mhurhangee/ep-ind-claims huggingface dataset:
A loop antenna, comprising: a dielectric substrate taking a cuboid form; a loop part composed of a metal that covers two pairs of facing surfaces (13-1, 13-2, 14-1, 14-2) of the dielectric substrate by leaving a blank portion at a center of one surface of the pair of facing surfaces having a wider area; the loop part including two loop thin line parts (15-1, 15-2) formed in the blank portion and obtained by thinning and extending the loop part, the ends of the loop thin line parts facing each other to form a feeding point to an LSI chip, and two wires that respectively extend in one direction from the two ends of the two loop thin line parts (15-1, 15-2); a capacitance part (17, 21) being formed by two conductors (17-1, 17-2, 21-1, 21-2) which are connected to the loop thin line parts in parallel to the feeding point, wherein the two conductors (17-1, 17-2, 21-1, 21-2) are arranged at two positions via a gap, and the gap between the two conductors or a length of the gap formed between a convex part in one of the two conductors protruding into a concave part in the other of the two conductors is selected so that a parallel capacitance (Cc) of the LSI chip and a parallel capacitance (Ca) of the loop antenna are resonant with a parallel inductance (La) of the loop antenna at a predetermined resonance frequency. a dielectric substrate taking a cuboid form; a loop part composed of a metal that covers two pairs of facing surfaces (13-1, 13-2, 14-1, 14-2) of the dielectric substrate by leaving a blank portion at a center of one surface of the pair of facing surfaces having a wider area; the loop part including two loop thin line parts (15-1, 15-2) formed in the blank portion and obtained by thinning and extending the loop part, the ends of the loop thin line parts facing each other to form a feeding point to an LSI chip, and two wires that respectively extend in one direction from the two ends of the two loop thin line parts (15-1, 15-2);
A method for power control in non-adaptive retransmission, characterized by comprising: determining a current mode of power control when User Equipment, UE, does not obtain a Transmit Power Control, TPC, adjustment value of a current retransmission Hybrid Automatic Repeat Request, HARQ, process by parsing; when the mode of the power control is an accumulation mode, determining whether a calculated sum of TPC adjustment values of each HARQ process is smaller than a given threshold; if it is smaller than the given threshold, then obtaining a transmission power by adding an increment adjustment value to a retransmission power, otherwise, calculating a transmission power of the UE according to a formula in a protocol; when the mode of the power control is an absolute value mode, obtaining a transmission power by adding an increment adjustment value to a retransmission power. determining a current mode of power control when User Equipment, UE, does not obtain a Transmit Power Control, TPC, adjustment value of a current retransmission Hybrid Automatic Repeat Request, HARQ, process by parsing; when the mode of the power control is an accumulation mode, determining whether a calculated sum of TPC adjustment values of each HARQ process is smaller than a given threshold; if it is smaller than the given threshold, then obtaining a transmission power by adding an increment adjustment value to a retransmission power, otherwise, calculating a transmission power of the UE according to a formula in a protocol; when the mode of the power control is an absolute value mode, obtaining a transmission power by adding an increment adjustment value to a retransmission power.
A distributed antenna system, comprising: a master unit communicatively coupled to at least one base station, wherein the master unit is configured to receive downlink signals from the base station and transmit uplink signals to the base station; a remote antenna unit communicatively coupled to the master unit and located remotely from the master unit, wherein the master unit and the remote antenna unit include a downlink path configured for communicatively coupling a transmit antenna of the remote antenna unit to the base station and an uplink path configured for communicatively coupling a receive antenna of the remote antenna unit to the base station; wherein the remote antenna unit includes a non-duplexer isolator sub-system comprising: an electronically configurable filter (310, 312) positioned in at least one of the downlink path and the uplink path, wherein the electronically configurable filter (310, 312) is configured to isolate the uplink path from downlink signals traversing the downlink path, wherein the electronically configurable filter (310, 312) is configurable by modifying a frequency response of the electronically configurable filter (310, 312) in response to receiving an electronic control signal. a master unit communicatively coupled to at least one base station, wherein the master unit is configured to receive downlink signals from the base station and transmit uplink signals to the base station; a remote antenna unit communicatively coupled to the master unit and located remotely from the master unit, wherein the master unit and the remote antenna unit include a downlink path configured for communicatively coupling a transmit antenna of the remote antenna unit to the base station and an uplink path configured for communicatively coupling a receive antenna of the remote antenna unit to the base station; wherein the remote antenna unit includes a non-duplexer isolator sub-system comprising: an electronically configurable filter (310, 312) positioned in at least one of the downlink path and the uplink path, wherein the electronically configurable filter (310, 312) is configured to isolate the uplink path from downlink signals traversing the downlink path, wherein the electronically configurable filter (310, 312) is configurable by modifying a frequency response of the electronically configurable filter (310, 312) in response to receiving an electronic control signal.
