mhurhangee/patent-ind-claim-en huggingface dataset:
A door handle for a vehicle that includes a lighting system that provides continuous lighting, the door handle comprising: a door handle body, the door handle body including a first body member and a second body member , the first body member and the second body member being assembled together so as to define an interior space within the door handle; a light source disposed within the interior space of the door handle; a first light transmission element that extends lengthwise along the door handle, from the interior space of the door handle to a top exterior surface of the door handle body, so as to provide a continuous band of light along an upper surface of the door handle; a second light transmission element that extends lengthwise along the door handle, from the interior space of the door handle to a bottom exterior surface of the door handle body, so as to provide a continuous band of light along a lower surface of the door handle; and a light source circuit board that supports the light source , wherein the light source circuit board is positioned within the interior space of the door handle so as to make direct contact with the first and second light transmission elements and thereby locate the first and second light transmission elements within the first body member ; wherein a top portion of the light source circuit board contacts the first light transmission element; wherein a bottom portion of the light source circuit board contacts the second light transmission element; and wherein the light source is disposed on a side portion of the light source circuit board . a door handle body, the door handle body including a first body member and a second body member , the first body member and the second body member being assembled together so as to define an interior space within the door handle; a light source disposed within the interior space of the door handle; a first light transmission element that extends lengthwise along the door handle, from the interior space of the door handle to a top exterior surface of the door handle body, so as to provide a continuous band of light along an upper surface of the door handle; a second light transmission element that extends lengthwise along the door handle, from the interior space of the door handle to a bottom exterior surface of the door handle body, so as to provide a continuous band of light along a lower surface of the door handle; and a light source circuit board that supports the light source , wherein the light source circuit board is positioned within the interior space of the door handle so as to make direct contact with the first and second light transmission elements and thereby locate the first and second light transmission elements within the first body member ; wherein a top portion of the light source circuit board contacts the first light transmission element; wherein a bottom portion of the light source circuit board contacts the second light transmission element; and wherein the light source is disposed on a side portion of the light source circuit board .
Pneumatic cushions for soft reception of harvested fruit on mechanized fruit harvesters, characterized by an assembly which consists of a plastic reception tray and a rubber membrane , wherein the assembly has a polygonal shape with longer sides (a, b) positioned under acute angle to each other, while the couples of shorter sides (c, d) and (e, f) form an obtuse angle between them, and wherein the rubber membrane , which is most favourably made of food-grade rubber, is stretched over the upper side of the reception tray and the side edges of the tray and glued to the side surfaces of the tray , and wherein the membrane is secured around the entire perimeter of the tray by means of a safety tape , and wherein, on the bottom of the tray and opposite to sides (c, d) of the tray , blow-holes for air release are fitted under the membrane , and wherein on the corner of the tray , formed by sides (a, e), is fitted a mechanism for revolving connection of the tray to the support and to air supply pipes , wherein the mechanism includes an axle and a bushing with a hole .
A voltage regulating circuit, comprising: a first input port (X1-a) and a second input port (X1-b), configured to receive an input voltage; a first output port (X2-a) and a second output port (X2-b), configured to output an output voltage, the first input port connects with the first output port; an output circuit , configured to be connected between the first output port and the second output port; a voltage regulator , configured to be connected between the first output port and the second output port, setting the output voltage to a predetermined value according to a reference voltage (U1); a voltage detector , configured to be connected with the first output port and the voltage regulator , a first transistor (Q3), configured to be connected between the second output port and the second input port, a controlling terminal of the first transistor (Q3) being coupled to the first output port and the voltage detector ; when the output voltage being higher than the predetermined value, the voltage detector being configured to turn off the first transistor (Q3); and a second transistor (Q2), configured to be coupled between the controlling terminal of the first transistor (Q3) and the second input port, a controlling terminal of the second transistor (Q2) receiving a dimming signal, when voltage of the dimming signal being higher than a threshold, the second transistor (Q2) being configured to turn off the first transistor (Q3). a first input port (X1-a) and a second input port (X1-b), configured to receive an input voltage; a first output port (X2-a) and a second output port (X2-b), configured to output an output voltage, the first input port connects with the first output port; an output circuit , configured to be connected between the first output port and the second output port; a voltage regulator , configured to be connected between the first output port and the second output port, setting the output voltage to a predetermined value according to a reference voltage (U1); a voltage detector , configured to be connected with the first output port and the voltage regulator , a first transistor (Q3), configured to be connected between the second output port and the second input port, a controlling terminal of the first transistor (Q3) being coupled to the first output port and the voltage detector ; when the output voltage being higher than the predetermined value, the voltage detector being configured to turn off the first transistor (Q3); and a second transistor (Q2), configured to be coupled between the controlling terminal of the first transistor (Q3) and the second input port, a controlling terminal of the second transistor (Q2) receiving a dimming signal, when voltage of the dimming signal being higher than a threshold, the second transistor (Q2) being configured to turn off the first transistor (Q3).
