mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-mode pulsed radar method for sensing or measuring a product material in a storage tank, comprising: providing a measure of radar signal attenuation for pulsed radar signals transmitted to said product material; implementing , by a processor , automatic adjustment of one or more transmitted radar pulse parameters by automatically selecting a pulse width and a pulse amplitude based on said measure of radar signal attenuation, wherein in signal mode 2 higher amplitude and wider pulses are selected when said measure of radar signal attenuation is relatively high and lower amplitude and narrower pulses are selected in signal mode 1 when said measure of radar signal attenuation is relatively low, transmitting , by a transmitter a radar pulse to said product material using said pulse width and said pulse amplitude, the transmitter having a variable pulse generator comprising circuitry based on complementary metal-oxide-semiconductor, a NAND gate with two identical input signals which are separated by a delay, which is controlled by an analog control signal from a Digital to Analog Converter , and wherein pulse timing for the variable pulse generator is provided by trigger signals from the trigger signal generator block , and the DAC provides analog control signals for pulse width, which is the pulse width information received in digital form from processor , to the variable pulse generator; and processing , by a receiver a target signal reflected or scattered from said product material to determine at least one parameter. providing a measure of radar signal attenuation for pulsed radar signals transmitted to said product material; implementing , by a processor , automatic adjustment of one or more transmitted radar pulse parameters by automatically selecting a pulse width and a pulse amplitude based on said measure of radar signal attenuation, wherein in signal mode 2 higher amplitude and wider pulses are selected when said measure of radar signal attenuation is relatively high and lower amplitude and narrower pulses are selected in signal mode 1 when said measure of radar signal attenuation is relatively low, transmitting , by a transmitter a radar pulse to said product material using said pulse width and said pulse amplitude, the transmitter having a variable pulse generator comprising circuitry based on complementary metal-oxide-semiconductor, a NAND gate with two identical input signals which are separated by a delay, which is controlled by an analog control signal from a Digital to Analog Converter , and wherein pulse timing for the variable pulse generator is provided by trigger signals from the trigger signal generator block , and the DAC provides analog control signals for pulse width, which is the pulse width information received in digital form from processor , to the variable pulse generator; and processing , by a receiver a target signal reflected or scattered from said product material to determine at least one parameter.
A control assembly adapted for controlling fluid flow in a pressure regulating device having a valve body and a valve seat disposed in the valve body , the control assembly comprising: a valve stem ; a control element operatively connected to the valve stem and adapted to be movable, relative to the valve seat , between an open position, wherein the control element is spaced from the valve seat , and a closed position, wherein the control element sealingly engages the valve seat; characterized in that the control assembly comprises a travel stop configured to engage the control element when the control element is in the closed position to stop movement of the control element upon reaching the open position, wherein the travel stop is adjustable to change the open position of the control element , wherein the travel stop comprises a first portion and a second portion movable relative to the first portion and the control element to adjust a length of the travel stop , thereby changing the open position of the control element . a valve stem ; a control element operatively connected to the valve stem and adapted to be movable, relative to the valve seat , between an open position, wherein the control element is spaced from the valve seat , and a closed position, wherein the control element sealingly engages the valve seat; characterized in that the control assembly comprises a travel stop configured to engage the control element when the control element is in the closed position to stop movement of the control element upon reaching the open position, wherein the travel stop is adjustable to change the open position of the control element , wherein the travel stop comprises a first portion and a second portion movable relative to the first portion and the control element to adjust a length of the travel stop , thereby changing the open position of the control element .
A method for wireless communication, executed by a terminal device, wherein when a network device connected with the terminal device is switched from a source network device to a target network device, a connection between the terminal device and the source network device and a connection between the terminal device and the target network device are both maintained; the method comprising: sending a packet data convergence protocol, PDCP protocol data unit, PDU, by using a new secret key and/or robust header compression, RoHC, in response to determining that a second condition is satisfied, the second condition comprising that the terminal device has received a message 4 of a random access procedure (S310); wherein the new secret key and/or RoHC is different from an old secret key and/or RoHC, and the old secret key and/or RoHC is a secret key and/or RoHC which is used by the terminal device when communicating with the source network device before the new secret key and/or RoHC is used. sending a packet data convergence protocol, PDCP protocol data unit, PDU, by using a new secret key and/or robust header compression, RoHC, in response to determining that a second condition is satisfied, the second condition comprising that the terminal device has received a message 4 of a random access procedure (S310); wherein the new secret key and/or RoHC is different from an old secret key and/or RoHC, and the old secret key and/or RoHC is a secret key and/or RoHC which is used by the terminal device when communicating with the source network device before the new secret key and/or RoHC is used.
