mhurhangee/patent-ind-claim-en huggingface dataset:
An expansion tank for a vehicle with dual cooling lines , comprising a first chamber with a first fluid pressure (P1), wherein the expansion tank comprises a first fluid connector in fluid connection with the first chamber for connection to a first cooling line , a second chamber with a second fluid pressure (P2), wherein the expansion tank comprises a second fluid connector in fluid connection with the second chamber for connection to a second cooling line , wherein the first chamber and the second chamber are in fluid connection via a pressure actuated two-way valve that acts as a one-way valve open in the direction towards the second chamber at differential pressures between the second fluid pressure (P2) and the first fluid pressure (P1) below a first predetermined differential pressure threshold (DP1) and opens also in the direction towards the first chamber at differential pressures above the first predetermined differential pressure threshold (PD1). a first chamber with a first fluid pressure (P1), wherein the expansion tank comprises a first fluid connector in fluid connection with the first chamber for connection to a first cooling line , a second chamber with a second fluid pressure (P2), wherein the expansion tank comprises a second fluid connector in fluid connection with the second chamber for connection to a second cooling line , wherein the first chamber and the second chamber are in fluid connection via a pressure actuated two-way valve that acts as a one-way valve open in the direction towards the second chamber at differential pressures between the second fluid pressure (P2) and the first fluid pressure (P1) below a first predetermined differential pressure threshold (DP1) and opens also in the direction towards the first chamber at differential pressures above the first predetermined differential pressure threshold (PD1).
A method for producing a steel sheet comprising the following steps : - feeding a slab which composition comprises by weight : 0.6 ≤ C ≤ 1.3 % , 15.0 ≤ Mn ≤ 35 % , 8.5 ≤ Al ≤ 10 % , Si ≤ 2.40 % S ≤ 0.03 % , P ≤ 0.1 % , N ≤ 0.1 % , possibly one or more optional elements chosen among Ni, Cr, Cu in an respective amount of up to 4.0%, up to 3.0% and below 0.1% and possibly one or more elements chosen among B, Ta, Zr, Nb, V, Ti, Mo, and W in a cumulated amount of up to 2.0%, the remainder of the composition making up of iron and inevitable impurities resulting from the elaboration, - reheating such slab at a temperature above 1000°C and hot rolling it with a final rolling temperature of at least 800°C, - coiling the hot rolled steel sheet at a temperature between 350 and 450°C, - cold-rolling such hot rolled steel sheet at a reduction comprised between 30 and 80%, - annealing such cold rolled sheet by heating it up to an annealing temperature comprised between 700 and 1000°C, holding it at such temperature during less than 5 minutes and cooling it at a rate of at least 30°C/s. - feeding a slab which composition comprises by weight : 0.6 ≤ C ≤ 1.3 % , 15.0 ≤ Mn ≤ 35 % , 8.5 ≤ Al ≤ 10 % , Si ≤ 2.40 % S ≤ 0.03 % , P ≤ 0.1 % , N ≤ 0.1 % , possibly one or more optional elements chosen among Ni, Cr, Cu in an respective amount of up to 4.0%, up to 3.0% and below 0.1% and possibly one or more elements chosen among B, Ta, Zr, Nb, V, Ti, Mo, and W in a cumulated amount of up to 2.0%, the remainder of the composition making up of iron and inevitable impurities resulting from the elaboration, possibly one or more optional elements chosen among Ni, Cr, Cu in an respective amount of up to 4.0%, up to 3.0% and below 0.1% and possibly one or more elements chosen among B, Ta, Zr, Nb, V, Ti, Mo, and W in a cumulated amount of up to 2.0%, the remainder of the composition making up of iron and inevitable impurities resulting from the elaboration, - reheating such slab at a temperature above 1000°C and hot rolling it with a final rolling temperature of at least 800°C, - coiling the hot rolled steel sheet at a temperature between 350 and 450°C, - cold-rolling such hot rolled steel sheet at a reduction comprised between 30 and 80%, - annealing such cold rolled sheet by heating it up to an annealing temperature comprised between 700 and 1000°C, holding it at such temperature during less than 5 minutes and cooling it at a rate of at least 30°C/s.
