mhurhangee/ep-ind-claims huggingface dataset:
Method for testing a battery state of at least one battery, in particular for the identification of a battery defect, comprising at least the following steps: Execution of a first impedance test for determining the internal resistance of the battery, wherein the battery is excited by means of an electric current characteristic at a specific frequency, and a resulting voltage response of the battery is measured; Capture and saving of the measurement results of this first impedance test; Execution of a high-rate discharge test of the battery by the application of a test pulse or discharge pulse; Execution of a second impedance test; Capture and saving of the measurement results of this second impedance test; Test evaluation, wherein the measurement results of the first and the second impedance test are considered in relation to one another, such that the battery state can be inferred therefrom; wherein a differential is formed between the measurement result of the first and the second impedance test, in order to infer herefrom whether this differential value lies outside a stipulated limit or a stipulated interval. Execution of a first impedance test for determining the internal resistance of the battery, wherein the battery is excited by means of an electric current characteristic at a specific frequency, and a resulting voltage response of the battery is measured; Capture and saving of the measurement results of this first impedance test; Execution of a high-rate discharge test of the battery by the application of a test pulse or discharge pulse; Execution of a second impedance test; Capture and saving of the measurement results of this second impedance test; Test evaluation, wherein the measurement results of the first and the second impedance test are considered in relation to one another, such that the battery state can be inferred therefrom; wherein a differential is formed between the measurement result of the first and the second impedance test, in order to infer herefrom whether this differential value lies outside a stipulated limit or a stipulated interval.
A method for adjusting a loss of signal, LOS, alarm decision threshold, comprising: receiving (S101; S201) an optical signal; determining (S101; S204) a power value of the optical signal and an amplitude value of an electrical signal converted from the optical signal and outputted by a trans-impedance amplifier; determining (S102; S205) a first numeric relation between the power value and a preset threshold, and a second numeric relation between the amplitude value and the LOS alarm decision threshold; and adjusting (SI03; S206) the LOS alarm decision threshold according to the first numeric relation and the second numeric relation to make the second numeric relation in accordance with the first numeric relation. receiving (S101; S201) an optical signal; determining (S101; S204) a power value of the optical signal and an amplitude value of an electrical signal converted from the optical signal and outputted by a trans-impedance amplifier; determining (S102; S205) a first numeric relation between the power value and a preset threshold, and a second numeric relation between the amplitude value and the LOS alarm decision threshold; and adjusting (SI03; S206) the LOS alarm decision threshold according to the first numeric relation and the second numeric relation to make the second numeric relation in accordance with the first numeric relation.
Device for manufacturing a support for the human body, wherein said support comprises a rigid or semi-rigid base element, a filling element made up of a filling material and coupled with said base element, at least one layer of a yielding material, coupled with said filling element and concentrated near to the surface of the support for example in the areas of greatest specific pressure, and a covering element, wherein said device is of the type comprising a mould comprising a lower female portion and an upper male portion capable of being coupled with one another so as to define at least one cavity between them, inside which at least one material in the fluid state intended to make the support can be poured, characterised in that said female portion of the mould comprises at least one mobile block (9a,9b) comprising at least two different surfaces (10,11), wherein said at least two different surfaces (10,11) are suitable for making up respective different interchangeable bottoms of said cavity for separate pouring steps of at least one material in the fluid state foreseen in the support, namely said filling material and said yielding material, respectively, of the support, wherein said different surfaces (10,11) of said at least one mobile block (9a,9b) comprise a first surface suitable for making up a respective first bottom on which the covering element of the support can be positioned and suitable for the pouring of the yielding material on the covering element itself in a first pouring step, so as to achieve, on the covering element, at least one layer of the yielding material having a thickness, and wherein said first surface is flat with raised edges, having a height corresponding to the thickness of the layer of the yielding material to be foreseen in the support.
