mhurhangee/patent-ind-claim-en huggingface dataset:
Method for securing the remote execution of a manoeuvre (Mo) for parking a motor vehicle (V), according to which said securing method (MTH) comprises: - an electronic control unit (ECU) of the motor vehicle (V) sending an order (CD) to activate first data to a mobile terminal (T) comprising a screen (E) and an antenna zone (Z1); - said mobile terminal (T) receiving said activation order (CD); - displaying the first data on the screen (E) of said mobile terminal (T) in a zone (Z2) opposite said antenna zone (Z1) so as to induce the performance of a continuous movement (Mv) by a user (U) on the screen (E) of said mobile terminal (T) at said opposite zone (Z2), said opposite zone (Z2) being defined so that the continuous movement (Mv) of the user (U) does not modify the radiation pattern of said antenna (A); - the mobile terminal (T) generating second data relating to the performance of said continuous movement (Mv) by said user (U) ; - comparing said second data with an expected result (R1) dependent on the first data ; - if the comparison is positive, the electronic control unit (ECU) executing said manoeuvre (Mo), said steps relating to the first data and to the second data being repeated until the execution of the manoeuvre (Mo) is complete. - an electronic control unit (ECU) of the motor vehicle (V) sending an order (CD) to activate first data to a mobile terminal (T) comprising a screen (E) and an antenna zone (Z1); - said mobile terminal (T) receiving said activation order (CD); - displaying the first data on the screen (E) of said mobile terminal (T) in a zone (Z2) opposite said antenna zone (Z1) so as to induce the performance of a continuous movement (Mv) by a user (U) on the screen (E) of said mobile terminal (T) at said opposite zone (Z2), said opposite zone (Z2) being defined so that the continuous movement (Mv) of the user (U) does not modify the radiation pattern of said antenna (A); - the mobile terminal (T) generating second data relating to the performance of said continuous movement (Mv) by said user (U) ; - comparing said second data with an expected result (R1) dependent on the first data ; - if the comparison is positive, the electronic control unit (ECU) executing said manoeuvre (Mo), said steps relating to the first data and to the second data being repeated until the execution of the manoeuvre (Mo) is complete.
A method of treating a fibrous substrate, the method comprising applying a fluorine-free treating composition in an amount sufficient to make the fibrous substrate water repellent, wherein the treating composition comprises: at least one polycarbodiimide compound derived from a carbodiimidization reaction of a carbodiimidization reaction mixture comprising at least one oligomer, wherein the oligomer comprises at least one isocyanate end group and at least two repeating units, wherein each of the at least two repeating units comprises at least one hydrocarbon group having at least 16 carbon atoms.
Strength member ply for elastomeric articles, in particular for a carcass ply of pneumatic vehicle tyres, wherein within the ply the strength members are arranged substantially parallel to one another and are embedded in elastomeric material, wherein the strength member ply comprises at least one hybrid cord as a strength member which is constructed from at least one yarn of aramid and at least one yarn of HMLS-PET (high modulus low shrinkage polyethylene terephthalate), wherein all yarns of the hybrid cord are end-twisted with one another, characterized in that the yarn of aramid is a yarn of meta-aramid and that the yarn of meta-aramid has a breaking elongation of at least 20%.
A boundary layer probe for determining a fluid stream, with: - a measuring surface , which is formed on a probe wall and lies along a fluid stream to be determined in the measuring mode; - an arrangement of measuring obstacles , which - are formed in the area of the measuring surface as obstacles, which disrupt the fluid stream in a flow area adjacent to the measuring surface , and in the area of the measuring surface are rotationally symmetrically arranged relative to a center of arrangement of the measuring obstacles , - each have an elongated progression of obstacles, which - extends over a respective obstacle length at least sectionally along a curved line, and - is concavely or convexly curved in relation to the center of arrangement of the measuring obstacles , and - are arranged in a circumferential direction in relation to the center of arrangement at essentially equidistance angular distances; and - pressure measuring points , which are arranged for detecting a respective local pressure in the area of the measuring surface in each case adjacent to an associated one of the obstacles in a radial direction relative to the center of arrangement. - a measuring surface , which is formed on a probe wall and lies along a fluid stream to be determined in the measuring mode; - an arrangement of measuring obstacles , which - are formed in the area of the measuring surface as obstacles, which disrupt the fluid stream in a flow area adjacent to the measuring surface , and in the area of the measuring surface are rotationally symmetrically arranged relative to a center of arrangement of the measuring obstacles , - each have an elongated progression of obstacles, which - extends over a respective obstacle length at least sectionally along a curved line, and - is concavely or convexly curved in relation to the center of arrangement of the measuring obstacles , and - are arranged in a circumferential direction in relation to the center of arrangement at essentially equidistance angular distances; and - are formed in the area of the measuring surface as obstacles, which disrupt the fluid stream in a flow area adjacent to the measuring surface , and in the area of the measuring surface are rotationally symmetrically arranged relative to a center of arrangement of the measuring obstacles , - each have an elongated progression of obstacles, which - extends over a respective obstacle length at least sectionally along a curved line, and - is concavely or convexly curved in relation to the center of arrangement of the measuring obstacles , and - extends over a respective obstacle length at least sectionally along a curved line, and - is concavely or convexly curved in relation to the center of arrangement of the measuring obstacles , and - are arranged in a circumferential direction in relation to the center of arrangement at essentially equidistance angular distances; and - pressure measuring points , which are arranged for detecting a respective local pressure in the area of the measuring surface in each case adjacent to an associated one of the obstacles in a radial direction relative to the center of arrangement.
