mhurhangee/ep-ind-claims huggingface dataset:
An air purification method, comprising: acquiring plant information of a plant contained in a target detection region; and controlling a target air purification device to enable an air purification function if it is judged, according to the plant information of the plant contained in the target detection region and predetermined reference plant information of an allergy-causing plant, that the target detection region contains the allergy-causing plant and that the allergy-causing plant is in a blooming state, characterized in that acquiring plant information comprises: acquiring an image of the target detection region; and controlling the target air purification device to enable an air purification function comprises: controlling the target air purification device to enable the air purification function if it is judged, according to the image of the target detection region and a predetermined first reference plant image of the allergy-causing plant, that the target detection region contains the allergy-causing plant and that the allergy-causing plant is in the blooming state, wherein the first reference plant image is image of the allergy-causing plant in the blooming state. acquiring plant information of a plant contained in a target detection region; and controlling a target air purification device to enable an air purification function if it is judged, according to the plant information of the plant contained in the target detection region and predetermined reference plant information of an allergy-causing plant, that the target detection region contains the allergy-causing plant and that the allergy-causing plant is in a blooming state, characterized in that acquiring plant information comprises: acquiring an image of the target detection region; and controlling the target air purification device to enable an air purification function comprises: controlling the target air purification device to enable the air purification function if it is judged, according to the image of the target detection region and a predetermined first reference plant image of the allergy-causing plant, that the target detection region contains the allergy-causing plant and that the allergy-causing plant is in the blooming state, wherein the first reference plant image is image of the allergy-causing plant in the blooming state.
Shaft for a micro-invasive surgical instrument, having: a shaft tube with a proximal end portion and a distal end portion; a coupling device for releasably mechanically coupling the shaft to a tool on the distal end portion of the shaft; wherein the coupling device has a groove or a slot with an axial portion and with a circumferential portion for receiving a catch on a tool, characterized by a rotation bearing which mechanically connects the coupling device to the distal end portion of the shaft tube; wherein the rotation bearing is designed to permit rotation of the coupling device relative to the shaft tube about the longitudinal axis of the distal end portion of the shaft. a shaft tube with a proximal end portion and a distal end portion; a coupling device for releasably mechanically coupling the shaft to a tool on the distal end portion of the shaft; wherein the coupling device has a groove or a slot with an axial portion and with a circumferential portion for receiving a catch on a tool, characterized by a rotation bearing which mechanically connects the coupling device to the distal end portion of the shaft tube; wherein the rotation bearing is designed to permit rotation of the coupling device relative to the shaft tube about the longitudinal axis of the distal end portion of the shaft.
A method for calibrating an accelerometer located within a mobile device, comprising: receiving a plurality of measurements of acceleration vectors by a processor of the mobile device from the accelerometer, each of the measurements being taken when the mobile device is held stationary at a different orientation with respect to a normal of a plane (n) on which the mobile device lies; calculating a circle that fits respective tips of the measured acceleration vectors in an accelerometer coordinate system; and calculating an angle of rotation between the accelerometer coordinate system and a surface of the mobile device based on a radius of the circle and a length of the measured acceleration vectors to align the accelerometer coordinate system with the surface of the mobile device; and rotating a measured acceleration vector by the angle of rotation to transform the measured acceleration vector from the accelerometer coordinate system to a vector in a surface coordinate system defined by the surface of the mobile device; and converting the vector in the surface coordinate system to a gyroscope coordinate system based on a rotational transformation between the surface coordinate system and the gyroscope coordinate system. receiving a plurality of measurements of acceleration vectors by a processor of the mobile device from the accelerometer, each of the measurements being taken when the mobile device is held stationary at a different orientation with respect to a normal of a plane (n) on which the mobile device lies; calculating a circle that fits respective tips of the measured acceleration vectors in an accelerometer coordinate system; and calculating an angle of rotation between the accelerometer coordinate system and a surface of the mobile device based on a radius of the circle and a length of the measured acceleration vectors to align the accelerometer coordinate system with the surface of the mobile device; and rotating a measured acceleration vector by the angle of rotation to transform the measured acceleration vector from the accelerometer coordinate system to a vector in a surface coordinate system defined by the surface of the mobile device; and converting the vector in the surface coordinate system to a gyroscope coordinate system based on a rotational transformation between the surface coordinate system and the gyroscope coordinate system.
