mhurhangee/ep-ind-claims huggingface dataset:
A first mixed metal oxide consisting of: a) a mixture consisting of 0.50 to 0.90 parts by mole Mg, 0.05 to 0.30 parts by mole Al, 0.01 to 0.20 parts by mole Sb, and 0.00 to 0.31 parts by mole of other elements, other than Mg, Al, and Sb, selected from metals and metalloids, wherein the sum of all parts by mole of Mg, Al, Sb, and the other elements, other than Mg, Al, and Sb, selected from metals and metalloids amounts to 1.00, b) oxygen, and c) less than 0.01 parts by mole of non-metallic and non-metalloid impurities, wherein the parts by mole are as measured by Rutherford Backscattering Spectroscopy. a) a mixture consisting of 0.50 to 0.90 parts by mole Mg, 0.05 to 0.30 parts by mole Al, 0.01 to 0.20 parts by mole Sb, and 0.00 to 0.31 parts by mole of other elements, other than Mg, Al, and Sb, selected from metals and metalloids, wherein the sum of all parts by mole of Mg, Al, Sb, and the other elements, other than Mg, Al, and Sb, selected from metals and metalloids amounts to 1.00, b) oxygen, and c) less than 0.01 parts by mole of non-metallic and non-metalloid impurities,
A heat storage device disposed to circumscribe a compressor, comprising: a heat storage material for storing heat generated by the compressor; a heat storage tank accommodating the heat storage material; and a heat transfer sheet provided between the compressor and the heat storage tank so as to efficiently transfer waste heat of the compressor to the heat storage tank; wherein the heat storage tank is provided with a heat transfer portion at a position in contact with the heat transfer sheet, characterized in that the heat transfer portion is provided, on a surface in contact with the heat transfer sheet, with grooves used for discharging air left between the heat transfer portion and the heat transfer sheet. a heat storage material for storing heat generated by the compressor; a heat storage tank accommodating the heat storage material; and a heat transfer sheet provided between the compressor and the heat storage tank so as to efficiently transfer waste heat of the compressor to the heat storage tank; wherein the heat storage tank is provided with a heat transfer portion at a position in contact with the heat transfer sheet, characterized in that the heat transfer portion is provided, on a surface in contact with the heat transfer sheet, with grooves used for discharging air left between the heat transfer portion and the heat transfer sheet.
A method implemented in a multi-core processor having n cores, comprising: selecting and dedicating k cores of the n cores of the multi-core processor to perform low-latency operations for the n-core processor, wherein: k is less than n; m cores are unselected; and each core of the multi-core processor has a rated core capacity; operating the selected k cores at less than the rated core capacity such that k cores are collectively underutilized by an underutilized capacity; and operating one or more of the m cores at a capacity in excess of the rated core capacity such that the one or more m cores operate at a collective capacity that temporarily exceeds a collective capacity of the rated core capacities of the m cores and the underutilized capacity by which the k cores are collectively underutilized, further comprising periodically rotating selections of the k cores in the multi-core processor such that at each selection a different set of k cores are selected and dedicated to perform low-latency operations for the n-core processor. selecting and dedicating k cores of the n cores of the multi-core processor to perform low-latency operations for the n-core processor, wherein: k is less than n; m cores are unselected; and each core of the multi-core processor has a rated core capacity; k is less than n; m cores are unselected; and each core of the multi-core processor has a rated core capacity; operating the selected k cores at less than the rated core capacity such that k cores are collectively underutilized by an underutilized capacity; and operating one or more of the m cores at a capacity in excess of the rated core capacity such that the one or more m cores operate at a collective capacity that temporarily exceeds a collective capacity of the rated core capacities of the m cores and the underutilized capacity by which the k cores are collectively underutilized, further comprising periodically rotating selections of the k cores in the multi-core processor such that at each selection a different set of k cores are selected and dedicated to perform low-latency operations for the n-core processor.
