mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus , comprising; an extruding device configured to selectively dispense a dielectric material through an orifice ; a wire feed device configured to selectively feed a conductive wire through the orifice ; a cutting device configured to selectively sever the conductive wire after it is fed through the orifice ; and an electronic controller configured to control the extruding device , the wire feed device , and the cutting device , wherein the electronic controller commands the extruding device to selectively dispense the dielectric material through the orifice , the wire feed device to selectively feed the conductive wire through the orifice , and the cutting device to selectively sever the conductive wire , thereby forming a dielectric substrate encasing a plurality of conductive wires , characterized in that the electronic controller is further configured to command the extruding device to form an opening defined in the substrate in which the plurality of electrically conductive wires is exposed and a fiducial mark that is usable by an automated assembly robot to determine the location of the opening, wherein a position tolerance of the opening relative to the fiducial mark is 1 millimeter or less. an extruding device configured to selectively dispense a dielectric material through an orifice ; a wire feed device configured to selectively feed a conductive wire through the orifice ; a cutting device configured to selectively sever the conductive wire after it is fed through the orifice ; and an electronic controller configured to control the extruding device , the wire feed device , and the cutting device , wherein the electronic controller commands the extruding device to selectively dispense the dielectric material through the orifice , the wire feed device to selectively feed the conductive wire through the orifice , and the cutting device to selectively sever the conductive wire , thereby forming a dielectric substrate encasing a plurality of conductive wires , characterized in that the electronic controller is further configured to command the extruding device to form an opening defined in the substrate in which the plurality of electrically conductive wires is exposed and a fiducial mark that is usable by an automated assembly robot to determine the location of the opening, wherein a position tolerance of the opening relative to the fiducial mark is 1 millimeter or less.
Capillary-pumped heat pipe with re-entrant grooves, extending in a first longitudinal direction (X), comprising a sealed enclosure extending between a first longitudinal end , intended to be heated by a hot source SC to form, within the enclosure, an evaporator, and a second longitudinal end intended to be cooled by a cold source SF to form, within the enclosure, a condenser, the sealed enclosure delimiting an adiabatic zone between the evaporator and the condenser, the sealed enclosure comprising a stack of plates in a second direction (Z), orthogonal to the first direction (X), including two closing plates and at least a number n of modules on top of each other, where n is an integer greater than or equal to 1, each module comprising at least one intermediate plate between the closing plates, the intermediate plate or plates comprising at least one first intermediate plate having at least one window, the edges of which partially delimit at least one vapour channel extending in the first direction (X) between the evaporator and the condenser, in which the vapour is intended to flow, and, on at least one lateral side of the window in a third direction (Y) orthogonal to the first direction (X) and the second direction (Z), at least one structure , the edges of which partially delimit at least one liquid channel in the evaporator and the condenser, the heat pipe comprising, at least in the evaporator, at least one exchange zone that defines a liquid-vapour interface and is delimited between the at least one intermediate plate and at least one other intermediate plate or a closing plate, connecting the vapour channel(s) and the liquid channel(s), each exchange zone comprising at least one open connecting channel , characterized in that each of at least some of the open connecting channels of the evaporator accommodate an insert made of porous material which extends at least partially into the liquid channel(s) and into the vapour channel(s), the porous insert being designed to bring, by capillary action, the liquid from the liquid channel(s) to the vapour channel(s), in which the liquid evaporates.
A core forming device comprising: a kneading tank in which raw materials of a core are kneaded; a raw material supply unit that is configured to supply the raw materials to the kneading tank ; a mold that accommodates a kneaded material (S2) including the raw materials kneaded in the kneading tank , and that forms the core; a piston that is configured to inject the kneaded material (S2) in the kneading tank into the mold ; a position sensor that is configured to detect a position of the piston ; and a control unit that is configured to control a supply amount of the raw materials supplied to the kneading tank from the raw material supply unit , wherein the control unit determines the supply amount of the raw materials based on a difference between the position of the piston detected by the position sensor upon completion of injection and a reference position of the piston determined in advance, and the control unit calculates an amount of the raw materials corresponding to the kneaded material (S2) injected into the mold based on the difference between the position of the piston detected by the position sensor upon completion of injection and the reference position of the piston determined in advance, and determines the supply amount of the raw materials. a kneading tank in which raw materials of a core are kneaded; a raw material supply unit that is configured to supply the raw materials to the kneading tank ; a mold that accommodates a kneaded material (S2) including the raw materials kneaded in the kneading tank , and that forms the core; a piston that is configured to inject the kneaded material (S2) in the kneading tank into the mold ; a position sensor that is configured to detect a position of the piston ; and a control unit that is configured to control a supply amount of the raw materials supplied to the kneading tank from the raw material supply unit , wherein the control unit determines the supply amount of the raw materials based on a difference between the position of the piston detected by the position sensor upon completion of injection and a reference position of the piston determined in advance, and the control unit calculates an amount of the raw materials corresponding to the kneaded material (S2) injected into the mold based on the difference between the position of the piston detected by the position sensor upon completion of injection and the reference position of the piston determined in advance, and determines the supply amount of the raw materials.
