mhurhangee/ep-ind-claims huggingface dataset:
A radial head system (100; 400; 480; 800; 900; 1000; 1100) comprising: a collar (108; 408; 496; 708; 808; 808'; 908; 1008a, 1008b; 1108) comprising a collar wall defining a first collar opening, a second collar opening (168; 768), and a passage therethrough, the collar wall having an interior collar surface comprising a collar engagement feature (184; 784; 1009a; 1184) proximate to the first collar opening; and an articular member (116; 116'; 416; 492, 520; 716; 816; 916; 1016; 1116) comprising: a first concave surface; and a second concave surface disposed at an end of the articular member opposite to the first concave surface; and a peripheral surface (284; 785) configured to be disposed between the first articular surface and the second articular surface when the peripheral surface is disposed within the interior collar surface; wherein the articular member at least partially defines an articular space (120; 420; 516; 820; 920; 1020; 1120) within the collar when disposed in the collar. a collar (108; 408; 496; 708; 808; 808'; 908; 1008a, 1008b; 1108) comprising a collar wall defining a first collar opening, a second collar opening (168; 768), and a passage therethrough, the collar wall having an interior collar surface comprising a collar engagement feature (184; 784; 1009a; 1184) proximate to the first collar opening; and an articular member (116; 116'; 416; 492, 520; 716; 816; 916; 1016; 1116) comprising: a first concave surface; and a second concave surface disposed at an end of the articular member opposite to the first concave surface; and a peripheral surface (284; 785) configured to be disposed between the first articular surface and the second articular surface when the peripheral surface is disposed within the interior collar surface; a first concave surface; and a second concave surface disposed at an end of the articular member opposite to the first concave surface; and a peripheral surface (284; 785) configured to be disposed between the first articular surface and the second articular surface when the peripheral surface is disposed within the interior collar surface; wherein the articular member at least partially defines an articular space (120; 420; 516; 820; 920; 1020; 1120) within the collar when disposed in the collar.
A method of estimating a rotor orientation of a synchronous reluctance motor comprising a stator and a rotor, wherein an inductance of the rotor in rotor coordinates is represented by a known rotor quadrature axis inductance component ( L q) and a known rotor direct axis inductance component ( L d), and wherein the method comprises a step of determining a stator flux ( ψ s) and a stator current ( i s), characterized in that the method further comprises steps of forming a first estimate of the rotor orientation on the basis of the stator flux ( ψ s), the stator current ( i s), and one ( L q) of the known rotor inductance components, forming a second estimate of the rotor orientation on the basis of the stator flux ( ψ s), the stator current ( i s), and the other known rotor inductance component ( L d), determining values for weighting parameters ( k a, k b), and determining the rotor orientation on the basis of the first estimate and the second estimate, wherein the values of the first and second estimates are weighted on the basis of the weighting parameters ( k a, k b).
A method implemented by a wireless device, the method comprising: - receiving a fallback Downlink Control Information, DCI, message for scheduling transmission on a Physical Uplink Shared Channel, PUSCH, the DCI message not containing an indication of how many resources to reserve for Hybrid Automatic Repeat Request, HARQ, bits, wherein the transmission on the scheduled PUSCH includes mapping a first part of Channel State Information, CSI Part 1, to predefined portion of the scheduled PUSCH, wherein the CSI Part 1 has a fixed size determined via Radio Resource Control, RRC, configuration, wherein CSI Part 1 must be decoded in order to determine the length of CSI Part 2 and wherein the predefined portion of the scheduled PUSCH corresponds to an end portion of the scheduled PUSCH; - reserving resources on the scheduled PUSCH for 2 HARQ bits. - receiving a fallback Downlink Control Information, DCI, message for scheduling transmission on a Physical Uplink Shared Channel, PUSCH, the DCI message not containing an indication of how many resources to reserve for Hybrid Automatic Repeat Request, HARQ, bits, wherein the transmission on the scheduled PUSCH includes mapping a first part of Channel State Information, CSI Part 1, to predefined portion of the scheduled PUSCH, wherein the CSI Part 1 has a fixed size determined via Radio Resource Control, RRC, configuration, wherein CSI Part 1 must be decoded in order to determine the length of CSI Part 2 and wherein the predefined portion of the scheduled PUSCH corresponds to an end portion of the scheduled PUSCH; - reserving resources on the scheduled PUSCH for 2 HARQ bits.
