mhurhangee/patent-ind-claim-en huggingface dataset:
An implant configured to fit at or near a bone defect to promote bone growth, the implant comprising an oxysterol uniformly disposed in an acellular tissue matrix, wherein the acellular tissue matrix is crosslinked porcine collagen and comprises from about 5 wt. % to about 25 wt. % of the crosslinked acellular porcine collagen and from about 0.01 wt. % to about 90 wt. % oxysterol, wherein the oxysterol is comprised in the acellular tissue matrix in in an amount of 10 to 240 mg/cc, and wherein the oxysterol comprises 17-((S)-2-hydroxyoctan-2-yl)-10, 13-dimethylhexadecahydro-lH-cyclopenta[a]phenanthrene-3, 6-diol (Oxyl33) monohydrate. wherein the oxysterol is comprised in the acellular tissue matrix in in an amount of 10 to 240 mg/cc, and wherein the oxysterol comprises 17-((S)-2-hydroxyoctan-2-yl)-10, 13-dimethylhexadecahydro-lH-cyclopenta[a]phenanthrene-3, 6-diol (Oxyl33) monohydrate.
A cleaning product comprising a spray dispenser and a cleaning composition suitable for spraying and foaming, the composition housed in the spray dispenser wherein the composition comprises: i) from 7% to 12% by weight of the composition of a surfactant system, wherein the surfactant system comprises an anionic surfactant and a co-surfactant, wherein the co-surfactant is selected from the group consisting of amphoteric surfactant, zwitterionic surfactant and mixtures thereof, preferably an amphoteric surfactant; and ii) from 1% to 15%, preferably from 1.5% to 10%, more preferably from 2% to 8%, most preferably from 3% to 7% by weight of the composition of a linear or branched low cut alcohol alkoxylate non-ionic surfactant with an average alkyl carbon chain length of C10 and below and comprising on average from 3 to 7 alkoxy preferably ethoxy (EO) groups, more preferably a linear C6 alcohol ethoxylate non-ionic surfactant comprising on average from 3 to 7 EO, preferably from 4 to 6 EO, more preferably 5 EO; wherein the surfactant system described under i) excludes the low cut alcohol alkoxylate non-ionic surfactant described under ii); and wherein the surfactant system and the low cut alcohol alkoxylate non-ionic surfactant are in a weight ratio of from 5:1 to 1:5, preferably from 5:1 to 1:1, more preferably from 3:1 to 1:1. i) from 7% to 12% by weight of the composition of a surfactant system, wherein the surfactant system comprises an anionic surfactant and a co-surfactant, wherein the co-surfactant is selected from the group consisting of amphoteric surfactant, zwitterionic surfactant and mixtures thereof, preferably an amphoteric surfactant; and ii) from 1% to 15%, preferably from 1.5% to 10%, more preferably from 2% to 8%, most preferably from 3% to 7% by weight of the composition of a linear or branched low cut alcohol alkoxylate non-ionic surfactant with an average alkyl carbon chain length of C10 and below and comprising on average from 3 to 7 alkoxy preferably ethoxy (EO) groups, more preferably a linear C6 alcohol ethoxylate non-ionic surfactant comprising on average from 3 to 7 EO, preferably from 4 to 6 EO, more preferably 5 EO;
An information processing device comprising: an information acquisition unit configured to acquire camera location information indicating locations, determined by an operator, of a plurality of imaging cameras located in an imaging space ; an evaluation unit configured to evaluate calibration accuracy obtained in a case of locating a calibration camera in the imaging space on a basis of the location of each of the plurality of imaging cameras indicated by the camera location information and a location of the calibration camera, the calibration camera for deriving the locations of the plurality of imaging cameras using, for each imaging camera, a marker imaged by that imaging camera and the calibration camera, characterized in that : the evaluation unit is configured to evaluate the calibration accuracy by calculating an evaluation index for various locations of the calibration camera within the imaging space; and by a location determination unit configured to determine an optimum location of the calibration camera in the imaging space on a basis of the calibration accuracy evaluated by the evaluation unit , the optimum location corresponding to a most favorable evaluation score for calibration accuracy out of the calculated evaluation indexes. an information acquisition unit configured to acquire camera location information indicating locations, determined by an operator, of a plurality of imaging cameras located in an imaging space ; an evaluation unit configured to evaluate calibration accuracy obtained in a case of locating a calibration camera in the imaging space on a basis of the location of each of the plurality of imaging cameras indicated by the camera location information and a location of the calibration camera, the calibration camera for deriving the locations of the plurality of imaging cameras using, for each imaging camera, a marker imaged by that imaging camera and the calibration camera, characterized in that : the evaluation unit is configured to evaluate the calibration accuracy by calculating an evaluation index for various locations of the calibration camera within the imaging space; and by a location determination unit configured to determine an optimum location of the calibration camera in the imaging space on a basis of the calibration accuracy evaluated by the evaluation unit , the optimum location corresponding to a most favorable evaluation score for calibration accuracy out of the calculated evaluation indexes. the evaluation unit is configured to evaluate the calibration accuracy by calculating an evaluation index for various locations of the calibration camera within the imaging space; and by a location determination unit configured to determine an optimum location of the calibration camera in the imaging space on a basis of the calibration accuracy evaluated by the evaluation unit , the optimum location corresponding to a most favorable evaluation score for calibration accuracy out of the calculated evaluation indexes.
