mhurhangee/ep-ind-claims huggingface dataset:
An electronic device having a touchless user interface for providing at least one input to the device, said touchless user interface comprising at least one ultrasound transmitter arranged to transmit ultrasonic signals having a frequency band and at least one ultrasound receiver arranged to receive reflections of said ultrasonic signals from an input object; wherein the device further comprises a substantially continuous outer surface portion; and the device further comprises a resonant cavity (36, 40) formed inside the device; characterised in that: said resonant cavity has a resonant frequency within said frequency band; wherein at least one of the transmitter and the receiver is provided behind said outer surface portion, wherein said at least one of the transmitter and the receiver is contained in the resonant cavity (36, 40). wherein the device further comprises a substantially continuous outer surface portion; and the device further comprises a resonant cavity (36, 40) formed inside the device; characterised in that: said resonant cavity has a resonant frequency within said frequency band; wherein at least one of the transmitter and the receiver is provided behind said outer surface portion, wherein said at least one of the transmitter and the receiver is contained in the resonant cavity (36, 40).
An imaging system, comprising: a rotating frame that rotates around an examination region about a z-axis; a second frame (102, 104); and a support that rotatably couples the rotating frame to the second frame (102, 104), wherein one of the rotating frame or the second frame (102, 104) is compliantly coupled to the support and the other of the rotating frame or the second frame (102, 104) is rigidly coupled to the support, the support, comprising: a stator, a first bearing portion, and a bearing support that couples the stator and the first bearing portion, the bearing support, comprising: at least two members spaced apart from each other by a corresponding highly compliant region, wherein a first side of each member is coupled to the stator and a second side of each member is coupled to the first bearing portion. a rotating frame that rotates around an examination region about a z-axis; a second frame (102, 104); and a support that rotatably couples the rotating frame to the second frame (102, 104), wherein one of the rotating frame or the second frame (102, 104) is compliantly coupled to the support and the other of the rotating frame or the second frame (102, 104) is rigidly coupled to the support, the support, comprising: a stator, a first bearing portion, and a bearing support that couples the stator and the first bearing portion, the bearing support, comprising: at least two members spaced apart from each other by a corresponding highly compliant region, wherein a first side of each member is coupled to the stator and a second side of each member is coupled to the first bearing portion. the support, comprising: a stator, a first bearing portion, and a bearing support that couples the stator and the first bearing portion, the bearing support, comprising: at least two members spaced apart from each other by a corresponding highly compliant region, wherein a first side of each member is coupled to the stator and a second side of each member is coupled to the first bearing portion.
A device for quickly adjusting a vehicle glass water nozzle, characterized by, comprising: a nozzle direction adjusting body; a position control assembly, disposed on the nozzle direction adjusting body, wherein the position control assembly comprises a first position control subassembly (206, 208), a second position control subassembly (207, 209) and a subassembly driving mechanism, the subassembly driving mechanism being configured to adjust the position of the first position control subassembly (206, 208) and/or the position of the second position control subassembly (207, 209), thereby changing the position of an intersection point of edges of the first and the second position control subassembly; and an adjusting body, configured to abut on an intersection point of edges of the first and the second position control subassemblies, wherein an end of the adjusting body is configured to be connected with a jet of a nozzle and thereby adjust a direction of the jet of the nozzle. a nozzle direction adjusting body; a position control assembly, disposed on the nozzle direction adjusting body, wherein the position control assembly comprises a first position control subassembly (206, 208), a second position control subassembly (207, 209) and a subassembly driving mechanism, the subassembly driving mechanism being configured to adjust the position of the first position control subassembly (206, 208) and/or the position of the second position control subassembly (207, 209), thereby changing the position of an intersection point of edges of the first and the second position control subassembly; and an adjusting body, configured to abut on an intersection point of edges of the first and the second position control subassemblies, wherein an end of the adjusting body is configured to be connected with a jet of a nozzle and thereby adjust a direction of the jet of the nozzle.
