mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: an interface configured to receive particle acceleration data; one or more processors ; one or more storage media storing instructions, which, when executed by the one or more processors, cause the apparatus to perform: transforming the particle acceleration data from a time domain to a frequency domain; characterised in that the instructions further cause the apparatus to perform: in the frequency domain, by determining a deterministic Weiner filter having a damping factor based on the particle acceleration data, the damping factor to provide stability to the filter in the presence of noise in the particle acceleration data; and applying the deterministic Wiener filter to the particle acceleration data to generate one of particle velocity data and particle displacement data in the frequency domain. an interface configured to receive particle acceleration data; one or more processors ; one or more storage media storing instructions, which, when executed by the one or more processors, cause the apparatus to perform: transforming the particle acceleration data from a time domain to a frequency domain; characterised in that the instructions further cause the apparatus to perform: in the frequency domain, by determining a deterministic Weiner filter having a damping factor based on the particle acceleration data, the damping factor to provide stability to the filter in the presence of noise in the particle acceleration data; and applying the deterministic Wiener filter to the particle acceleration data to generate one of particle velocity data and particle displacement data in the frequency domain. in the frequency domain, by determining a deterministic Weiner filter having a damping factor based on the particle acceleration data, the damping factor to provide stability to the filter in the presence of noise in the particle acceleration data; and applying the deterministic Wiener filter to the particle acceleration data to generate one of particle velocity data and particle displacement data in the frequency domain.
An agricultural wheel forming an accessory for a seed drill disc , said wheel comprising: - a body comprising a rim generally of a shape of revolution around a central axis ; - a semi-hollow-type tire comprising a flexible case around a hollow chamber , this flexible case comprising a sheath and a tread , this tread having a profile domed towards the outside of the tire ; - the rim comprising an axial section shaped as a seat , suitable for receiving the tire , and an axial section shaped as a tool , suitable for scraping the seed drill disc, and an intermediate axial section which connects the tool section to the seat section ; characterized in that : - the case includes at least a first sidewall , close to the tool section , connecting the sheath to the tread , this first sidewall generally extending radially or slightly inclined radially; - this intermediate section being shaped as an axial stop for the tire in form correspondence with the first sidewall ; - the tire being mounted on the seat section by means of the sheath in an axially stressed state which maintains the first sidewall in contact against the axial stop . - a body comprising a rim generally of a shape of revolution around a central axis ; - a semi-hollow-type tire comprising a flexible case around a hollow chamber , this flexible case comprising a sheath and a tread , this tread having a profile domed towards the outside of the tire ; - the rim comprising an axial section shaped as a seat , suitable for receiving the tire , and an axial section shaped as a tool , suitable for scraping the seed drill disc, and an intermediate axial section which connects the tool section to the seat section ; - the case includes at least a first sidewall , close to the tool section , connecting the sheath to the tread , this first sidewall generally extending radially or slightly inclined radially; - this intermediate section being shaped as an axial stop for the tire in form correspondence with the first sidewall ; - the tire being mounted on the seat section by means of the sheath in an axially stressed state which maintains the first sidewall in contact against the axial stop .
Micromechanical component, comprising: a holder with a stretched membrane which, in the case of a pressure equality on a first membrane side of the membrane and a second membrane side of the membrane , is present in its initial form and can be bent out of its initial form against a membrane counterforce (Fm) according to a membrane spring constant of the membrane by means of a pressure difference between the first membrane side and the second membrane side ; and at least one actuator electrode which is connected to the membrane and is connected to the holder by means of at least one spring in such a way that the at least one actuator electrode can be adjusted by means of bending of the membrane out of its respective initial position against a spring force (Fs) according to at least one spring constant of the at least one spring ; wherein a total system spring constant can be defined as the sum of the spring membrane constant of the membrane and the spring constant of the single spring or a total spring constant of all springs by means of which the at least one actuator electrode is connected to the holder , characterized in that the spring constant of the single spring or the total spring constant of all springs by means of which the at least one actuator electrode is connected to the holder is at least 5% of the total system spring constant. a holder with a stretched membrane which, in the case of a pressure equality on a first membrane side of the membrane and a second membrane side of the membrane , is present in its initial form and can be bent out of its initial form against a membrane counterforce (Fm) according to a membrane spring constant of the membrane by means of a pressure difference between the first membrane side and the second membrane side ; and at least one actuator electrode which is connected to the membrane and is connected to the holder by means of at least one spring in such a way that the at least one actuator electrode can be adjusted by means of bending of the membrane out of its respective initial position against a spring force (Fs) according to at least one spring constant of the at least one spring ; wherein a total system spring constant can be defined as the sum of the spring membrane constant of the membrane and the spring constant of the single spring or a total spring constant of all springs by means of which the at least one actuator electrode is connected to the holder , characterized in that the spring constant of the single spring or the total spring constant of all springs by means of which the at least one actuator electrode is connected to the holder is at least 5% of the total system spring constant.
