mhurhangee/ep-ind-claims huggingface dataset:
A truck comprising: a frame with an operator cab thereon; a rear drive axle having a differential, the differential connected to a drive shaft; the rear drive axle, the differential and the drive shaft being supported on the frame; and a fairing (28, 30, 128, 228) for directing air flow around the differential, the fairing (28, 30, 128, 228) attached to the frame forward of the drive axle and forward of the differential wherein the fairing further has a cut-out (52, 152, 254) to permit at least a portion of the drive shaft to pass there through, wherein the fairing extends beneath the rear drive axle and differential, wherein the fairing (30, 128) is capable of being in a non-deflected position when the truck is stopped, and being in a deflected position when the truck is moving and encounters air flow or an object, either of which causes the fairing (30, 128) to attain its deflected position, characterized in that the fairing forms an angle (θ) with respect to a line formed by an underside of the frame, and wherein the angle (θ) is less than 90 degrees. a frame with an operator cab thereon; a rear drive axle having a differential, the differential connected to a drive shaft; the rear drive axle, the differential and the drive shaft being supported on the frame; and a fairing (28, 30, 128, 228) for directing air flow around the differential, the fairing (28, 30, 128, 228) attached to the frame forward of the drive axle and forward of the differential wherein the fairing further has a cut-out (52, 152, 254) to permit at least a portion of the drive shaft to pass there through, wherein the fairing extends beneath the rear drive axle and differential, wherein the fairing (30, 128) is capable of being in a non-deflected position when the truck is stopped, and being in a deflected position when the truck is moving and encounters air flow or an object, either of which causes the fairing (30, 128) to attain its deflected position, characterized in that the fairing forms an angle (θ) with respect to a line formed by an underside of the frame, and wherein the angle (θ) is less than 90 degrees.
A solution for killing weeds comprising a herbicide admixed with a buffered amine oxide in water, wherein said herbicide is: 2,4-D, glyphosate, or a mixture of picloram and triclopyr and wherein said buffered amine oxide has a pH of 7.5 to 10.5. a herbicide admixed with a buffered amine oxide in water, wherein said herbicide is: 2,4-D, glyphosate, or a mixture of picloram and triclopyr and wherein said buffered amine oxide has a pH of 7.5 to 10.5. 2,4-D, glyphosate, or a mixture of picloram and triclopyr and wherein said buffered amine oxide has a pH of 7.5 to 10.5.
A device for raster-scan optoacoustic imaging, the device comprising: - a radiation source comprising at least one Raman laser source (11, 13), the radiation source being configured to generate a plurality of pulses of electromagnetic radiation, each of the pulses comprising portions of electromagnetic radiation at two or more distinct wavelengths, and at least one acousto-optic tunable filter configured to select, from at least one of the pulses, one of the portions of electromagnetic radiation at one of the wavelengths, - an irradiation unit configured to irradiate a region of interest of an object, in particular a biological tissue, with the selected portion of electromagnetic radiation of the at least one pulse, - a detection unit configured to detect acoustic waves emitted from the region of interest in response to irradiating the region of interest with the selected portion of electromagnetic radiation of the at least one pulse, and - a scanning unit configured to move the irradiation unit and detection unit, on the one hand, and/or the region of interest, on the other hand, along at least one dimension (x, y) relative to each other so as to position the irradiation unit and detection unit at a plurality of different locations along the at least one dimension (x, y) relative to the region of interest, and to control the detection unit to detect the acoustic waves at the plurality of locations. - a radiation source comprising at least one Raman laser source (11, 13), the radiation source being configured to generate a plurality of pulses of electromagnetic radiation, each of the pulses comprising portions of electromagnetic radiation at two or more distinct wavelengths, and at least one acousto-optic tunable filter configured to select, from at least one of the pulses, one of the portions of electromagnetic radiation at one of the wavelengths, - an irradiation unit configured to irradiate a region of interest of an object, in particular a biological tissue, with the selected portion of electromagnetic radiation of the at least one pulse, - a detection unit configured to detect acoustic waves emitted from the region of interest in response to irradiating the region of interest with the selected portion of electromagnetic radiation of the at least one pulse, and - a scanning unit configured to move the irradiation unit and detection unit, on the one hand, and/or the region of interest, on the other hand, along at least one dimension (x, y) relative to each other so as to position the irradiation unit and detection unit at a plurality of different locations along the at least one dimension (x, y) relative to the region of interest, and to control the detection unit to detect the acoustic waves at the plurality of locations.
