mhurhangee/ep-ind-claims huggingface dataset:
Method for distributing the capacity of a communication satellite between the various beams intended to cover a given geographical zone, said zone being divided into a plurality of spots, each spot being irradiated by one given beam emitted by one radiating element of a satellite antenna and requiring a given capacity, said method being characterized in that it implements: - a first step of defining, for each beam, the capacity from which the beam must benefit on account of the density of exchanges occurring in the corresponding spot; - a second step of generating a table indicating, for a power amplifier having various power and operating bandwidth characteristics, the maximum number P i of beams that the amplifier is able to deliver and the average capacity allocated to each beam, depending on the various amplifier sharing schemes; - a third step of forming groups of beams, each group being characterized by the average value of the capacity of the beams forming the group in question, and determining the number of amplifiers required in each group to deliver all of the beams forming this group; - a fourth step of allocating available resources, during which step the method distributes the various beams between various amplifiers, the beams assigned to the same amplifier being determined in such a way that the average value of the capacity demanded by these beams is substantially equal to the reference average capacity computed for the group in question. - a first step of defining, for each beam, the capacity from which the beam must benefit on account of the density of exchanges occurring in the corresponding spot; - a second step of generating a table indicating, for a power amplifier having various power and operating bandwidth characteristics, the maximum number P i of beams that the amplifier is able to deliver and the average capacity allocated to each beam, depending on the various amplifier sharing schemes; - a third step of forming groups of beams, each group being characterized by the average value of the capacity of the beams forming the group in question, and determining the number of amplifiers required in each group to deliver all of the beams forming this group; - a fourth step of allocating available resources, during which step the method distributes the various beams between various amplifiers, the beams assigned to the same amplifier being determined in such a way that the average value of the capacity demanded by these beams is substantially equal to the reference average capacity computed for the group in question.
A method of modifying a vacuum-based substrate support comprising a plurality of vacuum orifices, comprising: determining the three-dimensional surface topography of the vacuum-based substrate support with an imaging module; obtaining a desired surface topography of the vacuum-based substrate support; generating an image based on the determined surface topography and the desired surface topography; and printing the generated image on the vacuum-based substrate support to cause the topography of at least some of the vacuum orifices to be modified. determining the three-dimensional surface topography of the vacuum-based substrate support with an imaging module; obtaining a desired surface topography of the vacuum-based substrate support; generating an image based on the determined surface topography and the desired surface topography; and printing the generated image on the vacuum-based substrate support to cause the topography of at least some of the vacuum orifices to be modified.
A method for identification of a site of fragmentation of an antibody, said method comprising: contacting a sample including at least one fragment of an antibody to a chromatographic system having a mixed-mode size-exclusion chromatography resin with an additional functionality; washing said mixed-mode size-exclusion chromatography resin using a mobile phase to provide an eluent with the at least one fragment of the antibody; determining molecular weight data of the at least one fragment of the antibody in said eluent using a mass spectrometer coupled to said chromatographic system; and correlating the molecular weight data of the at least one fragment of the antibody to data obtained from at least one known protein standard to identify the site of fragmentation of the antibody, characterized in that a concentration of salt in said mobile phase is selected on the basis of separating said at least one fragment of the antibody by charge and/or hydrophobicity. contacting a sample including at least one fragment of an antibody to a chromatographic system having a mixed-mode size-exclusion chromatography resin with an additional functionality; washing said mixed-mode size-exclusion chromatography resin using a mobile phase to provide an eluent with the at least one fragment of the antibody; determining molecular weight data of the at least one fragment of the antibody in said eluent using a mass spectrometer coupled to said chromatographic system; and correlating the molecular weight data of the at least one fragment of the antibody to data obtained from at least one known protein standard to identify the site of fragmentation of the antibody, characterized in that a concentration of salt in said mobile phase is selected on the basis of separating said at least one fragment of the antibody by charge and/or hydrophobicity.
