Abstract: A multilayer electronic component according to an exemplary embodiment of the present disclosure may control connectivity of an end of an internal electrode, thereby suppressing occurrence of a short circuit between the internal electrodes, reduced capacitance or lower breakdown voltage. The internal electrode may include a plurality of conductor portions and a plurality of cut-off portions.

Abstract: A vehicle configured for container-swapping, includes: a main frame including a pair of drive modules spaced in a forward/backward direction of the vehicle, and a connecting portion extending in the forward/backward direction of the vehicle to connect the pair of drive modules so that a coupling space is formed therebetween; a container module selectively inserted into the coupling space of the main frame; and a coupling portion configured to couple the main frame and the container to each other while the container module is inserted into the coupling space of the main frame, wherein a driving portion operates and moves the main frame so that the container module is inserted into the coupling space of the main frame.

Abstract: A vehicle light includes: a light lens having a base panel made of a transparent plastic material, an outer paint layer disposed on an outer surface of the base panel, and an inner paint layer disposed on an inner surface of the base panel and including a light-transmitting hole formed therein; and a light source installed to be spaced apart from the light lens, in which light from the light source is transmitted out of the light lens through the light-transmitting hole and the base panel.

Abstract: A method for fabricating a semiconductor device includes forming a fin type pattern protruding from a substrate and extending in a first direction, forming a field insulating layer covering a limited portion of the fin type pattern on the substrate such that the field insulating layer exposes a separate limited portion of the fin type pattern, forming a gate structure on the field insulating layer and the fin type pattern, the gate structure extending in a second direction, the second direction different from the first direction, forming a first barrier layer containing a nitrogen element in a first region of the field insulating layer, wherein the first region is exposed by the gate structure, adjacent to the gate structure and extending in the second direction and forming a gate spacer on the first barrier layer and on a side wall of the gate structure.

Abstract: A method for fabricating a semiconductor device includes forming a fin type pattern protruding from a substrate and extending in a first direction, forming a field insulating layer covering a limited portion of the fin type pattern on the substrate such that the field insulating layer exposes a separate limited portion of the fin type pattern, forming a gate structure on the field insulating layer and the fin type pattern, the gate structure extending in a second direction, the second direction different from the first direction, forming a first barrier layer containing a nitrogen element in a first region of the field insulating layer, wherein the first region is exposed by the gate structure, adjacent to the gate structure and extending in the second direction and forming a gate spacer on the first barrier layer and on a side wall of the gate structure.

Abstract: A method for fabricating a semiconductor device includes forming a fin type pattern protruding from a substrate and extending in a first direction, forming a field insulating layer covering a limited portion of the fin type pattern on the substrate such that the field insulating layer exposes a separate limited portion of the fin type pattern, forming a gate structure on the field insulating layer and the fin type pattern, the gate structure extending in a second direction, the second direction different from the first direction, forming a first barrier layer containing a nitrogen element in a first region of the field insulating layer, wherein the first region is exposed by the gate structure, adjacent to the gate structure and extending in the second direction and forming a gate spacer on the first barrier layer and on a side wall of the gate structure.

Abstract: A method for fabricating a semiconductor device includes forming a fin type pattern protruding from a substrate and extending in a first direction, forming a field insulating layer covering a limited portion of the fin type pattern on the substrate such that the field insulating layer exposes a separate limited portion of the fin type pattern, forming a gate structure on the field insulating layer and the fin type pattern, the gate structure extending in a second direction, the second direction different from the first direction, forming a first barrier layer containing a nitrogen element in a first region of the field insulating layer, wherein the first region is exposed by the gate structure, adjacent to the gate structure and extending in the second direction and forming a gate spacer on the first barrier layer and on a side wall of the gate structure.

Abstract: A gate pattern is formed on a first region of a substrate. An epitaxial layer is formed on a second region of the substrate. A recess is formed in the second region of the substrate by etching the epitaxial layer and the substrate underneath. The first region is adjacent to the second region.

Abstract: A gate pattern is formed on a first region of a substrate. An epitaxial layer is formed on a second region of the substrate. A recess is formed in the second region of the substrate by etching the epitaxial layer and the substrate underneath. The first region is adjacent to the second region.

Abstract: A method of fabricating a semiconductor device can include forming a trench in a semiconductor substrate, forming a first conductive layer on a bottom surface and side surfaces of the trench, and selectively forming a second conductive layer on the first conductive layer to be buried in the trench. The second conductive layer may be formed selectively on the first conductive layer by using an electroless plating method or using a metal organic chemical vapor deposition (MOCVD) or an atomic layer deposition (ALD) method.

