mhurhangee/patent-ind-claim-en huggingface dataset:
A user device comprising: a trusted execution environment comprising a client privacy agent configured to request a first Internet Protocol, IP, address from a Dynamic Host Configuration Protocol, DHCP, service and to determine a device privacy score based, at least in part, on a DHCP policy of the DHCP service ; memory comprising secure storage , the secure storage configured to store the first IP address received from the DHCP service ; and communication circuitry configured to establish at least one connection between the user device and at least one entity (110a-110m) over a network using the first IP address, the client privacy agent further configured to monitor communication activity over the at least one connection, to update the device privacy score based, at least in part, on the communication activity, and if the device privacy score is outside an acceptable privacy score range, to close the at least one connection and to request a second IP address from the DHCP service , wherein the acceptable privacy range is bounded by a privacy threshold. a trusted execution environment comprising a client privacy agent configured to request a first Internet Protocol, IP, address from a Dynamic Host Configuration Protocol, DHCP, service and to determine a device privacy score based, at least in part, on a DHCP policy of the DHCP service ; memory comprising secure storage , the secure storage configured to store the first IP address received from the DHCP service ; and communication circuitry configured to establish at least one connection between the user device and at least one entity (110a-110m) over a network using the first IP address, the client privacy agent further configured to monitor communication activity over the at least one connection, to update the device privacy score based, at least in part, on the communication activity, and if the device privacy score is outside an acceptable privacy score range, to close the at least one connection and to request a second IP address from the DHCP service , wherein the acceptable privacy range is bounded by a privacy threshold.
A perforation device for a document processing machine, wherein the perforation device comprises a frame , a support member and a blade member attached to the frame , wherein the support member and the blade member are movable relative to each other and configured to cooperate by movement between an open position in which a gap for insertion of a sheet is present between the support member and the blade member , and a perforating position in which the gap is at least partially closed such that at least a portion of the sheet is pressed between the support member and the blade member such that the sheet is perforated, characterized in that the support member is curved and wherein the perforation device comprises a drive assembly configured to move the blade member and/or the support member in a rocking motion such that only a portion of the blade perforates the sheet wherein the portion of the blade member perforating the sheet moves along the length of the blade member as the rocking motion progresses.
A system for extracting a hydrocarbon rich stream from a well formation, the system comprising: a downhole rotary separator located within the well formation and configured to generate the hydrocarbon rich stream and a first water stream from a well fluid obtained from a production zone; an electrical submersible pump disposed within the well formation and operatively coupled to the downhole rotary separator , wherein the electrical submersible pump is configured to transfer the hydrocarbon rich stream to a surface of earth; a surface separator located on the surface of earth and operatively coupled to the electrical submersible pump , wherein the surface separator is configured to generate oil and a second water stream from the hydrocarbon rich stream; and a hydraulic motor disposed within the well formation and operatively coupled to the downhole rotary separator , wherein the hydraulic motor is configured to drive the downhole rotary separator using a drive fluid, wherein the drive fluid comprises the hydrocarbon rich stream or the second water stream. a downhole rotary separator located within the well formation and configured to generate the hydrocarbon rich stream and a first water stream from a well fluid obtained from a production zone; an electrical submersible pump disposed within the well formation and operatively coupled to the downhole rotary separator , wherein the electrical submersible pump is configured to transfer the hydrocarbon rich stream to a surface of earth; a surface separator located on the surface of earth and operatively coupled to the electrical submersible pump , wherein the surface separator is configured to generate oil and a second water stream from the hydrocarbon rich stream; and a hydraulic motor disposed within the well formation and operatively coupled to the downhole rotary separator , wherein the hydraulic motor is configured to drive the downhole rotary separator using a drive fluid, wherein the drive fluid comprises the hydrocarbon rich stream or the second water stream.
