Abstract: A three-dimensional memory device includes alternating stacks of insulating layers and electrically conductive layers that laterally extending along a first horizontal direction, and laterally spaced apart along a second horizontal direction by lateral isolation trenches, memory stack structures vertically extending through a respective one of the alternating stacks; and isolation trench fill structures located in the lateral isolation trenches. At least one of the isolation trench fill structures includes a first lengthwise sidewall and a second lengthwise sidewall. The first lengthwise sidewall has a first periodic lateral undulation with a uniform pitch along the first horizontal direction. The second lengthwise sidewall has a second periodic lateral undulation with the uniform pitch along the first horizontal direction.

Abstract: The present invention detects the copy number of a specific nucleic acid per single cell in a cell population. This method comprises, in a reaction compartment containing a DNA sample, which is derived from nucleic acids in a single cell, and a PCR system, amplifying a target contained in the DNA sample by PCR. Then, PCR amplicons for each reaction compartment are quantified during the exponential amplification phase.

Abstract: A three-dimensional memory device includes an alternating stack of insulating layers and electrically conductive layers, a first three-dimensional memory array located in a first memory array region, and a second three-dimensional memory array located in a second memory array region that is laterally spaced from the first memory array region along a first horizontal direction by an inter-array region. The alternating stack is laterally bounded by two trench fill structures that are laterally spaced apart along a second horizontal direction by an inter-trench spacing. The inter-array region includes a stepped cavity having vertical steps of the alternating stack that laterally extend along different horizontal directions. Multiple rows of contact via structures may contact different electrically conductive layers in the stepped cavity.

Abstract: A three-dimensional memory device includes an alternating stack of insulating layers and electrically conductive layers, a first three-dimensional memory array located in a first memory array region, and a second three-dimensional memory array located in a second memory array region that is laterally spaced from the first memory array region along a first horizontal direction by an inter-array region. The alternating stack is laterally bounded by two trench fill structures that are laterally spaced apart along a second horizontal direction by an inter-trench spacing. The inter-array region includes a stepped cavity having vertical steps of the alternating stack that laterally extend along different horizontal directions. Multiple rows of contact via structures may contact different electrically conductive layers in the stepped cavity.

Abstract: A three-dimensional memory device includes a source-level structure located over a substrate, an alternating stack of insulating layers and electrically conductive layers located over the source-level structure, memory openings vertically extending through the alternating stack, and memory opening fill structures located in the memory openings. The source-level structure includes a lower source-level semiconductor layer including elongated grooves in an upper portion thereof, doped semiconductor source rails located within the elongated grooves, and an upper source-level semiconductor layer. The doped semiconductor source rails are laterally spaced apart from each other along a first horizontal direction and laterally extend along a second horizontal direction. Each of the memory opening fill structures includes a respective vertical stack of memory elements and a respective vertical semiconductor channel that contacts a respective one of the doped semiconductor source rails.

Abstract: A semiconductor structure includes an alternating stack of insulating layers and electrically conductive layers, a memory opening vertically extending through the alternating stack, and a memory opening fill structure located in the memory opening and including a vertical semiconductor channel, a memory film in contact with the vertical semiconductor channel, and a vertical stack of tubular dielectric spacers laterally surrounding the memory film. The tubular dielectric spacers may include tubular graded silicon oxynitride portions having a composition gradient such that an atomic concentration of nitrogen decreases with a lateral distance from an outer sidewall of the memory film, or may include tubular composite dielectric spacers including a respective tubular silicon oxide spacer and a respective tubular dielectric metal oxide spacer. Each of the electrically conductive layers has a hammerhead-shaped vertical cross-sectional profile.

Abstract: A chip includes a micro-channel unit for hydraulically classifying cells in a blood sample. In a micro-channel unit, liquid flowing from a sub channel into a main channel pushes cells flowing in the main channel toward a side thereof on which a removal channel and a collection channel are disposed. Fluid containing non-nucleated RBCs among the pushed cells enters the removal channel, so that the non-nucleated RBCs are removed from a blood sample. A plurality of micro-channel units having the same patterns as each other are repeatedly stacked in a height direction. Inlets of the main channels, inlets of the sub channels, outlets of the removal channels, outlets of the collection channels, and outlets of the main channels, which are provided in the micro-channel units, are connected to respective pillar channels penetrating each of layers in a traversing manner.

Abstract: A device for blood (1) is provided with a column (50) and a micro flow path (20) located downstream of the column (50). The column (50) includes a porous material as a solid phase, and blood that has contacted with the porous material flows through the micro flow path (20). In the device for blood (1), the column (50) and the micro flow path (20) are provided as separated bodies. The column (50) has a connecting part (55), the micro flow path (20) has an inlet (21a), the connecting part (55) and the inlet (21a) are connected to each other to integrate the column (50) with the micro flow path (20), and blood (BL) is allowed to pass from the column (50).

Abstract: A three-dimensional memory device includes an alternating stack of insulating layers and electrically conductive layers, memory openings located in a memory array region and vertically extending through the alternating stack, memory opening fill structures located in the memory openings, and laterally-isolated contact via assemblies located in a contact region that is located adjacent to the memory array region. Each of the laterally-isolated contact via assemblies includes a contact via structure contacting a top surface of a respective one of the electrically conductive layers and a dielectric spacer laterally surrounding the contact via structure. Each contact via structure other than a contact via structure contacting a topmost one of the electrically conductive layers extends through and is laterally surrounded by each electrically conductive layer that overlies the respective electrically conductive layer.

