mhurhangee/patent-ind-claim-en huggingface dataset:
A manufacturing method using a patterned preform , comprising the steps of: - providing a patterned tape comprising a rigid base and a tape , wherein the tape is made of polyimide or poly dimethyl siloxane, wherein the rigid base is at least partially covered by the tape , and wherein the tape comprises a pattern of recesses , and - at least partially filling the recesses of the patterned tape by an electroconductive material to obtain the patterned preform , wherein the electroconductive material comprises a mixture of a first component and a second component, wherein the first component comprises particles of a BiSnAg alloy with a first melting point and the second component comprises particles of a SnAgCu alloy with a second melting point, wherein the second melting point is higher than the first melting point, - putting the patterned preform on a substrate , - carrying out a first heating treatment to melt the particles of the first component while the particles of the second component remain stable as particles, the first heating treatment resulting in an interconnection of the particles of the second component and the adhesion of the electroconductive material to the substrate, and - removing at least the rigid base and the tape , so that electroconductive material portions remain on the substrate to provide attachment portions for an electronic component . - providing a patterned tape comprising a rigid base and a tape , wherein the tape is made of polyimide or poly dimethyl siloxane, wherein the rigid base is at least partially covered by the tape , and wherein the tape comprises a pattern of recesses , and - at least partially filling the recesses of the patterned tape by an electroconductive material to obtain the patterned preform , wherein the electroconductive material comprises a mixture of a first component and a second component, wherein the first component comprises particles of a BiSnAg alloy with a first melting point and the second component comprises particles of a SnAgCu alloy with a second melting point, wherein the second melting point is higher than the first melting point, wherein the electroconductive material comprises a mixture of a first component and a second component, wherein the first component comprises particles of a BiSnAg alloy with a first melting point and the second component comprises particles of a SnAgCu alloy with a second melting point, wherein the second melting point is higher than the first melting point, - putting the patterned preform on a substrate , - carrying out a first heating treatment to melt the particles of the first component while the particles of the second component remain stable as particles, the first heating treatment resulting in an interconnection of the particles of the second component and the adhesion of the electroconductive material to the substrate, and - removing at least the rigid base and the tape , so that electroconductive material portions remain on the substrate to provide attachment portions for an electronic component .
An anti-LAG-3 antibody and an additional immunostimulatory antibody for use in a method of stimulating an immune response in a subject, wherein the method comprises administering to the subject the anti-LAG-3 antibody and the additional immunostimulatory antibody, and wherein the additional immunostimulatory antibody is an anti-PD-1 antibody, an anti-PD-L1 antibody, or an anti-CTLA-4 antibody.
A composition comprising: a polymer blend of from 45 to 85 wt% of a polymer blend modifier based on the polymer blend and from 15 to 55 wt% of a propylene-based elastomer based on the polymer blend, wherein the polymer blend modifier comprises a first propylene-based polymer, wherein the first propylene-based polymer is a homopolymer of propylene or a copolymer of propylene and ethylene or a C 4 to C 10 alpha-olefin, and a second propylene-based polymer, wherein the second propylene-based polymer is a homopolymer of propylene or a copolymer of propylene and ethylene or a C 4 to C 10 alpha-olefin, wherein the second propylene-based polymer is different than the first propylene-based polymer; and wherein the polymer blend modifier has a weight average molecular weight of 10,000 to 100,000 g/mole and wherein the propylene-based elastomer has a weight average molecular weight of 100,000 to 300,000 g/mole, wherein the polymer blend modifier has a melt flow rate, as measured according to ASTM D-1238 (2.16kg at 230°C), of greater than 1,000 g/10 min to less than 10,000 g/10 min and wherein the propylene-based elastomer has a melt flow rate, as measured according to ASTM D-1238 (2.16kg at 230°C), of less than 100 g/10 min. a polymer blend of from 45 to 85 wt% of a polymer blend modifier based on the polymer blend and from 15 to 55 wt% of a propylene-based elastomer based on the polymer blend, wherein the polymer blend modifier comprises a first propylene-based polymer, wherein the first propylene-based polymer is a homopolymer of propylene or a copolymer of propylene and ethylene or a C 4 to C 10 alpha-olefin, and a second propylene-based polymer, wherein the second propylene-based polymer is a homopolymer of propylene or a copolymer of propylene and ethylene or a C 4 to C 10 alpha-olefin, wherein the second propylene-based polymer is different than the first propylene-based polymer; and a first propylene-based polymer, wherein the first propylene-based polymer is a homopolymer of propylene or a copolymer of propylene and ethylene or a C 4 to C 10 alpha-olefin, and a second propylene-based polymer, wherein the second propylene-based polymer is a homopolymer of propylene or a copolymer of propylene and ethylene or a C 4 to C 10 alpha-olefin, wherein the second propylene-based polymer is different than the first propylene-based polymer; and wherein the polymer blend modifier has a weight average molecular weight of 10,000 to 100,000 g/mole and wherein the propylene-based elastomer has a weight average molecular weight of 100,000 to 300,000 g/mole, wherein the polymer blend modifier has a melt flow rate, as measured according to ASTM D-1238 (2.16kg at 230°C), of greater than 1,000 g/10 min to less than 10,000 g/10 min and wherein the propylene-based elastomer has a melt flow rate, as measured according to ASTM D-1238 (2.16kg at 230°C), of less than 100 g/10 min.
