mhurhangee/ep-ind-claims huggingface dataset:
A process for preparing a doughy homogeneous mixture with organic or non-organic ingredients of natural origin as food seasoning, comprising the following steps: (i) Reception, weighting and washing of raw materials, said raw materials being fresh organic or non-organic produce in a proportion from 75 to 85% with respect to the total weight of the mixture; (ii) Homogenizing the raw materials with: - water in a proportion from 10 to 15% with respect to the total weight of the mixture, - salt in a proportion from 2,5 to 4,0% with respect to the total weight of the mixture, - carbohydrates in a proportion from 1,5 to 3,0% with respect to the total weight of the mixture, and - natural preservatives in a proportion from 0,5 to 1,5% with respect to the total weight of the mixture, said natural preservatives being lactic acid and acetic acid, wherein the homogenization step is carried out for 5 to 8 minutes at a temperature between 20 and 25°C; (iii) Thermal treatment of the homogenized mixture, which is carried out at a temperature between 90 and 95°C to form a thermal treated mixture; (iv) Pumping the thermal treated mixture; (v) Packaging the pumped thermal treated mixture into a package; and (vi) Thermal Shock of the package, wherein the thermal shock is carried out between 80 to 85°C to decrease to between 35 to 30°C during the time of 5 to 15 minutes; and wherein the pH of the mixture is less than 4,6. (i) Reception, weighting and washing of raw materials, said raw materials being fresh organic or non-organic produce in a proportion from 75 to 85% with respect to the total weight of the mixture; (ii) Homogenizing the raw materials with: - water in a proportion from 10 to 15% with respect to the total weight of the mixture, - salt in a proportion from 2,5 to 4,0% with respect to the total weight of the mixture, - carbohydrates in a proportion from 1,5 to 3,0% with respect to the total weight of the mixture, and - natural preservatives in a proportion from 0,5 to 1,5% with respect to the total weight of the mixture, said natural preservatives being lactic acid and acetic acid, wherein the homogenization step is carried out for 5 to 8 minutes at a temperature between 20 and 25°C; - water in a proportion from 10 to 15% with respect to the total weight of the mixture, - salt in a proportion from 2,5 to 4,0% with respect to the total weight of the mixture, - carbohydrates in a proportion from 1,5 to 3,0% with respect to the total weight of the mixture, and - natural preservatives in a proportion from 0,5 to 1,5% with respect to the total weight of the mixture, said natural preservatives being lactic acid and acetic acid, (iii) Thermal treatment of the homogenized mixture, which is carried out at a temperature between 90 and 95°C to form a thermal treated mixture; (iv) Pumping the thermal treated mixture; (v) Packaging the pumped thermal treated mixture into a package; and (vi) Thermal Shock of the package, wherein the thermal shock is carried out between 80 to 85°C to decrease to between 35 to 30°C during the time of 5 to 15 minutes; and wherein the pH of the mixture is less than 4,6.
A flexible multi-lumen expiratory limb suitable for use in a breathing circuit, the limb comprising: a first opening configured to receive a gas; a second opening configured to allow the gas to exit the limb; a first securing mechanism comprising a plurality of interconnected lobes; a plurality of conduits each comprising a first end proximal the first opening, a second end proximal the second opening, and a wall extending between the first end and the second end and defining a lumen within through which, when in use, gas flows in the direction of the first end toward the second end, and wherein at least a part of said wall comprises a breathable material configured to allow transmission of water vapor but substantially prevent transmission of liquid water thereby drying the gas flowing between the first end and the second end of each conduit; wherein, each conduit of the plurality of conduits extends through a different lobe of the first securing mechanism, the first securing mechanism being spaced from the first and the second ends of the plurality of conduits and configured to prevent each conduit of the plurality of conduits from separating away from an adjacent conduit of the plurality of conduits. a first opening configured to receive a gas; a second opening configured to allow the gas to exit the limb; a first securing mechanism comprising a plurality of interconnected lobes; a plurality of conduits each comprising a first end proximal the first opening, a second end proximal the second opening, and a wall extending between the first end and the second end and defining a lumen within through which, when in use, gas flows in the direction of the first end toward the second end, and wherein at least a part of said wall comprises a breathable material configured to allow transmission of water vapor but substantially prevent transmission of liquid water thereby drying the gas flowing between the first end and the second end of each conduit; wherein, each conduit of the plurality of conduits extends through a different lobe of the first securing mechanism, the first securing mechanism being spaced from the first and the second ends of the plurality of conduits and configured to prevent each conduit of the plurality of conduits from separating away from an adjacent conduit of the plurality of conduits.
