Protection system for disaster backup

Abstract

The utility model discloses a protection system for disaster backup, which comprises a data server, a data transmission port, a mechanical gyroscope, a bearing platform, a rocking spring and a temperature detector, the data server is placed on the upper end face of the bearing platform, the rocking spring is arranged on the lower end face of the bearing platform, and the temperature detector is arranged on the data transmission port. The data transmission port is arranged on the rear end face of the data server, a plurality of temperature detectors are installed on the end faces of the data server on two sides of the data transmission port, the mechanical gyroscope is installed on the upper end face of the data server, and the mechanical gyroscope and the temperature detectors are connected with the data transmission controller. The data transmission controller is arranged at the top of the data server and is in control connection with the data server, and the data server is in data cable transmission connection with the data backup device arranged in a remote place through a data transmission port. The system is simple in deployment and easy to operate, is especially suitable for data backup of science and technology enterprises with small scale and limited funds, and guarantees the data security of the enterprises.

Description

Technical Field

[0001] The utility model relates to the technical field of disaster backup, in particular to a protection system for disaster backup. Background Art

[0002] Disaster backup technology refers to various preventative measures taken to reduce the probability of a disaster and the losses incurred during or after a disaster. To recover from a disaster, disaster backup typically backs up data, data processing systems, network systems, infrastructure, technical support capabilities, and operational management capabilities. The primary goal of disaster backup is to protect the integrity of data and systems, minimizing or eliminating business data loss. Disaster backup is typically deployed in key data management departments or large internet companies. With the continuous advancement of scientific and technological research and development, technology-based enterprises are increasingly prioritizing the security of their internal data. Due to concerns about data confidentiality, enterprises often avoid uploading data to cloud servers for storage and backup, instead establishing their own internal data backup systems. Currently, there is a lack of a data backup protection system for these enterprises that can promptly transfer and back up data in the event of a natural disaster.

[0003] To this end, we have designed a protection system for disaster backup to solve the above problems. Utility Model Content

[0004] The purpose of this utility model is to solve the problem in the prior art that there is currently a lack of a protection system for data backup of emerging small-scale technology-based enterprises, and to propose a protection system for disaster backup to reduce the damage to enterprise data in the event of natural disasters and to transfer and back up enterprise data in a timely and effective manner.

[0005] In order to achieve the above purpose, the present invention adopts the following technical solutions:

[0006] A protection system for disaster backup includes a data server, a data transmission port, a mechanical gyroscope, a supporting platform, a rocking spring and a temperature detector. The data server is placed on the upper end surface of the supporting platform, the rocking spring is arranged on the lower end surface of the supporting platform, the data transmission port is arranged on the rear end surface of the data server, and a plurality of temperature detectors are installed on the end surfaces of the data server on both sides of the data transmission port. The mechanical gyroscope is installed on the upper end surface of the data server. The mechanical gyroscope and the temperature detector are connected to a data transmission controller. The data transmission controller is arranged on the top of the data server and establishes a control connection with the data server. The data server establishes a data cable transmission connection with a data backup device arranged at a different location through the data transmission port.

[0007] Further preferably, the data server stores data, and is provided with a chassis for protection on the outside, and the temperature detectors are symmetrically installed on the outer surfaces of both sides of the chassis.

[0008] Further preferably, an electronic monitoring module is provided in the box body of the data transmission controller, and the electronic monitoring module includes an accelerometer, a compass, an electronic gyroscope and a barometer, and the accelerometer, compass, electronic gyroscope and barometer are integrated on the same circuit board.

[0009] Further preferably, the mechanical gyroscope includes an upper cover, a lower cover and a rotor, the rotor is rotatably arranged on an inner frame of a circular ring structure, the inner frame is rotatably installed on both sides of the inner wall of the lower cover, the upper cover is arranged on the lower cover, and a signal collector is arranged on one side of the rotor, and the signal collector is connected to the data transmission controller.

[0010] Further preferably, the supporting platform is a rectangular plate-shaped structure, and the number of the rocking springs is four, which are respectively arranged at the four corners of the lower end surface of the supporting platform.

