mhurhangee/patent-ind-claim-en huggingface dataset:
A pneumatic barrier , comprising a housing , in which there is arranged a tubular sleeve as well as means connected to the tubular sleeve for delivering and discharging compressed air into / from the tubular sleeve , wherein the tubular sleeve has along the essentially entire length thereof at least one spring element , which maintains the tubular sleeve in a wound-up basic condition of the tubular sleeve , wherein by applying compressed air by the means for delivering and discharging compressed air onto the tubular sleeve in opposition to the spring force of the at least one spring element the tubular sleeve is brought from the wound-up basic condition of the tubular sleeve into an unwound operational condition of the tubular sleeve and wherein while bringing the tubular sleeve from its unwound operational condition into its wound-up basic condition by the spring force of the at least one spring element , the compressed air contained in the tubular sleeve escapes via the means for delivering and discharging compressed air , characterized in that the tubular sleeve has for the horizontal orientation of the tubular sleeve in its unwound operational condition along essentially the entire length thereof a support element having a plurality of chain-like elements connected to one another, in particular a cable drag chain.
A monolithic aerogel comprising organic material and crystalline metal oxide particles, wherein the crystalline metal oxide particles are in a range from 3 to 20 volume percent, based on the total volume of the monolithic aerogel, wherein at least 70 mole percent of the crystalline metal oxide is ZrO 2 .
Vacuum pump , such as a turbomolecular pump or a rough vacuum pump , or vacuum line comprising at least one vacuum apparatus comprising a vacuum enclosure having a circumferential surface and an inner volume under vacuum further comprising: - at least one guided surface acoustic waves device comprising a piezo-electric transducer receiver and a piezo-electric transducer emitter been positioned on opposite locations on the outer diameter of the vacuum enclosure of tubular shape or the piezo-electric transducer emitter and the piezo-electric receiver being formed by only one piezo-electric transducer which is configured to be operated alternately as emitter or receiver, for coupling surface acoustic waves on the circumferential surface and for detecting surface acoustic waves propagating along the circumferential surface, the piezo-electric transducers being arranged outside of the vacuum enclosure , - a control unit configured to control the piezo-electric transducers to monitor a variation of at least one parameter of a surface acoustic wave propagating along the circumferential surface of the vacuum enclosure to detect a by-products deposition on the inner surface of the circumferential surface and/or to determine the properties of the by-product deposition , the piezo-electric transducers being made of piezoceramic material, wherein the variation of at least one parameter of a surface acoustic wave propagating along the circumferential surface of the vacuum enclosure is monitored for at least two successive passages (C1, C2, C3) of the surface acoustic waves in front of the piezo-electric transducer receiver . - at least one guided surface acoustic waves device comprising a piezo-electric transducer receiver and a piezo-electric transducer emitter been positioned on opposite locations on the outer diameter of the vacuum enclosure of tubular shape or the piezo-electric transducer emitter and the piezo-electric receiver being formed by only one piezo-electric transducer which is configured to be operated alternately as emitter or receiver, for coupling surface acoustic waves on the circumferential surface and for detecting surface acoustic waves propagating along the circumferential surface, the piezo-electric transducers being arranged outside of the vacuum enclosure , - a control unit configured to control the piezo-electric transducers to monitor a variation of at least one parameter of a surface acoustic wave propagating along the circumferential surface of the vacuum enclosure to detect a by-products deposition on the inner surface of the circumferential surface and/or to determine the properties of the by-product deposition , the piezo-electric transducers being made of piezoceramic material, wherein the variation of at least one parameter of a surface acoustic wave propagating along the circumferential surface of the vacuum enclosure is monitored for at least two successive passages (C1, C2, C3) of the surface acoustic waves in front of the piezo-electric transducer receiver .
A method of adapting a pressure-determining process according to input from one or more sensors of a mobile device , the method comprising: receiving sensor data from the one or more sensors of the mobile device, the sensor data including inertial sensor data; determining , based on the inertial sensor data, whether the mobile device is being held by a user; adapting a pressure-determining process for determining a level of pressure exerted by the user on the mobile device, the adapting being based, at least in part, on whether the mobile device is being held by the user; and performing the pressure-determining process according to the sensor data and an adapted pressure-determining process, the pressure-determining process being based, at least in part, on the inertial sensor data. receiving sensor data from the one or more sensors of the mobile device, the sensor data including inertial sensor data; determining , based on the inertial sensor data, whether the mobile device is being held by a user; adapting a pressure-determining process for determining a level of pressure exerted by the user on the mobile device, the adapting being based, at least in part, on whether the mobile device is being held by the user; and performing the pressure-determining process according to the sensor data and an adapted pressure-determining process, the pressure-determining process being based, at least in part, on the inertial sensor data.
