mhurhangee/patent-ind-claim-en huggingface dataset:
A depth image acquiring apparatus comprising: a light emitting unit configured to irradiate modulated light toward a detection area; a sensor configured to receive the modulated light upon being reflected by an object positioned in the detection area and output a signal based on the received modulated light so as to generate depth information; a filter unit configured to pass more light having a wavelength in a predetermined pass bandwidth to the sensor than light having a wavelength in a bandwidth other than the predetermined pass bandwidth; an environment sensor configured to acquire environment information at the light emitting unit or the sensor , the environment sensor comprising a temperature sensor for acquiring a temperature of the light emitting unit ; and a controller configured to control at least one among the light emitting unit , the sensor , or the filter unit in accordance with the environment information acquired by the environment sensor , and characterized in that the light emitting unit comprises a plurality of light sources (22-1 ,22-2) for emitting light exhibiting temperature characteristics such that wavelength shifts arise in response to a temperature change, and having respective peaks at different wavelengths, and the controller is configured to select at least one of the plurality of light sources (22-1, 22-2) in accordance with the temperature. a light emitting unit configured to irradiate modulated light toward a detection area; a sensor configured to receive the modulated light upon being reflected by an object positioned in the detection area and output a signal based on the received modulated light so as to generate depth information; a filter unit configured to pass more light having a wavelength in a predetermined pass bandwidth to the sensor than light having a wavelength in a bandwidth other than the predetermined pass bandwidth; an environment sensor configured to acquire environment information at the light emitting unit or the sensor , the environment sensor comprising a temperature sensor for acquiring a temperature of the light emitting unit ; and a controller configured to control at least one among the light emitting unit , the sensor , or the filter unit in accordance with the environment information acquired by the environment sensor , and characterized in that the light emitting unit comprises a plurality of light sources (22-1 ,22-2) for emitting light exhibiting temperature characteristics such that wavelength shifts arise in response to a temperature change, and having respective peaks at different wavelengths, and the controller is configured to select at least one of the plurality of light sources (22-1, 22-2) in accordance with the temperature.
A method for acquiring sensor data related to a wind turbine, using an unmanned aerial vehicle (UAV) comprising at least one inspection sensor for acquiring the sensor data , the method comprising the steps of • determining a reference flight path for the UAV ; • operating the UAV to automatically fly along an actual flight path derived from the reference flight path , • acquiring, as the UAV flies along one or more sections of the actual flight path , with the inspection sensor , multiple sets of sensor data , characterised in that the method comprises the steps of • storing each set of sensor data in association with sensor pose data that defines the pose of the inspection sensor at the time at which the set of sensor data was acquired; and in that for operating the UAV to automatically fly along a actual flight path , the following step is performed: • determining at least one of the pose of the UAV and the pose of the inspection sensor by integrating data from at least one of a satellite navigation system and an inertial navigation system with data from a distance sensor located on the UAV and a computer model of at least part of the turbine . • determining a reference flight path for the UAV ; • operating the UAV to automatically fly along an actual flight path derived from the reference flight path , • acquiring, as the UAV flies along one or more sections of the actual flight path , with the inspection sensor , multiple sets of sensor data , • storing each set of sensor data in association with sensor pose data that defines the pose of the inspection sensor at the time at which the set of sensor data was acquired; and in that • determining at least one of the pose of the UAV and the pose of the inspection sensor by integrating data from at least one of a satellite navigation system and an inertial navigation system with data from a distance sensor located on the UAV and a computer model of at least part of the turbine .
A hose connector comprising: a connector port formed as a tubular body, adapted to receive water at an inlet and to deliver water at an outlet , wherein the inlet comprises a front surface substantially perpendicular to the longitudinal axis of the tubular body; and a filter coupled to the connector port at the inlet , the filter having a first end and a second end ; wherein the filter includes a flange portion at the first end and a plurality of holes towards the second end defining a filtering zone ; characterized in that: the filter is adapted to be inserted inside the connector port through the inlet until the flange portion abuts against the front surface of the inlet ; the connector port includes at least one recess comprised in said front surface of the inlet ; and the flange portion has at least one protrusion adapted to engage the at least one recess . a connector port formed as a tubular body, adapted to receive water at an inlet and to deliver water at an outlet , wherein the inlet comprises a front surface substantially perpendicular to the longitudinal axis of the tubular body; and a filter coupled to the connector port at the inlet , the filter having a first end and a second end ; wherein the filter includes a flange portion at the first end and a plurality of holes towards the second end defining a filtering zone ; characterized in that: the filter is adapted to be inserted inside the connector port through the inlet until the flange portion abuts against the front surface of the inlet ; the connector port includes at least one recess comprised in said front surface of the inlet ; and the flange portion has at least one protrusion adapted to engage the at least one recess . the filter is adapted to be inserted inside the connector port through the inlet until the flange portion abuts against the front surface of the inlet ; the connector port includes at least one recess comprised in said front surface of the inlet ; and the flange portion has at least one protrusion adapted to engage the at least one recess .
