mhurhangee/patent-ind-claim-en huggingface dataset:
A user interface device comprising: a flexible layer comprising a touch surface configured to receive a touch by a user; a plurality of haptic cells covered by the flexible layer, each haptic cell comprising a haptic output device ; a sensor configured to sense deformation of the flexible layer when a user touches the touch surface; and a processor configured to receive an output signal from the sensor, generate a haptic control signal based on the output signal from the sensor, and output the haptic control signal to at least one haptic output device of the plurality of haptic cells to cause the haptic output device to deform an associated haptic cell in response to the sensed deformation of the flexible layer and to thereby provide a resistance of the flexible layer against the sensed deformation, characterised in that: the sensor is configured to sense an amount and/or rate of deformation; and the resistance to be provided is based on the sensed amount and/or rate of deformation. a flexible layer comprising a touch surface configured to receive a touch by a user; a plurality of haptic cells covered by the flexible layer, each haptic cell comprising a haptic output device ; a sensor configured to sense deformation of the flexible layer when a user touches the touch surface; and a processor configured to receive an output signal from the sensor, generate a haptic control signal based on the output signal from the sensor, and output the haptic control signal to at least one haptic output device of the plurality of haptic cells to cause the haptic output device to deform an associated haptic cell in response to the sensed deformation of the flexible layer and to thereby provide a resistance of the flexible layer against the sensed deformation, characterised in that: the sensor is configured to sense an amount and/or rate of deformation; and the resistance to be provided is based on the sensed amount and/or rate of deformation. the sensor is configured to sense an amount and/or rate of deformation; and the resistance to be provided is based on the sensed amount and/or rate of deformation.
Method for producing a coated tool comprising steps in which a base body made of hard metal, cermet, ceramic, steel or high speed steel is provided in a PVD process with a multi-layer coating having a total thickness of 1 μm to 20 μm, wherein the multi-layer coating comprises a bonding layer and an anti-wear protective layer deposited directly onto said bonding layer, wherein said bonding layer is formed in multiple layers by means of reactive or non-reactive cathodic vacuum arc vapor deposition (Arc-PVD), wherein two layers disposed directly one over the other have different compositions and the multiple layers of the bonding layer comprise alternating layers of titanium-aluminium nitride having different compositions, wherein layers having a ratio of Ti:Al of (30 to 36):(70 to 64), and layers having a ratio of Ti:Al of (40 to 60): (60 to 40), preferably (47 to 53): (53 to 47) alternate, and wherein the anti-wear protective layer is formed in one or more layers by means of high-power impulse magnetron sputtering (HIPIMS), wherein the one or more layers of the anti-wear protective layer are made of carbides, nitrides, oxides, carbonitrides, oxicarbides, carboxinitrides of at least two different metals selected from Ti, V, Cr, Zr, Nb, Mo, Ru, Hf, Ta, W, Al, Si, Y, Li and B, and solid solutions thereof. wherein said bonding layer is formed in multiple layers by means of reactive or non-reactive cathodic vacuum arc vapor deposition (Arc-PVD), wherein two layers disposed directly one over the other have different compositions and the multiple layers of the bonding layer comprise alternating layers of titanium-aluminium nitride having different compositions, wherein layers having a ratio of Ti:Al of (30 to 36):(70 to 64), and layers having a ratio of Ti:Al of (40 to 60): (60 to 40), preferably (47 to 53): (53 to 47) alternate, and wherein the anti-wear protective layer is formed in one or more layers by means of high-power impulse magnetron sputtering (HIPIMS), wherein the one or more layers of the anti-wear protective layer are made of carbides, nitrides, oxides, carbonitrides, oxicarbides, carboxinitrides of at least two different metals selected from Ti, V, Cr, Zr, Nb, Mo, Ru, Hf, Ta, W, Al, Si, Y, Li and B, and solid solutions thereof.
Silencer for a compressed air system of a vehicle, in particular a commercial vehicle, with a housing , with at least one air inlet and with at least one air outlet and with a labyrinth-like insulation structure arranged in the housing , wherein the housing is configured at least in two parts with at least one housing top part and with at least one housing lower part, wherein the housing top part has at least one substantially entirely radially encircling housing top part rib and wherein the housing lower part has at least one substantially entirely radially encircling housing lower part rib , wherein the housing top part and the housing lower part engage with each other, so that a housing top part rib engages between two housing lower part ribs and or a housing lower part rib engages between two housing top part ribs .