A backlight for a display screen comprising: a light guide comprising at least one light entry face and a light exit face, wherein the light guide is configured to redirect light entering the light entry face towards the light exit face, wherein the light exit face is configured to be coupled to a back side of a display screen; a common lead frame comprising a first lead and a second lead isolated from each other; at least one visible light-emitting diode LED, configured to emit light in the visible range, wherein the at least one visible LED is arranged on the common lead frame and optically coupled to one of the at least one light entry face, wherein the at least one visible LED comprises a counter electrode (18+) contacted by the first lead and an electrode (18-) contacted by the second lead; and at least one infrared, IR, LED configured to emit light in the IR range, and provide illumination for the light exit face, wherein the at least one IR LED is arranged on the common lead frame and optically coupled to one of the at least one entry face, characterised in that the at least one IR LED comprises a counter electrode (20+) contacted by the second lead and an electrode (20-) contacted by the first lead, wherein the at least one visible LED and the at least one IR LED are contacted to the first lead and second lead with different polarities and thus activated by choosing a polarity of a voltage applied to the first lead and the second lead. a light guide comprising at least one light entry face and a light exit face, wherein the light guide is configured to redirect light entering the light entry face towards the light exit face, wherein the light exit face is configured to be coupled to a back side of a display screen; a common lead frame comprising a first lead and a second lead isolated from each other; at least one visible light-emitting diode LED, configured to emit light in the visible range, wherein the at least one visible LED is arranged on the common lead frame and optically coupled to one of the at least one light entry face, wherein the at least one visible LED comprises a counter electrode (18+) contacted by the first lead and an electrode (18-) contacted by the second lead; and at least one infrared, IR, LED configured to emit light in the IR range, and provide illumination for the light exit face, wherein the at least one IR LED is arranged on the common lead frame and optically coupled to one of the at least one entry face, characterised in that the at least one IR LED comprises a counter electrode (20+) contacted by the second lead and an electrode (20-) contacted by the first lead, wherein the at least one visible LED and the at least one IR LED are contacted to the first lead and second lead with different polarities and thus activated by choosing a polarity of a voltage applied to the first lead and the second lead.
A rotary damper having a first valve provided in a first oil passage, the rotary damper comprising: an oil chamber filled with oil; a vane located in the oil chamber; a groove which is formed in the vane and functions as a valve box of the first valve; a valve body of the first valve which moves while being in contact with a bottom surface of the groove; an elastic body which applies elasticity to the valve body, and causes the valve body to come into contact with a wall surface of the oil chamber when the oil does not flow; a second oil passage which circulates the oil between one surface side of the vane and the other surface side of the vane; and a second valve which is provided in the second oil passage, and reduces the amount of the oil passing through the second oil passage according to the pressure of the oil, wherein the bottom surface of the groove is a slope, and thereby the valve body which is in contact with the wall surface of the oil chamber when receiving pressure of the oil from one direction moves away from the wall surface of the oil chamber when receiving the pressure of the oil from an opposite direction; and wherein the elastic body functions as a valve body of the second valve. an oil chamber filled with oil; a vane located in the oil chamber; a groove which is formed in the vane and functions as a valve box of the first valve; a valve body of the first valve which moves while being in contact with a bottom surface of the groove; an elastic body which applies elasticity to the valve body, and causes the valve body to come into contact with a wall surface of the oil chamber when the oil does not flow; a second oil passage which circulates the oil between one surface side of the vane and the other surface side of the vane; and a second valve which is provided in the second oil passage, and reduces the amount of the oil passing through the second oil passage according to the pressure of the oil, wherein the bottom surface of the groove is a slope, and thereby the valve body which is in contact with the wall surface of the oil chamber when receiving pressure of the oil from one direction moves away from the wall surface of the oil chamber when receiving the pressure of the oil from an opposite direction; and wherein the elastic body functions as a valve body of the second valve.