Method for monitoring a vehicle which is in an autonomous operating mode and in a parking space, - wherein it is checked whether there are one or more persons located in the passenger compartment of the vehicle, - wherein one or more actions are carried out as a function of the checking, - wherein the one or more actions are carried out if one or more persons are located in the passenger compartment of the vehicle, - characterized in that by means of a vehicle-external monitoring system the passenger compartment of the vehicle is monitored for the presence of one or more persons, - wherein the one or more actions comprise the fact that a stop command, indicating that the vehicle should stop, is sent to the vehicle via a communication network. - wherein it is checked whether there are one or more persons located in the passenger compartment of the vehicle, - wherein one or more actions are carried out as a function of the checking, - wherein the one or more actions are carried out if one or more persons are located in the passenger compartment of the vehicle, - characterized in that by means of a vehicle-external monitoring system the passenger compartment of the vehicle is monitored for the presence of one or more persons, - wherein the one or more actions comprise the fact that a stop command, indicating that the vehicle should stop, is sent to the vehicle via a communication network.
A data transmission method, adapted for a base station device (BS1, BS2, BS3), wherein the data transmission method comprises: determining (S102) whether an end device (UE1, UE2, UE3) is in at least one of a pre-operation state of data transmission and a measurement state according to report data of the end device (UE1, UE2, UE3); if so, entering a first mode (S104) to provide a first signal service range (CR); and if not, entering a second mode (S106) to provide a second signal service range (CR') greater than the first signal service range (CR), and in the second mode, transmitting a measurement disable signal to the end device (UE1, UE2, UE3) to disable the end device (UE1, UE2, UE3) from a signal measurement, wherein the report data comprises at least one of completed boot process state or measurement state of the end devices (UE1, UE2, UE3). determining (S102) whether an end device (UE1, UE2, UE3) is in at least one of a pre-operation state of data transmission and a measurement state according to report data of the end device (UE1, UE2, UE3); if so, entering a first mode (S104) to provide a first signal service range (CR); and if not, entering a second mode (S106) to provide a second signal service range (CR') greater than the first signal service range (CR), and in the second mode, transmitting a measurement disable signal to the end device (UE1, UE2, UE3) to disable the end device (UE1, UE2, UE3) from a signal measurement, wherein the report data comprises at least one of completed boot process state or measurement state of the end devices (UE1, UE2, UE3).
A testing system, comprising a reagent reaction vessel and a test device, wherein a reagent storage portion and a push rod movable relative to the reagent storage portion are packaged in the reagent reaction vessel , the reagent storage portion comprises at least one reagent containing cavity , and the reagent containing cavity is being sealed by a sealing element ; the push rod is connected to the sealing element , and the push rod is configured to be used for cooperation with the test device to separate the sealing element from the reagent storage portion ; and the test device comprises a test cassette , an ejection rod is arranged in the test cassette , and the ejection rod is configured to cooperate with the push rod to separate the sealing element from the reagent storage portion , the push rod being entirely contained in the reagent reaction vessel . a reagent storage portion and a push rod movable relative to the reagent storage portion are packaged in the reagent reaction vessel , the reagent storage portion comprises at least one reagent containing cavity , and the reagent containing cavity is being sealed by a sealing element ; the push rod is connected to the sealing element , and the push rod is configured to be used for cooperation with the test device to separate the sealing element from the reagent storage portion ; and the test device comprises a test cassette , an ejection rod is arranged in the test cassette , and the ejection rod is configured to cooperate with the push rod to separate the sealing element from the reagent storage portion , the push rod being entirely contained in the reagent reaction vessel .
A non-therapeutic cosmetic use of a hydroxypyranone derivative compound represented by Chemical Formula 1 for increasing the volume of subcutaneous adipose tissue through promoting differentiation of mesenchymal stem cells into adipocytes: wherein R is -CH 2 - or -CH 2 CH 2 -.
