34results about How to "Realize automatic observation" patented technology

The invention discloses an automatic observation device for crop development and growth. The device comprises an image acquisition part, a communication transmission system and a data processing centre, wherein the image acquisition part comprises a CCD camera, a video monitor and a lightning conductor which are fixed with a bracket; the bracket is arranged in a crop planting area; an antenna fixed to the top end of the bracket is in wireless connection with a computer which receives and processes the data of the crop development and growth and is arranged in a data processing centre through a wireless network; the communication transmission system comprises antennae and encoders respectively positioned on the image acquisition part and the two ends of the data processing centre; and the computer in the data processing centre comprises an image database, an image feature algorithm library and a product library. The device performs real-time automatic acquisition and identification on crop growth information, performs long-term observation, analysis and measurement remotely through a network, automatically measures aiming at the crop growth, has a simple measurement principle and an accurate measurement result, is convenient to popularize and use, and has significance to promote the modernization and the automation of agricultural meteorological observation.

The invention is a movable surface runoff observation device, which is applicable to the observation of surface runoff under various field conditions. This device is mainly composed of five parts: runoff collection device, runoff sample collection device, runoff measurement device, data measurement system, and rain protection cover. The device can be used to directly measure surface runoff under various areas, different land use modes, different management measures, different slopes, and slope lengths. Compared with the traditional runoff plot observation, it is mobile, directly observes the runoff under natural site conditions, has high sample collection accuracy, low cost, high utilization rate, wide application range, and can observe the runoff intensity per unit time, etc. Advantages: Compared with the existing mobile runoff observation device, it has the advantages of being able to meet the large flow of runoff observation in the field, easy installation and operation, electronic records, high observation accuracy, and less failures. The device is easy to install and use, the result is real, the cost is low, and it is suitable for popularization.

The invention relates to a wireless transceiving float-type brine baume meter which is characterized by comprising a float housing, a pressure sensor, a pendant and a collection and transmission circuit, wherein the float housing comprises a top cover, an upper float stand pipe and a lower float stand pipe; the upper float stand pipe and the lower float stand pipe are fixedly mounted; the top cover is fixedly mounted at the top of the upper float stand pipe; a lower float cone is manufactured at the bottom of the lower float stand pipe; the pressure sensor is mounted at the bottom in the float housing; the pendant is mounted in the float housing at the upper part of the pressure sensor through a sealing baffle pipe seat; the collection and transmission circuit is mounted t the upper part of the pendant in the float housing; and an output wire of the pressure sensor is connected with the collection and transmission circuit. The wireless transceiving float-type brine baume meter is scientific and reasonable in structural design, small in size, and convenient to detect, can realize large-area continuous and accurate collection of mass data, does not need personnel to measure on the site, is simple and convenient to operate, and is especially suitable for application to brine baume degree measurement during sea-lake salt production.

The invention discloses a sunshine sensor, which comprises a light shading plate comprising a sun-receiving surface and a backlight surface; and a photovoltaic conversion circuit, which comprises first photoresistors arranged on the sun-receiving surface of the light shading plate and used for sensing the light radiation of the sun-receiving surface of the light shading plate, and second photoresistors arranged on the backlight surface of the light shading plate and used for sensing the light radiation of the backlight surface of the light shading plate. The invention also discloses a sunshine measuring device comprising the sunshine sensor. The sunshine sensor senses light radiation through the photoresistors, and the sunshine measuring device realizes sunlight detection according to the illumination intensity difference of the sun-receiving surface and the backlight surface, so that compared with a conventional dark-tube sunshine recorder, the sunshine sensor and the sunshine measuring device can improve measurement accuracy of sunshine duration, realize high-precision automatic observation and can be applied to construct a weather internet of things.

The invention relates to a device for measuring wireless receiving and sending ultrasonic brine baume degree, evaporation capacity and liquid level. The device is characterized by comprising a measuring box, two measuring tubes, a reflection floater and a wireless receiving and sending ultrasonic measurement and control circuit, wherein the two measuring tubes are fixedly arranged at the lower part of the measuring box in parallel; through holes are uniformly formed in the tube wall of each measuring tube; the reflection floater is placed in one of the measuring tubes in a clearance fit manner; the wireless receiving and sending ultrasonic measurement and control circuit is arranged in the measuring box; the wireless receiving and sending ultrasonic measurement and control circuit comprises two ultrasonic sensors corresponding to the two measuring tubes. The device is simple in structure, advanced in method, reliable and accurate in test, small in volume and convenient to detect, and a large quantity of data can be continuously and accurately collected in a large area; the device is free of field measurement and easy and convenient to operate, and is particularly suitable for measuring the brine baume degree, the evaporation capacity and the brine depth (liquid level) in seal-lake salt production.

