mhurhangee/ep-ind-claims huggingface dataset:
A suctioning and conveying system for suctioning and conveying an object comprising first means for generating a low pressure induced by a whirlwind for sucking in the object, the whirlwind having an axis of rotation, wherein the system comprises second means (40, 80) for conveying the suctioned object along a transfer path transverse to the axis of rotation of the whirlwind, characterized in that the first means include an impeller and the impeller includes in impeller wheel comprising a separation plane transverse to the axis of rotation of the impeller wheel.
An electrostatic charge image developer comprising: a toner containing a toner particle and an external additive; and a carrier containing a magnetic particle which is a particle of a magnetic oxide wherein the particle of a magnetic oxide is selected from ferrite and magnetite, and a resin layer covering the magnetic particle and the resin layer has an average thickness of 0.6 μm or more and 1.4 μm or less as determined in accordance with the description, wherein the toner particle has a surface property index value of 1.0 or more and less than 2.0 and is measured in accordance with the description; and the toner contains a binder resin and the binder resin is a polyester resin including a crystalline polyester resin in combination with an amorphous polyester resin and the crystalline polyester resin is used in a range in which a content thereof is 2 mass% or more and 40 mass% or less with respect to a total amount of the binder resin; the carrier has a surface having a ratio B/A of a surface area B to a plane view area A of 1.020 or more and 1.100 or less, the plane view area A and the surface area B being obtained by three-dimensional analysis of the surface of the carrier and in accordance with the description; the resin layer contains an acrylic resin having an alicyclic; and the resin layer comprises silica particles, and has a silicon element concentration of more than 2 atomic% and less than 20 atomic% at the surface of the carrier, the silicon element concentration being determined by X-ray photoelectron spectroscopy and in accordance with the description. a toner containing a toner particle and an external additive; and a carrier containing a magnetic particle which is a particle of a magnetic oxide wherein the particle of a magnetic oxide is selected from ferrite and magnetite, and a resin layer covering the magnetic particle and the resin layer has an average thickness of 0.6 μm or more and 1.4 μm or less as determined in accordance with the description, wherein the toner particle has a surface property index value of 1.0 or more and less than 2.0 and is measured in accordance with the description; and the toner contains a binder resin and the binder resin is a polyester resin including a crystalline polyester resin in combination with an amorphous polyester resin and the crystalline polyester resin is used in a range in which a content thereof is 2 mass% or more and 40 mass% or less with respect to a total amount of the binder resin; the carrier has a surface having a ratio B/A of a surface area B to a plane view area A of 1.020 or more and 1.100 or less, the plane view area A and the surface area B being obtained by three-dimensional analysis of the surface of the carrier and in accordance with the description; the resin layer contains an acrylic resin having an alicyclic; and the resin layer comprises silica particles, and has a silicon element concentration of more than 2 atomic% and less than 20 atomic% at the surface of the carrier, the silicon element concentration being determined by X-ray photoelectron spectroscopy and in accordance with the description.
A high-frequency semiconductor device, comprising: a first insulating layer; an undoped epitaxial polysilicon layer in a state of column crystal; a second insulating layer; a semiconductor layer; a high-frequency transistor; a doped epitaxial polysilicon layer; and a connection structure that connects the doped epitaxial polysilicon layer to a ground electric potential, wherein the first insulating layer, the undoped epitaxial polysilicon layer, the second insulating layer, and the semiconductor layer are formed on one surface of a semiconductor substrate in order from the one surface, and wherein the doped epitaxial polysilicon layer is formed between the first insulating layer and the undoped epitaxial polysilicon layer in the state of column crystal, the doped epitaxial polysilicon layer being interposed between the semiconductor substrate and the high-frequency transistor, and having resistance lowered by doping with an impurity; and the high-frequency transistor is formed in a location of the semiconductor layer facing the undoped epitaxial polysilicon layer with the second insulating layer in between. a first insulating layer; an undoped epitaxial polysilicon layer in a state of column crystal; a second insulating layer; a semiconductor layer; a high-frequency transistor; a doped epitaxial polysilicon layer; and a connection structure that connects the doped epitaxial polysilicon layer to a ground electric potential, wherein the first insulating layer, the undoped epitaxial polysilicon layer, the second insulating layer, and the semiconductor layer are formed on one surface of a semiconductor substrate in order from the one surface, and wherein the doped epitaxial polysilicon layer is formed between the first insulating layer and the undoped epitaxial polysilicon layer in the state of column crystal, the doped epitaxial polysilicon layer being interposed between the semiconductor substrate and the high-frequency transistor, and having resistance lowered by doping with an impurity; and the high-frequency transistor is formed in a location of the semiconductor layer facing the undoped epitaxial polysilicon layer with the second insulating layer in between.