An aseptic container molding method, wherein after a heated preform is put in a molding die , the molding die is clamped, and a mist or gas of a sterilizer or a mixture thereof is blasted into the preform , a blow molding air is blasted into the preform to expand the preform into a container as a finished product, and the used blow molding air is discharged from the container to remove the sterilizer in the container , wherein after the mist or gas of the sterilizer or the mixture thereof is blasted into the preform , a primary blow molding air (P1) is blasted into the preform to expand the preform into an intermediate molded product and at the same time sterilize an interior of the intermediate molded product , characterized in that a secondary blow molding air (P2) is then blasted into the intermediate molded product to expand the intermediate molded product into the container as the finished product, and the used blow molding air is discharged from the container to remove the sterilizer in the container .
An analysis and regulating method of a multi-fuel burner for alternative fuels having a measuring and regulating assembly , having - an infrared camera assigned to a burner mouth of the multi-fuel burner , - a data processing unit , - and a regulating and control unit , wherein the data processing unit is operatively connected to the regulating and control unit and to the infrared camera , comprising the steps of a) capturing a current combustion image in the infrared spectral range during a combustion process by means of the infrared camera , wherein the combustion image shows image data of a captured section (A), which comprises the burner mouth and contains substitute fuel particles , characterised by the further steps of: b) sending the image data of the combustion image to the data processing unit , c) determining the substitute fuel particles from the image data by means of the data processing unit , and determining the size and position of at least a plurality of the particles , d) determining current characteristic combustion parameters from the data determined in step c), and comparing said parameters to specified target combustion parameters, e) if the current characteristic combustion parameters deviate from the target combustion parameters, adapting regulating and/or control parameters, which correlate with the characteristic combustion parameters, in the regulating and control unit , and thus changing the characteristic combustion parameters, until the current characteristic combustion parameters correspond to the target combustion parameters, f) continuously repeating the afore-mentioned steps a) to e). - an infrared camera assigned to a burner mouth of the multi-fuel burner , - a data processing unit , - and a regulating and control unit , a) capturing a current combustion image in the infrared spectral range during a combustion process by means of the infrared camera , wherein the combustion image shows image data of a captured section (A), which comprises the burner mouth and contains substitute fuel particles , b) sending the image data of the combustion image to the data processing unit , c) determining the substitute fuel particles from the image data by means of the data processing unit , and determining the size and position of at least a plurality of the particles , d) determining current characteristic combustion parameters from the data determined in step c), and comparing said parameters to specified target combustion parameters, e) if the current characteristic combustion parameters deviate from the target combustion parameters, adapting regulating and/or control parameters, which correlate with the characteristic combustion parameters, in the regulating and control unit , and thus changing the characteristic combustion parameters, until the current characteristic combustion parameters correspond to the target combustion parameters, f) continuously repeating the afore-mentioned steps a) to e).
