mhurhangee/patent-ind-claim-en huggingface dataset:
A hydrogel comprising: (a) a hydrophilic gelling agent that includes a nonionic cellulose ether; and (b) active thermolysin, wherein the hydrogel further comprises a diol and/or a triol, wherein the hydrogel further comprises a preservative, wherein the proteolytic activity of the thermolysin does not decrease by more than 20% when stored at room temperature for 6 months, wherein the hydrogel has a viscosity of 15,000 to 100,000 mPa.s, as measured with a Brookfield RV Viscometer, spindle 14 with small sample adapter, at 10 rpm at room temperature read at 30 seconds and, wherein the nonionic cellulose ether comprises hydroxyethylcellulose at 2.5 to 4.5% w/w of the hydrogel, or hydroxypropylcellulose at 0.01 to 10% w/w of the hydrogel, or hydroxypropylmethylcellulose at 1.5 to 2.5% w/w of the hydrogel. (a) a hydrophilic gelling agent that includes a nonionic cellulose ether; and (b) active thermolysin, wherein the hydrogel further comprises a diol and/or a triol, wherein the hydrogel further comprises a preservative, wherein the proteolytic activity of the thermolysin does not decrease by more than 20% when stored at room temperature for 6 months, wherein the hydrogel has a viscosity of 15,000 to 100,000 mPa.s, as measured with a Brookfield RV Viscometer, spindle 14 with small sample adapter, at 10 rpm at room temperature read at 30 seconds and, wherein the nonionic cellulose ether comprises hydroxyethylcellulose at 2.5 to 4.5% w/w of the hydrogel, or hydroxypropylcellulose at 0.01 to 10% w/w of the hydrogel, or hydroxypropylmethylcellulose at 1.5 to 2.5% w/w of the hydrogel.
Payload module of a stratospheric drone, comprising: - a casing , and - at least one piece of payload equipment , contained in the casing , the module being characterized in that the casing comprises a support structure and a cover , the support structure being suitable for attachment to the drone at the front end thereof, relative to the direction of movement of the drone, and for extending forward from said front end, and in that the support structure is suitable for supporting the payload equipment so that the mass of said payload equipment is carried by the support structure, and in that the cover is mounted on the support structure. - a casing , and - at least one piece of payload equipment , contained in the casing ,
Fall protection device , comprising a module with an adapter for detachably attaching the module at the tip of an aerial apparatus, said module comprising a plurality of ropes , each rope extending from an individual fall arresting device received within the module , characterized in that the module comprises supply devices each provided with a supply line , provided as a cable or hose extending from a reel on which said supply line is wound, said supply devices being laterally attached to said adapter and being configured to provide fluid and electric power via said cable or hose .
A carriage for a linear guide system comprising a rail element with two running surfaces facing each other and the carriage movable relative to the rail element in and against a pull-out direction , wherein the carriage comprises a base body , a first pair of support elements in the form of sliders , and at least one first support spring element , wherein each of the sliders of the first pair of support elements is movably mounted on the base body in an upward direction perpendicular to the pull-out direction , so that each of the sliders is frictionally engageable with a respective one of the running surfaces, and wherein the at least one first support spring element is mounted on the base body such that the at least one first support spring element biases the sliders of the first pair of support elements away from each other in the upward direction , characterised in that the carriage additionally comprises a second pair of support elements and at least one second support spring element , wherein the second pair of support elements is spaced apart from the first pair of support elements in the pull-out direction , wherein each of the support elements of the second pair of support elements is movably supported on the base body in the upward direction so that each of the support elements is engageable with a respective one of the running surfaces, and wherein the at least one second support spring element is mounted on the base body such that the at least one second support spring element biases the support elements of the second pair of support elements away from each other in the upward direction . a base body , a first pair of support elements in the form of sliders , and at least one first support spring element , wherein each of the sliders of the first pair of support elements is movably mounted on the base body in an upward direction perpendicular to the pull-out direction , so that each of the sliders is frictionally engageable with a respective one of the running surfaces, and wherein the at least one first support spring element is mounted on the base body such that the at least one first support spring element biases the sliders of the first pair of support elements away from each other in the upward direction , characterised in that the carriage additionally comprises a second pair of support elements and at least one second support spring element , wherein the second pair of support elements is spaced apart from the first pair of support elements in the pull-out direction , wherein each of the support elements of the second pair of support elements is movably supported on the base body in the upward direction so that each of the support elements is engageable with a respective one of the running surfaces, and wherein the at least one second support spring element is mounted on the base body such that the at least one second support spring element biases the support elements of the second pair of support elements away from each other in the upward direction .