A Vertical Cavity Surface Emitting Laser comprising at least two mesas, wherein the at least two mesas comprise an active region, wherein the active region comprises a number of m active layer structures (121, 125) with m ≥ 2, wherein the active layer structures (121, 125) are electrically connected to each other by means of a tunnel junction arranged between the active layer structures (121, 125), wherein the at least one mesa further comprises an optical resonator, wherein the optical resonator comprises a first Distributed Bragg Reflector and a second Distributed Bragg Reflector, wherein the active region is arranged between the first and the second Distributed Bragg Reflector (130, 136), wherein the Vertical Cavity Surface Emitting Laser further comprises a first electrical contact and a second electrical contact, wherein the first and the second electrical contact (101, 105) are arranged to provide an electrical current to the active region, wherein the Vertical Cavity Surface Emitting Laser further comprises an electrical control contact, wherein the electrical control contact is arranged to control gain-switched laser emission of the Vertical Cavity Surface Emitting Laser by means of at least 1 up to m-1 active layer structures (121, 125) by means of a current between the electrical control contact and the first electrical contact or the second electrical contact, wherein the Vertical Cavity Surface Emitting Laser comprises a current aperture arranged between the active region and the first or the second electrode (101, 103), wherein a distance between the current aperture and an active layer structure (121, 125) furthest away from the current aperture is at least three times the wavelength of laser light emitted by the Vertical Cavity Surface Emitting Laser in the semiconductor material such that a current density in the active layer structure (121, 125) furthest away from the current aperture is decreased in comparison to the active layer structure (121, 125) next to the current aperture, wherein at least a first mesa of the at least two mesas is arranged to provide the gain-switched laser emission, with the first electrical contact provided on top of the first Distributed Bragg Reflector allowing lasing through an aperture of the first electrical contact, and wherein at least a second mesa of the at least two mesas is arranged to control gain-switched laser emission of the at least one first mesa, with the electrical control contact provided on top of the at least second mesa covering the whole surface of the first Distributed Bragg Reflector inhibiting lasing of the at least second mesa.
A fabric, characterized by comprising: a viscose rayon fiber in an amount of more than 30% by weight and less than 40% by weight; a cation-dyeable polyester fiber in an amount of more than 30% by weight and less than 40% by weight; a polyacrylic synthetic fiber in an amount of more than 25% by weight and less than 30% by weight; and a polyurethane elastic fiber in an amount of more than 5% by weight and less than 10% by weight, wherein the fabric has a friction-charged electrostatic potential of 1500 V or less and wash-and-wear properties, as determined according to Method 124 in AATCC after being laundered five times in accordance with Method 103 in JIS L0217, of grade 3 or higher. a viscose rayon fiber in an amount of more than 30% by weight and less than 40% by weight; a cation-dyeable polyester fiber in an amount of more than 30% by weight and less than 40% by weight; a polyacrylic synthetic fiber in an amount of more than 25% by weight and less than 30% by weight; and a polyurethane elastic fiber in an amount of more than 5% by weight and less than 10% by weight, wherein the fabric has a friction-charged electrostatic potential of 1500 V or less and wash-and-wear properties, as determined according to Method 124 in AATCC after being laundered five times in accordance with Method 103 in JIS L0217, of grade 3 or higher.
A light-emitting element array chip comprising: a first light-emitting element array that includes a first light-emitting element including a first substrate, a light-emitting element layer formed on the first substrate, and a first cathode electrode electrically connected to the light-emitting element layer; and a second light-emitting element array that includes a second light-emitting element including a second substrate, a non-p-type lower reflector formed on the second substrate, and a second cathode electrode electrically connected to the non-p-type lower reflector, wherein the first light-emitting element array is provided on an emission surface side of the second light-emitting element array. a first light-emitting element array that includes a first light-emitting element including a first substrate, a light-emitting element layer formed on the first substrate, and a first cathode electrode electrically connected to the light-emitting element layer; and a second light-emitting element array that includes a second light-emitting element including a second substrate, a non-p-type lower reflector formed on the second substrate, and a second cathode electrode electrically connected to the non-p-type lower reflector, wherein the first light-emitting element array is provided on an emission surface side of the second light-emitting element array.
