mhurhangee/ep-ind-claims huggingface dataset:
Method for determining the number of user equipments in a geographic area of an access network of a public land mobile network, wherein the access network comprises at least one base transceiver station, wherein a plurality of user equipments in the geographic area receive control signals (201, 202) from the base transceiver station, the method comprises the following steps: -- in a first step, a pool paging information element is sent from the base transceiver station to the plurality of user equipments, -- in a second step, an identity information element is sent to the base transceiver station by at least a part of the user equipments of the plurality of user equipments, characterized in that the identity information element comprises an indication related to the identity of the user equipment and at least one out of the following pieces of information: -- an indication related to the capabilities of the user equipment, wherein the indication related to the capabilities of the user equipment relates to an information regarding to the possible set of radio access technologies the user equipment is able to use, -- an indication related to a record of previous usage of the user equipment. -- in a first step, a pool paging information element is sent from the base transceiver station to the plurality of user equipments, -- in a second step, an identity information element is sent to the base transceiver station by at least a part of the user equipments of the plurality of user equipments, characterized in that the identity information element comprises an indication related to the identity of the user equipment and at least one out of the following pieces of information: -- an indication related to the capabilities of the user equipment, wherein the indication related to the capabilities of the user equipment relates to an information regarding to the possible set of radio access technologies the user equipment is able to use, -- an indication related to a record of previous usage of the user equipment.
A foldable case (1, 101, 201) for removably receiving a separate and distinct foldable mobile electronic device having a front device surface, a rear device surface opposite the front device surface, and a periphery extending between the front device surface and the rear device surface of the device, the case comprising: first and second cover members (2A, 2B, 3A, 3B, 102A, 102B, 103A, 103B, 202A, 202B, 203A, 203B) including respective first and second rear walls (4A, 4B, 5A, 5B), respective first and second peripheral rims (6A, 7A) and respective first and second sidewalls (8A, 8B, 9A, 9B) extending between the respective rear walls and the respective peripheral rims and thereby defining respective first and second recesses configured for receiving respective first and second portions of the device; characterized in that the case further comprises: opposing first and second hinge members (10A, 10B, 210A, 210B) each extending between adjacent locations at the respective peripheral rims of the first and the second cover members to hingedly connect the first and the second cover members.
An adjustment ring configured to facilitate vane position adjustment in a variable turbine geometry turbocharger, the adjustment ring comprising a first ring portion that is formed of a first material; and a second ring portion that is formed of a second material, wherein the first ring portion and the second ring portion are configured to be assembled together into a single annular element, and the first material has different material properties than the second material.
A flow tube for a control head for an apparatus for forming a liquid seal around a conduit, cable or wire for intervention into a well, the flow tube comprising a flexible body, characterised in that the flexible body comprises a plastics material and/or polytetrafluoroethylene which is capable of stretching to accommodate localised variations in the external diameter of the conduit, cable or wire while maintaining a close contact with the external surface of the conduit, cable or wire.
Rail vehicle suspension, arranged between a body of a rail vehicle and an undercarriage of a rail vehicle, wherein the rail vehicle suspension has: - a fastening plate, - an air-spring bellows, - a rubber spring, - a rim provided on the upper part of the rubber spring, and - a connection part provided on the lower part of the rubber spring, wherein the air-spring bellows is fastened on the body side to the body by means of the fastening plate, wherein the air-spring bellows is fastened on the undercarriage side to the rubber spring by means of the rim such that the air-spring bellows and the rubber spring are coupled in series, and wherein the rubber spring is fastened on the undercarriage side at least indirectly to the undercarriage by means of the connection part, characterized by a field sensor, which is at least coupled to the rubber spring and is designed for capacitively or inductively detecting a spring travel of the rubber spring independently of the state of the air-spring bellows, wherein the field sensor has a first sensor part and a second sensor part, wherein the first and second sensor parts are arranged or integrated in the rubber spring that a deflection of the rubber spring in the vertical direction V leads to a relative movement between the sensor parts. - a fastening plate, - an air-spring bellows, - a rubber spring, - a rim provided on the upper part of the rubber spring, and - a connection part provided on the lower part of the rubber spring, wherein the air-spring bellows is fastened on the body side to the body by means of the fastening plate, wherein the air-spring bellows is fastened on the undercarriage side to the rubber spring by means of the rim such that the air-spring bellows and the rubber spring are coupled in series, and wherein the rubber spring is fastened on the undercarriage side at least indirectly to the undercarriage by means of the connection part,