A method for providing an antimicrobial activity against Salmonella, yeasts and/or molds to a pet food product, comprising: a) providing a pet food product, b) incorporating into said pet food product less than 1% of an antimicrobial composition consisting of: (i) at least 30% of lactic acid, and (ii) at least two carboxylic acids selected from the group consisting of acetic acid, butyric acid, isobutyric acid, valeric acid, and isovaleric acid. a) providing a pet food product, b) incorporating into said pet food product less than 1% of an antimicrobial composition consisting of: (i) at least 30% of lactic acid, and (ii) at least two carboxylic acids selected from the group consisting of acetic acid, butyric acid, isobutyric acid, valeric acid, and isovaleric acid. (i) at least 30% of lactic acid, and (ii) at least two carboxylic acids selected from the group consisting of acetic acid, butyric acid, isobutyric acid, valeric acid, and isovaleric acid.
A control system for accumulating bales (B1, B2) processed by a baling chamber on an accumulator , the baling chamber and the accumulator configured to move in a direction of travel across a field, the accumulator having a base frame and a carriage laterally movable relative to the base frame , the lateral direction being transverse to the direction of travel, the carriage having a platform and first and second upstanding side walls defining a crop package receiving area therebetween, the control system comprising: at least one actuator mounted to the base frame and configured to move the carriage in response to a bale (B1, B2) engaging one of the upstanding side walls , such that the platform and the first and second upstanding side walls are moved laterally relative to the base frame , characterized in that the at least one actuator is configured to move the carriage relative to the base frame , wherein the crop package receiving area has a fixed lateral width during all movement of the carriage relative to the base frame ; at least one sensor configured to detect a position of one or more of the carriage and the at least one actuator relative to the base frame ; and a controller , having a processor and memory architecture, configured to receive position signals from the at least one sensor and control the at least one actuator based on the received position signals to move at least the carriage in the lateral direction relative to the base frame to sequentially accumulate multiple bales (B1, B2) on the carriage . at least one actuator mounted to the base frame and configured to move the carriage in response to a bale (B1, B2) engaging one of the upstanding side walls , such that the platform and the first and second upstanding side walls are moved laterally relative to the base frame , characterized in that the at least one actuator is configured to move the carriage relative to the base frame , wherein the crop package receiving area has a fixed lateral width during all movement of the carriage relative to the base frame ; at least one sensor configured to detect a position of one or more of the carriage and the at least one actuator relative to the base frame ; and a controller , having a processor and memory architecture, configured to receive position signals from the at least one sensor and control the at least one actuator based on the received position signals to move at least the carriage in the lateral direction relative to the base frame to sequentially accumulate multiple bales (B1, B2) on the carriage .
