mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: a device including at least one memory adapted to store run-time data for the device, and at least one processor that is adapted to execute processor-executable code that, in response to execution, enables the device to perform actions, including: receiving a request for a virtual machine, wherein the request includes user-specific configurable parameters and non-configurable parameters; determining that a first virtual machine has non-configurable parameters matching the non-configurable parameters of the request; in response to determining that the non-configurable parameters of the first virtual machine match the non-configurable parameters of the request, reconfiguring the first virtual machine executing on a first virtual machine host, including controlling acts, including: associating at least one compute artifact of a plurality of compute artifacts with a first user that is associated with the first virtual machine; modifying at least one compute artifact of the plurality of compute artifacts, wherein modifying the at least one compute artifact is based, at least in part, on the user-specific configurable parameters in the request; and publishing the configuration to the first virtual machine host. receiving a request for a virtual machine, wherein the request includes user-specific configurable parameters and non-configurable parameters; determining that a first virtual machine has non-configurable parameters matching the non-configurable parameters of the request; in response to determining that the non-configurable parameters of the first virtual machine match the non-configurable parameters of the request, reconfiguring the first virtual machine executing on a first virtual machine host, including controlling acts, including: associating at least one compute artifact of a plurality of compute artifacts with a first user that is associated with the first virtual machine; modifying at least one compute artifact of the plurality of compute artifacts, wherein modifying the at least one compute artifact is based, at least in part, on the user-specific configurable parameters in the request; and publishing the configuration to the first virtual machine host. associating at least one compute artifact of a plurality of compute artifacts with a first user that is associated with the first virtual machine; modifying at least one compute artifact of the plurality of compute artifacts, wherein modifying the at least one compute artifact is based, at least in part, on the user-specific configurable parameters in the request; and publishing the configuration to the first virtual machine host.
A method for operating an electronic device, the method comprising: capturing a first image; detecting a first predetermined shape in the first image; providing a sound notification of a delay with a predetermined time duration for an operation corresponding to the first predetermined shape; capturing a second image after the delay; and when a second predetermined shape is detected from the second image: modifying the delay with a time duration corresponding to the second predetermined shape, and performing the operation after the modified delay; or when the second predetermined shape is not detected from the second image: performing the operation, wherein information for the first and the second predetermined shapes is stored in the electronic device. capturing a first image; detecting a first predetermined shape in the first image; providing a sound notification of a delay with a predetermined time duration for an operation corresponding to the first predetermined shape; capturing a second image after the delay; and when a second predetermined shape is detected from the second image: modifying the delay with a time duration corresponding to the second predetermined shape, and performing the operation after the modified delay; or modifying the delay with a time duration corresponding to the second predetermined shape, and performing the operation after the modified delay; or when the second predetermined shape is not detected from the second image: performing the operation, wherein information for the first and the second predetermined shapes is stored in the electronic device.
An analysis device that irradiates a light entering to a multiple-reflection cell into which a sample is introduced, detects the light exiting from the multiple-reflection cell and analyzes a measurement objective component contained in the sample, comprising a first light irradiation part that allows a first light to enter the multiple-reflection cell, a second light irradiation part that allows a second light whose incident optical path is different from that of the first light to enter the multiple-reflection cell, and the multiple-reflection cell having a pair of reflecting mirrors (22, 23) that reflect the first light and the second light, characterised in that: I each of the reflecting mirrors (22, 23) is a toroidal mirror of which a radius of curvature of two axes that are orthogonal with each other differs each other, and a number of reflections of the first light by the pair of reflecting toroidal mirrors and a number of reflections of the second light by the pair of reflecting toroidal mirrors are different from each other. a first light irradiation part that allows a first light to enter the multiple-reflection cell, a second light irradiation part that allows a second light whose incident optical path is different from that of the first light to enter the multiple-reflection cell, and the multiple-reflection cell having a pair of reflecting mirrors (22, 23) that reflect the first light and the second light, each of the reflecting mirrors (22, 23) is a toroidal mirror of which a radius of curvature of two axes that are orthogonal with each other differs each other, and a number of reflections of the first light by the pair of reflecting toroidal mirrors and a number of reflections of the second light by the pair of reflecting toroidal mirrors are different from each other.
