mhurhangee/patent-ind-claim-en huggingface dataset:
A corrosive environment monitoring device, comprising a sensor part in which a box-shaped passage structure with one end closed, and wherein the passage structure has a plurality of openings as another end, and each of the openings has a metal thin film located on one face of a top, bottom or side face of the particular opening and the metal thin film is covered by a transparent substrate , wherein the corrosive environment monitoring device includes a plurality of corrosive environment monitoring parts located adjacent to the plurality of openings, characterized in that the openings are different in size such that corrosion detection conditions of the metal thin film in the plural corrosive environment monitoring parts are differentiated.
Emergency lighting operating devices for supplying at least one illuminant , in particular an emergency lighting illuminant, comprising an electrically isolated, clocked synchronous converter , in particular a flyback converter, supplied on the primary side with a supply voltage (V), wherein supply connections for the at least one illuminant are provided on the secondary side of the converter , a switchable battery arranged on the secondary side, for supplying the at least one illuminant in an emergency operating situation in which no supply voltage (V) is present, a control unit arranged on the secondary side, which is configured to detect a secondary-side current or a secondary-side voltage and to supply the at least one illuminant selectively, starting from the battery arranged on the secondary side and chargeable via the converter , wherein a current sensor arranged on the secondary side is provided which is connected to a sensor input of the control unit in order to detect the current on the secondary side, or wherein a switch arranged on the secondary side is provided, which can be actively controlled by the control unit and is connected to a sensor input of the control unit in order to detect the current on the secondary side, characterized in that the control unit is configured to use a body diode of the current sensor or of the switch as a resistance for current measurement. an electrically isolated, clocked synchronous converter , in particular a flyback converter, supplied on the primary side with a supply voltage (V), wherein supply connections for the at least one illuminant are provided on the secondary side of the converter , a switchable battery arranged on the secondary side, for supplying the at least one illuminant in an emergency operating situation in which no supply voltage (V) is present, a control unit arranged on the secondary side, which is configured to detect a secondary-side current or a secondary-side voltage and to supply the at least one illuminant selectively, starting from the battery arranged on the secondary side and chargeable via the converter , wherein a current sensor arranged on the secondary side is provided which is connected to a sensor input of the control unit in order to detect the current on the secondary side, or wherein a switch arranged on the secondary side is provided, which can be actively controlled by the control unit and is connected to a sensor input of the control unit in order to detect the current on the secondary side, characterized in that the control unit is configured to use a body diode of the current sensor or of the switch as a resistance for current measurement.
A method for manufacturing an impregnated fibrous material comprising a fibrous material of continuous fibers and at least one thermoplastic polymer matrix, where said impregnated fibrous material is made in a single unidirectional ribbon or in a plurality of unidirectional parallel ribbons, said method comprising a step of pre-impregnation by said thermoplastic material of said fibrous material having the shape of a roving or of several parallel rovings and at least one step of heating of the thermoplastic matrix allowing melting or keeping molten said thermoplastic polymer after pre-impregnation, at least one said heating step being carried out by means of at least one heat-conducting supporting part (E) and at least one heating system, with the exception of a heating calender, said roving or said rovings being in contact with a part or all of the surface of said at least one supporting part (E) and partially or wholly passing over the surface of said at least one supporting part (E) present near the heating system, said at least one supporting part (E) being inside the heating system in its entirety, excluding any electrostatic method with deliberate charge, said method further comprising a step for shaping said roving or said parallel rovings of said impregnated fibrous material, by calendering using at least one heating calender in the form of a single unidirectional ribbon or a plurality of parallel unidirectional ribbons with, in the latter case, said heating calender including a plurality of calendering grooves , preferably up to 200 calendering grooves, in accordance with the number of said ribbons and with a pressure and/or separation between the rollers of said calender regulated by a governing system, a belt press being present between the heating system and the calender and the porosity level in said pre-impregnated fibrous material being less than 10 %, in particular less than 5 %, particularly less than 2 %.
