mhurhangee/ep-ind-claims huggingface dataset:
Method for comparing a reception beam incident on a laser receiver (12; 91) with a rotating laser beam emitted by a rotating laser in a rotation direction about an axis of rotation, wherein the laser receiver comprises an evaluation unit and at least one detection field (25; 92, 93) with a first measurement region (53; 94) and a second measurement region (54; 95), characterized by the method steps: • when the reception beam is incident on the at least one detection field (25; 92, 93) of the laser receiver (12; 91), a first reception signal (61; 71; 81) representing the time profile of the incident reception beam in the first measurement region (53; 94) and a second reception signal (62; 72; 82) representing the time profile of the incident reception beam in the second measurement region (54; 95) are determined by the evaluation unit, • if the time profile of the first reception signal and the time profile of the second reception signal substantially correspond to one another, the reception beam is classified as an external beam by the evaluation unit, or • if the time profile of the first reception signal (61; 71) differs from the time profile of the second reception signal (62; 72), a movement direction (63; 73) of the reception beam relative to the laser receiver (12; 91) is ascertained by the evaluation unit from the first and second reception signals (61, 62; 71, 72; 81, 82) and the movement direction (63; 73) of the reception beam is compared with the rotation direction of the rotating laser beam by the evaluation unit. • when the reception beam is incident on the at least one detection field (25; 92, 93) of the laser receiver (12; 91), a first reception signal (61; 71; 81) representing the time profile of the incident reception beam in the first measurement region (53; 94) and a second reception signal (62; 72; 82) representing the time profile of the incident reception beam in the second measurement region (54; 95) are determined by the evaluation unit, • if the time profile of the first reception signal and the time profile of the second reception signal substantially correspond to one another, the reception beam is classified as an external beam by the evaluation unit, or • if the time profile of the first reception signal (61; 71) differs from the time profile of the second reception signal (62; 72), a movement direction (63; 73) of the reception beam relative to the laser receiver (12; 91) is ascertained by the evaluation unit from the first and second reception signals (61, 62; 71, 72; 81, 82) and the movement direction (63; 73) of the reception beam is compared with the rotation direction of the rotating laser beam by the evaluation unit.
A brachytherapy applicator comprising: an interstitial tube, wherein the interstitial tube includes: a body having a proximal end and a distal end; characterized in that the interstitial tube further includes: a central conduit extending from the distal end of the body, wherein the central conduit includes a proximal opening, a distal opening, and a channel extending from the proximal opening to the distal opening, and wherein the proximal opening is offset from an axis of the body; wherein the proximal opening is configured to fluidly connect to a brachytherapy guide tube, and wherein the channel of the central conduit is dimensioned to receive at least one of a needle or a catheter therethrough. an interstitial tube, wherein the interstitial tube includes: a body having a proximal end and a distal end; characterized in that the interstitial tube further includes: a central conduit extending from the distal end of the body, a body having a proximal end and a distal end; characterized in that the interstitial tube further includes: a central conduit extending from the distal end of the body, wherein the central conduit includes a proximal opening, a distal opening, and a channel extending from the proximal opening to the distal opening, and wherein the proximal opening is offset from an axis of the body; wherein the proximal opening is configured to fluidly connect to a brachytherapy guide tube, and wherein the channel of the central conduit is dimensioned to receive at least one of a needle or a catheter therethrough.
A composition containing a piperine derivative represented by Chemical Formula 2 below as an active ingredient for use in preventing, treating or ameliorating a metabolic disease selected from the group consisting of obesity, diabetes, dyslipidemia, fatty liver, and insulin resistance syndrome: wherein, in Chemical Formula 2, R 1 -R 5 are each independently hydrogen, C 1 -C 5 alkyl, C 1 -C 5 alkoxy, or halogen; R 3 and R 4, when being linked to each other to form a ring structure, form a heterocyclic structure including two oxygen atoms as heteroatoms; R 4 and R 5, when being linked to each other to form a ring structure, form a heterocyclic structure including two oxygen atoms as heteroatoms; R 6 and R 7 are each independently hydrogen or C 1 -C 5 alkyl; and R 6 and R 7, when being linked to each other to form a ring structure, form a heterocyclic structure including two nitrogen atoms as heteroatoms.
A spring element for an innerspring mattress or for an undermattress comprising a base, a cover plate and a spring body arranged between the base and the cover plate, wherein the cover plate comprises two elongate parts (2 1, 2 2) which are arranged next to one another in parallel with a separation line and each part (2 1, 2 2) is supported via a separate individual spring body (3 1, 3 2) with respect to the base; and wherein each individual spring body (3 1, 3 2) is configured with two spring arms which are angled at least once between the base and the associated cover plate part (2 1, 2 2).
