mhurhangee/ep-ind-claims huggingface dataset:
A cellular polyurethane foam composition for forming a cellular ceramic under fire conditions, the composition comprising: at least 40% by weight based on the total weight of the composition of a polyurethane; from 10% to 40% by weight based on the total weight of the composition of silicate mineral filler; from 5% to 20% by weight based on the total weight of the composition of at least one inorganic phosphate that forms a liquid phase at a temperature of no more than 800°C; from 1% to 5% by weight based on the total weight of the composition of heat expandable graphite; and wherein the total proportion of inorganic components constitutes in the range of from 20% to 60% by weight of the total composition, the amount of silicate mineral filler is at least 50% by weight based on the total weight of the filler mixture, the amount of inorganic phosphate is at least one fourth by weight of the filler content and the density of the polyurethane foam is in the range of from 150 to 500 kilograms per cubic metre. at least 40% by weight based on the total weight of the composition of a polyurethane; from 10% to 40% by weight based on the total weight of the composition of silicate mineral filler; from 5% to 20% by weight based on the total weight of the composition of at least one inorganic phosphate that forms a liquid phase at a temperature of no more than 800°C; from 1% to 5% by weight based on the total weight of the composition of heat expandable graphite; and wherein the total proportion of inorganic components constitutes in the range of from 20% to 60% by weight of the total composition, the amount of silicate mineral filler is at least 50% by weight based on the total weight of the filler mixture, the amount of inorganic phosphate is at least one fourth by weight of the filler content and the density of the polyurethane foam is in the range of from 150 to 500 kilograms per cubic metre.
Method for coating a turbomachine guide vane comprising a root and a tip, an extrados face and an intrados face connected to one another by a leading edge and a trailing edge, the method for coating being characterised in that it comprises the following steps: - completely covering one of the faces (105, 106) of the vane with a polymer coating of thickness provided with grooves, - removing the grooves from a part of the polymer coating in such a way that the polymer coating comprises a grooved zone and a non-grooved zone, - coating the non-grooved zone with a coat of paint of thickness such that the thickness of the coat of paint superimposed on the non-grooved zone is substantially equal to the thickness of the grooved zone. - completely covering one of the faces (105, 106) of the vane with a polymer coating of thickness provided with grooves, - removing the grooves from a part of the polymer coating in such a way that the polymer coating comprises a grooved zone and a non-grooved zone, - coating the non-grooved zone with a coat of paint of thickness such that the thickness of the coat of paint superimposed on the non-grooved zone is substantially equal to the thickness of the grooved zone.
An electrodic support structure for coaxial electrolytic cells suitable for housing a plurality of electrodes comprising: - a support plane made of insulating material provided with a plurality of housing seats suitable for housing said plurality of electrodes; - a partition member made of insulating material integral with or mechanically connected to said support plane; said partition member being a composite and continuous shaped member comprising a right-angled prism member equipped with a circular, elliptical, oval or polygonal shaped base with central symmetry; said right prism member having said base oriented in parallel to said support plane and being positioned at the centre of the base of said partition member placed at said support plane and being arranged orthogonally to said support plane; said partition member being provided with a plurality of positioning means suitable for positioning said plurality of electrodes, at least one housing seat of said plurality of housing seats being arranged along an edge portion of said base of said right-angled prism member. - a support plane made of insulating material provided with a plurality of housing seats suitable for housing said plurality of electrodes; - a partition member made of insulating material integral with or mechanically connected to said support plane;
A bi-functional catheter comprising: • a conduit, • a connector comprising a fluidic connection and an electrical connection, • an inner sheath forming the conduit enabling the catheter to be connected to a fluid reservoir, • an injection nozzle fastened to a distal end of the inner sheath, the injection nozzle forming an electrode, • and an outer sheath, surrounding the inner sheath, one of the inner sheath and the outer sheath being movable relative to the other one of the inner sheath and the outer sheath, characterized in that the electrode is connected to the electrical connection and a distal end of the electrode comprises an annulus having a flat distal surface. • a conduit, • a connector comprising a fluidic connection and an electrical connection, • an inner sheath forming the conduit enabling the catheter to be connected to a fluid reservoir, • an injection nozzle fastened to a distal end of the inner sheath, the injection nozzle forming an electrode, • and an outer sheath, surrounding the inner sheath, one of the inner sheath and the outer sheath being movable relative to the other one of the inner sheath and the outer sheath,
An additive manufacturing method, comprising: patterning a laser beam using a mirror array; and reflecting the patterned laser beam from the mirror array onto a powder to melt the powder, wherein the pattern corresponds to a portion of a layer of an article, characterized in that the patterned laser beam comprises a plurality of laser spots, and groups of 9-25 mirrors are configured to provide each laser spot of the patterned laser beam. patterning a laser beam using a mirror array; and reflecting the patterned laser beam from the mirror array onto a powder to melt the powder, wherein the pattern corresponds to a portion of a layer of an article, characterized in that the patterned laser beam comprises a plurality of laser spots, and groups of 9-25 mirrors are configured to provide each laser spot of the patterned laser beam.