An in vitro or ex vivo method for producing a site-specifically serine ADP-ribosylated protein or peptide, comprising: (a) subjecting a protein or peptide comprising or consisting of an amino acid sequence comprising two or more serines, wherein at least one serine is phosphorylated and at least one serine is non-phosphorylated, to a serine ADP-ribosylation reaction. (a) subjecting a protein or peptide comprising or consisting of an amino acid sequence comprising two or more serines, wherein at least one serine is phosphorylated and at least one serine is non-phosphorylated, to a serine ADP-ribosylation reaction.
An electrode or membrane composition comprising: (a) at least one sulfonated block copolymer comprising at least two polymer end blocks A and at least one polymer interior block B wherein each A block contains essentially no sulfonic acid or sulfonate functional groups and each B block is a polymer block containing from 10 to 100 mol percent sulfonic acid or sulfonate functional groups based on the number of monomer units of the B block; and (b) particulate carbon; in which the particulate carbon (b) and the sulfonated block copolymer (a) are present in a weight ratio of at least 0.01:1. (a) at least one sulfonated block copolymer comprising at least two polymer end blocks A and at least one polymer interior block B wherein each A block contains essentially no sulfonic acid or sulfonate functional groups and each B block is a polymer block containing from 10 to 100 mol percent sulfonic acid or sulfonate functional groups based on the number of monomer units of the B block; and (b) particulate carbon;
Protease comprising an amino acid sequence having at least 70% sequence identity to the amino acid sequence set forth in SEQ ID NO:1 over the total length thereof and which, based on the numbering according to SEQ ID NO:1, has at i) the positions corresponding to positions 3, 4, 99 and 199 the amino acid substitutions S3T, V4I, R99E and V199I, and ii) at least one of the positions corresponding to positions 9, 21, 42, 44, 105, 112, 113, 131, 137, 139, 141, 145, 159, 168, 176, 177, 182, 193, 198, 204, 205, 206, 210, 212, 230, 234, 250, 253, 255, 259 or 267 at least one amino acid substitution. i) the positions corresponding to positions 3, 4, 99 and 199 the amino acid substitutions S3T, V4I, R99E and V199I, and ii) at least one of the positions corresponding to positions 9, 21, 42, 44, 105, 112, 113, 131, 137, 139, 141, 145, 159, 168, 176, 177, 182, 193, 198, 204, 205, 206, 210, 212, 230, 234, 250, 253, 255, 259 or 267 at least one amino acid substitution.
A separator for the centrifugal separation of a free-flowing product into different phases or for the centrifugal clarification of a product, having at least the following features: a. a rotatable drum with a lower section and an upper section, b. a means arranged in the drum for the clarification of a product which is to be processed in the centrifugal field, c. wherein one or both of the following parts are of a conical design: the drum upper section and the drum lower section (8, 7), d. wherein a plurality or all of the following elements consist of plastic or a plastic-composite material: - the drum lower section, - the drum upper section, - the means for clarification, characterized in that e. the drum with its feed system and its discharge system, is designed in a sealed type of construction, and f. at least one discharge channel for a dense product phase is integrated into the drum upper section. a. a rotatable drum with a lower section and an upper section, b. a means arranged in the drum for the clarification of a product which is to be processed in the centrifugal field, c. wherein one or both of the following parts are of a conical design: the drum upper section and the drum lower section (8, 7), d. wherein a plurality or all of the following elements consist of plastic or a plastic-composite material: - the drum lower section, - the drum upper section, - the means for clarification, - the drum lower section, - the drum upper section, - the means for clarification, e. the drum with its feed system and its discharge system, is designed in a sealed type of construction, and f. at least one discharge channel for a dense product phase is integrated into the drum upper section.
Dielectric antenna having a dielectric feeding section, a first transition section comprising a dielectric rod, a further, second transition section forming a dielectric horn, and a dielectric emitting section, wherein the feeding section can be impinged with electromagnetic radiation, electromagnetic radiation can be guided with the first transition section and the second transition section and the electromagnetic radiation can be emitted from the emitting section as airborne waves, wherein the second transition section comprising the dielectric horn has an inner contour increasingly opening in the direction of emission and this inner contour forms the interface of the dielectric horn to a hollow space surrounded by the dielectric horn, wherein the electromagnetic radiation fed into the feeding section propagates via the dielectric feeding section into the first transition section incorporating the dielectric rod and, from there, into the further, second transition section forming a dielectric horn, and is then emitted via the emitting section, and wherein the emitting section is designed as a dielectric tube with an outer diameter connecting to the second transition section, characterized in that the emitting section as a dielectric tube is formed toward the free space as a staged impedance converter according to the principle of a quarter wave transformer.
