mhurhangee/patent-ind-claim-en huggingface dataset:
A propeller nozzle for watercraft, in particular a Kort nozzle, with a fixed propeller and a nozzle ring surrounding the propeller , said nozzle ring being pivotable by means of a nozzle shaft , wherein the nozzle shaft is designed as a hollow body, in particular as a cylindrical tube, wherein an end region of the nozzle shaft facing the nozzle ring is fixedly connected to the nozzle ring , in particular by means of welding, characterized in that the end region of the nozzle shaft facing the nozzle ring is inserted into the wall of the nozzle ring and preferably contacts the inner wall of the nozzle ring with its front face , and a pivot drive for the nozzle shaft is arranged at least partially in the interior of the nozzle shaft .
A method of wireless communication, comprising: performing, by a first user equipment, UE, a listen-before-talk, LBT, procedure in a shared radio frequency band, wherein a category of the LBT is based on a channel access priority class, CAPC, associated with a sidelink communication; determining , by the first UE based on the LBT procedure, a channel occupancy time, COT, in the shared radio frequency band for communicating the sidelink communication with a second UE ; and transmitting , by the first UE to the second UE , based on the LBT procedure being successful, the sidelink communication using first resources in the COT, the sidelink communication comprising at least sidelink control information, SCI, wherein the SCI comprises COT sharing information for second resources in the COT, and wherein the COT sharing information comprises the CAPC associated with the category of LBT used for acquiring the COT. performing, by a first user equipment, UE, a listen-before-talk, LBT, procedure in a shared radio frequency band, wherein a category of the LBT is based on a channel access priority class, CAPC, associated with a sidelink communication; determining , by the first UE based on the LBT procedure, a channel occupancy time, COT, in the shared radio frequency band for communicating the sidelink communication with a second UE ; and transmitting , by the first UE to the second UE , based on the LBT procedure being successful, the sidelink communication using first resources in the COT, the sidelink communication comprising at least sidelink control information, SCI, wherein the SCI comprises COT sharing information for second resources in the COT, and wherein the COT sharing information comprises the CAPC associated with the category of LBT used for acquiring the COT.
Applicator arrangement comprising a supply unit for supply of coating liquid/slurry, an applicator device and a metering device , characterized in that said supply unit comprises a distribution pipe which is supported by a support body by means of a bearing arrangement arranged to enable axial expansion and contraction of said distribution pipe and that at least one of said applicator device and/or metering device is directly or indirectly attached to said distribution pipe such that, upon operation of the coating machine, at least 50% of the forces from the applicator device and/or metering device are received by the body of the distribution pipe .
A process group comprising a first and a second process unit which are designed as reactors, wherein a front , a middle and a rear heat accumulator are provided which are connected in series and which are designed as layered heat accumulators in such a way that a temperature distribution can be generated in them which form a temperature wave, wherein, via line connections , of a conduit arrangement (L) for heat-transporting fluid, this fluid can flow longitudinally through the arrangement of alternately the heat accumulators to and the process units , , wherein the conduit arrangement (L) can be switched in such a way that the fluid flows through the combined process group cyclically alternately from the conduit connection to the conduit connection and from the conduit connection to the conduit connection .
Calibration method for determining parameters of a portable electronic device comprising a plurality of image acquisition modules to be used to determine parameters of a user and a display, wherein the method comprises: - providing (S10) a known pattern , - taking (S12) an image of the known pattern using one of the image acquisition modules of the portable electronic device from a first position, - providing (S14) at least one indication to the user to move the portable electronic device relative to the known pattern to at least a second position different from the first position, - taking (S16) an image of said known pattern in the second position using said one of the image acquisition modules, - processing (S18) the image of the known pattern taken from the second position to determine at least parameters of the portable electronic device comprising the image acquisition module used to take the image, the method is characterized in that it further comprises identifying the image acquisition module used during the calibration method by: - taking an image of the known pattern placed on a reflective plan surface, the user facing the reflective plan surface when taking the image in a position so that the different image acquisition modules appear on the image, - determining the used image acquisition module by knowing the relative position of the image acquisition module used to take the image and the known pattern and computing the estimate position of the reflect of the used image acquisition module on the reflective plan surface. - providing (S10) a known pattern , - taking (S12) an image of the known pattern using one of the image acquisition modules of the portable electronic device from a first position, - providing (S14) at least one indication to the user to move the portable electronic device relative to the known pattern to at least a second position different from the first position, - taking (S16) an image of said known pattern in the second position using said one of the image acquisition modules, - processing (S18) the image of the known pattern taken from the second position to determine at least parameters of the portable electronic device comprising the image acquisition module used to take the image, - taking an image of the known pattern placed on a reflective plan surface, the user facing the reflective plan surface when taking the image in a position so that the different image acquisition modules appear on the image, - determining the used image acquisition module by knowing the relative position of the image acquisition module used to take the image and the known pattern and computing the estimate position of the reflect of the used image acquisition module on the reflective plan surface.
