mhurhangee/patent-ind-claim-en huggingface dataset:
Screen for separating solid residues, which comprises: - a support structure ; - a screening surface (P) intended to receive the solid residues to be screened and provided with an inlet port (P1) and an outlet port (P2); - movement means adapted to make said residues advance between said inlet port (P1) and said outlet port (P2) along an advancement direction (A); - a separation station for separating sheet or expanded material from said residues, interposed between said inlet port (P1) and said outlet port (P2) above said screening surface (P), which comprises: - at least one hood delimiting a suction chamber extended substantially starting from said screening surface (P); said screen for separating solid residues being characterized in that said separation station comprises: - means for insufflating in said suction chamber , which are arranged to insufflate at least one lifting air flow at said screening surface (P); said lifting air flow being oriented to form a vortex which is of ascensional type and is formed from the bottom upward starting from said screening surface (P) confined in said suction chamber and with rotation axis (Z) orthogonal to said screening surface (P), in order to lift said sheet or expanded material from said screening surface (P); - suction means associated with said hood and arranged to suction from said suction chamber , above said vortex , a suctioned air flow containing at least one part of said lifting air flow with said sheet or expanded material at its interior. - a support structure ; - a screening surface (P) intended to receive the solid residues to be screened and provided with an inlet port (P1) and an outlet port (P2); - movement means adapted to make said residues advance between said inlet port (P1) and said outlet port (P2) along an advancement direction (A); - a separation station for separating sheet or expanded material from said residues, interposed between said inlet port (P1) and said outlet port (P2) above said screening surface (P), which comprises: - at least one hood delimiting a suction chamber extended substantially starting from said screening surface (P); - at least one hood delimiting a suction chamber extended substantially starting from said screening surface (P); - means for insufflating in said suction chamber , which are arranged to insufflate at least one lifting air flow at said screening surface (P); said lifting air flow being oriented to form a vortex which is of ascensional type and is formed from the bottom upward starting from said screening surface (P) confined in said suction chamber and with rotation axis (Z) orthogonal to said screening surface (P), in order to lift said sheet or expanded material from said screening surface (P); - suction means associated with said hood and arranged to suction from said suction chamber , above said vortex , a suctioned air flow containing at least one part of said lifting air flow with said sheet or expanded material at its interior.
A method of training and using a wireless control system having a plurality of preset buttons on a vehicle for wireless control of a remote electronic system and a plurality of memory slots greater in number than the plurality of preset buttons , each of the plurality of memory slots capable of storing a control frequency and a control code, each of the plurality of preset buttons being associated with at least one corresponding memory slot of the plurality of memory slots for causing an RF signal to be generated from the control frequency and control code stored in the at least one corresponding memory slot when activated, the method comprising the steps of: receiving a request to begin training from a user at a first location; receiving a first vehicle position indicator from at least one of a navigation system and a compass; acquiring a control frequency and a control code of a first signal; storing the control frequency and the control code of the first signal in a first one of the plurality of memory slots tagged with the first vehicle position indicator, the first one of the plurality of memory slots being associated with a first one of the plurality of preset buttons ; receiving a request to begin training from a user at a second location; receiving a second vehicle position indicator from at least one of a navigation system and a compass; acquiring a control frequency and a control code of a second signal; and storing the control frequency and the control code of the second signal in a second one of the plurality of memory slots tagged with the second vehicle position indicator, the second one of the plurality of memory slots being associated with the first one of the plurality of preset buttons . receiving a request to begin training from a user at a first location; receiving a first vehicle position indicator from at least one of a navigation system and a compass; acquiring a control frequency and a control code of a first signal; storing the control frequency and the control code of the first signal in a first one of the plurality of memory slots tagged with the first vehicle position indicator, the first one of the plurality of memory slots being associated with a first one of the plurality of preset buttons ; receiving a request to begin training from a user at a second location; receiving a second vehicle position indicator from at least one of a navigation system and a compass; acquiring a control frequency and a control code of a second signal; and storing the control frequency and the control code of the second signal in a second one of the plurality of memory slots tagged with the second vehicle position indicator, the second one of the plurality of memory slots being associated with the first one of the plurality of preset buttons .