A high temperature transponder, comprising: an antenna assembly, comprising: a ferrite core; an antenna wire wound around the core in a coil; and an integrated circuit chip, with two metal inlay portions to which each end of the antenna wire is connected by a thermal compression, laser welding, soldering, or crimp connection; a glass capsule enclosing the antenna assembly; and a high temperature glue for positioning and securing the antenna assembly within the glass capsule, wherein the high temperature glue covers at least 50% to 75% of the antenna assembly; wherein the high temperature transponder is configured to withstand 4 to 8 hour cycles of temperatures of 165°C to 195°C; and wherein the chip provides reliable operation after 1000 hours at 150°C and/or 12 hours at 250°C; and wherein the chip is chemically etched and the metal inlay portions are metal pads that are embedded by being micromolded in the etched portion of the chip. an antenna assembly, comprising: a ferrite core; an antenna wire wound around the core in a coil; and an integrated circuit chip, with two metal inlay portions to which each end of the antenna wire is connected by a thermal compression, laser welding, soldering, or crimp connection; a ferrite core; an antenna wire wound around the core in a coil; and an integrated circuit chip, with two metal inlay portions to which each end of the antenna wire is connected by a thermal compression, laser welding, soldering, or crimp connection; a glass capsule enclosing the antenna assembly; and a high temperature glue for positioning and securing the antenna assembly within the glass capsule, wherein the high temperature glue covers at least 50% to 75% of the antenna assembly; wherein the high temperature transponder is configured to withstand 4 to 8 hour cycles of temperatures of 165°C to 195°C; and wherein the chip provides reliable operation after 1000 hours at 150°C and/or 12 hours at 250°C; and wherein the chip is chemically etched and the metal inlay portions are metal pads that are embedded by being micromolded in the etched portion of the chip.
A shock strut, comprising: a shock strut cylinder ; a shock strut piston that is slidably disposed within the shock strut cylinder; a metering pin ; and characterized by : a percolation seal configured to inflate and deflate, the percolation seal restricting a flow of liquid between the shock strut cylinder and the shock strut piston when the percolation seal is in an inflated state. a shock strut cylinder ; a shock strut piston that is slidably disposed within the shock strut cylinder; a metering pin ; and characterized by : a percolation seal configured to inflate and deflate, the percolation seal restricting a flow of liquid between the shock strut cylinder and the shock strut piston when the percolation seal is in an inflated state.
A vascular filter system comprising: a) a vascular filter comprising: i) an attachment ring ; ii) a plurality of attachment barbs coupled to the attachment ring ; iii) a plurality of filter strand threads coupled to the attachment ring and forming a filter portion having filter openings (46; 46'; 46"), wherein the filter portion is coupled to the attachment ring ; b) a deployment sheath having a distal end opening ; c) a plurality of tensors , each of said plurality of tensors comprising: an extended end ; a tensor coupler attached to said extended end ; wherein the plurality of tensors are retained within the deployment sheath ; wherein the tensor couplers are coupled with the attachment ring ; wherein each of the tensor couplers comprise a coupler slot that receives an inside surface of the attachment ring and extends around the attachment ring ; and wherein the plurality of tensors are shape memory material and wherein each is configured to extend radially outward from the distal end opening of the deployment sheath to press the attachment ring , and attachment barbs coupled thereto, against a vessel wall . a) a vascular filter comprising: i) an attachment ring ; ii) a plurality of attachment barbs coupled to the attachment ring ; iii) a plurality of filter strand threads coupled to the attachment ring and forming a filter portion having filter openings (46; 46'; 46"), wherein the filter portion is coupled to the attachment ring ; i) an attachment ring ; ii) a plurality of attachment barbs coupled to the attachment ring ; iii) a plurality of filter strand threads coupled to the attachment ring and forming a filter portion having filter openings (46; 46'; 46"), b) a deployment sheath having a distal end opening ; c) a plurality of tensors , each of said plurality of tensors comprising: an extended end ; a tensor coupler attached to said extended end ; an extended end ; a tensor coupler attached to said extended end ; wherein the plurality of tensors are retained within the deployment sheath ; wherein the tensor couplers are coupled with the attachment ring ; wherein each of the tensor couplers comprise a coupler slot that receives an inside surface of the attachment ring and extends around the attachment ring ; and wherein the plurality of tensors are shape memory material and wherein each is configured to extend radially outward from the distal end opening of the deployment sheath to press the attachment ring , and attachment barbs coupled thereto, against a vessel wall .