A membrane for an embolisation device, comprising: a though-hole (H) for passing through of a core of the embolisation device, characterised in that the membrane is a laminate membrane, and the laminate membrane further comprises an inner layer having an inner layer thickness (x, x'); a first covering layer disposed on one side of the inner layer, the first covering layer having a first covering layer thickness (y, y'); and a second covering layer disposed on another side of the inner layer, the second covering layer having a second covering layer thickness (z, z'); wherein the inner layer comprises, or consists of, a polyurethane and polytetrafluoroethylene composite, and, wherein at least one of the first covering layer and the second covering layer comprises, or consists of, a hydrophilic material wherein the through-hole (H) extends through the inner layer, first covering layer and second covering layer. a though-hole (H) for passing through of a core of the embolisation device, characterised in that the membrane is a laminate membrane, and the laminate membrane further comprises an inner layer having an inner layer thickness (x, x'); a first covering layer disposed on one side of the inner layer, the first covering layer having a first covering layer thickness (y, y'); and a second covering layer disposed on another side of the inner layer, the second covering layer having a second covering layer thickness (z, z'); wherein the inner layer comprises, or consists of, a polyurethane and polytetrafluoroethylene composite, and, wherein at least one of the first covering layer and the second covering layer comprises, or consists of, a hydrophilic material wherein the through-hole (H) extends through the inner layer, first covering layer and second covering layer. an inner layer having an inner layer thickness (x, x'); a first covering layer disposed on one side of the inner layer, the first covering layer having a first covering layer thickness (y, y'); and a second covering layer disposed on another side of the inner layer, the second covering layer having a second covering layer thickness (z, z'); wherein the inner layer comprises, or consists of, a polyurethane and polytetrafluoroethylene composite, and, wherein at least one of the first covering layer and the second covering layer comprises, or consists of, a hydrophilic material wherein the through-hole (H) extends through the inner layer, first covering layer and second covering layer.
A shift operating element, in particular for a motor vehicle, comprising an actuation surface , which can be moved by manual application of force by means of an element , wherein the element is in particular the finger of a human hand, and comprising a sensor , which interacts with the actuation surface such that the sensor generates a signal when the actuation surface is moved by means of the element , wherein the signal in particular serves to shift and/or trigger a function in the form of a shift signal, wherein a damping and/or restoring element is provided, which interacts with the actuation surface when the latter is moved, and the damping and/or restoring element is a part of the sensor , wherein the mechanical damping and/or restoring element is integrated into the sensor and/or the sensor is integrated into the damping and/or restoring element , wherein the damping and/or restoring element serves as a first electrical sensor electrode for the sensor , wherein the damping and/or restoring element is designed as an elastic element, which has contact surfaces for the electrical contacting, characterized in that two approximately centrally mutually opposing, approximately rectangular surfaces are arranged at the connecting surface of the contact surfaces for the interaction with the actuation element , wherein the surface forms the first sensor electrode , and that a nub is arranged at the surface for interaction with a pin at the actuation element .
A communication method performed by a mobile station, the method comprising: receiving predetermined resource information from a base station; transmitting (S952) a preamble to the base station; receiving (S953) an Acquisition Indicator AI from the base station in response to the preamble; performing (S963) a first data transmission to the base station using a resource determined based on the predetermined resource information when the AI is a positive acknowledgement; and performing (S955) a second data transmission to the base station using a resource determined based on an allocated resource information when the AI is a negative acknowledgement and the allocated resource information has been received (S954) by the mobile station from the base station. receiving predetermined resource information from a base station; transmitting (S952) a preamble to the base station; receiving (S953) an Acquisition Indicator AI from the base station in response to the preamble; performing (S963) a first data transmission to the base station using a resource determined based on the predetermined resource information when the AI is a positive acknowledgement; and performing (S955) a second data transmission to the base station using a resource determined based on an allocated resource information when the AI is a negative acknowledgement and the allocated resource information has been received (S954) by the mobile station from the base station.
