mhurhangee/ep-ind-claims huggingface dataset:
A medical device system comprising: a power source; a sensor coupled to the power source and configured to generate a physiological signal; a control circuit coupled to the power source and the sensor, the control circuit configured to detect events from the physiological signal; and a processor configured to: determine a first current drain including electrical current required from the power source for at least one of generating the physiological signal and detecting the events from the physiological signal; determine an estimated time from a first voltage of the power source until a second voltage of the power source based on the first current drain and a power source capacity difference, where the first voltage of the power source corresponds to a first power source capacity, the second voltage corresponds to a second power source capacity less than the first power source capacity, and the power source capacity difference is the difference between the first power source capacity and the second power source capacity; and generate an output based on the estimated time; and a memory configured to store data corresponding to the estimated time in response to the output generated by the processor. a power source; a sensor coupled to the power source and configured to generate a physiological signal; a control circuit coupled to the power source and the sensor, the control circuit configured to detect events from the physiological signal; and a processor configured to: determine a first current drain including electrical current required from the power source for at least one of generating the physiological signal and detecting the events from the physiological signal; determine an estimated time from a first voltage of the power source until a second voltage of the power source based on the first current drain and a power source capacity difference, where the first voltage of the power source corresponds to a first power source capacity, the second voltage corresponds to a second power source capacity less than the first power source capacity, and the power source capacity difference is the difference between the first power source capacity and the second power source capacity; and generate an output based on the estimated time; and determine a first current drain including electrical current required from the power source for at least one of generating the physiological signal and detecting the events from the physiological signal; determine an estimated time from a first voltage of the power source until a second voltage of the power source based on the first current drain and a power source capacity difference, where the first voltage of the power source corresponds to a first power source capacity, the second voltage corresponds to a second power source capacity less than the first power source capacity, and the power source capacity difference is the difference between the first power source capacity and the second power source capacity; and generate an output based on the estimated time; and a memory configured to store data corresponding to the estimated time in response to the output generated by the processor.
A tire configured to rotate about an axis of rotation, the tire comprising - a tread block forming at least a part of a tread of the tire, - a circuit comprising • a primary capacitive component, wherein at least a part of the primary capacitive component is arranged a first distance apart from the tread and inside the tread block and • a primary inductive component of which at least a part is arranged a second distance towards the interior of the tire from the tread, wherein - the secondary inductive component is arranged on the same side of the tread as the primary inductive component, characterized by - an interrogator comprising • an electric source, • a communication circuit, and • a secondary inductive component, wherein - at least a part of the secondary inductive component is arranged at a third distance apart from the tread, the third distance being greater than the second distance. - a tread block forming at least a part of a tread of the tire, - a circuit comprising • a primary capacitive component, wherein at least a part of the primary capacitive component is arranged a first distance apart from the tread and inside the tread block and • a primary inductive component of which at least a part is arranged a second distance towards the interior of the tire from the tread, wherein • a primary capacitive component, wherein at least a part of the primary capacitive component is arranged a first distance apart from the tread and inside the tread block and • a primary inductive component of which at least a part is arranged a second distance towards the interior of the tire from the tread, wherein - the secondary inductive component is arranged on the same side of the tread as the primary inductive component, characterized by - an interrogator comprising • an electric source, • a communication circuit, and • a secondary inductive component, wherein • an electric source, • a communication circuit, and • a secondary inductive component, wherein - at least a part of the secondary inductive component is arranged at a third distance apart from the tread, the third distance being greater than the second distance.
A method for securely registering a sequence of transactions with a distributed system, wherein the distributed system comprises a registration device and a signature device, wherein the registration device comprises a transaction storage for storing signed transaction records signed by the signature device, wherein the signature device comprises a key usage counter that is incremented with each signature generated by the signature device, wherein each signed transaction record comprises an associated value of the key usage counter at the time of the signature, wherein the method comprises: comparing a present value of the key usage counter with a last recorded value, which last recorded value is the associated value of a last signed transaction record in the transaction storage, loading at least one previously signed transaction record from a record buffer of the signature device responsive to detecting a gap between the present value and the last recorded value, and transmitting the loaded at least one previously signed transaction record to the registration device. wherein the distributed system comprises a registration device and a signature device, wherein the registration device comprises a transaction storage for storing signed transaction records signed by the signature device, wherein the signature device comprises a key usage counter that is incremented with each signature generated by the signature device, wherein each signed transaction record comprises an associated value of the key usage counter at the time of the signature, wherein the method comprises: comparing a present value of the key usage counter with a last recorded value, which last recorded value is the associated value of a last signed transaction record in the transaction storage, loading at least one previously signed transaction record from a record buffer of the signature device responsive to detecting a gap between the present value and the last recorded value, and transmitting the loaded at least one previously signed transaction record to the registration device. comparing a present value of the key usage counter with a last recorded value, which last recorded value is the associated value of a last signed transaction record in the transaction storage, loading at least one previously signed transaction record from a record buffer of the signature device responsive to detecting a gap between the present value and the last recorded value, and transmitting the loaded at least one previously signed transaction record to the registration device.
