mhurhangee/patent-ind-claim-en huggingface dataset:
Exposure device for exposing planar material , the planar material having a first side and a second side opposite the first side and the exposure device having a first exposure unit and a transport unit , characterised in that the first exposure unit comprises at least one segment having a light source and is designed to be rotatable about a pin , the first exposure unit being able to assume a first position and a second position by rotation about the pin and the first exposure unit and the transport unit being configured such that in the first position of the first exposure unit , the first side of the planar material is supplied and moved past the first exposure unit for exposure, and in the second position of the first exposure unit , the second side of the planar material is supplied and moved past the first exposure unit for exposure.
A method, comprising, by a transcoding server , receiving, from a client computing device , job configuration information, sent by a host computing server to the client computing device in response to a request to upload a multimedia file, wherein the job configuration information comprises an access token enabling the client computing device to access one or more transcoding servers ; by the transcoding server , receiving the multimedia file from the client computing device ; by the transcoding server , determining whether the access token of the job configuration information is valid; and by the transcoding server , if the access token is valid, then: transcoding the multimedia file; storing the transcoded multimedia file; and sending, to the client computing device , a job response for forwarding to the host computing server , wherein the job response indicates a size of the transcoded multimedia file and one or more security policies associated with the transcoded multimedia file. transcoding the multimedia file; storing the transcoded multimedia file; and sending, to the client computing device , a job response for forwarding to the host computing server , wherein the job response indicates a size of the transcoded multimedia file and one or more security policies associated with the transcoded multimedia file.
An antenna arrangement comprising: two or more feed antennas adapted to transmit and receive radio signals, wherein the two or more feed antennas comprise at least a first feed antenna adapted to operate in a first frequency band and a second feed antenna adapted to operate in a second frequency band, the first frequency band and the second frequency band being discontiguous with each other; and an antenna radome arranged around the two or more feed antennas , wherein the antenna radome comprises a nonmetallic section penetrable by radio waves, characterized in that the antenna radome further comprises a metallic section implementing an antenna reflector for the two or more feed antennas , the metallic section having a parabolic shape forming an offset parabolic antenna reflector for the two or more feed antennas or polyhedral shape approximating a parabolic shape and forming an offset quasi-parabolic antenna reflector for the two or more feed antennas . two or more feed antennas adapted to transmit and receive radio signals, wherein the two or more feed antennas comprise at least a first feed antenna adapted to operate in a first frequency band and a second feed antenna adapted to operate in a second frequency band, the first frequency band and the second frequency band being discontiguous with each other; and an antenna radome arranged around the two or more feed antennas , wherein the antenna radome comprises a nonmetallic section penetrable by radio waves, characterized in that the antenna radome further comprises a metallic section implementing an antenna reflector for the two or more feed antennas , the metallic section having a parabolic shape forming an offset parabolic antenna reflector for the two or more feed antennas or polyhedral shape approximating a parabolic shape and forming an offset quasi-parabolic antenna reflector for the two or more feed antennas .
Device for generating active haptic feedback, comprising a piezoelectric actuator having a flat piezoelectric main body (GK) having plane-parallel main surfaces in an xy plane and first and second actuator electrodes, having a cymbal-shaped element (KB) shaped as a truncated-cone-shaped metal sheet, said cymbal-shaped element being fixedly adhesively bonded on one of the main surfaces, wherein the truncated cone vertex of the cymbal-shaped element (KB) faces away from the main body, wherein a cavity is enclosed between the cymbal-shaped element (KB) and the main body (GK), wherein a hole (B) is provided in the cymbal-shaped element, said hole enabling pressure equalization between the cavity and the surroundings, wherein a respective cymbal-shaped element is arranged on both main surfaces of the main body (GK), characterized in that the two cymbal-shaped elements (KB) are fixed between a base (BS) and an actuation plate (BP) by way of their truncated cones, wherein the actuation plate is connected to the base and is fixed by means of a preload. comprising a piezoelectric actuator having a flat piezoelectric main body (GK) having plane-parallel main surfaces in an xy plane and first and second actuator electrodes, having a cymbal-shaped element (KB) shaped as a truncated-cone-shaped metal sheet, said cymbal-shaped element being fixedly adhesively bonded on one of the main surfaces, wherein the truncated cone vertex of the cymbal-shaped element (KB) faces away from the main body, wherein a cavity is enclosed between the cymbal-shaped element (KB) and the main body (GK), wherein a hole (B) is provided in the cymbal-shaped element, said hole enabling pressure equalization between the cavity and the surroundings, wherein a respective cymbal-shaped element is arranged on both main surfaces of the main body (GK), characterized in that the two cymbal-shaped elements (KB) are fixed between a base (BS) and an actuation plate (BP) by way of their truncated cones, wherein the actuation plate is connected to the base and is fixed by means of a preload.