A solid state lamp testing system , for testing a solid state light under test, comprising: (a) an hemisphere comprising an hemispheric integrating surface and a flat side ; (b) a receptacle adapted to receive a solid state light under test or to receive a solid state reference lamp (SSRL) in place of said solid state light under test at the time of calibration; (c) a solid state auxiliary lamp attached to the hemisphere, (d) wherein the solid state auxiliary lamp is first calibrated as a working standard (WS) by comparison to the solid state reference lamp (SSRL) and thereafter used as a reference for the measurement of the solid state light under test; (e) a light detector port detecting the light emitted by the solid state auxiliary lamp and the solid state light under test or the solid state reference lamp when installed in the receptacle ; (f) wherein the solid state auxiliary lamp comprises: (g) a lamp head comprising: a plurality of LED modules (29a-c); a thermoelectric cooler coupled to the LED modules; and a drive unit ; (h) wherein the drive unit comprises: a plurality of current sources (32a-32b), each of the current sources coupled to a corresponding LED module ; and a processor coupled to the current sources and configured to control each current source to control the light output of each current source's corresponding LED module. (a) an hemisphere comprising an hemispheric integrating surface and a flat side ; (b) a receptacle adapted to receive a solid state light under test or to receive a solid state reference lamp (SSRL) in place of said solid state light under test at the time of calibration; (c) a solid state auxiliary lamp attached to the hemisphere, (d) wherein the solid state auxiliary lamp is first calibrated as a working standard (WS) by comparison to the solid state reference lamp (SSRL) and thereafter used as a reference for the measurement of the solid state light under test; (e) a light detector port detecting the light emitted by the solid state auxiliary lamp and the solid state light under test or the solid state reference lamp when installed in the receptacle ; (f) wherein the solid state auxiliary lamp comprises: (g) a lamp head comprising: a plurality of LED modules (29a-c); a thermoelectric cooler coupled to the LED modules; and a drive unit ; a plurality of LED modules (29a-c); a thermoelectric cooler coupled to the LED modules; and a drive unit ; (h) wherein the drive unit comprises: a plurality of current sources (32a-32b), each of the current sources coupled to a corresponding LED module ; and a processor coupled to the current sources and configured to control each current source to control the light output of each current source's corresponding LED module. a plurality of current sources (32a-32b), each of the current sources coupled to a corresponding LED module ; and a processor coupled to the current sources and configured to control each current source to control the light output of each current source's corresponding LED module.
A method for integrating use of a cloud discovery service into a client application for a network application, the method comprising: (a) establishing , by a client application, for a user one or more sessions with one or more network applications via an embedded browser within the client application; (b) intercepting , by the client application, a request to access a uniform resource locator, URL, from a network application of the one or more network applications accessed via the embedded browser; (c) communicating , by the client application, with a cloud discovery service to determine a location for which to send the URL for the user, wherein the cloud service selects the location from a plurality of locations based at least on a context of the user determined or retrieved by the client application; (d) receiving , by the client application, from the cloud discovery service the location for the URL selected by the cloud discover service for the user; and (e) transmitting , by the client application responsive to the request, the URL to the location selected by the cloud discovery service. (a) establishing , by a client application, for a user one or more sessions with one or more network applications via an embedded browser within the client application; (b) intercepting , by the client application, a request to access a uniform resource locator, URL, from a network application of the one or more network applications accessed via the embedded browser; (c) communicating , by the client application, with a cloud discovery service to determine a location for which to send the URL for the user, wherein the cloud service selects the location from a plurality of locations based at least on a context of the user determined or retrieved by the client application; (d) receiving , by the client application, from the cloud discovery service the location for the URL selected by the cloud discover service for the user; and (e) transmitting , by the client application responsive to the request, the URL to the location selected by the cloud discovery service.
A gas turbine engine component comprising: a film hole ; and a metering coupon comprising a material having a negative coefficient of thermal expansion located within the film hole ; characterised in that : the metering coupon comprises an aperture having a diameter (D2), wherein in response to an increase in temperature of the gas turbine engine component , the metering coupon is configured to contract and the diameter (D2) is configured to increase, allowing for additional cooling airflow through the aperture to protect the gas turbine engine component . a film hole ; and a metering coupon comprising a material having a negative coefficient of thermal expansion located within the film hole ; characterised in that : the metering coupon comprises an aperture having a diameter (D2), wherein in response to an increase in temperature of the gas turbine engine component , the metering coupon is configured to contract and the diameter (D2) is configured to increase, allowing for additional cooling airflow through the aperture to protect the gas turbine engine component .
A tab connection for connecting sheet metal layers, comprising a first sheet metal layer having at least one first recess in which at least one first connecting tab is formed in each case, and a second sheet metal layer having at least one second recess in which at least one second connecting tab is formed in each case, wherein a first connecting tab and a second connecting tab are in each case engaged with one another in an overlap area , characterized in that the at least one first recess essentially has the shape of an equilateral triangle, wherein the three sides form three first tabs , and wherein the at least one second recess includes three essentially kidney-shaped recesses situated on a circle, wherein the tabs face radially outwardly.
