mhurhangee/ep-ind-claims huggingface dataset:
A method for producing a thermally conductive sheet, the method comprising: a step of obtaining a thermally conductive composition by mixing a reactive liquid resin, which forms a rubbery or gelatinous matrix when crosslinked, a volatile liquid having a boiling point 10°C or more higher than a curing temperature of the reactive liquid resin, and a thermally conductive filler which contains carbon fibers; an orientation step of orienting the carbon fibers in a particular direction; a step of forming a molded body by crosslinking and curing the reactive liquid resin at a temperature 10°C or more lower than the boiling point of the volatile liquid; and a step of evaporating the volatile liquid by heating the molded body, wherein these steps are performed sequentially. a step of obtaining a thermally conductive composition by mixing a reactive liquid resin, which forms a rubbery or gelatinous matrix when crosslinked, a volatile liquid having a boiling point 10°C or more higher than a curing temperature of the reactive liquid resin, and a thermally conductive filler which contains carbon fibers; an orientation step of orienting the carbon fibers in a particular direction; a step of forming a molded body by crosslinking and curing the reactive liquid resin at a temperature 10°C or more lower than the boiling point of the volatile liquid; and a step of evaporating the volatile liquid by heating the molded body, wherein these steps are performed sequentially.
A process for preparing glycerol carbonate methacrylate, wherein glycidyl methacrylate is reacted with carbon dioxide in the presence of a catalyst and a solvent, wherein the catalyst is potassium iodide, the solvent is acetonitrile, one or more monoalcohols, or any desired mixture of acetonitrile and one or more monoalcohols, and the reaction of glycidyl methacrylate with carbon dioxide is carried out at a pressure from 0.5 to 5 bar.
A surveillance camera mount, the mount comprising: a base arranged to be mounted in a mount plane; an attachment part provided with a terminal for a surveillance camera; and an eccentric hinge having a first pivot attached to said base, and a second pivot; said second pivot being movable relative said first pivot in a plane defined by a first direction X parallel to said mount plane and by a second direction Z normal to said mount plane; wherein said attachment part, when connected to said base, is movable, by articulation about said eccentric hinge, between an open position, providing access to said terminal, and a closed position in which said terminal is located within a sealed space formed by said attachment part and said base; wherein the distance (d) between said first pivot and said second pivot in said closed position has a first component (d X) in said first direction X and a second component (d Z) in said second direction Z, said first component (d X) being greater than said second component (d Z), characterised in that: said attachment part is releasably connectable, by a relative motion of said attachment part in relation to said base, to said base by means of said eccentric hinge, and in which said eccentric hinge is arranged outside said sealed space. a base arranged to be mounted in a mount plane; an attachment part provided with a terminal for a surveillance camera; and an eccentric hinge having a first pivot attached to said base, and a second pivot; said attachment part is releasably connectable, by a relative motion of said attachment part in relation to said base, to said base by means of said eccentric hinge,
A method of decoding video data, the method comprising: receiving a block of video data; determining the block of video data is partitioned using rectangular, non-square partitions; determining a most probable intra prediction mode for the block; decoding data representative of an actual intra prediction mode for the block based at least in part on the determined most probable intra prediction mode; and calculating prediction data for the rectangular, non-square partitions using the actual intra prediction mode, characterised in that determining a most probable intra prediction mode for the block is based at least in part on a direction of the rectangular, non-square partitions. receiving a block of video data; determining the block of video data is partitioned using rectangular, non-square partitions; determining a most probable intra prediction mode for the block; decoding data representative of an actual intra prediction mode for the block based at least in part on the determined most probable intra prediction mode; and calculating prediction data for the rectangular, non-square partitions using the actual intra prediction mode, characterised in that determining a most probable intra prediction mode for the block is based at least in part on a direction of the rectangular, non-square partitions.