A LED arrangement with a light output surface comprising an area of LED chips and an area between the LED chips, comprising: a rectifier for rectifying a mains input ; a first group of LEDs distributed on the light output surface ; and a second group of LEDs distributed on the light output surface and in series with said first group of LEDs, and a control switch (S1) coupled at a node between the first group and the second group and coupled at an output of the rectifier , wherein said first group of LEDs is adapted to be kept turned on and the second group of LEDs is adapted to be bypassed when the mains input is below a first threshold, and said first group of LEDs and the second group of LEDs are adapted to be kept turned on when the mains input is above the first threshold such that the second group of LEDs are turned on for a second duration less than a first duration for turning on the first group of LEDs in each cycle of the rectified mains input and characterised in that the total light output density for the LEDs of the second group per unit area of the light output surface is greater than the total light output density for the LEDs of the first group per unit area of the light output surface, wherein a ratio of an area of LED chips of the second group of LEDs to a second area of the light output surface throughout which the LED chips of the second group of LEDs are distributed is larger than a ratio of an area of LED chips of the first group of LEDs to a first area of the light output surface throughout which the LED chips of the first group of LEDs are distributed. a rectifier for rectifying a mains input ; a first group of LEDs distributed on the light output surface ; and a second group of LEDs distributed on the light output surface and in series with said first group of LEDs, and a control switch (S1) coupled at a node between the first group and the second group and coupled at an output of the rectifier , wherein said first group of LEDs is adapted to be kept turned on and the second group of LEDs is adapted to be bypassed when the mains input is below a first threshold, and said first group of LEDs and the second group of LEDs are adapted to be kept turned on when the mains input is above the first threshold such that the second group of LEDs are turned on for a second duration less than a first duration for turning on the first group of LEDs in each cycle of the rectified mains input and characterised in that the total light output density for the LEDs of the second group per unit area of the light output surface is greater than the total light output density for the LEDs of the first group per unit area of the light output surface, wherein a ratio of an area of LED chips of the second group of LEDs to a second area of the light output surface throughout which the LED chips of the second group of LEDs are distributed is larger than a ratio of an area of LED chips of the first group of LEDs to a first area of the light output surface throughout which the LED chips of the first group of LEDs are distributed.
Measuring arrangement for measuring a rotational position and/or a rotation speed of a crankshaft , comprising a plurality of coils, wherein the crankshaft can rotate about a rotation axis and has a measuring section, wherein an electromagnetic field can be generated by a transmitting coil , wherein an electrical signal can be generated by means of a transmitting unit, wherein the electrical signal is applied to the transmitting coil , wherein one measuring section has a cross section which is not point-symmetrical and has regions with a relatively large crankshaft radius and regions with a relatively small crankshaft radius , wherein the electromagnetic field which is generated by the transmitting coil and is influenced by the measuring section can be received by the receiving coils , wherein a measure for the rotational position of the crankshaft owing to the change in a received signal of the receiving coils and a measure for the rotational position of the crankshaft can be determined, characterized in that the transmitting coil and a plurality of receiving coils and also the measuring section are arranged in a hollow conductor, wherein a carrier frequency of the electrical signal lies below a minimum limit frequency of the hollow conductor, wherein the measuring section is formed by a crank web and an counterweight , wherein the crank web and the counterweight are fastened to the crankshaft or are formed in one piece with the crankshaft .
A stent (C) with a marker (A, B) for confirming a position of the stent (C) within a human body, the stent formed of wires, wherein the stent (C) has a stent main wire formed in a zigzag pattern, and wherein a pipe , which is made of a raw material which can be recognized by at least one of an X-ray imaging apparatus and a magnetic resonance imaging (MRI) apparatus is fitted to a zigzag-shaped turn-back section (E) of the stent main wire and/or a vicinity of the turn-back section (E), characterized in that the pipe as the marker (A, B) has a width of at least 2,5 mm, a length of at least 1,0 mm and a thickness of at least 0,5 mm.
