mhurhangee/patent-ind-claim-en huggingface dataset:
A testable semiconductor package comprising: an active die having interface contacts and dedicated testing contacts ; and an interposer situated adjacent a bottom surface of said active die , said interposer providing electrical connections between said interface contacts and a bottom surface of said testable semiconductor package ; characterized by at least one first conductive medium providing electrical connection exclusively between at least one of said dedicated testing contacts and a top surface of said testable semiconductor package , and at least one second conductive medium providing electrical connection exclusively between at least another one of said dedicated testing contacts and a sidewall of said testable semiconductor package . an active die having interface contacts and dedicated testing contacts ; and an interposer situated adjacent a bottom surface of said active die , said interposer providing electrical connections between said interface contacts and a bottom surface of said testable semiconductor package ; characterized by at least one first conductive medium providing electrical connection exclusively between at least one of said dedicated testing contacts and a top surface of said testable semiconductor package , and at least one second conductive medium providing electrical connection exclusively between at least another one of said dedicated testing contacts and a sidewall of said testable semiconductor package .
An active molecule delivery system comprising: a plurality of thermoplastic microcells filled with an aqueous formulation comprising hydrophilic active molecules, wherein each microcell includes walls and an opening, the microcells including a first microcell filled with a first aqueous formulation and a second microcell filled with a second aqueous formulation different from the first aqueous formulation; a hydrophobic sealing layer spanning the opening; and a biocompatible adhesive, the active molecule delivery system being characterized by first and second porous diffusion layers disposed between the hydrophobic sealing layer and the biocompatible adhesive, the first porous diffusion layer being disposed adjacent the first microcell and having a first porosity and the second porous diffusion layer being disposed adjacent the second microcell and having a second porosity different from the first porosity. a plurality of thermoplastic microcells filled with an aqueous formulation comprising hydrophilic active molecules, wherein each microcell includes walls and an opening, the microcells including a first microcell filled with a first aqueous formulation and a second microcell filled with a second aqueous formulation different from the first aqueous formulation; a hydrophobic sealing layer spanning the opening; and a biocompatible adhesive, the active molecule delivery system being characterized by first and second porous diffusion layers disposed between the hydrophobic sealing layer and the biocompatible adhesive, the first porous diffusion layer being disposed adjacent the first microcell and having a first porosity and the second porous diffusion layer being disposed adjacent the second microcell and having a second porosity different from the first porosity.
An imaging device , comprising: at least one floating diffusion region ; a set of photoelectric conversion regions sharing the at least one floating diffusion region and that convert incident light into electric charges; a first readout circuit coupled to the at least one floating diffusion region and located at a first side of the set of photoelectric conversion regions ; and a second readout circuit coupled to the at least one floating diffusion region , the second readout circuit including a portion located at a second side of the set of photoelectric conversion regions that is opposite the first side, the second readout circuit being configured to control the first readout circuit , characterised in that the second readout circuit includes a first set of transistors and a second set of transistors spaced apart from one another in a first direction, and the first set of transistors and the second set of transistors are arranged in a second direction substantially perpendicular to the first direction. at least one floating diffusion region ; a set of photoelectric conversion regions sharing the at least one floating diffusion region and that convert incident light into electric charges; a first readout circuit coupled to the at least one floating diffusion region and located at a first side of the set of photoelectric conversion regions ; and a second readout circuit coupled to the at least one floating diffusion region , the second readout circuit including a portion located at a second side of the set of photoelectric conversion regions that is opposite the first side, the second readout circuit being configured to control the first readout circuit , characterised in that the second readout circuit includes a first set of transistors and a second set of transistors spaced apart from one another in a first direction, and the first set of transistors and the second set of transistors are arranged in a second direction substantially perpendicular to the first direction.
A method for receiving a relay node specific downlink physical shared channel, R-PDSCH, from a base station at a relay node in a multiple antennae wireless communication system, the method comprising: receiving, at the relay node, a relay node specific downlink physical control channel, R-PDCCH, and the R-PDSCH from the base station ; demodulating the R-PDCCH based on a Demodulation-Reference Signal, DM-RS; decoding the R-PDCCH using a predetermined single antenna port and a predetermined scrambling identifier, SCID; and decoding the R-PDSCH based on the predetermined single antenna port and the predetermined SCID, if a downlink control information, DCI, format 1A is decoded from the R-PDCCH, wherein the DCI format 1A is used for scheduling of an R-PDSCH codeword and does not include rank information. receiving, at the relay node, a relay node specific downlink physical control channel, R-PDCCH, and the R-PDSCH from the base station ; demodulating the R-PDCCH based on a Demodulation-Reference Signal, DM-RS; decoding the R-PDCCH using a predetermined single antenna port and a predetermined scrambling identifier, SCID; and decoding the R-PDSCH based on the predetermined single antenna port and the predetermined SCID, if a downlink control information, DCI, format 1A is decoded from the R-PDCCH, wherein the DCI format 1A is used for scheduling of an R-PDSCH codeword and does not include rank information.
