mhurhangee/patent-ind-claim-en huggingface dataset:
A microfluidic device, comprising: at least one microchannel comprising at least one inlet and at least one outlet; a plurality of microchambers and a plurality of siphon apertures, wherein said plurality of microchambers is in fluid communication with said at least one microchannel by said plurality of siphon apertures; and a thermoplastic thin film disposed adjacent to a surface of said microfluidic device such that said thermoplastic thin film covers said plurality of microchambers, wherein said thermoplastic thin film is configured (i) as a gas barrier under a first pressure differential applied across said thermoplastic thin film and (ii) to be at least partially permeable to a gas under a second pressure differential applied across said thermoplastic thin film, wherein the second pressure differential is greater than the first pressure differential, and wherein, when said gas is in said plurality of microchambers, said thermoplastic thin film is configured to permit said gas to flow from said plurality of microchambers to an environment external to said plurality of microchambers under said second pressure differential applied across said thermoplastic thin film; wherein said thermoplastic thin film is configured as said gas barrier when said first pressure differential of less than about 55158 Pa is applied across said thermoplastic thin film and wherein said second pressure differential is from about 55158 Pa to about 137895 Pa. at least one microchannel comprising at least one inlet and at least one outlet; a plurality of microchambers and a plurality of siphon apertures, wherein said plurality of microchambers is in fluid communication with said at least one microchannel by said plurality of siphon apertures; and a thermoplastic thin film disposed adjacent to a surface of said microfluidic device such that said thermoplastic thin film covers said plurality of microchambers, wherein said thermoplastic thin film is configured (i) as a gas barrier under a first pressure differential applied across said thermoplastic thin film and (ii) to be at least partially permeable to a gas under a second pressure differential applied across said thermoplastic thin film, wherein the second pressure differential is greater than the first pressure differential, and wherein, when said gas is in said plurality of microchambers, said thermoplastic thin film is configured to permit said gas to flow from said plurality of microchambers to an environment external to said plurality of microchambers under said second pressure differential applied across said thermoplastic thin film; wherein said thermoplastic thin film is configured as said gas barrier when said first pressure differential of less than about 55158 Pa is applied across said thermoplastic thin film and wherein said second pressure differential is from about 55158 Pa to about 137895 Pa.
Information processing apparatus for customizing a device driver for controlling peripheral devices, the information processing apparatus comprising: forming means for forming a customized device driver; writing means for writing identification information for identifying the customized device driver formed by the forming means into installation information of the customized device driver; acquisition control means for checking whether an error exists in the installation information and acquiring a list of device drivers from the installation information in a case that it is determined by the checking that there is no error; displaying control means for identifiably displaying a name of the customized device driver formed by said forming unit and a name of a device driver which is not customized in a selecting screen to select a device driver to be installed based on the list of the device drivers acquired by the acquisition control means; selection means for selecting a device driver to be installed in accordance with instruction input via the selecting screen displayed by said displaying control means, wherein two or more device drivers are selectable by the selection means; and installation means for installing the two or more device drivers which are selected by the selection means based on acceptance of a user's operation to start installing of the selected device drivers after the two or more of the device drivers are selected by the selection means. forming means for forming a customized device driver; writing means for writing identification information for identifying the customized device driver formed by the forming means into installation information of the customized device driver; acquisition control means for checking whether an error exists in the installation information and acquiring a list of device drivers from the installation information in a case that it is determined by the checking that there is no error; displaying control means for identifiably displaying a name of the customized device driver formed by said forming unit and a name of a device driver which is not customized in a selecting screen to select a device driver to be installed based on the list of the device drivers acquired by the acquisition control means; selection means for selecting a device driver to be installed in accordance with instruction input via the selecting screen displayed by said displaying control means, wherein two or more device drivers are selectable by the selection means; and installation means for installing the two or more device drivers which are selected by the selection means based on acceptance of a user's operation to start installing of the selected device drivers after the two or more of the device drivers are selected by the selection means.
