mhurhangee/patent-ind-claim-en huggingface dataset:
A fixture assembly for manufacturing fan blades , comprising: a first fixture portion ; a second fixture portion that interfaces with the first fixture portion , the interface between the first and second fixture portions shaped to an airfoil contour to receive a fan blade in use; wherein the first fixture potion in use interfaces with a fan blade body , the second fixture portion in use interfaces with the fan blade body and a cover received within the fan blade body and a bladder assembly mounted to the second fixture portion and directed toward the first fixture portion ; characterised in that the bladder assembly includes a face sheet with a bellows around a periphery of the face sheet wherein the bladder assembly is configured to press the cover into the fan blade body in use. a first fixture portion ; a second fixture portion that interfaces with the first fixture portion , the interface between the first and second fixture portions shaped to an airfoil contour to receive a fan blade in use; wherein the first fixture potion in use interfaces with a fan blade body , the second fixture portion in use interfaces with the fan blade body and a cover received within the fan blade body and a bladder assembly mounted to the second fixture portion and directed toward the first fixture portion ; characterised in that the bladder assembly includes a face sheet with a bellows around a periphery of the face sheet wherein the bladder assembly is configured to press the cover into the fan blade body in use.
A method for a User Equipment, UE, operating in a wireless communication system, the method comprising: configuring Long Term Evolution, LTE, network and Wireless-LAN, WLAN network over which the UE transfers data in LTE-WLAN aggregation system; receiving a cell index used for the WLAN network from an eNB, wherein the cell index for the WLAN network is currently not used for any cell of the LTE network configured for the UE; and transmitting a Power Headroom Reporting, PHR, Medium Access Control, MAC, Control Element, CE, including information for the WLAN network if the UE triggers the PHR, wherein the UE indicates to the eNB using the cell index that the PHR MAC CE includes the information for the WLAN network, wherein based on the UE setting a value of a Ci field corresponding to the cell index for the WLAN network to 1, the PHR MAC CE includes power status information for the WLAN network in fields corresponding to the Ci field. configuring Long Term Evolution, LTE, network and Wireless-LAN, WLAN network over which the UE transfers data in LTE-WLAN aggregation system; receiving a cell index used for the WLAN network from an eNB, wherein the cell index for the WLAN network is currently not used for any cell of the LTE network configured for the UE; and transmitting a Power Headroom Reporting, PHR, Medium Access Control, MAC, Control Element, CE, including information for the WLAN network if the UE triggers the PHR, wherein the UE indicates to the eNB using the cell index that the PHR MAC CE includes the information for the WLAN network, wherein based on the UE setting a value of a Ci field corresponding to the cell index for the WLAN network to 1, the PHR MAC CE includes power status information for the WLAN network in fields corresponding to the Ci field.
A method for identifying a cell, the method comprising: - providing a cell; - stimulating the cell with a stimulant thereby modifying a cell membrane impedance of the cell; thereafter - monitoring the cell membrane impedance; - identifying the cell based on the monitored cell membrane impedance, wherein monitoring the cell membrane impedance further comprises measuring a crossover frequency (Fc) of the cell by: - applying at least one electrical field characterized by at least one non-zero frequency which creates a dielectrophoretic force on the cell, - measuring the dielectrophoretic force on the cell, and - determining a cross-over frequency of the cell, wherein the cross-over frequency is the frequency at which cell experiences zero DEP force, characterized in that the method further comprises removing the stimulant after stimulating the cell with the stimulant and before monitoring the cell membrane impedance. - providing a cell; - stimulating the cell with a stimulant thereby modifying a cell membrane impedance of the cell; thereafter - monitoring the cell membrane impedance; - identifying the cell based on the monitored cell membrane impedance, - applying at least one electrical field characterized by at least one non-zero frequency which creates a dielectrophoretic force on the cell, - measuring the dielectrophoretic force on the cell, and - determining a cross-over frequency of the cell, wherein the cross-over frequency is the frequency at which cell experiences zero DEP force,
Process for hydrogenating silicon tetrachloride in a reactor, in which a feed gas containing hydrogen and silicon tetrachloride is heated to a temperature in the range from 850°C to 1600°C by means of at least one heating element which comprises a graphite surface, with the temperature of the heating element being in the range from 850°C to 1600°C, characterized in that nitrogen is added in a molar proportion of from 0.1 to 10% based on hydrogen to the feed gas.
