mhurhangee/patent-ind-claim-en huggingface dataset:
A stator coil , comprising: - a coil conductor ; - a first insulating layer in which a first mica tape is wound and laminated around an outer periphery of the coil conductor ; and - a second insulating layer in which a second mica tape is wound and laminated around an outer periphery of the first insulating layer , - wherein the first mica tape contains mica particles in a content of 30 g or more and 100 g or less per 1 m 2 of the mica tape, - wherein 60 mass% or more of the mica particles contained in the first mica tape pass through a JIS standard sieve having a nominal opening of 250 μm, - wherein the first mica tape has a lamination thickness (t1) of 0.1 mm or more and 1 mm or less, and - wherein 40 mass% or less of mica particles contained in the second mica tape pass through the JIS standard sieve having a nominal opening of 250 μm. - a coil conductor ; - a first insulating layer in which a first mica tape is wound and laminated around an outer periphery of the coil conductor ; and - a second insulating layer in which a second mica tape is wound and laminated around an outer periphery of the first insulating layer , - wherein the first mica tape contains mica particles in a content of 30 g or more and 100 g or less per 1 m 2 of the mica tape, - wherein 60 mass% or more of the mica particles contained in the first mica tape pass through a JIS standard sieve having a nominal opening of 250 μm, - wherein the first mica tape has a lamination thickness (t1) of 0.1 mm or more and 1 mm or less, and - wherein 40 mass% or less of mica particles contained in the second mica tape pass through the JIS standard sieve having a nominal opening of 250 μm.
A method of imaging a sample of body fluid for visual measurements relating to leukocytes in the sample, comprising the steps of: - acquiring a leukocyte concentration in a solution obtained from the sample, resulting in a measured leukocyte concentration (WIC) in the sample; - diluting a test solution (ST) obtained from the sample according to a dilution ratio (D) which is determined as a function of the measured leukocyte concentration (WIC) in the sample in order to bring the leukocyte concentration of the test solution (ST) to an optimum leukocyte concentration; - transferring the test solution (ST) into an optical chamber and a rotational drive of the optical chamber by means of a centrifuge unit in order to align the leukocytes of the test solution (ST) in an optical plane (PO) contained in the optical chamber , the optical plane (PO) being perpendicular to a thickness direction (Z) of the optical chamber , wherein the optimal leukocyte concentration for the test solution (ST) corresponds to a target area density in the optical plane (PO) between 20 leukocytes per square millimeter and 1000 leukocytes per square millimeter after completion of the alignment of the leukocytes in the optical plane (PO), - imaging the test solution (ST) in the optical chamber by an imaging device . - acquiring a leukocyte concentration in a solution obtained from the sample, resulting in a measured leukocyte concentration (WIC) in the sample; - diluting a test solution (ST) obtained from the sample according to a dilution ratio (D) which is determined as a function of the measured leukocyte concentration (WIC) in the sample in order to bring the leukocyte concentration of the test solution (ST) to an optimum leukocyte concentration; - transferring the test solution (ST) into an optical chamber and a rotational drive of the optical chamber by means of a centrifuge unit in order to align the leukocytes of the test solution (ST) in an optical plane (PO) contained in the optical chamber , the optical plane (PO) being perpendicular to a thickness direction (Z) of the optical chamber , wherein the optimal leukocyte concentration for the test solution (ST) corresponds to a target area density in the optical plane (PO) between 20 leukocytes per square millimeter and 1000 leukocytes per square millimeter after completion of the alignment of the leukocytes in the optical plane (PO), - imaging the test solution (ST) in the optical chamber by an imaging device .
A surgical handpiece, comprising: a housing ; an electrical component within the housing ; and a thermal diffuser disposed between the housing and the electrical component and comprising a thermal conductive layer and an electrical insulating layer , wherein the thermal conductive layer is closer to the housing than the electrical insulating layer ; and characterised in that : the thermal conductive layer comprises a plurality of thermal conductive material pieces , wherein there is an overlap between two thermal conductive material pieces . a housing ; an electrical component within the housing ; and a thermal diffuser disposed between the housing and the electrical component and comprising a thermal conductive layer and an electrical insulating layer , wherein the thermal conductive layer is closer to the housing than the electrical insulating layer ; and characterised in that : the thermal conductive layer comprises a plurality of thermal conductive material pieces , wherein there is an overlap between two thermal conductive material pieces .