A circuitry for a terminal device , the circuitry comprising: receiver circuitry configured to receive parameter data from a base station in a cellular wireless telecommunication network, a storage device configured to store an identifier that uniquely identifies the terminal device and control circuitry configured to control the terminal device, when operating in an idle mode, to perform cell reselection using at least one cell reselection parameter, being a cell reselection offset or priority, derived from the received parameter data and the stored unique identifier.
An in tank depth media fuel filter assembly comprising, in combination, a closed body having an interior and an exterior, said closed body having a first composite panel of filtration media and a second composite panel of filtration media, each of said composite panels comprising and outer support layer and at least three inner layers of filtration material including at least two spunbonded layers of synthetic filaments, and an opening in said body for providing fluid communication with the interior of said body , characterized in that said three inner layers being free of layers of meltblown fibers, and said three inner layers including at least one layer of wetlaid synthetic fibers. said three inner layers being free of layers of meltblown fibers, and said three inner layers including at least one layer of wetlaid synthetic fibers.
A light detection and ranging, LIDAR, system (200; 700), comprising: a first polygon scanner comprising a plurality of first facets (708; 708a-e) arranged around a first axis of rotation ; a second polygon scanner comprising a plurality of second facets (724; 724a-e) arranged around a second axis of rotation , the plurality of second facets located outward from the plurality of first facets relative to the second axis of rotation, wherein the first axis of rotation is the same as or parallel with the second axis of rotation; and an optic located inward from the first polygon scanner relative to the first axis of rotation, wherein the optic is configured to transmit a first beam in an interior of the first polygon scanner, the first polygon scanner is configured to refract the first beam to output a second beam to the second polygon scanner, and the second polygon scanner is configured to refract the second beam to output a third beam . a first polygon scanner comprising a plurality of first facets (708; 708a-e) arranged around a first axis of rotation ; a second polygon scanner comprising a plurality of second facets (724; 724a-e) arranged around a second axis of rotation , the plurality of second facets located outward from the plurality of first facets relative to the second axis of rotation, wherein the first axis of rotation is the same as or parallel with the second axis of rotation; and an optic located inward from the first polygon scanner relative to the first axis of rotation, wherein the optic is configured to transmit a first beam in an interior of the first polygon scanner, the first polygon scanner is configured to refract the first beam to output a second beam to the second polygon scanner, and the second polygon scanner is configured to refract the second beam to output a third beam .
Method for improving performance of a feedback circuit comprising an amplifier and a feedback network, said feedback circuit having at least one tuneable component, the method comprising - measuring a first plurality of amplitude values at an input of said amplifier (V X ) and a second plurality of amplitude values at an output of said amplifier (V OUT ) given a first setting of said at least one tunable component of said feedback circuit, - estimating a linear open-loop gain of said amplifier (A OL ) based on said first and said second plurality of amplitude values, - estimating a linear finite gain error (e gain ) based on said estimated linear open-loop gain and said second plurality of amplitude values, - subtracting said linear finite gain error (e gain ) from said first plurality of amplitude values to derive a set of processed samples containing error information different from said linear finite gain error, - deriving a signal-to-noise-plus-distortion ratio estimate based on the variance of said set of processed samples and a variance of said second plurality of amplitude values, - adjusting said first setting of said feedback circuit in accordance with said signal-to-noise-plus-distortion ratio estimate. - measuring a first plurality of amplitude values at an input of said amplifier (V X ) and a second plurality of amplitude values at an output of said amplifier (V OUT ) given a first setting of said at least one tunable component of said feedback circuit, - estimating a linear open-loop gain of said amplifier (A OL ) based on said first and said second plurality of amplitude values, - estimating a linear finite gain error (e gain ) based on said estimated linear open-loop gain and said second plurality of amplitude values, - subtracting said linear finite gain error (e gain ) from said first plurality of amplitude values to derive a set of processed samples containing error information different from said linear finite gain error, - deriving a signal-to-noise-plus-distortion ratio estimate based on the variance of said set of processed samples and a variance of said second plurality of amplitude values, - adjusting said first setting of said feedback circuit in accordance with said signal-to-noise-plus-distortion ratio estimate.
