mhurhangee/ep-ind-claims huggingface dataset:
A method of fabricating a semiconductor structure with multiple quantum wells, the method comprising: providing a substrate comprising a binary semiconductor compound having a first lattice constant; forming, on the substrate, a first stack of quantum wells comprising substantially planar semiconductor layers comprising greater than 8 and fewer than 16 layers of a first semiconductor alloy comprising InP, and greater than 8 and fewer than 16 layers of a second semiconductor alloy comprising InP, by depositing at least: a first layer on the substrate, the first layer of the first semiconductor alloy comprising InP, and a second layer in contact with the first layer, the second layer of the second semiconductor alloy comprising InP; depositing, in contact with the first stack, a third layer of a binary semiconductor compound having substantially the first lattice constant of the substrate; depositing at least: a fourth layer on the third layer, the fourth layer comprising a third semiconductor alloy comprising InP, and a fifth layer in contact with the fourth layer, the fifth layer comprising a fourth semiconductor alloy comprising InP, to form a second stack of quantum wells comprising of substantially planar semiconductor layers on the third layer. providing a substrate comprising a binary semiconductor compound having a first lattice constant; forming, on the substrate, a first stack of quantum wells comprising substantially planar semiconductor layers comprising greater than 8 and fewer than 16 layers of a first semiconductor alloy comprising InP, and greater than 8 and fewer than 16 layers of a second semiconductor alloy comprising InP, by depositing at least: a first layer on the substrate, the first layer of the first semiconductor alloy comprising InP, and a second layer in contact with the first layer, the second layer of the second semiconductor alloy comprising InP; a first layer on the substrate, the first layer of the first semiconductor alloy comprising InP, and a second layer in contact with the first layer, the second layer of the second semiconductor alloy comprising InP; depositing, in contact with the first stack, a third layer of a binary semiconductor compound having substantially the first lattice constant of the substrate; depositing at least: a fourth layer on the third layer, the fourth layer comprising a third semiconductor alloy comprising InP, and a fifth layer in contact with the fourth layer, the fifth layer comprising a fourth semiconductor alloy comprising InP, to form a second stack of quantum wells comprising of substantially planar semiconductor layers on the third layer. a fourth layer on the third layer, the fourth layer comprising a third semiconductor alloy comprising InP, and a fifth layer in contact with the fourth layer, the fifth layer comprising a fourth semiconductor alloy comprising InP, to form a second stack of quantum wells comprising of substantially planar semiconductor layers on the third layer.
A flexible and steerable structure (20, 32) for nondestructive inspection, the structure comprising a longitudinal body and at least one actuator (28, 34) enabling the curvature of at least a portion of the longitudinal body to be modified, the structure being characterized in that the actuator (28, 34) is carried by a support associated with the longitudinal body and having a distal portion (24, 36) that is spaced apart or that is spaceable apart from the longitudinal body so as to form a lever arm for the flection of the longitudinal body and that is connected to a portion of the longitudinal body by a traction line.
Fastening system for roofs of an underground route, whereby the fastening system comprising of a rock bolt, to which a stop device can be fastened, wherein the stop device is connected to the rock bolt and is freely rotatable relative to the rock bolt, characterised by the fact that the stop device features a screw-in sleeve with an internal thread for connection to the rock bolt and the stop device is connected by a threaded connection to a protruding part of the anchor rod of the rock bolt, wherein the screw-in sleeve features a collar for receiving a sleeve-shaped vertebral body with a suspension element, and that a screw head for attaching a tool is fitted on the collar.