Use of a method for determining at least one of delayed onset haze temperature or haze disappearance temperature of a petroleum product in a process for producing a finished lubricating basestock by dewaxing a high alpha waxy hydrocarbon produced in a Fischer-Tropsch synthesis process, said method comprising: (a) obtaining a sample of the base stock as it is produced and heating the sample to 90°C for 20 minutes to assure denucleation of any haze-forming constituents; (b) cooling the so heated sample to 40°C over 10 minutes and then to -10° C at a rate of 0.5 °C minute; (c) subsequently heating the sample at a rate of 0.5 °C minute; while simultaneously (d) projecting a beam of light along an optical pathway in the sample during cooling and heating and measuring the temperature of the sample during cooling and heating; (e) detecting at least one of the light transmitted by the optical pathway and the light scattered by the optical pathway; (f) analyzing the intensity of the light detected as a function of the measured temperature during cooling at the above cooling rate or during heating at the above heating rate to determine at least one of delayed haze onset and haze disappearance temperatures, and (g) when necessary adjusting the dewaxing conditions to provide a basestock having a predetermined haze disappearance temperature. (a) obtaining a sample of the base stock as it is produced and heating the sample to 90°C for 20 minutes to assure denucleation of any haze-forming constituents; (b) cooling the so heated sample to 40°C over 10 minutes and then to -10° C at a rate of 0.5 °C minute; (c) subsequently heating the sample at a rate of 0.5 °C minute; while simultaneously (d) projecting a beam of light along an optical pathway in the sample during cooling and heating and measuring the temperature of the sample during cooling and heating; (e) detecting at least one of the light transmitted by the optical pathway and the light scattered by the optical pathway; (f) analyzing the intensity of the light detected as a function of the measured temperature during cooling at the above cooling rate or during heating at the above heating rate to determine at least one of delayed haze onset and haze disappearance temperatures, and (g) when necessary adjusting the dewaxing conditions to provide a basestock having a predetermined haze disappearance temperature.
An image forming apparatus, comprising: a printer unit configured to print a sheet with a plurality of single colors and generate a correction sheet including a plurality of single color regions at different positions along a travel direction of the correction sheet between a first reference region and a second reference region, the first and second reference regions being a reference color; an image reading unit configured to read the correction sheet; a processor configured to calculate a shift amount in a main scanning direction of the printer unit for each single color region in the plurality of single color regions based on RGB luminance values of the single color region as obtained from the correction sheet by the image reading unit and to correct a printer scan position along the main scanning direction for each single color in the plurality of single colors corresponding to the single color regions using the calculated shift amounts for the single color regions; and an alignment sensor at a position away from a center of the sheet in the main scanning direction, wherein the processor varies a clock for an exposure source for each of the single colors so that a correction amount for the printer scan position for each of the single colors is larger near the center of the sheet in the main scanning direction than at an edge of the sheet. a printer unit configured to print a sheet with a plurality of single colors and generate a correction sheet including a plurality of single color regions at different positions along a travel direction of the correction sheet between a first reference region and a second reference region, the first and second reference regions being a reference color; an image reading unit configured to read the correction sheet; a processor configured to calculate a shift amount in a main scanning direction of the printer unit for each single color region in the plurality of single color regions based on RGB luminance values of the single color region as obtained from the correction sheet by the image reading unit and to correct a printer scan position along the main scanning direction for each single color in the plurality of single colors corresponding to the single color regions using the calculated shift amounts for the single color regions; and an alignment sensor at a position away from a center of the sheet in the main scanning direction, wherein the processor varies a clock for an exposure source for each of the single colors so that a correction amount for the printer scan position for each of the single colors is larger near the center of the sheet in the main scanning direction than at an edge of the sheet.
A system for quality assured testing in the field of extra corporal analytical testing, the system comprising - a plurality of analytical instruments for conducting analytical testing, each analytical instrument in the plurality of analytical instruments comprising: • a testing section configured to run a testing routine for conducting an analytical test in which a patient sample is reacted with a reagent, and • an input section configured to receive a user identification, - an examination module being programmed to conduct an exam during which it: - prompts questions to the user which relate to the analytical instruments and/or a diagnostic test to be conducted therewith, - receives answers from the user to the questions and evaluates the answers, - determines if the user has passed the exam, and - when it is determined that the user has passed the exam, transmits a user certificate to the analytical instruments; wherein the analytical instruments are each programmed to check if a user is a certified user based on a user identification inputted at the input section by checking if the inputted user identification corresponds to a user on a list of certified users, and wherein the analytical instruments are each programmed to grant access to the testing routine only if the user is a certified user. - a plurality of analytical instruments for conducting analytical testing, each analytical instrument in the plurality of analytical instruments comprising: • a testing section configured to run a testing routine for conducting an analytical test in which a patient sample is reacted with a reagent, and • an input section configured to receive a user identification, • a testing section configured to run a testing routine for conducting an analytical test in which a patient sample is reacted with a reagent, and • an input section configured to receive a user identification, - an examination module being programmed to conduct an exam during which it: - prompts questions to the user which relate to the analytical instruments and/or a diagnostic test to be conducted therewith, - receives answers from the user to the questions and evaluates the answers, - determines if the user has passed the exam, and - when it is determined that the user has passed the exam, transmits a user certificate to the analytical instruments; - prompts questions to the user which relate to the analytical instruments and/or a diagnostic test to be conducted therewith, - receives answers from the user to the questions and evaluates the answers, - determines if the user has passed the exam, and - when it is determined that the user has passed the exam, transmits a user certificate to the analytical instruments;
