mhurhangee/ep-ind-claims huggingface dataset:
A gas turbine engine comprising: - a fan mounted to rotate about a main longitudinal axis; - an engine core, comprising in axial flow series a compressor, a combustor, and a turbine coupled to the compressor through a shaft, wherein the compressor is an intermediate pressure compressor; - a reduction gearbox that receives an input from the shaft (26, 27) and outputs drive to the fan so as to drive the fan at a lower rotational speed than the shaft (26, 27); wherein the compressor comprises a plurality of stages, each stage comprising a respective rotor and stator, a first stage of said plurality of stages being arranged at an inlet and comprising a first rotor with a plurality of first rotor blades, wherein each of the plurality of the first rotor blades has a leading edge, a trailing edge, a root and a tip, wherein the blades extend in a chordwise direction from the leading edge to the trailing edge, and from the root to the tip in a spanwise direction for a span height H, wherein 0 % of the span height H corresponds to the root and 100 % of the span height H corresponds to the tip; wherein the first rotor blades feature a circular leading edge cross-section; wherein the ratio of a maximum leading edge radius of curvature (R MAX) of the first rotor blades to a minimum leading edge radius of curvature (R min) of the first rotor blades is comprised between 2.2 and 3.5; wherein the minimum leading edge radius of curvature (R min) is positioned at between 0 % and 50 % of the span height H, preferably at between 20 % and 40 % of the span height H. - a fan mounted to rotate about a main longitudinal axis; - an engine core, comprising in axial flow series a compressor, a combustor, and a turbine coupled to the compressor through a shaft, wherein the compressor is an intermediate pressure compressor; - a reduction gearbox that receives an input from the shaft (26, 27) and outputs drive to the fan so as to drive the fan at a lower rotational speed than the shaft (26, 27); wherein the compressor comprises a plurality of stages, each stage comprising a respective rotor and stator, a first stage of said plurality of stages being arranged at an inlet and comprising a first rotor with a plurality of first rotor blades, wherein the first rotor blades feature a circular leading edge cross-section; wherein the ratio of a maximum leading edge radius of curvature (R MAX) of the first rotor blades to a minimum leading edge radius of curvature (R min) of the first rotor blades is comprised between 2.2 and 3.5; wherein the minimum leading edge radius of curvature (R min) is positioned at between 0 % and 50 % of the span height H, preferably at between 20 % and 40 % of the span height H.
A bone fixation system, said bone fixation system comprising: a first fastener, said first fastener including a shaft and an enlarged head, the enlarged head extending from and angled relative to the shaft, the shaft including a first longitudinal axis, a portion of the shaft configured to anchor into bone, the enlarged head including a passageway having an interior surface, the passageway defining a second longitudinal axis that is angled with respect to the first longitudinal axis of the shaft, the passageway including a first end and a second end, the interior surface including a seat; a second fastener, said second fastener including a shaft extending along a third longitudinal axis and a head, a portion of the shaft of said second fastener configured to anchor into bone, the head of the shaft configured to engage the seat of said first fastener, the engagement of the seat and the head of the shaft allowing for a plurality of angular relationships between the second longitudinal axis of the passageway relative to the third longitudinal axis of said second fastener; a set screw, at least a portion of said set screw configured to secure within the passageway of said first fastener, said set screw including a bottom surface, wherein the bottom surface of said set screw directly contacts and retains the head of said second fastener against the seat; and an angle guide, said angle guide including an angle guide head configured to engage a portion of the seat of the interior surface of the passageway of the head of the first fastener. a first fastener, said first fastener including a shaft and an enlarged head, the enlarged head extending from and angled relative to the shaft, the shaft including a first longitudinal axis, a portion of the shaft configured to anchor into bone, the enlarged head including a passageway having an interior surface, the passageway defining a second longitudinal axis that is angled with respect to the first longitudinal axis of the shaft, the passageway including a first end and a second end, the interior surface including a seat; a second fastener, said second fastener including a shaft extending along a third longitudinal axis and a head, a portion of the shaft of said second fastener configured to anchor into bone, the head of the shaft configured to engage the seat of said first fastener, the engagement of the seat and the head of the shaft allowing for a plurality of angular relationships between the second longitudinal axis of the passageway relative to the third longitudinal axis of said second fastener; a set screw, at least a portion of said set screw configured to secure within the passageway of said first fastener, said set screw including a bottom surface, wherein the bottom surface of said set screw directly contacts and retains the head of said second fastener against the seat; and an angle guide, said angle guide including an angle guide head configured to engage a portion of the seat of the interior surface of the passageway of the head of the first fastener.
