mhurhangee/patent-ind-claim-en huggingface dataset:
A silylated polyurethane obtainable by reacting: a) at least one polyol having a number average molecular weight of from 1000 to 50,000 g/mol; b) at least one polyisocyanate, preferably diisocyanate; and c) at least one tertiary hydroxyl functional alkoxysilane of the general formula (I) wherein R 1 is selected from the group consisting of hydrogen and a linear or branched, substituted or unsubstituted hydrocarbon residue having 1 to 20 carbon atoms; R 2 and R 3 are same or different and are, independent from one another, selected from a linear or branched, substituted or unsubstituted hydrocarbon residue having 1 to 20 carbon atoms; R 4 is selected from a linear or branched, substituted or unsubstituted hydrocarbon residue having 1 to 20 carbon atoms; R 5 is selected from a linear or branched, substituted or unsubstituted C 1 -C 8 alkylene residue; R 6 and R 7 are same or different and are, independent from one another, selected from a linear or branched, substituted or unsubstituted hydrocarbon residue having 1 to 20 carbon atoms; and n is 1, 2 or 3. a) at least one polyol having a number average molecular weight of from 1000 to 50,000 g/mol; b) at least one polyisocyanate, preferably diisocyanate; and c) at least one tertiary hydroxyl functional alkoxysilane of the general formula (I) wherein R 1 is selected from the group consisting of hydrogen and a linear or branched, substituted or unsubstituted hydrocarbon residue having 1 to 20 carbon atoms; R 2 and R 3 are same or different and are, independent from one another, selected from a linear or branched, substituted or unsubstituted hydrocarbon residue having 1 to 20 carbon atoms; R 4 is selected from a linear or branched, substituted or unsubstituted hydrocarbon residue having 1 to 20 carbon atoms; R 5 is selected from a linear or branched, substituted or unsubstituted C 1 -C 8 alkylene residue; R 6 and R 7 are same or different and are, independent from one another, selected from a linear or branched, substituted or unsubstituted hydrocarbon residue having 1 to 20 carbon atoms; and n is 1, 2 or 3. R 1 is selected from the group consisting of hydrogen and a linear or branched, substituted or unsubstituted hydrocarbon residue having 1 to 20 carbon atoms; R 2 and R 3 are same or different and are, independent from one another, selected from a linear or branched, substituted or unsubstituted hydrocarbon residue having 1 to 20 carbon atoms; R 4 is selected from a linear or branched, substituted or unsubstituted hydrocarbon residue having 1 to 20 carbon atoms; R 5 is selected from a linear or branched, substituted or unsubstituted C 1 -C 8 alkylene residue; R 6 and R 7 are same or different and are, independent from one another, selected from a linear or branched, substituted or unsubstituted hydrocarbon residue having 1 to 20 carbon atoms; and n is 1, 2 or 3.
A fastening device for fastening a plastics component to a load-bearing component, comprising (a) a plastics component which can be fastened to the load-bearing component by a screw connection; (b) a rubber-metal buffer which can be arranged as a resilient support between the load-bearing component and the plastics component , further comprising (c) at least one metal tip which is arranged between the rubber-metal buffer and the plastics component , which protrudes from a metal disk (10; 4c) in the direction of the plastics component , and which in the state of the plastics component screwed to the load-bearing component engages at least partially in a surface of the plastics component . (a) a plastics component which can be fastened to the load-bearing component by a screw connection; (b) a rubber-metal buffer which can be arranged as a resilient support between the load-bearing component and the plastics component , further comprising (c) at least one metal tip which is arranged between the rubber-metal buffer and the plastics component , which protrudes from a metal disk (10; 4c) in the direction of the plastics component , and which in the state of the plastics component screwed to the load-bearing component engages at least partially in a surface of the plastics component .
An electromagnetic interference suppression apparatus (1 10), comprising a body having a first surface and a generally opposed second surface defining a thickness therebetween, said body exhibiting a thermal conductivity of at least 1 W/m·K through the thickness, a hardness of between 10-70 Shore 00 at 20°C, and a volume electrical resistivity of at least 10 8 Ω·m, said body having a first portion disposed along the first surface, a second portion disposed along the second surface, and a third portion , said third portion including Mn-Zn as an electromagnetic radiation suppression material dispersed in a polymeric matrix, wherein said Mn-Zn powder is confined to said third portion, said third portion being interposed between said first and second portions and one or more electrically insulative shielding members disposed between said first surface and said second surface, wherein said electrically insulative shielding member is fabricated from a woven fabric of glass, graphite or the like.