A terminal configured to communicate with a radio base station by using carrier aggregation, the terminal comprising: a receiving section configured to receive a downlink, DL, signal transmitted from the radio base station and including downlink control information, DCI, the DCI including an uplink Downlink Assignment Index, DAI, and being for scheduling a physical uplink shared channel, PUSCH, in a component carrier, CC, of one of a plurality of cell groups; a control section configured to: control transmission of uplink control information, UCI, using an uplink control channel and the transmission of the UCI using an uplink shared channel in each of the plurality of cell groups, each cell group including at least one CC, determine a number of bits for HARQ-ACK to be transmitted in a PUSCH, based on the DAI, and allocate HARQ-ACK bits to a PUSCH of a CC in one cell group; and a transmission section configured to transmit the HARQ-ACK, wherein the terminal is configured to perform a receiving process of a physical downlink control channel on the assumption that an uplink DAI is included in DCI transmitted from each cell group, and the uplink DAI indicates information about a number of DL subframes to be scheduled. a receiving section configured to receive a downlink, DL, signal transmitted from the radio base station and including downlink control information, DCI, the DCI including an uplink Downlink Assignment Index, DAI, and being for scheduling a physical uplink shared channel, PUSCH, in a component carrier, CC, of one of a plurality of cell groups; a control section configured to: control transmission of uplink control information, UCI, using an uplink control channel and the transmission of the UCI using an uplink shared channel in each of the plurality of cell groups, each cell group including at least one CC, determine a number of bits for HARQ-ACK to be transmitted in a PUSCH, based on the DAI, and allocate HARQ-ACK bits to a PUSCH of a CC in one cell group; and control transmission of uplink control information, UCI, using an uplink control channel and the transmission of the UCI using an uplink shared channel in each of the plurality of cell groups, each cell group including at least one CC, determine a number of bits for HARQ-ACK to be transmitted in a PUSCH, based on the DAI, and allocate HARQ-ACK bits to a PUSCH of a CC in one cell group; and a transmission section configured to transmit the HARQ-ACK, wherein the terminal is configured to perform a receiving process of a physical downlink control channel on the assumption that an uplink DAI is included in DCI transmitted from each cell group, and the uplink DAI indicates information about a number of DL subframes to be scheduled.
A resistor (300, 500) comprising: a poly resistor on n-well, the poly resistor being electrically isolated from the n-well by a first shallow trench isolator, wherein the poly-resistor on n-well comprises a top contact and a bottom contact, the top contact for receiving a first voltage, the bottom contact for receiving a second voltage and wherein the first voltage is positive relative to the second voltage, wherein the n-well is electrically connected to the top contact such that the connection of the n-well is biased at a positive voltage compared to a voltage over the resistor when the top contact and the bottom contact receive the first voltage and the second voltage respectively; and a poly resistor on p-well, the poly resistor being electrically isolated from the p-well by a second shallow trench isolator, wherein the poly-resistor on p-well comprises a top contact and a bottom contact, the top contact for receiving the first voltage, the bottom contact for receiving the second voltage, wherein the p-well is electrically connected to the bottom contact such that the connection of the p-well is biased at a negative voltage compared to the voltage over the resistor when the top contact and the bottom contact receive the first voltage and the second voltage, respectively; wherein the poly resistor on n-well and the poly resistor on p-well are coupled in parallel. a poly resistor on n-well, the poly resistor being electrically isolated from the n-well by a first shallow trench isolator, wherein the poly-resistor on n-well comprises a top contact and a bottom contact, the top contact for receiving a first voltage, the bottom contact for receiving a second voltage and wherein the first voltage is positive relative to the second voltage, wherein the n-well is electrically connected to the top contact such that the connection of the n-well is biased at a positive voltage compared to a voltage over the resistor when the top contact and the bottom contact receive the first voltage and the second voltage respectively; and a poly resistor on p-well, the poly resistor being electrically isolated from the p-well by a second shallow trench isolator, wherein the poly-resistor on p-well comprises a top contact and a bottom contact, the top contact for receiving the first voltage, the bottom contact for receiving the second voltage, wherein the p-well is electrically connected to the bottom contact such that the connection of the p-well is biased at a negative voltage compared to the voltage over the resistor when the top contact and the bottom contact receive the first voltage and the second voltage, respectively; wherein the poly resistor on n-well and the poly resistor on p-well are coupled in parallel.
A method for consolidating a proppant in a formation, the method comprising injecting in the formation a composition comprising an enzyme and a substrate, the method comprising reacting the enzyme with the substrate to cause precipitation of a material to consolidate the proppant in the formation, wherein the source of the enzyme is Jack bean meal.