Device for producing iced food preparations, comprising a casing and a rotor , the casing being configured to receive the rotor and to define a homogenisation chamber around the rotor, said rotor being configured to be driven in rotation in the casing about an axis of rotation (XI), characterised in that the rotor comprises two secant faces each comprising a protruding grinding member (14a-14e), said device comprising a guide chute comprising an outlet orifice configured to open out simultaneously on the two secant faces of the rotor in the homogenisation chamber.
A temperature sensor arrangement, comprising: - a current integrating modulator having an input terminal to receive a current signal and an output terminal to provide a count value (ADC _COUNT) dependent on the current supplied to the input terminal; - a temperature sensitive element to generate a current (IPTAT) dependent on temperature, the temperature sensitive element including a resistor ; - another resistor ; and - first and second switches to alternately connect the temperature sensitive element and the other resistor to the input terminal of the current integrating modulator , characterized in that the temperature sensitive element comprises a bandgap circuit having a first and a second path, the first path including a first transistor and the resistor , the second path including a second transistor , the first transistor and the second transistor having different sizes, an amplifier connected to the first and second paths of the bandgap circuit, a current mirror controlled by the output of the amplifier having an output path coupled to the input terminal of the current integrating modulator . - a current integrating modulator having an input terminal to receive a current signal and an output terminal to provide a count value (ADC _COUNT) dependent on the current supplied to the input terminal; - a temperature sensitive element to generate a current (IPTAT) dependent on temperature, the temperature sensitive element including a resistor ; - another resistor ; and - first and second switches to alternately connect the temperature sensitive element and the other resistor to the input terminal of the current integrating modulator , the temperature sensitive element comprises a bandgap circuit having a first and a second path, the first path including a first transistor and the resistor , the second path including a second transistor , the first transistor and the second transistor having different sizes, an amplifier connected to the first and second paths of the bandgap circuit, a current mirror controlled by the output of the amplifier having an output path coupled to the input terminal of the current integrating modulator .
A bead construct, comprising: (a) a bead; (b) a fluorophore molecule, comprising two fluorophore moieties connected to each other by at least one internal linker that provides conformational freedom to the two fluorophore moieties, wherein the internal linker is formed by H-bonds, salt bridges, electrostatic interaction, or at least one ionic bond, and wherein an optical signal emitted by the fluorophore changes when reducing the conformational freedom of the two fluorophore moieties to each other; (c) a first linker molecule connected to the bead and to one of the two moieties of the fluorophore molecule; (d) a second linker molecule connected to the other moieties of the fluorophore molecule; and (e) a ligand molecule connected to the second linker, wherein upon binding of a target analyte molecule to the ligand molecule, the conformational freedom of the two fluorophore moieties to each other is reduced. (a) a bead; (b) a fluorophore molecule, comprising two fluorophore moieties connected to each other by at least one internal linker that provides conformational freedom to the two fluorophore moieties, wherein the internal linker is formed by H-bonds, salt bridges, electrostatic interaction, or at least one ionic bond, and wherein an optical signal emitted by the fluorophore changes when reducing the conformational freedom of the two fluorophore moieties to each other; (c) a first linker molecule connected to the bead and to one of the two moieties of the fluorophore molecule; (d) a second linker molecule connected to the other moieties of the fluorophore molecule; and (e) a ligand molecule connected to the second linker, wherein upon binding of a target analyte molecule to the ligand molecule, the conformational freedom of the two fluorophore moieties to each other is reduced.