A method of preparing a labeled bottle, the method comprising: applying an LED-curable adhesive on at least a portion of a film label to be applied to a bottle ; wrapping the film label around the bottle such that the leading and trailing edges of the film label overlap, wherein at least portions of the LED-curable adhesive are disposed in the overlap between the leading and trailing edges; and curing the LED-curable adhesive disposed in the overlap between the leading and trailing edges with LED light , wherein the LED-curable adhesive is exposed to LED light for 10 milliseconds or less, and wherein the LED-curable adhesive is cured at a temperature below 70 °C. applying an LED-curable adhesive on at least a portion of a film label to be applied to a bottle ; wrapping the film label around the bottle such that the leading and trailing edges of the film label overlap, wherein at least portions of the LED-curable adhesive are disposed in the overlap between the leading and trailing edges; and curing the LED-curable adhesive disposed in the overlap between the leading and trailing edges with LED light , wherein the LED-curable adhesive is exposed to LED light for 10 milliseconds or less, and wherein the LED-curable adhesive is cured at a temperature below 70 °C.
A fastening arrangement for pre-attaching a vehicle component , in particular an interior vehicle component, to a vehicle panel , in particular an interior vehicle panel, wherein the fastening arrangement comprises a clamping device having a spreader element and a contact element , wherein the spreader element is designed to assume a first state in which the spreader element is insertable into an opening of the vehicle panel and a second state in which an edge region of the vehicle panel surrounding the opening of the vehicle panel is accommodated, in particular clamped, between the spreader element and the contact element , and wherein the fastening arrangement comprises a manipulator designed to interact with the spreader element such that the spreader element is switched from the first state to the second state after having been inserted into the opening of the vehicle panel , wherein the manipulator is movable relative to the spreader element and the contact element , wherein the manipulator switches the spreader element from the first state to the second state when the manipulator is moved in a first direction relative to the spreader element and to the contact element , wherein the spreader element has at least one spreader tab, wherein the at least one spreader tab comprises a first region and a second region adjoining the first region, wherein the second region at least partially abuts the edge region of the vehicle panel in the second state of the spreader element , and wherein - in the first state of the spreader element - the at least one spreader tab is S-shaped in cross section. wherein the fastening arrangement comprises a clamping device having a spreader element and a contact element , wherein the spreader element is designed to assume a first state in which the spreader element is insertable into an opening of the vehicle panel and a second state in which an edge region of the vehicle panel surrounding the opening of the vehicle panel is accommodated, in particular clamped, between the spreader element and the contact element , and wherein the fastening arrangement comprises a manipulator designed to interact with the spreader element such that the spreader element is switched from the first state to the second state after having been inserted into the opening of the vehicle panel , wherein the manipulator is movable relative to the spreader element and the contact element , wherein the manipulator switches the spreader element from the first state to the second state when the manipulator is moved in a first direction relative to the spreader element and to the contact element , wherein the spreader element has at least one spreader tab, wherein the at least one spreader tab comprises a first region and a second region adjoining the first region, wherein the second region at least partially abuts the edge region of the vehicle panel in the second state of the spreader element , and wherein - in the first state of the spreader element - the at least one spreader tab is S-shaped in cross section.
