mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: a crude oil associated gas processing plant; a waste heat recovery heat exchanger configured to heat a heating fluid stream by exchange with a heat source in the crude oil associated gas processing plant; and an Organic Rankine cycle energy conversion system including: a pump configured to pump a working fluid to a pressure of between 1.1 Mpa and 1.2 MPa (11 Bar and 12 Bar), the working fluid comprising isobutane; an energy conversion heat exchanger configured to heat the working fluid by exchange with the heated heating fluid stream; a turbine and a generator, wherein the turbine and generator are configured to generate power by expansion of the heated working fluid; a cooling element configured to cool the expanded working fluid after power generation; and an accumulation tank, wherein the heating fluid flows from the accumulation tank, through the waste heat recovery heat exchanger, through the Organic Rankine cycle energy conversion system, and back to the accumulation tank. a crude oil associated gas processing plant; a waste heat recovery heat exchanger configured to heat a heating fluid stream by exchange with a heat source in the crude oil associated gas processing plant; and an Organic Rankine cycle energy conversion system including: a pump configured to pump a working fluid to a pressure of between 1.1 Mpa and 1.2 MPa (11 Bar and 12 Bar), the working fluid comprising isobutane; an energy conversion heat exchanger configured to heat the working fluid by exchange with the heated heating fluid stream; a turbine and a generator, wherein the turbine and generator are configured to generate power by expansion of the heated working fluid; a cooling element configured to cool the expanded working fluid after power generation; and an accumulation tank, wherein the heating fluid flows from the accumulation tank, through the waste heat recovery heat exchanger, through the Organic Rankine cycle energy conversion system, and back to the accumulation tank. a pump configured to pump a working fluid to a pressure of between 1.1 Mpa and 1.2 MPa (11 Bar and 12 Bar), the working fluid comprising isobutane; an energy conversion heat exchanger configured to heat the working fluid by exchange with the heated heating fluid stream; a turbine and a generator, wherein the turbine and generator are configured to generate power by expansion of the heated working fluid; a cooling element configured to cool the expanded working fluid after power generation; and an accumulation tank, wherein the heating fluid flows from the accumulation tank, through the waste heat recovery heat exchanger, through the Organic Rankine cycle energy conversion system, and back to the accumulation tank.
An apparatus for collision detection in a wireless network, comprising: a receiver adapted to receive wirelessly a plurality of transmission signals; and a processing unit adapted to: identify a plurality of preamble symbols, by correlating the plurality of received signals with a pre-stored signal and obtaining a series of correlation peaks for each identified preamble symbol; compute a differential frequency shift between frequency shifts of two of said plurality of identified preamble symbols, and detect a collision based on said differential frequency shift. a receiver adapted to receive wirelessly a plurality of transmission signals; and a processing unit adapted to: identify a plurality of preamble symbols, by correlating the plurality of received signals with a pre-stored signal and obtaining a series of correlation peaks for each identified preamble symbol; compute a differential frequency shift between frequency shifts of two of said plurality of identified preamble symbols, and detect a collision based on said differential frequency shift. a processing unit adapted to: identify a plurality of preamble symbols, by correlating the plurality of received signals with a pre-stored signal and obtaining a series of correlation peaks for each identified preamble symbol; compute a differential frequency shift between frequency shifts of two of said plurality of identified preamble symbols, and detect a collision based on said differential frequency shift. identify a plurality of preamble symbols, by correlating the plurality of received signals with a pre-stored signal and obtaining a series of correlation peaks for each identified preamble symbol; compute a differential frequency shift between frequency shifts of two of said plurality of identified preamble symbols, and detect a collision based on said differential frequency shift.