A shock wave device, comprising: an outer covering; an inner member, wherein the outer covering and the inner member are connected at a distal end of the device, and wherein a volume between the outer covering and the inner member is fillable with a conductive fluid; a first conductive wire and a second conductive wire extending along the length of the device within the outer covering and ending proximate to the distal end of the device, wherein the lengths of the first and second conductive wires are insulated and wherein there is an uninsulated portion on each of the first and second conductive wires at a distal end face thereof; characterised by a conductive emitter band adjacent to distal end faces of the first and second conductive wires and forming a first spark gap between the distal end face of the first conductive wire and the conductive emitter band and a second spark gap between the distal end face of the second conductive wire and the conductive emitter band, wherein when the volume is filled with the conductive fluid and a high voltage pulse is applied across the first and second conductive wires, first and second shock waves will be initiated from the first and second spark gaps. an outer covering; an inner member, wherein the outer covering and the inner member are connected at a distal end of the device, and wherein a volume between the outer covering and the inner member is fillable with a conductive fluid; a first conductive wire and a second conductive wire extending along the length of the device within the outer covering and ending proximate to the distal end of the device, wherein the lengths of the first and second conductive wires are insulated and wherein there is an uninsulated portion on each of the first and second conductive wires at a distal end face thereof; characterised by a conductive emitter band adjacent to distal end faces of the first and second conductive wires and forming a first spark gap between the distal end face of the first conductive wire and the conductive emitter band and a second spark gap between the distal end face of the second conductive wire and the conductive emitter band, wherein when the volume is filled with the conductive fluid and a high voltage pulse is applied across the first and second conductive wires, first and second shock waves will be initiated from the first and second spark gaps.
A reproducing apparatus for reproducing data having a data structure that includes packets of a sub-image stream, which is a stream of a certain sub-image, said packets of the sub-image stream being transport stream packets, and packets of a video stream, which is a stream of an encoded main image for any one of a right eye and a left eye encoded using an MVC (Multi-view Video coding) method and is a stream including offset information composed of a shift direction and a shift amount of a left-eye sub-image and a right-eye sub-image used for 3D display with respect to the certain sub-image, said packets of the video stream being transport stream packets, only any one of video data of the encoded main image and the offset information being arranged in a data portion of each of the packets of the video stream, flag information (transport_priority) of one bit being described in a header of each of the packets of the video stream, a flag information of respectively zero or one indicating that data arranged in the data portion of the packet is the video data of respectively the encoded main image or the offset information, wherein the offset information includes marker bits set to '1' arranged so that part or the whole of the offset information is not recognized as a certain code comprising a given number of sequential zeros, the reproducing apparatus comprising: reading means for reading the packets of the sub-image stream and the video stream; extracting means for extracting packets in which the offset information is arranged in the data portion from among the packets read by the reading means on the basis of the flag information described in the header of the packets; generating means for generating video data of the left-eye sub-image and video data of the right-eye sub-image from the packets of the sub-image stream on the basis of the offset information arranged in the data portion of the packets extracted by the extracting means; and decoding means (36, 73) for decoding the video data of the encoded main image included in the data portion of the packets read by the reading means on the basis of the flag information described in the header of the packets. reading means for reading the packets of the sub-image stream and the video stream; extracting means for extracting packets in which the offset information is arranged in the data portion from among the packets read by the reading means on the basis of the flag information described in the header of the packets; generating means for generating video data of the left-eye sub-image and video data of the right-eye sub-image from the packets of the sub-image stream on the basis of the offset information arranged in the data portion of the packets extracted by the extracting means; and decoding means (36, 73) for decoding the video data of the encoded main image included in the data portion of the packets read by the reading means on the basis of the flag information described in the header of the packets.
Use of an emulsion or an aqueous solution containing 0.5 - 30 mass % of a glycerol fatty acid ester obtained from glycerol and a fatty acid selected from caprylic acid and caproic acid as a herbicide.