A method of manufacturing a contact lens, wherein the method comprises calculating, using a computer system, a post-lens pressure profile, comprising performing a calculation based on a nonlinear finite-element model, wherein the nonlinear finite-element model comprises a lens model and an eye model, wherein the eye model comprises an eye front surface center node and is presented as a rigid, inflexible body with a shape representative of a particular patient's eye shape or a shape representative of a number of patients, wherein the lens model is represented as an elastic body modeled with solid elements and with a shape based on lens design or on measurements from actual lenses, wherein the lens model is capable of being in frictionless contact with the eye model and comprises a lens front surface, a lens rim and a lens back center node; characterized in that the method further comprises applying a centripetal stretch load to the lens rim and solving the resulting non-linear static equilibrium system, applying a displacement condition by displacing the lens back center node to coincide with the eye front surface center node and solving the resulting non-linear static equilibrium system, applying a pressure load to the lens front surface and solving the resulting non-linear static equilibrium system, again removing the central displacement condition and solving the resulting non-linear static equilibrium system, again removing the centripetal stretch load and solving the resulting non-linear static equilibrium system, analyzing whether the lens model is exhibiting a maximum corneal value and/or limbal peak value of less than 450Pa in a resulting post-lens pressure profile, and if acceptable, manufacturing the lens according to the lens model.
A method of making a personal care composition comprising the steps of: (a) providing a first layer and a second layer which each are fluid at elevated temperature; solid at ambient temperature; and visually distinctive from each other; (b) providing the first and second layers in fluid state at an elevated temperature in isolated vessels; (c) separately dispensing the first layer by a first nozzle and the second layer by a second nozzle into a same package while maintaining the elevated temperature, (d) cooling the dispensed composition for solidifying in the package, (e) rotating the package during the dispensing; the method being characterized in that (f) at least one of steps (i) through (iii) takes place during the dispensing; and (i) the dispensing of the first and second nozzles are started and/or completed at a different time point; (ii) the rotation of the package is completed prior to the completion of dispensing; (iii) the direction of rotation of the package is altered during the dispensing; (a) providing a first layer and a second layer which each are fluid at elevated temperature; solid at ambient temperature; and visually distinctive from each other; (b) providing the first and second layers in fluid state at an elevated temperature in isolated vessels; (c) separately dispensing the first layer by a first nozzle and the second layer by a second nozzle into a same package while maintaining the elevated temperature, (d) cooling the dispensed composition for solidifying in the package, (e) rotating the package during the dispensing; the method being characterized in that (f) at least one of steps (i) through (iii) takes place during the dispensing; and (i) the dispensing of the first and second nozzles are started and/or completed at a different time point; (ii) the rotation of the package is completed prior to the completion of dispensing; (iii) the direction of rotation of the package is altered during the dispensing; (i) the dispensing of the first and second nozzles are started and/or completed at a different time point; (ii) the rotation of the package is completed prior to the completion of dispensing; (iii) the direction of rotation of the package is altered during the dispensing;
A construction machine, comprising: a vehicle body frame; an engine that is mounted on the vehicle body frame; a radiator that is mounted at the rear of the vehicle body frame in a radiator chamber; a bulkhead that separates the engine and the radiator; a cover that covers the engine and the radiator; a radiator fan that is arranged at the rear of the vehicle body frame and discharges exhaust gas toward the rear of the vehicle body frame from the inner space of the cover; an injection device that injects a reducing agent into exhaust gas of the engine; characterized in further comprising a tank housing section that is arranged adjacent to a side surface of the radiator chamber, including an introduction section (34a, 35, 37) for introducing outside air and housing a tank for storing the reducing agent injected by the injection device; and a connection section (3a, 33) comprising a passage in the vehicle body frame and a tank housing passage provided in the tank housing section, that connects to the inner space of the tank housing section and the inner space below the cover, and allows the outside air to be captured and a pipe to pass through the connection section (3a, 33), the outside air having been introduced from the introduction section (34a, 35, 37) by the suction pressure of the radiator fan, the pipe supplying the reducing agent to the injection device. a vehicle body frame; an engine that is mounted on the vehicle body frame; a radiator that is mounted at the rear of the vehicle body frame in a radiator chamber; a bulkhead that separates the engine and the radiator; a cover that covers the engine and the radiator; a radiator fan that is arranged at the rear of the vehicle body frame and discharges exhaust gas toward the rear of the vehicle body frame from the inner space of the cover; an injection device that injects a reducing agent into exhaust gas of the engine; characterized in further comprising a tank housing section that is arranged adjacent to a side surface of the radiator chamber, including an introduction section (34a, 35, 37) for introducing outside air and housing a tank for storing the reducing agent injected by the injection device; and a connection section (3a, 33) comprising a passage in the vehicle body frame and a tank housing passage provided in the tank housing section, that connects to the inner space of the tank housing section and the inner space below the cover, and allows the outside air to be captured and a pipe to pass through the connection section (3a, 33), the outside air having been introduced from the introduction section (34a, 35, 37) by the suction pressure of the radiator fan, the pipe supplying the reducing agent to the injection device.
