mhurhangee/patent-ind-claim-en huggingface dataset:
A three-dimensional printing system having a laser module for generating a beam for solidifying a photocurable resin in a layer-by-layer manner at a build plane comprising: a scan module for receiving the light beam and scanning the light beam along two axes to address the build plane ; a transparent plate positioned in the optical path between the scan module and the build plane ; a reflective feature disposed on or proximate to the transparent plate ; a sensor above the glass plate positioned to receive light reflected from the reflective feature ; a housing for protecting the scan optics from vapors generated during solidification of the photocurable resin, the housing having an opening for allowing the light beam to reach the build plane , the opening is closed by the transparent plate which provides a dual function of blocking the vapors and providing the reflective feature for calibration; and a controller configured to: operate the scan module to scan the light beam across the build plane ; receive a signal from the sensor when the light beam impinges upon the reflective feature; and analyze the signal to verify a proper alignment of the light beam to the build plane . a scan module for receiving the light beam and scanning the light beam along two axes to address the build plane ; a transparent plate positioned in the optical path between the scan module and the build plane ; a reflective feature disposed on or proximate to the transparent plate ; a sensor above the glass plate positioned to receive light reflected from the reflective feature ; a housing for protecting the scan optics from vapors generated during solidification of the photocurable resin, the housing having an opening for allowing the light beam to reach the build plane , the opening is closed by the transparent plate which provides a dual function of blocking the vapors and providing the reflective feature for calibration; and a controller configured to: operate the scan module to scan the light beam across the build plane ; receive a signal from the sensor when the light beam impinges upon the reflective feature; and analyze the signal to verify a proper alignment of the light beam to the build plane . operate the scan module to scan the light beam across the build plane ; receive a signal from the sensor when the light beam impinges upon the reflective feature; and analyze the signal to verify a proper alignment of the light beam to the build plane .
A method for capturing view in an electronic device including at least two image sensors , the method comprising: determining a folding angle between a first side of a fixed bend axis of the electronic device including a first image sensor and a second side of the fixed bend axis of the electronic device including a second image sensor ; capturing a first view of a scene using the first image sensor ; and capturing a second view of the scene using the second image sensor ; the method being characterized by : determining whether the first view and the second view partially overlap with each other, completely overlap with each other, or do not overlap with each other based on the folding angle, and determining a first operating mode when the first view partially overlaps with the second view, a second operating mode when the first view completely overlaps with the second view, and a third operating mode when the first view does not overlap with the second view. determining a folding angle between a first side of a fixed bend axis of the electronic device including a first image sensor and a second side of the fixed bend axis of the electronic device including a second image sensor ; capturing a first view of a scene using the first image sensor ; and capturing a second view of the scene using the second image sensor ; the method being characterized by : determining whether the first view and the second view partially overlap with each other, completely overlap with each other, or do not overlap with each other based on the folding angle, and determining a first operating mode when the first view partially overlaps with the second view, a second operating mode when the first view completely overlaps with the second view, and a third operating mode when the first view does not overlap with the second view.
A gas-fired barbecue grill cooking system comprising: a firebox ; a burner assembly mounted within the firebox , the burner assembly having a first burner tube defining a first cooking zone and a second burner tube defining a second cooking zone; and a gas control assembly having a gas control valve and a control actuator , wherein the gas control valve being configured, in response to positioning of the control actuator , to selectively control a first flow of gas to the first burner tube and a second flow of gas to the second burner tube such that the first cooking zone and the second cooking zone are operable to be heated independently in a first mode, in which only one of the first cooking zone and the second cooking zone is heated, and heated simultaneously in a second mode, and, characterized in that the control actuator comprises a control knob and a selector ring , each of which is rotatable about a common axis; the selector ring being configured to designate, via rotation, at least one of the first burner tube or the second burner tube for receiving a corresponding flow of gas; and the control knob being configured to set a flow rate of gas to the at least of the first burner tube or the second burner tube designated with the selector ring . a firebox ; a burner assembly mounted within the firebox , the burner assembly having a first burner tube defining a first cooking zone and a second burner tube defining a second cooking zone; and a gas control assembly having a gas control valve and a control actuator , wherein the gas control valve being configured, in response to positioning of the control actuator , to selectively control a first flow of gas to the first burner tube and a second flow of gas to the second burner tube such that the first cooking zone and the second cooking zone are operable to be heated independently in a first mode, in which only one of the first cooking zone and the second cooking zone is heated, and heated simultaneously in a second mode, and, characterized in that the control actuator comprises a control knob and a selector ring , each of which is rotatable about a common axis; the selector ring being configured to designate, via rotation, at least one of the first burner tube or the second burner tube for receiving a corresponding flow of gas; and the control knob being configured to set a flow rate of gas to the at least of the first burner tube or the second burner tube designated with the selector ring .