Substrate for covering outdoor surfaces, comprising: - sand , contained in a proportion of at least 70% of the volume of the substrate and having a D10 of between 0.15 mm and 0.27 mm and a uniformity coefficient D90/D10 of between 1.54 and 2.04; - a resilient material , contained in a proportion of at least 5% of the volume of the substrate and in the form of particles having a diameter or length of between 1.5 and 30 mm; - between 3.2 kg and 8 kg of fibres per m 3 of sand, the fibres having a length of between 24 mm and 80 mm and a diameter of between 0.034 mm and 0.1 mm. - sand , contained in a proportion of at least 70% of the volume of the substrate and having a D10 of between 0.15 mm and 0.27 mm and a uniformity coefficient D90/D10 of between 1.54 and 2.04; - a resilient material , contained in a proportion of at least 5% of the volume of the substrate and in the form of particles having a diameter or length of between 1.5 and 30 mm; - between 3.2 kg and 8 kg of fibres per m 3 of sand, the fibres having a length of between 24 mm and 80 mm and a diameter of between 0.034 mm and 0.1 mm.
An electronic device , comprising a first cover , a first shell , and a second shell , wherein the first cover comprises a first side portion , a middle portion , and a second side portion , the middle portion is connected between the first side portion and the second side portion , the first side portion and the second side portion are spaced apart from and opposite to each other to form an opening , and the first side portion , the middle portion , and the second side portion are enclosed to form an accommodating cavity; the first shell and the second shell are both mounted in the accommodating cavity; in a direction from the first side portion to the second side portion , the first shell and the second shell are adjacent to each other side by side; the first shell and the second shell are fixedly connected; and the first shell and the second shell are matched to support the first cover . a first cover , a first shell , and a second shell , wherein the first cover comprises a first side portion , a middle portion , and a second side portion , the middle portion is connected between the first side portion and the second side portion , the first side portion and the second side portion are spaced apart from and opposite to each other to form an opening , and the first side portion , the middle portion , and the second side portion are enclosed to form an accommodating cavity; the first shell and the second shell are both mounted in the accommodating cavity; in a direction from the first side portion to the second side portion , the first shell and the second shell are adjacent to each other side by side; the first shell and the second shell are fixedly connected; and the first shell and the second shell are matched to support the first cover .
A glenoid implant comprising: a body having a central aperture therethrough,_a plate , and a boss ; a collet configured to be received within the central aperture of the body , the collet having an interior threaded bore and a plurality of deflectable arms (140A-140D); a plug including a threaded portion configured to threadingly engage the interior threaded bore of the collet , the plug being configured to be engaged by a tool to rotate the plug such that the plug moves in a first axial direction to cause the plurality of deflectable arms (140A-140D) to deflect radially outward relative to a central axis of the central aperture of the body ; and a plurality of fins (150A- 150D) coupled to the boss and configured to move radially outward from a first position towards a second generally outward position responsive to deflection of the plurality of deflectable arms (140A - 140D) to aid in securing the body to bone of a patient. a body having a central aperture therethrough,_a plate , and a boss ; a collet configured to be received within the central aperture of the body , the collet having an interior threaded bore and a plurality of deflectable arms (140A-140D); a plug including a threaded portion configured to threadingly engage the interior threaded bore of the collet , the plug being configured to be engaged by a tool to rotate the plug such that the plug moves in a first axial direction to cause the plurality of deflectable arms (140A-140D) to deflect radially outward relative to a central axis of the central aperture of the body ; and a plurality of fins (150A- 150D) coupled to the boss and configured to move radially outward from a first position towards a second generally outward position responsive to deflection of the plurality of deflectable arms (140A - 140D) to aid in securing the body to bone of a patient.