A multichamber structural element manufacturing method characterized in that it comprises the following steps: a) at least three chamber profile preforms are provided, wherein each chamber profile preform comprises two walls made of a sheet of metal material and arranged with respect to each other in substantially parallel planes with a gap retained between them, wherein the edges of the individual walls converge, and wherein a valve element is arranged on at least one wall, and wherein each chamber profile preform has an inner edge and an outer edge, b) the unconnected wall edges of each of the chamber profile preforms are sealed with a seal for forming a closed hermetic empty inner space of the chamber profile preform, c) a fluid under pressure is introduced through the valve element into the inner space of the chamber profile preform for forming a deformed chamber profile, d) at least three chamber profile preforms or chamber profiles are connected in an area of the corresponding inner edges of the chamber profile preform or the chamber profile, proximal with respect to a connection axis, along at least part of the inner edges, wherein the connection axis is formed by the inner edges being connected together with a connecting weld, wherein steps c) and d) may be performed in reverse sequence. a) at least three chamber profile preforms are provided, wherein each chamber profile preform comprises two walls made of a sheet of metal material and arranged with respect to each other in substantially parallel planes with a gap retained between them, wherein the edges of the individual walls converge, and wherein a valve element is arranged on at least one wall, and wherein each chamber profile preform has an inner edge and an outer edge, b) the unconnected wall edges of each of the chamber profile preforms are sealed with a seal for forming a closed hermetic empty inner space of the chamber profile preform, c) a fluid under pressure is introduced through the valve element into the inner space of the chamber profile preform for forming a deformed chamber profile, d) at least three chamber profile preforms or chamber profiles are connected in an area of the corresponding inner edges of the chamber profile preform or the chamber profile, proximal with respect to a connection axis, along at least part of the inner edges, wherein the connection axis is formed by the inner edges being connected together with a connecting weld,
A method of imaging a specimen in a Scanning Transmission Charged Particle Microscope, comprising the following steps: - Providing the specimen on a specimen holder; - Providing a beam of charged particles that is directed from a source through an illuminator so as to irradiate the specimen; - Providing a segmented detector for detecting a flux of charged particles traversing the specimen; - Causing said beam to scan across a surface of the specimen, and combining signals from different segments of the detector so as to produce a vector output from the detector at each scan position, said vector output having components Dx, Dy along respective X, Y coordinate axes, characterized by: - Performing a relatively coarse pre-scan of the specimen, along a pre-scan trajectory; - At selected positions p i on said pre-scan trajectory, analyzing said components Dx, Dy and also a scalar intensity sensor value Ds; - Using said analysis of Dx, Dy and Ds to classify a specimen composition at each position p i into one of a group of composition classes; - For a selected composition class, performing a relatively fine scan at positions p i assigned to that class. - Providing the specimen on a specimen holder; - Providing a beam of charged particles that is directed from a source through an illuminator so as to irradiate the specimen; - Providing a segmented detector for detecting a flux of charged particles traversing the specimen; - Causing said beam to scan across a surface of the specimen, and combining signals from different segments of the detector so as to produce a vector output from the detector at each scan position, said vector output having components Dx, Dy along respective X, Y coordinate axes, - Performing a relatively coarse pre-scan of the specimen, along a pre-scan trajectory; - At selected positions p i on said pre-scan trajectory, analyzing said components Dx, Dy and also a scalar intensity sensor value Ds; - Using said analysis of Dx, Dy and Ds to classify a specimen composition at each position p i into one of a group of composition classes; - For a selected composition class, performing a relatively fine scan at positions p i assigned to that class.
An oligomeric compound comprising a contiguous sequence of monomer subunits linked by internucleoside linking groups, wherein at least one of the internucleoside linking groups has Formula I: wherein each X is independently O or S; wherein the oligomeric compound is a gapped oligomeric compound having a gap region of from 6 to 14 contiguous monomer subunits selected from P-D-2'-deoxyribonucleosides and modified nucleosides that are DNA-like that each adopt a 2'-endo conformational geometry located between a 5'-region and a 3'-region, wherein the 5' and 3'-regions each, independently, have from 2 to 8 contiguous monomer subunits selected from RNA-like modified nucleosides that each adopt a 3'-endo conformational geometry; wherein each internucleoside linking group of Formula I is, independently, located in the gap region or between the gap region and the 5'-region or the 3'-region. wherein each X is independently O or S; wherein the oligomeric compound is a gapped oligomeric compound having a gap region of from 6 to 14 contiguous monomer subunits selected from P-D-2'-deoxyribonucleosides and modified nucleosides that are DNA-like that each adopt a 2'-endo conformational geometry located between a 5'-region and a 3'-region, wherein the 5' and 3'-regions each, independently, have from 2 to 8 contiguous monomer subunits selected from RNA-like modified nucleosides that each adopt a 3'-endo conformational geometry; wherein each internucleoside linking group of Formula I is, independently, located in the gap region or between the gap region and the 5'-region or the 3'-region.