An image processing apparatus for generating a tomographic image corresponding to a cross-section of an imaging object, the image processing apparatus comprising: a data acquisitor which is adapted to obtain image data corresponding to a plurality of images obtained by performing a plurality of imaging with respect to the imaging object by optical coherence tomographic imaging; and an image generator which is adapted to generate the tomographic image corresponding to the cross-section parallel to a depth direction based on the image data, wherein: image processing apparatus is adapted to perform the plurality of imaging with mutually different focus positions (Zf) in the depth direction along an incident direction of illumination light to obtain said plurality of images, two or more of said plurality of images having imaging ranges which overlap in the depth direction such that an arbitrary point in the imaging object is included in said two or more images; and the image generator is adapted to set a value of each pixel in the tomographic image at a value obtained by a calculation process between the image data of a same position of the imaging object corresponding to the pixel obtained at each of the plurality of images. a data acquisitor which is adapted to obtain image data corresponding to a plurality of images obtained by performing a plurality of imaging with respect to the imaging object by optical coherence tomographic imaging; and an image generator which is adapted to generate the tomographic image corresponding to the cross-section parallel to a depth direction based on the image data, wherein: image processing apparatus is adapted to perform the plurality of imaging with mutually different focus positions (Zf) in the depth direction along an incident direction of illumination light to obtain said plurality of images, two or more of said plurality of images having imaging ranges which overlap in the depth direction such that an arbitrary point in the imaging object is included in said two or more images; and the image generator is adapted to set a value of each pixel in the tomographic image at a value obtained by a calculation process between the image data of a same position of the imaging object corresponding to the pixel obtained at each of the plurality of images. image processing apparatus is adapted to perform the plurality of imaging with mutually different focus positions (Zf) in the depth direction along an incident direction of illumination light to obtain said plurality of images, two or more of said plurality of images having imaging ranges which overlap in the depth direction such that an arbitrary point in the imaging object is included in said two or more images; and the image generator is adapted to set a value of each pixel in the tomographic image at a value obtained by a calculation process between the image data of a same position of the imaging object corresponding to the pixel obtained at each of the plurality of images.
An air conditioner comprising: an input unit receiving an input cooling or heating temperature for an indoor space; an air-conditioning unit generating a cool wind having the input cooling temperature or a hot wind having the input heating temperature; a wind direction adjusting unit adjusting a direction of the cool or hot wind generated by the air-conditioning unit; a location detecting unit detecting a user located in one of a plurality of air-conditioning sections defined by dividing the indoor space; and a control unit that controls the wind direction adjusting unit such that the cool or hot wind is generated as a direct or indirect wind in accordance with whether the user exits in any one of the air-conditioning sections, which is determined by a user's location detected by the location detecting unit, and characterized in that the control unit controls the wind direction adjusting unit such that the cool wind having the input cooling temperature or the hot wind having the input heating temperature are generated as an indirect wind when it is determined that the user does not exist in any one of the air-conditioning sections, and the control unit controls the wind direction adjusting unit such that the cool wind having a corrected cooling temperature or the hot wind having a corrected heating temperature is generated as the indirect wind when the user does not exist in any one of the air conditioning sections for a preset detection time or more. an input unit receiving an input cooling or heating temperature for an indoor space; an air-conditioning unit generating a cool wind having the input cooling temperature or a hot wind having the input heating temperature; a wind direction adjusting unit adjusting a direction of the cool or hot wind generated by the air-conditioning unit; a location detecting unit detecting a user located in one of a plurality of air-conditioning sections defined by dividing the indoor space; and a control unit that controls the wind direction adjusting unit such that the cool or hot wind is generated as a direct or indirect wind in accordance with whether the user exits in any one of the air-conditioning sections, which is determined by a user's location detected by the location detecting unit, and characterized in that the control unit controls the wind direction adjusting unit such that the cool wind having the input cooling temperature or the hot wind having the input heating temperature are generated as an indirect wind when it is determined that the user does not exist in any one of the air-conditioning sections, and
