mhurhangee/ep-ind-claims huggingface dataset:
AC Capacitor, comprising: at least one capacitor body having conductive and dielectric film windings and wherein an edge of the conductive film windings defines a plane normal to a concentric axis of the windings forming at least one capacitor body contact surface; two electrodes having at least one electrode contact surface, wherein each of the electrodes comprises a rim wherein the AC capacitor further comprises a housing operative to apply compressive force operative to bind the capacitor body contact surface and the electrodes contact surface together so as to maintain uniform electrical and thermal conductive contact throughout a plane parallel to and between the electrode contact surface and capacitor body contact surface, wherein the electrodes are located at opposite sides of the capacitor body. characterized in that, the compressive force applied by the housing to bind the capacitor body and the electrodes is applied concurrently to rims of each of the electrodes. at least one capacitor body having conductive and dielectric film windings and wherein an edge of the conductive film windings defines a plane normal to a concentric axis of the windings forming at least one capacitor body contact surface; two electrodes having at least one electrode contact surface, wherein each of the electrodes comprises a rim wherein the AC capacitor further comprises a housing operative to apply compressive force operative to bind the capacitor body contact surface and the electrodes contact surface together so as to maintain uniform electrical and thermal conductive contact throughout a plane parallel to and between the electrode contact surface and capacitor body contact surface, wherein the electrodes are located at opposite sides of the capacitor body.
A convertible roof element (1a, 1b) comprising a peripheral structure with an opening to be closed, a membrane, an edge rope and at least one guide rope forming a rope band, wherein the edge rope and the rope band are tensioned against each other, wherein the roof element (1a, 1b) has a parking position and at least one shading position, wherein the parking position runs along the peripheral structure and the shading position runs across the opening of the peripheral structure, wherein the edge rope is fixed at its ends via a first tensioning device to two fixing regions of the peripheral structure arranged at a certain distance from each other, wherein the guide rope is secured between the two fixing regions on the edge rope and by means of a further tensioning device to the peripheral structure, wherein the tensile force of the first clamping device and/or the further tensioning device is variable so that the edge rope is moveable from the parking position into the shading position, and wherein the membrane in the shading position is at least partially folded up, is fixed at at least one connection point of the edge rope and covers part of the opening of the peripheral structure.
Device for forming a tubular workpiece having - a machine bed, - a headstock supported on the machine bed, - a spinning mandrel supported on the headstock for receiving the tubular workpiece, - a clamping chuck supported on the headstock for clamping a first axial end of the tubular workpiece and - at least one forming roller for forming the tubular workpiece arranged around the spinning mandrel, - a tailstock, on which a receiving part for receiving and holding the second axial end of the tubular workpiece is provided, characterized in that the tailstock is supported in an axially displaceable manner on the machine bed. - a machine bed, - a headstock supported on the machine bed, - a spinning mandrel supported on the headstock for receiving the tubular workpiece, - a clamping chuck supported on the headstock for clamping a first axial end of the tubular workpiece and - at least one forming roller for forming the tubular workpiece arranged around the spinning mandrel, - a tailstock, on which a receiving part for receiving and holding the second axial end of the tubular workpiece is provided,
A microbubble reducer for removing bubbles of gas from a flow comprising non-Newtonian fluid, wherein the microbubble reducer comprises an inlet at a low point, a curved duct means comprising a gas outlet at a high point, an outlet at a low point, and a lumen that runs through said inlet, said curved duct means, said gas outlet, and said outlet, wherein the lumen of the inlet has an increasing cross-sectional area in the direction towards the curved duct means, wherein the lumen of the inlet has a length of at least 2 cm, characterized in that the lumen of the inlet is arranged with an angle of between 35° and 55° relative a horizontal plane, and said lumen of the inlet comprises three sequentially arranged segments (1, 2, 3) with different but constant intra-segment cross-sectional areas, wherein the first segment is the segment wherein said fluid enters the microbubble reducer, the second segment is arranged between the first and third segments, and the third segment is arranged between the second segment and the curved duct means, and wherein the cross-sectional area of the first segment is smaller than the cross-sectional area of the second segment, and the second segment has smaller cross-sectional area than the third segment. wherein the lumen of the inlet has an increasing cross-sectional area in the direction towards the curved duct means, wherein the lumen of the inlet has a length of at least 2 cm,
