mhurhangee/patent-ind-claim-en huggingface dataset:
A vector signal analyzer, comprising: a radio frequency front end splitting module configured to split a received signal into at least two same signals; an analog signal processing module configured to perform radio frequency/microwave processing and analog-to-digital conversion on each of the signals; and a digital signal processing module configured to concurrently perform a spectrum analysis on the one of the digital signals output by the analog signal processing module and a signal demodulation and analysis on another of the digital signals output by the analog signal processing module ; wherein the analog signal processing module comprises: at least two radio frequency/microwave signal processing sub-modules configured to perform radio frequency/microwave processing respectively on the respective signals; and ADC sub-modules , the number of which is the same as the number of radio frequency/microwave signal processing sub-modules , configured to perform analog-to-digital conversion respectively on signals output by the respective radio frequency/microwave signal processing sub-modules . a radio frequency front end splitting module configured to split a received signal into at least two same signals; an analog signal processing module configured to perform radio frequency/microwave processing and analog-to-digital conversion on each of the signals; and a digital signal processing module configured to concurrently perform a spectrum analysis on the one of the digital signals output by the analog signal processing module and a signal demodulation and analysis on another of the digital signals output by the analog signal processing module ; wherein the analog signal processing module comprises: at least two radio frequency/microwave signal processing sub-modules configured to perform radio frequency/microwave processing respectively on the respective signals; and ADC sub-modules , the number of which is the same as the number of radio frequency/microwave signal processing sub-modules , configured to perform analog-to-digital conversion respectively on signals output by the respective radio frequency/microwave signal processing sub-modules . at least two radio frequency/microwave signal processing sub-modules configured to perform radio frequency/microwave processing respectively on the respective signals; and ADC sub-modules , the number of which is the same as the number of radio frequency/microwave signal processing sub-modules , configured to perform analog-to-digital conversion respectively on signals output by the respective radio frequency/microwave signal processing sub-modules .
A measuring device for metering a non-compressible fluid, characterised in that it comprises: - a first fluid inlet - a second fluid inlet , the downstream side of the first and second fluid inlets being in liquid contact with each other - a storage facility for receiving fluid flowing into the first and second inlets - a first outlet and a second outlet in fluid contact with the storage facility - a first outlet valve providing fluid access to the first outlet , - a second outlet valve providing fluid access to the second outlet , - the first and second fluid outlets being in fluid contact with each other at a downstream connection point, the second fluid outlet having a flowmeter between the second outlet valve and the downstream connection point of the outlets . - a first fluid inlet - a second fluid inlet , the downstream side of the first and second fluid inlets being in liquid contact with each other - a storage facility for receiving fluid flowing into the first and second inlets - a first outlet and a second outlet in fluid contact with the storage facility - a first outlet valve providing fluid access to the first outlet , - a second outlet valve providing fluid access to the second outlet , - the first and second fluid outlets being in fluid contact with each other at a downstream connection point, the second fluid outlet having a flowmeter between the second outlet valve and the downstream connection point of the outlets .
Device for monitoring the unwinding of a thread wound on a spool in a sewing machine , wherein it comprises field generating means which can be attached to the spool in a rotationally fixed manner for generating a contactlessly scannable field , and it comprises the detection means for detecting the contactlessly scannable field , wherein the detection means are designed to pick up changes in the contactlessly scannable field as a function of an angle of rotation of the spool , wherein the detection means comprise a magnetic field sensor , characterised in that the field generating means have a magnet , in particular a permanent magnet, which can be attached to the spool in such a way that its north-south axis is aligned perpendicularly to the axis of symmetry of the spool . and it comprises the detection means for detecting the contactlessly scannable field , wherein the detection means are designed to pick up changes in the contactlessly scannable field as a function of an angle of rotation of the spool , wherein the detection means comprise a magnetic field sensor ,
A method for forming a skin care composition, the method comprising: (a) providing a base oil composition comprising squalane, present in a concentration that is greater than 20 percent by weight based on the total weight of the base oil composition; (b) providing a plurality of booster compositions comprising corresponding active ingredients, the corresponding active ingredients corresponding to treatment skin conditions determined by a consumer, wherein each booster composition comprises squalane present in a concentration that is greater than 20 percent by weight based on the total weight of the booster composition; and (c) mixing the base oil composition comprising squalane and plurality of booster compositions. (a) providing a base oil composition comprising squalane, present in a concentration that is greater than 20 percent by weight based on the total weight of the base oil composition; (b) providing a plurality of booster compositions comprising corresponding active ingredients, the corresponding active ingredients corresponding to treatment skin conditions determined by a consumer, wherein each booster composition comprises squalane present in a concentration that is greater than 20 percent by weight based on the total weight of the booster composition; and (c) mixing the base oil composition comprising squalane and plurality of booster compositions.
