mhurhangee/patent-ind-claim-en huggingface dataset:
An additive delivery system comprising: an intake tube defining_a base liquid flow passage for conveying base liquid through the additive delivery system ; an additive cartridge (102, 102.1,102.2) having an interior space for containing an additive supply, the additive cartridge (102, 102.1, 102.2) defining an additive flow passage and an additive cartridge port (126.1, 126.2) for permitting flow of an additive from the cartridge interior space; the base liquid flow passage including a base liquid flow passage port arranged to cooperate with the additive cartridge port (126.1, 126.2) to provide for the flow of additive into the base liquid flow passage and to thereby provide for mixing of additive with the base liquid in response to base liquid flowing in the base liquid flow passage ; the additive cartridge (102, 102.1,102.2) including a flow adjustment actuator for allowing a user to control the amount of additive mixed with the base liquid as the base liquid flows in the base liquid flow passage ; the additive delivery system including a flow monitoring package having a flow monitoring package flow passage defined therein for permitting flow through the flow monitoring package , the flow monitoring package including a flow measuring device for measuring flow in the flow monitoring package flow passage; the flow monitoring package further including a position sensor for sensing the position of the flow adjustment actuator; and the additive delivery system further comprising a user interface for conveying information to the user about the additive. an intake tube defining_a base liquid flow passage for conveying base liquid through the additive delivery system ; an additive cartridge (102, 102.1,102.2) having an interior space for containing an additive supply, the additive cartridge (102, 102.1, 102.2) defining an additive flow passage and an additive cartridge port (126.1, 126.2) for permitting flow of an additive from the cartridge interior space; the base liquid flow passage including a base liquid flow passage port arranged to cooperate with the additive cartridge port (126.1, 126.2) to provide for the flow of additive into the base liquid flow passage and to thereby provide for mixing of additive with the base liquid in response to base liquid flowing in the base liquid flow passage ; the additive cartridge (102, 102.1,102.2) including a flow adjustment actuator for allowing a user to control the amount of additive mixed with the base liquid as the base liquid flows in the base liquid flow passage ; the additive delivery system including a flow monitoring package having a flow monitoring package flow passage defined therein for permitting flow through the flow monitoring package , the flow monitoring package including a flow measuring device for measuring flow in the flow monitoring package flow passage; the flow monitoring package further including a position sensor for sensing the position of the flow adjustment actuator; and the additive delivery system further comprising a user interface for conveying information to the user about the additive.
A bone anchor assembly , comprising: a bone anchor having a proximal head portion and a distal shank portion; a receiver member having a polyaxial seat formed therein and configured to polyaxially seat the head portion of the bone anchor; and a compression cap disposed within the receiver member and having a distal end configured to engage the head portion of the bone anchor and a pair of spaced-apart arms defining a U-shaped seat for receiving a spinal fixation element , the compression cap including flanges and opposed wings extending radially from outward-facing surfaces of the arms of the compression cap, the opposed wings being distal of the flanges and configured to mate with pockets formed in the receiver member such that the compression cap is retained within the receiver member and exerts a frictional force on the head portion of the bone anchor to prevent free movement of the bone anchor relative to the receiver member while still allowing a user to move the receiver member relative to the bone anchor; wherein the receiver member further includes ramped shoulders disposed proximal to the pockets that are configured to deform the wings as the compression cap is advanced distally into the receiver member; wherein the arms of the compression cap are configured to deflect inwardly as the compression cap is inserted into the receiver member. a bone anchor having a proximal head portion and a distal shank portion; a receiver member having a polyaxial seat formed therein and configured to polyaxially seat the head portion of the bone anchor; and a compression cap disposed within the receiver member and having a distal end configured to engage the head portion of the bone anchor and a pair of spaced-apart arms defining a U-shaped seat for receiving a spinal fixation element , the compression cap including flanges and opposed wings extending radially from outward-facing surfaces of the arms of the compression cap, the opposed wings being distal of the flanges and configured to mate with pockets formed in the receiver member such that the compression cap is retained within the receiver member and exerts a frictional force on the head portion of the bone anchor to prevent free movement of the bone anchor relative to the receiver member while still allowing a user to move the receiver member relative to the bone anchor; wherein the receiver member further includes ramped shoulders disposed proximal to the pockets that are configured to deform the wings as the compression cap is advanced distally into the receiver member; wherein the arms of the compression cap are configured to deflect inwardly as the compression cap is inserted into the receiver member.