A tube (10; 10'; 10") for connection to a medical container with a tube wall, which consists of at least two layers (12, 14; 14, 16), characterized in that at least one layer (12; 16) contains a styrene-containing thermoplastic polymer, copolyester, copolyester ether or cyclic olefin copolymer and at least one layer (14, 14', 14") contains ethylene-vinyl acetate copolymer, a transparent thermoplastic polybutene and/or polystyrene-polyethylene-butylene-polystyrene (SEBS), wherein the styrene-containing thermoplastic polymer is selected from styrene-butadiene block copolymer, polystyrene-polybutadiene-polystyrene, polystyrene-polyisoprene-polystyrene (SEPS), polystyrene-isoprene/butadiene-polystyrene (SEEPS) and polymethyl-methacrylate-polybutadiene-polystyrene block copolymer.
Device for receiving at least one adhesive application unit for edge banding machines, comprising: a vacuum container for the airtight housing of the adhesive application unit, wherein the vacuum container has a passage for the evacuation of the vacuum container and further comprises: a container housing section with a charging/discharging opening, a closure device for the airtight closure of the charging/discharging opening, and a housing device for the housing and optionally fastening of the adhesive application unit in the container housing section, characterised in that the device further comprises: a vacuum generating device which is designed in the form of a venturi nozzle, wherein the vacuum generating device is connected with the passage, and a compressed air connection for the connection of the vacuum generating device to a compressed air source. a vacuum container for the airtight housing of the adhesive application unit, wherein the vacuum container has a passage for the evacuation of the vacuum container and further comprises: a container housing section with a charging/discharging opening, a closure device for the airtight closure of the charging/discharging opening, and a housing device for the housing and optionally fastening of the adhesive application unit in the container housing section, a container housing section with a charging/discharging opening, a closure device for the airtight closure of the charging/discharging opening, and a housing device for the housing and optionally fastening of the adhesive application unit in the container housing section, characterised in that the device further comprises: a vacuum generating device which is designed in the form of a venturi nozzle, wherein the vacuum generating device is connected with the passage, and a compressed air connection for the connection of the vacuum generating device to a compressed air source. a vacuum generating device which is designed in the form of a venturi nozzle, wherein the vacuum generating device is connected with the passage, and a compressed air connection for the connection of the vacuum generating device to a compressed air source.
Electronic chip comprising: a first and a second analog input connection pads; an analog output connection pad; a digital circuit; an analog-to-digital converter coupling the first and second input pads with the digital circuit; a digital-to-analog converter coupling the digital circuit with the output pad; a first switch coupling the first input pad with the output pad; an amplifier having an input coupled with the first input pad and an output coupled with the second input pad; a second switch coupling an input of the amplifier with the analog-to-digital converter; and a third switch coupling an output of the amplifier with the analog-to-digital converter, the chip being configured to, during a self-diagnosis phase of the chip, control the first, second, and third switches to selectively test the amplifier with the analog-to-digital converter and the digital-to-analog converter. a first and a second analog input connection pads; an analog output connection pad; a digital circuit; an analog-to-digital converter coupling the first and second input pads with the digital circuit; a digital-to-analog converter coupling the digital circuit with the output pad; a first switch coupling the first input pad with the output pad; an amplifier having an input coupled with the first input pad and an output coupled with the second input pad; a second switch coupling an input of the amplifier with the analog-to-digital converter; and a third switch coupling an output of the amplifier with the analog-to-digital converter, the chip being configured to, during a self-diagnosis phase of the chip, control the first, second, and third switches to selectively test the amplifier with the analog-to-digital converter and the digital-to-analog converter.
An in vitro method of identification of cancer type from the group consisting of six cancer types selected from breast invasive carcinoma, lung squamous cell carcinoma, ovarian serous cystadenocarcinoma cancer, glioblastoma multiforme, colon adenocarcinoma, and kidney renal clear cell carcinoma in a test sample from a subject comprising the steps of: (a) obtaining a glycosyltransferase gene expression profile from a set of 210 glycosyltransferase genes consisting of those listed in Table 1 in the test sample from the subject; (b) calculating the distance of the gene expression profile of the test sample to a reference set of glycosyltransferase gene expression centroids from the six cancer types; and (c) assigning the test sample to a cancer type, wherein the cancer type is identified as the cancer type corresponding to the nearest reference set glycosyltransferase gene centroid of the six cancer types glycosyltransferase gene expression centroids compared with the glycosyltransferase gene expression profile from the test sample. (a) obtaining a glycosyltransferase gene expression profile from a set of 210 glycosyltransferase genes consisting of those listed in Table 1 in the test sample from the subject; (b) calculating the distance of the gene expression profile of the test sample to a reference set of glycosyltransferase gene expression centroids from the six cancer types; and (c) assigning the test sample to a cancer type, wherein the cancer type is identified as the cancer type corresponding to the nearest reference set glycosyltransferase gene centroid of the six cancer types glycosyltransferase gene expression centroids compared with the glycosyltransferase gene expression profile from the test sample.