A secondary battery comprising: an electrode assembly comprising: a first electrode plate; a second electrode plate; and a separator between the first electrode plate and the second electrode plate; a case configured to accommodate the electrode assembly; a cap assembly electrically connected to the second electrode plate of the electrode assembly; and an insulator coupled to an upper side of the electrode assembly, wherein the insulator comprises: an insulating upper portion configured to cover the upper side of the electrode assembly; an insulating side portion between the case and a side portion of the electrode assembly; and an insulating core portion inserted into a hollow portion of the electrode assembly to support the electrode assembly. an electrode assembly comprising: a first electrode plate; a second electrode plate; and a separator between the first electrode plate and the second electrode plate; a first electrode plate; a second electrode plate; and a separator between the first electrode plate and the second electrode plate; a case configured to accommodate the electrode assembly; a cap assembly electrically connected to the second electrode plate of the electrode assembly; and an insulator coupled to an upper side of the electrode assembly, wherein the insulator comprises: an insulating upper portion configured to cover the upper side of the electrode assembly; an insulating side portion between the case and a side portion of the electrode assembly; and an insulating core portion inserted into a hollow portion of the electrode assembly to support the electrode assembly. an insulating upper portion configured to cover the upper side of the electrode assembly; an insulating side portion between the case and a side portion of the electrode assembly; and an insulating core portion inserted into a hollow portion of the electrode assembly to support the electrode assembly.
A computer-implemented method for optimization of a wellbore, which comprises: calculating a field scale model for multiple well paths in a production field using a computer processor, each well path representing a potential well bore trajectory; calculating a Formation Loading Potential for the field scale model and plotting a distribution of the Formation Loading Potential along each well path; selecting a well path having a lowest peak value of Formation Loading Potential, the selected well path representing an optimal wellbore trajectory for the wellbore; calculating a primary submodel of the field scale model using the selected well path, the primary submodel comprising a wellbore interval containing the peak value of Formation Loading Potential for the selected well path; calculating a secondary submodel of the field scale model of the wellbore interval, the secondary submodel comprising a predetermined casing for the wellbore and an elasto-plastic prediction of a casing failure value for the predetermined casing; determining an optimal casing strength for the wellbore; and displaying the secondary submodel of the field scale model for a section of graphically reproduced casing, wherein the Formation Loading Potential is the incremental loading applied to the casing due to formation geostress and compaction. calculating a field scale model for multiple well paths in a production field using a computer processor, each well path representing a potential well bore trajectory; calculating a Formation Loading Potential for the field scale model and plotting a distribution of the Formation Loading Potential along each well path; selecting a well path having a lowest peak value of Formation Loading Potential, the selected well path representing an optimal wellbore trajectory for the wellbore; calculating a primary submodel of the field scale model using the selected well path, the primary submodel comprising a wellbore interval containing the peak value of Formation Loading Potential for the selected well path; calculating a secondary submodel of the field scale model of the wellbore interval, the secondary submodel comprising a predetermined casing for the wellbore and an elasto-plastic prediction of a casing failure value for the predetermined casing; determining an optimal casing strength for the wellbore; and displaying the secondary submodel of the field scale model for a section of graphically reproduced casing, wherein the Formation Loading Potential is the incremental loading applied to the casing due to formation geostress and compaction.