An infrared, IR, imaging system comprising: a housing ; an optical window disposed on the housing; an optical detector system disposed within the housing; a plurality of spatially and spectrally distinct optical channels each comprising an imaging lens for imaging IR radiation arriving from objects onto the optical detector system , each imaging lens having a respective focal length, wherein a first optical channel out of the plurality of optical channels is in focus at the optical window, and wherein the imaging system comprises a filter array for spectral distinction of the optical channels, and wherein a second optical channel out of the plurality of optical channels is in focus at the optical window, wherein the respective focal length of imaging lens in optical channels of the plurality of optical channels other than the first and second optical channels is longer than the focal lengths of the imaging lenses of the first and second optical channels; and further comprising: a processing unit configured to compare image data from the first and second optical channels to detect obscuration that may degrade operation of the infrared imaging system . a housing ; an optical window disposed on the housing; an optical detector system disposed within the housing; a plurality of spatially and spectrally distinct optical channels each comprising an imaging lens for imaging IR radiation arriving from objects onto the optical detector system , each imaging lens having a respective focal length, wherein a first optical channel out of the plurality of optical channels is in focus at the optical window, and wherein the imaging system comprises a filter array for spectral distinction of the optical channels, and wherein a second optical channel out of the plurality of optical channels is in focus at the optical window, wherein the respective focal length of imaging lens in optical channels of the plurality of optical channels other than the first and second optical channels is longer than the focal lengths of the imaging lenses of the first and second optical channels; and further comprising: a processing unit configured to compare image data from the first and second optical channels to detect obscuration that may degrade operation of the infrared imaging system .
A transfer guide for an orthopaedic procedure comprising: a guide body configured to be coupled to an implant ; and one or more transfer members extending from the guide body , the one or more transfer members configured to contact tissue, wherein the one or more transfer members include a plurality of transfer members circumferentially distributed about a periphery of the guide body, characterised in that each of the transfer members includes a first portion extending radially outward from the guide body and a second portion extending axially from the first portion , and the second portion is configured to contact tissue, wherein each of the transfer members is moveable axially relative to the guide body . a guide body configured to be coupled to an implant ; and one or more transfer members extending from the guide body , the one or more transfer members configured to contact tissue, wherein the one or more transfer members include a plurality of transfer members circumferentially distributed about a periphery of the guide body, characterised in that each of the transfer members includes a first portion extending radially outward from the guide body and a second portion extending axially from the first portion , and the second portion is configured to contact tissue, wherein each of the transfer members is moveable axially relative to the guide body .
Method for checking the presence and/or legibility of product information or package contents information of a package, comprising the steps of: a) applying the product information to the product or package contents information to the package , using a printing device ; b) applying a separate identification means formed in addition to the product information or package contents information, using the same printing device ; and c) detecting the product or package , by means of a reading device , in order to determine whether the identification means is present and is legible, wherein the identification means comprises a barcode, wherein individual bars of the barcode are aligned parallel to an imprint direction and the reading device comprises an optical reading device, wherein the imprint direction is predetermined by a movement of the product or package contents information on a conveyor belt. a) applying the product information to the product or package contents information to the package , using a printing device ; b) applying a separate identification means formed in addition to the product information or package contents information, using the same printing device ; and c) detecting the product or package , by means of a reading device , in order to determine whether the identification means is present and is legible, wherein the identification means comprises a barcode, wherein individual bars of the barcode are aligned parallel to an imprint direction and the reading device comprises an optical reading device, wherein the imprint direction is predetermined by a movement of the product or package contents information on a conveyor belt.