A method for making an insertable or implantable medical device including a lubricous coating on a silicone substrate, the method comprising: treating the silicone substrate with an atmospheric plasma at about atmospheric pressure, wherein the atmospheric plasma is formed exclusively from a noble gas; applying a solution directly to the treated silicone substrate, the solution including a thermoplastic polyurethane; and heating the silicone substrate and the applied solution to form the lubricous coating on the silicone substrate. treating the silicone substrate with an atmospheric plasma at about atmospheric pressure, wherein the atmospheric plasma is formed exclusively from a noble gas; applying a solution directly to the treated silicone substrate, the solution including a thermoplastic polyurethane; and heating the silicone substrate and the applied solution to form the lubricous coating on the silicone substrate.
Motor vehicle with an internal combustion engine for driving the motor vehicle and having a low voltage vehicle electrical system , wherein the internal combustion engine is a component of a hybrid drive with an electrical drive motor designed for driving the motor vehicle and wherein at least one electrical low voltage load is connected to the low voltage vehicle electrical system for an electrical supply, wherein an air-conditioning system , which comprises an electric motor , which is designed to drive a compressor of the air-conditioning system in order to compress cooling fluid, wherein a controllable coupling device is designed to mechanically couple the electric motor of the air-conditioning system to the internal combustion engine in dependence on a control signal, and wherein the electric motor is designed to drive the internal combustion engine as an electric starter in the state is coupled to the internal combustion engine for starting the internal combustion engine , wherein the motor vehicle has a high voltage vehicle electrical system , in which an electrical high voltage, which is more than 60 volts, is provided and wherein a control device of the hybrid drive is designed to operate the electrical drive motor of the hybrid drive without a starter reserve, which is needed for generating a mechanical torque to start the internal combustion engine , such that a difference between a maximum drive torque, which can be generated by the electrical drive motor , as intended and an actual drive torque generated by the drive motor for driving the motor vehicle is less than the mechanical torque needed to start the internal combustion engine , wherein if necessary the electrical drive motor , if the internal combustion engine has to be started, does not itself have to apply the mechanical torque for starting the internal combustion engine , but rather this is provided by the electric motor of the air-conditioning system , characterised in that an inverter of the electric motor of the air-conditioning system is designed to operate the electric motor directly with the electrical high voltage of the high voltage vehicle electrical system .
A system for constructing fluoroscopic-based three dimensional volumetric data from two dimensional fluoroscopic images, comprising: a computing device configured to facilitate navigation of a medical device to a target area within a patient (P); and a fluoroscopic imaging device rotatable about the target area and configured to acquire a fluoroscopic video of the target area comprising frames of the target area, the frames being the said two dimensional fluoroscopic images, the frames being captured during at least 30 degrees of rotation of the imaging device about the target area; wherein the computing device is further configured to: determine (309, 311; 411-417; 513, 515) a pose of the fluoroscopic imaging device for each frame of the fluoroscopic video; construct , from the video and the pose determined for each frame of the video, fluoroscopic-based three dimensional volumetric data of the target area using a fast iterative three dimensional construction algorithm; crop a region of interest from the fluoroscopic-based three dimensional volumetric data; project the cropped region of interest onto the captured frames; and sharpen or intensify at least one of the region of interest or the captured frame to identify soft tissue objects. a computing device configured to facilitate navigation of a medical device to a target area within a patient (P); and a fluoroscopic imaging device rotatable about the target area and configured to acquire a fluoroscopic video of the target area comprising frames of the target area, the frames being the said two dimensional fluoroscopic images, the frames being captured during at least 30 degrees of rotation of the imaging device about the target area; wherein the computing device is further configured to: determine (309, 311; 411-417; 513, 515) a pose of the fluoroscopic imaging device for each frame of the fluoroscopic video; construct , from the video and the pose determined for each frame of the video, fluoroscopic-based three dimensional volumetric data of the target area using a fast iterative three dimensional construction algorithm; crop a region of interest from the fluoroscopic-based three dimensional volumetric data; project the cropped region of interest onto the captured frames; and sharpen or intensify at least one of the region of interest or the captured frame to identify soft tissue objects.