A method comprising: receiving, at a media studio, first and second media units with respective first and second time stamps that are assigned based on a first clock cycle time associated with a first media device and a data transmission rate defined as a rate of streaming media units per time unit from the first media device; adjusting the second time stamp using the first clock cycle time, a second clock cycle time associated with the media studio, the second time stamp, and the transmission rate, wherein the second clock cycle time is different from the first clock cycle time; and assigning the adjusted second time stamp to the second media unit; wherein the adjusted second time stamp is a nearest possible time stamp to the second time stamp that is divisible by the second clock cycle time. receiving, at a media studio, first and second media units with respective first and second time stamps that are assigned based on a first clock cycle time associated with a first media device and a data transmission rate defined as a rate of streaming media units per time unit from the first media device; adjusting the second time stamp using the first clock cycle time, a second clock cycle time associated with the media studio, the second time stamp, and the transmission rate, wherein the second clock cycle time is different from the first clock cycle time; and assigning the adjusted second time stamp to the second media unit; wherein the adjusted second time stamp is a nearest possible time stamp to the second time stamp that is divisible by the second clock cycle time.
An aircraft landing gear shock absorber comprising: a first body slidably coupled to a second body via a first bearing such that the bodies can move relative to one another in a linear fashion to change the shock absorber between a relatively extended condition and a relatively compressed condition, the first bearing being provided on one of the bodies and defining a first bearing surface arranged to move in sliding engagement with a first counter-face portion of the other one of the bodies as the shock absorber is extended and compressed; a second bearing (24b, 48b) defining a second bearing surface arranged to move in sliding engagement with a second counter-face portion as the shock absorber is extended and compressed, characterised by: a first array of one or more magnets associated with the first body; and a second array of one or more magnets associated with the second body, the first and second magnet arrays being arranged to magnetically interact with one another to absorb compression or extension loads applied to the shock absorber, wherein the first bearing surface and the first counter-face portion each has a non-circular cross section profile such that the first bearing surface and the first counter-face portion can be brought into mutual engagement to inhibit axial rotation of the first body relative to the second body. a first body slidably coupled to a second body via a first bearing such that the bodies can move relative to one another in a linear fashion to change the shock absorber between a relatively extended condition and a relatively compressed condition, the first bearing being provided on one of the bodies and defining a first bearing surface arranged to move in sliding engagement with a first counter-face portion of the other one of the bodies as the shock absorber is extended and compressed; a second bearing (24b, 48b) defining a second bearing surface arranged to move in sliding engagement with a second counter-face portion as the shock absorber is extended and compressed, characterised by: a first array of one or more magnets associated with the first body; and a second array of one or more magnets associated with the second body, the first and second magnet arrays being arranged to magnetically interact with one another to absorb compression or extension loads applied to the shock absorber, a first array of one or more magnets associated with the first body; and a second array of one or more magnets associated with the second body, the first and second magnet arrays being arranged to magnetically interact with one another to absorb compression or extension loads applied to the shock absorber, wherein the first bearing surface and the first counter-face portion each has a non-circular cross section profile such that the first bearing surface and the first counter-face portion can be brought into mutual engagement to inhibit axial rotation of the first body relative to the second body.
