mhurhangee/ep-ind-claims huggingface dataset:
A method for battery management for current balancing battery cells based on the capability of the battery cells, the method comprising: receiving, by a virtual cell management controller, a voltage and a current of at least one battery layer, wherein the at least one battery layer comprises more than one battery cell, the battery cells being connected together in parallel within the at least one battery layer; receiving, by the virtual cell management controller, a voltage and a current of a battery pack, wherein the battery pack comprises all of the battery cells; determining, by the virtual cell management controller, whether the battery pack is one of charging, discharging, and idle, by analyzing the current of the battery pack (1225, 1255, 1260); determining, by the virtual cell management controller, a reference voltage when the virtual cell management controller determines that the battery pack is one of charging (1275, 1280) and discharging (1240, 1245); providing, by at least one voltage controller, a battery pack voltage to the battery pack (1250, 1285); and providing, by the at least one voltage controller, a respective battery layer voltage to the at least one battery layer associated with the at least one voltage controller, wherein the respective battery layer voltage is dependent upon the reference voltage and the voltage of the at least one battery layer. receiving, by a virtual cell management controller, a voltage and a current of at least one battery layer, wherein the at least one battery layer comprises more than one battery cell, the battery cells being connected together in parallel within the at least one battery layer; receiving, by the virtual cell management controller, a voltage and a current of a battery pack, wherein the battery pack comprises all of the battery cells; determining, by the virtual cell management controller, whether the battery pack is one of charging, discharging, and idle, by analyzing the current of the battery pack (1225, 1255, 1260); determining, by the virtual cell management controller, a reference voltage when the virtual cell management controller determines that the battery pack is one of charging (1275, 1280) and discharging (1240, 1245); providing, by at least one voltage controller, a battery pack voltage to the battery pack (1250, 1285); and providing, by the at least one voltage controller, a respective battery layer voltage to the at least one battery layer associated with the at least one voltage controller, wherein the respective battery layer voltage is dependent upon the reference voltage and the voltage of the at least one battery layer.
System comprising a capping carousel and a device for feeding a closure for closing a container to a closure head in a capping carousel in a beverage filling machinery, preferably for feeding a screw closure to the closure head, comprising a picking wheel with at least one pocket for carrying a closure from a carrying position to a transfer position for transferring the closure to a closure head, and a device for interrupting the closure feeding to the closure head, wherein the picking wheel forms the device for interrupting the closure feeding and the picking wheel can be rotated independently from the capping carousel, wherein the picking wheel is controllable either by means of its own controller, or by means of a controller which is an element of a central controller of the system, characterised in that the controller is configured such that for interrupting the closure feeding to a closure head the picking wheel is rotated asynchronously from the capping carousel, so that the picking wheel at the transfer position has no pocket, an interspace between two consecutive pockets and/or an empty pocket, whereas as a rule, when the feeding of the closures is not interrupted, the rotational movement of the picking wheel is synchronised with the movement of the capping carousel, so that a closure head of the capping carousel during a transfer procedure removes a closure from the respective pocket which is at that moment in the transfer position.
An electroactive optical device having variable light transmittance in response to the magnitude of an applied electrical voltage, the device comprising: (a) an optical substrate having two opposing surfaces; (b) at least two electrodes spaced one from the other and disposed on at least one surface of the substrate; (c) at least one electroactive material layer in the form of a polymeric gel layer in contact with the at least two electrodes (b) and the surface of the substrate (a), wherein the electroactive material layer comprises an electrochromic-dichroic material, and characterised in further comprising (d) an alignment facility, wherein the electrochromic-dichroic material is at least partly aligned to effectuate a net linear polarization of light. (a) an optical substrate having two opposing surfaces; (b) at least two electrodes spaced one from the other and disposed on at least one surface of the substrate; (c) at least one electroactive material layer in the form of a polymeric gel layer in contact with the at least two electrodes (b) and the surface of the substrate (a), wherein the electroactive material layer comprises an electrochromic-dichroic material, and characterised in further comprising (d) an alignment facility,
