mhurhangee/patent-ind-claim-en huggingface dataset:
A laser welded joint comprising a plurality of overlaid metal sheets being weld by laser, and being characterised by : triple or more ring-shaped or open ring-shaped weld beads , wherein a surface hardness of the weld beads increases from an inside bead to an outside bead, wherein a ring-shaped weld bead is a bead with a circular, elliptical, oval, or polygonal path or such a bead with a partially constricted part wherein the bead path is continuous and the bead surrounds a specific range, and an open ring-shaped weld bead is a bead with a circular, elliptical, oval, or polygonal path or such a bead with a partially constricted part wherein the bead path includes a partially discontinuous part and the bead and line segment connecting the parts of the bead surround a specific range. a plurality of overlaid metal sheets being weld by laser, and being characterised by : triple or more ring-shaped or open ring-shaped weld beads , wherein a surface hardness of the weld beads increases from an inside bead to an outside bead, wherein a ring-shaped weld bead is a bead with a circular, elliptical, oval, or polygonal path or such a bead with a partially constricted part wherein the bead path is continuous and the bead surrounds a specific range, and an open ring-shaped weld bead is a bead with a circular, elliptical, oval, or polygonal path or such a bead with a partially constricted part wherein the bead path includes a partially discontinuous part and the bead and line segment connecting the parts of the bead surround a specific range. triple or more ring-shaped or open ring-shaped weld beads , wherein a surface hardness of the weld beads increases from an inside bead to an outside bead, wherein a ring-shaped weld bead is a bead with a circular, elliptical, oval, or polygonal path or such a bead with a partially constricted part wherein the bead path is continuous and the bead surrounds a specific range, and an open ring-shaped weld bead is a bead with a circular, elliptical, oval, or polygonal path or such a bead with a partially constricted part wherein the bead path includes a partially discontinuous part and the bead and line segment connecting the parts of the bead surround a specific range.
Light guide arrangement for use in a lighting device of a motor vehicle, wherein the lighting device comprises at least one semiconductor light source , the light guide arrangement comprising: - at least one light input section having at least one light input surface for inputting at least part of the light emitted by said at least one light source , - a light output coupler section having a plurality of light output coupler elements arranged along a rear side of the light guide assembly for deflecting at least a part of the input light towards a lens section of the light guide assembly , and - the lens section , which has a longitudinal extension transverse to a light exit direction of the light guide arrangement and a lenticular light exit surface which is convex in a cross-section transverse to the longitudinal extension and via which at least part of the light deflected by the output coupler section exits the light guide arrangement , wherein, viewed in cross-section, a first focal point of the lens section is located at the level of a lower edge of an output coupler element and a second focal point is located at a large distance from the light-exit surface , so that the lens section sharply images the lower edge of the output coupler element as part of a horizontal light-dark boundary of a resulting low beam light distribution (32; 33) of the light guide arrangement , characterized in that a plurality of first focal points of different cross-sections of the lens section lie on a focal line which runs along the lower edges of the output coupler elements , and in that the output coupler elements are all arranged with their lower edges on a common horizontal plane which is arranged in such a way with respect to the focal line of the lens section , that the lens section sharply images the lower edges of the output coupler elements as the horizontal light-dark boundary of the resulting low beam light distribution, and in that the output coupler section and the lens section are designed as separate components, a subdivision of output coupler section and lens section running along the longitudinal extension of the lens section and transversely to the light exit direction of the light guide arrangement . - at least one light input section having at least one light input surface for inputting at least part of the light emitted by said at least one light source , - a light output coupler section having a plurality of light output coupler elements arranged along a rear side of the light guide assembly for deflecting at least a part of the input light towards a lens section of the light guide assembly , and - the lens section , which has a longitudinal extension transverse to a light exit direction of the light guide arrangement and a lenticular light exit surface which is convex in a cross-section transverse to the longitudinal extension and via which at least part of the light deflected by the output coupler section exits the light guide arrangement ,
Crash test method for aircraft seats, in which a test carriage (12a; 12b; 12c) is accelerated along a guide path in a test direction in order to simulate strong accelerations acting onto aircraft seats and onto passengers sitting on aircraft seats, characterised in that at least two target seats (16a, 18a, 20a, 22a; 16b, 18b, 20b; 16c, 18c, 20c) are arranged on the test carriage (12a; 12b; 12c), wherein sitting directions of the at least two target seats (16a, 18a, 20a, 22a; 16b, 18b, 20b; 16c, 18c, 20c) include different angles with the test direction.
