mhurhangee/ep-ind-claims huggingface dataset:
Organic-inorganic core-shell nano-particles obtainable by a method comprising steps: 1) Preparing an oil-in-water emulsion by mixing an organic compound A; an emulsion stabilizer C; and aqueous medium of pH 2-6; at a mass ratio C/A of 0.1 to 2, to result in 1-50 mass% based on emulsion of emulsified droplets of particle size 30-300 nm wherein the particle size is the Z-averaged hydrodynamic diameter measured by Dynamic Light Scattering; and 2) Providing an inorganic oxide shell layer to the emulsified droplets by adding to the emulsion obtained in step 1) at least one inorganic oxide precursor, to result in organic-inorganic core-shell nano-particles with mass ratio core/shell of from 0.2 to 25 where the core is the sum of compound A and emulsion stabilizer C and shell is metal oxide equivalent of inorganic oxide precursor, wherein compound A is an apolar organic non-polymeric compound having a solubility in water of at most 5 kg/m 3 and wherein the compound A is selected from the group consisting of hydrocarbon compounds, fatty acids, alcohols, esters, ethers, and vinyl compounds, and the emulsion stabilizer C is a cationic addition copolymer comprising at least one monomer unit having a cationic charge and at least one monomer unit being neutral or non-ionic and having an overall positive zeta potential and wherein the cationic addition copolymer comprises ethylenically unsaturated monomers or vinyl monomers. 1) Preparing an oil-in-water emulsion by mixing an organic compound A; an emulsion stabilizer C; and aqueous medium of pH 2-6; at a mass ratio C/A of 0.1 to 2, to result in 1-50 mass% based on emulsion of emulsified droplets of particle size 30-300 nm wherein the particle size is the Z-averaged hydrodynamic diameter measured by Dynamic Light Scattering; and 2) Providing an inorganic oxide shell layer to the emulsified droplets by adding to the emulsion obtained in step 1) at least one inorganic oxide precursor, to result in organic-inorganic core-shell nano-particles with mass ratio core/shell of from 0.2 to 25 where the core is the sum of compound A and emulsion stabilizer C and shell is metal oxide equivalent of inorganic oxide precursor, wherein compound A is an apolar organic non-polymeric compound having a solubility in water of at most 5 kg/m 3 and wherein the compound A is selected from the group consisting of hydrocarbon compounds, fatty acids, alcohols, esters, ethers, and vinyl compounds, and the emulsion stabilizer C is a cationic addition copolymer comprising at least one monomer unit having a cationic charge and at least one monomer unit being neutral or non-ionic and having an overall positive zeta potential and wherein the cationic addition copolymer comprises ethylenically unsaturated monomers or vinyl monomers.
A first ethylene-based interpolymer comprising, in polymerized form, monomer units derived from ethylene and from a vinyl benzocyclobutene (VBCB) structure of Structure 1: wherein n is from 3 to 10; and wherein the ethylene-based interpolymer comprises, in polymerized form, from 0.04 to 0.50 wt% of the Structure 1, based on the weight of the first ethylene-based interpolymer, as determined by 1 H NMR; and wherein the first ethylene-based interpolymer comprises greater than 99 wt% units, in polymerized form, derived from ethylene, based on the weight of the first ethylene-based interpolymer. wherein n is from 3 to 10; and wherein the ethylene-based interpolymer comprises, in polymerized form, from 0.04 to 0.50 wt% of the Structure 1, based on the weight of the first ethylene-based interpolymer, as determined by 1 H NMR; and wherein the first ethylene-based interpolymer comprises greater than 99 wt% units, in polymerized form, derived from ethylene, based on the weight of the first ethylene-based interpolymer.
A method, performed by a provider network edge, PE, for storing a media access control, MAC, address entry, comprising: Sending, a first packet to a route reflector, RR, so that the RR determines a MAC address entry according to the first packet, wherein the RR stores a MAC address table, and the MAC address table comprises all MAC address entries in an Ethernet virtual private network; receiving, a packet which comprises the MAC address entry determined and sent by the RR, and storing the MAC address entry. Sending, a first packet to a route reflector, RR, so that the RR determines a MAC address entry according to the first packet, wherein the RR stores a MAC address table, and the MAC address table comprises all MAC address entries in an Ethernet virtual private network; receiving, a packet which comprises the MAC address entry determined and sent by the RR, and storing the MAC address entry.
