mhurhangee/ep-ind-claims huggingface dataset:
An electrical connector assembly for interconnecting first and second electrical components (112, 104), the connector assembly comprising: a mating connector comprising a housing having a mating face and a plurality of cavities extending into the housing, each cavity having a mating contact therein electrically coupled to the first electrical component; and a socket connector configured to engage the mating connector, the socket connector comprising: a socket housing having a mating face configured to engage the mating face of the mating connector; a plurality of conductors extending through the socket housing and being electrically coupled to the second electrical component; and a plurality of socket members electrically coupled to the conductors, each socket member comprising a shaft projecting from the mating face of the socket housing and configured for insertion into one of the cavities, and characterized in that the shaft forms a passage configured for receiving the corresponding mating contact held within the cavity to establish an electrical connection between the corresponding mating contact and the shaft. a mating connector comprising a housing having a mating face and a plurality of cavities extending into the housing, each cavity having a mating contact therein electrically coupled to the first electrical component; and a socket connector configured to engage the mating connector, the socket connector comprising: a socket housing having a mating face configured to engage the mating face of the mating connector; a plurality of conductors extending through the socket housing and being electrically coupled to the second electrical component; and a plurality of socket members electrically coupled to the conductors, each socket member comprising a shaft projecting from the mating face of the socket housing and configured for insertion into one of the cavities, and characterized in that the shaft forms a passage configured for receiving the corresponding mating contact held within the cavity to establish an electrical connection between the corresponding mating contact and the shaft. a socket housing having a mating face configured to engage the mating face of the mating connector; a plurality of conductors extending through the socket housing and being electrically coupled to the second electrical component; and a plurality of socket members electrically coupled to the conductors, each socket member comprising a shaft projecting from the mating face of the socket housing and configured for insertion into one of the cavities, and characterized in that the shaft forms a passage configured for receiving the corresponding mating contact held within the cavity to establish an electrical connection between the corresponding mating contact and the shaft.
A solvent-free method of manufacturing an electrode comprising: feeding a current collector through a feed mechanism; applying a first layer comprised of an active material mixture and a binder to the current collector, wherein the binder is comprised of polyvinylidene fluoride (PVDF); and heating the first layer with a first heater to bind the first layer to the current collector; wherein applying the first layer comprises applying the active material mixture and the binder to the current collector via a powder coating or spray coating application. feeding a current collector through a feed mechanism; applying a first layer comprised of an active material mixture and a binder to the current collector, wherein the binder is comprised of polyvinylidene fluoride (PVDF); and heating the first layer with a first heater to bind the first layer to the current collector; wherein applying the first layer comprises applying the active material mixture and the binder to the current collector via a powder coating or spray coating application.
A method of compensating for signal error, comprising: receiving a first signal (1;101) from a first sensor, said first signal (1;101) indicative of a movement characteristic; applying an error compensation to said first signal (1;101) to produce an output signal (10; 110); applying a variable gain factor to said error compensation; receiving a second signal (15;115) from a second sensor indicative of said movement characteristic; wherein said error compensation is calculated using the difference between said output signal (10;110) and said second signal (15;115), and said variable gain factor is calculated using said first signal (1;101), characterised in that said first sensor exhibits a lower high frequency noise than said second sensor. receiving a first signal (1;101) from a first sensor, said first signal (1;101) indicative of a movement characteristic; applying an error compensation to said first signal (1;101) to produce an output signal (10; 110); applying a variable gain factor to said error compensation; receiving a second signal (15;115) from a second sensor indicative of said movement characteristic; wherein said error compensation is calculated using the difference between said output signal (10;110) and said second signal (15;115), and said variable gain factor is calculated using said first signal (1;101), characterised in that said first sensor exhibits a lower high frequency noise than said second sensor.
A cellular composition comprising: at least 30% human facilitating cells (hFCs) having a phenotype of CD8+ / alpha beta TCR- / delta gamma TCR- / CD56 dim/neg / CD3+ / CD16+ / CD19+ / CD52+, further comprising hematopoietic stem cells (HSCs), wherein the HSCs have a phenotype of CD34+, wherein the HSCs are MHC-matched with the hFCs. at least 30% human facilitating cells (hFCs) having a phenotype of CD8+ / alpha beta TCR- / delta gamma TCR- / CD56 dim/neg / CD3+ / CD16+ / CD19+ / CD52+, further comprising hematopoietic stem cells (HSCs), wherein the HSCs have a phenotype of CD34+, wherein the HSCs are MHC-matched with the hFCs.
