mhurhangee/ep-ind-claims huggingface dataset:
A method comprising: Receiving, at a processor, data representing at least part of an object to be manufactured in a layer-by-layer manufacturing process; and Generating, from the data and using the processor, a serialised octree representation of at least part of the object comprising a plurality of nodes, characterised in that generating the serialised octree representation comprises ordering the nodes such that (i) a node representing a volume which includes a layer of the object to be generated earlier in an intended order of object generation precedes a node representing a volume which consists of layer(s) of the object to be generated subsequently; (ii) nodes representing a volume which includes a given layer of the object are ordered based on a level of the nodes within the octree representation, wherein parent nodes appear before descendent nodes; and (iii) nodes representing a volume which includes a given layer of the object and being of the same level within the octree representation are ordered according to a location encoding pattern. Receiving, at a processor, data representing at least part of an object to be manufactured in a layer-by-layer manufacturing process; and Generating, from the data and using the processor, a serialised octree representation of at least part of the object comprising a plurality of nodes, characterised in that generating the serialised octree representation comprises ordering the nodes such that (i) a node representing a volume which includes a layer of the object to be generated earlier in an intended order of object generation precedes a node representing a volume which consists of layer(s) of the object to be generated subsequently; (ii) nodes representing a volume which includes a given layer of the object are ordered based on a level of the nodes within the octree representation, wherein parent nodes appear before descendent nodes; and (iii) nodes representing a volume which includes a given layer of the object and being of the same level within the octree representation are ordered according to a location encoding pattern. (i) a node representing a volume which includes a layer of the object to be generated earlier in an intended order of object generation precedes a node representing a volume which consists of layer(s) of the object to be generated subsequently; (ii) nodes representing a volume which includes a given layer of the object are ordered based on a level of the nodes within the octree representation, wherein parent nodes appear before descendent nodes; and (iii) nodes representing a volume which includes a given layer of the object and being of the same level within the octree representation are ordered according to a location encoding pattern.
A white building material comprising: (a) 0.5 to 3 parts by mass of an organic acid calcium salt and/or an organic acid zinc salt, (b) 0.1 to 1 parts by mass of calcium acetylacetonate and/or zinc acetylacetonate, (c) 0.1 to 3 parts by mass of a zinc-modified hydrotalcite compound, (d) 0.1 to 3 parts by mass of a polyol mixture, and (e) 0.5 to 6 parts by mass of titanium dioxide, with respect to 100 parts by mass of a vinyl chloride resin, wherein the polyol mixture of the above-mentioned component (d) is a polyol mixture composed of pentaerythritols and condensates thereof, and when the condensation degree of each pentaerythritol is represented by n, the total content of the pentaerythritols wherein n=1 to 3 is 5 to 40 mass% with respect to the total amount of the polyol mixture, provided that the total content of the pentaerythritols wherein n=1 to 3 and the condensates of the pentaerythritols wherein n≥4 is 100 mass%. (a) 0.5 to 3 parts by mass of an organic acid calcium salt and/or an organic acid zinc salt, (b) 0.1 to 1 parts by mass of calcium acetylacetonate and/or zinc acetylacetonate, (c) 0.1 to 3 parts by mass of a zinc-modified hydrotalcite compound, (d) 0.1 to 3 parts by mass of a polyol mixture, and (e) 0.5 to 6 parts by mass of titanium dioxide, with respect to 100 parts by mass of a vinyl chloride resin,
A method for controlling an internal combustion engine system comprising - a combustor arranged to receive air and fuel, and combust the received air and fuel, - an expander arranged to expand exhaust gases from the combustion in the combustor and to extract energy from the expanded exhaust gases, - where the engine system comprises an exhaust guide arranged to guide exhaust gases from the combustor to the expander, and - a communication valve arranged to control a communication between the combustor and the expander, the communication valve being arranged to control a communication between the combustor and the exhaust guide, - characterized by the method comprising determining the pressure in the exhaust guide, and determining whether there is a change in the exhaust guide pressure as a result of an opening event of the communication valve, and by determining during operation of the engine system whether there is a pressure difference across said communication valve. - a combustor arranged to receive air and fuel, and combust the received air and fuel, - an expander arranged to expand exhaust gases from the combustion in the combustor and to extract energy from the expanded exhaust gases, - where the engine system comprises an exhaust guide arranged to guide exhaust gases from the combustor to the expander, and - a communication valve arranged to control a communication between the combustor and the expander, the communication valve being arranged to control a communication between the combustor and the exhaust guide, - characterized by the method comprising determining the pressure in the exhaust guide, and determining whether there is a change in the exhaust guide pressure as a result of an opening event of the communication valve, and by determining during operation of the engine system whether there is a pressure difference across said communication valve.
