Abstract: A nonvolatile memory device is provided that includes; a first semiconductor layer extending in a first direction, a second semiconductor layer extending in parallel with and separated from the first semiconductor layer, an isolation layer between the first semiconductor layer and second semiconductor layer, a first control gate electrode between the first semiconductor layer and the isolation layer, a second control gate electrode between the second semiconductor layer and the isolation layer, wherein the second control gate electrode and first control gate electrode are respectively disposed at opposite sides of the isolation layer, a first charge storing layer between the first control gate electrode and the first semiconductor layer, and a second charge storing layer between the second control gate electrode and the second semiconductor layer.

Abstract: Provided are a non-volatile memory device which can be extended in a stack structure and thus can be highly integrated, and a method of manufacturing the non-volatile memory device. The non-volatile memory device includes: at least one first electrode, at least one second electrode crossing the at least one first electrode, at least one data storing layer interposed between the at least one first electrode and the second electrode, at a region in which the at least one first electrode crosses the at least one second electrode and at least one metal silicide layer interposed between the at least one first electrode and the at least one second electrode, at the region in which the at least one first electrode crosses the at least one second electrode.

Abstract: The non-volatile memory device may include a semiconductor substrate having a body and a pair of fins. A bridge insulating layer may non-electrically connect upper portions of the pair of fins to define a void between the pair of fins. Outer surfaces of the pair of fins are the surfaces of the pair of fins that do not face the void and inner surfaces of the pair of fins are the surfaces of the pair of fins that do face the void. The non-volatile memory device may further include at least one control gate electrode that may cover at least a portion of outer surfaces of the pair of fins, may extend over the bridge insulating layer, and may be isolated from the semiconductor substrate. At least one pair of gate insulating layers may be between the at least one control gate electrode and the pair of fins, and at least one pair of storage nodes may be between the at least one pair of gate insulating layers and the at least one control gate electrode.

Abstract: A non-volatile memory device and methods of fabricating the device according to example embodiments involve a stacked layer structure. The non-volatile memory device may include at least one first horizontal electrode including a first sidewall and a second sidewall; at least one second horizontal electrode including a third sidewall and a fourth sidewall; wherein the third sidewall may be disposed to face the first sidewall; at least one vertical electrode may be interposed between the first sidewall and the third sidewall, in such a way as to cross or intersect each of the at least one first and second horizontal electrodes, and; at least one data storage layer that may be capable of locally storing a change of electrical resistance may be interposed where the at least one first horizontal electrode and the at least one vertical electrode cross or intersect and where the at least one horizontal electrode and the at least one vertical electrodes cross or intersect.

Abstract: Provided are a non-volatile memory device that may be configured in a stacked structure and may be more easily highly integrated, and a method of fabricating the non-volatile memory device. At least one first electrode and at least one second electrode are provided. The at least one second electrode may cross the at least one first electrode. At least one data storage layer may be at an intersection between the at least one first electrode and the at least one second electrode. Any one of the at least one first electrode and the at least one second electrode may include at least one junction diode connected to the at least one data storage layer.

Abstract: A multi-layered non-volatile memory device and a method of manufacturing the same. The non-volatile memory device may include a plurality of first semiconductor layers having a stack structure. A plurality of control gate electrodes may extend across the first semiconductor layers. A first body contact layer may extend across the first semiconductor layers. A plurality of charge storage layers may be interposed between the control gate electrodes and the first semiconductor layers.

Abstract: Example embodiments relate to a semiconductor device and a method of manufacturing the same. A semiconductor device according to example embodiments may have reduced disturbances during reading operations and a reduced short channel effect. The semiconductor device may include a semiconductor substrate having a body and a pair of fins protruding from the body. Inner spacer insulating layers may be formed on an upper portion of an inner sidewall of the pair of fins so as to reduce the entrance to the region between the pair of fins. A gate electrode may cover a portion of the external sidewalls of the pair of fins and may extend across the inner spacer insulating layers so as to define a void between the pair of fins. Gate insulating layers may be interposed between the gate electrode and the pair of fins.

Abstract: A ferroelectric capacitor comprises a first electrode comprising an alloy containing a first element and a second element of the periodic table of the elements, the first element being selected from the group consisting of Ir and Ru. A ferroelectric layer is disposed on the first electrode, wherein the ferroelectric layer comprises a ferroelectric material containing the second element. A second electrode is disposed on the ferroelectric layer. The ferroelectric capacitor can be provided as part of a memory cell of a ferroelectric memory.

Abstract: A method of fabricating a non-volatile memory device according to example embodiments may include forming a semiconductor layer on a substrate. A plurality of lower charge storing layers may be formed on a bottom surface of the semiconductor layer. A plurality of lower control gate electrodes may be formed on the plurality of lower charge storing layers. A plurality of upper charge storing layers may be formed on a top surface of the semiconductor layer. A plurality of upper control gate electrodes may be formed on the plurality of upper charge storing layers, wherein the plurality of lower and upper control gate electrodes may be arranged alternately.