A work machine comprising: a motor ; an output shaft rotated by the motor , to which a tip tool (T) is attachable; a housing , configured to comprise an inner case comprising an accommodation part that accommodates the motor and an outer case located outside the accommodation part ; and a base , attachable to and detachable from a mounting surface formed on a side surface of the outer case and having a contact surface able to contact a workpiece, characterized in that the inner case is provided with a fixing part , the outer case is fixed to the inner case by a fixing member (BL) attached to the fixing part , and the fixing part is arranged inside the mounting surface in a radial direction of the motor as viewed in an axial direction of the motor . a motor ; an output shaft rotated by the motor , to which a tip tool (T) is attachable; a housing , configured to comprise an inner case comprising an accommodation part that accommodates the motor and an outer case located outside the accommodation part ; and a base , attachable to and detachable from a mounting surface formed on a side surface of the outer case and having a contact surface able to contact a workpiece, characterized in that the inner case is provided with a fixing part , the outer case is fixed to the inner case by a fixing member (BL) attached to the fixing part , and the fixing part is arranged inside the mounting surface in a radial direction of the motor as viewed in an axial direction of the motor .
Gas cooking appliance comprising at least one gas burner , an ignition electrode for igniting the burner , a push button unit with a push button for activating the electrode , a gas valve for each burner for regulating gas flow reaching the respective burner from a gas conduit , an electromagnetic shut-off valve arranged in the gas conduit comprising a closure member for closing the passage of gas and an actuating shaft for pushing the closure member , and a control unit for controlling the shut-off valve , characterized in that the closure member of the shut-off valve comprises a stable closed position and a stable open position, said closure member changing position upon receiving electric current pulses, and the push button unit is configured for pushing the closure member of the shut-off valve to the open position, the push button unit being coupled to the shut-off valve , the actuating shaft of the shut-off valve being attached to the push button for pushing the closure member of the shut-off valve when the push button is pressed, the shut-off valve comprising elastic means for pushing the actuating shaft and the push button back to a rest position when the push button is released, the push button being also configured for activating the control unit , and for activating the electrode when the push button is pressed with the gas cooking appliance off, the control unit controlling the shut-off valve by means of electric current pulses once the push button has been pressed and wherein said appliance comprises at least one flame sensor connected to the control unit , said control unit acting on the shut-off valve depending on the signal received from said at least one flame sensor .
An apparatus for producing a nanofiber, comprising: a high-pressure gas ejection unit for ejecting a high-pressure gas flow ; and a plurality of liquid raw material discharge units for discharging a liquid raw material to the high-pressure gas flow ejected from said high-pressure gas ejection unit , wherein said liquid raw material discharge units are provided around a center of the high-pressure gas flow ejected from said high-pressure gas ejection unit , characterized by an angle adjustment unit capable of adjusting an installation angle (θ) of said liquid raw material discharge units to the high-pressure gas flow ejected from said high-pressure gas ejection unit . a high-pressure gas ejection unit for ejecting a high-pressure gas flow ; and a plurality of liquid raw material discharge units for discharging a liquid raw material to the high-pressure gas flow ejected from said high-pressure gas ejection unit , wherein said liquid raw material discharge units are provided around a center of the high-pressure gas flow ejected from said high-pressure gas ejection unit , characterized by an angle adjustment unit capable of adjusting an installation angle (θ) of said liquid raw material discharge units to the high-pressure gas flow ejected from said high-pressure gas ejection unit .
A holder for snap-fitting a thermal fuse to an electronic component , wherein the holder comprises: - a bottom surface for mounting the holder to a carrier comprising the electronic component , wherein the bottom surface comprises an opening for accommodating the electronic component ; - a first wall parallel to a second wall , wherein the first wall and the second wall each comprise a protrusion for snap-fitting the thermal fuse to the electronic component ; - a third wall , wherein the third wall comprises an edge for bending around at least one lead of the thermal fuse , wherein a shortest distance between the bottom surface and said edge is larger than a shortest distance between the bottom surface and one of said protrusion. - a bottom surface for mounting the holder to a carrier comprising the electronic component , wherein the bottom surface comprises an opening for accommodating the electronic component ; - a first wall parallel to a second wall , wherein the first wall and the second wall each comprise a protrusion for snap-fitting the thermal fuse to the electronic component ; - a third wall , wherein the third wall comprises an edge for bending around at least one lead of the thermal fuse , wherein a shortest distance between the bottom surface and said edge is larger than a shortest distance between the bottom surface and one of said protrusion.
