mhurhangee/patent-ind-claim-en huggingface dataset:
A system , comprising: a medical probe configured to be inserted into a cavity of an organ of a patient; a position and direction sensor in the medical probe operating in a sensor coordinate system ; a camera in a distal edge of the medical probe operating in a sensor coordinate system; and a processor configured to: receive, from an imaging system operating in an image coordinate system , a three-dimensional image of the cavity comprising open space and organ tissue; receive, from the medical probe, signals indicating positions and respective directions of the distal edge of the medical probe inside the cavity; receive, from the camera of the probe, respective visualized locations inside the cavity; register the image coordinate system with the sensor coordinate system so as to identify one or more voxels in the three-dimensional image at the visualized locations; and when the identified voxels have density values in the received three-dimensional image that do not correspond to the open space, to update the density values of the identified voxels to correspond to the open space. a medical probe configured to be inserted into a cavity of an organ of a patient; a position and direction sensor in the medical probe operating in a sensor coordinate system ; a camera in a distal edge of the medical probe operating in a sensor coordinate system; and a processor configured to: receive, from an imaging system operating in an image coordinate system , a three-dimensional image of the cavity comprising open space and organ tissue; receive, from the medical probe, signals indicating positions and respective directions of the distal edge of the medical probe inside the cavity; receive, from the camera of the probe, respective visualized locations inside the cavity; register the image coordinate system with the sensor coordinate system so as to identify one or more voxels in the three-dimensional image at the visualized locations; and when the identified voxels have density values in the received three-dimensional image that do not correspond to the open space, to update the density values of the identified voxels to correspond to the open space. receive, from an imaging system operating in an image coordinate system , a three-dimensional image of the cavity comprising open space and organ tissue; receive, from the medical probe, signals indicating positions and respective directions of the distal edge of the medical probe inside the cavity; receive, from the camera of the probe, respective visualized locations inside the cavity; register the image coordinate system with the sensor coordinate system so as to identify one or more voxels in the three-dimensional image at the visualized locations; and when the identified voxels have density values in the received three-dimensional image that do not correspond to the open space, to update the density values of the identified voxels to correspond to the open space.
Combustion chamber head of a gas turbine having a base plate which is provided with a central recess , in which at least one burner is arranged, wherein the base plate is connected to walls of the combustion chamber , and having a burner seal sealing off the burner relative to the edge of the recess , wherein the burner seal is arranged upstream of the base plate and can be brought into contact against a collar formed on the base plate and forming the edge of the central recess , and wherein a holding element of the burner seal is formed in the shape of a sheet metal ring and is arranged upstream of the burner seal and is in tension-free engagement with at least one projection of the base plate , characterized in that the holding element is provided with at least one locking tab , which is in tension-free engagement with the projection , wherein the projection is provided with at least one recess for the engagement of the locking tab , and wherein the burner seal is formed in the shape of a funnel on its upstream side for the insertion of the burner .
A photovoltaic module, comprising: a photovoltaic laminate ; a frame coupled to a perimeter of the photovoltaic laminate; a junction box coupled to the photovoltaic laminate, wherein the junction box includes a housing for an electrical connection between a plurality of solar cells of the photovoltaic laminate and a plurality of conductors, an electronics enclosure releasably coupled to the frame by way of a mounting recess , wherein the electronics enclosure includes electronic circuitry, wherein the electronic circuitry includes one or more bypass diodes configured to provide reverse bias protection to the photovoltaic module, wherein the electronic circuitry is electrically coupled to the plurality of conductors and to another photovoltaic module, wherein the mounting recess includes a first projection and a second projection extending from opposite sides of the mounting recess , and the first and second projections are spaced to accommodate the electronics enclosure and to allow for a tight engagement between said projections and the electronics enclosure. a photovoltaic laminate ; a frame coupled to a perimeter of the photovoltaic laminate; a junction box coupled to the photovoltaic laminate, wherein the junction box includes a housing for an electrical connection between a plurality of solar cells of the photovoltaic laminate and a plurality of conductors, an electronics enclosure releasably coupled to the frame by way of a mounting recess , wherein the electronics enclosure includes electronic circuitry, wherein the electronic circuitry includes one or more bypass diodes configured to provide reverse bias protection to the photovoltaic module, wherein the electronic circuitry is electrically coupled to the plurality of conductors and to another photovoltaic module, wherein the mounting recess includes a first projection and a second projection extending from opposite sides of the mounting recess , and the first and second projections are spaced to accommodate the electronics enclosure and to allow for a tight engagement between said projections and the electronics enclosure.