Polyester film having a stress at 5% elongation (F5 value) and a stress at 10% elongation (F10 value) at 25°C in the longitudinal direction and those in the transverse direction that satisfy formulae to given below: 1.5 ≥ F 10 MD / F 5 MD ≥ 1 1.5 ≥ F 10 TD / F 5 TD ≥ 1 F 10 MD ≥ 120 MPa F 10 TD ≥ 120 MPa
A filter system for a closed hydraulic circuit intended to operate without air, comprising a filtering element contained in a bowl having an upper opening, and a plug, provided with a purging means, closing this opening, characterised in that the bowl comprises a collar standing up above the plug, or comprises above this plug fixing and sealing means intended to receive the base of a removable collar of the same type, this collar permitting, by way of its upper inlet, dismounting and complete withdrawal of the plug, the collar being able to contain the filtering element for dripping when the latter is extracted from the bowl, the oil impregnating the filtering element draining off in the collar so as to descend into the bowl.
Zinc complex compound of formula Zn x 2-x, where x stands for 1 or 2, Y for a ligand with a single negative charge, and L for a ligand of formula, wherein R 1 and R 2, independently of one another, stand for a hydrogen residue, a monovalent saturated or unsaturated hydrocarbon residue having 1 to 10 carbon atoms, or together stand for a bivalent alkylene residue having 3 to 6 carbon atoms, and R 3 and R 4, independently of one another, stand for a hydrogen residue, a monovalent saturated hydrocarbon residue, which optionally contains heteroatoms, having 1 to 12 carbon atoms, or together stand for a bivalent alkylene residue, which optionally contains heteroatoms, having 3 to 6 carbon atoms, wherein the zinc complex compound of formula Zn x 2-x is not the Zn chelate of 2,2,6,6-tetramethyl-4-[N-n-butylamine-N(1',3'-dioxobutyl)]piperidine enolate. wherein R 1 and R 2, independently of one another, stand for a hydrogen residue, a monovalent saturated or unsaturated hydrocarbon residue having 1 to 10 carbon atoms, or together stand for a bivalent alkylene residue having 3 to 6 carbon atoms, and R 3 and R 4, independently of one another, stand for a hydrogen residue, a monovalent saturated hydrocarbon residue, which optionally contains heteroatoms, having 1 to 12 carbon atoms, or together stand for a bivalent alkylene residue, which optionally contains heteroatoms, having 3 to 6 carbon atoms,
A method of generating a synthetic aperture sonar image, comprising: providing a synthetic aperture sonar, SAS, array having at least one transmitter element and a plurality of receiver elements arranged along a first axis, wherein each of the transmitter element and the receiver elements have a first width, wherein the transmitter element is configured to generate a first set of signals having a plurality of orthogonal acoustic signals; calculating an effective spacing of the SAS array, representing an effective distance between the transmitter element and the receiver elements during motion, wherein the effective spacing is about half the first width; simultaneously moving the SAS array along the first axis and generating, using the transmitter element, a first acoustic signal from the first set of signals; calculating a threshold distance as the effective spacing divided by the number of acoustic signals in the first set of signals; and in response to determining that the SAS array has moved the threshold distance, generating, using the transmitter element, a second acoustic signal from the first set of signals, wherein the second acoustic signal is orthogonal to the first acoustic signal. providing a synthetic aperture sonar, SAS, array having at least one transmitter element and a plurality of receiver elements arranged along a first axis, wherein each of the transmitter element and the receiver elements have a first width, wherein the transmitter element is configured to generate a first set of signals having a plurality of orthogonal acoustic signals; calculating an effective spacing of the SAS array, representing an effective distance between the transmitter element and the receiver elements during motion, wherein the effective spacing is about half the first width; simultaneously moving the SAS array along the first axis and generating, using the transmitter element, a first acoustic signal from the first set of signals; calculating a threshold distance as the effective spacing divided by the number of acoustic signals in the first set of signals; and in response to determining that the SAS array has moved the threshold distance, generating, using the transmitter element, a second acoustic signal from the first set of signals, wherein the second acoustic signal is orthogonal to the first acoustic signal.
A suspension device in which front and rear brackets (3, 4) arranged on a side rail ahead of and behind an axle, respectively, a single leaf spring being pivoted at a front end thereof to the front bracket and being pivoted at a rear end thereof to the rear bracket through a shackle pivotally movable backward and forward, said axle being suspended by an intermediate portion of said leaf spring, comprising first restriction means for restricting a rear portion of said leaf spring from tilting downward upon breakage of said leaf spring at a position behind the intermediate portion of the spring and second restriction means for restricting said shackle from pivotally moving backward beyond a predetermined angle, characterized by said first restriction means comprising an engagement member fitted over the rear end of said leaf spring for integral rotation with the rear end of said leaf spring and having a projection for engagement with said rear bracket at a predetermined rotary position. comprising first restriction means for restricting a rear portion of said leaf spring from tilting downward upon breakage of said leaf spring at a position behind the intermediate portion of the spring and second restriction means for restricting said shackle from pivotally moving backward beyond a predetermined angle, characterized by said first restriction means comprising an engagement member fitted over the rear end of said leaf spring for integral rotation with the rear end of said leaf spring and having a projection for engagement with said rear bracket at a predetermined rotary position.
