mhurhangee/patent-ind-claim-en huggingface dataset:
Covering for fastening an acoustic sensor at a passage opening of a vehicle component , comprising: a cover region which has a flat surface on a first side and which comprises a membrane region and also an adaptation region , wherein • the flat surface of the cover region comprises a surface of the membrane region and a surface of the adaptation region , • the adaptation region forms an edge region of the cover region with an outer and an inner periphery, and • the membrane region forms a central region of the flat surface, and a holding region which • is arranged on a second side of the cover region within the inner periphery of the adaptation region and outside the membrane region , • comprises a support area on a side which is averted from the first side of the cover region , and • comprises a spring-elastic clamping region which is designed to fix the cover to a vehicle component by means of the support area and the clamping region . a cover region which has a flat surface on a first side and which comprises a membrane region and also an adaptation region , wherein • the flat surface of the cover region comprises a surface of the membrane region and a surface of the adaptation region , • the adaptation region forms an edge region of the cover region with an outer and an inner periphery, and • the membrane region forms a central region of the flat surface, and • the flat surface of the cover region comprises a surface of the membrane region and a surface of the adaptation region , • the adaptation region forms an edge region of the cover region with an outer and an inner periphery, and • the membrane region forms a central region of the flat surface, and a holding region which • is arranged on a second side of the cover region within the inner periphery of the adaptation region and outside the membrane region , • comprises a support area on a side which is averted from the first side of the cover region , and • comprises a spring-elastic clamping region which is designed to fix the cover to a vehicle component by means of the support area and the clamping region . • is arranged on a second side of the cover region within the inner periphery of the adaptation region and outside the membrane region , • comprises a support area on a side which is averted from the first side of the cover region , and • comprises a spring-elastic clamping region which is designed to fix the cover to a vehicle component by means of the support area and the clamping region .
Device for processing a rope formed in a pulper , by a conveyor , in particular a winch, for pulling the rope with its front end ahead out of the pulper and a shredder characterized in that the conveyor is arranged and designed such that the rope with its front end ahead is directly introducible into the shredder by means of the conveyor , wherein said shredder is a two-shaft shredder.
A computer-implemented method for an image processing system to analyze a bundle of boards and determine a number of boards in the bundle, the bundle of boards having a front face that is perpendicular to a long axis of boards in the bundle, the method comprising the following steps: receiving an image , a portion of the image depicting the bundle of boards , the image captured at an angle relative to the long axis of boards in the bundle; applying a homographic transformation to the image to estimate a frontal view of the front face, the frontal view being an appearance of the front face if viewed from a perspective parallel to the long axis of boards in the bundle; identifying a plurality of divisions between rows of boards in the estimate of the frontal view; identifying , for each adjacent pair of the plurality of divisions between rows, a plurality of vertical divisions; identifying a set of bounding boxes, each bounding box defined by a pair of adjacent divisions between rows and a pair of adjacent vertical divisions disposed between the pair of adjacent divisions between rows; and determining a number of boards in the bundle based on the set of bounding boxes; wherein the step of identifying the plurality of vertical divisions for a row comprises the steps: - generating a vertical projection from the row, the vertical projection comprising a plurality of peaks; and - identifying a peak of the plurality of peaks as a vertical division responsive to a size of the peak exceeding a vertical division threshold. receiving an image , a portion of the image depicting the bundle of boards , the image captured at an angle relative to the long axis of boards in the bundle; applying a homographic transformation to the image to estimate a frontal view of the front face, the frontal view being an appearance of the front face if viewed from a perspective parallel to the long axis of boards in the bundle; identifying a plurality of divisions between rows of boards in the estimate of the frontal view; identifying , for each adjacent pair of the plurality of divisions between rows, a plurality of vertical divisions; identifying a set of bounding boxes, each bounding box defined by a pair of adjacent divisions between rows and a pair of adjacent vertical divisions disposed between the pair of adjacent divisions between rows; and determining a number of boards in the bundle based on the set of bounding boxes; wherein the step of identifying the plurality of vertical divisions for a row comprises the steps: - generating a vertical projection from the row, the vertical projection comprising a plurality of peaks; and - identifying a peak of the plurality of peaks as a vertical division responsive to a size of the peak exceeding a vertical division threshold. - generating a vertical projection from the row, the vertical projection comprising a plurality of peaks; and - identifying a peak of the plurality of peaks as a vertical division responsive to a size of the peak exceeding a vertical division threshold.
