mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: forming an abrasive coating system on a substrate, the abrasive coating system comprising an abrasive coating including a plurality of abrasive particles in a metal matrix , wherein forming the abrasive coating system on the substrate comprises depositing the plurality of abrasive particles and the metal matrix on the substrate; machining the abrasive coating on the substrate to define a machined abrasive coating having an abrasive coating thickness profile; and etching an outer surface of the machined abrasive coating to remove a portion of the metal matrix and form an etched metal matrix such that the abrasive particles protrude from the metal matrix ; wherein the substrate comprises a blade of a gas turbine engine , the abrasive coating is formed on a blade tip of the blade , and the abrasive coating system of the blade tip is configured to abrade an abradable layer of a blade track during operation of the gas turbine engine , the method being characterized in that , directed energy deposition is used for depositing the plurality of abrasive particles and the metal matrix , while forming of the abrasive coating system on the substrate. forming an abrasive coating system on a substrate, the abrasive coating system comprising an abrasive coating including a plurality of abrasive particles in a metal matrix , wherein forming the abrasive coating system on the substrate comprises depositing the plurality of abrasive particles and the metal matrix on the substrate; machining the abrasive coating on the substrate to define a machined abrasive coating having an abrasive coating thickness profile; and etching an outer surface of the machined abrasive coating to remove a portion of the metal matrix and form an etched metal matrix such that the abrasive particles protrude from the metal matrix ; wherein the substrate comprises a blade of a gas turbine engine , the abrasive coating is formed on a blade tip of the blade , and the abrasive coating system of the blade tip is configured to abrade an abradable layer of a blade track during operation of the gas turbine engine , the method being characterized in that , directed energy deposition is used for depositing the plurality of abrasive particles and the metal matrix , while forming of the abrasive coating system on the substrate.
Method for automatically managing a movement authority for a guided vehicle A moving on a track of a railway network, said track comprising a first section and a second section consecutive to the first section , the guided vehicle A moving on the first section in direction of the second section , said method comprising chronologically the following steps: - sending, by means of a Trackside Centralized Movement Authority Generator, hereafter TCMAG, to an on-board system of the guided vehicle A, a request for checking an occupancy state of a part of the first section located ahead the guided vehicle A; - at the reception of said request by the on-board system , automatically launching a detection process involving a radar system of the guided vehicle A, wherein said detection process comprises using the radar system for detecting if a guided vehicle B is located in front of the guided vehicle A; - if no guided vehicle B is detected in front of the guided vehicle A, then automatically sending a message to the TCMAG informing the latter about a vacant state of the part of the first section located ahead the guided vehicle A; - automatically issuing by means of the TCMAG a movement authority to the on-board system if and only if the occupancy state of the second section is vacant and if the message informing about the vacant state of the part of the first section ahead the guided vehicle is received by the TCMAG characterized in that said request is sent only if a distance between a position of the guided vehicle A on the track and a boundary between the first section and the second section is smaller than a predefined distance calculated in function of a maximum detection length of the radar system and/or the track section geometry. - sending, by means of a Trackside Centralized Movement Authority Generator, hereafter TCMAG, to an on-board system of the guided vehicle A, a request for checking an occupancy state of a part of the first section located ahead the guided vehicle A; - at the reception of said request by the on-board system , automatically launching a detection process involving a radar system of the guided vehicle A, wherein said detection process comprises using the radar system for detecting if a guided vehicle B is located in front of the guided vehicle A; - if no guided vehicle B is detected in front of the guided vehicle A, then automatically sending a message to the TCMAG informing the latter about a vacant state of the part of the first section located ahead the guided vehicle A; - automatically issuing by means of the TCMAG a movement authority to the on-board system if and only if the occupancy state of the second section is vacant and if the message informing about the vacant state of the part of the first section ahead the guided vehicle is received by the TCMAG
A method for transmitting data to a sink device by a source device , the method comprising: establishing a mirroring mode with the sink device; in the mirroring mode, identifying a playback of a media content; in response to determining that the mirroring mode is activated, that the sink device supports a switch from the mirroring mode to the streaming mode for the media content, and that the sink device can reproduce the format of the streaming content transmitting , to the sink device, a first request message for setting at least one parameter corresponding to the media content; and establishing a streaming mode for the media content to be streamed, by additionally generating a session for the content streaming , switching from mirroring mode to streaming mode , and providing the media content to the sink device using the streaming mode. establishing a mirroring mode with the sink device; in the mirroring mode, identifying a playback of a media content; in response to determining that the mirroring mode is activated, that the sink device supports a switch from the mirroring mode to the streaming mode for the media content, and that the sink device can reproduce the format of the streaming content transmitting , to the sink device, a first request message for setting at least one parameter corresponding to the media content; and establishing a streaming mode for the media content to be streamed, by additionally generating a session for the content streaming , switching from mirroring mode to streaming mode , and providing the media content to the sink device using the streaming mode.
