mhurhangee/ep-ind-claims huggingface dataset:
A touch sensitive device comprising a panel capable of supporting bending waves, a user-accessible touch sensitive screen on or forming part of a face of the panel, the touch sensitive screen having a plurality of different sensing areas, a plurality of vibration exciters (16,18) coupled to the panel to apply bending waves to the panel to provide tactile feedback at the plurality of sensing areas in response to a user touching a sensing area, and signal processing means arranged to apply signals to the vibration exciters (16,18) so as to steer bending waves applied to the panel by the plurality of vibration exciters (16,18) characterised in that the steering is such that the sensing area touched by the user is caused to be antinodal to maximise the amplitude of the applied bending waves at the sensing area touched by the user and each other sensing area is caused to be nodal to reduce or minimise the amplitude of the applied bending waves at each other sensing area.
A pump comprising: a stator comprising a coil, said coil being configured to generate a magnetic field when an electrical current is supplied to said coil; a rotor having an axial direction, a circumferential direction, and a radial direction, a casing, said casing comprising an inlet, an outlet, and a pump cavity by which said inlet and said outlet communicate, said rotor being disposed in said pump cavity, said rotor comprising an impeller and a permanent magnet, whereby said rotor is rotated about said axial direction by the magnetic field, characterized in that said rotor has a through hole extending in the axial direction, said through hole enabling a foreign substance and air between said rotor and said pump cavity to be discharged, said permanent magnet is made of a bond magnet, whereby said permanent magnet has a weld line extending from an inside to an outside of said radial direction, said permanent magnet has a plurality of magnetic poles which are arranged in the circumferential direction, whereby boundaries are formed between the magnetic poles adjacent to each other, said through hole is displaced from said weld line in the circumferential direction, and said through hole is displaced from said boundary in the circumferential direction. a stator comprising a coil, said coil being configured to generate a magnetic field when an electrical current is supplied to said coil; a rotor having an axial direction, a circumferential direction, and a radial direction, a casing, said casing comprising an inlet, an outlet, and a pump cavity by which said inlet and said outlet communicate, said rotor being disposed in said pump cavity, said rotor comprising an impeller and a permanent magnet, whereby said rotor is rotated about said axial direction by the magnetic field, characterized in that said rotor has a through hole extending in the axial direction, said through hole enabling a foreign substance and air between said rotor and said pump cavity to be discharged, said permanent magnet is made of a bond magnet, whereby said permanent magnet has a weld line extending from an inside to an outside of said radial direction, said permanent magnet has a plurality of magnetic poles which are arranged in the circumferential direction, whereby boundaries are formed between the magnetic poles adjacent to each other, said through hole is displaced from said weld line in the circumferential direction, and said through hole is displaced from said boundary in the circumferential direction.
A ruthenium complex of formula,, or: [Ru Hal 2 L CO S] [Ru 2 Hal 4 L 2 2] [Ru 2 Hal 4 L 2 CO] [Ru Hal 2 L 2] wherein: Hal is a halogen ligand, L is a substituted or unsubstituted paracyclophane ligand of formula: wherein X 1 and X 2 are linking groups comprising between 2 to 4 carbon atoms, each Y 1, Y 2, Y 3 and Y 4 are independently selected from the group consisting of substituted or unsubstituted alkyl, substituted or unsubstituted cycloalkyl, substituted or unsubstituted aryl and substituted or unsubstituted heteroaryl, each Z 1, Z 2 and Z 3 are the same or different and are substituting groups that optionally contain functional groups, a, b, c, d, e and f are the integers 0 or 1 and a + b + c + d + e + f = 0 to 6; CO is a carbonyl ligand; and S is a solvent ligand. Hal is a halogen ligand, L is a substituted or unsubstituted paracyclophane ligand of formula: wherein X 1 and X 2 are linking groups comprising between 2 to 4 carbon atoms, each Y 1, Y 2, Y 3 and Y 4 are independently selected from the group consisting of substituted or unsubstituted alkyl, substituted or unsubstituted cycloalkyl, substituted or unsubstituted aryl and substituted or unsubstituted heteroaryl, each Z 1, Z 2 and Z 3 are the same or different and are substituting groups that optionally contain functional groups, a, b, c, d, e and f are the integers 0 or 1 and a + b + c + d + e + f = 0 to 6; CO is a carbonyl ligand; and S is a solvent ligand. wherein X 1 and X 2 are linking groups comprising between 2 to 4 carbon atoms, each Y 1, Y 2, Y 3 and Y 4 are independently selected from the group consisting of substituted or unsubstituted alkyl, substituted or unsubstituted cycloalkyl, substituted or unsubstituted aryl and substituted or unsubstituted heteroaryl, each Z 1, Z 2 and Z 3 are the same or different and are substituting groups that optionally contain functional groups, a, b, c, d, e and f are the integers 0 or 1 and a + b + c + d + e + f = 0 to 6; CO is a carbonyl ligand; and S is a solvent ligand.
