mhurhangee/patent-ind-claim-en huggingface dataset:
A thermal transfer recording medium comprising: a base material; a heat-resistant slip layer that is formed on one surface of the base material; an undercoat layer that is formed on the other surface of the base material; and a dye layer that is formed on a surface of the undercoat layer that is opposite from the surface that faces the base material; wherein the dye layer includes a thermally transferable dye, a first binder resin, and a release agent; the release agent includes polyether-modified silicone oil and a perfluoroalkyl compound; the ratio of the polyether-modified silicone oil and perfluoroalkyl compound, on the basis of a weight ratio, is within the range 9:1 to 6:4; the content of the release agent, when the content of the first binder resin is taken to be 100% by mass, is within the range of no less than 1.0% by mass and no greater than 3.0% by mass; and the molecular weight of the polyether-modified silicone oil is 8000 or greater. a base material; a heat-resistant slip layer that is formed on one surface of the base material; an undercoat layer that is formed on the other surface of the base material; and a dye layer that is formed on a surface of the undercoat layer that is opposite from the surface that faces the base material; wherein the dye layer includes a thermally transferable dye, a first binder resin, and a release agent; the release agent includes polyether-modified silicone oil and a perfluoroalkyl compound; the ratio of the polyether-modified silicone oil and perfluoroalkyl compound, on the basis of a weight ratio, is within the range 9:1 to 6:4; the content of the release agent, when the content of the first binder resin is taken to be 100% by mass, is within the range of no less than 1.0% by mass and no greater than 3.0% by mass; and the molecular weight of the polyether-modified silicone oil is 8000 or greater.
A method for preparing a sultone derivative represented by the following Chemical Formula 4, the method comprising the steps of: 1) reacting an alcohol represented by the following Chemical Formula 1 with a sulfonyl chloride derivative represented by the following Chemical Formula 2 to prepare an intermediate represented by the following Chemical Formula 3; and 2) cyclizing the intermediate represented by the Chemical Formula 3 to prepare the sultone derivative represented by the Chemical Formula 4, wherein the first step and the second step are carried out in the presence of a base. wherein, R 1 and R 2 are each independently a halogen atom, R 3 represents an unsubstituted C1-C10 alkyl group or a C1-C10 alkyl group substituted with halogen and R 4 represents hydrogen, an unsubstituted C1-C10 alkyl group or a C1-C10 alkyl group substituted with halogen. 1) reacting an alcohol represented by the following Chemical Formula 1 with a sulfonyl chloride derivative represented by the following Chemical Formula 2 to prepare an intermediate represented by the following Chemical Formula 3; and 2) cyclizing the intermediate represented by the Chemical Formula 3 to prepare the sultone derivative represented by the Chemical Formula 4, wherein the first step and the second step are carried out in the presence of a base. wherein, R 1 and R 2 are each independently a halogen atom, R 3 represents an unsubstituted C1-C10 alkyl group or a C1-C10 alkyl group substituted with halogen and R 4 represents hydrogen, an unsubstituted C1-C10 alkyl group or a C1-C10 alkyl group substituted with halogen.
Oil-lubricated rotary vane vacuum pump with a rotary vane unit , comprising a rotary vane chamber and a rotary vane rotor , and with an oil separating device , wherein a separation of gas and oil takes place in the oil separating device by means of an air oil separator element , the air-oil separator element having a filter element which, at an end which can be plugged in on the housing side, has a plug-in ring which is designed for radial sealing and axial displaceability in an associated housing receptacle, and the filter element , facing the end associated with the outer wall , has a shaped portion for bayonet mounting, characterized in that a retaining wall of the housing is formed to cooperate with the shaped portion of the filter element and to form the bayonet mounting, said retaining wall extending at a distance from the outer wall of the housing , in that a separate cover is provided which allows a mounting opening assigned to the filter element to be closed in the outer wall of the housing , and in that the cover interacts in a form-fitting manner with the filter element in order to prevent the filter element from rotating.