A transport section for feeding article assemblies in a transport direction (TR) to a packaging module for the article assemblies , the transport section comprising a transfer plate on which the articles of the article assemblies are slidingly movable in the transport direction (TR); pushing means arranged above the transfer plate for moving the articles on the transfer plate , the pushing means being movable at least in sections in the transport direction (TR); outer guide elements arranged on the transfer plate and laterally bounding the transport section ; and inner guide elements arranged on the transfer plate , the inner guide elements being adjustable by means of at least one adjusting mechanism arranged at least partially below the transfer plate , wherein the transport section is being divided into a plurality of segments in the transport direction, wherein two inner guide elements are being assigned to each segment, characterized in that the transfer plate has apertures which are formed at least in sections orthogonally to the transport direction (TR) of the articles , in particular elongated holes or slots formed orthogonally to the transport direction (TR) of the articles , in that at least parts of the adjusting mechanism are movably guided within the apertures, in particular wherein at least parts of the at least one adjusting mechanism are being movably guided within the elongated holes or slots , and in that the at least one adjusting mechanism of the two inner guide elements of a segment is coupled in such a way that the two inner guide elements of a segment can be adjusted together. a transfer plate on which the articles of the article assemblies are slidingly movable in the transport direction (TR); pushing means arranged above the transfer plate for moving the articles on the transfer plate , the pushing means being movable at least in sections in the transport direction (TR); outer guide elements arranged on the transfer plate and laterally bounding the transport section ; and inner guide elements arranged on the transfer plate , the inner guide elements being adjustable by means of at least one adjusting mechanism arranged at least partially below the transfer plate , wherein the transport section is being divided into a plurality of segments in the transport direction, wherein two inner guide elements are being assigned to each segment, characterized in that the transfer plate has apertures which are formed at least in sections orthogonally to the transport direction (TR) of the articles , in particular elongated holes or slots formed orthogonally to the transport direction (TR) of the articles , in that at least parts of the adjusting mechanism are movably guided within the apertures, in particular wherein at least parts of the at least one adjusting mechanism are being movably guided within the elongated holes or slots , and in that the at least one adjusting mechanism of the two inner guide elements of a segment is coupled in such a way that the two inner guide elements of a segment can be adjusted together.
A welding current source for supplying of a welding current (I) and a welding voltage (U) at an output for the performance of an arc welding process, with an input-side rectifier , an inverter operated at a switching frequency (f S ), a transformer with a primary winding and at least two secondary windings , at least two rectifiers arranged between the secondary windings and the output , and at least one capacitor (C B ) and one load resistor (R B ) at the output , characterised in that at least one current-limiting inductor (L LR ) is arranged on the second secondary winding , and the load resistor (R B ) for discharging the capacitor (C B ) that can be charged via the current-limiting inductor (L LR ), the current-limiting inductor (L LR ), and the capacitor (C B ), are dimensioned such that the maximum value of the no-load voltage (U LL ) at the output is greater than the voltage (U 3 ) corresponding to the transmission ratio of the primary winding to the second secondary winding of the transformer .
Commercial vehicle , comprising: a light source arranged on at least one vehicle side of the commercial vehicle , which is designed to project a controllable pattern onto a ground surface adjacent to the respective vehicle side next to the commercial vehicle ; and a control unit in signal connection with the light source , which is designed to detect an operating state of the commercial vehicle and to control the light source for signalling the detected operating state by means of the projected pattern , characterised in that the control unit is further designed to detect a driving movement of the commercial vehicle and to change the projected pattern in accordance with the detected driving movement, so that at least parts of the projected pattern rest with respect to the ground surface . a light source arranged on at least one vehicle side of the commercial vehicle , which is designed to project a controllable pattern onto a ground surface adjacent to the respective vehicle side next to the commercial vehicle ; and a control unit in signal connection with the light source , which is designed to detect an operating state of the commercial vehicle and to control the light source for signalling the detected operating state by means of the projected pattern , characterised in that the control unit is further designed to detect a driving movement of the commercial vehicle and to change the projected pattern in accordance with the detected driving movement, so that at least parts of the projected pattern rest with respect to the ground surface .