A duplex filtering device , comprising at least one filtering unit, characterized in that the filtering unit comprises: receiving filters , transmitting filters , a transmitting-receiving combiner and common interfaces (ANT 214), the common interfaces (ANT 214) comprise a first common interface (ANT 214-1) and a second common interface (ANT 214-2), wherein the transmitting-receiving combiner is a filter, and wherein: each of one end of the transmitting-receiving combiner and one end of a first group of filters comprised of at least one of the receiving filters and at least one of the transmitting filters is connected to the first common interface (ANT 214-1); each of another end of the transmitting-receiving combiner and one end of a second group of filters comprised of at least one of the receiving filters and at least one of the transmitting filters is connected to the second common interface (ANT 214-2), wherein each of the first common interface (ANT 214-1) and the second common interface (ANT 214-2) is connected to a respective external interface unit; the receiving filter in the first group of filters is connected to a Radio Remote Unit, RRU, through a first input port (RX) and the receiving filter in the second group of filters is connected to the RRU through a second input port (RX); and the transmitting filter in the first group of filters is connected to the RRU through a first output port (TX), and the transmitting filter in the second group of filters is connected to the RRU through a second output port (TX). each of one end of the transmitting-receiving combiner and one end of a first group of filters comprised of at least one of the receiving filters and at least one of the transmitting filters is connected to the first common interface (ANT 214-1); each of another end of the transmitting-receiving combiner and one end of a second group of filters comprised of at least one of the receiving filters and at least one of the transmitting filters is connected to the second common interface (ANT 214-2), wherein each of the first common interface (ANT 214-1) and the second common interface (ANT 214-2) is connected to a respective external interface unit; the receiving filter in the first group of filters is connected to a Radio Remote Unit, RRU, through a first input port (RX) and the receiving filter in the second group of filters is connected to the RRU through a second input port (RX); and the transmitting filter in the first group of filters is connected to the RRU through a first output port (TX), and the transmitting filter in the second group of filters is connected to the RRU through a second output port (TX).
Conversion kit for converting a blower into an atomizer, said kit comprising: - a tank adapted to contain a liquid, - a tubular body adapted to be fixed to the blower and provided with an inlet mouth and an outlet mouth , - a diffuser device associated with said tubular body and provided with a liquid dispensing nozzle , - a pressurization conduit that places in fluid communication an internal volume of the tubular body placed between the inlet mouth and the dispensing nozzle of the liquid with a top portion of the tank , and - a dispensing conduit that places in fluid communication the dispensing nozzle of the diffuser device with a lower portion of the tank wherein the tubular body is subdivided into two sections that are removably associable with one another, of which a first section configured to be fixed to the blower , and a second section with which the diffuser device is associated, said conversion kit being characterized by the fact that the pressurization conduit places in fluid communication an internal volume of the first section of the tubular body with the top portion of the tank . - a tank adapted to contain a liquid, - a tubular body adapted to be fixed to the blower and provided with an inlet mouth and an outlet mouth , - a diffuser device associated with said tubular body and provided with a liquid dispensing nozzle , - a pressurization conduit that places in fluid communication an internal volume of the tubular body placed between the inlet mouth and the dispensing nozzle of the liquid with a top portion of the tank , and - a dispensing conduit that places in fluid communication the dispensing nozzle of the diffuser device with a lower portion of the tank
A spinal disc device (100, 100 A , 100 B ) implantable between adjacent vertebral bodies , comprising: a first transverse plate member ; a first arcuate extension coupled to and extending longitudinally from the first transverse plate member , the first arcuate extension having a first configuration; a second transverse plate member ; a second arcuate extension coupled to and extending longitudinally from the second transverse plate member , the second arcuate extension having a second, mating configuration with the first configuration of the first arcuate extension and slideably moveable with respect to the first arcuate extension , the first arcuate extension and the second arcuate extension further arranged to form a central through-channel between the first and second transverse plate members ; and wherein the central through-channel is arranged to hold bone graft material, wherein a posterior portion of each of the first and second transverse plate members is movable closer to or farther from one another as an anterior portion of each of the first and second transverse plate members respectively move farther from or closer to one another. a first transverse plate member ; a first arcuate extension coupled to and extending longitudinally from the first transverse plate member , the first arcuate extension having a first configuration; a second transverse plate member ; a second arcuate extension coupled to and extending longitudinally from the second transverse plate member , the second arcuate extension having a second, mating configuration with the first configuration of the first arcuate extension and slideably moveable with respect to the first arcuate extension , the first arcuate extension and the second arcuate extension further arranged to form a central through-channel between the first and second transverse plate members ; and wherein the central through-channel is arranged to hold bone graft material, wherein a posterior portion of each of the first and second transverse plate members is movable closer to or farther from one another as an anterior portion of each of the first and second transverse plate members respectively move farther from or closer to one another.