A method for producing a coated substrate comprising: - pre-treating a substrate for surface coating by subjecting the substrate to metal ions and noble gas ions selected from the group of argon-ions, krypton-ions, neon-ions, xenon-ions and helium-ions in a vacuum chamber and applying a negative electrical potential (P1, P2) on the substrate , wherein the substrate is pretreated in at least two steps , wherein the steps are performed subsequently in the vacuum chamber , wherein the first step comprises: - providing a plasma comprising predominantly noble gas ions selected from the group of argon-ions, krypton-ions, neon-ions, xenon-ions and helium-ions in the vacuum chamber , and - applying a first negative electrical potential (P1) on the substrate and wherein the second step comprises: - providing a plasma comprising predominantly metal ions in the vacuum chamber , the metal ions are metal ions or mixture of metal ions selected from the group 4, 5 or 6 of the periodic table of elements, and - applying a second negative electrical potential (P2) on the substrate , wherein the first electrical potential (P1) is lower than the second electrical potential (P2), and wherein the magnitude of the first negative potential (P1) is 100 - 500 V, the magnitude of the second electrical potential (P2) is selected such that metal ions are introduced into the surface of the substrate , the magnitude of the second negative potential (P2) is 300 - 3000 V, and - depositing a coating on the pre-treated substrate. - pre-treating a substrate for surface coating by subjecting the substrate to metal ions and noble gas ions selected from the group of argon-ions, krypton-ions, neon-ions, xenon-ions and helium-ions in a vacuum chamber and applying a negative electrical potential (P1, P2) on the substrate , wherein the substrate is pretreated in at least two steps , wherein the steps are performed subsequently in the vacuum chamber , wherein the first step comprises: - providing a plasma comprising predominantly noble gas ions selected from the group of argon-ions, krypton-ions, neon-ions, xenon-ions and helium-ions in the vacuum chamber , and - applying a first negative electrical potential (P1) on the substrate and wherein the second step comprises: - providing a plasma comprising predominantly metal ions in the vacuum chamber , the metal ions are metal ions or mixture of metal ions selected from the group 4, 5 or 6 of the periodic table of elements, and - applying a second negative electrical potential (P2) on the substrate , wherein the first electrical potential (P1) is lower than the second electrical potential (P2), and wherein the magnitude of the first negative potential (P1) is 100 - 500 V, the magnitude of the second electrical potential (P2) is selected such that metal ions are introduced into the surface of the substrate , the magnitude of the second negative potential (P2) is 300 - 3000 V, and - depositing a coating on the pre-treated substrate.
Machine for processing steel wire, said machine comprising a frame , said frame comprises two or more steel sheets , said two or more steel sheets being connected to one another by slot and tongue connections characterized in that said slot and tongue connections are fixed by means of a weld seam , wherein said weld seam is on the side of a steel sheet opposite the insertion side of said tongue.
A scalable audio processing method for a processing device , comprising: determining first and second bit allocations for a frame of input audio, the first bit allocation allocated for a first frequency band, the second bit allocation allocated for a second frequency band; transform coding the first frequency band of the frame from a time domain into first transform coefficients in a frequency domain; transform coding the second frequency band of the frame from the time domain into second transform coefficients in the frequency domain; packetizing the first and second transform coefficients with the corresponding first and second bit allocations into a packet; and transmitting the packet with the processing device ; characterized in that : transform coding and packetizing comprises: producing a first version of the frame by transform coding the frame at a first bit rate; producing a second version of the frame by stripping the first version to a second bit rate lower than the first bit rate; and packetizing together the first version of the frame along with the second version of a prior or following frame into the packet. determining first and second bit allocations for a frame of input audio, the first bit allocation allocated for a first frequency band, the second bit allocation allocated for a second frequency band; transform coding the first frequency band of the frame from a time domain into first transform coefficients in a frequency domain; transform coding the second frequency band of the frame from the time domain into second transform coefficients in the frequency domain; packetizing the first and second transform coefficients with the corresponding first and second bit allocations into a packet; and transmitting the packet with the processing device ; characterized in that : transform coding and packetizing comprises: producing a first version of the frame by transform coding the frame at a first bit rate; producing a second version of the frame by stripping the first version to a second bit rate lower than the first bit rate; and packetizing together the first version of the frame along with the second version of a prior or following frame into the packet. producing a first version of the frame by transform coding the frame at a first bit rate; producing a second version of the frame by stripping the first version to a second bit rate lower than the first bit rate; and packetizing together the first version of the frame along with the second version of a prior or following frame into the packet.
