mhurhangee/ep-ind-claims huggingface dataset:
Method for upgrading of biogas containing carbon dioxide comprising absorption of carbon dioxide from biogas containing carbon dioxide by means of an absorption liquid which is an amine based aqueous solution, wherein the absorption is carried out at a pressure of 1013-2000 hPa, and desorption of carbon dioxide from the absorption liquid containing carbon dioxide, wherein the desorption is carried out at a pressure of above 400 hPa absolute and below 600 hPa absolute, wherein the absorption liquid is recirculated in a closed system, and the absorption liquid containing carbon dioxide is heated using district heating during the desorption to at or above its boiling point, and wherein the carbon dioxide released by the desorption is dewatered using a catch-tank. absorption of carbon dioxide from biogas containing carbon dioxide by means of an absorption liquid which is an amine based aqueous solution, wherein the absorption is carried out at a pressure of 1013-2000 hPa, and desorption of carbon dioxide from the absorption liquid containing carbon dioxide, wherein the desorption is carried out at a pressure of above 400 hPa absolute and below 600 hPa absolute, wherein the absorption liquid is recirculated in a closed system, and the absorption liquid containing carbon dioxide is heated using district heating during the desorption to at or above its boiling point, and wherein the carbon dioxide released by the desorption is dewatered using a catch-tank.
An inkjet ink comprising: a metal complex dye; a polyoxyethylene based compound of at least one type selected from a group consisting of polyoxyalkylene glycols and polyoxyalkylene alkyl ethers and with which a number average molecular weight Mn is not less than 200; a tackifier of at least one type selected from a group consisting of terpene phenol resins and rosin esters and with which a hydroxyl value is not less than 30 mgKOH/g and not more than 70 mgKOH/g; a first solvent of at least one type selected from 2-butanone, acetone, 2-pentanone, 3-pentanone, 3-methyl-2-butanone, 2-methyl-4-pentanone, 2,6-dimethyl-4-heptanone, cyclohexanone, 4-hydroxy-4-methyl-pentan-2-one, 1,4-dioxane, 1,1-dimethyldiethyl ether, 2-ethoxyethanol, 2-butoxyethanol, 1-methoxy-2-propanol, 2-(2-ethoxyethoxy)ethanol, 2-(2-butoxyethoxy)ethanol, Ethyl acetate, methyl acetate, n-butyl acetate, sec-butyl acetate, pentyl ethanoate, propyl acetate, isopropyl ethanoate, and 2-(2-butoxyethoxy)ethyl acetate; and a second solvent being an alcohol including at least an alcohol with 1 to 3 carbon atoms selected from methanol, ethanol, 1-propanol, 2-propanol, 1-butanol, and 2-butanol. a metal complex dye; a polyoxyethylene based compound of at least one type selected from a group consisting of polyoxyalkylene glycols and polyoxyalkylene alkyl ethers and with which a number average molecular weight Mn is not less than 200; a tackifier of at least one type selected from a group consisting of terpene phenol resins and rosin esters and with which a hydroxyl value is not less than 30 mgKOH/g and not more than 70 mgKOH/g; a first solvent of at least one type selected from 2-butanone, acetone, 2-pentanone, 3-pentanone, 3-methyl-2-butanone, 2-methyl-4-pentanone, 2,6-dimethyl-4-heptanone, cyclohexanone, 4-hydroxy-4-methyl-pentan-2-one, 1,4-dioxane, 1,1-dimethyldiethyl ether, 2-ethoxyethanol, 2-butoxyethanol, 1-methoxy-2-propanol, 2-(2-ethoxyethoxy)ethanol, 2-(2-butoxyethoxy)ethanol, Ethyl acetate, methyl acetate, n-butyl acetate, sec-butyl acetate, pentyl ethanoate, propyl acetate, isopropyl ethanoate, and 2-(2-butoxyethoxy)ethyl acetate; and a second solvent being an alcohol including at least an alcohol with 1 to 3 carbon atoms selected from methanol, ethanol, 1-propanol, 2-propanol, 1-butanol, and 2-butanol.