Piston pump, in particular as a pressure generator in an electronically slip-controllable vehicle brake system, with a pump cylinder in which a drivable piston is displaceably received, with a pump working chamber delimited by the piston and by the pump cylinder , and with a valve which controls a supply of pressure medium to the pump working chamber , wherein the valve has a conical valve seat and a closing member having a domed portion which cooperates with the valve seat , wherein the valve seat surrounds a valve chamber into which the closing member plunges at least up to an imaginary centre point M of the domed portion when the valve seat is closed and open, characterized in that the piston pump , viewed in the flow direction of the valve , forms a ring shoulder in a region between the imaginary centre point M of the domed portion of the closing member and a pump outflow channel , wherein the outer diameter of said ring shoulder is determined by the cross section of the valve seat and the inner diameter is determined by an outer diameter of a bore for receiving a return means of the closing member , and in that the pump outflow channel of the piston pump is arranged downstream of the imaginary centre point M of the domed portion of the closing member , extends transversely with respect to a pump longitudinal axis L and opens from an interior of the piston pump immediately adjacent to the ring shoulder .
An in-vehicle monitoring system that comprises: a plurality of monitoring cameras and a plurality of emergency call devices mounted on a vehicle of a train; a display unit that displays information transferred within the vehicle, the display unit comprising a touch panel that is arranged on a display screen of the display unit and receives an operation corresponding to, for example, a contact position; and an information control device that transmits imaging data from the monitoring cameras to the display unit, and that monitors inside of the vehicle by using images taken by the monitoring cameras, wherein a first table , in which IP addresses of the emergency call devices and multicast addresses are stored in association with each other in a one-to-one relationship or a one-to-many relationship, is set in the information control device, a second table , in which multicast addresses in the first table are stored in association with IP addresses of the monitoring cameras , respectively, is set in the monitoring cameras , the monitoring camera transmits imaging data to a multicast address corresponding to its IP address in the second table , and upon receiving a call signal from an operated emergency call device, the information control device specifies one or more multicast addresses corresponding to an IP address of an emergency call device as a source of the call signal by referring to the first table and transmits imaging data in one or more multicast packets transmitted from the specified one or more multicast addresses to the display unit, and wherein graphic data schematically expressing an installation state of emergency call devices and monitoring cameras in a vehicle is set in the information control device for each vehicle, upon receiving the call signal, the information control device outputs the graphic data corresponding to a vehicle in which an emergency call device as a source of the call signal is installed to the display unit , and the display unit displays emergency call devices and monitoring cameras in the vehicle on a basis of the graphic data, and when a monitoring camera displayed on a screen is operated, displays an image taken by the monitoring camera.
A method, performed by multiple first apparatuses (1, 1-1, 1-2, 1-3), comprising: automatically and repeatedly obtaining , by each of said first apparatuses (1, 1-1, 1-2, 1-3), information representative of an ambient pressure at a respective first apparatus (1, 1-1, 1-2, 1-3); measuring , by each of said first apparatuses (1, 1-1, 1-2, 1-3), an ambient pressure for obtaining said information representative of an ambient pressure at a respective first apparatus (1, 1-1, 1-2, 1-3); and automatically and repeatedly sending.or triggering sending , by each of said first apparatuses (1, 1-1, 1-2, 1-3), at least a part of said obtained information representative of an ambient pressure at a respective first apparatus (1, 1-1, 1-2, 1-3), wherein said information representative of an ambient pressure at a respective first apparatus (1, 1-1, 1-2, 1-3) is at least sent as advertising data using at least one advertising channel. automatically and repeatedly obtaining , by each of said first apparatuses (1, 1-1, 1-2, 1-3), information representative of an ambient pressure at a respective first apparatus (1, 1-1, 1-2, 1-3); measuring , by each of said first apparatuses (1, 1-1, 1-2, 1-3), an ambient pressure for obtaining said information representative of an ambient pressure at a respective first apparatus (1, 1-1, 1-2, 1-3); and automatically and repeatedly sending.or triggering sending , by each of said first apparatuses (1, 1-1, 1-2, 1-3), at least a part of said obtained information representative of an ambient pressure at a respective first apparatus (1, 1-1, 1-2, 1-3), wherein said information representative of an ambient pressure at a respective first apparatus (1, 1-1, 1-2, 1-3) is at least sent as advertising data using at least one advertising channel.
