Method for remotely and intelligently monitoring animal robot in the open

An animal robot and intelligent monitoring technology, applied in the direction of reducing energy consumption, service based on location information, advanced technology, etc., can solve the problems that animal robots are not suitable for field monitoring, the master control equipment and the controlled equipment have high requirements, and achieve Extensive economic and social benefits, flexible control methods, and low power effects

Inactive Publication Date: 2011-08-17
ZHENGZHOU UNIV
3 Cites 6 Cited by

AI-Extracted Technical Summary

Problems solved by technology

Although the Internet network can realize remote transmission, it has high requirements for the main control device and the con...
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Abstract

The invention discloses a method for remotely and intelligently monitoring an animal robot in the open. A backpack and a handheld control terminal are wirelessly connected with a base station respectively. The base station, a general packet radio service (GPRS) gateway server and the Internet are sequentially connected in a wired way. A desktop control terminal and a monitoring center are in wired connection with the Internet respectively. Control instructions are input by the terminals, transmitted to the monitoring center for temporary storage by the connection, and transmitted to the backpack after the data of the backpack is transmitted to the monitoring center to finish monitoring the animal robot. The method has the advantages of 1, remotely monitoring the animal robot; 2, realizing remote indoor master control by utilizing a computer terminal; 3, realizing remote indoor-outdoor mobile master control by utilizing the handheld control terminal; 4, displaying monitoring data by utilizing an electronic map; and 5, realizing long-term monitoring in the open. In brief, the method is wide in monitoring coverage area, flexible in control ways, suitable for all-weather, wide-area and long-term monitoring; and the animal robot can be operated to detect danger zones or applied to military scouting so as to achieve huge economic and social benefits.

Application Domain

Technology Topic

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  • Method for remotely and intelligently monitoring animal robot in the open
  • Method for remotely and intelligently monitoring animal robot in the open

Examples

  • Experimental program(3)

Example Embodiment

[0022] Implementation mode 1: The user uses a desktop control terminal to control
[0023] Referring to Figure 1, the user sends control instructions to the monitoring server [17] of the monitoring center [11] through the desktop control terminal [18] and the Internet network [19]. The monitoring server [17] temporarily stores it after receiving the control command, and waits for the arrival of the data collected by the animal robot [21]. When the working time of the backpack [24] of the animal robot [21] is up, the main controller [23] is awakened, and it controls the controllable power switch [25] to supply power to the various modules of the backpack [24]. GPS[1] module obtains positioning data through global positioning satellites[2]. The data acquisition [3] module obtains the detected environmental temperature data. The GPRS [4] module sends the positioning and acquisition data to the base station [8], and then is processed by the GPRS gateway server [20], and then transmitted to the monitoring server [17] of the monitoring center [11] through the Internet network [19]. At this time, the monitoring server [17] sends the control command to the backpack [24] of the animal robot [21] via the Internet network [19], GPRS gateway server [20] and base station [8], and stimulates [5] through boost The module, which drives the electrode [6], completes the stimulation and control functions of the animal robot [21]. At the same time, the monitoring server [17] sends the received positioning information and collected data to the large screen [10] through the Ethernet bus [12], displays it in the form of an electronic map, and stores the relevant data in a mass storage device [9] ]in. In addition, the monitoring server [17] also transfers the control command execution information and the collection and positioning data returned by the animal robot [21] to the desktop control terminal [18] through the Internet network [19], thereby completing the control of the animal robot [21] Remote monitoring process. At the same time, the animal robot [21] backpack [24] after 1 minute of work, completes the reception and execution of control commands, and then switches to the standby sleep mode.

Example Embodiment

[0024] Embodiment 2: The user uses a handheld control terminal to control
[0025] With reference to Figure 1, the user passes through the handheld control terminal [7], processed by the GPRS gateway server [20], and then transmits it to the monitoring server [17] through the Internet network [19]. The monitoring server [17] temporarily stores it after receiving the control command, and waits for the arrival of the data collected by the animal robot [21]. When the working time of the backpack [24] of the animal robot [21] is up, the main controller [23] is awakened, and it controls the controllable power switch [25] to supply power to the various modules of the backpack [24]. GPS[1] module obtains positioning data through global positioning satellites[2]. The data acquisition [3] module obtains the detected environmental temperature data. The GPRS [4] module sends the positioning and acquisition data to the base station [8], and then is processed by the GPRS gateway server [20], and then transmitted to the monitoring server [17] of the monitoring center [11] through the Internet network [19]. At this time, the monitoring server [17] sends the control command to the backpack [24] of the animal robot [21] via the Internet network [19], GPRS gateway server [20] and base station [8], and stimulates [5] through boost The module, which drives the electrode [6], completes the stimulation and control functions of the animal robot [21]. At the same time, the monitoring server [17] sends the received positioning information and collected data to the large screen [10] through the Ethernet bus [12], displays it in the form of an electronic map, and stores the relevant data in a mass storage device [9] ]in. In addition, the monitoring server [17] also transfers the control command execution information and the collection and positioning data returned by the animal robot [21] to the handheld control via the Internet network [19], GPRS gateway server [20] and base station [8] Terminal [7] to complete the remote monitoring process of the animal robot [21]. At the same time, the backpack [24] of the animal robot [21], after 1 minute of work, completes the reception and execution of control commands, and then switches to the standby sleep mode.

Example Embodiment

[0026] Implementation mode 3: No control command mode
[0027] When the working time of the backpack [24] of the animal robot [21] is up, the main controller [23] is awakened, and it controls the controllable power switch [25] to supply power to the various modules of the backpack [24]. GPS[1] module obtains positioning data through global positioning satellites[2]. The data acquisition [3] module obtains the detected environmental temperature data. The GPRS [4] module sends the positioning and acquisition data to the base station [8], and then is processed by the GPRS gateway server [20], and then transmitted to the monitoring server [17] of the monitoring center [11] through the Internet network [19]. At this time, the monitoring server [17] sends the received positioning information and collected data to the large screen [10] through the Ethernet bus [12], displays it in the form of an electronic map, and stores the relevant data in a mass storage device [9] ]in. The backpack [24] of the animal robot [21] goes into standby mode after 1 minute of work.
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Description & Claims & Application Information

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