Method for selecting an APRIL-binding antibody suitable to detect APRIL in the context of a human sample, comprising: - providing a library of candidate APRIL-binding antibodies; - selecting APRIL-binding antibodies from the library by means of affinity selection using a target peptide immobilized on a solid support, said target peptide comprising a number of APRIL epitopes and an APRIL receptor-binding region of APRIL; characterized in that, the target peptide is human APRIL, which is in interaction with a peptide, the shielding peptide, comprising an APRIL-binding region of an APRIL receptor, wherein said APRIL receptor is BCMA or TACI. - providing a library of candidate APRIL-binding antibodies; - selecting APRIL-binding antibodies from the library by means of affinity selection using a target peptide immobilized on a solid support, said target peptide comprising a number of APRIL epitopes and an APRIL receptor-binding region of APRIL;
A method performed by a user equipment in a communication system, the method comprising: receiving a handover command message from a base station, the handover command message including information on a normal resource pool; in case that the handover command message includes information on an exceptional resource pool, randomly selecting a resource, for transmitting data, from the exceptional resource pool; transmitting the data based on the selected resource from the exceptional resource pool; selecting a resource for transmitting data from the normal resource pool based on a sensing result on the normal resource pool; and transmitting the data based on the selected resource from the normal resource pool. receiving a handover command message from a base station, the handover command message including information on a normal resource pool; in case that the handover command message includes information on an exceptional resource pool, randomly selecting a resource, for transmitting data, from the exceptional resource pool; transmitting the data based on the selected resource from the exceptional resource pool; selecting a resource for transmitting data from the normal resource pool based on a sensing result on the normal resource pool; and transmitting the data based on the selected resource from the normal resource pool.
A method of controlling an optical transition of an electrochromic device from a starting optical state to an ending optical state, the method comprising: (a) applying a drive voltage for driving the electrochromic device to transition from the starting optical state to the ending optical state, wherein the drive voltage is applied to bus bars of the electrochromic device and allowing the optical transition to proceed for an incremental period of time and characterized in that it further comprises (b) reducing a magnitude of the voltage applied to the bus bars to a magnitude less than the drive voltage; (c) after reducing the magnitude of the voltage applied to the bus bars, measuring current flow to the bus bars; (d) determining whether the current flow measured in (c) has a characteristic indicating that the optical transition is complete; (e) if it is determined in (d) that the optical transition is not yet complete, increasing the magnitude of the voltage applied to the bus bars to the drive voltage and applying the drive voltage for an additional duration of time, and, after again allowing the optical transition to proceed for an incremental period of time returning to step (b) above; and (f) when it is determined that the optical transition is complete, transitioning or maintaining the voltage applied to the bus bars to a hold voltage for the duration of the ending optical state, wherein the hold voltage maintains the electrochromic device in equilibrium at the ending optical state. (a) applying a drive voltage for driving the electrochromic device to transition from the starting optical state to the ending optical state, wherein the drive voltage is applied to bus bars of the electrochromic device and allowing the optical transition to proceed for an incremental period of time and characterized in that it further comprises (b) reducing a magnitude of the voltage applied to the bus bars to a magnitude less than the drive voltage; (c) after reducing the magnitude of the voltage applied to the bus bars, measuring current flow to the bus bars; (d) determining whether the current flow measured in (c) has a characteristic indicating that the optical transition is complete; (e) if it is determined in (d) that the optical transition is not yet complete, increasing the magnitude of the voltage applied to the bus bars to the drive voltage and applying the drive voltage for an additional duration of time, and, after again allowing the optical transition to proceed for an incremental period of time returning to step (b) above; and (f) when it is determined that the optical transition is complete, transitioning or maintaining the voltage applied to the bus bars to a hold voltage for the duration of the ending optical state, wherein the hold voltage maintains the electrochromic device in equilibrium at the ending optical state.