A liquid-blow molding apparatus that liquid-blow forms a resin-made preform in a container having a predetermined shape, comprising: a circular nozzle that is inserted into a mouth of the preform ; a pressurized liquid-supply unit that supplies pressurized liquid to the nozzle inserted into the mouth ; and characterized by a sealing member formed into a cylinder that fits on an outer peripheral face of the nozzle to seal the nozzle and an inner peripheral face of the preform by touching from an axial direction a step surface disposed at the inner peripheral face of the preform at an end face in the axial direction, when the nozzle is inserted into the mouth . a circular nozzle that is inserted into a mouth of the preform ; a pressurized liquid-supply unit that supplies pressurized liquid to the nozzle inserted into the mouth ; and characterized by a sealing member formed into a cylinder that fits on an outer peripheral face of the nozzle to seal the nozzle and an inner peripheral face of the preform by touching from an axial direction a step surface disposed at the inner peripheral face of the preform at an end face in the axial direction, when the nozzle is inserted into the mouth .
A device for treating metal workpieces with cooling gas, consisting of a horizontally arranged cylindrical housing with at least one closable opening for inserting and removing the workpieces to be treated, with a quenching chamber located within the housing for receiving the workpieces to be treated, with two blowers (5 and 6) arranged laterally and outside of the quenching chamber for guiding a cooling gas through the quenching chamber and with two heat exchangers (11 and 12) for cooling the cooling gas, characterized in that each heat exchanger (11 and 12 respectively) is associated with one blower (5 and 6 respectively), and in that guiding devices (17 and 18 respectively) are arranged above and below the quenching chamber which each consist of a guiding box (19 and 20 respectively) and a guiding element (21 and 22 respectively) associated in each case therewith, the guiding boxes (19 and 20) being connected to one another via connecting struts (27 and 28), being movable via a displacement device and being provided for closing and opening intake openings for each blower (5 and 6), which are arranged laterally above and below the quenching chamber , and in that the respectively associated guiding element (21 or 22 respectively) serves on the one hand to deflect one part of a cooling gas flow to the quenching chamber and on the other hand to alternately close the associated guiding box (19 or 20).
Linear drive with a gearbox , an electric motor, that is connected or that can be connected to the gearbox , that drives a mounted shaft, wherein the shaft drives an endless screw that drives on its part a worm wheel that is on its part non-rotatably connected to a spindle on which a spindle nut is integrated that is placed non-rotatably) and relatively displaceable in a guide tube , wherein the guide tube is placed with an end face in the gearbox , wherein the spindle nut is connected with a lifting tube and wherein inner webs are configured on the guide tube and complementary guide grooves on the spindle nut between the guide tube and the spindle nut to ensure a correct orientation of the angle of rotation of the spindle nut with respect to the guide tube , characterized in that position orientation means are provided between the spindle nut and the guide tube that comprise at least two insertion profiles spaced from each other and configured at least at the front end substantially as shuttle profiles (20e ; 28b), wherein the shuttle profiles (20e ; 28b) have each a front edge from which lateral insertion surfaces extend rearwardly and that at least two adjacent insertion profiles form the guide groove between each other or merge into the guide groove .
A radial liner section being a portion of the circumference of the inside of a tunnel, the radial liner section comprising elongate liner section supports formed integrally with the radial liner section, characterized in that the elongate liner section supports comprise a first raised end and a second raised end located at respective opposing longitudinal sides of said liner section ; wherein extending from the first raised end is a neck portion terminating in an expanded tubular head , and within the second raised end there is provided a recess having a complementary but larger shape than the expanded tubular head ; wherein within the recess is located a slot within which a neck portion of a circumferentially adjacent liner section is locatable in use; and wherein an aperture is provided extending through the expanded tubular head , the aperture being adapted to receive a tensioner which extends there through in use.
