mhurhangee/patent-ind-claim-en huggingface dataset:
A vehicle comprising: a vehicle body ; a thruster nozzle including a wall having a plurality of circumferentially-disposed features ; and a brace attached with the vehicle body and disposed at least partially around the thruster nozzle , the brace having brace features corresponding with the features of the thruster nozzle ; characterised in that : each brace feature includes spaced apart walls that define a groove therebetween that has a groove bottom ; and each thruster nozzle feature includes a tongue that has a tip and extends into a corresponding one of the grooves to form a respective tongue-and-groove joint that includes a thermal expansion gap between the tip and the groove bottom and is configured to permit relative axial movement between the thruster nozzle and the brace and stop relative off-axial movement between the thruster nozzle and the brace . a vehicle body ; a thruster nozzle including a wall having a plurality of circumferentially-disposed features ; and a brace attached with the vehicle body and disposed at least partially around the thruster nozzle , the brace having brace features corresponding with the features of the thruster nozzle ; characterised in that : each brace feature includes spaced apart walls that define a groove therebetween that has a groove bottom ; and each thruster nozzle feature includes a tongue that has a tip and extends into a corresponding one of the grooves to form a respective tongue-and-groove joint that includes a thermal expansion gap between the tip and the groove bottom and is configured to permit relative axial movement between the thruster nozzle and the brace and stop relative off-axial movement between the thruster nozzle and the brace . each brace feature includes spaced apart walls that define a groove therebetween that has a groove bottom ; and each thruster nozzle feature includes a tongue that has a tip and extends into a corresponding one of the grooves to form a respective tongue-and-groove joint that includes a thermal expansion gap between the tip and the groove bottom and is configured to permit relative axial movement between the thruster nozzle and the brace and stop relative off-axial movement between the thruster nozzle and the brace .
A machine for treating laundry which machine comprises - a cabinet having an outside wall , the outside wall having an opening for introduction of laundry into the machine , - a door for closing the introduction opening , - a lock for locking the door , - a safety device adapted to be activated as a result of, and concurrently with, a person's action outside the machine, the safety device comprising - - an input device located on the exterior of the machine, and - - an action device , wherein the input device is adapted to communicate mechanically, electrically, or electromechanically with the action device wherein the action device is adapted to act upon one or more components of the lock , - permitting, in an activated condition of the safety device, the lock to lock the unlocked door concurrently with the person's action outside of the machine, the person's action comprising acting upon the input device and - preventing, in a non-activated condition of the safety device, at times that there is no person's action and the door is unlocked, the door to be closed entirely, leaving at least a gap between the interior and the exterior of the machine . - a cabinet having an outside wall , the outside wall having an opening for introduction of laundry into the machine , - a door for closing the introduction opening , - a lock for locking the door , - a safety device adapted to be activated as a result of, and concurrently with, a person's action outside the machine, the safety device comprising - - an input device located on the exterior of the machine, and - - an action device , wherein the input device is adapted to communicate mechanically, electrically, or electromechanically with the action device wherein the action device is adapted to act upon one or more components of the lock , - - an input device located on the exterior of the machine, and - - an action device , wherein the input device is adapted to communicate mechanically, electrically, or electromechanically with the action device wherein the action device is adapted to act upon one or more components of the lock , wherein the input device is adapted to communicate mechanically, electrically, or electromechanically with the action device wherein the action device is adapted to act upon one or more components of the lock , - permitting, in an activated condition of the safety device, the lock to lock the unlocked door concurrently with the person's action outside of the machine, the person's action comprising acting upon the input device and - preventing, in a non-activated condition of the safety device, at times that there is no person's action and the door is unlocked, the door to be closed entirely, leaving at least a gap between the interior and the exterior of the machine .