A system for detecting terahertz radiation comprising: an input configured for receiving the terahertz radiation , a metallic layer arranged for receiving the terahertz radiation from the input, the metallic layer arranged on a substrate , and wherein the metallic layer comprises an arrangement of metallic structures or apertures in a metallic film being structured so as to form an array of micro-antennas, the micro-antennas are configured to have a resonance frequency within a frequency range of the incident terahertz radiation, the metallic layer being configured to provide electromagnetic field enhancement of the terahertz radiation and thus emitting an optical signal in response to the terahertz radiation via a three-step process which involves terahertz-induced field emission of electrons from the metal, acceleration of the electrons in the THz field, and collision of the electrons with gas molecules surrounding the metallic layer above the metal, wherein UV-VIS-NIR light is emitted, as the optical signal , as a result of subsequent deexcitation of the gas molecules and an optical sensor arranged to detect the emitted optical signal and to provide a signal indicating a property of the terahertz radiation . an input configured for receiving the terahertz radiation , a metallic layer arranged for receiving the terahertz radiation from the input, the metallic layer arranged on a substrate , and wherein the metallic layer comprises an arrangement of metallic structures or apertures in a metallic film being structured so as to form an array of micro-antennas, the micro-antennas are configured to have a resonance frequency within a frequency range of the incident terahertz radiation, the metallic layer being configured to provide electromagnetic field enhancement of the terahertz radiation and thus emitting an optical signal in response to the terahertz radiation via a three-step process which involves terahertz-induced field emission of electrons from the metal, acceleration of the electrons in the THz field, and collision of the electrons with gas molecules surrounding the metallic layer above the metal, wherein UV-VIS-NIR light is emitted, as the optical signal , as a result of subsequent deexcitation of the gas molecules and an optical sensor arranged to detect the emitted optical signal and to provide a signal indicating a property of the terahertz radiation .
A light emitting diode assembly comprising at least one light emitting diode and a thermal management assembly, the thermal management assembly comprising: a heat sink in thermal contact with a support member , wherein the heat sink includes: thermal pyrolytic graphite material ; a first substrate ; and a second substrate , wherein the thermal pyrolytic graphite material is at least partially disposed between the first and second substrates ; and wherein the heat sink comprises at least one fin at least partially comprising the thermal pyrolytic graphite material ; wherein the heat sink further comprises interlayers disposed between the thermal pyrolytic graphite and the first substrate , and between the thermal pyrolytic graphite and the second substrate , wherein the interlayers comprise a metal-based material; and wherein the heat sink comprises a core member comprising a proximal end that is proximal to the light emitting diode and a distal end extending from the proximal end, wherein the core member at least partially comprises the thermal pyrolytic graphite material . thermal pyrolytic graphite material ; a first substrate ; and a second substrate , wherein the thermal pyrolytic graphite material is at least partially disposed between the first and second substrates ; and wherein the heat sink comprises at least one fin at least partially comprising the thermal pyrolytic graphite material ; wherein the heat sink further comprises interlayers disposed between the thermal pyrolytic graphite and the first substrate , and between the thermal pyrolytic graphite and the second substrate , wherein the interlayers comprise a metal-based material; and wherein the heat sink comprises a core member comprising a proximal end that is proximal to the light emitting diode and a distal end extending from the proximal end, wherein the core member at least partially comprises the thermal pyrolytic graphite material .
A connector mateable with a mating connector along a front-rear direction, wherein: the mating connector has a mating lock portion ; the connector comprises a housing and a contact ; the housing has an upper wall and a lower wall ; the housing forms a receiving portion ; the receiving portion is configured to receive the mating connector when the connector and the mating connector are mated with each other; the contact is configured to be held by the housing ; the contact protrudes in the receiving portion ; the contact has a flat shape; the receiving portion is positioned between the upper wall and the lower wall in an up-down direction perpendicular to the front-rear direction; an inner surface of the upper wall is provided with a lock portion and a protrusion portion ; the lock portion is configured to lock the mating lock portion to lock a mating of the connector with the mating connector when the connector and the mating connector are mated with each other; the protrusion portion protrudes downward in the up-down direction; and, the contact has an end in the front-rear direction, the housing is formed with a holding portion ; characterized in that the holding portion extends in the front-rear direction in the receiving portion and is configured to hold the contact ; the holding portion comprises an insulating portion ; the insulating portion is positioned at a front end of the holding portion in the front-rear direction; and a front end of the contact is configured to abut against a rear end of the insulating portion . the mating connector has a mating lock portion ; the connector comprises a housing and a contact ; the housing has an upper wall and a lower wall ; the housing forms a receiving portion ; the receiving portion is configured to receive the mating connector when the connector and the mating connector are mated with each other; the contact is configured to be held by the housing ; the contact protrudes in the receiving portion ; the contact has a flat shape; the receiving portion is positioned between the upper wall and the lower wall in an up-down direction perpendicular to the front-rear direction; an inner surface of the upper wall is provided with a lock portion and a protrusion portion ; the lock portion is configured to lock the mating lock portion to lock a mating of the connector with the mating connector when the connector and the mating connector are mated with each other; the protrusion portion protrudes downward in the up-down direction; and, the contact has an end in the front-rear direction, the housing is formed with a holding portion ; characterized in that the holding portion extends in the front-rear direction in the receiving portion and is configured to hold the contact ; the holding portion comprises an insulating portion ; the insulating portion is positioned at a front end of the holding portion in the front-rear direction; and a front end of the contact is configured to abut against a rear end of the insulating portion .
