a control gate over the capping layer containing the impurities.

Abstract: A method of forming an isolation structure of a semiconductor device includes implanting dopants of a first type into a semiconductor substrate to form a doped region in the substrate. A mask layer is provided over the substrate and the doped region of the substrate. The mask layer is patterned to expose an isolation region of the substrate, the isolation region defining an active region, the isolation region and the active region being defined at least partly within the doped region. Dopants of a second type are implanted at an edge of the active region as defined by the isolation region. The isolation region of the semiconductor substrate is etched to form an isolation trench having a depth that extends below a depth of the doped region. Dopants of a third type are implanted on sidewalls of the trench in order to minimize the dopants of the second type provided on the sidewalls of the isolation trench from migrating away from the sidewalls.

Abstract: A method of forming an isolation structure of a semiconductor device includes implanting dopants of a first type into a semiconductor substrate to form a doped region in the substrate. A mask layer is provided over the substrate and the doped region of the substrate. The mask layer is patterned to expose an isolation region of the substrate, the isolation region defining an active region, the isolation region and the active region being defined at least partly within the doped region. Dopants of a second type are implanted at an edge of the active region as defined by the isolation region. The isolation region of the semiconductor substrate is etched to form an isolation trench having a depth that extends below a depth of the doped region. Dopants of a third type are implanted on sidewalls of the trench in order to minimize the dopants of the second type provided on the sidewalls of the isolation trench from migrating away from the sidewalls.

Abstract: A method of manufacturing a semiconductor device includes the steps of forming a gate for a high voltage transistor on a semiconductor substrate, forming a Double Doped Drain (DDD) junction in the semiconductor substrate by means of an ion implantation process employing a DDD mask, and removing point defects, which have occurred in the DDD junction during the ion implantation process, by means of a Defect Recovery Anneal (DRA) process.