An electrochemical cell comprising at least one multilayer component which comprises: - a positive electrode film comprising, on a current collector, elemental sulfur particles as electrochemically active material, a conductive carbon, and a polymer binder, the elemental sulfur particles being encapsulated in a coating material; - a negative electrode film comprising lithium as an electrochemically active material; and - a solid electrolyte film between the negative and positive electrode films, said solid electrolyte film comprising at least one lithium salt and at least one polymeric layer, the solid electrolyte film being an ion-conductive film and comprising at least one inorganic compound in the polymeric layer or in a separate ion-conductive solid layer, the electrolyte polymer comprising a block copolymer composed of at least one lithium ion-solvating segment and at least one cross-linkable segment, the cross-linkable segment of the polymer being a polymer segment comprising at least one functional group cross-linkable multidimensionally by irradiation or thermal treatment, and the lithium ion-solvating segment being selected from homo- or copolymers having repeating units of Formula (I): wherein, R is selected from H, C 1 -C 10 alkyl, or -(CH 2 -O-R a R b ); R a is (CH 2 -CH 2 -O) y ; R b is selected from H and a C 1 -C 10 alkyl group; x is an integer selected from the range of 10 to 200,000; and y is a number selected from the range of 0 to 10. - a positive electrode film comprising, on a current collector, elemental sulfur particles as electrochemically active material, a conductive carbon, and a polymer binder, the elemental sulfur particles being encapsulated in a coating material; - a negative electrode film comprising lithium as an electrochemically active material; and - a solid electrolyte film between the negative and positive electrode films, said solid electrolyte film comprising at least one lithium salt and at least one polymeric layer, the solid electrolyte film being an ion-conductive film and comprising at least one inorganic compound in the polymeric layer or in a separate ion-conductive solid layer, the electrolyte polymer comprising a block copolymer composed of at least one lithium ion-solvating segment and at least one cross-linkable segment, the cross-linkable segment of the polymer being a polymer segment comprising at least one functional group cross-linkable multidimensionally by irradiation or thermal treatment, and the lithium ion-solvating segment being selected from homo- or copolymers having repeating units of Formula (I): wherein, R is selected from H, C 1 -C 10 alkyl, or -(CH 2 -O-R a R b ); R a is (CH 2 -CH 2 -O) y ; R b is selected from H and a C 1 -C 10 alkyl group; x is an integer selected from the range of 10 to 200,000; and y is a number selected from the range of 0 to 10. R is selected from H, C 1 -C 10 alkyl, or -(CH 2 -O-R a R b ); R a is (CH 2 -CH 2 -O) y ; R b is selected from H and a C 1 -C 10 alkyl group; x is an integer selected from the range of 10 to 200,000; and y is a number selected from the range of 0 to 10.
An array, comprising: a support including a plurality of discrete wells; a gel material positioned in each of the discrete wells; a sequencing primer grafted to the gel material; and a non-sequencing entity grafted to the gel material and connected via a linker to a triple state quencher or anti-oxidant; each of the sequencing primer and the non-sequencing entity being in its as-grafted form; wherein the non-sequencing entity is selected from the group consisting of a dendrimer, polydextran, methacryloyloxyethyl phosphorylcholine, poly(ethylene glycol), poly(ethylene imine), poly-L-lysine, propargyl methacrylate, poly(methyl methacrylate), poly(N-isopropylacrylamide), poly(ethylene glycol) acrylate, poly(propylene imine), poly(vinyl alcohol), poly(2-ethyl-2-oxazoline), polyacrylic acid, poly(trolox ester), a peptide, and a non-functional primer being any single stranded nucleic acid sequence which will not participate in DNA or RNA synthesis. a support including a plurality of discrete wells; a gel material positioned in each of the discrete wells; a sequencing primer grafted to the gel material; and a non-sequencing entity grafted to the gel material and connected via a linker to a triple state quencher or anti-oxidant; each of the sequencing primer and the non-sequencing entity being in its as-grafted form; wherein the non-sequencing entity is selected from the group consisting of a dendrimer, polydextran, methacryloyloxyethyl phosphorylcholine, poly(ethylene glycol), poly(ethylene imine), poly-L-lysine, propargyl methacrylate, poly(methyl methacrylate), poly(N-isopropylacrylamide), poly(ethylene glycol) acrylate, poly(propylene imine), poly(vinyl alcohol), poly(2-ethyl-2-oxazoline), polyacrylic acid, poly(trolox ester), a peptide, and a non-functional primer being any single stranded nucleic acid sequence which will not participate in DNA or RNA synthesis.
