mhurhangee/patent-ind-claim-en huggingface dataset:
A cooler for a semiconductor module which, by supplying a refrigerant to a water jacket from the exterior, is adapted to cool semiconductor devices to be disposed on the outer surface of the cooler , the cooler comprising: a heat sink thermally connected to the semiconductor devices; a first flow path , disposed in the water jacket and extended from a refrigerant inlet , in which is disposed a guide portion having an inclined surface for guiding the refrigerant toward one side surface of the heat sink ; a second flow path , disposed in the water jacket so as to be spaced parallel from the first flow path , and extended toward a refrigerant outlet , which is formed with a sidewall parallel to the other side surface of the heat sink ; a third flow path formed in a position in the water jacket providing communication between the first flow path and second flow path , wherein the heat sink is disposed in the third flow path , characterized by a flow velocity adjustment plate , disposed in the second flow path , which is formed spaced parallel from the other side surface of the heat sink , and wherein the refrigerant inlet and refrigerant outlet are formed in the same wall surface of the water jacket . a heat sink thermally connected to the semiconductor devices; a first flow path , disposed in the water jacket and extended from a refrigerant inlet , in which is disposed a guide portion having an inclined surface for guiding the refrigerant toward one side surface of the heat sink ; a second flow path , disposed in the water jacket so as to be spaced parallel from the first flow path , and extended toward a refrigerant outlet , which is formed with a sidewall parallel to the other side surface of the heat sink ; a third flow path formed in a position in the water jacket providing communication between the first flow path and second flow path , wherein the heat sink is disposed in the third flow path , characterized by a flow velocity adjustment plate , disposed in the second flow path , which is formed spaced parallel from the other side surface of the heat sink , and wherein the refrigerant inlet and refrigerant outlet are formed in the same wall surface of the water jacket .
An induction heating device comprising: a working coil disposed corresponding to a heating region ; a vessel detecting sensor disposed in a central region of the working coil ; a current sensor (D) configured to measure a resonance current value which is a level of a resonance current flowing through the working coil ; and characterized by a controller configured to determine whether a vessel is present in the heating region by sequentially performing first vessel sensing based on the resonance current value and second vessel sensing based on a sensing value obtained by the vessel detecting sensor . a working coil disposed corresponding to a heating region ; a vessel detecting sensor disposed in a central region of the working coil ; a current sensor (D) configured to measure a resonance current value which is a level of a resonance current flowing through the working coil ; and characterized by a controller configured to determine whether a vessel is present in the heating region by sequentially performing first vessel sensing based on the resonance current value and second vessel sensing based on a sensing value obtained by the vessel detecting sensor .
A multiband device , characterized in comprising: a processor configured to: send a request via a first frequency band, wherein the request is associated with scheduling a transmission on a second frequency band, and wherein the request indicates an allocation start time and a duration of the transmission on the second frequency band, and wherein the request comprises a sector sweep, SSW, field; receive a multiband Clear to Send, MCTS, frame via the first frequency band, wherein the received MCTS frame indicates an acceptance of the request, and wherein the received frame comprises a SSW feedback field; and send the transmission on the second frequency band in accordance with the allocation start time and the duration, wherein the transmission is a beamforming transmission . send a request via a first frequency band, wherein the request is associated with scheduling a transmission on a second frequency band, and wherein the request indicates an allocation start time and a duration of the transmission on the second frequency band, and wherein the request comprises a sector sweep, SSW, field; receive a multiband Clear to Send, MCTS, frame via the first frequency band, wherein the received MCTS frame indicates an acceptance of the request, and wherein the received frame comprises a SSW feedback field; and send the transmission on the second frequency band in accordance with the allocation start time and the duration, wherein the transmission is a beamforming transmission .
