Abstract: An electrostatic separation method includes: applying voltage between a lower electrode at a bottom portion of or in the raw material layer and an upper electrode above the raw material layer, generating an electric field between electrodes; fluidizing the raw material layer and bringing conductive particles and the lower electrode into contact in the raw material layer charging only the conductive particles wherein their polarity becomes the same as the lower electrode; generating polarity, the same as the upper electrode, by dielectric polarization on a conveyor belt downward-facing conveyance surface passing through a capture region above the raw material layer and under the upper electrode, the conveyance surface including a nonconductor; separates charged conductive particles from the raw material layer surface by electrostatic force and adhering conductive particles to the conveyor belt conveyance surface; and separating and collecting the particles from the conveyance surface that moved outside the ele

Abstract: A gas separation membrane module includes at least one hollow fiber membrane element and a casing. The hollow fiber membrane element includes hollow fiber membranes and a cylindrical body. The cylindrical body extends in a longitudinal direction of the hollow fiber membranes, and accommodates the hollow fiber membranes. The hollow fiber membrane element includes sweep gas introduction ports and mixed gas discharge ports. A first supply chamber, a first discharge chamber, a second supply chamber, and a second discharge chamber are positioned between the casing and the hollow fiber membrane element. The first supply chamber, the first discharge chamber, the second supply chamber, and the second discharge chamber are partitioned off from each other.

Abstract: A semiconductor device including a structure having N gate electrode layers G and (N?1) channel formation region layers CH (where N?3) alternately juxtaposed on an insulating material layer of a base having the insulating material layer formed on a surface of a conductive substrate. Each of the structure, the channel formation region layer CH, and the gate electrode layer G has a bottom surface, a top surface, and four side surfaces. A second surface of the nth channel formation region layer is connected to a fourth surface of the nth gate electrode layer. A fourth surface of the nth channel formation region layer is connected to a second surface of the (n+1)th gate electrode layer. One of an odd-numbered layer of the gate electrode layers and an even-numbered layer of the gate electrode layers is connected to a first contact portion and the other is connected to a second contact portion.

Abstract: A semiconductor device including a structure having N gate electrode layers G and (N?1) channel formation region layers CH (where N?3) alternately juxtaposed on an insulating material layer of a base having the insulating material layer formed on a surface of a conductive substrate. Each of the structure, the channel formation region layer CH, and the gate electrode layer G has a bottom surface, a top surface, and four side surfaces. A second surface of the nth channel formation region layer is connected to a fourth surface of the nth gate electrode layer. A fourth surface of the nth channel formation region layer is connected to a second surface of the (n+1)th gate electrode layer. One of an odd-numbered layer of the gate electrode layers and an even-numbered layer of the gate electrode layers is connected to a first contact portion and the other is connected to a second contact portion.

Abstract: An electrostatic separator separates conductive particles from raw materials includes: a container with a raw material layer; a gas dispersion plate at the bottom of the raw material layer; at least one vibrating body in the raw material layer flush with the gas dispersion plate or above it; a fluidization gas supplier introduced from the container bottom into the raw material layer flows upward through the gas dispersion plate; an upper electrode above the raw material layer; a lower electrode in the raw material layer, the lower electrode being flush with the gas dispersion plate or above it; a power supply applies a voltage between the upper and lower electrode wherein one becomes a negative electrode, the other becomes a positive electrode, and an electric field is generated between them; and a capturer captures conductive particles that have flown out of the raw material layer surface toward the upper electrode.