A user equipment device (10, 10-1, 10-2) comprising: one or more antennas; a transmitter configured to transmit device-to-device, D2D, signals to an additional user equipment device (10, 10-1, 10-2) using the one or more antennas; and one or more processors configured to transmit, using the transmitter, a message in the D2D signals, and transmit, using the transmitter, a series of preambles in the D2D signals prior to the message, wherein each preamble in the series of preambles identifies, for the additional user equipment device (10, 10-1, 10-2), a respective time offset between the end of that respective preamble and transmission of the message. one or more antennas; a transmitter configured to transmit device-to-device, D2D, signals to an additional user equipment device (10, 10-1, 10-2) using the one or more antennas; and one or more processors configured to transmit, using the transmitter, a message in the D2D signals, and transmit, using the transmitter, a series of preambles in the D2D signals prior to the message, wherein each preamble in the series of preambles identifies, for the additional user equipment device (10, 10-1, 10-2), a respective time offset between the end of that respective preamble and transmission of the message. transmit, using the transmitter, a message in the D2D signals, and transmit, using the transmitter, a series of preambles in the D2D signals prior to the message, wherein each preamble in the series of preambles identifies, for the additional user equipment device (10, 10-1, 10-2), a respective time offset between the end of that respective preamble and transmission of the message.
A molding material comprising the following components to at the following ratios, in which the component is bonded to a composite comprising the components to and the order in the weight average molecular weight is component > component > component; 1 to 75 wt% of a reinforcing fiber bundle; 0.01 to 10 wt% of a first propylene-based resin in which carboxylic acid groups and/or carboxylate groups are not contained at all or contained by less than 0.05 millimole equivalent in total per 1 gram of the resin; 0.01 to 10 wt% of a second propylene-based resin having carboxylate groups bound to the polymer chains thereof in which the total amount of the carboxylic acid groups and carboxylate groups bound to the polymer chains of the second propylene-based resin is 0.05 to 5 millimole equivalents per 1 g of the second propylene-based resin; 5 to 98.98 wt% of a third propylene-based resin, wherein the molding material has a core-sheath structure in which the aforementioned component covers the outer circumference of the composite comprising the aforementioned components to. 1 to 75 wt% of a reinforcing fiber bundle; 0.01 to 10 wt% of a first propylene-based resin in which carboxylic acid groups and/or carboxylate groups are not contained at all or contained by less than 0.05 millimole equivalent in total per 1 gram of the resin; 0.01 to 10 wt% of a second propylene-based resin having carboxylate groups bound to the polymer chains thereof in which the total amount of the carboxylic acid groups and carboxylate groups bound to the polymer chains of the second propylene-based resin is 0.05 to 5 millimole equivalents per 1 g of the second propylene-based resin; 5 to 98.98 wt% of a third propylene-based resin,
A pump and valve arrangement comprising: a dialyser having a semi-permeable membrane; an inlet pump assembly operable to deliver a first volume of dialysis fluid from a dialysis fluid source to the dialyser in an inlet pump cycle having a dialysis fluid delivery stroke; an outlet pump assembly operable to remove a second volume of dialysis fluid from the dialyser and deliver the second volume of dialysis fluid away from the dialyser in an outlet pump cycle having a dialysis fluid removal stroke; a control system operable to operate the inlet pump assembly in the inlet pump cycle, and operable to operate the outlet pump assembly in the outlet pump cycle, wherein for each inlet pump cycle there is a corresponding outlet pump cycle, characterized in that either the control system is further operable to operate the inlet pump assembly in an inlet pump shuttling step additional to the inlet and outlet pump cycles to shuttle the first volume of dialysis fluid between the inlet pump assembly and the dialyser one or more times so as to agitate a surface of the semi-permeable membrane of the dialyser, or the control system is further operable to operate the outlet pump assembly in an outlet pump shuttling step additional to the inlet and outlet pump cycles to shuttle the second volume of dialysis fluid between the outlet pump assembly and the dialyser (12 one or more times so as to agitate a surface of the semi-permeable membrane of the dialyser. a dialyser having a semi-permeable membrane; an inlet pump assembly operable to deliver a first volume of dialysis fluid from a dialysis fluid source to the dialyser in an inlet pump cycle having a dialysis fluid delivery stroke; an outlet pump assembly operable to remove a second volume of dialysis fluid from the dialyser and deliver the second volume of dialysis fluid away from the dialyser in an outlet pump cycle having a dialysis fluid removal stroke; a control system operable to operate the inlet pump assembly in the inlet pump cycle, and operable to operate the outlet pump assembly in the outlet pump cycle, wherein for each inlet pump cycle there is a corresponding outlet pump cycle, characterized in that either the control system is further operable to operate the inlet pump assembly in an inlet pump shuttling step additional to the inlet and outlet pump cycles to shuttle the first volume of dialysis fluid between the inlet pump assembly and the dialyser one or more times so as to agitate a surface of the semi-permeable membrane of the dialyser, or the control system is further operable to operate the outlet pump assembly in an outlet pump shuttling step additional to the inlet and outlet pump cycles to shuttle the second volume of dialysis fluid between the outlet pump assembly and the dialyser (12 one or more times so as to agitate a surface of the semi-permeable membrane of the dialyser.