A computer-implemented method for a sequence triggering of a call for an elevator car of an elevator system, the elevator system comprising a first location device and a second location device , the computer-implemented method comprising: detecting , by the first location device , a first triggering signal outputted by a mobile device ; detecting , by the second location device , a second triggering signal outputted by the mobile device ; automatically executing , by the elevator system, the call for the elevator car in response to the detection by the second location device of the second triggering signal subsequent to the detection of the first triggering signal by the first location device , characterised by automatically executing , by the elevator system, an initial call for a first elevator car of the elevator system in response to the detection of the first triggering signal by the first location device, wherein the call for the elevator car is one of a plurality of calls of a multi-segment elevator trip within the elevator system. detecting , by the first location device , a first triggering signal outputted by a mobile device ; detecting , by the second location device , a second triggering signal outputted by the mobile device ; automatically executing , by the elevator system, the call for the elevator car in response to the detection by the second location device of the second triggering signal subsequent to the detection of the first triggering signal by the first location device , characterised by automatically executing , by the elevator system, an initial call for a first elevator car of the elevator system in response to the detection of the first triggering signal by the first location device, wherein the call for the elevator car is one of a plurality of calls of a multi-segment elevator trip within the elevator system.
An image processing device comprising a display surface and a rendering means, wherein the rendering means is configured to render display data of an indoor or outdoor material based on illumination information including ambient illumination information of the image processing device or external illumination information on the illumination in a modeled space, material information on the texture of the material including shape characteristics and reflection characteristics for each pixel of an image of the material, and the relative positional relationship of a light source, display surface on which an image of the material is displayed, and a direction of a viewer's eye, so that the viewer views the material as if the surface of the material is overlaid on the display surface, or as if the material is placed between the display surface and the viewer in response to a zoom-in instruction, or as if the display surface is placed between the material and the viewer in response to a zoom-out instruction.
An external hot source engine comprising: - at least one cylinder , - a piston moving back and forth in the cylinder , - a cylinder head defining, with the piston and the cylinder , a working chamber for a working gas, - a distribution mounted in the cylinder head and selectively communicating the working chamber with the following resources: • a working gas intake (A), • a cold end (B) of a heat exchanger , • a hot end (C) of the heat exchanger , • an exhaust (D), characterized in that the distribution comprises at least one rotary slide valve mounted in rotation in the cylinder head and including internal passages opening through the sidewall thereof by at least two holes for at least one same passage, said holes being adapted for simultaneously communicating with the working chamber , by at least one opening made in the cylinder head , and in that the internal passages lead to the working gas between the working chamber and the resources. - at least one cylinder , - a piston moving back and forth in the cylinder , - a cylinder head defining, with the piston and the cylinder , a working chamber for a working gas, - a distribution mounted in the cylinder head and selectively communicating the working chamber with the following resources: • a working gas intake (A), • a cold end (B) of a heat exchanger , • a hot end (C) of the heat exchanger , • an exhaust (D), • a working gas intake (A), • a cold end (B) of a heat exchanger , • a hot end (C) of the heat exchanger , • an exhaust (D), characterized in that the distribution comprises at least one rotary slide valve mounted in rotation in the cylinder head and including internal passages opening through the sidewall thereof by at least two holes for at least one same passage, said holes being adapted for simultaneously communicating with the working chamber , by at least one opening made in the cylinder head , and in that the internal passages lead to the working gas between the working chamber and the resources.
A method, comprising: receiving, by a controller device , thermal coefficient data at an adaptive filter bank to characterize heat transfer of a volume of a thermal system; generating, by the controller device, reference signal data indicating an estimate of a rate of temperature change in the volume based on at least the adaptive filter bank; receiving, by the controller device, primary signal data based at least on an observed rate of the temperature change in the volume; determining, by the controller device, an estimation error for the reference signal data with respect to the primary signal data associated with the volume; and characterized by modifying, by the controller device, the thermal coefficient data in view of the estimation error. receiving, by a controller device , thermal coefficient data at an adaptive filter bank to characterize heat transfer of a volume of a thermal system; generating, by the controller device, reference signal data indicating an estimate of a rate of temperature change in the volume based on at least the adaptive filter bank; receiving, by the controller device, primary signal data based at least on an observed rate of the temperature change in the volume; determining, by the controller device, an estimation error for the reference signal data with respect to the primary signal data associated with the volume; and characterized by modifying, by the controller device, the thermal coefficient data in view of the estimation error.