A cylindrical hydrogen generator, comprising: an outer case 15 entirely surrounding the cylindrical hydrogen generator 1, an inner wall of which is provided with a layer of insulating material 16; a combustion unit 2; a reforming unit 3 including two or more reactor tubes 20 filled with a catalyst and cylindrically disposed around a heat source 10 provided in the combustion unit 2, said combustion unit 2 generating the heat necessary for a steam-reforming reaction by exhaust gas generated from the combustion unit 2; flames guides 14 which divide the inside of the hydrogen generator 1 to define the combustion unit 2; and a pressure loss induction structure in which an exhaust gas collecting passage 34 communicating with an exhaust gas discharge pipe 31 is formed by a partition wall 32, along an inner circumference of the cylindrical hydrogen generator, and orifices 33 are radially arranged by perforating the partition wall 32 at regular intervals such that exhaust gas is evenly transferred to the exhaust gas collecting passage 34, wherein the partition wall 32 is formed by extending along an outer surface of the insulating material layer 16 provided in the hydrogen generator 1. an outer case 15 entirely surrounding the cylindrical hydrogen generator 1, an inner wall of which is provided with a layer of insulating material 16; a combustion unit 2; a reforming unit 3 including two or more reactor tubes 20 filled with a catalyst and cylindrically disposed around a heat source 10 provided in the combustion unit 2, said combustion unit 2 generating the heat necessary for a steam-reforming reaction by exhaust gas generated from the combustion unit 2; flames guides 14 which divide the inside of the hydrogen generator 1 to define the combustion unit 2; and a pressure loss induction structure in which an exhaust gas collecting passage 34 communicating with an exhaust gas discharge pipe 31 is formed by a partition wall 32, along an inner circumference of the cylindrical hydrogen generator, and orifices 33 are radially arranged by perforating the partition wall 32 at regular intervals such that exhaust gas is evenly transferred to the exhaust gas collecting passage 34, wherein the partition wall 32 is formed by extending along an outer surface of the insulating material layer 16 provided in the hydrogen generator 1.
An absorbent article having a longitudinal axis (Y-Y) and a transverse axis (X-X) and a front region and rear region disposed either side of the transverse axis, the article comprising: a topsheet having a shape that is symmetrical about the transverse axis; a backsheet having the same shape and size as the topsheet; an absorbent core disposed between the topsheet and the backsheet, the absorbent core being asymmetrical about the transverse axis of the article, wherein more than 50% of the absorbent core is disposed in the front region of the absorbent article; an absorbency indicator, wherein at least 70% of the absorbency indicator is provided in the front of the absorbent article, and wherein the absorbency indicator is an embossed pattern that extends through at least the topsheet and the absorbent core. a topsheet having a shape that is symmetrical about the transverse axis; a backsheet having the same shape and size as the topsheet; an absorbent core disposed between the topsheet and the backsheet, the absorbent core being asymmetrical about the transverse axis of the article, wherein more than 50% of the absorbent core is disposed in the front region of the absorbent article; an absorbency indicator, wherein at least 70% of the absorbency indicator is provided in the front of the absorbent article, and wherein the absorbency indicator is an embossed pattern that extends through at least the topsheet and the absorbent core.
A nickel-based active material for a lithium secondary battery, the nickel-based active material comprising at least one secondary particle that comprises at least two primary particle structures , wherein the primary particle structure comprises a porous inner portion and an outer portion comprising a radially arranged structure, wherein the primary particle structure is an agglomerate of at least two primary particles , wherein the secondary particle includes at least two radial centers, and wherein a porosity in the porous inner portion is in a range of about 5% to about 15% as determined by the method defined in the description, and a porosity in the outer portion comprising the radially arranged structure is in a range of about 1 % to about 5% as determined by the method defined in the description.
An efficient waterborne nano-silicon rubber sealing waterproof agent, characterized in that the waterproof agent comprises following components in parts by weight: 10-90 parts of nano-silica gel, 10∼100 parts of nano-diatomaceous earth, 5-150 parts of nano polyurethane, 15-200 parts of nano inorganic dry powder, 10-100 parts of nano methyl cellulose, 10-150 parts of a chelating agent, 15-200 parts of an expansion agent, 10-250 parts of a strengthening agent, 5-100 parts of an antifreezing agent, 2-150 parts of a heat-resistant agent, and 10-100 parts of an acid and alkali-resistant agent. 10-90 parts of nano-silica gel, 10∼100 parts of nano-diatomaceous earth, 5-150 parts of nano polyurethane, 15-200 parts of nano inorganic dry powder, 10-100 parts of nano methyl cellulose, 10-150 parts of a chelating agent, 15-200 parts of an expansion agent, 10-250 parts of a strengthening agent, 5-100 parts of an antifreezing agent, 2-150 parts of a heat-resistant agent, and 10-100 parts of an acid and alkali-resistant agent.