A parking space monitoring system for detecting free and occupied parking space areas in a parking space zone , said parking space monitoring system comprising a recognition unit and a camera system , wherein the camera system is configured for delivering image indications from within the parking space zone and the recognition unit is configured to associate a respective occupation status, which designates whether a respective parking space area is free or occupied, with the parking space areas in dependence on the image indications, wherein the recognition unit is further configured to store the image indications for at least one respective parking space area as a first snapshot when the occupation status of the respective parking space area changes from free to occupied and additionally to store it as a second snapshot when a condition is satisfied, characterized in that the condition comprises a maximum parking time, wherein the parking space monitoring system is configured to display the first snapshot and the second snapshot on a display unit after the occurrence of the condition, and wherein the display unit is configured to reproduce further information relating to the respective parking space area , namely a time of arrival, a time of stay or a map on which the respective parking space area is marked, and the parking space monitoring system is configured to indicate a comparison value on the display device, said comparison value being obtained by means of an image comparison by a calculation by the display unit or the recognition unit and indicating how much the positions of the vehicle in the snapshots resemble one another. a recognition unit and a camera system , wherein the camera system is configured for delivering image indications from within the parking space zone and the recognition unit is configured to associate a respective occupation status, which designates whether a respective parking space area is free or occupied, with the parking space areas in dependence on the image indications, wherein the recognition unit is further configured to store the image indications for at least one respective parking space area as a first snapshot when the occupation status of the respective parking space area changes from free to occupied and additionally to store it as a second snapshot when a condition is satisfied, characterized in that the condition comprises a maximum parking time, wherein the parking space monitoring system is configured to display the first snapshot and the second snapshot on a display unit after the occurrence of the condition, and wherein the display unit is configured to reproduce further information relating to the respective parking space area , namely a time of arrival, a time of stay or a map on which the respective parking space area is marked, and the parking space monitoring system is configured to indicate a comparison value on the display device, said comparison value being obtained by means of an image comparison by a calculation by the display unit or the recognition unit and indicating how much the positions of the vehicle in the snapshots resemble one another.
A float assembly configured to float on water, comprising: a shaft wire extending from substantially a center of the float assembly toward underwater and configured so that tension is maintained; a normal float including a plurality of the floats connected to one another; and a rotation center float moored by the shaft wire , wherein the float assembly is moored by the shaft wire and configured to be rotatable, the normal float is configured to independently rotate around the rotation center float , the rotation center float further includes a first tension generating mechanism, the shaft wire includes one end fixed in the underwater, and the first tension generating mechanism is configured to pull the shaft wire to maintain the tension of the shaft wire . a shaft wire extending from substantially a center of the float assembly toward underwater and configured so that tension is maintained; a normal float including a plurality of the floats connected to one another; and a rotation center float moored by the shaft wire , wherein the float assembly is moored by the shaft wire and configured to be rotatable, the normal float is configured to independently rotate around the rotation center float , the rotation center float further includes a first tension generating mechanism, the shaft wire includes one end fixed in the underwater, and the first tension generating mechanism is configured to pull the shaft wire to maintain the tension of the shaft wire .
