mhurhangee/patent-ind-claim-en huggingface dataset:
A connector with a tolerance module, comprising a socket and a plug adapted to the socket , the socket comprising a first housing , the plug comprising a tolerance module and a third housing , the tolerance module comprising a second housing , the second housing being internally provided with second contact members , the second housing is movably arranged on the third housing in a direction perpendicular to an axial direction of the connector, and the second contact member is floatingly assembled in the second housing to enable displacement in the direction perpendicular to the axial direction of the connector; the second contact members are provided with a stopping boss , characterized in that the second housing comprises a limiting seat disposed on one side of the stopping boss away from the third housing , a supporting seat is disposed on one side of the stopping boss away from the limiting seat, through holes for allowing the second contact members to pass through in a floating manner are formed in the limiting seat and the supporting seat, and the stopping boss is limited between the limiting seat and the supporting seat, the supporting seat and the limiting seat are separately arranged, an axially floating space is formed between the supporting seat and the third housing, elastic supporting members are arranged between the supporting seat and the third housing , and the supporting seat is elastically supported on the stopping boss of the second contact members by means of the elastic supporting members , the elastic supporting members are elastic pieces uniformly fixed on the supporting seat, one side of the supporting seat close to the third housing is provided with elastic member accommodating grooves for partially embedding the elastic supporting members.
A method for setting an operating mode and/or associate result values of an electric tool, the method comprising the steps of: - detecting (S100) at least one radio signal from at least one radio tag positioned on or in relation to an object to be processed, wherein the radio tag comprising an identifier associated with the object ; - measuring (S110) distances between the electric tool and the at least one radio tag based on radio signal time of flight between the electric tool and the at least one radio tag ; - selecting (S120) a first radio tag based on the distances, the first radio tag comprising a first identifier ; and - setting (S130) an operating mode of the electric tool based on the first identifier and/or associate result values of the processing steps performed by the electric tool with the first identifier . - detecting (S100) at least one radio signal from at least one radio tag positioned on or in relation to an object to be processed, wherein the radio tag comprising an identifier associated with the object ; - measuring (S110) distances between the electric tool and the at least one radio tag based on radio signal time of flight between the electric tool and the at least one radio tag ; - selecting (S120) a first radio tag based on the distances, the first radio tag comprising a first identifier ; and - setting (S130) an operating mode of the electric tool based on the first identifier and/or associate result values of the processing steps performed by the electric tool with the first identifier .
A cover for an electronic device , comprising: a seamless fabric tube having opposing interior and exterior surfaces that surround a longitudinal axis; a spacer fabric that lines the interior surface of the seamless fabric tube ; and an adhesive material interposed between the seamless fabric tube and the spacer fabric . a seamless fabric tube having opposing interior and exterior surfaces that surround a longitudinal axis; a spacer fabric that lines the interior surface of the seamless fabric tube ; and an adhesive material interposed between the seamless fabric tube and the spacer fabric .
Process for making a partially coated electrode active material wherein said process comprises the following steps: (a) Providing an electrode active material according to general formula Li 1+x TM 1-x O 2 , wherein TM is selected from Ni and, optionally, at least one of Co and Mn, and, optionally, at least one element selected from Al, Mg, and Ba, transition metals other than Ni, Co, and Mn, and x is in the range of from zero to 0.2, wherein at least 50 mole-% of the transition metal of TM is Ni, (b) treating said electrode active material with an aqueous medium, (c) partially removing water by solid-liquid separation method, (d) treating the solid residue with an aqueous formulation of at least one heteropoly acid or its respective ammonium or lithium salt, (e) treating the residue thermally. (a) Providing an electrode active material according to general formula Li 1+x TM 1-x O 2 , wherein TM is selected from Ni and, optionally, at least one of Co and Mn, and, optionally, at least one element selected from Al, Mg, and Ba, transition metals other than Ni, Co, and Mn, and x is in the range of from zero to 0.2, wherein at least 50 mole-% of the transition metal of TM is Ni, (b) treating said electrode active material with an aqueous medium, (c) partially removing water by solid-liquid separation method, (d) treating the solid residue with an aqueous formulation of at least one heteropoly acid or its respective ammonium or lithium salt, (e) treating the residue thermally.