A method of preparing a dentifrice comprising polymer matrix film with low solubility flavorant therein, comprising the steps of: a. forming a polymer matrix film in the substantial absence of low solubility flavorant, wherein said polymer matrix comprises a water-soluble polymer and a hydrophobic/lipophilic additive; b. forming a dentifrice base comprising a low solubility flavorant; c. combining the polymer matrix film with the dentifrice base; and d. maintaining the combined polymer matrix film and dentifrice base for an amount of time suitable for an effective amount of low solubility flavorant to transfer from said dentifrice base to said polymer matrix film, wherein the low solubility flavourant has a solubility generally on the order of menthol in water or less soluble; wherein the amount of hydrophobic/lipophilic additive in the polymer matrix film is 7% to 33% by weight; and wherein the dentifrice comprises the film in an amount of 1% by weight of the dentifrice. a. forming a polymer matrix film in the substantial absence of low solubility flavorant, wherein said polymer matrix comprises a water-soluble polymer and a hydrophobic/lipophilic additive; b. forming a dentifrice base comprising a low solubility flavorant; c. combining the polymer matrix film with the dentifrice base; and d. maintaining the combined polymer matrix film and dentifrice base for an amount of time suitable for an effective amount of low solubility flavorant to transfer from said dentifrice base to said polymer matrix film, wherein the low solubility flavourant has a solubility generally on the order of menthol in water or less soluble; wherein the amount of hydrophobic/lipophilic additive in the polymer matrix film is 7% to 33% by weight; and wherein the dentifrice comprises the film in an amount of 1% by weight of the dentifrice.
A method of preparing a pharmaceutical composition comprising: coating API particles with a coating material to form coated API particles, wherein the coating material comprises one or more deformable components; applying mechanical stress to the coated API particles to deform the one or more deformable components; coating the coated API particles with silica; applying mechanical stress to at least one of adhere, partially embed, or embed the silica on the coated API particles; sieving the coated API particles to remove excess coating material, wherein the excess coating material comprises coating material not bound to a coated API particle; mixing the coated API particles into a matrix solution/suspension to form a pharmaceutical suspension; and dosing the pharmaceutical suspension into a mold. coating API particles with a coating material to form coated API particles, wherein the coating material comprises one or more deformable components; applying mechanical stress to the coated API particles to deform the one or more deformable components; coating the coated API particles with silica; applying mechanical stress to at least one of adhere, partially embed, or embed the silica on the coated API particles; sieving the coated API particles to remove excess coating material, wherein the excess coating material comprises coating material not bound to a coated API particle; mixing the coated API particles into a matrix solution/suspension to form a pharmaceutical suspension; and dosing the pharmaceutical suspension into a mold.
A shaving blade comprising: a substrate having a cutting edge on which a substrate tip is formed, wherein a thickness T16 of the substrate, measured at a distance D16 that is 16 micrometers from the substrate tip, is in a range from 2.41 micrometers to 3.76 micrometers, wherein a thickness T100 of the substrate, measured at a distance D100 that is 100 micrometers from the substrate tip, is in a range from 10.5 micrometers to 19.5 micrometers. a substrate having a cutting edge on which a substrate tip is formed, wherein a thickness T16 of the substrate, measured at a distance D16 that is 16 micrometers from the substrate tip, is in a range from 2.41 micrometers to 3.76 micrometers, wherein a thickness T100 of the substrate, measured at a distance D100 that is 100 micrometers from the substrate tip, is in a range from 10.5 micrometers to 19.5 micrometers.
Method to shim a magnetic field inside an MR apparatus, whereby a shim insert comprising several magnetic coils is placed inside a bore of the MR apparatus, wherein after placing the shim insert inside the bore, geometrical parameters, which are positions and/or orientations, of the individual magnetic coils of the shim insert are determined, wherein an uncorrected magnetic field heterogeneity distribution of the magnetic field is measured and wherein optimal shim currents for the magnetic coils are determined using the geometrical parameters and the uncorrected magnetic field heterogeneity distribution, characterized in that the optimal shim currents are determined by - generating a digital model of the shim insert such that magnetic field sensitivities of the individual coils can be calculated automatically, whereby the magnetic field sensitivities depend on the geometrical parameters, - finding optimal shim currents that minimize a deviation between the uncorrected measured magnetic field heterogeneity distribution and the magnetic field that is generated by the digital model of the shim insert for the geometrical parameters. - generating a digital model of the shim insert such that magnetic field sensitivities of the individual coils can be calculated automatically, whereby the magnetic field sensitivities depend on the geometrical parameters, - finding optimal shim currents that minimize a deviation between the uncorrected measured magnetic field heterogeneity distribution and the magnetic field that is generated by the digital model of the shim insert for the geometrical parameters.
