mhurhangee/patent-ind-claim-en huggingface dataset:
A method for remotely reconfiguring a power amplifier in a wireless communications system comprising the steps of: providing a power amplifier in a wireless communications system having a microprocessor and software-defined radio capability, providing a remote media link between a remote computer and the power amplifier to permit communications therebetween, iteratively monitoring coefficients of amplitude-amplitude, AM-AM, and amplitude-phase, AM-PM, curves of the power amplifier, comparing the iteratively monitored coefficients of amplitude-amplitude, AM-AM, and amplitude-phase, AM-PM, curves of the power amplifier to determine whether or not the power amplifier is working properly, determining an early warning of failure based on the compared coefficients of amplitude-amplitude, AM-AM, and amplitude-phase, AM-PM, curves of the power amplifier, reporting the early warning of failure to the remote computer, and reconfiguring the power amplifier as directed by the remote computer. providing a power amplifier in a wireless communications system having a microprocessor and software-defined radio capability, providing a remote media link between a remote computer and the power amplifier to permit communications therebetween, iteratively monitoring coefficients of amplitude-amplitude, AM-AM, and amplitude-phase, AM-PM, curves of the power amplifier, comparing the iteratively monitored coefficients of amplitude-amplitude, AM-AM, and amplitude-phase, AM-PM, curves of the power amplifier to determine whether or not the power amplifier is working properly, determining an early warning of failure based on the compared coefficients of amplitude-amplitude, AM-AM, and amplitude-phase, AM-PM, curves of the power amplifier, reporting the early warning of failure to the remote computer, and reconfiguring the power amplifier as directed by the remote computer.
A rotary encoder , comprising: a housing , a shaft , wherein the shaft has an abutment on the shaft , a resilient element , a code disk which is attached to the shaft , and a reading head which is configured to detect the rotation of the code disk , characterized in that the code disk is affixed in an axial position on one axial side by the abutment on the shaft and the resilient element is arranged on another axial side of the code disk and provides a clamping force with which the code disk is pressed against the abutment . a housing , a shaft , wherein the shaft has an abutment on the shaft , a resilient element , a code disk which is attached to the shaft , and a reading head which is configured to detect the rotation of the code disk , characterized in that the code disk is affixed in an axial position on one axial side by the abutment on the shaft and the resilient element is arranged on another axial side of the code disk and provides a clamping force with which the code disk is pressed against the abutment .
A glove, inner glove , sock , knee sock or bra with ballistic protection, wherein the glove, the inner glove , the sock , the knee sock or the bra has at least one knitted fabric, wherein at least one first zone of the knitted fabric is formed from a yarn which inhibits the penetration of fragments and the glove, the inner glove , the sock , the knee sock or the bra which has a plurality of differently protected zones , characterized in that at least two different zones of the glove, the inner glove , the sock , the knee sock or the bra are connected seamlessly to one another.
A nozzle for a servo valve , the nozzle comprising a nozzle element having a fluid outlet at a first axial end , and a tubular body extending from the first end to an opposed, second axial end of the nozzle element ; a plug element mounted in and closing the second axial end of the tubular body , thereby defining an internal cavity within the tubular body ; and one or more openings formed through the tubular body to fluidly communicate with the internal cavity ; characterised in that the plug element comprises an annular wall extending in a direction away from the nozzle element for sealing engagement with a bore of the servo valve . a nozzle element having a fluid outlet at a first axial end , and a tubular body extending from the first end to an opposed, second axial end of the nozzle element ; a plug element mounted in and closing the second axial end of the tubular body , thereby defining an internal cavity within the tubular body ; and one or more openings formed through the tubular body to fluidly communicate with the internal cavity ; characterised in that the plug element comprises an annular wall extending in a direction away from the nozzle element for sealing engagement with a bore of the servo valve .
A method performed by a first wireless communication node, comprising: receiving a configuration message indicating a configuration of at least one measurement resource from a second wireless communication node; determining at least one overlapping resource between the at least one measurement resource and a first plurality of resources; and determining at least one muting resource among the first plurality of resources based on a selected muting pattern within a selected muting pattern table, wherein the at least one muting resource comprises the at least one overlapping resource, wherein the selected muting pattern table is selected from a plurality of muting pattern tables based on a muting pattern table index, and the selected muting pattern table comprises a plurality of muting patterns, and the selected muting pattern is selected from the plurality of muting patterns based on a muting pattern index. receiving a configuration message indicating a configuration of at least one measurement resource from a second wireless communication node; determining at least one overlapping resource between the at least one measurement resource and a first plurality of resources; and determining at least one muting resource among the first plurality of resources based on a selected muting pattern within a selected muting pattern table, wherein the at least one muting resource comprises the at least one overlapping resource, wherein the selected muting pattern table is selected from a plurality of muting pattern tables based on a muting pattern table index, and the selected muting pattern table comprises a plurality of muting patterns, and the selected muting pattern is selected from the plurality of muting patterns based on a muting pattern index.