A heat pump apparatus comprising: a first refrigerant circuit through which a refrigerant is circulated, the first refrigerant circuit including a first compressor, a first heat source heat exchanger, a first expansion mechanism, and a first intermediate heat exchanger sequentially connected in loop by pipes; a fluid circuit through which a fluid is circulated, the fluid circuit including the first intermediate heat exchanger, a pump, a first valve, a load heat exchanger, and a second valve sequentially connected in loop by pipes; and a leakage detecting device that detects leakage of the refrigerant, circulated through the first refrigerant circuit, from the first intermediate heat exchanger into the fluid circuit, characterized in that the heat pump apparatus further comprises a controller that controls an opening degree of the first valve in such a manner that the fluid circulated through the fluid circuit flows at a predetermined flow rate and closes the first valve and the second valve included in the fluid circuit when the leakage detecting device detects the leakage of the refrigerant, wherein the pump circulates the fluid in such a manner that the fluid flows the first intermediate heat exchanger, the first valve, the load heat exchanger, and the second valve in that order, and wherein the leakage detecting device is placed between the pump and the first valve in the fluid circuit and detects the leakage of refrigerant by detecting pressure within the fluid circuit. a first refrigerant circuit through which a refrigerant is circulated, the first refrigerant circuit including a first compressor, a first heat source heat exchanger, a first expansion mechanism, and a first intermediate heat exchanger sequentially connected in loop by pipes; a fluid circuit through which a fluid is circulated, the fluid circuit including the first intermediate heat exchanger, a pump, a first valve, a load heat exchanger, and a second valve sequentially connected in loop by pipes; and a leakage detecting device that detects leakage of the refrigerant, circulated through the first refrigerant circuit, from the first intermediate heat exchanger into the fluid circuit, characterized in that the heat pump apparatus further comprises a controller that controls an opening degree of the first valve in such a manner that the fluid circulated through the fluid circuit flows at a predetermined flow rate and closes the first valve and the second valve included in the fluid circuit when the leakage detecting device detects the leakage of the refrigerant, wherein the pump circulates the fluid in such a manner that the fluid flows the first intermediate heat exchanger, the first valve, the load heat exchanger, and the second valve in that order, and wherein the leakage detecting device is placed between the pump and the first valve in the fluid circuit and detects the leakage of refrigerant by detecting pressure within the fluid circuit.
A humidifier comprising: a housing defined by a lower portion and an upper portion; the lower portion of the housing including a fan and air vents where humidified air is released into a room; humidifying equipment disposed within the housing to humidify ambient air, the humidifying equipment including a water tank on the upper portion of the housing; and an image projector coupled to an upper end of the upper portion of the housing for projecting an image onto a surface of the room, wherein an aperture is located in the upper end of the upper portion of the housing, and the image projector includes a lens placed into the aperture. a housing defined by a lower portion and an upper portion; the lower portion of the housing including a fan and air vents where humidified air is released into a room; humidifying equipment disposed within the housing to humidify ambient air, the humidifying equipment including a water tank on the upper portion of the housing; and an image projector coupled to an upper end of the upper portion of the housing for projecting an image onto a surface of the room, wherein an aperture is located in the upper end of the upper portion of the housing, and the image projector includes a lens placed into the aperture.