Wood treatment tool spindle with a spindle housing , in which a spindle shaft with at least one pivot bearing is mounted, and with at least one temperature sensor , which is arranged adjacent to the pivot bearing in the spindle housing , detects the temperature of the pivot bearing and transmits signals to at least one evaluation unit which generates output signals depending on this evaluation, characterized in that the spindle housing comprises at least one axial bore hole , which opens into an end face of the spindle housing and receives the temperature sensor .
End piece intended for equipping a device for cosmetic treatment of keratin materials with an electric current, the end piece comprising an application member comprising an electrode and a counter electrode , said electrode and counter electrode are separated from one another by an electrically insulating zone , characterized in that the electrically insulating zone defines a wall, the height of which is greater than or equal to the thickness of the electrode and of the counter electrode .
A sensing device for detecting an object in a blind spot (R1) in a surrounding environment of a moving body , the sensing device comprising: a distance measurer configured to acquire distance information indicating a distance from the moving body to the surrounding environment; a detector configured to detect the object in the blind spot (R1); and a controller configured to control operation of the detector , wherein the controller is configured to: detect the blind spot (R1) in the surrounding environment and a distance to the blind spot (R1), based on the distance information acquired by the distance measurer ; control precision indicating what degree the detector precisely detects the object in the blind spot (R1), according to the detected distance to the blind spot (R1); and cause the detector to detect the object in the blind spot (R1), according to the controlled precision. a distance measurer configured to acquire distance information indicating a distance from the moving body to the surrounding environment; a detector configured to detect the object in the blind spot (R1); and a controller configured to control operation of the detector , wherein the controller is configured to: detect the blind spot (R1) in the surrounding environment and a distance to the blind spot (R1), based on the distance information acquired by the distance measurer ; control precision indicating what degree the detector precisely detects the object in the blind spot (R1), according to the detected distance to the blind spot (R1); and detect the blind spot (R1) in the surrounding environment and a distance to the blind spot (R1), based on the distance information acquired by the distance measurer ; control precision indicating what degree the detector precisely detects the object in the blind spot (R1), according to the detected distance to the blind spot (R1); and
A method for detecting one or more gaze-related parameters of a user, the method comprising the steps of: - creating a left image (Pi) of at least a portion of a left eye of the user using a first camera of a head-wearable device worn by the user; - creating a right image (P r ) of at least a portion of a right eye of the user using a second camera of the head-wearable device ; - concatenating the left image (P l ) and the right image (P r ) to form a concatenated image (P l , P r ); - feeding the concatenated image (P l , P r ) as an input into a trained convolutional neural network; - obtaining the one or more gaze-related parameters from the trained convolutional neural network as a result of the concatenated image (P l , P r ) input. - creating a left image (Pi) of at least a portion of a left eye of the user using a first camera of a head-wearable device worn by the user; - creating a right image (P r ) of at least a portion of a right eye of the user using a second camera of the head-wearable device ; - concatenating the left image (P l ) and the right image (P r ) to form a concatenated image (P l , P r ); - feeding the concatenated image (P l , P r ) as an input into a trained convolutional neural network; - obtaining the one or more gaze-related parameters from the trained convolutional neural network as a result of the concatenated image (P l , P r ) input.
Method to recognize if a user of an electronic terminal is a human or a robot, includes the phases - taking an original image , - decomposing the original image into a multitude of image portions, - visualizing said multitude of image portions by randomly placing them within a test area of a display of an electronic terminal, - randomly generating the coordinates of a solution position inside the test area, and defining a solution area that includes the coordinates of the solution position and falls within the test area, - detecting the movement of a cursor within the test area - moving each image portion of such multitude of image portions within the test area according to a trajectory which depends on the detected cursor position inside the test area, said trajectory is such that, when the cursor is in the solution position, the original image is visualized inside the test area, - detecting a control signal inputted by the user of the electronic terminal, - detecting the final position of the cursor , said final position being the position of the cursor at the time of input of the control signal, - comparing the coordinates of the final position of the cursor with the solution area, - considering the interaction with the electronic terminal as performed by a human if the final position of the cursor falls within the solution area. - taking an original image , - decomposing the original image into a multitude of image portions, - visualizing said multitude of image portions by randomly placing them within a test area of a display of an electronic terminal, - randomly generating the coordinates of a solution position inside the test area, and defining a solution area that includes the coordinates of the solution position and falls within the test area, - detecting the movement of a cursor within the test area - moving each image portion of such multitude of image portions within the test area according to a trajectory which depends on the detected cursor position inside the test area, said trajectory is such that, when the cursor is in the solution position, the original image is visualized inside the test area, - detecting a control signal inputted by the user of the electronic terminal, - detecting the final position of the cursor , said final position being the position of the cursor at the time of input of the control signal, - comparing the coordinates of the final position of the cursor with the solution area, - considering the interaction with the electronic terminal as performed by a human if the final position of the cursor falls within the solution area.