A method for classifying a node in a network (500-501, 1680), comprising: receiving, by the node , content published from one or more content producers in the network (500-501, 1680), wherein the node comprises sufficient storage and processing capability to store and process the content received; characterized in that the method further comprises: determining, by the node, whether the node can receive additional content that is published for one or more other nodes in the network (500-501, 1680); calculating, by the node , a metric for paths from the node to each of the one or more content producers in the network (500-501, 1680) in response to determining that additional content can be received by the node; and classifying, by the node, as a home node in the network (500-501, 1680) in response to determining that the metric for paths of the node to the one or more content producers is shorter than a metric for paths of each of the one or more other nodes in the network to the one or more content producers, wherein the home node is configured to provide the additional content to the one or more other nodes in the network. determining, by the node, whether the node can receive additional content that is published for one or more other nodes in the network (500-501, 1680); calculating, by the node , a metric for paths from the node to each of the one or more content producers in the network (500-501, 1680) in response to determining that additional content can be received by the node; and classifying, by the node, as a home node in the network (500-501, 1680) in response to determining that the metric for paths of the node to the one or more content producers is shorter than a metric for paths of each of the one or more other nodes in the network to the one or more content producers, wherein the home node is configured to provide the additional content to the one or more other nodes in the network.
A vehicle body assembly station comprising main transport means for conveying a vehicle body along a first direction (D1), at least one assembly robot arranged such that at least one part thereof can be moved along a second direction (D2), and temporary transport means , on which the assembly robot is arranged, that creates a new coordinate reference system under which the assembly robot perform operations, the operation of said temporary transport means being more accurate than that of the main transport means , the temporary transport means comprising at least one moving device displaceably mounted on corresponding robot tracks for moving the vehicle body along the second direction (D2) independently from the main transport means while the assembly robot is performing operations on the vehicle body , with said at least one assembly robot being mounted on said corresponding robot tracks to move along said second direction (D2) relative to the robot tracks under said new coordinate system.
A vehicle comprising: an occupant compartment ; a storage compartment ; and a kitchen module comprising: a frame system for providing structural support, a rail system affixed to the frame system and the vehicle, configured to allow the frame system to move relative to the vehicle; and a plurality of kitchen components mounted to the frame system; wherein the rail system is affixed to a surface of the storage compartment, wherein the kitchen module is arranged to be extended from and retracted into the storage compartment, characterised in that the vehicle further comprises: a cargo bed , wherein the storage compartment is arranged between the occupant compartment and the cargo bed. an occupant compartment ; a storage compartment ; and a kitchen module comprising: a frame system for providing structural support, a rail system affixed to the frame system and the vehicle, configured to allow the frame system to move relative to the vehicle; and a plurality of kitchen components mounted to the frame system; wherein the rail system is affixed to a surface of the storage compartment, wherein the kitchen module is arranged to be extended from and retracted into the storage compartment, characterised in that the vehicle further comprises: a cargo bed , wherein the storage compartment is arranged between the occupant compartment and the cargo bed. a frame system for providing structural support, a rail system affixed to the frame system and the vehicle, configured to allow the frame system to move relative to the vehicle; and a plurality of kitchen components mounted to the frame system; wherein the rail system is affixed to a surface of the storage compartment, wherein the kitchen module is arranged to be extended from and retracted into the storage compartment, characterised in that the vehicle further comprises: a cargo bed , wherein the storage compartment is arranged between the occupant compartment and the cargo bed.