A method for quantitative spectrometry capable of quantifying a composition ratio of a component targeted for quantification that is contained in an analysis-target sample by using spectroscopic analysis, the analysis-target sample containing the component targeted for quantification and a component not targeted for quantification, the method comprising: measuring an original spectrum from the analysis-target sample by using the spectroscopic analysis, the analysis-target sample containing the component targeted for quantification in an unknown composition ratio; multiplying a reference spectrum by a plurality of hypothetical addition rates, the reference spectrum being measured by using the spectroscopic analysis from a reference sample containing the component targeted for quantification in a known composition ratio, the hypothetical addition rates being coefficients for multiplications being equivalent to hypothetically changing the composition ratio of the component targeted for quantification contained in the analysis-target sample, and adding the respective hypothetical addition rate-multiplied reference spectra to the original spectrum, thereby generating a plurality of hypothetical addition spectra; generating a plurality of analysis-target spectra from the plurality of hypothetical addition spectra; extracting a signal intensity profile of the component targeted for quantification corresponding to the hypothetical addition rates from the plurality of analysis-target spectra by using multivariate analysis; and determining the unknown composition ratio of the component targeted for quantification from a dependence of the extracted signal intensity profile on the hypothetical addition rates. measuring an original spectrum from the analysis-target sample by using the spectroscopic analysis, the analysis-target sample containing the component targeted for quantification in an unknown composition ratio; multiplying a reference spectrum by a plurality of hypothetical addition rates, the reference spectrum being measured by using the spectroscopic analysis from a reference sample containing the component targeted for quantification in a known composition ratio, the hypothetical addition rates being coefficients for multiplications being equivalent to hypothetically changing the composition ratio of the component targeted for quantification contained in the analysis-target sample, and adding the respective hypothetical addition rate-multiplied reference spectra to the original spectrum, thereby generating a plurality of hypothetical addition spectra; generating a plurality of analysis-target spectra from the plurality of hypothetical addition spectra; extracting a signal intensity profile of the component targeted for quantification corresponding to the hypothetical addition rates from the plurality of analysis-target spectra by using multivariate analysis; and determining the unknown composition ratio of the component targeted for quantification from a dependence of the extracted signal intensity profile on the hypothetical addition rates.
A method of encoding image data including a first color component, a second color component, and a third color component defining color characteristics of image portions in a color space, the method comprising for at least a portion of an image: scaling a first color difference component and a second color difference component obtained from the first color component, the second color component, and the third color component of the image portion, by applying a respective gain factor to extend their corresponding dynamic ranges, the first color difference component being defined as a weighted difference between the first color component and the third color component and the second color difference component being defined as a weighted difference between the second color component and the third color component: wherein the respective gain factor applied to a respective color difference component is dependent upon the color gamut of the color space, and wherein the third color component is unaltered by the scaling; and encoding the first scaled color difference component and the second scaled color difference component and the third color component. wherein the respective gain factor applied to a respective color difference component is dependent upon the color gamut of the color space, and wherein the third color component is unaltered by the scaling; and encoding the first scaled color difference component and the second scaled color difference component and the third color component.