Ventilating firestop , comprising a self-supporting mesh fitted with an intumescent , whereby the mesh is malleable and is formed into a tubular shape forming an inner volume , wherein said mesh is designed as a flame-stopping mesh with a mesh size that provides quenching gap, characterized in that the mesh comprises first and second intumescent applied to the mesh forming a stripe pattern of intumescent with spacing and ventilating openings between the stripes, whereby said first intumescent is on a fire load facing plane of the mesh and has a fine meshed and a rapidly expandable pattern of stripes which, during a fire attack phase, expands towards each other to close said ventilating openings and form a fire-insulating shield , and said second intumescent is located on the mesh separate from the first intumescent , and has a coarse meshed pattern of stripes expandable slower than those of the first intumescent which, after formation of the fire-insulating shield , are expandable to subsequent fill up a remaining volume of the firestop . a self-supporting mesh fitted with an intumescent , whereby the mesh is malleable and is formed into a tubular shape forming an inner volume , wherein said mesh is designed as a flame-stopping mesh with a mesh size that provides quenching gap, characterized in that the mesh comprises first and second intumescent applied to the mesh forming a stripe pattern of intumescent with spacing and ventilating openings between the stripes, whereby said first intumescent is on a fire load facing plane of the mesh and has a fine meshed and a rapidly expandable pattern of stripes which, during a fire attack phase, expands towards each other to close said ventilating openings and form a fire-insulating shield , and said second intumescent is located on the mesh separate from the first intumescent , and has a coarse meshed pattern of stripes expandable slower than those of the first intumescent which, after formation of the fire-insulating shield , are expandable to subsequent fill up a remaining volume of the firestop .
A drawer pull-out guide , comprising: - a first guide rail and at least one second guide rail displaceably supported relative to one another, - at least one supporting element arranged on the first guide rail , the at least one supporting element being configured to be supported, at least temporarily, on the second guide rail , - wherein a position of the at least one supporting element relative to the second guide rail can be adjusted by an adjustment device , and, after adjustment has been made, can be fixed relative to the first guide rail , wherein the at least one supporting element can be adjusted in a height direction (H), seen in the mounted position of the drawer pull-out guide , by the adjustment device , characterized in that the guide rails are configured to be displaceable relative to one another between a closed position and an open position, wherein the at least one supporting element , at least in the closed position, has a play (X) in relation to the second guide rail and the play (X) can be adjusted by the adjustment device . - a first guide rail and at least one second guide rail displaceably supported relative to one another, - at least one supporting element arranged on the first guide rail , the at least one supporting element being configured to be supported, at least temporarily, on the second guide rail , - wherein a position of the at least one supporting element relative to the second guide rail can be adjusted by an adjustment device , and, after adjustment has been made, can be fixed relative to the first guide rail , wherein the at least one supporting element can be adjusted in a height direction (H), seen in the mounted position of the drawer pull-out guide , by the adjustment device ,
A method in a wireless communication system for changing an ongoing general group call to an emergency group call, the system including a session initiation protocol, SIP, core , a policy and charging rule function, PCRF, , a mission critical push to talk, MCPTT, server , and a plurality of MCPTT clients (1405; 1425), the method comprising: performing a general group call in the system, the group call including a first MCPTT client and a second MCPTT client ; receiving , by the MCPTT server , from the first MCPTT client which belongs to an MCPTT group, a first message associated with an MCPTT emergency alert, the first message including information on a physical location of the first terminal ; transmitting , by the MCPTT server , to the first MCPTT client , a second message to confirm the MCPTT emergency alert; and transmitting , by the MCPTT server , to the second MCPTT client which belongs to the MCPTT group determined according to an MCPTT group identity, a third message associated with the MCPTT emergency alert, the third message including the received information on the physical location of the first MCPTT client , transmitting , by the SIP core , a bearer request to the PCRF , based on a high priority; allocating a high priority bearer by the PCRF based on the request; and changing the ongoing general group call to an emergency group call, the emergency group call being performed based on the allocated high priority bearer. performing a general group call in the system, the group call including a first MCPTT client and a second MCPTT client ; receiving , by the MCPTT server , from the first MCPTT client which belongs to an MCPTT group, a first message associated with an MCPTT emergency alert, the first message including information on a physical location of the first terminal ; transmitting , by the MCPTT server , to the first MCPTT client , a second message to confirm the MCPTT emergency alert; and transmitting , by the MCPTT server , to the second MCPTT client which belongs to the MCPTT group determined according to an MCPTT group identity, a third message associated with the MCPTT emergency alert, the third message including the received information on the physical location of the first MCPTT client , transmitting , by the SIP core , a bearer request to the PCRF , based on a high priority; allocating a high priority bearer by the PCRF based on the request; and changing the ongoing general group call to an emergency group call, the emergency group call being performed based on the allocated high priority bearer.