A therapeutic agent for use in the treatment of bradyarrhythmia containing the following compound or compound or a pharmacologically acceptable salt thereof as an active component: (wherein, Ph is a phenyl group).
An isolated polypeptide: a) which comprises SEQ ID NO: 72; b) which is a functional variant of SEQ ID NO: 72, and which shares at least 90% identity with the full length sequence of SEQ ID NO: 72; or c) which is a functional variant of SEQ ID NO: 72, and which shares at least 80% identity with the full length sequence of SEQ ID NO: 72; wherein said functional variants are able to inhibit a methanogen cell.
An air intake structure for a clothes treatment device, wherein the clothes treatment device comprises an inner drum forming a sealed container when a washing procedure is executed, said air intake structure having: an air duct shaft with a hollow channel inside which can be connected with the inner drum parallel to an axis of the inner drum, characterized in that said air intake structure further comprises an air cavity wrapping the air duct shaft and formed outside the inner drum, wherein said air cavity can communicate with an interior of the inner drum through the hollow channel in the air duct shaft, and said air cavity is connected with an air duct blowing a drying airflow, wherein one end of the hollow channel in the air duct shaft can communicate with the inner drum and another end of the hollow channel in the air duct shaft is a sealed end, and wherein at least an opening is arranged in the air duct shaft at its radial direction and communicates the hollow channel in the air duct shaft with the air cavity. an air duct shaft with a hollow channel inside which can be connected with the inner drum parallel to an axis of the inner drum, characterized in that said air intake structure further comprises an air cavity wrapping the air duct shaft and formed outside the inner drum, wherein said air cavity can communicate with an interior of the inner drum through the hollow channel in the air duct shaft, and said air cavity is connected with an air duct blowing a drying airflow, wherein one end of the hollow channel in the air duct shaft can communicate with the inner drum and another end of the hollow channel in the air duct shaft is a sealed end, and wherein at least an opening is arranged in the air duct shaft at its radial direction and communicates the hollow channel in the air duct shaft with the air cavity.
An incremental mixer tap of the kind comprising a cylindrical body into which is inserted a thermostatic cartridge that is connected, firstly, to a cold water inlet and to a hot water inlet and, secondly, to a mixed water outlet, and that includes a control to adjust the outflow and a control to monitor the temperature of the mixed water, characterized in that the control to adjust the temperature of the mixed water is connected to one end of the thermostatic cartridge and includes an incrementer comprising: - a ring mounted in rotation on the axis of the thermostatic cartridge and including two tooth rings (8a and 8b) on its edge; - two levers (9a and 9b) each cooperating with a tooth ring (8a, 8b) so as to cause the said ring to turn in one direction or the other; and - means to operate each lever (9a, 9b). - a ring mounted in rotation on the axis of the thermostatic cartridge and including two tooth rings (8a and 8b) on its edge; - two levers (9a and 9b) each cooperating with a tooth ring (8a, 8b) so as to cause the said ring to turn in one direction or the other; and - means to operate each lever (9a, 9b).
A method of packet processing, in a system for packet processing comprising a processor comprising a plurality of cores, wherein a first subset of the plurality of cores operates as a network-processing module and a second subset of the plurality of cores operates as a drive-processing module, the method comprising: receiving, by the network-processing module, an input/output, IO, request from a host; selecting, by the drive-processing module, a drive corresponding to the IO request using a hashing algorithm or a round-robin technique; establishing a connection between the host and the drive; and assigning, by the network-processing module, one or more other IO requests to one or more respective cores of the processor using the round-robin technique to balance one or more connections between one or more hosts and one or more drives, and to balance a loading of the cores of the processor. receiving, by the network-processing module, an input/output, IO, request from a host; selecting, by the drive-processing module, a drive corresponding to the IO request using a hashing algorithm or a round-robin technique; establishing a connection between the host and the drive; and assigning, by the network-processing module, one or more other IO requests to one or more respective cores of the processor using the round-robin technique to balance one or more connections between one or more hosts and one or more drives, and to balance a loading of the cores of the processor.
A cable type secondary battery comprising: an inner electrode support; an inner electrode comprising a sheet-type first inner electrode formed such that it is spirally wound on an exterior of the inner electrode support, a sheet-type inner separation layer formed such that it is spirally wound on an exterior of the first inner electrode, and a sheet-type second inner electrode formed such that it is spirally wound on an exterior of the inner separation layer; an outer separation layer formed such that it is spirally wound on an exterior of the inner electrode; and an outer electrode formed such that it is spirally wound on an exterior of the outer separation layer. an inner electrode support; an inner electrode comprising a sheet-type first inner electrode formed such that it is spirally wound on an exterior of the inner electrode support, a sheet-type inner separation layer formed such that it is spirally wound on an exterior of the first inner electrode, and a sheet-type second inner electrode formed such that it is spirally wound on an exterior of the inner separation layer; an outer separation layer formed such that it is spirally wound on an exterior of the inner electrode; and an outer electrode formed such that it is spirally wound on an exterior of the outer separation layer.
