mhurhangee/patent-ind-claim-en huggingface dataset:
A secondary battery comprising: a positive electrode including a positive electrode active material layer having a positive electrode active material; a negative electrode including a negative electrode active material layer having a negative electrode active material; and an electrolyte, wherein the positive electrode active material contains at least either a lithium iron phosphate compound having an olivine structure and containing at least lithium, iron, and phosphorus, or lithium-manganese composite oxide having a spinel structure and containing at least lithium and manganese, the negative electrode active material contains titanium-containing inorganic oxide, and the secondary battery satisfies Formula (A), Formula (B), and Formula (C) below: 1.005 ≤ Ac / Aa wherein Ac is an electrode area (cm 2 ) of the positive electrode and Aa is an electrode area (cm 2 ) of the negative electrode); Ac / Aa < Q A 1 / Q C 1 wherein Q C1 (mAh/cm 2 ) is a first positive electrode charge capacity per unit area and Q A1 (mAh/cm 2 ) is a first negative electrode charge capacity per unit area; and 0.90 ≤ Q CL / Q AL ≤ 1.10 wherein Q CL (mAh/cm 2 ) is an irreversible capacity per unit area of the positive electrode and Q AL (mAh/cm 2 ) is an irreversible capacity per unit area of the negative electrode), wherein Q CL and Q AL are measured using a coin cell having a Li metal counter electrode. a positive electrode including a positive electrode active material layer having a positive electrode active material; a negative electrode including a negative electrode active material layer having a negative electrode active material; and an electrolyte, wherein the positive electrode active material contains at least either a lithium iron phosphate compound having an olivine structure and containing at least lithium, iron, and phosphorus, or lithium-manganese composite oxide having a spinel structure and containing at least lithium and manganese, the negative electrode active material contains titanium-containing inorganic oxide, and the secondary battery satisfies Formula (A), Formula (B), and Formula (C) below: 1.005 ≤ Ac / Aa wherein Ac is an electrode area (cm 2 ) of the positive electrode and Aa is an electrode area (cm 2 ) of the negative electrode); Ac / Aa < Q A 1 / Q C 1 wherein Q C1 (mAh/cm 2 ) is a first positive electrode charge capacity per unit area and Q A1 (mAh/cm 2 ) is a first negative electrode charge capacity per unit area; and 0.90 ≤ Q CL / Q AL ≤ 1.10 wherein Q CL (mAh/cm 2 ) is an irreversible capacity per unit area of the positive electrode and Q AL (mAh/cm 2 ) is an irreversible capacity per unit area of the negative electrode), wherein Q CL and Q AL are measured using a coin cell having a Li metal counter electrode.
A machine foot for container handling machines, comprising at least one height-adjustable carrier unit that extends along a main axis (HA) and at least one support unit arranged coaxially with the carrier unit , wherein the carrier unit comprises at least one base plate and a carrying spindle connected to the base plate and a load sleeve axially enclosing the carrying spindle in sections, wherein the carrying spindle has at least one externally threaded section and the load sleeve has at least one corresponding internally threaded section , the load sleeve being adjustably connected to the carrying spindle and the support unit resting on the load sleeve and a top-side free end section (4.1) of the carrying spindle projecting axially into an interior space of the support unit , the machine foot furthermore having a coaxially arranged protective sleeve running around the periphery, characterised in that the protective sleeve is arranged on the support unit so as to be slidable in a vertical direction (Rv) and, in at least one vertical end position (P1), the protective sleeve covers at least the carrier unit against the environment.
Cooling system for cooling a first integrated motorcompressor unit comprising, integrated in a single case , a first compressor having a fluid intake and a fluid discharge , and a first motor , a first compressor area and a first motor area being defined inside said case , integrated in another single case , a second integrated motorcompressor unit comprising a second compressor having a fluid intake and a fluid discharge and a second motor , a second compressor area and a second motor area being defined inside said case , wherein the system comprises a first duct fluidly connecting a connection point located at the second motor area of said second motorcompressor unit to one fluid injection point located at the first motor area of said first motorcompressor unit , characterized in that said first compressor and said first motor are separated by an intermediate diaphragm , said second compressor and said second motor are separated by an intermediate diaphragm and the fluid discharge of said second compressor is connected to the fluid intake of said first compressor . integrated in a single case , a first compressor having a fluid intake and a fluid discharge , and a first motor , a first compressor area and a first motor area being defined inside said case , integrated in another single case , a second integrated motorcompressor unit comprising a second compressor having a fluid intake and a fluid discharge and a second motor , a second compressor area and a second motor area being defined inside said case , wherein the system comprises a first duct fluidly connecting a connection point located at the second motor area of said second motorcompressor unit to one fluid injection point located at the first motor area of said first motorcompressor unit , characterized in that said first compressor and said first motor are separated by an intermediate diaphragm , said second compressor and said second motor are separated by an intermediate diaphragm and the fluid discharge of said second compressor is connected to the fluid intake of said first compressor .