A filtration medium sequence (10; 20A; 20B; 30; 40; 50) comprising: (i) a first filtration medium (1; 21A; 21B) comprising an anion exchange nonwoven substrate, wherein the anion exchange nonwoven substrate comprises a plurality of quaternary ammonium groups; and (ii) a second filtration medium (2; 22A; 22B) comprising a functionalized microporous membrane, wherein the microporous membrane is a solvent-induced phase separation (SIPS) membrane or a thermally-induced phase separation (TIPS) membrane, and wherein the functionalized microporous membrane comprises a plurality of guanidyl groups; wherein the first filtration medium (1; 21A; 21B) is different from the second filtration medium (2; 22A; 22B) and wherein the first filtration medium (1; 21A; 21B) is positioned upstream of the second filtration medium (2; 22A; 22B). (i) a first filtration medium (1; 21A; 21B) comprising an anion exchange nonwoven substrate, wherein the anion exchange nonwoven substrate comprises a plurality of quaternary ammonium groups; and (ii) a second filtration medium (2; 22A; 22B) comprising a functionalized microporous membrane, wherein the microporous membrane is a solvent-induced phase separation (SIPS) membrane or a thermally-induced phase separation (TIPS) membrane, and wherein the functionalized microporous membrane comprises a plurality of guanidyl groups;
A bale identification assembly for use with an agricultural baler used to take loose crop material from the ground into bales and compress a formed bale in a baling chamber with a reciprocating plunger, the baler having at least one crop sensor and/or bale sensor configured to sense a parameter of the crop material or formed bale, and a knotter system that uses a binding material (52;152A) to bind the formed bale and tie a knot in the binding material (52;152A), the bale identification assembly comprising: a first supply roll (56A; 156A) mounted on the baler providing a binding material (52A; 152A) used by the knotter system to bind the formed bale wherein the binding material (52A; 152A) on the first supply roll (56A; 156A) is free of identification tags; the bale identification assembly characterised in that it further comprises a second supply roll (56B; 156B) mounted on the baler providing an identifying filament (52B; 152B), the identifying filament comprising identification tags (62; 162), wherein the knotter system routes the identifying filament (52B; 152B) from the second supply roll (56B; 156B) together with the binding material (52A; 152A) from the first supply roll (56A;156A) round at least a first portion of a formed bale and ties a knot in the binding material (52A; 152A) and identifying filament to bind the formed bale. a first supply roll (56A; 156A) mounted on the baler providing a binding material (52A; 152A) used by the knotter system to bind the formed bale wherein the binding material (52A; 152A) on the first supply roll (56A; 156A) is free of identification tags; the bale identification assembly characterised in that it further comprises a second supply roll (56B; 156B) mounted on the baler providing an identifying filament (52B; 152B), the identifying filament comprising identification tags (62; 162), wherein the knotter system routes the identifying filament (52B; 152B) from the second supply roll (56B; 156B) together with the binding material (52A; 152A) from the first supply roll (56A;156A) round at least a first portion of a formed bale and ties a knot in the binding material (52A; 152A) and identifying filament to bind the formed bale.
A method performed by a first user equipment in a wireless communications network, the method comprising: receiving, at the first user equipment, "UE1", configuration information for the first UE, "UE1 configuration information", for configuring the first UE to participate in an inter-device session, "IDS", between the first UE and a second UE, the UE1 configuration information including a first IDS radio network temporary identifier, "IDS-RNTI", the IDS-RNTI assigned by the network node to indicate radio resource allocation for the first UE to transmit data directly to the second UE; and receiving at the first UE a first control message addressed to the first IDS-RNTI, the first control message including a first radio resource information indicating a first radio resource for the first UE to transmit the data directly to the second UE and a second radio resource information indicating a second radio resource for the first UE to transmit one or more transmission parameters directly to the second UE, wherein the first radio resource is different from the second radio resource, and the transmission parameters include modulation and coding scheme, "MCS", of the direct data transmission. receiving, at the first user equipment, "UE1", configuration information for the first UE, "UE1 configuration information", for configuring the first UE to participate in an inter-device session, "IDS", between the first UE and a second UE, the UE1 configuration information including a first IDS radio network temporary identifier, "IDS-RNTI", the IDS-RNTI assigned by the network node to indicate radio resource allocation for the first UE to transmit data directly to the second UE; and receiving at the first UE a first control message addressed to the first IDS-RNTI, the first control message including a first radio resource information indicating a first radio resource for the first UE to transmit the data directly to the second UE and a second radio resource information indicating a second radio resource for the first UE to transmit one or more transmission parameters directly to the second UE, wherein the first radio resource is different from the second radio resource, and the transmission parameters include modulation and coding scheme, "MCS", of the direct data transmission.
Automatic weight stack controller for fitness equipment that is adapted to a frame that is comprised of a base having upright columns and an upper top, in which a steel cable designed to raise a stack of weights or a selected part thereof is centrally located, said cable being tensioned by levers, pulleys or cams of the fitness unit, said weights being comprised of thick plates guided by the columns, characterized in that each weight is provided with a vertical central hole having a "V" section or moon shaped circular groove, the controller further comprising a vertical tube having radial holes at the level of each one of the grooves, where balls are disposed, so that in its whole extension, centrally to the tube, is located a threaded rod attached to the upper part of the axle of an electric engine on which threaded rod a piston with a basic cylindrical shape and conical ends is disposed, the external diameter of which is a little lower than the inner diameter of the tube, the wall of said tube being thinner than the diameter of the balls, so that the balls that are disposed at the level at which the piston is located are fit into the groove of the weight located at this same level, the fixed tube being attached to the steel cable by way of a housing for the electric engine.