Expansion anchor having - an anchor bolt , - an expansion sleeve that surrounds the anchor bolt , and - a wedge body located in a front region of the anchor bolt for wedging the expansion sleeve , wherein the expansion sleeve has a front face facing the wedge body , - wherein at least one expansion slit is provided within the expansion sleeve , wherein the expansion slit originates at the front face of the expansion sleeve , wherein the expansion slit has a mouth that is located adjacent to the front face , a stem that adjoins the mouth and a head that adjoins the stem , wherein the head is wider than the stem , and wherein the stem is located between the head and the mouth , - wherein the stem of the expansion slit is delimited by a first flank of the expansion sleeve and by a second flank of the expansion sleeve , characterized in that - the first flank and the second flank are both non-planar throughout, so as to form at least one widening and at least one narrowing along the stem . - an anchor bolt , - an expansion sleeve that surrounds the anchor bolt , and - a wedge body located in a front region of the anchor bolt for wedging the expansion sleeve , wherein the expansion sleeve has a front face facing the wedge body , - wherein at least one expansion slit is provided within the expansion sleeve , wherein the expansion slit originates at the front face of the expansion sleeve , wherein the expansion slit has a mouth that is located adjacent to the front face , a stem that adjoins the mouth and a head that adjoins the stem , wherein the head is wider than the stem , and wherein the stem is located between the head and the mouth , - wherein the stem of the expansion slit is delimited by a first flank of the expansion sleeve and by a second flank of the expansion sleeve , characterized in that - the first flank and the second flank are both non-planar throughout, so as to form at least one widening and at least one narrowing along the stem .
Composition comprising at least the following three components: a. sour wort; b. cereal flour; and c. hops and/or a hop product selected from the group consisting of hop powder, hop pellets and hop extract, wherein the sour wort is an unhopped or lightly hopped first wort from the brewing process which has been fermented with lactic acid bacteria, and wherein the sour wort contains homofermentative lactic acid bacteria. a. sour wort; b. cereal flour; and c. hops and/or a hop product selected from the group consisting of hop powder, hop pellets and hop extract,
An energy storage device comprising Zn as an anode, electrodeposited V 2 O 5 on functionalized carbon as a cathode, sulfonated tetrafluoroethylene copolymer (STC) as a cation selective ionomer membrane separator and ZnSO 4 as an electrolyte.
A method for assembling a high-voltage splice device , comprising fixing a splice shield to a first electrically conductive conduit and to a second electrically conductive conduit at a location covering a junction formed between the first electrically conductive conduit and a portion of the second electrically conductive conduit ; mechanically securing the first electrically conductive conduit and the second electrically conductive conduit together with the splice shield ; and electromagnetically shielding the junction from an external environment with the splice shield ; the method being characterized in that it comprises: overlaying a plurality of ferrules along a portion of the first electrically conductive conduit and a portion of the second electrically conductive conduit with a plurality of respective ring collars , fixing the plurality of ring collars to the plurality of ferrules , each of the plurality of ferrules having a flanged portion acting as a stop which directly contacts the splice shield to retain the splice shield on the first electrically conductive conduit and the second electrically conductive conduit , and fixing the splice shield to the plurality of ring collars . fixing a splice shield to a first electrically conductive conduit and to a second electrically conductive conduit at a location covering a junction formed between the first electrically conductive conduit and a portion of the second electrically conductive conduit ; mechanically securing the first electrically conductive conduit and the second electrically conductive conduit together with the splice shield ; and electromagnetically shielding the junction from an external environment with the splice shield ; the method being characterized in that it comprises: overlaying a plurality of ferrules along a portion of the first electrically conductive conduit and a portion of the second electrically conductive conduit with a plurality of respective ring collars , fixing the plurality of ring collars to the plurality of ferrules , each of the plurality of ferrules having a flanged portion acting as a stop which directly contacts the splice shield to retain the splice shield on the first electrically conductive conduit and the second electrically conductive conduit , and fixing the splice shield to the plurality of ring collars . overlaying a plurality of ferrules along a portion of the first electrically conductive conduit and a portion of the second electrically conductive conduit with a plurality of respective ring collars , fixing the plurality of ring collars to the plurality of ferrules , each of the plurality of ferrules having a flanged portion acting as a stop which directly contacts the splice shield to retain the splice shield on the first electrically conductive conduit and the second electrically conductive conduit , and fixing the splice shield to the plurality of ring collars .
