mhurhangee/patent-ind-claim-en huggingface dataset:
A computer implemented data processing method for enabling an analysis of an anatomic dynamic atlas of a patient, the method comprising the following steps - static atlas data and dynamic atlas data of a dynamic anatomic atlas are received or retrieved, the dynamic anatomic atlas comprising static atlas data describing a static atlas image of atlas segments; and dynamic atlas data comprising information on a dynamic property which information is respectively linked to the atlas segments, wherein at least one dynamic property linked to an atlas segment is classified according to patient types; - static patient data describing a static patient image of a patient segment is received or retrieved; - dynamic patient data comprising information on a dynamic property is received or retrieved, the information being respectively linked to the patient segment; - the static patient image is matched with the static atlas image using the information on the dynamic property as a constraint; - a corresponding atlas segment corresponding to the patient segment is determined based on the matching; - for enabling the analysis, the information on the dynamic property linked to the corresponding atlas segment and the information on the dynamic property linked to the patient segment are compared; - at least one classified dynamic property of the corresponding atlas segment is compared with the dynamic property of the patient segment; and - based on the comparison, the type of the patient is determined. - static atlas data and dynamic atlas data of a dynamic anatomic atlas are received or retrieved, the dynamic anatomic atlas comprising static atlas data describing a static atlas image of atlas segments; and dynamic atlas data comprising information on a dynamic property which information is respectively linked to the atlas segments, wherein at least one dynamic property linked to an atlas segment is classified according to patient types; - static patient data describing a static patient image of a patient segment is received or retrieved; - dynamic patient data comprising information on a dynamic property is received or retrieved, the information being respectively linked to the patient segment; - the static patient image is matched with the static atlas image using the information on the dynamic property as a constraint; - a corresponding atlas segment corresponding to the patient segment is determined based on the matching; - for enabling the analysis, the information on the dynamic property linked to the corresponding atlas segment and the information on the dynamic property linked to the patient segment are compared; - at least one classified dynamic property of the corresponding atlas segment is compared with the dynamic property of the patient segment; and - based on the comparison, the type of the patient is determined.
Aircraft with a laser scanner for measuring a surrounding, wherein the laser scanner is configured to emit laser beams at different emission angles (α) about an axis (S), wherein a mirror is located in the optical path of the laser beams in a predetermined subrange (Δα) of emission angles (α), wherein the laser scanner is configured to determine the times of flight (L) of laser beams emitted within the said subrange (Δα) as well as of laser beams emitted outside said subrange (Δα) by means of their reflections on the surrounding, characterized in that the mirror deflects the laser beams emitted in said subrange (Δα) into a plane that is parallel to a predetermined horizontal flight direction (F), wherein said subrange (Δα) comprises those laser beams which would be reflected by the aircraft without the mirror .
Device for realizing a cooling effect in a space, for instance an accommodation area, an office space, a living room or a cab in a means of transport such as a car, a boat or an aircraft or the like, said device comprising: a housing with a heat-conducting wall , which housing bounds a chamber through which air can flow; an air inlet which connects to the chamber and to said space; an air outlet connecting to the chamber ; air transport means, for instance fan means , for transporting air from the air inlet via the chamber to the air outlet ; and moistening means for moistening the inner surface of said wall with water; this such that air transported by the air transport means is introduced into the chamber via the air inlet, passes along the moistened inner surface of said wall in the chamber and is discharged from the chamber via the air outlet , characterized in that water present on the heat-conductive inner surface evaporates and is entrained by the air flowing by, and said wall is cooled by making use only of the high heat of evaporation of water. a housing with a heat-conducting wall , which housing bounds a chamber through which air can flow; an air inlet which connects to the chamber and to said space; an air outlet connecting to the chamber ; air transport means, for instance fan means , for transporting air from the air inlet via the chamber to the air outlet ; and moistening means for moistening the inner surface of said wall with water; this such that air transported by the air transport means is introduced into the chamber via the air inlet, passes along the moistened inner surface of said wall in the chamber and is discharged from the chamber via the air outlet , characterized in that water present on the heat-conductive inner surface evaporates and is entrained by the air flowing by, and said wall is cooled by making use only of the high heat of evaporation of water.