A photographing apparatus for a vehicle comprising: a camera unit configured to be disposed inside the vehicle so as to face a window of the vehicle and is configured to receive photographing light passing through the window; a heater configured to be disposed inside the vehicle so as to face the window, wherein the heater is a heating wire configured to generate heat when receiving electricity from an electric power source; a heated portion to which the heater is fixed, wherein the heater is fixed to a lower surface of the heated portion , and the heated portion is configured to release radiation heat to the window when receiving heat from the heater; and a pair of electrical supply lines connected to respective end portions of the heating wire and configured to supply the electricity from the electric power source to the heater, wherein: the end portions have an area per unit length larger than that of a body portion (43b1) of the heating wire so that the end portions are configured to generate per unit time an amount of heat smaller than an amount of heat generated by the body portion (43b1) of the heater , the body portion (43b1) being the portion of the heating wire excluding the end portions , and wherein: the end portions of the heater are positioned outside a periphery of the heated portion . a camera unit configured to be disposed inside the vehicle so as to face a window of the vehicle and is configured to receive photographing light passing through the window; a heater configured to be disposed inside the vehicle so as to face the window, wherein the heater is a heating wire configured to generate heat when receiving electricity from an electric power source; a heated portion to which the heater is fixed, wherein the heater is fixed to a lower surface of the heated portion , and the heated portion is configured to release radiation heat to the window when receiving heat from the heater; and a pair of electrical supply lines connected to respective end portions of the heating wire and configured to supply the electricity from the electric power source to the heater, wherein: the end portions have an area per unit length larger than that of a body portion (43b1) of the heating wire so that the end portions are configured to generate per unit time an amount of heat smaller than an amount of heat generated by the body portion (43b1) of the heater , the body portion (43b1) being the portion of the heating wire excluding the end portions , and wherein: the end portions of the heater are positioned outside a periphery of the heated portion . the end portions have an area per unit length larger than that of a body portion (43b1) of the heating wire so that the end portions are configured to generate per unit time an amount of heat smaller than an amount of heat generated by the body portion (43b1) of the heater , the body portion (43b1) being the portion of the heating wire excluding the end portions , and wherein: the end portions of the heater are positioned outside a periphery of the heated portion .
Magnet device for clearing rubble containing rebars , comprising: - a magnet ; and - at least one dislodging member positioned at the magnet ; wherein - the magnet device is provided on an attaching side with a frame configured for attaching to an operating arm of a machine; - the magnet is positioned on an active side of the magnet device lying opposite the attaching side and is attached rigidly to the frame such that during use the active side of the magnet device can be brought close to the surface of the rubble for clearing by means of the operating arm in order to attract rebars present in the rubble with the magnet ; and - the dislodging member is mounted on at least one of the frame and the magnet ; characterized in that - the dislodging member extends at least in an operative mode beyond the magnet in a direction into the rubble containing rebars on the active side of the magnet device , when the active side of the magnet device has been brought close to the surface of the rubble for clearing to allow the dislodging member to be inserted into the rubble and simultaneously enable the magnet to attract rebars present in the rubble , while the dislodging member dislodges the rubble . - a magnet ; and - at least one dislodging member positioned at the magnet ; - the magnet device is provided on an attaching side with a frame configured for attaching to an operating arm of a machine; - the magnet is positioned on an active side of the magnet device lying opposite the attaching side and is attached rigidly to the frame such that during use the active side of the magnet device can be brought close to the surface of the rubble for clearing by means of the operating arm in order to attract rebars present in the rubble with the magnet ; and - the dislodging member is mounted on at least one of the frame and the magnet ; - the dislodging member extends at least in an operative mode beyond the magnet in a direction into the rubble containing rebars on the active side of the magnet device , when the active side of the magnet device has been brought close to the surface of the rubble for clearing to allow the dislodging member to be inserted into the rubble and simultaneously enable the magnet to attract rebars present in the rubble , while the dislodging member dislodges the rubble .