A method for determining the exhaust manifold temperature in a turbocharged engine, wherein said engine comprises a turbocharger and a turbine and wherein said exhaust manifold temperature is a temperature upstream of the turbine, wherein said method comprises the following steps: a) estimating a value of the exhaust manifold temperature (T3) based on an open loop model, wherein the exhaust manifold temperature (T3) is modelled as a combustion offset to a temperature (T22) in the intake manifold downstream an exhaust Gas Recirculation and as a function of at least engine speed (N), exhaust air-fuel ratio ( λ ) and injection timing (SOI); b) measuring the temperature (T4) downstream of the turbine; and c) correcting the value of the exhaust manifold temperature (T3) based on said measurement using the temperature upstream of the turbine and then feeding the difference between the measured value of the temperature (T4) downstream of the turbine and a modelled value of the temperature (T4) downstream the turbine back to the estimated value of the exhaust manifold temperature (T3) upstream of the turbine. a) estimating a value of the exhaust manifold temperature (T3) based on an open loop model, wherein the exhaust manifold temperature (T3) is modelled as a combustion offset to a temperature (T22) in the intake manifold downstream an exhaust Gas Recirculation and as a function of at least engine speed (N), exhaust air-fuel ratio ( λ ) and injection timing (SOI); b) measuring the temperature (T4) downstream of the turbine; and c) correcting the value of the exhaust manifold temperature (T3) based on said measurement using the temperature upstream of the turbine and then feeding the difference between the measured value of the temperature (T4) downstream of the turbine and a modelled value of the temperature (T4) downstream the turbine back to the estimated value of the exhaust manifold temperature (T3) upstream of the turbine.
An apparatus for executing a transcendental function operation on each element in a vector, comprising: a storing unit, configured to store vector data associated with a vector operation instruction; a register unit, configured to store scalar data associated with the vector operation instruction; a control unit, configured to decode the vector operation instruction and to control an operation process of the vector operation instruction; and a transcendental function calculating unit, configured to execute a transcendental function operation on input vector data according to the vector operation instruction under control of the control unit; the transcendental function calculating unit comprising a preprocessing section and an iterative calculating section, the preprocessing section being configured to preprocess the input vector data whereby a coordinate rotation digital computer, CORDIC, scheme is able to process the input vector data preprocessed, and the iterative calculating section being configured to execute an iterative operation on the input vector data preprocessed by using the CORDIC scheme to obtain result vector data, wherein the scalar data stored in the register unit comprise a start address of the input vector data, a storage address of output vector data, and a length of the input vector data associated with the vector operation instruction; wherein the start address of the input vector data and the storage address of the output vector data are addresses in the storing unit. a storing unit, configured to store vector data associated with a vector operation instruction; a register unit, configured to store scalar data associated with the vector operation instruction; a control unit, configured to decode the vector operation instruction and to control an operation process of the vector operation instruction; and a transcendental function calculating unit, configured to execute a transcendental function operation on input vector data according to the vector operation instruction under control of the control unit; the transcendental function calculating unit comprising a preprocessing section and an iterative calculating section, the preprocessing section being configured to preprocess the input vector data whereby a coordinate rotation digital computer, CORDIC, scheme is able to process the input vector data preprocessed, and the iterative calculating section being configured to execute an iterative operation on the input vector data preprocessed by using the CORDIC scheme to obtain result vector data, wherein the scalar data stored in the register unit comprise a start address of the input vector data, a storage address of output vector data, and a length of the input vector data associated with the vector operation instruction; wherein the start address of the input vector data and the storage address of the output vector data are addresses in the storing unit.