A windscreen wiper device of the flat blade type comprising an elastic, elongated carrier element, as well as an elongated wiper blade of a flexible material, which can be placed in abutment with a windscreen to be wiped, which wiper blade includes at least one longitudinal slit , in which slit at least one longitudinal strip of the carrier element is disposed, which windscreen wiper device comprises a connecting device for a rod-like extension of an oscillating arm , wherein said rod-like extension can be pivotally connected to said connecting device about a pivot axis near a free end thereof, wherein said connecting device comprises a first part and a second part , wherein said rod-like extension of said oscillating arm can be pivotally connected to said first part about said pivot axis, with the interposition of said second part , wherein said first part is connected to said wiper blade and said second part is pivotally connected onto said first part , wherein said second part comprises a channel arranged to receive said free end of said rod-like extension , wherein said windscreen wiper device comprises a housing for said rod-like extension, wherein said housing is arranged to be connected to said second part , and wherein said housing comprises a channel to receive said rod-like extension , said channel of said housing in mounted position being co-axial with said channel of said second part , wherein said second part comprises a resilient tongue arranged to engage into a hole of said housing , and wherein said resilient tongue is hingeable along a hinge axis between an inward position retaining said wiper blade onto said rod-like extension and an outward position releasing said wiper blade from said rod-like extension , wherein said windscreen wiper device comprises first and second retention means for retaining said wiper blade onto said rod-like extension , wherein said first retention means comprises said resilient tongue on said second part and said hole in said housing , wherein said second retention means comprises at least one protrusion provided on the first part engaging the rod-like extension .
Gear pump having a housing which comprises an inflow for the liquid to be conveyed, an outflow for the conveyed liquid, and a pump chamber in which the gear or gears for conveying the liquid are present, wherein at least one bearing position is present in the housing, in which bearing position at least one gear is rotatably received, wherein the inflow is in a different plane than the outflow ; and in that at least one first flushing passage that extends up to the bearing position(s) is in direct or indirect fluid communication with the inflow and/or with the outflow , characterized in that in the use state, in which the gear pump is in vertical position and the inflow and the outflow extend horizontally, the pump chamber is located at the level of the inflow and the outflow is located below this level.
A computer implemented method for automatically determining a lumen contour of a blood vessel for use in sizing a stent for placement in the lumen, the method comprising: dividing representation of the blood vessel into a plurality of segments, each segment being defined as a space between branches of the vessel; defining a diameter at a starting point as a maximum diameter of the lumen, wherein the starting point is substantially free of stenosis; calculating a maximum diameter of an adjacent segment according to a power law; measuring an actual diameter of the adjacent segment; selecting a selected maximum diameter of the adjacent segment as the larger of the calculated maximum diameter and the measured actual diameter of the adjacent segment; using the selected maximum diameter to find a maximum diameter of a next adjacent segment of the plurality of segments; and iteratively determining a selected maximum diameter for each segment of the plurality of segments. dividing representation of the blood vessel into a plurality of segments, each segment being defined as a space between branches of the vessel; defining a diameter at a starting point as a maximum diameter of the lumen, wherein the starting point is substantially free of stenosis; calculating a maximum diameter of an adjacent segment according to a power law; measuring an actual diameter of the adjacent segment; selecting a selected maximum diameter of the adjacent segment as the larger of the calculated maximum diameter and the measured actual diameter of the adjacent segment; using the selected maximum diameter to find a maximum diameter of a next adjacent segment of the plurality of segments; and iteratively determining a selected maximum diameter for each segment of the plurality of segments.
An ablation electrode , comprising: a flexible electrically-insulating substrate , comprising an inner surface and an outer surface , and shaped to define multiple channels passing between the inner surface and the outer surface ; an outer layer of an electrically-conducting metal covering at least part of the outer surface ; an inner layer of the electrically-conducting metal covering at least part of the inner surface ; and respective columns of the electrically-conducting metal that fill the channels such as to connect the outer layer to the inner layer ; characterised by at least some of the channels being concave channels . a flexible electrically-insulating substrate , comprising an inner surface and an outer surface , and shaped to define multiple channels passing between the inner surface and the outer surface ; an outer layer of an electrically-conducting metal covering at least part of the outer surface ; an inner layer of the electrically-conducting metal covering at least part of the inner surface ; and respective columns of the electrically-conducting metal that fill the channels such as to connect the outer layer to the inner layer ; characterised by at least some of the channels being concave channels .
An endodontic root canal filling material or sealant composition for filling and sealing a root canal, characterized in that 20 to 50% of liquid polyisoprene, 45 to 75% of a radiopacifier, and 0.5 to 20% of a curing agent are present, and wherein the curing agent includes a peroxide.