A microorganism comprising a multi-methyl branched fatty acid (MMBFA) ester synthesis pathway comprising: (i) a polyketide synthase which is mycocerosic acid synthase from Mycobacterium tuberculosis, comprising SEQ ID NO:3, or active fragment thereof, or a sequence with at least 90% of identity with SEQ ID NO:3; (ii) a long chain fatty acid AMP ligase which is FADD28 from Mycobacterium tuberculosis, comprising SEQ ID NO:72, or active fragment thereof, or a sequence with at least 90% of identity with SEQ ID NO:72; (iii) an ester synthase which is PAPA5 from Mycobacterium tuberculosis, comprising SEQ ID NO:76, or active fragment thereof, or a sequence with at least 90% of identity with SEQ ID NO:76; (iv) a propionyl-CoA synthetase (PRPE) from E. coli, comprising an amino acid sequence having at least 80% sequence identity to SEQ ID NO:80; (v) a propionyl-CoA carboxylase complex from Streptomyces coelicolor, comprising an amino acid sequence having at least 80% sequence identity to any one of SEQ ID NO:81, SEQ ID NO:82, SEQ ID NO:83, or SEQ ID NO:84;and (vi) an acyl-acyl carrier protein thioesterase from E. coli, comprising an amino acid sequence having at least 80% sequence identity to SEQ ID NO:89, wherein the polyketide synthase catalyzes the iterative conversion of methyl-malonyl-CoA to MMBFA, and wherein said ester synthase catalyzes the transesterification of an MMBFA covalently bound to the ACP domain of MAS with an acceptor alcohol selected from a monovalent, linear or branched alcohol to produce an MMBFA ester. (i) a polyketide synthase which is mycocerosic acid synthase from Mycobacterium tuberculosis, comprising SEQ ID NO:3, or active fragment thereof, or a sequence with at least 90% of identity with SEQ ID NO:3; (ii) a long chain fatty acid AMP ligase which is FADD28 from Mycobacterium tuberculosis, comprising SEQ ID NO:72, or active fragment thereof, or a sequence with at least 90% of identity with SEQ ID NO:72; (iii) an ester synthase which is PAPA5 from Mycobacterium tuberculosis, comprising SEQ ID NO:76, or active fragment thereof, or a sequence with at least 90% of identity with SEQ ID NO:76; (iv) a propionyl-CoA synthetase (PRPE) from E. coli, comprising an amino acid sequence having at least 80% sequence identity to SEQ ID NO:80; (v) a propionyl-CoA carboxylase complex from Streptomyces coelicolor, comprising an amino acid sequence having at least 80% sequence identity to any one of SEQ ID NO:81, SEQ ID NO:82, SEQ ID NO:83, or SEQ ID NO:84;and (vi) an acyl-acyl carrier protein thioesterase from E. coli, comprising an amino acid sequence having at least 80% sequence identity to SEQ ID NO:89,
Method for dispersion in water of at least one alkyd resin, characterised in that it comprises the steps of: a) mixing at least one associative polymer consisting: - of at least one monomer which is (meth)acrylic acid, - of at least one monomer which is a (meth)acrylic ester, - and of at least one associative hydrophobic monomer having the general formula: where: - m, n, p and q are integers and m, n and p are less than 150, q is greater than 0 and at least one integer from among m, n and p is non-zero, - R has at least one polymerisable vinylic function, - R 1 and R 2 are identical or different and represent hydrogen atoms or alkyl groups, - R' is a hydrophobic group comprising at least 6 and at most 36 carbon atoms, preferentially at least 16 and at most 24 carbon atoms, very preferentially at least 18 and at most 22 carbon atoms, with at least one alkyd resin and water, the mixture being constituted of at least 20% by weight of an alkyd resin, relative to its total weight, b) adjusting the pH of the mixture obtained in step a) to a value greater than 6, preferentially 7, very preferentially 8, c) eventually precipitating the mixture obtained after step b) through the adjustment of the pH to a value less than 6, preferentially 5, very preferentially 3. a) mixing at least one associative polymer consisting: - of at least one monomer which is (meth)acrylic acid, - of at least one monomer which is a (meth)acrylic ester, - and of at least one associative hydrophobic monomer having the general formula: where: - m, n, p and q are integers and m, n and p are less than 150, q is greater than 0 and at least one integer from among m, n and p is non-zero, - R has at least one polymerisable vinylic function, - R 1 and R 2 are identical or different and represent hydrogen atoms or alkyl groups, - R' is a hydrophobic group comprising at least 6 and at most 36 carbon atoms, preferentially at least 16 and at most 24 carbon atoms, very preferentially at least 18 and at most 22 carbon atoms, with at least one alkyd resin and water, the mixture being constituted of at least 20% by weight of an alkyd resin, relative to its total weight, - of at least one monomer which is (meth)acrylic acid, - of at least one monomer which is a (meth)acrylic ester, - and of at least one associative hydrophobic monomer - m, n, p and q are integers and m, n and p are less than 150, q is greater than 0 and at least one integer from among m, n and p is non-zero, - R has at least one polymerisable vinylic function, - R 1 and R 2 are identical or different and represent hydrogen atoms or alkyl groups, - R' is a hydrophobic group comprising at least 6 and at most 36 carbon atoms, preferentially at least 16 and at most 24 carbon atoms, very preferentially at least 18 and at most 22 carbon atoms, b) adjusting the pH of the mixture obtained in step a) to a value greater than 6, preferentially 7, very preferentially 8, c) eventually precipitating the mixture obtained after step b) through the adjustment of the pH to a value less than 6, preferentially 5, very preferentially 3.