A method of characterising a sample comprising particles, the method comprising: performing a first measurement on the sample using a first particle characterisation technique; flowing the sample from the first particle characterisation technique to a particle separating device; separating the sample with the particle separating device; performing a second measurement on the separated sample; characterised by comparing the first measurement and the second measurement to determine if all the particles of the sample have passed through the separating device. performing a first measurement on the sample using a first particle characterisation technique; flowing the sample from the first particle characterisation technique to a particle separating device; separating the sample with the particle separating device; performing a second measurement on the separated sample; characterised by comparing the first measurement and the second measurement to determine if all the particles of the sample have passed through the separating device.
A waste storage device comprising a waste storage compartment for storing waste and a lid , the device further comprising a dispenser for dispensing an agent inside the waste storage device and an actuator arranged to activate the dispenser , the dispenser being arranged to store and dispense the agent in powder form, wherein at least one opening is provided in a surface of the dispenser , and characterised in that the actuator is arranged to create an air flow in the dispenser to dispense agent out of said opening .
A refrigeration apparatus comprising: - a main refrigerant circuit including a positive displacement compressor , a condenser , an expansion valve , and an evaporator , through which a refrigerant circulates successively in a closed loop circulation; - a lubrication refrigerant line connected to the main refrigerant circuit between the condenser and the expansion valve or to the condenser , in which circulates a portion of the refrigerant of the main refrigerant circuit and connected to the compressor for lubrication of said compressor with the refrigerant; wherein the refrigeration apparatus comprises a lubrication refrigerant tank connected to the lubrication refrigerant line upstream the compressor , the lubrication tank being configured to store liquid refrigerant for lubrication of the compressor ; and wherein the lubrication refrigerant tank comprises means (32, 34; 38, 40) to cool down the refrigerant stored in the lubrication refrigerant tank prior to a starting operation of the refrigeration apparatus ; characterized in that the refrigerant tank is placed in a top area (A) of the refrigeration apparatus , and feeds the compressor with lubrication refrigerant by gravity. - a main refrigerant circuit including a positive displacement compressor , a condenser , an expansion valve , and an evaporator , through which a refrigerant circulates successively in a closed loop circulation; - a lubrication refrigerant line connected to the main refrigerant circuit between the condenser and the expansion valve or to the condenser , in which circulates a portion of the refrigerant of the main refrigerant circuit and connected to the compressor for lubrication of said compressor with the refrigerant; wherein the refrigeration apparatus comprises a lubrication refrigerant tank connected to the lubrication refrigerant line upstream the compressor , the lubrication tank being configured to store liquid refrigerant for lubrication of the compressor ; and wherein the lubrication refrigerant tank comprises means (32, 34; 38, 40) to cool down the refrigerant stored in the lubrication refrigerant tank prior to a starting operation of the refrigeration apparatus ; characterized in that the refrigerant tank is placed in a top area (A) of the refrigeration apparatus , and feeds the compressor with lubrication refrigerant by gravity.
A monolithic interlayer comprising a polymer blend of: (A) polyvinyl acetal ("poly(vinyl acetal)"); and (B) a cellulose ester ("CE"). (A) polyvinyl acetal ("poly(vinyl acetal)"); and (B) a cellulose ester ("CE").
An apparatus for recognizing a gait task, the apparatus comprising: a gait pattern detector configured to detect a gait pattern of a user based on sensed data; a gait feature generator configured to extract gait data similar to the detected gait pattern from each of a plurality of databases corresponding to each of a plurality of gait tasks, each database having as gait data a plurality of gait patterns by having been constructed by a database constructor that stored gait patterns classified thereby based on each of a plurality of gait tasks, and generate a gait feature of the detected gait pattern based on similarities between the detected gait pattern and the similar gait data; a gait task estimator configured to estimate a gait task corresponding to the detected gait pattern by applying the gait feature to a set learning model; and a drive controller configured to drive a walking assistance apparatus based on the estimated gait task. a gait pattern detector configured to detect a gait pattern of a user based on sensed data; a gait feature generator configured to extract gait data similar to the detected gait pattern from each of a plurality of databases corresponding to each of a plurality of gait tasks, each database having as gait data a plurality of gait patterns by having been constructed by a database constructor that stored gait patterns classified thereby based on each of a plurality of gait tasks, and generate a gait feature of the detected gait pattern based on similarities between the detected gait pattern and the similar gait data; a gait task estimator configured to estimate a gait task corresponding to the detected gait pattern by applying the gait feature to a set learning model; and a drive controller configured to drive a walking assistance apparatus based on the estimated gait task.