A method for implementing a remote payment, applied to a mobile terminal of which a smart card contains a USB Key, a USB Key processing unit being disposed inside the smart card, the method being characterized by comprising: Sending, by a payment application client, a command related to the USB Key; converting, by a conversion drive unit, the command related to the USB Key to a command in an Application Protocol Data Unit, APDU, format; and receiving and reading, by the USB Key processing unit, the command in the APDU format to activate the USB Key and execute a remote payment instruction; wherein, before the USB Key processing unit receives and reads the command in the APDU format, the method further comprises: receiving, by the smart card, a PIN2 code from a user, and judging whether the PIN2 code input by the user is consistent with a preset PIN2 code of the terminal; if consistent, considering that the PIN2 code input by the user is matched with the preset PIN2 code of the terminal, opening a USB Key function of the smart card to make it under an enabled state, and activating the USB Key; and if the input PIN2 code is not matched with the preset PIN2 code and non-match times reach preset times, prohibiting all of subsequent payment operations. Sending, by a payment application client, a command related to the USB Key; converting, by a conversion drive unit, the command related to the USB Key to a command in an Application Protocol Data Unit, APDU, format; and receiving and reading, by the USB Key processing unit, the command in the APDU format to activate the USB Key and execute a remote payment instruction; wherein, before the USB Key processing unit receives and reads the command in the APDU format, the method further comprises: receiving, by the smart card, a PIN2 code from a user, and judging whether the PIN2 code input by the user is consistent with a preset PIN2 code of the terminal; if consistent, considering that the PIN2 code input by the user is matched with the preset PIN2 code of the terminal, opening a USB Key function of the smart card to make it under an enabled state, and activating the USB Key; and if the input PIN2 code is not matched with the preset PIN2 code and non-match times reach preset times, prohibiting all of subsequent payment operations. receiving, by the smart card, a PIN2 code from a user, and judging whether the PIN2 code input by the user is consistent with a preset PIN2 code of the terminal; if consistent, considering that the PIN2 code input by the user is matched with the preset PIN2 code of the terminal, opening a USB Key function of the smart card to make it under an enabled state, and activating the USB Key; and if the input PIN2 code is not matched with the preset PIN2 code and non-match times reach preset times, prohibiting all of subsequent payment operations.
Accumulator (1a.. 1l) having a plurality of voltage-generating cells, wherein a plate-shaped intermediate element is arranged at least between two voltage-generating cells, characterised in that the intermediate element has elastic ribs at least on one side, wherein the elastic ribs are aligned obliquely in relation to the cross-section, wherein the ribs bear against a cell and permit both a length compensation between the cells and also form a channel for conducting a gaseous or liquid heat carrier and wherein the spring constant of the intermediate element can be set by the inclination of the ribs.
A composition having a pH of about 4 or lower and comprising: at least one personal care acid at 0.5% (% w/w) addition level or more, or one pharmaceutical acid at 0.5% (% w/w) addition level or more, wherein said personal care acid or pharmaceutical acid is an alpha and beta hydroxy acid or a beta hydroxy acid; and salts, esters or blends thereof; and lightly- to moderately-crosslinked PVP; wherein said PVP is present at from 1% to 6% by weight of the composition, has a gel volume of from 15 mL/g to 300 mL/g and a 5% solution thereof in a liquid carrier comprising water at 25°C has a Brookfield viscosity (measured in a Brookfield LVT or RVT viscometer) at 10 rpm of at least 2,000 cP; wherein said composition has a Brookfield viscosity (measured in a Brookfield LVT or RVT viscometer) at 10 rpm and at 25°C using a T-C or T-E spindle of from 10,000 cP to 50,000 cP. at least one personal care acid at 0.5% (% w/w) addition level or more, or one pharmaceutical acid at 0.5% (% w/w) addition level or more, wherein said personal care acid or pharmaceutical acid is an alpha and beta hydroxy acid or a beta hydroxy acid; and salts, esters or blends thereof; and lightly- to moderately-crosslinked PVP; wherein said PVP is present at from 1% to 6% by weight of the composition, has a gel volume of from 15 mL/g to 300 mL/g and a 5% solution thereof in a liquid carrier comprising water at 25°C has a Brookfield viscosity (measured in a Brookfield LVT or RVT viscometer) at 10 rpm of at least 2,000 cP;