A wear component for earthmoving equipment, the wear component comprising a working portion and a mounting portion (22, 26) to each side of the working portion; a strain relief area (28, 30) between each said mounting portion (22, 26)and the working portion characterized by: each mounting portion (22, 26) is fixed to the earthmoving equipment, and the strain relief areas (28, 30) provide flexibility between the mounting portions (22, 26) and the working portion; and each said strain relief area includes a throat narrower (29, 31) than the working portion and each said mounting portion defined in a lateral direction transverse to a longitudinal axis of each mounting portion (22, 26) and the working portion. each mounting portion (22, 26) is fixed to the earthmoving equipment, and the strain relief areas (28, 30) provide flexibility between the mounting portions (22, 26) and the working portion; and each said strain relief area includes a throat narrower (29, 31) than the working portion and each said mounting portion defined in a lateral direction transverse to a longitudinal axis of each mounting portion (22, 26) and the working portion.
A nanoimprint lithography method comprising: disposing a liquid pretreatment composition on a substrate to form a pretreatment coating on the substrate, wherein the pretreatment composition comprises a polymerizable component; disposing discrete portions of a liquid imprint resist on the pretreatment coating, each discrete portion of the imprint resist covering a target area of the substrate, wherein the imprint resist is a polymerizable composition; forming a liquid composite polymerizable coating on the substrate as each discrete portion of the imprint resist spreads beyond its target area, wherein the composite polymerizable coating is a mixture of the liquid pretreatment composition and the liquid imprint resist; contacting the composite polymerizable coating with a nanoimprint lithography template; and polymerizing the composite polymerizable coating to yield a composite polymeric layer on the substrate, wherein the interfacial surface energy between the pretreatment composition and air exceeds the interfacial surface energy between the imprint resist and air or between at least a component of the imprint resist and air. disposing a liquid pretreatment composition on a substrate to form a pretreatment coating on the substrate, wherein the pretreatment composition comprises a polymerizable component; disposing discrete portions of a liquid imprint resist on the pretreatment coating, each discrete portion of the imprint resist covering a target area of the substrate, wherein the imprint resist is a polymerizable composition; forming a liquid composite polymerizable coating on the substrate as each discrete portion of the imprint resist spreads beyond its target area, wherein the composite polymerizable coating is a mixture of the liquid pretreatment composition and the liquid imprint resist; contacting the composite polymerizable coating with a nanoimprint lithography template; and polymerizing the composite polymerizable coating to yield a composite polymeric layer on the substrate, wherein the interfacial surface energy between the pretreatment composition and air exceeds the interfacial surface energy between the imprint resist and air or between at least a component of the imprint resist and air.
A garment made of flexible material, comprising: a first measurement electrode integrated into the garment at a first location; a second measurement electrode integrated into the garment at a second location different from the first location; at least one motion sensor configured to measure motion of the garment at the first location and/or the second location; and a measurement circuitry configured to measure bioimpedance by applying current feed and measuring voltage via at least the first measurement electrode and the second measurement electrode, to perform motion compensation for the measured bioimpedance on the basis of a cadence determined from the measured motion of the first measurement electrode and the second electrode, and to transmit the measured bioimpedance, and further to measure electrocardiogram by using at least one of the first measurement electrode and the second electrode or another electrode, wherein the garment is an upper body garment, wherein the first measurement electrode is arranged to be disposed above a heart level and the second measurement electrode is arranged to be disposed below the heart level. a first measurement electrode integrated into the garment at a first location; a second measurement electrode integrated into the garment at a second location different from the first location; at least one motion sensor configured to measure motion of the garment at the first location and/or the second location; and a measurement circuitry configured to measure bioimpedance by applying current feed and measuring voltage via at least the first measurement electrode and the second measurement electrode, to perform motion compensation for the measured bioimpedance on the basis of a cadence determined from the measured motion of the first measurement electrode and the second electrode, and to transmit the measured bioimpedance, and further to measure electrocardiogram by using at least one of the first measurement electrode and the second electrode or another electrode, wherein the garment is an upper body garment, wherein the first measurement electrode is arranged to be disposed above a heart level and the second measurement electrode is arranged to be disposed below the heart level.