A method for inputting information, comprising: monitoring, by a terminal, a state of an inputting box, wherein the state comprises an active state or a sleep state (S101); if the terminal monitors that the inputting box is in the active state, calling a virtual keyboard (S102, S201); characterised by configuring, by the terminal, predefined keys of the virtual keyboard to a working state, and locking keys other than the predefined keys on the virtual keyboard(S202); and inputting, by the terminal, information in the inputting box using the predefined keys in the working state of the virtual keyboard (S203); wherein the predefined keys comprise a left shift key for a left shift operation, a determination key for a determination operation and a right shift key for a right shift operation; and wherein information is inputted in the inputting box by performing an operation to a current cursor on a screen using the predefined keys of the virtual keyboard at the terminal to select one of the locked keys. monitoring, by a terminal, a state of an inputting box, wherein the state comprises an active state or a sleep state (S101); if the terminal monitors that the inputting box is in the active state, calling a virtual keyboard (S102, S201); characterised by configuring, by the terminal, predefined keys of the virtual keyboard to a working state, and locking keys other than the predefined keys on the virtual keyboard(S202); and inputting, by the terminal, information in the inputting box using the predefined keys in the working state of the virtual keyboard (S203); wherein the predefined keys comprise a left shift key for a left shift operation, a determination key for a determination operation and a right shift key for a right shift operation; and wherein information is inputted in the inputting box by performing an operation to a current cursor on a screen using the predefined keys of the virtual keyboard at the terminal to select one of the locked keys.
A method of detecting a misalignment condition between a microscope slide and a platform upon which the microscope slide is disposed, wherein the platform is comprised of a horizontal edge and a vertical edge and the microscope slide is comprised of a slide horizontal edge and a slide vertical edge that connect to form a right-angled corner , the method comprising: (a) identifying, in an image that includes at least a portion of the microscope slide and at least a portion of the platform , a platform feature , wherein the platform feature is a reference line pattern joining the vertical and the horizontal edges of the platform such that the right-angled corner of the microscope slide extends beyond the reference line pattern ; (b) identifying in the image, a first edge of the platform and a first edge of the microscope slide , wherein identification of the first edge of the platform in the image is effected by identification of a first reference point of the platform feature , wherein the first reference point is a left-most location or a right-most location of the reference line pattern ; and, (c) calculating a value of a first distance between the first edge of the platform and the first edge of the microscope slide in the image, wherein if the value of the first distance lies outside a first pre-determined range of values, a misalignment condition between the microscope slide and the platform is detected. (a) identifying, in an image that includes at least a portion of the microscope slide and at least a portion of the platform , a platform feature , wherein the platform feature is a reference line pattern joining the vertical and the horizontal edges of the platform such that the right-angled corner of the microscope slide extends beyond the reference line pattern ; (b) identifying in the image, a first edge of the platform and a first edge of the microscope slide , wherein identification of the first edge of the platform in the image is effected by identification of a first reference point of the platform feature , wherein the first reference point is a left-most location or a right-most location of the reference line pattern ; and, (c) calculating a value of a first distance between the first edge of the platform and the first edge of the microscope slide in the image, wherein if the value of the first distance lies outside a first pre-determined range of values, a misalignment condition between the microscope slide and the platform is detected.
An agricultural machine , comprising: a frame ; a set of frame support elements supporting the frame ; a set of row units mounted to the frame and movable relative to the wheels to change a depth of engagement of the row units with the ground over which the agricultural machine travels; at least one actuator that drives movement of the set of row units relative to the frame ; a ground sensor operably coupled to the agricultural machine and configured to provide a ground distance signal; and row unit height control logic that is configured to receive the ground distance signal and provide a control output to the at least one actuator to generate a height value of the row units relative to ground, characterized in further comprising a rockshaft pivotally coupled to the frame and the plurality of row units operably coupled to the rockshaft , wherein the ground sensor is operably mounted to the rockshaft . a frame ; a set of frame support elements supporting the frame ; a set of row units mounted to the frame and movable relative to the wheels to change a depth of engagement of the row units with the ground over which the agricultural machine travels; at least one actuator that drives movement of the set of row units relative to the frame ; a ground sensor operably coupled to the agricultural machine and configured to provide a ground distance signal; and row unit height control logic that is configured to receive the ground distance signal and provide a control output to the at least one actuator to generate a height value of the row units relative to ground, characterized in further comprising a rockshaft pivotally coupled to the frame and the plurality of row units operably coupled to the rockshaft , wherein the ground sensor is operably mounted to the rockshaft .
