mhurhangee/ep-ind-claims huggingface dataset:
A method for making a silicone hydrogel contact lens, wherein the method comprises: a. introducing into a mold a water-based lens-forming composition comprising (i) a polysiloxane-containing vinylic monomer or macromer; (ii) optionally a hydrophilic vinylic monomer; (iii) a polysiloxane-containing surfactant, and (iv) water, wherein the polysiloxane-containing surfactant is liquid at room temperature, free of actinically-polymerizable groups, and a copolymer comprising from 10% to 40% by weight of one or more polysiloxane segments and from 90% to 60% by weight hydrophilic units and/or segments, wherein the polysiloxane-containing surfactant is present in an amount sufficient to dissolve the polysiloxane-containing vinylic monomer or macromer in water to form a substantially clear solution; b. curing the composition to produce the lens; and c. removing the lens from the mold. a. introducing into a mold a water-based lens-forming composition comprising (i) a polysiloxane-containing vinylic monomer or macromer; (ii) optionally a hydrophilic vinylic monomer; (iii) a polysiloxane-containing surfactant, and (iv) water, wherein the polysiloxane-containing surfactant is liquid at room temperature, free of actinically-polymerizable groups, and a copolymer comprising from 10% to 40% by weight of one or more polysiloxane segments and from 90% to 60% by weight hydrophilic units and/or segments, wherein the polysiloxane-containing surfactant is present in an amount sufficient to dissolve the polysiloxane-containing vinylic monomer or macromer in water to form a substantially clear solution; b. curing the composition to produce the lens; and c. removing the lens from the mold.
A spectacle device for capturing at least one parameter of at least one eye (10l, 10r) of a test person wearing the spectacle device, the spectacle device comprising a frame configured to fix the spectacle device to the head of the test person, at least one first capturing unit (3l, 3r) configured to optically capture the at least one parameter of the at least one eye (10l, 10r), and a second capturing unit having an optical capture range which at least partly corresponds to an optical capture range of the at least one eye (10l, 10r), characterised in that the second capturing unit is configured to output data concerning a field of view (FOV1, FOV2) of the second capturing unit whereby the field of view is correlated with the optical capture range of the second capturing unit for a specific orientation of the spectacle device in space, and whereby, further on, the field of view (FOV1, FOV2) of the second capturing unit is adjustable.
A micro-LED display chip, comprising: a substrate supporting an array of pixel drivers; and two or more strata stacked on top of the substrate and the array of pixel drivers, with a planar interface between adjacent strata, each stratum containing an array of micro LEDs, wherein the arrays of micro LEDs for each stratum are electrically connected to the array of pixel drivers, wherein each stratum comprises: an epitaxial structure forming the micro LEDs; lower contact metal pads electrically connected to a bottom of the micro LEDs; and upper contact metal pads electrically connected to a top of the micro LEDs; wherein the lower contact metal pads are also electrically connected to the array of pixel drivers, and wherein the upper contact metal pads are also electrically connected to a common electrode on top of all the strata. a substrate supporting an array of pixel drivers; and two or more strata stacked on top of the substrate and the array of pixel drivers, with a planar interface between adjacent strata, each stratum containing an array of micro LEDs, wherein the arrays of micro LEDs for each stratum are electrically connected to the array of pixel drivers, wherein each stratum comprises: an epitaxial structure forming the micro LEDs; lower contact metal pads electrically connected to a bottom of the micro LEDs; and upper contact metal pads electrically connected to a top of the micro LEDs; wherein the lower contact metal pads are also electrically connected to the array of pixel drivers, and wherein the upper contact metal pads are also electrically connected to a common electrode on top of all the strata. an epitaxial structure forming the micro LEDs; lower contact metal pads electrically connected to a bottom of the micro LEDs; and upper contact metal pads electrically connected to a top of the micro LEDs; wherein the lower contact metal pads are also electrically connected to the array of pixel drivers, and wherein the upper contact metal pads are also electrically connected to a common electrode on top of all the strata.
A hydraulic roll stabilisation system of a two-track vehicle, comprising a divided anti-roll bar on at least one axle, the stabiliser halves of which can be twisted in relation to each other by means of a hydraulic rotary actuator in that a hydraulic medium conveyed by a pump is introduced in a targeted manner through hydraulic lines (5, 10F, 10R, 12-1, 12-1) having a plurality of valves (7F, 7R, 11, 13) that can be controlled by an electronic control unit into two working chambers (F1, F2, R1, R2) of the rotary actuator that act against each other, characterised in that the pump is driven by electric motor and thus the delivery rate of the pump can be controlled, and in that, in each hydraulic line (12-1, 12-2) leading to one of the two working chambers (F1, F2, R1, R2) of the rotary actuator, a switch valve associated with said working chamber is provided, which switch valves are opened or closed in a targeted manner by the electronic control unit under consideration of the driving state of the vehicle and the value of the hydraulic differential pressure between the two working chambers.
