mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting data between a source node and a destination node in a telecommunications network comprising a network of nodes, wherein a plurality of possible paths between the source node and destination node are available; the method comprising: determining a first path from the plurality of possible paths, wherein the first path comprises a path with a smallest distance between the source node and the destination node in the plurality of paths; the method being characterised by the steps of: adding the first path to a set of paths; determining a next path based on a cost of the next path, wherein the cost of the next path comprises a first component indicating a distance between the source node and the destination node in the next path, and a second component representative of common links between nodes in the next path and links between nodes in paths already in the set of paths; adding the next path to the set of paths; wherein the step of determining the next path comprises determining the next path such that the cost of the next path is a lowest cost of compared to costs of other paths in the plurality of possible paths; and configuring transmission of the data from the source node to the destination node using paths in the set of paths. determining a first path from the plurality of possible paths, wherein the first path comprises a path with a smallest distance between the source node and the destination node in the plurality of paths; the method being characterised by the steps of: adding the first path to a set of paths; determining a next path based on a cost of the next path, wherein the cost of the next path comprises a first component indicating a distance between the source node and the destination node in the next path, and a second component representative of common links between nodes in the next path and links between nodes in paths already in the set of paths; adding the next path to the set of paths; wherein the step of determining the next path comprises determining the next path such that the cost of the next path is a lowest cost of compared to costs of other paths in the plurality of possible paths; and configuring transmission of the data from the source node to the destination node using paths in the set of paths. adding the first path to a set of paths; determining a next path based on a cost of the next path, wherein the cost of the next path comprises a first component indicating a distance between the source node and the destination node in the next path, and a second component representative of common links between nodes in the next path and links between nodes in paths already in the set of paths; adding the next path to the set of paths; wherein the step of determining the next path comprises determining the next path such that the cost of the next path is a lowest cost of compared to costs of other paths in the plurality of possible paths; and configuring transmission of the data from the source node to the destination node using paths in the set of paths.
Heater assembly for aerosol-generating device for generating an inhalable aerosol, the heater assembly comprising: an electrically insulating element, and an electrical resistive heater, the heater comprising: a central heating portion , which is configured to be heated, electrical contacts , which contact the central heating portion and which are configured to supply electrical energy to the central heating portion , and anchoring legs , which are configured bendable, wherein the anchoring legs are arranged adjacent to the central heating portion and configured to mechanically anchor the electrical resistive heater to the electrically insulating element, and wherein the anchoring legs are configured forming a chamfer for guiding insertion of an aerosol-generating article . an electrically insulating element, and an electrical resistive heater, the heater comprising: a central heating portion , which is configured to be heated, electrical contacts , which contact the central heating portion and which are configured to supply electrical energy to the central heating portion , and anchoring legs , which are configured bendable, a central heating portion , which is configured to be heated, electrical contacts , which contact the central heating portion and which are configured to supply electrical energy to the central heating portion , and anchoring legs , which are configured bendable, wherein the anchoring legs are arranged adjacent to the central heating portion and configured to mechanically anchor the electrical resistive heater to the electrically insulating element, and wherein the anchoring legs are configured forming a chamfer for guiding insertion of an aerosol-generating article .
A guitar-securing device comprising: - an attachment member, provided with an arm , for attachment to a surface, - a structural member connected to that arm and configured to pass along the back part of a guitar, the structural member comprising a first plate located on the back face of the guitar whose contour matches that of the guitar which has to be supported, the structural member further comprising a first connecting member for connecting the first plate to a first support stud for the belting of the guitar , wherein the structural member further comprises a second plate connected to the first plate by means which permit the relative position between the two plates to be varied, and the structural member further comprising a second connecting member connected to the second plate and configured to be connected to a second support stud for the belting of the guitar at the shoulder of the guitar , characterised in that the means which permit the relative position to be varied comprise at least one elongated opening in one of the plates , a set of smaller openings corresponding to the elongated opening and located at different longitudinal and axial positions in the plate which does not contain the aforesaid elongated opening , and at least one pin capable of passing through the elongated opening and one of the corresponding smaller openings . - an attachment member, provided with an arm , for attachment to a surface, - a structural member connected to that arm and configured to pass along the back part of a guitar, the structural member comprising a first plate located on the back face of the guitar whose contour matches that of the guitar which has to be supported, the structural member further comprising a first connecting member for connecting the first plate to a first support stud for the belting of the guitar ,
A method for use in capturing traffic in a network, the method performed by a first entity , the method comprising: in response to a first request to initiate a session in which to capture traffic between microservices , wherein the microservices are distributed across a plurality of nodes in the network: initiating transmission of a second request towards one or more second entities , wherein the second request is a request that the one or more second entities initiate the session and the second request comprises one or more capture filters generated for use by the one or more second entities to capture the traffic between the microservices .