A group-based scheduling method, comprising: obtaining, by a UE, a group scheduling identity, wherein the group scheduling identity is used for indicating a group scheduled by control signalling on a physical downlink control channel, PDCCH; receiving, by the UE, scrambled control signalling on the PDCCH, and decoding the scrambled control signalling according to the group scheduling identity; receiving, by the UE, a media access control protocol data unit, MAC PDU, according to the decoded control signalling, wherein the MAC PDU comprises a data packet of at least one user equipment, UE, in one group; and obtaining, by the UE, a physical uplink control channel, PUCCH, feedback resource position corresponding to a position of a data packet of the UE according to a corresponding relation between a position of the data packet of the at least one UE in the MAC PDU and the PUCCH feedback resource position, and sending ACK feedback information at the corresponding PUCCH feedback resource position. obtaining, by a UE, a group scheduling identity, wherein the group scheduling identity is used for indicating a group scheduled by control signalling on a physical downlink control channel, PDCCH; receiving, by the UE, scrambled control signalling on the PDCCH, and decoding the scrambled control signalling according to the group scheduling identity; receiving, by the UE, a media access control protocol data unit, MAC PDU, according to the decoded control signalling, wherein the MAC PDU comprises a data packet of at least one user equipment, UE, in one group; and obtaining, by the UE, a physical uplink control channel, PUCCH, feedback resource position corresponding to a position of a data packet of the UE according to a corresponding relation between a position of the data packet of the at least one UE in the MAC PDU and the PUCCH feedback resource position, and sending ACK feedback information at the corresponding PUCCH feedback resource position.
A method of monitoring a fluid pressure in a subterranean formation, comprising: forming a borehole in the subterranean formation from a surface at least to a depth where the fluid pressure is to be measured; placing a grout pipe down the borehole, said grout pipe having a port at a bottom end thereof for allowing a cementitious material to flow therethrough; placing a conduit (8, 30, 31) into the borehole to a depth so that an inlet of the conduit is adjacent a location where the formation pressure is to be measured, the inlet of said conduit is located at a depth in said borehole independent of a location of the port at the bottom of said grout pipe during a time when said conduit is lowered into said borehole; using a non-return valve (7, 32) in the conduit (8, 30, 31) so that liquid cannot pass upwardly all the way through the conduit; using the grout pipe to place a cementitious material into the borehole until the cementitious material rises at least above the inlet of the conduit; pumping a liquid down the conduit through the non-return valve, out of the inlet of the conduit and into the cementitious material in the borehole so that the liquid displaces the cementitious material around the inlet of the conduit and form a fluid connection to the formation; and placing a pressure sensing device below the surface of the borehole to measure the fluid pressure of the formation at said depth via the displaced cementitious material. forming a borehole in the subterranean formation from a surface at least to a depth where the fluid pressure is to be measured; placing a grout pipe down the borehole, said grout pipe having a port at a bottom end thereof for allowing a cementitious material to flow therethrough; placing a conduit (8, 30, 31) into the borehole to a depth so that an inlet of the conduit is adjacent a location where the formation pressure is to be measured, the inlet of said conduit is located at a depth in said borehole independent of a location of the port at the bottom of said grout pipe during a time when said conduit is lowered into said borehole; using a non-return valve (7, 32) in the conduit (8, 30, 31) so that liquid cannot pass upwardly all the way through the conduit; using the grout pipe to place a cementitious material into the borehole until the cementitious material rises at least above the inlet of the conduit; pumping a liquid down the conduit through the non-return valve, out of the inlet of the conduit and into the cementitious material in the borehole so that the liquid displaces the cementitious material around the inlet of the conduit and form a fluid connection to the formation; and placing a pressure sensing device below the surface of the borehole to measure the fluid pressure of the formation at said depth via the displaced cementitious material.
A drug delivery apparatus being formed from a material consisting essentially of a non-water soluble drug delivery composition comprising a conjugate and a polymer matrix said conjugate comprising an active ingredient bonded to a protecting group via a first functional group; wherein the protecting group comprises a dimethoxybenzoin group and characterised in that the protecting group comprises a second functional group attached to the polymer matrix through non-covalent interactions; wherein exposure of the composition to electromagnetic radiation at a suitable pre-determined wavelength and intensity induces release of the active ingredient from the composition; and the protecting group is permanently incorporated into the polymer matrix and all of the protecting group is retained in the composition throughout and following the exposure of the composition to electromagnetic radiation.
