mhurhangee/patent-ind-claim-en huggingface dataset:
A lubricating oil composition for a transmission, comprising: a gas-to-liquid (GTL) base oil in an amount of 75 to 85% by mass and having a kinematic viscosity at 100°C of 1 to 5 mm 2 /s; and a poly(meth)acrylate and optionally an olefin copolymer as a viscosity modifier, wherein the ratio of the poly(meth)acrylate to the olefin copolymer in the viscosity modifier is 100:0 to 20:80 in terms of the mass percentage, the viscosity modifier has a number average molecular weight of 5000 or more and 20000 or less, and the viscosity modifier is blended in an amount of 5 to 15% by mass relative to the overall mass of the composition, the kinematic viscosity at 100°C is 5.5 mm 2 /s or less, the viscosity index is 160 or more, the rate of decrease in the kinematic viscosity at 100°C after a KRL shear stability test (60°C, 20 hr, according to CEC-L-A-99) is 2% or less, and the amount of deposit in a panel coking test (according to US Federal Test Method Standard 791-3462) is 120 mg or less. a gas-to-liquid (GTL) base oil in an amount of 75 to 85% by mass and having a kinematic viscosity at 100°C of 1 to 5 mm 2 /s; and a poly(meth)acrylate and optionally an olefin copolymer as a viscosity modifier, wherein the ratio of the poly(meth)acrylate to the olefin copolymer in the viscosity modifier is 100:0 to 20:80 in terms of the mass percentage, the viscosity modifier has a number average molecular weight of 5000 or more and 20000 or less, and the viscosity modifier is blended in an amount of 5 to 15% by mass relative to the overall mass of the composition, the kinematic viscosity at 100°C is 5.5 mm 2 /s or less, the viscosity index is 160 or more, the rate of decrease in the kinematic viscosity at 100°C after a KRL shear stability test (60°C, 20 hr, according to CEC-L-A-99) is 2% or less, and the amount of deposit in a panel coking test (according to US Federal Test Method Standard 791-3462) is 120 mg or less.
A system , comprising: a fuel height sensor ; a sealed connector extending through a wall of a fuel tank ; an electric power connection between the fuel height sensor and the sealed connector ; and an internal data communications connection between the fuel height sensor and the sealed connector , wherein at least the electric power connection between the fuel height sensor and the sealed connector comprises a resistive non-metallic wire , wherein the sealed connector comprises an internal electronic circuit . a fuel height sensor ; a sealed connector extending through a wall of a fuel tank ; an electric power connection between the fuel height sensor and the sealed connector ; and an internal data communications connection between the fuel height sensor and the sealed connector , wherein at least the electric power connection between the fuel height sensor and the sealed connector comprises a resistive non-metallic wire , wherein the sealed connector comprises an internal electronic circuit .
A conductive plane antenna , comprising: a non-conductive substrate ; a conductive plane coupled to the non-conductive substrate; wherein the conductive plane includes an open cavity over the non-conductive substrate; wherein the cavity includes a closed end and an open end , and a first edge and a second edge therebetween, the first edge arranged opposite the second edge; a first feed point coupled to the conductive plane along the first edge and configured to pass a first polarity of a set of electromagnetic signals to generate a first current distribution on the first edge of a first polarity; and a second feed point coupled to the conductive plane along the second edge and configured to pass a second polarity of the set of electromagnetic signals to generate a second current distribution on the second edge of a second polarity opposite to the first polarity; wherein the conductive plane is configured to generate a first antenna gain pattern in response to the first and second polarity signals; wherein the cavity is configured to generate a second antenna gain pattern in response to the first and second polarity signals; and wherein a magnitude of the first antenna gain pattern is greater than a magnitude of the second antenna gain pattern, wherein the cavity is positioned within the conductive plane such that the first current distribution on the first edge of the cavity substantially cancels out the second current distribution on the second edge of the cavity, and wherein the closed end of the open cavity is located proximate to a geometrical center of the conductive plane . a non-conductive substrate ; a conductive plane coupled to the non-conductive substrate; wherein the conductive plane includes an open cavity over the non-conductive substrate; wherein the cavity includes a closed end and an open end , and a first edge and a second edge therebetween, the first edge arranged opposite the second edge; a first feed point coupled to the conductive plane along the first edge and configured to pass a first polarity of a set of electromagnetic signals to generate a first current distribution on the first edge of a first polarity; and a second feed point coupled to the conductive plane along the second edge and configured to pass a second polarity of the set of electromagnetic signals to generate a second current distribution on the second edge of a second polarity opposite to the first polarity; wherein the conductive plane is configured to generate a first antenna gain pattern in response to the first and second polarity signals; wherein the cavity is configured to generate a second antenna gain pattern in response to the first and second polarity signals; and wherein a magnitude of the first antenna gain pattern is greater than a magnitude of the second antenna gain pattern, wherein the cavity is positioned within the conductive plane such that the first current distribution on the first edge of the cavity substantially cancels out the second current distribution on the second edge of the cavity, and wherein the closed end of the open cavity is located proximate to a geometrical center of the conductive plane .