Vehicle seat (100; 200; 300), in particular a motor-vehicle seat, having a seat part (102; 202; 302), having a backrest (104; 304), having a kinematics mechanism (110; 210; 310) for transferring the vehicle seat (100; 200; 300) from a use position, in which the vehicle seat is suitable for transporting people, into a not-in-use position, and back again, and having a locking device, in particular a lock (120; 320), for locking the kinematics mechanism (110; 210; 310) in the use position, wherein, when the locking device has been unlocked, the vehicle seat (100; 200; 300) can be transferred out of the use position into the access position, wherein the kinematics mechanism (110; 210; 310), for transferring the vehicle seat (100; 200; 300) out of the use position into the not-in-use position, can be coupled to a drive device (130; 230; 330) by a coupling device (150; 250; 350), characterized in that the coupling device (150; 250; 350) has an unlocking swing arm (172; 272; 372) for at least indirectly unlocking the locking device, wherein, in the use position of the vehicle seat (100; 200; 300), activation of the drive device (130; 230; 330) first of all causes the unlocking swing arm (172; 272; 372) to pivot, so that the locking device is unlocked, and it is only following the pivoting movement of the unlocking swing arm (172; 272; 372) that the kinematics mechanism (110; 210; 310) can be driven by the drive device (130; 230; 330) for the purpose of transferring the vehicle seat (100; 200; 300) into the not-in-use position.
A light emitting diode (LED) module comprising: a substrate having a first thermal conductivity; an LED die electrically and thermally mounted on the substrate; a wavelength conversion material having a second thermal conductivity substantially lower than the first thermal conductivity, the wavelength conversion material located overlying the LED die; a light transmitting top plate having a third thermal conductivity greater than the second thermal conductivity, the top plate being positioned over the wavelength conversion material; and a hermetic seal formed by a sealant material between the top plate and the substrate surrounding the LED die and wavelength conversion material , wherein edges of the top plate and edges of the substrate coincide due to the top plate and the substrate being sealed during a wafer level process and the wafer then singulated to form the LED module, wherein the LED die is located in a cavity in the substrate , characterized in that the sealant material comprises a metal solder, wherein the LED die is bonded to a substrate electrode using the same metal solder , and wherein the hermetic seal is formed when the substrate is heated to melt the metal solder ; and the wavelength conversion material is deposited into the cavity using the cavity as a mold for the wavelength conversion material , wherein the top plate has openings for depositing the wavelength conversion material into the cavity after the hermetic seal is formed and wherein the openings in the top plate are filled to complete the hermetic seal. a substrate having a first thermal conductivity; an LED die electrically and thermally mounted on the substrate; a wavelength conversion material having a second thermal conductivity substantially lower than the first thermal conductivity, the wavelength conversion material located overlying the LED die; a light transmitting top plate having a third thermal conductivity greater than the second thermal conductivity, the top plate being positioned over the wavelength conversion material; and a hermetic seal formed by a sealant material between the top plate and the substrate surrounding the LED die and wavelength conversion material , wherein edges of the top plate and edges of the substrate coincide due to the top plate and the substrate being sealed during a wafer level process and the wafer then singulated to form the LED module, wherein the LED die is located in a cavity in the substrate , characterized in that the sealant material comprises a metal solder, wherein the LED die is bonded to a substrate electrode using the same metal solder , and wherein the hermetic seal is formed when the substrate is heated to melt the metal solder ; and the wavelength conversion material is deposited into the cavity using the cavity as a mold for the wavelength conversion material , wherein the top plate has openings for depositing the wavelength conversion material into the cavity after the hermetic seal is formed and wherein the openings in the top plate are filled to complete the hermetic seal.