An aqueous gravure ink comprising a pigment, a water-soluble organic solvent, a surfactant and water, in which: the water-soluble organic solvent comprises a glycol ether having a boiling point of not lower than 100°C and not higher than 260°C; the surfactant comprises a silicone-based surfactant comprising a constitutional unit represented by the following general formula; a content of the water-soluble organic solvent in the ink is not less than 1% by mass and not more than 10% by mass; and a content of water in the ink is not less than 50% by mass and not more than 80% by mass, wherein m and n are numbers of respective structural units; a is an integer of not less than 0 and not more than 40; b is an integer of not less than 1 and not more than 40; R is a hydrogen atom or an alkyl group; and a ratio of [(a + b)/(m/n)] is not less than 1.60 and not more than 4.5. the water-soluble organic solvent comprises a glycol ether having a boiling point of not lower than 100°C and not higher than 260°C; the surfactant comprises a silicone-based surfactant comprising a constitutional unit represented by the following general formula; a content of the water-soluble organic solvent in the ink is not less than 1% by mass and not more than 10% by mass; and a content of water in the ink is not less than 50% by mass and not more than 80% by mass, wherein m and n are numbers of respective structural units; a is an integer of not less than 0 and not more than 40; b is an integer of not less than 1 and not more than 40; R is a hydrogen atom or an alkyl group; and a ratio of [(a + b)/(m/n)] is not less than 1.60 and not more than 4.5.
A device for receiving blood or bodily fluid from the skin and/or from beneath the skin of a subject, the device comprising: a substance transfer component for receiving blood from the skin of the subject; a vacuum chamber regulator comprising a pre-packaged vacuum chamber having an internal pressure less than atmospheric pressure prior to the point at which the device is used on the subject; and a substrate (20, 50) for absorbing blood or bodily fluid received from the subject, wherein the substrate comprises filter paper and/or cotton-based paper, preferably wherein the substrate comprises Whatman 903TM paper. a substance transfer component for receiving blood from the skin of the subject; a vacuum chamber regulator comprising a pre-packaged vacuum chamber having an internal pressure less than atmospheric pressure prior to the point at which the device is used on the subject; and a substrate (20, 50) for absorbing blood or bodily fluid received from the subject, wherein the substrate comprises filter paper and/or cotton-based paper, preferably wherein the substrate comprises Whatman 903TM paper.
A roller reducer comprising a body receiving: - an input member comprising at least two input member nuts having inner multi-start threads of different directions, said nuts fixedly mounted with respect to each other, - a support member comprising at least two support member nuts having multi-start threads of different directions, said nuts fixedly mounted with respect to each other, - an output member comprising at least two output member nuts having multi-start threads of different directions, said nuts fixedly mounted with respect to each other, wherein the output member nuts comprise a number of thread starts different from the number of thread starts on the support member nuts; - rollers comprising at least one pair of portions having threads of different directions; wherein the multi-start threads of the support member nuts and of the output member nuts are arranged on the outer surface thereof, the rollers are arranged around the at least two support member nuts and the at least two output member nuts in such manner that each roller portion out of the at least one pair of roller portions engages at least one of the support member nuts and/or at least one of the output member nuts, and the at least two input member nuts are arranged around the rollers in such manner that the at least one pair of roller portions engages the threads of the input member nuts. - an input member comprising at least two input member nuts having inner multi-start threads of different directions, said nuts fixedly mounted with respect to each other, - a support member comprising at least two support member nuts having multi-start threads of different directions, said nuts fixedly mounted with respect to each other, - an output member comprising at least two output member nuts having multi-start threads of different directions, said nuts fixedly mounted with respect to each other, wherein the output member nuts comprise a number of thread starts different from the number of thread starts on the support member nuts; - rollers comprising at least one pair of portions having threads of different directions;
A radiator for heating a room or parts thereof, comprising a modular structure, wherein a planar heating element, a connecting unit for supplying the heating element with a heating medium as well as a frame construction receiving the heating element and the connecting unit are provided as modular components, wherein the heating element comprises a plurality of pipe registers (11, 12, 13) which are arranged in layers and which are fluidically connected to each other to form a pipe register unit, wherein one of the pipe registers (11, 12, 13) comprises a collector pipe for the heating medium flow line, a collector pipe for the heating medium return flow as well as heating pipes which fluidically connect the collector pipes (15, 16) to each other, wherein connecting pieces are provided for connecting the several pipe registers (11, 12, 13) to form the register unit, wherein the collector pipes (15, 16) and/or the heating pipes and/or the connecting pieces are at least partially made of plastic, characterized in that the radiator comprises a cover arranged on the front side of the heating element and the frame construction receives the cover and that the pipe registers (11, 12, 13) are provided, on the outside thereof, with convection areas that are partially made of plastic and are preferably formed in one piece with the pipe register (11, 12, 13).