A tire comprising: a plurality of joined components each having a joint portion at a predetermined position in a circumferential direction; and an RFID tag, wherein the plurality of joined components include an inner liner forming an inner surface of the tire, and at least one metal reinforcing component including a steel cord, the joint portion of the inner liner, the joint portion of the metal reinforcing component, and the RFID tag are placed so as to be dispersed in the circumferential direction, positions (Ji, Jc, Js) of the joint portions of the joined components and a position of the RFID tag are represented by angles about a rotation axis of the tire, and the tire is characterized in that when the position (Ji) of the joint portion of the inner liner is defined as 0 degrees, the joint portion of the metal reinforcing component is located in a range of not less than 90 degrees and not greater than 270 degrees, and the RFID tag is located in a range of not less than 60 degrees and not greater than 90 degrees or a range of not less than 270 degrees and not greater than 300 degrees. a plurality of joined components each having a joint portion at a predetermined position in a circumferential direction; and an RFID tag, wherein the plurality of joined components include an inner liner forming an inner surface of the tire, and at least one metal reinforcing component including a steel cord, the joint portion of the inner liner, the joint portion of the metal reinforcing component, and the RFID tag are placed so as to be dispersed in the circumferential direction, positions (Ji, Jc, Js) of the joint portions of the joined components and a position of the RFID tag are represented by angles about a rotation axis of the tire, and the tire is characterized in that when the position (Ji) of the joint portion of the inner liner is defined as 0 degrees, the joint portion of the metal reinforcing component is located in a range of not less than 90 degrees and not greater than 270 degrees, and the RFID tag is located in a range of not less than 60 degrees and not greater than 90 degrees or a range of not less than 270 degrees and not greater than 300 degrees.
A battery management apparatus comprising: a measuring unit configured to measure a current and a voltage of battery cells; an analyzing unit configured to classify the battery cells into a plurality of classes based on a feature obtained from the current and the voltage of the battery cells and a degradation behavior of each of the battery cells; and a determining unit configured to determine a lifespan of the battery cells in a preset manner for each of the plurality of classes; wherein the analyzing unit is further configured to classify: as a first class, a first battery cell among the battery cells for which a lifespan of the first battery cell is determined to be normal based on a feature of the first battery cell in a state where charging and discharging are performed on the first battery cell up to a first cycle, characterized in that the analyzing unit is further configured to classify: a second battery cell among the battery cells not belonging to the first class as a second class in which lifespan determination is possible in a state where charging and discharging are performed on the second battery cell up to a second cycle, and the second cycle has a value greater than the first cycle; wherein the determining unit is further configured to determine the lifespan of the second battery cell by applying a feature of the second battery cell to a regression model in a state where charging and discharging are performed on the second battery cell up to the second cycle. a measuring unit configured to measure a current and a voltage of battery cells; an analyzing unit configured to classify the battery cells into a plurality of classes based on a feature obtained from the current and the voltage of the battery cells and a degradation behavior of each of the battery cells; and a determining unit configured to determine a lifespan of the battery cells in a preset manner for each of the plurality of classes; wherein the analyzing unit is further configured to classify: as a first class, a first battery cell among the battery cells for which a lifespan of the first battery cell is determined to be normal based on a feature of the first battery cell in a state where charging and discharging are performed on the first battery cell up to a first cycle, a second battery cell among the battery cells not belonging to the first class as a second class in which lifespan determination is possible in a state where charging and discharging are performed on the second battery cell up to a second cycle, and the second cycle has a value greater than the first cycle; wherein the determining unit is further configured to determine the lifespan of the second battery cell by applying a feature of the second battery cell to a regression model in a state where charging and discharging are performed on the second battery cell up to the second cycle.
A method of manufacturing a permanent magnet, the method comprising: heating a plurality of magnetic metals to their melting point under vacuum to create a metal alloy; allowing the metal alloy to cool and solidify; grinding the metal alloy into a powder; characterized by placing the metal alloy powder into a non-magnetic metal container, the container being a tube of any desired cross sectional shape; aligning the metal alloy powder by applying a magnetic field to the metal alloy powder while compressing the metal alloy powder and the container; sintering the metal alloy power while in the container; cooling the sintered metal alloy powder and the container; and magnetizing the sintered metal alloy powder while in the container; wherein compressing the metal alloy powder comprises swaging the metal alloy powder and the container; and the permanent magnet comprises the magnetizing sintered metal alloy powder in the container. heating a plurality of magnetic metals to their melting point under vacuum to create a metal alloy; allowing the metal alloy to cool and solidify; grinding the metal alloy into a powder; characterized by placing the metal alloy powder into a non-magnetic metal container, the container being a tube of any desired cross sectional shape; aligning the metal alloy powder by applying a magnetic field to the metal alloy powder while compressing the metal alloy powder and the container; sintering the metal alloy power while in the container; cooling the sintered metal alloy powder and the container; and magnetizing the sintered metal alloy powder while in the container; wherein compressing the metal alloy powder comprises swaging the metal alloy powder and the container; and the permanent magnet comprises the magnetizing sintered metal alloy powder in the container.
