mhurhangee/patent-ind-claim-en huggingface dataset:
A device for reducing an actuation force spike in an elevator car safety system, the device comprising: an elevator car mounted overspeed governor (16; 116; 216; 316; 416); a safety gear ; a safety lever (18; 118; 218; 318; 418); and a force reducing mechanism (36; 136; 236; 336; 436) connected in series relationship with the safety lever (18; 118; 218; 318; 418) between the overspeed governor (16; 116; 216; 316; 416) and the safety gear to reduce an impact force transmitted from the overspeed governor to the safety lever (18; 118; 218; 318; 418) and on to the safety gear , wherein the force reducing mechanism comprises a lifting bar rigidly connected to the overspeed governor ; and a resilient, energy absorbing component , in particular, a helical spring, an elastomeric spring, or damping element, that connects the lifting bar to the safety lever , characterized in that the lifting bar and the safety lever rotate about a common axis. an elevator car mounted overspeed governor (16; 116; 216; 316; 416); a safety gear ; a safety lever (18; 118; 218; 318; 418); and a force reducing mechanism (36; 136; 236; 336; 436) connected in series relationship with the safety lever (18; 118; 218; 318; 418) between the overspeed governor (16; 116; 216; 316; 416) and the safety gear to reduce an impact force transmitted from the overspeed governor to the safety lever (18; 118; 218; 318; 418) and on to the safety gear ,
A clad wire for producing test needles or sliding contacts having a wire core made of rhodium or a rhodium-based alloy, an inner cladding made of copper or silver or aluminum or a copper-based alloy or a silver-based alloy or an aluminum-based alloy, wherein the inner cladding covers the wire core on at least two opposite sides or completely encloses the wire core , an adhesion-promoting layer made of gold or a gold-based alloy, which is arranged between the wire core and the inner cladding , and an outer cladding made of a metal or a metal alloy having a greater hardness than the material of the inner cladding , wherein the outer cladding encloses the inner cladding . an inner cladding made of copper or silver or aluminum or a copper-based alloy or a silver-based alloy or an aluminum-based alloy, wherein the inner cladding covers the wire core on at least two opposite sides or completely encloses the wire core , an adhesion-promoting layer made of gold or a gold-based alloy, which is arranged between the wire core and the inner cladding , and an outer cladding made of a metal or a metal alloy having a greater hardness than the material of the inner cladding , wherein the outer cladding encloses the inner cladding .
A sanitary device having a device body , which consists of steel, and a coating, which is arranged on the device body and consists of enamel, wherein the coating has macroscopic structures in the form of indentations , which are produced with a laser beam, wherein the proportion of the surface that is provided with macroscopic structures is within the range of 5% to 100%, and the macroscopic structures have a depth within the range of 10 μm to 150 μm.
Composite film , preferably intended for use in the construction industry and/or preferably for use as a construction film, having at least one functional layer , at least one outer protective layer and at least one inner protective layer , wherein the functional layer is arranged between the outer protective layer and the inner protective layer , wherein the functional layer is formed as at least a single-layer membrane layer, wherein the outer protective layer and the inner protective layer are formed as a nonwoven layer comprising polyethylene terephthalate (PET), wherein the outer protective layer and/or the inner protective layer comprises at least one bicomponent fiber having a first component and a second component , wherein the first component comprises a first polymer and the second component comprises a second polymer as a constituent, wherein the functional layer comprises and/or consists of plastic and/or synthetic resin, namely an elastomeric material and thermoplastic material, as the material, and wherein the composite film is permeable to water vapor and open to diffusion, wherein the composite film has a S d value of less than or equal to 0.5 m. wherein the functional layer is formed as at least a single-layer membrane layer, wherein the outer protective layer and the inner protective layer are formed as a nonwoven layer comprising polyethylene terephthalate (PET), wherein the outer protective layer and/or the inner protective layer comprises at least one bicomponent fiber having a first component and a second component , wherein the first component comprises a first polymer and the second component comprises a second polymer as a constituent, wherein the functional layer comprises and/or consists of plastic and/or synthetic resin, namely an elastomeric material and thermoplastic material, as the material, and wherein the composite film is permeable to water vapor and open to diffusion, wherein the composite film has a S d value of less than or equal to 0.5 m.