Multi-selector valve comprising a valve body , a plurality of inlet fittings , configured to be in connection with respective supply lines coming from multiple wells and positioned between them at various distances, a first discharge connector and a second discharge connector for carrying out tests, wherein - in said multi-selector valve , the sealing between a selector element and each inlet fitting is made by means of a conical-spherical sealing, and - the conical-spherical sealing is made between a conical surface of a sealing seat and a spherical surface of the selector element , wherein the conical-spherical sealing between the conical surface of sealing seat and the spherical surface of the selector element is ensured by a plurality of elastic means , said multi-selector valve being characterized in that each plurality of elastic means is present on each inlet fitting , so as to ensure a simultaneous sealing of all supply lines . - in said multi-selector valve , the sealing between a selector element and each inlet fitting is made by means of a conical-spherical sealing, and - the conical-spherical sealing is made between a conical surface of a sealing seat and a spherical surface of the selector element ,
An electromagnetic positioning device having an anchor unit , which is moveable in an axial direction around a movement stroke relative to a stationary core unit and in reaction to a spool unit being energized using an operating current and which, on one end, magnetically interacts with the core unit via a control area overlapping axially along the movement stroke at least in sections, said control area comprising a first profile section as a section of the anchor unit and, as a section of the core unit, a second profile section having an air gap realized therebetween and realizing an expansion perpendicular to the axial direction, a cross section of the first and of the second profile section, which is flow-effective for a magnetic flow of the energization using the operating current flowing via the air gap, being realized such that in response to a reduction of the air-gap expansion caused by the anchor unit being tilted and/or deflected from the axial direction, a magnetic flow resistance of the first and/or the second profile section increases in the area of the reduction via magnetic saturation and a force opposing the tilt or the deflection acts on the anchor unit , the anchor unit comprising a conical inner annular ledge for realizing the first profile section, characterized in that the anchor unit forms a further circumferential annular ledge towards the core unit on the exterior.
A medical optical connector for reversibly connecting two associated optical fibers for use in medical interventions, comprising: - a fiber carrying unit for inserting an end portion of at least one of the associated optical fibers , and - an optical arrangement for interacting with a light beam from one of the associated optical fibers and conducting the light beam to the other one of the associated optical fibers in a connected state of the medical optical connector, the optical arrangement comprising at least two gradient index elements and an additional optical element arranged between the at least two gradient index elements, characterized in that the additional optical element is replaceable and provides for a sterility barrier between the associated fibers , wherein the additional optical element comprises a glass plate , a membrane and/or a prism . - a fiber carrying unit for inserting an end portion of at least one of the associated optical fibers , and - an optical arrangement for interacting with a light beam from one of the associated optical fibers and conducting the light beam to the other one of the associated optical fibers in a connected state of the medical optical connector, the optical arrangement comprising at least two gradient index elements and an additional optical element arranged between the at least two gradient index elements,
A composition comprising a TLR5 agonist, one or more antigens and a first plurality of particles to which the TLR5 agonist and the one or more antigens are attached through non-covalent interactions, said one or more antigens and said TLR5 agonist being at a ratio which increases immunogenicity to the one or more antigens and decreases reactogenicity to the TLR5 agonist, wherein the ratio of the TLR5 agonist to the antigen is less than 1:2 on a weight to weight basis.
A method for producing a strip of three-dimensional decorative piece of thermoplastic synthetic resin, the method comprising: a step of feeding a decorative strip material having three layers of a lower layer , layer, an upper layer on the lower layer, and a protective retention layer on the upper layer, wherein the lower layer is a sheet of thermoplastic synthetic resin, the upper layer is a film of thermoplastic synthetic resin, and the protective retention layer is not fusion-cut by the heat of a high frequency; a step of preheating the decorative strip material to soften the strip material with heat, wherein the preheating step comprises softening the decorative strip material between an upper heating roll and a lower heating roll that are arranged facing each other vertically and are configured to rotate synchronously with each other; a step of shaping the decorative strip material into a strip of three-dimensional decorative piece by continuously oscillating a high-frequency in between a rotatable upper electrode roll die and a rotatable lower electrode roll die and applying high-frequency dielectric heat to the decorative strip material between the upper and lower electrode roll dies; a step of cooling the shaped strip of three-dimensional decorative piece; and a step of winding up the cooled strip of three-dimensional decorative piece. a step of feeding a decorative strip material having three layers of a lower layer , layer, an upper layer on the lower layer, and a protective retention layer on the upper layer, wherein the lower layer is a sheet of thermoplastic synthetic resin, the upper layer is a film of thermoplastic synthetic resin, and the protective retention layer is not fusion-cut by the heat of a high frequency; a step of preheating the decorative strip material to soften the strip material with heat, wherein the preheating step comprises softening the decorative strip material between an upper heating roll and a lower heating roll that are arranged facing each other vertically and are configured to rotate synchronously with each other; a step of shaping the decorative strip material into a strip of three-dimensional decorative piece by continuously oscillating a high-frequency in between a rotatable upper electrode roll die and a rotatable lower electrode roll die and applying high-frequency dielectric heat to the decorative strip material between the upper and lower electrode roll dies; a step of cooling the shaped strip of three-dimensional decorative piece; and a step of winding up the cooled strip of three-dimensional decorative piece.
