mhurhangee/patent-ind-claim-en huggingface dataset:
Thermally expandable composition, comprising (a) at least one polymer P, cross-linkable by peroxide, (b) at least one peroxide, (c) preferably at least one acrylate A, (d) at least one blowing agent B, (e) preferably at least one activator for blowing agent B, (f) at least one epoxide group terminated polymer of the formula (I), wherein Y represents a n-valent radical of a linear or branched polyurethane polymer PU terminated with isocyanate groups after the removal of the n terminal isocyanate groups, Z represents a (1+m)-valent radical of an aliphatic, cycloaliphatic, aromatic or araliphatic epoxide containing a primary or secondary hydroxyl group after the removal of the hydroxyl group and m epoxide groups, m represents an integer with a value of 1, 2, or 3, and n represents an integer with a value from 2 to 4. (a) at least one polymer P, cross-linkable by peroxide, (b) at least one peroxide, (c) preferably at least one acrylate A, (d) at least one blowing agent B, (e) preferably at least one activator for blowing agent B, (f) at least one epoxide group terminated polymer of the formula (I), wherein Y represents a n-valent radical of a linear or branched polyurethane polymer PU terminated with isocyanate groups after the removal of the n terminal isocyanate groups, Z represents a (1+m)-valent radical of an aliphatic, cycloaliphatic, aromatic or araliphatic epoxide containing a primary or secondary hydroxyl group after the removal of the hydroxyl group and m epoxide groups, m represents an integer with a value of 1, 2, or 3, and n represents an integer with a value from 2 to 4.
A stainless steel sheet having etching patterns, comprising: a stainless steel sheet; a coating layer, formed on the stainless steel sheet, and comprising a cured product of a coating composition comprising 10 to 30 wt% of a silane based compound, 0.5 to 6 wt% of one or more selected from the group consisting of formic acid, acetic acid and phosphoric acid, 0.1 to 3 wt% of a vanadium compound, 0.1 to 3 wt% of a magnesium compound, and a remainder of a solvent based on the 100 wt% of the coating composition; and a quenching coated film layer, formed on the coating layer and having a quenching effect, wherein the quenching coated film layer includes a plurality of bubbles. a stainless steel sheet; a coating layer, formed on the stainless steel sheet, and comprising a cured product of a coating composition comprising 10 to 30 wt% of a silane based compound, 0.5 to 6 wt% of one or more selected from the group consisting of formic acid, acetic acid and phosphoric acid, 0.1 to 3 wt% of a vanadium compound, 0.1 to 3 wt% of a magnesium compound, and a remainder of a solvent based on the 100 wt% of the coating composition; and a quenching coated film layer, formed on the coating layer and having a quenching effect, wherein the quenching coated film layer includes a plurality of bubbles.
A copolymer, comprising: 0.1 mol% to 99 mol% of a structural unit (A) derived from a monoethylenically unsaturated monocarboxylic acid (salt) monomer (a) ; 0.1 mol% to 99 mol% of a structural unit (B) derived from a monomer (b) serving as a monoethylenically unsaturated dicarboxylic acid (salt) or an anhydride thereof; and 0.1 mol% to 50 mol% of a structural unit (C) derived from an ether bond-containing hydrophobic monomer (c), wherein the ether bond-containing hydrophobic monomer (c) comprises at least one kind selected from 1-allyloxy-3-butoxypropan-2-ol represented by the chemical formula , a hexene oxide adduct of isoprenol represented by the chemical formula , and allyl butyl ether represented by the chemical formula . 0.1 mol% to 99 mol% of a structural unit (A) derived from a monoethylenically unsaturated monocarboxylic acid (salt) monomer (a) ; 0.1 mol% to 99 mol% of a structural unit (B) derived from a monomer (b) serving as a monoethylenically unsaturated dicarboxylic acid (salt) or an anhydride thereof; and 0.1 mol% to 50 mol% of a structural unit (C) derived from an ether bond-containing hydrophobic monomer (c), wherein the ether bond-containing hydrophobic monomer (c) comprises at least one kind selected from 1-allyloxy-3-butoxypropan-2-ol represented by the chemical formula , a hexene oxide adduct of isoprenol represented by the chemical formula , and allyl butyl ether represented by the chemical formula .