A variable oil pump comprising: a pump housing; an oil pump rotor housed in the pump housing and rotationally driven; an adjustment member housed in the pump housing and that adjusts an amount of oil discharged from the oil pump rotor by being displaced due to a drive force while rotatably holding the oil pump rotor from an outer peripheral side; and a guide portion (51, 52, 81, 86) including a groove (38, 39, 71, 76) provided in the adjustment member and a pin (15, 16, 17) provided on the pump housing and that engages with the groove (38, 39, 71, 76), and the guide portion (51, 52, 81, 86) that guides relative displacement of the adjustment member with respect to the pump housing by engaging the groove (38, 39, 71, 76) and the pin (15, 16, 17) with each other, characterized by the guide portion (51, 52, 81, 86) in which an inner surface (38a, 39a, 71a, 76a) of the groove (38, 39, 71, 76) and an outer surface (15a, 16a, 17a) of the pin (15, 16, 17) come into line contact with each other along a direction in which the pin (15, 16, 17) extends at an initial position where the adjustment member starts to be displaced. a pump housing; an oil pump rotor housed in the pump housing and rotationally driven; an adjustment member housed in the pump housing and that adjusts an amount of oil discharged from the oil pump rotor by being displaced due to a drive force while rotatably holding the oil pump rotor from an outer peripheral side; and a guide portion (51, 52, 81, 86) including a groove (38, 39, 71, 76) provided in the adjustment member and a pin (15, 16, 17) provided on the pump housing and that engages with the groove (38, 39, 71, 76), and the guide portion (51, 52, 81, 86) that guides relative displacement of the adjustment member with respect to the pump housing by engaging the groove (38, 39, 71, 76) and the pin (15, 16, 17) with each other, characterized by the guide portion (51, 52, 81, 86) in which an inner surface (38a, 39a, 71a, 76a) of the groove (38, 39, 71, 76) and an outer surface (15a, 16a, 17a) of the pin (15, 16, 17) come into line contact with each other along a direction in which the pin (15, 16, 17) extends at an initial position where the adjustment member starts to be displaced.
A wearable device for attachment to an ear of a user including: i. an earpiece (3; 23) including a speaker and a first magnetic element (6; 11, 12; 15; 19; 28; 39); and ii. a body section (2; 22) in the form of a hook for attachment about the ear configured to engage around the upper part of the region connecting the ear to the skull of a user including a media player housed in the body section (2;22) and a second magnetic element (7; 13, 14; 16,17,18; 20; 29), wherein the earpiece (3; 23) is movable relative to the body section (2; 22) and the earpiece (3; 23) and body section (2; 22) are configured so that when the body section (2; 22) is hooked about the ear the first magnetic (6; 11, 12; 15; 19; 28; 39) element and second magnetic element (7; 13, 14; 16,17,18; 20; 29); are adapted to be magnetically attracted to each other through the ear to retain the device in place. i. an earpiece (3; 23) including a speaker and a first magnetic element (6; 11, 12; 15; 19; 28; 39); and ii. a body section (2; 22) in the form of a hook for attachment about the ear configured to engage around the upper part of the region connecting the ear to the skull of a user including a media player housed in the body section (2;22) and a second magnetic element (7; 13, 14; 16,17,18; 20; 29), wherein the earpiece (3; 23) is movable relative to the body section (2; 22) and the earpiece (3; 23) and body section (2; 22) are configured so that when the body section (2; 22) is hooked about the ear the first magnetic (6; 11, 12; 15; 19; 28; 39) element and second magnetic element (7; 13, 14; 16,17,18; 20; 29); are adapted to be magnetically attracted to each other through the ear to retain the device in place.