Method for continuous casting of a metallic product in which in a continuous casting plant a strip of the metallic product continuously issues from a mould, in particular perpendicularly downwardly, and is subsequently transported along a strip guide in a conveying direction, wherein the strip is deflected in a straightening region into the horizontal direction, wherein the edge regions of the strip within a lesser cooling section of the strip guide, which is provided at least in conveying direction in front of the straightening region and preferably also within the straightening region, is cooled less by comparison with a horizontal region of the strip guide in conveying direction after the straightening region, wherein the edge regions of the strip in an intensive cooling section of the strip guide, which begins directly after exit of the strip from the mould and in conveying direction lies in front of the lesser cooling section, are cooled at least just as strongly as a middle region of the strip, characterised in that the following steps are performed with use of a first measuring point (P 1) lying within the intensive cooling section and a second measuring point (P 2) lying within the lesser cooling section; (i) determining a current reheating factor (WEF current) with use of the following equation: WEF = T 1 − T 2 mD ∗ t wherein T 1 = calculated temperature at the first measuring point P 1 T 2 = calculated temperature at the second measuring point P 2 mD = mean thickness of the strip skin between P 1 and P 2 t = transport time of the strip between the measuring points P 1 and P 2, (ii) comparison of the current reheating factor (WEF current) with a permissible maximum reheating factor (WEF max) and (iii) if (WEF current) < (WEF max): strengthening the cooling in the edge regions of the strip within the intensive cooling section. (i) determining a current reheating factor (WEF current) with use of the following equation: WEF = T 1 − T 2 mD ∗ t wherein T 1 = calculated temperature at the first measuring point P 1 T 2 = calculated temperature at the second measuring point P 2 mD = mean thickness of the strip skin between P 1 and P 2 t = transport time of the strip between the measuring points P 1 and P 2, T 1 = calculated temperature at the first measuring point P 1 T 2 = calculated temperature at the second measuring point P 2 mD = mean thickness of the strip skin between P 1 and P 2 t = transport time of the strip between the measuring points P 1 and P 2, (ii) comparison of the current reheating factor (WEF current) with a permissible maximum reheating factor (WEF max) and (iii) if (WEF current) < (WEF max): strengthening the cooling in the edge regions of the strip within the intensive cooling section.
A computer-implemented method for analyzing a volume composed of voxels of seismic data representing a subsurface region for presence of a hydrocarbon system or a particular play, comprising: partitioning the seismic data volume to form a plurality of segments; and ranking the plurality of segments for presence of the hydrocarbon system or the particular play based at least partly on prospectivity scores for the voxels of seismic data in each segment; wherein the prospectivity score is based on computation of at least two attributes (2, 32), of the seismic data, that relate to different elements of the hydrocarbon system or of the particular play; CHARACTERISED IN THAT: smoothing is applied to the at least two attributes (2, 32), thereby generating geologic attributes, where a geologic attribute is a seismic attribute that highlights or quantifies some aspect of the hydrocarbon system or the particular play, and the smoothing is applied over distances of at least ten seismic data voxels; and one of the at least two attributes (2, 32) relates to existence of a hydrocarbon trap, and the existence of a hydrocarbon trap is predicted by spatially correlating the geologic attributes and comparing to a catalog of hydrocarbon trap configurations. partitioning the seismic data volume to form a plurality of segments; and ranking the plurality of segments for presence of the hydrocarbon system or the particular play based at least partly on prospectivity scores for the voxels of seismic data in each segment; wherein the prospectivity score is based on computation of at least two attributes (2, 32), of the seismic data, that relate to different elements of the hydrocarbon system or of the particular play; CHARACTERISED IN THAT: smoothing is applied to the at least two attributes (2, 32), thereby generating geologic attributes, where a geologic attribute is a seismic attribute that highlights or quantifies some aspect of the hydrocarbon system or the particular play, and the smoothing is applied over distances of at least ten seismic data voxels; and one of the at least two attributes (2, 32) relates to existence of a hydrocarbon trap, and the existence of a hydrocarbon trap is predicted by spatially correlating the geologic attributes and comparing to a catalog of hydrocarbon trap configurations. smoothing is applied to the at least two attributes (2, 32), thereby generating geologic attributes, where a geologic attribute is a seismic attribute that highlights or quantifies some aspect of the hydrocarbon system or the particular play, and the smoothing is applied over distances of at least ten seismic data voxels; and one of the at least two attributes (2, 32) relates to existence of a hydrocarbon trap, and the existence of a hydrocarbon trap is predicted by spatially correlating the geologic attributes and comparing to a catalog of hydrocarbon trap configurations.