[0011] Further preferably, the temperature detector includes a detection needle, a signal converter and a signal transmission terminal. The detection needle for collecting ambient temperature is installed on the housing of the signal converter and establishes a transmission connection with the signal converter. One end of the signal transmission terminal is horizontally arranged on one side of the housing of the signal converter, and the other end is installed on the outer surface of the data server chassis. The signal transmission terminal and the detection needle are distributed vertically, and the signal transmission line connected to the signal converter passes through the signal transmission terminal and the chassis wall and is connected to the data transmission controller.

[0012] Further preferably, the rocking spring consists of a pad, a spring and a limiting concave plate, the lower end of the spring is fixedly connected to the upper end surface of the pad, the upper end of the spring is placed in the groove of the limiting concave plate, and the upper surface of the limiting concave plate is fixedly installed on the lower end surface of the supporting platform.

[0013] Compared with the prior art, the beneficial effects of the present invention are as follows: the present invention improves the sensitivity of the mechanical gyroscope and the electronic monitoring module to the monitoring of the data server's use environment by arranging a supporting platform and a rocking spring at the bottom of the data server, so that even if there is a slight shake, it can be timely and effectively monitored and collected by the mechanical gyroscope and the electronic monitoring module. In addition, by arranging temperature detectors at the upper and lower parts of both sides of the data server, the use environment temperature of the data server is monitored in real time, and all-round real-time monitoring of the use scenario of the data server is achieved. When an abnormal environment is detected, the data transmission controller controls the data server after receiving it, and transmits the data information stored in the data server to a remote data backup device for storage and backup through the data transmission port and data cable. The present invention is simple to deploy and easy to operate, and is particularly suitable for the protection of data backup of emerging small-scale technology-based enterprises with small scale and limited funds, effectively avoiding the damage to enterprise data caused by natural disasters, and effectively ensuring the security of enterprise data. BRIEF DESCRIPTION OF THE DRAWINGS

[0014] Figure 1 This is a schematic diagram of the overall structure of a protection system for disaster backup proposed by the present invention;

[0015] Figure 2 This is a schematic diagram of the internal structure of a mechanical gyroscope for a disaster backup protection system proposed by the present invention;

[0016] Figure 3 This is a schematic diagram of the layout of the electronic monitoring module circuit board of a protection system for disaster backup proposed by the present invention;

[0017] Figure 4 This is a schematic diagram of the structure of a temperature detector for a disaster backup protection system proposed by the present invention;

[0018] Figure 5 This is a schematic diagram of the structural composition and installation position of a rocking spring for a disaster backup protection system proposed by the present invention.

[0019] The numbers in the figure are: 1. Data server; 2. Data transmission port; 3. Mechanical gyroscope; 31. Upper cover; 32. Lower cover; 33. Rotor; 34. Inner frame; 35. Signal collector; 4. Carrying platform; 5. Rocking spring; 51. Pad; 52. Spring; 53. Limiting concave plate; 6. Temperature detector; 61. Probe needle; 62. Signal converter; 63. Signal transmission terminal; 7. Data transmission controller; 8. Electronic monitoring module; 81. Accelerometer; 82. Compass; 83. Electronic gyroscope; 84. Barometer. DETAILED DESCRIPTION

[0020] The technical solutions in the embodiments of the present invention will be described clearly and completely below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, rather than all the embodiments.

[0021] In this embodiment, a protection system for disaster backup will be introduced. Figure 1 As shown, the protection system mainly includes a data server 1, a data transmission port 2, a mechanical gyroscope 3, a supporting platform 4, a rocking spring 5 and a temperature detector 6.

[0022] The structural composition of the protection system is mainly arranged in the following manner: the data server 1 is placed on the upper end surface of the supporting platform 4, the rocking spring 5 is arranged on the lower end surface of the supporting platform 4, the data transmission port 2 is arranged on the rear end surface of the data server 1, and several temperature detectors 6 are installed on the end surface of the data server 1 on both sides of the data transmission port 2. The mechanical gyroscope 3 is installed on the upper end surface of the data server 1. The mechanical gyroscope 3 and the temperature detector 6 are connected to the data transmission controller 7. The data transmission controller 7 is arranged on the top of the data server 1 and establishes a control connection with the data server 1. The data server 1 establishes a data cable transmission connection with a data backup device located at a remote location through the data transmission port 2.