Method for determining an index set I for running queries more efficiently against a database, the method being implemented in a computer system with a physical processing unit and a physical storage device, the computer storing the database with N attributes in the physical storage device, the method comprising the following steps: setting the working index set I = Ø; determining a single-attribute index { i } ( i = 1, ..., N ) that maximizes the ratio between associated costs reduction and associated additional memory consumption; adding the determined single-attribute index to the working index set I ; for each single-attribute index { i } ( i = 1, ..., N ) and for each index k ∈ I, (a) creating a new index set Ĩ by adding { i } as new single-attribute index to the working index set I if I ∩ { i } = Ø;and (b) creating a new index set Ĩ by appending { i } at the end of index k of the working index set I ; from the new index sets Ĩ created in step , selecting the new set Ĩ ∗ that has the maximum ratio between associated costs reduction and associated additional memory consumption; and setting the working index set I = Ĩ ∗ ; repeating steps - until a predetermined condition is reached. setting the working index set I = Ø; determining a single-attribute index { i } ( i = 1, ..., N ) that maximizes the ratio between associated costs reduction and associated additional memory consumption; adding the determined single-attribute index to the working index set I ; for each single-attribute index { i } ( i = 1, ..., N ) and for each index k ∈ I, (a) creating a new index set Ĩ by adding { i } as new single-attribute index to the working index set I if I ∩ { i } = Ø;and (b) creating a new index set Ĩ by appending { i } at the end of index k of the working index set I ; (a) creating a new index set Ĩ by adding { i } as new single-attribute index to the working index set I if I ∩ { i } = Ø;and (b) creating a new index set Ĩ by appending { i } at the end of index k of the working index set I ; from the new index sets Ĩ created in step , selecting the new set Ĩ ∗ that has the maximum ratio between associated costs reduction and associated additional memory consumption; and setting the working index set I = Ĩ ∗ ; repeating steps - until a predetermined condition is reached.
A computer program, wherein the program instructs a microprocessor to perform the following steps: (a) generating stochastic basis sets of values representative of putative ligand-protein binding sites by identifying information in a protein structure database, the information corresponding to known protein signature pockets and representing at least protein signature pocket atomic coordinates and conformation, and performing pair-wise sequence order-independent structure alignment, divisive hierarchical clustering, and probabilistic sequence similarity operations on the identified protein signature pocket information to select the stochastic basis sets of values representative of putative ligand-protein binding sites, the probabilistic sequence similarity operation including solution of a distance function defined by the structural similarity and likely sequence similarity of putative ligand-protein binding sites and known protein signature pockets; (b) generating basis sets of values representative of nucleotide expression levels of genes that have been correlated to known ligand-protein binding sites in a predetermined number of biological samples by mapping known ligand-protein binding site information to a gene name and identifying in a gene- biological sample expression database information representative of nucleotide expression levels corresponding to the gene; and (c) selecting overlapping values from the basis sets generated in steps (a) and (b) as information which correlates to at least the atomic coordinates and conformation of one or more ligand-protein binding sites. (a) generating stochastic basis sets of values representative of putative ligand-protein binding sites by identifying information in a protein structure database, the information corresponding to known protein signature pockets and representing at least protein signature pocket atomic coordinates and conformation, and performing pair-wise sequence order-independent structure alignment, divisive hierarchical clustering, and probabilistic sequence similarity operations on the identified protein signature pocket information to select the stochastic basis sets of values representative of putative ligand-protein binding sites, the probabilistic sequence similarity operation including solution of a distance function defined by the structural similarity and likely sequence similarity of putative ligand-protein binding sites and known protein signature pockets; (b) generating basis sets of values representative of nucleotide expression levels of genes that have been correlated to known ligand-protein binding sites in a predetermined number of biological samples by mapping known ligand-protein binding site information to a gene name and identifying in a gene- biological sample expression database information representative of nucleotide expression levels corresponding to the gene; and (c) selecting overlapping values from the basis sets generated in steps (a) and (b) as information which correlates to at least the atomic coordinates and conformation of one or more ligand-protein binding sites.
An operation method for a pneumatic nail gun, the pneumatic nail gun including a striking device , a lifting wheel , a motor that is configured to drive the lifting wheel to rotate to lift the striking device , and a control device that includes a microcontroller and a wheel sensor electrically connected to the microcontroller , the wheel sensor being configured to generate and output a sensing signal (S3) to the microcontroller when detecting that the lifting wheel is at a predetermined angular position where the lifting wheel has lifted the striking device to arrive at a ready-to-strike position, the operation method being implemented by the microcontroller and being characterized by the following steps of: when the pneumatic nail gun is powered on, determining whether the sensing signal (S3) is received from the wheel sensor ; controlling the motor to drive the lifting wheel to rotate to lift the striking device when it is determined that the sensing signal (S3) is not received; and controlling the motor to stop the lifting wheel from rotating upon receiving the sensing signal (S3) from the wheel sensor . when the pneumatic nail gun is powered on, determining whether the sensing signal (S3) is received from the wheel sensor ; controlling the motor to drive the lifting wheel to rotate to lift the striking device when it is determined that the sensing signal (S3) is not received; and controlling the motor to stop the lifting wheel from rotating upon receiving the sensing signal (S3) from the wheel sensor .
A pharmaceutical composition comprising baclofen, acamprosate and riluzole, or salt(s) or sustained-release formulation(s) thereof.