A method for data stream transmission, comprising steps: receiving, by a resting device, a message indicating to enter into the energy-saving state (S100); after receiving the message indicating to enter into the energy-saving state, sending, by the resting device, stored user information to an on-duty device so that the on-duty device receives and synchronizes the user information (S101); after the user information is synchronized, setting, by the resting device, transmission state as standby and entering into the sleeping state (S103); wherein a data stream switching is performed between the resting device and the on-duty device after the user information is synchronized, and the on-duty device is a device in the working state after the data stream switching, while the resting device is a device in the sleeping state after the data stream switching; and wherein after the user information is synchronized, the on-duty device sets transmission state as main and performs a data stream switching, wherein the on-duty device setting the transmission state as main and performing the data stream switching comprises: distributing a routing to an upstream device to trigger the data stream switching; setting the device priority as high according to a Virtual Router Redundancy Protocol of the on-duty device, so as to set the transmission state as main; and sending Address Resolution Protocol packets to a downstream device. receiving, by a resting device, a message indicating to enter into the energy-saving state (S100); after receiving the message indicating to enter into the energy-saving state, sending, by the resting device, stored user information to an on-duty device so that the on-duty device receives and synchronizes the user information (S101); after the user information is synchronized, setting, by the resting device, transmission state as standby and entering into the sleeping state (S103); wherein a data stream switching is performed between the resting device and the on-duty device after the user information is synchronized, and the on-duty device is a device in the working state after the data stream switching, while the resting device is a device in the sleeping state after the data stream switching; and wherein after the user information is synchronized, the on-duty device sets transmission state as main and performs a data stream switching, wherein the on-duty device setting the transmission state as main and performing the data stream switching comprises: distributing a routing to an upstream device to trigger the data stream switching; setting the device priority as high according to a Virtual Router Redundancy Protocol of the on-duty device, so as to set the transmission state as main; and sending Address Resolution Protocol packets to a downstream device.
Piezoelectric user interface arrangement comprising: - a voltage converter configured to controllably generate voltage waveforms for driving one or more piezoelectric elements , said voltage converter having at least one control input , and - a controller coupled to said at least one control input and configured to control an output voltage of said voltage converter by applying control signals to said at least one control input , said controller having one or more scaling inputs ; wherein said controller is configured to form said control signals to make said output voltage follow a target waveform as a function of time, and characterized in that , in case the original target waveform cannot be followed said controller scales said target waveform on the basis of scaling information received through said one or more scaling inputs so as to allow said output voltage to deviate from the original target waveform and follow the scaled target waveform. - a voltage converter configured to controllably generate voltage waveforms for driving one or more piezoelectric elements , said voltage converter having at least one control input , and - a controller coupled to said at least one control input and configured to control an output voltage of said voltage converter by applying control signals to said at least one control input , said controller having one or more scaling inputs ; wherein said controller is configured to form said control signals to make said output voltage follow a target waveform as a function of time, and characterized in that , in case the original target waveform cannot be followed said controller scales said target waveform on the basis of scaling information received through said one or more scaling inputs so as to allow said output voltage to deviate from the original target waveform and follow the scaled target waveform.
A device for regular cleaning of a downhole filter, comprising an acoustic emitter and a delivery means, characterized in that the acoustic emitter is made up of a series of interconnected upper supporting plate with a rotary unit , an ultrasonic transducers block consisting of two oppositely oriented ultrasonic transducers , an electric motor and a lower supporting plate , wherein the electric motor is mounted on the lower supporting plate and is adapted to provide rotary oscillations of the ultrasonic transducers block within a 180-degree range, while the delivery means is adapted to move the acoustic emitter in a reciprocating manner along a filter axis, wherein the ultrasonic transducers block in combination with the delivery means are provided to sweep the inner surface of the filter with ultrasonic fluid flow simultaneously along the axis and around the circumference of the filter.