Method of operating a fluid working machine, comprising at least one working chamber of cyclically changing volume, a high-pressure fluid connection, a low-pressure fluid connection and at least one electrically actuated valve (10;11) connecting said working chamber to said high-pressure fluid connection and/or said low-pressure fluid connection, wherein the actuation pattern of at least one of said electrically actuated valves is chosen by an actuation strategy, depending on the working condition of said fluid working machine, characterised in that a plurality of different actuation strategies for the actuation of said electrically actuated valve is provided and an appropriate actuation strategy is chosen for different working conditions of said fluid working machine.
A method for continuously forming a composite material shape member having a varied cross-sectional shape by supplying a composite material prepreg having thermosetting resin impregnated in a carbon fiber or the like intermittently in a longitudinal direction and passing the same through a mold and an after-cure furnace, the method comprising: a step of passing prepreg sheets through a preforming device and forming a preform member having an even thickness; characterized in that it comprises: a step of preparing a movable mold with a mold portion having a cross-sectional shape corresponding to the cross-sectional shape of the shape member, wherein an inner surface thereof is formed of a flat planar surface and an outer surface thereof has a dimension varied in the longitudinal direction; a step of pre-laminating a composite material prepreg sheet on the outer surface of the movable mold so that the surface of the whole sheet constitute a planar surface; a step of overlapping to an inner side of the preform member the movable mold having said composite prepreg sheet laminated thereto in advance, and subjecting the preform member and the movable mold having the composite prepreg sheet laminated on it to a hot press; a step of additionally heating the hot-pressed member in an after-cure furnace so as to complete thermosetting; and a step of removing the movable mold from the member having completed thermosetting. a step of passing prepreg sheets through a preforming device and forming a preform member having an even thickness; a step of preparing a movable mold with a mold portion having a cross-sectional shape corresponding to the cross-sectional shape of the shape member, wherein an inner surface thereof is formed of a flat planar surface and an outer surface thereof has a dimension varied in the longitudinal direction; a step of pre-laminating a composite material prepreg sheet on the outer surface of the movable mold so that the surface of the whole sheet constitute a planar surface; a step of overlapping to an inner side of the preform member the movable mold having said composite prepreg sheet laminated thereto in advance, and subjecting the preform member and the movable mold having the composite prepreg sheet laminated on it to a hot press; a step of additionally heating the hot-pressed member in an after-cure furnace so as to complete thermosetting; and a step of removing the movable mold from the member having completed thermosetting. a step of additionally heating the hot-pressed member in an after-cure furnace so as to complete thermosetting; and a step of removing the movable mold from the member having completed thermosetting.
A method for feeding a plurality of yarns to a textile machine by way of respective yarn feeders, each one of said yarn feeders being provided with a motorized reel on which a yarn that is adapted to be fed to said textile machine is wound repeatedly, wherein a control unit modulates the speed of said reel by way of a first control loop on the basis of a reference position signal (PS_ref) generated by a second control loop which uses a position signal of the textile machine in order to maintain a given transmission ratio between said reel and said textile machine, characterized in that said transmission ratio is corrected automatically by a third control loop on the basis of a measured tension signal (Tmeas) generated by a tension sensor which is associated with said yarn.
A system information transmission method, characterized by comprising: receiving, by a first network node, at least one type of system information, SI, from a second network node, wherein the at least one type of SI comprises first SI; receiving, by the first network node, a request message from a terminal device, wherein the request message is used to request the first SI; and sending, by the first network node, the first SI to the terminal device based on the request message and the at least one type of SI, wherein the first and second network nodes are, respectively, a distributed unit and a centralized unit of a centralized unit-distributed unit split architecture; and wherein the request message is an RRC message, and the receiving, by the first network node, the request message from the terminal device, comprises: receiving, by the first network node, the request message from the terminal device through a first channel; and determining, by the first network node based on the first channel and a preset mapping relationship, that the request message is used to request the first SI, wherein the mapping relationship comprises a correspondence between the first channel and the first SI. receiving, by a first network node, at least one type of system information, SI, from a second network node, wherein the at least one type of SI comprises first SI; receiving, by the first network node, a request message from a terminal device, wherein the request message is used to request the first SI; and sending, by the first network node, the first SI to the terminal device based on the request message and the at least one type of SI, wherein the first and second network nodes are, respectively, a distributed unit and a centralized unit of a centralized unit-distributed unit split architecture; and wherein the request message is an RRC message, and the receiving, by the first network node, the request message from the terminal device, comprises: receiving, by the first network node, the request message from the terminal device through a first channel; and determining, by the first network node based on the first channel and a preset mapping relationship, that the request message is used to request the first SI, wherein the mapping relationship comprises a correspondence between the first channel and the first SI.