An optical fiber fusion splicer adapted to fusion-splice optical fibers to each other, the optical fiber fusion splicer comprising: a coating clamp installation base; a drive mechanism that is driven by the driving force of a power source to advance the coating clamp installation base; a coating clamp that is attached to the coating clamp installation base and has a coating clamp lid that is openable and closable; wherein the coating clamp comprises a pin placed at a lower portion of the coating clamp lid and pushed up via a link part when a portion of the drive mechanism is separated and retracted from the coating clamp installation base; wherein the drive mechanism driven by the power source is adapted to push up the pin and thereby open the coating clamp lid after the fusion splicing is completed. a coating clamp installation base; a drive mechanism that is driven by the driving force of a power source to advance the coating clamp installation base; a coating clamp that is attached to the coating clamp installation base and has a coating clamp lid that is openable and closable; wherein the coating clamp comprises a pin placed at a lower portion of the coating clamp lid and pushed up via a link part when a portion of the drive mechanism is separated and retracted from the coating clamp installation base; wherein the drive mechanism driven by the power source is adapted to push up the pin and thereby open the coating clamp lid after the fusion splicing is completed.
A polymer thick film white reflective flexible dielectric composition consisting essentially of: (a) 15-25 wt% of a first organic medium consisting of 15-25 wt% urethane resin dissolved in 75-85 wt% first organic solvent, wherein the weight percent of said urethane resin and said first organic solvent are based on the total weight of said first organic medium; (b) 25-45 wt% of a second organic medium consisting of 20-35 wt% thermoplastic phenoxy resin dissolved in 65-80 wt% second organic solvent wherein the weight percent of said thermoplastic phenoxy resin and said second organic solvent are based on the total weight of said second organic medium; and (c) 20-60 wt% of a white reflective powder selected from the group consisting of titanium dioxide, barium titanate or mixtures thereof; wherein the weight percent of said first organic medium, said second organic medium and said white reflective powder are based on the total weight of said composition. (a) 15-25 wt% of a first organic medium consisting of 15-25 wt% urethane resin dissolved in 75-85 wt% first organic solvent, wherein the weight percent of said urethane resin and said first organic solvent are based on the total weight of said first organic medium; (b) 25-45 wt% of a second organic medium consisting of 20-35 wt% thermoplastic phenoxy resin dissolved in 65-80 wt% second organic solvent wherein the weight percent of said thermoplastic phenoxy resin and said second organic solvent are based on the total weight of said second organic medium; and (c) 20-60 wt% of a white reflective powder selected from the group consisting of titanium dioxide, barium titanate or mixtures thereof;
A data transmission method, wherein the data transmission method comprises: receiving, by a session management network element, a request message from a mobility management network element, wherein the request message comprises an identifier of a mobile local area network, MLAN, associated with a session of a terminal; obtaining, by the session management network element, a label of the MLAN based on the identifier of the MLAN; generating, by the session management network element, an uplink data forwarding rule based on the label of the MLAN and information about an uplink path corresponding to the session, wherein the uplink data forwarding rule comprises the label of the MLAN and the information about the uplink path corresponding to the session; sending, by the session management network element, the uplink data forwarding rule to a user plane network element, wherein the uplink data forwarding rule is used to instruct the user plane network element to forward, by using routing information corresponding to the label of the MLAN, uplink data received on the uplink path; and forwarding, by the user plane network element, the uplink data received on the uplink path by using the routing information corresponding to the label of the MLAN. receiving, by a session management network element, a request message from a mobility management network element, wherein the request message comprises an identifier of a mobile local area network, MLAN, associated with a session of a terminal; obtaining, by the session management network element, a label of the MLAN based on the identifier of the MLAN; generating, by the session management network element, an uplink data forwarding rule based on the label of the MLAN and information about an uplink path corresponding to the session, wherein the uplink data forwarding rule comprises the label of the MLAN and the information about the uplink path corresponding to the session; sending, by the session management network element, the uplink data forwarding rule to a user plane network element, wherein the uplink data forwarding rule is used to instruct the user plane network element to forward, by using routing information corresponding to the label of the MLAN, uplink data received on the uplink path; and forwarding, by the user plane network element, the uplink data received on the uplink path by using the routing information corresponding to the label of the MLAN.
