mhurhangee/ep-ind-claims huggingface dataset:
An electronic device comprising: a memory configured to store at least one application; a communication module configured to establish a connection between the electronic device and an external electronic device; and a processor configured to: execute the at least one application; split data, upon which the at least one application is operable, into a first file and a second file, wherein a size of the first file and a size of the second file are based on a type of the electronic device or the external electronic device; store the first file in the memory, and transmit the second file to the external electronic device through the communication module for storing the second file in the external electronic device. a memory configured to store at least one application; a communication module configured to establish a connection between the electronic device and an external electronic device; and a processor configured to: execute the at least one application; split data, upon which the at least one application is operable, into a first file and a second file, wherein a size of the first file and a size of the second file are based on a type of the electronic device or the external electronic device; store the first file in the memory, and transmit the second file to the external electronic device through the communication module for storing the second file in the external electronic device. execute the at least one application; split data, upon which the at least one application is operable, into a first file and a second file, wherein a size of the first file and a size of the second file are based on a type of the electronic device or the external electronic device; store the first file in the memory, and transmit the second file to the external electronic device through the communication module for storing the second file in the external electronic device.
A computer-implemented method comprising: receiving data comprising at least one feature associated with a portion of a program, the at least one feature being collected by a feature collector, wherein the feature characterizes the program and an environment in which the program is being executed or to be executed; selecting, by a discernment engine using a model selector, a trained machine learning model from an existing ensemble of multiple, distinct trained machine learning models tailored to suit specialization combinations of features predicated on (i) the at least one feature provided by the feature collector and (ii) a current availability or scarcity of resources, the trained machine learning model configured to discern safe and unsafe programs; determining, by the discernment engine based on the received data and using the output from the selected trained machine learning model from the existing ensemble of distinct trained machine learning models, whether to allow the at least the portion of the program to execute or continue to execute; allowing, by an enforcement system, the at least the portion of the program to execute or continue to execute if it is determined that the at least the portion of the program is allowed to execute; and preventing, by the enforcement system, the at least the portion of the program from executing or continuing to execute if it is determined that the at least the portion of the program is not allowed to execute. receiving data comprising at least one feature associated with a portion of a program, the at least one feature being collected by a feature collector, wherein the feature characterizes the program and an environment in which the program is being executed or to be executed; selecting, by a discernment engine using a model selector, a trained machine learning model from an existing ensemble of multiple, distinct trained machine learning models tailored to suit specialization combinations of features predicated on (i) the at least one feature provided by the feature collector and (ii) a current availability or scarcity of resources, the trained machine learning model configured to discern safe and unsafe programs; determining, by the discernment engine based on the received data and using the output from the selected trained machine learning model from the existing ensemble of distinct trained machine learning models, whether to allow the at least the portion of the program to execute or continue to execute; allowing, by an enforcement system, the at least the portion of the program to execute or continue to execute if it is determined that the at least the portion of the program is allowed to execute; and preventing, by the enforcement system, the at least the portion of the program from executing or continuing to execute if it is determined that the at least the portion of the program is not allowed to execute.
A method of laser drilling a material comprising: focusing a pulsed laser beam into a laser beam focal line oriented along a beam propagation direction, the laser beam having a wavelength less than or equal to about 850 nm, the laser beam focal line having a length extending along the beam propagation direction that is in a range of between 0.1mm and 100 mm and an average spot diameter that is in a range of between 0.1 μm and 5 μm; and directing the laser beam focal line into the material, the laser beam focal line generating an induced absorption within the material, the induced absorption producing a defect line having a diameter less than or equal to about 300 nm along the laser beam focal line within the material. focusing a pulsed laser beam into a laser beam focal line oriented along a beam propagation direction, the laser beam having a wavelength less than or equal to about 850 nm, the laser beam focal line having a length extending along the beam propagation direction that is in a range of between 0.1mm and 100 mm and an average spot diameter that is in a range of between 0.1 μm and 5 μm; and directing the laser beam focal line into the material, the laser beam focal line generating an induced absorption within the material, the induced absorption producing a defect line having a diameter less than or equal to about 300 nm along the laser beam focal line within the material.