A method of controlling an air input in a rotary engine (210; 310; 410), the engine having at least primary and secondary inlet ports (140; 440; 242; 442) in communication with an air source and an exhaust port (244; 244; 44), the method comprising: during start-up of the engine, closing the primary inlet port (140; 440) and opening the secondary inlet port (242; 442), the secondary inlet port (242; 442) being located rearwardly of the primary inlet port (140; 440) and forwardly of the exhaust port (244; 304; 44) along a direction of a revolution of a rotor of the engine; after start up and with a power demand on the engine lower than a predetermined threshold, opening the primary inlet port (140; 440) and at least partially closing the secondary inlet port (242; 442); and when the power demand exceeds the predetermined threshold, leaving the primary inlet port (140; 440) open and opening the secondary inlet port (242; 442), the secondary inlet port (242; 442) being located such as to be in communication with the exhaust port (244; 344; 44) throughout portions of the revolution of the engine to purge exhaust gases of the engine. during start-up of the engine, closing the primary inlet port (140; 440) and opening the secondary inlet port (242; 442), the secondary inlet port (242; 442) being located rearwardly of the primary inlet port (140; 440) and forwardly of the exhaust port (244; 304; 44) along a direction of a revolution of a rotor of the engine; after start up and with a power demand on the engine lower than a predetermined threshold, opening the primary inlet port (140; 440) and at least partially closing the secondary inlet port (242; 442); and when the power demand exceeds the predetermined threshold, leaving the primary inlet port (140; 440) open and opening the secondary inlet port (242; 442), the secondary inlet port (242; 442) being located such as to be in communication with the exhaust port (244; 344; 44) throughout portions of the revolution of the engine to purge exhaust gases of the engine.
Selector of an automatic gearbox for a motor vehicle, having at least a parking mode command position (P), a reverse mode command position (R), a neutral mode command position (N) and at least one forward mode command position (D), comprising a control member configured to select a command position from among these command positions, said selector additionally comprising an autonomous driving mode command position (A) and in that the control member is configured to be able to select this autonomous driving mode (A), characterized in that the parking mode (P), reverse mode (R), neutral mode (N), forward mode (D) and autonomous driving mode (A) command positions can be selected successively by running through a movement path of the control member , one in place of the other, with a predefined ordered arrangement, the autonomous driving mode command position (A) being situated at one end of said ordered arrangement, successively to the forward mode command position (D), with the result that the autonomous driving mode command position (A) can only be selected after the selection of the forward mode command position (D).
Sensor assembly for equipment for aiding the traceability of agri-food products, comprising: a casing having a first face and a second face opposite to one another, the first face being configured to be coupled to a planar structure ; a weighing device , arranged so as to respond to a load on the second face of the casing ; an inclinometer , rigidly attached to the casing ; an accelerometer , rigidly attached to the casing and configured to supply an acceleration signal (SA) indicative of accelerations along an axis perpendicular to the first face of the casing ; a processing unit configured to determine a measured weight (W) bearing on the weighing device based on load signals (SW) supplied by the weighing device , on an inclination signal (SI) supplied by the inclinometer and on the acceleration signal (SA) supplied by the accelerometer . a casing having a first face and a second face opposite to one another, the first face being configured to be coupled to a planar structure ; a weighing device , arranged so as to respond to a load on the second face of the casing ; an inclinometer , rigidly attached to the casing ; an accelerometer , rigidly attached to the casing and configured to supply an acceleration signal (SA) indicative of accelerations along an axis perpendicular to the first face of the casing ; a processing unit configured to determine a measured weight (W) bearing on the weighing device based on load signals (SW) supplied by the weighing device , on an inclination signal (SI) supplied by the inclinometer and on the acceleration signal (SA) supplied by the accelerometer .
A thermostatic valve for a cooling system of a motor vehicle engine, with a thermostatic valve housing on which a cylinder head connection for the connection to a cylinder head of the engine, an engine block connection for the connection to an engine block, a radiator connection for the connection to a radiator of the cooling system and at least one bypass channel connection for the connection to a bypass channel are formed, wherein a movable thermostatic operating element , a radiator valve , an engine block valve and a slide for closing the bypass channel are disposed in the thermostatic valve housing , characterised in that a first slide section for closing a first opening arranged on the thermostatic valve housing and at least one second slide section for closing at least one second opening arranged on the thermostatic valve housing are provided.