An emergency light device for marine use comprising a housing accommodating - an electronic circuit, - at least one transparent dome and - a first and a second shell member, wherein the housing has a width which is at least double the height, said electronic circuit comprising - at least one light emitting diode provided in the at least one transparent dome - an electrical power supply comprising at least one battery and - at least one manually operated operating switch, the manually operated operating switch is located in a recess of one of the shell members of the housing, the switch comprises a switch handle and a tack the handle comprises an inner end and an outer end closest to the rim of the housing, wherein the outer end of the switch handle protrudes from the housing, wherein activation and deactivation of the emergency light device is provided by sliding the manual switch approximately 90 degrees along a rounded corner of the housing, said at least one battery is of the AA, AAA or AAAA type, and the maximum height of the housing is less than 20 mm. - an electronic circuit, - at least one transparent dome and - a first and a second shell member, - at least one light emitting diode provided in the at least one transparent dome - an electrical power supply comprising at least one battery and - at least one manually operated operating switch,
A diagnostic analyzer comprising: a base having a first side and a second side opposite the first side; a loading bay disposed along the first side of the base; a first carrier shuttle on the base, the first carrier shuttle to transport a first carrier from a first end adjacent the loading bay to a second end adjacent the second side of the base; a second carrier shuttle on the base, the second carrier shuttle disposed adjacent the first carrier shuttle, the first and second carrier shuttles being independently operable, the second carrier shuttle to transport a second carrier from the first end adjacent the loading bay to the second end adjacent the second side of the base; and a pipetting mechanism coupled to the base and disposed adjacent the second side of the base, the pipetting mechanism is configured to: aspirate a first sample from the first carrier while the first carrier is on the first carrier shuttle at the second end; dispense the first sample into a first reaction vessel; aspirate a second sample from the second carrier while the second carrier is on the second carrier shuttle at the second end; and dispense the second sample into a second reaction vessel. a base having a first side and a second side opposite the first side; a loading bay disposed along the first side of the base; a first carrier shuttle on the base, the first carrier shuttle to transport a first carrier from a first end adjacent the loading bay to a second end adjacent the second side of the base; a second carrier shuttle on the base, the second carrier shuttle disposed adjacent the first carrier shuttle, the first and second carrier shuttles being independently operable, the second carrier shuttle to transport a second carrier from the first end adjacent the loading bay to the second end adjacent the second side of the base; and a pipetting mechanism coupled to the base and disposed adjacent the second side of the base, the pipetting mechanism is configured to: aspirate a first sample from the first carrier while the first carrier is on the first carrier shuttle at the second end; dispense the first sample into a first reaction vessel; aspirate a second sample from the second carrier while the second carrier is on the second carrier shuttle at the second end; and dispense the second sample into a second reaction vessel. aspirate a first sample from the first carrier while the first carrier is on the first carrier shuttle at the second end; dispense the first sample into a first reaction vessel; aspirate a second sample from the second carrier while the second carrier is on the second carrier shuttle at the second end; and dispense the second sample into a second reaction vessel.
A zoom lens comprising, in order from an object side to an image side, a first lens unit having a positive refractive power, a second lens unit having a negative refractive power, an aperture stop, and a rear group including a plurality of lens units, wherein intervals between the adjacent lens units are changed during zooming, wherein in the rear group, a lens unit Lp having a positive refractive power is arranged closest to an image side, a lens unit Ln having a negative refractive power is arranged on the object side of and adjacent to the lens unit Lp, and a third lens unit having a positive refractive power is arranged closest to the object side, the aperture stop does not move for zooming, but the second lens unit and the lens unit Ln move during zooming, the first lens unit consists of, in order from the object side to the image side, a negative lens, a positive lens, a positive lens, and a positive lens, the zoom lens satisfies the following conditional expressions: − 6.00 < f 2 / M 2 < − 0.02; − 1.80 < fn / Mn < − 0.02; and 1.2 < f 3 / M 3 < 4.0, where f2 denotes a focal length of the second lens unit, f3 denotes a focal length of the third lens unit, fn denotes a focal length of the lens unit Ln, M2 denotes a movement amount of the second lens unit during zooming from a wide angle end to a telephoto end, M3 denotes a movement amount of the third lens unit during zooming from the wide angle end to the telephoto end, and Mn denotes a movement amount of the lens unit Ln during zooming from the wide angle end to the telephoto end. intervals between the adjacent lens units are changed during zooming, wherein in the rear group, a lens unit Lp having a positive refractive power is arranged closest to an image side, a lens unit Ln having a negative refractive power is arranged on the object side of and adjacent to the lens unit Lp, and a third lens unit having a positive refractive power is arranged closest to the object side, the aperture stop does not move for zooming, but the second lens unit and the lens unit Ln move during zooming, the first lens unit consists of, in order from the object side to the image side, a negative lens, a positive lens, a positive lens, and a positive lens, the zoom lens satisfies the following conditional expressions: − 6.00 < f 2 / M 2 < − 0.02; − 1.80 < fn / Mn < − 0.02; and 1.2 < f 3 / M 3 < 4.0, where f2 denotes a focal length of the second lens unit, f3 denotes a focal length of the third lens unit, fn denotes a focal length of the lens unit Ln, M2 denotes a movement amount of the second lens unit during zooming from a wide angle end to a telephoto end, M3 denotes a movement amount of the third lens unit during zooming from the wide angle end to the telephoto end, and Mn denotes a movement amount of the lens unit Ln during zooming from the wide angle end to the telephoto end.