An oil-resistant film comprising a polyvinyl alcohol-based polymer (A) and a polymer particle (B) containing a polymer having a glass transition temperature of 40°C or lower, wherein the content of the polymer particle (B) is 1 part by mass or more and less than 150 parts by mass based on 100 parts by mass of the polyvinyl alcohol-based polymer (A), the total content of the polyvinyl alcohol-based polymer (A) and the polymer particle (B) in the oil-resistant film is 50% by mass or more, and the polymer particle (B) is a (meth)acrylic acid ester-based polymer particle. the total content of the polyvinyl alcohol-based polymer (A) and the polymer particle (B) in the oil-resistant film is 50% by mass or more, and the polymer particle (B) is a (meth)acrylic acid ester-based polymer particle.
A heat treatment method of an Ni-base alloy comprising not more than 0.1 wt% C, not more than 50wt% Fe, not more than 30wt% Cr, Ti, and at least one of Nb and Al, the method comprising: (a) subjecting the Ni-base alloy to a first solution heat treatment at a temperature of not lower than solid solution temperature of a η phase (Ni 3 Ti), a γ' phase (Ni 3 Al), and a γ" phase (Ni 3 Nb), and not higher than the solid solution temperature of the η phase; (b) subjecting the Ni-base alloy, processed by the first solution heat treatment, to a first aging treatment to precipitate the η phase at a temperature of 800°C to 900°C wherein the η phase (Ni 3 Ti) is precipitated in the grain boundaries, thus making the boundaries zigzag; (c) subjecting the Ni-base alloy, processed by the first aging treatment, to a second solution heat treatment, at a temperature which is higher than the solid solution temperatures of the γ' and γ" phases, and higher than the solid solution temperature of the γ phase by 10°C, to cause the γ' phase and the γ" phase to again dissolve and not higher as the solid solution temperature of the η phase; and (d) subjecting the Ni-base alloy, processed by the second solution heat treatment, to a second aging treatment to precipitate at least one of the γ' phase and the γ" phase at a temperature of not higher than 800°C. (a) subjecting the Ni-base alloy to a first solution heat treatment at a temperature of not lower than solid solution temperature of a η phase (Ni 3 Ti), a γ' phase (Ni 3 Al), and a γ" phase (Ni 3 Nb), and not higher than the solid solution temperature of the η phase; (b) subjecting the Ni-base alloy, processed by the first solution heat treatment, to a first aging treatment to precipitate the η phase at a temperature of 800°C to 900°C wherein the η phase (Ni 3 Ti) is precipitated in the grain boundaries, thus making the boundaries zigzag; (c) subjecting the Ni-base alloy, processed by the first aging treatment, to a second solution heat treatment, at a temperature which is higher than the solid solution temperatures of the γ' and γ" phases, and higher than the solid solution temperature of the γ phase by 10°C, to cause the γ' phase and the γ" phase to again dissolve and not higher as the solid solution temperature of the η phase; and (d) subjecting the Ni-base alloy, processed by the second solution heat treatment, to a second aging treatment to precipitate at least one of the γ' phase and the γ" phase at a temperature of not higher than 800°C.
A communication system for providing feedback data for at least one water consuming device comprising: at least one collection device configured to capture user data describing a biological characteristic of a user; a data collection interface communicably coupled to the at least one collection device; a controller comprising a processor and memory , wherein the controller is communicably coupled to the data collection interface and an output interface , and wherein the controller is configured to: receive, via the data collection interface from the at least one collection device, the user data describing the biological characteristic of the user; determine feedback data corresponding to water flow from the at least one water consuming device based on the biological characteristic of the user described by the user data from the at least one collection device; and provide, via the output interface to the at least one water consuming device, the feedback data for controlling the water flow from the at least one water consuming device based on the user data; characterised in that the at least one collection device is arranged separately from the at least one water consuming device. at least one collection device configured to capture user data describing a biological characteristic of a user; a data collection interface communicably coupled to the at least one collection device; a controller comprising a processor and memory , wherein the controller is communicably coupled to the data collection interface and an output interface , and wherein the controller is configured to: receive, via the data collection interface from the at least one collection device, the user data describing the biological characteristic of the user; determine feedback data corresponding to water flow from the at least one water consuming device based on the biological characteristic of the user described by the user data from the at least one collection device; and provide, via the output interface to the at least one water consuming device, the feedback data for controlling the water flow from the at least one water consuming device based on the user data; receive, via the data collection interface from the at least one collection device, the user data describing the biological characteristic of the user; determine feedback data corresponding to water flow from the at least one water consuming device based on the biological characteristic of the user described by the user data from the at least one collection device; and provide, via the output interface to the at least one water consuming device, the feedback data for controlling the water flow from the at least one water consuming device based on the user data; characterised in that the at least one collection device is arranged separately from the at least one water consuming device.