Optical surface for diffusing a light-dark cut-off line of an illuminating device for vehicles with a grid of optical elements arranged so as to be distributed over a base area by means of which a light beam passing through the optical surface can be diffused in relation to a main direction (H) such that the optical elements take the form of micro-optical elements that feature a main transparent surface and a secondary transparent surface at oblique angle (a) to the main transparent surface 4, 4'), where each of the micro-optical elements takes the form of a disk with the central transparent surface set at a distance (h) from the base area and with the secondary transparent area connecting in the shape of a ring to the central main transparent surface which extends up to the base area of the optical surface, where the secondary transparent surface diffuses the light rays of the light beam in relation to the main direction (H) in the diffusion direction (S), characterized in that the central transparent surface of the disk-shaped micro-optical elements takes the form of the main transparent surface following the contour of the base area through which the light rays of the light beam are deflected according to the contour of the base area in the main direction (H).
An aerosol container having a valve disc with a dispensing valve , the valve disc being tightly fastened to the opening of the container, wherein the valve disc is made of plastic and has a disc face with a tappet opening for a valve element of the dispensing valve , wherein a dimensionally stable extension is integrally moulded on the underside of the disc face and has a receiving area for a valve housing of the dispensing valve , the valve housing in the receiving area bears against a seal and the extension and the valve housing are connected by at least one securing element, which can be handled separately, in order to fix the valve housing in the receiving space, characterised in that the extension and the valve housing are connected by a fork-shaped securing spring , which can be fitted on the outer side of the extension , wherein the securing spring engages in a window of the extension and catches behind an axial counter face of the valve housing .
A method performed by a base station in a wireless communication system, the method comprising: receiving, from a core network node, a plurality of packets; receiving, from the core network node, a control message including a plurality of size information respectively corresponding to the plurality of packets, the plurality of packets to be transmitted in a synchronization period; wherein the plurality of packets and the control message are received separately, identifying a loss of at least one packet; determining a multimedia broadcast multicast service, MBMS, subframe impacted by the loss of the at least one packet based on the plurality of size information; and suspending a transmission in the determined MBMS subframe. receiving, from a core network node, a plurality of packets; receiving, from the core network node, a control message including a plurality of size information respectively corresponding to the plurality of packets, the plurality of packets to be transmitted in a synchronization period; wherein the plurality of packets and the control message are received separately, identifying a loss of at least one packet; determining a multimedia broadcast multicast service, MBMS, subframe impacted by the loss of the at least one packet based on the plurality of size information; and suspending a transmission in the determined MBMS subframe.
Gun, optionally a lower, comprising a receiver having a firearm center plane , comprising: - a magazine well for a magazine, - a trigger device which is provided along the firearm center plane in front of or behind the magazine well in the receiver and can preferably be removed upward from the receiver of the firearm/lower, and - a duct which, when the gun is held horizontally, is designed to extend substantially vertically between the magazine well and the trigger device, and - a bolt catch device which is provided in the duct and has a bolt catch portion for interacting with a bolt or bolt carrier of the gun in a working position, in which working position the bolt catch device engages in the movement path of the bolt, whereby - the bolt catch device comprises a foot , a slider , and a spring , in that - the foot has a leg and at least one handle which protrudes laterally beyond the contour of the duct , in that - the foot , on the leg thereof and on the side facing the magazine well, has a groove for receiving the spring and, - on the side facing the trigger device, has a socket having an axis that extends normal to the firearm center plane ; in that - the slider has, on the lower portion thereof when assembled, bearing bolts which are designed to be inserted into and pivoted in the socket , in that - the slider has, at the upper end thereof, a protrusion which protrudes in the direction of the magazine well beyond the contour of the duct , and in that - the receiver has an abutment that protrudes into the groove in order to prestress the spring of the bolt catch into the rest position. - a magazine well for a magazine, - a trigger device which is provided along the firearm center plane in front of or behind the magazine well in the receiver and can preferably be removed upward from the receiver of the firearm/lower, and - a duct which, when the gun is held horizontally, is designed to extend substantially vertically between the magazine well and the trigger device, and - a bolt catch device which is provided in the duct and has a bolt catch portion for interacting with a bolt or bolt carrier of the gun in a working position, in which working position the bolt catch device engages in the movement path of the bolt, whereby - the bolt catch device comprises a foot , a slider , and a spring , in that - the foot has a leg and at least one handle which protrudes laterally beyond the contour of the duct , in that - the foot , on the leg thereof and on the side facing the magazine well, has a groove for receiving the spring and, - on the side facing the trigger device, has a socket having an axis that extends normal to the firearm center plane ; in that - the slider has, on the lower portion thereof when assembled, bearing bolts which are designed to be inserted into and pivoted in the socket , in that - the slider has, at the upper end thereof, a protrusion which protrudes in the direction of the magazine well beyond the contour of the duct , and in that - the receiver has an abutment that protrudes into the groove in order to prestress the spring of the bolt catch into the rest position.