A rotatable electrical plug assembly for a volatile material dispenser, the assembly comprising: a support block including a base having a circular base member and a cylindrical side wall extending outwardly from the base member and forming a shallow cavity with the base member; a cover disposed within the shallow cavity; electrical plug pins extending through apertures in the base member and including contacts that extend at an angle of 90 degrees with respect to the plug pins, wherein the contacts are disposed within the shallow cavity between the circular base member and the cover; characterized by further including at least one wire connected to the contact(s), wherein the at least one wire runs perpendicular to the plug pins before running parallel to the plug pins and out a cutout in the cover to reduce mechanical strain in the wire during rotation of the plug assembly, wherein the wires are sandwiched between the cover and the base, and by further including one or more rails (200a, b) extending from the base to guide the wires, wherein the ratio of the overall plug assembly thickness over the plug pin thickness is less than 1.5. a support block including a base having a circular base member and a cylindrical side wall extending outwardly from the base member and forming a shallow cavity with the base member; a cover disposed within the shallow cavity; electrical plug pins extending through apertures in the base member and including contacts that extend at an angle of 90 degrees with respect to the plug pins, wherein the contacts are disposed within the shallow cavity between the circular base member and the cover; characterized by further including at least one wire connected to the contact(s), wherein the at least one wire runs perpendicular to the plug pins before running parallel to the plug pins and out a cutout in the cover to reduce mechanical strain in the wire during rotation of the plug assembly, wherein the wires are sandwiched between the cover and the base, and by further including one or more rails (200a, b) extending from the base to guide the wires, wherein the ratio of the overall plug assembly thickness over the plug pin thickness is less than 1.5.
A positive electrode for a lithium secondary battery comprising: a positive electrode current collector; a lower positive electrode active material layer disposed on at least one surface of the positive electrode current collector; and an upper positive electrode active material layer disposed on the lower positive electrode active material layer, wherein the lower positive electrode active material layer comprises 90% or more of a sphere-type carbonaceous conductive material as a conductive material, the upper positive electrode active material layer comprises 90% or more of a needle-type carbonaceous conductive material as a conductive material, the content of the conductive material contained in the lower positive electrode active material layer is larger than the content of the conductive material contained in the upper positive electrode active material layer, the upper positive electrode active material layer and the lower positive electrode active material layer have a thickness ratio of 90: 10 to 70:30, and the sphere-type carbonaceous conductive material is present in an amount of 1.0-3.0 wt% based on the total weight of the lower positive electrode active material layer. wherein the lower positive electrode active material layer comprises 90% or more of a sphere-type carbonaceous conductive material as a conductive material, the upper positive electrode active material layer comprises 90% or more of a needle-type carbonaceous conductive material as a conductive material, the content of the conductive material contained in the lower positive electrode active material layer is larger than the content of the conductive material contained in the upper positive electrode active material layer, the upper positive electrode active material layer and the lower positive electrode active material layer have a thickness ratio of 90: 10 to 70:30, and the sphere-type carbonaceous conductive material is present in an amount of 1.0-3.0 wt% based on the total weight of the lower positive electrode active material layer.
A motorized window treatment system (100, 800) for controlling an amount of light entering a space, the system comprising: a plurality of motorized window treatments (440, 442, 444), each motorized window treatment operable to adjust a respective covering material to control the amount of light entering the space; a plurality of window sensors (158, 420, 422, 424), each window sensor mounted adjacent at least one of the plurality of motorized window treatments, each window sensor configured to measure an amount of daylight shining on the respective window sensor; and a system controller configured to receive sensor readings from the window sensors and to control the plurality of motorized window treatments in response to the sensor readings to keep the covering materials aligned while the sensor readings are within a predetermined amount, characterized in that the system controller is configured to dynamically group the window sensors (158, 420, 422, 424) together into sensor groups based upon the sensor readings and control the motorized window treatments (440, 442, 444) based upon the sensor groups. a plurality of motorized window treatments (440, 442, 444), each motorized window treatment operable to adjust a respective covering material to control the amount of light entering the space; a plurality of window sensors (158, 420, 422, 424), each window sensor mounted adjacent at least one of the plurality of motorized window treatments, each window sensor configured to measure an amount of daylight shining on the respective window sensor; and a system controller configured to receive sensor readings from the window sensors and to control the plurality of motorized window treatments in response to the sensor readings to keep the covering materials aligned while the sensor readings are within a predetermined amount, characterized in that the system controller is configured to dynamically group the window sensors (158, 420, 422, 424) together into sensor groups based upon the sensor readings and control the motorized window treatments (440, 442, 444) based upon the sensor groups.