A method of rendering an output video, comprising: obtaining a source video; obtaining parameters encoding respective input time intervals within a time range of the source video for pixels in the source video, where a respective input time interval for a particular pixel includes a per-pixel loop period of a loop at the particular pixel within the time range of the source video, wherein obtaining the parameters comprises generating the parameters, and wherein generating the parameters comprises performing an optimization to solve for the per-pixel loop period and a per-pixel start time, wherein said optimization comprises determining the respective input time intervals within the time range of the source video for the pixels that optimize an objective function, wherein the objective function comprises a spatial consistency term, a temporal consistency term, and a dynamism term that penalizes assignment of static loops at the pixels based upon temporal variances of neighborhoods of the pixels in the source video; receiving a selection of a level of dynamism that causes one or more spatial regions of the output video to respectively be either static or looping; and creating the output video based on the source video, the parameters, and the selection causing the output video to be rendered on a display screen. obtaining a source video; obtaining parameters encoding respective input time intervals within a time range of the source video for pixels in the source video, where a respective input time interval for a particular pixel includes a per-pixel loop period of a loop at the particular pixel within the time range of the source video, wherein obtaining the parameters comprises generating the parameters, and wherein generating the parameters comprises performing an optimization to solve for the per-pixel loop period and a per-pixel start time, wherein said optimization comprises determining the respective input time intervals within the time range of the source video for the pixels that optimize an objective function, wherein the objective function comprises a spatial consistency term, a temporal consistency term, and a dynamism term that penalizes assignment of static loops at the pixels based upon temporal variances of neighborhoods of the pixels in the source video; receiving a selection of a level of dynamism that causes one or more spatial regions of the output video to respectively be either static or looping; and creating the output video based on the source video, the parameters, and the selection causing the output video to be rendered on a display screen.
An anchor assembly for a downhole cutting apparatus, wherein the anchor assembly comprises: an anchor body configured to attach to a lower end of the downhole cutting apparatus, wherein the downhole cutting apparatus is configured to discharge a cutting fluid for perforating or cutting a conduit within a wellbore; and characterized by: one or more features configured to define at least one flow path for at least a portion of the cutting fluid discharged by the downhole cutting apparatus during operation of the downhole cutting apparatus, such that flow of the at least a portion of the cutting fluid along the at least one flow path imparts a rotational motion in the downhole cutting apparatus, wherein said one or more features comprise one or more channels extending longitudinally and circumferentially along the surface of the anchor body to form the at least one flow path for said at least a portion of the cutting fluid, and wherein the at least one flow path imparts the rotational motion in the downhole cutting apparatus when said at least a portion of the cutting fluid discharged by the downhole cutting apparatus flows through or along the at least one flow path formed by the one or more channels. an anchor body configured to attach to a lower end of the downhole cutting apparatus, wherein the downhole cutting apparatus is configured to discharge a cutting fluid for perforating or cutting a conduit within a wellbore; and characterized by: one or more features configured to define at least one flow path for at least a portion of the cutting fluid discharged by the downhole cutting apparatus during operation of the downhole cutting apparatus, such that flow of the at least a portion of the cutting fluid along the at least one flow path imparts a rotational motion in the downhole cutting apparatus, wherein said one or more features comprise one or more channels extending longitudinally and circumferentially along the surface of the anchor body to form the at least one flow path for said at least a portion of the cutting fluid, and wherein the at least one flow path imparts the rotational motion in the downhole cutting apparatus when said at least a portion of the cutting fluid discharged by the downhole cutting apparatus flows through or along the at least one flow path formed by the one or more channels.
A platen holder for use in a printer, comprising: a surface including multiple datum surfaces to support and position a platen; a clamp to clamp the platen to the datum surfaces, the clamp having a jaw and an actuator to open and close the jaw, the jaw and the actuator located below a plane of the datum surfaces and the jaw movable at the urging of the actuator between an open position in which the platen may be placed on or removed from the surface and a closed position to hold the platen against the datum surfaces. a surface including multiple datum surfaces to support and position a platen; a clamp to clamp the platen to the datum surfaces, the clamp having a jaw and an actuator to open and close the jaw, the jaw and the actuator located below a plane of the datum surfaces and the jaw movable at the urging of the actuator between an open position in which the platen may be placed on or removed from the surface and a closed position to hold the platen against the datum surfaces.