A composition for use in a method of treating a bleeding disorder in a mammal, wherein the composition comprises an adeno-associated virus (AAV) vector comprising a VP1, VP2 and VP3 sequence of AAV-Rh74 set forth as SEQ ID NO: 1, 3 and 4 respectively as shown in Figure 3, said vector further comprising a heterologous polynucleotide sequence comprising a gene encoding a blood coagulation (clotting) factor, wherein the heterologous polynucleotide sequence is operably linked to an expression control element conferring transcription of said heterologous polynucleotide sequence wherein the expression control element is a promoter active in liver, and wherein the method comprises administering the adeno-associated virus (AAV) vector to said mammal, thereby delivering or transferring the heterologous polynucleotide sequence into the mammal.
A pharmaceutical composition comprising: (a) multilayer nanoconstructs comprising a cationic polymer bound to an exterior surface of a nanoparticle, wherein the cationic polymer is cross-linked and is from about 5% to about 30% by weight of the nanoconstruct, wherein the nanoparticle comprises silica, silicon, iron oxide, silver, or a carbon nanotube, wherein the nanoconstruct has a hydrodynamic diameter of from 10 to 200 nm, and wherein the multilayer nanoconstruct further comprises a stabilizer bound to the cationic polymer or nanoparticle, wherein the stabilizer prevents aggregation of the nanoconstruct in solution; (b) a therapeutic agent, wherein the therapeutic agent is at least one type of oligonucleotide electrostatically bound to the cationic polymer; and (c) a pharmaceutically acceptable carrier. (a) multilayer nanoconstructs comprising a cationic polymer bound to an exterior surface of a nanoparticle, wherein the cationic polymer is cross-linked and is from about 5% to about 30% by weight of the nanoconstruct, wherein the nanoparticle comprises silica, silicon, iron oxide, silver, or a carbon nanotube, wherein the nanoconstruct has a hydrodynamic diameter of from 10 to 200 nm, and wherein the multilayer nanoconstruct further comprises a stabilizer bound to the cationic polymer or nanoparticle, wherein the stabilizer prevents aggregation of the nanoconstruct in solution; (b) a therapeutic agent, wherein the therapeutic agent is at least one type of oligonucleotide electrostatically bound to the cationic polymer; and (c) a pharmaceutically acceptable carrier.
A wireless charger for inductively charging a rechargeable battery of an implantable pulse generator (IPG) that generates spinal cord stimulation signals for a human body, the wireless charger comprising: a processor; a charging coil which is placed on one side of a printed circuit board, the charging being adapted to be wirelessly coupled to a receiving coil of the implantable pulse generator to charge the rechargeable battery, wherein a ferrite plate is disposed between the charging coil and the printed circuit board; a frequency generator configured to generate a charging signal under control of the processor; a power amplifier configured to receive the charging signal and generate an amplified charging signal under control of the charging signal; a reflected impedance sensor coupled to the charging coil to detect a reflected impedance of the charging coil; a vibrator; and, an alignment circuit coupled to the reflected impedance sensor and the vibrator, the alignment circuit adapted to control the vibrator to output a tactile signal indicative of the alignment of the charging coil to the receiving coil based on the detected reflected impedance, wherein the charging coil is configured to receive the amplified charging signal. a processor; a charging coil which is placed on one side of a printed circuit board, the charging being adapted to be wirelessly coupled to a receiving coil of the implantable pulse generator to charge the rechargeable battery, wherein a ferrite plate is disposed between the charging coil and the printed circuit board; a frequency generator configured to generate a charging signal under control of the processor; a power amplifier configured to receive the charging signal and generate an amplified charging signal under control of the charging signal; a reflected impedance sensor coupled to the charging coil to detect a reflected impedance of the charging coil; a vibrator; and, an alignment circuit coupled to the reflected impedance sensor and the vibrator, the alignment circuit adapted to control the vibrator to output a tactile signal indicative of the alignment of the charging coil to the receiving coil based on the detected reflected impedance, wherein the charging coil is configured to receive the amplified charging signal.
