mhurhangee/patent-ind-claim-en huggingface dataset:
Seal (D) having an automatically movable sealing bar, having a holder which can be fastened to a door or window leaf, having a mechanism which is connected with the holder and the sealing bar, and having a drive with which the mechanism can be operated in order to effect a movement of the sealing bar relative to the holder , characterised in that the seal has a measuring apparatus for capturing stretching and compressing deformations on parts of the seal, and that the measuring apparatus has at least one sensor for the capture of stretching and compressing deformations, in order to monitor the seal.
A method for transforming and reconstructing a signal comprising: receiving a plurality of samples of a waveform of the signal at different points in time; transforming the waveform of the signal, for each sample, into an in-phase 'I' component and a quadrature 'Q' component; determining, with a derotational circuit , a constant product for the signal by applying a delayed complex conjugate multiple 'DCM' to the signal using the I components and the Q components of the samples, the constant product having an I component 'I c ' and a Q component 'Q c '; determining a magnitude component based on I c and Q c ; determining a delta phase component based on I c and Q c ; separately processing the magnitude component and the delta phase component to create a processed magnitude component from the magnitude component and a processed delta phase component from the delta phase component; and creating an IQ waveform by reconstructing the waveform of the signal based on the processed magnitude component and the processed delta phase component. receiving a plurality of samples of a waveform of the signal at different points in time; transforming the waveform of the signal, for each sample, into an in-phase 'I' component and a quadrature 'Q' component; determining, with a derotational circuit , a constant product for the signal by applying a delayed complex conjugate multiple 'DCM' to the signal using the I components and the Q components of the samples, the constant product having an I component 'I c ' and a Q component 'Q c '; determining a magnitude component based on I c and Q c ; determining a delta phase component based on I c and Q c ; separately processing the magnitude component and the delta phase component to create a processed magnitude component from the magnitude component and a processed delta phase component from the delta phase component; and creating an IQ waveform by reconstructing the waveform of the signal based on the processed magnitude component and the processed delta phase component.
A relaying device comprising: a network communication unit connected to a communication network and communicating with a plurality of terminal devices over the communication network, a storage unit for storing information of a plurality of groups and the terminal devices belonging to each of groups, and a control unit , in receiving a voice signal from a calling terminal device which is a terminal device sending the voice signal in first, for transferring the voice signal to a remaining terminal device, which is the terminal device other than the calling terminal device in a group to which the calling terminal device belongs; wherein the storage unit further is arranged to store a master-slave relationship of the plurality of groups, the control unit further is arranged to transfer the voice signal to the terminal device belonging to a master group when the group to which the calling terminal device belongs is a slave group and further is arranged to transfer the voice signal to the terminal device belonging to the slave group when the group to which the calling terminal device belongs is the master group. a network communication unit connected to a communication network and communicating with a plurality of terminal devices over the communication network, a storage unit for storing information of a plurality of groups and the terminal devices belonging to each of groups, and a control unit , in receiving a voice signal from a calling terminal device which is a terminal device sending the voice signal in first, for transferring the voice signal to a remaining terminal device, which is the terminal device other than the calling terminal device in a group to which the calling terminal device belongs; wherein the storage unit further is arranged to store a master-slave relationship of the plurality of groups, the control unit further is arranged to transfer the voice signal to the terminal device belonging to a master group when the group to which the calling terminal device belongs is a slave group and further is arranged to transfer the voice signal to the terminal device belonging to the slave group when the group to which the calling terminal device belongs is the master group.
A service takeover method, wherein the method is applied to a storage system, the storage system comprises a first storage device , a second storage device , and a quorum server , data communication is performed between the first storage device and the second storage device by using a link, the first and second storage devices synchronizing data between them using the link to maintain consistency of stored data, and the method is performed by the first storage device , comprising: a) obtaining (S103) a running status of the first storage device when determining (S101) that a communication fault occurs on the link between the first storage device and the second storage device, wherein the running status reflects current usage of a system resource of the first storage device, and the system resource comprises at least one or any combination of the following resources: a processor resource, a hard disk resource, a cache resource, or a host bandwidth resource; b) determining delay duration according to the running status, wherein the delay duration is a duration for which the first storage device waits before sending an arbitration request to the quorum server; and c) sending (S105), after the delay duration, the arbitration request to the quorum server to request to take over a storage access service. a) obtaining (S103) a running status of the first storage device when determining (S101) that a communication fault occurs on the link between the first storage device and the second storage device, wherein the running status reflects current usage of a system resource of the first storage device, and the system resource comprises at least one or any combination of the following resources: a processor resource, a hard disk resource, a cache resource, or a host bandwidth resource; b) determining delay duration according to the running status, wherein the delay duration is a duration for which the first storage device waits before sending an arbitration request to the quorum server; and c) sending (S105), after the delay duration, the arbitration request to the quorum server to request to take over a storage access service.