A shooting method executed by a shooting device, the shooting method comprising: shooting (S851) first images of a target space; and generating (S852) first three-dimensional position information of the target space, based on the first images and a first shooting position and a first shooting orientation of each of the first images, wherein the first three-dimensional position information includes a first three-dimensional point cloud; the shooting method characterized by further comprising determining (S853) a first region of the target space, which includes at least one of a region for which second three-dimensional position information cannot be calculated and a region for which the error between the second three-dimensional position information and the actual position is greater than a predetermined threshold, using the first three-dimensional position information and without generating the second three-dimensional position information; wherein the second three-dimensional position information includes a second three-dimensional point cloud which is denser than the first three-dimensional point cloud; and the determining (S853) of the first region includes: generating a mesh using the first three-dimensional point cloud, wherein a second region corresponds to a region in which the mesh is generated; and determining a region other than the second region of the target space as the first region. shooting (S851) first images of a target space; and generating (S852) first three-dimensional position information of the target space, based on the first images and a first shooting position and a first shooting orientation of each of the first images, wherein the first three-dimensional position information includes a first three-dimensional point cloud; the shooting method characterized by further comprising determining (S853) a first region of the target space, which includes at least one of a region for which second three-dimensional position information cannot be calculated and a region for which the error between the second three-dimensional position information and the actual position is greater than a predetermined threshold, using the first three-dimensional position information and without generating the second three-dimensional position information; wherein the second three-dimensional position information includes a second three-dimensional point cloud which is denser than the first three-dimensional point cloud; and the determining (S853) of the first region includes: generating a mesh using the first three-dimensional point cloud, wherein a second region corresponds to a region in which the mesh is generated; and determining a region other than the second region of the target space as the first region. generating a mesh using the first three-dimensional point cloud, wherein a second region corresponds to a region in which the mesh is generated; and determining a region other than the second region of the target space as the first region.
A system for detecting a target, the system comprises a transceiver and a signal processor; wherein the transceiver is configured to: transmit a first pulse train that comprises multiple radio frequency pulses of a first non-linear polarity; receive first echoes resulting from the transmission of the first pulse train; generate first detection signals that represent the first echoes; wherein the signal processor is configured to process the first detection signals to provide an estimated polarization orientation of a target; characterized in that the processing of the first detection signals comprises estimating a Jones matrix of the target and the transceiver is further configured to: transmit a second pulse train that comprises multiple radio frequency pulses of a linear polarity of a first polarization orientation that approximates the estimated polarization orientation of the target; receive second echoes resulting from the transmission of the second pulse train; and generate second detection signals that represent the second echoes; and wherein the signal processor is further configured to process the second detection signals. transmit a first pulse train that comprises multiple radio frequency pulses of a first non-linear polarity; receive first echoes resulting from the transmission of the first pulse train; generate first detection signals that represent the first echoes; wherein the signal processor is configured to process the first detection signals to provide an estimated polarization orientation of a target; characterized in that the processing of the first detection signals comprises estimating a Jones matrix of the target and transmit a second pulse train that comprises multiple radio frequency pulses of a linear polarity of a first polarization orientation that approximates the estimated polarization orientation of the target; receive second echoes resulting from the transmission of the second pulse train; and generate second detection signals that represent the second echoes; and wherein the signal processor is further configured to process the second detection signals.
Conduit element comprising a first conduit end , wherein at least one holder is arranged on a radial outer side of the first conduit end , wherein the holder is intended at least partially to receive an end side of a second conduit end of a second conduit element , wherein the holder is also intended at least partially to receive a fixing means , which encircles the first conduit end , wherein a receiving space is arranged in the radial direction between the at least one holder and the radial outer side of the first conduit end , the receiving space being intended at least partially to receive the second conduit end of the second conduit element , and wherein a guide space is arranged in the holder and is intended at least partially to receive the fixing means and to define a desired axial position between the first conduit end and the fixing means , wherein the holder comprises a first axially running portion, by way of which it is fastened on the radial outer side , also comprises a subsequent, radially outwardly running step, which merges into a second axially running portion, and further comprises a following, radially outwardly running curve, which forms the guide space and terminates in a restraining mechanism , characterized in that the receiving space is the space between the radial outer side of the first conduit end and the second axially running portion, wherein the guide space is arranged radially outside the receiving space and essentially in the same axial position as the receiving space . wherein the holder is intended at least partially to receive an end side of a second conduit end of a second conduit element , wherein the holder is also intended at least partially to receive a fixing means , which encircles the first conduit end , wherein a receiving space is arranged in the radial direction between the at least one holder and the radial outer side of the first conduit end , the receiving space being intended at least partially to receive the second conduit end of the second conduit element , and wherein a guide space is arranged in the holder and is intended at least partially to receive the fixing means and to define a desired axial position between the first conduit end and the fixing means , wherein the holder comprises a first axially running portion, by way of which it is fastened on the radial outer side , also comprises a subsequent, radially outwardly running step, which merges into a second axially running portion, and further comprises a following, radially outwardly running curve, which forms the guide space and terminates in a restraining mechanism , characterized in that the receiving space is the space between the radial outer side of the first conduit end and the second axially running portion, wherein the guide space is arranged radially outside the receiving space and essentially in the same axial position as the receiving space .