A laminate comprising a rubber layer and a fluororesin layer, the fluororesin layer comprising a copolymer containing a chlorotrifluoroethylene unit, a tetrafluoroethylene unit, and a perfluoroalkyl vinyl ether unit, the copolymer containing 96.0 to 97.4 mol% of the chlorotrifluoroethylene unit and the tetrafluoroethylene unit relative to all the monomer units constituting the copolymer and 2.6 to 4.0 mol% of the perfluoroalkyl vinyl ether unit relative to all the monomer units constituting the copolymer.
A mask template for protecting a predetermined region of a surface of a sheet metal blank from receiving a coating of a lubricant material, the mask template comprising: a mask element dimensioned larger than the predetermined region and having a first surface on a first side thereof, a second surface on a second side thereof that is opposite the first side, and an edge joining the first surface and the second surface and defining a perimeter around the mask element; an overspray fence extending to a first distance away from the first surface of the mask element, the overspray fence enclosing an area that is the same shape and size as the predetermined region, wherein a portion of the mask element overhangs the overspray fence; and at least one contact element extending to a second distance that is greater than the first distance away from the first surface of the mask element, the at least one contact element for engaging the surface of the sheet metal blank and for releasably securing the mask template to the surface of the sheet metal blank, wherein the overspray fence is spaced-away from the surface of the sheet metal blank when the at least one contact element releasably secures the mask template to the surface of the sheet metal blank. a mask element dimensioned larger than the predetermined region and having a first surface on a first side thereof, a second surface on a second side thereof that is opposite the first side, and an edge joining the first surface and the second surface and defining a perimeter around the mask element; an overspray fence extending to a first distance away from the first surface of the mask element, the overspray fence enclosing an area that is the same shape and size as the predetermined region, wherein a portion of the mask element overhangs the overspray fence; and at least one contact element extending to a second distance that is greater than the first distance away from the first surface of the mask element, the at least one contact element for engaging the surface of the sheet metal blank and for releasably securing the mask template to the surface of the sheet metal blank, wherein the overspray fence is spaced-away from the surface of the sheet metal blank when the at least one contact element releasably secures the mask template to the surface of the sheet metal blank.
A method of determining an error vector magnitude performed using automatic test equipment "ATE", the method comprising: receiving data from a device under test "DUT" (11, 29) at a first receiver (35, 39) of the ATE; demodulating (56, 71, 72) the data received at the first receiver to produce first symbol error vectors, each first symbol error vector representing a difference between a predefined point on a constellation diagram and a first measured point on the constellation diagram generated based on at least part of the data received by the first receiver; receiving the data from the DUT at a second receiver (35, 39) of the ATE, the second receiver being different from the first receiver; demodulating (56, 71, 72) the data received at the second receiver to produce second symbol error vectors, each second symbol error vector representing a difference between the predefined point on the constellation diagram and a second measured point on the constellation diagram generated based on at least part of the data received by the second receiver; and determining the error vector magnitude for the data based on the first symbol error vectors and the second symbol error vectors, wherein determining the error vector magnitude for the data comprises cross-correlating (57, 74) the first symbol error vectors and the second symbol error vectors-and thereby reducing a level of uncorrelated noise. receiving data from a device under test "DUT" (11, 29) at a first receiver (35, 39) of the ATE; demodulating (56, 71, 72) the data received at the first receiver to produce first symbol error vectors, each first symbol error vector representing a difference between a predefined point on a constellation diagram and a first measured point on the constellation diagram generated based on at least part of the data received by the first receiver; receiving the data from the DUT at a second receiver (35, 39) of the ATE, the second receiver being different from the first receiver; demodulating (56, 71, 72) the data received at the second receiver to produce second symbol error vectors, each second symbol error vector representing a difference between the predefined point on the constellation diagram and a second measured point on the constellation diagram generated based on at least part of the data received by the second receiver; and determining the error vector magnitude for the data based on the first symbol error vectors and the second symbol error vectors, wherein determining the error vector magnitude for the data comprises cross-correlating (57, 74) the first symbol error vectors and the second symbol error vectors-and thereby reducing a level of uncorrelated noise.