Heating device, having a heating unit for heating a liquid, a flow line connected to the aforesaid heating unit for conducting liquid via a connectable central heating line having at least one heat consumer connected thereto, a return line connected to the aforesaid heating unit for returning the cooled liquid from the heat consumer out of the central heating line, a domestic water supply line, a filling line connected to the domestic water supply line, the flow line or the return line for the purpose of feeding tap water in, a filling valve for controlling the liquid flow through the filling line, an expansion tank connected to the connectable central heating line, a pressure sensor attached to the flow line or the return line for determining the liquid pressure, and a monitoring unit connected to the aforesaid pressure sensor for evaluating the measured data obtained from the pressure sensor when the filling valve is open; characterized in that the monitoring unit is configured in such a way that, for the case in which the pressure measurements evaluated by the monitoring unit deviate from at least one previously defined scheme, the monitoring unit detects this and displays a message relating to the fault via a user interface connected to the monitoring unit.
A block copolymer comprising a first block comprising a unit represented by Formula 1 and a second block different from the first block, wherein the first block exhibits peaks, of which a full width at half maximum is from 5 degrees to 70 degrees, at an azimuth angle ranging from -90 to -70 degrees and at an azimuth angle ranging from 70 to 90 degrees of a diffraction pattern of scattering vectors ranging from 12 nm -1 to 16 nm -1 in a GIWAXS spectrum and wherein the azimuth angle is an angle when the out of plane diffraction pattern of the GIWAXS spectrum is set to be 0 degree, and wherein X determined by Formula A is 1.3 or more, wherein R is a hydrogen or a C 1-4 alkyl group; X is a single bond, a carbonyl group, -C(=O)-O- or -O-C(=O)-; and Y is a monovalent substituent including an aromatic structure to which a side chain having 8 or more chain-forming atoms is linked and each of the chain-forming atoms is a carbon atom, a nitrogen atom or an oxygen atom, X = 1 + D × M / K × L wherein D is a ratio (D2/D1) of a density of the second block relative to a density of the first block, M is a ratio (M1/M2) of a molar mass of the first block relative to a molar mass of the second block, K is a ratio (A2/A1) of an area of a peak exhibited due to the second block in 1 H-NMR relative to an area of a peak exhibited due to the first block in 1 H-NMR and L is a ratio (H1/H2) of a molar number of hydrogen atom in 1 mole of a repeating unit of the first block relative to a molar number of hydrogen atom in 1 mole of a repeating unit of the second block. wherein the first block exhibits peaks, of which a full width at half maximum is from 5 degrees to 70 degrees, at an azimuth angle ranging from -90 to -70 degrees and at an azimuth angle ranging from 70 to 90 degrees of a diffraction pattern of scattering vectors ranging from 12 nm -1 to 16 nm -1 in a GIWAXS spectrum and wherein the azimuth angle is an angle when the out of plane diffraction pattern of the GIWAXS spectrum is set to be 0 degree, and wherein X determined by Formula A is 1.3 or more, wherein R is a hydrogen or a C 1-4 alkyl group; X is a single bond, a carbonyl group, -C(=O)-O- or -O-C(=O)-; and Y is a monovalent substituent including an aromatic structure to which a side chain having 8 or more chain-forming atoms is linked and each of the chain-forming atoms is a carbon atom, a nitrogen atom or an oxygen atom, X = 1 + D × M / K × L wherein D is a ratio (D2/D1) of a density of the second block relative to a density of the first block, M is a ratio (M1/M2) of a molar mass of the first block relative to a molar mass of the second block, K is a ratio (A2/A1) of an area of a peak exhibited due to the second block in 1 H-NMR relative to an area of a peak exhibited due to the first block in 1 H-NMR and L is a ratio (H1/H2) of a molar number of hydrogen atom in 1 mole of a repeating unit of the first block relative to a molar number of hydrogen atom in 1 mole of a repeating unit of the second block.