An electrolytic cell which is divided into an anode chamber and a cathode chamber by an ion exchange membrane, comprising (a) an anode installed in said anode chamber; (b) a gas diffusion electrode installed in said cathode chamber; and (c) a liquid retention layer in the form of a mesh, a woven fabric, a nonwoven article, a foam or a thin sheet formed from a material selected from the group comprising carbon, zirconium oxide, a ceramics of silicon carbide, hydrophilic-treated PTFE (polytetrafluoroethylene), FEP (tetrafluoroethylene-propylene hexafluoride copolymer), an aramid resin, alkali resistant metals such as nickel, silver, and alloys thereof, or stainless steel installed in said cathode chamber and located between said ion exchange membrane and said gas diffusion electrode, characterized in that said liquid retention layer has a liquid retention amount per unit volume of the liquid retention layer of 0.15g-H 2 O/CM 3 or more and 0.61g-H 2 O/cm 3 or less, wherein the liquid retention amount of the liquid retention layer is defined as B-A, wherein [A] is the weight obtained by a method in which the liquid retention layer is immersed in an aqueous solution of 34.5 % by weight of sodium hydroxide for one day, washed by water to remove completely the aqueous solution of sodium hydroxide, and dried completely and [B] is the weight obtained by a method in which the afore-mentioned completely-dried liquid retention layer is immersed in pure water for one hour and taken out of the pure water and wherein the liquid retention amount per unit volume is defined as a value obtained by dividing the liquid retention amount by the volume of the liquid retention layer used for the measurement of the liquid retention amount. (a) an anode installed in said anode chamber; (b) a gas diffusion electrode installed in said cathode chamber; and (c) a liquid retention layer in the form of a mesh, a woven fabric, a nonwoven article, a foam or a thin sheet formed from a material selected from the group comprising carbon, zirconium oxide, a ceramics of silicon carbide, hydrophilic-treated PTFE (polytetrafluoroethylene), FEP (tetrafluoroethylene-propylene hexafluoride copolymer), an aramid resin, alkali resistant metals such as nickel, silver, and alloys thereof, or stainless steel installed in said cathode chamber and located between said ion exchange membrane and said gas diffusion electrode,
A method of monitoring fluid outflow along a wellbore , the method comprising: determining one or more temperature features from a distributed temperature signal originating in the wellbore , wherein the one or more temperature features represent a distribution of measured temperatures and comprise statistical variations of a temperature measurement obtained from the distributed temperature signal through depth or both time and depth; determining one or more frequency domain features from an acoustic signal originating in the wellbore ; and using the one or more temperature features and the one or more frequency domain features to identify one or more fluid outflow locations along the wellbore . determining one or more temperature features from a distributed temperature signal originating in the wellbore , wherein the one or more temperature features represent a distribution of measured temperatures and comprise statistical variations of a temperature measurement obtained from the distributed temperature signal through depth or both time and depth; determining one or more frequency domain features from an acoustic signal originating in the wellbore ; and using the one or more temperature features and the one or more frequency domain features to identify one or more fluid outflow locations along the wellbore .
A curable composition comprising: A. 100 parts of one or more fluoroelastomers comprising copolymerized units of: one or more fluorinated olefins; one or more fluorinated olefin co-monomer different from selected from the group consisting of fluorovinyl ethers, fluorinated olefins, olefins, and mixtures of these; and one or more cure site monomers selected from the group consisting of nitrile-containing fluorinated olefins and nitrile-containing fluorinated vinyl ethers; and B. 0.1 to 5 phr of at least one curing agent of formula (I): wherein: each of R 1 R 2 , R 3 , and R 4 , is selected from the group consisting of H, halogen atom, C1 to C4 alkyl groups in which the alkyl group is linear, branched, or cyclic; OR'; and aromatic groups; and R' is selected from the group consisting of C1 to C4 alkyl groups in which the alkyl group is linear, branched, or cyclic; and phenyl. A. 100 parts of one or more fluoroelastomers comprising copolymerized units of: one or more fluorinated olefins; one or more fluorinated olefin co-monomer different from selected from the group consisting of fluorovinyl ethers, fluorinated olefins, olefins, and mixtures of these; and one or more cure site monomers selected from the group consisting of nitrile-containing fluorinated olefins and nitrile-containing fluorinated vinyl ethers; and one or more fluorinated olefins; one or more fluorinated olefin co-monomer different from selected from the group consisting of fluorovinyl ethers, fluorinated olefins, olefins, and mixtures of these; and one or more cure site monomers selected from the group consisting of nitrile-containing fluorinated olefins and nitrile-containing fluorinated vinyl ethers; and B. 0.1 to 5 phr of at least one curing agent of formula (I): wherein: each of R 1 R 2 , R 3 , and R 4 , is selected from the group consisting of H, halogen atom, C1 to C4 alkyl groups in which the alkyl group is linear, branched, or cyclic; OR'; and aromatic groups; and R' is selected from the group consisting of C1 to C4 alkyl groups in which the alkyl group is linear, branched, or cyclic; and phenyl. each of R 1 R 2 , R 3 , and R 4 , is selected from the group consisting of H, halogen atom, C1 to C4 alkyl groups in which the alkyl group is linear, branched, or cyclic; OR'; and aromatic groups; and R' is selected from the group consisting of C1 to C4 alkyl groups in which the alkyl group is linear, branched, or cyclic; and phenyl.