Horizontal outlet drainage assembly for sanitary appliances, more particularly a shower tray drain, comprising: - a body having a circular bottom and a cylindrical wall provided with an outlet opening cooperating with a horizontal discharge tube , an internal circular partition delimiting with the cylindrical wall a descending helical channel opening into the horizontal discharge tube , the height of the circular partition being less than that of the cylindrical wall ; - a flat cover covering the body , comprising a central opening bordered by a circular groove ; - a dip tube substantially of the same diameter as that of the central opening and whose upper edge rests in the central opening ; and - a cylindrical flange resting in the groove and on which is located a removable hood , a free space being provided between the flange and the hood . characterized in that , on the one hand, the hood has, on its face facing the flange , a plunger pin , and, on the other hand, the dip tube comprising, in its interior space, a blind tube receiving the plunger pin and having a side tube opening outside this dip tube . - a body having a circular bottom and a cylindrical wall provided with an outlet opening cooperating with a horizontal discharge tube , an internal circular partition delimiting with the cylindrical wall a descending helical channel opening into the horizontal discharge tube , the height of the circular partition being less than that of the cylindrical wall ; - a flat cover covering the body , comprising a central opening bordered by a circular groove ; - a dip tube substantially of the same diameter as that of the central opening and whose upper edge rests in the central opening ; and - a cylindrical flange resting in the groove and on which is located a removable hood , a free space being provided between the flange and the hood .
A washing machine comprising: a cabinet having a first introduction port ; a tub disposed in the cabinet and having a second introduction port concentrically positioned with respect to the first introduction port and including a rim that is located around the second introduction port and that extends from the tub in a forward direction; a weight balancer that is located on an outer circumferential surface of the rim and that is configured to increase a weight of the tub ; an air supply unit provided at an outer side of the rim for supplying dry air to the tub ; a water supply unit connected at an outer side of the rim that is configured to supply washing water to the tub ; a cabinet door mounted on the cabinet so as to open and close the first introduction port ; and a tub door that is hingedly coupled to the tub, that is configured to open and close the second introduction port , and that includes an upper portion that is inclined toward the tub ; and a cover member located between the first introduction port and a front surface of the tub and fastened to the tub so as to cover a portion of the front surface of the tub that is exposed between the first introduction port and the second introduction port , wherein the cover member is coupled outside the weight balancer to prevent the front surface of the tub from being exposed through the first introduction port and configured to cover the weight balancer , the water supply unit and the air supply unit. a cabinet having a first introduction port ; a tub disposed in the cabinet and having a second introduction port concentrically positioned with respect to the first introduction port and including a rim that is located around the second introduction port and that extends from the tub in a forward direction; a weight balancer that is located on an outer circumferential surface of the rim and that is configured to increase a weight of the tub ; an air supply unit provided at an outer side of the rim for supplying dry air to the tub ; a water supply unit connected at an outer side of the rim that is configured to supply washing water to the tub ; a cabinet door mounted on the cabinet so as to open and close the first introduction port ; and a tub door that is hingedly coupled to the tub, that is configured to open and close the second introduction port , and that includes an upper portion that is inclined toward the tub ; and a cover member located between the first introduction port and a front surface of the tub and fastened to the tub so as to cover a portion of the front surface of the tub that is exposed between the first introduction port and the second introduction port , wherein the cover member is coupled outside the weight balancer to prevent the front surface of the tub from being exposed through the first introduction port and configured to cover the weight balancer , the water supply unit and the air supply unit.
An adjustable weight lifting device , comprising: a tube ; a pin movably disposed inside the tube , the pin comprising an external thread ; and one or more driving knobs extending radially inward relative to an inner wall of the tube and engaging with the external thread, characterized in that the external thread comprises at least one portion having a first helix angle and at least one portion (35") having a second helix angle, the second helix angle being smaller than the first helix angle. a tube ; a pin movably disposed inside the tube , the pin comprising an external thread ; and one or more driving knobs extending radially inward relative to an inner wall of the tube and engaging with the external thread, characterized in that the external thread comprises at least one portion having a first helix angle and at least one portion (35") having a second helix angle, the second helix angle being smaller than the first helix angle.
A monosulfonic phenyltetrazole compound selected from the following compounds:
Timepiece comprising a case middle closed by a glass and the following elements positioned in the case middle: - a dial (CD) - a rigid mounting plate (PA) extending under the dial (CD) - a module comprising an electric motor, referred to as the motor module (MD) - a printed circuit board (CI), of which at least a first portion (P1) is interposed between the mounting plate (PA) and the motor module (MD) - means (VS) for the assembly of the motor module (MD) on the mounting plate (PA) through the first portion (P1) of the printed circuit board (CI). - a dial (CD) - a rigid mounting plate (PA) extending under the dial (CD) - a module comprising an electric motor, referred to as the motor module (MD) - a printed circuit board (CI), of which at least a first portion (P1) is interposed between the mounting plate (PA) and the motor module (MD) - means (VS) for the assembly of the motor module (MD) on the mounting plate (PA) through the first portion (P1) of the printed circuit board (CI).