Abstract: An electrostatic separation method includes: applying voltage between a lower electrode at a bottom portion of or in the raw material layer and an upper electrode above the raw material layer, generating an electric field between electrodes; fluidizing the raw material layer and bringing conductive particles and the lower electrode into contact in the raw material layer charging only the conductive particles wherein their polarity becomes the same as the lower electrode; generating polarity, the same as the upper electrode, by dielectric polarization on a conveyor belt downward-facing conveyance surface passing through a capture region above the raw material layer and under the upper electrode, the conveyance surface including a nonconductor; separates charged conductive particles from the raw material layer surface by electrostatic force and adhering conductive particles to the conveyor belt conveyance surface; and separating and collecting the particles from the conveyance surface that moved outside the ele

Abstract: A wire harness including: a plurality of wires each including a core wire whose transverse cross-sectional shape is a flat shape, and an insulating sheath covering an outer circumference of the core wire; a plurality of outer covers into which the plurality of wires are inserted respectively, wherein the outer covers are independent of each other and each have a flat tubular shape; and a clamp that is attached to an outer circumferential surface of the outer covers and that fix the outer covers to a vehicle body.

Abstract: A system for processing a waste lithium-ion battery includes: a first aqueous solution generator that includes a first elution tank storing water, and that immerses an active material taken out from the waste lithium-ion battery in the water in the first elution tank and subjects the active material to carbon dioxide bubbling in the first elution tank to generate an aqueous solution of pH 5.5 to 8.5, in which lithium contained in the active material is eluted; a first solid-liquid separator that removes a solid component from the aqueous solution generated by the first aqueous solution generator; a first crystallizer that causes lithium carbonate to be deposited from the aqueous solution, from which the solid component has been removed by the first solid-liquid separator; and a second solid-liquid separator that performs solid-liquid separation on slurry containing the lithium carbonate deposited in the first crystallizer to take out the lithium carbonate.

Abstract: [Object] To provide a fluid control apparatus having a diaphragm structure and small flow path resistance. [Solving Means] A fluid control apparatus according to the present technology includes a first space, two flat plate members, a drive mechanism, a second space, a first check valve, and a second check valve. The first space has an inlet and an outlet. The two flat plate members face each other via the first space, and at least one of the flat plate members is an elastic body having flexibility. The drive mechanism bends the elastic body. The second space adjoins the first space, communicates with the first space via the inlet, and has a suction port. The first check valve allows fluid to flow from the suction port to the first space via the inlet. The third space adjoins the first space, communicates with the first space via the outlet, and has a discharge port. The second check valve allows the fluid to flow from the first space to the discharge port via the outlet.

Abstract: A semiconductor device including a structure having N gate electrode layers G and (N?1) channel formation region layers CH (where N?3) alternately juxtaposed on an insulating material layer of a base having the insulating material layer formed on a surface of a conductive substrate. Each of the structure, the channel formation region layer CH, and the gate electrode layer G has a bottom surface, a top surface, and four side surfaces. A second surface of the nth channel formation region layer is connected to a fourth surface of the nth gate electrode layer. A fourth surface of the nth channel formation region layer is connected to a second surface of the (n+1)th gate electrode layer. One of an odd-numbered layer of the gate electrode layers and an even-numbered layer of the gate electrode layers is connected to a first contact portion and the other is connected to a second contact portion.

Abstract: A system for and a method of processing a waste lithium-ion battery make it possible to improve heat treatment efficiency and to heat-treat a large-sized waste lithium-ion battery without disassembling the battery. One example of the system for processing a waste lithium-ion battery includes a heater that heat-treats a waste lithium-ion battery at a heating temperature of lower than 400° C. to decompose and remove an electrolyte solution from the waste lithium-ion battery.

Abstract: A semiconductor device including a structure having N gate electrode layers G and (N?1) channel formation region layers CH (where N?3) alternately juxtaposed on an insulating material layer formed on a surface of a conductive substrate. Each of the structure, the channel formation region layer CH, and the gate electrode layer G has a bottom surface, a top surface, and four side surfaces. A second surface of the nth channel formation region layer is connected to a fourth surface of the nth gate electrode layer. A fourth surface of the nth channel formation region layer is connected to a second surface of the (n+1)th gate electrode layer. One of an odd-numbered layer of the gate electrode layers and an even-numbered layer of the gate electrode layers is connected to a first contact portion and the other is connected to a second contact portion.