Method for calculating characteristic geometry variables and/or actuating variables of a three-point hydraulic lift of an agricultural tractor, in which, as a first geometry variable and/or actuating variable, an electronic monitoring unit acquires a mounting position of a lifting strut , which can be adjusted by means of a lifting arm , in one of a plurality of receiving drilled holes (36-1, 36-2) which are formed in a lower link which can be pivoted by means of the lifting strut , in that the lower link is firstly moved into a horizontal angular position α = 0 by actuating a hydraulic controller of the agricultural tractor , and a position P x , P z of the lifting arm which corresponds thereto is sensed with respect to the vertical by means of a position sensor , and an angular position γ of the lifting strut which corresponds thereto is also sensed with respect to the vertical by means of an associated acceleration and/or rotational speed sensor , wherein the monitoring unit for determining the mounting position of the lifting strut at the lower link determines for which of the receptacle drilled holes (36-1, 36-2) a geometric compulsory condition of the form U ix U iz = P x P z − a sin ⁢ γ cos ⁢ γ is satisfied in which U ix , U iz denote the positional coordinates of the i-th receptacle drilled hole and a denotes a variable representing the length of the lifting strut .
A turbomachine , comprising: a compressor section ; a combustor section ; a turbine section ; a compressor shaft at least partially disposed in the compressor section , the compressor shaft having a first rabbet annularly defined therein, the first rabbet including a first axially extending face and a first radially extending face ; a turbine shaft at least partially disposed in the turbine section and coupled to the compressor shaft , the turbine shaft having a second rabbet annularly defined therein and positioned opposite the first rabbet , the second rabbet including a second axially extending face and a second radially extending face ; and a patch ring mounted between the first rabbet and the second rabbet , wherein the patch ring includes a main body , a first arm extending radially outward from the main body , and a second arm extending radially inward from the main body , wherein the main body of the patch ring contacts the first axially extending face of the compressor shaft and the second axially extending face of the turbine shaft . a compressor section ; a combustor section ; a turbine section ; a compressor shaft at least partially disposed in the compressor section , the compressor shaft having a first rabbet annularly defined therein, the first rabbet including a first axially extending face and a first radially extending face ; a turbine shaft at least partially disposed in the turbine section and coupled to the compressor shaft , the turbine shaft having a second rabbet annularly defined therein and positioned opposite the first rabbet , the second rabbet including a second axially extending face and a second radially extending face ; and a patch ring mounted between the first rabbet and the second rabbet , wherein the patch ring includes a main body , a first arm extending radially outward from the main body , and a second arm extending radially inward from the main body , wherein the main body of the patch ring contacts the first axially extending face of the compressor shaft and the second axially extending face of the turbine shaft .
An ultrasound transducer stack comprising: a transducer layer configured to transmit ultrasound energy at a center frequency; and a lens layer secured to the transducer layer, wherein at least a portion of the lens layer has a concave curved recess with a length measured in an elevation direction of the transducer stack; wherein a center portion of the concave curved recess has a length that is less than the length of the concave curved recess and is defined between a midpoint of the concave curved recess and points outwardly therefrom in the elevation direction such that the center portion has an average thickness measured in an axial direction of the transducer stack that is substantially equal to one of 1, 3, 5 or 7 multiples of a 1/4 wavelength of the center frequency of the transducer layer; characterised in that a first matching layer is disposed between the transducer layer and the lens layer ; and a second matching layer is disposed between the lens layer and the first matching layer, wherein the second matching layer comprises cyanoacrylate, and wherein the first matching layer and the second matching layer each have a thickness of approximately 1/4-wavelength of the center frequency of the ultrasound energy from the transducer layer. a transducer layer configured to transmit ultrasound energy at a center frequency; and a lens layer secured to the transducer layer, wherein at least a portion of the lens layer has a concave curved recess with a length measured in an elevation direction of the transducer stack; wherein a center portion of the concave curved recess has a length that is less than the length of the concave curved recess and is defined between a midpoint of the concave curved recess and points outwardly therefrom in the elevation direction such that the center portion has an average thickness measured in an axial direction of the transducer stack that is substantially equal to one of 1, 3, 5 or 7 multiples of a 1/4 wavelength of the center frequency of the transducer layer; characterised in that a first matching layer is disposed between the transducer layer and the lens layer ; and a second matching layer is disposed between the lens layer and the first matching layer, wherein the second matching layer comprises cyanoacrylate, and wherein the first matching layer and the second matching layer each have a thickness of approximately 1/4-wavelength of the center frequency of the ultrasound energy from the transducer layer.