Plant for an additive production method, having a process chamber, in which is provided a device for accommodating a powder bed, where the device • has a top-open powder chamber with a bottom structure and a side boundary for the powder bed, • has a heating device for the powder chamber • and has a thermal insulation structure which surrounds the powder chamber on the side boundary, characterized in that the insulation structure is of trough-shaped design, wherein • the device for accommodating the powder bed is inserted into a trough-shaped recess of the insulation structure, • for an actuator for moving the bottom structure, a recess or opening is provided in the insulation structure. • has a top-open powder chamber with a bottom structure and a side boundary for the powder bed, • has a heating device for the powder chamber • and has a thermal insulation structure which surrounds the powder chamber on the side boundary, • the device for accommodating the powder bed is inserted into a trough-shaped recess of the insulation structure, • for an actuator for moving the bottom structure, a recess or opening is provided in the insulation structure.
Gas valve for dosing a gaseous fuel into an intake tract of an internal combustion engine, comprising an electromagnet and an armature which interacts with the electromagnet and which can perform stroke movements and which is forced, by the spring force of at least one closing spring (6, 7), in the direction of a valve seat element which forms at least one valve seat (4, 5), characterized in that the armature is of multi-part form and comprises at least one armature flat part and one armature plunger part, which are guided in axially movable fashion one inside the other.
A data calibration method for calibrating an LED driver by a NFC reader, wherein the LED driver contains a NFC tag, comprising the following steps carried out by the NFC reader: writing data to the NFC tag when the LED driver is powered on, wherein the data comprises parameters related to the calibration of the LED driver; updating a status of the NFC tag to a first status, wherein the first status is a ready status; checking the status of the NFC tag until it is a third status, wherein the third status is a done or an error status; reading a feedback from the NFC tag; processing the feedback; and updating the status of the NFC tag to a fourth status, wherein the fourth status is an idle status. writing data to the NFC tag when the LED driver is powered on, wherein the data comprises parameters related to the calibration of the LED driver; updating a status of the NFC tag to a first status, wherein the first status is a ready status; checking the status of the NFC tag until it is a third status, wherein the third status is a done or an error status; reading a feedback from the NFC tag; processing the feedback; and updating the status of the NFC tag to a fourth status, wherein the fourth status is an idle status.
Aircraft comprising at least one landing gear (16, 18) having at least one wheel (24, 24') configured to roll on the ground when the aircraft is moving on the ground, at least one electric drive system configured to drive the wheel in rotation and at least one energy receiving element configured to power the electric drive system and cooperate with an energy emitting element present on the ground, the energy receiving and emitting elements (28, 32) forming an electrical energy transfer device allowing, when the aircraft is moving on the ground, a transfer of electrical energy from the energy emitting element to the energy receiving element, characterized in that the energy receiving element comprises at least one caster configured to roll on the ground and keep it at a given distance from the ground.
Weft feeder device with a winding drum having an adjustable winding circumference for storing weft thread, the winding drum comprising a base structure and at least one moveable finger (7, 8, 9), wherein the at least one moveable finger (7, 8, 9) is mounted on the base structure so as to be moveable over the full length of a movement path, wherein the weft feeder device comprises a sensor device, and wherein the sensor device comprises a first sensor system for measuring a relative movement of at least one moving element of the weft feeder device, characterized in that the sensor device comprises a second sensor system for determining a first reference position of at least one moving element of the weft feeder device, and in that the sensor device is arranged for determining the actual position of the at least one moveable finger (7, 8, 9) based on the determined first reference position and the measured relative movement.
A method of analysing particles of ore which include a constituent, the method comprising the steps of: (a) exposing the particles to x-radiation having a range of x-radiation energies; (b) detecting x-radiation intensities at two different energy levels or at two different ranges of energies transmitted through the particles; and (c) determining the concentration of the constituent occurring in each of the particles from the respective detected intensities by calculating a value indicative of the concentration of the constituent by performing a numerical operation using the detected intensities at the different energy levels or different energy ranges and at least one constant, characterized in that said at least one constant is selected so that an influence of thickness of the ore particles on the calculated value is reduced. (a) exposing the particles to x-radiation having a range of x-radiation energies; (b) detecting x-radiation intensities at two different energy levels or at two different ranges of energies transmitted through the particles; and (c) determining the concentration of the constituent occurring in each of the particles from the respective detected intensities by calculating a value indicative of the concentration of the constituent by performing a numerical operation using the detected intensities at the different energy levels or different energy ranges and at least one constant,