An autonomous mobile work system comprising: a frame; a housing connected to said frame, wherein said housing has an outer circumference and an open lower portion; a drive wheel, wherein said drive wheel is connected to said frame; a rotating blade assembly, wherein said rotating blade assembly is connected to said frame within said housing and is configured to cut vegetation, wherein said blade assembly includes a blade assembly axis of rotation; a single motor operably connected to said blade assembly, wherein said motor includes a motor output shaft, and said motor output shaft includes an output shaft axis of rotation; and a gear box comprising a planetary gear set operably connected to said drive wheel and said motor output shaft, wherein said planetary gear set comprises a ring gear having an outside diameter; wherein said single motor urges rotation of both said rotating blade assembly and said drive wheel, characterized in that said ring gear defines a plurality of cavities at said outside diameter, and said planetary gear set further comprises a locking shaft, wherein said locking shaft is configured to enter a space within one of said plurality of cavities, by rotating between an engaged position and a disengaged position. a frame; a housing connected to said frame, wherein said housing has an outer circumference and an open lower portion; a drive wheel, wherein said drive wheel is connected to said frame; a rotating blade assembly, wherein said rotating blade assembly is connected to said frame within said housing and is configured to cut vegetation, wherein said blade assembly includes a blade assembly axis of rotation; a single motor operably connected to said blade assembly, wherein said motor includes a motor output shaft, and said motor output shaft includes an output shaft axis of rotation; and a gear box comprising a planetary gear set operably connected to said drive wheel and said motor output shaft, wherein said planetary gear set comprises a ring gear having an outside diameter; wherein said single motor urges rotation of both said rotating blade assembly and said drive wheel, characterized in that said ring gear defines a plurality of cavities at said outside diameter, and said planetary gear set further comprises a locking shaft, wherein said locking shaft is configured to enter a space within one of said plurality of cavities, by rotating between an engaged position and a disengaged position.
A method for manufacturing a fibre metal laminate part, comprising: placing multiple metal sheets and fibre reinforced plastic plies above one another, the metal sheets being made of AlMgSc alloy and the fibre reinforced plastic plies comprising a thermoplastic matrix material; heating the metal sheets and the fibre reinforced plastic plies to temperature in a first temperature range to transfer the thermoplastic matrix material of the fibre reinforced plastic plies to a viscous state; pressing together the heated metal sheets and fibre reinforced plastic plies; and at least partially solidifying the thermoplastic matrix material of the fibre reinforced plastic plies by applying a temperature in a second temperature range to the metal sheets and the fibre reinforced plastic plies; characterized in that the method further includes a preparatory step in which a surface texture is generated on the metal sheets by at least laser structuring. placing multiple metal sheets and fibre reinforced plastic plies above one another, the metal sheets being made of AlMgSc alloy and the fibre reinforced plastic plies comprising a thermoplastic matrix material; heating the metal sheets and the fibre reinforced plastic plies to temperature in a first temperature range to transfer the thermoplastic matrix material of the fibre reinforced plastic plies to a viscous state; pressing together the heated metal sheets and fibre reinforced plastic plies; and at least partially solidifying the thermoplastic matrix material of the fibre reinforced plastic plies by applying a temperature in a second temperature range to the metal sheets and the fibre reinforced plastic plies; characterized in that the method further includes a preparatory step in which a surface texture is generated on the metal sheets by at least laser structuring.
An antifriction coating composition which comprises: (i) a resin binder, (ii) a polyamide thickener, (iii) solvent and (iv) a solid lubricant wherein the resin binder comprises a mixture of phenolic resin, epoxy resin and a silicone resin wherein the resin binder comprises 15 to 50% by weight, phenolic resin, 50 to 85% by weight epoxy resin, and 10 to 30%, silicone resin to a total of 100% by weight of the total binder components (excluding any solvent in which one or more of the constituents may be supplied). (i) a resin binder, (ii) a polyamide thickener, (iii) solvent and (iv) a solid lubricant 15 to 50% by weight, phenolic resin, 50 to 85% by weight epoxy resin, and 10 to 30%, silicone resin to a total of 100% by weight of the total binder components (excluding any solvent in which one or more of the constituents may be supplied).
Use of a treatment liquid comprising a surfactant as an active ingredient for desorption of a steroid included in cyclodextrin, wherein the surfactant is at least one selected from the group consisting of N-octanoyl-N-methylglucamine and 3-[(3-cholamidopropyl)dimethyl-ammonio]-1-propanesulfonate.