An implantable medical device comprising: a housing wherein an opening is present in the housing; communication circuitry in the housing; a cover coupled to edges of the housing defining the opening to substantially close the opening; an antenna coupled to and deposited or printed on the cover, wherein the antenna is electrically coupled to the communication circuitry; and a header coupled to the housing, wherein the cover is covered by the header. a housing wherein an opening is present in the housing; communication circuitry in the housing; a cover coupled to edges of the housing defining the opening to substantially close the opening; an antenna coupled to and deposited or printed on the cover, wherein the antenna is electrically coupled to the communication circuitry; and a header coupled to the housing, wherein the cover is covered by the header.
A composition comprising (7-benzoylamino-heptyl)-{2-[4-(3,4,5-trihydroxy-6-hydroxymethyl-tetrahydro-pyran-2-yloxy)-phenylcarbamoyl]-ethyl}-carbamic acid tert- butyl ester, (7-d5-benzoylamino-heptyl)-[2-(4-hydroxy-phenylcarbamoyl)-ethyl]-carbamic acid tert -butyl ester, CHAPS, acarbose and a buffer adjusted to a pH of 4.0, wherein the molar ratio of (7-benzoylamino-heptyl)-{2-[4-(3,4,5-trihydroxy-6-hydroxymethyl-tetrahydro-pyran-2-yloxy)-phenylcarbamoyl]-ethyl}-carbamic acid tert -butyl ester to (7-d5-benzoylamino-heptyl)-[2-(4-hydroxy-phenylcarbamoyl)-ethyl]-carbamic acid tert -butyl ester is 100:1, the molar ratio of CHAPS to (7-benzoylamino-heptyl)-{2-[4-(3,4,5-trihydroxy-6-hydroxymethyl-tetrahydro-pyran-2-yloxy)-phenylcarbamoyl]-ethyl}-carbamic acid tert -butyl ester is 24.3:1, the molar ratio of acarbose to (7-benzoylamino-heptyl)-{2-[4-(3,4,5-trihydroxy-6-hydroxymethyl-tetrahydro-pyran-2-yloxy)-phenylcarbamoyl]-ethyl}-carbamic acid tert -butyl ester is 0.02:1, and the molar ratio of buffer to (7-benzoylamino-heptyl)-{2-[4-(3,4,5-trihydroxy-6-hydroxymethyl-tetrahydro-pyran-2-yloxy)-phenylcarbamoyl]-ethyl}-carbamic acid tert -butyl ester is 450:1.
An acoustic liner for a gas turbine engine, comprising: an acoustic panel that is curved about a central axis, the acoustic panel including, a support backing, a face sheet, and a cellular structure disposed between the support backing and the face sheet, the face sheet having elongated slots extending along respective slot centerlines in the plane of the face sheet, the slot centerlines being sloped at oblique angles to the central axis, characterized in that the face sheet varies in hardness. a support backing, a face sheet, and a cellular structure disposed between the support backing and the face sheet, the face sheet having elongated slots extending along respective slot centerlines in the plane of the face sheet, the slot centerlines being sloped at oblique angles to the central axis, characterized in that the face sheet varies in hardness.