A method of manufacturing a multilayer member for aeronautic and aerospace applications comprising: - forming a stack of sheets , wherein the stack comprises a number of sheets ranging between 10 to 2000, and wherein each sheet is 0.005 mm to 2 mm thick; and - at least partially mutually welding the sheets through Friction Stir Welding along at least part of a perimetral edge of the stack of sheets to form the multilayer member . - forming a stack of sheets , wherein the stack comprises a number of sheets ranging between 10 to 2000, and wherein each sheet is 0.005 mm to 2 mm thick; and - at least partially mutually welding the sheets through Friction Stir Welding along at least part of a perimetral edge of the stack of sheets to form the multilayer member .
Fecal matter for use in the prevention or treatment of an autoimmune disease, wherein the use involves administration to a subject of fecal matter which is autologous to the subject, wherein the autoimmune disease is not inflammatory bowel syndrome (IBD), and wherein, if the use is for treatment of autoimmune disease, the fecal matter is obtained from the subject while having the autoimmune disease.
Electronic chip comprising: a doped semiconductor substrate of a first conductivity type; boxes of a second conductivity type on the side of the front face of the chip, in and on which circuit elements are formed; one or more slabs of the second type of conductivity buried under the boxes and separated from the boxes with a portion of the substrate; for each buried slab, a well of the second type of conductivity, polarizable, which extends from the front face of the substrate to the buried slab; for each well, at least one flip-flop of the chip comprising, in a upper portion of the well, a first MOS transistor (TP) with a channel of the first conductivity type, the first transistor being an element of said at least one flip-flop ; and a circuit for detecting a change in logic level of one of the flip-flops. a doped semiconductor substrate of a first conductivity type; boxes of a second conductivity type on the side of the front face of the chip, in and on which circuit elements are formed; one or more slabs of the second type of conductivity buried under the boxes and separated from the boxes with a portion of the substrate; for each buried slab, a well of the second type of conductivity, polarizable, which extends from the front face of the substrate to the buried slab; for each well, at least one flip-flop of the chip comprising, in a upper portion of the well, a first MOS transistor (TP) with a channel of the first conductivity type, the first transistor being an element of said at least one flip-flop ; and a circuit for detecting a change in logic level of one of the flip-flops.
A composite article comprising: a thermoplastic fiber-reinforced porous prepreg layer comprising a web formed from a plurality of sheath-core reinforcing fibers and a thermoplastic material; and a non-woven scrim coupled to the prepreg layer at a first surface of the prepreg layer, the non-woven scrim comprising a plurality of bi-component fibers. a thermoplastic fiber-reinforced porous prepreg layer comprising a web formed from a plurality of sheath-core reinforcing fibers and a thermoplastic material; and a non-woven scrim coupled to the prepreg layer at a first surface of the prepreg layer, the non-woven scrim comprising a plurality of bi-component fibers.
A method for processing green coffee beans, the method comprising: loading unroasted green coffee beans on a mesh-like plate, placing in a container the mesh-like plate having the green coffee beans loaded thereon, introducing mineral water into a bottom of the container so as to be spaced apart from a lower surface of the mesh-like plate, placing tourmaline on the bottom of the container, and then closing a lid of the container to seal the container; placing the sealed container in a heating cabinet, and then steaming the green coffee beans at low temperature for 11 days while maintaining an internal temperature of the heating cabinet at 75°C; and opening the lid of the container, and then drying the steamed green coffee beans for 5 days while maintaining the internal temperature of the heating cabinet at 40°C; wherein step further comprises preparing a second mesh-like plate, mixing an Apios leaf and an Apios flower with each other at a weight ratio of 3:1 to obtain a mixture, loading the mixture on the second mesh-like plate, and then disposing the second mesh-like plate under the mesh-like plate having the green coffee beans loaded thereon so as to be spaced apart from the mineral water on the bottom. loading unroasted green coffee beans on a mesh-like plate, placing in a container the mesh-like plate having the green coffee beans loaded thereon, introducing mineral water into a bottom of the container so as to be spaced apart from a lower surface of the mesh-like plate, placing tourmaline on the bottom of the container, and then closing a lid of the container to seal the container; placing the sealed container in a heating cabinet, and then steaming the green coffee beans at low temperature for 11 days while maintaining an internal temperature of the heating cabinet at 75°C; and opening the lid of the container, and then drying the steamed green coffee beans for 5 days while maintaining the internal temperature of the heating cabinet at 40°C;