A method comprising: encrypting , by an encryption logic circuit , a current data portion of plaintext data using a current encryption key to provide an encrypted current data portion; scrambling at least one of the encrypted current data portion or the current data portion; and generating , by the encryption logic circuit, a next encryption key for encryption of a next data portion of the plaintext data based on the current encryption key, wherein the generating the next encryption key comprises performing bitwise operations on the current encryption key and the scrambled at least one of the encrypted current data portion or the current data portion to obtain the next encryption key; wherein the method further comprises: providing a first truly random bit stream, generating a second truly random bit stream by performing bitwise operation on pairs of bits of the first truly random bit stream, wherein the current encryption key is based on the second truly random bit stream. encrypting , by an encryption logic circuit , a current data portion of plaintext data using a current encryption key to provide an encrypted current data portion; scrambling at least one of the encrypted current data portion or the current data portion; and generating , by the encryption logic circuit, a next encryption key for encryption of a next data portion of the plaintext data based on the current encryption key, wherein the generating the next encryption key comprises performing bitwise operations on the current encryption key and the scrambled at least one of the encrypted current data portion or the current data portion to obtain the next encryption key; wherein the method further comprises: providing a first truly random bit stream, generating a second truly random bit stream by performing bitwise operation on pairs of bits of the first truly random bit stream, wherein the current encryption key is based on the second truly random bit stream. providing a first truly random bit stream, generating a second truly random bit stream by performing bitwise operation on pairs of bits of the first truly random bit stream, wherein the current encryption key is based on the second truly random bit stream.
Bidet arrangement , comprising a mounting frame which has two supports which are arranged spaced apart from one another, has an upper crossmember which connects the two supports , and has a lower crossmember which connects the two supports and which, in the installation position, is situated below the upper crossmember , a bidet which is fixed with respect to the upper crossmember and which, by way of a bearing surface arranged on the rear side, is supported against the lower crossmember , and a siphon which has a siphon inlet which is fastened with respect to a drain opening of the bidet , and has a siphon outlet ; and a drain pipe which adjoins the siphon outlet , wherein the drain pipe has a first pipe section which adjoins the siphon outlet , and has a second pipe section , and also has a diversion section which is situated between the two pipe sections , wherein, as a result of the diversion section , the second pipe section is situated lower than the first pipe section , and in this way an installation space is created above the second pipe section for the lower crossmember such that the lower crossmember can be positioned at a relatively large distance from the upper crossmember . a mounting frame which has two supports which are arranged spaced apart from one another, has an upper crossmember which connects the two supports , and has a lower crossmember which connects the two supports and which, in the installation position, is situated below the upper crossmember , a bidet which is fixed with respect to the upper crossmember and which, by way of a bearing surface arranged on the rear side, is supported against the lower crossmember , and a siphon which has a siphon inlet which is fastened with respect to a drain opening of the bidet , and has a siphon outlet ; and a drain pipe which adjoins the siphon outlet , wherein the drain pipe has a first pipe section which adjoins the siphon outlet , and has a second pipe section , and also has a diversion section which is situated between the two pipe sections , wherein, as a result of the diversion section , the second pipe section is situated lower than the first pipe section , and in this way an installation space is created above the second pipe section for the lower crossmember such that the lower crossmember can be positioned at a relatively large distance from the upper crossmember .
Chain wheel carrier for a multiple chain wheel arrangement for rotatable mounting on a rear wheel axle (A), wherein the chain wheel carrier has a substantially identical material thickness (d2), and the chain wheel carrier is formed so that at least three large chain wheels can be fastened directly to the chain wheel carrier , the carrier has, at a radially inner end, a profile for the transmission of torque and, adjacent thereto in the radial direction, an inner ring , wherein the profile is configured for torque-transmitting engagement into a corresponding profile on a driver , characterized in that , as a result of forming, an axial total width (d4) of the chain wheel carrier has at least doubled, in particular tripled or quadrupled from the original, substantially identical material thickness (d2) of the chain wheel carrier .