A method for producing anodes in an annular kiln , comprising at least one kiln unit ("fire") having a heating zone , a firing zone , and a cooling zone , each having a plurality of kiln chambers which are interconnected by heating channels , are formed as heat exchangers and are used to receive anodes, primary air being introduced into the cooling zone by means of a primary air feeding device for the passage of air through the kiln unit and, once it has passed through the firing zone, being discharged from the heating zone as flue gas by means of an exhaust device , secondary air being fed into the heating zone in the direction of the primary air flow, upstream of the exhaust device, by means of a secondary air feeding device , the oxygen content in the flue gas being increased, characterised in that the secondary air feeding device is positioned as a function of at least one process parameter.
A noise suppressing member , comprising: a noise suppressing member main body formed from a sheet-shaped member, that is configured to be disposed at an inner portion of a pneumatic tire , and that has convex portions , which are convex from an inner surface side of the pneumatic tire toward an inner side in a tire radial direction, configured to suppress cavity resonance of the pneumatic tire ; and magnets provided at the noise suppressing member main body, the magnets configured to generate attractive force with respect to a belt layer provided at an outer peripheral surface of a crown portion of the pneumatic tire , and the belt layer is structured by a steel cord , which is covered by a resin and which is wound in a spiral form in a tire circumferential direction, wherein: a plurality of magnet mounting portions are formed at both ends in a tire width direction of the noise suppressing member main body, at intervals along a tire circumferential direction, the magnet mounting portions have convex portions , which are annular-shaped and project-out toward a tire radial direction inner side, and the magnets are fit into concave portions within the convex portions . a noise suppressing member main body formed from a sheet-shaped member, that is configured to be disposed at an inner portion of a pneumatic tire , and that has convex portions , which are convex from an inner surface side of the pneumatic tire toward an inner side in a tire radial direction, configured to suppress cavity resonance of the pneumatic tire ; and magnets provided at the noise suppressing member main body, the magnets configured to generate attractive force with respect to a belt layer provided at an outer peripheral surface of a crown portion of the pneumatic tire , and the belt layer is structured by a steel cord , which is covered by a resin and which is wound in a spiral form in a tire circumferential direction, wherein: a plurality of magnet mounting portions are formed at both ends in a tire width direction of the noise suppressing member main body, at intervals along a tire circumferential direction, the magnet mounting portions have convex portions , which are annular-shaped and project-out toward a tire radial direction inner side, and the magnets are fit into concave portions within the convex portions . a plurality of magnet mounting portions are formed at both ends in a tire width direction of the noise suppressing member main body, at intervals along a tire circumferential direction, the magnet mounting portions have convex portions , which are annular-shaped and project-out toward a tire radial direction inner side, and the magnets are fit into concave portions within the convex portions .
A steel plate coloring device, comprising: a body unit provided on a transfer path of a steel plate (S); and an irradiation unit provided in the body unit , which irradiates, onto a surface of the steel plate (S), a line-shaped laser in a width direction of the steel plate (S) so as to provide color to the surface of the steel plate (s), wherein the irradiation unit includes: an irradiation support unit coupled to the body unit ; a point irradiation member provided as a plurality of point irradiation units disposed in parallel in the irradiation support unit , and emitting the laser; and a linear lens portion provided to be connected to ends of the plurality of point irradiation units from which the laser is emitted; characterised in that the irradiation support unit is coupled to the body unit ; and in that the irradiation support unit includes a line member provided to allow the plurality of point irradiation units to be arranged linearly, and of which a position is adjustable to correspond to a width of the steel plate (S). a body unit provided on a transfer path of a steel plate (S); and an irradiation unit provided in the body unit , which irradiates, onto a surface of the steel plate (S), a line-shaped laser in a width direction of the steel plate (S) so as to provide color to the surface of the steel plate (s), wherein the irradiation unit includes: an irradiation support unit coupled to the body unit ; a point irradiation member provided as a plurality of point irradiation units disposed in parallel in the irradiation support unit , and emitting the laser; and a linear lens portion provided to be connected to ends of the plurality of point irradiation units from which the laser is emitted; characterised in that the irradiation support unit is coupled to the body unit ; and in that the irradiation support unit includes a line member provided to allow the plurality of point irradiation units to be arranged linearly, and of which a position is adjustable to correspond to a width of the steel plate (S). an irradiation support unit coupled to the body unit ; a point irradiation member provided as a plurality of point irradiation units disposed in parallel in the irradiation support unit , and emitting the laser; and a linear lens portion provided to be connected to ends of the plurality of point irradiation units from which the laser is emitted; characterised in that the irradiation support unit is coupled to the body unit ; and in that the irradiation support unit includes a line member provided to allow the plurality of point irradiation units to be arranged linearly, and of which a position is adjustable to correspond to a width of the steel plate (S).