Method for creating a composite thermal insulation system, characterized by the following steps - Applying an insulating layer of facade insulation panels with a cuboidal base body with two opposite large surfaces and four side surfaces connecting the large surfaces by butt laying the facade insulation panels on a building wall to be insulated using adhesive and/or mechanical fastening means, so that the insulating layer has at least one outside recess on the large surface remote from the building wall, at butt joint regions of adjoining panels, in the form of an undercut, - Filling the recesses formed by the profiling between adjacent facade insulation panels with an adhesive filling compound and curing the adhesive filling compound to form a non-positive and elastic adhesive bond, - if necessary, removal of excess filling material and/or smoothing of the recess after the filling material has cured, - Application of base coat, reinforcing fabric and top coat, and, if necessary, of further top coats. - Applying an insulating layer of facade insulation panels with a cuboidal base body with two opposite large surfaces and four side surfaces connecting the large surfaces by butt laying the facade insulation panels on a building wall to be insulated using adhesive and/or mechanical fastening means, so that the insulating layer has at least one outside recess on the large surface remote from the building wall, at butt joint regions of adjoining panels, in the form of an undercut, - Filling the recesses formed by the profiling between adjacent facade insulation panels with an adhesive filling compound and curing the adhesive filling compound to form a non-positive and elastic adhesive bond, - if necessary, removal of excess filling material and/or smoothing of the recess after the filling material has cured, - Application of base coat, reinforcing fabric and top coat, and, if necessary, of further top coats.
An adaptive optical system comprising: - at least one optical device which is controllable for emitting and/or reflecting and/or transmitting an optical radiation (o_s) having a wavefront; - a distortion measurement module adapted to measure a distortion of the wavefront of the optical radiation (o_s) to provide a first signal (s1) representative of the measured distortion; - a control system adapted to control the optical device in order to reduce or eliminate the measured distortion; wherein: - the control system comprises a processing module operatively connected to the measurement module to receive in input the first signal (s1) and output a control signal (c_s); - wherein the optical device is operatively connected to the processing module to receive in input the control signal (c_s); - the control signal (c_s) is a digital signal coded with delta-sigma modulation; characterized in that : the processing unit is configured to receive in input a second signal (s2) encoded with a delta-sigma modulation and carrying status information of the optical device and wherein the processing unit is configured to produce said control signal (c_s) based on said first signal (s1) and based on said second signal (s2). - at least one optical device which is controllable for emitting and/or reflecting and/or transmitting an optical radiation (o_s) having a wavefront; - a distortion measurement module adapted to measure a distortion of the wavefront of the optical radiation (o_s) to provide a first signal (s1) representative of the measured distortion; - a control system adapted to control the optical device in order to reduce or eliminate the measured distortion; - the control system comprises a processing module operatively connected to the measurement module to receive in input the first signal (s1) and output a control signal (c_s); - wherein the optical device is operatively connected to the processing module to receive in input the control signal (c_s); - the control signal (c_s) is a digital signal coded with delta-sigma modulation;
A method for receiving information from a fluid container of an intravenous system in fluid communication with a fluid conduit, the method comprising: encoding information into a first acoustic signal to be transmitted by a first device arranged on or in the fluid container; transmitting from the first device the first acoustic signal into a fluid disposed within the fluid container and the fluid conduit; receiving the first acoustic signal at a second device acoustically coupled to the fluid conduit; decoding the information from the first acoustic signal received by the second device, wherein the information is associated with a fluid; comparing the received first acoustic signal to a signal characteristic stored in a second device memory to identify the fluid; determining if the fluid matches a fluid setting for the second device; and taking a corresponding action in the second device based on the received first acoustic signal, wherein the action comprises alerting an operator if the fluid does not match the fluid setting. encoding information into a first acoustic signal to be transmitted by a first device arranged on or in the fluid container; transmitting from the first device the first acoustic signal into a fluid disposed within the fluid container and the fluid conduit; receiving the first acoustic signal at a second device acoustically coupled to the fluid conduit; decoding the information from the first acoustic signal received by the second device, wherein the information is associated with a fluid; comparing the received first acoustic signal to a signal characteristic stored in a second device memory to identify the fluid; determining if the fluid matches a fluid setting for the second device; and taking a corresponding action in the second device based on the received first acoustic signal, wherein the action comprises alerting an operator if the fluid does not match the fluid setting.
A pharmaceutical composition for topical use comprising a pharmaceutically active ingredient and a pharmaceutically acceptable carrier, wherein the pharmaceutically active ingredient is composed of tofacitinib and crisaborole in a range of 1: 8 to 8: 1 weight ratio of tofacitinib : crisaborole.
