Domestic control computer health management device based on Web

Abstract

The utility model relates to a domestic control computer health management device based on Web. The domestic control computer health management device comprises a power supply module, a serial port module, a GPIO (General Purpose Input / Output) module, a 1553B module, a CAN (Controller Area Network) device, a switching module, a case main control module and a debugging machine, the power supply module, the serial port module, the GPIO module, the 1553B module, the CAN device and the switching module are respectively provided with a voltage and temperature acquisition chip, and the voltage and temperature acquisition chips are transmitted to the case main control module through an IPMB bus; the power supply module, the serial port module, the GPIO module, the 1553B module, the CAN device and the switching module are all provided with clients, the main control module of the case is provided with a server side, the main control module collects and controls voltage and temperature information of other functional modules through an equipment communication protocol, the debugging machine accesses the server side through a WEB browser of an HTTP protocol, and the debugging machine is connected with the server side through the server side. And voltage temperature information acquired by the main control module is obtained. According to the utility model, the voltage and temperature data during the operation of each hardware are monitored, and the health management of the computer hardware module is realized quickly and accurately.

Description

Technical Field

[0001] This utility model relates to the management of computer hardware, specifically to a domestically developed web-based computer health management device. Background Technology

[0002] With the continuous development of information technology, the integration, complexity, comprehensiveness, and intelligence of computer systems have increased dramatically. Although comprehensiveness has led to a decrease in the number of devices, the cost of individual devices is on the rise. Traditional equipment maintainability and support mechanisms are gradually becoming insufficient to meet the needs of complex equipment maintenance. Problems such as slow fault location, long repair times, and high spare parts costs lead to increased lifecycle costs. In order to meet the requirements of computer system performance and computer health management under informatization conditions, research on fault diagnosis technology for complex electronic equipment is constantly being deepened, with the aim of achieving rapid fault location, rapid repair, and reducing the maintenance and support costs of complex computer equipment. Utility Model Content

[0003] The purpose of this utility model is to overcome the shortcomings of the prior art and provide a domestically produced control computer health management device based on Web. This domestically produced control computer health management device improves the maintenance efficiency of computer systems by increasing the visualization of computer fault information while ensuring information security.

[0004] The technical solution adopted to achieve the purpose of this utility model is: a domestically produced control computer health management device based on Web, which includes a power module, a serial port module, a GPIO module, a 1553B module, a CAN device, a switching module, a chassis main control module, and a debugging machine; the power module, serial port module, GPIO module, 1553B module, CAN device, and switching module are each equipped with a voltage and temperature acquisition chip, which transmits the data to the chassis main control module via the IPMB bus; the power module, serial port module, GPIO module, 1553B module, CAN device, and switching module are all equipped with client terminals, and the chassis main control module is equipped with a server terminal. The main control module collects and controls the voltage and temperature information of the power module, serial port module, GPIO module, 1553B module, CAN device, and switching module through a device communication protocol. The debugging machine accesses the server terminal through a web browser with HTTP protocol to obtain the voltage and temperature information collected by the main control module.

[0005] In the above technical solution, the main control module of the chassis adopts the Loongson 3A3000 processor, the voltage and temperature acquisition chip is the JS32F103CB microcontroller, and the network adopts the XECLT2809-A as the network transformer.

[0006] In the above technical solution, the voltage and temperature acquisition chip leads the IPMB signal to the backplane through the VPX connector. On the backplane, the IPMB-A_SCL, IPMB-A_SDA, IPMB-B_SCL, and IPMB-B_SDA signals of each management circuit are connected respectively, and the signals are aggregated to the main control module of the chassis in a T-shaped network connection method.

[0007] In the above technical solution, the serial port module, GPIO module, 1553B module, CAN device, switching module, and chassis main control module are all connected to the RS232 debugging interface.

[0008] In the above technical solution, the power module is connected to an external 12V power input and outputs +5V and +3.3V.

[0009] The above technical solution also includes a reserved module.

[0010] This utility model has the following beneficial effects:

[0011] 1. The voltage and temperature data of the hardware are obtained in a timely manner through the voltage and temperature acquisition chip and transmitted to the web browser through the server, so as to facilitate timely monitoring of the voltage and temperature data of each hardware during operation.

[0012] 2. By comparing the hardware voltage and temperature data obtained from the web browser, if the data exceeds the threshold for healthy operation of the hardware, the hardware is considered to be in an unhealthy state, thus achieving fast and accurate health management of computer hardware modules. Attached Figure Description

[0013] Figure 1 This utility model presents a structural block diagram of a domestically produced web-based control computer health management device.

[0014] Figure 2 This is a diagram illustrating the information exchange between the server and the client. Detailed Implementation

[0015] The present invention will now be described in further detail with reference to the accompanying drawings and specific embodiments.