A compressor assembly, comprising: a compressor case disposed about an axis (A-A'); a bleed valve disposed about the compressor case and configured to axially translate and/or rotationally move relative to the compressor case; a first seal disposed in a forward seal housing of the bleed valve, wherein the first seal is disposed at a first radial distance (R 1) from the axis; a first sealing wall fixed relative to the compressor case and configured to engage the first seal; a second seal disposed in an aft seal housing of the bleed valve, wherein the second seal is disposed at a second radial distance (R 2) from the axis; and a second sealing wall fixed relative to the compressor case and configured to engage the second seal; characterized in that; the first radial distance is substantially equal to the second radial distance such that net bias loads on the bleed valve in the forward/aft directions are minimized. a compressor case disposed about an axis (A-A'); a bleed valve disposed about the compressor case and configured to axially translate and/or rotationally move relative to the compressor case; a first seal disposed in a forward seal housing of the bleed valve, wherein the first seal is disposed at a first radial distance (R 1) from the axis; a first sealing wall fixed relative to the compressor case and configured to engage the first seal; a second seal disposed in an aft seal housing of the bleed valve, wherein the second seal is disposed at a second radial distance (R 2) from the axis; and a second sealing wall fixed relative to the compressor case and configured to engage the second seal; characterized in that; the first radial distance is substantially equal to the second radial distance such that net bias loads on the bleed valve in the forward/aft directions are minimized.
Method for carrying out antenna diversity in a system having a base station and a user equipment, wherein the base station is configured to transmit to the user equipment, wherein the user equipment is equipped to process signals transmitted from more than one antenna (23, 26) of the base station, comprising: transmitting selected channels having dedicated pilots from said more than one antenna from said base station to said user equipment and transmitting at least certain common channels, which are for user equipment equipped only to process signals transmitted from one antenna, and other selected channels from only one antenna, and receiving and processing both said certain common channels and said channels having dedicated pilots in said user equipment equipped to process signals transmitted from more than one antenna and receiving and processing both said certain common channels and said other selected channels in said user equipment equipped only to process signals transmitted from one antenna. transmitting selected channels having dedicated pilots from said more than one antenna from said base station to said user equipment and transmitting at least certain common channels, which are for user equipment equipped only to process signals transmitted from one antenna, and other selected channels from only one antenna, and receiving and processing both said certain common channels and said channels having dedicated pilots in said user equipment equipped to process signals transmitted from more than one antenna and receiving and processing both said certain common channels and said other selected channels in said user equipment equipped only to process signals transmitted from one antenna.
A method of preparing a modified conjugated diene-based polymer, comprising: (a) polymerizing a conjugated diene monomer, or a conjugated diene monomer and an aromatic vinyl monomer, using a compound represented by Chemical Formula 1 below, in presence of a solvent, thus obtaining an active polymer having a metal end; and (b) modifying the active polymer with any one of the compounds represented by Chemical Formula 3 to 6 below: in Chemical Formula 1, R is a nitrogen-containing group, X is a hydrocarbon obtained by polymerization of a conjugated diene monomer or an aromatic vinyl monomer, n is an integer of 1 ∼ 10, and M is an alkali metal; and in Chemical Formulas 3 and 4, a and c are each independently 1, or 2, (a) polymerizing a conjugated diene monomer, or a conjugated diene monomer and an aromatic vinyl monomer, using a compound represented by Chemical Formula 1 below, in presence of a solvent, thus obtaining an active polymer having a metal end; and (b) modifying the active polymer with any one of the compounds represented by Chemical Formula 3 to 6 below: in Chemical Formula 1, R is a nitrogen-containing group, X is a hydrocarbon obtained by polymerization of a conjugated diene monomer or an aromatic vinyl monomer, n is an integer of 1 ∼ 10, and M is an alkali metal; and in Chemical Formulas 3 and 4, a and c are each independently 1, or 2,
A cylindrical bandage comprising: a first tubular knit; a second tubular knit following the first tubular knit; and a connecting knit connecting the first tubular knit and the second tubular knit with increase in the number of courses between the first tubular knit and the second tubular knit, characterized in that the number of endmost wales of the second tubular knit connected to the connecting knit is larger than the number of endmost wales of the first tubular knit connected to the connecting knit, and a length (a) of a virtual perpendicular line and a length (b) of a virtual perpendicular line are in the ratio 6:4≦(a):(b)≦9:1 in a state where the cylindrical bandage is folded along a symmetrical line (d1, d2) of the first tubular knit and the second tubular knit to divide a circumference of the circle into half and thus one of insides of the circle is in contact with the other opposite inside of the circle, the length (a) of the virtual perpendicular line running from a border between the first tubular knit, the second tubular knit, and the connecting knit to the symmetrical line in a continuous side of the first tubular knit and the second tubular knit, the length (b) of the virtual perpendicular line running from the border to the symmetrical line in a side of the connecting knit. a first tubular knit; a second tubular knit following the first tubular knit; and a connecting knit connecting the first tubular knit and the second tubular knit with increase in the number of courses between the first tubular knit and the second tubular knit, characterized in that the number of endmost wales of the second tubular knit connected to the connecting knit is larger than the number of endmost wales of the first tubular knit connected to the connecting knit, and a length (a) of a virtual perpendicular line and a length (b) of a virtual perpendicular line are in the ratio 6:4≦(a):(b)≦9:1 in a state where the cylindrical bandage is folded along a symmetrical line (d1, d2) of the first tubular knit and the second tubular knit to divide a circumference of the circle into half and thus one of insides of the circle is in contact with the other opposite inside of the circle, the length (a) of the virtual perpendicular line running from a border between the first tubular knit, the second tubular knit, and the connecting knit to the symmetrical line in a continuous side of the first tubular knit and the second tubular knit, the length (b) of the virtual perpendicular line running from the border to the symmetrical line in a side of the connecting knit.