An apparatus comprising: a first composite layer; a second composite layer connected to the first composite layer, wherein the first composite layer and the second composite layer form a structure comprising a fuel tank in an aircraft and wherein the second composite layer comprises a resin treated with a conductive material configured to dissipate an electric charge on a surface of the structure and limit a flow of an electrical current in the second composite layer in which the electrical current is caused by an electromagnetic event; and a primer layer, located between the second composite layer and an interior of the structure, the primer layer configured to aid in dissipating the electric charge. a first composite layer; a second composite layer connected to the first composite layer, wherein the first composite layer and the second composite layer form a structure comprising a fuel tank in an aircraft and wherein the second composite layer comprises a resin treated with a conductive material configured to dissipate an electric charge on a surface of the structure and limit a flow of an electrical current in the second composite layer in which the electrical current is caused by an electromagnetic event; and a primer layer, located between the second composite layer and an interior of the structure, the primer layer configured to aid in dissipating the electric charge.
A method for operating an access point, the method comprising: receiving, by an access point, uplink data from a first station which is referred to as a traffic indication map, TIM, unneeded station, wherein a TIM unneeded station does not detect and decode a beacon comprising a TIM, and wherein the uplink data serves as an implicit request for downlink data; determining, by the access point, if the downlink data intended for the first station is available at the access point; and transmitting, by the access point, the downlink data intended for the first station to the first station in response to the uplink data; wherein the method further comprises: transmitting a message to the first station indicating the first station to switch to operating in a TIM mode, wherein the station detects and decodes the beacon as well as the TIM. receiving, by an access point, uplink data from a first station which is referred to as a traffic indication map, TIM, unneeded station, wherein a TIM unneeded station does not detect and decode a beacon comprising a TIM, and wherein the uplink data serves as an implicit request for downlink data; determining, by the access point, if the downlink data intended for the first station is available at the access point; and transmitting, by the access point, the downlink data intended for the first station to the first station in response to the uplink data; wherein the method further comprises: transmitting a message to the first station indicating the first station to switch to operating in a TIM mode, wherein the station detects and decodes the beacon as well as the TIM.
A computer-implemented method for graphics processing, comprising: determining a motion estimation priority for one or more regions in a frame, wherein each of the one or more regions includes at least one group of pixels, wherein the motion estimation priority for a region is based on the location of the region relative to the center of the frame or the location of the region relative to a focal point of a user's eye viewing the frame; selecting parameters for a motion estimation procedure for each group of pixels based on the motion estimation priority of the region including the group of pixels, the selected parameters adjusting the quality of motion estimation between the one or more regions; performing, for each of the at least one group of pixels, the motion estimation procedure using the respective selected parameters to generate a motion vector; extrapolating a new frame from the frame based on the motion vectors for each group of pixels; and using the extrapolated frame instead of rendering a respective frame to lower the rendering frame rate. determining a motion estimation priority for one or more regions in a frame, wherein each of the one or more regions includes at least one group of pixels, wherein the motion estimation priority for a region is based on the location of the region relative to the center of the frame or the location of the region relative to a focal point of a user's eye viewing the frame; selecting parameters for a motion estimation procedure for each group of pixels based on the motion estimation priority of the region including the group of pixels, the selected parameters adjusting the quality of motion estimation between the one or more regions; performing, for each of the at least one group of pixels, the motion estimation procedure using the respective selected parameters to generate a motion vector; extrapolating a new frame from the frame based on the motion vectors for each group of pixels; and using the extrapolated frame instead of rendering a respective frame to lower the rendering frame rate.
A protection device for protecting a seal arranged in a sealed connector housing from damage, while leading through an elongated blade along a longitudinal axis, wherein the elongated blade protrudes from an electrical terminal, along the longitudinal axis, wherein the protective device comprises a tubular body made of plastics and arranged along the longitudinal axis, wherein a first end of the tubular body is smoothed by removing all sharp edges and a second end comprises an opening adapted to receive the elongated blade, whereby the tubular body is adapted to cover at least a tip of the elongated blade, when the elongated blade is received in the tubular body; characterized in that the first end of the tubular body comprises a straight wall arranged perpendicular to the longitudinal axis, defining the first end, wherein said straight wall closes the tubular body on the first end and wherein the outer surface of the tubular body and the straight wall meet in an angle of about 90°.