A camera module , comprising: a housing ; a lens unit arranged in the housing and comprising a first lens and a second lens ; a driving unit arranged adjacent to a first surface inside the housing , and configured to move the first lens in a direction along an optical axis; and a further driving unit arranged adjacent to a second surface inside the housing oppositely facing the first surface, and configured to move the second lens in a direction along the optical axis, wherein the driving unit forms a first magnetic field oriented in a first direction, and wherein the further driving unit forms a second magnetic field oriented in a second direction intersecting the first direction at a first prespecified angle. a housing ; a lens unit arranged in the housing and comprising a first lens and a second lens ; a driving unit arranged adjacent to a first surface inside the housing , and configured to move the first lens in a direction along an optical axis; and a further driving unit arranged adjacent to a second surface inside the housing oppositely facing the first surface, and configured to move the second lens in a direction along the optical axis, wherein the driving unit forms a first magnetic field oriented in a first direction, and wherein the further driving unit forms a second magnetic field oriented in a second direction intersecting the first direction at a first prespecified angle.
An enclosure system for enclosing a plurality of types of fluid containers, comprising: a cap comprising an internal cavity; a primary carriage coupled to the cap within the internal cap cavity, the primary carriage comprising a set of primary internal threads configured to engage larger-dimensioned port threads of a larger-dimensioned port of one of the plurality of types of fluid containers; and a secondary carriage arranged within an internal primary cavity of the primary carriage , the secondary carriage comprising secondary internal threads configured to engage smaller-dimensioned port threads of a smaller-dimensioned port of one of the plurality of types of fluid containers. a cap comprising an internal cavity; a primary carriage coupled to the cap within the internal cap cavity, the primary carriage comprising a set of primary internal threads configured to engage larger-dimensioned port threads of a larger-dimensioned port of one of the plurality of types of fluid containers; and a secondary carriage arranged within an internal primary cavity of the primary carriage , the secondary carriage comprising secondary internal threads configured to engage smaller-dimensioned port threads of a smaller-dimensioned port of one of the plurality of types of fluid containers.
A method of assessing Gestational Diabetes Mellitus (GDM) susceptibility in a female human subject, the method comprising determining the genotype of the subject, in vitro from a DNA-containing sample that has previously been obtained from said subject, at each of the following single nucleotide polymorphisms (SNPs): TCF7L2 - rs7903146; IGF2BP2 - rs4402960; CDKN2A/B - rs10811661; SLC16A11 - rs13342232; FTO - rs8050136; SLC30A8 - rs13266634; CDC123/CAMK1D - rs12779790; KCNQ1 - rs2237892; CUBN - rs11254363; CUBN - rs1801222; FIGN - rs2119289; FIGN - rs982393; MTHFR - rs1801131; MTHFR - rs1801133; MTR - rs1805087; and SLC19A1 - rs1051266. TCF7L2 - rs7903146; IGF2BP2 - rs4402960; CDKN2A/B - rs10811661; SLC16A11 - rs13342232; FTO - rs8050136; SLC30A8 - rs13266634; CDC123/CAMK1D - rs12779790; KCNQ1 - rs2237892; CUBN - rs11254363; CUBN - rs1801222; FIGN - rs2119289; FIGN - rs982393; MTHFR - rs1801131; MTHFR - rs1801133; MTR - rs1805087; and SLC19A1 - rs1051266.