Samsung Electronics Co., Ltd.

Lg Electronics Inc.

Junhee Lim

Kyunghwan Lee

Yongseok Kim

Gwanhyeob Koh

Kilho Lee

Kohji Kanamori

Hongsoo Kim

Bongyong Lee

Chang-hoon Jeon

Tae Hun Kim

Jeehoon Han

Moorym Choi

Ilmok Park

Byoung-taek Kim

Dongkyun Seo

Taeyoung Kim

Satoru Yamada

Joon Soo Han

Dongsoo Woo

Sungho Jang

Changseok Kang

Sangyoun Jo

Sungkweon Baek

Sangyuk Son

Hyojoon Ryu

Won-Kyung Park

Cheonan Lee

Kyungjung Lee

Hakseon Kim

Kangoh Yun

Changhoon Jeon

Heesuk Kim

A semiconductor device including a substrate including a cell array region and a connection region, an electrode structure stacked on the substrate, each of the electrodes including a line portion on the cell array region and a pad portion on the connection region, Vertical patterns penetrating the electrode structure, a cell contact on the connection region and connected to the pad portion, an insulating pillar below the cell contact, with the pad portion interposed therebetween may be provided. The pad portion may include a first portion having a top surface higher than the line portion, and a second portion including a first protruding portion, the first protruding portion extending from the first portion toward the substrate and covering a top surface of the insulating pillar.

Semiconductor device and electronic system including the same

A semiconductor device includes a first structure and a second structure thereon. The first structure includes a substrate, circuit elements on the substrate, a lower interconnection structure electrically connected to the circuit elements, and lower bonding pads, which are electrically connected to the lower interconnection structure. The second structure includes a stack structure including: gate electrodes and interlayer insulating layers, which are alternately stacked and spaced apart in a vertical direction; a plate layer that extends on the stack structure; channel structures within the stack structure, separation regions, which penetrate at least partially through the stack structure, and upper bonding pads, which are electrically connected to the gate electrodes and the channel structures, and are bonded to corresponding ones of the lower bonding pads.

Semiconductor storage devices and data storage systems including the same

A semiconductor device includes a gate structure disposed on a substrate. The gate structure has a first sidewall and a second sidewall facing the first sidewall. A first impurity region is disposed within an upper portion of the substrate. The first impurity region is spaced apart from the first sidewall. A third impurity region is within the upper portion of the substrate. The third impurity region is spaced apart from the second sidewall. A first trench is disposed within the substrate between the first sidewall and the first impurity region. The first trench is spaced apart from the first sidewall. A first barrier insulation pattern is disposed within the first trench.

Semiconductor device having high voltage transistors

Disclosed is a semiconductor device including first conductive lines, second conductive lines crossing the first conductive lines, and memory cells at intersections between the first conductive lines and the second conductive lines. Each of the memory cells includes a magnetic tunnel junction pattern, a bi-directional switching pattern connected in series to the magnetic tunnel junction pattern, and a conductive pattern between the magnetic tunnel junction pattern and the bi-directional switching pattern.

Semiconductor device having first memory section and second memory section

A resistive memory device includes a memory cell array, control logic, a voltage generator, and a read-out circuit. The memory cell array includes memory cells connected to bit lines. Each memory cell includes a variable resistance element to store data. The control logic receives a read command and generates a voltage control signal for generating a plurality of read voltages based on the read command. The voltage generator sequentially applies the read voltages to the bit lines based on the voltage control signal. The read-out circuit is connected to the bit lines. The control logic determines values of data stored in the memory cells by controlling the read-out circuit to sequentially compare values of currents sequentially output from the memory cells in response to the plurality of read voltages with a reference current.

Resistive memory device controlling bitline voltage

A first memory section is disposed on a substrate. A second memory section is vertically stacked on the first memory section. The first memory section is provided between the substrate and the second memory section. The first memory section includes a flash memory cell structure, and the second memory section includes a variable resistance memory cell structure. The flash memory cell structure includes at least one cell string comprising a plurality of first memory cells connected in series to each other and a bit line on the substrate connected to the at least one cell string. The bit line is interposed vertically between the at least one cell string and the second memory section and connected to the second memory section.

Semiconductor device

A semiconductor device includes a first semiconductor structure comprising a substrate and a circuit element, and a second semiconductor structure connected to the first semiconductor structure. The second semiconductor structure includes a base layer, a first memory cell structure, a second memory cell structure, and common bit lines between the first memory cell structure and the second memory cell structure. The first memory cell structure includes first gate electrodes, first channel structures, and first string select channel structures. The second memory cell structure includes second gate electrodes, second channel structures, second string select channel structures, and connection regions between the second channel structures and the second string select channel structures. The first memory cell structure further includes first channel pads between the common bit lines and the first string select channel structures, and the second memory cell structure further includes second channel pads extending along the common bit lines.