A display device , comprising: a display panel ; a mold frame at least partially surrounding the display panel ; a bracket at least partially overlapping the mold frame , wherein each of the mold frame and the bracket includes an electrically conductive material, and wherein the mold frame and the bracket are electrically connected to each other, and a protective film is disposed on the display panel , wherein the display panel includes a cover region (CR) at least partially overlapping the protective film and an exposed region (ER) exposed by the protective film characterized in that the cover region (CR) is covered by a protective layer and the exposed region (ER) being exposed by the protective layer , wherein the upper surface of the display panel includes the cover region (CR), the planar size of the protective layer is smaller than the planar size of the display panel , the protective layer 600 is not disposed on the entire surface of the display panel , wherein the protective layer is disposed to overlap the mold frame in a direction parallel to the display panel and is disposed so as not to overlap the mold frame located on one side and the other side of the display panel in a thickness direction of the display panel , respectively, and the protective layer is removable and reattachable by a user. a display panel ; a mold frame at least partially surrounding the display panel ; a bracket at least partially overlapping the mold frame , wherein each of the mold frame and the bracket includes an electrically conductive material, and wherein the mold frame and the bracket are electrically connected to each other, and a protective film is disposed on the display panel , wherein the display panel includes a cover region (CR) at least partially overlapping the protective film and an exposed region (ER) exposed by the protective film characterized in that the cover region (CR) is covered by a protective layer and the exposed region (ER) being exposed by the protective layer , wherein the upper surface of the display panel includes the cover region (CR), the planar size of the protective layer is smaller than the planar size of the display panel , the protective layer 600 is not disposed on the entire surface of the display panel , wherein the protective layer is disposed to overlap the mold frame in a direction parallel to the display panel and is disposed so as not to overlap the mold frame located on one side and the other side of the display panel in a thickness direction of the display panel , respectively, and the protective layer is removable and reattachable by a user.
A bearing assembly comprising: a bearing situated in a bearing compartment (BC); a seal assembly defining the bearing compartment (BC); and at least one deflector between the bearing and the seal assembly that is rotatable about an axis (X), characterised in that the bearing assembly further comprises: a coalescer including a ring-shaped coalescer body that circumferentially extends at least partially about the at least one deflector to bound or otherwise define portions of a fluid passage (FP) and is attached to a static structure, and wherein the coalescer includes one or more paddles (78C, 78C', 78C") extending from the coalescer body . a bearing situated in a bearing compartment (BC); a seal assembly defining the bearing compartment (BC); and at least one deflector between the bearing and the seal assembly that is rotatable about an axis (X), characterised in that the bearing assembly further comprises: a coalescer including a ring-shaped coalescer body that circumferentially extends at least partially about the at least one deflector to bound or otherwise define portions of a fluid passage (FP) and is attached to a static structure, and wherein the coalescer includes one or more paddles (78C, 78C', 78C") extending from the coalescer body .
A method to perform a soft demapping, the method comprising: receiving a reception signal from a rotated QAM symbol transmitted from a transmitter, the rotated QAM symbol representing bits; and selecting candidates from among constellation points of either a rotated QAM constellation or a de-rotated QAM constellation, wherein the de-rotated QAM constellation corresponds to the rotated QAM constellation rotated in a reverse direction to arrange constellation points in a horizontally parallel shape or a vertically parallel shape; wherein the selecting of the candidates comprises: vertically projecting the reception signal to each of parallel lines formed by constellation points in the rotated or the de-rotated QAM constellation; selecting, for each of the parallel lines, a best candidate constellation point as the constellation point closest to the point to which the reception signal is projected; and calculating a log-likelihood ratio, LLR, for each bit based on a single best candidate for each line, wherein the lines include a sqrt(M) number of constellation points, where "M" = 2 n and "n" is an integer greater than two. receiving a reception signal from a rotated QAM symbol transmitted from a transmitter, the rotated QAM symbol representing bits; and selecting candidates from among constellation points of either a rotated QAM constellation or a de-rotated QAM constellation, wherein the de-rotated QAM constellation corresponds to the rotated QAM constellation rotated in a reverse direction to arrange constellation points in a horizontally parallel shape or a vertically parallel shape; wherein the selecting of the candidates comprises: vertically projecting the reception signal to each of parallel lines formed by constellation points in the rotated or the de-rotated QAM constellation; selecting, for each of the parallel lines, a best candidate constellation point as the constellation point closest to the point to which the reception signal is projected; and calculating a log-likelihood ratio, LLR, for each bit based on a single best candidate for each line, wherein the lines include a sqrt(M) number of constellation points, where "M" = 2 n and "n" is an integer greater than two. vertically projecting the reception signal to each of parallel lines formed by constellation points in the rotated or the de-rotated QAM constellation; selecting, for each of the parallel lines, a best candidate constellation point as the constellation point closest to the point to which the reception signal is projected; and calculating a log-likelihood ratio, LLR, for each bit based on a single best candidate for each line, wherein the lines include a sqrt(M) number of constellation points, where "M" = 2 n and "n" is an integer greater than two.