A loop heat pipe comprising: an evaporator that vaporizes working fluid (C, Cv); a condenser that condenses the working fluid (C, Cv); a liquid line that connects the evaporator and the condenser ; a vapor line that connects the evaporator and the condenser to form a loop with the liquid line ; and a porous body provided in the liquid line or in the evaporator , characterized in that the porous body is formed by forming bottomed holes in a first metal layer , wherein the bottomed holes of the first metal layer include first bottomed holes that are concaved from one surface of the first metal layer, and second bottomed holes that are concaved from another surface of the first metal layer , the other surface being opposite of the one surface , and wherein the first bottomed holes and the second bottomed holes are alternately aligned in a planar view, each of the first bottomed holes and each of the second bottomed holes alternately aligned and adjacent to each other partially overlapping in a planer view, thereby partially communicating with each other to form a pore . an evaporator that vaporizes working fluid (C, Cv); a condenser that condenses the working fluid (C, Cv); a liquid line that connects the evaporator and the condenser ; a vapor line that connects the evaporator and the condenser to form a loop with the liquid line ; and a porous body provided in the liquid line or in the evaporator , characterized in that the porous body is formed by forming bottomed holes in a first metal layer , wherein the bottomed holes of the first metal layer include first bottomed holes that are concaved from one surface of the first metal layer, and second bottomed holes that are concaved from another surface of the first metal layer , the other surface being opposite of the one surface , and first bottomed holes that are concaved from one surface of the first metal layer, and second bottomed holes that are concaved from another surface of the first metal layer , the other surface being opposite of the one surface , and wherein the first bottomed holes and the second bottomed holes are alternately aligned in a planar view, each of the first bottomed holes and each of the second bottomed holes alternately aligned and adjacent to each other partially overlapping in a planer view, thereby partially communicating with each other to form a pore .
A combined damping and pulling device for a middle door, having a housing in which a driver element can be moved between two parked positions , - wherein, in the housing , two driver slides (101; 301) which can be alternatively coupled form-fittingly to the driver element are each guided between a force- and/or form-fittingly secured waiting position (16; 18) and a force- and/or form-fittingly secured end position (17; 19), - wherein a cylinder-piston unit which can be loaded by means of both driver slides is mounted in an axially displaceable manner in the housing , - wherein each driver slide (101; 301) either has a spring receptacle or is coupled or can be coupled to a spring slide (131; 331) having a spring receptacle , and - wherein a spring energy store is held in both spring receptacles . - wherein, in the housing , two driver slides (101; 301) which can be alternatively coupled form-fittingly to the driver element are each guided between a force- and/or form-fittingly secured waiting position (16; 18) and a force- and/or form-fittingly secured end position (17; 19), - wherein a cylinder-piston unit which can be loaded by means of both driver slides is mounted in an axially displaceable manner in the housing , - wherein each driver slide (101; 301) either has a spring receptacle or is coupled or can be coupled to a spring slide (131; 331) having a spring receptacle , and - wherein a spring energy store is held in both spring receptacles .
An object information acquiring apparatus comprising: a processor configured to generate image data representing characteristic information of an object by executing reconstruction processing based on signals acquired by receiving an acoustic wave generated from a region of interest inside the object by a plurality of times of light irradiation to the region of interest inside the object; and a display controller configured to allow a display to display an image based on the image data, wherein the display controller is configured to perform a first display, in which an image is displayed in parallel with the irradiation with the light and the reception of the acoustic wave, and a second display, in which an image is displayed based on image data from more signals than in the first display, and characterized in that the processor is configured to acquire the characteristic information for a smaller number of units of reconstruction into which the region of interest is divided when generating image data used for the first display than when generating image data used for the second display. a processor configured to generate image data representing characteristic information of an object by executing reconstruction processing based on signals acquired by receiving an acoustic wave generated from a region of interest inside the object by a plurality of times of light irradiation to the region of interest inside the object; and a display controller configured to allow a display to display an image based on the image data, wherein the display controller is configured to perform a first display, in which an image is displayed in parallel with the irradiation with the light and the reception of the acoustic wave, and a second display, in which an image is displayed based on image data from more signals than in the first display, and characterized in that a first display, in which an image is displayed in parallel with the irradiation with the light and the reception of the acoustic wave, and a second display, in which an image is displayed based on image data from more signals than in the first display, and the processor is configured to acquire the characteristic information for a smaller number of units of reconstruction into which the region of interest is divided when generating image data used for the first display than when generating image data used for the second display.