A in vitro method of converting a T cell into a cell that exhibits a regulatory T cell phenotype, the method comprising contacting a T cell with a K562 cell modified to comprise an agent capable of activating PD1 signaling in said T cell thereby converting said T cell into a cell that exhibits a regulatory T cell phenotype, wherein said agent is selected from the group consisting of PDL1, PDL2, PD1 ligand, and an anti-PD1 antibody and wherein said T cell is a non-regulatory T cell selected from the group consisting of a CD4 + cell, a CD4 + CD25 - cell, a CD4 + CD25 - 45RA + cell, and any combination thereof, or is selected from the group consisting of a Th1 cell, a Th2 cell, a Th17 cell, and any combination thereof.
A rotor comprising: a rotor core ; and a plurality of first magnets and second magnets disposed along an outer circumferential surface of the rotor core , wherein the second magnets are disposed between the first magnets , the first magnets include an outer circumferential surface , inner circumferential surface , and side surfaces , and the second magnets include an outer circumferential surface , inner circumferential surface , and side surfaces , and a curvature of the outer circumferential surface of the first magnet is greater than a curvature of the outer circumferential surface of the second magnet , wherein: with respect to a thickness which is a distance from an inner circumferential surface of the first magnet to the outer circumferential surface of the first magnet in the radial direction, the thickness of a central portion and the thickness of an end portion are different; the thickness of both end portions of the first magnet are the same; characterized in that a minimum thickness (T1 min ) of the first magnet is less than a minimum thickness (T2 min ) of the second magnet . a rotor core ; and a plurality of first magnets and second magnets disposed along an outer circumferential surface of the rotor core , wherein the second magnets are disposed between the first magnets , the first magnets include an outer circumferential surface , inner circumferential surface , and side surfaces , and the second magnets include an outer circumferential surface , inner circumferential surface , and side surfaces , and a curvature of the outer circumferential surface of the first magnet is greater than a curvature of the outer circumferential surface of the second magnet , wherein: with respect to a thickness which is a distance from an inner circumferential surface of the first magnet to the outer circumferential surface of the first magnet in the radial direction, the thickness of a central portion and the thickness of an end portion are different; the thickness of both end portions of the first magnet are the same; with respect to a thickness which is a distance from an inner circumferential surface of the first magnet to the outer circumferential surface of the first magnet in the radial direction, the thickness of a central portion and the thickness of an end portion are different; the thickness of both end portions of the first magnet are the same; characterized in that a minimum thickness (T1 min ) of the first magnet is less than a minimum thickness (T2 min ) of the second magnet .
Furnace for heating metal strips, comprising a housing , wherein a metal strip is transportable through the housing along a conveying direction (FR), characterised in that a first internal separating device and a second internal separating device are provided within the housing , wherein the second internal separating device is arranged at a spacing from the first internal separating device and downstream from the first internal separating device in the conveying direction (FR) of the metal strip , wherein the internal separating devices are actuable, in particular simultaneously, so as to thereby separate a segment , which is present between the internal separating devices , of the metal strip within the furnace and the housing has a discharge region with an opening , which is formed in a lateral region (S) of the housing or in an upper cover of the housing so that a separated segment of the metal strip can be discharged from the furnace through this opening in a discharge direction (AR) orthogonal to the conveying direction (FR). a housing , wherein a metal strip is transportable through the housing along a conveying direction (FR), characterised in that a first internal separating device and a second internal separating device are provided within the housing , wherein the second internal separating device is arranged at a spacing from the first internal separating device and downstream from the first internal separating device in the conveying direction (FR) of the metal strip , wherein the internal separating devices are actuable, in particular simultaneously, so as to thereby separate a segment , which is present between the internal separating devices , of the metal strip within the furnace and the housing has a discharge region with an opening , which is formed in a lateral region (S) of the housing or in an upper cover of the housing so that a separated segment of the metal strip can be discharged from the furnace through this opening in a discharge direction (AR) orthogonal to the conveying direction (FR).