Method for producing a lead-free calcinate for the production of a lead-free ceramic material having piezoelectric properties, comprising the following method steps: A) mixing and grinding the raw materials in a first method step in an aqueous suspending agent, the water content of which is > 80%, in order to obtain a suspension with isotropic distribution, B) fixing the isotropic distribution of the suspension by freezing the suspension, C) removing the suspending agent by means of sublimation, D) converting the fixed distribution into a piezoelectric ceramic material by means of calcination and/or mixed oxide methods to form the calcinate E) removing the calcinate. A) mixing and grinding the raw materials in a first method step in an aqueous suspending agent, the water content of which is > 80%, in order to obtain a suspension with isotropic distribution, B) fixing the isotropic distribution of the suspension by freezing the suspension, C) removing the suspending agent by means of sublimation, D) converting the fixed distribution into a piezoelectric ceramic material by means of calcination and/or mixed oxide methods to form the calcinate E) removing the calcinate.
An antenna with pin header , comprising: a substrate ; a feed point , disposed on the substrate ; a radiator , printed on the substrate and connected to the feed point , wherein the radiator comprises a first portion , a second portion and a third portion ; the first portion is rectangular, the second portion is trapezoidal and the third portion is sectorial; the second portion is connected to the first portion and the third portion , and a recess is formed between the first portion, the second portion and the third portion; and a pin header , penetrating through the radiator and the substrate , and disposed at one end, away from the second portion, of the first portion; wherein the pin header is connected to the feed point via the radiator , whereby the radiator and the pin header have a common feedline, and the pin header is configured to enhance a gain pattern, in a direction which the pin header points in, of the radiator. a substrate ; a feed point , disposed on the substrate ; a radiator , printed on the substrate and connected to the feed point , wherein the radiator comprises a first portion , a second portion and a third portion ; the first portion is rectangular, the second portion is trapezoidal and the third portion is sectorial; the second portion is connected to the first portion and the third portion , and a recess is formed between the first portion, the second portion and the third portion; and a pin header , penetrating through the radiator and the substrate , and disposed at one end, away from the second portion, of the first portion; wherein the pin header is connected to the feed point via the radiator , whereby the radiator and the pin header have a common feedline, and the pin header is configured to enhance a gain pattern, in a direction which the pin header points in, of the radiator.
A flat cable winding device in which a plurality of flat cables are wound in a stacked state whose one ends are connected to a central shaft portion of the flat cable winding device and other ends of the flat cables are feedable, the flat cable winding device comprising: a case configured to accommodate the wound flat cables ; a flat cable guide portion provided in the case and configured to introduce the plurality of flat cables into the case separately; a rotary table that is rotatable around the central shaft portion ; a biasing unit configured to rotate and urge the rotary table in a winding direction (R) of flat cables ; a plurality of rollers that are rotatable around the central shaft portion on the rotary table and configured to wind one end sides of the plurality of flat cables in a stacked state by rotation of the rotary table in the winding direction (R); wherein a separation guide path is provided between the flat cable guide portion and a winding start position (P) of the plurality of rollers for the plurality of flat cables and configured to guide the flat cables introduced into the case from the flat cable guide portion to the winding start position (P) in a state that the plurality of flat cables are separated to each other; and a slack absorption unit is provided in the separation guide path and configured to absorb slack of a flat cable located at an inner peripheral side among the flat cables when the flat cables are wound around the plurality of rollers . a case configured to accommodate the wound flat cables ; a flat cable guide portion provided in the case and configured to introduce the plurality of flat cables into the case separately; a rotary table that is rotatable around the central shaft portion ; a biasing unit configured to rotate and urge the rotary table in a winding direction (R) of flat cables ; a plurality of rollers that are rotatable around the central shaft portion on the rotary table and configured to wind one end sides of the plurality of flat cables in a stacked state by rotation of the rotary table in the winding direction (R); wherein a separation guide path is provided between the flat cable guide portion and a winding start position (P) of the plurality of rollers for the plurality of flat cables and configured to guide the flat cables introduced into the case from the flat cable guide portion to the winding start position (P) in a state that the plurality of flat cables are separated to each other; and a slack absorption unit is provided in the separation guide path and configured to absorb slack of a flat cable located at an inner peripheral side among the flat cables when the flat cables are wound around the plurality of rollers .