A method for producing a solid milk, comprising a compression step, wherein milk particles are compressed to obtain a compressed and solid milk unit, then a moistening step, then a drying step, wherein: • the compression step is carried out with a compaction ratio comprised between 50 % and 80 %, • in the moistening step, water is sprayed on the outside surface of the said compressed and solid milk unit with an amount comprised between 0.1 mg and 8 mg per cm 2 of the area of the said outside surface, the duration of the moistening step being less than 1 s, to obtain a moistened solid unit having a moistened outside layer of at least two rows of milk particles, • the drying step follows the moistening step less than 10 s, the duration of the drying step being less than 30 s, so as to obtain a solid milk having a core/crust structure, the average thickness of the crust being comprised between 150 μm and 1.5 mm. • the compression step is carried out with a compaction ratio comprised between 50 % and 80 %, • in the moistening step, water is sprayed on the outside surface of the said compressed and solid milk unit with an amount comprised between 0.1 mg and 8 mg per cm 2 of the area of the said outside surface, the duration of the moistening step being less than 1 s, to obtain a moistened solid unit having a moistened outside layer of at least two rows of milk particles, • the drying step follows the moistening step less than 10 s, the duration of the drying step being less than 30 s,
- Tread for a driven axle of an agricultural vehicle, said tread comprising tread pattern elements extending radially towards the outside from a bearing surface, said tread pattern elements comprising a total number N of tread pattern blocks that are separated axially from one another, said tread pattern blocks comprising a contact face, a leading face and a trailing face, said leading face being inclined at an angle α towards the rear with respect to the radial direction in the rolling direction of the tread, said tread comprising a number n of tread pattern blocks in the case of which the angle α is between 50 degrees and 75 degrees, the number n being at least equal to 0.2 x N.
Backpack with a rigid frame and a cover, wherein the frame comprises: a. a first frame element, which is connected to a first portion of the cover; b. a second frame element, which is connected to a second portion of the cover; wherein c. the second frame element is pivotably arranged at the first frame element in a region between an upper region and a lower region of the first frame element; d. an opening in the cover generated by a movement of the second frame element, characterized in that e. the opening is arranged between the upper region of the first frame element and an upper region of the second frame element. a. a first frame element, which is connected to a first portion of the cover; b. a second frame element, which is connected to a second portion of the cover; wherein c. the second frame element is pivotably arranged at the first frame element in a region between an upper region and a lower region of the first frame element; d. an opening in the cover generated by a movement of the second frame element, characterized in that e. the opening is arranged between the upper region of the first frame element and an upper region of the second frame element.
Method for controlling a drop hammer of a construction machine by means of a regulating/control device, wherein the opening of a hydraulic circuit causes the drop hammer to be lifted by means of an actuator, characterized in that the method includes the following steps: Inputting of default parameters into the regulating/control device by an operator; detecting of current system parameters of the construction machine through the regulating/control device; calculating of the actuation period of a hydraulic circuit depending upon the default parameters and upon the system parameters, and opening of the hydraulic circuit for the calculated period of actuation. Inputting of default parameters into the regulating/control device by an operator; detecting of current system parameters of the construction machine through the regulating/control device; calculating of the actuation period of a hydraulic circuit depending upon the default parameters and upon the system parameters, and opening of the hydraulic circuit for the calculated period of actuation.
A cleaner, comprising: a main body; a handle provided on the main body to be gripped by a user; a pressure sensor provided on the handle to detect pressure applied by the user to the handle; a motor to selectively apply a driving force; a driving wheel provided at a lower portion of the main body to move the main body based on receiving the driving force from the motor; a controller to manage the motor based on the detected pressure applied by the user to the handle; an angle sensor provided between the main body and the handle to detect information related to a rotation of the handle relative to the main body, characterized by an auxiliary driving mechanism provided between the main body and the driving wheel to provide an auxiliary driving force in a rotating direction of the main body, and wherein the controller detects a rotating direction of the cleaner based on the information detected by the angle sensor and an output of the pressure sensor and controls the auxiliary driving mechanism to generate an auxiliary driving force in the detected rotating direction. a main body; a handle provided on the main body to be gripped by a user; a pressure sensor provided on the handle to detect pressure applied by the user to the handle; a motor to selectively apply a driving force; a driving wheel provided at a lower portion of the main body to move the main body based on receiving the driving force from the motor; a controller to manage the motor based on the detected pressure applied by the user to the handle; an angle sensor provided between the main body and the handle to detect information related to a rotation of the handle relative to the main body, characterized by an auxiliary driving mechanism provided between the main body and the driving wheel to provide an auxiliary driving force in a rotating direction of the main body, and wherein the controller detects a rotating direction of the cleaner based on the information detected by the angle sensor and an output of the pressure sensor and controls the auxiliary driving mechanism to generate an auxiliary driving force in the detected rotating direction.