A method of operating a robot, the robot comprising: an end effector (6, 7); and an arm (4,5) to which the end effector is provided, the end effector (6, 7) comprising: a plurality of blade members (9,10,11,12) for holding substrates, each of the blade members being configured to hold each of the substrates, and the blade members being configured such that each interval between the blade members can be changed; a blade support unit configured to support the blade members (9,10,11,12), the blade support unit being configured to be driven integrally with the blade members by the robot; and blade drive means configured to change the interval between the blade members by moving at least one of the blade members relative to another blade member, wherein the blade members (9,10,11,12) respectively have substrate holding parts configured to be brought into contact with the substrates, and wherein the substrate holding parts of the blade members are configured to be substantially flush with one another when the interval between the blade members is shortened by the blade drive means the method comprising the step of: carrying two or more substrates at a time by using two or more blade members (9,10,12,13) of the end effector (6,7); and the method being characterised by comprising the step of carrying one substrate by using the end effector (6,7) in a state that the interval between the blade members (9,10,12,13) is shortened by the blade drive unit. an end effector (6, 7); and an arm (4,5) to which the end effector is provided, a plurality of blade members (9,10,11,12) for holding substrates, each of the blade members being configured to hold each of the substrates, and the blade members being configured such that each interval between the blade members can be changed; a blade support unit configured to support the blade members (9,10,11,12), the blade support unit being configured to be driven integrally with the blade members by the robot; and blade drive means configured to change the interval between the blade members by moving at least one of the blade members relative to another blade member, wherein the blade members (9,10,11,12) respectively have substrate holding parts configured to be brought into contact with the substrates, and wherein the substrate holding parts of the blade members are configured to be substantially flush with one another when the interval between the blade members is shortened by the blade drive means carrying two or more substrates at a time by using two or more blade members (9,10,12,13) of the end effector (6,7); and the method being characterised by comprising the step of carrying one substrate by using the end effector (6,7) in a state that the interval between the blade members (9,10,12,13) is shortened by the blade drive unit.
A method, comprising: determining a first temperature of a wheel of an aircraft via a first temperature sensor; determining a second temperature of a brake assembly operatively coupled to the wheel via a second temperature sensor; and estimating a peak temperature of a fuse plug disposed on the wheel based on the first temperature and the second temperature. determining a first temperature of a wheel of an aircraft via a first temperature sensor; determining a second temperature of a brake assembly operatively coupled to the wheel via a second temperature sensor; and estimating a peak temperature of a fuse plug disposed on the wheel based on the first temperature and the second temperature.
A terminal device comprising: a transmitter configured to transmit a physical uplink control channel, PUCCH, and a physical uplink shared channel, PUSCH, in a subframe, wherein the transmitter is configured such that: in a first case that the PUCCH is transmitted in a subframe of a first cell group and the PUSCH is transmitted in a subframe of a second cell group, in a second case that the PUCCH is transmitted with uplink control information including hybrid auto repeat request acknowledgement, HARQ-ACK, and in a third case that transmit power of the PUCCH exceeds a first threshold, the transmitter scales the transmit power of the PUCCH such that the transmit power of the PUCCH does not exceed the first threshold, and in a fourth case that transmit power of the PUCCH does not exceed the first threshold, the transmitter sets transmit power for transmission of the PUCCH. in a first case that the PUCCH is transmitted in a subframe of a first cell group and the PUSCH is transmitted in a subframe of a second cell group, in a second case that the PUCCH is transmitted with uplink control information including hybrid auto repeat request acknowledgement, HARQ-ACK, and in a third case that transmit power of the PUCCH exceeds a first threshold, the transmitter scales the transmit power of the PUCCH such that the transmit power of the PUCCH does not exceed the first threshold, and in a fourth case that transmit power of the PUCCH does not exceed the first threshold, the transmitter sets transmit power for transmission of the PUCCH.