A polypeptide comprising a fibronectin type III tenth ( 10 Fn3) domain, wherein the 10 Fn3 domain binds to human serum albumin (HSA) with a K D of 1μM or less and comprises AB, BC, CD, DE, EF, and FG loops, wherein the CD loop has 2 amino acid substitutions relative to the corresponding CD loop of the 10 Fn3 domain comprising the amino acid sequence set forth in SEQ ID NO: 23, wherein the 2 amino acid substitutions are selected from the group consisting of: (i) the arginine (R) at position 2 of the CD loop is substituted with an amino acid selected from D, E, A, Q, or N; (ii) the glutamine (Q) at position 5 of the CD loop is substituted with D; (iii) the tyrosine (Y) at position 7 of the CD loop is substituted with an amino acid selected from S or A; (iv) the leucine (L) at position 10 of the CD loop is substituted with an amino acid selected from S, T, or A; (v) the leucine (L) at position 13 of the CD loop is substituted with an amino acid selected from D, S, or A; (vi) the tyrosine (Y) at position 14 of the CD loop is substituted with an amino acid selected from A or T; (vii) the isoleucine (I) at position 15 of the CD loop is substituted with an amino acid selected from D, S, or A; and (viii) The tyrosine (Y) at position 16 of the CD loop is substituted with an amino acid selected from Q, E, S, or A. (i) the arginine (R) at position 2 of the CD loop is substituted with an amino acid selected from D, E, A, Q, or N; (ii) the glutamine (Q) at position 5 of the CD loop is substituted with D; (iii) the tyrosine (Y) at position 7 of the CD loop is substituted with an amino acid selected from S or A; (iv) the leucine (L) at position 10 of the CD loop is substituted with an amino acid selected from S, T, or A; (v) the leucine (L) at position 13 of the CD loop is substituted with an amino acid selected from D, S, or A; (vi) the tyrosine (Y) at position 14 of the CD loop is substituted with an amino acid selected from A or T; (vii) the isoleucine (I) at position 15 of the CD loop is substituted with an amino acid selected from D, S, or A; and (viii) The tyrosine (Y) at position 16 of the CD loop is substituted with an amino acid selected from Q, E, S, or A.
A process for performing the water gas shift reaction wherein raw synthesis gas is reacted in the presence of steam and at least one water gas shift catalyst to convert carbon monoxide into carbon dioxide and to form hydrogen, wherein the raw synthesis gas is initially passed through at least one unit for high-temperature CO conversion and subsequently, downstream thereof, passed through at least two units for low-temperature CO conversion, characterized in that after passing through the at least one unit for high-temperature CO conversion the synthesis gas stream is divided into at least two substreams, wherein the first substream is passed through a first unit for low-temperature CO conversion and the second substream is passed through a second unit for low-temperature CO conversion, wherein both units for low-temperature CO conversion are arranged in parallel relative to one another.
A compound, having a formula or a pharmaceutically acceptable salt thereof, wherein: ring B is 5-membered heteroaryl; L is a C 1-10 aliphatic linker; R 1 is R a or R b wherein at least one R 1 is an R b that is -NR d R d wherein the two R d groups together with the nitrogen bound thereto provide a non-aromatic C 3-10 heterocyclic group that is optionally substituted with one or more R e and/or R g groups, in which R g is halogen, -C 1-10 aliphatic-C 5-10 aromatic, or =O; each of R 2 and R 3 independently are R a ; each R 4 and each R 5 independently are R a or R b ; R a is independently for each occurrence H, D, C 1-10 aliphatic, or C 1-10 cycloaliphatic; R b is independently, for each occurrence except for that of the said at least one R 1 , halogen or -NR d R d wherein (i) each R d independently is R a or R e ; or (ii) two R d groups together with the nitrogen bound thereto provide a C 3-10 heterocyclic group; R e is independently for each occurrence -OR a , -NR a , C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 heteroalkyl, C 3-6 cycloalkyl, or two R e groups join together to provide a C 3-10 heterocyclic group with the R b group to which the two R e groups are bound; m is 1 to 4; n is 0, 1 or 2; and pis 0, 1, 2, 3, 4, or 5. ring B is 5-membered heteroaryl; L is a C 1-10 aliphatic linker; R 1 is R a or R b wherein at least one R 1 is an R b that is -NR d R d wherein the two R d groups together with the nitrogen bound thereto provide a non-aromatic C 3-10 heterocyclic group that is optionally substituted with one or more R e and/or R g groups, in which R g is halogen, -C 1-10 aliphatic-C 5-10 aromatic, or =O; each of R 2 and R 3 independently are R a ; each R 4 and each R 5 independently are R a or R b ; R a is independently for each occurrence H, D, C 1-10 aliphatic, or C 1-10 cycloaliphatic; R b is independently, for each occurrence except for that of the said at least one R 1 , halogen or -NR d R d wherein (i) each R d independently is R a or R e ; or (ii) two R d groups together with the nitrogen bound thereto provide a C 3-10 heterocyclic group; R e is independently for each occurrence -OR a , -NR a , C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 heteroalkyl, C 3-6 cycloalkyl, or two R e groups join together to provide a C 3-10 heterocyclic group with the R b group to which the two R e groups are bound; m is 1 to 4; n is 0, 1 or 2; and pis 0, 1, 2, 3, 4, or 5. R a is independently for each occurrence H, D, C 1-10 aliphatic, or C 1-10 cycloaliphatic; R b is independently, for each occurrence except for that of the said at least one R 1 , halogen or -NR d R d wherein (i) each R d independently is R a or R e ; or (ii) two R d groups together with the nitrogen bound thereto provide a C 3-10 heterocyclic group; R e is independently for each occurrence -OR a , -NR a , C 1-6 alkyl, C 1-6 haloalkyl, C 1-6 heteroalkyl, C 3-6 cycloalkyl, or two R e groups join together to provide a C 3-10 heterocyclic group with the R b group to which the two R e groups are bound; m is 1 to 4; n is 0, 1 or 2; and pis 0, 1, 2, 3, 4, or 5.
