mhurhangee/patent-ind-claim-en huggingface dataset:
An image processing apparatus , comprising: generating means for generating a second image by changing a size of a first image such that a region of interest in the second image satisfies a predetermined criterion about a dimension; and extracting means for extracting the region of interest from the second image generated by the generating means, by applying a Graph-Cut method using a Graph-Cut coefficient corresponding to the criterion to the second image, wherein the Graph-Cut coefficient is a coefficient representing weighting of an energy function of the Graph-Cut method; characterized by : estimating means for estimating information about the dimension of the region of interest in the second image, wherein the generating means generates the second image by using, as the criterion, a criterion that the information estimated by the estimating means matches predetermined reference information indicating the target dimension of size change when the generating means changes the size of the first image. generating means for generating a second image by changing a size of a first image such that a region of interest in the second image satisfies a predetermined criterion about a dimension; and extracting means for extracting the region of interest from the second image generated by the generating means, by applying a Graph-Cut method using a Graph-Cut coefficient corresponding to the criterion to the second image, wherein the Graph-Cut coefficient is a coefficient representing weighting of an energy function of the Graph-Cut method; characterized by : estimating means for estimating information about the dimension of the region of interest in the second image, wherein the generating means generates the second image by using, as the criterion, a criterion that the information estimated by the estimating means matches predetermined reference information indicating the target dimension of size change when the generating means changes the size of the first image. estimating means for estimating information about the dimension of the region of interest in the second image, wherein the generating means generates the second image by using, as the criterion, a criterion that the information estimated by the estimating means matches predetermined reference information indicating the target dimension of size change when the generating means changes the size of the first image.
An electronic device comprising: a display ; an electronic pen ; a slot in which the electronic pen can be inserted or detached; a pen sensing module configured to sense an insertion or a detachment of the electronic pen from the slot; a pen input module configured to receive an input using the electronic pen; and a processor electrically connected to the display, the pen sensing module, and the pen input module, wherein the processor is configured to, when the detachment of the electronic pen is sensed during an OFF-state of the display: activate the pen input module and control the display to display a memo screen with a black background maintaining a black color, detect a stroke input on the display , and based on the stroke input, display the stroke input in a solid-color different from the black background on the memo screen; wherein the memo screen includes at least one control menu a display ; an electronic pen ; a slot in which the electronic pen can be inserted or detached; a pen sensing module configured to sense an insertion or a detachment of the electronic pen from the slot; a pen input module configured to receive an input using the electronic pen; and a processor electrically connected to the display, the pen sensing module, and the pen input module, wherein the processor is configured to, when the detachment of the electronic pen is sensed during an OFF-state of the display: activate the pen input module and control the display to display a memo screen with a black background maintaining a black color, detect a stroke input on the display , and based on the stroke input, display the stroke input in a solid-color different from the black background on the memo screen; wherein the memo screen includes at least one control menu activate the pen input module and control the display to display a memo screen with a black background maintaining a black color, detect a stroke input on the display , and based on the stroke input, display the stroke input in a solid-color different from the black background on the memo screen; wherein the memo screen includes at least one control menu
An information processing apparatus , comprising: a table with an embedded display device having a surface on which an object (S1, S2, S3) with a wireless tag (T) can be placed; an antenna unit that is configured to move along a predetermined path and to transmit an interrogation wave for reading information from wireless tags (T) and receive a response wave from wireless tags (T) at different positions on the predetermined path; and a controller configured to: calculate changes in phase difference between the interrogation wave and the response wave received at the different positions, determine a location of a wireless tag (T) on the surface of the embedded display device using the calculated changes in the phase difference, and control the embedded display device to indicate the determined location. a table with an embedded display device having a surface on which an object (S1, S2, S3) with a wireless tag (T) can be placed; an antenna unit that is configured to move along a predetermined path and to transmit an interrogation wave for reading information from wireless tags (T) and receive a response wave from wireless tags (T) at different positions on the predetermined path; and a controller configured to: calculate changes in phase difference between the interrogation wave and the response wave received at the different positions, determine a location of a wireless tag (T) on the surface of the embedded display device using the calculated changes in the phase difference, and control the embedded display device to indicate the determined location. calculate changes in phase difference between the interrogation wave and the response wave received at the different positions, determine a location of a wireless tag (T) on the surface of the embedded display device using the calculated changes in the phase difference, and control the embedded display device to indicate the determined location.