An open-loop electrical current transducer for measuring an electrical current flowing in a primary conductor , comprising a magnetic circuit core with an air-gap , and a magnetic field sensing device comprising a circuit board, a first magnetic field detector in the form of an ASIC mounted on the circuit board, and a second magnetic field detector in the form of a conductive pick-up coil formed on two or more layers in or on the circuit board beneath the ASIC and in overlapping relationship therewith, the ASIC and pick-up coil positioned in said air-gap, the outputs of the first and second magnetic field detectors connected to a signal processing circuit generating an output signal representative of said electrical current, the output of the ASIC representing a low frequency (LF) channel and the output of the pick-up coil representing a high frequency (HF) channel, characterized in that the signal processing circuit comprises an adding circuit configured to sum a signal output by the LF channel with a signal output by the HF channel, and one or more circuit components including at least a gain adjust resistor (Rac) connected in series to the output of the pick-up coil to adjust a gain of the output signal of the pick-up coil to a gain of the output signal of the ASIC.
A vision system for an assembly line comprising: a first camera and a second camera mounted for stereoscopic monitoring of a work environment; a support platform for support of a workpiece in the work environment; a reference plate operably coupled to the support platform to provide a frame of reference for three dimensional location of objects in the work environment; a power tool operable in the work environment under control of a tool controller ; and a motion monitor operably coupled to the first and second cameras to determine location of the power tool in the work environment based on a comparison of a reference point on the tool to a position of reference points on the reference plate , wherein the motion monitor is configured to monitor the location of the power tool relative to a movement zone defining a volume in three dimensional space. a first camera and a second camera mounted for stereoscopic monitoring of a work environment; a support platform for support of a workpiece in the work environment; a reference plate operably coupled to the support platform to provide a frame of reference for three dimensional location of objects in the work environment; a power tool operable in the work environment under control of a tool controller ; and a motion monitor operably coupled to the first and second cameras to determine location of the power tool in the work environment based on a comparison of a reference point on the tool to a position of reference points on the reference plate , wherein the motion monitor is configured to monitor the location of the power tool relative to a movement zone defining a volume in three dimensional space.
A blotting membrane holder for conducting immunoassays, comprising a frame and a non-woven polypropylene mesh as a solid support, wherein the frame has a perimeter edge and is configured to support a blotting membrane , and a flow distributor is attached to the frame , and wherein a sheet of paper is laminated to one side of said polypropylene mesh, wherein the polypropylene mesh is bound to the frame along one edge, wherein, when the blotting membrane holder is closed, a blotting membrane is to be sandwiched between the non-woven polypropylene mesh and the flow distributor . wherein the frame has a perimeter edge and is configured to support a blotting membrane , and a flow distributor is attached to the frame , and wherein a sheet of paper is laminated to one side of said polypropylene mesh, wherein the polypropylene mesh is bound to the frame along one edge, wherein, when the blotting membrane holder is closed, a blotting membrane is to be sandwiched between the non-woven polypropylene mesh and the flow distributor .
An array for molecule detection using arrayed imaging reflectometry (AIR) on an arrayed imaging reflectometry (AIR) sensor chip , using a competitive inhibition style immunoassay, wherein the arrayed imaging reflectometry chip has an antireflective surface, the array comprising: a probe comprising a target molecule , printed on a surface of the sensor chip wherein the target molecule is conjugated to a linker or bound to a carrier protein ; and a blocking agent, the blocking agent providing a thickening layer on the surface of the AIR sensor chip and creating an inert surface that is not prone to proteins or other molecules non-specifically binding to the AIR sensor chip surface; the AIR sensor chip being configured such that when the AIR sensor chip is contacted with a sample solution comprising the target molecule and an antibody , that specifically binds to the target molecule , a portion of the antibody binds to the probe. a probe comprising a target molecule , printed on a surface of the sensor chip wherein the target molecule is conjugated to a linker or bound to a carrier protein ; and a blocking agent, the blocking agent providing a thickening layer on the surface of the AIR sensor chip and creating an inert surface that is not prone to proteins or other molecules non-specifically binding to the AIR sensor chip surface; the AIR sensor chip being configured such that when the AIR sensor chip is contacted with a sample solution comprising the target molecule and an antibody , that specifically binds to the target molecule , a portion of the antibody binds to the probe.
