Abstract: A sensing amplifier circuit includes first and second P-type transistors and first and second N-type transistors. The first P-type transistor includes a gate coupled to an input node, a source and a bulk coupled to a first node, and a drain coupled to an output node. The second P-type transistor includes a gate coupled to an inverted reading-triggered signal, a source coupled to a voltage source, and a drain coupled to the first node. The first N-type transistor includes a gate coupled to the input node, a drain coupled to the output node, and a source coupled to ground. The second N-type transistor includes a gate receiving the inverted reading-triggered signal, a drain coupled to the output node, and a source coupled to the ground. The first P-type transistor includes an N-type well region that is electrically connected to the source and bulk of the first P-type transistor.

Abstract: A backing up and recovering method of a file system is applied to a communication device. In the backing up and recovering method, a detecting step is performed to drive a first processing unit to detect whether the file system is damaged, and then generate a detection result. A transmitting step is performed to drive the first processing unit to transmit the detection result to a second processing unit. In response to the detection result being the file system is damaged, the second processing unit executes a system recovering step which recovers the file system according to a backup data that corresponds to the file system and is stored in a storage unit, and in response to the file system being not damaged, the second processing unit executes a backup confirming step which confirms whether the storage unit has the backup data.

Abstract: Provided are a treatment apparatus and a treatment method treating a waste cleaning liquid discharged from a process of producing an electrode of a lithium-ion secondary battery, in which a liquid component and a solid component are efficiently separated from each other, and the liquid component can be sufficiently collected and subjected to volume reduction treatment. The treatment apparatus includes: a stirring tank stirring the waste cleaning liquid; a liquid feed line that takes out the waste cleaning liquid from the stirring tank; and a thin film evaporator evaporating a cleaning liquid in the waste cleaning liquid to separate the solid component. Then, in the treatment method, the waste cleaning liquid is stirred in the stirring tank, the waste cleaning liquid is supplied to the thin film evaporator in a state in which the solid component is diffused, and the cleaning liquid in the waste cleaning liquid is evaporated.

Abstract: A non-volatile memory device includes a set of memory cells, a cycle transistor, a reference transistor and a control circuit. The control circuit is coupled to the set of memory cells, the cycle transistor and the reference transistor. A method of controlling the non-volatile memory device includes in a program operation or an erase operation of the set of memory cells, the control circuit determining a state of the cycle transistor, and upon determining the cycle transistor being in an erased state (or a programmed state), the control circuit setting the reference transistor from a reference state to the erased state (or the programmed state), and then restoring the reference transistor from the erased state (or the programmed state) to the reference state. The reference state is set between the erased state and a programmed state.

Abstract: A memory device and a control method for the memory device are provided. When it is determined that a bit read from a memory cell in a memory cell array is an erroneous bit, the memory device triggers a second reading cycle. During the second reading cycle, if the bit read from the same memory cell is still an erroneous bit, the memory cell is deemed to be a real defective memory cell. At this time, a repairing memory cell is selected from a repairing memory cell array to replace the real defective memory cell. The selected repairing memory cell and the real defective memory cell are coupled to the same word line.

Abstract: A non-volatile memory device includes a set of memory cells, a cycle transistor, a reference transistor and a control circuit. The control circuit is coupled to the set of memory cells, the cycle transistor and the reference transistor. A method of controlling the non-volatile memory device includes in a program operation or an erase operation of the set of memory cells, the control circuit determining a state of the cycle transistor, and upon determining the cycle transistor being in an erased state (or a programmed state), the control circuit setting the reference transistor from a reference state to the erased state (or the programmed state), and then restoring the reference transistor from the erased state (or the programmed state) to the reference state. The reference state is set between the erased state and a programmed state.

Abstract: A backing up and recovering method of a file system is applied to a communication device. In the backing up and recovering method, a detecting step is performed to drive a first processing unit to detect whether the file system is damaged, and then generate a detection result. A transmitting step is performed to drive the first processing unit to transmit the detection result to a second processing unit. In response to the detection result being the file system is damaged, the second processing unit executes a system recovering step which recovers the file system according to a backup data that corresponds to the file system and is stored in a storage unit, and in response to the file system being not damaged, the second processing unit executes a backup confirming step which confirms whether the storage unit has the backup data.

Abstract: A storage device including a cell array and a disturb-free circuit is provided. The cell array includes a first cell and a second cell. The first cell is coupled to a first conductive line and a specific conductive line. The second cell is coupled to a second conductive line and the specific conductive line. The disturb-free circuit performs a first write operation on the first cell and performs a verification operation on the second cell. The verification operation determines whether data stored in the second cell is disturbed by the first write operation. In response to the data stored in the second cell being disturbed by the first write operation, the disturb-free circuit performs a second write operation.

Abstract: A storage device including a cell array and a disturb-free circuit is provided. The cell array includes a first cell and a second cell. The first cell is coupled to a first conductive line and a specific conductive line. The second cell is coupled to a second conductive line and the specific conductive line. The disturb-free circuit performs a first write operation on the first cell and performs a verification operation on the second cell. The verification operation determines whether data stored in the second cell is disturbed by the first write operation. In response to the data stored in the second cell being disturbed by the first write operation, the disturb-free circuit performs a second write operation.