A detection device for luminescence analysis comprising: a member having an analysis area to analyze a sample by luminescence; a window material for transmitting light emitted from the sample in the analysis area; a photodetector for detecting the light transmitted through the window material ; a highly reflective light-guide system having an entry port , an exit port , and a highly reflective light-guide surface to reflect the light that is emitted from the sample and enters the entry port opposing the window material and to propagate the reflected light to the exit port opposing a light reception surface of the photodetector ; and an optical filter provided between the window material and the photodetector for transmitting signal emission to be measured that is emitted from the sample, wherein the optical filter is provided in a closed space surrounded by the window material , the photodetector , and the highly reflective light-guide system , characterized in that the optical filter is fixed either to the window material at the light entry port the highly reflective light-guide system as the fitting portion for the optical filter or to the photodetector at the light exit port of the highly reflective light-guide system as the fitting portion, and in that the outer peripheral shape of the optical filter is smaller than the inner shape of the fitting portion of the highly reflective light-guide system . a member having an analysis area to analyze a sample by luminescence; a window material for transmitting light emitted from the sample in the analysis area; a photodetector for detecting the light transmitted through the window material ; a highly reflective light-guide system having an entry port , an exit port , and a highly reflective light-guide surface to reflect the light that is emitted from the sample and enters the entry port opposing the window material and to propagate the reflected light to the exit port opposing a light reception surface of the photodetector ; and an optical filter provided between the window material and the photodetector for transmitting signal emission to be measured that is emitted from the sample, wherein the optical filter is provided in a closed space surrounded by the window material , the photodetector , and the highly reflective light-guide system , characterized in that the optical filter is fixed either to the window material at the light entry port the highly reflective light-guide system as the fitting portion for the optical filter or to the photodetector at the light exit port of the highly reflective light-guide system as the fitting portion, and in that the outer peripheral shape of the optical filter is smaller than the inner shape of the fitting portion of the highly reflective light-guide system .
A method for configuring a multispectral measurement device (MD) with correction parameters, wherein a multispectral measurement device (MD) has an image sensor having a two-dimensional pixel structure and a plurality of spectral measurement channels and the method comprises: illuminating a point spread function characterizing mask having a plurality of openings for providing a plurality of point light sources; measuring the plurality of point light sources with the multispectral measurement device (MD) for each of the plurality of measurement channels, wherein the measuring includes acquisition of at least one image of the plurality of point light sources for each measurement channel of the plurality of measurement channels with the image sensor ; detecting a position for each of the plurality of point light sources in the acquired images; determining a shape of the point spread function for the multispectral measurement device (MD) for each of the measurement channels and for each of the detected positions in the acquired images; determining at least one point spread function correction parameter in an optimization process for each determined point spread function such that the shape of the point spread function to be corrected conforms to a predetermined target point spread function shape which is wider than the widest determined point spread function and uniform for all determined point spread functions, and storing the at least one point spread function correction parameter for each of the detected positions and each of the measurement channels in a firmware of the multispectral measurement device (MD). illuminating a point spread function characterizing mask having a plurality of openings for providing a plurality of point light sources; measuring the plurality of point light sources with the multispectral measurement device (MD) for each of the plurality of measurement channels, wherein the measuring includes acquisition of at least one image of the plurality of point light sources for each measurement channel of the plurality of measurement channels with the image sensor ; detecting a position for each of the plurality of point light sources in the acquired images; determining a shape of the point spread function for the multispectral measurement device (MD) for each of the measurement channels and for each of the detected positions in the acquired images; determining at least one point spread function correction parameter in an optimization process for each determined point spread function such that the shape of the point spread function to be corrected conforms to a predetermined target point spread function shape which is wider than the widest determined point spread function and uniform for all determined point spread functions, and storing the at least one point spread function correction parameter for each of the detected positions and each of the measurement channels in a firmware of the multispectral measurement device (MD).