A fluororubber tube formed from a rubber composition characterized by comprising a fluororubber, and not less than 3.8 parts by mass and not greater than 4.1 parts by mass of a polyol crosslinking agent and not less than 3 parts by mass and not greater than 7 parts by mass of a carbon black based on 100 parts by mass of the fluororubber, wherein the polyol crosslinking agent is a mixture of a bisphenol and an accelerating agent for accelerating a crosslinking reaction of the fluororubber with the bisphenol.
A flour milling pretreatment method for the manufacture of rice flour including a moisture conditioning step for adding water to the rice grains, characterized in that the flour milling pretreatment method also includes a moisture homogenizing step for supplying low-humidity air to milled rice having a moisture content of 13.0∼16.0% (w. b.%), to adjust the moisture content in the milled rice to 11.0 ∼13.0% (w. b.%), thereby homogenizing the moisture content; and in that the moisture conditioning step is for adding water to the rice grains that have passed through the moisture homogenizing step until the moisture content in each of the rice grains of rice reaches 20. 0∼45.0% (w. b.%), and facilitating water absorption into the core of each of the grains of the milled rice after the water addition.
Sensor device comprising a sensor element in a housing , wherein a mechanical fastening element comprising a spring element is arranged at and fastened to the housing, characterized in that the housing comprises a plastic based on a filled liquid crystal polymer, wherein the plastic comprises a liquid crystal polymer filled with boron nitride, wherein the housing comprises a base part and a cover part connected to one another, and a cavity with the sensor element arranged therein. wherein a mechanical fastening element comprising a spring element is arranged at and fastened to the housing, characterized in that the housing comprises a plastic based on a filled liquid crystal polymer, wherein the plastic comprises a liquid crystal polymer filled with boron nitride, wherein the housing comprises a base part and a cover part connected to one another, and a cavity with the sensor element arranged therein.
Circuit for an emergency lighting device, comprising: - output terminals for driving emergency lighting means , - a storage unit for electric energy, such as a battery, - input terminals (2; 2a, 2b) for being supplied with an AC voltage, - a driving circuitry for driving the emergency lighting means , when connected to the output terminals, from the energy storage unit in an emergency state in which the AC voltage fails, and an AC/DC converter connected to the input terminals , characterized in that the circuit comprises a constant current control/regulator connected to the AC/DC converter , and in that in a non-emergency in which the AC voltage is present the circuit is configured to be selectively put in at least the following states: - a maintained mode in which the constant current control/regulator feeds a constant current through the emergency lighting means , when connected to the output terminals, and to the energy storage unit in order to charge the energy storage unit , such that the emergency lighting means are operated during charging of the energy storage unit ; and - a non-maintained mode in which the constant current control/regulator feeds a constant current to the energy storage unit in order to charge the energy storage unit without feeding the constant current through the emergency lighting means such that the emergency lighting means are not operated during charging of the energy storage unit . - output terminals for driving emergency lighting means , - a storage unit for electric energy, such as a battery, - input terminals (2; 2a, 2b) for being supplied with an AC voltage, - a driving circuitry for driving the emergency lighting means , when connected to the output terminals, from the energy storage unit in an emergency state in which the AC voltage fails, - a maintained mode in which the constant current control/regulator feeds a constant current through the emergency lighting means , when connected to the output terminals, and to the energy storage unit in order to charge the energy storage unit , such that the emergency lighting means are operated during charging of the energy storage unit ; and - a non-maintained mode in which the constant current control/regulator feeds a constant current to the energy storage unit in order to charge the energy storage unit without feeding the constant current through the emergency lighting means such that the emergency lighting means are not operated during charging of the energy storage unit .
A composition comprising sodium butyrate for use in the prevention and/ or treatment of a viral infection caused by Rhinovirus.