A metal oxide coated particle of silicon carbide, silicon nitride, boron carbide or boron nitride wherein the amount of metal oxide coating is at least 10 wt% of the total weight of the coated particle, wherein the metal oxide coating comprises yttrium aluminium garnet.
Filtering body for a downdraught extractor hood , which hood can aspirate vapours from a hob through an aspiration opening created in said hob, said filtering body being interposed between said aspiration opening and an aspiration unit of the downdraught hood , said filtering body comprising a filtering unit and a unit for collection of liquids, and/or grease coming from the aspiration opening and from the condensate of said aspirated vapours, said filtering body comprising a frame with a solid prismatic or cylindrical geometric form, the frame delimiting at least one upper opening which faces towards said aspiration opening , and a lower opening which faces towards said aspiration unit, the filtering unit being inserted inside said frame, characterised in that said filtering unit has a central portion going towards said upper opening , from sides of said central portion , with lateral parts extending, descending towards the lower opening of the frame as far as lateral ends of the filtering unit, the unit for collection of the liquids, oil and grease being present below these ends , the frame comprising lateral openings on which there are placed flanks of the filtering unit which are connected to the lateral ends of the lateral parts of the filtering unit which overlie the unit for collection of the liquids, oil and grease, said filtering unit thus rising along said lateral openings of the frame , said lateral ends having holes to permit the passage of said liquids, oil and grease into the collection unit below.
A beamforming-based transmission method, comprising: obtaining, by a terminal , a quantity M of beamforming vectors needing to be reported by the terminal and a first reference signal that are sent by a base station , wherein the first reference signal is sent by the base station on N dual-polarized antenna ports, and M and N each are an integer greater than 0; estimating, by the terminal , downlink channel states on the N dual-polarized antenna ports based on the first reference signal; selecting, by the terminal , m first beamforming codewords based on the downlink channel states and the quantity M of beamforming vectors needing to be reported that is sent by the base station , wherein m≤M, wherein the selecting, by the terminal , m first beamforming codewords includes: estimating, by the terminal , a radiation angle of an antenna of the base station , to determine m beamforming directions with optimal channel quality; and determining, by the terminal , directional angle values of the m beamforming directions with optimal channel quality, where a directional angle value is a directional angle or a trigonometric function value of a directional angle; and feeding back, by the terminal , the m selected first beamforming codewords and ranks of the downlink channel states to the base station ; wherein the terminal determines the quantity m of the selected first beamforming codewords by using the following step: determining, by the terminal , the quantity M of beamforming vectors needing to be reported that is sent by the base station , as the quantity m of the selected first beamforming codewords. obtaining, by a terminal , a quantity M of beamforming vectors needing to be reported by the terminal and a first reference signal that are sent by a base station , wherein the first reference signal is sent by the base station on N dual-polarized antenna ports, and M and N each are an integer greater than 0; estimating, by the terminal , downlink channel states on the N dual-polarized antenna ports based on the first reference signal; selecting, by the terminal , m first beamforming codewords based on the downlink channel states and the quantity M of beamforming vectors needing to be reported that is sent by the base station , wherein m≤M, wherein the selecting, by the terminal , m first beamforming codewords includes: estimating, by the terminal , a radiation angle of an antenna of the base station , to determine m beamforming directions with optimal channel quality; and determining, by the terminal , directional angle values of the m beamforming directions with optimal channel quality, where a directional angle value is a directional angle or a trigonometric function value of a directional angle; and feeding back, by the terminal , the m selected first beamforming codewords and ranks of the downlink channel states to the base station ; wherein the terminal determines the quantity m of the selected first beamforming codewords by using the following step: determining, by the terminal , the quantity M of beamforming vectors needing to be reported that is sent by the base station , as the quantity m of the selected first beamforming codewords.