An RGB-LED packaging module , comprising a substrate ; a plurality of light-emitting units disposed on the substrate , each light-emitting unit comprising a set of RGB-LED chips ; the RGB-LED packaging module further comprises an interfering light absorbing region provided between the light-emitting units , the interfering light absorbing region comprising a dark light-absorbing layer provided on the substrate ; and a light-transmitting plastic layer provided on the light-emitting units and the dark light-absorbing layer , characterized in that a height of each RGB-LED chip is higher than a height of the dark light-absorbing layer ; and the number of the light-emitting units is four, the four light-emitting units being arranged in a square array on the front side of the substrate .
Method for using an air intake of an aircraft turbojet engine nacelle extending along an X axis oriented from upstream to downstream wherein an internal air flow (F-INT) circulates from upstream to downstream during a thrust phase and a reverse air flow (F-INV) from downstream to upstream during a thrust reversal phase, the air intake extending circumferentially around the X axis and comprising an internal wall turned towards the X axis and configured to guide the internal air flow (F-INT) and the reverse air flow (F-INV) and an external wall , opposite the internal wall and configured to guide an external air flow (F-EXT), the internal wall and the external wall being interconnected by an air intake lip in order to form an annular cavity , the air intake lip comprising at least one elastically deformable portion , the air intake comprising at least one connecting member (3, 3', 3"), mounted in the annular cavity integral with the elastically deformable portion and at least one controllable displacement member mechanically connected to the connecting member (3, 3', 3") and configured to move said connecting member (3, 3', 3"), method wherein: - during a thrust phase of the turbojet engine , the controllable displacement member moves the connecting member (3, 3', 3") into a first position (A), wherein the elastically deformable portion of the air intake lip comprises an aerodynamic profile so as to guide the internal air flow (F-INT) on the internal wall to promote a thrust phase, and - during a reverse thrust phase of the turbojet engine , the controllable displacement member moves the connecting member (3, 3', 3") into a second position (B), in which the elastically deformable portion of the air intake lip comprises an irregular profile so as to allow a release (D) of the reverse air flow (F-INV) from the elastically deformable portion . - during a thrust phase of the turbojet engine , the controllable displacement member moves the connecting member (3, 3', 3") into a first position (A), wherein the elastically deformable portion of the air intake lip comprises an aerodynamic profile so as to guide the internal air flow (F-INT) on the internal wall to promote a thrust phase, and - during a reverse thrust phase of the turbojet engine , the controllable displacement member moves the connecting member (3, 3', 3") into a second position (B), in which the elastically deformable portion of the air intake lip comprises an irregular profile so as to allow a release (D) of the reverse air flow (F-INV) from the elastically deformable portion .
A formwork panel for a formwork intended in particular for the manufacture of a construction element by pouring a hydraulic filling material into said formwork, said formwork panel including at least one formwork face (FC) and a bearing face (FA) separated from said formwork face (FC) by an angle comprised between 0° and 180°, the extreme values being excluded, said formwork panel including in said bearing face (FA) at least one housing and at least one sealing member consisting of an elongated profile including a mounting zone housed in said housing , and a joint zone arranged to be deformed elastically and ensure a contact sealing at a joint plane (J) between said formwork panel and another adjacent formwork panel, said sealing member further including a negative formwork zone integrated into said elongated profile, arranged substantially in the extension of said joint zone , and arranged to create a imprint in said molded construction element, characterized in that said formwork panel further includes in said bearing face (FA) a cavity adjacent to said housing , and in that said sealing member is reversible and can adopt two mounting positions, including a first mounting position in which said negative formwork zone is retracted inside said bearing face (FA) of the formwork panel in said cavity and has no effect on said molded construction element, and a second mounting position in which said negative formwork zone projects outside of said formwork face (FC) of the formwork panel and creates said imprint in said molded construction element.