A method of obtaining of bulk nanocomposite of Lead Telluride and Cadmium Telluride (PbTe-CdTe) by mixing compounds in temperature in which at least one compound is in a liquid form and subsequently solidifying, characterized in that it comprises a step of preparation of an input material including mixing elemental Lead ( Pb), elemental Tellurium ( Te) and Cadmium telluride (CdTe) compound to obtain input material and placing input material in a quartz ampoule, wherein Lead ( Pb) and Tellurium ( Te) are provided in equal atomic proportion and mass of Cadmium Telluride (CdTe) compound is provided in range of 2% to 10% of total molar mass of input material, a step of heating input material to temperature of at least 30°C higher than melting temperature of compound Lead Telluride ( PbTe) but of at least 100°C lower than melting temperature of compound Cadmium Telluride ( CdTe), during a time of at least 48 hours to obtain dissolved material, a step of rocking the furnace with dissolved material for at least 15 minutes with frequency of at least 0.5 Hz to obtain homogenized dissolved material, a step of lowering ambient temperature to a value lower than melting temperature of Lead Telluride by less than 100°C within a time shorter than 10 s, a step of solidifying of the homogenized dissolved material for at least 3 hours in temperature lower than melting temperature of lead telluride by less than 100°C to obtain the nanocomposite ( PbTe-CdTe), a step of cooling for at least 10 hours. a step of preparation of an input material including mixing elemental Lead ( Pb), elemental Tellurium ( Te) and Cadmium telluride (CdTe) compound to obtain input material and placing input material in a quartz ampoule, wherein Lead ( Pb) and Tellurium ( Te) are provided in equal atomic proportion and mass of Cadmium Telluride (CdTe) compound is provided in range of 2% to 10% of total molar mass of input material, Lead ( Pb) and Tellurium ( Te) are provided in equal atomic proportion and mass of Cadmium Telluride (CdTe) compound is provided in range of 2% to 10% of total molar mass of input material, a step of heating input material to temperature of at least 30°C higher than melting temperature of compound Lead Telluride ( PbTe) but of at least 100°C lower than melting temperature of compound Cadmium Telluride ( CdTe), during a time of at least 48 hours to obtain dissolved material, a step of rocking the furnace with dissolved material for at least 15 minutes with frequency of at least 0.5 Hz to obtain homogenized dissolved material, a step of lowering ambient temperature to a value lower than melting temperature of Lead Telluride by less than 100°C within a time shorter than 10 s, a step of solidifying of the homogenized dissolved material for at least 3 hours in temperature lower than melting temperature of lead telluride by less than 100°C to obtain the nanocomposite ( PbTe-CdTe), a step of cooling for at least 10 hours.
An automated method for diagnostic testing of a generator set used in association with a refrigerated container for transporting cargo, the generator set including a plurality of components and a generator set controller, the method characterized by comprising: the generator set controller determining whether the generator set has entered a geo-fenced area; the generator set controller determining whether a pre-trip inspection is due to be performed on the generator set; the generator set controller performing the pre-trip inspection on the generator set when the generator set controller determines that the generator set is located within the geo-fenced area and the pre-trip inspection is due to be performed; determining whether the plurality of components is operating within acceptable limits; and generating a pre-trip inspection report based on the plurality of components, such that the generator set is approved for further use. the generator set controller determining whether the generator set has entered a geo-fenced area; the generator set controller determining whether a pre-trip inspection is due to be performed on the generator set; the generator set controller performing the pre-trip inspection on the generator set when the generator set controller determines that the generator set is located within the geo-fenced area and the pre-trip inspection is due to be performed; determining whether the plurality of components is operating within acceptable limits; and generating a pre-trip inspection report based on the plurality of components, such that the generator set is approved for further use.
A wireless power transmitting apparatus for detecting a foreign object, the apparatus comprising: a primary core block being coupled with a secondary core block equipped in a wireless power receiving apparatus through magnetic induction or magnetic resonance and configured for transmitting wireless power to the wireless power receiving apparatus by the magnetic induction or the magnetic resonance; an electric driving unit connected to the primary core block and configured for applying an alternating current signal required for the primary core block to transmit the wireless power; a control unit being connected to the electric driving unit and configured for generating a control signal for controlling the AC signal; and a current measurement unit configured for measuring a current flowing into the primary core block and obtaining a current measurement value converted to a numeric value, wherein the control unit detects a foreign object based on a result of comparing the current measurement value with a reference value characterized in the power transmitting apparatus receiving a control error packet power increase request message from the power receiving apparatus. a primary core block being coupled with a secondary core block equipped in a wireless power receiving apparatus through magnetic induction or magnetic resonance and configured for transmitting wireless power to the wireless power receiving apparatus by the magnetic induction or the magnetic resonance; an electric driving unit connected to the primary core block and configured for applying an alternating current signal required for the primary core block to transmit the wireless power; a control unit being connected to the electric driving unit and configured for generating a control signal for controlling the AC signal; and a current measurement unit configured for measuring a current flowing into the primary core block and obtaining a current measurement value converted to a numeric value, wherein the control unit detects a foreign object based on a result of comparing the current measurement value with a reference value characterized in the power transmitting apparatus receiving a control error packet power increase request message from the power receiving apparatus.
