9results about How to "Solve consumption" patented technology

This invention belongs to the field of molecular biology detection technology and is mainly used to solve the problem of large amounts of washing solution consumption caused by frequent rinsing in solid-phase immunoassay methods. Specifically, based on the characteristic that the artificial introduction of upstream reagents in solid-phase immunoassay methods will not affect downstream steps, the liquid in the upstream rinsing step is recovered and used for rinsing downstream steps. To avoid cross-binding of upstream analyte-specific reagents between different samples, the recovered washing solution is used for downstream rinsing using an instantaneous rinsing method to minimize the time spent in the process. When the entire batch of samples is testing for the same analyte, the recovered washing solution can be used for immersion washing in each rinsing step.

The present application relates to a kind of vehicle and its regenerative braking auxiliary control method and system, belong to new energy regenerative braking system and engine exhaust brake technical field.The present application obtains regenerative braking request power and battery allowed recharging power when vehicle braking, when regenerative braking request power is greater than or equal to battery allowed recharging power, engine exhaust brake power and drive motor regenerative braking power are determined according to the difference between regenerative braking request power and battery allowed recharging power, drive motor is controlled according to the determined regenerative braking power to carry out regenerative braking, and exhaust brake valve is closed, by controlling generator to drag engine, so that engine speed reaches the speed value corresponding to the engine exhaust brake power, the method can solve the problem of insufficient regenerative braking caused by the limited battery recharging capacity when vehicle is full or battery low temperature, avoid braking feeling inconsistency and regenerative braking failure when long downhill and other problems.

This invention provides a method for fabricating a lateral dual-electrode device array based on laser etching. Utilizing the cumulative photothermal effect of pulsed laser during the etching process, an insulating channel is formed by etching a conductive layer with the pulsed laser. Simultaneously, the photothermal effect generated near the pulsed laser beam destroys the hydrophobic layer on both sides of the channel, thereby reducing its hydrophobic effect and forming a heat-affected zone (HAZ). When a solution capable of growing crystals using a solution method is coated onto the substrate, the presence of the HAZ ensures that the solution can wet and completely cover the laser-etched channel. Finally, the deposited crystalline film can laterally span both sides of the channel, forming a lateral dual-electrode device. According to the fabrication method of this invention, there is no need to separately prepare the array of active and electrode materials; only a single patterning process, laser etching, is required to complete the fabrication, achieving the fabrication of large-area, high-throughput, arrayed lateral dual-electrode devices.

The application provides a routing processing method and device, the method comprising: receiving a first route advertisement sent by a second network device, the first route advertisement comprising a first host route and a first sequence number; storing the first host route and the first sequence number in a second RIB included in a BGP protocol module; according to address information included in the first host route, obtaining all second host routes comprising the address information and second sequence numbers of the second host routes from the second RIB; selecting a third sequence number from all the second sequence numbers, the third sequence number being the largest sequence number in all the second sequence numbers; if a third host route corresponding to the third sequence number is sent by a third network device in the same area as the first network device, adding the third host route to the first RIB, and issuing the added route table item to a forwarding table FIB.

The utility model relates to an integrated MVR (mechanical vapor recompression) evaporation system which is applied to the technical field of wastewater evaporation and concentration treatment. A feed port of the I-section falling film evaporator on the shell is connected with a discharge port of the circulating pump, and a discharge port of the I-section falling film evaporator on the shell is connected with a feed port of the circulating pump; a feed port of the climbing film evaporator section II on the shell is connected with a discharge port of the circulating pump; a discharge port of the second-section climbing film evaporator on the shell is connected with a feed port of the crystallization chamber; a discharge port of the crystallization chamber is connected with a feed port of the second-section climbing film evaporator on the shell; a steam outlet of the crystallization chamber is connected with a steam inlet of the steam compressor; a steam outlet of the steam compressor is connected with a steam inlet in the shell; and a feed port of the discharge pump is connected with a discharge port of the crystallization chamber. The I-section falling-film evaporator and the II-section rising-film evaporator are integrated in the shell to form an integrated structure, so that the size of equipment can be reduced, the occupied area can be saved, and the problem of heat loss caused by an overlong pipeline is solved.