A device, wherein the device comprises: an indicator element configured to emit electromagnetic radiation for providing a first function of visually indicating an operating state of a function of the device, and to additionally emit some spurious electromagnetic radiation of invisible wavelength; a receiver element capable of receiving invisible electromagnetic radiation from a remote control device for providing a second function of reception of remote control commands; the indicator element and the receiver element being configured to provide a third function of touch sensor for local operating of functions of the device, the indicator element being configured to emit, during a first period of time, an electromagnetic radiation pattern including the spurious electromagnetic radiation in the invisible wavelength, wherein the device further comprises means (32,35,532,535,536,537) configured to, if the spurious electromagnetic radiation in the invisible wavelength is received during the first period of time by the receiver element through reflection by an object, operate a flip/flop to trigger a state change of an operating function of the device, the indicator element providing the first function during a subsequent second period of time and the receiver element providing the second function during the second period of time, the first and the second period of time being repeatedly alternated. an indicator element configured to emit electromagnetic radiation for providing a first function of visually indicating an operating state of a function of the device, and to additionally emit some spurious electromagnetic radiation of invisible wavelength; a receiver element capable of receiving invisible electromagnetic radiation from a remote control device for providing a second function of reception of remote control commands; the indicator element and the receiver element being configured to provide a third function of touch sensor for local operating of functions of the device, the indicator element being configured to emit, during a first period of time, an electromagnetic radiation pattern including the spurious electromagnetic radiation in the invisible wavelength, wherein the device further comprises means (32,35,532,535,536,537) configured to, if the spurious electromagnetic radiation in the invisible wavelength is received during the first period of time by the receiver element through reflection by an object, operate a flip/flop to trigger a state change of an operating function of the device, the indicator element providing the first function during a subsequent second period of time and the receiver element providing the second function during the second period of time, the first and the second period of time being repeatedly alternated.
A monitoring system, wherein the monitoring system is connected to one or more databases (101, 102, 103, 104) including data entries on individuals, data entries in each of the one or more connected databases having a defined allotment for data, and representing status for said individual in the connected database; the monitoring system is configured to query a user for creating a search with attributes that constitute a status for searching data entries on individuals that are of interest to the user from the one or more connected databases; the monitoring system is configured to use data entries of a group of individuals resulting from the search to form, for each individual in the group of individuals, a first system status having a defined allotment for data, and representing status for said individual in the monitoring system; the monitoring system is configured to anonymise the first system statuses of the group of individuals by converting information on an individual in each first system status into a form in which identity of the individual is not identifiable; the monitoring system is configured to expose the anonymised first system statuses to a statistical analysis to form a second system status representing status for the group of individuals in the monitoring system; the monitoring system is configured to present the second system status to the user of the monitoring system. the monitoring system is connected to one or more databases (101, 102, 103, 104) including data entries on individuals, data entries in each of the one or more connected databases having a defined allotment for data, and representing status for said individual in the connected database; the monitoring system is configured to query a user for creating a search with attributes that constitute a status for searching data entries on individuals that are of interest to the user from the one or more connected databases; the monitoring system is configured to use data entries of a group of individuals resulting from the search to form, for each individual in the group of individuals, a first system status having a defined allotment for data, and representing status for said individual in the monitoring system; the monitoring system is configured to anonymise the first system statuses of the group of individuals by converting information on an individual in each first system status into a form in which identity of the individual is not identifiable; the monitoring system is configured to expose the anonymised first system statuses to a statistical analysis to form a second system status representing status for the group of individuals in the monitoring system; the monitoring system is configured to present the second system status to the user of the monitoring system.
A method of electrically powering an electromechanical braking actuator fitted to an aircraft wheel brake, in which the power supply current delivered to the electromechanical braking actuator is saturated to a saturation value (Isat) in order to limit the current consumed by the electromechanical braking actuator and thereby limit the forces developed by the electromechanical braking actuator, the method being characterized in that it includes the step of determining the saturation value (Isat) as a function of an internal temperature of the electromechanical braking actuator while it is in operation.