A method for routing a data packet from a transmitting node to a destination node over a network comprising a plurality of intermediate nodes, the method comprising: determining a hierarchical ranking of intermediate nodes of the plurality of intermediate nodes for a next hop of the routing based on a plurality of quantifiable characteristics of the intermediate nodes, wherein the plurality of quantifiable characteristics of an intermediate node comprises a geographical position of the intermediate node and an estimated number of further intermediate nodes neighboring the intermediate node; and broadcasting the data packet with additional routing information, wherein the additional routing information comprises a plurality of identifiers for a subset of intermediate nodes of the plurality of intermediate nodes, wherein the subset of intermediate nodes is chosen based on the hierarchical ranking of the intermediate nodes. determining a hierarchical ranking of intermediate nodes of the plurality of intermediate nodes for a next hop of the routing based on a plurality of quantifiable characteristics of the intermediate nodes, wherein the plurality of quantifiable characteristics of an intermediate node comprises a geographical position of the intermediate node and an estimated number of further intermediate nodes neighboring the intermediate node; and broadcasting the data packet with additional routing information, wherein the additional routing information comprises a plurality of identifiers for a subset of intermediate nodes of the plurality of intermediate nodes, wherein the subset of intermediate nodes is chosen based on the hierarchical ranking of the intermediate nodes.
A method for wireless communication in a 3GPP system, comprising: receiving , in an initial transmission time interval, TTI, a downlink grant for a downlink transmission; transmitting channel quality feedback at a first time triggered by receipt of the downlink grant, the first time occurring during a first TTI, wherein the first TTI occurs two TTIs after the initial TTI; and transmitting (1015, 1130, 1220 1330) acknowledgement/negative-acknowledgement, ACK/NACK, feedback for the downlink transmission at a second time triggered by receipt of the downlink grant, the second time occurring during a second TTI, and the second TTI occurring later in time than the first TTI. receiving , in an initial transmission time interval, TTI, a downlink grant for a downlink transmission; transmitting channel quality feedback at a first time triggered by receipt of the downlink grant, the first time occurring during a first TTI, wherein the first TTI occurs two TTIs after the initial TTI; and transmitting (1015, 1130, 1220 1330) acknowledgement/negative-acknowledgement, ACK/NACK, feedback for the downlink transmission at a second time triggered by receipt of the downlink grant, the second time occurring during a second TTI, and the second TTI occurring later in time than the first TTI.
A method for locating a sound source, the method comprising: detecting, by each of two audio sensors , a sound signal of a sound source; converting the detected sound signals from a time domain to a frequency domain; determining a high frequency ratio of each of the sound signals in the frequency domain; and determining a direction of the sound source based on the high frequency ratios, wherein said high frequency ratio is determined as a ratio between a high frequency component of the sound signal and the sound signal, said high frequency component having one or more frequencies higher than a preset value, characterized in that , said method further includes: obtaining an image relating to the sound source; and determining, by an image analysis module , a sound making behavior based on the image and the sound signals. detecting, by each of two audio sensors , a sound signal of a sound source; converting the detected sound signals from a time domain to a frequency domain; determining a high frequency ratio of each of the sound signals in the frequency domain; and determining a direction of the sound source based on the high frequency ratios, wherein said high frequency ratio is determined as a ratio between a high frequency component of the sound signal and the sound signal, said high frequency component having one or more frequencies higher than a preset value, characterized in that , said method further includes: obtaining an image relating to the sound source; and determining, by an image analysis module , a sound making behavior based on the image and the sound signals. obtaining an image relating to the sound source; and determining, by an image analysis module , a sound making behavior based on the image and the sound signals.
Inductor for inductively heating metallic components with at least one coil, wherein the coil is approximately annular and has a passage which passes through the coil from its inner circumferential surface to its outer circumferential surface in the form of a cutout to allow radiation to pass from the inside to the outside through the passage , characterized in that the component is receivable in an interior of the inductor so as to be rotatable about its axis of symmetry or longitudinal central axis, wherein the component is mounted on a rotatably designed holding device and rotates during the heat treatment about its axis of symmetry or longitudinal central axis to achieve the most homogeneous temperature distribution possible in the component .
Subscriber station (10; 30) for a bus system , having a transmission/reception device for transmitting or receiving a message (45; 46; 47) to/from at least one further subscriber station of the bus system via the bus system , in which bus system , at least intermittently, exclusive collision-free access by a subscriber station to a bus of the bus system is ensured, and a communication control device for creating the message (45; 46; 47) to be transmitted by the transmission/reception device or for reading the message (45; 46; 47) received by the transmission/reception device according to a predetermined communication protocol for the bus system , and a delay unit connected between the communication control device and the transmission/reception device in order to delay a transmission signal (TX) transmitted from the communication control device to the transmission/reception device and a received signal (RX) received by the transmission/reception device .