A faucet-door for a sink or countertop, and even being able to be mounted in basins and bathroom sinks and even bathtubs and spas, having valves and controls for regulating the cold water and hot water flow rate, as well as the corresponding water supply pipes or conduits, wherein it consists of combining a faucet and a door in a single element, the faucet-door in the central core of which ducts (8",8"') are defined for hot water and cold water passage, said ducts (8",8"') opening into a main casing established on the inner face of said central core being of little thickness, for being re-conducted towards a diffuser that can be folded away on said casing, the ducts (8", 8"') being associated with the corresponding flow rate-regulating means, characterised in that the pivot shafts of the faucet-door are hollow, defining the hot water connection and cold water connection.
A manufacturing method for nickel manganese containing composite hydroxide represented by a general formula of: Ni x Mn y M z 2, where x+y+z=1, 0.1^x^0.7, 0.1≦y≦0.5, 0.1≦z≦0.5; M is one or more of element that is selected from among Co, Ti, V, Cr, Zr, Nb, Mo, Hf, Ta, and W, manufacturing the nickel manganese containing composite hydroxide by a crystallization reaction using a material solution where metal compound including nickel and manganese dissolve, the manufacturing method comprising steps of: a nucleation process performed in a non-oxidizing atmosphere having an oxygen concentration of 5% by volume or less by stirring an aqueous solution for nucleation including a quantity of the material solution corresponding to 0.6% to 5.0% of the whole amount of substance of metal element included in the metal compound used for the overall crystallization reaction, such that the amount of nuclei produced is set to within the range of 0.6 mol% to 5.0 mol% of the whole metal salt supplied to the whole crystallization reaction to obtain composite hydroxide, while controlling an ammonium ion concentration of the aqueous solution for nucleation within a range of 3 g/L to 25 g/L, a pH of the aqueous solution for nucleation within a range of 12.0 to 14.0 at a solution temperature of 25°C as a standard, and a stirring power requirement within a range of 6.0 kW/m 3 to 30 kW/m 3, to generate nuclei, and a particle growth process growing the nuclei by supplying the material solution to an aqueous solution for particle growth including the nuclei while controlling an ammonium ion concentration of the aqueous solution for particle growth within a range of 3 g/L to 25 g/L and a pH of the aqueous solution for particle growth within a range of 10.5 to 12.0 at a solution temperature of 25°C as a standard. a nucleation process performed in a non-oxidizing atmosphere having an oxygen concentration of 5% by volume or less by stirring an aqueous solution for nucleation including a quantity of the material solution corresponding to 0.6% to 5.0% of the whole amount of substance of metal element included in the metal compound used for the overall crystallization reaction, such that the amount of nuclei produced is set to within the range of 0.6 mol% to 5.0 mol% of the whole metal salt supplied to the whole crystallization reaction to obtain composite hydroxide, while controlling an ammonium ion concentration of the aqueous solution for nucleation within a range of 3 g/L to 25 g/L, a pH of the aqueous solution for nucleation within a range of 12.0 to 14.0 at a solution temperature of 25°C as a standard, and a stirring power requirement within a range of 6.0 kW/m 3 to 30 kW/m 3, to generate nuclei, and a particle growth process growing the nuclei by supplying the material solution to an aqueous solution for particle growth including the nuclei while controlling an ammonium ion concentration of the aqueous solution for particle growth within a range of 3 g/L to 25 g/L and a pH of the aqueous solution for particle growth within a range of 10.5 to 12.0 at a solution temperature of 25°C as a standard.
Method of forming injectable polymeric microspheres loaded with therapeutic agent, comprising: a. exposing porous polymeric microspheres to an organic solvent comprising a dissolved therapeutic agent thereby creating microspheres loaded with therapeutic agent, b. separating the microspheres loaded with therapeutic agent from the organic solvent, c. washing the microspheres loaded with therapeutic agent with water, and d. drying the washed microspheres, preferably wherein the porous polymeric microspheres have pores having a size of between 2 and 50 micrometers, more preferably between 3 and 8 micrometers, even more preferably between 5 and 10 micrometers. a. exposing porous polymeric microspheres to an organic solvent comprising a dissolved therapeutic agent thereby creating microspheres loaded with therapeutic agent, b. separating the microspheres loaded with therapeutic agent from the organic solvent, c. washing the microspheres loaded with therapeutic agent with water, and d. drying the washed microspheres, preferably wherein the porous polymeric microspheres have pores having a size of between 2 and 50 micrometers, more preferably between 3 and 8 micrometers, even more preferably between 5 and 10 micrometers.