A pharmaceutical, cosmetic or cosmeceutical composition comprising: (a) a polymer-polypeptide conjugate comprising a polypeptide having attached thereto at least two polymeric moieties, said polypeptide comprising an extracellular matrix protein or a fragment thereof, and each of said polymeric moieties comprising a synthetic polymer selected from the group consisting of a poly(ethylene glycol) and a poloxamer (poly(ethylene glycol-propylene glycol) copolymer), wherein at least one of said polymeric moieties further comprises at least one polymerizable group, wherein molecules of said conjugate are not covalently linked to one another; (b) a poloxamer; (c) a poloxamer substituted by at least one polymerizable group; and (d) a pharmaceutically, cosmetically or cosmeceutically acceptable aqueous carrier, the composition exhibiting a reverse thermal gelation, wherein a shear storage modulus of the composition is at least 100 Pa at temperatures in a range of from 17 °C to 21 °C, and less than 100 Pa at a temperature of 4 °C. (a) a polymer-polypeptide conjugate comprising a polypeptide having attached thereto at least two polymeric moieties, said polypeptide comprising an extracellular matrix protein or a fragment thereof, and each of said polymeric moieties comprising a synthetic polymer selected from the group consisting of a poly(ethylene glycol) and a poloxamer (poly(ethylene glycol-propylene glycol) copolymer), wherein at least one of said polymeric moieties further comprises at least one polymerizable group, wherein molecules of said conjugate are not covalently linked to one another; (b) a poloxamer; (c) a poloxamer substituted by at least one polymerizable group; and (d) a pharmaceutically, cosmetically or cosmeceutically acceptable aqueous carrier,
A contactless health monitoring device , comprising: a housing; a radar sensor that comprises a plurality of antennas, wherein the radar sensor is housed by the housing; and a processing system , comprising one or more processors, in communication with the radar sensor , housed by the housing, wherein the processing system is configured to: receive, for each antenna of the plurality of antennas, a radar data stream from the radar sensor , thereby receiving a plurality of radar data streams ; perform a beam steering process that creates a plurality of targeted spatial zone radar data streams from the received plurality of radar data streams ; determine breathing displacement for a user for each targeted spatial zone radar data stream of the plurality of targeted spatial zone radar data streams; analyze the breathing displacement for the user for each targeted spatial zone radar data stream of the plurality of targeted spatial zone radar data streams; and output a screening result based on analyzing the breathing displacement for the user in relation to time for each targeted spatial zone radar data stream of the plurality of targeted spatial zone radar data streams. a housing; a radar sensor that comprises a plurality of antennas, wherein the radar sensor is housed by the housing; and a processing system , comprising one or more processors, in communication with the radar sensor , housed by the housing, wherein the processing system is configured to: receive, for each antenna of the plurality of antennas, a radar data stream from the radar sensor , thereby receiving a plurality of radar data streams ; perform a beam steering process that creates a plurality of targeted spatial zone radar data streams from the received plurality of radar data streams ; determine breathing displacement for a user for each targeted spatial zone radar data stream of the plurality of targeted spatial zone radar data streams; analyze the breathing displacement for the user for each targeted spatial zone radar data stream of the plurality of targeted spatial zone radar data streams; and output a screening result based on analyzing the breathing displacement for the user in relation to time for each targeted spatial zone radar data stream of the plurality of targeted spatial zone radar data streams. receive, for each antenna of the plurality of antennas, a radar data stream from the radar sensor , thereby receiving a plurality of radar data streams ; perform a beam steering process that creates a plurality of targeted spatial zone radar data streams from the received plurality of radar data streams ; determine breathing displacement for a user for each targeted spatial zone radar data stream of the plurality of targeted spatial zone radar data streams; analyze the breathing displacement for the user for each targeted spatial zone radar data stream of the plurality of targeted spatial zone radar data streams; and output a screening result based on analyzing the breathing displacement for the user in relation to time for each targeted spatial zone radar data stream of the plurality of targeted spatial zone radar data streams.
A disposable consumable container configured to produce dialysate solution in real-time, comprising: a sterile interface connection on the disposable consumable container and configured to be fluidly coupled to a source of sterile water; a concentrate container for coupling to the source of sterile water via the sterile interface connection and containing a plurality of pre-sterilized dialysate concentrates; a mixing chamber configured to promote mixing of sterile water with the plurality of pre-sterilized dialysate concentrates to produce dialysis fluid; and an automated cycler configured to pump mixtures of each of the plurality of pre-sterilized dialysate concentrates into the mixing chamber, the automated cycler being further configured to feed the produced dialysis fluid to and from a patient. a sterile interface connection on the disposable consumable container and configured to be fluidly coupled to a source of sterile water; a concentrate container for coupling to the source of sterile water via the sterile interface connection and containing a plurality of pre-sterilized dialysate concentrates; a mixing chamber configured to promote mixing of sterile water with the plurality of pre-sterilized dialysate concentrates to produce dialysis fluid; and an automated cycler configured to pump mixtures of each of the plurality of pre-sterilized dialysate concentrates into the mixing chamber, the automated cycler being further configured to feed the produced dialysis fluid to and from a patient.