Dead bolt locking mechanism comprising: • an operation rack being movable along a predefined displacement direction and being connectable to a dead bolt , • a first follower and a second follower which are rotatable about a rotation axis , and • an engaging element , • wherein the first follower and the second follower are adapted to be able to rotate independently and each of the first follower and the second follower can move the operation rack along the displacement direction , and • wherein the first follower and/or the second follower , especially a circumferential surface of the follower , comprises at least one counterelement with which the engaging element is engageable to situate the respective first follower and/or second follower in a non-blocking position, wherein a non-blocking position is a position in which the follower with the counterelement does not prohibit or block the movement of the operation rack , characterized in that that the engaging element cooperates with the counterelement so that the first follower and/or the second follower comprising the counterelement are rotated from a blocking position to a non-blocking position due to engagement of the engaging element and the counterelement . • an operation rack being movable along a predefined displacement direction and being connectable to a dead bolt , • a first follower and a second follower which are rotatable about a rotation axis , and • an engaging element , • wherein the first follower and the second follower are adapted to be able to rotate independently and each of the first follower and the second follower can move the operation rack along the displacement direction , and • wherein the first follower and/or the second follower , especially a circumferential surface of the follower , comprises at least one counterelement with which the engaging element is engageable to situate the respective first follower and/or second follower in a non-blocking position, wherein a non-blocking position is a position in which the follower with the counterelement does not prohibit or block the movement of the operation rack ,
A process for the reductive amination of a halo-benzaldehyde in the presence of a nitrogen containing compound, wherein the halogen atom is selected from the list consisting of chlorine, bromine, iodine, and combinations thereof, and in the presence of hydrogen and a heterogeneous catalyst comprising at least one first metal selected from the list consisting of palladium, Pd, rhodium, Rh, and ruthenium, Ru, together with at least one second metal selected from the list consisting of silver, Ag, nickel, Ni, cobalt, Co, tin, Sn, copper, Cu, and gold, Au wherein the heterogeneous catalyst has a carbon support.
A switch arrangement for a track-borne vehicle, having at least two articulatedly interconnected switch segments mounted so as to be movable with respect to a base surface of the switch arrangement , wherein at least one switch segment has a drive , characterized in that at least two switch segments are interconnected by means of an articulation , which has at least two degrees of rotational freedom and/or at least one degree of translational freedom (T), which is optionally formed with at least one additional degree of rotational freedom.
A compound of formula (I), wherein R 1 is hydroxy, C 1-6 alkyl, C 1-6 alkylcarbonyl-O-, C 1-6 alkyl-S-, azido or C 2-6 alkenyl; R 2 is C 1-6 alkyl, C 1-6 alkoxyC 1-6 alkyl, C 3-7 cycloalkyl, C 2-6 alkynyl, C 2-6 alkenyl, benzyl and thiophenyl; R 3 is hydrogen or C 1-6 alkylcarbonyl; or pharmaceutically acceptable salt, enantiomer or diastereomer thereof. R 1 is hydroxy, C 1-6 alkyl, C 1-6 alkylcarbonyl-O-, C 1-6 alkyl-S-, azido or C 2-6 alkenyl; R 2 is C 1-6 alkyl, C 1-6 alkoxyC 1-6 alkyl, C 3-7 cycloalkyl, C 2-6 alkynyl, C 2-6 alkenyl, benzyl and thiophenyl; R 3 is hydrogen or C 1-6 alkylcarbonyl;
A method of wireless communications, the method comprising: identifying from information in a control channel, at a user equipment, UE, a plurality of common search spaces on a carrier from one or more nodes, wherein each of the plurality of common search spaces is associated with a respective scheduling entity, and each of the plurality of common search spaces shares a same Resource Element Group/Control Channel Element REG/CCE space, wherein each common search space of the plurality of common search spaces is arranged to hash to a different range of CCEs in the same REG/CCE space; monitoring the plurality of common search spaces; and communicating with at least one of the one or more nodes based on the monitored plurality of common search spaces. identifying from information in a control channel, at a user equipment, UE, a plurality of common search spaces on a carrier from one or more nodes, wherein each of the plurality of common search spaces is associated with a respective scheduling entity, and each of the plurality of common search spaces shares a same Resource Element Group/Control Channel Element REG/CCE space, wherein each common search space of the plurality of common search spaces is arranged to hash to a different range of CCEs in the same REG/CCE space; monitoring the plurality of common search spaces; and communicating with at least one of the one or more nodes based on the monitored plurality of common search spaces.
A coordinate positioning machine comprising a structure moveable within a working volume of the machine, a hexapod metrology arrangement for measuring the position of the structure within the working volume , and a non-hexapod drive arrangement for moving the structure around the working volume , wherein the metrology arrangement and drive arrangement are each coupled to the moveable structure and a fixed structure of the machine, characterised in that the moveable structure is adapted to carry an operational tool with the metrology and drive arrangements also coupled to the moveable structure , wherein the operational tool is a tool for interacting with or operating on a workpiece located in the working volume during operational use of the machine.
