mhurhangee/ep-ind-claims huggingface dataset:
A water- and oil-repellent comprising an aqueous emulsion dispersed a fluorine-containing copolymer having as a copolymerization composition: (a) a perfluoroalkylalkyl acrylate represented by the general formula: C n F 2n+1 C m H 2m OCOCH=CH 2 (wherein n represents 4, 5, or 6; and m represents 1, 2, 3, or 4), (b) a perfluoroalkylalkyl methacrylate represented by the general formula: C n F 2n+1 C m H 2m OCOC(CH 3)=CH 2 (wherein n represents 4, 5, or 6; and m represents 1, 2, 3, or 4), (c) at least one of vinylidene chloride, stearyl acrylate, stearyl methacrylate, benzyl acrylate, and benzyl methacrylate and (d) a cross-linkable group-containing polymerizable monomer. (a) a perfluoroalkylalkyl acrylate represented by the general formula: C n F 2n+1 C m H 2m OCOCH=CH 2 (wherein n represents 4, 5, or 6; and m represents 1, 2, 3, or 4), (b) a perfluoroalkylalkyl methacrylate represented by the general formula: C n F 2n+1 C m H 2m OCOC(CH 3)=CH 2 (wherein n represents 4, 5, or 6; and m represents 1, 2, 3, or 4), (c) at least one of vinylidene chloride, stearyl acrylate, stearyl methacrylate, benzyl acrylate, and benzyl methacrylate and (d) a cross-linkable group-containing polymerizable monomer.
A vehicle lamp lens adapted to transmit light that is emitted from a light emitting member, including a base wall that has a light input surface adapted to face the light emitting member and centered at an optical axis which is parallel to a front-rear direction, and a base surface centered at the optical axis, disposed in front of said light input surface for reflecting the light which is propagated from said light input surface, and having a plurality of parabolic base sections, and a light output wall that extends forwardly from a front end of said base wall, that cooperates with said base wall to define a lens space, and that has an inner surface, an outer surface disposed opposite to said inner surface, and a light output surface connected between front ends of said inner and outer surfaces (31, 32), said outer surface being formed with a plurality of microstructures that are disposed proximate to said base wall for reflecting the light, which is reflected from said base surface, toward said light output surface, each of said microstructures having a parabolic first surface portion that has a first virtual focus, said first virtual focuses of said first surface portions of said microstructures being located at the same point; wherein each of said base sections has a second virtual focus, said second virtual focuses being located at the same point, characterized in that said second virtual focuses of said base sections are further away from said light input surface than the light emitting member, and are not located on the optical axis.
Printing process for printing an ink pattern on a substrate based on an available pattern layout, in which the pattern layout defines a desired layout of the ink pattern to be printed comprising the steps of: - providing an inkjet system comprising a framework for holding components of the inkjet system, a print head assembly for ejecting droplets of ink on a substrate, wherein the print head assembly is mounted to the framework, a scanning unit for scanning a printed ink pattern on a substrate, wherein the scanning unit is mounted to the framework of the inkjet system and control electronics for controlling the inkjet system; - providing a substrate to be printed; - generating an input image for allocating dot positions of the ink pattern to be printed by the printhead assembly which input image is based on the pattern layout; - printing an ink pattern onto the substrate based on the input image by the printhead assembly of the inkjet system; - scanning the printed ink pattern by the scanning unit of the inkjet system for obtaining a scan image of the printed ink pattern; - carrying out an in-line quality inspection on board of the inkjet system which is controlled by the control electronics of the inkjet system by comparing the scan image with the pattern layout to detect any print defects in the printed ink pattern and providing a decision on an approval or a rejection of the printed ink pattern on the substrate; and - in case of an approval conveying the substrate from the inkjet system to a subsequent processing station, in particular an etch station, for further finishing the substrate or in case of a rejection discharging the substrate. - providing an inkjet system comprising a framework for holding components of the inkjet system, a print head assembly for ejecting droplets of ink on a substrate, wherein the print head assembly is mounted to the framework, a scanning unit for scanning a printed ink pattern on a substrate, wherein the scanning unit is mounted to the framework of the inkjet system and control electronics for controlling the inkjet system; - providing a substrate to be printed; - generating an input image for allocating dot positions of the ink pattern to be printed by the printhead assembly which input image is based on the pattern layout; - printing an ink pattern onto the substrate based on the input image by the printhead assembly of the inkjet system; - scanning the printed ink pattern by the scanning unit of the inkjet system for obtaining a scan image of the printed ink pattern; - carrying out an in-line quality inspection on board of the inkjet system which is controlled by the control electronics of the inkjet system by comparing the scan image with the pattern layout to detect any print defects in the printed ink pattern and providing a decision on an approval or a rejection of the printed ink pattern on the substrate; and - in case of an approval conveying the substrate from the inkjet system to a subsequent processing station, in particular an etch station, for further finishing the substrate or in case of a rejection discharging the substrate.