Method for control of at least one temperature T exhaust of an exhaust treatment system in a vehicle, comprising the step: - determination of said at least one temperature T exhaust of said exhaust treatment system ; characterised by the steps: - simulation of at least one future velocity profile v sim for an actual vehicle speed v act within a road section ahead of said vehicle , wherein said simulation is based on information relating to said road section; - determination , based on said at least one future velocity profile v sim , of whether a simulated active brake process brake sim because of an over-speed for said vehicle will occur within said road section; and - use , if said at least one temperature T exhaust of said exhaust treatment system is below a minimum temperature threshold value T min , and if said simulated active brake process brake sim is simulated to occur within said road section, of at least one engine fitted auxiliary brake , fitted in connection with an exhaust stream from an engine in said vehicle , wherein said use of said at least one engine fitted auxiliary brake is initiated before said vehicle reaches a position where said over-speed occurs. - determination of said at least one temperature T exhaust of said exhaust treatment system ; - simulation of at least one future velocity profile v sim for an actual vehicle speed v act within a road section ahead of said vehicle , wherein said simulation is based on information relating to said road section; - determination , based on said at least one future velocity profile v sim , of whether a simulated active brake process brake sim because of an over-speed for said vehicle will occur within said road section; and - use , if said at least one temperature T exhaust of said exhaust treatment system is below a minimum temperature threshold value T min , and if said simulated active brake process brake sim is simulated to occur within said road section, of at least one engine fitted auxiliary brake , fitted in connection with an exhaust stream from an engine in said vehicle , wherein said use of said at least one engine fitted auxiliary brake is initiated before said vehicle reaches a position where said over-speed occurs.
A method comprising: forming an emulsion of aniline and an organic sulfonic acid; introducing the emulsion into a flow reactor , the flow reactor comprising a length of fluoropolymer tubing of inner diameter between 1 to 1000 micrometers; introducing an oxidant to the emulsion or the flow reactor; polymerizing the aniline in the inner diameter of the length of tubing and forming an acid salt thereof, wherein the acid salt of the polymerized aniline is polyaniline dinonylnaphthalene sulfonic acid salt (PANI-DNNSA) and is contained in the length of tubing; and recovering the acid salt of the polymerized aniline from the length of tubing with organic solvent; and wherein the majority of the acid salt of the polymerized aniline deposits on the walls of the length of tubing. forming an emulsion of aniline and an organic sulfonic acid; introducing the emulsion into a flow reactor , the flow reactor comprising a length of fluoropolymer tubing of inner diameter between 1 to 1000 micrometers; introducing an oxidant to the emulsion or the flow reactor; polymerizing the aniline in the inner diameter of the length of tubing and forming an acid salt thereof, wherein the acid salt of the polymerized aniline is polyaniline dinonylnaphthalene sulfonic acid salt (PANI-DNNSA) and is contained in the length of tubing; and recovering the acid salt of the polymerized aniline from the length of tubing with organic solvent; and wherein the majority of the acid salt of the polymerized aniline deposits on the walls of the length of tubing.
An interferometric imaging system comprising: an interferometric device using time-of-flight principles; a processor and a computer-readable storage medium having instructions therein, which can be executed to cause the system to: display an image based on detected interference pattern showing a target and a reference item ; receive user input indicating a point within the image; detect a location of the reference item within an area around the indicated point; calculate a calibration value based on the detected location of the reference item; and provide a calibrated image of the target at a known scale, wherein the calibration value represents a z-offset associated with the interferometric device. an interferometric device using time-of-flight principles; a processor and a computer-readable storage medium having instructions therein, which can be executed to cause the system to: display an image based on detected interference pattern showing a target and a reference item ; receive user input indicating a point within the image; detect a location of the reference item within an area around the indicated point; calculate a calibration value based on the detected location of the reference item; and provide a calibrated image of the target at a known scale, wherein the calibration value represents a z-offset associated with the interferometric device. display an image based on detected interference pattern showing a target and a reference item ; receive user input indicating a point within the image; detect a location of the reference item within an area around the indicated point; calculate a calibration value based on the detected location of the reference item; and provide a calibrated image of the target at a known scale,