A light emitting diode package structure, comprising: - a substrate (110, 310); - an LED (130, 330) disposed on the substrate (110, 310); - a first enclosure (120, 320) transparent to light from the LED, disposed on a surface of the substrate (110, 310) to form a first configuration area (121, 321) for accommodating the LED (130, 330) in a configuration to expose a top surface of the LED (130, 330); - a first package material (140, 340) transparent to the light from the LED, and disposed in the first configuration area (121, 321), and covering the LED (130, 330); - a second package material (160, 350) covering the enclosure (120, 320), the LED (130, 330), and the first package material (140, 340); and a first fluorescent material(161, 351) is on the second package material (160, 350). - a substrate (110, 310); - an LED (130, 330) disposed on the substrate (110, 310); - a first enclosure (120, 320) transparent to light from the LED, disposed on a surface of the substrate (110, 310) to form a first configuration area (121, 321) for accommodating the LED (130, 330) in a configuration to expose a top surface of the LED (130, 330); - a first package material (140, 340) transparent to the light from the LED, and disposed in the first configuration area (121, 321), and covering the LED (130, 330); - a second package material (160, 350) covering the enclosure (120, 320), the LED (130, 330), and the first package material (140, 340); and
A method for determining a path maximum transmission unit MTU P(n) size for transmission paths between edge nodes in a data communications network and for updating routing tables associated with routing and/or switching devices in said edge nodes, which are linked together with link interfaces L(i) constituting transmission paths P(n) for data packet transmission, each link interface L(i) having a link interface maximum transmission unit MTU L(i) size, said method comprises the steps of: - Acquiring a link interface maximum transmission unit MTU L(i) size for a link interface L(i); - Updating the routing table by calculating the path maximum transmission unit MTU P(n) size for each destination wherein the link interface L(i) for the acquired link interface maximum transmission unit MTU L(i) size is involved, wherein the updating comprises: - Calculating and selecting for each one of said destinations the lowest link interface maximum transmission unit MTU L(i) size of the link interfaces L(i) constituting a transmission path P(n) to said destination as the calculated maximum transmission unit MTU P(n) size; - Storing the calculated maximum transmission unit MTU P(n) size for the destination in the routing table. - Acquiring a link interface maximum transmission unit MTU L(i) size for a link interface L(i); - Updating the routing table by calculating the path maximum transmission unit MTU P(n) size for each destination wherein the link interface L(i) for the acquired link interface maximum transmission unit MTU L(i) size is involved, wherein the updating comprises: - Calculating and selecting for each one of said destinations the lowest link interface maximum transmission unit MTU L(i) size of the link interfaces L(i) constituting a transmission path P(n) to said destination as the calculated maximum transmission unit MTU P(n) size; - Storing the calculated maximum transmission unit MTU P(n) size for the destination in the routing table. - Calculating and selecting for each one of said destinations the lowest link interface maximum transmission unit MTU L(i) size of the link interfaces L(i) constituting a transmission path P(n) to said destination as the calculated maximum transmission unit MTU P(n) size; - Storing the calculated maximum transmission unit MTU P(n) size for the destination in the routing table.