A method for processing a login information, the method comprising: receiving a login information storage request sent by a user, wherein the login information storage request comprises an identifier; determining login information corresponding to the user; creating, based on a predetermined smart contract template used for login information processing, a smart contract comprising the login information, wherein processing logic used for login information processing is recorded in the predetermined smart contract template; storing the created smart contract in a blockchain network based on the identifier; receiving a login information query request that is sent by a user and that comprises an identifier (109, 202); reading, from a blockchain network based on the identifier, at least one smart contract used for login information processing (111, 608); determining the smart contract corresponding to the user making the information query request from the at least one smart contract; running the smart contract to obtain login information corresponding to the user making the information query request; and sending the obtained login information to the user making the information query request. receiving a login information storage request sent by a user, wherein the login information storage request comprises an identifier; determining login information corresponding to the user; creating, based on a predetermined smart contract template used for login information processing, a smart contract comprising the login information, wherein processing logic used for login information processing is recorded in the predetermined smart contract template; storing the created smart contract in a blockchain network based on the identifier; receiving a login information query request that is sent by a user and that comprises an identifier (109, 202); reading, from a blockchain network based on the identifier, at least one smart contract used for login information processing (111, 608); determining the smart contract corresponding to the user making the information query request from the at least one smart contract; running the smart contract to obtain login information corresponding to the user making the information query request; and sending the obtained login information to the user making the information query request.
A gas/liquid fuel nozzle assembly comprising: a premixing tube bundle including an array of mixing tubes; a fuel plenum for delivering fuel to the mixing tubes; a cartridge tube disposed within the plenum; and a liquid fuel cartridge disposed in the cartridge tube, the liquid fuel cartridge being spaced from the cartridge tube to define an annulus, the cartridge tube and the fuel plenum being constructed in fluid communication such that gas fuel in the fuel plenum is injectable into the annulus, characterized in that the cartridge tube comprises a plurality of gas fuel injection holes that allow gas fuel to be injected from the fuel plenum to the annulus. a premixing tube bundle including an array of mixing tubes; a fuel plenum for delivering fuel to the mixing tubes; a cartridge tube disposed within the plenum; and a liquid fuel cartridge disposed in the cartridge tube, the liquid fuel cartridge being spaced from the cartridge tube to define an annulus, the cartridge tube and the fuel plenum being constructed in fluid communication such that gas fuel in the fuel plenum is injectable into the annulus, characterized in that the cartridge tube comprises a plurality of gas fuel injection holes that allow gas fuel to be injected from the fuel plenum to the annulus.
A computer-implemented input-method-editor process, the process comprising: receiving a request from a user of an electronic device for an application-independent input method editor having written and spoken input capabilities, wherein the application-independent input method editor is configured to receive input for a plurality of applications executable by the electronic device; receiving a spoken input from the user, wherein the spoken input comprises input for use as input to an application from the plurality of applications; receiving a written input from the user as part of a combination of the written input and the spoken input; determining a language of the written input; providing a language indicator to a remote server that includes a speech recognition system, wherein the language indicator indicates the determined language of the written input; providing the spoken input to the remote server, wherein the speech recognition system of the remote server is configured to use the language indicator to convert the spoken input to text; receiving text from the remote server, wherein the text represents the spoken input; and providing the text to the application as user input. receiving a request from a user of an electronic device for an application-independent input method editor having written and spoken input capabilities, wherein the application-independent input method editor is configured to receive input for a plurality of applications executable by the electronic device; receiving a spoken input from the user, wherein the spoken input comprises input for use as input to an application from the plurality of applications; receiving a written input from the user as part of a combination of the written input and the spoken input; determining a language of the written input; providing a language indicator to a remote server that includes a speech recognition system, wherein the language indicator indicates the determined language of the written input; providing the spoken input to the remote server, wherein the speech recognition system of the remote server is configured to use the language indicator to convert the spoken input to text; receiving text from the remote server, wherein the text represents the spoken input; and providing the text to the application as user input.