A mirror with an image display function comprising, in this order: a transmission type liquid crystal display device which emits linearly polarized light to form an image; a 1/4 wavelength plate; a circular polarization reflection layer; and a front surface plate made of glass or plastic, wherein the circular polarization reflection layer includes a cholesteric liquid crystal layer, and the cholesteric liquid crystal layer has a central wavelength of selective reflection in a visible light region, wherein the cholesteric liquid crystal layer and the 1/4 wavelength plate are in direct contact with each other, and the 1/4 wavelength plate is a layer formed by curing a composition containing a polymerizable liquid crystal compound, wherein the circular polarization reflection layer includes three or more cholesteric liquid crystal layers, and the three or more cholesteric liquid crystal layers have different central wavelengths of selective reflection, wherein the circular polarization reflection layer includes a cholesteric liquid crystal layer having a central wavelength of selective reflection in a red light wavelength region, a cholesteric liquid crystal layer having a central wavelength of selective reflection in a green light wavelength region, and a cholesteric liquid crystal layer having a central wavelength of selective reflection in a blue light wavelength region, and wherein in the circular polarization reflection layer, a cholesteric liquid crystal layer having a longer central wavelength of selective reflection is disposed closer to the image display device. a transmission type liquid crystal display device which emits linearly polarized light to form an image; a 1/4 wavelength plate; a circular polarization reflection layer; and a front surface plate made of glass or plastic, wherein the circular polarization reflection layer includes a cholesteric liquid crystal layer, and the cholesteric liquid crystal layer has a central wavelength of selective reflection in a visible light region, wherein the cholesteric liquid crystal layer and the 1/4 wavelength plate are in direct contact with each other, and the 1/4 wavelength plate is a layer formed by curing a composition containing a polymerizable liquid crystal compound, wherein the circular polarization reflection layer includes three or more cholesteric liquid crystal layers, and the three or more cholesteric liquid crystal layers have different central wavelengths of selective reflection, wherein the circular polarization reflection layer includes a cholesteric liquid crystal layer having a central wavelength of selective reflection in a red light wavelength region, a cholesteric liquid crystal layer having a central wavelength of selective reflection in a green light wavelength region, and a cholesteric liquid crystal layer having a central wavelength of selective reflection in a blue light wavelength region, and wherein in the circular polarization reflection layer, a cholesteric liquid crystal layer having a longer central wavelength of selective reflection is disposed closer to the image display device.
A sensing module comprising: a substrate; a sensing electrode disposed on the substrate; a reaction layer disposed on the substrate and burying the substrate and the sensing electrode, characterized by further comprising: a driving unit disposed below the substrate electrically connected to the sensing electrode, a via formed through the substrate, one end thereof is connected to the sensing electrode, and the other end thereof is connected to the driving unit; and a protective layer formed surrounding the substrate, the reaction layer, and the driving unit, wherein the reaction layer comprises a carbon micro-coil, a resin and a dispersant, wherein an impedance value of the reaction layer is changed by an external contact material, and wherein the sensing electrode provides a sensing signal corresponding to the impedance value to the driving unit. a substrate; a sensing electrode disposed on the substrate; a reaction layer disposed on the substrate and burying the substrate and the sensing electrode, characterized by further comprising: a driving unit disposed below the substrate electrically connected to the sensing electrode, a via formed through the substrate, one end thereof is connected to the sensing electrode, and the other end thereof is connected to the driving unit; and a protective layer formed surrounding the substrate, the reaction layer, and the driving unit, a driving unit disposed below the substrate electrically connected to the sensing electrode, a via formed through the substrate, one end thereof is connected to the sensing electrode, and the other end thereof is connected to the driving unit; and a protective layer formed surrounding the substrate, the reaction layer, and the driving unit, wherein the reaction layer comprises a carbon micro-coil, a resin and a dispersant, wherein an impedance value of the reaction layer is changed by an external contact material, and wherein the sensing electrode provides a sensing signal corresponding to the impedance value to the driving unit.
A population of lymphocyte-targeting liposomes for use in a therapeutic method in a subject, wherein the population comprises (a) lymphocyte-targeting liposomes comprising a lymphocyte specific ligand, wherein the lymphocyte specific ligand is a cytokine that stimulates lymphocytes; and (b) lymphocyte-targeting liposomes comprising an antibody or antibody fragment that binds to CD137, CTLA-4 or PD-1; and wherein said population of lymphocyte-targeting liposomes is administered to the subject in need thereof by repeated systemic administration.