Closure for an electrochemical reaction vessel , in particular a potentiostat, the closure comprising: a holder for holding electrodes arranged at an inner side of the closure such that, when the closure is attached to a reaction vessel, electrodes held by the holder extend into an interior space of the reaction vessel and into an electrolyte contained in the reaction vessel; characterized by : a plurality of contacts arranged at an outer surface of the closure for providing electrical contacts with the electrodes, wherein the contacts are arranged at a circumferential outer surface of the closure to face laterally outward at the outer surface of the closure to engage with corresponding contacts of a reaction vessel holder or support for receiving the reaction vessel. a holder for holding electrodes arranged at an inner side of the closure such that, when the closure is attached to a reaction vessel, electrodes held by the holder extend into an interior space of the reaction vessel and into an electrolyte contained in the reaction vessel; characterized by : a plurality of contacts arranged at an outer surface of the closure for providing electrical contacts with the electrodes, wherein the contacts are arranged at a circumferential outer surface of the closure to face laterally outward at the outer surface of the closure to engage with corresponding contacts of a reaction vessel holder or support for receiving the reaction vessel.
RFID transponder configured to send a message to a reader during a transmission frame using active load modulation, the transponder comprising a coding and modulation unit (CMU) designed to generate a transmission signal (ST) by modulating an oscillator signal (SO) with an encoded bit signal (SE), characterized in that - the encoded bit signal (SE) has a first logic level during first time segments within the transmission frame and a second logic level during second time segments within the transmission frame, wherein the first time segments comprise an initial time segment of the transmission frame; - the transmission signal (ST) is generated having - a first phase, with respect to the phase of the oscillator signal (SO), depending on the first logic level during the first time segments; - a second phase, with respect to the first phase, depending on the second logic level during the second time segments; and - the second phase during a time interval preceding the transmission frame (PI). - the encoded bit signal (SE) has a first logic level during first time segments within the transmission frame and a second logic level during second time segments within the transmission frame, wherein the first time segments comprise an initial time segment of the transmission frame; - the transmission signal (ST) is generated having - a first phase, with respect to the phase of the oscillator signal (SO), depending on the first logic level during the first time segments; - a second phase, with respect to the first phase, depending on the second logic level during the second time segments; and - the second phase during a time interval preceding the transmission frame (PI). - a first phase, with respect to the phase of the oscillator signal (SO), depending on the first logic level during the first time segments; - a second phase, with respect to the first phase, depending on the second logic level during the second time segments; and - the second phase during a time interval preceding the transmission frame (PI).
A method for fabricating a semiconductor device comprising the steps of: - placing a substrate in a reaction chamber, - depositing a first active layer , said first active layer comprising a group III nitride semiconductor material, - depositing on said first active layer a second active layer having a higher bandgap than said first active layer, thereby forming a two-dimensional electron gas layer between said first active layer and said second active layer, - depositing on said second active layer a passivation layer , - depositing directly on said passivation layer a source contact and a drain contact , wherein : • said steps of depositing said first, second active layers and said passivation layer are performed in said reaction chamber without subjecting the layers to air or environment, the method being characterized in that : • said passivation layer consists of an electron donating element and nitrogen, except SiN, • said source and drain contacts are deposited entirely on said passivation layer. - placing a substrate in a reaction chamber, - depositing a first active layer , said first active layer comprising a group III nitride semiconductor material, - depositing on said first active layer a second active layer having a higher bandgap than said first active layer, thereby forming a two-dimensional electron gas layer between said first active layer and said second active layer, - depositing on said second active layer a passivation layer , - depositing directly on said passivation layer a source contact and a drain contact , wherein : • said steps of depositing said first, second active layers and said passivation layer are performed in said reaction chamber without subjecting the layers to air or environment, the method being characterized in that : • said passivation layer consists of an electron donating element and nitrogen, except SiN, • said source and drain contacts are deposited entirely on said passivation layer. • said steps of depositing said first, second active layers and said passivation layer are performed in said reaction chamber without subjecting the layers to air or environment, • said passivation layer consists of an electron donating element and nitrogen, except SiN, • said source and drain contacts are deposited entirely on said passivation layer.