A method for accurately laying upper and lower single-sheet-shaped sheets provided with decorations on a laying belt to a press with surface-structured upper and lower press plates adapted to the decorations, in which, from a first removal point a lower sheet with its decoration is laid downward on the laying belt , on this, from a second removal point a carrier plate and on this, from the first removal point or a third removal point , an upper sheet with its decoration is laid upward, wherein the position of the sheets is detected by camera systems (6; 8) directed toward the decorative side of the sheets and an upper sheet is laid in the correct position to the lower sheet on the carrier plate, characterized in that , for the lower sheet, its decoration, decorative edges or printing marks and its or their distance to the sheet edge or sheet edges prior to reaching the laying belt are detected and stored by a first camera system and that the location of the decoration lying with its decoration side downward on the laying belt is detected via a second camera system arranged above the laying belt , which is directed toward the rear side of the sheet and only detects the outer edges of the sheet and that from the stored data the location of the decoration is calculated and the upper sheet with the position of its decoration detected by a camera system (6; 8) is laid exactly aligned above to that of the lower sheet.
A system of soft decoupling an input comprising: a processor ; and a memory storing instructions, which when executed by the processor , causes the processor to: receive from a plurality of sensors movement data, heading data and orientation data; determine (511, 512, 513; 521, 522, 523; 1202, 1204), based on motion of a user within a platform , a velocity from movement data and a heading from heading data received from at least a first sensor of the plurality of sensors; calculate a heading delta from the heading data and orientation data received from at least a second sensor of the plurality of sensors based on a predetermined ratio, wherein the predetermined ratio is set by a software developer or by a user; add the heading delta and the heading to determine a soft-decoupled heading; and provide the soft-decoupled heading as input into an application running on the system. a processor ; and a memory storing instructions, which when executed by the processor , causes the processor to: receive from a plurality of sensors movement data, heading data and orientation data; determine (511, 512, 513; 521, 522, 523; 1202, 1204), based on motion of a user within a platform , a velocity from movement data and a heading from heading data received from at least a first sensor of the plurality of sensors; calculate a heading delta from the heading data and orientation data received from at least a second sensor of the plurality of sensors based on a predetermined ratio, wherein the predetermined ratio is set by a software developer or by a user; add the heading delta and the heading to determine a soft-decoupled heading; and provide the soft-decoupled heading as input into an application running on the system. receive from a plurality of sensors movement data, heading data and orientation data; determine (511, 512, 513; 521, 522, 523; 1202, 1204), based on motion of a user within a platform , a velocity from movement data and a heading from heading data received from at least a first sensor of the plurality of sensors; calculate a heading delta from the heading data and orientation data received from at least a second sensor of the plurality of sensors based on a predetermined ratio, wherein the predetermined ratio is set by a software developer or by a user; add the heading delta and the heading to determine a soft-decoupled heading; and provide the soft-decoupled heading as input into an application running on the system.
A hollow fiber degassing module which includes a hollow fiber membrane bundle obtained by bundling a plurality of hollow fiber membranes in a cylindrical shape, a cylindrical body receiving the hollow fiber membrane bundle and extending in an axial direction and degassing a liquid by supplying the liquid to a gap between the hollow fiber membranes from a hollow portion of the hollow fiber membrane bundle and depressurizing the inside of the hollow fiber membrane , a supply port communicating with the gap between the hollow fiber membranes to supply the liquid, and an intake port communicating with insides of the hollow fiber membranes to suction a gas, the hollow fiber degassing module characterized by : a support body which contacts an inner peripheral surface of the hollow fiber membrane bundle , wherein the support body has a cylindrical shape and has a mesh shape, and the support body is disposed between one end surface and the other end surface of the hollow fiber membrane bundle in a center axis direction of the hollow fiber membrane . a hollow fiber membrane bundle obtained by bundling a plurality of hollow fiber membranes in a cylindrical shape, a cylindrical body receiving the hollow fiber membrane bundle and extending in an axial direction and degassing a liquid by supplying the liquid to a gap between the hollow fiber membranes from a hollow portion of the hollow fiber membrane bundle and depressurizing the inside of the hollow fiber membrane , a supply port communicating with the gap between the hollow fiber membranes to supply the liquid, and an intake port communicating with insides of the hollow fiber membranes to suction a gas, the hollow fiber degassing module characterized by : a support body which contacts an inner peripheral surface of the hollow fiber membrane bundle , wherein the support body has a cylindrical shape and has a mesh shape, and the support body is disposed between one end surface and the other end surface of the hollow fiber membrane bundle in a center axis direction of the hollow fiber membrane . a support body which contacts an inner peripheral surface of the hollow fiber membrane bundle , wherein the support body has a cylindrical shape and has a mesh shape, and the support body is disposed between one end surface and the other end surface of the hollow fiber membrane bundle in a center axis direction of the hollow fiber membrane .