The application discloses a multi-beam pulse compression method and system based on FPGA, relates to the field of radar signal processing, and obtains multiple radar beam pulse echo signals, carries out data preprocessing on the multiple radar beam pulse echo signals, carries out first data rearrangement according to beam channel numbers, and obtains first rearranged multi-beam data; carries out delay alignment on the first rearranged multi-beam data, and obtains delay data; carries out second data alternate rearrangement on the delay data according to the parity of the beam channel numbers, and obtains odd channel data and even channel data; carries out frequency domain pulse compression processing on the odd channel data and the even channel data respectively, and outputs multi-beam pulse compression signals. Through the processing of echo data speed reduction and rearrangement, pulse compression processing can be simultaneously carried out on multiple beam echo signals only by consuming limited computing resources, and a large amount of FPGA resources is saved.

The utility model discloses an air cooling system of a vehicle-mounted refrigerator and a vehicle using the same, the output end of a compressor in the air cooling system is communicated with the input end of a condenser, the output end of the condenser is communicated with the input end of a control valve, the first output end of the control valve is communicated with the input end of a first throttling device, and the second output end of the control valve is communicated with the input end of a second throttling device. The output end of the first throttling device communicates with the input end of the air conditioner evaporator, and the output end of the air conditioner evaporator communicates with the input end of the compressor. The second output end of the control valve communicates with the input end of the second throttling device, the output end of the second throttling device communicates with the input end of the refrigerator air cooling device, and the output end of the refrigerator air cooling device communicates with the input end of the compressor. The vehicle-mounted refrigerator and the vehicle-mounted air conditioner share the same compressor, and the problems that due to the fact that a traditional vehicle adopts two sets of refrigeration equipment, the installation space in the vehicle is greatly occupied, and energy consumption is large are solved.

The application discloses a kind of construction method and device of data set, it is related to deep learning field.The method is used to solve the problem that the construction of existing multi-modal data set needs artificial data collection, leading to poor data quality and large consumption.The method comprises the following steps: selecting a plurality of high-ranking products in a plurality of categories included in a designated website as product seeds; obtaining the SPU (Standard Product Unit) of each product seed by crawling the SKU inventory unit of each product seed through a multi-modal commodity crawler comprising at least text analysis and image recognition; crawling all information of the SPU of each product seed layer by layer according to a hierarchical structure to obtain all SKUs included in the SPU corresponding to each product seed and the fine-grained attributes corresponding to the SKUs; and obtaining the fine-grained candidate group of each product seed by consistently annotating the fine-grained attributes.The method promotes the wide application of artificial intelligence in medical, agricultural, e-commerce and other fields.

The invention discloses an active and passive cooperative network telemetering method based on sparsity prediction and path planning, and the method comprises the steps: designing an adaptive probability sampling function combining the queue depth and the number of INT labels in a passive sensing module of a data plane; a mark cooling mechanism aiming at a port is combined to reduce extra expenditure brought by a telemetering label, but monitoring of high-value flow state information is not lost; on a control plane, the invention provides an algorithm for converting the packet forwarding rate in an actual environment into a logarithmic form by using logarithmic normal distribution transformation and Holt double-exponential smoothing prediction, so as to carry out smoothing prediction on a future flow condition, thereby finding a sparse risk link of which the packet forwarding rate is smaller than a certain threshold value in advance; the discovery of the detection blind area is changed from passive to active; then, according to the predicted sparse link set and a prospective sparse link coverage and reconstruction (PSCR) mechanism, the topology of the whole network is partitioned, a series of loops are generated, an optimal loop is selected to serve as an active detection path, and a detection task is executed by the nearest host; therefore, the consumed bandwidth is minimized, and potential blind areas can be detected as much as possible; the method is suitable for a large-scale data center network, the blind area of network detection can be eliminated under extremely low overhead, and the visibility of the whole network reaches 99%.