An optical system, comprising: a negative lens (L13, L28, L43, L53, L63, L73, L83, L93) and a positive lens (L14, L29, L44, L54, L64, L74, L84, L94) adjacent to each other, wherein the following inequalities are satisfied: 0.00 ≤ DAB ≤ 1.00, and 0.80 ≤ RA/RB ≤ 1.20, where DAB[mm] denotes a distance on an optical axis between the negative lens and the positive lens, and RA and RB denote curvature radii of facing lens surfaces of the negative lens and the positive lens, respectively, and wherein the following inequalities are satisfied: 0.00 ≤ NA − NB ≤ 0.20, 0.00 ≤ ν A − νB ≤ 20.00, characterized in that: 4.2 ≤ dnA/dt − dnB/dt, where NA and NB denote refractive indices of the negative lens and the positive lens, respectively, with respect to a d-line, vA and vB denote Abbe numbers of the negative lens and the positive lens, respectively, with respect to the d-line, and dnA/dt [10 -6 /°C] and dnB/dt [10 -6 /°C] denote temperature coefficients of refractive indices of the negative lens and the positive lens, respectively, with respect to the d-line at 20°C to 40°C, and either dnA/dt or dnB/dt has a negative sign. a negative lens (L13, L28, L43, L53, L63, L73, L83, L93) and a positive lens (L14, L29, L44, L54, L64, L74, L84, L94) adjacent to each other, wherein the following inequalities are satisfied: 0.00 ≤ DAB ≤ 1.00, and 0.80 ≤ RA/RB ≤ 1.20, where DAB[mm] denotes a distance on an optical axis between the negative lens and the positive lens, and RA and RB denote curvature radii of facing lens surfaces of the negative lens and the positive lens, respectively, and wherein the following inequalities are satisfied: 0.00 ≤ NA − NB ≤ 0.20, 0.00 ≤ ν A − νB ≤ 20.00, characterized in that: 4.2 ≤ dnA/dt − dnB/dt, where NA and NB denote refractive indices of the negative lens and the positive lens, respectively, with respect to a d-line, vA and vB denote Abbe numbers of the negative lens and the positive lens, respectively, with respect to the d-line, and dnA/dt [10 -6 /°C] and dnB/dt [10 -6 /°C] denote temperature coefficients of refractive indices of the negative lens and the positive lens, respectively, with respect to the d-line at 20°C to 40°C, and either dnA/dt or dnB/dt has a negative sign.
A shading device, the shading device comprising at least: a box, a screen, the screen being arranged at least partly inside the box, in an assembled configuration of the shading device, and a motorised drive device, the screen being configured to be moved by means of the motorised drive device, the motorised drive device comprising at least: an electromechanical actuator, the electromechanical actuator comprising at least one electric motor, an electronic control unit, the electronic control unit being electrically connected to the electric motor, the electronic control unit being disposed inside the box, in the assembled configuration of the shading device, and a radio antenna, the radio antenna being electrically connected to the electronic control unit, characterised in that the shading device further comprises a support, the support comprising at least one housing, the support being arranged outside the box, in the assembled configuration of the shading device, and in that the radio antenna is arranged partly inside the housing of the support, in the assembled configuration of the shading device. the shading device comprising at least: a box, a screen, the screen being arranged at least partly inside the box, in an assembled configuration of the shading device, and a motorised drive device, the screen being configured to be moved by means of the motorised drive device, a box, a screen, the screen being arranged at least partly inside the box, in an assembled configuration of the shading device, and a motorised drive device, the screen being configured to be moved by means of the motorised drive device, the motorised drive device comprising at least: an electromechanical actuator, the electromechanical actuator comprising at least one electric motor, an electronic control unit, the electronic control unit being electrically connected to the electric motor, the electronic control unit being disposed inside the box, in the assembled configuration of the shading device, and a radio antenna, the radio antenna being electrically connected to the electronic control unit, an electromechanical actuator, the electromechanical actuator comprising at least one electric motor, an electronic control unit, the electronic control unit being electrically connected to the electric motor, the electronic control unit being disposed inside the box, in the assembled configuration of the shading device, and a radio antenna, the radio antenna being electrically connected to the electronic control unit, characterised in that the shading device further comprises a support, the support comprising at least one housing, the support being arranged outside the box, in the assembled configuration of the shading device, and in that the radio antenna is arranged partly inside the housing of the support, in the assembled configuration of the shading device.