A display method to display an interest area of an ultrasound image displayed on a touch screen, comprising: - providing, on the ultrasound image, at least a first movable object (1711; 1811) having a first area (1710; 1810), which defines an extended touch recognition range with respect to the first movable object (1711; 1811), and a second object (1721; 1821); - receiving a touch-and-drag input, by recognizing that the first movable object (1711; 1811) is touched when the touch screen is touched in the extended touch recognition range of the first area (1710; 1810) outside the first movable object; - displacing the first movable object (1711; 1811) in correspondence with the received touch-and-drag input with respect to the ultrasound image; characterized by - defining the extended touch recognition range with respect to the first movable object (1711; 1811) as a boundary of the first area (1710; 1810), which encloses the first movable object (1711; 1811); - wherein the receiving the touch-and-drag input comprises receiving an input of a touch-point within the boundary of the first area (1710; 1810); wherein displacing the first movable object (1711; 1811) in correspondence with the received touch-and-drag input with respect to the ultrasound image is relative to the second object (1721; 1821); and - adapting a measurement line between the first movable object (1711; 1811) and the second object (1721; 1821) having a length corresponding with a distance between the first movable object (1711; 1811) and the second object (1721; 1821), based on the displacement of the first movable object (1711; 1811). - providing, on the ultrasound image, at least a first movable object (1711; 1811) having a first area (1710; 1810), which defines an extended touch recognition range with respect to the first movable object (1711; 1811), and a second object (1721; 1821); - receiving a touch-and-drag input, by recognizing that the first movable object (1711; 1811) is touched when the touch screen is touched in the extended touch recognition range of the first area (1710; 1810) outside the first movable object; - displacing the first movable object (1711; 1811) in correspondence with the received touch-and-drag input with respect to the ultrasound image; characterized by - defining the extended touch recognition range with respect to the first movable object (1711; 1811) as a boundary of the first area (1710; 1810), which encloses the first movable object (1711; 1811); - wherein the receiving the touch-and-drag input comprises receiving an input of a touch-point within the boundary of the first area (1710; 1810); wherein displacing the first movable object (1711; 1811) in correspondence with the received touch-and-drag input with respect to the ultrasound image is relative to the second object (1721; 1821); and - adapting a measurement line between the first movable object (1711; 1811) and the second object (1721; 1821) having a length corresponding with a distance between the first movable object (1711; 1811) and the second object (1721; 1821), based on the displacement of the first movable object (1711; 1811).
A printer , comprising: a printing portion configured to perform printing on a recording medium (P) ; a cutting portion including a fixed blade and a movable blade and configured to cut the recording medium along a width direction thereof by movement of the movable blade; an adhesive adding portion configured to add an adhesive (G) to one surface of the recording medium; and a transfer roller disposed to face the adhesive adding portion and configured to press the recording medium (P) toward the adhesive adding portion and transport the recording medium, characterized in that the adhesive adding portion is integrally assembled together with the movable blade, and provided to move together with the movable blade along a moving direction of the movable blade. a printing portion configured to perform printing on a recording medium (P) ; a cutting portion including a fixed blade and a movable blade and configured to cut the recording medium along a width direction thereof by movement of the movable blade; an adhesive adding portion configured to add an adhesive (G) to one surface of the recording medium; and a transfer roller disposed to face the adhesive adding portion and configured to press the recording medium (P) toward the adhesive adding portion and transport the recording medium, characterized in that the adhesive adding portion is integrally assembled together with the movable blade, and provided to move together with the movable blade along a moving direction of the movable blade.
A method of preparing an EUV lithography member, comprising the steps of homogenization treating an ingot of titania-doped quartz glass by a zone melting method using at least two heating burners, wherein the titania-doped quartz glass after the homogenization treatment has a diameter of at least 220 mm, and forming it to form the EUV lithography member, but without using hot forming in which a die is charged with the ingot and the assembly held in a vacuum melting furnace in a furnace atmosphere of an inert gas at a temperature and for a time to reshape the ingot.
Use in ion exchange chromatography of a chromatography medium comprising one or more non-woven electrospun cellulose nanofibres which are fused together at points where the nanofibres intersect one another and which in use form a stationary phase in the form of a membrane comprising a plurality of pores through which a mobile phase can permeate, wherein the chromatography medium is functionalised to interact with target molecules, and wherein the nanofibres have a diameter of 10nm to 1000nm.
A tool path generation method for generating second tool path by performing smoothing treatment with respect to first tool path that machines a workpiece with a machine tool , the tool path generation method comprising: a step of setting movement points (P) in the first tool path; a rate-of-change calculation step for calculating a rate of change in curvature of the first tool path at each of the movement points (P); a weight calculation step for calculating a weight of moving average based on the rate of change in the curvature of the first tool path at each of the movement points (P) so that the smoothing is strengthened at a movement point that has a larger rate of the curvature change than adjacent movement points thereof and that the smoothing is weakened at a movement point that has a smaller rate of the curvature change than adjacent movement points thereof; and a step of calculating a coordinate value of the moving average of the movement points (P) by using the weight at each of the movement points (P) and setting the coordinate value of the moving average of the movement point (P) as the movement points (P') of the second tool path. a step of setting movement points (P) in the first tool path; a rate-of-change calculation step for calculating a rate of change in curvature of the first tool path at each of the movement points (P); a weight calculation step for calculating a weight of moving average based on the rate of change in the curvature of the first tool path at each of the movement points (P) so that the smoothing is strengthened at a movement point that has a larger rate of the curvature change than adjacent movement points thereof and that the smoothing is weakened at a movement point that has a smaller rate of the curvature change than adjacent movement points thereof; and a step of calculating a coordinate value of the moving average of the movement points (P) by using the weight at each of the movement points (P) and setting the coordinate value of the moving average of the movement point (P) as the movement points (P') of the second tool path.