A method for washing or drying a vehicle , the method comprising determining a longitudinal virtual profile of the vehicle , moving the vehicle and an overhead unit of an apparatus for washing and/or drying the vehicle in relation to one another in a longitudinal direction of the vehicle ; determining a position of the overhead unit in relation to the vehicle on the basis of at least one measuring signal (MS, L20, L21) indicating a position of the overhead unit in relation to the vehicle ; and controlling the position of the overhead unit in relation to the vehicle by continuously controlling the position of the overhead unit in relation to the vehicle by a basic control of the overhead unit based on the determined position of the overhead unit in relation to the vehicle and by acting on the basic control of the overhead unit , when necessary, by an additional control of the overhead unit based on the longitudinal virtual profile of the vehicle ; characterised by acting on the basic control of the overhead unit by changing with the additional control of the overhead unit , on the basis of the determined longitudinal virtual profile of the vehicle , a control signal (CS) determined by the basic control on the basis of the at least one measuring signal (MS, L20, L21) and transmitting the changed control signal (CS) to a lifting motor of the overhead unit . determining a longitudinal virtual profile of the vehicle , moving the vehicle and an overhead unit of an apparatus for washing and/or drying the vehicle in relation to one another in a longitudinal direction of the vehicle ; determining a position of the overhead unit in relation to the vehicle on the basis of at least one measuring signal (MS, L20, L21) indicating a position of the overhead unit in relation to the vehicle ; and controlling the position of the overhead unit in relation to the vehicle by continuously controlling the position of the overhead unit in relation to the vehicle by a basic control of the overhead unit based on the determined position of the overhead unit in relation to the vehicle and by acting on the basic control of the overhead unit , when necessary, by an additional control of the overhead unit based on the longitudinal virtual profile of the vehicle ; characterised by acting on the basic control of the overhead unit by changing with the additional control of the overhead unit , on the basis of the determined longitudinal virtual profile of the vehicle , a control signal (CS) determined by the basic control on the basis of the at least one measuring signal (MS, L20, L21) and transmitting the changed control signal (CS) to a lifting motor of the overhead unit .
Landing gear bay comprising a bottom wall having a rear edge (46.1), a front edge (46.2) parallel to the rear edge (46.1) and at right angles to a vertical median plane (PMV) and first and second lateral edges (50.1, 50.2) parallel to the vertical median plane (PMV), the bottom wall comprising longitudinal beams (52.1 to 52.8) linking the rear and front edges (46.1, 46.2), parallel to the vertical medial plane (PMV), and at least one panel (60, 60, 60") forming an airtight barrier between first and second zones (Z1, Z2) disposed on either side of the panel (60, 60', 60"), said panel (60, 60', 60") having first and second longitudinal edges (60.1, 60.2) each linked to one of the longitudinal beams (52.1 to 52.8), the second zone (Z2) being able to sustain a pressure greater than that of the first zone (Z1); characterized in that the panel (60, 60', 60") has a profile that is substantially constant in the longitudinal direction and comprises, at least in the absence of a pressure difference between the first and second zones (Z1 and Z2), at least one central part offset toward the second zone (Z2) with respect to its first and second longitudinal edges (60.1, 60.2) such that the loads applied to the panel (60,' 60', 60"), because of the pressure difference between the first and second zones (Z1, Z2), induce stresses on the longitudinal beams (52.1 to 52.8) comprising a horizontal component at the first and second longitudinal edges (60.1, 60.2).
A hearing aid device configured to be positioned at least partly in the ear canal of a wearer, comprising: a housing , a substrate carrying a wireless interface , the substrate further carrying a processor , the substrate arranged in the housing ; an antenna arranged in the housing, the antenna being connected to the wireless interface ; the antenna configured to emit and/or receive electromagnetic fields, wherein the antenna comprises an external part arranged outside the housing , an electronic element, connected to the processor via an electrical connection line, wherein a decoupling element is provided in the electrical connection line wherein the decoupling element has a characteristic frequency at the frequency, at which the antenna is tuned to radiate and/or receive the electromagnetic fields, so that the decoupling element provides a dampening of a signal around at least one of the operational frequencies of the antenna, wherein the hearing device further comprises a battery , and wherein at least a part of the antenna is arranged at least partly around the battery . a housing , a substrate carrying a wireless interface , the substrate further carrying a processor , the substrate arranged in the housing ; an antenna arranged in the housing, the antenna being connected to the wireless interface ; the antenna configured to emit and/or receive electromagnetic fields, wherein the antenna comprises an external part arranged outside the housing , an electronic element, connected to the processor via an electrical connection line, wherein a decoupling element is provided in the electrical connection line wherein the decoupling element has a characteristic frequency at the frequency, at which the antenna is tuned to radiate and/or receive the electromagnetic fields, so that the decoupling element provides a dampening of a signal around at least one of the operational frequencies of the antenna, wherein the hearing device further comprises a battery , and wherein at least a part of the antenna is arranged at least partly around the battery .
