mhurhangee/patent-ind-claim-en huggingface dataset:
An electric power system comprising: - recording devices (101-105) located at different elements of the electric power system and configured to record waveform samples of quantities related to operation of the elements of the electric power system, and - a central device communicatively connected to the recording devices and configured to receive the recorded waveform samples from the recording devices, wherein: - the recording devices are synchronized with respect to each other to maintain a clock time common to the recording devices, and - the recording devices are configured to associate, to each of the recorded waveform samples, timing values indicative of the clock time during recording the waveform sample under consideration, one of the timing values corresponding to a beginning of the waveform sample and another one of the timing values corresponding to an end of the waveform sample, and timing values corresponding to the beginning and the end of one of the recorded waveform samples being a current waveform sample and timing values corresponding to the beginning and the end of another one of the recorded waveform samples being a voltage waveform sample are different from each other, respectively, and the one of the recorded waveform samples and the other one of the recorded waveform samples are partially overlapping in time. - recording devices (101-105) located at different elements of the electric power system and configured to record waveform samples of quantities related to operation of the elements of the electric power system, and - a central device communicatively connected to the recording devices and configured to receive the recorded waveform samples from the recording devices, - the recording devices are synchronized with respect to each other to maintain a clock time common to the recording devices, and - the recording devices are configured to associate, to each of the recorded waveform samples, timing values indicative of the clock time during recording the waveform sample under consideration, one of the timing values corresponding to a beginning of the waveform sample and another one of the timing values corresponding to an end of the waveform sample, and timing values corresponding to the beginning and the end of one of the recorded waveform samples being a current waveform sample and timing values corresponding to the beginning and the end of another one of the recorded waveform samples being a voltage waveform sample are different from each other, respectively, and the one of the recorded waveform samples and the other one of the recorded waveform samples are partially overlapping in time.
Method for controlling a furniture drive by means of a voice input, wherein the furniture drive has a control device to which at least one adjustment drive can be connected, comprising the following steps: - converting an acoustic signal into an electrical signal; - evaluating the electrical signal by at least one local voice analysis device ; and - controlling an operating state of the furniture drive if a keyword from a set of keywords is recognized during evaluation, characterized in, that - the control device is set up for the wired or wireless reception of control commands for the at least one adjustment drive from a manual control and/or - the control device has an interface device for at least one external voice analysis device and that the at least one local voice analysis device acts on the at least one adjustment drive with a priority which is higher than that of the manual control and/or the external voice analysis device. - converting an acoustic signal into an electrical signal; - evaluating the electrical signal by at least one local voice analysis device ; and - controlling an operating state of the furniture drive if a keyword from a set of keywords is recognized during evaluation, - the control device is set up for the wired or wireless reception of control commands for the at least one adjustment drive from a manual control and/or - the control device has an interface device for at least one external voice analysis device
A depositable ionic organic functional material, characterized in having a structure shown in the following formula : wherein, R is a hydrogen atom, a halogen atom or -CF 3 ; R' is a hydrogen atom or a halogen atom; the N^N ligand is selected from Pzpy shown in the following formula , Pyim shown in the following formula , Ptop shown in the following formula , Pop shown in the following formula , and Bpy shown in the following formula : wherein, R is a hydrogen atom, a halogen atom or -CF 3 ; R' is a hydrogen atom or a halogen atom; the N^N ligand is selected from Pzpy shown in the following formula , Pyim shown in the following formula , Ptop shown in the following formula , Pop shown in the following formula , and Bpy shown in the following formula :
A magnetostrictive transmitter comprising a magnetic float , a sensing element , a wire connecting the magnetic float and the sensing element , and a signal conditioning circuit , the signal conditioning circuit comprising: an instrumentation amplifier configured to receive and amplify an analog measurement signal from the sensing element in response to a torsional stress wave in the wire induced by the magnetic float in response to a current pulse transmitted along the wire ; an active high pass filter configured to reduce noise in a signal output by the instrumentation amplifier; a variable gain amplifier stage configured to further amplify a signal output by the active high pass filter; a distance detection module configured to process a signal output by the variable gain amplifier stage to determine a distance measurement associated with the analog measurement signal received by the instrumentation amplifier; and a programmable control circuit configured to control an energy level of the current pulse a gain level of the variable gain amplifier stage and to receive data concerning the signal output by the variable gain amplifier stage, including the distance measurement, from the distance detection module, wherein the programmable control circuit is further configured to iteratively set the energy level of the current pulse and subsequently the gain level of the variable gain amplifier stage to be as high as possible without causing saturation in the signal output by the variable gain amplifier stage. an instrumentation amplifier configured to receive and amplify an analog measurement signal from the sensing element in response to a torsional stress wave in the wire induced by the magnetic float in response to a current pulse transmitted along the wire ; an active high pass filter configured to reduce noise in a signal output by the instrumentation amplifier; a variable gain amplifier stage configured to further amplify a signal output by the active high pass filter; a distance detection module configured to process a signal output by the variable gain amplifier stage to determine a distance measurement associated with the analog measurement signal received by the instrumentation amplifier; and a programmable control circuit configured to control an energy level of the current pulse a gain level of the variable gain amplifier stage and to receive data concerning the signal output by the variable gain amplifier stage, including the distance measurement, from the distance detection module, wherein the programmable control circuit is further configured to iteratively set the energy level of the current pulse and subsequently the gain level of the variable gain amplifier stage to be as high as possible without causing saturation in the signal output by the variable gain amplifier stage.