A method for monitoring an electric power grid, the method comprising: detecting one or more physical stimuli in the electric power grid; obtaining, while the one or more physical stimuli is effective, a first set of measurement data, comprising one or more electrical parameters, associated with a first location of the electric power grid; computing a fault level of the first location of the electric power grid on the basis of the first set of measurement data; mapping the fault level to a fault level of a second location of the electric power grid on the basis of the first set of measurement data and correlation between electrical characteristics of the first location and the second location. detecting one or more physical stimuli in the electric power grid; obtaining, while the one or more physical stimuli is effective, a first set of measurement data, comprising one or more electrical parameters, associated with a first location of the electric power grid; computing a fault level of the first location of the electric power grid on the basis of the first set of measurement data; mapping the fault level to a fault level of a second location of the electric power grid on the basis of the first set of measurement data and correlation between electrical characteristics of the first location and the second location.
An image display unit having a structure in which a plurality of light emitting diodes are mounted on a wiring board in such a manner as to be arrayed on a board principal plane, wherein first and second wiring layers are formed in specific wiring patterns on the board principal plane, wherein each light emitting diode comprises: an under growth layer , a crystal growth layer on said under growth layer, said crystal growth layer having a hexagonal pyramid shape with side surfaces inclined with respect to said under growth layer , a first conductive layer, an active layer , a second conductive layer and a first electrode formed on said crystal growth layer , and a second electrode formed on said under growth layer adjacent said crystal growth layer , and wherein each light emitting diode is mounted on said wiring board with the under growth layer uppermost and the crystal growth layer forming an inverted hexagonal pyramid between said under growth layer and the wiring board, the crystal growth layer being provided on said second wiring layer via said first electrode , the top surface of the under growth layer functioning as a light extraction plane and a bump connecting the second electrode of the light emitting device to the first wiring layer . an under growth layer , a crystal growth layer on said under growth layer, said crystal growth layer having a hexagonal pyramid shape with side surfaces inclined with respect to said under growth layer , a first conductive layer, an active layer , a second conductive layer and a first electrode formed on said crystal growth layer , and a second electrode formed on said under growth layer adjacent said crystal growth layer ,
An optical connector comprising a plurality of first ferrules housed in a first housing and a plurality of second ferrules housed in a second housing , wherein the plurality of first ferrules and the plurality of second ferrules are suitable to be butt-coupled by mating the first housing and the second housing, wherein: the first housing includes a plurality of first inner housings and a first outer housing , the plurality of first inner housings each housing at least one first ferrule of the plurality of first ferrules , the first outer housing being releasable from the plurality of first inner housings , the plurality of first inner housings and the second housing are suitable to be mated in stages, such that when each of the plurality of first inner housings and the second housing are mated, a first inner housing to be mated of the first inner housings is released from the first outer housing .
Museum showcase , comprising fixed walls , at least one openable wall , a magnetic sealing gasket between the openable wall and the fixed walls , wherein the gasket is housed in a seat formed in part in the fixed walls and in part in the openable wall , open towards the interior of the showcase , wherein the fixed walls and the openable wall of the showcase have an inner face (55; 65), an outer face (56; 66) and an edge face (57; 67) inclined at 45° with respect to the outer face (56; 66), wherein the seat of the gasket comprises two grooves (50; 70), characterized in that the fixed walls and the openable wall have a layered structure and each comprise at least two coupled glass sheets (48; 49), and wherein a first groove of the two grooves is formed in depth in the inner sheet of the fixed walls by a middle area of the edge face and along the inner face of the fixed walls .