Method for transmitting data packets over an interface between at least one transmitting gateway (13, 130, 14, 140) and at least one receiving gateway (13, 130, 14, 140) of a communications network, wherein the transmission is carried out between a gateway (13, 130) which is comprised by an access point to a core network and comprises radio resource management functionalities, and a gateway (14, 140) which is comprised by a serving gateway of the core network and the core network is a packet oriented mobile data network and the interface is an interface for user plane tunnelling, wherein the method comprises extracting information from at least one header of at least one of the data packets received at the transmitting gateway (13, 130, 14, 140), and using said extracted information for transmission of the at least one data packet, wherein the transmission includes multiplexing of at least two data packets, wherein at least part of the headers of the received data packets are maintained, and wherein the extracted information is used as addressing information of a designated communication tunnel.
A mounting system for supporting rotary machineries (3, 5, 7) on a supporting structure of an off-shore installation, the system comprising: a base frame having an upper side for mounting the rotary machineries and a lower side; a set of at least four permanent supporting members forming a hyperstatic mounting arranged at the lower side of the base frame and adapted to be placed on the supporting structure; wherein the permanent supporting members comprise resilient elements (21, 23, 25) generating a reaction force when subject to a load and the stiffness of the permanent supporting members is from 2x10^7 N/m to 7x10^7 N/m; wherein the system has stiffness adapted to guarantee rotary machineries (3, 5, 7) alignment, or to minimize the displacement between a point on the machineries and an absolute reference point located in a fixed position with respect to the supporting structure, or to minimize the dynamic behavior of the base frame; wherein the permanent supporting members are configured to transfer to the base plate stresses and/or strains lower than allowable limits also in case of deformation of the supporting structures. a base frame having an upper side for mounting the rotary machineries and a lower side; a set of at least four permanent supporting members forming a hyperstatic mounting arranged at the lower side of the base frame and adapted to be placed on the supporting structure; wherein the permanent supporting members comprise resilient elements (21, 23, 25) generating a reaction force when subject to a load and the stiffness of the permanent supporting members is from 2x10^7 N/m to 7x10^7 N/m; wherein the system has stiffness adapted to guarantee rotary machineries (3, 5, 7) alignment, or to minimize the displacement between a point on the machineries and an absolute reference point located in a fixed position with respect to the supporting structure, or to minimize the dynamic behavior of the base frame; wherein the permanent supporting members are configured to transfer to the base plate stresses and/or strains lower than allowable limits also in case of deformation of the supporting structures.
A remote manipulator for separating multiple sub-conductors in an energized single phase bundle from an initial separation distance (d 1) to an optimized separation distance (d 3), the multiple sub-conductors separated by a rigid link or a yoke plate, the manipulator comprising: a rigid support member mountable on the end of a boom, at least first and second independently actuable actuators (40a, 40b) mounted on said support member, an insulator (36a, 36b) mounted on each actuator of said at least first and second actuators, wherein each insulator has a longitudinal axis and a corresponding linear trajectory extending collinearly from the longitudinal axis, and wherein the insulators are mounted so as to be parallel to one another, a selectively releasable coupler (46a, 46b) mounted on a distal end of each said insulator, wherein, said insulators are initially separated by said initial separation distance and are releasably coupled to corresponding sub-conductors of the energized single phase bundle by said selectively releasable couplers, and wherein upon actuation of said actuators said insulators are extended independently of one another along their respective linear actuation trajectories, whereby each insulator is extended independently from said support member to thereby separate said insulators and said corresponding sub-conductors by said optimized separation distance. a rigid support member mountable on the end of a boom, at least first and second independently actuable actuators (40a, 40b) mounted on said support member, an insulator (36a, 36b) mounted on each actuator of said at least first and second actuators, wherein each insulator has a longitudinal axis and a corresponding linear trajectory extending collinearly from the longitudinal axis, and wherein the insulators are mounted so as to be parallel to one another, a selectively releasable coupler (46a, 46b) mounted on a distal end of each said insulator, wherein, said insulators are initially separated by said initial separation distance and are releasably coupled to corresponding sub-conductors of the energized single phase bundle by said selectively releasable couplers, and wherein upon actuation of said actuators said insulators are extended independently of one another along their respective linear actuation trajectories, whereby each insulator is extended independently from said support member to thereby separate said insulators and said corresponding sub-conductors by said optimized separation distance.