A method for manufacturing a pellet in a pellet mill, which comprises a roller and a die with a nozzle, which method comprises the steps of (A) pressing a mixture for compaction by the roller through the nozzle to obtain a strand, and (B) comminuting the strand to obtain the pellet, wherein the mixture for compaction comprises the components (i) 87 to 97 wt.% of a polymer stabilizer mixture, which comprises the polymer stabilizers (i-1) 62 to 72 wt.% of tris(2,4-ditert-butylphenyl) phosphite (CAS-No. 31570-04-4), (i-2) 28 to 38 wt.% of tetrakis-[3-(3,5-ditert-butyl-4-hydroxy-phenyl)-propionyloxymethyl]methane (CAS-No. 6683-19-8), and wt.% of the polymer stabilizers (i-1) and (i-2) are based on the weight of the polymer stabilizer mixture, and (ii) 3 to 13 wt.% of a processing aid, which is a polyethylene and which possesses a weight average molecular weight above 2500 Da and below 16000 Da, wherein the weight average molecular weight is determined by gel permeation chromatography (GPC); and wt.% of the components (i) and (ii) are based on the weight of the mixture for compaction. (A) pressing a mixture for compaction by the roller through the nozzle to obtain a strand, and (B) comminuting the strand to obtain the pellet, (i) 87 to 97 wt.% of a polymer stabilizer mixture, which comprises the polymer stabilizers (i-1) 62 to 72 wt.% of tris(2,4-ditert-butylphenyl) phosphite (CAS-No. 31570-04-4), (i-2) 28 to 38 wt.% of tetrakis-[3-(3,5-ditert-butyl-4-hydroxy-phenyl)-propionyloxymethyl]methane (CAS-No. 6683-19-8), and wt.% of the polymer stabilizers (i-1) and (i-2) are based on the weight of the polymer stabilizer mixture, and (i-1) 62 to 72 wt.% of tris(2,4-ditert-butylphenyl) phosphite (CAS-No. 31570-04-4), (i-2) 28 to 38 wt.% of tetrakis-[3-(3,5-ditert-butyl-4-hydroxy-phenyl)-propionyloxymethyl]methane (CAS-No. 6683-19-8), and (ii) 3 to 13 wt.% of a processing aid, which is a polyethylene and which possesses a weight average molecular weight above 2500 Da and below 16000 Da, wherein the weight average molecular weight is determined by gel permeation chromatography (GPC);
A tethered plastic screw stopper , comprising: a closure shell a tamper band connected to the closure shell by a plurality of bridges that connect a bottom edge of the closure shell to a top edge of the tamper band ; and a ridge forming a link that separably connects the closure shell and the tamper band by a weakness line containing a plurality of first bridges and at least one second bridge , wherein the at least one second bridge has a cross-sectional area greater than the cross-sectional area of the first bridges , wherein the link is formed by a separation line made along the bottom of the link and the top remaining material of the tamper band , the link remaining attached to the tamper band by the at least one second bridge when the plurality of first bridges is broken, and characterized in that there are at least two second bridges diametrically opposed, each configured to remain attached to the closure shell and allow the link to remain attached to the tamper band . a closure shell a tamper band connected to the closure shell by a plurality of bridges that connect a bottom edge of the closure shell to a top edge of the tamper band ; and a ridge forming a link that separably connects the closure shell and the tamper band by a weakness line containing a plurality of first bridges and at least one second bridge , wherein the at least one second bridge has a cross-sectional area greater than the cross-sectional area of the first bridges , wherein the link is formed by a separation line made along the bottom of the link and the top remaining material of the tamper band , the link remaining attached to the tamper band by the at least one second bridge when the plurality of first bridges is broken, and characterized in that there are at least two second bridges diametrically opposed, each configured to remain attached to the closure shell and allow the link to remain attached to the tamper band .
Tool device comprising a tool , which is connected to a tool holder part in a positive-locking manner by a component , wherein the tool holder part is configured to interact with a tool holder of an oscillating driven electric tool, wherein the component comprises a main body and a plurality of solid rivets which are integrated into the main body, which is designed as a common large-scale setting head, from which a plurality of the rivet shafts protrude, wherein the tool and the tool holder part have openings that are aligned with one another, through which the rivet shafts protrude, and wherein the positive-locking connection of the tool with the tool holder part is produced by exerting pressure on the rivets .