191 results about "Current element" patented technology

A magnetic resonance system is disclosed. The system includes a transceiver having a multichannel receiver and a multichannel transmitter, where each channel of the transmitter is configured for independent selection of frequency, phase, time, space, and magnitude, and each channel of the receiver is configured for independent selection of space, time, frequency, phase and gain. The system also includes a magnetic resonance coil having a plurality of current elements, with each element coupled in one to one relation with a channel of the receiver and a channel of the transmitter. The system further includes a processor coupled to the transceiver, such that the processor is configured to execute instructions to control a current in each element and to perform a non-linear algorithm to shim the coil.

Methods and apparatus for providing an integrated circuit having a drive current source, a magnetic sensing element coupled to the drive current source, the magnetic sensing element having first and second differential outputs, and first and second current elements to provide respective currents in relation to the drive current source, wherein the first current element is coupled to the first differential output and the second current element is coupled to the second differential output. In illustrative embodiments, an IC output can output a voltage corresponding to the currents of the first and second current elements.

An assembly group for current measurement comprises a conductor plate with three cuts and a measuring element placed on the conductor plate that has a difference sensor formed from two magnetic field sensors. By means of the three cuts a first and a second conductor section are formed in the conductor plate, wherein the current direction in the second conductor section runs opposite to the current direction in the first conductor section. The first magnetic field sensor is located above the first conductor section and the second magnetic field sensor is located above the second conductor section. The magnetic field sensors are sensitive to a magnetic field that runs parallel to the surface of the conductor plate and orthogonal to the current direction in the two conductor sections.

The invention belongs to the technical field of power system relay protection and particularly relates to a DC line relay protection method for a multi-terminal flexible medium-voltage DC power distribution system. The method comprises the steps of main protection and the backup protection. The main protection reflects an inter-electrode short-circuit fault of a DC line and a unipolar grounding fault of a small transition resistor, wherein a fault type and a fault interval are identified based on a current state matrix. The backup protection adopts the duration of the voltage imbalance as a starting criterion, so as to protect a judging fault interval of positive and negative current imbalance state matrixes at an installation part and isolate faults. The method determines the action signal of a DC breaker according to the switching-on / off signals of the main protection and the backup protection. The main protection only depends on the status signal values -1, 0 and 1 of two adjacent protection and transmission current elements, so that the requirement on a communication system is reduced. The backup protection judges the occurrence of a fault only based on the voltage, wherein the unbalanced current calculation is aiming at the positive current and the negative current of the same protection part. Therefore, the generation of errors due to the communication delay or the non-synchronized communication can be avoided.

This invention discloses digit image ruined points compensation method aiming to YUV data compensation, which comprises the following steps: getting current picture element YUV heft and the nearby at least four elements YUV heft; judging whether the current points are bad points according to the difference between current picture elements and nearby picture elements; if there are, then compensating the current element with nearby picture elements.

The present invention relates to an ultra wideband (UWB) internal antenna. The ultra wideband internal antenna includes a first radiation part, a feeding line, a second radiation part, and a ground part. The first radiation part is formed on a top surface of a dielectric substrate and provided with an internal slot. The feeding line supplies a current to the first radiation part. The second radiation part is formed in the internal slot of the first radiation part on the top surface of the dielectric substrate, the second radiation part being conductive. The ground part grounds both the first and second radiation parts. The second radiation part determines an ultra wideband by mutual electromagnetic coupling with the first radiation part using a current element induced due to the current supplied to the first radiation part.

The invention relates to a drive circuit for driving a current drive element with a first end and a second end, wherein the first end of the current drive element is electrically coupled to a first preset potential. The drive circuit comprises a switch module, a first capacitor and a second capacitor, wherein the switch module is electrically coupled to a data line, the second end of the current drive element and a second preset potential and used for determining whether to allow the current to pass through the current drive element; the first end and the second end of the first capacitor are respectively electrically coupled to different nodes in the switch module, and the first end of the first capacitor receives the potential on the data line in the specific time period due to the electrical coupling relation; the first end of the second capacitor is electrically connected with the second end of the first capacitor; and the second end of the second capacitor is electrically coupled to the second preset potential. The invention also provides a drive method applicable to the drive circuit.

Disclosed is a skin care device which performs skin care under the condition that it is attached to a user's face, performs both skin care using light and skin care using microcurrent, and prevents electrical interference between light source elements and microcurrent elements. The skin care device includes a non-conductive flexible substrate, at least one light source element provided on the flexible substrate, microcurrent elements provided on the flexible substrate, an insulating layer provided with first holes to expose the at least one light source element and second holes to expose the microcurrent elements, and a conductive layer including a plurality of conductive parts, each conductive parts contacting each microcurrent element through each second hole, and the conductive parts are divided so as to be spaced apart from one another and are provided with third holes to expose the at least one light source element.