An assembly for guiding at least one moveable furniture door , in particular a folding-sliding door, relative to a stationary furniture part between a closed position of outwardly covering at least one internal space in the stationary furniture part and an open position which is at least region-wise sunk in an, in particular shaft-shaped, side space of the stationary furniture part, in which the at least one internal space of the stationary furniture part is freely accessible to a user, wherein the assembly includes at least one longitudinal rail which is oriented substantially parallel to a closing plane in which the at least one moveable furniture door is arranged in the closed position, and at least one transverse rail arranged transversely, in particular perpendicularly, to the longitudinal rail, wherein the transverse rail can be arranged substantially parallel to a depth direction of the side space of the stationary furniture part , wherein there is provided at least one fixing device for fixing the at least one longitudinal rail and/or transverse rail to the stationary furniture part , wherein the at least one fixing device has at least one adjusting device with which the at least one transverse rail or the at least one longitudinal rail and the at least one transverse rail is or are adjustable substantially parallel to a longitudinal direction of the at least one transverse rail relative to the stationary furniture part , wherein the at least one longitudinal rail and the at least one transverse rail provide a transitional region for the at least one moveable furniture door and wherein the at least one adjusting device includes at least one actuating element arranged in the transitional region , wherein the at least one actuating element is mounted rotatably on the at least one transverse rail and the at least one actuating element has a longitudinal axis and is mounted rotatably about said longitudinal axis , characterized in that the at least one actuating element is oriented substantially parallel to the longitudinal direction of the at least one transverse rail .
Laminated pane, comprising an outer pane , an inner pane , and at least two intermediate layers between the outer pane and the inner pane , wherein at least two separate functional elements with electrically controllable optical properties are arranged in a plane between the two intermediate layers , the functional elements comprise in each case, in this order, a first carrier film , a first surface electrode , an active layer , a second surface electrode , and a second carrier film , on two opposite sides of each functional element, an inner bus bar is connected in each case to the first surface electrode or to the second surface electrode of the respective functional element, at least one of the two opposite sides of each functional element is sealed, at least along a partial region, by two polyethylene terephthalate (PET) barrier films , wherein one PET barrier film is arranged partly between one intermediate layer and an edge region of the first carrier film and the other PET barrier film is arranged partly between the other intermediate layer and an edge region of the second carrier film , characterized in that attached on one of the PET barrier films is at least one outer bus bar that is connected via an electrically conducting connection to the inner bus bar of a functional element in order to electrically control the functional element separately from the other functional element or elements. wherein at least two separate functional elements with electrically controllable optical properties are arranged in a plane between the two intermediate layers , the functional elements comprise in each case, in this order, a first carrier film , a first surface electrode , an active layer , a second surface electrode , and a second carrier film , on two opposite sides of each functional element, an inner bus bar is connected in each case to the first surface electrode or to the second surface electrode of the respective functional element, at least one of the two opposite sides of each functional element is sealed, at least along a partial region, by two polyethylene terephthalate (PET) barrier films , wherein one PET barrier film is arranged partly between one intermediate layer and an edge region of the first carrier film and the other PET barrier film is arranged partly between the other intermediate layer and an edge region of the second carrier film , characterized in that attached on one of the PET barrier films is at least one outer bus bar that is connected via an electrically conducting connection to the inner bus bar of a functional element in order to electrically control the functional element separately from the other functional element or elements.
Motor vehicle glazing comprising two external and internal glass sheets joined by means of one or more thermoplastic interlayer sheets, at least one electrically supplied functional assembly being inserted between the sheets of the glazing, a capacitive sensor controlling the supply of the functional assembly via a unit for processing the signals emitted by the sensor, the sensor also being inserted into the glazing on a transparent support coated with a conductive layer which is also transparent, in which layer the sensor is formed, characterized in that the capacitive sensor comprises two electrodes formed in the conductive layer, the signals emanating from each electrode resulting in an analysis by the processing unit, and in that the electrodes defining the sensor are extended over the support by conductors also formed in the conductive layer, these conductors being at a distance d from one another which is of the order of the greatest dimension of the area covered by the electrodes.