A patient support system comprising: a mattress, the mattress including a plurality of inflatable support cushions for supporting a patient's body; a controller including at least one processor and at least one memory device, the at least one memory device including instructions that, when executed by the at least one processor, (i) determine a position of the patient's body on the mattress and (ii) select at least one inflatable support cushion of the plurality of inflatable support cushions as a target cushions for deflation based on the determined position of the patient's body, characterized in that: the system further comprises at least one rotation actuator; and the controller further selects the target inflatable support cushion based on a user input, wherein the user input is a user selection of one of a supine position, a fetal position, and a custom target cushion mode. a mattress, the mattress including a plurality of inflatable support cushions for supporting a patient's body; a controller including at least one processor and at least one memory device, the at least one memory device including instructions that, when executed by the at least one processor, (i) determine a position of the patient's body on the mattress and (ii) select at least one inflatable support cushion of the plurality of inflatable support cushions as a target cushions for deflation based on the determined position of the patient's body, the system further comprises at least one rotation actuator; and the controller further selects the target inflatable support cushion based on a user input, wherein the user input is a user selection of one of a supine position, a fetal position, and a custom target cushion mode.
Material biocompatible and implantable in the human body in the form of a thread used to feed a three-dimensional printer of the thread or inkjet type, for the obtainment of a device that can be implanted in the human body or a spacer device for treating an infection in a bone or a joint location, comprising a plastic material comprising low density polyethylene or high density polyethylene or ultra high molecular weight polyethylene (UHMWPE) or a mixture of the above, characterized in that it comprises an additive, wherein said additive is a pharmaceutical or medical substance comprising gentamicin sulphate, and a radio-opacifying agent, in that said biocompatible material is moldeable and it is extruded into said thread and in that said biocompatible material comprises a further additive comprising a soluble and/or resorbable ceramic material, in form of powder or granules, that is tricalcium phosphate or calcium sulphate or hydroxyapatite.
A castable refractory composition comprising: 5% to 95% by weight of alumina, aluminosilicate, or mixtures thereof, up to 70% by weight silicon carbide, 1% to 10% by weight carbon, 0.5% to 5% by weight alkaline earth metal oxide and/or hydroxide, and 0.1% to 5% by weight of silica having a surface area of at least 10 m 2 /g; wherein the refractory composition does not utilise colloidal silica suspensions; wherein the refractory composition includes no more than 0.5% by weight of cementitious binder; wherein the refractory composition, following mixing within water produces less than 25 cm 3 of hydrogen gas per kg of wetted castable refractory composition; and wherein the refractory compositions sets on addition of water. 5% to 95% by weight of alumina, aluminosilicate, or mixtures thereof, up to 70% by weight silicon carbide, 1% to 10% by weight carbon, 0.5% to 5% by weight alkaline earth metal oxide and/or hydroxide, and 0.1% to 5% by weight of silica having a surface area of at least 10 m 2 /g; wherein the refractory composition does not utilise colloidal silica suspensions; wherein the refractory composition includes no more than 0.5% by weight of cementitious binder; wherein the refractory composition, following mixing within water produces less than 25 cm 3 of hydrogen gas per kg of wetted castable refractory composition; and wherein the refractory compositions sets on addition of water.
An imaging sensor comprising: a plurality of sharing units, wherein a first sharing unit of the plurality of sharing units includes: eight transfer transistors (TR12-1 - TR12-8); four on-chip lenses arranged in a 2x2 matrix, wherein each of the four on-chip lenses is arranged at a light-incident side of two transfer transistors of the eight transfer transistors; four color filters (Gb, B, R, Gr) arranged in a 2x2 matrix, wherein each of the four color filters is arranged at a light-incident side of two transfer transistors of the eight transfer transistors; a floating diffusion coupled to each of the eight transfer transistors (TR12-1 - TR12-8); shared transistors (TR11, TR13, TR14) including a single amplification transistor having a gate coupled to the floating diffusion, the shared transistors arranged in a horizontal direction; and a first vertical signal line coupled to the single amplification transistor, the first vertical signal line extending along a vertical direction, wherein the floating diffusion includes a first terminal and a second terminal, wherein the shared transistors (TR11, TR13, TR14) are arranged in a first row and wherein the first terminal and the second terminal are arranged in a second row, and wherein at least two color filters (Gb, B; R, Gr) of the four color filters arranged along the horizontal direction are configured to extract light having different wavelength ranges. eight transfer transistors (TR12-1 - TR12-8); four on-chip lenses arranged in a 2x2 matrix, wherein each of the four on-chip lenses is arranged at a light-incident side of two transfer transistors of the eight transfer transistors; four color filters (Gb, B, R, Gr) arranged in a 2x2 matrix, wherein each of the four color filters is arranged at a light-incident side of two transfer transistors of the eight transfer transistors; a floating diffusion coupled to each of the eight transfer transistors (TR12-1 - TR12-8); shared transistors (TR11, TR13, TR14) including a single amplification transistor having a gate coupled to the floating diffusion, the shared transistors arranged in a horizontal direction; and a first vertical signal line coupled to the single amplification transistor, the first vertical signal line extending along a vertical direction, wherein the floating diffusion includes a first terminal and a second terminal, wherein the shared transistors (TR11, TR13, TR14) are arranged in a first row and wherein the first terminal and the second terminal are arranged in a second row, and wherein at least two color filters (Gb, B; R, Gr) of the four color filters arranged along the horizontal direction are configured to extract light having different wavelength ranges.