An optical scanning device (A, A2, A3, A4) comprising: a light source component configured to emit light; a scanning component configured to scan the light; and an electrostatic driver configured to drive the scanning component, wherein the electrostatic driver includes a first sub-driver and a second sub-driver , the first sub-driver having a stationary-side electrode and a movable-side electrode which constitute a capacitor (Cp1), the second sub-driver having a stationary-side electrode and a movable-side electrode which constitute a capacitor (Cp2), characterized in that the optical scanning device further comprises: a current sensor configured to sense current generated by a capacity change of the driver, the current being generated between the movable-side electrode of the first sub-driver and the movable-side electrode of the second sub-driver; and a controller configured to control emission of the light from the light source component based on the sensed current sensed by the current sensor. a light source component configured to emit light; a scanning component configured to scan the light; and an electrostatic driver configured to drive the scanning component, wherein the electrostatic driver includes a first sub-driver and a second sub-driver , the first sub-driver having a stationary-side electrode and a movable-side electrode which constitute a capacitor (Cp1), the second sub-driver having a stationary-side electrode and a movable-side electrode which constitute a capacitor (Cp2), characterized in that the optical scanning device further comprises: a current sensor configured to sense current generated by a capacity change of the driver, the current being generated between the movable-side electrode of the first sub-driver and the movable-side electrode of the second sub-driver; and a controller configured to control emission of the light from the light source component based on the sensed current sensed by the current sensor. a current sensor configured to sense current generated by a capacity change of the driver, the current being generated between the movable-side electrode of the first sub-driver and the movable-side electrode of the second sub-driver; and a controller configured to control emission of the light from the light source component based on the sensed current sensed by the current sensor.
Articulated arm for arm awnings, comprising: an arm and a forearm ; an articulated joint interposed between the arm and the forearm to connect them mutually; wherein the articulated joint defines a rotation axis (X, Y); wherein the articulated joint comprises: a portion extending around the rotation axis (X, Y) and delimiting a housing facing outwardly of the joint; wherein the housing communicates with an inner cavity of the arm and with an inner cavity of the forearm to allow the passage of a power cable ; a cover configured to close the housing with respect to the outside; connecting devices between said portion and the cover configured to allow the application or removal of the cover to/from said portion without further disassembling the arm ; characterized in that the housing is an annular housing. an arm and a forearm ; an articulated joint interposed between the arm and the forearm to connect them mutually; wherein the articulated joint defines a rotation axis (X, Y); wherein the articulated joint comprises: a portion extending around the rotation axis (X, Y) and delimiting a housing facing outwardly of the joint; wherein the housing communicates with an inner cavity of the arm and with an inner cavity of the forearm to allow the passage of a power cable ; a cover configured to close the housing with respect to the outside; connecting devices between said portion and the cover configured to allow the application or removal of the cover to/from said portion without further disassembling the arm ; a portion extending around the rotation axis (X, Y) and delimiting a housing facing outwardly of the joint; wherein the housing communicates with an inner cavity of the arm and with an inner cavity of the forearm to allow the passage of a power cable ; a cover configured to close the housing with respect to the outside; connecting devices between said portion and the cover configured to allow the application or removal of the cover to/from said portion without further disassembling the arm ; characterized in that the housing is an annular housing.
A respiratory flow sensor with a flow pipe which has a flow channel and hose connections for hoses on the free ends thereof, with a cover flap which is disposed in the flow channel and which divides the flow channel into a first flow channel section and into a second flow channel section , wherein the cover flap has a hinge region which is formed by a first incision and at least one second incision , and with connections which lead into the flow channel on both sides of the cover flap and which serve to reduce the pressure differential generated by the cover flap , characterized in that the at least one second incision of the hinge region of the cover flap is H-shaped in configuration, and in addition, a lateral incision is provided respectively adjacent to each at least one second incision .
A tooth replacement forming device, comprising an auxiliary element , a dental structure , and an abutment , wherein a dental structure of dental material, especially ceramics, produced using build-up or abrasive processes, especially using CAM, and a pressing process, can be fastened on or to the abutment , wherein the abutment can be mounted on an implant via a releasable connection, especially a screw connection, wherein the abutment comprises an implant connection, a collar and a tube portion which is for connecting to the dental structure , characterized in that an auxiliary element made of a residue-free combustible material is arranged abutting to and surrounding the tube portion , wherein the auxiliary element is pre-fabricated and accordingly has a preconditioned surface having a predetermined roughness, wherein the auxiliary element has a greater roughness on the radially outer surface thereof than on the radially inner surface thereof.