An automatic parking system, comprising: a smart key recognition processor recognizing a smart key positioned in a first area ; a sensor unit acquiring images around a subject vehicle if the smart key is recognized, and converting the acquired images into external images and synthesizing the external images; a parking space recognizing sensor periodically receiving the external images and sequentially comparing consecutive external images using an image recognition technology to recognize parking areas; and a controller calculating a moving path between a current position of the subject vehicle and an optimal parking area among the parking areas and controlling the subject vehicle based on the moving path, wherein the parking space recognizing sensor detects the parking areas in consideration of a length and a width of the subject vehicle , wherein a length of the optimal parking area is a value obtained by adding the length (X1) of the subject vehicle and first room, a width (Y1) of the optimal parking area is a value obtained by adding the width of the subject vehicle and second room, and wherein the first room is calculated based on the length of the subject vehicle . a smart key recognition processor recognizing a smart key positioned in a first area ; a sensor unit acquiring images around a subject vehicle if the smart key is recognized, and converting the acquired images into external images and synthesizing the external images; a parking space recognizing sensor periodically receiving the external images and sequentially comparing consecutive external images using an image recognition technology to recognize parking areas; and a controller calculating a moving path between a current position of the subject vehicle and an optimal parking area among the parking areas and controlling the subject vehicle based on the moving path, wherein the parking space recognizing sensor detects the parking areas in consideration of a length and a width of the subject vehicle , wherein a length of the optimal parking area is a value obtained by adding the length (X1) of the subject vehicle and first room, a width (Y1) of the optimal parking area is a value obtained by adding the width of the subject vehicle and second room, and wherein the first room is calculated based on the length of the subject vehicle .
A personal viewing device for overlaying images, comprising: a mount ; a camera attached to the mount , the camera configured to generate a first image; an electronic display attached to the mount , the electronic display configured to present an overlaid image; an electronic circuit that is attached to the mount , the electronic circuit configured to: process the first image to identify a position and an orientation of the personal viewing device relative to an object within a field of view of the camera, produce a second image comprising annotations, the annotations produced based on the position and the orientation of the personal viewing device relative to the object, overlay the first image with the second image to produce the overlaid image, and display the overlaid image on the electronic display ; and a lens attached to the mount and positioned by the mount so that an eye views the electronic display through the lens . a mount ; a camera attached to the mount , the camera configured to generate a first image; an electronic display attached to the mount , the electronic display configured to present an overlaid image; an electronic circuit that is attached to the mount , the electronic circuit configured to: process the first image to identify a position and an orientation of the personal viewing device relative to an object within a field of view of the camera, produce a second image comprising annotations, the annotations produced based on the position and the orientation of the personal viewing device relative to the object, overlay the first image with the second image to produce the overlaid image, and display the overlaid image on the electronic display ; and process the first image to identify a position and an orientation of the personal viewing device relative to an object within a field of view of the camera, produce a second image comprising annotations, the annotations produced based on the position and the orientation of the personal viewing device relative to the object, overlay the first image with the second image to produce the overlaid image, and display the overlaid image on the electronic display ; and a lens attached to the mount and positioned by the mount so that an eye views the electronic display through the lens .
A controller for a pacing device, configured to: receive sensor data comprising respiratory data; determine a respiratory sinus arrhythmia, RSA, factor of a pacing signal for inducing a level of RSA in a patient, based on the sensor data; determine a cardio-respiratory phase synchronisation, CRPS, factor of the pacing signal for inducing CRPS in the patient, based on the sensor data; and provide the pacing signal for pacing a heart of a patient in accordance with the RSA factor and the CRPS factor wherein the RSA factor comprises one or more parameters of the pacing signal that define an extent that a heart rate is higher during an inspiration portion of a respiratory cycle than during an expiration portion of the respiratory cycle, wherein the CRPS factor comprises one or more parameters of the pacing signal which define heartbeat pulses with respiratory phase angle values that repeat over an integer number of respiratory cycles. receive sensor data comprising respiratory data; determine a respiratory sinus arrhythmia, RSA, factor of a pacing signal for inducing a level of RSA in a patient, based on the sensor data; determine a cardio-respiratory phase synchronisation, CRPS, factor of the pacing signal for inducing CRPS in the patient, based on the sensor data; and provide the pacing signal for pacing a heart of a patient in accordance with the RSA factor and the CRPS factor wherein the RSA factor comprises one or more parameters of the pacing signal that define an extent that a heart rate is higher during an inspiration portion of a respiratory cycle than during an expiration portion of the respiratory cycle, wherein the CRPS factor comprises one or more parameters of the pacing signal which define heartbeat pulses with respiratory phase angle values that repeat over an integer number of respiratory cycles.