An inspection system for a turbine engine , the inspection system comprising: at least one inspection system housing including at least one internal chamber , wherein the at least one inspection system housing is attachable to a pilot nozzle port in a combustor of the turbine engine ; at least one extendible camera support shaft positioned within the at least one internal chamber extending distally from a distal opening in the at least one inspection system housing ; wherein the at least one extendible camera support shaft is rotatable about a longitudinal axis of the at least one extendible camera support shaft ; wherein the at least one extendible camera support shaft is extendible such that a distal end of the at least one extendible camera support shaft is movable longitudinally along the longitudinal axis ; at least one camera lens supported by the at least one extendible camera support shaft at a location outside of the at least one inspection system housing distal to the distal opening ; wherein the at least one camera lens is rotatable about an axis generally orthogonal to the longitudinal axis of the at least one extendible camera support shaft ; characterised in that a data management system configured to coordinate detailed image information together with at least one image captured by at least one camera in communication with the at least one camera lens , the data management system is adapted to store images together with position coordinates related to the position of the camera when the image was recorded. at least one inspection system housing including at least one internal chamber , wherein the at least one inspection system housing is attachable to a pilot nozzle port in a combustor of the turbine engine ; at least one extendible camera support shaft positioned within the at least one internal chamber extending distally from a distal opening in the at least one inspection system housing ; wherein the at least one extendible camera support shaft is rotatable about a longitudinal axis of the at least one extendible camera support shaft ; wherein the at least one extendible camera support shaft is extendible such that a distal end of the at least one extendible camera support shaft is movable longitudinally along the longitudinal axis ; at least one camera lens supported by the at least one extendible camera support shaft at a location outside of the at least one inspection system housing distal to the distal opening ; wherein the at least one camera lens is rotatable about an axis generally orthogonal to the longitudinal axis of the at least one extendible camera support shaft ; characterised in that a data management system configured to coordinate detailed image information together with at least one image captured by at least one camera in communication with the at least one camera lens , the data management system is adapted to store images together with position coordinates related to the position of the camera when the image was recorded.
Surface mapping devices and surface generation devices with devices for partly or fully automatic edge recognition of inlay preparations, the surface mapping devices and surface generation devices comprising: - a laser light source (LQ) from which a laser beam (LS) with a beam width (LB) strikes at a tooth surface (ZO) of a tooth (Z), - a CCD chip (CCD) as mapping device for laser beams (RS) being reflected from the tooth surface (ZO) with a width (LBR1, LBR2), wherein the surface mapping devices and surface generation devices are adapted to process, by means of software of the surface mapping devices and surface generation devices, information of a width change (LBR1, LBR2) of the laser beam (RS) being reflected from the tooth surface (ZO) and striking at the CCD chip (CCD) and of a shape of a signal for a determination of a margin of an edge (K), wherein the signal at the CCD chip (CCD) originates from a scan of the tooth surface (ZO), wherein by repeated measurement of the edge (K) from several solid angles the width change and the shape of the signal are evaluated against each other by a matching method and are defined by averaging in the edge area to their final shape. - a laser light source (LQ) from which a laser beam (LS) with a beam width (LB) strikes at a tooth surface (ZO) of a tooth (Z), - a CCD chip (CCD) as mapping device for laser beams (RS) being reflected from the tooth surface (ZO) with a width (LBR1, LBR2), wherein the surface mapping devices and surface generation devices are adapted to process, by means of software of the surface mapping devices and surface generation devices, information of a width change (LBR1, LBR2) of the laser beam (RS) being reflected from the tooth surface (ZO) and striking at the CCD chip (CCD) and of a shape of a signal for a determination of a margin of an edge (K), wherein the signal at the CCD chip (CCD) originates from a scan of the tooth surface (ZO), wherein by repeated measurement of the edge (K) from several solid angles the width change and the shape of the signal are evaluated against each other by a matching method and are defined by averaging in the edge area to their final shape.