A method of operating a system controller of a virtualized application cluster, the cluster comprising at least one virtual machine, the method comprising: receiving, from the virtual machine, a Dynamic Host Configuration Protocol, DHCP, request including a Media Access Control, MAC, address of the virtual machine; determining, based on the MAC address included in the DHCP request, that no computing role can be determined for the MAC address; sending, in response to the determining, the MAC address received from the virtual machine within the cluster towards outside the cluster; receiving, from outside the cluster, a mapping between the MAC address and a computing role; determining booting information associated with the mapping; and sending, to the virtual machine, a Trivial File Transfer Protocol, TFTP, message comprising the booting information based on the computing role mapped to the MAC address. receiving, from the virtual machine, a Dynamic Host Configuration Protocol, DHCP, request including a Media Access Control, MAC, address of the virtual machine; determining, based on the MAC address included in the DHCP request, that no computing role can be determined for the MAC address; sending, in response to the determining, the MAC address received from the virtual machine within the cluster towards outside the cluster; receiving, from outside the cluster, a mapping between the MAC address and a computing role; determining booting information associated with the mapping; and sending, to the virtual machine, a Trivial File Transfer Protocol, TFTP, message comprising the booting information based on the computing role mapped to the MAC address.
Flow measuring system for a system applying a fluid to a plurality of parts, the flow measuring system adapted for measuring a flow rate of a fluid applied to each one of the plurality of parts, the fluid applying system comprising, a plurality of supporting means configured for supporting the plurality of parts, a plurality of fluid injectors arranged in a fluid applying platform, the plurality of fluid injectors adapted to inject a fluid, wherein the flow measuring system comprises, a plurality of flowmeters, each of the flowmeters in fluid communication with one of the fluid injectors, the plurality of flowmeters being configured to generate, process and transmit a signal related to the flow rate of the injected fluid, at least a first signal processing device, adapted to process the flow rate signals of the plurality of flowmeters, and a fluid measuring platform, adapted to hold at least the plurality of flowmeters, wherein the fluid applying system is configured to generate one or more signals related to the application of a fluid to a part, and is operatively connected to the first signal processing device, and characterised in that the fluid measuring platform is separated from the fluid applying platform. the fluid applying system comprising, a plurality of supporting means configured for supporting the plurality of parts, a plurality of fluid injectors arranged in a fluid applying platform, the plurality of fluid injectors adapted to inject a fluid, wherein the flow measuring system comprises, a plurality of flowmeters, each of the flowmeters in fluid communication with one of the fluid injectors, the plurality of flowmeters being configured to generate, process and transmit a signal related to the flow rate of the injected fluid, at least a first signal processing device, adapted to process the flow rate signals of the plurality of flowmeters, and a fluid measuring platform, adapted to hold at least the plurality of flowmeters, wherein the fluid applying system is configured to generate one or more signals related to the application of a fluid to a part, and is operatively connected to the first signal processing device, and characterised in that the fluid measuring platform is separated from the fluid applying platform.
A method for transferring a security context during a handover of a user equipment (70, 275, 700), the method implemented by one or more core network nodes (175, 600) in a core network of a wireless communication network, wherein the one or more core network nodes (175, 600) provide a source Access and Mobility Management Function, the method comprising: receiving, from a source base station (25, 120, 500) in an access network of the wireless communication network, a first handover message indicating that a handover of the user equipment (70, 275, 700) is needed; deriving a new non-access stratum key responsive to deciding that an operator specific security policy is met; sending, responsive to the first handover message, the new non-access stratum key to a target Access and Mobility Management Function in the core network of the wireless communication network; and sending, in a second handover message, a key change indication to the user equipment (70, 275, 700), the key change indication comprising a key change indicator flag set to a value indicating a change of the non-access stratum key. receiving, from a source base station (25, 120, 500) in an access network of the wireless communication network, a first handover message indicating that a handover of the user equipment (70, 275, 700) is needed; deriving a new non-access stratum key responsive to deciding that an operator specific security policy is met; sending, responsive to the first handover message, the new non-access stratum key to a target Access and Mobility Management Function in the core network of the wireless communication network; and sending, in a second handover message, a key change indication to the user equipment (70, 275, 700), the key change indication comprising a key change indicator flag set to a value indicating a change of the non-access stratum key.