A dust cover for use in a ball joint including a ball stud having a spherical part at one end of a shaft part thereof, a socket that has a bearing for the spherical part and supports the ball stud in a rotatable and swingable manner, and a coupling member that couples with the shaft part on a side of the shaft part opposite to the spherical part , the dust cover comprising: a deformable body part ; a fixed part provided on one end side of the body part and fixed to the socket ; and a sealing part provided on the other end side of the body part and provided slidably relative to the shaft part and the coupling member , the sealing part including: an inner peripheral sealing part that can slide relative to an outer peripheral surface of the shaft part ; and a dust lip part that is configured to be inclined radially outwardly and toward the other end side, and that can slide relative to an end surface of the coupling member , wherein an annular protrusion that protrudes radially outward and has an end surface is formed at an end of the sealing part on the other end side, and an outer peripheral surface of the dust lip part extends toward the other end side from a recessed part of the sealing part being recessed toward the one end side with respect to the end surface of the annular protrusion on the other end side, characterized in that an inner peripheral surface and the outer peripheral surface of the dust lip part extend toward the other end side beyond the end surface of the annular protrusion so as to be configured to come into close contact with the coupling member . a deformable body part ; a fixed part provided on one end side of the body part and fixed to the socket ; and a sealing part provided on the other end side of the body part and provided slidably relative to the shaft part and the coupling member , the sealing part including: an inner peripheral sealing part that can slide relative to an outer peripheral surface of the shaft part ; and a dust lip part that is configured to be inclined radially outwardly and toward the other end side, and that can slide relative to an end surface of the coupling member , wherein an inner peripheral sealing part that can slide relative to an outer peripheral surface of the shaft part ; and a dust lip part that is configured to be inclined radially outwardly and toward the other end side, and that can slide relative to an end surface of the coupling member , wherein
A method for detecting a colon cancer in a subject in need thereof, comprising: determining the expression level of at least 14 biomarkers from a test sample from the subject by contacting the test sample with a plurality of agents specific to detect the expression of the at least 14 biomarkers, wherein the 14 biomarkers comprise ADRM1, CDK4, COMT, DHCR7, HMOX2, MCM2, PDXK, POP7, S100P, SNRPA, SORD, STOML2, UMPS, and a housekeeping gene; normalizing the expression level of each of ADRM1, CDK4, COMT, DHCR7, HMOX2, MCM2, PDXK, POP7, S100P, SNRPA, SORD, STOML2, and UMPS to the expression level of the housekeeping gene, thereby obtaining a normalized expression level of each of ADRM1, CDK4, COMT, DHCR7, HMOX2, MCM2, PDXK, POP7, S100P, SNRPA, SORD, STOML2, and UMPS ; inputting each normalized expression level into an algorithm to generate a score; comparing the score with a predetermined cutoff value; and identifying the presence of a colon cancer in the subject when the score is equal to or greater than the predetermined cutoff value or identifying the absence of a colon cancer in the subject when the score is less than the predetermined cutoff value. determining the expression level of at least 14 biomarkers from a test sample from the subject by contacting the test sample with a plurality of agents specific to detect the expression of the at least 14 biomarkers, wherein the 14 biomarkers comprise ADRM1, CDK4, COMT, DHCR7, HMOX2, MCM2, PDXK, POP7, S100P, SNRPA, SORD, STOML2, UMPS, and a housekeeping gene; normalizing the expression level of each of ADRM1, CDK4, COMT, DHCR7, HMOX2, MCM2, PDXK, POP7, S100P, SNRPA, SORD, STOML2, and UMPS to the expression level of the housekeeping gene, thereby obtaining a normalized expression level of each of ADRM1, CDK4, COMT, DHCR7, HMOX2, MCM2, PDXK, POP7, S100P, SNRPA, SORD, STOML2, and UMPS ; inputting each normalized expression level into an algorithm to generate a score; comparing the score with a predetermined cutoff value; and identifying the presence of a colon cancer in the subject when the score is equal to or greater than the predetermined cutoff value or identifying the absence of a colon cancer in the subject when the score is less than the predetermined cutoff value.