A device for detecting and analyzing signals in the ultrasounds frequency spectrum for being installed in an electronic communications device, the device configured to receive as inputs signals emitted by a speaker of the electronic communications device and signals received by a microphone of the electronic communications device; characterized in that the device comprises a processor for detecting malicious ultrasound signals, emitted by the speaker and received by the microphone of the electronic communications device, wherein the processor comprises: • a filter module comprising at least one filter for filtering the emitted or received signals in the ultrasound frequency bandwidth; • an analyzer module configured to analyze the emitted or received ultrasound signals, identify an application which has been previously installed in the electronic communications device and which originates the emission or reception of the ultrasound signals, where the application is configured to actuate as an application source when the application emits ultrasound signals and as an application destination when the application receives ultrasound signals, compare the application with a black list of known malicious applications, detect repeated emitted or received ultrasound signals indicating an existing conversation with another electronic communications device, record a sound level of the emitted or received ultrasound signals; and • a decision module configured to classify the emitted or received ultrasound signals as benign or malicious, depending on the results returned by the analyzer module. • a filter module comprising at least one filter for filtering the emitted or received signals in the ultrasound frequency bandwidth; • an analyzer module configured to analyze the emitted or received ultrasound signals, identify an application which has been previously installed in the electronic communications device and which originates the emission or reception of the ultrasound signals, where the application is configured to actuate as an application source when the application emits ultrasound signals and as an application destination when the application receives ultrasound signals, compare the application with a black list of known malicious applications, detect repeated emitted or received ultrasound signals indicating an existing conversation with another electronic communications device, record a sound level of the emitted or received ultrasound signals; and • a decision module configured to classify the emitted or received ultrasound signals as benign or malicious, depending on the results returned by the analyzer module.
Method for operation of at least one illuminant, in the form of a light-emitting diode, LED, in at least two LED modules (4, 5), wherein the light-emitting diode is respectively operated by a pulse-modulated current (I4, I5), wherein external dimming commands are converted into a change in the parameter of the pulse modulation, such as, for example, the duty cycle, wherein a positive flank of the pulse-modulated current used to operate a first LED module of the at least two LED modules (4, 5) is temporally offset with respect to a positive flank of the pulse-modulated current used to operate a second LED module of the at least two LED modules (4, 5) in such a way that a pulse of the pulse-modulated current for operating the first LED module lies in the switch-off period of the pulse-modulated current, characterized in that a long-term calibration of the light output or compensation of the light output of the LEDs may only be effected through a change of the amplitude of the pulse-modulated current, and the positive flank of the pulse-modulated current for operating the first LED module temporally coincides with a negative flank of the pulse-modulated current for operating the second LED module.
A continuous process for producing a microfiber product stream, said process comprising: contacting cut multicomponent fibers having a length of less than 25 millimeters with a treated aqueous stream in a fiber slurry zone to produce a cut multicomponent fiber slurry; wherein said cut multicomponent fibers comprise at least one water dispersible sulfopolyester and at least one water non-dispersible synthetic polymer immiscible with said water dispersible sulfopolyester; and wherein said treated aqueous stream is at a temperature of less than 40°C; contacting said cut multicomponent fiber slurry with a heated aqueous stream in a mix zone to produce a heated multicomponent fiber slurry; routing said heated multicomponent fiber slurry to a fiber opening zone to remove a portion of said water dispersible sulfopolyester to produce an opened microfiber slurry; and routing said opened microfiber slurry to a primary solid liquid separation zone to produce said microfiber product stream and a first mother liquor stream; wherein said first mother liquor stream comprises water and said water dispersible sulfopolyester. contacting cut multicomponent fibers having a length of less than 25 millimeters with a treated aqueous stream in a fiber slurry zone to produce a cut multicomponent fiber slurry; wherein said cut multicomponent fibers comprise at least one water dispersible sulfopolyester and at least one water non-dispersible synthetic polymer immiscible with said water dispersible sulfopolyester; and wherein said treated aqueous stream is at a temperature of less than 40°C; contacting said cut multicomponent fiber slurry with a heated aqueous stream in a mix zone to produce a heated multicomponent fiber slurry; routing said heated multicomponent fiber slurry to a fiber opening zone to remove a portion of said water dispersible sulfopolyester to produce an opened microfiber slurry; and routing said opened microfiber slurry to a primary solid liquid separation zone to produce said microfiber product stream and a first mother liquor stream; wherein said first mother liquor stream comprises water and said water dispersible sulfopolyester.