mhurhangee/ep-ind-claims huggingface dataset:
A particle sprayer, comprising: a particle source either a) containing particles that comprise discrete fastening bits having one or more projections, each projection having an overhanging head for snagging fibers, or b) comprising a longitudinally continuous ribbon and a cutter operable to cut through the ribbon at discrete intervals to form the discrete fastening bits; a particle distribution system in hydraulic communication with the particle source; and a spray outlet coupled to the distribution system for spraying the particles from the particle source, wherein the particle distribution system comprises at least one of: a conduit extending from a pressurized fluid inlet to the spray outlet and configured to constrain a flow of carrier fluid to flow along the conduit toward the spray outlet to propel the particles from the particle source away from the spray outlet; and a valve (113, 138, 141, 162) in hydraulic communication with the particle source for dispensing the particles from the particle source. a particle source either a) containing particles that comprise discrete fastening bits having one or more projections, each projection having an overhanging head for snagging fibers, or b) comprising a longitudinally continuous ribbon and a cutter operable to cut through the ribbon at discrete intervals to form the discrete fastening bits; a) containing particles that comprise discrete fastening bits having one or more projections, each projection having an overhanging head for snagging fibers, or b) comprising a longitudinally continuous ribbon and a cutter operable to cut through the ribbon at discrete intervals to form the discrete fastening bits; a particle distribution system in hydraulic communication with the particle source; and a spray outlet coupled to the distribution system for spraying the particles from the particle source, wherein the particle distribution system comprises at least one of: a conduit extending from a pressurized fluid inlet to the spray outlet and configured to constrain a flow of carrier fluid to flow along the conduit toward the spray outlet to propel the particles from the particle source away from the spray outlet; and a valve (113, 138, 141, 162) in hydraulic communication with the particle source for dispensing the particles from the particle source. a conduit extending from a pressurized fluid inlet to the spray outlet and configured to constrain a flow of carrier fluid to flow along the conduit toward the spray outlet to propel the particles from the particle source away from the spray outlet; and a valve (113, 138, 141, 162) in hydraulic communication with the particle source for dispensing the particles from the particle source.
A composition comprising an effective amount of C. difficile toxoid A and toxoid B and an aluminium adjuvant, said toxoid A and toxoid B having a purity of 90% or higher (w/w) and a ratio of 3:1 to 1:1 by weight, for use in a method for reducing or preventing a primary symptomatic C. difficile infection by eliciting an immune response against C. difficile toxin A and toxin B in an adult human subject who has or is at risk of such an infection, the method comprising administering the composition three times to the subject, wherein the second administration is at least 7 days after the first administration and the third administration is at least 180 days after the first administration, wherein said immune response against C. difficile toxin A and toxin B is sustained for at least 210 days in the subject.
A steering apparatus for a steered vehicle, the steering apparatus comprising: a rotatable steering shaft; a sensor which senses angular movement of the steering shaft as the vehicle is being steered; a stop mechanism configured to releasably engage the steering shaft to prevent rotation of the steering shaft; an electromagnetic actuator configured to actuate the stop mechanism to engage or release the steering shaft; a microcontroller which causes the electromagnetic actuator to actuate the stop mechanism to fully engage the steering shaft when the sensor senses that the steering shaft has reached a hardstop position to prevent rotation of the steering shaft in a first rotational direction, which corresponds to movement towards the hardstop position, while allowing rotational play between the steering shaft and the stop mechanism in a second direction, which corresponds to rotational movement away from the hardstop position; a driver which applies a reverse polarity pulse to the electromagnetic actuator when the stop mechanism is fully engaged with the steering shaft and the steering shaft is rotated, as permitted by the rotational play, in the second rotational direction. a rotatable steering shaft; a sensor which senses angular movement of the steering shaft as the vehicle is being steered; a stop mechanism configured to releasably engage the steering shaft to prevent rotation of the steering shaft; an electromagnetic actuator configured to actuate the stop mechanism to engage or release the steering shaft; a microcontroller which causes the electromagnetic actuator to actuate the stop mechanism to fully engage the steering shaft when the sensor senses that the steering shaft has reached a hardstop position to prevent rotation of the steering shaft in a first rotational direction, which corresponds to movement towards the hardstop position, while allowing rotational play between the steering shaft and the stop mechanism in a second direction, which corresponds to rotational movement away from the hardstop position; a driver which applies a reverse polarity pulse to the electromagnetic actuator when the stop mechanism is fully engaged with the steering shaft and the steering shaft is rotated, as permitted by the rotational play, in the second rotational direction.