A mounting method of an electromagnetic generator having a pendulum structure on an inner surface of a tire, the method comprising: adjusting an equivalent pendulum length of the electromagnetic generator such that an integer multiple of a natural wavelength λ of a pendulum determined by the equivalent pendulum length is not in agreement with both of an integer multiple of a circumferential length of the tire and a length of non-grounded part of the tire, which is obtained by substracting a ground contact length from the circumferential length of the tire, wherein in agreement with means k·λ=S, wherein k is a positive integer and S is the length of the non-grounded part of the tire, and mounting the electromagnetic generator with the adjusted equivalent pendulum length on the inner surface of the tire. adjusting an equivalent pendulum length of the electromagnetic generator such that an integer multiple of a natural wavelength λ of a pendulum determined by the equivalent pendulum length is not in agreement with both of an integer multiple of a circumferential length of the tire and a length of non-grounded part of the tire, which is obtained by substracting a ground contact length from the circumferential length of the tire, wherein in agreement with means k·λ=S, wherein k is a positive integer and S is the length of the non-grounded part of the tire, and mounting the electromagnetic generator with the adjusted equivalent pendulum length on the inner surface of the tire.
A method for managing, within a flow-based architecture, electrical power consumption in a portable communications device having a battery, a digital storage medium, and a display, the method comprising the steps of: retrieving a series of views from the portable communications device to thereby form a flow for presentation on the display; for each view of the series of views, determining performance information relating to the performance of the portable communications device while the view accesses resources of the portable communications device, and then storing the determined performance information for the view in the digital storage medium, wherein the performance information comprises at least one of a listing of resources used by the view and a listing of resources not used by the view; and upon subsequent retrieval of each view from the digital storage medium, powering down at least some of the resources not used by the view in response to the stored performance information to manage the electrical power consumption of the portable communications device. retrieving a series of views from the portable communications device to thereby form a flow for presentation on the display; for each view of the series of views, determining performance information relating to the performance of the portable communications device while the view accesses resources of the portable communications device, and then storing the determined performance information for the view in the digital storage medium, wherein the performance information comprises at least one of a listing of resources used by the view and a listing of resources not used by the view; and upon subsequent retrieval of each view from the digital storage medium, powering down at least some of the resources not used by the view in response to the stored performance information to manage the electrical power consumption of the portable communications device.
A method of detecting a structure in a field, said method comprising: providing an image of the field, analysing the image to obtain texture information, assigning to a plurality of areas of the image probability-values reflecting the likelihood that the respective area relates to a specific structure, characterized by assuming at least one geometric property of said specific structure, and establishing a most possible position parameter of said specific structure taking into account said probability-values and the assumed geometric property and whereby at least during learning or training step the image of the field is divided in upper section 28 and a lower section 29 and both sections 28, 29 will be analysed separately. providing an image of the field, analysing the image to obtain texture information, assigning to a plurality of areas of the image probability-values reflecting the likelihood that the respective area relates to a specific structure, characterized by assuming at least one geometric property of said specific structure, and establishing a most possible position parameter of said specific structure taking into account said probability-values and the assumed geometric property and whereby at least during learning or training step the image of the field is divided in upper section 28 and a lower section 29 and both sections 28, 29 will be analysed separately.
Sealing ring of a mechanical seal, having a sealing face (3, 4) in which at least one conveying structure is provided, which has at least one inflow channel and at least one outflow channel, the inflow channel being connected to a Medium side to be sealed, which is separated from a leakage side by the sealing ring (1, 2) and the outflow channel is not connected to the Medium side to be sealed and the inflow channel is not connected to the leakage side, characterised in that the outflow channel is without connection to the leakage side.
Application device for multicomponent materials, in particular multicomponent adhesives or multicomponent sealants, having: at least two cartridge receiving devices (13, 14) for receiving exchangeable cartridges (15, 16) containing material components to be mixed; an expulsion device for expelling the material components from the cartridges (15, 16); a mixing device which mixes the material components, wherein the mixing device comprises a rotary mixer which is driven via a drive shaft, characterized in that the drive shaft comprises at least one flexible portion having a first end and a second end, wherein the flexible portion is rotationally elastic, and in that the drive shaft is, at least in some sections, twisted and/or is twistable, wherein a maximum torsion angle measures at least 4°. at least two cartridge receiving devices (13, 14) for receiving exchangeable cartridges (15, 16) containing material components to be mixed; an expulsion device for expelling the material components from the cartridges (15, 16); a mixing device which mixes the material components, wherein the mixing device comprises a rotary mixer which is driven via a drive shaft, characterized in that the drive shaft comprises at least one flexible portion having a first end and a second end, wherein the flexible portion is rotationally elastic, and in that the drive shaft is, at least in some sections, twisted and/or is twistable, wherein a maximum torsion angle measures at least 4°.