An autopilot recoupling system for a rotorcraft , the rotorcraft having an automatic flight control system with multiple layers of flight augmentation, a manual flight mode and a coupled flight mode, the autopilot recoupling system comprising: a go-around input on a collective pitch control lever configured to initiate a go-around maneuver to discontinue a landing approach in the coupled flight mode and to generate an autopilot recoupling signal responsive to a single actuation in the manual flight mode; the autopilot recoupling system characterized by an autopilot recoupling signal processor communicably coupled to the go-around input , the autopilot recoupling signal processor configured to: receive the autopilot recoupling signal from the go-around input and responsive thereto; determine a state of the automatic flight control system ; activate a trim systems layer of the automatic flight control system if the trim systems layer is not active, wherein the trim systems layer is for cyclic pitch control; engage an attitude retention systems layer of the automatic flight control system if the attitude retention systems layer is disengaged; and recouple an autopilot systems layer of the automatic flight control system , thereby automatically increasing the level of augmentation from the manual flight mode to the coupled flight mode. a go-around input on a collective pitch control lever configured to initiate a go-around maneuver to discontinue a landing approach in the coupled flight mode and to generate an autopilot recoupling signal responsive to a single actuation in the manual flight mode; the autopilot recoupling system characterized by an autopilot recoupling signal processor communicably coupled to the go-around input , the autopilot recoupling signal processor configured to: receive the autopilot recoupling signal from the go-around input and responsive thereto; determine a state of the automatic flight control system ; activate a trim systems layer of the automatic flight control system if the trim systems layer is not active, wherein the trim systems layer is for cyclic pitch control; engage an attitude retention systems layer of the automatic flight control system if the attitude retention systems layer is disengaged; and recouple an autopilot systems layer of the automatic flight control system , thereby automatically increasing the level of augmentation from the manual flight mode to the coupled flight mode. receive the autopilot recoupling signal from the go-around input and responsive thereto; determine a state of the automatic flight control system ; activate a trim systems layer of the automatic flight control system if the trim systems layer is not active, wherein the trim systems layer is for cyclic pitch control; engage an attitude retention systems layer of the automatic flight control system if the attitude retention systems layer is disengaged; and recouple an autopilot systems layer of the automatic flight control system , thereby automatically increasing the level of augmentation from the manual flight mode to the coupled flight mode.