A method of preparing a crosslinked biodegradable particle, comprising: dissolving polyvalerolactone backbones containing a plurality of allyl groups, a dithiol, and a photoinitiator in at least one solvent to form a solution; emulsifying the solution in an aqueous phase to form an emulsion; irradiating the emulsion with UV light to react the dithiol with two of the allyl groups to form a crosslink; and evaporating at least a portion of the solvent from the emulsion; wherein the crosslinked degradable particle comprises crosslinked polyester of the Formula I: wherein: R 1 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; R 2 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; R 3 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; a is 0, 1, or 2; m is independently, at each occurrence, an integer between 1 and 1000, inclusive; n is independently, at each occurrence, an integer between 1 and 1000, inclusive; p is independently, at each occurrence, an integer between 0 and 5, inclusive; q is independently, at each occurrence, an integer between 0 and 1000, inclusive; r is independently, at each occurrence, an integer between 0 and 1000, inclusive; and t is independently, at each occurrence, an integer between 0 and 5, inclusive. dissolving polyvalerolactone backbones containing a plurality of allyl groups, a dithiol, and a photoinitiator in at least one solvent to form a solution; emulsifying the solution in an aqueous phase to form an emulsion; irradiating the emulsion with UV light to react the dithiol with two of the allyl groups to form a crosslink; and evaporating at least a portion of the solvent from the emulsion; wherein the crosslinked degradable particle comprises crosslinked polyester of the Formula I: wherein: R 1 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; R 2 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; R 3 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; a is 0, 1, or 2; m is independently, at each occurrence, an integer between 1 and 1000, inclusive; n is independently, at each occurrence, an integer between 1 and 1000, inclusive; p is independently, at each occurrence, an integer between 0 and 5, inclusive; q is independently, at each occurrence, an integer between 0 and 1000, inclusive; r is independently, at each occurrence, an integer between 0 and 1000, inclusive; and t is independently, at each occurrence, an integer between 0 and 5, inclusive. R 1 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; R 2 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; R 3 is independently, at each occurrence, ―H, or ―C 1 -C 6 alkyl; a is 0, 1, or 2; m is independently, at each occurrence, an integer between 1 and 1000, inclusive; n is independently, at each occurrence, an integer between 1 and 1000, inclusive; p is independently, at each occurrence, an integer between 0 and 5, inclusive; q is independently, at each occurrence, an integer between 0 and 1000, inclusive; r is independently, at each occurrence, an integer between 0 and 1000, inclusive; and t is independently, at each occurrence, an integer between 0 and 5, inclusive.
A method for transmitting a physical uplink control channel, PUCCH, signal by a communication apparatus in a wireless communication system, the method comprising: setting transmit power for the PUCCH signal, wherein, if the PUCCH signal is transmitted on a subframe configured for a scheduling request, SR, the PUCCH signal includes one or more hybrid automatic repeat request acknowledgement, HARQ-ACK, bits and an SR bit, and wherein the transmit power for the PUCCH is determined by using the following equation: h ⋅ = n HARQ + n SR − 1 N where, n HARQ is the number of one or more transport blocks received in one or more subframes, N denotes a positive integer, characterized in that n SR is 1 when the subframe does not have any transport block for an uplink shared channel, UL-SCH, and is 0 when the subframe has a transport block for the UL-SCH. setting transmit power for the PUCCH signal, wherein, if the PUCCH signal is transmitted on a subframe configured for a scheduling request, SR, the PUCCH signal includes one or more hybrid automatic repeat request acknowledgement, HARQ-ACK, bits and an SR bit, and wherein the transmit power for the PUCCH is determined by using the following equation: h ⋅ = n HARQ + n SR − 1 N where, n HARQ is the number of one or more transport blocks received in one or more subframes, N denotes a positive integer, characterized in that n SR is 1 when the subframe does not have any transport block for an uplink shared channel, UL-SCH, and is 0 when the subframe has a transport block for the UL-SCH.