Process for determining mycotoxin production in an interior environment comprising the steps of: a) collecting an air sample from the interior environment, and then b) detecting VOCs in the sample, characterized in that step b) includes a search for a chemical fingerprint comprising at least one target molecule which is a VOC associated with mycotoxin production, selected from the group comprising ylangene, D germacrene, 1,1-dimethylbutylbenzene, 1,1,2-trimethyl-propyl-benzene, 1-hexyltetradecylbenzene, tetratetracontane, 1-ethyldecylbenzene, hydroxytoluene butylate, 1-butyloctylbenzene and 1-propylnonylbenzene. a) collecting an air sample from the interior environment, and then b) detecting VOCs in the sample,
A self-balancing wheel device, comprising: a mounting block; a balancing sheet hinged by a hinge shaft through the side face of the mounting block; wherein the balancing sheet is provided with wheels arranged on two sides of the hinge shaft; wherein a mounting cavity is provided in the middle of the mounting block, and the mounting cavity is provided with a rotating column, the rotating shaft of the rotating column is parallel to the sliding direction of the mounting block, characterised in that the mounting block is provided with a mounting hole communicating with the mounting cavity, and the mounting block is further provided with a steering column inserted from the mounting hole into the rotating column. a mounting block; a balancing sheet hinged by a hinge shaft through the side face of the mounting block; wherein the balancing sheet is provided with wheels arranged on two sides of the hinge shaft; wherein a mounting cavity is provided in the middle of the mounting block, and the mounting cavity is provided with a rotating column, the rotating shaft of the rotating column is parallel to the sliding direction of the mounting block, characterised in that the mounting block is provided with a mounting hole communicating with the mounting cavity, and the mounting block is further provided with a steering column inserted from the mounting hole into the rotating column.
A method of processing a plurality of different starting samples in parallel, wherein the starting samples contain material obtained from a biological sample and have different target nucleic acids, the method comprising: conducting a nucleic acid amplification reaction according to a method comprising: a) providing a starting sample comprising a first target nucleic acid; b) segmenting at least part of the sample to provide a set of sample droplets in a continuous flow of immiscible carrier fluid through a channel, each of the droplets containing on average one or fewer copies of the first target nucleic acid and reagents sufficient to perform a polymerase chain reaction; c) providing a further starting sample comprising a second target nucleic acid different from the first target nucleic acid; d) segmenting at least part of the further sample to provide a set of further sample droplets in the continuous flow of immiscible carrier fluid through the channel, each of the further droplets containing on average one or fewer copies of the second target nucleic acid and reagents sufficient to perform a polymerase chain reaction; e) passing the droplets provided in step b) and the further droplets provided in step d) through a thermocycling process thereby allowing the target nucleic acid, if present, to be amplified in each one of the droplets and the further droplets; and f) detecting the presence or absence of, and/or determining the amount of, the amplified target nucleic acid in the droplets and the further droplets while flowing. a) providing a starting sample comprising a first target nucleic acid; b) segmenting at least part of the sample to provide a set of sample droplets in a continuous flow of immiscible carrier fluid through a channel, each of the droplets containing on average one or fewer copies of the first target nucleic acid and reagents sufficient to perform a polymerase chain reaction; c) providing a further starting sample comprising a second target nucleic acid different from the first target nucleic acid; d) segmenting at least part of the further sample to provide a set of further sample droplets in the continuous flow of immiscible carrier fluid through the channel, each of the further droplets containing on average one or fewer copies of the second target nucleic acid and reagents sufficient to perform a polymerase chain reaction; e) passing the droplets provided in step b) and the further droplets provided in step d) through a thermocycling process thereby allowing the target nucleic acid, if present, to be amplified in each one of the droplets and the further droplets; and f) detecting the presence or absence of, and/or determining the amount of, the amplified target nucleic acid in the droplets and the further droplets while flowing.