A shovel comprising: an upper swing structure ; a lower traveling structure ; a first switch configured to stop an engine ; and a controller configured to control the engine , characterized in that the controller is configured to determine to start an automatic cooling operation in response to recognizing that an operation to stop the engine on the first switch and a predetermined operation have been simultaneously performed. an upper swing structure ; a lower traveling structure ; a first switch configured to stop an engine ; and a controller configured to control the engine , characterized in that the controller is configured to determine to start an automatic cooling operation in response to recognizing that an operation to stop the engine on the first switch and a predetermined operation have been simultaneously performed.
A method performed by a node of configuring a measurement bandwidth for a plurality of base stations belonging to a cellular radio system , wherein the base stations are configured to signal the measurement bandwidth to user equipments connected to the cellular radio system for performing downlink neighbor cell measurements over the said signaled measurement bandwidth in the user equipments, comprising the steps of: - receiving a set of information comprising cell transmission bandwidths used in the plurality of base stations , - configuring the measurement bandwidth using the received set of information, and - signaling the configured measurement bandwidth to the base stations, characterized in that : the set of information further comprises measurement gap patterns used in the plurality of base stations. - receiving a set of information comprising cell transmission bandwidths used in the plurality of base stations , - configuring the measurement bandwidth using the received set of information, and - signaling the configured measurement bandwidth to the base stations, characterized in that : the set of information further comprises measurement gap patterns used in the plurality of base stations.
A glow plug comprising: a tubular metal shell extending in an axis direction; a heater including a metal tube with a closed front end and a coil housed in the tube , the tube being filled with an insulating powder and attached to the metal shell ; and a center wire with a front end side connected to the coil in the tube , and with a rear end side protruding from a rear end of the tube , wherein the coil includes a heating coil of an Ni-Cr alloy disposed on the front end side in the tube , and a control coil connected to a rear end side of the heating coil , and has a normal temperature resistance value obtained by measuring the resistance value of the glow plug at 25°C of 300 mΩ to 500 mΩ, the accumulated amount of heat generation by the heating coil for two seconds from the start of an energization by an application of a voltage of 11V is 400 W or less, the ratio of an inrush current value at the start of the energization and a current value two seconds after the start of the energization (inrush current value/current value two seconds after the start of energization) is 1.2 or higher, the control coil has a temperature resistance coefficient of five or higher, and the control coil has a resistance value of 25 mΩ or higher at a portion between a front end of the control coil and L/2, where L is the length of the control coil in the axis direction. a tubular metal shell extending in an axis direction; a heater including a metal tube with a closed front end and a coil housed in the tube , the tube being filled with an insulating powder and attached to the metal shell ; and a center wire with a front end side connected to the coil in the tube , and with a rear end side protruding from a rear end of the tube , wherein the coil includes a heating coil of an Ni-Cr alloy disposed on the front end side in the tube , and a control coil connected to a rear end side of the heating coil , and has a normal temperature resistance value obtained by measuring the resistance value of the glow plug at 25°C of 300 mΩ to 500 mΩ, the accumulated amount of heat generation by the heating coil for two seconds from the start of an energization by an application of a voltage of 11V is 400 W or less, the ratio of an inrush current value at the start of the energization and a current value two seconds after the start of the energization (inrush current value/current value two seconds after the start of energization) is 1.2 or higher, the control coil has a temperature resistance coefficient of five or higher, and the control coil has a resistance value of 25 mΩ or higher at a portion between a front end of the control coil and L/2, where L is the length of the control coil in the axis direction.