Process for preparing a polymer powder with a D50 particle size from 40 to 200, as measured according to the description, preferably 45 to 120 μm, and a Hausner factor , as measured according to the description, of 1.25 or less from an aqueous polymer dispersion comprising 15 to 50% by weight of a polymer polymerized from 10 to 30% by weight methyl methacrylate, 50 to 70% by weight methyl acrylate and 5 to 15% by weight methacrylic acid, by freeze drying and subsequent loosen up, comprising the process steps a) filling the aqueous polymer dispersion in one or more bowls with a volume/surface relation from 0.5 to 3.0 g /cm 2 , preferably 1 to 2.5 g /cm 2 , b) freezing the one or more bowls filled with the aqueous polymer dispersion to a temperature of minus 35 to minus 50 °C, preferably of minus 38 to minus 45 °C, c) freeze drying of the frozen aqueous polymer dispersion in the bowls to a powder at a vacuum in the range of about 3 to 0.05, preferably 0.8 to 0.1 mbar and at a temperature in the range from about 20 °C and up to no more than the glass transition temperature Tg of the polymer, the Tg being measured according to the description, until the water is removed to a LOD (Loss on drying, as measured according to the description) of 1% or less, d) obtaining the freeze dried polymer powder from the one or more bowls, e) loosen up the freeze-dried polymer powder by passing through a sieve to obtain the polymer powder with a D50 particle size from 40 to 200 μm and a Hausner factor 1.25 or less. a) filling the aqueous polymer dispersion in one or more bowls with a volume/surface relation from 0.5 to 3.0 g /cm 2 , preferably 1 to 2.5 g /cm 2 , b) freezing the one or more bowls filled with the aqueous polymer dispersion to a temperature of minus 35 to minus 50 °C, preferably of minus 38 to minus 45 °C, c) freeze drying of the frozen aqueous polymer dispersion in the bowls to a powder at a vacuum in the range of about 3 to 0.05, preferably 0.8 to 0.1 mbar and at a temperature in the range from about 20 °C and up to no more than the glass transition temperature Tg of the polymer, the Tg being measured according to the description, until the water is removed to a LOD (Loss on drying, as measured according to the description) of 1% or less, d) obtaining the freeze dried polymer powder from the one or more bowls, e) loosen up the freeze-dried polymer powder by passing through a sieve to obtain the polymer powder with a D50 particle size from 40 to 200 μm and a Hausner factor 1.25 or less.
A battery module, comprising: a cell stack having a plurality of battery cells ; and a phase change preheater disposed on the cell stack and containing a phase change material that causes a phase change as crystal nucleus is formed and accordingly causes an exothermic reaction, a film heater disposed on the phase change preheater and connected to an external power source to heat the phase change preheater so that the phase change material phase-changed into a solid state is phase-changed into a liquid state again. a cell stack having a plurality of battery cells ; and a phase change preheater disposed on the cell stack and containing a phase change material that causes a phase change as crystal nucleus is formed and accordingly causes an exothermic reaction, a film heater disposed on the phase change preheater and connected to an external power source to heat the phase change preheater so that the phase change material phase-changed into a solid state is phase-changed into a liquid state again.
A method of forming a gas turbine engine component comprising the steps of: (a) forming an intermediate portion from a plurality of ceramic matrix composite ("CMC") laminates, then performing a densification step on said intermediate portion; (b) then forming at least one cooling circuit into at least an outer layer of said intermediate portion , with said at least one cooling circuit not extending entirely through said intermediate portion; (c) then providing a covering layer of at least one CMC laminate over said formed at least one cooling circuit to close off said cooling circuit , such that there are CMC laminates on both a radially inner and a radially outer side of said cooling circuits , adding at least one inner layer inward of said intermediate portion , then performing a densification step on said covering layer; and (d) then forming an inlet and an outlet to said cooling circuits through said covering layer . (a) forming an intermediate portion from a plurality of ceramic matrix composite ("CMC") laminates, then performing a densification step on said intermediate portion; (b) then forming at least one cooling circuit into at least an outer layer of said intermediate portion , with said at least one cooling circuit not extending entirely through said intermediate portion; (c) then providing a covering layer of at least one CMC laminate over said formed at least one cooling circuit to close off said cooling circuit , such that there are CMC laminates on both a radially inner and a radially outer side of said cooling circuits , adding at least one inner layer inward of said intermediate portion , then performing a densification step on said covering layer; and (d) then forming an inlet and an outlet to said cooling circuits through said covering layer .