Method for producing plate-shaped moulded plastics parts with increased thermal conductivity, comprising the step of b) moulding a moulded part by injection moulding a mixture composed of a polymer and thermally conductive filler particles ; wherein, during the moulding by injection moulding, by virtue of the surface geometry of the injection moulding tool the thermally conductive filler particles are locally oriented perpendicularly to a plate plane which is parallel to a direction of flow of the mixture composed of a polymer and thermally conductive filler particles, wherein the surface geometry of the injection moulding tool comprises functional elements, and wherein the method comprises a further step of b) removing at least part of the surface of the moulded part by machining, wherein the filler particles are composed of an electrically non-conductive compound selected from the group consisting of talc, glass fibres, boron nitride, aluminium nitride, aluminium oxide, magnetite, kaolinite, feldspar, aluminosilicates and beryllium oxide. b) moulding a moulded part by injection moulding a mixture composed of a polymer and thermally conductive filler particles ; wherein, during the moulding by injection moulding, by virtue of the surface geometry of the injection moulding tool the thermally conductive filler particles are locally oriented perpendicularly to a plate plane which is parallel to a direction of flow of the mixture composed of a polymer and thermally conductive filler particles, wherein the surface geometry of the injection moulding tool comprises functional elements, and wherein the method comprises a further step of wherein, during the moulding by injection moulding, by virtue of the surface geometry of the injection moulding tool the thermally conductive filler particles are locally oriented perpendicularly to a plate plane which is parallel to a direction of flow of the mixture composed of a polymer and thermally conductive filler particles, wherein the surface geometry of the injection moulding tool comprises functional elements, and wherein the method comprises a further step of b) removing at least part of the surface of the moulded part by machining, wherein the filler particles are composed of an electrically non-conductive compound selected from the group consisting of talc, glass fibres, boron nitride, aluminium nitride, aluminium oxide, magnetite, kaolinite, feldspar, aluminosilicates and beryllium oxide.
A method for training and using a machine learning system to predict equipment pressure measurements, comprising: inputting a set of training data including a set of equipment pressure measurements; inputting a set of supplemental data, wherein the supplemental data is obtained from a physical model that estimates truths that supplement the training data; training the machine learning system based on the set of training data and the set of supplemental data to generate a trained machine learning system; receiving real-time operational data related to a real-time oilfield drilling operation; inputting the real-time operational data into the trained machine learning system; predicting a real-time equipment pressure measurement based on the inputting the real-time operational data into the trained machine learning system; and executing a computer-based instruction based on the predicting the real-time equipment pressure measurement, wherein the computer-based instruction includes an instruction to adjust operation of drilling equipment. inputting a set of training data including a set of equipment pressure measurements; inputting a set of supplemental data, wherein the supplemental data is obtained from a physical model that estimates truths that supplement the training data; training the machine learning system based on the set of training data and the set of supplemental data to generate a trained machine learning system; receiving real-time operational data related to a real-time oilfield drilling operation; inputting the real-time operational data into the trained machine learning system; predicting a real-time equipment pressure measurement based on the inputting the real-time operational data into the trained machine learning system; and executing a computer-based instruction based on the predicting the real-time equipment pressure measurement, wherein the computer-based instruction includes an instruction to adjust operation of drilling equipment.
An agrochemical fluid dispersion comprising: an agrochemical active ingredient, as a dispersoid having an average particle diameter of 10 μm to 70 μm, the agrochemical active ingredient being liquid agrochemical active ingredient incompatible with water or a solution obtained by dissolving solid agrochemical active ingredient in organic solvent, wherein a solubility of the liquid agrochemical active ingredient or the solid agrochemical active ingredient is from 0.1 to 100 mg per 100g of water at 20°C water as a dispersion medium, and a dispersing agent comprising a modified-polyvinyl alcohol-based resin, having 95 mol% or more saponification degree and containing a structural unit represented by the formula which has a nonionic hydrophilic group in side chain, wherein Z is nonionic hydrophilic group, R 1 , R 2 , and R 3 each is independently a hydrogen or an alkyl group having 1 to 5 carbon atoms and optionally having a substituent, and X is single bond or a binding chain, wherein the structural unit represented by the formula has 8 to 10 in HLB value determined by Davies' method. an agrochemical active ingredient, as a dispersoid having an average particle diameter of 10 μm to 70 μm, the agrochemical active ingredient being liquid agrochemical active ingredient incompatible with water or a solution obtained by dissolving solid agrochemical active ingredient in organic solvent, wherein a solubility of the liquid agrochemical active ingredient or the solid agrochemical active ingredient is from 0.1 to 100 mg per 100g of water at 20°C water as a dispersion medium, and a dispersing agent comprising a modified-polyvinyl alcohol-based resin, having 95 mol% or more saponification degree and containing a structural unit represented by the formula which has a nonionic hydrophilic group in side chain, wherein Z is nonionic hydrophilic group, R 1 , R 2 , and R 3 each is independently a hydrogen or an alkyl group having 1 to 5 carbon atoms and optionally having a substituent, and X is single bond or a binding chain, wherein the structural unit represented by the formula has 8 to 10 in HLB value determined by Davies' method.