Method of producing heavy plates from a steel alloy, which are primarily shaped and reshaped to heavy plate size, as endless flat material directly from the casting heat of a continuous casting plant, comprising continuous casting of a steel melt and primary shaping of an obtained cast strip to form a slab with subsequent reshaping or hot-rolling of the slab from the casting heat in a plurality of reshaping steps to a desired heavy plate size and a directly succeeding thermal treatment, which causes selective cooling of the obtained heavy plate , of the heavy plate , wherein the heavy plate is cut to a desired individual plate length before or after the thermal treatment thereof in production direction , wherein the heat treatment is carried out in a temperature range of 150° C to 1,100° C as a combination of a selective cooling of the obtained heavy plate from the rolling heat to a desired first temperature with a directly succeeding selective heating of the heavy plate to a desired second temperature and a directly succeeding cooling of the heavy plate to a desired third temperature.
A method for cooking a food product (FP) by using a mixer having a vessel at least partially surrounded by a heating jacket , and a steam injector arranged to inject steam into the vessel , the food product comprising starch (STA) and the method comprising providing liquid (W) into the vessel , providing the starch (STA) into the vessel , mixing the liquid (W) and the starch (STA) to form a mixture (MIX) inside the vessel , heating the mixture (MIX) for gelatinizing the starch (STA) by injecting steam (STE) at a first steam flow rate into the vessel during a first period of time (Δt 1 ) until a first set point temperature (T 1 ) is reached, heating the mixture (MIX) for gelatinizing the starch (STA) further by feeding a heating medium (HM) through the heating jacket during a subsequent, second period of time (Δt 2 ) until a second set point temperature (T 2 ) is reached which is higher than the first set point temperature (T 1 ), characterized by during the step of heating by feeding the heating medium (HM) through the heating jacket , reducing the injecting of steam (STE) to a second steam flow rate, wherein the second steam flow rate is 0 to 30% of the first steam flow rate, wherein the second set point temperature (T 2 ) is within a range of 50-70 °C. providing liquid (W) into the vessel , providing the starch (STA) into the vessel , mixing the liquid (W) and the starch (STA) to form a mixture (MIX) inside the vessel , heating the mixture (MIX) for gelatinizing the starch (STA) by injecting steam (STE) at a first steam flow rate into the vessel during a first period of time (Δt 1 ) until a first set point temperature (T 1 ) is reached, heating the mixture (MIX) for gelatinizing the starch (STA) further by feeding a heating medium (HM) through the heating jacket during a subsequent, second period of time (Δt 2 ) until a second set point temperature (T 2 ) is reached which is higher than the first set point temperature (T 1 ), characterized by during the step of heating by feeding the heating medium (HM) through the heating jacket , reducing the injecting of steam (STE) to a second steam flow rate, wherein the second steam flow rate is 0 to 30% of the first steam flow rate, wherein the second set point temperature (T 2 ) is within a range of 50-70 °C.
1. A method for detecting X-rays, the method utilising an apparatus suitable for detecting X-rays , comprising: an X-ray absorption layer configured to generate an electrical signal from an X-ray photon incident on the X-ray absorption layer; an electronics layer comprising an electronics system configured to process or interpret the electrical signal; wherein at least one of the X-ray absorption layer and the electronics layer is embedded in a board of an electrically insulating material; wherein the X-ray absorption layer comprises an electrode; wherein the electronics system comprises: a first voltage comparator configured to compare a voltage of the electrode to a first threshold; a second voltage comparator configured to compare the voltage to a second threshold; a counter configured to register a number of X-ray photons reaching the X-ray absorption layer; a controller ; wherein the controller starts a time delay from a time at which the first voltage comparator determines that an absolute value of the voltage equals or exceeds an absolute value of the first threshold; wherein the controller activates the second voltage comparator during the time delay; wherein the controller causes the number registered by the counter to increase by one, if the second voltage comparator determines that an absolute value of the voltage equals or exceeds an absolute value of the second threshold. an X-ray absorption layer configured to generate an electrical signal from an X-ray photon incident on the X-ray absorption layer; an electronics layer comprising an electronics system configured to process or interpret the electrical signal; wherein at least one of the X-ray absorption layer and the electronics layer is embedded in a board of an electrically insulating material; wherein the X-ray absorption layer comprises an electrode; wherein the electronics system comprises: a first voltage comparator configured to compare a voltage of the electrode to a first threshold; a second voltage comparator configured to compare the voltage to a second threshold; a counter configured to register a number of X-ray photons reaching the X-ray absorption layer; a controller ; a first voltage comparator configured to compare a voltage of the electrode to a first threshold; a second voltage comparator configured to compare the voltage to a second threshold; a counter configured to register a number of X-ray photons reaching the X-ray absorption layer; a controller ; wherein the controller starts a time delay from a time at which the first voltage comparator determines that an absolute value of the voltage equals or exceeds an absolute value of the first threshold; wherein the controller activates the second voltage comparator during the time delay; wherein the controller causes the number registered by the counter to increase by one, if the second voltage comparator determines that an absolute value of the voltage equals or exceeds an absolute value of the second threshold.