Aqueous effluent treatment system including a separation reactor having a reactor chamber fluidly connected to an aqueous effluent source, connected via a pump to an inlet of the reactor chamber, a fluid extraction system connected to a liquid effluent outlet at a top of the reactor chamber, and a solid residue extraction system connected to a solid residue outlet at a bottom of the reactor chamber, wherein the separation reactor is operable to generate pressures exceeding 22.1 MPa and temperatures exceeding 374°C in the reactor chamber configured to generate a supercritical zone in an upper portion of the reactor chamber to which the liquid effluent outlet is connected, and a subcritical zone in a lower portion of the chamber within the reactor chamber to which the solid residue outlet is connected, and wherein the solid residue extraction system comprises: - an output circuit comprising a collector coupled to the solid residue outlet via a collector input valve and to a water output tank via a filter and a collector liquid output valve operable to be opened to cause a pressure drop at the solid residue outlet to draw solid residue out of the reactor chamber, - a water feed circuit connected via a collector valve to the collector, and comprising a pump operable to pump water from a water source into the collector at a pressure exceeding 22.1 MPa, and - a gas feed circuit connected via a gas supply valve to the collector, the gas supply valve operable to be opened to extract solid residues in the collector to a solids output tank connected to the collector via a collector solids output valve. - an output circuit comprising a collector coupled to the solid residue outlet via a collector input valve and to a water output tank via a filter and a collector liquid output valve operable to be opened to cause a pressure drop at the solid residue outlet to draw solid residue out of the reactor chamber, - a water feed circuit connected via a collector valve to the collector, and comprising a pump operable to pump water from a water source into the collector at a pressure exceeding 22.1 MPa, and - a gas feed circuit connected via a gas supply valve to the collector, the gas supply valve operable to be opened to extract solid residues in the collector to a solids output tank connected to the collector via a collector solids output valve.
Safety device for a vehicle door handle, the device comprising: - an activation element configured to activate a latch by rotating around an activation axis from an initial position to a final position, wherein a collision on the safety device along a collision direction may cause the activation element to rotate from its initial position to its final position, - a blocking element configured, as a result of the collision, to rotate around a blocking axis, from a disengaged position in which the blocking element allows the activation element to reach its final position, to a blocking position in which the blocking element is intended to block the activation element at a blocked position located between the initial position and the final position, wherein the activation element comprises a receiving part, and the blocking element comprises a blocking part configured to interact with the receiving part in the blocking position and to be moved away from the receiving part in the disengaged position, characterized in that the receiving part comprises a first and a second interception walls and a blocking wall connected to the second interception wall, the first and the second interception walls being defined each by a plane surface, the planes of the two surfaces being secants, wherein during the collision, the blocking part cooperates successively with the first interception wall, the second interception wall and the blocking wall. - an activation element configured to activate a latch by rotating around an activation axis from an initial position to a final position, wherein a collision on the safety device along a collision direction may cause the activation element to rotate from its initial position to its final position, - a blocking element configured, as a result of the collision, to rotate around a blocking axis, from a disengaged position in which the blocking element allows the activation element to reach its final position, to a blocking position in which the blocking element is intended to block the activation element at a blocked position located between the initial position and the final position,
A control apparatus for an internal combustion engine, wherein the internal combustion engine includes a variable intake valve operating mechanism that changes a valve opening characteristic of an intake valve, and rich combustion is performed in the internal combustion engine to control an exhaust gas purification catalyst disposed in an exhaust passage, the control apparatus characterized by comprising: intake valve control means for controlling the valve opening characteristic of the intake valve to increase a flow rate of intake air in an early stage of an intake stroke when the rich combustion is performed, as compared to when non-rich combustion is performed. intake valve control means for controlling the valve opening characteristic of the intake valve to increase a flow rate of intake air in an early stage of an intake stroke when the rich combustion is performed, as compared to when non-rich combustion is performed.
A wet-process fiberboard panel, comprising: a honeycomb-shaped sheet (100, 140, 145, 150, 151) having opposite first and second surfaces (142, 146, 152) and a peripheral edge; the sheet comprising a plurality of generally sinusoidally shaped strips of molded fiberboard material each having spaced, oppositely-directed flat peaks, the peaks of adjacent strips being secured together to form a plurality of hexagonally shaped cells extending perpendicular to the surfaces of the sheet (100, 140, 145, 150); and the assembled strips being substantially rigid in directions transverse and parallel to the cells and the cells being resistant to collapse, characterised in that the honeycomb-shaped sheet (100, 140, 145, 150, 151) is formed with one or both surfaces being curved or faceted surfaces, by appropriate cutting of upright strips or lengths of sheet material comprising a plurality of generally sinusoidally shaped strips.