Electromagnetically actuable valve for dosing a gas, in particular for dosing a gaseous fuel into an intake tract of an internal combustion engine, comprising a valve housing in which an electromagnet interacting with an armature , which is able to perform stroke movements, and serving for actuating a valve closure element is accommodated, at least one throughflow opening , which is formed in a valve seat element and connects an inflow region of the valve housing to an outflow region of the valve housing , being controllable via the stroke movement of said valve closure element, wherein, in the inflow region , at least one throughflow-limiting component is inserted, wherein the valve is able to be flowed into axially, that is to say in the direction of the stroke movement of the armature and of the valve closure element , and the at least one throughflow-limiting component in the inflow region is arranged upstream of the electromagnet , wherein the gas, in the open position of the valve, flows from the inflow region laterally past the electromagnet in the direction of the throughflow opening .
Method of performing acoustic scanning probe microscopy for imaging of one or more embedded structures in a substrate underneath a substrate surface, the method comprising the steps of: applying, using a signal application actuator , an acoustic input signal to the substrate , wherein the acoustic input signal has a frequency above 1 gigahertz; detecting, using a probe of a scanning probe microscope, an acoustic return signal from the substrate ; and analyzing the return signal for obtaining information on the embedded structures , for enabling imaging thereof; wherein the step of applying the acoustic input signal comprises applying a plurality of acoustic signal components , wherein each acoustic signal component includes a selected frequency above 1 gigahertz, and wherein the step of detecting includes detecting, for each of the plurality of acoustic signal components a response signal associated with the respective acoustic signal component ; wherein the frequencies of the acoustic signal components are selected such that together the plurality of acoustic signal components provide a composite signal, wherein the composite signal is a pulse signal of limited time duration. applying, using a signal application actuator , an acoustic input signal to the substrate , wherein the acoustic input signal has a frequency above 1 gigahertz; detecting, using a probe of a scanning probe microscope, an acoustic return signal from the substrate ; and analyzing the return signal for obtaining information on the embedded structures , for enabling imaging thereof; wherein the step of applying the acoustic input signal comprises applying a plurality of acoustic signal components , wherein each acoustic signal component includes a selected frequency above 1 gigahertz, and wherein the step of detecting includes detecting, for each of the plurality of acoustic signal components a response signal associated with the respective acoustic signal component ; wherein the frequencies of the acoustic signal components are selected such that together the plurality of acoustic signal components provide a composite signal, wherein the composite signal is a pulse signal of limited time duration.
A message processing method, comprising: sending , by a first network element, a first request message to a second network element, wherein the first request message belongs to a first hypertext transfer protocol HTTP interaction procedure; before receiving a first response message for the first request message, receiving , by the first network element, a second request message from the second network element, wherein the first response message belongs to the first HTTP interaction procedure, and the second request message belongs to a second HTTP interaction procedure; and performing, by the first network element, an operation on the second request message based on a relationship between the first HTTP interaction procedure and the second HTTP interaction procedure, characterized in that : the performing, by the first network element, an operation on the second request message based on a relationship between the first HTTP interaction procedure and the second HTTP interaction procedure comprises: if the first network element determines that the second HTTP interaction procedure depends on the first HTTP interaction procedure and the second request message cannot be rejected, buffering , by the first network element, the second request message; and after receiving and processing the first response message, processing, by the first network element, the second request message. sending , by a first network element, a first request message to a second network element, wherein the first request message belongs to a first hypertext transfer protocol HTTP interaction procedure; before receiving a first response message for the first request message, receiving , by the first network element, a second request message from the second network element, wherein the first response message belongs to the first HTTP interaction procedure, and the second request message belongs to a second HTTP interaction procedure; and performing, by the first network element, an operation on the second request message based on a relationship between the first HTTP interaction procedure and the second HTTP interaction procedure, characterized in that : the performing, by the first network element, an operation on the second request message based on a relationship between the first HTTP interaction procedure and the second HTTP interaction procedure comprises: if the first network element determines that the second HTTP interaction procedure depends on the first HTTP interaction procedure and the second request message cannot be rejected, buffering , by the first network element, the second request message; and after receiving and processing the first response message, processing, by the first network element, the second request message. if the first network element determines that the second HTTP interaction procedure depends on the first HTTP interaction procedure and the second request message cannot be rejected, buffering , by the first network element, the second request message; and after receiving and processing the first response message, processing, by the first network element, the second request message.