A heat exchanger, in particular a heat exchanger for a motor vehicle, comprising - a plurality of tubes, - at least one collecting tube with a base which has a wall, wherein openings are provided in the wall, wherein passages are formed which protrude from the wall in the axial direction of the openings, wherein the tubes are disposed partially at the passages in the area of one end of the tubes and a fluid-tight connection exists between the passages and the tubes, - at least one inlet opening for introducing a fluid, and - at least one outlet opening for discharging the fluid, wherein the thickness of the passages is less than the thickness of the wall of the collecting tube, in particular in the area of the openings, and the thickness of the passages decreases, preferably in a steady manner, from the beginning of the passages at the wall of the collecting tube to an end of the passages, characterised in that the thickness of the passages from a beginning at the base to a tip of the passages is at least 10% of the thickness of the wall of the collecting tube, in particular in the area of the openings, wherein the length of the tip of the passages is at least 10% of the thickness of the wall of the collecting tube, in particular in the area of the openings, and wherein the thickness of the passages from a beginning at the base to 0.8 times the total length of the passage upstream of the tip is less than 0.9 times the thickness of the wall of the collecting tube, in particular in the area of the openings. - a plurality of tubes, - at least one collecting tube with a base which has a wall, wherein openings are provided in the wall, wherein passages are formed which protrude from the wall in the axial direction of the openings, wherein the tubes are disposed partially at the passages in the area of one end of the tubes and a fluid-tight connection exists between the passages and the tubes, - at least one inlet opening for introducing a fluid, and - at least one outlet opening for discharging the fluid, wherein the thickness of the passages is less than the thickness of the wall of the collecting tube, in particular in the area of the openings, and the thickness of the passages decreases, preferably in a steady manner, from the beginning of the passages at the wall of the collecting tube to an end of the passages, characterised in that the thickness of the passages from a beginning at the base to a tip of the passages is at least 10% of the thickness of the wall of the collecting tube, in particular in the area of the openings, wherein the length of the tip of the passages is at least 10% of the thickness of the wall of the collecting tube, in particular in the area of the openings, and wherein the thickness of the passages from a beginning at the base to 0.8 times the total length of the passage upstream of the tip is less than 0.9 times the thickness of the wall of the collecting tube, in particular in the area of the openings.
A first node comprising: a sending module, configured to send a first-type subframe, wherein the first-type subframe comprises a physical downlink shared channel, PDSCH, and a first synchronization channel, the first synchronization channel comprises a first primary synchronization signal, PSS, and a first secondary synchronization signal, SSS, and the first PSS and the first SSS are used to enable a second node that receives the first PSS and the first SSS to synchronize with the first node; and a processing module, configured to control the sending module to switch from sending the first-type subframe to sending a second-type subframe; wherein the sending module is further configured to send the second-type subframe under the control of the processing module, wherein the second-type subframe comprises a physical uplink shared channel, PUSCH, and a second synchronization channel, the second synchronization channel comprises a second PSS or a second SSS, the second PSS or the second SSS is used to enable the second node that receives the second PSS or the second SSS to keep synchronous with the first node, the second PSS is generated according to the first PSS, and the second SSS is generated according to the first SSS. a sending module, configured to send a first-type subframe, wherein the first-type subframe comprises a physical downlink shared channel, PDSCH, and a first synchronization channel, the first synchronization channel comprises a first primary synchronization signal, PSS, and a first secondary synchronization signal, SSS, and the first PSS and the first SSS are used to enable a second node that receives the first PSS and the first SSS to synchronize with the first node; and a processing module, configured to control the sending module to switch from sending the first-type subframe to sending a second-type subframe; wherein the sending module is further configured to send the second-type subframe under the control of the processing module, wherein the second-type subframe comprises a physical uplink shared channel, PUSCH, and a second synchronization channel, the second synchronization channel comprises a second PSS or a second SSS, the second PSS or the second SSS is used to enable the second node that receives the second PSS or the second SSS to keep synchronous with the first node, the second PSS is generated according to the first PSS, and the second SSS is generated according to the first SSS.
A method of packaging a food product comprising uncooked meat, the method comprising contacting said product or the uncooked meat to be used therein with a composition comprising as active components: (i) succinate and glutamate and/or malate; or (ii) glutamate, malate and, optionally, citrate; and packaging said product.