1-[4-(4-{3-[ -2-methyl-pyrrolidin-1-yl]-propoxy}-phenoxy)-piperidin-1-yl]-ethanone salts characterized in that based on the dynamic vapor sorption (DVS) analysis at 25 °C a.) showing deliquescence only above 70% relative humidity, i.e. the critical relative humidity (CRH) value, determined in the range of 10 to 90% RH of the sorption curve, indicating of the onset of deliquescence, is at least 70%; or b.) not showing deliquescence, i.e. characterized by a value of 0.5 > Δm/ΔRH in the range of 10 to 90% RH of the sorption curve, wherein Δm = m 2 -m 1 , the difference of the quasi-equilibrium relative mass changes m 2 and m 1 corresponding to the RH 2 and RH 1 relative humidity values and wherein Δ RH = RH 2 − RH 1 = 10 , wherein the salts are selected from the group consisting of salts formed with sulfuric acid, oxalic acid and citric acid or the dihydrobromide salt. a.) showing deliquescence only above 70% relative humidity, i.e. the critical relative humidity (CRH) value, determined in the range of 10 to 90% RH of the sorption curve, indicating of the onset of deliquescence, is at least 70%; or b.) not showing deliquescence, i.e. characterized by a value of 0.5 > Δm/ΔRH in the range of 10 to 90% RH of the sorption curve, wherein Δm = m 2 -m 1 , the difference of the quasi-equilibrium relative mass changes m 2 and m 1 corresponding to the RH 2 and RH 1 relative humidity values and wherein Δ RH = RH 2 − RH 1 = 10 ,
A soft robot having an integrated electrical component, comprising: an expandable or collapsible body , the body comprising an inlet that is configured to communicate with a fluid source; and a flexible strain limited layer secured to a portion of the expandable or collapsible body , wherein the strain limited layer includes at least one electrical component, characterized in that the electrical component comprises at least one of (a) a lithographically defined wire disposed on the strain limiting layer, (b) a serpentine conductive wire, or (c) a conductive trace conformally secured to a buckled strain limited layer. an expandable or collapsible body , the body comprising an inlet that is configured to communicate with a fluid source; and a flexible strain limited layer secured to a portion of the expandable or collapsible body , wherein the strain limited layer includes at least one electrical component, characterized in that the electrical component comprises at least one of (a) a lithographically defined wire disposed on the strain limiting layer, (b) a serpentine conductive wire, or (c) a conductive trace conformally secured to a buckled strain limited layer.
A method for manufacturing a multifunctional electromagnetic waveguide from a tapered optical fiber , comprising the following steps: mounting the optical fiber on a handling apparatus (RT) which may be actuated to translationally move the optical fiber along at least one translation axis (x, y, z) and rotate the optical fiber about a longitudinal axis (y) thereof, submerging a tapered section of the optical fiber in a photoresist and subjecting the photoresist to two-photon polymerization to form a first mask defining the shape of at least one optical window , subjecting the masked tapered section to a plurality of directional flows (DF) of metal material to form a first metal layer around the tapered section , leaving at least one lateral edge of the first mask uncovered, removing the first mask by chemical etching in such a way to uncover said at least one optical window , depositing a transparent, conformal first layer around the tapered section , said transparent, conformal first layer being made of insulating material, depositing a second metal layer around the insulating layer , submerging the tapered section in the photoresist and subjecting the photoresist to two-photon polymerization to form, at the tapered section , a second mask defining the shape of at least one conductive track (11; 11a, 11b, 11c), removing, by chemical etching, the second metal layer where the second metal layer is not covered by the second mask , and removing the second mask by chemical etching in such a way to uncover said at least one conductive track. mounting the optical fiber on a handling apparatus (RT) which may be actuated to translationally move the optical fiber along at least one translation axis (x, y, z) and rotate the optical fiber about a longitudinal axis (y) thereof, submerging a tapered section of the optical fiber in a photoresist and subjecting the photoresist to two-photon polymerization to form a first mask defining the shape of at least one optical window , subjecting the masked tapered section to a plurality of directional flows (DF) of metal material to form a first metal layer around the tapered section , leaving at least one lateral edge of the first mask uncovered, removing the first mask by chemical etching in such a way to uncover said at least one optical window , depositing a transparent, conformal first layer around the tapered section , said transparent, conformal first layer being made of insulating material, depositing a second metal layer around the insulating layer , submerging the tapered section in the photoresist and subjecting the photoresist to two-photon polymerization to form, at the tapered section , a second mask defining the shape of at least one conductive track (11; 11a, 11b, 11c), removing, by chemical etching, the second metal layer where the second metal layer is not covered by the second mask , and removing the second mask by chemical etching in such a way to uncover said at least one conductive track.
A radiotherapy treatment controller comprising one or more processors and a storage medium containing instructions that, when executed, cause the one or more processors to: calculate from an initial radiotherapy treatment plan for a patient, an equivalent uniform dose, EUD, for each organ in a target irradiation area in the patient; calculate an effective dose of radiation to circulating immune cells in blood, EDIC, for the patient by summing all EUDs for all organs in the target irradiation area; and generate a new patient-specific radiotherapy treatment plan for the patient, wherein the new patient-specific radiotherapy treatment plan decreases a calculated EDIC relative to the initial radiotherapy treatment plan. calculate from an initial radiotherapy treatment plan for a patient, an equivalent uniform dose, EUD, for each organ in a target irradiation area in the patient; calculate an effective dose of radiation to circulating immune cells in blood, EDIC, for the patient by summing all EUDs for all organs in the target irradiation area; and generate a new patient-specific radiotherapy treatment plan for the patient, wherein the new patient-specific radiotherapy treatment plan decreases a calculated EDIC relative to the initial radiotherapy treatment plan.