Device for providing electrical energy for electrically operable vehicles comprising at least one plug element , the at least one plug element being conductively connected to a fixed supply line and connectable via a mating plug element to an energy store of the vehicle, comprising at least one switching device for individually switching on and off the at least one plug element , and comprising a control device , which cooperates in terms of data with the at least one plug element and with the switching device , the control device having a central control unit and a number of decentralised control units which corresponds to the number of plug elements , a decentralised control unit being assigned to each plug element , and the central control unit being data-connected to all decentralised control units , characterised in that the central control unit is data-connected to a number of measurement units which corresponds to the number of plug elements for individually measuring a charging current (I ist ) supplied to each plug element and in that the measurement units cooperate with the central control unit in such a way that the charging current (I ist ) is directly or indirectly monitored and measures to increase the safety of the system are initiated in the event of a fault.
An image data processing method , comprising: reconstructing , based on three-dimensional scanned data of a containing apparatus in which objects are contained, a 3D image of the containing apparatus and the objects contained in the containing apparatus; stereoscopically displaying the reconstructed 3D image in a virtual space; determining manipulation information for at least one of the objects in the containing apparatus based on positioning information and action information of a user being mapped to the virtual space, wherein the positioning information of the user is provided by positioning the location of the user; re-reconstructing at least a 3D image of the at least one object based on the determined manipulation information; and presenting the at least one re-reconstructed object on the displayed 3D image. reconstructing , based on three-dimensional scanned data of a containing apparatus in which objects are contained, a 3D image of the containing apparatus and the objects contained in the containing apparatus; stereoscopically displaying the reconstructed 3D image in a virtual space; determining manipulation information for at least one of the objects in the containing apparatus based on positioning information and action information of a user being mapped to the virtual space, wherein the positioning information of the user is provided by positioning the location of the user; re-reconstructing at least a 3D image of the at least one object based on the determined manipulation information; and presenting the at least one re-reconstructed object on the displayed 3D image.
Double dental implant that remains stable in the presence of peri-implantitis, consisting of an implant formed by two implants: an upper implant and a lower implant , the two implants being connected by a threaded rod which is located in the lower part of the upper implant of which it forms a part, engaging with a thread of the lower implant , characterised in that the double implant has a polished circular portion in the implant body , which corresponds to the start of the lower implant .
A method for determining a configuration of special subframe in a cell, the method performed by an apparatus and comprising: receiving notification information sent from a neighbor cell, which contains information for indicating a configuration of special subframe in the neighbor cell; determining the configuration of special subframe in the neighbor cell according to the notification information; and characterized by selecting, from possible configurations of special subframe in the cell, a configuration of special subframe which satisfies an interference requirement of the cell and causes less interference to the neighbor cell, as the configuration of special subframe in the cell according to the notification information previously received from the neighbor cell, wherein the interference requirement of the cell is that the downlink transmission of the cell has less interference with the uplink transmission. receiving notification information sent from a neighbor cell, which contains information for indicating a configuration of special subframe in the neighbor cell; determining the configuration of special subframe in the neighbor cell according to the notification information; and characterized by selecting, from possible configurations of special subframe in the cell, a configuration of special subframe which satisfies an interference requirement of the cell and causes less interference to the neighbor cell, as the configuration of special subframe in the cell according to the notification information previously received from the neighbor cell, wherein the interference requirement of the cell is that the downlink transmission of the cell has less interference with the uplink transmission.