[0016] like Figure 1 As shown, this utility model discloses a domestically developed web-based control computer health management device, comprising a power supply module, a serial port module, a GPIO module, a 1553B module, a CAN device, a switching module, a reserved module, a main control module, and a debugging machine; wherein,

[0017] The power module, serial port module, GPIO module, 1553B module, CAN device, and switching module are each equipped with a voltage and temperature acquisition chip. The voltage and temperature acquisition chip transmits the signal to the main control module via the IPMB bus. Specifically, the voltage and temperature acquisition chip leads the IPMB signal to the backplane through the VPX connector. On the backplane, the IPMB-A_SCL, IPMB-A_SDA, IPMB-B_SCL, and IPMB-B_SDA signals of each management circuit are connected respectively, and the signals are aggregated to the main control module in a T-shaped network connection.

[0018] The power conversion unit is responsible for converting the 12V power input to various voltage levels, such as +5V and +3.3V, required by the module's internal circuitry, providing power to the various units within the module. The power module, serial port module, GPIO module, 1553B module, CAN device, and switching module are all connected to the RS232 debugging interface.

[0019] In this embodiment, the main control module of the chassis uses a Loongson 3A3000 processor, the voltage and temperature acquisition chip is a JS32F103CB microcontroller, and the switching module uses a Shengke chip.

[0020] The power supply module, serial port module, GPIO module, 1553B module, CAN device, and switching module all have client terminals, while the main control module has a server terminal. The main control module collects and controls voltage and temperature information from other functional modules via the device communication protocol. The debugging machine accesses the web server (server-side) via an HTTP-based web browser to obtain the voltage and temperature information collected by the main control module. The server and client interact via network and serial port. Data collected by the main control module is transmitted to the goahead-based web server via SQLite 3, and the CGI program executes on the goahead server to process the data. A diagram illustrating the information interaction between the server and client is shown below. Figure 2 As shown, the method of data communication between a web server and a client is existing technology and will not be described in detail here.

[0021] This invention obtains the voltage and temperature data of each hardware module in the computer system in real time through a web server located on the client side. It determines whether the hardware module is in a healthy state based on the threshold for healthy operation of the hardware. If the voltage and temperature data obtained through the web server exceed the threshold of the hardware, the hardware is considered to be in an unhealthy state, and a warning is issued so that the hardware can be detected and repaired in a timely manner.

Claims

1. A Web-based domestic control computer health management device, characterized in that: The chassis main control module adopts a Loongson 3A3000 processor, and the voltage temperature acquisition chip is a JS32F103CB single-chip microcomputer.

2. The web-based indigenous control computer health management apparatus according to claim 1, wherein: The voltage temperature acquisition chip leads IPMB signals to a backplane through a VPX connector, and the IPMB-A_SCL, IPMB-A_SDA, IPMB-B_SCL and IPMB-B_SDA signals of each management circuit are respectively connected on the backplane, and the signals are collected in the chassis main control module in a T-shaped network connection mode.

3. The web-based indigenous control computer health management apparatus according to claim 1, wherein: The serial port module, the GPIO module, the 1553B module, the CAN device, the switching module and the chassis main control module; the power module, the serial port module, the GPIO module, the 1553B module, the CAN device and the switching module are respectively connected with RS232 debugging interfaces.

4. The web-based indigenous control computer health management apparatus according to claim 1, wherein: The power module is connected with an external 12V power input, and outputs +5V and +3.3V.

5. The web-based indigenous control computer health management apparatus according to claim 1, wherein: It also includes a reserved module.

6. The native control computer health management apparatus of any of claims 1-5, wherein: The chassis main control module adopts a Loongson 3A3000 processor, and the voltage temperature acquisition chip is a JS32F103CB single-chip microcomputer. The voltage temperature acquisition chip leads IPMB signals to a backplane through a VPX connector, and the IPMB-A_SCL, IPMB-A_SDA, IPMB-B_SCL and IPMB-B_SDA signals of each management circuit are respectively connected on the backplane, and the signals are collected in the chassis main control module in a T-shaped network connection mode. The serial port module, the GPIO module, the 1553B module, the CAN device, the switching module and the chassis main control module; the power module, the serial port module, the GPIO module, the 1553B module, the CAN device and the switching module are respectively connected with RS232 debugging interfaces. The power module is connected with an external 12V power input, and outputs +5V and +3.3V. It also includes a reserved module. The chassis main control module adopts a Loongson 3A3000 processor, and the voltage temperature acquisition chip is a JS32F103CB single-chip microcomputer. The voltage temperature acquisition chip leads IPMB signals to a backplane through a VPX connector, and the IPMB-A_SCL, IPMB-A_SDA, IPMB-B_SCL and IPMB-B_SDA signals of each management circuit are respectively connected on the backplane, and the signals are collected in the chassis main control module in a T-shaped network connection mode. The serial port module, the GPIO module, the 1553B module, the CAN device, the switching module and the chassis main control module; the power module, the serial port module, the GPIO module, the 1553B module, the CAN device and the switching module are respectively connected with RS232 debugging interfaces. The power module is connected with an external 12V power input, and outputs +5V and +3.3V. It also includes a reserved module.

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