A security system for emergency exit control, having at least one trigger element , in particular an emergency button , wherein the trigger element can be transferred, in particular by a central emergency exit controller of the security system , to a deactivated state, wherein, in the deactivated state following an actuation of the trigger element , activation of a locking mechanism for unlocking does not take place, and the trigger element can be transferred, in particular by the central emergency exit controller , to an activated state, wherein, in the activated state following an actuation of the trigger element , an activation of the locking mechanism for unlocking takes place, wherein, in the activated state of the trigger element , an actuation of the trigger element previously carried out in the deactivated state has no effect on the activation of the locking mechanism , wherein it can be electronically stored in the trigger element , whether a deactivation is permitted for the trigger element , and only when the deactivation is permitted does an action of an operator to deactivate the trigger element lead to the trigger element being transferred to the deactivated state. wherein the trigger element can be transferred, in particular by a central emergency exit controller of the security system , to a deactivated state, wherein, in the deactivated state following an actuation of the trigger element , activation of a locking mechanism for unlocking does not take place, and the trigger element can be transferred, in particular by the central emergency exit controller , to an activated state, wherein, in the activated state following an actuation of the trigger element , an activation of the locking mechanism for unlocking takes place, wherein, in the activated state of the trigger element , an actuation of the trigger element previously carried out in the deactivated state has no effect on the activation of the locking mechanism , wherein it can be electronically stored in the trigger element , whether a deactivation is permitted for the trigger element , and only when the deactivation is permitted does an action of an operator to deactivate the trigger element lead to the trigger element being transferred to the deactivated state.
A clip-on ammeter, comprising a current measurement unit , an evaluation unit and a USB interface , wherein current values can be recorded by the current measurement unit and the current values can be provided as measurement values, and wherein the evaluation unit comprises an A/D converter and is connected to the current measurement unit and wherein the evaluation unit is capable to process the measurement values to digital and USB compatible data to be transferred to the USB interface , and wherein the USB interface is connected to the evaluation unit and wherein the USB compatible data can be provided by the USB interface for transfer purposes to be further processed and wherein the evaluation unit can be energized via the USB interface , characterized in that the clip-on ammeter comprises a voltage transformer , wherein energy can be supplied to the voltage transformer via the USB interface and wherein the voltage transformer is capable to provide a stabilized voltage as a reference voltage for the current measurement unit , the clip-on ammeter comprises a signal processing unit , which is connected to the current measurement unit and which is capable to record the measurement values as signals and to process them to analog data, wherein the signal processing unit is powered with a bipolar voltage by the voltage transformer , and that the clip-on ammeter comprises an analog output , wherein the analog output is connected to the signal processing unit and wherein the analog data can be output via the analog output . comprising a current measurement unit , an evaluation unit and a USB interface , wherein current values can be recorded by the current measurement unit and the current values can be provided as measurement values, and wherein the evaluation unit comprises an A/D converter and is connected to the current measurement unit and wherein the evaluation unit is capable to process the measurement values to digital and USB compatible data to be transferred to the USB interface , and wherein the USB interface is connected to the evaluation unit and wherein the USB compatible data can be provided by the USB interface for transfer purposes to be further processed and wherein the evaluation unit can be energized via the USB interface , characterized in that the clip-on ammeter comprises a voltage transformer , wherein energy can be supplied to the voltage transformer via the USB interface and wherein the voltage transformer is capable to provide a stabilized voltage as a reference voltage for the current measurement unit , the clip-on ammeter comprises a signal processing unit , which is connected to the current measurement unit and which is capable to record the measurement values as signals and to process them to analog data, wherein the signal processing unit is powered with a bipolar voltage by the voltage transformer , and that the clip-on ammeter comprises an analog output , wherein the analog output is connected to the signal processing unit and wherein the analog data can be output via the analog output .