Stable and liquid olein fraction wherein: a) less than 8.6% of the TAG species of said olein fraction have the general formula SMS, and b) at least 26% of TAG species of said olein fraction have the general formula SMM, wherein S represents a saturated fatty acid and M represents a monoenoic fatty acid, which olein fraction is obtainable by: - fractionation of a high oleic high saturated sunflower oil; and - collecting the liquid fraction. a) less than 8.6% of the TAG species of said olein fraction have the general formula SMS, and b) at least 26% of TAG species of said olein fraction have the general formula SMM, - fractionation of a high oleic high saturated sunflower oil; and - collecting the liquid fraction.
An electric circular plug connector with a plug member and a complementary plug member, which are releasably latchable to one another and have at least one respective plug contact, and with a latching mechanism operating on the push-pull principle at the plug member, which includes at least one axially extending, radially deflectable latching element with a latching detent, which is arranged transversely thereto and projects radially inwardly and associated with which is a latching recess on the complementary plug member, wherein the latching element is actuable by means of an unlatching sleeve, which is carried by the plug member and is axially movable, at least so that the latching detent and the latching recess can move out of engagement when the unlatching sleeve moves oppositely to the plugging, direction of the plug member, wherein the at least one latching element is integrally formed on a support ring, which is mounted on the plug member between the unlatching sleeve and a front, hollow cylindrical plug region of a plug member housing of the plug member, wherein the locking detent includes a rear sliding ramp arranged at the rear in the plugging direction of the plug member and the latching recess includes an associated inner rear complementary sliding ramp arranged at the rear in the plugging direction of the plug member, which pull the plug member and the complementary plug member together in a clearance-free manner by means of spring components acting inwardly in the radial direction, characterised in that arranged between the support ring with the at least one integrally formed latching element and the unlatching sleeve there is a retaining sleeve, which is axially movable with the unlatching sleeve, for the at least one latching element, wherein a spring force is applied to the unlatching sleeve in the plugging direction of the plug member by means of a spiral compression spring, which bears rearwardly on the plug member housing of the plug member and which applies a force radially inwardly on the latching element by means of a front sleeve section of the retaining sleeve.
An automated method for upgrading an automation function controlling an actuator via a PLC (programmable logic controller), comprising the steps: a) providing a first container and a first sidecar container, whereby the first container contains a first automation function, and the first sidecar container contains a first test unit and a first upgrade unit, whereby the first automation function is configured to communicate with the first sidecar container, b) the first automation function is controlling the actuator via the PLC, c) providing a second container and a second sidecar container, whereby the second container contains a second automation function, and the second sidecar container contains a second test unit and a second upgrade unit, whereby the second automation function is configured to communicate with the second sidecar container, d) the second automation function is receiving data from the actuator but is not controlling the actuator, e) based on the received data pre-activation tests for the second automation function are executed in the second sidecar container by the second test unit, f) if the pre-activation tests are successfully finished, the time when the control of the actuator is handed over from the first automation function to the second automation function is determined through negotiation between the first upgrade unit and the second upgrade unit, and g) the control of the actuator is handed over from the first automation function to the second automation function at the negotiated time. a) providing a first container and a first sidecar container, whereby the first container contains a first automation function, and the first sidecar container contains a first test unit and a first upgrade unit, whereby the first automation function is configured to communicate with the first sidecar container, b) the first automation function is controlling the actuator via the PLC, c) providing a second container and a second sidecar container, whereby the second container contains a second automation function, and the second sidecar container contains a second test unit and a second upgrade unit, whereby the second automation function is configured to communicate with the second sidecar container, d) the second automation function is receiving data from the actuator but is not controlling the actuator, e) based on the received data pre-activation tests for the second automation function are executed in the second sidecar container by the second test unit, f) if the pre-activation tests are successfully finished, the time when the control of the actuator is handed over from the first automation function to the second automation function is determined through negotiation between the first upgrade unit and the second upgrade unit, and g) the control of the actuator is handed over from the first automation function to the second automation function at the negotiated time.