Method for producing plastic products by means of an extruder using a continuously working plant, the plant having two groups of dosing stations for the extruder and a control for the groups of dosing stations, wherein the extruder is supplied from a first group of dosing stations with a first plastic composition of a first main component and at least one associated minor component, wherein during the production time of a first production order a second group of dosing stations at the extruder is prepared for a second production order for which a second plastic composition that is different from the first plastic composition and includes a second main component and at least one associated minor component has to be supplied to the extruder , and that after completion of the first production order it is switched to the second production order by terminating the supply of the first plastic composition and starting the supply of the second plastic composition, characterized in that the supply of the first plastic composition is terminated by closing a first shut-off device and the supply of the second plastic composition is started by opening a second shut-off device , wherein closing the first shut-off device and opening the second shut-off device are performed at the same time or in a short interval such that during the changeover from the first production order to the second production order the supply of the extruder goes on continuously, wherein at least one component of the first plastic composition is different from every component of the second plastic composition or at least one component of the second plastic composition is different from every component of the first plastic composition.
A feed-through to be structurally integrated into a wall or floor element together with the line , namely by means of casting an initially pourable and then solidifying material, with said feed-through comprising a plurality of pieces, namely an attachment piece and an insert , wherein the attachment piece is made from an attachment piece material and the insert is made from an insert material, with the attachment piece material being softer than the insert material, wherein the insert is divided into a tube section and a mounting flange , which tube section extends in the direction of the line and which mounting flange extends perpendicular to the direction of the line away from the tube section , and wherein the attachment piece is divided into a line section and an attachment section forming a single piece with the latter, into which attachment section the insert with its tube section can be inserted in the direction of the line such that the insert stabilises the attachment piece on casting, and which line section is designed for inserting the line from an opposite direction to the direction of insertion of the insert , characterised in that the tube section and the mounting flange are formed as a single piece, wherein the mounting flange has a connecting element by means of which the feed-through can be joined to a further feed-through identical in terms of the mounting flange and which is provided as a first positive locking element and second positive locking element , with said positive locking elements being designed to complement each other such that the first positive locking element can positively lock with the second positive locking element of the further feed-through , wherein one end of the tube section of the insert is sealed with a cover formed as a single piece with the rest of the insert , namely the end which is opposite to the end which can be inserted into the attachment section of the attachment piece.
Elementary pumping cell (CE1) comprising: - an input terminal (E) arranged to receive an input voltage (Vin), a clock terminal (H) arranged to receive a first clock signal (CK1) and an output terminal (S), - a first capacitor (C1) comprising a first terminal connected to the clock terminal and a second terminal, - a first transistor (A1) comprising a first source/drain terminal coupled to the input terminal (E), a second source/drain terminal and a gate terminal, - a second transistor (A2) comprising a first source/drain terminal coupled to the output terminal of the elementary cell, a second source/drain terminal coupled to the input terminal and a gate terminal coupled to the second terminal of the first capacitor (C1), - a third transistor (A3) comprising a first source/drain terminal coupled to the first source/drain terminal of the second transistor (A2), a second source/drain terminal coupled to the gate terminal of the second transistor (A2) and a gate terminal coupled to the input terminal, and - a fourth transistor (A4) comprising a first source/drain terminal coupled to the second source/drain terminal of the first transistor (A1), a second source/drain terminal coupled to the first source/drain terminal of the second (A2) and third (A3) transistors and a gate terminal coupled to the input terminal, the elementary cell being characterized in that the gate terminal of the first transistor (A1) is directly coupled to the gate terminal of the second transistor (A2). - an input terminal (E) arranged to receive an input voltage (Vin), a clock terminal (H) arranged to receive a first clock signal (CK1) and an output terminal (S), - a first capacitor (C1) comprising a first terminal connected to the clock terminal and a second terminal, - a first transistor (A1) comprising a first source/drain terminal coupled to the input terminal (E), a second source/drain terminal and a gate terminal, - a second transistor (A2) comprising a first source/drain terminal coupled to the output terminal of the elementary cell, a second source/drain terminal coupled to the input terminal and a gate terminal coupled to the second terminal of the first capacitor (C1), - a third transistor (A3) comprising a first source/drain terminal coupled to the first source/drain terminal of the second transistor (A2), a second source/drain terminal coupled to the gate terminal of the second transistor (A2) and a gate terminal coupled to the input terminal, and - a fourth transistor (A4) comprising a first source/drain terminal coupled to the second source/drain terminal of the first transistor (A1), a second source/drain terminal coupled to the first source/drain terminal of the second (A2) and third (A3) transistors and a gate terminal coupled to the input terminal,