A ubiquitous natural user system comprising: one or more sensors configured to provide sensed input including measurements of at least one of motion or orientation of a user during performance of a task by the user to work a complex-system component, the task having a task definition that specifies a process requirement for a process variable that includes a torque, swag force or preload applied to a fastener during performance of the task including installation of the fastener on the complex-system component; and a front-end system coupled to the one or more sensors, and configured to receive and process the sensed input including the measurements to identify a known pattern that indicates a significance of the sensed input from which to identify operations of an electronic resource to be performed, wherein the front-end system is configured to form and communicate an input to cause the electronic resource to perform the operations and produce an output, the operations including calculation of the process variable from the sensed input including the measurements, comparison of the calculated process variable to the specified process requirement, and determination of compliance of the calculated process variable with the specified process requirement based on the comparison, and wherein the front-end system is configured to receive the output from the electronic resource, and communicate the output to a display device, audio output device or haptic sensor, to thereby enable the user to access or use an electronic resource in performing the task. one or more sensors configured to provide sensed input including measurements of at least one of motion or orientation of a user during performance of a task by the user to work a complex-system component, the task having a task definition that specifies a process requirement for a process variable that includes a torque, swag force or preload applied to a fastener during performance of the task including installation of the fastener on the complex-system component; and a front-end system coupled to the one or more sensors, and configured to receive and process the sensed input including the measurements to identify a known pattern that indicates a significance of the sensed input from which to identify operations of an electronic resource to be performed, wherein the front-end system is configured to form and communicate an input to cause the electronic resource to perform the operations and produce an output, the operations including calculation of the process variable from the sensed input including the measurements, comparison of the calculated process variable to the specified process requirement, and determination of compliance of the calculated process variable with the specified process requirement based on the comparison, and wherein the front-end system is configured to receive the output from the electronic resource, and communicate the output to a display device, audio output device or haptic sensor, to thereby enable the user to access or use an electronic resource in performing the task.
A roll-to-roll vacuum deposition apparatus including a vacuum chamber, a traveling means for causing a film to travel inside the vacuum chamber, a depositing source for depositing a deposition material onto the traveling film to form a deposited layer, and a mask forming unit disposed at an upstream side of the depositing source, for forming a mask pattern defining a deposition area of the deposition material on the film, wherein the mask forming unit includes a supply source for heating and evaporating oil for forming the mask pattern, a first roller for condensing oil vapour supplied from the supply source to hold the oil at an outer circumference, the first roller having a front layer formed of a ceramic material having mircoscopic asperities on a surface thereof, a second roller for transferring the oil to a deposition surface of the film as the mask pattern, the second roller having, at an outer surface thereof, a printing plate made of rubber or resin, and a third roller disposed between the first roller and the second roller, for transferring the oil from the first roller to the second roller, the third roller having a front layer made of a resin material softer than the front layer of the first roller, a cooling mechanism for cooling the first roller by circulating a cooling medium in the first roller, and a rocking mechanism for periodically rocking the third roller in an axial direction with respect to the first and second rollers.
A composition comprising the probiotic Enterococcus bacteria E. faecium strain NCIMB 10415 for use in preventing or treating conjunctivitis caused by FHV-1 in a feline.
Kit comprising: - at least one sealing sub-assembly for an enclosure assembly (100, 100') for mounting at various depth positions in the enclosure assembly (100, 100') and for receiving at least one connector terminating a data and/or power transmission line, the sealing sub-assembly comprising at least one annular sealing element and at least one washer; and - an inner body of a housing sub-assembly, said inner body being provided with a flange adapted and arranged to support the sealing sub-assembly, in particular one of the washers thereof, wherein the flange is formed at an end of the inner body and provides a pressing surface; characterized in that the kit further comprises: - an outer shell of the housing sub-assembly, the outer shell being configured to at least in sections take up the inner body and comprising a volume for receiving the sealing sub-assembly, wherein the outer shell comprises a counter sealing section provided by an inner circumference of the outer shell and a stop, where the inner circumference of the outer shell narrows with respect to the sealing section. - at least one sealing sub-assembly for an enclosure assembly (100, 100') for mounting at various depth positions in the enclosure assembly (100, 100') and for receiving at least one connector terminating a data and/or power transmission line, the sealing sub-assembly comprising at least one annular sealing element and at least one washer; and - an inner body of a housing sub-assembly, said inner body being provided with a flange adapted and arranged to support the sealing sub-assembly, in particular one of the washers thereof, wherein the flange is formed at an end of the inner body and provides a pressing surface; characterized in that the kit further comprises: - an outer shell of the housing sub-assembly, the outer shell being configured to at least in sections take up the inner body and comprising a volume for receiving the sealing sub-assembly, wherein the outer shell comprises a counter sealing section provided by an inner circumference of the outer shell and a stop, where the inner circumference of the outer shell narrows with respect to the sealing section.