A method of reporting CSI information, characterized by comprising: receiving, by a terminal, an uplink channel resource configuration signaling and a Demodulation Reference Signal, DMRS, configuration signaling, sent by a base station, wherein the uplink channel resource configuration signaling comprises an indication of PRBs allocated to an uplink channel; wherein the DMRS configuration signaling comprises an indication of a number of first OFDM symbols allocated to DMRSs in each of the PRBs and of position/s of the first OFDM symbols in each of the PRBs configured by a system, the DMRSs being for uplink transmission from the terminal to the base station on the uplink channel, wherein the indication of the number of the first OFDM symbols is adapted to indicate a number among several different possibilities configured by the system; determining for each of the PRBs a mapping symbol set as a set of all OFDM symbols within each of the PRBs which are at one or both sides directly adjacent to each of the first OFDM symbols; measuring, by the terminal, a downlink channel, and calculating Channel State Information, CSI, according to a resulting of the measurement; coding, by the terminal, the CSI information, and mapping, for transmission, an information part containing Rank Indication, RI, information in the coded CSI information onto Resource Elements, REs, of at least one OFDM symbol in at least one of the mapping symbol set/s. receiving, by a terminal, an uplink channel resource configuration signaling and a Demodulation Reference Signal, DMRS, configuration signaling, sent by a base station, wherein the uplink channel resource configuration signaling comprises an indication of PRBs allocated to an uplink channel; wherein the DMRS configuration signaling comprises an indication of a number of first OFDM symbols allocated to DMRSs in each of the PRBs and of position/s of the first OFDM symbols in each of the PRBs configured by a system, the DMRSs being for uplink transmission from the terminal to the base station on the uplink channel, wherein the indication of the number of the first OFDM symbols is adapted to indicate a number among several different possibilities configured by the system; determining for each of the PRBs a mapping symbol set as a set of all OFDM symbols within each of the PRBs which are at one or both sides directly adjacent to each of the first OFDM symbols; measuring, by the terminal, a downlink channel, and calculating Channel State Information, CSI, according to a resulting of the measurement; coding, by the terminal, the CSI information, and mapping, for transmission, an information part containing Rank Indication, RI, information in the coded CSI information onto Resource Elements, REs, of at least one OFDM symbol in at least one of the mapping symbol set/s.
A cosmetic container including an impregnation member having a surface intaglio-patterned by laser beam machining, wherein an intaglio-pattern part having an intaglio pattern is formed, the intaglio pattern being formed as the surface of the impregnation member is burned by a laser to maintain an open cell structure, the impregnation member having the intaglio-pattern part formed on the surface thereof is impregnated with cosmetic material, and the intaglio-pattern part has a width (w) more than 1.0 mm and equal to or less than 5.0 mm and a depth (d) more than 1.0 mm and equal to or less than 8.0 mm.
A sensor assembly for a passenger conveying device, wherein the sensor assembly comprises: an optical fiber disposed along a length of a skirt board of the passenger conveying device; characterised in that the sensor assembly further comprises: a light source disposed at a first end of the optical fiber, incident light emitted by the light source being incident into the first end of the optical fiber, through an optical circulator, and the incident light being incident into the optical fiber substantially along a length direction of the optical fiber; and an optical receiver disposed at the first end of the optical fiber, the optical receiver receiving backwards scattered light from the optical fiber and being capable of sensing a signal indication of the backwards scattered light, wherein the optical fiber cooperates with a sensing element disposed along the skirt board such that the sensing element causes deformation of the optical fiber when the sensing element is subjected to a pressure, and the optical receiver is capable of sensing a change in the signal indication of the backward scattered light caused by the deformation of the optical fiber. an optical fiber disposed along a length of a skirt board of the passenger conveying device; characterised in that the sensor assembly further comprises: a light source disposed at a first end of the optical fiber, incident light emitted by the light source being incident into the first end of the optical fiber, through an optical circulator, and the incident light being incident into the optical fiber substantially along a length direction of the optical fiber; and an optical receiver disposed at the first end of the optical fiber, the optical receiver receiving backwards scattered light from the optical fiber and being capable of sensing a signal indication of the backwards scattered light, wherein the optical fiber cooperates with a sensing element disposed along the skirt board such that the sensing element causes deformation of the optical fiber when the sensing element is subjected to a pressure, and the optical receiver is capable of sensing a change in the signal indication of the backward scattered light caused by the deformation of the optical fiber. a light source disposed at a first end of the optical fiber, incident light emitted by the light source being incident into the first end of the optical fiber, through an optical circulator, and the incident light being incident into the optical fiber substantially along a length direction of the optical fiber; and an optical receiver disposed at the first end of the optical fiber, the optical receiver receiving backwards scattered light from the optical fiber and being capable of sensing a signal indication of the backwards scattered light, wherein the optical fiber cooperates with a sensing element disposed along the skirt board such that the sensing element causes deformation of the optical fiber when the sensing element is subjected to a pressure, and the optical receiver is capable of sensing a change in the signal indication of the backward scattered light caused by the deformation of the optical fiber.