mhurhangee/patent-ind-claim-en huggingface dataset:
A method of managing coverage of a network slice in a communications network, the method comprising: - a domain manager (320; 700; 800) of a Radio Access Network, RAN, of the communications network determining a configuration of a RAN resource partition of the network slice, the configuration defining which network elements (101, 102, 103; 331, 332, 333) of the RAN are assigned to the RAN resource partition of the network slice; - the domain manager (320; 700; 800) receiving at least one report indicating, for at least one of the network elements (101, 102, 103; 331, 332, 333) assigned to the RAN resource partition, an amount of traffic of the network slice handled by the network element in an observation time window; - based on the at least one report , the domain manager (320; 700; 800) adapting the configuration of the RAN resource partition by removing one or more of the network elements (101, 102, 103; 331, 332, 333) from the RAN resource partition, wherein the domain manager (320; 700; 800) removes those network elements (101, 102, 103; 331, 332, 333) for which the at least one report indicates that the amount of the traffic handled by the network element is below a threshold value or zero. - a domain manager (320; 700; 800) of a Radio Access Network, RAN, of the communications network determining a configuration of a RAN resource partition of the network slice, the configuration defining which network elements (101, 102, 103; 331, 332, 333) of the RAN are assigned to the RAN resource partition of the network slice; - the domain manager (320; 700; 800) receiving at least one report indicating, for at least one of the network elements (101, 102, 103; 331, 332, 333) assigned to the RAN resource partition, an amount of traffic of the network slice handled by the network element in an observation time window; - based on the at least one report , the domain manager (320; 700; 800) adapting the configuration of the RAN resource partition by removing one or more of the network elements (101, 102, 103; 331, 332, 333) from the RAN resource partition, wherein the domain manager (320; 700; 800) removes those network elements (101, 102, 103; 331, 332, 333) for which the at least one report indicates that the amount of the traffic handled by the network element is below a threshold value or zero.
Apparatus, comprising: an electrical interface; and a processor, configured: to receive, via the electrical interface, a temperature sensed by a temperature sensor at a distal end of an intrabody probe, to estimate a temperature of tissue of a subject, based on the sensed temperature and a parameter of an ablating current driven, by an ablation electrode at the distal end of the intrabody probe, into the tissue, wherein the processor is configured to estimate the temperature of the tissue by: selecting a coefficient in response to the parameter, and multiplying, by the coefficient, a value that is based on the sensed temperature, and to generate an output in response to the estimated temperature, characterized in that the coefficient is selected in response to the parameter such that the coefficient is a function, of the parameter, that is responsive to adjustments in the parameter. an electrical interface; and a processor, configured: to receive, via the electrical interface, a temperature sensed by a temperature sensor at a distal end of an intrabody probe, to estimate a temperature of tissue of a subject, based on the sensed temperature and a parameter of an ablating current driven, by an ablation electrode at the distal end of the intrabody probe, into the tissue, wherein the processor is configured to estimate the temperature of the tissue by: selecting a coefficient in response to the parameter, and multiplying, by the coefficient, a value that is based on the sensed temperature, and to generate an output in response to the estimated temperature, characterized in that to receive, via the electrical interface, a temperature sensed by a temperature sensor at a distal end of an intrabody probe, to estimate a temperature of tissue of a subject, based on the sensed temperature and a parameter of an ablating current driven, by an ablation electrode at the distal end of the intrabody probe, into the tissue, wherein the processor is configured to estimate the temperature of the tissue by: selecting a coefficient in response to the parameter, and multiplying, by the coefficient, a value that is based on the sensed temperature, and selecting a coefficient in response to the parameter, and multiplying, by the coefficient, a value that is based on the sensed temperature, and to generate an output in response to the estimated temperature, characterized in that the coefficient is selected in response to the parameter such that the coefficient is a function, of the parameter, that is responsive to adjustments in the parameter.