A method for determining at least one geometric parameter of a strand- or plate-shaped object which has not yet completely solidified and still has flowable components, characterized by the following steps: - a relationship between the refractive index of the strand- or plate-shaped object and a shrinkage occurring in the course of its complete solidification is established for the strand- or plate-shaped object in an establishing step, - the refractive index and at least one geometric parameter of the strand-or plate-shaped object which has not yet completely solidified and still has flowable components are determined in a determining step, - the at least one geometric parameter is calculated in the completely solidified state of the strand- or plate-shaped object from the values for the refractive index and the at least one geometric parameter determined in the determining step, taking account of the relationship established in the establishing step. - a relationship between the refractive index of the strand- or plate-shaped object and a shrinkage occurring in the course of its complete solidification is established for the strand- or plate-shaped object in an establishing step, - the refractive index and at least one geometric parameter of the strand-or plate-shaped object which has not yet completely solidified and still has flowable components are determined in a determining step, - the at least one geometric parameter is calculated in the completely solidified state of the strand- or plate-shaped object from the values for the refractive index and the at least one geometric parameter determined in the determining step, taking account of the relationship established in the establishing step.
Method for processing a part of a slaughtered animal, typically a fowl thigh or the like, which part of a slaughtered animal comprises at least a meat part connected to a bone and cartilage, the meat part being separated from the bone and cartilage during the processing, characterized in that the method comprises at least the steps of: • encapsulating a first axial end of the bone together with the cartilage at that axial end into an encapsulating means provided at an axial end of a bone pusher (11,12) prior to the actual separation of the meat part from the bone and cartilage; • initially activating the encapsulating means into a radially open position for receiving the first axial end of the bone and cartilage, after which the encapsulating means are brought into a radially closed position for encapsulating the first axial end of the bone and cartilage; • separating the meat part from the bone and said cartilage while holding said first axial end of the bone and the concerned cartilage encapsulated in the encapsulating means; and, • releasing the first axial end of the bone and the concerned cartilage from the encapsulating means. • encapsulating a first axial end of the bone together with the cartilage at that axial end into an encapsulating means provided at an axial end of a bone pusher (11,12) prior to the actual separation of the meat part from the bone and cartilage; • initially activating the encapsulating means into a radially open position for receiving the first axial end of the bone and cartilage, after which the encapsulating means are brought into a radially closed position for encapsulating the first axial end of the bone and cartilage; • separating the meat part from the bone and said cartilage while holding said first axial end of the bone and the concerned cartilage encapsulated in the encapsulating means; and, • releasing the first axial end of the bone and the concerned cartilage from the encapsulating means.
An integrated antenna/heat spreader (610, 630) apparatus comprising: a heat spreader (610, 630) having a first portion and a second portion; an antenna formed from the first portion of said heat spreader; a component mounted on the second portion of said heat spreader with the second portion of said heat spreader spaced apart by a gap from said antenna; one or more conductive connections disposed across the gap to connect said component to said antenna; and a waveguide disposed over said antenna, wherein said one or more conductive connections, said gap, and said antenna are configured to radiate energy into an open end of said waveguide. a heat spreader (610, 630) having a first portion and a second portion; an antenna formed from the first portion of said heat spreader; a component mounted on the second portion of said heat spreader with the second portion of said heat spreader spaced apart by a gap from said antenna; one or more conductive connections disposed across the gap to connect said component to said antenna; and a waveguide disposed over said antenna, wherein said one or more conductive connections, said gap, and said antenna are configured to radiate energy into an open end of said waveguide.