A classifier , comprising: a housing configured to take in an air flow (f) from below into a radially outer region (So) of an inside space; and an annular rotational portion disposed rotatably in a radially inner region (Si) positioned on a radially inner side of the radially outer region (So), of the inside space of the housing , and configured to classify particles which accompany the air flow (f), wherein the annular rotational portion includes a plurality of rotational blades arranged at intervals around a rotational axis of the annular rotational portion , and wherein the plurality of rotational blades form an outer shape of the annular rotational portion which forms an angle θ of not greater than 75° with a segment extended in a horizontal direction from the annular rotational portion outward in a radial direction, in a side view of the annular rotational portion , characterized in that the classifier further comprises a flow deflection portion disposed on an inner wall surface of the housing and configured to deflect the air flow (f) toward a center axis (O) of the housing , and each of the rotational blades is arranged obliquely with respect to a vertical direction such that an upper end of the rotational blade is positioned on an upstream side of a lower end of the rotational blade , with respect to a rotational direction of the annular rotational portion . a housing configured to take in an air flow (f) from below into a radially outer region (So) of an inside space; and an annular rotational portion disposed rotatably in a radially inner region (Si) positioned on a radially inner side of the radially outer region (So), of the inside space of the housing , and configured to classify particles which accompany the air flow (f), wherein the annular rotational portion includes a plurality of rotational blades arranged at intervals around a rotational axis of the annular rotational portion , and wherein the plurality of rotational blades form an outer shape of the annular rotational portion which forms an angle θ of not greater than 75° with a segment extended in a horizontal direction from the annular rotational portion outward in a radial direction, in a side view of the annular rotational portion , characterized in that the classifier further comprises a flow deflection portion disposed on an inner wall surface of the housing and configured to deflect the air flow (f) toward a center axis (O) of the housing , and each of the rotational blades is arranged obliquely with respect to a vertical direction such that an upper end of the rotational blade is positioned on an upstream side of a lower end of the rotational blade , with respect to a rotational direction of the annular rotational portion .
A chemical mechanical planarization (CMP) composition comprising: a. 0.05 to 10 weight percent of an abrasive selected from the group consisting of ceria-coated inorganic oxides, ceria coated organic polymer particles, and combinations thereof; b. 0.005 to 1.0 weight percent of a first additive selected from the group consisting of maltitol, lactitol, maltotritol, D-sorbitol, mannitol, dulcitol, D-(-)-Fructose, beta-lactose, and combinations thereof; c. a second additive consisting of an aromatic organic compound comprising sulfonate or sulfonic acid functional groups; d. a solvent selected from the group consisting of water, ethers and alcohols; and optionally e. a biocide and a pH adjuster; wherein the composition comprises a pH ranging from 3 to 10. a. 0.05 to 10 weight percent of an abrasive selected from the group consisting of ceria-coated inorganic oxides, ceria coated organic polymer particles, and combinations thereof; b. 0.005 to 1.0 weight percent of a first additive selected from the group consisting of maltitol, lactitol, maltotritol, D-sorbitol, mannitol, dulcitol, D-(-)-Fructose, beta-lactose, and combinations thereof; c. a second additive consisting of an aromatic organic compound comprising sulfonate or sulfonic acid functional groups; d. a solvent selected from the group consisting of water, ethers and alcohols; and optionally e. a biocide and a pH adjuster;
An electrode assembly, characterized by comprising a positive electrode plate, a separator, and a negative electrode plate, wherein the negative electrode plate comprises a negative electrode current collector and a negative electrode active substance layer provided on at least one surface of the negative electrode current collector and comprising a negative electrode active substance; and the negative electrode plate further comprises a lithium metal layer provided on a surface of the negative electrode active substance layer on a side farther away from the negative electrode current collector , wherein the lithium metal layer is formed by a plurality of regular or irregular strip-shaped lithium-rich regions , and the plurality of lithium-rich regions present a discontinuous pattern of spaced distribution in a length direction (L) of the negative electrode plate; and the electrode assembly further satisfies that: negative electrode capacity per unit area/positive electrode capacity per unit area = 1.2 to 2.1 and negative electrode capacity per unit area/(positive electrode capacity per unit area + capacity of the lithium metal layer on the surface of the negative electrode active substance layer per unit area × 80%) ≥ 1.10, wherein the negative electrode capacity per unit area, positive electrode capacity per unit area and capacity of the lithium metal layer is measured as described in the description, characterized in that a width of each lithium-rich region is 0.2 mm to 2 mm, and a distance between every two adjacent lithium-rich regions is 0.25 to 2 times an average width of the adjacent two lithium-rich regions . the negative electrode plate further comprises a lithium metal layer provided on a surface of the negative electrode active substance layer on a side farther away from the negative electrode current collector , wherein the lithium metal layer is formed by a plurality of regular or irregular strip-shaped lithium-rich regions , and the plurality of lithium-rich regions present a discontinuous pattern of spaced distribution in a length direction (L) of the negative electrode plate; and the electrode assembly further satisfies that: negative electrode capacity per unit area/positive electrode capacity per unit area = 1.2 to 2.1 and negative electrode capacity per unit area/(positive electrode capacity per unit area + capacity of the lithium metal layer on the surface of the negative electrode active substance layer per unit area × 80%) ≥ 1.10, wherein the negative electrode capacity per unit area, positive electrode capacity per unit area and capacity of the lithium metal layer is measured as described in the description, characterized in that a width of each lithium-rich region is 0.2 mm to 2 mm, and a distance between every two adjacent lithium-rich regions is 0.25 to 2 times an average width of the adjacent two lithium-rich regions .