A method for preparing a cationic lipid represented by Formula 1, comprising reacting an oligoalkyleneamine represented by Formula 2, with a fatty acid alkyl ester represented by Formula 3 to prepare the cationic lipid of Formula 1: in the formulae 1 to 3, n and m are independently 0 to 12, with the proviso that 1 ≤ n + m ≤ 12, a and b are independently 1 to 6, one of R1 and R4 is saturated or unsaturated fatty acid group having 12 to 26 carbon atoms, and the other of R1 and R4 is hydrogen, R2 and R3 are each independently hydrogen, R is saturated or unsaturated hydrocarbon having 11 to 25 carbon atoms, and R5 is an alkyl group having from 1 to 14 carbon atoms, wherein the molar ratio of the oligoalkyleneamine to the fatty acid alkyl ester is adjusted to more than 1 to 20 or less to obtain the cationic lipid of Formula 1. n and m are independently 0 to 12, with the proviso that 1 ≤ n + m ≤ 12, a and b are independently 1 to 6, one of R1 and R4 is saturated or unsaturated fatty acid group having 12 to 26 carbon atoms, and the other of R1 and R4 is hydrogen, R2 and R3 are each independently hydrogen, R is saturated or unsaturated hydrocarbon having 11 to 25 carbon atoms, and R5 is an alkyl group having from 1 to 14 carbon atoms, wherein the molar ratio of the oligoalkyleneamine to the fatty acid alkyl ester is adjusted to more than 1 to 20 or less to obtain the cationic lipid of Formula 1.
A polyorganosiloxane-containing graft copolymer in which a rubber (A) containing a polyorganosiloxane (A1) and a vinyl polymer (A2) is grafted with a vinyl monomer (b), wherein the vinyl polymer (A2) includes 90 to 100% by mass of a monofunctional vinyl monomer (a1) and 10 to 0% by mass of a polyfunctional vinyl monomer (a2) with respect to 100% by mass of the vinyl polymer (A2), wherein the glass transition temperature of the homopolymer of the monofunctional vinyl monomer (a1) is 0°C or higher, and the first peak of tan δ of the polyorganosiloxane-containing graft copolymer is in the range of -125°C to -90°C as measured under [Measurement Condition 1] below: [Measurement condition 1] A test piece is formed by compression-molding the polyorganosiloxane-containing graft copolymer at 160°C and 5 MPa to a thickness of 1 mm, the test piece is set in a dynamic viscoelastic device, and the tan δ is measured at a heating rate of 2 °C/min and a frequency of 10 Hz using the tensile mode at temperatures ranging from -150°C to 180 °C. [Measurement condition 1] A test piece is formed by compression-molding the polyorganosiloxane-containing graft copolymer at 160°C and 5 MPa to a thickness of 1 mm, the test piece is set in a dynamic viscoelastic device, and the tan δ is measured at a heating rate of 2 °C/min and a frequency of 10 Hz using the tensile mode at temperatures ranging from -150°C to 180 °C.
Method for controlling and monitoring a functional unit (2; 2a, 2b, 2c) having a display device (3; 3a, 3b, 3c) for displaying state patterns having functional elements , it being possible for the functional elements to assume different switching states, a state pattern describing the switching states of the functional elements , the method comprising: a. transmitting a control signal from a control device to the functional unit (2; 2a, 2b, 2c), the control signal comprising information content relating to a state pattern to be shown by means of the display device (3; 3a, 3b, 3c); b. representing a state pattern via the display device (3; 3a, 3b, 3c) by means of the control signal transmitted from the control device to the functional unit (2; 2a, 2b, 2c), the state pattern describing the switching states of at least two functional elements of the functional unit (2; 2a, 2b, 2c); c. generating a readback signal, the readback signal comprising information content relating to the state pattern shown, which information content is determined by detecting the switching states of the functional elements , d. transmitting the readback signal to the control device ; e. comparing the information content of the readback signal with the information content of the control signal; the information content relating to the state pattern to be shown being transmitted in the form of DC signals onto one or more control lines from the control unit to the functional unit (2; 2a, 2b, 2c), characterized in that the readback signal is transmitted back from the functional unit (2; 2a, 2b, 2c) to the control device in the form of an AC signal. a. transmitting a control signal from a control device to the functional unit (2; 2a, 2b, 2c), the control signal comprising information content relating to a state pattern to be shown by means of the display device (3; 3a, 3b, 3c); b. representing a state pattern via the display device (3; 3a, 3b, 3c) by means of the control signal transmitted from the control device to the functional unit (2; 2a, 2b, 2c), the state pattern describing the switching states of at least two functional elements of the functional unit (2; 2a, 2b, 2c); c. generating a readback signal, the readback signal comprising information content relating to the state pattern shown, which information content is determined by detecting the switching states of the functional elements , d. transmitting the readback signal to the control device ; e. comparing the information content of the readback signal with the information content of the control signal;