The invention discloses a compensating current detection method based on instant space voltage vector orientation .The compensating current detection method based on instant space voltage vector orientation comprises the steps that an on-voltage instant value and an on-current instant value are collected, coordinate transformation from three phases to two phases is carried out respectively, and two-phase instant voltage and two-phase instant current are obtained; a sinusoidal signal and a cosine signal corresponding to a phase angle of a three-phase composite rotational voltage vector are calculated through the two-phase instant voltage, the projection of the two-phase instant current value on the voltage vector is solved, and instant active current and instant reactive current are obtained; direct-current components of the instant active current and the instant reactive current are separated, a fundamental wave positive sequence current component is solved, coordinate transformation from two phases to three phases is carried out on the fundamental wave positive sequence current component, and a fundamental wave current component in three-phase current is obtained; three-phase compensating current is obtained by subtracting the fundamental wave current component from the three-phase current instant value .A compensating current instruction obtained with the method includes fundamental wave negative sequence current and harmonic current elements, and the ideal effects of suppressing harmonic waves and balancing three-phase loads can be achieved at the same time .

An adaptive TFI reconstructing method includes converting a diffusion equation into a linear equation through a finite element method; constructing a linear relation between unknown fluorescent light source distribution and a surface fluorescence measurement value; calculating a current regularization parameter and selecting an element with the largest absolute value in a difference correlation coefficient into a support set I; extracting all the current elements in the updated support set from corresponding lines in a matrix A, constituting a matrix, and obtaining a next-step searching direction; calculating the length of the next step and updating the support set; obtaining a next-step result according to the solved searching direction and step length iteration, and updating the regularization parameter; and determining whether stopping requirements are satisfied, if yes, finishing the reconstructing process, or otherwise, turning to the fourth step. According to the method, the regularization parameter is not needed to predict but determined adaptively during the reconstructing method, the reconstructing robustness is improved through adaptive regularization parameter selection, and the reconstructing efficiency is improved greatly.

A display apparatus includes: a pixel array including a plurality of pixel circuits disposed in a matrix and each including a light emitting element, a driving transistor for supplying current in response to a signal value applied between a gate and a source thereof to the light emitting element when a driving voltage is applied between a drain and the source thereof, and a holding capacitor connected between the gate and the source of the driving transistor for holding the input signal value, the driving transistor having a multi-gate structure wherein two or more transistors formed using an oxide semiconductor material are connected in series; and a light emission driving section.

Disclosed is a process for manufacturing an aluminum support for a planographic printing plate material, the process-comprising the steps of electrolytically surface-roughening an aluminum plate in an electrolytic solution, employing a sinewave alternating current; and anodizing the surface-roughened aluminum plate, the electrolytically surface-roughening step comprising a first stage of electrolytically surface-roughening the aluminum plate in a first electrolytic solution containing hydrochloric acid as a main component at a current density of D1 for t1 at a quantity of electricity of Q1 and a second stage of electrolytically surface-roughening the aluminum plate in a second electrolytic solution containing hydrochloric acid as a main component at a current density of D2 for t2 at a quantity of electricity of Q2.

A vector reduction instruction with non-unit strided access pattern is received and executed by the execution circuitry of a processor. In response to the instruction, the execution circuitry performs an associative reduction operation on data elements of a first vector register. Based on values of the mask register and a current element position being processed, the execution circuitry sequentially set one or more data elements of the first vector register to a result, which is generated by the associative reduction operation applied to both a previous data element of the first vector register and a data clement of a third vector register. The previous data element is located more than one element position away from the current element position.

The invention discloses a current steering digital-analog converter with time domain error correction function. The current steering digital-analog converter comprises (n+1) digital-analog conversion channels and a time domain error correction unit, wherein the digital-analog conversion channel includes a latch, a time delay circuit and a current element; the time domain error correction unit includes a current square wave detector, a time difference amplifier and a time-digital converter. Due to the presence of the time difference amplifier and the time-digital converter, the time domain error existing in the digital-analog converter can be amplified linearly, and can be directly converted to a digital quantity, thereby greatly improving the time domain error detection accuracy. In addition, the current steering digital-analog converter provided by the invention is easier and rapider in detecting small time domain error; and the correction unit in the invention can be realized completely by using a digital circuit, so that the static power consumption is almost equal to zero.

The invention relates to the field of high-precision assembling of robots and provides an automatic element inserting machine control system based on an industrial robot to solve the problem that the assembling schedule of a current element inserting machine is low. The automatic element inserting machine control system comprises a conveying line motor, a first position obtaining module, a second position obtaining module, a material picking device, a vibration hopper, a clamping and positioning device, a robot controller, a master controller and a vision subsystem. According to the technical scheme, special-shaped electronic elements can be rapidly and accurately inserted through the robot, and the automatic element inserting machine control system has the beneficial effects of being high in stability, precision and interference resistance.