A printed wiring board (1,1a,1b,1c,1d,11) comprising: a base layer (2,2d,15,18) containing a fluororesin as a main component; a first conductive layer (3,16) stacked on one surface of the base layer; a second conductive layer (4,4b,17) stacked on the other surface of the base layer; and a via-hole (5,5a,5b,5c,20,21) that is formed along a connection hole penetrating the base layer and at least one of the first conductive layer and the second conductive layer in a thickness direction and that electrically connects the first conductive layer and the second conductive layer to each other, wherein at least a part of an inner circumferential surface of the base layer in the connection hole has a pre-treated surface (6,6d,22,23) characterized in that the pre-treated surface has a content ratio of oxygen atoms or nitrogen atoms in the pre-treated surface of 0.2 atomic percent or more by Na etching, an alkali treatment, or radiation exposure. a base layer (2,2d,15,18) containing a fluororesin as a main component; a first conductive layer (3,16) stacked on one surface of the base layer; a second conductive layer (4,4b,17) stacked on the other surface of the base layer; and a via-hole (5,5a,5b,5c,20,21) that is formed along a connection hole penetrating the base layer and at least one of the first conductive layer and the second conductive layer in a thickness direction and that electrically connects the first conductive layer and the second conductive layer to each other, wherein at least a part of an inner circumferential surface of the base layer in the connection hole has a pre-treated surface (6,6d,22,23) characterized in that the pre-treated surface has a content ratio of oxygen atoms or nitrogen atoms in the pre-treated surface of 0.2 atomic percent or more by Na etching, an alkali treatment, or radiation exposure.
A method for producing a hydrogen containing fluid, comprising: providing a container having water vapor permeability in which fluid is stored, the fluid being able to be used for a living organism; enclosing the container and a hydrogen generating system which generates hydrogen by using moisture and is located outside the container in a wrapping member having a gas barrier permeability, the wrapping member being selected from an aluminum foil wrapping member and an aluminum foil-laminated film; increasing humidity in a space between an outer surface of the container and an inner surface of the wrapping member by reducing a volume of the space between the outer surface of the container and the inner surface of the wrapping member and/or maintaining the container enclosed in the wrapping member in an environment of a temperature that is not lower than 20° C for a predetermined period of time; and transmitting hydrogen molecules generated by the hydrogen generating system from an exterior of the container into the fluid. providing a container having water vapor permeability in which fluid is stored, the fluid being able to be used for a living organism; enclosing the container and a hydrogen generating system which generates hydrogen by using moisture and is located outside the container in a wrapping member having a gas barrier permeability, the wrapping member being selected from an aluminum foil wrapping member and an aluminum foil-laminated film; increasing humidity in a space between an outer surface of the container and an inner surface of the wrapping member by reducing a volume of the space between the outer surface of the container and the inner surface of the wrapping member and/or maintaining the container enclosed in the wrapping member in an environment of a temperature that is not lower than 20° C for a predetermined period of time; and transmitting hydrogen molecules generated by the hydrogen generating system from an exterior of the container into the fluid.
Wire-advancement system having a pressure-exerting element and a transporting element, between which the wire is transported, and having at least one drive unit, wherein the transporting element is designed in the form of a transporting chain, characterized in that the transporting element and the pressure-exerting element each comprise cuboidal pressure-exerting bodies (4, 5) which have planar pressure-exerting surfaces and are located opposite one another, wherein the transporting elements of the transporting chains run around the pressure-exerting bodies (4, 5), wherein the transporting chains have planar transporting surfaces on the chain links and the pressure-exerting bodies (4, 5) can be braced resiliently against one another.
Copolymer of a 1,3-diene and of an olefin selected from the group consisting of α-monoolefins, ethylene and mixtures thereof, which copolymer bears, at one of its chain ends, an alkoxysilyl or silanol function, functional group F 1, provided that the copolymer is different from a copolymer of a 1,3-diene and a vinylaromatic monomer.
A processed edible product comprising a complex of at least one antimicrobial compound and a polyelectrolyte complex of a polyanion and a polycation, preferably whereby the polyanion and the polycation are present in a relative amount of between 1:2 and 60:1 (w/w).