Household appliance for the care of items of laundry, with a laundry drum , which comprises a drive shaft , and with a belt disc , which can be rotated about an axis of rotation (A) of the belt disc by means of a belt drive of the household appliance , wherein the belt disc is connected in a torque-proof manner with the drive shaft and a hub of the belt disc has at least one form fit element , which engages with at least one corresponding form fit element of the drive shaft , characterised in that the at least one form fit element of the hub extends in the direction of the axis of rotation (A) as far as a region of the hub , in which a spring element is arranged on the hub , wherein as a result of the length of the form fit element of the hub , a guidance of the belt disc along the drive shaft can be achieved when the hub is attached to the drive shaft .
A device for treatment of a vascular defect within a patient's vasculature, comprising: a self-expanding permeable shell having a proximal end, a distal end, and a longitudinal axis; the shell comprising a plurality of elongate resilient filaments having a braided structure, wherein the filaments are secured at one or more of the proximal end or the distal end of the permeable shell, wherein the permeable shell has a radially constrained elongated state configured for delivery within a microcatheter and has an expanded state with an axially shortened configuration relative to the radially constrained state, the permeable shell having a plurality of openings formed between the braided filaments; characterized in that : the expanded state of the permeable shell forming a plurality of circumferentially-arrayed lobes extending longitudinally substantially between the proximal end and the distal end of the permeable shell, and a plurality of channels disposed between each of the plurality of lobes and extending longitudinally substantially between the proximal end and the distal end of the permeable shell and, wherein each of the plurality of circumferentially-arrayed lobes comprises a first side having a first radius of curvature, a second side having a second radius of curvature and a central portion between the first side and the second side comprising a third radius of curvature; wherein the third radius of curvature is greater than each of the first radius of curvature and the second radius of curvature. the expanded state of the permeable shell forming a plurality of circumferentially-arrayed lobes extending longitudinally substantially between the proximal end and the distal end of the permeable shell, and a plurality of channels disposed between each of the plurality of lobes and extending longitudinally substantially between the proximal end and the distal end of the permeable shell and, wherein each of the plurality of circumferentially-arrayed lobes comprises a first side having a first radius of curvature, a second side having a second radius of curvature and a central portion between the first side and the second side comprising a third radius of curvature; wherein the third radius of curvature is greater than each of the first radius of curvature and the second radius of curvature.
A method for determining the position of the cores in an injection mould, comprising the steps of: a) Collecting k cores noted R 1 ...R i ...R k in a population of cores all produced from the same theoretical three-dimensional core model, b) making a three-dimensional model of each of the cores, c) relocating each of the three-dimensional models in space relative to l support points T 1 ...T q ...T l of the core in the mould to obtain a relocated three-dimensional spatial model of each core V1, d) selecting the core noted R rep the three-dimensional spatial model V1 of which has the least difference with the theoretical three-dimensional spatial model, e) relocating the three-dimensional model of the core R rep with the theoretical three-dimensional spatial model by taking into account at least one functional face of the theoretical model of the core in order to obtain a relocated three-dimensional spatial model V2 of the core R rep f) repositioning the support points T q so that it can support the core R rep in the spatial position corresponding to the relocated three-dimensional spatial model V2 of the core R rep . a) Collecting k cores noted R 1 ...R i ...R k in a population of cores all produced from the same theoretical three-dimensional core model, b) making a three-dimensional model of each of the cores, c) relocating each of the three-dimensional models in space relative to l support points T 1 ...T q ...T l of the core in the mould to obtain a relocated three-dimensional spatial model of each core V1, d) selecting the core noted R rep the three-dimensional spatial model V1 of which has the least difference with the theoretical three-dimensional spatial model, e) relocating the three-dimensional model of the core R rep with the theoretical three-dimensional spatial model by taking into account at least one functional face of the theoretical model of the core in order to obtain a relocated three-dimensional spatial model V2 of the core R rep f) repositioning the support points T q so that it can support the core R rep in the spatial position corresponding to the relocated three-dimensional spatial model V2 of the core R rep .