A method for uplink communication between a terminal and a multi-RAT wireless communication network comprising one or more base stations (12, 14, 13), the method comprising: in the multi-RAT wireless communication network, configuring radio bearers, each radio bearer to be carried by one or more radio access technologies, RATs, among a plurality of RATs available to the terminal, and associating logical channels with radio bearers by assigning to each radio bearer one or more logical channels; characterised by in the terminal, transmitting one or more buffer status reports wherein at least one of the buffer status reports contains information on data to be sent on a first set of logical channels associated with a first set of said radio bearers where the first set of radio bearers is to be carried by more than one RAT. in the multi-RAT wireless communication network, configuring radio bearers, each radio bearer to be carried by one or more radio access technologies, RATs, among a plurality of RATs available to the terminal, and associating logical channels with radio bearers by assigning to each radio bearer one or more logical channels; characterised by configuring radio bearers, each radio bearer to be carried by one or more radio access technologies, RATs, among a plurality of RATs available to the terminal, and associating logical channels with radio bearers by assigning to each radio bearer one or more logical channels; characterised by in the terminal, transmitting one or more buffer status reports wherein at least one of the buffer status reports contains information on data to be sent on a first set of logical channels associated with a first set of said radio bearers where the first set of radio bearers is to be carried by more than one RAT. transmitting one or more buffer status reports wherein at least one of the buffer status reports contains information on data to be sent on a first set of logical channels associated with a first set of said radio bearers where the first set of radio bearers is to be carried by more than one RAT.
A radiofrequency generator, comprising: a housing; a high-power circuit including a power amplifier; a low-power circuit; a cooling air duct dividing the housing into at least two compartments including a high-power compartment and a low-power compartment, wherein the high-power circuit is disposed within the high-power compartment and the low-power circuit is disposed within the low-power compartment; and a fan inlet at one end of the housing and a cooling air outlet at an opposed end of the housing, wherein cooling air passes from the fan inlet to the cooling air outlet within the cooling air duct; wherein the low-power circuit comprises a control circuit for generating control signals for controlling at least one transistor of the power amplifier; and wherein the cooling air duct comprises an air flow guidance plate comprising a distribution of cooling air holes allowing cooling air to pass between the low-power compartment and the cooling air duct; characterized in that the air flow guidance plate is shaped to reduce a cross-sectional area of the cooling air duct adjacent to the low power circuit, thereby forming a reduced cross-sectional area region of the cooling air duct, wherein the distribution of cooling air holes is located in the reduced cross-sectional area region. a housing; a high-power circuit including a power amplifier; a low-power circuit; a cooling air duct dividing the housing into at least two compartments including a high-power compartment and a low-power compartment, wherein the high-power circuit is disposed within the high-power compartment and the low-power circuit is disposed within the low-power compartment; and a fan inlet at one end of the housing and a cooling air outlet at an opposed end of the housing, wherein cooling air passes from the fan inlet to the cooling air outlet within the cooling air duct; wherein the low-power circuit comprises a control circuit for generating control signals for controlling at least one transistor of the power amplifier; and wherein the cooling air duct comprises an air flow guidance plate comprising a distribution of cooling air holes allowing cooling air to pass between the low-power compartment and the cooling air duct; characterized in that the air flow guidance plate is shaped to reduce a cross-sectional area of the cooling air duct adjacent to the low power circuit, thereby forming a reduced cross-sectional area region of the cooling air duct, wherein the distribution of cooling air holes is located in the reduced cross-sectional area region.
An optoelectronic display device comprising: a blue light-emitting backlight unit; an array of pixels in the optical path of the backlight unit, the array of pixels comprising at least one red sub-pixel, at least one green sub-pixel, and at least one blue-sub-pixel; and a solid film comprising red-emitting quantum dots and a blue light-absorbing material in a red sub-pixel, a solid film comprising green-emitting quantum dots and a blue light-absorbing material in a green sub-pixel, or both, wherein the blue light-absorbing material preferentially absorbs blue light relative to red light or green light, characterized in that the blue light-absorbing material transfers energy to the quantum dots when the device is in operation, and at least one solid film has an optical density at a wavelength of 450 nm of at least 0.3. a blue light-emitting backlight unit; an array of pixels in the optical path of the backlight unit, the array of pixels comprising at least one red sub-pixel, at least one green sub-pixel, and at least one blue-sub-pixel; and a solid film comprising red-emitting quantum dots and a blue light-absorbing material in a red sub-pixel, a solid film comprising green-emitting quantum dots and a blue light-absorbing material in a green sub-pixel, or both, wherein the blue light-absorbing material preferentially absorbs blue light relative to red light or green light, characterized in that the blue light-absorbing material transfers energy to the quantum dots when the device is in operation, and at least one solid film has an optical density at a wavelength of 450 nm of at least 0.3.