Vehicle headlamp , in particular motor vehicle headlamp, comprising - a vehicle headlamp housing closed by means of a translucent cover lens , - at least one light module arranged inside the vehicle headlamp housing for generating a light distribution in a main radiation direction, and - at least one sensor module arranged inside the vehicle headlamp housing , the at least one sensor module having at least one optical sensor for optical detection of the vehicle headlamp surroundings, the at least one optical sensor being assigned a detection area for this purpose, and the sensor module being arranged in such a way that the vehicle headlamp surroundings are detected through the cover pane , the vehicle headlamp has at least one controllable pivoting means for spatially pivoting the entire detection area of the at least one optical sensor, characterized in that the vehicle headlight has at least one additional optical sensor which is arranged in the vehicle headlight in a positionally fixed and rotationally fixed manner and is arranged in the vehicle headlight in such a way that its detection area is oriented in the main radiation direction of the vehicle. - a vehicle headlamp housing closed by means of a translucent cover lens , - at least one light module arranged inside the vehicle headlamp housing for generating a light distribution in a main radiation direction, and - at least one sensor module arranged inside the vehicle headlamp housing , the at least one sensor module having at least one optical sensor for optical detection of the vehicle headlamp surroundings, the at least one optical sensor being assigned a detection area for this purpose, and the sensor module being arranged in such a way that the vehicle headlamp surroundings are detected through the cover pane , the vehicle headlamp has at least one controllable pivoting means for spatially pivoting the entire detection area of the at least one optical sensor, characterized in that the vehicle headlight has at least one additional optical sensor which is arranged in the vehicle headlight in a positionally fixed and rotationally fixed manner and is arranged in the vehicle headlight in such a way that its detection area is oriented in the main radiation direction of the vehicle.
A rear stop unit for a production plant for air bending or bottom bending of a workpiece to be manufactured from a sheet metal , comprising - a stop finger with at least one first stop element arranged or formed thereon and having a first stop surface , wherein the stop finger comprises a longitudinal extension with a first end region and a second end region arranged at a distance therefrom, - a base rack , with the stop finger being arranged on said base rack , wherein in a first stopping position of the stop finger , its first end region and the first stop surface of the at least one first stop element can face the workpiece to be manufactured, characterized in - that the stop finger further comprises at least one second stop element with a second stop surface , - that a bearing arrangement is provided, said bearing arrangement defining a pivot axis oriented to extend in the horizontal direction as well as in the perpendicular direction with respect to the longitudinal extension of the stop finger and being arranged on the base rack , - that the stop finger with its second end region is mounted pivotably on the base rack by means of the bearing arrangement , - that the stop finger can be pivoted from its first stopping position into a second stopping position about the pivot axis of the bearing arrangement , and - that in the second stopping position, the second stop surface of the at least one second stop element can face the workpiece to be manufactured. - a stop finger with at least one first stop element arranged or formed thereon and having a first stop surface , wherein the stop finger comprises a longitudinal extension with a first end region and a second end region arranged at a distance therefrom, - a base rack , with the stop finger being arranged on said base rack , wherein in a first stopping position of the stop finger , its first end region and the first stop surface of the at least one first stop element can face the workpiece to be manufactured, - that the stop finger further comprises at least one second stop element with a second stop surface , - that a bearing arrangement is provided, said bearing arrangement defining a pivot axis oriented to extend in the horizontal direction as well as in the perpendicular direction with respect to the longitudinal extension of the stop finger and being arranged on the base rack , - that the stop finger with its second end region is mounted pivotably on the base rack by means of the bearing arrangement , - that the stop finger can be pivoted from its first stopping position into a second stopping position about the pivot axis of the bearing arrangement , and - that in the second stopping position, the second stop surface of the at least one second stop element can face the workpiece to be manufactured.
Surface light guide having a radiation exit surface extending along a main extension plane of the surface light guide and having a light guide region which comprises scattering locations and a coating arranged on a first main surface of the light guide region, wherein a radiation coupled along the main extension plane and impinging on the first main surface after scattering at the scattering locations comprises an excessive portion of radiation and the coating selectively reduces an exit of the excessive portion of radiation from the radiation exit surface , wherein the coating reduces a transmission for angles between 20° and 40° for radiation in the red and blue spectral range compared with an untreated interface, and incident radiation exits almost unhindered at an angle between 0° and 15°, and the scattering locations are large compared with a wavelength of the radiation coupled into the surface light guide in the light guide region .