An anode for water electrolysis, comprising: a porous nickel substrate; and a thin film formed on at least a part of a surface of the substrate and comprising a perovskite structure metal oxide having a composition represented by formula : LnNi x CO (1-x) O 3 ... wherein, Ln is a metal element comprising a rare-earth element, and x satisfies 0 < x ≤ 1, wherein the anode further comprises a nickel oxide layer between the porous nickel substrate surface and the thin film. a porous nickel substrate; and a thin film formed on at least a part of a surface of the substrate and comprising a perovskite structure metal oxide having a composition represented by formula : LnNi x CO (1-x) O 3 ... wherein, Ln is a metal element comprising a rare-earth element, and x satisfies 0 < x ≤ 1, wherein the anode further comprises a nickel oxide layer between the porous nickel substrate surface and the thin film.
An apparatus comprising: a base ; a coiled tubing assembly affixed to said base , said coiled tubing assembly having a coiled tubing drum and a shaft ; and a slickline assembly affixed to said base , said slickline assembly having a slickline drum and at least one bearing unit , and characterized by : said shaft of said coiled tubing assembly being received by said at least one bearing unit so as to pass through an interior of said slickline drum such that said coiled tubing drum is rotatable independently of said slickline drum . a base ; a coiled tubing assembly affixed to said base , said coiled tubing assembly having a coiled tubing drum and a shaft ; and a slickline assembly affixed to said base , said slickline assembly having a slickline drum and at least one bearing unit , and characterized by : said shaft of said coiled tubing assembly being received by said at least one bearing unit so as to pass through an interior of said slickline drum such that said coiled tubing drum is rotatable independently of said slickline drum .
A robot system for which the position of a camera attached to an arm of a multi-joint robot is changeable to multiple predetermined positions, the robot system comprising: a camera ; a multi-joint robot including an arm , wherein the arm has multiple predetermined positions, to which the camera can be attached, and the camera is attached to the arm at one of the multiple predetermined positions; a memory device configured to memorize in advance offset information between the arm and the camera for each of the multiple predetermined positions, wherein the offset information includes a distance and a direction of the camera relative to a reference point of the multi-joint robot ; the robot system being characterized by comprising: a control device configured to control the multi-joint robot , wherein, when an imaging processing for capturing an image of a target object by the camera is executed by the control device , the control device is configured to: receive a target imaging position and the attachment position of the camera , read out, from the memory device , offset information corresponding to the attachment position of the camera , set a target arm position by offsetting the target imaging position based on the read-out offset information, and move the arm to the target arm position such that the target object is imaged by the camera . a camera ; a multi-joint robot including an arm , wherein the arm has multiple predetermined positions, to which the camera can be attached, and the camera is attached to the arm at one of the multiple predetermined positions; a memory device configured to memorize in advance offset information between the arm and the camera for each of the multiple predetermined positions, wherein the offset information includes a distance and a direction of the camera relative to a reference point of the multi-joint robot ; the robot system being characterized by comprising: a control device configured to control the multi-joint robot , wherein, when an imaging processing for capturing an image of a target object by the camera is executed by the control device , the control device is configured to: receive a target imaging position and the attachment position of the camera , read out, from the memory device , offset information corresponding to the attachment position of the camera , set a target arm position by offsetting the target imaging position based on the read-out offset information, and move the arm to the target arm position such that the target object is imaged by the camera . receive a target imaging position and the attachment position of the camera , read out, from the memory device , offset information corresponding to the attachment position of the camera , set a target arm position by offsetting the target imaging position based on the read-out offset information, and move the arm to the target arm position such that the target object is imaged by the camera .
Installation for recharging electric vehicles comprising at least one recharging station provided with at least one socket configured for the connection of an electric vehicle, a duct for the circulation of a fluid, at least two turbogenerators connected to the duct and allowing the production of electricity and electric distribution means configured to electrically power the at least one recharging station from the at least two turbogenerators , said duct comprising a line provided with a pressure reducer which allows the pressure of the fluid to be reduced to a pressure value P, characterised in that the at least two turbogenerators are mounted in parallel on a distribution manifold upstream from the pressure reducer on this line and configured to keep, at the outlet, a pressure of the fluid greater than the pressure P, the distribution manifold being configured to power all or some of the turbogenerators according to the variations of fluid consumption, management means for controlling the distribution manifold.