A stator coil that is a coil of one phase arranged in a stator core , the stator core comprising slots , the coil comprising: a first coil portion formed of a single-layer lap winding coil and including a pair of first slot-housed portions respectively adapted to be arranged on an outer side of a first slot of the stator core in a radial direction and on an outer side of a second slot of the stator core in the radial direction; a second coil portion formed of a single-layer lap winding coil and including a pair of second slot-housed portions respectively adapted to be arranged on an inner side of the first slot in the radial direction and on an inner side of a third slot in the radial direction, the second slot and the third slot being arranged on different sides of the first slot in a circumferential direction; and at least one third coil portion formed of a double-layer lap winding coil and including a pair of third slot-housed portions respectively adapted to be arranged on an inner side of a slot in the radial direction and on an outer side of a slot in the radial direction, wherein one of the third slot-housed portions is adapted to be arranged on an inner side of the second slot in the radial direction and another one of the third slot-housed portions is adapted to be arranged on an outer side of the third slot in the radial direction. a first coil portion formed of a single-layer lap winding coil and including a pair of first slot-housed portions respectively adapted to be arranged on an outer side of a first slot of the stator core in a radial direction and on an outer side of a second slot of the stator core in the radial direction; a second coil portion formed of a single-layer lap winding coil and including a pair of second slot-housed portions respectively adapted to be arranged on an inner side of the first slot in the radial direction and on an inner side of a third slot in the radial direction, the second slot and the third slot being arranged on different sides of the first slot in a circumferential direction; and at least one third coil portion formed of a double-layer lap winding coil and including a pair of third slot-housed portions respectively adapted to be arranged on an inner side of a slot in the radial direction and on an outer side of a slot in the radial direction, wherein one of the third slot-housed portions is adapted to be arranged on an inner side of the second slot in the radial direction and another one of the third slot-housed portions is adapted to be arranged on an outer side of the third slot in the radial direction.
Method for determining the deflection of the actuator of a capacitive multipath force sensor module having an actuator which can be displaced from its neutral position in at least two actuating directions, which is displaced back into its neutral position again when an actuating force ceases, and to which a central capacitor plate is connected which, in the rest position of the actuator , is located at a distance from at least one first and one second stationary capacitor plate and is displaced by displacement of the actuator towards at least one first stationary capacitor plate and away from at least one second stationary capacitor plate , and at least one measuring capacitor formed by the central capacitor plate with at least one first stationary capacitor plate being used to generate a first sensor value representing the deflection of the actuator , characterized in that the first stationary capacitor plate is held at an earth potential, in that , in a continuously applied integration method in a plurality of successive cycles, in each case: - the central capacitor plate and at least the second stationary capacitor plate are connected to a voltage potential which is different from the ground potential and then disconnected from it again, - a quantity of charge stored on the central capacitor plate is transferred to an integration capacitor with a known capacitance value, and in that , after a predetermined number of cycles, the voltage then present on the integration capacitor is measured by means of an A/D converter and processed into the first sensor value, and in that a measuring capacitor formed by the central capacitor plate with the second fixed capacitor plate is used to generate a second sensor value representing the deflection of the actuating element . in that the first stationary capacitor plate is held at an earth potential, in that , in a continuously applied integration method in a plurality of successive cycles, in each case: - the central capacitor plate and at least the second stationary capacitor plate are connected to a voltage potential which is different from the ground potential and then disconnected from it again, - a quantity of charge stored on the central capacitor plate is transferred to an integration capacitor with a known capacitance value, - the central capacitor plate and at least the second stationary capacitor plate are connected to a voltage potential which is different from the ground potential and then disconnected from it again, - a quantity of charge stored on the central capacitor plate is transferred to an integration capacitor with a known capacitance value, and in that , after a predetermined number of cycles, the voltage then present on the integration capacitor is measured by means of an A/D converter and processed into the first sensor value, and in that a measuring capacitor formed by the central capacitor plate with the second fixed capacitor plate is used to generate a second sensor value representing the deflection of the actuating element .