Abstract: Provided are a treatment apparatus and a treatment method treating a waste cleaning liquid discharged from a process of producing an electrode of a lithium-ion secondary battery, in which a liquid component and a solid component are efficiently separated from each other, and the liquid component can be sufficiently collected and subjected to volume reduction treatment. The treatment apparatus includes: a stirring tank stirring the waste cleaning liquid; a liquid feed line that takes out the waste cleaning liquid from the stirring tank; and a thin film evaporator evaporating a cleaning liquid in the waste cleaning liquid to separate the solid component. Then, in the treatment method, the waste cleaning liquid is stirred in the stirring tank, the waste cleaning liquid is supplied to the thin film evaporator in a state in which the solid component is diffused, and the cleaning liquid in the waste cleaning liquid is evaporated.

Abstract: A test circuit testing a storage circuit and including a controller, a pattern-generator circuit, a comparing circuit, and a first register is provided. The storage circuit includes a storage block. The controller is configured to generate a plurality of internal test signals. The pattern-generator circuit generates and provides test data to the storage circuit according to the internal test signal. The storage circuit writes the test data into the storage block and reads the storage block to generate read data. The comparing circuit compares the test data and the read data to generate a test result. The first register stores the test result. The controller determines whether the storage circuit is working normally according to the test result stored in the first register.

Abstract: An access method for a memory device is provided. The access method includes receiving external data; reading a plurality of first memory cells of the memory device according to a write address to obtain first original data; comparing the external data and the first original data to determine whether the number of specific cells among the first memory cells is higher than a predetermined value, wherein the value of each of the specific cells would be changed from a first value to a second value in response to the external data being written into the first memory cells; and reversing the external data to generate reversed data and writing the reversed data into the first memory cells to replace the first original data in response to the number of specific cells being higher than the predetermined value.

Abstract: The present disclosure discloses a method for searching the shortest path of must-pass node, which includes the following processing steps: S1, constructing a Thiessen polygon; S2, when start node of must-pass nodes and end node of must-pass node are not the same must-pass node, performing processing of S3; S3, starting from the Thiessen polygon where the start node of must-pass nodes is located, querying the adjacent Thiessen polygons and merging them into the first merged polygon; S4, based on the first merged polygon, querying the unprocessed adjacent Thiessen polygons to merge the second merged polygon; S5, merging the isolated Thiessen polygon into a certain adjacent merged polygon with common edge; S6, deleting the edge lines of two vertices in Denaulay triangle that are not in the same merged polygon; S7.

Abstract: A test circuit testing a storage circuit and including a controller, a pattern-generator circuit, a comparing circuit, and a first register is provided. The controller is configured to generate a plurality of internal test signals. The pattern-generator circuit writes test data into the storage block of the storage circuit according to the internal test signal and reads the storage block to generate read data. The comparing circuit compares the test data and the read data to generate a test result. The first register stores the test result. The controller determines whether the storage circuit is working normally according to the test result stored in the first register.

Abstract: A pixel circuit includes a driving circuit, a lighting element, and multiple switching circuits. The driving circuit is configured to provide a driving current to a first node. A first terminal of the lighting element is coupled with a second node. A second terminal of the lighting element is configured to receive a system low voltage. The multiple switching circuits are coupled between the first node and the second node in a parallel connection, and configured to correspondingly receive multiple emission control signals and at least one grayscale control signal. During each frame, the multiple emission control signals provide multiple pulses, and the multiple pulses do not mutually overlapping in time sequence, so that the multiple switching circuits selectively couple the first node to the second node according to the multiple pulses and the at least one grayscale control signal.

Abstract: The present invention provides a method for improving tobacco-planting soil by using biochar, and belongs to the technical field of soil improvement. The method includes the following steps: (1) carbonizing agricultural and forestry waste to obtain biochar; (2) pulverizing the biochar to obtain a biochar particle; and (3) mixing the biochar particle with a plow layer of the tobacco-planting soil to obtain biochar-improved soil. Compared with tobacco-planting soil that is not added with the biochar (control), the method provided by the present invention greatly increases carbon and nitrogen contents of the tobacco-planting soil, and significantly increases moisture and available potassium contents of the tobacco-planting soil, which is beneficial to ensure the sorption of soil moisture and nutrients by the tobacco plant.

Abstract: An oscillator including two sequentially connected pulse generation circuits is disclosed. Each pulse generation circuit includes a charge/discharge circuit and a switch circuit and outputs a first or second signal depending on an input signal. The switch circuit controls the charge/discharge circuit so that the latter is charged when the input signal is at a first level and discharged when the input signal is at a second level higher than the first level. When the input signal is at the first level, the first signal is at the first level and the second signal is at the second level. When the input signal is at the second level, the first signal is at the second level and the second signal is at the first level. Upon completion of discharge of the charge/discharge circuit, the first signal changes to the first level and the second signal changes to the second level.

Abstract: The present invention relates to substituted N-heterocyclyl- and N-heteroaryltetrahydropyrimidinones of the general formula (I) or salts thereof, where the radicals in the general formula (I) correspond to the definitions given in the description, and to the use thereof as herbicides, in particular for controlling broad-leaved weeds and/or weed grasses in crops of useful plants and/or as plant growth regulators for influencing the growth of crops of useful plants.

Abstract: A pixel circuit includes a driving circuit, a lighting element, and multiple switching circuits. The driving circuit is configured to provide a driving current to a first node. A first terminal of the lighting element is coupled with a second node. A second terminal of the lighting element is configured to receive a system low voltage. The multiple switching circuits are coupled between the first node and the second node in a parallel connection, and configured to correspondingly receive multiple emission control signals and at least one grayscale control signal. During each frame, the multiple emission control signals provide multiple pulses, and the multiple pulses do not mutually overlapping in time sequence, so that the multiple switching circuits selectively couple the first node to the second node according to the multiple pulses and the at least one grayscale control signal.