A humanized anti-α2 integrin antibody comprising a heavy chain variable region comprising the amino acid sequence of SEQ ID NO: 7, a light chain variable region comprising the amino acid of SEQ ID NO: 21, a human light chain constant region, and a variant human IgG1 heavy chain constant region comprising a variant human IgG1 Fc region, wherein the variant human IgG1 Fc region comprises amino acid substitution S324N replacing serine at amino acid position 324 of the parent antibody with asparagine, amino acid substitution S298A replacing serine at amino acid position 298 of the parent antibody with alanine, and amino acid substitution E269D replacing glutamate at amino acid position 269 of the parent antibody with aspartic acid, wherein the numbering of the amino acid positions is that of the EU index as in Kabat, and wherein the antibody exhibits improved complement dependent cytotoxicity (CDC) and improved antibody dependent cell mediated cytotoxicity (ADCC) as compared to the parent antibody.
An electronic computation device arranged for obfuscated execution of a multiplication, said device comprising - a storage arranged for storing multiple variables used in the execution of an arithmetic operation, a variable ( x : y ; 2) of the multiple variables being represented as one or more multiplicative shares ( X = ( x 0 x 1 ... , x m -1 ); Y = ( y 0, y 1. ... y m -1 ); 20), said multiplicative shares being represented in the storage as multiple additive shares ( X i = ( x i ,0 , x i ,1 ,..., x i , n -1 ); Y i = ( y i ,0, y i ,1.... y i , n -1 ); 210, 220) - a processor circuit configured to multiply a first variable in the storage with a second variable in the storage to obtain a multiplication result (z = xy ), said multiplying comprising - for each multiplicative share of the first variable, - computing a convolution ( Z i = X i * Y i ) of the additive shares representing said multiplicative share of the first variable ( X i ) and the additive shares representing the corresponding multiplicative shares of the second variable ( Y i ), - storing the resulting multiple additive shares ( Z i ) in the storage as a representation in additive shares of a multiplicative share of the multiplication result ( z ). - a storage arranged for storing multiple variables used in the execution of an arithmetic operation, a variable ( x : y ; 2) of the multiple variables being represented as one or more multiplicative shares ( X = ( x 0 x 1 ... , x m -1 ); Y = ( y 0, y 1. ... y m -1 ); 20), said multiplicative shares being represented in the storage as multiple additive shares ( X i = ( x i ,0 , x i ,1 ,..., x i , n -1 ); Y i = ( y i ,0, y i ,1.... y i , n -1 ); 210, 220) - a processor circuit configured to multiply a first variable in the storage with a second variable in the storage to obtain a multiplication result (z = xy ), said multiplying comprising - for each multiplicative share of the first variable, - computing a convolution ( Z i = X i * Y i ) of the additive shares representing said multiplicative share of the first variable ( X i ) and the additive shares representing the corresponding multiplicative shares of the second variable ( Y i ), - storing the resulting multiple additive shares ( Z i ) in the storage as a representation in additive shares of a multiplicative share of the multiplication result ( z ). - for each multiplicative share of the first variable, - computing a convolution ( Z i = X i * Y i ) of the additive shares representing said multiplicative share of the first variable ( X i ) and the additive shares representing the corresponding multiplicative shares of the second variable ( Y i ), - storing the resulting multiple additive shares ( Z i ) in the storage as a representation in additive shares of a multiplicative share of the multiplication result ( z ).