Method for identifying limited movability of a throttle grip for a motorcycle , wherein the method comprises: generating a control signal for activating a throttle grip actuator for adjusting the throttle grip ; receiving sensor data , which are generated by a throttle grip sensor system in response to the activation of the throttle grip actuator and which indicate a deflection of the throttle grip from a starting position and/or a force applied to the throttle grip ; and identifying the limited movability by evaluating the sensor data . generating a control signal for activating a throttle grip actuator for adjusting the throttle grip ; receiving sensor data , which are generated by a throttle grip sensor system in response to the activation of the throttle grip actuator and which indicate a deflection of the throttle grip from a starting position and/or a force applied to the throttle grip ; and identifying the limited movability by evaluating the sensor data .
A ripstop fabric, formed by weaving weft yarns and warp yarns, wherein one of the warp yarns or the weft yarns comprises spun yarns, wherein the other of the warp yarns or the weft yarns consists of polyester filament yarns interwoven with the spun yarns in a ripstop pattern, and wherein the ripstop pattern comprises two or more of the polyester filament yarns that are woven together in the same pattern through the spun yarns, characterised in that the polyester filament yarns are multi-component polyester filament yarns which provide a mechanical stretch property to the ripstop fabric. wherein one of the warp yarns or the weft yarns comprises spun yarns, wherein the other of the warp yarns or the weft yarns consists of polyester filament yarns interwoven with the spun yarns in a ripstop pattern, and wherein the ripstop pattern comprises two or more of the polyester filament yarns that are woven together in the same pattern through the spun yarns, characterised in that the polyester filament yarns are multi-component polyester filament yarns which provide a mechanical stretch property to the ripstop fabric.
A method of manufacturing a water reservoir for an apparatus for humidifying a flow of breathable gas, the water reservoir comprising: a reservoir base including a cavity structured to hold a volume of water, the reservoir base including a main body and a thermally conductive portion provided to the main body , wherein the thermally conductive portion comprises a thin film, the thin film comprising a non-metallic material and including a wall thickness of less than about 1 mm, the thin film being adapted to form at least a bottom interior surface of the water reservoir exposed to the volume of water, wherein the main body comprises a plastic material; the method comprising: insert moulding the plastic material of the main body around the thin film, the thin film being in a non-final form; and after the insert moulding, modifying the non-final form of the thin film into a final form. a reservoir base including a cavity structured to hold a volume of water, the reservoir base including a main body and a thermally conductive portion provided to the main body , wherein the thermally conductive portion comprises a thin film, the thin film comprising a non-metallic material and including a wall thickness of less than about 1 mm, the thin film being adapted to form at least a bottom interior surface of the water reservoir exposed to the volume of water, wherein the main body comprises a plastic material; the method comprising: insert moulding the plastic material of the main body around the thin film, the thin film being in a non-final form; and after the insert moulding, modifying the non-final form of the thin film into a final form.
An automation apparatus , comprising: a first unit , including a body having a cavity, for rotationally moving objects from one area to another; and a second unit , connected to the first unit , for holding and moving the objects through the cavity of the body of the first unit from one side of the first unit to the other side of the first unit ; and a rotating pedestal , upon which the first unit is mounted, characterized in that the rotating pedestal includes a stationary pedestal plate for accommodating a reorientation of the objects when the objects move through the cavity of the body of the first unit ; and in that the stationary pedestal plate is arranged such that the second unit can set the objects down inside the cavity on the stationary pedestal plate . a first unit , including a body having a cavity, for rotationally moving objects from one area to another; and a second unit , connected to the first unit , for holding and moving the objects through the cavity of the body of the first unit from one side of the first unit to the other side of the first unit ; and a rotating pedestal , upon which the first unit is mounted, characterized in that the rotating pedestal includes a stationary pedestal plate for accommodating a reorientation of the objects when the objects move through the cavity of the body of the first unit ; and in that the stationary pedestal plate is arranged such that the second unit can set the objects down inside the cavity on the stationary pedestal plate .