A method for detecting a fault in a CPU, the method comprising; receiving from the CPU, a first signal to be monitored which represents a change of an input state of the CPU, said first signal to be monitored having a value, generating a first hash index key for the first signal to be monitored, searching, using said generated first hash index key, a hash table ( for an entry matching the value of the received first signal, wherein entries of the hash table comprise values of signals to be monitored and an associated action, and if a matching entry is not found, completing a first action, and if a matching entry is found, completing a second action associated with the found matching entry, wherein the second action comprises: enabling a timer for validating that an expected reaction of the CPU to the first signal occurs within a predetermined time interval, receiving a second signal to be monitored which represents a reaction of the CPU to the change of input state, said second signal having a value representing a reaction of the CPU to the first signal, generating a second hash index key for said second signal, searching, using the generated second hash index key, the hash table for an entry matching the value of the received second signal thereby validating the reaction, and completing (513, 505, 506) a third action if no matching entry is found within the predetermined time interval, wherein the third action comprises generating a fault notification signal. if a matching entry is not found, completing a first action, and if a matching entry is found, completing a second action associated with the found matching entry, wherein the second action comprises: enabling a timer for validating that an expected reaction of the CPU to the first signal occurs within a predetermined time interval, receiving a second signal to be monitored which represents a reaction of the CPU to the change of input state, said second signal having a value representing a reaction of the CPU to the first signal, generating a second hash index key for said second signal, searching, using the generated second hash index key, the hash table for an entry matching the value of the received second signal thereby validating the reaction, and completing (513, 505, 506) a third action if no matching entry is found within the predetermined time interval, wherein the third action comprises generating a fault notification signal. enabling a timer for validating that an expected reaction of the CPU to the first signal occurs within a predetermined time interval, receiving a second signal to be monitored which represents a reaction of the CPU to the change of input state, said second signal having a value representing a reaction of the CPU to the first signal, generating a second hash index key for said second signal, searching, using the generated second hash index key, the hash table for an entry matching the value of the received second signal thereby validating the reaction, and completing (513, 505, 506) a third action if no matching entry is found within the predetermined time interval, wherein the third action comprises generating a fault notification signal.
A liquid accelerator composed of a fluoride-containing aqueous aluminum complex, which is obtained through the reaction of 15 to 35 % by mass of aluminum sulfate, 1 to 5 % by mass of hydrofluoric acid, less than 20 % by mass of aluminum hydroxide, and 0.5 to 5 % by mass of phosphorous acid and/or organic acid salts thereof, which are used for the total amount of the liquid accelerator.
A nuclear magnetic resonance tool for use in a wellbore in a subterranean region, the NMR tool comprising: a magnet assembly (11A,11B,12) to produce a magnetic field in a volume in a subterranean region; and an antenna assembly to produce an excitation in the volume, and to acquire an azimuthally-selective response from the volume based on the excitation, the antenna assembly comprising a transversal-dipole antenna and a monopole antenna (37A,37B), wherein the antenna assembly is configured such that a combination of the transversal-dipole antenna and the monopole antenna is used to acquire the azimuthally-selective response. a magnet assembly (11A,11B,12) to produce a magnetic field in a volume in a subterranean region; and an antenna assembly to produce an excitation in the volume, and to acquire an azimuthally-selective response from the volume based on the excitation, the antenna assembly comprising a transversal-dipole antenna and a monopole antenna (37A,37B), wherein the antenna assembly is configured such that a combination of the transversal-dipole antenna and the monopole antenna is used to acquire the azimuthally-selective response.