A blended yarn comprising: a modified fibroin fiber; and a regenerated cellulose fiber, wherein the modified fibroin fiber comprises a modified fibroin, and wherein the modified fibroin comprises a domain sequence represented by: (a) Formula 1: [(A) n motif-REP] m ; or (b) Formula 2: [(A) n motif-REP] m -(A) n motif, wherein the (A) n motif represents an amino acid sequence composed of 2 to 27 amino acid residues and the number of alanine residues with respect to a total number of amino acid residues in the (A) n motif is 40% or more; REP represents an amino acid sequence composed of 2 to 200 amino acid residues; m represents an integer of 2 to 300; a plurality of the (A) n motifs may have the same amino acid sequence or amino acid sequences different from each other; and a plurality of REPs may have the same amino acid sequence or amino acid sequences different from each other. a modified fibroin fiber; and a regenerated cellulose fiber, wherein the modified fibroin fiber comprises a modified fibroin, and wherein the modified fibroin comprises a domain sequence represented by: (a) Formula 1: [(A) n motif-REP] m ; or (b) Formula 2: [(A) n motif-REP] m -(A) n motif, wherein the (A) n motif represents an amino acid sequence composed of 2 to 27 amino acid residues and the number of alanine residues with respect to a total number of amino acid residues in the (A) n motif is 40% or more; REP represents an amino acid sequence composed of 2 to 200 amino acid residues; m represents an integer of 2 to 300; a plurality of the (A) n motifs may have the same amino acid sequence or amino acid sequences different from each other; and a plurality of REPs may have the same amino acid sequence or amino acid sequences different from each other. (a) Formula 1: [(A) n motif-REP] m ; or (b) Formula 2: [(A) n motif-REP] m -(A) n motif, wherein the (A) n motif represents an amino acid sequence composed of 2 to 27 amino acid residues and the number of alanine residues with respect to a total number of amino acid residues in the (A) n motif is 40% or more; REP represents an amino acid sequence composed of 2 to 200 amino acid residues; m represents an integer of 2 to 300; a plurality of the (A) n motifs may have the same amino acid sequence or amino acid sequences different from each other; and a plurality of REPs may have the same amino acid sequence or amino acid sequences different from each other. wherein the (A) n motif represents an amino acid sequence composed of 2 to 27 amino acid residues and the number of alanine residues with respect to a total number of amino acid residues in the (A) n motif is 40% or more; REP represents an amino acid sequence composed of 2 to 200 amino acid residues; m represents an integer of 2 to 300; a plurality of the (A) n motifs may have the same amino acid sequence or amino acid sequences different from each other; and a plurality of REPs may have the same amino acid sequence or amino acid sequences different from each other.
A method for fast determination of channel coefficients performed in a Digital Subscriber Line, DSL, system, by a Vectoring Control Entity, VCE , the method comprising the step of: Obtaining error samples from remote terminals connected to lines in a vectored group of DSL lines; and characterized in comprising the step of calculating a partial channel estimate comprising an estimate of channel coefficients that have changed due to a disorderly event, based on the error samples; wherein the channel coefficients that have changed are related to the line subjected to the disorderly event. Obtaining error samples from remote terminals connected to lines in a vectored group of DSL lines; and characterized in comprising the step of calculating a partial channel estimate comprising an estimate of channel coefficients that have changed due to a disorderly event, based on the error samples; wherein the channel coefficients that have changed are related to the line subjected to the disorderly event.