An electronic phased array endocavitary probe for ultrasonic imaging, comprising an array of transmitting and/or receiving electroacoustic transducers (Ti,j, T1,1 to T4,11), in which transducers are arranged in adjacent positions, on a central disk-shaped area designated with a central portion (A1) and on a plurality of concentric annular bands (Ai), and in which transducers have a geometric center and are tangent to one other in both radial and circumferential directions, transducers being arranged within the array with such a geometry that, the number of transducers (Ti,j, T1,1 to T4,11) having the same focusing delay on a scan point, line or area, is minimal or null, characterized in that each concentric annular band and the central disk-shaped are divided into equal numbers of transducers having the same radiating and/or receiving area and angular extension, each transducer being disposed with its geometric centre angularly staggered with respect to the geometric centres of the transducers of adjacent bands, or the central portion inwardly adjacent to the innermost annular band, by a constant length from band to band, said length being a rational fraction of the angular extension of said transducers.
A vibrating screening system , consisting of at least two screening machines , which are arranged in a row and can be caused to vibrate, wherein each screening machine has a screening material feed end and a screening material discharge end and wherein each screening machine has one resilient support (22, 25; 32, 35; 42, 45) each in the area of the screening material feed end and in the area of the screening material discharge end , wherein: all the supports of the screening machine that is last in the row of the screening machines in the screening material conveying direction are supported on the base ; the support provided in the area of the screening material feed end of the/each additional screening machine is likewise supported on the base ; characterized in that the support provided in the area of the screening material discharge end of the/each additional screening machine is supported on the screening machine that follows in the screening material conveying direction in the area of the screening material feed end of said screening machine that follows in the screening material conveying direction . all the supports of the screening machine that is last in the row of the screening machines in the screening material conveying direction are supported on the base ; the support provided in the area of the screening material feed end of the/each additional screening machine is likewise supported on the base ; characterized in that the support provided in the area of the screening material discharge end of the/each additional screening machine is supported on the screening machine that follows in the screening material conveying direction in the area of the screening material feed end of said screening machine that follows in the screening material conveying direction .
A PV module comprising an organoclay; wherein the PV module comprises at least the following layers in facial contact: a light-receiving top sheet layer; a front encapsulating film; a PV cell; a back encapsulating film comprising the organoclay and a crystalline block copolymer composite resin; and a backsheet, the backsheet comprising a seal layer in facial contact with the back encapsulating film, a tie layer, and a bottom layer, wherein the tie layer comprises a crystalline block copolymer composite resin; wherein the crystalline block copolymer composite of the back encapsulating film and the tie layer comprises a crystalline ethylene based polymer (CEP), a crystalline alpha-olefin based polymer (CAOP), and a block copolymer having a crystalline ethylene block (CEB) and a crystalline alpha-olefin block (CAOB), wherein the CEB of the block copolymer is the same composition as the CEP in the block composite and the CAOB of the block copolymer is the same composition as the CAOP of the block composite; wherein the back encapsulating film further includes a maleic anhydride-grafted polyolefin, wherein the maleic anhydride-grafted polyolefin comprises a maleic anhydride-grafted high density polyethylene. a light-receiving top sheet layer; a front encapsulating film; a PV cell; a back encapsulating film comprising the organoclay and a crystalline block copolymer composite resin; and a backsheet, the backsheet comprising a seal layer in facial contact with the back encapsulating film, a tie layer, and a bottom layer, wherein the tie layer comprises a crystalline block copolymer composite resin; wherein the crystalline block copolymer composite of the back encapsulating film and the tie layer comprises a crystalline ethylene based polymer (CEP), a crystalline alpha-olefin based polymer (CAOP), and a block copolymer having a crystalline ethylene block (CEB) and a crystalline alpha-olefin block (CAOB), wherein the CEB of the block copolymer is the same composition as the CEP in the block composite and the CAOB of the block copolymer is the same composition as the CAOP of the block composite;
A process for the enhancement of the biodegradability of polyolefinic materials comprising the steps of: a. providing a polyolefinic material; b. mixing the polyolefinic material with at least a fatty reagent, with a ratio of fatty reagent/polyolefinic material ranging from 1/5 to 1/1 in weight; c. heating up the polyolefinic material mixed with the at least a fatty reagent to the melting temperature of the polyolefinic material, in order to obtain a melted material; d. letting cool the melted material at room temperature for a time sufficient to obtain a solidified product; e. incubating the solidified product with at least a fungal mycelium selected from fungal strains secreting Unspecific Peroxygenases (UPO), in presence of at least a fungal culture medium. a. providing a polyolefinic material; b. mixing the polyolefinic material with at least a fatty reagent, with a ratio of fatty reagent/polyolefinic material ranging from 1/5 to 1/1 in weight; c. heating up the polyolefinic material mixed with the at least a fatty reagent to the melting temperature of the polyolefinic material, in order to obtain a melted material; d. letting cool the melted material at room temperature for a time sufficient to obtain a solidified product; e. incubating the solidified product with at least a fungal mycelium selected from fungal strains secreting Unspecific Peroxygenases (UPO), in presence of at least a fungal culture medium.