A pre-assembly of parts capable of being mounted on a shaft , comprising a stack characterized in that at least two Belleville washers arranged in an assembly configuration, wherein the washers are disposed head-to-tail, wherein it comprises a flexible securing sheet capable of securing said at least two Belleville washers of the stack by totally or partially enclosing a lateral surface of the stack, where the flexible securing sheet comprises an adhesive to adhere to the Belleville washers and/or to itself .
A portable electronic device comprising: a housing member defining an external sidewall; a first glass cover and a second glass cover, the first glass cover coupled to the external sidewall, wherein the second glass cover includes: a first region having a first exterior surface, a second region having a second exterior surface vertically displaced from the first exterior surface, wherein the second region includes a first opening (350-A), a second opening (350-B), and a third opening (350-C), and a transition region having an exterior surface that extends between the first exterior surface to the second exterior surface; a first camera module (510-A) disposed within the first opening; a second camera module (510-B) disposed within the second opening; a strobe module disposed within the third opening; a first trim structure having an edge that overlays the second region of the second glass cover; a second trim structure ; and a seal disposed between and contacting the first trim structure and the second trim structure . a housing member defining an external sidewall; a first glass cover and a second glass cover, the first glass cover coupled to the external sidewall, wherein the second glass cover includes: a first region having a first exterior surface, a second region having a second exterior surface vertically displaced from the first exterior surface, wherein the second region includes a first opening (350-A), a second opening (350-B), and a third opening (350-C), and a transition region having an exterior surface that extends between the first exterior surface to the second exterior surface; a first region having a first exterior surface, a second region having a second exterior surface vertically displaced from the first exterior surface, wherein the second region includes a first opening (350-A), a second opening (350-B), and a third opening (350-C), and a transition region having an exterior surface that extends between the first exterior surface to the second exterior surface; a first camera module (510-A) disposed within the first opening; a second camera module (510-B) disposed within the second opening; a strobe module disposed within the third opening; a first trim structure having an edge that overlays the second region of the second glass cover; a second trim structure ; and a seal disposed between and contacting the first trim structure and the second trim structure .
Method for processing a lithography object, comprising: providing a first gas comprising first molecules; providing a particle beam in a working region of the object for removal of a first material in the working region based at least partly on the first gas; wherein the first material corresponds to a material of an absorption layer (A) of a pattern element of the lithography object; characterised in that the first material comprises ruthenium. providing a first gas comprising first molecules; providing a particle beam in a working region of the object for removal of a first material in the working region based at least partly on the first gas; wherein the first material corresponds to a material of an absorption layer (A) of a pattern element of the lithography object; characterised in that the first material comprises ruthenium.
A composition for forming a polyurethane foam, wherein the composition comprises a hydrofluoroolefin as a foaming agent, and the composition comprises 0.2 to 6 parts by mass of at least one compound represented by Formula 1 below relative to 100 parts by mass of the composition: RO(CH 2 CH 2 O) n R (Formula 1) where R is a C1 to C3 linear or branched alkyl, and n is an integer of 1 or more. the composition comprises a hydrofluoroolefin as a foaming agent, and the composition comprises 0.2 to 6 parts by mass of at least one compound represented by Formula 1 below relative to 100 parts by mass of the composition: RO(CH 2 CH 2 O) n R (Formula 1) where R is a C1 to C3 linear or branched alkyl, and n is an integer of 1 or more.