A signal loopback circuit for making connection between a first channel of a first direction and a second channel of a second direction, the first direction being different from the second direction, wherein an optical signal of a first wavelength band and an optical signal of a second wavelength band are configured to be transmitted through each of the first and second channels, the second wavelength band being different from the first wavelength band, the signal loopback circuit comprising: a first coupler configured to split the optical signal of the first wavelength band in the first channel of the first direction; a first filter in the first channel of the first direction and configured to extract, from the optical signal of the first wavelength band split by the first coupler, a monitoring signal of the first wavelength band; a second coupler configured to combine, to the second channel of the second direction, the monitoring signal of the first wavelength band extracted by the first filter; a third coupler configured to split the optical signal of the second wavelength band in the first channel of the first direction; a second filter in the first channel of the first direction and configured to extract, from the optical signal of the second wavelength band split by the third coupler, a monitoring signal of the second wavelength band; and a fourth coupler configured to combine, to the second channel of the second direction, the monitoring signal of the second wavelength band extracted by the second filter. a first coupler configured to split the optical signal of the first wavelength band in the first channel of the first direction; a first filter in the first channel of the first direction and configured to extract, from the optical signal of the first wavelength band split by the first coupler, a monitoring signal of the first wavelength band; a second coupler configured to combine, to the second channel of the second direction, the monitoring signal of the first wavelength band extracted by the first filter; a third coupler configured to split the optical signal of the second wavelength band in the first channel of the first direction; a second filter in the first channel of the first direction and configured to extract, from the optical signal of the second wavelength band split by the third coupler, a monitoring signal of the second wavelength band; and a fourth coupler configured to combine, to the second channel of the second direction, the monitoring signal of the second wavelength band extracted by the second filter.
An apparatus for micromanipulation, vitrification and storage of biological material, the apparatus including: a vessel having a reservoir, an open top and a channel formed in a bottom of the reservoir, the channel including an intermediate restriction dimensioned to resist passage of said biological material but allow passage of liquid treatment solutions, and a sub-reservoir at either end of the restriction, wherein the vessel is formed of a material with a high thermal conductivity and diffusivity in the sub-reservoir and channel regions to allow vitrification of the biological material in the vessel. a vessel having a reservoir, an open top and a channel formed in a bottom of the reservoir, the channel including an intermediate restriction dimensioned to resist passage of said biological material but allow passage of liquid treatment solutions, and a sub-reservoir at either end of the restriction, wherein the vessel is formed of a material with a high thermal conductivity and diffusivity in the sub-reservoir and channel regions to allow vitrification of the biological material in the vessel.
A gastric residence system for administration to the stomach of a patient, comprising: an elastomer component, wherein the elastomer is concavo-convex, mono-concave, bi-concave, or toroidal; a plurality of at least three carrier polymer-agent components comprising a carrier polymer and a therapeutic agent or a salt thereof, wherein each of the plurality of carrier polymer-agent components comprises an elongate member comprising a proximal end, a distal end, and an outer surface therebetween; wherein the proximal end of each elongate member is attached to the elastomer component and projects radially from the elastomer component, each elongate member having its distal end not attached to the elastomer component and located at a larger radial distance from the elastomer component than the proximal end; wherein the gastric residence system is configured to have a compacted form in a container, suitable for administration orally or through a feeding tube; and an uncompacted form when released from the container in the stomach of the patient; wherein the gastric residence system is retained in the stomach for a period of at least about 24 hours; and wherein the system releases a therapeutically effective amount of therapeutic agent over at least a portion of the period in which the system is retained in the stomach. an elastomer component, wherein the elastomer is concavo-convex, mono-concave, bi-concave, or toroidal; a plurality of at least three carrier polymer-agent components comprising a carrier polymer and a therapeutic agent or a salt thereof, wherein each of the plurality of carrier polymer-agent components comprises an elongate member comprising a proximal end, a distal end, and an outer surface therebetween; wherein the proximal end of each elongate member is attached to the elastomer component and projects radially from the elastomer component, each elongate member having its distal end not attached to the elastomer component and located at a larger radial distance from the elastomer component than the proximal end; wherein the gastric residence system is configured to have a compacted form in a container, suitable for administration orally or through a feeding tube; and an uncompacted form when released from the container in the stomach of the patient; wherein the gastric residence system is retained in the stomach for a period of at least about 24 hours; and wherein the system releases a therapeutically effective amount of therapeutic agent over at least a portion of the period in which the system is retained in the stomach.