Abstract: [Object] To provide a tactile sense presentation apparatus, an electronic apparatus, an accessory, and a holding apparatus that can achieve an improvement in mountability. [Solving Means] A tactile sense presentation apparatus according to an embodiment of the present technology includes a mounting portion, a pump unit, and a control unit. The mounting portion is mounted on a target object and includes a surface material which is deformable in at least a part of a contact portion with the target object. The pump unit includes a flow path, which is connected to the mounting portion, and feeds a fluid for deforming the surface material to the mounting portion. The control unit controls driving of the pump unit.

Abstract: A terminal-attached electric wire includes: an insulated electric wire which includes a core wire and an insulating material covering the periphery of the core wire; a terminal fitting electrically connected to the core wire at the end of the insulated electric wire; and an adhesive tube covering the end of the insulating material. The terminal-attached electric wire includes a molding portion formed to cover a region extending from a core wire-connected portion of the terminal fitting which is connected to the core wire to a middle portion in an axial direction of the adhesive tube. The outer peripheral surface of the adhesive tube is adhered to the inner peripheral surface of the molding portion. The inner peripheral surface of the adhesive tube is adhered to the outer peripheral surface of the insulating material.

Abstract: A wire harness including: a plurality of wires each including a core wire whose transverse cross-sectional shape is a flat shape, and an insulating sheath covering an outer circumference of the core wire; a plurality of outer covers into which the plurality of wires are inserted respectively, wherein the outer covers are independent of each other and each have a flat tubular shape; and a clamp that is attached to an outer circumferential surface of the outer covers and that fix the outer covers to a vehicle body.

Abstract: A semiconductor device including a structure having N gate electrode layers G and (N?1) channel formation region layers CH (where N?3) alternately juxtaposed on an insulating material layer formed on a surface of a conductive substrate. Each of the structure, the channel formation region layer CH, and the gate electrode layer G has a bottom surface, a top surface, and four side surfaces. A second surface of the nth channel formation region layer is connected to a fourth surface of the nth gate electrode layer. A fourth surface of the nth channel formation region layer is connected to a second surface of the (n+1)th gate electrode layer. One of an odd-numbered layer of the gate electrode layers and an even-numbered layer of the gate electrode layers is connected to a first contact portion and the other is connected to a second contact portion.

Abstract: There is provided an image display device that comprises an image forming unit and a light guide unit. The light guide unit includes a light guide plate configured to guide light of an image formed in the image forming unit, and a support member. The light guide plate is supported by one or more buffer members at, at least, a plurality of portions of the support member.

Abstract: An image display device includes an image forming unit and a light guide unit. The light guide unit includes a light guide plate and a housing member. The light guide plate is configured to guide light of an image formed in the image forming unit. The housing member is configured to house the light guide plate. The housing member includes a first cover member, a second cover member, and an attachment member. The second cover member is attached to the first cover member. The attachment member is configured to attach the light guide plate to a housing unit that is surrounded by the first cover member and the second cover member.

Abstract: There is provided a polymeric actuator including: a pair of facing portions located so as to face each other; and a folded portion through which one end portions of the pair of facing portions are coupled to each other, wherein the pair of facing portions and the folded portion are composed of an inner electrode layer, an electrolyte layer, and an outer electrode layer which are laminated in order from an inside. Therefore, the displacements are generated in the pair of facing portions, respectively, to be added to each other, and the displacement is generated in the folded portion as well due to the bending. As a result, the large displacement is generated as a whole. Thus, it is possible to increase the displacement amount after the simplification of the structure is realized.

Abstract: There is provided an image display device that comprises an image forming unit and a light guide unit. The light guide unit includes a light guide plate configured to guide light of an image formed in the image forming unit, and a support member. The light guide plate is supported by one or more buffer members at, at least, a plurality of portions of the support member.