A probability of an observation sequence stored at a client is evaluated securely with respect to a hidden Markov model (HMM) stored at a server. The server determines, for each state of the HMM, an encryption of a log-probability of a current element of the observation sequence. Determines, for each state of the HMM, an encryption of a log-summation of a product of a likelihood of the observation sequence based on a previous element of the observation sequence and a transition probability to the state of the HMM. Determines an encryption of a log-likelihood of the observation sequence for each state as a product of the encryption of a log-summation and an encryption of a corresponding log-probability of the current element of the observation sequence; and determines an encryption of the log-probability of the observation sequence based on the log-likelihood of the observation sequence for each state.

Embodiments of the invention discloses a system and a method for determining an encrypted edit distance as an encryption of a minimum cost of transformation of a first sequence into a second sequence based on an insertion cost, a deletion cost, and a substitution cost. The method determines recursively a current element of the matrix as an encryption of a minimum of a first element, a second element, and a third element to produce the dynamic programming solution, wherein the first element represents the insertion cost, the second element represents the deletion cost, and the third element represents the substitution costs, and wherein the current element, the first element, the second element, and the third element are homomorphically encrypted with a public key; and selects the dynamic programming solution as the encrypted edit distance, wherein steps of the method are performed by a first processor and a second processor.

First order gradient errors are canceled with no current source splitting by placing consecutive current sources symmetrically around the center of the array. Consecutive elements that correspond to small input amplitudes (mid-scale codes) make a smaller spatial jump than those correspond to larger signal amplitudes. Both linear and second order gradients are reduced by splitting each current cell into two and placing sub-elements symmetrically with respect to the center of the array to address the linear gradient effect. To address second order gradients, current element placement follows a pattern such that consecutive element pairs are chosen with one of the pair being placed with respect to the zero error contour of the second order gradient so as to have a positive error and the second of the pair being placed so as to have a negative error resulting in reduced second order error accumulation.

The invention discloses a method for operating a mobile terminal by a single hand, a storage medium and a mobile terminal. The method comprises the steps of when sliding operation on a preset floatingicon is monitored, detecting a sliding direction of the sliding operation, and acquiring a current element indicated by a preset indication icon; and determining a target element according to the sliding direction and the current element, and moving the preset indication icon to the target element. According to the method provided by the invention, the sliding operation of a user is received by the preset floating icon for controlling movement of the indication icon associated with the floating icon on a display interface and indicating the corresponding target element, and thus the mobile terminal is operated by the single hand of the user.

The invention relates to a fluid driving method inside a micro channel, which sets magnetic fluid drop and driven fluid post inside the micro channel, with several micro current elements along the channel direction. It is driven by electromagnetic principle, free from mechanic movement component, with high reliability, easy for micro machining, with reduced cost, controlled logic simplicity, relatively wide selection scope with low cost of the basic fluid of the magnetic fluid, selecting proper magnetic fluid to drive various fluids.

The invention discloses a focus moving method, system and intelligent equipment. The focus moving method comprises the steps that when a control instruction of focus moving is received, control information of focus moving is obtained, and the control information comprises a next selected element; element state information of the next selected element and element state information of a current element are obtained; a focus cartoon is automatically set according to the element state information of the next selected element and the element state information of the current element, and smooth transition of focus moving is achieved by starting the focus cartoon.

The invention relates ton one network element status monitor method and its management device, which comprises the following steps: according to the element status to test relative received results; determining network current time credulity value; the credulity values is as: label for network in normal probability value; if the network element original status is normal, and the current value is less than or equal to the minimum gate then judging the current element status from normal to abnormal one.

A temperature sensor circuit in accordance with an embodiment of the present invention includes a temperature sensing element operable to provide a temperature voltage that is linearly related to the absolute temperature of the circuit. The temperature sensing element includes a first bi-polar junction transistor and a second bipolar junction transistor connected between a supply voltage and a common ground, wherein the base of first bipolar junction transistor is connected to the base of the second bipolar junction transistor, a first resistor connected between an emitter of the first bipolar junction transistor and the common ground and a second resistor connected between the common ground and a first node, wherein the temperature voltage is provided to the first node across the second resistor. The temperature sensor circuit also includes a current supply element operable to supply a common current to a collector of the first bipolar junction transistor, the second bipolar junction transistor and to the second resistor, respectively, an early voltage element operable to compensate for variations in voltage, a base current element operable to provide a steady base current to the bases of the first and second bipolar junction transistors, a channel modulation element operable to compensate for channel modulation and a leakage element operable to compensate for epi-substrate leakage between the circuit and a substrate on which it is formed.