Abstract: A monitoring control system includes: at least one transmission monitoring control subsystem; and at least one distribution monitoring control subsystem. The transmission monitoring control subsystem and the distribution monitoring control subsystem respectively include an operation procedure creation unit that creates an operation procedure that defines a procedure of an operation for a facility installed in an electric power system, and an operation unit that, in a case an on-site operation that cannot be remotely performed on the facility is included in the operation procedure, transmits, to an on-site terminal associated with the on-site operation, a start confirmation instruction to confirm whether or not the on-site operation can be started and the operation procedure for the on-site operation. The monitoring control system performs monitoring control of the power transmission system and the power distribution system based on the operation procedure.

Abstract: In the present invention, a fraction (A) is labeled, the fraction (A) being a fraction obtained from a maternal blood sample and in which nucleated red blood cells (NRBCs) are concentrated in a population of whole blood cells. Then, a fraction (B) having increase purity of NRBCs is obtained by sorting out blood cells in the labeled fraction A by at least cell sorting. Next, fractions (C) are obtained by separating each blood cell in the fraction (B) at a single-cell level and independently performing a process for extracting a nucleic acid for each separated blood cell, each of the fractions (C) containing a nucleic acid distinguishable at a single-cell level. Then, a fraction (D) containing a nucleic acid derived from a fetus is sorted out from a group of fractions (C) by performing a molecular biological analysis for each of the fractions (C).

Abstract: A shift control device for an automatic transmission includes: an engagement control unit that controls an engagement hydraulic pressure supplied to an engagement hydraulic chamber of an engagement side friction element; a hydraulic pressure detecting unit that detects the engagement hydraulic pressure; a reference setting unit that calculates a predicted value of the engagement hydraulic pressure during shifting, based on a rising characteristic of the engagement hydraulic pressure from when supply of the engagement hydraulic pressure is started to when engagement of the engagement side friction element is started, and sets the predicted value as a reference hydraulic pressure; and an engagement start detecting unit that detects an engagement start time point of the engagement side friction element, based on a difference between the hydraulic pressure detected by the hydraulic pressure detecting unit during the shifting and the reference hydraulic pressure.

Abstract: A three-dimensional memory device includes an alternating stack of insulating layers and electrically conductive layers located between line trenches, a first memory array region and a second memory array region, and a pair of dielectric wall structures located between the first line trench and the second line trench and between the memory array regions. Each layer within the alternating stack continuously extends between the first memory array region and the second memory array region in a connection region. The electrically conductive layers of the alternating stack have lateral extents that decrease with a distance from the substrate in a staircase region. Dielectric material plates interlaced with insulating plates or insulating layers are provided between the dielectric wall structures.

Abstract: A three-dimensional memory device includes an alternating stack of insulating layers and electrically conductive layers located between line trenches, a first memory array region and a second memory array region, and a pair of dielectric wall structures located between the first line trench and the second line trench and between the memory array regions. Each layer within the alternating stack continuously extends between the first memory array region and the second memory array region in a connection region. The electrically conductive layers of the alternating stack have lateral extents that decrease with a distance from the substrate in a staircase region. Dielectric material plates interlaced with insulating plates or insulating layers are provided between the dielectric wall structures.

Abstract: A three-dimensional memory device includes an alternating stack of insulating layers and electrically conductive layers, memory openings vertically extending through each layer of the alternating stack; memory opening fill structures located in the memory openings, and a perforated wall structure including lateral openings at levels of the insulating layers.

Abstract: Blood containing cells is brought into contact with a porous surface of a porous material before classification of the cells in the blood by flowing the blood through a microchannel. In an example, the porous material is added to the blood containing the cells and mixed together, thereby bringing the blood containing the cells into contact with the porous surface. In an example, the porous material has particles with the porous surface including polysaccharides. The porous material is added to the blood containing the cells while being suspended in a liquid. In an example, the particles have a predetermined particle size distribution. A median particle size d50V in the volume-based cumulative distribution is 25 to 280 ?m.

Abstract: An object is to enhance the assembly of a breather pipe which is accommodated in a filler pipe.

Abstract: A monitoring control system including: at least one transmission monitoring control subsystem that performs monitoring control of a power transmission system; at least one distribution monitoring control subsystem that performs monitoring control of a power distribution system; a calculation server that stores outage plan names related to outages of the power transmission system and outages of the power distribution system; and a network that connects the transmission monitoring control subsystem, the distribution monitoring control subsystem, and the calculation server. The monitoring control system performs monitoring control of the power transmission system and the power distribution system based on the outage plan name.

Abstract: A monitoring control system including: at least one transmission monitoring control subsystem that performs monitoring control of a power transmission system; at least one distribution monitoring control subsystem that performs monitoring control of a power distribution system; a calculation server that stores outage plan names related to outages of the power transmission system and outages of the power distribution system; and a network that connects the transmission monitoring control subsystem, the distribution monitoring control subsystem, and the calculation server. The monitoring control system performs monitoring control of the power transmission system and the power distribution system based on the outage plan name.

Abstract: An object is to enhance the assembly of a breather pipe which is accommodated in a filler pipe.