A method of placing fiber tape on a substrate (28, 145) having a feature, using an automatic fiber tape placement head, comprising: feeding a plurality of fiber tapes from a corresponding plurality of tape supply devices through a plurality of guides to a plurality of threading mechanisms; using the threading mechanisms to sequentially start feeding of the tapes to a compaction roller; applying and compacting the tapes on the substrate (28, 145) using the compaction roller to form a band of tapes; and, characterised by simultaneously cutting the ends of all of the tapes in the band in a single stroke, using a single actuator and a single cutting blade of a tape cutting mechanism, positioned between the threading mechanisms and the compaction roller, the single cutting blade having a cutting edge spanning the entire band of the tapes. feeding a plurality of fiber tapes from a corresponding plurality of tape supply devices through a plurality of guides to a plurality of threading mechanisms; using the threading mechanisms to sequentially start feeding of the tapes to a compaction roller; applying and compacting the tapes on the substrate (28, 145) using the compaction roller to form a band of tapes; and, characterised by simultaneously cutting the ends of all of the tapes in the band in a single stroke, using a single actuator and a single cutting blade of a tape cutting mechanism, positioned between the threading mechanisms and the compaction roller, the single cutting blade having a cutting edge spanning the entire band of the tapes.
Disc brake with a sealing device, the disc brake comprising a brake calliper, which encompasses a brake disc and in which are located two brake pads for acting together with the brake disc if a braking force is applied by an application device via at least one pressure pad connected to a threaded pipe unit, wherein the sealing device comprises at least one bellows, which is connected to the pressure pad and axially located on the brake calliper, characterised in that the bellows has an outer reinforcing ring with an external groove, which is in engagement with projections directly or indirectly connected to the brake calliper.
A method of partitioning an aqueous test sample, the method comprising: providing a first film comprising an array of discrete stems each extending away from a first major surface thereof; providing a second film comprising an array of wells that are mated with the stems of the first film, characterized by submerging the mated stems and wells in an aqueous test sample; separating the first film from the second film to remove the stems from the wells; and during the removal of the stems, creating one or more voids inside the wells to suction the aqueous test sample into the wells and fill the wells. providing a first film comprising an array of discrete stems each extending away from a first major surface thereof; providing a second film comprising an array of wells that are mated with the stems of the first film, characterized by submerging the mated stems and wells in an aqueous test sample; separating the first film from the second film to remove the stems from the wells; and during the removal of the stems, creating one or more voids inside the wells to suction the aqueous test sample into the wells and fill the wells.
Circuit arrangement for controlling an inductive displacement measurement sensor, wherein the displacement measurement sensor comprises a sensor coil, which is supplemented by means of a capacitor (C par) to form an oscillating circuit, wherein the circuit arrangement comprises an oscillator for generating an excitation signal (U Erreger), which excites the oscillating circuit to oscillate, wherein a DC voltage U temp is superimposed on the excitation signal (U Erreger), and wherein the DC voltage U temp changes when the temperature of the sensor coil changes, wherein the sensor coil is connected to a controllable resistor (R var), wherein the circuit arrangement comprises a comparator, which compares the DC voltage U temp with a reference voltage (Utref), and wherein, based on the result of the comparison, the comparator outputs a control voltage (U r), which controls the controllable resistor (R var).