Method for manufacturing an external horological or jewellery part comprising the following successive steps of: - producing 101 a base plate in a substrate made of a ceramic material, - mirror polishing 102 the base plate on at least one face, referred to as the "display face", intended to be visible to a user, - laser machining 103 predefined patterns in a preliminary step 105 on the display face, - oxidising 104 the base plate by heat treatment; said method being characterised in that in the preliminary step 105, the predefined patterns are obtained by digital image processing, so as to obtain an image formed of black pixels and white pixels, said black pixels or white pixels representing the patterns to be machined. - producing 101 a base plate in a substrate made of a ceramic material, - mirror polishing 102 the base plate on at least one face, referred to as the "display face", intended to be visible to a user, - laser machining 103 predefined patterns in a preliminary step 105 on the display face, - oxidising 104 the base plate by heat treatment; said method being characterised in that in the preliminary step 105, the predefined patterns are obtained by digital image processing, so as to obtain an image formed of black pixels and white pixels, said black pixels or white pixels representing the patterns to be machined.
A method of implementing virtual clusters on a physical cluster, the physical cluster including a plurality of physical server nodes (50, 52), each physical server node including a plurality of physical resources and a virtualizing subsystem, the virtualizing subsystem being capable of creating separate environments on the physical server node that logically isolate applications from each other, wherein the separate environments are virtual operating systems, the method comprising: configuring a plurality of virtual operating systems (60, 62, 64, 70, 72, 74) on each physical server node by defining properties of each virtual operating system; configuring a virtual cluster (54, 56, 58) composed of a plurality of virtual operating systems that are on a plurality of physical server nodes, wherein the virtual operating systems that compose the virtual cluster each have a local file system, the local file system for a particular virtual operating system only being accessible from that particular virtual operating system and wherein the virtual cluster has a cluster file system that is accessible, at the same place, from all virtual operating systems that compose the virtual cluster; running a cluster application on the virtual cluster, wherein the virtual cluster presents the plurality of virtual operating systems that compose the virtual cluster to the cluster application such that the cluster application is isolated from any other virtual operating systems on the plurality of physical server nodes. configuring a plurality of virtual operating systems (60, 62, 64, 70, 72, 74) on each physical server node by defining properties of each virtual operating system; configuring a virtual cluster (54, 56, 58) composed of a plurality of virtual operating systems that are on a plurality of physical server nodes, wherein the virtual operating systems that compose the virtual cluster each have a local file system, the local file system for a particular virtual operating system only being accessible from that particular virtual operating system and wherein the virtual cluster has a cluster file system that is accessible, at the same place, from all virtual operating systems that compose the virtual cluster; running a cluster application on the virtual cluster, wherein the virtual cluster presents the plurality of virtual operating systems that compose the virtual cluster to the cluster application such that the cluster application is isolated from any other virtual operating systems on the plurality of physical server nodes.
Heat storage tank including at least one chemically inert solid heat storage material containing at least calcium carbonate particles, in which the calcium carbonate particles have a size distribution with a diameter d 50 of from 0.5 mm to 200 mm, preferably 1 mm to 100 mm, more preferentially from 2 mm to 50 mm and more preferentially from 2 mm to 40 mm, and also comprising at least one heat-transfer fluid chosen from synthetic oils, mineral oils, plant oils and mixtures thereof, said oils comprising at least one aromatic ring.