Method for monitoring an object , in particular a vehicle, by means of one or more mobile radio base stations (6; 6a) of a mobile radio network , wherein the object has a first network access device for the mobile radio network , which network access device has a communication connection (11; 11a) to at least one of the mobile radio base stations (6; 6a), wherein the method comprises the following steps: S1a) reception of first data from the first network access device by the at least one mobile radio base station (6; 6a) and S2a) detection of a physical position or of a physical change of position of the object on the basis of the first data; S3) checking of the detected position or change of position to determine whether it satisfies a predetermined criterion; and S4) if this is the case, output of a predetermined signal; wherein at least one of steps (S2a) and (S3) is carried out by the at least one mobile radio base station (6; 6a); and wherein the method comprises the following further steps: establishment, in a monitoring device of the object , of whether deactivation of the first network access device or deregistration thereof from the mobile radio network is being initiated or has already been effected; and if this is the case, triggering of the predetermined signal, wherein: the predetermined signal is addressed to a respective predetermined network access device of at least one receiver in order to alert the latter; and wherein the first network access device is integrated in a vehicle or connected thereto via a data connection, and the predetermined signal comprises at least one signal that is used by the mobile radio base station (6; 6a) to send to the first network access device , via the communication connection (11; 11a), information for the control or regulation of one or more functions of the vehicle. S1a) reception of first data from the first network access device by the at least one mobile radio base station (6; 6a) and S2a) detection of a physical position or of a physical change of position of the object on the basis of the first data; S3) checking of the detected position or change of position to determine whether it satisfies a predetermined criterion; and S4) if this is the case, output of a predetermined signal; the predetermined signal is addressed to a respective predetermined network access device of at least one receiver in order to alert the latter; and wherein the first network access device is integrated in a vehicle or connected thereto via a data connection, and the predetermined signal comprises at least one signal that is used by the mobile radio base station (6; 6a) to send to the first network access device , via the communication connection (11; 11a), information for the control or regulation of one or more functions of the vehicle.
A cross-linkable nitrile rubber composition comprising a highly saturated nitrile rubber (A) containing α,β-ethylenically unsaturated nitrile monomer units in a ratio of 10 to 60 wt% and having an iodine value of 120 or less, a master batch (B) containing an ethylene-vinyl acetate copolymer (b1) having a melt flow rate measured under a load of 21.18N at 190°C of 0.5 to 1000 g/10 min. and containing vinyl acetate monomer units in a ratio of 5 to 50 wt% and an organic staple fiber (b2) having an average fiber length of 0.1 to 12 mm, and a cross-linking agent (C), wherein a ratio of the ethylene-vinyl acetate copolymer (b1) and the organic staple fiber (b2) in the master batch (B) is, in terms of a weight ratio of "ethylene-vinyl acetate copolymer (b1):organic staple fiber (b2)", 30:70 to 80:20.
An energy storage system comprising: - a plurality of physical devices comprising at least a battery and a power inverter operable to charge and discharge the battery , each of the physical devices storing one or more data points; - an integration engine comprising: - a processing circuit having a processor and memory , the memory communicably connected to the processor configured to execute computer code or instructions stored in the memory ; - an interface communicably connected to the plurality of physical devices ; and - a virtual device network stored in the memory and comprising: - a plurality of virtual devices , each of the virtual devices comprising one or more attributes; and - a virtual device manager configured to create and/or manage the plurality of virtual devices , characterised in that the virtual device manager is configured to map the attributes of the virtual devices to corresponding data points stored by the physical devices via the interface and update the attributes of the virtual devices in response to detecting changes in value of the corresponding data points stored by the physical devices . - a plurality of physical devices comprising at least a battery and a power inverter operable to charge and discharge the battery , each of the physical devices storing one or more data points; - an integration engine comprising: - a processing circuit having a processor and memory , the memory communicably connected to the processor configured to execute computer code or instructions stored in the memory ; - an interface communicably connected to the plurality of physical devices ; and - a virtual device network stored in the memory and comprising: - a plurality of virtual devices , each of the virtual devices comprising one or more attributes; and - a virtual device manager configured to create and/or manage the plurality of virtual devices , - a processing circuit having a processor and memory , the memory communicably connected to the processor configured to execute computer code or instructions stored in the memory ; - an interface communicably connected to the plurality of physical devices ; and - a virtual device network stored in the memory and comprising: - a plurality of virtual devices , each of the virtual devices comprising one or more attributes; and - a virtual device manager configured to create and/or manage the plurality of virtual devices , - a plurality of virtual devices , each of the virtual devices comprising one or more attributes; and - a virtual device manager configured to create and/or manage the plurality of virtual devices ,