An apparatus for making plastic containers by blow-moulding parisons comprising: - a mould having at least one moulding cavity; - a base mounted over the mould; a blow nozzle; - fastening means for coupling and uncoupling the nozzle to and from the base, characterized in that the fastening means comprise, in combination: - at least one pin, protruding from the top of the blow nozzle to be inserted into a respective through hole in the base until an end portion of it protrudes upwards from a top face of the base; - a fastening element connected to the base in such a way as to be movable from an unlocked position, where it does not interfere with the pin, to a locked position, where it is inserted in an end groove defined by the end portion of the pin, and vice versa, wherein the base forms at least one passage connected to a high-pressure fluid source and the blow nozzle forms at least one conduit and is connected to a bottom face of the base to be positioned between the base and the mould in such a way that the conduit is in fluid communication with the passage to receive the high-pressure fluid and convey it into the moulding cavity. - a mould having at least one moulding cavity; - a base mounted over the mould; a blow nozzle; - fastening means for coupling and uncoupling the nozzle to and from the base, - at least one pin, protruding from the top of the blow nozzle to be inserted into a respective through hole in the base until an end portion of it protrudes upwards from a top face of the base; - a fastening element connected to the base in such a way as to be movable from an unlocked position, where it does not interfere with the pin, to a locked position, where it is inserted in an end groove defined by the end portion of the pin, and vice versa,
A fluid processing machine comprising: a first stator configured to generate a rotating electromagnetic field; at least one first rotor section internal to the first stator comprising at least one set of axially spaced impellers each having permanent magnets located on the outer diameter thereof wherein the first stator is configured to electromagnetically engage with the at least one first rotor section inducing rotation of the at least one first rotor section about a central axis in a first rotational direction thereby causing the at least one impeller to impart kinetic energy on a fluid being processed; a second stator configured to generate a rotating electromagnetic field and electromagnetically engage with at least one second rotor section rotatable about the central axis in a second rotational direction opposite to the first rotation direction, the second rotor section comprising at least one set of axially spaced second impellers having permanent magnets located on the internal diameter thereof, with the second rotor section being internal to the first stator and the second stator being internal to the second rotor section, and with the impellers of the at least one first rotor section interleaved with the impellers of the at least one second rotor section. a first stator configured to generate a rotating electromagnetic field; at least one first rotor section internal to the first stator comprising at least one set of axially spaced impellers each having permanent magnets located on the outer diameter thereof wherein the first stator is configured to electromagnetically engage with the at least one first rotor section inducing rotation of the at least one first rotor section about a central axis in a first rotational direction thereby causing the at least one impeller to impart kinetic energy on a fluid being processed; a second stator configured to generate a rotating electromagnetic field and electromagnetically engage with at least one second rotor section rotatable about the central axis in a second rotational direction opposite to the first rotation direction, the second rotor section comprising at least one set of axially spaced second impellers having permanent magnets located on the internal diameter thereof, with the second rotor section being internal to the first stator and the second stator being internal to the second rotor section, and with the impellers of the at least one first rotor section interleaved with the impellers of the at least one second rotor section.
Multi-glazed window incorporating an active or passive noise reduction device, which device comprises at least one vibrating membrane arranged between two adjacent panes (V1, V2) so as to vibrate in the air gap that separates said two panes, which device comprises a hollow body which comprises two longitudinal lateral walls and of which one face consists at least in part of the membrane that is suspended from said lateral walls, on either side thereof, characterized in that the membrane has two distal edges at each of which there is arranged a latching member (7a, 7'a), which latching member (7a, 7'a) secures to a matching latching member (2a, 2'a) arranged on a respective lateral wall of the body, and in that each latching member (2a, 2'a) is associated with an adjustment device (21a, 22a) that is suitable for modifying the position of the matching latching member of the membrane, this change in position bringing about a variation in the tension of said membrane.
A distributed injection device, comprising a needle, said needle having an attachment end and an injection end, said needle having a needle outer diameter, and said needle having an internal cross-sectional area, said needle having a needle longitudinal axis; a housing including a needle-receiving member, said needle-receiving member being tubular, said needle-receiving member having an open first end, said needle-receiving member having a needle-receiving member inner diameter, said needle-receiving member inner diameter greater than said needle outer diameter, said needle-receiving member having a needle-receiving member longitudinal axis, said needle longitudinal axis and said needle-receiving member longitudinal axis generally parallel, said needle-receiving member circumscribing said needle longitudinal axis; a therapeutic agent reservoir adapted to contain a therapeutic agent, said therapeutic agent reservoir in fluid communication with said needle via a tubing, said therapeutic agent reservoir positioned within said housing; a second reservoir adapted to contain fluid; a reservoir-connecting conduit, said reservoir-connecting conduit in communication with said therapeutic agent reservoir; a fluid drive in communication with said fluid in said second reservoir, said fluid drive in communication with said reservoir-connecting conduit; a linear drive associated with said needle or said needle-receiving member; said linear drive adapted to provide a linear displacement of said needle toward said housing or to provide a linear displacement of said needle-receiving member away from said housing, the product of said linear displacement and internal cross-sectional area of said needle providing a volume of displacement, said volume of displacement per unit time providing a flow rate; wherein said fluid drive is adapted to impel fluid from said second reservoir to said reservoir-connecting conduit and to drive said therapeutic agent from said therapeutic agent reservoir at said flow rate during said linear displacement of said needle towards said housing, and wherein said fluid communication from said therapeutic agent reservoir to said needle is maintained by said tubing during operation of said linear drive to provide a linear displacement of said needle towards said housing, or to provide a linear displacement of said needle-receiving member away from said housing.