A composition for a soft mold, the composition comprising: 40 wt% or more to 96 wt% or less of at least one multifunctional acrylate monomer based on a total weight of the composition for the soft mold; 3 wt% or more to 15 wt% or less of at least one photoinitiator based on the total weight of the composition for the soft mold; and 0.1 wt% or more to 50 wt% or less of a siloxane compound based on the total weight of the composition for the soft mold, wherein the siloxane compound is represented by Formula 1: wherein, in Formula 1, X is hydrogen or a methyl group, m1 and m2 are each independently an integer of 2 or more to 30 or less, and n1 and n2 are each independently an integer of 0 or more to 5 or less. 40 wt% or more to 96 wt% or less of at least one multifunctional acrylate monomer based on a total weight of the composition for the soft mold; 3 wt% or more to 15 wt% or less of at least one photoinitiator based on the total weight of the composition for the soft mold; and 0.1 wt% or more to 50 wt% or less of a siloxane compound based on the total weight of the composition for the soft mold, wherein the siloxane compound is represented by Formula 1: wherein, in Formula 1, X is hydrogen or a methyl group, m1 and m2 are each independently an integer of 2 or more to 30 or less, and n1 and n2 are each independently an integer of 0 or more to 5 or less.
A microprocessor-implemented method of operating a graphics processing system that includes a graphics processing pipeline comprising: including in a fragment shader program (80; 84; 86) to be executed by a programmable fragment shading stage of the graphics processing pipeline , a graphics program instruction that when executed will cause the fragment shader to determine whether a per-fragment operation, that would normally be performed after the fragment shader process has been completed, can be performed for a fragment being processed, and to, when it is determined that the per-fragment operation can be performed for a fragment being processed, trigger the performance of the per-fragment operation for the fragment being processed, such that said per-fragment operation is performed during execution of the fragment shader program.
A compound of Formula (I), or a pesticidal, veterinary, or pharmaceutically acceptable salt thereof: wherein each R 1A , R 1B , and R 1C individually is hydrogen, alkyl, halogen, or haloalkyl; R 2 is haloalkyl; X is bond, C(O), SO 2 , or C(O)NH; R 3 is hydrogen, optionally substituted alkyl, optionally substituted haloalkyl, optionally substituted cycloalkyl, optionally substituted heterocyclyl, optionally substituted aryl, and optionally substituted heteroaryl. each R 1A , R 1B , and R 1C individually is hydrogen, alkyl, halogen, or haloalkyl; R 2 is haloalkyl; X is bond, C(O), SO 2 , or C(O)NH; R 3 is hydrogen, optionally substituted alkyl, optionally substituted haloalkyl, optionally substituted cycloalkyl, optionally substituted heterocyclyl, optionally substituted aryl, and optionally substituted heteroaryl.
A process for production of concentrated sulphuric acid having a concentration of 95 to 98.8 % by weight by catalytic oxidation of a gas comprising sulphur dioxide and water into a gas comprising a mixture of sulphur trioxide and water, cooling of said gas comprising a mixture of sulphur trioxide and water, condensing a hot sulphuric acid having a concentration of 90 to 98 % by weight and stripping the hot sulphuric acid, wherein the sulphuric acid is stripped with 0.1 to 1 Nm 3 dried air/kg produced concentrated sulphuric acid .
A method for quantifying an impurity in a sample, said method comprising: contacting said sample to a chromatographic system having a mixed-mode size exclusion chromatography resin with an additional functionality which results in mixed-mode separation; washing said mixed-mode size exclusion chromatography resin using a mobile phase to provide an eluent including the impurity; and quantifying an amount of the impurity in said eluent using a mass spectrometer, wherein the mass spectrometer is coupled to the chromatographic system. contacting said sample to a chromatographic system having a mixed-mode size exclusion chromatography resin with an additional functionality which results in mixed-mode separation; washing said mixed-mode size exclusion chromatography resin using a mobile phase to provide an eluent including the impurity; and quantifying an amount of the impurity in said eluent using a mass spectrometer, wherein the mass spectrometer is coupled to the chromatographic system.