An optical super-elevation device comprising: a modular housing including a first mounting bracket configured to fixedly mount to a weapon body of a weapon such that a line-of-sight of a weapon sighting unit to a target passes through the optical super-elevation device; an elevation follower mirror rotatably mounted within the housing; a mirror actuator coupled to the elevation follower mirror and configured to counter-rotate the elevation follower mirror at an angular rate opposite to an elevation rate of the weapon to maintain the line of sight of the weapon sighting unit to a target and passing through the super-elevation device during super-elevation of the weapon a position sensor configured to provide mirror position information and weapon position information; and a controller coupled to the position sensor and to the mirror actuator, the controller configured to receive the mirror position information and the weapon position information from the position sensor and to control the mirror actuator to control the angular rate of the elevation follower mirror based on the mirror position information and the weapon position information. a modular housing including a first mounting bracket configured to fixedly mount to a weapon body of a weapon such that a line-of-sight of a weapon sighting unit to a target passes through the optical super-elevation device; an elevation follower mirror rotatably mounted within the housing; a mirror actuator coupled to the elevation follower mirror and configured to counter-rotate the elevation follower mirror at an angular rate opposite to an elevation rate of the weapon to maintain the line of sight of the weapon sighting unit to a target and passing through the super-elevation device during super-elevation of the weapon a position sensor configured to provide mirror position information and weapon position information; and a controller coupled to the position sensor and to the mirror actuator, the controller configured to receive the mirror position information and the weapon position information from the position sensor and to control the mirror actuator to control the angular rate of the elevation follower mirror based on the mirror position information and the weapon position information.
A row unit for use with an agricultural planting implement and capable of planting a variety of seed types in a single field, characterized in that the row unit comprises: a seed meter comprising: a. a substantially circular, rotatable seed drum; b. a plurality of seed paths (415A, 415B, 415C, 415D) comprising a plurality of seed Z apertures spaced about the seed drum; c. a seed exit path; and d. a discharge mechanism selectively operable with at least one of the plurality of seed paths such that operation of the discharge mechanism with a seed path (415A, 415B, 415C, 415D) will discharge a seed variety associated with said path from the seed cells to the seed exit path; and a seed to ground system for directing the selected seed variety associated with the selected seed path to the ground for planting. a seed meter comprising: a. a substantially circular, rotatable seed drum; b. a plurality of seed paths (415A, 415B, 415C, 415D) comprising a plurality of seed Z apertures spaced about the seed drum; c. a seed exit path; and d. a discharge mechanism selectively operable with at least one of the plurality of seed paths such that operation of the discharge mechanism with a seed path (415A, 415B, 415C, 415D) will discharge a seed variety associated with said path from the seed cells to the seed exit path; and a. a substantially circular, rotatable seed drum; b. a plurality of seed paths (415A, 415B, 415C, 415D) comprising a plurality of seed Z apertures spaced about the seed drum; c. a seed exit path; and d. a discharge mechanism selectively operable with at least one of the plurality of seed paths such that operation of the discharge mechanism with a seed path (415A, 415B, 415C, 415D) will discharge a seed variety associated with said path from the seed cells to the seed exit path; and a seed to ground system for directing the selected seed variety associated with the selected seed path to the ground for planting.
A method for the treatment of a carbon steel comprising the steps of: a) at least one thermal treatment of the carbon steel, selected from carburizing, carbonitriding and tempering, performed in a treatment furnace; b) a subsequent thermal treatment of passivation/blueing of the carbon steel treated in step a), said subsequent thermal treatment being performed directly in said furnace of the treatment of step a), at a temperature comprised between 800°C and 900°C, in an atmosphere comprising nitrogen and at least one of carbon dioxide, nitrous oxide, or mixtures thereof, wherein the composition of the atmosphere of the treatment furnace is adjusted by varying the flow-rates of nitrogen and at least one of carbon dioxide, nitrous oxide or mixtures thereof that enter a gas mixer to prepare a mixture of gas that is fed into said furnace during ste b). a) at least one thermal treatment of the carbon steel, selected from carburizing, carbonitriding and tempering, performed in a treatment furnace; b) a subsequent thermal treatment of passivation/blueing of the carbon steel treated in step a), said subsequent thermal treatment being performed directly in said furnace of the treatment of step a), at a temperature comprised between 800°C and 900°C, in an atmosphere comprising nitrogen and at least one of carbon dioxide, nitrous oxide, or mixtures thereof, wherein the composition of the atmosphere of the treatment furnace is adjusted by varying the flow-rates of nitrogen and at least one of carbon dioxide, nitrous oxide or mixtures thereof that enter a gas mixer to prepare a mixture of gas that is fed into said furnace during ste b).