A replaceable cartridge for user-installation in a printer system, comprising - a cartridge body; - a cartridge lid covering the cartridge body, wherein the cartridge lid comprises a lid aperture to supply printing fluid into the cartridge body; and - a lid manifold mounted to the cartridge lid, wherein the lid manifold comprises a lid manifold input port to be fluidly connected to and disconnected from a carriage manifold port of the printer system, a lid manifold output opening fluidly connected to the lid aperture, and a channel fluidly connecting the lid manifold input port and the lid manifold output opening, characterized in that the lid manifold output opening is in the form of a lid manifold output needle fluidly connected to the lid aperture which comprises a sealing septum, wherein the lid manifold output needle penetrates the sealing septum, wherein the sealing septum creates a liquid and air tight sealing between the corresponding lid aperture and the needle injected through the sealing septum. - a cartridge body; - a cartridge lid covering the cartridge body, wherein the cartridge lid comprises a lid aperture to supply printing fluid into the cartridge body; and - a lid manifold mounted to the cartridge lid, wherein the lid manifold comprises a lid manifold input port to be fluidly connected to and disconnected from a carriage manifold port of the printer system, a lid manifold output opening fluidly connected to the lid aperture, and a channel fluidly connecting the lid manifold input port and the lid manifold output opening, characterized in that
A wireless communication device in a user equipment, comprising: a control unit configured to: acquire a first PLMN list on a basis of information stored in a first subscriber identity module, select a home PLMN from the first PLMN list, acquire a PLMN ID on a basis of information stored in a second subscriber identity module, and perform, in a case where the PLMN ID is not included in the first PLMN list, a first registration request to a first management device which belongs to the home PLMN and manages registration of the wireless communication device, and, in a case where the PLMN ID is included in the first PLMN list, a second registration request to the first management device with information regarding a second PLMN included in the second registration request. acquire a first PLMN list on a basis of information stored in a first subscriber identity module, select a home PLMN from the first PLMN list, acquire a PLMN ID on a basis of information stored in a second subscriber identity module, and perform, in a case where the PLMN ID is not included in the first PLMN list, a first registration request to a first management device which belongs to the home PLMN and manages registration of the wireless communication device, and, in a case where the PLMN ID is included in the first PLMN list, a second registration request to the first management device with information regarding a second PLMN included in the second registration request.
A magnetic field focusing assembly comprising: a magnetic field generating device configured to generate a magnetic field, wherein the magnetic field generating device is configured to be energized with a carrier signal, the magnetic field generating device including: an inductive component including a loop antenna assembly, wherein the circumference of the loop antenna assembly is no more than 25% of the wavelength of the carrier signal; and at least one capacitive component coupled to the inductive component; and a split ring resonator assembly configured to be magnetically coupled to the magnetic field generating device and configured to focus at least a portion of the magnetic field produced by the magnetic field generating device; characterised in that the magnetic field focusing assembly comprises an eddy current trap positioned a predetermined distance from the magnetic field generating device. a magnetic field generating device configured to generate a magnetic field, wherein the magnetic field generating device is configured to be energized with a carrier signal, the magnetic field generating device including: an inductive component including a loop antenna assembly, wherein the circumference of the loop antenna assembly is no more than 25% of the wavelength of the carrier signal; and at least one capacitive component coupled to the inductive component; and a split ring resonator assembly configured to be magnetically coupled to the magnetic field generating device and configured to focus at least a portion of the magnetic field produced by the magnetic field generating device; characterised in that the magnetic field focusing assembly comprises an eddy current trap positioned a predetermined distance from the magnetic field generating device. an inductive component including a loop antenna assembly, wherein the circumference of the loop antenna assembly is no more than 25% of the wavelength of the carrier signal; and at least one capacitive component coupled to the inductive component; and a split ring resonator assembly configured to be magnetically coupled to the magnetic field generating device and configured to focus at least a portion of the magnetic field produced by the magnetic field generating device; characterised in that the magnetic field focusing assembly comprises an eddy current trap positioned a predetermined distance from the magnetic field generating device.