Semiconductor device for preventing defects between bit lines and channels

A three-dimensional semiconductor memory device includes an electrode structure including gate electrodes and insulating layers, which are alternately stacked on a substrate, a semiconductor pattern extending in a first direction substantially perpendicular to a top surface of the substrate and penetrating the electrode structure, a tunnel insulating layer disposed between the semiconductor pattern and the electrode structure, a blocking insulating layer disposed between the tunnel insulating layer and the electrode structure, and a charge storing layer disposed between the blocking insulating layer and the tunnel insulating layer. The charge storing layer includes a plurality of first charge trap layers having a first energy band gap, and a second charge trap layer having a second energy band gap larger than the first energy band gap. The first charge trap layers are embedded in the second charge trap layer between the gate electrodes and the semiconductor pattern.

Three-dimensional semiconductor memory device

Three-dimensional semiconductor memory devices are provided. A three-dimensional semiconductor memory device includes a plurality of word line blocks including a plurality of cell strings that are connected in parallel between a bit line and a common source line. Each of the cell strings includes a plurality of memory cell transistors that are stacked on a substrate in a vertical direction, a plurality of ground selection transistors that are connected in series between the plurality of memory cell transistors and the substrate, and a string selection transistor that is between the plurality of memory cell transistors and the bit line. In each of the cell strings, at least one of the plurality of ground selection transistors has a first threshold voltage, and remaining ones of the ground selection transistors have a second threshold voltage different from the first threshold voltage. Related methods of operating three-dimensional semiconductor memory devices are also provided.

Three-dimensional semiconductor memory devices and methods of operating the same

A semiconductor device includes first conductive lines, second conductive lines crossing the first conductive lines, and memory cells at intersections between the first conductive lines and the second conductive lines. Each of the memory cells includes a magnetic tunnel junction pattern, a bi-directional switching pattern connected in series to the magnetic tunnel junction pattern, and a conductive pattern between the magnetic tunnel junction pattern and the bi-directional switching pattern.

Semiconductor device having magnetic tunnel junction pattern

Provided are three-dimensional semiconductor memory devices and methods of fabricating the same. The three-dimensional semiconductor memory device includes a plurality of electrode structures provided on a substrate and extending in parallel to each other in one direction and each including electrodes and insulating layers alternately stacked on the substrate, a plurality of vertical structures penetrating the plurality of electrode structures, and an electrode separation structure disposed between two of the plurality of electrode structures adjacent to each other. Each of the electrodes includes an outer portion adjacent to the electrode separation structure, and an inner portion adjacent to the plurality of vertical structures. A thickness of the outer portion is smaller than a thickness of the inner portion.

Three-dimensional semiconductor memory device and method of fabricating the same

A three-dimensional semiconductor memory device includes common source regions, an electrode structure between the common source regions, first channel structures penetrating the electrode structure, and second channel structures between the first channel structures and penetrating the electrode structures. The electrode structure includes electrodes vertically stacked on a substrate. The first channel structures include a first semiconductor pattern and a first vertical insulation layer. The second channel structures include a second vertical insulation layer surrounding a second semiconductor pattern. The second vertical insulation layer has a bottom surface lower than a bottom surface of the first vertical insulation layer.

Three-dimensional semiconductor memory devices

An air handler having a fan module and a separation partition is provided, in which a case panel may be assembled with a plurality of module frames via a considerably simplified sliding coupling providing excellent hermetic sealing. As such, manufacturing costs may be reduced due to reduction in a number of components, and assembly time may be remarkably reduced due to a reduced number of assembly operations. This advantageously results in reduced labor cost and enhanced air conditioning efficiency.

Air handler having fan module and separation partition

Integrated circuit devices may include a substrate including a flash memory region and a variable resistance memory region, a flash memory cell transistor including a cell gate electrode that overlaps the flash memory region of the substrate, a variable resistance element that overlaps the variable resistance memory region of the substrate, and a select transistor including a select source/drain region that is disposed in the variable resistance memory region of the substrate. The select source/drain region may be electrically connected to the variable resistance element. The substrate may include an upper surface facing the cell gate electrode and the variable resistance element, and the upper surface of the substrate may continuously extend from the flash memory region to the variable resistance memory region.

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Seoul, South Korea

Junhee Lim