A saddled vehicle comprising a head pipe, a fuel tank, a pair of right and left main frames extending rearward and downward from the head pipe and the fuel tank positioned behind the head pipe and above the main frames, a battery case, in which at least a battery is stored and which is positioned between the head pipe and the fuel tank, and a tank cover for covering from above the whole of the fuel tank and the battery case, wherein the fuel tank and the battery case are disposed to partially overlap with each other in a side view of a vehicle body, and a rear portion of the battery case is stored in a recessed portion formed in a front portion of the fuel tank in the center in a vehicle width direction, characterized by a maintenance lid formed with a through hole for exposing a fuel filler cap of the fuel tank to an upper side of the vehicle body is detachably provided to the tank cover, wherein the battery case is disposed below the maintenance lid. a head pipe, a fuel tank, a pair of right and left main frames extending rearward and downward from the head pipe and the fuel tank positioned behind the head pipe and above the main frames, a battery case, in which at least a battery is stored and which is positioned between the head pipe and the fuel tank, and a tank cover for covering from above the whole of the fuel tank and the battery case, wherein the fuel tank and the battery case are disposed to partially overlap with each other in a side view of a vehicle body, and a rear portion of the battery case is stored in a recessed portion formed in a front portion of the fuel tank in the center in a vehicle width direction, characterized by a maintenance lid formed with a through hole for exposing a fuel filler cap of the fuel tank to an upper side of the vehicle body is detachably provided to the tank cover, wherein the battery case is disposed below the maintenance lid.
A wing for an aircraft, the wing comprising: a fixed-wing structure having a slat recess; and a leading-edge slat, the slat being operable between a stowed configuration in which the slat is stowed in the slat recess, and a deployed configuration in which the slat is extended out of the slat recess, wherein when the slat is in the deployed configuration, an end face of the slat recess is exposed, the end face of the slat recess extending between a rear face of the slat recess and the leading edge of the wing, the end face of the slat recess intersecting with an upper surface of the wing along a recess edge, wherein the wing comprises an aerodynamic structure (310, 510, 610, 710) arranged on the upper surface of the wing adjacent to the recess edge, the aerodynamic structure being arranged to be exposed to airflow when the slat is in the stowed configuration, the aerodynamic structure having a volume shaped to encourage air flowing over the recess edge onto the upper surface during flight to remain attached to the upper surface of the wing, and charaterized in that the volume of the aerodynamic structure has a curved cross-sectional profile taken in a cross section (y-z) intersecting the recess edge, wherein the cross-sectional profile is asymmetrical. a fixed-wing structure having a slat recess; and a leading-edge slat, the slat being operable between a stowed configuration in which the slat is stowed in the slat recess, and a deployed configuration in which the slat is extended out of the slat recess, wherein when the slat is in the deployed configuration, an end face of the slat recess is exposed, the end face of the slat recess extending between a rear face of the slat recess and the leading edge of the wing, the end face of the slat recess intersecting with an upper surface of the wing along a recess edge, wherein the wing comprises an aerodynamic structure (310, 510, 610, 710) arranged on the upper surface of the wing adjacent to the recess edge, the aerodynamic structure being arranged to be exposed to airflow when the slat is in the stowed configuration, the aerodynamic structure having a volume shaped to encourage air flowing over the recess edge onto the upper surface during flight to remain attached to the upper surface of the wing, and charaterized in that the volume of the aerodynamic structure has a curved cross-sectional profile taken in a cross section (y-z) intersecting the recess edge, wherein the cross-sectional profile is asymmetrical.
A method for transmitting content to a mobile communication device connected to a host computer, the method comprising: sending a content queue request to the mobile communication device from a web application running within a web browser on the host computer; in response to sending the content queue request, receiving at the host computer a content queue from the mobile communication device, the content queue identifying one or more locations of remote servers associated with content, the content queue further identifying the content to be downloaded to the mobile communication device; retrieving content, by the web application, in accordance with the one or more locations identified in the content queue; and in response to the content being retrieved, sending the content from the host computer to the mobile communication device. sending a content queue request to the mobile communication device from a web application running within a web browser on the host computer; in response to sending the content queue request, receiving at the host computer a content queue from the mobile communication device, the content queue identifying one or more locations of remote servers associated with content, the content queue further identifying the content to be downloaded to the mobile communication device; retrieving content, by the web application, in accordance with the one or more locations identified in the content queue; and in response to the content being retrieved, sending the content from the host computer to the mobile communication device.