An apparatus comprising: decode means to decode an instance of a single instruction, the single instruction to include fields for an opcode, an identification of a location of a first packed data source operand, and an identification of a location of a second packed data source operand, wherein the opcode is to indicate that execution means is to perform, for a particular data element position of the packed data source operands, a comparison of a BF16 data element at that position, and update a flags register based on the comparison; and the execution means to execute the decoded instruction according to the opcode, wherein when one of the BF16 data elements is not-a-number, a zero flag, a parity flag, and a carry flag of the flags register are set to 1, wherein when the comparison indicates the data element of the first source is greater than the data element of the second source, the zero flag, the parity flag, and the carry flag of the flags register are set to 0, wherein when the comparison indicates the data element of the first source is less than the data element of the second source, the zero flag of the flags register is set to 0, the parity flag of the flags register is set to 0, and the carry flag of the flags register is set to 1, wherein when the comparison indicates the data element of the first source is equal to the data element of the second source, the carry flag of the flags register is set to 0, the parity flag of the flags register is set to 0, and the zero flag of the flags register is set to 1. decode means to decode an instance of a single instruction, the single instruction to include fields for an opcode, an identification of a location of a first packed data source operand, and an identification of a location of a second packed data source operand, wherein the opcode is to indicate that execution means is to perform, for a particular data element position of the packed data source operands, a comparison of a BF16 data element at that position, and update a flags register based on the comparison; and the execution means to execute the decoded instruction according to the opcode, wherein when one of the BF16 data elements is not-a-number, a zero flag, a parity flag, and a carry flag of the flags register are set to 1, wherein when the comparison indicates the data element of the first source is greater than the data element of the second source, the zero flag, the parity flag, and the carry flag of the flags register are set to 0, wherein when the comparison indicates the data element of the first source is less than the data element of the second source, the zero flag of the flags register is set to 0, the parity flag of the flags register is set to 0, and the carry flag of the flags register is set to 1, wherein when the comparison indicates the data element of the first source is equal to the data element of the second source, the carry flag of the flags register is set to 0, the parity flag of the flags register is set to 0, and the zero flag of the flags register is set to 1.
A private key generation system, comprising a first network device , a second network device , and a terminal device , wherein the first network device is configured to send a first response message to the terminal device , wherein the first response message comprises at least a first sub-private key, and the first sub-private key is generated based on a first parameter set sent by the second network device ; the second network device is configured to send a second response message to the terminal device , wherein the second response message comprises at least a second sub-private key, and the second sub-private key is generated based on a second parameter set sent by the first network device ; and the terminal device is configured to synthesize a joint private key based on at least the first sub-private key and the second sub-private key, characterized in that the terminal device is configured to synthesize the first sub-private key and the second sub-private key into a first joint private key according to the following formula: SSK _ 1 = SSK 1 + SSK 2 , wherein SSK_1 is the first joint private key, SSK1 is the first sub-private key, and SSK2 is the second sub-private key.
A preprocessing apparatus for gas analysis comprising: a gas flow path including a collecting portion that is configured to be cooled in order to collect a target gas to be analyzed; a cooling device operable to cool the collecting portion of the gas flow path; and a heat conductor configured to surround an outer periphery of the collecting portion, wherein the cooling device includes a contact cooling section configured to contact the heat conductor to uniformly cool the collecting portion to a set temperature, and has a temperature adjusting function of adjusting a temperature of the contact cooling section to an arbitrary temperature by utilizing electrical energy, the collecting portion , the heat conductor , and the contact cooling section are within a vacuum chamber of a sealed structure , the vacuum chamber being connected to a vacuum pump; the vacuum chamber is configured to be brought into a vacuum state by the vacuum pump when the collecting portion is cooled; characterised in that the collecting portion is a gas pipe through which gas flows; and the heat conductor is insert molded including the gas pipe as an insert. a gas flow path including a collecting portion that is configured to be cooled in order to collect a target gas to be analyzed; a cooling device operable to cool the collecting portion of the gas flow path; and a heat conductor configured to surround an outer periphery of the collecting portion, wherein the cooling device includes a contact cooling section configured to contact the heat conductor to uniformly cool the collecting portion to a set temperature, and has a temperature adjusting function of adjusting a temperature of the contact cooling section to an arbitrary temperature by utilizing electrical energy, the collecting portion , the heat conductor , and the contact cooling section are within a vacuum chamber of a sealed structure , the vacuum chamber being connected to a vacuum pump; the vacuum chamber is configured to be brought into a vacuum state by the vacuum pump when the collecting portion is cooled; characterised in that the collecting portion is a gas pipe through which gas flows; and the heat conductor is insert molded including the gas pipe as an insert.