A pneumatic tire comprising: a carcass that comprises at least one carcass ply of cords extending between bead cores of bead portions through a tread portion and sidewall portions, wherein both ends of the carcass ply are turned up around the respective bead cores; and a pair of bead apex rubbers each extending radially outwardly to a radially outer end (Po) from a radially inner surface that is connected to the respective bead cores, wherein in a tire meridian cross-section under a standard inflated state in which the tire is mounted on a standard rim and inflated to a standard pressure, in each of the bead portions, an angle (θ) of a bead reference line that passes an axially center point of the radially inner surface of the bead apex rubber and the radially outer end (Po) of the bead apex rubber is in a range of from 28 to 35 degrees with respect to a tire radial line, characterized in that in a tire meridian cross-section under the standard inflated state, in each of the bead portions, a ratio h/H of a carcass maximum-width height (h [mm]) from a bead base line to a carcass maximum height (H [mm]) from the bead base line satisfies the following formula: − 3.0 × 10 − 4 × W + 0.5863 < = h / H < = − 4.0 × 10 − 4 × W + 0.6520 where "W" represents a tire nominal width (unit: mm). a carcass that comprises at least one carcass ply of cords extending between bead cores of bead portions through a tread portion and sidewall portions, wherein both ends of the carcass ply are turned up around the respective bead cores; and a pair of bead apex rubbers each extending radially outwardly to a radially outer end (Po) from a radially inner surface that is connected to the respective bead cores, wherein in a tire meridian cross-section under a standard inflated state in which the tire is mounted on a standard rim and inflated to a standard pressure, in each of the bead portions, an angle (θ) of a bead reference line that passes an axially center point of the radially inner surface of the bead apex rubber and the radially outer end (Po) of the bead apex rubber is in a range of from 28 to 35 degrees with respect to a tire radial line, characterized in that in a tire meridian cross-section under the standard inflated state, in each of the bead portions, a ratio h/H of a carcass maximum-width height (h [mm]) from a bead base line to a carcass maximum height (H [mm]) from the bead base line satisfies the following formula: − 3.0 × 10 − 4 × W + 0.5863 < = h / H < = − 4.0 × 10 − 4 × W + 0.6520 where "W" represents a tire nominal width (unit: mm).
A shoe sole comprising a shock absorber comprising a three-dimensional structure composed of a unit structure repeatedly, regularly and continuously arranged in at least one direction, the unit structure being a three-dimensional shape formed by a wall having an external shape defined by a pair of parallel planes or curved surfaces, wherein the three-dimensional structure is a triply periodic minimal surface with a thickness added thereto; when such unit structures each occupy a hexahedral space representing a unit space and defined by mutually orthogonal three sides having a first side extending in an axial direction in which the shock absorber exhibits a shock absorbing function as the shock absorber receives a load and second and third sides each extending from one end of the first side in a direction orthogonal to the axial direction, and the first side has a length L1 and a longer one of the second and third sides has a length L2, the three-dimensional structure including as the unit structure a unit structure satisfying 1.1 ≤ L1/L2 ≤ 4.0, and wherein the shock absorber is disposed such that the axial direction is orthogonal to a tread. wherein the three-dimensional structure is a triply periodic minimal surface with a thickness added thereto; when such unit structures each occupy a hexahedral space representing a unit space and defined by mutually orthogonal three sides having a first side extending in an axial direction in which the shock absorber exhibits a shock absorbing function as the shock absorber receives a load and second and third sides each extending from one end of the first side in a direction orthogonal to the axial direction, and the first side has a length L1 and a longer one of the second and third sides has a length L2, the three-dimensional structure including as the unit structure a unit structure satisfying 1.1 ≤ L1/L2 ≤ 4.0, and wherein the shock absorber is disposed such that the axial direction is orthogonal to a tread.
A temperature-compensated timepiece component having at least a portion fabricated from a glass consisting of, by weight percent from 65% to 99% of a silicon oxide; from 0.01 % to 1.5% of an aluminum oxide; at least one first alkali metal or alkaline earth metal; and up to 0.5% of an additive comprising at least one second alkali metal or alkaline earth metal, different from the first alkali metal or alkaline earth metal.