A rotor yoke (11. 31, 41), comprising: a plurality of rotor cores (11a, 31a, 41a, 41b) having a disk shape laminated to be formed in a cylindrical shape; a plurality of magnet inserting holes (12, 12a) each including a longitudinal side and a transverse side arranged on a surface of the rotor cores (11a, 31a, 41a, 41b) orthogonal to a rotation shaft, the longitudinal side of the magnet inserting holes (12, 12a) arranged separately from one another near an outer circumferential surface of the rotor cores (11a, 31a, 41a, 41b) along a circumferential direction, the magnet inserting holes (12, 12a) penetrated in a laminating direction of the rotor yoke (11, 31, 41); a bridge portion (15, 15a) arranged between the magnet inserting holes (12, 12a) adjacent to one another in a circumferential direction of the rotor cores (11a, 31a, 41a, 41b) and connecting an inner area (14, 14a) arranged radially inward of the magnet inserting holes (12, 12a) to an outer area (13, 13a) arranged radially outward of the magnet inserting hole (12, 12a); a recessed portion (18, 18a) arranged at the bridge portion (15, 15a) and formed from the outer circumferential surface of the rotor cores (11a, 31a, 41a, 41b) toward radially inward; and a protruding edge arranged at the bridge portion (15, 15a) and protruding toward an inside of the magnet inserting hole (12, 12a) to include a most protruding edge at a portion of the transverse side. a plurality of rotor cores (11a, 31a, 41a, 41b) having a disk shape laminated to be formed in a cylindrical shape; a plurality of magnet inserting holes (12, 12a) each including a longitudinal side and a transverse side arranged on a surface of the rotor cores (11a, 31a, 41a, 41b) orthogonal to a rotation shaft, the longitudinal side of the magnet inserting holes (12, 12a) arranged separately from one another near an outer circumferential surface of the rotor cores (11a, 31a, 41a, 41b) along a circumferential direction, the magnet inserting holes (12, 12a) penetrated in a laminating direction of the rotor yoke (11, 31, 41); a bridge portion (15, 15a) arranged between the magnet inserting holes (12, 12a) adjacent to one another in a circumferential direction of the rotor cores (11a, 31a, 41a, 41b) and connecting an inner area (14, 14a) arranged radially inward of the magnet inserting holes (12, 12a) to an outer area (13, 13a) arranged radially outward of the magnet inserting hole (12, 12a); a recessed portion (18, 18a) arranged at the bridge portion (15, 15a) and formed from the outer circumferential surface of the rotor cores (11a, 31a, 41a, 41b) toward radially inward; and a protruding edge arranged at the bridge portion (15, 15a) and protruding toward an inside of the magnet inserting hole (12, 12a) to include a most protruding edge at a portion of the transverse side.
A rare earth magnet comprising: a main phase, and a grain boundary phase present around the main phase, wherein the overall composition is represented by the formula: (Nd x (Ce, La) (1-x-y)R 1 y) p Fe (100-p-q-r-s) Co q B r M 1 s · (R 2 z R 3 w M 2 1 -z-w)t, wherein R 1 is one or more members selected from rare earth elements other than Nd, Ce and La, R 2 is one or more members selected from Pr, Nd, Pm, Sm, Eu and Gd, R 3 is one or more members selected from rare earth elements other than R 2, M 1 represents one or more members selected from Ga, Al, Cu, Au, Ag, Zn, In and Mn, and an unavoidable impurity element, M 2 represents an alloy element for decreasing the melting point of R 2 z R 3 w M 2 1-z-w to be lower than the melting point of R 2 by alloying with R 2 and R 3, and an unavoidable impurity element, wherein p, q, r, s, and t are, in at%, 5.0≤p≤20.0, 0≤q≤8.0, 4.0≤r≤6.5, 0≤s≤2.0, and 0≤t≤10.0, and wherein x, y, z, and w are, by molar ratio, 0.4≤x≤0.8, 0≤y≤0.1, 0.5≤z≤0.8, and 0≤w≤0.1), and wherein La is contained in an amount of 1/9 to 3 times by molar ratio relative to Ce, and wherein an average grain size of the main phase is from 1 to 1000 nm wherein the average grain size of the main phase is calculated in accordance with the method defined in the description. a main phase, and a grain boundary phase present around the main phase, wherein the overall composition is represented by the formula: (Nd x (Ce, La) (1-x-y)R 1 y) p Fe (100-p-q-r-s) Co q B r M 1 s · (R 2 z R 3 w M 2 1 -z-w)t, wherein R 1 is one or more members selected from rare earth elements other than Nd, Ce and La, R 2 is one or more members selected from Pr, Nd, Pm, Sm, Eu and Gd, R 3 is one or more members selected from rare earth elements other than R 2, M 1 represents one or more members selected from Ga, Al, Cu, Au, Ag, Zn, In and Mn, and an unavoidable