Timepiece comprising a timepiece movement, a calendar mechanism and means for indicating the sunrise and sunset that take account of seasonal variations, the timepiece movement comprising a minute wheel set , a motion work , an hour indicator member, and an hour wheel set integral in rotation with the hour indicator member and arranged to be driven by the minute wheel set via the motion-work , either at a speed of one revolution in 12 hours, or at a speed of one revolution in 24 hours, the calendar mechanism comprising means for displaying the date arranged to be driven via the hour wheel set , and a month display arranged to be driven by the means for displaying the date, the sunrise and sunset indicating means comprising a sphere replicating the terrestrial globe, a support, and a ring mounted on the support concentrically to the sphere and arranged to indicate the position of the earth's terminator, the sphere being arranged to be driven to rotate at a rate of one revolution in 24 hours about a first axis corresponding to the polar axis of the terrestrial globe, and the ring being mounted on the support in order also to be able to pivot relative to the sphere about a second axis intersecting the first axis perpendicularly at the centre of the sphere, the sunset and sunrise indicating means further comprising an annual cam having a profile representative of the tilt of the sun with respect to the equatorial plane, and arranged to be driven in rotation at a rate of one revolution per year, a cam follower arranged to cooperate with the cam, and a first kinematic chain arranged to connect the cam follower to the ring , such that the plane subtended by the ring forms with the first axis an angle equal to the angle of tilt of the sun with respect to the equatorial plane; the timepiece movement comprising a second kinematic chain connecting the hour wheel set to the sphere , so as to drive the sphere at a rate of one revolution in 24 hours, characterized in that the timepiece movement comprises, on the one hand, a manually actuatable time change mechanism arranged to pivot the hour wheel set (107; 2, 30, 32) step-by-step independently of the motion work (106; 8), and on the other hand, a disengagement mechanism arranged to disengage the second kinematic chain when the time change mechanism pivots the hour wheel set to change from summer time to winter time, or vice versa, so that the sphere can be driven at a rate of one revolution in 24 hours, without being affected by the summer time/winter time correction, and in that the annual cam is arranged to be driven by the means for displaying the date via a third kinematic chain .
A method of forming a transmission beam with a transducer array comprising a plurality of transducers, the method comprising: receiving (S310) at least one desired property for an intended transmission beam; determining (S320) an optimised operation parameter for a transducer of the transducer array based on the received at least one desired property and an array model for modelling a relationship between at least one beam property and at least one transducer protection property whilst taking into account of an acoustic mutual coupling of the plurality of transducers of the transducer array; and generating (S330) the transmission beam using the optimised operation parameter on the transducer array, wherein the determining the optimised operation parameter is performed based on: the at least one transducer protection property so that the transducer is protected from a damage caused by an excessive operation parameter applied to the transducer; the at least one beam property and the at least one desired property to determine the at least one transducer protection property using the array model; and the at least one desired property so that the generated transmission beam formed with the optimised operation parameter is the same as, or the nearest to, the intended transmission beam without damaging the transducer. receiving (S310) at least one desired property for an intended transmission beam; determining (S320) an optimised operation parameter for a transducer of the transducer array based on the received at least one desired property and an array model for modelling a relationship between at least one beam property and at least one transducer protection property whilst taking into account of an acoustic mutual coupling of the plurality of transducers of the transducer array; and generating (S330) the transmission beam using the optimised operation parameter on the transducer array, the at least one transducer protection property so that the transducer is protected from a damage caused by an excessive operation parameter applied to the transducer; the at least one beam property and the at least one desired property to determine the at least one transducer protection property using the array model; and the at least one desired property so that the generated transmission beam formed with the optimised operation parameter is the same as, or the nearest to, the intended transmission beam without damaging the transducer.
A heat-generating composition, comprising a hetero-structure nanomaterial which comprises (a) a first material comprising MnFe 2 O 4 ; and (b) a second material comprising CoFe 2 O 4 ; wherein the first material is enclosed in the second material. (a) a first material comprising MnFe 2 O 4 ; and (b) a second material comprising CoFe 2 O 4 ;
A wipe pouch , comprising: a first compartment containing a first liquid chemical, said first compartment having a one-way fill valve whereby the first liquid chemical is filled into the first compartment following irradiation sterilization of the wipe pouch ; a second compartment containing a second liquid chemical that is present during irradiation sterilization of the wipe pouch ; a third compartment containing a dry wipe that is present during irradiation sterilization of the wipe pouch ; a first coupling assembly coupling the first compartment to the second compartment and having a closed configuration in which the first compartment does not communicate with the second compartment , and an opened configuration in which the first compartment communicates with the second compartment ; and a second coupling assembly coupling the second compartment to the third compartment and having a closed configuration in which the second compartment does not communicate with the third compartment , and an opened configuration in which the second compartment communicates with the third compartment . a first compartment containing a first liquid chemical, said first compartment having a one-way fill valve whereby the first liquid chemical is filled into the first compartment following irradiation sterilization of the wipe pouch ; a second compartment containing a second liquid chemical that is present during irradiation sterilization of the wipe pouch ; a third compartment containing a dry wipe that is present during irradiation sterilization of the wipe pouch ; a first coupling assembly coupling the first compartment to the second compartment and having a closed configuration in which the first compartment does not communicate with the second compartment , and an opened configuration in which the first compartment communicates with the second compartment ; and a second coupling assembly coupling the second compartment to the third compartment and having a closed configuration in which the second compartment does not communicate with the third compartment , and an opened configuration in which the second compartment communicates with the third compartment .