Method for producing an injection device having a bypass channel , comprising the following steps: placing a preform in a tool so that the preform partially rests with a cylindrical outer surface of a cylindrical portion in the tool ; characterized by heating a section of the cylindrical portion with a heat source of the tool to a temperature so that the material of the preform can be plastically deformed; inserting a punch into the cylindrical portion , substantially in an axial direction (A); displacing the punch in a radial direction (B) onto a cylindrical inner surface of the cylindrical portion of the preform ; pressing the punch into the heated section of the cylindrical portion so that, by a pressure (P) of the punch in the radial direction (B), the bypass channel is formed by plastic deformation of the heated section . placing a preform in a tool so that the preform partially rests with a cylindrical outer surface of a cylindrical portion in the tool ; characterized by heating a section of the cylindrical portion with a heat source of the tool to a temperature so that the material of the preform can be plastically deformed; inserting a punch into the cylindrical portion , substantially in an axial direction (A); displacing the punch in a radial direction (B) onto a cylindrical inner surface of the cylindrical portion of the preform ; pressing the punch into the heated section of the cylindrical portion so that, by a pressure (P) of the punch in the radial direction (B), the bypass channel is formed by plastic deformation of the heated section .
A display screen assembly , comprising: a display screen , comprising a display region for displaying images and a non-display region surrounding the display region ; a light conducting member facing the display region ; at least two first light sources facing at least one surface of the light conducting member , wherein the at least two first light sources are each configured to emit a detection signal to the light conducting member , and the light conducting member is configured to diffuse the detection signal to allow the detection signal to pass through the display region , to interact with a detection object to form a target signal; a plurality of second light sources , wherein one or more of the plurality of second light sources are located between two adjacent first light sources , and the second light sources are configured to provide backlight for the display screen assembly ; a receiving element disposed in the display region and configured to receive the target signal, the receiving element and the at least two first light sources being disposed at different planes; and a processor electrically coupled with the at least two first light sources and the receiving element , wherein the processor is configured to detect a distance between the display region and the detection object according to one of an intensity of the target signal and a difference between a transmission time of the detection signal and a reception time of the target signal. a display screen , comprising a display region for displaying images and a non-display region surrounding the display region ; a light conducting member facing the display region ; at least two first light sources facing at least one surface of the light conducting member , wherein the at least two first light sources are each configured to emit a detection signal to the light conducting member , and the light conducting member is configured to diffuse the detection signal to allow the detection signal to pass through the display region , to interact with a detection object to form a target signal; a plurality of second light sources , wherein one or more of the plurality of second light sources are located between two adjacent first light sources , and the second light sources are configured to provide backlight for the display screen assembly ; a receiving element disposed in the display region and configured to receive the target signal, the receiving element and the at least two first light sources being disposed at different planes; and a processor electrically coupled with the at least two first light sources and the receiving element , wherein the processor is configured to detect a distance between the display region and the detection object according to one of an intensity of the target signal and a difference between a transmission time of the detection signal and a reception time of the target signal.
An antibody or antigen-binding fragment thereof that binds to an epitope comprised in the amino acid sequence according to SEQ ID NO:1 (whereby SEQ ID NO: 1 corresponds to an intracellular portion of human PD-L1), wherein the antibody heavy chain or antigen-binding fragment thereof comprises the amino acid sequence according to SEQ ID NO: 110 and the antibody light chain or antigen-binding fragment thereof comprises the amino acid sequence according to SEQ ID NO: 111.