A method of operating a headend computer, comprising: under control of one or more processors configured with executable instructions: receiving data from user equipment, UE, in a communication; receiving, from a mobility management entity, MME, a value of a maximum coupling loss, MCL, of the communication; analyzing the MCL of the communication, wherein the analyzing is based at least in part on data inputs from the UE, wherein the analyzing comprises: determining a period of polling of the user equipment; and determining acceptable device latency; and providing the UE with values for: a first timer that directs a cellular modem of the UE when to enter and when to exit a power-save mode, PSM, and a second timer that directs the cellular modem of the UE when to enter and when to exit an idle mode; wherein the values provided to the UE are based at least in part on the determined period of polling and the determined acceptable device latency, and the MCL of the communication. receiving data from user equipment, UE, in a communication; receiving, from a mobility management entity, MME, a value of a maximum coupling loss, MCL, of the communication; analyzing the MCL of the communication, wherein the analyzing is based at least in part on data inputs from the UE, wherein the analyzing comprises: determining a period of polling of the user equipment; and determining acceptable device latency; and determining a period of polling of the user equipment; and determining acceptable device latency; and providing the UE with values for: a first timer that directs a cellular modem of the UE when to enter and when to exit a power-save mode, PSM, and a second timer that directs the cellular modem of the UE when to enter and when to exit an idle mode; wherein the values provided to the UE are based at least in part on the determined period of polling and the determined acceptable device latency, and the MCL of the communication. a first timer that directs a cellular modem of the UE when to enter and when to exit a power-save mode, PSM, and a second timer that directs the cellular modem of the UE when to enter and when to exit an idle mode; wherein the values provided to the UE are based at least in part on the determined period of polling and the determined acceptable device latency, and the MCL of the communication.
A pneumatic tire comprising: a sidewall surface having a profile surface formed in a curved surface shape; and a decorative area provided on the sidewall surface, characterised in that a plurality of planes (19, 20, 120) with a rhombus shape and a plurality of planes (21, 22) with a shape of part of a rhombus are tightly arranged in the decorative area, perpendicular line directions of the planes (19, 20, 21, 22, 120) aligning in a tire radial direction differ, and vertices of the rhombuses (23, 24) to be ends in the tire radial direction of the planes (19, 20, 21, 22, 120) aligning in the tire radial direction are protruding vertices (23, 24) protruding in a normal line direction of the profile surface. a sidewall surface having a profile surface formed in a curved surface shape; and a decorative area provided on the sidewall surface, characterised in that a plurality of planes (19, 20, 120) with a rhombus shape and a plurality of planes (21, 22) with a shape of part of a rhombus are tightly arranged in the decorative area, perpendicular line directions of the planes (19, 20, 21, 22, 120) aligning in a tire radial direction differ, and vertices of the rhombuses (23, 24) to be ends in the tire radial direction of the planes (19, 20, 21, 22, 120) aligning in the tire radial direction are protruding vertices (23, 24) protruding in a normal line direction of the profile surface.
A sailboat comprising: - a plurality of hulls arranged parallel to each other and coupled together by a truss arrangement, - a wingsail structure that is rotatable about a first axis of rotation that is orthogonal to a plane of the hulls, and a second axis of rotation that is parallel to the hulls, and - an auto-righting system that is configured to rotate the wingsail structure about the second axis of rotation when a capsize of the sailboat is detected. - a plurality of hulls arranged parallel to each other and coupled together by a truss arrangement, - a wingsail structure that is rotatable about a first axis of rotation that is orthogonal to a plane of the hulls, and a second axis of rotation that is parallel to the hulls, and - an auto-righting system that is configured to rotate the wingsail structure about the second axis of rotation when a capsize of the sailboat is detected.
A compound having the formula L a M(OR 1) b R 2 c X d wherein M is a metal selected from Ti, Zr and Hf; L is a ligand selected from permethylpentalene, (hydro)permethylPentalene and (hydro)pentalene; R 1 is a 1-6C alkyl, substituted or unsubstituted phenyl, or a substituted or unsubstituted phenylalkylene group; R 2 is Me or Et; X is halogen; a = 1 to 3, b = 1 to 3, c = 0 or 1 and d = 0, 1, 2 or 3; and dimers thereof. M is a metal selected from Ti, Zr and Hf; L is a ligand selected from permethylpentalene, (hydro)permethylPentalene and (hydro)pentalene; R 1 is a 1-6C alkyl, substituted or unsubstituted phenyl, or a substituted or unsubstituted phenylalkylene group; R 2 is Me or Et; X is halogen; a = 1 to 3, b = 1 to 3, c = 0 or 1 and d = 0, 1, 2 or 3; and dimers thereof.