A sheet transport assembly for transporting a sheet along a process unit configured for applying a process to the sheet, the sheet transport assembly (150, 160, 170, 180) comprising: - a conveying unit comprising a transport belt, which transport belt comprises air permeable openings, the sheet being placed with a contact side on a support surface of the transport belt; - a separating unit for separating the sheet from the transport belt, the separating unit comprising a blowing unit connected to an air supply source and arranged adjacent the transport belt to direct a detach air flow through said air permeable openings of the transport belt in a detach area to lift the sheet from the transport belt; and - a control unit configured for controlling the units of the sheet transport assembly; characterized in that the separating unit further comprises a sheet attraction unit arranged for attracting the sheet to the support surface of the transport belt in two attraction areas, which two attraction areas are cooperatively arranged adjacent to both sides of the detach area in a lateral direction, which is substantially perpendicular to the transport direction; and the separating unit further comprises a sheet guidance element (300, 350) arranged facing the support surface of the transport belt for separating a leading edge of the sheet from the transport belt, the sheet guidance element comprising a tip arranged proximate to the detach area. - a conveying unit comprising a transport belt, which transport belt comprises air permeable openings, the sheet being placed with a contact side on a support surface of the transport belt; - a separating unit for separating the sheet from the transport belt, the separating unit comprising a blowing unit connected to an air supply source and arranged adjacent the transport belt to direct a detach air flow through said air permeable openings of the transport belt in a detach area to lift the sheet from the transport belt; and - a control unit configured for controlling the units of the sheet transport assembly;
Method for hydrothermal synthesis of a sulfur-containing aluminosilicate with a crystalline sodalite structure under hydrothermal conditions at temperatures in the range from 60 °C to 150 °C, in which a hydroxy sodalite with central hydroxide ions is formed in the course of the synthesis, characterized in that - a first solution is produced by dissolving 0.6 mol% sodium silicate pentahydrate and 16.1 mol% sodium hydroxide in 83.3 mol% water, - a second solution is produced by stirring 0.6 mol% sodium aluminate and 17.8 mol% sodium hydroxide into 81.6 mol% water, - a third solution is produced by stirring 4.4 mol% sodium sulphide nonahydrate into 95.6 mol% water, - all solutions are stirred, until they are completely clear, - the second solution and the third solution are added to the first solution while stirring slowly, wherein the mass ratios of three parts the first solution, three parts the second solution and four parts the third solution are maintained, - the unified solution is added to an autoclave and heat-treated for 20 hours at 80 °C, - the autoclave is cooled down in a water bath, - a white precipitate that has formed is separated by filtration, washed by water in a pH-neutral manner and dried. - a first solution is produced by dissolving 0.6 mol% sodium silicate pentahydrate and 16.1 mol% sodium hydroxide in 83.3 mol% water, - a second solution is produced by stirring 0.6 mol% sodium aluminate and 17.8 mol% sodium hydroxide into 81.6 mol% water, - a third solution is produced by stirring 4.4 mol% sodium sulphide nonahydrate into 95.6 mol% water, - all solutions are stirred, until they are completely clear, - the second solution and the third solution are added to the first solution while stirring slowly, wherein the mass ratios of three parts the first solution, three parts the second solution and four parts the third solution are maintained, - the unified solution is added to an autoclave and heat-treated for 20 hours at 80 °C, - the autoclave is cooled down in a water bath, - a white precipitate that has formed is separated by filtration, washed by water in a pH-neutral manner and dried.
Control safety block for high-pressure cleaning devices with a switching mechanism for a high-pressure pump, which is configured as a micro switch, the switching cam of which is actuated by a switching arm (2, 22), which is arranged in the displacement path between a spring and a control piston acted upon by the high pressure from the high-pressure pump, characterised in that the micro switch is actuated by means of an actuating part (10, 30) displaceably arranged at the free end of the switching arm (2, 22) under the load of a compression spring.
Process for carrying out an allergy test, in which a blood sample with at least one allergen is contacted in vitro; and in which one allergic reaction or an absence of the at least one allergic reaction of immune cells is directly optically observed by means of a microscope, characterised in that in the at least one allergic reaction a degranulation of the immune cells is observed, the immune cells may be arranged in different heights or planes, the position of granules being observed by means of the microscope, wherein the granules are observed in various heights or height planes, and that a position of the granules in the immune cells, a movement and/or a degranulation of the granules is observed in an observation time of up to 10 minutes or 60 seconds to 300 seconds.