A flatbed knitting machine having knitting needles and sinkers (5,6) alternately arranged along a longitudinal direction of a needle bed in a side of a needle bed gap, the flatbed knitting machine configured to perform half gauge knitting by alternately using and not using the knitting needles disposed adjacently, the sinkers (5,6) having working edge parts (5e,6e) at tip sides in the side of the needle bed gap, and including basic sinkers and concave sinkers arranged alternately, wherein the working edge part of each basic sinker is capable of working on knitting yarn upon contact with the knitting yarn in forming a stitch, and is set at a basic position facing the needle bed gap, and forms a sinker loop in forming the stitch, the working edge part of each concave sinker is set at a concave position further away from the needle bed gap than the basic position, and characterized in that at the concave position each of the working edge parts of the concave sinkers functions as a wall in the side position of the hook of the unused knitting needle which covers at least a tip and a bottom part of the hook and does not cover a vicinity of a top part of the hook so as to protrude into the needle bed gap over the working edge part. the working edge part of each basic sinker is capable of working on knitting yarn upon contact with the knitting yarn in forming a stitch, and is set at a basic position facing the needle bed gap, and forms a sinker loop in forming the stitch, the working edge part of each concave sinker is set at a concave position further away from the needle bed gap than the basic position, and characterized in that at the concave position each of the working edge parts of the concave sinkers functions as a wall in the side position of the hook of the unused knitting needle which covers at least a tip and a bottom part of the hook and does not cover a vicinity of a top part of the hook so as to protrude into the needle bed gap over the working edge part.
A stack of layers (100, 300, 320, 340, 360, 452) comprising - a first outer layer (102, 341, 366, 402), - a second outer layer (106, 343, 406), the first outer layer (102, 341, 366, 402) and the second outer layer (106, 343, 406) are of a light transmitting polymeric material and have an oxygen transmission rate lower than 30 cm 3 /(m 2 ·day) under standard temperature and pressure, and - a luminescent layer (104, 304, 324, 404) being sandwiched between the first outer layer (102, 341, 366, 402) and the second outer layer (106, 343, 406), the luminescent layer comprises a light transmitting matrix polymer and a luminescent material being configured to absorb light according to an absorption spectrum and convert a portion of the absorbed light towards light of a light emission spectrum. - a first outer layer (102, 341, 366, 402), - a second outer layer (106, 343, 406), the first outer layer (102, 341, 366, 402) and the second outer layer (106, 343, 406) are of a light transmitting polymeric material and have an oxygen transmission rate lower than 30 cm 3 /(m 2 ·day) under standard temperature and pressure, and - a luminescent layer (104, 304, 324, 404) being sandwiched between the first outer layer (102, 341, 366, 402) and the second outer layer (106, 343, 406), the luminescent layer comprises a light transmitting matrix polymer and a luminescent material being configured to absorb light according to an absorption spectrum and convert a portion of the absorbed light towards light of a light emission spectrum.
A dental pod comprising: a receiver in a form of a cavity, adapted to receive a distal end of a dental handheld device; one or more nozzles disposed on a side of the receiver, the one or more nozzles configured to clean or disinfect the distal end of the dental handheld device; characterised in that it further comprises a cartridge compartment disposed proximal to the receiver, the cartridge compartment including more than one insertion slot, wherein the insertion slots are for cartridges (204,402,404,406), and wherein the cartridges being configured to support operations of the handheld device, wherein each cartridge is one of a color calibration cartridge, a 3D calibration cartridge, a disinfection cartridge, a dental caries cartridge and an air-filter cartridge; and a motor adapted to turn the one or more cartridges to a predefined spatial position relative to the receiver to perform said operations in the dental handheld device; and a processor (31, adapted to automatically perform operations of the dental handheld device based on a predefined function of the cartridges, at least one of the operations being selected from the group consisting of a color calibration operation, a 3D calibration operation, a cleaning operation, a disinfection operation, caries detection calibration, and an air-filtering operation. a receiver in a form of a cavity, adapted to receive a distal end of a dental handheld device; one or more nozzles disposed on a side of the receiver, the one or more nozzles configured to clean or disinfect the distal end of the dental handheld device; characterised in that it further comprises a cartridge compartment disposed proximal to the receiver, the cartridge compartment including more than one insertion slot, wherein the insertion slots are for cartridges (204,402,404,406), and wherein the cartridges being configured to support operations of the handheld device, wherein each cartridge is one of a color calibration cartridge, a 3D calibration cartridge, a disinfection cartridge, a dental caries cartridge and an air-filter cartridge; and a motor adapted to turn the one or more cartridges to a predefined spatial position relative to the receiver to perform said operations in the dental handheld device; and a processor (31, adapted to automatically perform operations of the dental handheld device based on a predefined function of the cartridges, at least one of the operations being selected from the group consisting of a color calibration operation, a 3D calibration operation, a cleaning operation, a disinfection operation, caries detection calibration, and an air-filtering operation.