impurity element, M 2 represents an alloy element for decreasing the melting point of R 2 z R 3 w M 2 1-z-w to be lower than the melting point of R 2 by alloying with R 2 and R 3, and an unavoidable impurity element, wherein p, q, r, s, and t are, in at%, 5.0≤p≤20.0, 0≤q≤8.0, 4.0≤r≤6.5, 0≤s≤2.0, and 0≤t≤10.0, and 5.0≤p≤20.0, 0≤q≤8.0, 4.0≤r≤6.5, 0≤s≤2.0, and 0≤t≤10.0, and wherein x, y, z, and w are, by molar ratio, 0.4≤x≤0.8, 0≤y≤0.1, 0.5≤z≤0.8, and 0≤w≤0.1), and 0.4≤x≤0.8, 0≤y≤0.1, 0.5≤z≤0.8, and 0≤w≤0.1), and wherein La is contained in an amount of 1/9 to 3 times by molar ratio relative to Ce, and wherein an average grain size of the main phase is from 1 to 1000 nm wherein the average grain size of the main phase is calculated in accordance with the method defined in the description.
A method for calibrating a digital conductivity measuring system having a transmitter in electrical communication with a sensor, the sensor having a measurement circuit and at least a pair of electrodes therein, the method comprising: interposing a Y-connector between the transmitter and the sensor and verifying that the transmitter is connected to the Y-connector; attaching a calibrator to the Y-connector, the calibrator being a device with at least one resistor of a known value for the AC measurement range to be calibrated; measuring a raw resistance for the at least one resistor; comparing the known value of the at least one resistor and the measured raw resistance to determine a first calibration factor; and removing the Y-connector after the calibration is completed; wherein the method further comprises: providing a sensor switch and using it to create an open circuit between the measurement circuit and the electrodes and/or a temperature measuring device for calibration. interposing a Y-connector between the transmitter and the sensor and verifying that the transmitter is connected to the Y-connector; attaching a calibrator to the Y-connector, the calibrator being a device with at least one resistor of a known value for the AC measurement range to be calibrated; measuring a raw resistance for the at least one resistor; comparing the known value of the at least one resistor and the measured raw resistance to determine a first calibration factor; and removing the Y-connector after the calibration is completed; wherein the method further comprises: providing a sensor switch and using it to create an open circuit between the measurement circuit and the electrodes and/or a temperature measuring device for calibration.
A method for updating content on a portable media device from a media host device over a network, said method comprising: receiving, at the portable media device a synchronization policy for each of one or more different content types, wherein each synchronization policy defines at least a condition for allowing a wireless transfer to occur between the portable media device and the media host device; determining content on the portable media device is to be updated from content available on the media host device; determining a network connection bandwidth of a wireless connection in response to the portable media device being in communication with the media host device via the wireless connection; sending a content update request including selections of one or more content types to be updated to the media host device having corresponding synchronization policies with a condition that is satisfied by the network connection bandwidth; receiving, from the media host device, updated content of the selected content types; and storing the updated content received from the media host device onto the portable media device. receiving, at the portable media device a synchronization policy for each of one or more different content types, wherein each synchronization policy defines at least a condition for allowing a wireless transfer to occur between the portable media device and the media host device; determining content on the portable media device is to be updated from content available on the media host device; determining a network connection bandwidth of a wireless connection in response to the portable media device being in communication with the media host device via the wireless connection; sending a content update request including selections of one or more content types to be updated to the media host device having corresponding synchronization policies with a condition that is satisfied by the network connection bandwidth; receiving, from the media host device, updated content of the selected content types; and storing the updated content received from the media host device onto the portable media device.