A method comprising: detecting a power transition of a processor-based system, wherein the power transition is between a fully powered on state to a sleep, hibernation or soft off power state associated with less power consumption; and controlling operation of a camera of the processor-based system based on the detection of the power transition, wherein controlling the operation of the camera comprises triggering a process to disable the camera in response to detection of the power transition. detecting a power transition of a processor-based system, wherein the power transition is between a fully powered on state to a sleep, hibernation or soft off power state associated with less power consumption; and controlling operation of a camera of the processor-based system based on the detection of the power transition, wherein controlling the operation of the camera comprises triggering a process to disable the camera in response to detection of the power transition.
A drainage-dehydration control method of a multi-drum washing machine, the washing machine comprising a first washing drum and a second washing drum and a control unit, wherein: before the control unit controls the first washing drum to execute a drainage procedure, the control unit judges whether the second washing drum is executing a drainage procedure or a dehydration procedure; wherein if yes and the dehydration procedure is being executed in the second washing drum , the control unit controls the first washing drum to continue executing a washing procedure or a rinse procedure, or suspend executing drainage and dehydration until the dehydration procedure of the second washing drum is completed; if yes and the drainage procedure is being executed in the second washing drum , the control unit controls the first washing drum to continue executing a washing procedure or a rinse procedure, or suspend executing drainage and dehydration until the drainage procedure and the dehydration procedure of the second washing drum are completed, if no, the control unit controls the first washing drum to start the drainage procedure and the dehydration procedure. before the control unit controls the first washing drum to execute a drainage procedure, the control unit judges whether the second washing drum is executing a drainage procedure or a dehydration procedure; wherein if yes and the dehydration procedure is being executed in the second washing drum , the control unit controls the first washing drum to continue executing a washing procedure or a rinse procedure, or suspend executing drainage and dehydration until the dehydration procedure of the second washing drum is completed; if yes and the drainage procedure is being executed in the second washing drum , the control unit controls the first washing drum to continue executing a washing procedure or a rinse procedure, or suspend executing drainage and dehydration until the drainage procedure and the dehydration procedure of the second washing drum are completed, if no, the control unit controls the first washing drum to start the drainage procedure and the dehydration procedure.
Animal keeping installation comprising a floor provided with a mat on which the animal treads when setting foot on the floor and which mat is arranged to be intermittently propelled by a drive roll placed internally in relation to the mat , a drive journal rigidly connected to the centre axis of the drive roll , wherein the mat is of endless configuration characterized in that the drive roll is connected to and mounted in bearing journals for rotation about its centre axis in a pendulum which allows the drive roll , on the one hand, to bear against the inner side of the mat and, on the other hand, be released from the said bearing contact in dependence on the position of the pendulum , and in that the drive roll is connected to a drive member for driving the roll at least into a position where the drive roll bears against the mat , and in that the drive member comprises: - an energy-absorbing element connected between the floor and a base plate , so that a tilting motion of the floor charges said element when an animal treads on the floor or its driven end and that an opposite tilting motion discharges the said element when the animal is removed from the floor or its driven end; - a drive cable extending between the base plate and a cable arm , the cable being wound around and fixed to the said drive journal situated between the base plate and the cable arm , wherein the said tilting motion releases the drive roll from the mat , and wherein the said opposite tilting motion effects a driving of the mat by rotating the drive roll via the drive journal and the drive cable . - an energy-absorbing element connected between the floor and a base plate , so that a tilting motion of the floor charges said element when an animal treads on the floor or its driven end and that an opposite tilting motion discharges the said element when the animal is removed from the floor or its driven end; - a drive cable extending between the base plate and a cable arm , the cable being wound around and fixed to the said drive journal situated between the base plate and the cable arm ,