A method for determining a permeability of a rock sample that includes two or more pore systems, comprising: measuring a first set of Nuclear Magnetic Resonance (NMR) relaxation times for the rock sample saturated with regular water, i.e.,HzO; injecting heavy water, i.e, D 2 O, into the rock sample; measuring a second set of NMR relaxation times for the rock sample after injecting D 2 O; calculating a pore connectivity factor based on the first set of NMR relaxation times and the second set of NMR relaxation times, wherein the pore connectivity factor is calculated based on a ratio between a first volume displacement of a first pore system and a second volume displacement of a second pore system; and calculating the permeability of the rock sample based on the pore connectivity factor. measuring a first set of Nuclear Magnetic Resonance (NMR) relaxation times for the rock sample saturated with regular water, i.e.,HzO; injecting heavy water, i.e, D 2 O, into the rock sample; measuring a second set of NMR relaxation times for the rock sample after injecting D 2 O; calculating a pore connectivity factor based on the first set of NMR relaxation times and the second set of NMR relaxation times, wherein the pore connectivity factor is calculated based on a ratio between a first volume displacement of a first pore system and a second volume displacement of a second pore system; and calculating the permeability of the rock sample based on the pore connectivity factor.
A method for testing a chip with an on-chip comparator , the method comprising: receiving , by the chip , N scan-in chains of test data from an off-chip test equipment , wherein N is a first integer value; using the N scan-in chains of test data to perform tests on the chip that produce test results; receiving a merged expected test-result and masking-instruction signal on X pins of the chip from the off-chip test equipment , wherein X is a second integer value less than twice the first integer number N; decoding the merged expected test-result and masking-instruction signal to extract N decoded output signals, each of the N decoded output signals corresponding to a respective chain of test results; for each decoded output signal comprising an expected test result, using the on-chip comparator to compare the decoded output signal with the respective chain of test results for that decoded output signal; and for each decoded output signal comprising a masking condition, masking from comparison the respective test chain of test results for that decoded output signal. receiving , by the chip , N scan-in chains of test data from an off-chip test equipment , wherein N is a first integer value; using the N scan-in chains of test data to perform tests on the chip that produce test results; receiving a merged expected test-result and masking-instruction signal on X pins of the chip from the off-chip test equipment , wherein X is a second integer value less than twice the first integer number N; decoding the merged expected test-result and masking-instruction signal to extract N decoded output signals, each of the N decoded output signals corresponding to a respective chain of test results; for each decoded output signal comprising an expected test result, using the on-chip comparator to compare the decoded output signal with the respective chain of test results for that decoded output signal; and for each decoded output signal comprising a masking condition, masking from comparison the respective test chain of test results for that decoded output signal.
A method of feeding a young animal for reducing the young animal's feed refusal of a milk replacer, the method comprising: providing sensory compounds in the milk replacer, wherein the sensory compounds comprise an active ingredient of one or more of licorice, anise and fennel, the active ingredient accounting for at least 60 percent of the sensory compounds; and providing the mixture to the young animal, wherein the milk replacer is fed at a rate of at least 0.34 kilograms (0.75 pounds) on a dry basis per day and up to 1.13 kilograms (2.5 pounds) on a dry basis per day, and the sensory compounds are consumed at a rate of at least 0.17 grams per day and up to about 2.25 grams per day. providing sensory compounds in the milk replacer, wherein the sensory compounds comprise an active ingredient of one or more of licorice, anise and fennel, the active ingredient accounting for at least 60 percent of the sensory compounds; and providing the mixture to the young animal, wherein the milk replacer is fed at a rate of at least 0.34 kilograms (0.75 pounds) on a dry basis per day and up to 1.13 kilograms (2.5 pounds) on a dry basis per day, and the sensory compounds are consumed at a rate of at least 0.17 grams per day and up to about 2.25 grams per day.
A fin block for a calibrating device for the calibrating of an extruded profile , wherein the fin block comprises a fin structure , which has a plurality of fins which are spaced apart from one another by grooves and are arranged in longitudinal direction of the fin block , characterized in that the fins of the fin structure have a variable dimension in longitudinal direction of the fin block , wherein the fin structure has a constant spacing in longitudinal direction of the fin block .