A method of making a coated cutting tool, the method comprises chemical vapor deposition of a coating comprising an inner layer of TiN and a subsequent layer of TiCN on a substrate, wherein the substrate is made of cemented carbide composed of hard constituents in a metallic binder and wherein the metallic binder comprises 60 to 90 wt% Ni, characterized in that the TiN layer is deposited on the cemented carbide substrate in two subsequent steps at a temperature of about 850-900°C and a pressure of about 300-600 mbar, preferably 300-500 mbar: a first TiN deposition of TiN-1, followed by a second TiN deposition of TiN-2, the TiN-1 deposition is performed in a gas comprising 1-1.5 vol% TiCl 4 and H 2 and N 2 , wherein the volume ratio H 2 /N 2 is 0.05-0.18, preferably 0.09-0.14, and wherein the gas preferably comprises 0.5-1.5 vol% HCl, more preferably 0.8-1.0 vol% HCl, and the TiN-2 deposition is performed in a gas comprising 2-3 vol% TiCl 4 and H 2 and N 2 , wherein the volume ratio H 2 /N 2 is 0.8-2.5, preferably 0.9-1.7, more preferably 0.9-1.2. the TiN-1 deposition is performed in a gas comprising 1-1.5 vol% TiCl 4 and H 2 and N 2 , wherein the volume ratio H 2 /N 2 is 0.05-0.18, preferably 0.09-0.14, and wherein the gas preferably comprises 0.5-1.5 vol% HCl, more preferably 0.8-1.0 vol% HCl, and the TiN-2 deposition is performed in a gas comprising 2-3 vol% TiCl 4 and H 2 and N 2 , wherein the volume ratio H 2 /N 2 is 0.8-2.5, preferably 0.9-1.7, more preferably 0.9-1.2.
A saddle-type motor vehicle , comprising a frame , a rear drive wheel and at least one front steered wheel , said front steered wheel being supported by a spindle constrained to a steering structure and associated to a damped suspension ; wherein a device is interposed between the spindle and the steering structure , for varying the position of a rotation axis (R) of the front steered wheel with respect to the steering structure as a function of a braking action of the saddle-type motor vehicle ; characterized in that the device for varying the position of the rotation axis (R) of the front steered wheel with respect to the steering structure comprises a guide seat to which the spindle is movably engaged.
A semiconductor device comprising: a first memory access circuit that outputs a first access address (CAA1, MAA1); a second memory access circuit to check the first memory access circuit , the first memory access circuit and the second memory access circuit constituting a lockstep configuration; a memory (20, 50; 20A, 20B) that receives the first access address (CAA1, MAA1) from the first memory access circuit and outputs a memory address (LOA, KOA; LOAA, LOAB) based on the first access address (CAA1, MAA1); a duplexing comparison circuit that compares the first access address (CAA1, MAA1) with a second access address (CAA2, MAA2) output from the second memory access circuit ; a first address comparison circuit (31, 61; 31A, 31B) that compares the first access address (CAA1, MAA1) output from the first memory access circuit with the memory address (LOA, KOA; LOAA, LOAB) output from the memory (20, 50; 20A, 20B); and an error control circuit that outputs a control signal based on a comparison result from the duplexing comparison circuit and a comparison result from the first address comparison circuit . a first memory access circuit that outputs a first access address (CAA1, MAA1); a second memory access circuit to check the first memory access circuit , the first memory access circuit and the second memory access circuit constituting a lockstep configuration; a memory (20, 50; 20A, 20B) that receives the first access address (CAA1, MAA1) from the first memory access circuit and outputs a memory address (LOA, KOA; LOAA, LOAB) based on the first access address (CAA1, MAA1); a duplexing comparison circuit that compares the first access address (CAA1, MAA1) with a second access address (CAA2, MAA2) output from the second memory access circuit ; a first address comparison circuit (31, 61; 31A, 31B) that compares the first access address (CAA1, MAA1) output from the first memory access circuit with the memory address (LOA, KOA; LOAA, LOAB) output from the memory (20, 50; 20A, 20B); and an error control circuit that outputs a control signal based on a comparison result from the duplexing comparison circuit and a comparison result from the first address comparison circuit .