A method for receiving multimedia broadcasts/multicast services, MBMS, data implemented in a wireless transmit/receive unit, WTRU, included in a mobile device, the method comprising: receiving a first set of MBMS data segments from a first MBMS transmitting source along with a first segmentation information associated with the first set of MBMS data segments, wherein the first segmentation information is received in-band with the MBMS data segments; disestablishing communication with the first MBMS transmitting source and establishing communication with a second MBMS transmitting source in response to a movement of the mobile computing device; receiving a second set of MBMS data segments, different from the first set of MBMS data segments, and a second segmentation information associated with the second set of MBMS segments, from a second MBMS transmitting source, wherein the first set of MBMS data segments from the first MBMS transmitting source and the second set of MBMS data segments from the second MBMS transmitting source are received in an order that is different from the order indicated by the first and second segmentation information; and reassembling the first and second set of MBMS data segments based on the first segmentation information received from the first MBMS transmitting source and the second segmentation information received from the second MBMS transmitting source. receiving a first set of MBMS data segments from a first MBMS transmitting source along with a first segmentation information associated with the first set of MBMS data segments, wherein the first segmentation information is received in-band with the MBMS data segments; disestablishing communication with the first MBMS transmitting source and establishing communication with a second MBMS transmitting source in response to a movement of the mobile computing device; receiving a second set of MBMS data segments, different from the first set of MBMS data segments, and a second segmentation information associated with the second set of MBMS segments, from a second MBMS transmitting source, wherein the first set of MBMS data segments from the first MBMS transmitting source and the second set of MBMS data segments from the second MBMS transmitting source are received in an order that is different from the order indicated by the first and second segmentation information; and reassembling the first and second set of MBMS data segments based on the first segmentation information received from the first MBMS transmitting source and the second segmentation information received from the second MBMS transmitting source.
A positive air pressure delivery device, comprising: a housing comprising: an inhalation inlet; an inhalation outlet; and an interior cavity in fluid communication with the inhalation inlet and outlet a pressurized fluid inlet comprising an outlet orifice in fluid communication with the interior cavity between the inhalation inlet and outlet; characterized in that the housing comprises a sound reducer baffle having a convex dome surface positioned downstream of and facing the outlet orifice in a spaced apart relationship therewith. an inhalation inlet; an inhalation outlet; and an interior cavity in fluid communication with the inhalation inlet and outlet a pressurized fluid inlet comprising an outlet orifice in fluid communication with the interior cavity between the inhalation inlet and outlet; characterized in that the housing comprises a sound reducer baffle having a convex dome surface positioned downstream of and facing the outlet orifice in a spaced apart relationship therewith.
A method for determining a cuvette form correction value for a laboratory analysis cuvette filled with a liquid reagent and having a transparent cuvette body comprising a vertical wall and a bottom wall, comprising the method steps: determining the liquid reagent volume of the liquid reagent filled into the laboratory analysis cuvette, optical determination of the liquid reagent level of the liquid reagent in the laboratory analysis cuvette by a level determination camera, characterised by calculating a horizontal inner width of the laboratory analysis cuvette from the determined liquid reagent volume and the determined liquid reagent level by an electronic control, and calculation of the form correction value from the calculated horizontal inner width and a reference inner width (D') of the laboratory analysis cuvette by the electronic control. determining the liquid reagent volume of the liquid reagent filled into the laboratory analysis cuvette, optical determination of the liquid reagent level of the liquid reagent in the laboratory analysis cuvette by a level determination camera, characterised by calculating a horizontal inner width of the laboratory analysis cuvette from the determined liquid reagent volume and the determined liquid reagent level by an electronic control, and calculation of the form correction value from the calculated horizontal inner width and a reference inner width (D') of the laboratory analysis cuvette by the electronic control.
A method of manufacturing a pipe from thermoplastic material in which the pipe is manufactured from a pre-manufactured strip previously made from thermoplastic material by helical winding of the strip onto a drum with the use of rotary rollers and the adjacent coils of the strip are bonded together, wherein a helical rib in the form of another strip previously made from thermoplastic material is attached to the external surface of the manufactured pipe, wherein the rib is attached to the pipe by one of the side edges of the strip in such a way that the side surfaces of the rib are perpendicular to the external surface of the pipe, characterised in that prior to attachment of the rib, the strip is corrugated or formed to a wave-like shape.