A heat-exchange plate for a device for heat-exchange between a first fluid and a second fluid, the hear-exchange plate extending in a plane, the heat-exchange plate comprising at least two strips (B, B1, B2) extending between a first edge of the heat-exchange plate and a second edge of the heat-exchange plate, opposite to the first edge, according to a first direction, the strips (B, B1, B2) being disposed next to each other according to a second direction, perpendicular to the first direction, each of the strips (B, B1, B2) including at least one channel, in particular a plurality of channels, extending from the first edge to the second edge and opening into the first edge and the second edge, said at least one channel being intended for the circulation of a first fluid, each of said strips (B, B1, B2) has a corrugation comprising apices and recesses, two directly neighbouring strips (B, B1, B2) being disposed relative to one another such that an apex of a strip and an apex of the directly neighbouring strip are shifted according to the first direction and such that, according to the second direction, the apex of a strip and the recess of the directly neighbouring strip delimit pathways from the circulation (C1, C2) of a second fluid, the heat-exchange plate including at least one assembly element (11, 12) on each of its first and second edges, secured to said at least two strips (B, B1, B2) enabling the assembly of the heat-exchange plate with one or several other heat-exchange plate(s) within the heat-exchange device, characterised in that each strip (B, B1, B2) includes, at each of its ends located respectively at the first edge and the second edge of the heat-exchange plate, an assembly element in the form of a hollow end box inside which open the channel(s) intended for the circulation of the first fluid, and in that each hollow end box includes, on a first face, a male assembly rib and, on a second face opposite to the first face, a female assembly groove, the assembly of a male assembly rib of a first hollow end box with a female assembly groove of a second hollow end box enabling the assembly of the first and second end boxes, and thus the assembly of a plurality of strips (B, B1, B2) together so as to form one or several heat-exchange plate(s).
Quadrangular photovoltaic panel comprising a light-receiving surface carried by a frame equipped with means (3A, 3B) for covering by interlocking with another photovoltaic panel, characterized in that, on the one hand, only the upper and lower edges of the panel are equipped with covering means, and, on the other hand, the right and left lateral edges of the panel are equipped with a lateral structural section comprising a web orthogonal to the receiving surface and a bearing foot, the orthogonal web forming a lateral face of a gutter.
A receiver comprising a receiver coil and a receive circuit conductively coupled to the receiver coil, the receiver for wirelessly receiving power, when the receiver coil is located in a magnetic field produced by a transmitter and generating a current in response to the magnetic field generated by the transmitter, wherein the receive circuit connected to the receiver coil is configured to power or charge a load based at least in part on the generated current, the receiver coil comprising: a first loop portion; a second loop portion; a third loop portion, characterized in that the second and third loop portions are at least partially enclosed by the first loop portion, the second and third loop portions are co-planar and non-overlapping with each other; and the first, second and third portions being joined to form a single winding of conductive material, the second loop portion having a first portion adjacent to a first portion of the first loop portion, and the third loop portion having a first portion adjacent to a second portion of the first loop portion and a second portion adjacent to a second portion of the second loop portion and wherein the generated current flows through the first portion of the first loop portion and the first portion of the second loop portion in a first direction and flows through the second portion of the first loop portion and the first portion of the third loop portion in a second direction and wherein the generated current flows through the second portion of the second loop portion and the second portion of the third loop portion in opposite directions to create a magnetic field cancelling effect in an area between the second loop portion and the third loop portion. a first loop portion; a second loop portion; a third loop portion, characterized in that the second and third loop portions are at least partially enclosed by the first loop portion, the second and third loop portions are co-planar and non-overlapping with each other; and the first, second and third portions being joined to form a single winding of conductive material, the second loop portion having a first portion adjacent to a first portion of the first loop portion, and the third loop portion having a first portion adjacent to a second portion of the first loop portion and a second portion adjacent to a second portion of the second loop portion and wherein the generated current flows through the first portion of the first loop portion and the first portion of the second loop portion in a first direction and flows through the second portion of the first loop portion and the first portion of the third loop portion in a second direction and wherein the generated current flows through the second portion of the second loop portion and the second portion of the third loop portion in opposite directions to create a magnetic field cancelling effect in an area between the second loop portion and the third loop portion.
Pneumatic vehicle tyre of a radial type of construction comprising a radial carcass, a profiled tread, a breaker belt and a single-ply or multi-ply belt bandage covering the belt and comprising cords running in the circumferential direction of the tyre, which consist of a twisted yarn of polyamide 6.6 or a number of twisted yarns of polyamide 6.6, characterized in that the yarn or the yarns has or have a fineness of 700 dtex and the cords have the construction 1×1, 1×2 or 1×3.