An immediate and sustained release composition comprising a. a first immediate release composition comprising i. at least racecadotril or an enantiomer of racecadotril or mixtures thereof in an amount of at most 10 % w/w and ii. at least one liquid-lipid excipient present in an amount of from at least 90 % w/w of the total amount of the first composition and b. a second sustained release composition comprising i. at least racecadotril or an enantiomer of racecadotril or mixtures thereof in an amount of from 10 % to 40 % w/w and ii. at least one liquid-lipid excipient present in an amount of 60 % to 90 % w/w of the total amount of the second composition wherein the liquid-lipid excipient is at least one medium chain triglycerides or at least an oil containing medium chain triglycerides or mixtures thereof. a. a first immediate release composition comprising i. at least racecadotril or an enantiomer of racecadotril or mixtures thereof in an amount of at most 10 % w/w and ii. at least one liquid-lipid excipient present in an amount of from at least 90 % w/w of the total amount of the first composition and i. at least racecadotril or an enantiomer of racecadotril or mixtures thereof in an amount of at most 10 % w/w and ii. at least one liquid-lipid excipient present in an amount of from at least 90 % w/w of the total amount of the first composition and b. a second sustained release composition comprising i. at least racecadotril or an enantiomer of racecadotril or mixtures thereof in an amount of from 10 % to 40 % w/w and ii. at least one liquid-lipid excipient present in an amount of 60 % to 90 % w/w of the total amount of the second composition i. at least racecadotril or an enantiomer of racecadotril or mixtures thereof in an amount of from 10 % to 40 % w/w and ii. at least one liquid-lipid excipient present in an amount of 60 % to 90 % w/w of the total amount of the second composition
Wheel comprising a rim and a wheel center , said wheel center comprising an insert with a front pad and a rear pad , spaced a distance apart with respect to each other and which are at least partially embedded in a composite material , wherein the front pad and the rear pad each comprises at least one peripheral opening and/or at least one recess which are arranged corresponding to each other, such that they are suitable to receive at least one mechanical element which extends across both pads, characterized in that the front pad and the rear pad are interconnected to each other by the at least one mechanical element .
A signal processing module for use in a split signal processing system including multiple antennas for receiving transmitted signals carrying an information-bearing symbol, the information bearing symbol being part of a transmission of coded bits, the signal processing module being associated with one of the multiple antennas and comprising: a data generator for generating a first bit log-likelihood ratio, LLR, sequence corresponding to the information-bearing symbol, the first LLR sequence based in part on a channel estimate from a channel estimator of the signal processing module and in part on an output of a fast Fourier transform, FFT, module of the signal processing module; a LLR combiner for combining the first bit LLR sequence with one or more second bit LLR sequences generated by one or more respective second signal processing modules associated with an antenna of the multiple antennas, corresponding to the information-bearing symbol; and a forward error correction, FEC, decoder configured to: decode the combined bit LLR sequences and output an information sequence; provide an estimate of the coded bits to the channel estimator, wherein the channel estimator also receives the output of the fast Fourier transform, FFT, module; and wherein the FEC decoder is also configured to output the estimate of the coded bits to the respective second signal processing module. a data generator for generating a first bit log-likelihood ratio, LLR, sequence corresponding to the information-bearing symbol, the first LLR sequence based in part on a channel estimate from a channel estimator of the signal processing module and in part on an output of a fast Fourier transform, FFT, module of the signal processing module; a LLR combiner for combining the first bit LLR sequence with one or more second bit LLR sequences generated by one or more respective second signal processing modules associated with an antenna of the multiple antennas, corresponding to the information-bearing symbol; and a forward error correction, FEC, decoder configured to: decode the combined bit LLR sequences and output an information sequence; provide an estimate of the coded bits to the channel estimator, wherein the channel estimator also receives the output of the fast Fourier transform, FFT, module; and decode the combined bit LLR sequences and output an information sequence; provide an estimate of the coded bits to the channel estimator, wherein the channel estimator also receives the output of the fast Fourier transform, FFT, module; and wherein the FEC decoder is also configured to output the estimate of the coded bits to the respective second signal processing module.
Connector element for a high-current and/or high-voltage plug type connector in motor vehicle technology, comprising a housing which is constructed in the manner of a pin receptacle, and at least one electrical pin contact element , further defined as pin , said pin being configured for a high-current and/or high-voltage plug type connector in motor vehicle technology; wherein said pin has a free end and a base which is spaced apart from the free end , said base being integrally formed with a bottom of the housing; wherein an electrically insulating contact protection member extends from the base of the pin , as far as the free end of said pin , so as to form an outer face of a contact protection portion of said pin ; wherein at least one pin is at least partially surrounded by a corresponding contact protection collar of the connector element , such collar forming with respect to the corresponding pin , at least one opening in which the corresponding contact protection member is located; wherein said corresponding contact protection member and said corresponding contact protection collar are integrally formed with the bottom of the housing ; and wherein the corresponding contact protection member forms at least partially an encoding element for defining an insertion direction (S, S') and/or insertion orientation of the pin in which it can be connected to a counter-contact element.