A power module comprising: a power substrate ; a first power switching terminal and a second power switching terminal ; and a plurality of power semiconductor devices (16; 28, 30) on the power substrate , the plurality of power semiconductor devices (16; 28, 30) comprising: • at least one insulated gate bipolar junction transistor, IGBT ; and • at least one metal-oxide-semiconductor field-effect transistor, MOSFET , wherein: • the at least one IGBT comprises a number of IGBT semiconductor die coupled in parallel; • the at least one MOSFET comprises a number of MOSFET semiconductor die coupled in parallel, wherein the number of MOSFET semiconductor die is greater than the number of IGBT semiconductor die; • the at least one IGBT and the at least one MOSFET are coupled in parallel between the first power switching terminal and the second power switching terminal ; and • the at least one IGBT and the at least one MOSFET are silicon carbide semiconductor devices. a power substrate ; a first power switching terminal and a second power switching terminal ; and a plurality of power semiconductor devices (16; 28, 30) on the power substrate , the plurality of power semiconductor devices (16; 28, 30) comprising: • at least one insulated gate bipolar junction transistor, IGBT ; and • at least one metal-oxide-semiconductor field-effect transistor, MOSFET , wherein: • the at least one IGBT comprises a number of IGBT semiconductor die coupled in parallel; • the at least one MOSFET comprises a number of MOSFET semiconductor die coupled in parallel, wherein the number of MOSFET semiconductor die is greater than the number of IGBT semiconductor die; • the at least one IGBT and the at least one MOSFET are coupled in parallel between the first power switching terminal and the second power switching terminal ; and • the at least one IGBT and the at least one MOSFET are silicon carbide semiconductor devices. • at least one insulated gate bipolar junction transistor, IGBT ; and • at least one metal-oxide-semiconductor field-effect transistor, MOSFET , wherein: • the at least one IGBT comprises a number of IGBT semiconductor die coupled in parallel; • the at least one MOSFET comprises a number of MOSFET semiconductor die coupled in parallel, wherein the number of MOSFET semiconductor die is greater than the number of IGBT semiconductor die; • the at least one IGBT and the at least one MOSFET are coupled in parallel between the first power switching terminal and the second power switching terminal ; and • the at least one IGBT and the at least one MOSFET are silicon carbide semiconductor devices. • the at least one IGBT comprises a number of IGBT semiconductor die coupled in parallel; • the at least one MOSFET comprises a number of MOSFET semiconductor die coupled in parallel, wherein the number of MOSFET semiconductor die is greater than the number of IGBT semiconductor die; • the at least one IGBT and the at least one MOSFET are coupled in parallel between the first power switching terminal and the second power switching terminal ; and • the at least one IGBT and the at least one MOSFET are silicon carbide semiconductor devices.
A computer-assisted surgery (CAS) navigation assembly adapted for navigating an instrument, the navigation assembly comprising a micro-electromechanical sensor (MEMS) navigation unit ; and a support receiving the MEMS navigation unit therein, characterised in that : the navigation unit has one or more MEMS to provide at least orientation data; the support is adapted to be mounted on the instrument in a fixed orientation relative to established navigated features of the instrument; and at least two mating ball-in-socket features which are vertically aligned relative to each other along an X-axis and which are disposed between the MEMS navigation unit and the support at opposed ends thereof for releasably engaging the MEMS navigation unit in precise orientational alignment within the support, the at least two mating ball-in-socket features comprising catches aligned along the axis (X) extending between the opposed ends, at least one of the catches being a biased catch displaceable along the axis (X) . the navigation unit has one or more MEMS to provide at least orientation data; the support is adapted to be mounted on the instrument in a fixed orientation relative to established navigated features of the instrument; and at least two mating ball-in-socket features which are vertically aligned relative to each other along an X-axis and which are disposed between the MEMS navigation unit and the support at opposed ends thereof for releasably engaging the MEMS navigation unit in precise orientational alignment within the support, the at least two mating ball-in-socket features comprising catches aligned along the axis (X) extending between the opposed ends, at least one of the catches being a biased catch displaceable along the axis (X) .
An external charger system for an implantable medical device, the external charger system comprising: a circuit board; a primary charging coil mounted to a first side of the circuit board, wherein the primary charging coil, when energized, is configured to generate a magnetic field to be received at the implantable medical device; and a thermal diffuser within the primary charging coil, wherein the thermal diffuser is configured to conduct heat away from the primary charging coil; characterized in that the thermal diffuser is adhered to the first side of the circuit board. a circuit board; a primary charging coil mounted to a first side of the circuit board, wherein the primary charging coil, when energized, is configured to generate a magnetic field to be received at the implantable medical device; and a thermal diffuser within the primary charging coil, wherein the thermal diffuser is configured to conduct heat away from the primary charging coil;
A method in a telecommunications network, the network including at least two service areas , the method comprising: at the network, distributing a mobile edge computing server within a corresponding one of the service areas; at the mobile edge computing server, collecting vehicle traffic flow statistics and storing the traffic flow statistics at a server in the network; at the mobile edge computing server, defining at least one mobile edge computing area within the corresponding service area based on the collected traffic flow statistics by selecting at least one access point within the corresponding service area to be located within the correspondingly defined at least one mobile edge computing area such that the defined at least one mobile edge computing area maps each to a main vehicle traffic flow respectively; at the mobile edge computing server, distributing at least one access point within the corresponding service area based on the traffic flow statistics; wherein at least one of the access points is distributed within one of the defined at least one corresponding mobile edge computing area. at the network, distributing a mobile edge computing server within a corresponding one of the service areas; at the mobile edge computing server, collecting vehicle traffic flow statistics and storing the traffic flow statistics at a server in the network; at the mobile edge computing server, defining at least one mobile edge computing area within the corresponding service area based on the collected traffic flow statistics by selecting at least one access point within the corresponding service area to be located within the correspondingly defined at least one mobile edge computing area such that the defined at least one mobile edge computing area maps each to a main vehicle traffic flow respectively; at the mobile edge computing server, distributing at least one access point within the corresponding service area based on the traffic flow statistics; wherein at least one of the access points is distributed within one of the defined at least one corresponding mobile edge computing area.