A compound represented by Formula (I): wherein x and y are each an integer between 0 and 4; m and n are each an integer between 3 and 9, and 10≤m+n≤14; R 1 and R 2 are respectively selected from H, a C1-C6 linear or branched alkyl group or a C3-C6 cycloalkyl group; preferably, m is 4 or 5; preferably, x and y are each independently 0 or 1; preferably, m+n=12; preferably, R 1 , R 2 are respectively selected from H, methyl or ethyl. wherein x and y are each an integer between 0 and 4; m and n are each an integer between 3 and 9, and 10≤m+n≤14; R 1 and R 2 are respectively selected from H, a C1-C6 linear or branched alkyl group or a C3-C6 cycloalkyl group; preferably, m is 4 or 5; preferably, x and y are each independently 0 or 1; preferably, m+n=12; preferably, R 1 , R 2 are respectively selected from H, methyl or ethyl.
A vapor compression system , comprising: - a compressor configured to circulate a refrigerant through a refrigerant loop; - a sump configured to receive a mixture of lubricant and the refrigerant from the compressor ; and - a controller comprising a memory and a processor , wherein the processor is configured to: - receive a first signal indicative of a temperature of the mixture within the sump ; - receive a second signal indicative of a pressure of the mixture within the sump ; - determine a relative amount of the refrigerant in the mixture based on the first signal and the second signal; and - output a control signal in response to the relative amount of the refrigerant in the mixture exceeding a threshold value. - a compressor configured to circulate a refrigerant through a refrigerant loop; - a sump configured to receive a mixture of lubricant and the refrigerant from the compressor ; and - a controller comprising a memory and a processor , wherein the processor is configured to: - receive a first signal indicative of a temperature of the mixture within the sump ; - receive a second signal indicative of a pressure of the mixture within the sump ; - determine a relative amount of the refrigerant in the mixture based on the first signal and the second signal; and - output a control signal in response to the relative amount of the refrigerant in the mixture exceeding a threshold value. - receive a first signal indicative of a temperature of the mixture within the sump ; - receive a second signal indicative of a pressure of the mixture within the sump ; - determine a relative amount of the refrigerant in the mixture based on the first signal and the second signal; and - output a control signal in response to the relative amount of the refrigerant in the mixture exceeding a threshold value.
A control device which controls a drive of a multi-terminal static DC converter configured such that three or more single phase inverters (3A-3C), to which DC capacitors (4A-4C) are respectively connected in parallel on a DC side, are connected on an AC side via a high frequency transformer having winding wires (18A-18C) in a quantity corresponding to a number of the single phase inverters (3A-3C), and power can be accommodated among three or more DC terminals to which the corresponding single phase inverters are respectively connected, wherein the control device comprises: a detector (21-23) which detects a voltage of each of the DC terminals in a state where a DC voltage is applied to one of the DC terminals , as an input terminal, and that DC terminal is maintained at a fixed voltage; a minimum voltage terminal selection circuit which selects the DC terminal with a lowest voltage among the DC terminals to which the DC voltage has not been applied based on a detection result of the detector (21-23); and an arithmetic circuit configured to control the single phase inverter (3A-3C) to which the DC voltage has been applied to generate a current of a size proportional to a difference between the voltage of the DC terminal to which the DC voltage has been applied and the voltage of the DC terminal selected by the minimum voltage terminal selection circuit . a detector (21-23) which detects a voltage of each of the DC terminals in a state where a DC voltage is applied to one of the DC terminals , as an input terminal, and that DC terminal is maintained at a fixed voltage; a minimum voltage terminal selection circuit which selects the DC terminal with a lowest voltage among the DC terminals to which the DC voltage has not been applied based on a detection result of the detector (21-23); and an arithmetic circuit configured to control the single phase inverter (3A-3C) to which the DC voltage has been applied to generate a current of a size proportional to a difference between the voltage of the DC terminal to which the DC voltage has been applied and the voltage of the DC terminal selected by the minimum voltage terminal selection circuit .