Abstract: A gate structure includes an insulation layer on a substrate, a first conductive layer pattern on the insulation layer, a metal ohmic layer pattern on the first conductive layer pattern, a diffusion reduction layer pattern on the metal ohmic layer pattern an amorphous layer pattern on the diffusion reduction layer pattern, and a second conductive layer pattern on the amorphous layer pattern. The gate structure may have a low sheet resistance and desired thermal stability.

Abstract: A method of manufacturing a semiconductor device can be provided by forming a gate structure on a substrate and forming a diffusion barrier layer on the gate structure and the substrate, A stress layer can be formed on the diffusion barrier layer comprising a metal nitride or a metal oxide having a concentration of nitrogen or oxygen associated therewith. The stress layer can be heated to transform the stress layer into a tensile stress layer to reduce the concentration of the nitrogen or the oxygen in the stress layer. The tensile stress layer and the diffusion barrier layer can be removed.

Abstract: A gate structure can include a polysilicon layer, a metal layer on the polysilicon layer, a metal silicide nitride layer on the metal layer and a silicon nitride mask on the metal silicide nitride layer.

Abstract: A method of forming a gate structure can be provided by forming a tunnel insulation layer on a substrate and forming a floating gate on the tunnel insulation layer. A dielectric layer pattern can be on the floating gate and a control gate can be formed on the dielectric layer pattern, which can be provided by forming a first conductive layer pattern on the dielectric layer pattern. A metal ohmic layer pattern can be formed on the first conductive layer pattern. A diffusion preventing layer pattern can be formed on the metal ohmic layer pattern. An amorphous layer pattern can be formed on the diffusion preventing layer pattern forming a second conductive layer pattern on the amorphous layer pattern. The floating gate can be further formed by forming an additional first conductive layer pattern on the tunnel insulation layer. An additional metal ohmic layer pattern can be formed on the additional first conductive layer pattern.

Abstract: A gate structure includes an insulation layer on a substrate, a first conductive layer pattern on the insulation layer, a metal ohmic layer pattern on the first conductive layer pattern, a diffusion preventing layer pattern on the metal ohmic layer pattern, an amorphous layer pattern on the diffusion preventing layer pattern, and a second conductive layer pattern on the amorphous layer pattern. The gate structure may have a low sheet resistance and desired thermal stability.

Abstract: Disclosed are a variety of methods for increasing the relative thickness in the peripheral or edge regions of gate dielectric patterns to suppress leakage through these regions. The methods provide alternatives to conventional GPOX processes and provide the improved leakage resistance without incurring the degree of increased gate electrode resistance associated with GPOX processes. Each of the methods includes forming a first opening to expose an active area region, forming an oxidation control region on the exposed portion and then forming a second opening whereby a peripheral region free of the oxidation control region is exposed for formation of a gate dielectric layer. The resulting gate dielectric layers are characterized by a thinner central region surrounded or bounded by a thicker peripheral region.

Abstract: Disclosed are a variety of methods for increasing the relative thickness in the peripheral or edge regions of gate dielectric patterns to suppress leakage through these regions. The methods provide alternatives to conventional GPDX processes and provide the improved leakage resistance without incurring the degree of increased gate electrode resistance associated with GPDX processes. Each of the methods includes forming a first opening to expose an active area region, forming an oxidation control region on the exposed portion and then forming a second opening whereby a peripheral region free of the oxidation control region is exposed for formation of a gate dielectric layer. The resulting gate dielectric layers are characterized by a thinner central region surrounded or bounded by a thicker peripheral region.

Abstract: Provided are semiconductor devices and methods of fabricating the same, and more specifically, semiconductor devices having a W—Ni alloy thin layer that has a low resistance, and methods of fabricating the same. The semiconductor devices include the W—Ni alloy thin layer. The weight of Ni in the W—Ni alloy thin layer may be in a range from approximately 0.01 to approximately 5.0 wt % of the total weight of the W—Ni alloy thin layer.

Abstract: A method of fabricating a semiconductor device can include forming a trench in a semiconductor substrate, forming a first conductive layer on a bottom surface and side surfaces of the trench, and selectively forming a second conductive layer on the first conductive layer to be buried in the trench. The second conductive layer may be formed selectively on the first conductive layer by using an electroless plating method or using a metal organic chemical vapor deposition (MOCVD) or an atomic layer deposition (ALD) method.

Abstract: Disclosed are a variety of methods for increasing the relative thickness in the peripheral or edge regions of gate dielectric patterns to suppress leakage through these regions. The methods provide alternatives to conventional GPOX processes and provide the improved leakage resistance without incurring the degree of increased gate electrode resistance associated with GPOX processes. Each of the methods includes forming a first opening to expose an active area region, forming an oxidation control region on the exposed portion and then forming a second opening whereby a peripheral region free of the oxidation control region is exposed for formation of a gate dielectric layer. The resulting gate dielectric layers are characterized by a thinner central region surrounded or bounded by a thicker peripheral region.