A soil evaluation system for evaluating characteristics of soil in a target region, comprising: a first sensor unit that includes a pair of electrode ends disposed in the soil and is adapted to provide an AC input electrical signal to the soil; a second sensor unit that includes a pair of electrode ends disposed in the soil, is adapted to acquire an output electrical signal due to the input electrical signal from the soil, and is spaced apart from the first sensor unit; and a control unit that is adapted to provide a control signal for controlling operations of the first sensor unit and the second sensor unit to the first sensor unit and the second sensor unit, adapted to acquire first information indicating a relationship between a frequency of the input electrical signal and an absolute value of impedance of the soil by using the input electrical signal and the output electrical signal, is adapted to calculate second information indicating a relationship between the frequency of the input electrical signal and a phase of the impedance of the soil by using the first information, and adapted to obtain an evaluation value of the soil by using the first information and the second information, wherein the control unit is adapted to obtain, as the second information, a change in the absolute value of the impedance with respect to a change in the frequency between two points of a first frequency and a second frequency according to a function that is the first information, as an operation for calculating the second information. a first sensor unit that includes a pair of electrode ends disposed in the soil and is adapted to provide an AC input electrical signal to the soil; a second sensor unit that includes a pair of electrode ends disposed in the soil, is adapted to acquire an output electrical signal due to the input electrical signal from the soil, and is spaced apart from the first sensor unit; and a control unit that is adapted to provide a control signal for controlling operations of the first sensor unit and the second sensor unit to the first sensor unit and the second sensor unit, adapted to acquire first information indicating a relationship between a frequency of the input electrical signal and an absolute value of impedance of the soil by using the input electrical signal and the output electrical signal, is adapted to calculate second information indicating a relationship between the frequency of the input electrical signal and a phase of the impedance of the soil by using the first information, and adapted to obtain an evaluation value of the soil by using the first information and the second information, wherein the control unit is adapted to obtain, as the second information, a change in the absolute value of the impedance with respect to a change in the frequency between two points of a first frequency and a second frequency according to a function that is the first information, as an operation for calculating the second information.
Refrigeration appliance with a refrigeration compartment (106, 108), in which a lower shelf and a beverage container tray are arranged, wherein the beverage container tray has a first receptacle (208, 912) for receiving a first beverage container with a first orientation and a second receptacle (210a-210c, 914a-914c) for receiving a second beverage container with a second orientation, wherein the first orientation differs from the second orientation, wherein the first receptacle (208, 912) and the second receptacle (210a-210c, 914a-914c) are formed by an arched surface section (212, 916) of a base body (202, 906) of the beverage container tray with a plurality of protrusions (214, 918) and indentations (216, 920), wherein the protrusions (214, 918) on a top side (204, 908) of the surface section (212, 916) form the first receptacle (208, 912) and the second receptacle (210a-210c, 914a-914c) and the indentations (216, 920) on a bottom side (206, 910) of the surface section (212, 916) form floor area sections (218, 922) for supporting the beverage container tray on the lower shelf, wherein the beverage container tray has a lower part (200, 902) and upper part with at least one receptacle (912, 914a-914c) for receiving a beverage container (500, 600), wherein the beverage container tray has a fastening device for fastening the top part to the bottom part (200, 902), and wherein the fastening device is embodied to fasten the top part to the bottom part (200, 902) in a plurality of positions (P1, P2, P3), characterised in that each position (P1, P2, P3) is assigned a variant and each variant has a different number of receptacles (208, 912, 210a-210c, 914a-914c) for beverage containers (500, 600).