An optical lens comprising: a concave dome shaped inner surface surrounding one point on a plane and formed to have an oval shaped lower surface on the plane, and formed to include a plurality of light incident surfaces formed to be stepped along the inner surface thereof and stepped surfaces connecting the plurality of light incident surfaces to one another; an outer surface having a convex aspheric shape and formed to surround the inner surface ; and a lower surface connecting the oval shaped lower surface of the inner surface with a lower surface of the outer surface , and formed to be on an equal horizontal level to that of the plane, wherein the inner surface is lengthwisely formed in the major axis direction of the oval shaped lower surface of the inner surface and the outer surface is lengthwisely formed in the minor axis direction of the oval shaped lower surface of the inner surface so that, on the plane, the distance between the inner surface and the outer surface in the major axis direction is shorter than the distance between the inner surface and the outer surface in the minor axis direction. a concave dome shaped inner surface surrounding one point on a plane and formed to have an oval shaped lower surface on the plane, and formed to include a plurality of light incident surfaces formed to be stepped along the inner surface thereof and stepped surfaces connecting the plurality of light incident surfaces to one another; an outer surface having a convex aspheric shape and formed to surround the inner surface ; and a lower surface connecting the oval shaped lower surface of the inner surface with a lower surface of the outer surface , and formed to be on an equal horizontal level to that of the plane, wherein the inner surface is lengthwisely formed in the major axis direction of the oval shaped lower surface of the inner surface and the outer surface is lengthwisely formed in the minor axis direction of the oval shaped lower surface of the inner surface so that, on the plane, the distance between the inner surface and the outer surface in the major axis direction is shorter than the distance between the inner surface and the outer surface in the minor axis direction.
A pump arrangement for powering a pump in providing a controlled volume of water to a drip nozzle in a drip-feed humidifier, the pump arrangement comprising: a pump having a solenoid ; a processing unit ; and a power supply electrically connected to the solenoid via a switch (S) which is controlled by the processing unit, the power supply is structured to supply power to the solenoid via the switch, wherein the processing unit is programmed to modulate the power provided to the solenoid via the switch such that the power is supplied to the solenoid according to a power profile for each actuation of the solenoid, and wherein the power profile comprises: an initial portion which increases at a first overall rate, an intermediate portion which increases at a second overall rate different than the first overall rate, and a final portion which decreases at a third overall rate. a pump having a solenoid ; a processing unit ; and a power supply electrically connected to the solenoid via a switch (S) which is controlled by the processing unit, the power supply is structured to supply power to the solenoid via the switch, wherein the processing unit is programmed to modulate the power provided to the solenoid via the switch such that the power is supplied to the solenoid according to a power profile for each actuation of the solenoid, and wherein the power profile comprises: an initial portion which increases at a first overall rate, an intermediate portion which increases at a second overall rate different than the first overall rate, and a final portion which decreases at a third overall rate. an initial portion which increases at a first overall rate, an intermediate portion which increases at a second overall rate different than the first overall rate, and a final portion which decreases at a third overall rate.
A wound dressing apparatus comprising: a wound contact layer configured to be positioned in contact with a wound; a first cover layer positioned over the wound contact layer; one or more spacer layers positioned between the wound contact layer and the first cover layer, wherein a spacer layer is positioned on an upper surface of the wound contact layer; an absorbent layer positioned over the spacer layer positioned on the upper surface of the wound contact layer; a negative pressure source configured to be in fluid communication with the wound, the negative pressure source configured to draw wound fluid through the one or more spacer layers into the absorbent layer, wherein the negative pressure source is located in one or both of: a recess of a spacer layer or the absorbent layer; and a pocket or chamber defined at least in part by the first cover layer; and a first filter provided in a flow path between the negative pressure source and the wound contact layer. a wound contact layer configured to be positioned in contact with a wound; a first cover layer positioned over the wound contact layer; one or more spacer layers positioned between the wound contact layer and the first cover layer, wherein a spacer layer is positioned on an upper surface of the wound contact layer; an absorbent layer positioned over the spacer layer positioned on the upper surface of the wound contact layer; a negative pressure source configured to be in fluid communication with the wound, the negative pressure source configured to draw wound fluid through the one or more spacer layers into the absorbent layer, wherein the negative pressure source is located in one or both of: a recess of a spacer layer or the absorbent layer; and a pocket or chamber defined at least in part by the first cover layer; and a first filter provided in a flow path between the negative pressure source and the wound contact layer. a recess of a spacer layer or the absorbent layer; and a pocket or chamber defined at least in part by the first cover layer; and a first filter provided in a flow path between the negative pressure source and the wound contact layer.