Method for testing a damage-tolerant property in an aluminum alloy part, the part being in the shape of a metal sheet or extruded profile, with the following steps: a) measure at least two properties resulting from tensile testing of the part, in the L (longitudinal) and/or ST (short transverse) and/or LT (long transverse) directions, the properties being chosen from: - the yield strength; - and/or the tensile strength; - and/or the elongation at rupture; b) take into account the thickness of the part; c) use the properties measured during step a) along with the thickness taken into account during step b) as input parameters (x i ) for a neural network estimator; d) estimate, using the estimator, the property representative of a part's damage tolerance (ẑ, K̂ IC ); e) take into account an acceptance threshold (z̃, K̃ IC ) and a confidence interval (ε), and compare the property estimated (ẑ, K̂ IC ) during step d) to the acceptance threshold, taking into account the confidence interval; f) based on the comparison: - consider that the part passes the test; - or consider that the part does not pass the test. a) measure at least two properties resulting from tensile testing of the part, in the L (longitudinal) and/or ST (short transverse) and/or LT (long transverse) directions, the properties being chosen from: - the yield strength; - and/or the tensile strength; - and/or the elongation at rupture; - the yield strength; - and/or the tensile strength; - and/or the elongation at rupture; b) take into account the thickness of the part; c) use the properties measured during step a) along with the thickness taken into account during step b) as input parameters (x i ) for a neural network estimator; d) estimate, using the estimator, the property representative of a part's damage tolerance (ẑ, K̂ IC ); e) take into account an acceptance threshold (z̃, K̃ IC ) and a confidence interval (ε), and compare the property estimated (ẑ, K̂ IC ) during step d) to the acceptance threshold, taking into account the confidence interval; f) based on the comparison: - consider that the part passes the test; - or consider that the part does not pass the test. - consider that the part passes the test; - or consider that the part does not pass the test.
A battery comprising: a housing; an anode in the housing; an electrolyte in the housing; and a cathode in the housing, the cathode being in spiral-wound configuration having a core spiral having an inner surface and an exterior spiral having an outer surface, said cathode comprising: a current collector comprising a foil having a first side and a second side opposite the first side, and a first coating comprising iron disulfide on the first side and a second coating comprising iron disulfide on the second side, characterised in that , the inner surface of the core spiral is at least 50% free of a coating including iron disulfide; and the outer surface of the exterior spiral is least 50% free of a coating including iron disulfide. a housing; an anode in the housing; an electrolyte in the housing; and a cathode in the housing, the cathode being in spiral-wound configuration having a core spiral having an inner surface and an exterior spiral having an outer surface, said cathode comprising: a current collector comprising a foil having a first side and a second side opposite the first side, and a first coating comprising iron disulfide on the first side and a second coating comprising iron disulfide on the second side, a current collector comprising a foil having a first side and a second side opposite the first side, and a first coating comprising iron disulfide on the first side and a second coating comprising iron disulfide on the second side, the inner surface of the core spiral is at least 50% free of a coating including iron disulfide; and the outer surface of the exterior spiral is least 50% free of a coating including iron disulfide.
Vehicle device of a vehicle, having a signal input device for the input of request signals by a driver of the vehicle with regard to the vehicle device, which device comprises a sensor device which gradually senses an actuation level of an actuation element of the signal input device that can be actuated by the driver, between a position that represents non-actuation and a position that represents a maximum actuation level, and generates a signal that represents the said actuation level, and also comprises an electronic evaluation unit to which the actuation signal generated by the sensor device is sent, such that the sensor device and/or the electronic evaluation unit is/are designed, when a vehicle ignition is switched off, to enter a stand-by mode in which less electrical energy is consumed from a source of electrical energy compared with an operating mode in which the vehicle ignition is switched on, which reduced energy consumption is not sufficient to ensure the intended operation of the sensor device and/or the electronic evaluation unit in the sense of detecting and evaluating an actuation of the actuation element, characterised in that the sensor device and/or the electronic evaluation unit , however, is/are designed to switch in a cyclic manner into an energy-saving operating mode which ensures the intended operation of the sensor device and/or of the electronic evaluation unit in the sense of detecting and evaluating an actuation of the actuation element.