The invention discloses an intelligent solar flare data observation method, which comprises: starting a solar flare data observation system to acquire solar image data in time and store the solar image data in a memory; and judging if a solar flare outbursts, and if a solar flare outbursts, automatically regulating a preset exposure time and regulating a data acquisition mode at the same time to acquire solar flare data and then storing the flare data or solar image data collected by the solar flare observation system into a hard disk. When the observation method is used, the flare event outburst can be monitored automatically and an alarming information can be given automatically; and in addition, as the method of the invention can be used in the conventional solar flare observation system, the automatic control over the exposure time and acquisition speed is realized, and the acquired flare data have higher time and space resolution.

The invention discloses a data transmission method and system for a router, and relates to the field of data transmission. The steps of the method are as follows: the sending end encapsulates the data to be transmitted as an OCM object, and creates three linked lists: creating a linked list, updating the linked list and deleting the linked list, the updating cursor is set in the updating linked list, and the deleting cursor is set in the deleting linked list; the sending end Add the OCM objects to the creation linked list in the order of creation. When the OCM objects need to be updated, send update data to the receiving end according to the update cursor; when the OCM objects need to be deleted, create and delete the open interval according to the OCM objects in the delete linked list, and delete the open interval sent to the receiving end. The present invention can ensure the accuracy of data synchronization, can be widely applied to various data transmission scenarios, and significantly improves user experience.

The invention discloses a method for monitoring the deformation of the core wall of a high rockfill dam, which comprises the following steps: laying out an array robot, setting up a measurement carrier, pre-burying an incline measuring pipe, designing core components, performing measurement, solving the MEMS inertial navigation error equation, and calculating the corresponding axis The inclination angle, the displacement calculated according to the angle and the cumulative displacement calculated by integral; the present invention develops an array robot measurement system based on the principle of high-precision MEMS inertial navigation, and uses the deformation of the array robot to monitor the horizontal and vertical displacement of the core wall. The method of vertical burial is used to monitor the horizontal displacement, and the method of horizontal burial is used to monitor the vertical displacement, so as to realize automatic observation and completely replace manual observation. It can not only be buried horizontally, but also vertically, which makes up for the inconvenience of vertical burying of the pipeline robot measuring system.

The invention discloses a microclimate monitoring system and a method for monitoring native grass based on the system, and relates to the field of automatic monitoring of the steppe ecology and the animal husbandry weather. The system comprises a data monitoring server, a pasture growth vigor monitoring subsystem, a meteorological element monitoring subsystem, a soil temperature and humidity monitoring subsystem, a wireless communication device and a data collecting device. The data monitoring server is in wireless connection with the data collecting device through the wireless communication device, and the data collecting device is in wired connection with the pasture growth vigor monitoring subsystem, the meteorological element monitoring subsystem and the soil temperature and humidity monitoring subsystem. The microclimate monitoring system and the method solve the problems that according to an existing manual steppe ecology meteorological observation method, the distance between an observation point and a station is large, observation is not convenient, work, time and labor are wasted, and meanwhile due to the great subjectivity of manual observation, the ecology observation data error is large, and the frequency of the observation data is low.

The invention discloses a method for intelligently observing a coronal mass ejection event. The method comprises the steps of starting a coronal mass ejection observation system, collecting and obtaining image data in a real-time mode according to parameters of the observation system, and storing the image data in an internal storage; obtaining a difference image, judging whether the coronal mass ejection event happens or not, and if the coronal mass ejection event happens, giving an alarm and adjusting the observation parameters and an observation mode of the image; judging whether a halo-shaped coronal mass ejection event happens or not again, and if the halo-shaped coronal mass ejection event happens, giving the alarm again; storing the collected image data into a hard disk. According to the application of the method for intelligently observing the coronal mass ejection event, happening of the coronal mass ejection event and happening of the halo-shaped coronal mass ejection event can be automatically distinguished, the collected parameters can be automatically adjusted, data obtaining is high in speed, and the accuracy rate is improved.