A base station, comprising: a cellular wide area radio communication technology circuit configured to provide a communication according to a cellular wide area radio communication technology; a controller configured to: manage radio resources for a cellular wide area radio communication connection based on radio resources that are provided or will be provided for a direct communication terminal device to communication terminal device D2D, communication bypassing a radio access network; detect direct communication terminal to communication terminal device, D2D, communication in an uplink or downlink frequency band bypassing the radio access network; and upon detection of the direct communication terminal device to communication terminal device, D2D, communication, release different radio resources for said D2D communication. a cellular wide area radio communication technology circuit configured to provide a communication according to a cellular wide area radio communication technology; a controller configured to: manage radio resources for a cellular wide area radio communication connection based on radio resources that are provided or will be provided for a direct communication terminal device to communication terminal device D2D, communication bypassing a radio access network; detect direct communication terminal to communication terminal device, D2D, communication in an uplink or downlink frequency band bypassing the radio access network; and upon detection of the direct communication terminal device to communication terminal device, D2D, communication, release different radio resources for said D2D communication.
Washing machine (M) for box shaped containers, in particular bottle crates (K), comprising a washing channel being covered at the outer sides and containing a conveyor for crates (K) being moved in guided fashion during washing in a transport direction, the washing channel at least in a section having at both sides of the conveyor respectively one substantially vertical nozzle carrier carrying nozzles which are distributed in vertical direction for spraying oppositely located outer walls of the crates (K), with equal distance between the nozzles and the outer walls of the crates (K), wherein the nozzle carriers can be adjusted in the washing channel substantially laterally to the transport direction and wherein a central nozzle carrier-adjusting device (Z) is provided for fine-adjusting the distance of nozzles arranged at each side of the conveyor from the outer walls of the crates (K), characterized in that the distances of the nozzles from both outer walls of the crates (K) can be adjusted by a central nozzle carrier-adjusting device (Z) commonly equally and in the opposite directions.
A grinding tool for machining the inside surface of a cylinder bore in a workpiece, having an axis of rotation , wherein the grinding tool has a grinding region which is cylindrical with respect to the axis of rotation and a conical grinding region axially adjoining the cylindrical grinding region and the diameter of the conical grinding region increases starting from the cylindrical grinding region in the axial direction with respect to the diameter of the cylindrical grinding region , characterized in that the grinding tool has a free end and an opposite end and the conical grinding region is arranged adjoining the free end on the grinding tool , and provided at the opposite end is a fixing means for fixing the grinding tool to a machining head of a CNC machine or an adaptor connected thereto, preferably an HSK adaptor, wherein the fixing means is preferably in the form of a flange.
A method of executing an application, the method comprising: executing, by a first terminal , an application with at least one external device (operation 210), wherein the at least one external device is related to the application, wherein the at least one external device is connected to the first terminal and wherein the or each at least one external device is an input device, an output device or a controller configured to transmit input or output data to the first terminal via short-range wireless communication or to receive a control command from the first terminal via short-range wireless communication; transmitting, by the first terminal to a second terminal , information about the application and connection information regarding the at least one external device (operation 220); establishing, by the second terminal , a connection with respect to the at least one external device based on the transmitted connection information (operation 320); and executing, by the second terminal , the application with the at least one external device that is connected to the second terminal , wherein the application is executed based on the transmitted information about the application (operation 330). executing, by a first terminal , an application with at least one external device (operation 210), wherein the at least one external device is related to the application, wherein the at least one external device is connected to the first terminal and wherein the or each at least one external device is an input device, an output device or a controller configured to transmit input or output data to the first terminal via short-range wireless communication or to receive a control command from the first terminal via short-range wireless communication; transmitting, by the first terminal to a second terminal , information about the application and connection information regarding the at least one external device (operation 220); establishing, by the second terminal , a connection with respect to the at least one external device based on the transmitted connection information (operation 320); and executing, by the second terminal , the application with the at least one external device that is connected to the second terminal , wherein the application is executed based on the transmitted information about the application (operation 330).