A spatial phase modulator for an operating wavelength, comprising: a first substrate and a second substrate that are paired together, and a liquid crystal layer disposed between the first substrate and the second substrate, wherein a transparent electrode layer and a first alignment and guiding layer are disposed, in a cascading manner in a direction in which the first substrate faces the second substrate, on a side that is of the first substrate and that faces the liquid crystal layer; and an electrode layer and an insulation medium glass layer are disposed, in a cascading manner in a direction in which the second substrate faces the first substrate, on a side that is of the second substrate and that faces the liquid crystal layer, wherein the insulation medium glass layer has an inclined serration structure on the side facing the liquid crystal layer, and being configured such that when the transparent electrode layer and the electrode layer are charged to form an electric field, the serration structure functions as a second alignment and guiding layer and coordinates with the first alignment and guiding layer to control a deflection direction of liquid crystal molecules at the liquid crystal layer; wherein the insulation medium glass layer comprises at least one pair of oxide layers with different reflectivities, wherein each pair of oxide layers with different reflectivities is formed by sequential deposition of individual layers in a stacked manner over the electrode layer; and wherein the at least one pair of oxide layers with different reflectivities are disposed in the manner of (0.5H 0.5L) ^n , (0.5H L 0.5H) ^n , or H (L H) ^n ; where H represents the optical thickness of the high-reflectivity material that is one-fourth of the operating wavelength; L represents the optical thickness of the low-reflectivity material that is one-fourth of the operating wavelength and n represents the quantity of repetition times of the oxide layers in parentheses.
A method of generating an innervated muscle construct, comprising seeding smooth muscle cells and neural progenitor cells onto a matrix material in a mold, having a central post; culturing the seeded cells in the mold that guides the smooth muscle cells to form an innervated smooth muscle cell construct of directionally oriented smooth muscle cells; and disposing the innervated muscle construct around a tubular scaffold.
Control system for controlling the steering of a motor vehicle in the event of imminent collision with an obstacle , the vehicle comprising a system able to locate the vehicle with respect to its traffic lane and able to determine a lateral divergence with respect to the centre of the lane at a target distance and a relative heading angle of the vehicle, a determining means associated with sensors, which is able to determine, in real time, the presence of obstacles positioned laterally with respect to the vehicle and/or positioned frontally and making a relative movement towards the vehicle, a gyrometer able to measure the speed of rotation of the vehicle, and steering of the vehicle able to be controlled in respect of steering angle depending on the measurement of a steering-angle sensor or steering of the vehicle able to be controlled in respect of steering torque, the control system comprising: a perceiving means able to evaluate the position of the obstacles and to determine the maximum lateral distance available for movement of the vehicle with respect to these obstacles, a decision-making means able to send a correction request depending on the path of the vehicle and on the maximum lateral distance, an intervening means able to control the steering of the vehicle in order to correct the path of the vehicle, characterized in that the decision-making means is able to determine position-correcting gains, to store at least one set among the position-correcting gains, and, when among the at least one set of gains there remains only a single gain, to send the correction activation request corresponding to the set containing the remaining gain, the remaining gain being transmitted to the intervening means in order to have the correction executed. a perceiving means able to evaluate the position of the obstacles and to determine the maximum lateral distance available for movement of the vehicle with respect to these obstacles, a decision-making means able to send a correction request depending on the path of the vehicle and on the maximum lateral distance, an intervening means able to control the steering of the vehicle in order to correct the path of the vehicle, characterized in that the decision-making means is able to determine position-correcting gains, to store at least one set among the position-correcting gains, and, when among the at least one set of gains there remains only a single gain, to send the correction activation request corresponding to the set containing the remaining gain, the remaining gain being transmitted to the intervening means in order to have the correction executed.
A rear view assembly for at least one of a mirror and a camera, comprising: a base that is fixedly secured to a vehicle and comprising a pivoting arm member extending away from a pivot ; and a head comprising a non-round telescoping tube that receives the pivoting arm member and allows lateral movement of the head along an axis of the pivoting arm member , wherein the telescoping tube provides selective adjustment of a position of the head with respect to the base characterized by further comprising a wear plate that includes two ridges , wherein the non-round telescoping tube is constructed and arranged to frictionally interact with the one or more roller assemblies, with one or more ridges of the telescoping tube being constructed and arranged to frictionally interact with the wear plate . a base that is fixedly secured to a vehicle and comprising a pivoting arm member extending away from a pivot ; and a head comprising a non-round telescoping tube that receives the pivoting arm member and allows lateral movement of the head along an axis of the pivoting arm member , wherein the telescoping tube provides selective adjustment of a position of the head with respect to the base characterized by further comprising a wear plate that includes two ridges , wherein the non-round telescoping tube is constructed and arranged to frictionally interact with the one or more roller assemblies, with one or more ridges of the telescoping tube being constructed and arranged to frictionally interact with the wear plate .