Extrusion device comprising an extruder unit, in which an extrudate is conveyed in a conveying direction, wherein the extrudate exits from an extruder die of the extruder unit, and comprising a hot air unit with a hot air nozzle , which is arranged such that the hot air exits beside the extruder die , wherein the hot air nozzle or the hot air unit on the extrusion device is arranged rotatable about the longitudinal axis of the conveying direction of the extruder unit, characterised in that , for the rotational movement of the hot air nozzle or the hot air unit about the longitudinal axis of the conveying direction, at least one rotary drive device is provided, as well as gearing means , arranged between the rotary drive and the rotatable hot air nozzle or hot air unit.
Filtering canister , for absorption of fuel vapours from a fuel tank of a motor-vehicle, wherein said canister comprises a hollow body having at least a top wall , a lower wall and a side wall which connects said top wall to said lower wall on all sides of the body of the canister , so as to define at least one internal chamber , wherein said at least one internal chamber contains absorbent material of fuel vapours, and wherein said hollow body of the canister has a first opening for communication of said at least one internal chamber with a vent conduit of the tank , a second opening vented towards the atmosphere, and a third opening for communication with a duct connected to the intake manifold of the internal combustion engine of the motor-vehicle, in such a way that, when the internal combustion engine is inoperative, any fuel vapour generated within the tank of the motor-vehicle is absorbed by said absorbent material in said at least one internal chamber of the canister , in an absorption operating mode of the canister, while when the internal combustion engine is operative, said canister is in a scavenging operating mode, wherein a flow of air taken from the atmosphere is sucked into the chamber of the canister and conveyed through the absorbent material and into the duct connected to the intake manifold of the internal combustion engine , thus obtaining scavenging of the absorbent material and removal and conveyance into the engine of the fuel particles previously absorbed by the absorbent material , wherein the body of said canister has an outer side wall and an inner side wall which are parallel to, and spaced apart from each other, and which define therebetween a thermally insulating interspace which extends continuously for the entire circumferential extension of the outer side wall of the canister, on all sides of the canister body, with exception of the upper side and the lower side, whereby said thermally insulating interspace surrounds said at least one internal chamber and promotes saving of heat generated inside said at least one internal chamber in said absorption operating mode, during an inoperative stage of the engine, so as to improve scavenging efficiency during a subsequent stage wherein the scavenging operating mode is activated, when the engine is operative, characterized in that said insulating interspace is an empty space and said inner side wall surrounding the chamber defines a free opening adjacent to the lower wall of the canister, in such a way that said interspace is in communication with said at least one internal chamber inside the canister .
An apparatus of an evolved NodeB, eNB , the apparatus comprising: processing circuitry and memory ; the processing circuitry is configured to: configure Mode-2 channel resources for sensing-based collision avoidance enabled user equipments, UEs, wherein the Mode-2 channel resources are dedicated for sensing-based collision avoidance and configure additional channel resources to preserve backward compatibility and co-existence with random transmissions, the configured Mode-2 channel resources and additional channel resources are for vehicle-to-vehicle, V2V, sidelink communication, the Mode-2 channel resources being configured for semi-persistent scheduling, SPS, within sidelink control information, SCI, periods; and encode for transmission, using system information block, SIB, signaling, of an indication of the Mode-2 channel resources and the additional channel resources to enable SPS transmission within SCI periods at a user equipment, UE . configure Mode-2 channel resources for sensing-based collision avoidance enabled user equipments, UEs, wherein the Mode-2 channel resources are dedicated for sensing-based collision avoidance and configure additional channel resources to preserve backward compatibility and co-existence with random transmissions, the configured Mode-2 channel resources and additional channel resources are for vehicle-to-vehicle, V2V, sidelink communication, the Mode-2 channel resources being configured for semi-persistent scheduling, SPS, within sidelink control information, SCI, periods; and encode for transmission, using system information block, SIB, signaling, of an indication of the Mode-2 channel resources and the additional channel resources to enable SPS transmission within SCI periods at a user equipment, UE .
A blood treatment device having at least one metering line which opens into a fluid circuit, wherein a conveyor module is arranged in the metering line and comprises a membrane pump and a valve which is arranged at the pressure side thereof, characterized in that said valve can act both as a blocking valve and as a restricting valve, with a control unit further being provided which controls the pump and the valve by means of a pneumatic module such that the flow cross-section in the valve is reduced with respect to the maximum flow cross-section during a pressure phase of the pump in order to increase the flow resistance and thus to generate a counter-pressure in the fluid chamber of the pump .