Automatic process for the inspection and/or sorting of objects, articles or the like, belonging to at least two different categories and made to advance approximately in a single layer, for example on a conveyor belt or a similar transport support, a process characterised in that it consists in subjecting the advancing flow of objects, articles or the like to at least two different types of contactless analysis by radiation, the results of which are used in a combined manner for each object, article or the like, to discriminate between these objects, articles or the like and/or evaluate at least one characteristic of the latter, the analyses used comprising, on the one hand, at least one surface analysis process able to determine the physical and/or chemical composition of the external or outer layer of an object or the like exposed to the radiation used in this process and, on the other hand, at least one volume analysis process able to determine the equivalent thickness of the material of the same object or the like.
A delivery rotary-wing aircraft comprising: a plurality of rotary wings, a central portion to which a plurality of arm portions for supporting the rotary wings are connected, a first mounting portion for loading a package, a second mounting portion for driving and controlling the delivery rotary-wing aircraft, the second mounting portion being located on an upper side, the first mounting portion being located on a lower side that is the opposite side to the upper side as viewed from the central portion, a first supporting member for connecting the first mounting portion with the central portion, a second supporting member for connecting the second mounting portion with the central portion, and a connection portion between the central portion and the first supporting member, the rotary-wing aircraft being controlled in such a manner that during horizontal movement, the first and second supporting members (24, 26) are aligned in a traveling direction, wherein the center point of lift occurring in the rotary-wing aircraft with rotations of the plurality of rotary wings and the center point of gravity of the rotary-wing aircraft coincide with the center point of the connection portion, and during the landing movement, the first and second supporting members (24, 26) are aligned in a vertical posture, wherein the first supporting member is equipped with an adjustment mechanism for vertically downwardly extending the length of the first supporting member without changing the length of the second supporting member. a plurality of rotary wings, a central portion to which a plurality of arm portions for supporting the rotary wings are connected, a first mounting portion for loading a package, a second mounting portion for driving and controlling the delivery rotary-wing aircraft, the second mounting portion being located on an upper side, the first mounting portion being located on a lower side that is the opposite side to the upper side as viewed from the central portion, a first supporting member for connecting the first mounting portion with the central portion, a second supporting member for connecting the second mounting portion with the central portion, and a connection portion between the central portion and the first supporting member, the rotary-wing aircraft being controlled in such a manner that during horizontal movement, the first and second supporting members (24, 26) are aligned in a traveling direction, wherein the center point of lift occurring in the rotary-wing aircraft with rotations of the plurality of rotary wings and the center point of gravity of the rotary-wing aircraft coincide with the center point of the connection portion, and during the landing movement, the first and second supporting members (24, 26) are aligned in a vertical posture, wherein the first supporting member is equipped with an adjustment mechanism for vertically downwardly extending the length of the first supporting member without changing the length of the second supporting member.
Greenhouse comprising a roof provided with at least two trusses arranged parallel, said trusses comprising an upper stringer, a lower stringer and vertical (15, 15A, 15B) and/or diagonal rods, characterized in that the covering of said roof is arranged between said lower and upper stringers of said at least two trusses.
A system comprising: an external device comprising a processor; and a plurality of apparatuses each configured to be associated with one of a plurality of medication dispensers comprising a same type of medication; wherein each of the plurality of apparatuses comprise a processor, a sensor, and a network interface; wherein the sensor of each of the plurality of apparatuses is configured to sense a condition indicative of the medication being dispensed from one of the plurality of medication dispensers; wherein the processor of each of the plurality of apparatuses is configured to wirelessly transmit data indicating that the medication was dispensed to the external device via the network interface; and wherein the processor of the external device is configured to: register each of the plurality of apparatuses with a respective medication dispenser of the plurality medication dispensers; compare the data with a dosing schedule of the medication in the plurality of medication dispensers; and determine that a dose of medication was consumed on schedule based on the data from any one of the plurality of apparatuses and the dosing schedule. an external device comprising a processor; and a plurality of apparatuses each configured to be associated with one of a plurality of medication dispensers comprising a same type of medication; wherein each of the plurality of apparatuses comprise a processor, a sensor, and a network interface; wherein the sensor of each of the plurality of apparatuses is configured to sense a condition indicative of the medication being dispensed from one of the plurality of medication dispensers; wherein the processor of each of the plurality of apparatuses is configured to wirelessly transmit data indicating that the medication was dispensed to the external device via the network interface; and wherein the processor of the external device is configured to: register each of the plurality of apparatuses with a respective medication dispenser of the plurality medication dispensers; compare the data with a dosing schedule of the medication in the plurality of medication dispensers; and determine that a dose of medication was consumed on schedule based on the data from any one of the plurality of apparatuses and the dosing schedule. register each of the plurality of apparatuses with a respective medication dispenser of the plurality medication dispensers; compare the data with a dosing schedule of the medication in the plurality of medication dispensers; and determine that a dose of medication was consumed on schedule based on the data from any one of the plurality of apparatuses and the dosing schedule.