A method implemented by a digital radiographic detector (40; 300; 400), the method comprising: receiving a synchronization signal indicating a transition between image integration and image readout; detecting a first mode signal in the synchronization signal, including determining a first characteristic of the first mode signal; associating the first characteristic of the first mode signal with a first image disposition procedure; receiving a dark image frame corresponding to the first mode signal; dispositioning the dark image frame according to the first image disposition procedure; detecting a second mode signal in the synchronization signal, including determining a second characteristic of the second mode signal; associating the second characteristic of the second mode signal with a second image disposition procedure; receiving a second image frame corresponding to the second mode signal; and dispositioning the second image frame according to the second image disposition procedure; wherein the first image disposition procedure comprises storing the received dark image frame to be used as an offset correction map and combining the received dark image frame with previously received dark image frames, if any, and wherein the second disposition procedure comprises correcting the received second image frame by using the stored accumulated offset correction map, and transmitting the corrected image frame to a host system. receiving a synchronization signal indicating a transition between image integration and image readout; detecting a first mode signal in the synchronization signal, including determining a first characteristic of the first mode signal; associating the first characteristic of the first mode signal with a first image disposition procedure; receiving a dark image frame corresponding to the first mode signal; dispositioning the dark image frame according to the first image disposition procedure; detecting a second mode signal in the synchronization signal, including determining a second characteristic of the second mode signal; associating the second characteristic of the second mode signal with a second image disposition procedure; receiving a second image frame corresponding to the second mode signal; and dispositioning the second image frame according to the second image disposition procedure; wherein the first image disposition procedure comprises storing the received dark image frame to be used as an offset correction map and combining the received dark image frame with previously received dark image frames, if any, and wherein the second disposition procedure comprises correcting the received second image frame by using the stored accumulated offset correction map, and transmitting the corrected image frame to a host system.
Ultrasound flowmeter, comprising a one-part or multi-part housing , consisting of plastic, which is provided to be connected to a line carrying the medium to be measured and to be flowed through by the medium to be measured, and comprising an ultrasound transducer assembly, wherein two ultrasound transducers are provided which transmit ultrasound through the housing , and comprising: two ultrasound transducer bodies with in each case a first main surface on the side facing the medium and in each case a second main surface on the side facing away from the medium, first, preferably planar, contact means for electrically contacting the first main surfaces of the ultrasound transducer bodies , second, preferably planar, contact means for electrically contacting the second main surfaces of the ultrasound transducer bodies , wherein the first contact means of the ultrasound transducer bodies are in each case located between the respective ultrasound transducer body and the housing , through which ultrasound is to be transmitted, of the ultrasound flowmeter and are placed or fixed in the plastic housing , in at least one housing part consisting of plastic or in a housing insert receiving both ultrasound transducer bodies and consisting of plastic. two ultrasound transducer bodies with in each case a first main surface on the side facing the medium and in each case a second main surface on the side facing away from the medium, first, preferably planar, contact means for electrically contacting the first main surfaces of the ultrasound transducer bodies , second, preferably planar, contact means for electrically contacting the second main surfaces of the ultrasound transducer bodies , wherein the first contact means of the ultrasound transducer bodies are in each case located between the respective ultrasound transducer body and the housing , through which ultrasound is to be transmitted, of the ultrasound flowmeter and are placed or fixed in the plastic housing , in at least one housing part consisting of plastic or in a housing insert receiving both ultrasound transducer bodies and consisting of plastic.
A method for preparing α-olefins by oligomerization of C 2 -C 4 olefins in the presence of a catalyst system comprising a transition metal source, an activator, which is an alkylaluminoxane, and a compound of formula (I), Ar 1 Ar 2 P-N(R)-PAr 3 Ar 4 [formula I], wherein Ar 1-4 are the same or different and selected from substituted or unsubstituted C 6 -C 10 aryl groups; R is selected from linear or branched C 1 -C 4 alkyl group, substituted or unsubstituted C 6 -C 10 aryl group, and substituted or unsubstituted C 3 -C 10 cycloalkyl group; wherein the oligomerization process is carried out in a solvent, which is a bicyclic compound or a mixture of bicyclic compounds. Ar 1-4 are the same or different and selected from substituted or unsubstituted C 6 -C 10 aryl groups; R is selected from linear or branched C 1 -C 4 alkyl group, substituted or unsubstituted C 6 -C 10 aryl group, and substituted or unsubstituted C 3 -C 10 cycloalkyl group; wherein the oligomerization process is carried out in a solvent, which is a bicyclic compound or a mixture of bicyclic compounds.