An arrangement comprising a voltage source and a membrane-electrode assembly , wherein the membrane-electrode assembly comprises the following - a gastight, selectively proton-conducting membrane which has a retentate side having an anode and a permeate side having a cathode , wherein the anode is a gas diffusion electrode which has a gas diffusion layer adjoining the membrane and a microporous layer applied thereto, on top of which the anode catalyst has been applied, and/or the cathode is a gas diffusion electrode which has a gas diffusion layer adjoining the membrane and a microporous layer applied thereto, on top of which the cathode catalyst has been applied, wherein a potential difference is generated by means of the voltage source between the anode and the cathode , - an anode catalyst having a catalytically active material on the retentate side and - a cathode catalyst having a catalytically active material on the permeate side , wherein the ratio of the amount of the catalytically active material of the cathode catalyst to the amount of the catalytically active material of the anode catalyst is from 1 : 100 to 1 : 1.25, in particular 1 : 1.5 - 5.0, preferably 1 : 1.75 - 3.0. - a gastight, selectively proton-conducting membrane which has a retentate side having an anode and a permeate side having a cathode , wherein the anode is a gas diffusion electrode which has a gas diffusion layer adjoining the membrane and a microporous layer applied thereto, on top of which the anode catalyst has been applied, and/or the cathode is a gas diffusion electrode which has a gas diffusion layer adjoining the membrane and a microporous layer applied thereto, on top of which the cathode catalyst has been applied, wherein a potential difference is generated by means of the voltage source between the anode and the cathode , - an anode catalyst having a catalytically active material on the retentate side and - a cathode catalyst having a catalytically active material on the permeate side ,
A liquid-repellent composition comprising the following components (A) to (C) and satisfying the following formula (I): Component (A): a tetrafunctional silane-based compound represented by the following general formula (a): Si(OR 1 ) p (X 1 ) 4-p (a) wherein, R 1 represents an alkyl group having 1 to 6 carbon atoms; X 1 represents a halogen atom; when plural R 1 's are present, the plural R 1 's may be the same as or different from each other; when plural X 1 's are present, the plural X 1 's may be the same as or different from each other; and p represents an integer of 0 to 4, Component (B): a trifunctional silane-based compound represented by the following general formula (b): R 2 Si(OR 3 ) q (X 2 ) 3-q (b) wherein, R 2 represents a n-pentadecyl group, a n-hexadecyl group, a n-heptadecyl group, a n-octadecyl group, a n-nonadecyl group, a n-eicosyl group, a n-heneicosyl group, or a n-docosyl group; R 3 represents a methyl group; X 2 represents a halogen atom; when plural X 2 's are present, the plural X 2 's may be the same as or different from each other; and q represents an integer of 0 to 3, Component (C): a metal catalyst, 12 ≤ x ≤ 64 wherein, x represents a ratio of a molar amount of the component (A) to a molar amount of the component (B) [(A)/(B)] (molar ratio), and wherein the metal catalyst (Component (C)) is a metal catalyst which does not require light irradiation for revealing a catalytic action. R 1 represents an alkyl group having 1 to 6 carbon atoms; X 1 represents a halogen atom; when plural R 1 's are present, the plural R 1 's may be the same as or different from each other; when plural X 1 's are present, the plural X 1 's may be the same as or different from each other; and p represents an integer of 0 to 4, Component (B): a trifunctional silane-based compound represented by the following general formula (b): R 2 Si(OR 3 ) q (X 2 ) 3-q (b) wherein, R 2 represents a n-pentadecyl group, a n-hexadecyl group, a n-heptadecyl group, a n-octadecyl group, a n-nonadecyl group, a n-eicosyl group, a n-heneicosyl group, or a n-docosyl group; R 3 represents a methyl group; X 2 represents a halogen atom; when plural X 2 's are present, the plural X 2 's may be the same as or different from each other; and q represents an integer of 0 to 3, Component (C): a metal catalyst, 12 ≤ x ≤ 64 wherein, x represents a ratio of a molar amount of the component (A) to a molar amount of the component (B) [(A)/(B)] (molar ratio), and wherein the metal catalyst (Component (C)) is a metal catalyst which does not require light irradiation for revealing a catalytic action.
A processing machine for flat material parts comprising a machine frame , a lower beam , an upper beam , at least one processing tool (22 resp. 24) associated with the lower beam or the upper beam and held at the machine frame , a control unit for controlling a processing sequence with the processing tools , a feed table on which the flat material part to be processed can be placed for positioning in the processing machine , and a placing unit for predetermined positioning of the flat material part on the feed table , wherein the feed table is movable from a parking position in an extending direction to a second position and back again, and wherein the lay-on unit comprises a plurality of suction cup units by means of which the flat material part can be picked up and positioned, characterized in that the lay-on unit comprises a side thrust unit which has a side-insertion rail which is fixedly connected to the upper part and under which a frame component is arranged such that it can be moved in the direction of the processing edge of the flat material part , in that suction-cup units are mounted on the frame component , and in that a transfer table is arranged to the side of the processing machine in a parallel plane and higher than the plane defined by the infeed table so that the suction cup units mounted on the frame component are movable transversely to the machining tool or tools within the associated beam for a feeding movement of the flat material part in the direction of the machining edge of the flat material part .