An image sensor comprising: a substrate; a photodiode formed in the substrate and in a pixel region; a plurality of storage devices (18a, 18b) formed in the substrate and adjacent to the photodiode; a plurality of deep trench isolation walls penetrating through the substrate to isolate the photodiode and the storage devices (18a, 18b); a circuit layer disposed on a first surface of the substrate and connected to the photodiode and the storage devices (18 a,18b); a shielding structure disposed on a second surface of the substrate, the second surface being opposite the first surface, to shield the storage devices (18a, 18b) and the deep trench isolation walls; a material layer disposed above the second surface of the substrate and located between a lens and the second surface of the substrate; and the lens disposed on the material layer and configured to receive incident light and transmit the incident light to the photodiode, wherein the deep trench isolation walls comprise an inner wall to isolate the photodiode from the storage devices (18a,18b) and an outer wall surrounding the inner wall, wherein the storage devices (18a,18b) are located between the inner wall and the outer wall, the image sensor being characterized in that the shielding structure further comprises a vertical grid structure disposed on an end portion of the inner wall and surrounding the photodiode and vertically extending away from the second surface of the substrate and the storage devices (18a,18b). a substrate; a photodiode formed in the substrate and in a pixel region; a plurality of storage devices (18a, 18b) formed in the substrate and adjacent to the photodiode; a plurality of deep trench isolation walls penetrating through the substrate to isolate the photodiode and the storage devices (18a, 18b); a circuit layer disposed on a first surface of the substrate and connected to the photodiode and the storage devices (18 a,18b); a shielding structure disposed on a second surface of the substrate, the second surface being opposite the first surface, to shield the storage devices (18a, 18b) and the deep trench isolation walls; a material layer disposed above the second surface of the substrate and located between a lens and the second surface of the substrate; and the lens disposed on the material layer and configured to receive incident light and transmit the incident light to the photodiode, wherein the deep trench isolation walls comprise an inner wall to isolate the photodiode from the storage devices (18a,18b) and an outer wall surrounding the inner wall, wherein the storage devices (18a,18b) are located between the inner wall and the outer wall, the image sensor being characterized in that the shielding structure further comprises a vertical grid structure disposed on an end portion of the inner wall and surrounding the photodiode and vertically extending away from the second surface of the substrate and the storage devices (18a,18b).
A curable composition for inkjet which is applied with an inkjet device upon use and is irradiated with light to make the curing thereof proceed and is subsequently cured by heating upon use, the curable composition comprising a photocurable compound, a thermally curable compound, a photopolymerization initiator, a thermal curing agent, an adhesiveness-imparting agent, and containing no solvent or containing a solvent, a content of the solvent being 1% by weight or less in 100% by weight of the curable composition for inkjet when the curable composition contains the solvent, the photocurable compound containing a polyfunctional compound having at least two (meth)acryloyl groups, the thermal curing agent being an aromatic amine having at least one benzene ring and at least two amino groups, wherein the aromatic amine is an aromatic amine represented by formula or formula shown below: wherein X1, X2 and X3 independently represent an alkyl group having 1 to 6 carbon atoms or an SCH3 group; and wherein X1, X2, X3 and X4 independently represent an alkyl group having 1 to 6 carbon atoms or an SCH3 group, and wherein the adhesiveness-imparting agent includes an imidazole-based adhesiveness-imparting agent, a thiazole-based adhesiveness-imparting agent, a triazole-based adhesiveness-imparting agent, a pyrazole-based adhesiveness-imparting agent, or a silane coupling agent. the curable composition comprising a photocurable compound, a thermally curable compound, a photopolymerization initiator, a thermal curing agent, an adhesiveness-imparting agent, and containing no solvent or containing a solvent, a content of the solvent being 1% by weight or less in 100% by weight of the curable composition for inkjet when the curable composition contains the solvent, the photocurable compound containing a polyfunctional compound having at least two (meth)acryloyl groups, the thermal curing agent being an aromatic amine having at least one benzene ring and at least two amino groups, wherein the aromatic amine is an aromatic amine represented by formula or formula shown below: wherein X1, X2 and X3 independently represent an alkyl group having 1 to 6 carbon atoms or an SCH3 group; and wherein X1, X2, X3 and X4 independently represent an alkyl group having 1 to 6 carbon atoms or an SCH3 group, and wherein the adhesiveness-imparting agent includes an imidazole-based adhesiveness-imparting agent, a thiazole-based adhesiveness-imparting agent, a triazole-based adhesiveness-imparting agent, a pyrazole-based adhesiveness-imparting agent, or a silane coupling agent.