A system for capturing video from an array of cameras to generate an immersive media for playback, the system comprising: an array of mounts with the array of cameras attached to the mounts surrounding a field of an event, each of the mounts comprising an actuating mechanism; and a computing server to actuate the mounts to follow a primary object through the field of the event, to receive video feeds from the array of cameras, to analyze the video feeds to determine a primary object in the video feeds, and to generate the immersive media from the video feeds by stitching the video feeds together, wherein the immersive media is a 360-degree virtual reality media, characterized in that the array of cameras is attached to the mounts in sets of at least two cameras to each mount, each of the sets of the at least two cameras comprising: a first camera of the at least two cameras directed at the primary object of the event, and a second camera of the at least two cameras directed at a background of the primary object; wherein the computing server tracks and determines a location of the primary object in the field of the event to determine a focus of the second camera on the background of the primary object and the focus of the second camera is at a determined distance beyond the location of the primary object from the second camera. an array of mounts with the array of cameras attached to the mounts surrounding a field of an event, each of the mounts comprising an actuating mechanism; and a computing server to actuate the mounts to follow a primary object through the field of the event, to receive video feeds from the array of cameras, to analyze the video feeds to determine a primary object in the video feeds, and to generate the immersive media from the video feeds by stitching the video feeds together, wherein the immersive media is a 360-degree virtual reality media, characterized in that the array of cameras is attached to the mounts in sets of at least two cameras to each mount, each of the sets of the at least two cameras comprising: a first camera of the at least two cameras directed at the primary object of the event, and a second camera of the at least two cameras directed at a background of the primary object; a first camera of the at least two cameras directed at the primary object of the event, and a second camera of the at least two cameras directed at a background of the primary object;
Turbine rotor for an exhaust gas turbine, which has a turbine rotor wheel with a rotor wheel hub, consisting of a highly heat-resistant metal alloy, and a rotor shaft with a rotor shaft end facing the rotor wheel base, consisting of steel, the rotor wheel hub and the rotor shaft end being connected to one another in a material-bonded manner by means of a brazed connection, the rotor shaft end and/or the rotor wheel hub having a centrally arranged recess (5a/5b), which acts as a thermal choke at the transition between the turbine rotor wheel and the rotor shaft, wherein a closure plug is arranged in the respective recess (5a/5b) in such a way that it forms a closed cavity with the recess (5a/5b) and closes off the recess (5a/5b) toward the respective end face (7/8), the brazed connection being formed between the end faces (7/8) of the rotor wheel hub and the rotor shaft, characterized in that the brazed connection is also formed between the closure plug and the rotor wheel hub and the rotor shaft.
A packet switched service identification method, comprising: storing, by a terminal, a configuration file, wherein the configuration file records which packet switched, PS, service is a PS service that needs to be identified, and a rule of how to determine a socket as a key socket according to a weight; determining, by the terminal, a weight of at least one socket, wherein the at least one socket is a socket comprised in a packet switched, PS, service;determining, by the terminal, a key socket from the at least one socket according to the weight of the at least one socket, and if the weight is larger, it indicates that the socket is more important; and sending, by the terminal, an identifier of the key socket to a network side device. storing, by a terminal, a configuration file, wherein the configuration file records which packet switched, PS, service is a PS service that needs to be identified, and a rule of how to determine a socket as a key socket according to a weight; determining, by the terminal, a weight of at least one socket, wherein the at least one socket is a socket comprised in a packet switched, PS, service;determining, by the terminal, a key socket from the at least one socket according to the weight of the at least one socket, and if the weight is larger, it indicates that the socket is more important; and sending, by the terminal, an identifier of the key socket to a network side device.