An optical lens assembly comprising: - a transparent and flexible membrane , - a transparent back window ; - a transparent, deformable, non-fluid lens body sandwiched between said transparent back window and said transparent, flexible membrane to form a lens with an optical axis being normal to a surface part of said transparent back window; said transparent and flexible membrane being pre-shaped to impress a first overall shape to said transparent and flexible membrane and said non-fluid lens body, wherein with said first overall shape said lens has a substantial, non-zero first optical power; - a rigid frame arranged to support a circumference of the membrane; and - an actuator system for applying a force to change the overall shape of the membrane and said lens body from the first overall shape to a second overall shape with which the lens has a different optical property;wherein said actuator system comprises piezoelectric actuators on a surface of said transparent and flexible membrane, characterized in that said flexible membrane has an aperture diameter between 1 and 60 mm and is formed in a material having a Young's modulus in the range between 2MPa and 1.000 MPa and said lens has a Sag of at least 10 μm when said actuator system is not activated. - a transparent and flexible membrane , - a transparent back window ; - a transparent, deformable, non-fluid lens body sandwiched between said transparent back window and said transparent, flexible membrane to form a lens with an optical axis being normal to a surface part of said transparent back window; said transparent and flexible membrane being pre-shaped to impress a first overall shape to said transparent and flexible membrane and said non-fluid lens body, wherein with said first overall shape said lens has a substantial, non-zero first optical power; - a rigid frame arranged to support a circumference of the membrane; and - an actuator system for applying a force to change the overall shape of the membrane and said lens body from the first overall shape to a second overall shape with which the lens has a different optical property;wherein said actuator system comprises piezoelectric actuators on a surface of said transparent and flexible membrane,
A negative active material for a rechargeable lithium battery, comprising: Si and/or Sn active metal grains; and a metal matrix including at least two metal elements, the metal matrix being configured to surround the active metal grains, wherein the metal matrix comprises Cu and Al and the active metal grains have an average grain size ranging from 50 nm to 1000 nm and the content of Cu in the metal matrix ranges from 70 to 95 wt%; characterised in that the negative active material includes the metal matrix in an amount ranging from 20 to 70 wt% and the active metal grains in an amount ranging from 80 to 30 wt%. Si and/or Sn active metal grains; and a metal matrix including at least two metal elements, the metal matrix being configured to surround the active metal grains, wherein the metal matrix comprises Cu and Al and the active metal grains have an average grain size ranging from 50 nm to 1000 nm and the content of Cu in the metal matrix ranges from 70 to 95 wt%; characterised in that the negative active material includes the metal matrix in an amount ranging from 20 to 70 wt% and the active metal grains in an amount ranging from 80 to 30 wt%.
A hearing article , comprising: first and second hearing devices ; and a tether having a first end attached to the first hearing device and a second end attached to a second hearing device; wherein the tether includes a first acoustic decoupling section proximate the first end, the first acoustic decoupling section comprising a first predetermined shape , characterized in that the hearing article further comprises: a second acoustic decoupling section proximate the second end, and a substantially straight intermediate section between the first and second acoustic decoupling sections, the second acoustic decoupling section comprising a second predetermined shape ; and wherein the tether has a solid cross-section and is non-metallic and does not include a metallic wire core. first and second hearing devices ; and a tether having a first end attached to the first hearing device and a second end attached to a second hearing device; wherein the tether includes a first acoustic decoupling section proximate the first end, the first acoustic decoupling section comprising a first predetermined shape , characterized in that the hearing article further comprises: a second acoustic decoupling section proximate the second end, and a substantially straight intermediate section between the first and second acoustic decoupling sections, the second acoustic decoupling section comprising a second predetermined shape ; and wherein the tether has a solid cross-section and is non-metallic and does not include a metallic wire core. a second acoustic decoupling section proximate the second end, and a substantially straight intermediate section between the first and second acoustic decoupling sections, the second acoustic decoupling section comprising a second predetermined shape ; and wherein the tether has a solid cross-section and is non-metallic and does not include a metallic wire core.
A bioprinter system comprising a printbed , at least one of an exchangeable and/or fixed toolhead , a cell culture monitor device , the device comprising a camera arranged to provide images of a cell culture or construct at the printbed , and a processing element arranged to monitor cell status in the cell culture at the printbed or to monitor the construct at the printbed based on the provided images, characterized in that the monitor device is integrated with the printbed of the bioprinter. a printbed , at least one of an exchangeable and/or fixed toolhead , a cell culture monitor device , the device comprising a camera arranged to provide images of a cell culture or construct at the printbed , and a processing element arranged to monitor cell status in the cell culture at the printbed or to monitor the construct at the printbed based on the provided images, characterized in that the monitor device is integrated with the printbed of the bioprinter.