A distribution system for a process fluid for electrolytic surface treatment of a substrate , comprising: - a distribution body , and - a shield element , characterized in that , the distribution body comprises a plurality of openings for the process fluid and an electrical current, wherein some of the openings are drain holes, configured to direct an electric current, and wherein the drain holes are through holes extending between a front face of the distribution body directed towards the substrate and a rear face of the distribution body opposite to the front face, and wherein other openings are jet holes configured to direct the process fluid onto the substrate , and wherein the shield element is configured to at least partially cover at least one of the plurality of openings to limit a flow of the process fluid and/or a flow of the electrical current through the distribution body so that a flow of the process fluid is modified through the distribution body and/or the electrical current distribution of the substrate is altered. - a distribution body , and - a shield element ,
A communication method of a wireless power transmitter for transmitting power in a wireless manner, the communication method comprising: receiving first information of a first wireless power receiver and second information of a second wireless power receiver that receive power in a wireless manner within a first slot among a plurality of slots; and transmitting a communication error signal to the first and the second wireless power receiver such that a collision resolution mechanism is executed in the first and the second wireless power receiver, characterized in that the first wireless power receiver is in a power transfer phase, and the second wireless power receiver is in an introduction phase. receiving first information of a first wireless power receiver and second information of a second wireless power receiver that receive power in a wireless manner within a first slot among a plurality of slots; and transmitting a communication error signal to the first and the second wireless power receiver such that a collision resolution mechanism is executed in the first and the second wireless power receiver, characterized in that the first wireless power receiver is in a power transfer phase, and the second wireless power receiver is in an introduction phase.
A rechargeable battery comprising: a case accommodating an electrode assembly and having an opening ; a cap assembly comprising a cap plate coupled to the case to cover the opening , and a terminal plate coupled to the cap plate , wherein the cap plate and the terminal plate have different polarity; and a direction determining member made of an electrically insulating material and covering the cap plate ; wherein the case defines a first diameter (D3) at a lower portion of an outer surface, and the direction determining member is coupled to an upper portion of the case to define a second diameter (D) that is larger than the first diameter (D3); characterized in that the direction determining member includes an extended part (P1, P3) covering a part of the side of the case so that a step on a side of the case is defined by the extended part (P1, P3). a case accommodating an electrode assembly and having an opening ; a cap assembly comprising a cap plate coupled to the case to cover the opening , and a terminal plate coupled to the cap plate , wherein the cap plate and the terminal plate have different polarity; and a direction determining member made of an electrically insulating material and covering the cap plate ; wherein the case defines a first diameter (D3) at a lower portion of an outer surface, and the direction determining member is coupled to an upper portion of the case to define a second diameter (D) that is larger than the first diameter (D3); characterized in that the direction determining member includes an extended part (P1, P3) covering a part of the side of the case so that a step on a side of the case is defined by the extended part (P1, P3).
An apparatus for collecting fluid during a medical or surgical operation, wherein the apparatus comprises - positions for collection containers and collection containers adapted to receive fluid during a medical or surgical operation placed on the positions, each collection container comprises an inlet for a collection container tube, an inlet for vacuum and an inlet for solidifying agent, - a position for a cartridge and a cartridge containing solidifying agent placed on the position, - a position for a reservoir adapted to receive solidifying agent from the cartridge and a reservoir placed on the position, - a collection container tube configured to lead fluid to the inlet for a collection container tube, and - a tube configured to lead solidifying agent from the reservoir to the inlet for solidifying agent, the tube being provided with valves regulating the flow of the solidifying agent. - positions for collection containers and collection containers adapted to receive fluid during a medical or surgical operation placed on the positions, each collection container comprises an inlet for a collection container tube, an inlet for vacuum and an inlet for solidifying agent, - a position for a cartridge and a cartridge containing solidifying agent placed on the position, - a position for a reservoir adapted to receive solidifying agent from the cartridge and a reservoir placed on the position, - a collection container tube configured to lead fluid to the inlet for a collection container tube, and - a tube configured to lead solidifying agent from the reservoir to the inlet for solidifying agent, the tube being provided with valves regulating the flow of the solidifying agent.
A lobed injector finger for a burner or a mixer of a gas turbine comprising a leading edge , a lobed trailing edge , a first and a second corrugated surfaces defining an airfoil cross section and converging in the trailing edge , and a plurality of nozzles located at the trailing edge for injection of oil or fuel or carrier air in the burner or mixer, the lobed injector finger comprising a plurality of vortex generators projecting from a suction side of lobes defined by the first and second corrugated surfaces and positioned from the nozzles to reduce flow separation and/or influence the location of a separation bubble; wherein the vortex generators are inclined with respect to a direction (D) substantially perpendicular to a straight line connecting the axes of two adjacent nozzles ; characterized in that the vortex generators diverge towards the trailing edge so as to locate a separation region (A2) adjacent to a transversal tip of the lobe and accelerate boundary layer flow in a region (A1) adjacent to the nozzle .