An apparatus for obfuscating a first power consumption associated with one or more operations of a logic circuitry of a processor, the apparatus comprising: a storage device to store power consumption estimates for operations performed by the logic circuitry; control circuitry configured to determine one or more operations yet to be performed by logic circuitry and anticipate their corresponding power consumption based on the stored power consumption estimates; counterbalance circuitry configured to provide a second power consumption, in response to obtaining power consumption estimates associated with the one or more operations of the logic circuitry from the control circuitry, to directly counterbalance the first power consumption associated with the one or more operations of the logic circuitry , wherein the second power consumption varies inversely with the first power consumption associated with the one or more operations of the logic circuitry ; and header circuitry configured to enable a common node to vary in voltage corresponding to the one or more operations of the logic circuitry. a storage device to store power consumption estimates for operations performed by the logic circuitry; control circuitry configured to determine one or more operations yet to be performed by logic circuitry and anticipate their corresponding power consumption based on the stored power consumption estimates; counterbalance circuitry configured to provide a second power consumption, in response to obtaining power consumption estimates associated with the one or more operations of the logic circuitry from the control circuitry, to directly counterbalance the first power consumption associated with the one or more operations of the logic circuitry , wherein the second power consumption varies inversely with the first power consumption associated with the one or more operations of the logic circuitry ; and header circuitry configured to enable a common node to vary in voltage corresponding to the one or more operations of the logic circuitry.
A method for forming a medical thread structure, comprising the steps of: interlocking a plurality of filaments to form an interlocked thread electrode lead having distal and proximal ends, wherein at least one of said plurality of filaments has a conductive core coated with a nonconductive coating, with the conductive core exposed on the circumferential surface of the interlocked thread electrode lead ; wherein filaments within the interlocked thread electrode lead have both vertical portions and horizontal portions, such that a horizontal portion of a filament is configured to pass between vertical portions of other filaments and lock therewith; integrating a bulk or filaments of functional material between at least part of said plurality of filaments or placing a tube or jacket of functional material around said plurality of filaments; and applying heat to said interlocked thread electrode lead , characterized by thereby causing melting of said functional material to fill gaps in said interlocked thread electrode lead and create a barrier that prevents any pressure or fluidic leakages between distal and proximal sides of the barrier. interlocking a plurality of filaments to form an interlocked thread electrode lead having distal and proximal ends, wherein at least one of said plurality of filaments has a conductive core coated with a nonconductive coating, with the conductive core exposed on the circumferential surface of the interlocked thread electrode lead ; wherein filaments within the interlocked thread electrode lead have both vertical portions and horizontal portions, such that a horizontal portion of a filament is configured to pass between vertical portions of other filaments and lock therewith; integrating a bulk or filaments of functional material between at least part of said plurality of filaments or placing a tube or jacket of functional material around said plurality of filaments; and applying heat to said interlocked thread electrode lead , characterized by thereby causing melting of said functional material to fill gaps in said interlocked thread electrode lead and create a barrier that prevents any pressure or fluidic leakages between distal and proximal sides of the barrier.
A video endoscope (E) with an outer casing tube , wherein a fiber tube for an inner casing tube is accommodated in the outer casing tube , wherein an inner casing tube for an image-forming unit is accommodated in the fiber tube and wherein a heating film surrounding the inner casing tube is provided between the fiber tube and the inner casing tube .
A system for collecting and transporting a fluid sample , comprising: at least one apparatus for generating power or electricity , wherein the at least one apparatus for generating power or electricity comprises a rotatable shaft , one or more other moving parts , and at least one fluid path containing a lubricating fluid , wherein the rotatable shaft , the one or more other moving parts , or both are in fluid communication with the lubricating fluid in the at least one fluid path ; at least one sample container ; at least one valve in fluid communication with the at least one fluid path and in fluid communication with the at least one sample container ; wherein the at least one valve is configured to open and discharge a sample of the lubricating fluid from the at least one fluid path into the at least one sample container ; at least one unmanned aerial vehicle configured to transport the at least one sample container to a location separate from the at least one apparatus for generating power or electricity ; at least one unmanned aerial vehicle station disposed on or about the at least one apparatus for generating power or electricity , the at least one unmanned aerial vehicle station configured to dock or receive the at least one unmanned aerial vehicle ; the system being characterised by further comprising at least one retention and loading mechanism disposed on or adjacent to the at least one apparatus for generating power or electricity , the at least one retention and loading mechanism configured to release the at least one sample container from or move the at least one sample container to or about the at least one unmanned aerial vehicle station .