A method for executing instructions in a central processing unit, CPU, comprising: forming, from a current thread queue an instruction block and transmitting the instruction block to a CPU execution unit for execution, wherein the instruction block contains one jump instruction, and the jump instruction is a last instruction in the instruction block; replenishing the current thread queue with at least one instruction to form a thread queue to be executed; suspending renaming and allocation of executable resources for subsequent instructions in the thread queue to be executed before determining a target instruction of the jump instruction according to an execution result of the CPU execution unit; determining whether the target instruction is contained in the thread queue to be executed; if the target instruction is not contained in the thread queue to be executed, flushing the thread queue to be executed, obtaining the target instruction and adding the target instruction to the thread queue to be executed; and executing the thread queue to be executed by a respective execution unit of the CPU. forming, from a current thread queue an instruction block and transmitting the instruction block to a CPU execution unit for execution, wherein the instruction block contains one jump instruction, and the jump instruction is a last instruction in the instruction block; replenishing the current thread queue with at least one instruction to form a thread queue to be executed; suspending renaming and allocation of executable resources for subsequent instructions in the thread queue to be executed before determining a target instruction of the jump instruction according to an execution result of the CPU execution unit; determining whether the target instruction is contained in the thread queue to be executed; if the target instruction is not contained in the thread queue to be executed, flushing the thread queue to be executed, obtaining the target instruction and adding the target instruction to the thread queue to be executed; and executing the thread queue to be executed by a respective execution unit of the CPU.
Device for measuring an environment by means of time of flight measurement of a laser beam, in particular a pulsed laser beam, reflected thereon, comprising: a beam deflection device with at least three mirror facets (15 j) which are rotatably mounted for joint rotation about an axis of rotation that is non-perpendicular to the mirror facets (15 j), a laser transmitter for transmitting the laser beam via a first path (W 1) onto a respective one of the mirror facets (15 j) during their rotation, and a laser receiver for receiving the laser beam reflected on the environment and received back via this mirror facet (15 j), wherein an optical switch is arranged between the laser transmitter and the beam deflection device for clocked switching of the laser beam between the first path (W 1) and a second path (W 2) directed at a respective other one of the mirror facets (15 j), wherein the switching clock of the optical switch is synchronized with the rotation of the mirror facets (15 j), wherein the laser receiver is also configured to receive the laser beam reflected on the environment and received back via said other mirror facet (15 j), characterized in that the beam deflection device comprises a mirror prism whose prism axis is the axis of rotation and whose prism side faces form all the mirror facets (15 j) of the beam deflection device. a beam deflection device with at least three mirror facets (15 j) which are rotatably mounted for joint rotation about an axis of rotation that is non-perpendicular to the mirror facets (15 j), a laser transmitter for transmitting the laser beam via a first path (W 1) onto a respective one of the mirror facets (15 j) during their rotation, and a laser receiver for receiving the laser beam reflected on the environment and received back via this mirror facet (15 j), wherein an optical switch is arranged between the laser transmitter and the beam deflection device for clocked switching of the laser beam between the first path (W 1) and a second path (W 2) directed at a respective other one of the mirror facets (15 j), wherein the switching clock of the optical switch is synchronized with the rotation of the mirror facets (15 j), wherein the laser receiver is also configured to receive the laser beam reflected on the environment and received back via said other mirror facet (15 j), characterized in that the beam deflection device comprises a mirror prism whose prism axis is the axis of rotation and whose prism side faces form all the mirror facets (15 j) of the beam deflection device.
Method by means of which packaging holders which are formed in a main packaging body moved in a conveying direction are filled with products, the method comprising the following steps: - supplying a pushing-in unit, which has a pushing-in device for pushing products into the packaging holders and also a mechanical testing system for testing the arrangement and orientation of the products, - prepositioning the products in openings of the packaging holders, - actuating the mechanical testing system for testing the arrangement and orientation of the products in the openings of the packaging holders, the method being characterized by the following steps: - actuating the pushing-in device and pushing the products into the packaging holders when the testing step has established that the arrangement and orientation of the products is correct, and - breaking off the filling operation when the testing step has established that the arrangement or orientation of at least one of the products is incorrect. - supplying a pushing-in unit, which has a pushing-in device for pushing products into the packaging holders and also a mechanical testing system for testing the arrangement and orientation of the products, - prepositioning the products in openings of the packaging holders, - actuating the mechanical testing system for testing the arrangement and orientation of the products in the openings of the packaging holders, the method being characterized by the following steps: - actuating the pushing-in device and pushing the products into the packaging holders when the testing step has established that the arrangement and orientation of the products is correct, and - breaking off the filling operation when the testing step has established that the arrangement or orientation of at least one of the products is incorrect.