A bipolar overvoltage battery pulser comprising: a pulse generator configured to produce a positive pulsed voltage and a negative pulsed voltage; a positive pulsed voltage driver configured to convert the positive pulsed voltage to a positive pulsed voltage waveform; a negative pulsed voltage driver configured to convert the negative pulsed voltage to a negative pulsed voltage waveform; and a pulsed voltage distributor configured to merge the positive pulsed voltage waveform and the negative pulsed voltage waveform into a pulsed voltage waveform and to apply the pulsed voltage waveform across terminals of a battery, wherein the pulsed voltage waveform comprises at least one positive voltage pulse having a leading edge and a positive pulse amplitude followed by at least one negative voltage pulse having a trailing edge and a negative pulse amplitude, wherein a rise time (T T) of the leading edge and a rise time (T T) of the trailing edge are each less than a relaxation time of an electrolytic solution of the battery. a pulse generator configured to produce a positive pulsed voltage and a negative pulsed voltage; a positive pulsed voltage driver configured to convert the positive pulsed voltage to a positive pulsed voltage waveform; a negative pulsed voltage driver configured to convert the negative pulsed voltage to a negative pulsed voltage waveform; and a pulsed voltage distributor configured to merge the positive pulsed voltage waveform and the negative pulsed voltage waveform into a pulsed voltage waveform and to apply the pulsed voltage waveform across terminals of a battery,
Method of producing a nitrogen-enriched organic fertilizer, characterized by the following steps: a) providing animal manure, b) spreading the animal manure on an air-permeable base up to a height not exceeding a predefined maximum height of 2 metres, c) incubating the animal manure at a temperature of 15 °C to 30 °C for a first period of time of 1 week to 10 weeks, while passing air through the spread animal manure and the air-permeable base, where the animal manure has a moisture content of 60 % or more during the first period of time, the incubating resulting in an increase in the mass of fungi from the Coprinus group in the animal manure, d) admixing the incubated animal manure with a nitrogen-containing organic liquid having a solids content of at least 50 % and a nitrogen content of at least 2 % after the first period of time has elapsed, and e) drying the incubated animal manure that has been mixed with the nitrogen-containing organic liquid, wherein only previously incubated animal manure can be added to the animal manure, but additionally no microorganisms are added. a) providing animal manure, b) spreading the animal manure on an air-permeable base up to a height not exceeding a predefined maximum height of 2 metres, c) incubating the animal manure at a temperature of 15 °C to 30 °C for a first period of time of 1 week to 10 weeks, while passing air through the spread animal manure and the air-permeable base, where the animal manure has a moisture content of 60 % or more during the first period of time, the incubating resulting in an increase in the mass of fungi from the Coprinus group in the animal manure, d) admixing the incubated animal manure with a nitrogen-containing organic liquid having a solids content of at least 50 % and a nitrogen content of at least 2 % after the first period of time has elapsed, and e) drying the incubated animal manure that has been mixed with the nitrogen-containing organic liquid, wherein only previously incubated animal manure can be added to the animal manure, but additionally no microorganisms are added.
A compound eco-friendly stove, comprising: a main body, which has a top opening that is provided with a first cover and a second cover, the first cover and the second cover being arranged to define an airflow passage therebetween; a baking tray support, which is arranged in the top opening, the baking tray support receiving and supporting a baking tray thereon, portions of the baking tray support that are located at two sides of the baking tray being formed with multiple through holes; a burner assembly, which is disposed in the main body at a location below the baking tray support; a grill grate, which is disposed in the main body at a location below the burner assembly; a grease pan, which is disposed in the main body at a location below the grill grate; and a lift handle, which is mounted to the second cover, wherein a space above the burner assembly functions as an oven for baking food, while a space below the burner assembly is simultaneously used as a grill so as to achieve the purposes of being multifunctional, saving energy, and eco-friendliness. a main body, which has a top opening that is provided with a first cover and a second cover, the first cover and the second cover being arranged to define an airflow passage therebetween; a baking tray support, which is arranged in the top opening, the baking tray support receiving and supporting a baking tray thereon, portions of the baking tray support that are located at two sides of the baking tray being formed with multiple through holes; a burner assembly, which is disposed in the main body at a location below the baking tray support; a grill grate, which is disposed in the main body at a location below the burner assembly; a grease pan, which is disposed in the main body at a location below the grill grate; and a lift handle, which is mounted to the second cover, wherein a space above the burner assembly functions as an oven for baking food, while a space below the burner assembly is simultaneously used as a grill so as to achieve the purposes of being multifunctional, saving energy, and eco-friendliness.