A method for manufacturing an insulating layer for a semiconductor package comprising the steps of: a first step of forming a thermosetting resin film containing a heat-curable binder resin, a heat curing catalyst, and 40 % to 90 % by weight of a metal grafting porous structure on a circuit board; and a second step of heat curing the thermosetting resin film, wherein in at least one of the first step and the second step, a magnetic field of 0.1 T to 1 T is applied to the thermosetting resin film. a first step of forming a thermosetting resin film containing a heat-curable binder resin, a heat curing catalyst, and 40 % to 90 % by weight of a metal grafting porous structure on a circuit board; and a second step of heat curing the thermosetting resin film, wherein in at least one of the first step and the second step, a magnetic field of 0.1 T to 1 T is applied to the thermosetting resin film.
A method for receiving by a user equipment, downlink data, the method comprising: repeatedly receiving, by the user equipment, a physical downlink control channel, PDCCH, carrying downlink control information across N consecutive subframes, where N is an integer greater than 1, and being characterized by : repeatedly receiving, by the user equipment, a physical downlink shared channel, PDSCH, carrying the downlink data, across D consecutive subframes starting from a subframe n+k after a subframe n in which the PDCCH is last received, based on the downlink control information, where D is a positive integer, wherein k is an integer greater than 1. repeatedly receiving, by the user equipment, a physical downlink control channel, PDCCH, carrying downlink control information across N consecutive subframes, where N is an integer greater than 1, and being characterized by : repeatedly receiving, by the user equipment, a physical downlink shared channel, PDSCH, carrying the downlink data, across D consecutive subframes starting from a subframe n+k after a subframe n in which the PDCCH is last received, based on the downlink control information, where D is a positive integer, wherein k is an integer greater than 1. repeatedly receiving, by the user equipment, a physical downlink shared channel, PDSCH, carrying the downlink data, across D consecutive subframes starting from a subframe n+k after a subframe n in which the PDCCH is last received, based on the downlink control information, where D is a positive integer, wherein k is an integer greater than 1.
A communication control device comprising: circuitry configured to identify radio resources available for inter-device communication within a cell , the identified radio resources being assigned to a group of terminal devices for D2D communication in an idle mode, the identified radio resources being selected among radio resources available for communication in the idle mode and being different than radio resources used for a random access procedure in the idle mode; and notify a terminal device of the group of terminal devices and located within the cell of the identified radio resources, wherein, when the identified radio resources are modified, the circuitry notifies the terminal device of modification of the radio resources through a paging message including a flag indicating that modified radio resources will be described in a subsequent message, the flag being used for indicating modified radio resources for the group of terminal devices and being used for the random access procedure, and wherein, when the radio resources are modified, the radio resources before the modification refrain from being used for the inter-device communication after a predetermined timing and the radio resources after the modification are used for the inter-device communication after the predetermined timing. circuitry configured to identify radio resources available for inter-device communication within a cell , the identified radio resources being assigned to a group of terminal devices for D2D communication in an idle mode, the identified radio resources being selected among radio resources available for communication in the idle mode and being different than radio resources used for a random access procedure in the idle mode; and notify a terminal device of the group of terminal devices and located within the cell of the identified radio resources, identify radio resources available for inter-device communication within a cell , the identified radio resources being assigned to a group of terminal devices for D2D communication in an idle mode, the identified radio resources being selected among radio resources available for communication in the idle mode and being different than radio resources used for a random access procedure in the idle mode; and notify a terminal device of the group of terminal devices and located within the cell of the identified radio resources, wherein, when the identified radio resources are modified, the circuitry notifies the terminal device of modification of the radio resources through a paging message including a flag indicating that modified radio resources will be described in a subsequent message, the flag being used for indicating modified radio resources for the group of terminal devices and being used for the random access procedure, and wherein, when the radio resources are modified, the radio resources before the modification refrain from being used for the inter-device communication after a predetermined timing and the radio resources after the modification are used for the inter-device communication after the predetermined timing.