An adjustable spinal implant comprising: a lower body; an upper body and the lower body are pivotally moveable relative to one another between a collapsed position (Fig 1) and an expanded position (Fig 7), the upper body including a locking flange extending towards the lower body; and characterized by a locking pawl coupled to the lower body, engageable with the locking flange and moveable between a locked position, wherein the upper body and the lower body are fixed relative to one another by the engagement of the flange and pawl, and an unlocked position, wherein the flange and pawl are free of engagement thereby to allow the upper body and the lower body to pivot relative to one another; and a locking key received in an opening in the locking pawl and moveable between a locked state, wherein the locking pawl is fixed in the engaged and locked position, and an unlocked state, wherein the locking pawl is moveable between the locked and unlocked positions. a lower body; an upper body and the lower body are pivotally moveable relative to one another between a collapsed position (Fig 1) and an expanded position (Fig 7), the upper body including a locking flange extending towards the lower body; and characterized by a locking pawl coupled to the lower body, engageable with the locking flange and moveable between a locked position, wherein the upper body and the lower body are fixed relative to one another by the engagement of the flange and pawl, and an unlocked position, wherein the flange and pawl are free of engagement thereby to allow the upper body and the lower body to pivot relative to one another; and a locking key received in an opening in the locking pawl and moveable between a locked state, wherein the locking pawl is fixed in the engaged and locked position, and an unlocked state, wherein the locking pawl is moveable between the locked and unlocked positions.
A pad assembly comprising: a fibrous pad including an upper surface, a bottom surface and a peripheral surface; a reinforcement layer ; and abrasive tools ; characterized in that the reinforcement layer is attached to the bottom surface of the pad, the reinforcement layer including an internal edge defining a central opening or hole therethrough; and in that the abrasive tools are attached to a floor-facing surface of the reinforcement layer ; and in that a central area of the fibrous pad being exposed through the hole of the reinforcement layer . a fibrous pad including an upper surface, a bottom surface and a peripheral surface; a reinforcement layer ; and abrasive tools ; characterized in that the reinforcement layer is attached to the bottom surface of the pad, the reinforcement layer including an internal edge defining a central opening or hole therethrough; and in that the abrasive tools are attached to a floor-facing surface of the reinforcement layer ; and in that a central area of the fibrous pad being exposed through the hole of the reinforcement layer .
A control device for an internal combustion engine, the control device comprising: a sensor configured to detect oxygen concentration in exhaust gas or an air-fuel ratio, the sensor being arranged in an exhaust passage of the internal combustion engine, the sensor including a solid electrolyte body , an exhaust gas side electrode , a reference gas side electrode , and an electric circuit , the exhaust gas side electrode being disposed on one side of the solid electrolyte body and being in contact with the exhaust gas, the reference gas side electrode being disposed on the other side of the solid electrolyte body and being in contact with reference gas, the electric circuit applying a reference voltage between the exhaust gas side electrode and the reference gas side electrode , characterized by the sensor having a characteristic in which an output current Ip as a function of the voltage applied between the exhaust gas side electrode and the reference gas side electrode is such that (Ip(0.7 volt)-Ip(0.45 volt))/Ip(0.45 volt)≥0.05 or | Ip(0.2 volt)-Ip(0.45 volt)) | /Ip(0.45 volt)≥0.05 while the air-fuel ratio is constant at a stoichiometric air-fuel ratio; and an electronic control unit configured to control the air-fuel ratio based on the output current of the sensor. a sensor configured to detect oxygen concentration in exhaust gas or an air-fuel ratio, the sensor being arranged in an exhaust passage of the internal combustion engine, the sensor including a solid electrolyte body , an exhaust gas side electrode , a reference gas side electrode , and an electric circuit , the exhaust gas side electrode being disposed on one side of the solid electrolyte body and being in contact with the exhaust gas, the reference gas side electrode being disposed on the other side of the solid electrolyte body and being in contact with reference gas, the electric circuit applying a reference voltage between the exhaust gas side electrode and the reference gas side electrode , characterized by the sensor having a characteristic in which an output current Ip as a function of the voltage applied between the exhaust gas side electrode and the reference gas side electrode is such that (Ip(0.7 volt)-Ip(0.45 volt))/Ip(0.45 volt)≥0.05 or | Ip(0.2 volt)-Ip(0.45 volt)) | /Ip(0.45 volt)≥0.05 while the air-fuel ratio is constant at a stoichiometric air-fuel ratio; and an electronic control unit configured to control the air-fuel ratio based on the output current of the sensor.