A fitting arrangement for a sliding door, in particular for a lift and slide door, having a carriage which is suitable for displaceably supporting the sliding door on a rail and which has a carriage body and at least two rollers which are rotatably supported about a common axis at the carriage body and which are spaced apart from one another in the direction of the axis, wherein the two rollers each have a diameter which increases as the spacing from the respective other roller increases, characterized in that the fitting arrangement further comprises a rail having a running surface on which the at least two rollers can roll off, with the running surface defining a height of the rail, viewed in cross-section, which decreases toward both sides, viewed in cross-section.
A device for automatically extinguishing a fire or a fire outbreak for a battery compartment or a motor vehicle, this device consisting of a pipe which has an elongate shape, the pipe comprising a tubular wall delimiting an internal cavity, the pipe comprising an extinguishing fluid under pressure stored in said cavity, said wall comprising a thermoplastic material fusible at a temperature corresponding to the heat generated by a fire or a fire outbreak, the pipe having a preform and comprising at least two straight sections connected by an angled section so as to facilitate its installation in said vehicle battery compartment or said vehicle, characterised in that the pipe has two longitudinal ends which are closed by plugs attached and fixed at these ends so that the extinguishing fluid under pressure is completely stored in said cavity, one of these plugs comprising at least one fluid inlet and/or outlet port, and in that the pipe is thermoformable and its preform is imposed by thermoforming, said melting temperature being greater than or equal to 70°C.
A voice controlled surgical system comprising: a surgical system; a microphone coupled to the surgical system; and a voice controlled computer interface coupled with the surgical system configured to receive a request to invoke a voice command via the microphone, to listen for a voice command upon receipt of a valid request to invoke a voice command, to interpret a valid voice command into a command recognizeable by the surgical system upon receipt of the valid voice command, and to forward the command recognizeable by the surgical system to the surgical system for execution, characterized in that the voice controlled computer interface is configured to wait for a finite time period to receive the voice command after receipt of the valid request and to determine whether the finite time period has lapsed, and if so, to wait for another request for a voice command. a surgical system; a microphone coupled to the surgical system; and a voice controlled computer interface coupled with the surgical system configured to receive a request to invoke a voice command via the microphone, to listen for a voice command upon receipt of a valid request to invoke a voice command, to interpret a valid voice command into a command recognizeable by the surgical system upon receipt of the valid voice command, and to forward the command recognizeable by the surgical system to the surgical system for execution, characterized in that the voice controlled computer interface is configured to wait for a finite time period to receive the voice command after receipt of the valid request and to determine whether the finite time period has lapsed, and if so, to wait for another request for a voice command.
A manual override apparatus, comprising: a base to be mounted to an actuator; a drive member operatively coupled to the base and selectively engagable to a stem of the actuator to enable manual operation of the actuator in a first direction and a second direction, the stem having a lip formed by a recessed groove; a collar coupled to an end of the drive member; characterised in that the collar having an outer wall having a groove formed therein; and a clip to couple the stem to the collar, the clip sized to engage the groove of the collar and the recessed groove of the stem; and the clip is a removable U-shaped clip adapted to expand over the lip and snap fit into the recessed groove to couple the collar and the stem. a base to be mounted to an actuator; a drive member operatively coupled to the base and selectively engagable to a stem of the actuator to enable manual operation of the actuator in a first direction and a second direction, the stem having a lip formed by a recessed groove; a collar coupled to an end of the drive member; characterised in that the collar having an outer wall having a groove formed therein; and a clip to couple the stem to the collar, the clip sized to engage the groove of the collar and the recessed groove of the stem; and the clip is a removable U-shaped clip adapted to expand over the lip and snap fit into the recessed groove to couple the collar and the stem.
A method of producing a rare earth metal-based permanent magnet comprising the step of vapor deposition of an Al film containing Mg on the surface of the magnet, characterized in that the production method comprises the step of cooling the magnet from a high temperature of 160 °C or higher after the completion of the vapor deposition step inside the treating chamber of a deposition apparatus, wherein the magnet is rapidly cooled down at a cooling rate of 10 K/min or higher until the temperature of the magnet reaches at least 60 °C.