A plug processing device comprising: a rotating motor ; a first plug chuck configured to grip a plug ; and a second plug chuck positioned above the first plug chuck , wherein the first plug chuck includes at least two or more first supports configured to grip the plug from a plurality of directions, the second plug chuck includes a second support arranged in a radial direction of the plug , the second support having an inclined lower end surface, and the second plug chuck is rotated so as to perform plug opening or plug closing of the plug with respect to a container , the first plug chuck is configured such that each of the first supports are rotatable by the rotating motor . a rotating motor ; a first plug chuck configured to grip a plug ; and a second plug chuck positioned above the first plug chuck , wherein the first plug chuck includes at least two or more first supports configured to grip the plug from a plurality of directions, the second plug chuck includes a second support arranged in a radial direction of the plug , the second support having an inclined lower end surface, and the second plug chuck is rotated so as to perform plug opening or plug closing of the plug with respect to a container , the first plug chuck is configured such that each of the first supports are rotatable by the rotating motor .
A method for wireless communication at a user equipment, UE, comprising: identifying a tone satisfying an impairment value, wherein the identified tone is a tone satisfying a signal-to-noise ratio, SNR, threshold, a tone satisfying an interference level threshold, or a combination thereof; selecting configuration information for communicating with a base station based at least in part on the identified tone; selectively transmitting a signal to the base station indicating the configuration information; and receiving a configuration signal from the base station indicating a reference signal tone pattern for communicating reference signals between the UE and the base station . identifying a tone satisfying an impairment value, wherein the identified tone is a tone satisfying a signal-to-noise ratio, SNR, threshold, a tone satisfying an interference level threshold, or a combination thereof; selecting configuration information for communicating with a base station based at least in part on the identified tone; selectively transmitting a signal to the base station indicating the configuration information; and receiving a configuration signal from the base station indicating a reference signal tone pattern for communicating reference signals between the UE and the base station .
A roll film shredding device comprising: a support frame ; an object-to-be-shredded introducing member coupled to the support frame ; an object-to-be-shredded twisting unit rotatably installed to the object-to-be-shredded introducing member and performing a twisting operation for an object to be shredded; a rotary driver driving the object-to-be-shredded twisting unit to rotate and perform the twisting operation; and a cutter cutting the object twisted by the object-to-be-shredded twisting unit . a support frame ; an object-to-be-shredded introducing member coupled to the support frame ; an object-to-be-shredded twisting unit rotatably installed to the object-to-be-shredded introducing member and performing a twisting operation for an object to be shredded; a rotary driver driving the object-to-be-shredded twisting unit to rotate and perform the twisting operation; and a cutter cutting the object twisted by the object-to-be-shredded twisting unit .