A method comprising: receiving a packet at a network node of a service chain, the service chain comprised of one or more service functions, the network node configured to apply a service function to traffic that passes through the network node; determining that the network node is an exit point for the packet for the service chain based on location information in a header of the packet; identifying that a stateful service function has been applied in the service chain based on context information in the header; receiving classification criteria for forwarding return traffic into the service chain; and if the packet matches the classification criteria, generating information from the context information identifying the stateful service function, the information defining a reverse path for the packet to be returned, wherein the information defining the reverse path indicates the return packet is directed to a network node that applied the stateful service function in the service chain; and forwarding the return packet in the reverse path in the service chain. receiving a packet at a network node of a service chain, the service chain comprised of one or more service functions, the network node configured to apply a service function to traffic that passes through the network node; determining that the network node is an exit point for the packet for the service chain based on location information in a header of the packet; identifying that a stateful service function has been applied in the service chain based on context information in the header; receiving classification criteria for forwarding return traffic into the service chain; and if the packet matches the classification criteria, generating information from the context information identifying the stateful service function, the information defining a reverse path for the packet to be returned, wherein the information defining the reverse path indicates the return packet is directed to a network node that applied the stateful service function in the service chain; and forwarding the return packet in the reverse path in the service chain.
A nanostructure array, comprising a substrate and elongated peptide nanostructures arranged on said substrate, wherein said nanostructures are arranged generally perpendicularly to said substrate, and wherein each of said nanostructures is formed from a plurality of homodipeptides selected from a naphthylalanine-naphthylalanine dipeptide, phenanthrenylalanine-phenanthrenylalanine dipeptide, anthracenylalanine-anthracenylalanine dipeptide, [1,10]phenanthrolinylalanine-[1,10]phenanthrolinylalanine dipeptide, [2,2']bipyridinylalanine-[2,2']bipyridinylalanine dipeptide, (pentahalo-phenylalanine)-(pentahalo-phenylalanine) dipeptide, phenylalanine-phenylalanine dipeptide, (amino-phenylalanine)-(amino-phenylalanine) dipeptide, (dialkylamino-phenylalanine)-(dialkylamino-phenylalanine) dipeptide, (halophenylalanine)-(halophenylalanine) dipeptide, (alkoxy-phenylalanine)-(alkoxyphenylalanine) dipeptide, (trihalomethyl-phenylalanine)-(trihalomethyl-phenylalanine) dipeptide, (4-phenyl-phenylalanine)-(4-phenyl-phenylalanine) dipeptide and (nitro-phenylalanine)-(nitro-phenylalanine) dipeptide, or from a plurality of said homodipeptides which are modified at the C-terminus by an end-capping moiety.
A method of identifying a VDJ recombination product which comprises the following steps: (a) obtaining a DNA sample comprising a VDJ recombination product; (b) fragmenting the VDJ recombination product either by sonication, shearing or performing a restriction endonuclease reaction at a first site downstream of each of the J genes or downstream of the constant region, and a second site within or immediately upstream of the V gene to generate digested VDJ recombined fragments and unrecombined J fragments; (c) annealing oligonucleotides to the digested fragments at unique regions within or immediately downstream of each of the J genes; (d) separating the digested VDJ recombined fragments from the unrecombined J fragments and the rest of the genome; (e) sequencing the VDJ recombined fragments or products; and (f) data processing of the sequencing data to identify each VDJ recombination product and quantify VDJ recombination frequencies. (a) obtaining a DNA sample comprising a VDJ recombination product; (b) fragmenting the VDJ recombination product either by sonication, shearing or performing a restriction endonuclease reaction at a first site downstream of each of the J genes or downstream of the constant region, and a second site within or immediately upstream of the V gene to generate digested VDJ recombined fragments and unrecombined J fragments; (c) annealing oligonucleotides to the digested fragments at unique regions within or immediately downstream of each of the J genes; (d) separating the digested VDJ recombined fragments from the unrecombined J fragments and the rest of the genome; (e) sequencing the VDJ recombined fragments or products; and (f) data processing of the sequencing data to identify each VDJ recombination product and quantify VDJ recombination frequencies.