A low sulfur marine fuel trunk piston diesel engine lubricating oil composition comprising or made of admixing (A) an oil of lubricating viscosity in an amount of 50 mass % or more of the composition; and, in respective amounts of less than 50 mass % of the composition, (B) an overbased metal detergent comprising a metal salt of a surfactant selected from a hydrocarbyl-substituted phenol, a hydrocarbyl-substituted sulfonic acid, and a hydrocarbyl-substituted hydroxybenzoic acid; (C) a zinc dihydrocarbyldithiophosphate in an amount of 50 to 500 ppm by weight in terms of P atoms as measured by ASTM D5185; (D) optionally, an aminic anti-oxidant in an amount of up to 400, preferably in an amount up to 200 (preferably, when present, from 10 to 200) ppm by weight in terms of N atoms as measured by ASTM D5762; and (E) a borated ashless dispersant in an amount of 10 to 500 ppm by weight in terms of B atoms as measured by ASTM D5185; the composition having a TBN of 5 to less than 20, preferably 8 to 15, mg KOH/g as measured by ASTM D2896. (A) an oil of lubricating viscosity in an amount of 50 mass % or more of the composition; and, in respective amounts of less than 50 mass % of the composition, (B) an overbased metal detergent comprising a metal salt of a surfactant selected from a hydrocarbyl-substituted phenol, a hydrocarbyl-substituted sulfonic acid, and a hydrocarbyl-substituted hydroxybenzoic acid; (C) a zinc dihydrocarbyldithiophosphate in an amount of 50 to 500 ppm by weight in terms of P atoms as measured by ASTM D5185; (D) optionally, an aminic anti-oxidant in an amount of up to 400, preferably in an amount up to 200 (preferably, when present, from 10 to 200) ppm by weight in terms of N atoms as measured by ASTM D5762; and (E) a borated ashless dispersant in an amount of 10 to 500 ppm by weight in terms of B atoms as measured by ASTM D5185;
A Mobile Station, MS , for a GERAN system, the MS being arranged to: receive bursts from a Base Transceiver Station, a BTS, each of said received bursts being modulated with a modulation type chosen from one of a number of modulation types, identify the received bursts from the BTS which comprise information for the MS by identifying if a Training Sequence Code, a TSC, comprised in each of the received bursts, corresponds to one of a first TSC and a second TSC assigned to the MS , the first TSC and the second TSC being used for at least one of the number of said modulation types to identify the received bursts from the BTS, wherein the first TSC is also assigned to a legacy MS, the legacy MS being assigned only the first TSC, and use the first TSC for successful reception of part of a burst of the received bursts wherein other part of the burst of the received bursts is intended for the legacy MS. receive bursts from a Base Transceiver Station, a BTS, each of said received bursts being modulated with a modulation type chosen from one of a number of modulation types, identify the received bursts from the BTS which comprise information for the MS by identifying if a Training Sequence Code, a TSC, comprised in each of the received bursts, corresponds to one of a first TSC and a second TSC assigned to the MS , the first TSC and the second TSC being used for at least one of the number of said modulation types to identify the received bursts from the BTS, wherein the first TSC is also assigned to a legacy MS, the legacy MS being assigned only the first TSC, and use the first TSC for successful reception of part of a burst of the received bursts wherein other part of the burst of the received bursts is intended for the legacy MS.
A heating device for heating a fluid, particularly in a vehicle or vessel, comprising: - a housing having a housing wall and a fluid inlet and a fluid outlet ; connected via at least two separate fluid channels (6a,b; 6c-e); - said fluid channels being separated by walls (12a,b), end walls (5a,b) and a bottom portion which form a chamber (13; 13a,b); - said chamber (13; 13a,b) having an opening towards the housing outside; - at least one heating element (7; 7') received in the chamber (13; 13a,b); - said walls (12a,b) comprising a heat conducting material; - said bottom portion being recessed in the housing wall . - a housing having a housing wall and a fluid inlet and a fluid outlet ; connected via at least two separate fluid channels (6a,b; 6c-e); - said fluid channels being separated by walls (12a,b), end walls (5a,b) and a bottom portion which form a chamber (13; 13a,b); - said chamber (13; 13a,b) having an opening towards the housing outside; - at least one heating element (7; 7') received in the chamber (13; 13a,b); - said walls (12a,b) comprising a heat conducting material; - said bottom portion being recessed in the housing wall .
A wound dressing comprising: a wound contact layer configured to be positioned in contact with a wound; a first area over the wound contact layer comprising: a lower spacer layer; an absorbent layer; a second area over the wound contact layer comprising a plurality of layers and a negative pressure source and electronic components positioned within or between the plurality of layers, wherein the first area is positioned adjacent to the second area; and wherein one or more layers of the plurality of layers of the second area comprise a hydrophobic material surrounding the negative pressure source and electronic components; a cover layer configured to cover and form a seal over the wound contact layer, the first area, and the second area; and characterized in that the absorbent layer comprises a portion adjacent to the second area and wherein the portion adjacent to the second area comprises a hydrophobic material. a lower spacer layer; an absorbent layer; a second area over the wound contact layer comprising a plurality of layers and a negative pressure source and electronic components positioned within or between the plurality of layers, wherein the first area is positioned adjacent to the second area; and wherein one or more layers of the plurality of layers of the second area comprise a hydrophobic material surrounding the negative pressure source and electronic components; a cover layer configured to cover and form a seal over the wound contact layer, the first area, and the second area; and characterized in that the absorbent layer comprises a portion adjacent to the second area and wherein the portion adjacent to the second area comprises a hydrophobic material.