Test system for testing an over-the-air communication of a device under test , the test system comprising: a mechanical positioning structure adapted to move and/or rotate the device under test ; a test antenna adapted to emit wireless signals to the device under test and/or receive wireless signals from the device under test , wherein the test antenna comprises a beamforming antenna array; a support device adapted to carry the test antenna wherein the support device comprises a movable test antenna carrier adapted to carry the test antenna , wherein the movable test antenna carrier is adapted to adjust a position of the test antenna on the support device ; and a radio communication device connected to the test antenna and adapted to establish a communication link between the test antenna and the device under test and to maintain the communication link between the test antenna and the device under test while moving around or rotating the device under test . a mechanical positioning structure adapted to move and/or rotate the device under test ; a test antenna adapted to emit wireless signals to the device under test and/or receive wireless signals from the device under test , wherein the test antenna comprises a beamforming antenna array; a support device adapted to carry the test antenna wherein the support device comprises a movable test antenna carrier adapted to carry the test antenna , wherein the movable test antenna carrier is adapted to adjust a position of the test antenna on the support device ; and a radio communication device connected to the test antenna and adapted to establish a communication link between the test antenna and the device under test and to maintain the communication link between the test antenna and the device under test while moving around or rotating the device under test .
A fusion protein characterized in that a complete protein sequence or partial fragment protein sequence for an apolipoprotein A1:ApoA I is linked directly or via a spacer to a LOX-1 binding protein sequence for binding to LOX-1.
An automatic gate assembly, of the type including at least one first automatic gate and at least one second automatic gate , the or each first automatic gate including: - a first frame defining a first passage , - at least one first obstacle for selectively closing and opening the first passage , the first obstacle consisting of an obstacle of a first type: swing leaf , laterally sliding leaf, pivoting leaf, and - a first motor assembly for moving the first obstacle , the or each second automatic gate including: - a second frame defining a second passage , - at least one second obstacle for selectively closing and opening the second passage , and - a second motor assembly for moving the second obstacle , characterized in that : - said second obstacle consists of an obstacle of a second type, different from the first type and chosen from the following obstacles: swing leaf, laterally sliding leaf , pivoting leaf; - the first and second motor assemblies are substantially identical to each other. - a first frame defining a first passage , - at least one first obstacle for selectively closing and opening the first passage , the first obstacle consisting of an obstacle of a first type: swing leaf , laterally sliding leaf, pivoting leaf, and - a first motor assembly for moving the first obstacle , - a second frame defining a second passage , - at least one second obstacle for selectively closing and opening the second passage , and - a second motor assembly for moving the second obstacle , - said second obstacle consists of an obstacle of a second type, different from the first type and chosen from the following obstacles: swing leaf, laterally sliding leaf , pivoting leaf; - the first and second motor assemblies are substantially identical to each other.
An electrical parameter sensor probe operative to detect an electrical parameter in an insulated conductor without requiring galvanic contact with the insulated conductor , the electrical parameter sensor probe comprising: a body ; a flexible arm and a fixed arm coupled to the body, the flexible arm movable between a closed position and an open position, wherein, in the closed position, an end portion of the flexible arm contacts an end portion of the fixed arm to form an enclosed measurement loop that defines a measurement area that receives the insulated conductor and, in the open position, the end portion of the flexible arm is spaced apart from the end portion of the fixed arm to allow the insulated conductor to move into and out of the measurement area ; an actuator operatively coupled to the flexible arm , the actuator being responsive to move the flexible arm between the closed position and the open position, and being responsive to move the flexible arm between the open position and the closed position; and at least one non-contact sensor coupled to at least one of the body and the flexible arm , the at least one non-contact sensor positioned proximate to the measurement area and operative to sense at least one electrical parameter in the insulated conductor when the insulated conductor is positioned within the measurement area . a body ; a flexible arm and a fixed arm coupled to the body, the flexible arm movable between a closed position and an open position, wherein, in the closed position, an end portion of the flexible arm contacts an end portion of the fixed arm to form an enclosed measurement loop that defines a measurement area that receives the insulated conductor and, in the open position, the end portion of the flexible arm is spaced apart from the end portion of the fixed arm to allow the insulated conductor to move into and out of the measurement area ; an actuator operatively coupled to the flexible arm , the actuator being responsive to move the flexible arm between the closed position and the open position, and being responsive to move the flexible arm between the open position and the closed position; and at least one non-contact sensor coupled to at least one of the body and the flexible arm , the at least one non-contact sensor positioned proximate to the measurement area and operative to sense at least one electrical parameter in the insulated conductor when the insulated conductor is positioned within the measurement area .