A round forage baler having a baling duty cycle and a wrapping/ejection duty cycle, the baler including: (a) a transverse rotary pickup structured for continuous operation; (b) a rotary chopper structured to provide a continuous stream of chopped compressed forage into an accumulation chamber; (c)the accumulation chamber including opposed side walls, a rearward wall and a down-sloped active floor structured to contain the continuous stream of chopped forage and retain the stream of chopped forage during both the baling and the wrapping/ejection cycles; (d) a transverse chopper exit slot between the rotary chopper and the chamber structured to deliver a continuous input stream of compressed chopped forage upward into a forward portion of the accumulation chamber against a back pressure; (e) a transverse rotary rake adjacent the rearward wall of the accumulation chamber; (f) a single transverse exit slot between the active floor and the transverse rotary rake; (g) a rotary drive structured to drive the active floor and the rotary rake together during the baling duty cycle at a differential speed between a surface speed of the active floor and a throughput speed of the rotary rake; and (h) a downstream conveying surface structured to support raked and decompressed forage material in transport from said exit slot rearward to a baler. (a) a transverse rotary pickup structured for continuous operation; (b) a rotary chopper structured to provide a continuous stream of chopped compressed forage into an accumulation chamber; (c)the accumulation chamber including opposed side walls, a rearward wall and a down-sloped active floor structured to contain the continuous stream of chopped forage and retain the stream of chopped forage during both the baling and the wrapping/ejection cycles; (d) a transverse chopper exit slot between the rotary chopper and the chamber structured to deliver a continuous input stream of compressed chopped forage upward into a forward portion of the accumulation chamber against a back pressure; (e) a transverse rotary rake adjacent the rearward wall of the accumulation chamber; (f) a single transverse exit slot between the active floor and the transverse rotary rake; (g) a rotary drive structured to drive the active floor and the rotary rake together during the baling duty cycle at a differential speed between a surface speed of the active floor and a throughput speed of the rotary rake; and (h) a downstream conveying surface structured to support raked and decompressed forage material in transport from said exit slot rearward to a baler.
A method of measurement by glow discharge spectrometry of the elementary and/or molecular chemical composition of a solid sample comprising at least one layer of organic material (13, 33), comprising the following steps: - placing said sample in a tube-shaped glow discharge lamp; - injecting into the discharge lamp a gaseous mixture comprising at least one rare gas and gaseous oxygen, the concentration of gaseous oxygen being comprised between 1 and 10 mass % of the gaseous mixture, applying an electric discharge of the radiofrequency type to the electrodes of said discharge lamp to generate a glow discharge plasma, the plasma being confined inside the tube of said discharge lamp, and exposing said layer of organic material to said plasma so as to obtain a crater of erosion in depth and a speed of etching of the organic layer higher than the speed of etching produced by a glow discharge plasma in the presence of said rare gas with no oxygen; - measuring the elementary and/or molecular chemical composition of said at least one layer of organic material (13, 33) of the sample as a function of the depth of erosion in the layer of organic material (13, 33) with a submicron-resolution in depth by means of an optical emission spectrometer or a mass spectrometer, the spectrometer using at least one signal representative of an ionized species and/or an excited species of said plasma confined inside the tube of the glow discharge lamp. - placing said sample in a tube-shaped glow discharge lamp; - injecting into the discharge lamp a gaseous mixture comprising at least one rare gas and gaseous oxygen, the concentration of gaseous oxygen being comprised between 1 and 10 mass % of the gaseous mixture, applying an electric discharge of the radiofrequency type to the electrodes of said discharge lamp to generate a glow discharge plasma, the plasma being confined inside the tube of said discharge lamp, and exposing said layer of organic material to said plasma so as to obtain a crater of erosion in depth and a speed of etching of the organic layer higher than the speed of etching produced by a glow discharge plasma in the presence of said rare gas with no oxygen; - measuring the elementary and/or molecular chemical composition of said at least one layer of organic material (13, 33) of the sample as a function of the depth of erosion in the layer of organic material (13, 33) with a submicron-resolution in depth by means of an optical emission spectrometer or a mass spectrometer, the spectrometer using at least one signal representative of an ionized species and/or an excited species of said plasma confined inside the tube of the glow discharge lamp.
The use of an aerolysin nanopore for the electrical detection of peptides, proteins separated by at least one amino acid in a preparation where said nanopore is inserted into a lipid membrane which is subjected to a difference in potential between -60mV and -10 mV, in a reaction medium comprising an alkali metal halide electrolyte solution with a concentration between 2M and 5M, and at a temperature between 3 °C and 33 °C, and where said use is intended to differentiate said peptides, proteins according to their length, their mass and their sequence.
A vehicle seat base comprising a generally concave seat pan and side plates bonded to the seat pan for mounting the seat pan to the vehicle wherein the seat pan is formed of a composite material and has, relative to the direction of movement of the vehicle, a front face, a rear face, two lateral side faces and a bottom face, and wherein the side plates extend from the front towards the rear of the seat pan and the bond extends along at least part of the length of each of the side plates, characterised in that the front face, rear face and two lateral side faces all extend generally downwardly towards the bottom face, the front, rear and lateral side faces (6, 8, 10) being at least in part planar and at least in part tapering inwardly and being configured when in use to receive and support together with the bottom face at least a part of the buttocks or the thighs of a person sitting on the seat, the upper edges of the front, rear and lateral side faces (6, 8, 10) together defining a circumferential lip of the seat pan which extends around the circumference of the seat pan.