A graphics medium , comprising: an ink receiving layer comprising at least fifty percent hydrogel by weight; and an opacity control layer comprising a polymer embedded with at least one filler material; and wherein said opacity control layer has a basis weight often to thirty grams per square meter an ink receiving layer comprising at least fifty percent hydrogel by weight; and an opacity control layer comprising a polymer embedded with at least one filler material; and
A method of forming a medical device contact element comprising: annealing an elongated rod of Ti-15Mo alloy material to form an annealed rod having a Young's Modulus of less than 93.1 GPa (13.5 Mpsi) and an elastic range or strain of at least 0.7%; forming a contact ring element from the annealed rod, wherein the contact ring element comprises a tubular body and resiliently deflectable elements formed of the Ti-15Mo alloy material, wherein the tubular body defines a cavity configured to receive a lead and wherein the plurality of resiliently deflectable elements extend from the tubular body in to the cavity ; and assembling the contact ring element into a medical device . annealing an elongated rod of Ti-15Mo alloy material to form an annealed rod having a Young's Modulus of less than 93.1 GPa (13.5 Mpsi) and an elastic range or strain of at least 0.7%; forming a contact ring element from the annealed rod, wherein the contact ring element comprises a tubular body and resiliently deflectable elements formed of the Ti-15Mo alloy material, wherein the tubular body defines a cavity configured to receive a lead and wherein the plurality of resiliently deflectable elements extend from the tubular body in to the cavity ; and assembling the contact ring element into a medical device .
Heat exchanger (1; 1') including a circulation device for a first heat-transfer fluid including a first-heat-transfer-fluid inlet and a first-heat-transfer-fluid outlet between which a first heat-transfer fluid is designed to flow, the heat exchanger including a housing containing the circulation device for the first heat-transfer fluid, the housing including: - at least one opening designed to be traversed by the first-heat-transfer-fluid inlet and outlet of the circulation device for a first heat-transfer fluid, - a second-heat-transfer-fluid inlet and a second-heat-transfer-fluid outlet between which a second heat-transfer fluid is designed to flow, the housing having a cover and a bottom that are each provided with complementary attachment means, and characterized in that the housing includes a first ring seal interposed between the cover and the bottom of the housing , one part of the housing, either the bottom or the cover , having a U-shaped peripheral end, a first arm of the U bearing the attachment means, the first ring seal being interposed between the second arm of the U and the peripheral end of the other part of the housing bearing the complementary attachment means, the housing having a second ring seal interposed between the opening in the housing and the first-heat-transfer-fluid inlet and outlet of the circulation device for a first heat-transfer fluid. - at least one opening designed to be traversed by the first-heat-transfer-fluid inlet and outlet of the circulation device for a first heat-transfer fluid, - a second-heat-transfer-fluid inlet and a second-heat-transfer-fluid outlet between which a second heat-transfer fluid is designed to flow,
A control station comprising: a location managing unit configured to calculate communicable times for combinations of a satellite station (1-1, 1-2, 1-m) and an earth station (2-1, 2-n) that are capable of communicating with each other, based on a location of a satellite station (1-1, 1-2, 1-m) that transmits data to an earth station (2-1, 2-n) and locations of earth stations (2-1, 2-n) serving as candidates to which the satellite station (1-1, 1-2, 1-m) transmits the data; a data managing unit configured to hold information on a data retention time and an amount of data retained in the satellite station (1-1, 1-2, 1-m) having generated the data; and a transmission predicting unit configured to calculate data transmission completion times for one or more transmission paths from the satellite station (1-1, 1-2, 1-m) having generated the data to the earth station (2-1, 2-n), based on the communicable times and the information on the data retention time and the amount of data retained, and generate control information for satellite stations (1-1, 1-2, 1-m) and the earth station (2-1, 2-n) in a transmission path determined based on the data transmission completion times, to transmit the data in the determined transmission path. a location managing unit configured to calculate communicable times for combinations of a satellite station (1-1, 1-2, 1-m) and an earth station (2-1, 2-n) that are capable of communicating with each other, based on a location of a satellite station (1-1, 1-2, 1-m) that transmits data to an earth station (2-1, 2-n) and locations of earth stations (2-1, 2-n) serving as candidates to which the satellite station (1-1, 1-2, 1-m) transmits the data; a data managing unit configured to hold information on a data retention time and an amount of data retained in the satellite station (1-1, 1-2, 1-m) having generated the data; and a transmission predicting unit configured to calculate data transmission completion times for one or more transmission paths from the satellite station (1-1, 1-2, 1-m) having generated the data to the earth station (2-1, 2-n), based on the communicable times and the information on the data retention time and the amount of data retained, and generate control information for satellite stations (1-1, 1-2, 1-m) and the earth station (2-1, 2-n) in a transmission path determined based on the data transmission completion times, to transmit the data in the determined transmission path.