Abstract: Provided are a non-volatile memory device that may expand to a stacked structure and may be more easily highly integrated and an economical method of fabricating the non-volatile memory device. The non-volatile memory device may include at least one semiconductor column. At least one first control gate electrode may be arranged on a first side of the at least one semiconductor column. At least one second control gate electrode may be arranged on a second side of the at least one semiconductor column. A first charge storage layer may be between the at least one first control gate electrode and the at least one semiconductor column. A second charge storage layer may be between the at least one second control gate electrode and the at least one semiconductor column.

Abstract: Example embodiments relate to a semiconductor device and a method of manufacturing the same. A semiconductor device according to example embodiments may have reduced disturbances during reading operations and a reduced short channel effect. The semiconductor device may include a semiconductor substrate having a body and a pair of fins protruding from the body. Inner spacer insulating layers may be formed on an upper portion of an inner sidewall of the pair of fins so as to reduce the entrance to the region between the pair of fins. A gate electrode may cover a portion of the external sidewalls of the pair of fins and may extend across the inner spacer insulating layers so as to define a void between the pair of fins. Gate insulating layers may be interposed between the gate electrode and the pair of fins.

Abstract: Unit cells of a non-volatile memory device and a method thereof are provided. In an example, the unit cell may include a first memory transistor and a second memory transistor connected to each other in series and further connected in common to a word line, the first and second memory transistors including first and second storage nodes, respectively, the first and second storage nodes configured to execute concurrent memory operations.

Abstract: Provided are a non-volatile memory device, which may have a stacked structure and may be easily integrated at increased density, and a method of fabricating and using the non-volatile memory device. The non-volatile memory device may include at least one pair of first electrode lines. At least one second electrode line may be between the at least one pair of first electrode lines. At least one data storage layer may be between the at least one pair of first electrode lines and the at least one second electrode line and may locally store a resistance change.

Abstract: A non-volatile memory device may include a plurality of stacked semiconductor layers, a plurality of NAND strings, a common bit line, a common source line, and/or a plurality of string selection lines. The plurality of NAND strings may be on the plurality of semiconductor layers. Each of the plurality of NAND strings may include a plurality of memory cells and/or at least one string selection transistor arranged in a NAND-cell array. The common bit line may be commonly connected to each of the NAND strings at a first end of the memory cells. The common source line may be commonly connected to each of the NAND strings at a second end of the memory cells. The plurality of string selection lines may be coupled to the at least one string selection transistor included in each of the NAND strings such that a signal applied to the common bit line is selectively applied to the NAND strings.

Abstract: Provided is a method of operating a three-dimensional nonvolatile memory device which may increase the reliability and efficiency of the three-dimensional nonvolatile memory device. The method of operating a nonvolatile memory device may include: resetting the nonvolatile memory device by injecting charges into charge storage layers of a plurality of memory cells of a block; and setting the nonvolatile memory device by removing at least some of the charges injected into the charge storage layers of one or more memory cells selected from among the plurality of memory cells.

Abstract: A non-volatile memory device may include at least one semiconductor layer, a plurality of control gate electrodes, a plurality of charge storage layers, at least one first auxiliary electrode, and/or at least one second auxiliary electrode. The plurality of control gate electrodes may be recessed into the semiconductor layer. The plurality of charge storage layers may be between the plurality of control gate electrodes and the semiconductor layer. The first and second auxiliary electrodes may be arranged to face each other. The plurality of control gate electrodes may be between the first and second auxiliary electrodes and capacitively coupled with the semiconductor layer.

Abstract: A ferroelectric capacitor comprises a first electrode comprising an alloy of Ir and Ru, a ferroelectric layer disposed on the first electrode, and a second electrode disposed on the ferroelectric layer. A ferroelectric memory comprises a substrate and a plurality of memory cells arranged on the substrate. Each memory cell comprises a first electrode comprising an alloy of Ir and Ru, a ferroelectric layer disposed on the first electrode, and a second electrode disposed on the ferroelectric layer.

Abstract: Antifuse structures, antifuse arrays, methods of manufacturing, and methods of operating the same are provided. An antifuse structure includes bitlines formed as first diffusing regions within a semiconductor substrate, an insulation layer formed on the bitlines, and wordlines formed on the insulation layer. An antifuse array includes a plurality of antifuse structures arranged in an array.

Abstract: A semiconductor memory device and methods of manufacturing and operating the same may be provided. The semiconductor memory device may include a substrate, at least a pair of fins protruding from the semiconductor substrate and facing each other with a gap between fins of the pair of fins, an insulating layer formed between the pair of the fins, a storage node formed on the pair of fins and/or a surface of a portion of the insulating layer, and/or a gate electrode formed on the storage node.

Abstract: Provided are a non-volatile memory device and an operation method of the same. The non-volatile memory device may include one or more main strings each of which may include first and second substrings which may separately include a plurality of memory cell transistors; and a charge supply line which may be configured to provide charges to or block charges from the first and second substrings of each of the main strings, wherein each of the main strings may include a first ground selection transistor which may be connected to the first substring; a first substring selection transistor which may be connected to the first ground selection transistor; a second ground selection transistor which may be connected to the second substring; and a second substring selection transistor which may be connected to the second ground selection transistor.