An electrochemical cell for wastewater treatment comprising: a. a solid polymer electrolyte membrane ; b. an anode catalyst layer adjacent to a first side of the solid polymer electrolyte membrane and a cathode catalyst layer adjacent to a second side of the solid polymer electrolyte membrane , opposite to the first side; c. a first open pore mesh adjacent to the anode catalyst layer and a second open pore mesh adjacent to the cathode catalyst layer ; d. a first compression frame , adjacent to the first open pore mesh and a second compression frame , adjacent to the second open pore mesh , each of the compression frames having compression arms spread within the area delimited by the perimeter of the frame, the compression arms being connected to each other at connection sites ; e. fasteners which protrude through holes provided in the compression arms of the first and second compression frames at the connection sites , through holes provided in the first and second open pore meshes and through the solid polymer electrolyte membrane and the anode and cathode catalyst layers , wherein the fasteners provide the force to compress the solid polymer electrolyte membrane , the catalyst layers and the open pore meshes between the two compression frames . a. a solid polymer electrolyte membrane ; b. an anode catalyst layer adjacent to a first side of the solid polymer electrolyte membrane and a cathode catalyst layer adjacent to a second side of the solid polymer electrolyte membrane , opposite to the first side; c. a first open pore mesh adjacent to the anode catalyst layer and a second open pore mesh adjacent to the cathode catalyst layer ; d. a first compression frame , adjacent to the first open pore mesh and a second compression frame , adjacent to the second open pore mesh , each of the compression frames having compression arms spread within the area delimited by the perimeter of the frame, the compression arms being connected to each other at connection sites ; e. fasteners which protrude through holes provided in the compression arms of the first and second compression frames at the connection sites , through holes provided in the first and second open pore meshes and through the solid polymer electrolyte membrane and the anode and cathode catalyst layers ,
Method for producing a carbon fiber-reinforced molded article comprising a base material and a composite material dispersed in the base material , the method comprising: immersing a fiber bundle including carbon fibers in a dispersion in which a plurality of carbon nanotubes isolatedly dispersed while imparting mechanical energy to the dispersion to attach the plurality of carbon nanotubes to a surface of each of the carbon fibers by a van der Waals force, and then withdrawing the fiber bundle from the dispersion and drying the fiber bundle to attach the plurality of carbon nanotubes directly to the surface of the carbon fibers at an attaching portion , thereby forming a structure having a network structure in which the plurality of carbon nanotubes are directly connected to one another on the surface of each of the carbon fibers in the fiber bundle; immersing the fiber bundle including the carbon fibers each having the structure in a solution of an epoxy resin, and then heating the fiber bundle to cure the epoxy resin, thereby forming a binding member constituted by a cured product of the epoxy resin on at least a portion other than the attaching portion of the plurality of carbon nanotubes , and bounding the plurality of carbon nanotubes physically to the carbon fibers to obtain a composite material ; and cutting the composite material , and then mixing and kneading the composite material with thermoplastic resin chips as the raw material of the base material . immersing a fiber bundle including carbon fibers in a dispersion in which a plurality of carbon nanotubes isolatedly dispersed while imparting mechanical energy to the dispersion to attach the plurality of carbon nanotubes to a surface of each of the carbon fibers by a van der Waals force, and then withdrawing the fiber bundle from the dispersion and drying the fiber bundle to attach the plurality of carbon nanotubes directly to the surface of the carbon fibers at an attaching portion , thereby forming a structure having a network structure in which the plurality of carbon nanotubes are directly connected to one another on the surface of each of the carbon fibers in the fiber bundle; immersing the fiber bundle including the carbon fibers each having the structure in a solution of an epoxy resin, and then heating the fiber bundle to cure the epoxy resin, thereby forming a binding member constituted by a cured product of the epoxy resin on at least a portion other than the attaching portion of the plurality of carbon nanotubes , and bounding the plurality of carbon nanotubes physically to the carbon fibers to obtain a composite material ; and cutting the composite material , and then mixing and kneading the composite material with thermoplastic resin chips as the raw material of the base material .
A method of processing a semiconductor workpiece having a front surface and a back surface, including the steps of: i) placing the back surface of the workpiece on a workpiece support 12 in a chamber 10 so that the front surface of the workpiece faces into the chamber for processing, the chamber 10 having an associated chamber gas pressure, and the back surface is in fluid communication with a back region having an associated back gas pressure; ii) performing a workpiece processing step at a first chamber pressure P c1 and a first back pressure P b1 , wherein P c1 and P b1 give rise to a pressure differential, P b1 -P c1 , which is maintained so as to avoid a pressure induced loss of contact between the workpiece and the workpiece support 12; and iii) performing a workpiece cooling step at a second chamber pressure P c2 and a second back pressure P b2 , wherein P c2 and P b2 are higher than P c1 and P b1 , respectively, at least P b2 being sufficiently high to enhance cooling of the workpiece, and wherein P c2 and P b2 give rise to a pressure differential, P b2 -P c2 , which is maintained so as to avoid a pressure-induced loss of contact between the workpiece and the workpiece support 12. i) placing the back surface of the workpiece on a workpiece support 12 in a chamber 10 so that the front surface of the workpiece faces into the chamber for processing, the chamber 10 having an associated chamber gas pressure, and the back surface is in fluid communication with a back region having an associated back gas pressure; ii) performing a workpiece processing step at a first chamber pressure P c1 and a first back pressure P b1 , wherein P c1 and P b1 give rise to a pressure differential, P b1 -P c1 , which is maintained so as to avoid a pressure induced loss of contact between the workpiece and the workpiece support 12; and iii) performing a workpiece cooling step at a second chamber pressure P c2 and a second back pressure P b2 , wherein P c2 and P b2 are higher than P c1 and P b1 , respectively, at least P b2 being sufficiently high to enhance cooling of the workpiece, and wherein P c2 and P b2 give rise to a pressure differential, P b2 -P c2 , which is maintained so as to avoid a pressure-induced loss of contact between the workpiece and the workpiece support 12.