System for capturing the constituents in an amount of objects which comprise wastes, garbage, and/or valuable materials, which is distributed on a surface of a press garbage collection vehicle, the system comprising: a first optical recording device which is configured for recording a 2-D color image of the amount of objects; a second optical recording device which is configured for recording a plurality of 2-D spectral images of the amount of objects, wherein each 2-D spectral image corresponds to a predetermined respective wavelength; a third optical recording device which is configured for recording a 3-D image of the amount of objects; an illumination unit which is configured for illuminating the amount of objects; and a data processing unit which is configured for capturing the constituents in the amount of objects based on the 2-D color image, the plurality of 2-D spectral images, and the 3-D image, and using a neuronal network, wherein the data processing unit is further configured to capture the constituents of the present amount of objects in the recorded images by means of the neuronal network; wherein the system is configured to be mounted at the garbage chute of a press garbage collection vehicle, which environment is completely dark and is subjected to a very high mechanical stress. a first optical recording device which is configured for recording a 2-D color image of the amount of objects; a second optical recording device which is configured for recording a plurality of 2-D spectral images of the amount of objects, wherein each 2-D spectral image corresponds to a predetermined respective wavelength; a third optical recording device which is configured for recording a 3-D image of the amount of objects; an illumination unit which is configured for illuminating the amount of objects; and a data processing unit which is configured for capturing the constituents in the amount of objects based on the 2-D color image, the plurality of 2-D spectral images, and the 3-D image, and using a neuronal network, wherein the data processing unit is further configured to capture the constituents of the present amount of objects in the recorded images by means of the neuronal network; wherein the system is configured to be mounted at the garbage chute of a press garbage collection vehicle, which environment is completely dark and is subjected to a very high mechanical stress.
An exercise chair for a person , comprising: a chair frame that includes a back support frame fixed at a lower end thereof with a back end of a seat frame , each of the back support frame and the seat frame including at least one upper anchor knob fixed with a side edge of the back support frame and the seat frame and projecting laterally away from the back support frame and the seat frame ; a base fixed with a lower end of the seat frame and adapted to support the exercise chair on a support surface , the base having at least one lower anchor knob projecting away therefrom; at least one elastomeric resistance band adapted for selective fixing with any of the upper anchor knob and the lower anchor knob ; whereby with the person seated in the chair and the chair resting on the support surface , the at least one resistance band fixed with any of the upper anchor knob and the lower anchor knob so that the person can exercise by pushing and/or pulling the at least one resistance band , characterized in that : the at least one upper anchor knob is removably attached to an extension tube extending from the side edge of one of the chair frame , and the at least one lower anchor knob is removably attached to at least one of: a central vertical shaft of the base , and at least one base leg of a plurality of legs that extends from the central vertical shaft . a chair frame that includes a back support frame fixed at a lower end thereof with a back end of a seat frame , each of the back support frame and the seat frame including at least one upper anchor knob fixed with a side edge of the back support frame and the seat frame and projecting laterally away from the back support frame and the seat frame ; a base fixed with a lower end of the seat frame and adapted to support the exercise chair on a support surface , the base having at least one lower anchor knob projecting away therefrom; at least one elastomeric resistance band adapted for selective fixing with any of the upper anchor knob and the lower anchor knob ; whereby with the person seated in the chair and the chair resting on the support surface , the at least one resistance band fixed with any of the upper anchor knob and the lower anchor knob so that the person can exercise by pushing and/or pulling the at least one resistance band , characterized in that : the at least one upper anchor knob is removably attached to an extension tube extending from the side edge of one of the chair frame , and the at least one lower anchor knob is removably attached to at least one of: a central vertical shaft of the base , and at least one base leg of a plurality of legs that extends from the central vertical shaft . a central vertical shaft of the base , and at least one base leg of a plurality of legs that extends from the central vertical shaft .