A method for relofting a substrate, the method comprising: advancing a substrate in a machine direction MD, the substrate comprising a first surface and an opposing second surface and defining a width in a cross direction; providing a first infrared radiation source; directing a first length of the substrate to advance in a first direction such that the first surface of the first length of the substrate is in a facing relationship with the first radiation source; irradiating the first surface of the first length of the substrate with infrared radiation from the first infrared radiation source, wherein the substrate comprises a first caliper upstream of the first radiation source and wherein the substrate comprises a second caliper downstream of the first radiation source, wherein the second caliper is at least 1.2 times the first caliper; redirecting a second length of the substrate from the first direction to advance in a second direction, wherein the second direction is different than the first direction and wherein the second surface of the first length of the substrate is in a facing relationship with the second surface of the second length of the substrate; providing a second infrared radiation source in a facing relationship with the first surface of the second length of the substrate; and irradiating the first surface of the second length of the substrate with infrared radiation from the second infrared radiation source. advancing a substrate in a machine direction MD, the substrate comprising a first surface and an opposing second surface and defining a width in a cross direction; providing a first infrared radiation source; directing a first length of the substrate to advance in a first direction such that the first surface of the first length of the substrate is in a facing relationship with the first radiation source; irradiating the first surface of the first length of the substrate with infrared radiation from the first infrared radiation source, wherein the substrate comprises a first caliper upstream of the first radiation source and wherein the substrate comprises a second caliper downstream of the first radiation source, wherein the second caliper is at least 1.2 times the first caliper; redirecting a second length of the substrate from the first direction to advance in a second direction, wherein the second direction is different than the first direction and wherein the second surface of the first length of the substrate is in a facing relationship with the second surface of the second length of the substrate; providing a second infrared radiation source in a facing relationship with the first surface of the second length of the substrate; and irradiating the first surface of the second length of the substrate with infrared radiation from the second infrared radiation source.
Material comprising a first compound (COMP1) and a second compound (COMP2), said first and second compounds (COMP1, COMP2) comprising a bi-pyridine or pyridine group comprising itself an N-oxide (N-O) group, said N-oxide (N-O) group being bound to a metal cation of the ns 2 type of the P group, and said material being characterised in that said second compound (COMP2) is obtained from a compound identical to the first compound (COMP1), ground.
A coolant control valve for a vehicle comprising: a valve body having a magnetic body and controlling flow of fluid; a first valve seat constituting a flow channel for the fluid and coming into contact with the valve body to close the flow channel; a solenoid magnetically maintaining a contact state between the valve body and the first valve seat; and an urging mechanism urging the valve body in a direction opposite to a flow direction of the fluid; wherein the valve body includes a first valve body and a second valve body capable of allowing passage of a small amount of the fluid by being brought into its opened state when the first valve body serving as a second valve seat for the second valve body is in contact with the first valve seat, the coolant control valve being characterised in that the first valve body maintains a contact state with the first valve seat when the solenoid is excited and the urging mechanism is configured to urge the first valve body in its closing direction via the second valve body. a valve body having a magnetic body and controlling flow of fluid; a first valve seat constituting a flow channel for the fluid and coming into contact with the valve body to close the flow channel; a solenoid magnetically maintaining a contact state between the valve body and the first valve seat; and an urging mechanism urging the valve body in a direction opposite to a flow direction of the fluid; wherein the valve body includes a first valve body and a second valve body capable of allowing passage of a small amount of the fluid by being brought into its opened state when the first valve body serving as a second valve seat for the second valve body is in contact with the first valve seat, the coolant control valve being characterised in that the first valve body maintains a contact state with the first valve seat when the solenoid is excited and the urging mechanism is configured to urge the first valve body in its closing direction via the second valve body.