Sorting conveyor, in particular cross belt sorter, comprising: a basic structure , a guiding element which is arranged on the basic structure , at least one conveying carriage which is configured to be conveyed along the guiding element of the sorting conveyor in a conveying direction (FR), and a measuring device for monitoring at least one operating state of the conveying carriage and/or the guiding element , characterised in that the measuring device comprises a working cylinder whose cylinder piston can be acted on with a constant working force and which acts between the basic structure and a reference component which is mounted on the conveying carriage in a defined installation situation, wherein there is associated with the working cylinder a position transmitter which is configured to determine the position of the cylinder piston. a basic structure , a guiding element which is arranged on the basic structure , at least one conveying carriage which is configured to be conveyed along the guiding element of the sorting conveyor in a conveying direction (FR), and a measuring device for monitoring at least one operating state of the conveying carriage and/or the guiding element , characterised in that the measuring device comprises a working cylinder whose cylinder piston can be acted on with a constant working force and which acts between the basic structure and a reference component which is mounted on the conveying carriage in a defined installation situation, wherein there is associated with the working cylinder a position transmitter which is configured to determine the position of the cylinder piston.
Mobile electronic device for attachment to a human body part , comprising an electronic housing with electronic components arranged therein, wherein a flexible fastening arm is arranged on the electronic housing on each of two oppositely oriented wall sections , which extend away from the electronic housing and are flexibly deformable between a fastening position (BP) fastening to the body part and a release position (FP) releasing the body part , characterised in that the fastening arms are prestressed in the release position (FP) in the direction of the fastening position (BP) with a prestressing force (VK).
A dishwasher comprising a body ; at least one rack wherein items to be washed are placed; a water line which is arranged in the body , for delivering water into the body ; a main spray arm which can rotate around its own axis as connected to the water line ; a control unit which regulates the operation; and a receptacle arranged in the body ; characterized in that the dishwasher further comprises an auxiliary line for delivering, separately from the water line , water and/or air into the receptacle , wherein the receptacle comprises at least one auxiliary spray arm which can rotate around its own axis as connected to the auxiliary line , at least one nozzle which is arranged on the auxiliary spray arm , a shelf whereon the items to be washed are placed, and at least one discharge hole which discharges water therein.
A cleaning element to be fastened on a cylindrical basic body , wherein the cleaning element is designed as a cylindrical hollow element having a longitudinal axis and comprises a skeleton and a spiked lattice applied on the skeleton , wherein the skeleton is connected to the spiked lattice via a rubber sealing compound and an inner surface of the cleaning element facing the longitudinal axis is formed by the skeleton or the rubber sealing compound ,whereas the skeleton is formed by support rings which are arranged at certain intervals concentric with the longitudinal axis and which are held by means of one or more webs extending in the direction of the longitudinal axis .