A mussel rearing rope , which is composed of a plurality of individual strands , at least one strand consisting at least partially of a material with a density of more than 2 g / cm 3 and having an outer sheath, a woven fabric having warp threads and protruding weft threads being introduced into the mussel rearing rope , characterised in that the strand having the material with the density of more than 2 g / cm 3 is formed in the interior by inorganic fibres , and the outer sheath is designed as braiding which encloses the inorganic fibres and runs crosswise.
A wound dressing comprising: at least one layer of a vertically lapped material, and a cover layer configured to cover and form a seal over a wound; wherein the at least one layer of the vertically lapped material is constructed from at least one layer of non-woven textile fibers, the non-woven textile fibers being folded into a plurality of folds to form a pleated structure; and wherein the wound dressing further comprises a wound contact layer attached to the cover layer and wherein the wound contact layer is provided with a pressure sensitive adhesive on a lower surface thereof to adhere the wound dressing to the skin around a wound site. at least one layer of a vertically lapped material, and a cover layer configured to cover and form a seal over a wound; wherein the at least one layer of the vertically lapped material is constructed from at least one layer of non-woven textile fibers, the non-woven textile fibers being folded into a plurality of folds to form a pleated structure; and wherein the wound dressing further comprises a wound contact layer attached to the cover layer and wherein the wound contact layer is provided with a pressure sensitive adhesive on a lower surface thereof to adhere the wound dressing to the skin around a wound site.
A method for producing a composite part with continuous fiber reinforcement from a dry preform, which method comprises: a. a flat draping operation of a first deformable dry ply lamination ; b. positioning on said first lamination a core made of a thermoformable material extending over a portion of the surface of the first laminate; c. an operation of draping a second lamination of deformable dry plies extending above the core and up to the first laminate; d. a stitching operation along a defined contour, said stitching joining and extending between the second and the first laminate; e. placing the preform obtained at the end of step d) in the three-dimensional cavity of a mold ; f. impregnating the dry preform with a polymer; g. consolidating said polymer; h. demolding the part obtained from the preform; characterized in that it comprises, between step d) and step e), a step of: j. thermoforming the preform comprising the core in the shape of the part; wherein step d) comprises an operation of: di. producing a seam extending between the first and second laminates along a bending contour; and wherein step e) comprises an operation of: ei. folding the preform in the cavity according to the seam contour made in step di). a. a flat draping operation of a first deformable dry ply lamination ; b. positioning on said first lamination a core made of a thermoformable material extending over a portion of the surface of the first laminate; c. an operation of draping a second lamination of deformable dry plies extending above the core and up to the first laminate; d. a stitching operation along a defined contour, said stitching joining and extending between the second and the first laminate; e. placing the preform obtained at the end of step d) in the three-dimensional cavity of a mold ; f. impregnating the dry preform with a polymer; g. consolidating said polymer; h. demolding the part obtained from the preform; characterized in that it comprises, between step d) and step e), a step of: j. thermoforming the preform comprising the core in the shape of the part; wherein step d) comprises an operation of: di. producing a seam extending between the first and second laminates along a bending contour; and wherein step e) comprises an operation of: ei. folding the preform in the cavity according to the seam contour made in step di).
A method of a base station, comprising: the base station transmits to a User Equipment, in the following also referred to as UE, a control signal associated with a reference signal for beam measurement ; and the base station transmits the reference signal for beam measurement to the UE , wherein the control signal triggers the reference signal for beam measurement which is transmitted aperiodically, and the control signal includes a beam-related information for transmitting the reference signal for beam measurement, characterized in that the control signal indicates a mapping between symbols used to carry the reference signal for beam measurement and beams on which the beam reference signal is transmitted. the base station transmits to a User Equipment, in the following also referred to as UE, a control signal associated with a reference signal for beam measurement ; and the base station transmits the reference signal for beam measurement to the UE , wherein the control signal triggers the reference signal for beam measurement which is transmitted aperiodically, and the control signal includes a beam-related information for transmitting the reference signal for beam measurement, characterized in that the control signal indicates a mapping between symbols used to carry the reference signal for beam measurement and beams on which the beam reference signal is transmitted.