A method of forming a charged particle beam image of a sample, comprising: scanning (426, 608, 628, 650) a charged particle beam (518, 543) over a sample (106, 522) surface, the charged particle beam causing the emission of secondary electrons to produce secondary electron signals at points along the scan; amplifying the secondary electron signals by accelerating the secondary electrons through a region (104, 526) including a gas, the secondary electrons initiating an ionization cascade of the gas; detecting the amplified secondary electron signals; and forming (608, 628, 650) an image of the sample from the amplified secondary electron signals; characterized in that: the gas comprises CH 3 CH 2 OH. scanning (426, 608, 628, 650) a charged particle beam (518, 543) over a sample (106, 522) surface, the charged particle beam causing the emission of secondary electrons to produce secondary electron signals at points along the scan; amplifying the secondary electron signals by accelerating the secondary electrons through a region (104, 526) including a gas, the secondary electrons initiating an ionization cascade of the gas; detecting the amplified secondary electron signals; and forming (608, 628, 650) an image of the sample from the amplified secondary electron signals; characterized in that: the gas comprises CH 3 CH 2 OH. the gas comprises CH 3 CH 2 OH.
Solenoid valve for controlling fluids, comprising: - a closing element which opens and closes at least one outlet opening on a valve seat, - a magnetic circuit with an armature, an inner pole and a magnetic return path, and - a coil, - the armature interacting with the closing element, - the magnetic circuit comprising a non-magnetic separating element for interrupting the magnetic circuit, and - at least one magnetic web (13; 23) which runs in the axial direction (X-X) of the valve being arranged on the non-magnetic separating element, characterized in that a multiplicity of magnetic webs (13; 23) and the non-magnetic separating element have a form of a cylindrical sleeve with a constant internal diameter, or in that the magnetic webs project radially to the inside from a cylindrical, non-magnetic separating element, the non-magnetic separating element forming the sleeve, and the magnetic webs being arranged radially within the non-magnetic separating element, and it holding true in each case that the magnetic webs (13; 23) close the magnetic circuit on the non-magnetic separating element. - a closing element which opens and closes at least one outlet opening on a valve seat, - a magnetic circuit with an armature, an inner pole and a magnetic return path, and - a coil, - the armature interacting with the closing element, - the magnetic circuit comprising a non-magnetic separating element for interrupting the magnetic circuit, and - at least one magnetic web (13; 23) which runs in the axial direction (X-X) of the valve being arranged on the non-magnetic separating element,
A method of fabricating a mold that has an inverted moth-eye structure in its surface, the inverted moth-eye structure having a plurality of recessed portions whose two-dimensional size viewed in a direction normal to the surface is not less than 50 nm and less than 500 nm, the method comprising the steps of: (a) anodizing a surface of an aluminum base to form a porous alumina layer which has a plurality of minute recessed portions; (b) after step (a), bringing the porous alumina layer into contact with an etching solution, wherein the type of the etching solution, the concentration of the etching solution and the etching duration are selected such that the plurality of minute recessed portions of the porous alumina layer is enlarged; and (c) after step (b), further anodizing the surface of the aluminum base to grow the plurality of minute recessed portions, wherein a voltage applied in step (c) is higher than a voltage applied in step (a), and wherein, after step (c), step (b) and step (c) are further performed. (a) anodizing a surface of an aluminum base to form a porous alumina layer which has a plurality of minute recessed portions; (b) after step (a), bringing the porous alumina layer into contact with an etching solution, wherein the type of the etching solution, the concentration of the etching solution and the etching duration are selected such that the plurality of minute recessed portions of the porous alumina layer is enlarged; and (c) after step (b), further anodizing the surface of the aluminum base to grow the plurality of minute recessed portions,
A first interfacing device for use in a home automation system, the first interfacing device comprising: a communication module configured to receive a device configuration of the first interfacing device to perform an action, wherein the rule includes a description of the action and a condition for performing that action; a rule repository for storing the rule; a source-determining module configured to identify a second sensor of a physical device coupled to a remote second interfacing device; a data-subscription module configured to subscribe via a network connection to the second interfacing device for the second sensor data; in response to determining that processing the rule requires the second sensor data, obtaining the second sensor data; wherein the first interfacing device is adapted, upon reception of the device configuration, to configure itself to perform the action upon determining that the first and second sensor data fulfil the condition. a communication module configured to receive a device configuration of the first interfacing device to perform an action, wherein the rule includes a description of the action and a condition for performing that action; a rule repository for storing the rule; a source-determining module configured to identify a second sensor of a physical device coupled to a remote second interfacing device; a data-subscription module configured to subscribe via a network connection to the second interfacing device for the second sensor data; in response to determining that processing the rule requires the second sensor data, obtaining the second sensor data; wherein the first interfacing device is adapted, upon reception of the device configuration, to configure itself to perform the action upon determining that the first and second sensor data fulfil the condition.