A cleaner comprising: a suction inlet configured to guide air into the cleaner; a dust separation unit comprising: a first cyclone unit configured to separate dust from the air that is suctioned into the cleaner through the suction inlet ; and a second cyclone unit configured to separate dust from air that is discharged from the first cyclone unit ; a suction motor configured to drive a rotation of a rotary impeller via an impeller shaft to generate a suction force that suctions air into the cleaner through the suction inlet ; a motor housing that is configured to house the suction motor ; a main body that is configured to accommodate the motor housing , and that has a first upper opening that provides access to an interior of the cleaner; a pre-filter that is configured to filter air that is discharged from the second cyclone unit and before the air enters the motor housing ; characterized in that the pre-filter is configured to be inserted into the main body through the first upper opening; and a filter unit that is configured to be coupled to the main body to close the first upper opening of the main body , and that is configured to filter air that is discharged from the suction motor , wherein in a state of being coupled to the main body , the filter unit is configured to apply pressure to the pre-filter to prevent movement of the pre-filter by the filter unit . a suction inlet configured to guide air into the cleaner; a dust separation unit comprising: a first cyclone unit configured to separate dust from the air that is suctioned into the cleaner through the suction inlet ; and a second cyclone unit configured to separate dust from air that is discharged from the first cyclone unit ; a first cyclone unit configured to separate dust from the air that is suctioned into the cleaner through the suction inlet ; and a second cyclone unit configured to separate dust from air that is discharged from the first cyclone unit ; a suction motor configured to drive a rotation of a rotary impeller via an impeller shaft to generate a suction force that suctions air into the cleaner through the suction inlet ; a motor housing that is configured to house the suction motor ; a main body that is configured to accommodate the motor housing , and that has a first upper opening that provides access to an interior of the cleaner; a pre-filter that is configured to filter air that is discharged from the second cyclone unit and before the air enters the motor housing ; characterized in that the pre-filter is configured to be inserted into the main body through the first upper opening; and a filter unit that is configured to be coupled to the main body to close the first upper opening of the main body , and that is configured to filter air that is discharged from the suction motor , wherein in a state of being coupled to the main body , the filter unit is configured to apply pressure to the pre-filter to prevent movement of the pre-filter by the filter unit .
A device for processing of flat elements, especially for the processing of paper cuttings, comprising: a transport device and a laser for cutting the flat elements, wherein the transport device comprises a conveyor belt that is guided over a first pulley and a second pulley , said conveyor belt being made of metal and being permeable to air, wherein the upper section of this belt forms the transport section and its lower section forms the return section , and wherein the laser is located above the transport section , characterized in that the conveyor belt consists of an expanded metal. a transport device and a laser for cutting the flat elements, wherein the transport device comprises a conveyor belt that is guided over a first pulley and a second pulley , said conveyor belt being made of metal and being permeable to air, wherein the upper section of this belt forms the transport section and its lower section forms the return section , and wherein the laser is located above the transport section , characterized in that the conveyor belt consists of an expanded metal.
Rotor blade of a wind turbine, wherein the rotor blade comprises an airfoil portion with a cavity delimited by a first side and a second side, wherein - the rotor blade comprises a first structural element , which is rigidly connected to the inner surface of the first side, - the rotor blade comprises a second structural element , which is movably connected to the inner surface of the second side, - the first and the second structural element are movably connected to each other, and - the first side and the second side are configured such that the respective shapes are passive modifiable depending on a movement of the second structural element relative to the first structural element , wherein the second structural element is attached to the inner surface of the second side in such a manner that it is able to perform a pivoting movement, wherein due to the movement of the second structural element relative to the first structural element , the camber of the rotor blade is reduced when the load on the airfoil portion of the rotor blade is increased. wherein the rotor blade comprises an airfoil portion with a cavity delimited by a first side and a second side, wherein - the rotor blade comprises a first structural element , which is rigidly connected to the inner surface of the first side, - the rotor blade comprises a second structural element , which is movably connected to the inner surface of the second side, - the first and the second structural element are movably connected to each other, and - the first side and the second side are configured such that the respective shapes are passive modifiable depending on a movement of the second structural element relative to the first structural element , wherein - the rotor blade comprises a first structural element , which is rigidly connected to the inner surface of the first side, - the rotor blade comprises a second structural element , which is movably connected to the inner surface of the second side, - the first and the second structural element are movably connected to each other, and - the first side and the second side are configured such that the respective shapes are passive modifiable depending on a movement of the second structural element relative to the first structural element , wherein the second structural element is attached to the inner surface of the second side in such a manner that it is able to perform a pivoting movement, wherein due to the movement of the second structural element relative to the first structural element , the camber of the rotor blade is reduced when the load on the airfoil portion of the rotor blade is increased.