Method for identification of honey bees with above-average hygienic behaviour, characterized in that, it is determined whether the genome of a honey bee or a group of honey bees comprises: - at least one allele Axo' of the Axo gene, wherein said at least one allele Axo' is characterized by presence of at least one sequence variation compared to the nucleotide sequence of the Axo gene with SEQ ID No. 1, wherein the at least one sequence variation of the allele Axo' is one of Axo'883 C→T, Axo'899 G→T, Axo'1412_→G, Axo'1424_→C, Axo'1435_→C, Axo'1435_→CGAA, Axo'2537 T→C, Axo'3759 C→A, Axo'3867 T→C, Axo'3909 T→C, Axo'4666 T→C, Axo'5299 G→A, Axo'6139 G→A, Axo'7717 _→A, Axo'8566 G→_, Axo'8566 GT→_A, Axo'8567 T→A, Axo'8851 G→A, Axo'10755 C→T, Axo'11325 G→A, Axo'12909 G→A, Axo'12924 A→G, Axo,'12924_12926 AAT→GAC, Axo'13984 G→A and/or combinations thereof; and/or - at least one allele Ser' of the Ser gene, wherein said at least one allele Ser' is characterized by presence of at least one sequence variation compared to the nucleotide sequence of the Ser gene with SEQ ID No. 2, wherein the at least one sequence variation of the allele Ser' is one of Ser'17193 G→A, Ser'40832 T→C, Ser'43680 C→T, Seer'43709_43711 CGC→TGT, Ser'43710 G→A, Ser'43711 C→T, Ser'43939 C→T and/or combinations thereof. - at least one allele Axo' of the Axo gene, wherein said at least one allele Axo' is characterized by presence of at least one sequence variation compared to the nucleotide sequence of the Axo gene with SEQ ID No. 1, wherein the at least one sequence variation of the allele Axo' is one of Axo'883 C→T, Axo'899 G→T, Axo'1412_→G, Axo'1424_→C, Axo'1435_→C, Axo'1435_→CGAA, Axo'2537 T→C, Axo'3759 C→A, Axo'3867 T→C, Axo'3909 T→C, Axo'4666 T→C, Axo'5299 G→A, Axo'6139 G→A, Axo'7717 _→A, Axo'8566 G→_, Axo'8566 GT→_A, Axo'8567 T→A, Axo'8851 G→A, Axo'10755 C→T, Axo'11325 G→A, Axo'12909 G→A, Axo'12924 A→G, Axo,'12924_12926 AAT→GAC, Axo'13984 G→A and/or combinations thereof; and/or - at least one allele Ser' of the Ser gene, wherein said at least one allele Ser' is characterized by presence of at least one sequence variation compared to the nucleotide sequence of the Ser gene with SEQ ID No. 2, wherein the at least one sequence variation of the allele Ser' is one of Ser'17193 G→A, Ser'40832 T→C, Ser'43680 C→T, Seer'43709_43711 CGC→TGT, Ser'43710 G→A, Ser'43711 C→T, Ser'43939 C→T and/or combinations thereof.
An electrode active material comprising a porous silicon oxide-based composite, wherein the porous silicon oxide based composite has lithium dispersed therein and carbon coated on a surface thereof, and wherein the lithium is present in an amount of 2-15 wt% based on the total weight of the porous silicon oxide-based composite, and the porous silicon oxide-based composite has a BET specific surface area of 2-100 m 2 /g.