A method of writing data in a replay protected memory block, RPMB, area of a storage device in response to a request of a host device , the method comprising: receiving, from the host device , a write request comprising a message authentication code, data, and a bitmap index; and verifying (S13, S23, S33; S316; S517) the write request based on the message authentication code and the bitmap index, wherein verifying (S13, S23, S33; S316; S517) the write request comprises: calculating (S42) a message authentication code based on the data and the bitmap index received from the host device; comparing the message authentication code calculated in the storage device with the message authentication code of the write request ; and comparing (S41) the bitmap index of the write request with a plurality of bitmap indexes stored in the storage device to check whether a replay attack has been made. receiving, from the host device , a write request comprising a message authentication code, data, and a bitmap index; and verifying (S13, S23, S33; S316; S517) the write request based on the message authentication code and the bitmap index, wherein verifying (S13, S23, S33; S316; S517) the write request comprises: calculating (S42) a message authentication code based on the data and the bitmap index received from the host device; comparing the message authentication code calculated in the storage device with the message authentication code of the write request ; and comparing (S41) the bitmap index of the write request with a plurality of bitmap indexes stored in the storage device to check whether a replay attack has been made. calculating (S42) a message authentication code based on the data and the bitmap index received from the host device; comparing the message authentication code calculated in the storage device with the message authentication code of the write request ; and comparing (S41) the bitmap index of the write request with a plurality of bitmap indexes stored in the storage device to check whether a replay attack has been made.
Use of a wax dispersion as a hydrophobizing agent for lignocelluloses in the form of fibers, shavings or strands in the production of wood-based materials, wherein the wax dispersion comprises 20% by weight to 80% by weight of water as the continuous phase 0.5% to 10% by weight of at least one emulsifier and a) 20% to 80% by weight of waxes forming the disperse phase, wherein wax particles of at least two different waxes are present separately in the wax dispersion and the continuous phase of the wax dispersion is water and b) at least two of the waxes present separately in the dispersion are to an extent of at least 85% by weight one or more long-chain hydrocarbons having on average more than 20 carbon atoms and c) at least two of the waxes present separately in the dispersion have a solidification point of 35°C to 150°C and wherein contacting of the fibers, shavings or strands with the wax dispersion to apply the wax to the fibers, shavings or strands and pressing affords a wood-based material containing the fibers, shavings or strands and optionally further constituents and wherein, based on the dry weight of the wood-based material 0.1% to 5% by weight of wax solids have been incorporated. 20% by weight to 80% by weight of water as the continuous phase 0.5% to 10% by weight of at least one emulsifier and a) 20% to 80% by weight of waxes forming the disperse phase, wherein wax particles of at least two different waxes are present separately in the wax dispersion and the continuous phase of the wax dispersion is water and b) at least two of the waxes present separately in the dispersion are to an extent of at least 85% by weight one or more long-chain hydrocarbons having on average more than 20 carbon atoms and c) at least two of the waxes present separately in the dispersion have a solidification point of 35°C to 150°C and wherein contacting of the fibers, shavings or strands with the wax dispersion to apply the wax to the fibers, shavings or strands and pressing affords a wood-based material containing the fibers, shavings or strands and optionally further constituents and wherein, based on the dry weight of the wood-based material 0.1% to 5% by weight of wax solids have been incorporated. a) 20% to 80% by weight of waxes forming the disperse phase, wherein wax particles of at least two different waxes are present separately in the wax dispersion and the continuous phase of the wax dispersion is water and b) at least two of the waxes present separately in the dispersion are to an extent of at least 85% by weight one or more long-chain hydrocarbons having on average more than 20 carbon atoms and c) at least two of the waxes present separately in the dispersion have a solidification point of 35°C to 150°C and wherein contacting of the fibers, shavings or strands with the wax dispersion to apply the wax to the fibers, shavings or strands and pressing affords a wood-based material containing the fibers, shavings or strands and optionally further constituents and wherein, based on the dry weight of the wood-based material 0.1% to 5% by weight of wax solids have been incorporated.