A method of providing an optimized position locating sensor (100, 410) coil design (800, 900), to be executed on a computing system, the method comprising: receiving (702, 722) a coil design, the coil design including coordinates, layout, and characteristics of a transmit coil (106, 802, 902) and receive coils, the receive coils including a sine coil (112, 806, 906, 1026, 1316) and a cosine coil (110, 804, 904, 1028, 1318); simulating (704, 724) position determination with the coil design (800, 900) to form a simulated performance using the coil design (800, 900) and using an input design of a metallic target (124, 408, 1024) and air gap, the simulating (704, 724) position determination simulating signals from the sine coil (112, 806, 906, 1026, 1316) and the cosine coil cosine coil (110, 804, 904, 1028, 1318) based on position of the metallic target (124, 408, 1024); comparing (706, 734) the simulated response with the specification to provide a comparison; and modifying (712, 736) the coil design (800, 900) based on a comparison between the simulated performance and a performance specification to arrive at an updated coil design which is usable for production of a printed circuit board with the optimized design. receiving (702, 722) a coil design, the coil design including coordinates, layout, and characteristics of a transmit coil (106, 802, 902) and receive coils, the receive coils including a sine coil (112, 806, 906, 1026, 1316) and a cosine coil (110, 804, 904, 1028, 1318); simulating (704, 724) position determination with the coil design (800, 900) to form a simulated performance using the coil design (800, 900) and using an input design of a metallic target (124, 408, 1024) and air gap, the simulating (704, 724) position determination simulating signals from the sine coil (112, 806, 906, 1026, 1316) and the cosine coil cosine coil (110, 804, 904, 1028, 1318) based on position of the metallic target (124, 408, 1024); comparing (706, 734) the simulated response with the specification to provide a comparison; and modifying (712, 736) the coil design (800, 900) based on a comparison between the simulated performance and a performance specification to arrive at an updated coil design which is usable for production of a printed circuit board with the optimized design.
A device for the certified bandwidth measurement of a broadband network access, comprising: processing means for performing a number of measurements of parameters related to the quality of a broadband network a network interface for connecting to the network access to be measured, and storage means for storing the results of the measurements; characterised in that: the device comprises a communication port in communication with an external reference clock which is calibrated and legally valid and in that the processing means communicate through the communication port with the external reference clock calibrated, for the assessment of the parameters. processing means for performing a number of measurements of parameters related to the quality of a broadband network a network interface for connecting to the network access to be measured, and storage means for storing the results of the measurements; the device comprises a communication port in communication with an external reference clock which is calibrated and legally valid and in that the processing means communicate through the communication port with the external reference clock calibrated, for the assessment of the parameters.
A silylated polyurethane obtainable by a process comprising the following steps: (a) reacting at least one polyol with at least one triisocyanate to form a hydroxyl-terminated polyurethane prepolymer; and (b) reacting said polyurethane prepolymer with at least one isocyanatosilane of the formula OCN-R-Si- m (R 1) 3-m wherein m is 0, 1 or 2, each R 1 is independently from each other a hydroxyl group, an alkoxy group having 1 to 10 carbon atoms, an acyloxy group having 1 to 10 carbon atoms, or-OCH(R 2)COOR 3, wherein R 2 is hydrogen or an alkyl group having 1 to 4 carbon atoms and R 3 is a straight-chain or branched alkyl group having 1 to 8 carbon atoms, each X is independently from each other an optionally substituted hydrocarbon group having 1 to 10 carbon atoms, which can be interrupted by at least one heteroatom, and R is a difunctional organic group, to endcap the hydroxyl groups on said prepolymer with said isocyanatosilane. (a) reacting at least one polyol with at least one triisocyanate to form a hydroxyl-terminated polyurethane prepolymer; and (b) reacting said polyurethane prepolymer with at least one isocyanatosilane of the formula OCN-R-Si- m (R 1) 3-m wherein m is 0, 1 or 2, each R 1 is independently from each other a hydroxyl group, an alkoxy group having 1 to 10 carbon atoms, an acyloxy group having 1 to 10 carbon atoms, or-OCH(R 2)COOR 3, wherein R 2 is hydrogen or an alkyl group having 1 to 4 carbon atoms and R 3 is a straight-chain or branched alkyl group having 1 to 8 carbon atoms, each X is independently from each other an optionally substituted hydrocarbon group having 1 to 10 carbon atoms, which can be interrupted by at least one heteroatom, and R is a difunctional organic group, to endcap the hydroxyl groups on said prepolymer with said isocyanatosilane. m is 0, 1 or 2, each R 1 is independently from each other a hydroxyl group, an alkoxy group having 1 to 10 carbon atoms, an acyloxy group having 1 to 10 carbon atoms, or-OCH(R 2)COOR 3, wherein R 2 is hydrogen or an alkyl group having 1 to 4 carbon atoms and R 3 is a straight-chain or branched alkyl group having 1 to 8 carbon atoms, each X is independently from each other an optionally substituted hydrocarbon group having 1 to 10 carbon atoms, which can be interrupted by at least one heteroatom, and R is a difunctional organic group, to endcap the hydroxyl groups on said prepolymer with said isocyanatosilane.