A circuit breaker comprising: a body , a piston slidably mounted in said body along a first direction (Z), said piston having a first protrusion extending from a lower face thereof comprising a cutting edge , an electrically conductive bus bar extending in a second direction (X) transverse to the first direction, wherein the piston is adapted to move from a first position corresponding to a raised position to a second position corresponding to a lowered position in order to cut the bus bar into two distinct portions , wherein the piston further comprises a second protrusion extending from the lower face of the piston over a greater distance (d1) than the first protrusion (d2), and in that the bus bar comprises an aperture aligned along the first direction (Z) with said second protrusion , the second protrusion and the aperture being adapted to cooperate such that the second protrusion is engaged in the aperture when the piston moves from the first position to the second position, characterized in that the circuit breaker is a pyrotechnic circuit breaker and comprises a pyrotechnic igniter adapted to propel said piston and to move it upon activation from the first position to the second position, and in that the piston further comprises a third protrusion extending from the lower face thereof and the bus bar comprises two apertures adapted to cooperate with the second and third protrusions of the piston. a body , a piston slidably mounted in said body along a first direction (Z), said piston having a first protrusion extending from a lower face thereof comprising a cutting edge , an electrically conductive bus bar extending in a second direction (X) transverse to the first direction, wherein the piston is adapted to move from a first position corresponding to a raised position to a second position corresponding to a lowered position in order to cut the bus bar into two distinct portions , wherein the piston further comprises a second protrusion extending from the lower face of the piston over a greater distance (d1) than the first protrusion (d2), and in that the bus bar comprises an aperture aligned along the first direction (Z) with said second protrusion , the second protrusion and the aperture being adapted to cooperate such that the second protrusion is engaged in the aperture when the piston moves from the first position to the second position, characterized in that the circuit breaker is a pyrotechnic circuit breaker and comprises a pyrotechnic igniter adapted to propel said piston and to move it upon activation from the first position to the second position, and in that the piston further comprises a third protrusion extending from the lower face thereof and the bus bar comprises two apertures adapted to cooperate with the second and third protrusions of the piston.
Beverage dispensing machine comprising a chamber for receiving a beverage container , in particular a keg, forming a beverage refill, and a lid movable between an open position in which the beverage container can be installed in or removed from the receiving chamber and a closed position in which the beverage container is in place and the beverage can be dispensed, said beverage dispensing machine comprising at least one latch movable between a holding position in which it engages with at least one receiving housing to hold the lid in the closed position and a release position in which it is moved out of said at least one receiving housing to allow the lid to move to the open position, characterised in that said beverage dispensing machine comprises a means for returning the at least one latch to the holding position, a handle and a separating member , the handle and the separating member being movable between an activated position in which the separating member moves the lid away from the receiving chamber to move the at least one latch into the release position, against the return means; and a rest position in which the separating member acts neither on the cover nor on the receiving chamber .
A unitary solid state drive, SSD, assembly , the unitary SSD assembly comprising: a non-volatile memory, NVM ; a processor communicatively coupled to the NVM; a network interface device communicatively coupled to the processor , wherein the network interface device is configured to communicate via a network fabric according to a NVM express over Fabrics, NVMe-oF, communication protocol, and wherein the NVM , the processor , and the network interface device are arranged in a unitary assembly; and a network connector coupled to the network interface device , wherein the processor is configured to implement the NVMe-oF communication protocol and characterized in that to use same to establish a logical connection to an external solid state memory over the network fabric , thereby enabling transfer of data between the NVM and the external solid state memory without first transferring any of the data to a host computer. a non-volatile memory, NVM ; a processor communicatively coupled to the NVM; a network interface device communicatively coupled to the processor , wherein the network interface device is configured to communicate via a network fabric according to a NVM express over Fabrics, NVMe-oF, communication protocol, and wherein the NVM , the processor , and the network interface device are arranged in a unitary assembly; and a network connector coupled to the network interface device , wherein the processor is configured to implement the NVMe-oF communication protocol and characterized in that to use same to establish a logical connection to an external solid state memory over the network fabric , thereby enabling transfer of data between the NVM and the external solid state memory without first transferring any of the data to a host computer.
An audio transmission method, comprising: receiving, by a first device, noise energy data and transmission efficiency data from a second device, wherein the noise energy data is used to indicate noise energy or noise loudness, and the transmission efficiency data is used to indicate quality of a wireless channel between the first device and the second device; determining, by the first device, a first bit rate based on the noise energy data, and determining a second bit rate based on the transmission efficiency data; encoding, by the first device, an audio stream based on a lower bit rate of the first bit rate and the second bit rate, to obtain audio data; and sending, by the first device, the audio data to the second device. receiving, by a first device, noise energy data and transmission efficiency data from a second device, wherein the noise energy data is used to indicate noise energy or noise loudness, and the transmission efficiency data is used to indicate quality of a wireless channel between the first device and the second device; determining, by the first device, a first bit rate based on the noise energy data, and determining a second bit rate based on the transmission efficiency data; encoding, by the first device, an audio stream based on a lower bit rate of the first bit rate and the second bit rate, to obtain audio data; and sending, by the first device, the audio data to the second device.