A computer-assisted surgery system for planning/guiding alterations to a bone in surgery, comprising: a trackable member adapted to be secured to the bone, the trackable member having a first inertial sensor unit producing orientation-based data for at least two degrees of freedom in orientation of the trackable member; a positioning block adapted to be secured to the bone, with at least an orientation of the positioning block being adjustable once the positioning block is secured to the bone to reach a selected orientation at which the positioning block is used to guide tools in altering the bone, the positioning block having a second inertial sensor unit producing orientation-based data for at least two degrees of freedom in orientation of the positioning block; a processing system providing an orientation reference between the bone and the trackable member and comprising: a signal interpreter for determining an orientation of the trackable member and of the positioning block from the orientation-based data; and a parameter calculator for calculating alteration parameters related to an actual orientation of the positioning block with respect to the bone as a function of the orientation reference and of the orientation of the positioning block. a trackable member adapted to be secured to the bone, the trackable member having a first inertial sensor unit producing orientation-based data for at least two degrees of freedom in orientation of the trackable member; a positioning block adapted to be secured to the bone, with at least an orientation of the positioning block being adjustable once the positioning block is secured to the bone to reach a selected orientation at which the positioning block is used to guide tools in altering the bone, the positioning block having a second inertial sensor unit producing orientation-based data for at least two degrees of freedom in orientation of the positioning block; a processing system providing an orientation reference between the bone and the trackable member and comprising: a signal interpreter for determining an orientation of the trackable member and of the positioning block from the orientation-based data; and a parameter calculator for calculating alteration parameters related to an actual orientation of the positioning block with respect to the bone as a function of the orientation reference and of the orientation of the positioning block. a signal interpreter for determining an orientation of the trackable member and of the positioning block from the orientation-based data; and a parameter calculator for calculating alteration parameters related to an actual orientation of the positioning block with respect to the bone as a function of the orientation reference and of the orientation of the positioning block.
A refrigerator unit and/or freezer unit having at least one carcass which has at least one outer wall and in which at least one refrigerated compartment is arranged; and having at least one refrigerant circuit that has at least one evaporator for refrigerating the compartment, characterized in that one or more radiation shields are provided that reflect the thermal radiation of at least one wall or of at least one component at least partially and/or that keep it away from the refrigerated inner space in another manner, with the radiation shield or shields being attached to the inner container or to the inner side of the door and being arranged upstream with respect to the inner container wall or with respect to the inner side of the door in the direction toward the refrigerated inner space.
An electronic device comprising: a housing defining an exterior of the electronic device, the housing (2000 accommodating a main board; a metal plate coupled to the housing; and a battery attached to the metal plate, the battery being electrically connected to the main board; wherein the metal plate has at least one groove defined in an outer surface thereof. a housing defining an exterior of the electronic device, the housing (2000 accommodating a main board; a metal plate coupled to the housing; and a battery attached to the metal plate, the battery being electrically connected to the main board; wherein the metal plate has at least one groove defined in an outer surface thereof.
An electric automobile in which a power control unit is disposed in a motor room formed at a front section of a vehicle: wherein a charging port or a power supply port (8, 9) is provided on a lateral surface of the front section of the vehicle; a charging connector or a power supply connector (10, 12) for connection to a charging power supply or an external device is attached to the charging port or the power supply port (8, 9); the charging connector or the power supply connector (10, 12, 2) is disposed in a manner so that a forward end thereof is located rearward of a forward end of a front wheel, and a rearward end thereof is located forward of a dash panel that partitions the motor room and a vehicle cabin; the charging connector or the power supply connector and the power control unit are connected by a cable; characterized in that a connection section between the cable and the power control unit is provided forward of the charging connector or the power supply connector (10, 12), on a surface constituting an exterior of the power control unit, that is closest to the charging port or the power supply port (8, 9), other than the surface of which a surface direction is most approximate to a surface direction of a front fender (3, 4) in which the charging port or the power supply port (8, 9) is provided. wherein a charging port or a power supply port (8, 9) is provided on a lateral surface of the front section of the vehicle; a charging connector or a power supply connector (10, 12) for connection to a charging power supply or an external device is attached to the charging port or the power supply port (8, 9); the charging connector or the power supply connector (10, 12, 2) is disposed in a manner so that a forward end thereof is located rearward of a forward end of a front wheel, and a rearward end thereof is located forward of a dash panel that partitions the motor room and a vehicle cabin; the charging connector or the power supply connector and the power control unit are connected by a cable; a connection section between the cable and the power control unit is provided forward of the charging connector or the power supply connector (10, 12), on a surface constituting an exterior of the power control unit, that is closest to the charging port or the power supply port (8, 9), other than the surface of which a surface direction is most approximate to a surface direction of a front fender (3, 4) in which the charging port or the power supply port (8, 9) is provided.