A method for detecting security threats during vehicle operations utilizing an on-board monitoring system of a vehicle, comprising: retrieving, by the on-board monitoring system, a route plan for a route of the vehicle from a database (230, 235, 240) of the vehicle; identifying, by the on-board monitoring system, either a portion of the route or a portion of the route plan as a security threat based on an analysis of the route plan by: transmitting a validation request to a validation service via a wireless communication interface, the validation request including the portion of the route or the portion of the route plan and an indication of what caused the portion of the route or the portion of the route plan to be identified as a security threat; receiving a response from the validation service at the on-board monitoring system via the wireless communication interface; and identifying the portion of the route or the portion of the route plan as the security threat based on the response from the validation service; and in response to identifying the portion of the route or the portion of the route plan as the security threat, transmitting, by the on-board monitoring system, an alert of the security threat. retrieving, by the on-board monitoring system, a route plan for a route of the vehicle from a database (230, 235, 240) of the vehicle; identifying, by the on-board monitoring system, either a portion of the route or a portion of the route plan as a security threat based on an analysis of the route plan by: transmitting a validation request to a validation service via a wireless communication interface, the validation request including the portion of the route or the portion of the route plan and an indication of what caused the portion of the route or the portion of the route plan to be identified as a security threat; receiving a response from the validation service at the on-board monitoring system via the wireless communication interface; and identifying the portion of the route or the portion of the route plan as the security threat based on the response from the validation service; and transmitting a validation request to a validation service via a wireless communication interface, the validation request including the portion of the route or the portion of the route plan and an indication of what caused the portion of the route or the portion of the route plan to be identified as a security threat; receiving a response from the validation service at the on-board monitoring system via the wireless communication interface; and identifying the portion of the route or the portion of the route plan as the security threat based on the response from the validation service; and in response to identifying the portion of the route or the portion of the route plan as the security threat, transmitting, by the on-board monitoring system, an alert of the security threat.
A method for detecting precipitates in an alloy by analysing a two-dimensional image representing a sample formed with this alloy, the image being formed by a set of pixels arranged in rows and columns, each pixel being associated with a grey level, characterised in that the method comprises: ▪ for each pixel row, searching for luminous peaks, each peak being associated with a potential event, ▪ for each luminous peak: ∘ applying an approximation function, the approximation function approximating the grey levels of pixels of the row considered around said luminous peak, ∘ determining a potential event length (L ep), the potential event length being defined between two characteristic points of the approximation function, and ∘ comparing the potential event length (L ep) to a predetermined minimum length (L min), the potential event being considered as a precipitate of the alloy if its length is greater than or equal to the predetermined minimum length, and being ignored otherwise. ▪ for each pixel row, searching for luminous peaks, each peak being associated with a potential event, ▪ for each luminous peak: ∘ applying an approximation function, the approximation function approximating the grey levels of pixels of the row considered around said luminous peak, ∘ determining a potential event length (L ep), the potential event length being defined between two characteristic points of the approximation function, and ∘ comparing the potential event length (L ep) to a predetermined minimum length (L min), the potential event being considered as a precipitate of the alloy if its length is greater than or equal to the predetermined minimum length, and being ignored otherwise. ∘ applying an approximation function, the approximation function approximating the grey levels of pixels of the row considered around said luminous peak, ∘ determining a potential event length (L ep), the potential event length being defined between two characteristic points of the approximation function, and ∘ comparing the potential event length (L ep) to a predetermined minimum length (L min), the potential event being considered as a precipitate of the alloy if its length is greater than or equal to the predetermined minimum length, and being ignored otherwise.
A cable comprising a first conductor, a first insulator layer and a first plurality of wires, wherein the first conductor, the first insulator and the first plurality of wires extend along an longitudinal axis of the cable, wherein the first insulator layer is axially external to the conductor, and the first plurality of wires is axially external to the first insulator, and wherein the first insulator layer comprises a first fluoropolymer, wherein the first plurality of wires consists of an alloy comprising nickel, chromium and optionally up to 20% (w/w) additives or impurities.
A ring-shaped biometric signal sensing device comprising: a first electrode provided in a ring shape, formed of a conductor, and configured to be worn on a finger of a user to be in contact with the finger; a second electrode assembled on an outside of the first electrode, formed of a conductor, and configured to be in contact with a body of the user; an insulating unit molded with the first electrode through insert injection and maintaining insulation between the first electrode and the second electrode; and a controller disposed in the insulating unit, including a biometric sensor, and configured to collect a biometric signal when the second electrode comes into contact with the body of the user; wherein the insulating unit is formed of a flexible material; characterized in that a portion of the insulating unit is placed through the first electrode to be in close contact with the finger of the user a first electrode provided in a ring shape, formed of a conductor, and configured to be worn on a finger of a user to be in contact with the finger; a second electrode assembled on an outside of the first electrode, formed of a conductor, and configured to be in contact with a body of the user; an insulating unit molded with the first electrode through insert injection and maintaining insulation between the first electrode and the second electrode; and a controller disposed in the insulating unit, including a biometric sensor, and configured to collect a biometric signal when the second electrode comes into contact with the body of the user; wherein the insulating unit is formed of a flexible material; characterized in that a portion of the insulating unit is placed through the first electrode to be in close contact with the finger of the user