A heater comprising: a first power pin ; a second power pin ; and a resistive heating element configured to generate heat and having two ends connected to the first and second power pins , the first and second power pins configured to supply power to the resistive heating element , characterized in that the first power pin is made of a first conductive material, the second power pin being made of a second conductive material that is dissimilar from the first conductive material of the first power pin , the resistive heating element being made of a material that is different from the first and second conductive materials of the first and second power pins , such that the resistive heating element forms a first junction at one end with the first power pin and a second junction at its other end with the second power pin , wherein the heater performs dual function of heat generation and temperature measurement and changes in voltage at the first and second junctions are detected to determine an average temperature of the heater . a first power pin ; a second power pin ; and a resistive heating element configured to generate heat and having two ends connected to the first and second power pins , the first and second power pins configured to supply power to the resistive heating element ,
A wrought 7xxx-series aluminium alloy product having a composition comprising, in wt.%., Zn 6.20 to 7.50, Mg 2.15 to 2.60, Cu 1.20 to 2.00, and wherein Cu+Mg < 4.50, and wherein Mg < 2.5 + 5/3(Cu - 1.2), Fe up to 0.25, Si up to 0.25, up to 0.3 of one or more of V, Ni, Co, Nb, Mo, Ge, Er, Hf, Ce, Y, Dy, Sr and optionally one or more elements selected from the group consisting of: Zr up to 0.3, Cr up to 0.3, Mn up to 0.45, Ti up to 0.25, Sc up to 0.5, Ag up to 0.5, the balance being aluminium and impurities.
A superconducting wire comprising: a matrix comprising a Cu-based metal; and at least one continuous subelement embedded in the matrix; wherein each subelement comprises: a non-superconducting core; a superconducting layer coaxially disposed around the non-superconducting core; and a barrier layer coaxially disposed around the superconducting layer; characterised in that the superconducting layer comprises a plurality of Nb 3 Sn grains stabilized by metal oxide particulates disposed therein, and wherein the Nb 3 Sn grains have an average grain size of from 5 nm to 90 nm. a matrix comprising a Cu-based metal; and at least one continuous subelement embedded in the matrix; wherein each subelement comprises: a non-superconducting core; a superconducting layer coaxially disposed around the non-superconducting core; and a barrier layer coaxially disposed around the superconducting layer; a non-superconducting core; a superconducting layer coaxially disposed around the non-superconducting core; and a barrier layer coaxially disposed around the superconducting layer; characterised in that the superconducting layer comprises a plurality of Nb 3 Sn grains stabilized by metal oxide particulates disposed therein, and wherein the Nb 3 Sn grains have an average grain size of from 5 nm to 90 nm.
A method for network configuration, implemented by a first device, wherein the method comprises: broadcasting (S501) a probe request frame, wherein the probe request frame carries device information of the first device and a first network identifier pre-stored in the first device; responsive to that a predetermined field of a received probe response frame carries predetermined connection information, establishing (S507), based on the predetermined connection information, a first connection with a target router that sent the probe response frame, wherein the probe response frame carrying the predetermined connection information in the predetermined field is sent after the device information is verified, and the predetermined connection information comprises a Media Access Control, MAC, address of the target router; acquiring (S508) a second network identifier from the target router based on the first connection; and establishing (S509) a second connection with the target router based on the second network identifier, to perform interaction with a second device through the second connection. broadcasting (S501) a probe request frame, wherein the probe request frame carries device information of the first device and a first network identifier pre-stored in the first device; responsive to that a predetermined field of a received probe response frame carries predetermined connection information, establishing (S507), based on the predetermined connection information, a first connection with a target router that sent the probe response frame, wherein the probe response frame carrying the predetermined connection information in the predetermined field is sent after the device information is verified, and the predetermined connection information comprises a Media Access Control, MAC, address of the target router; acquiring (S508) a second network identifier from the target router based on the first connection; and establishing (S509) a second connection with the target router based on the second network identifier, to perform interaction with a second device through the second connection.