A method for applying demodulation to a first physical channel of a radio access of a terminal device to a base station of a wireless communication network, comprising the steps of: - obtaining (S110), at the terminal device , a demodulation indicator, DI, said DI indicating a usage of configured resources of a second physical channel for demodulating a part or all of the first physical channel, wherein said DI is received at the terminal device on a third physical channel; - demodulating (S130), at the terminal device , data received on the first physical channel based on the DI, wherein the first physical channel is a physical data channel for transmitting re-transmittable data, wherein the second physical channel is a physical downlink control channel, wherein the third physical channel is a physical data channel for transmitting non-re-transmittable data; and wherein time and/or frequency resources of the third physical channel are determined at the terminal device based on a received demodulation reference signal. - obtaining (S110), at the terminal device , a demodulation indicator, DI, said DI indicating a usage of configured resources of a second physical channel for demodulating a part or all of the first physical channel, wherein said DI is received at the terminal device on a third physical channel; - demodulating (S130), at the terminal device , data received on the first physical channel based on the DI, wherein the first physical channel is a physical data channel for transmitting re-transmittable data, wherein the second physical channel is a physical downlink control channel, wherein the third physical channel is a physical data channel for transmitting non-re-transmittable data;
An encoder apparatus for determining the position of a first object relative to a second object, comprising a measuring standard connected to the first object and having at least one position segment with a plurality of incremental code elements, a first incremental scanning device connected to the second object and having at least two individual scanning units in mutual phase offset for generating a respective scanning signal by scanning the measuring standard , the duty cycle of the scanning signals being modulated in accordance with a modulation function over the position segment, and a control and evaluation unit configured to generate incremental first position information from the scanning signals of the two individual scanning units and second position information from the modulation of the duty cycle of the scanning signals, characterized in that the encoder apparatus comprises a second incremental scanning device having at least two individual scanning units in mutual phase offset for generating a respective scanning signal by scanning the measuring standard , which is arranged with a phase offset with respect to the first incremental scanning device , and in that the control and evaluation unit is configured to generate the second position information from the modulation of the duty cycle of the scanning signals of the first incremental scanning device and the modulation of the duty cycle of the scanning signals of the second incremental scanning device .
A pressure reducing valve comprising a valve housing made by combining a body and a cover , a diaphragm of which rim is sandwiched between the body and the cover , a diaphragm rod held at the center of the diaphragm via diaphragm retainers , a valve stem having one end thereof coupled to the diaphragm rod and the other end slidably fitted into a guide opening provided on the body side, and a valve element provided in an intermediate portion of the valve stem and capable of being seated at a valve seat fixedly placed in the body and opening a valve hole for having the valve stem movably inserted therein at the center, wherein a valve action unit is mounted in a mounting hole of the body in a state of having the one end of the valve stem projected from the valve hole and the other end of the valve stem slidably fitted into the guide opening , the valve action unit being formed by a preassembly comprising a valve seat member having the valve hole and the valve seat provided thereon, and a guide member having the guide opening , and the valve stem on which the valve element is provided, characterized in that the guide member is pressed into a lower end portion of the valve seat member , and the valve element is arranged in a valve chamber formed between the guide member and the valve seat member . wherein a valve action unit is mounted in a mounting hole of the body in a state of having the one end of the valve stem projected from the valve hole and the other end of the valve stem slidably fitted into the guide opening , the valve action unit being formed by a preassembly comprising a valve seat member having the valve hole and the valve seat provided thereon, and a guide member having the guide opening , and the valve stem on which the valve element is provided, characterized in that the guide member is pressed into a lower end portion of the valve seat member , and the valve element is arranged in a valve chamber formed between the guide member and the valve seat member .
A catheter comprising a hollow body longitudinally extending along an axis, comprising at least one first lateral window and a probe emitting a wave beam , said first lateral window enabling radiation of the beam along a region lateral to the catheter to perform imaging, said lateral region being substantially planar along a first plane (P1) parallel to the axis along which the catheter extends, said catheter further comprising a longitudinal guide device enabling transmission of a motion to an intervention element , the movements of said intervention element being maintained in the first plane (P1), the angle between the intervention element and the axis of the catheter , called an "intervention angle", being driven by a remote drive means by a distal movable arm .
A protective cover for a leading edge of a wind turbine rotor blade , the protective cover being pre-formed into a curved shape so as to accommodate at least a part of a leading edge section including the leading edge of the wind turbine rotor blade to be protected, the protective cover comprising a pressure side section , a suction side section and a centerline in-between the pressure side section and the suction side section , the centerline running in longitudinal direction of the protective cover , characterised in that thickness (t) of the protective cover in a cross section of the protective cover in transverse direction has a non-symmetric thickness distribution t(s) corresponding to a normal distribution with non-zero skewness determined by a skewness factor (κ s ).
Refractory composite material including Al 2 O 3 in the form of corundum, SiO 2 in the form of quartz and sodium aluminate having the formula NaAl 11 O 17 or Na 2 O. 11Al 2 O 3 comprising: Al, Si, Na and oxygen, which in the form of Al 2 O 3 , SiO 2 and Na 2 O oxides are present in such amounts that: the overall amount of Al 2 O 3 is no less than 75 wt%, preferably no less than 80 wt%, the overall amount of SiO 2 in the form of quartz is no less than 10 wt%, preferably no less than 12 wt%, the overall amount of Na 2 O is no less than 0.5 wt%, preferably no less than 1 wt%, said percentages being calculated on 100 parts by weight of the combination of said oxides.