A method for producing a three-dimensional workpiece, comprising: - irradiating a raw material layer with a laser beam , wherein a melt pool is produced at a point at which the laser beam strikes the raw material layer , - changing a position of the laser beam on the raw material layer with the aid of a first deflection unit , and - changing the position of the laser beam on the raw material layer with the aid of a second deflection unit , wherein the second deflection unit is adapted to deflect the position of the laser beam with a greater acceleration than a maximum possible acceleration of a deflection by the first deflection unit , and wherein the method further comprises: - producing at least a first melt pool and a second melt pool , wherein the laser beam is moved to and fro between the first melt pool and the second melt pool by the change of position with the aid of the second deflection unit , wherein the first melt pool and the second melt pool are maintained temporally continuously and are moved over the raw material layer by the change of position with the aid of the first deflection unit , and wherein the laser beam , by the change of position with the aid of the second deflection unit with an acceleration which is greater by a factor of more than 10 than that of a movement of the first melt pool and of the second melt pool by the first deflection unit , is moved to and fro between the first and the second melt pool in such a manner that the laser beam does not produce a melt pool between the first melt pool and the second melt pool . - irradiating a raw material layer with a laser beam , wherein a melt pool is produced at a point at which the laser beam strikes the raw material layer , - changing a position of the laser beam on the raw material layer with the aid of a first deflection unit , and - changing the position of the laser beam on the raw material layer with the aid of a second deflection unit , - producing at least a first melt pool and a second melt pool , wherein the laser beam is moved to and fro between the first melt pool and the second melt pool by the change of position with the aid of the second deflection unit , wherein the first melt pool and the second melt pool are maintained temporally continuously and are moved over the raw material layer by the change of position with the aid of the first deflection unit , and wherein the laser beam , by the change of position with the aid of the second deflection unit with an acceleration which is greater by a factor of more than 10 than that of a movement of the first melt pool and of the second melt pool by the first deflection unit , is moved to and fro between the first and the second melt pool in such a manner that the laser beam does not produce a melt pool between the first melt pool and the second melt pool .
An arc-shaped multi-focal point fixed anode gate controlled X-ray source, comprising an arc-shaped ray source housing , a ray tube bracket , a plurality of fixed anode reflected ray tubes and a plurality of gate controlled switches ; the plurality of fixed anode reflected ray tubes being fixed on the arc-shaped ray source housing through the ray tube bracket , and focal points of the plurality of fixed anode reflected ray tubes being distributed on a same distribution circle; and the plurality of gate controlled switches and the plurality of fixed anode reflected ray tubes being connected correspondingly, wherein each of the fixed anode reflected ray tube is provided with an independent gate controlled switch of said plurality of gate controlled switches; characterized in that the gate controlled switch is fixed to a tube body of the fixed anode reflected ray tube through a bracket, and an output end of the gate controlled switch is connected to a gate of the fixed anode reflected ray tube through a wire.
A computation device, comprising a storage unit , a conversion unit , an operation unit , and a controller unit , wherein the storage unit comprises a cache and a register ; the controller unit is configured to determine a decimal point position of first input data and a bit width of fixed-point data prior to acquiring the first input data and a computation instruction; the bit width of the fixed-point data is a bit width of the first input data converted into the fixed-point data; the operation unit is configured to initialize the decimal point position of the first input data and adjust the decimal point position of the first input data; the controller unit is configured to transmit an opcode and an opcode field of a data conversion instruction and the first input data to the conversion unit , and configured to transmit a plurality of operation instructions to the operation unit , wherein the opcode is configured to indicate information of a function of the data conversion instruction, the opcode field comprises information of the decimal point position, a flag bit indicating a data type of the first input data, and an identifier of data type conversion; the conversion unit is configured to convert the first input data into a second input data according to the decimal point position and the identifier of data type conversion; wherein the decimal point position of the first input data is initialized according to an empirical constant; and wherein adjusting the decimal point position of the first input data by the operation unit comprises: adjusting the decimal point position of the first input data according to a distribution of the first input data. the controller unit is configured to determine a decimal point position of first input data and a bit width of fixed-point data prior to acquiring the first input data and a computation instruction; the bit width of the fixed-point data is a bit width of the first input data converted into the fixed-point data; the operation unit is configured to initialize the decimal point position of the first input data and adjust the decimal point position of the first input data; the controller unit is configured to transmit an opcode and an opcode field of a data conversion instruction and the first input data to the conversion unit , and configured to transmit a plurality of operation instructions to the operation unit , wherein the opcode is configured to indicate information of a function of the data conversion instruction, the opcode field comprises information of the decimal point position, a flag bit indicating a data type of the first input data, and an identifier of data type conversion; the conversion unit is configured to convert the first input data into a second input data according to the decimal point position and the identifier of data type conversion; wherein the decimal point position of the first input data is initialized according to an empirical constant; and wherein adjusting the decimal point position of the first input data by the operation unit comprises: adjusting the decimal point position of the first input data according to a distribution of the first input data.