[0023] The data server 1 in this embodiment stores important internal data of the enterprise, and a chassis is provided outside the data server 1 for protection. In order to improve the sensitivity of monitoring the ambient temperature of the data server 1, multiple temperature detectors 6 are provided in this embodiment, which are symmetrically installed on the outer surfaces of both sides of the chassis. Figure 1 What is shown is that four temperature probes 6 are installed on both sides of the chassis, two on the top and two on the bottom.

[0024] like Figure 2As shown, the mechanical gyroscope 3 of this embodiment is primarily used to detect vibration and tilt data from the chassis of the data server 1, used to determine whether the environment in which the data server 1 is located has experienced an earthquake disaster. Its structure primarily comprises an upper cover 31, a lower cover 32, and a rotor 33. The upper cover 31 and lower cover 32 resemble hemispherical structures with a cavity. The upper cover 31 is mounted on the lower cover 32, and the two are interlocked to form an ellipsoidal housing structure. The rotor 33 uses a synchronous motor to rotate at high speed about its own axis. The rotor 33 is rotatably mounted on an inner frame 34 in a circular ring structure. The inner frame 34 is rotatably mounted on both sides of the inner wall of the lower cover 32 via an outer frame (not shown). The inner frame 34, through the outer frame, provides the rotor 33 with the desired angular rotational freedom. This section describes the basic structural principles of the gyroscope and will not be further elaborated in this embodiment. A signal collector 35 is located on one side of the rotor 33 to collect the rotational state of the rotor 33 and transmit the collected signal to a data transmission controller 7 connected to the signal collector 35.

[0025] like Figure 3 As shown, to enhance monitoring stability and safety, in addition to the aforementioned mechanical gyroscope 3 and temperature detector 6, an electronic monitoring module 8 is provided within the housing of the data transmission controller 7. The electronic monitoring module 8 communicates with a compatible data transmission controller 7 via an I2C bus. The electronic monitoring module 8 includes an accelerometer 81, a compass 82, an electronic gyroscope 83, and a barometer 84, all of which are integrated on the same circuit board.

[0026] In this embodiment, accelerometer 81 uses the ADXL345 accelerometer, compass 82 uses the HMC5883L compass, electronic gyroscope 83 uses the ITG3205 gyroscope, and barometer 84 uses the BMP280 barometer. These accelerometers, compass, gyroscope, and barometer are used to electrically monitor changes in the surrounding environment of data server 1, perform disaster monitoring on the operating environment of data server 1, and provide early warning prompts for data transmission and backup within data server 1.

[0027] like Figure 4As shown, this embodiment provides a temperature detector 6 primarily for fire temperature monitoring. The detector includes a probe 61, a signal converter 62, and a signal transmission terminal 63. The probe 61, which is used to collect ambient temperature, is mounted on the housing of the signal converter 62 and establishes a transmission connection with the signal converter 62. One end of the signal transmission terminal 63 is horizontally disposed on one side of the housing of the signal converter 62, and the other end is mounted on the outer surface of the chassis of the data server 1. The signal transmission terminal 63 is perpendicular to the probe 61 to prevent external devices from affecting the detection sensitivity of the probe 61. The signal transmission line connected to the signal converter 62 passes through the signal transmission terminal 63 and the chassis wall, and then is connected to the data transmission controller 7.

[0028] like Figure 5 As shown, it is worth mentioning that the support platform 4 is a rectangular plate-like structure, and there are four rocking springs 5, respectively arranged at the four corners of the lower end surface of the support platform 4. The rocking spring 5 consists of a pad 51, a spring 52, and a limiting concave plate 53. The lower end of the spring 52 is fixedly connected to the upper end surface of the pad 51, and the upper end of the spring 52 is placed in the groove of the limiting concave plate 53. The upper surface of the limiting concave plate 53 is fixedly mounted on the lower end surface of the support platform 4. In this arrangement, the upper end of the spring 52 adopts a contact connection instead of a conventional fixed connection. The purpose is to increase the sensitivity of the shaking transmission. Because the upper end of the spring 52 adopts a contact connection, even if the position of the data server 1 is slightly shaken, it can be transmitted upward to the mechanical gyroscope 3 and the electronic monitoring module 8, and can be monitored and collected by the mechanical gyroscope 3 and the electronic monitoring module 8 in a timely and effective manner.

[0029] When data server 1 is operating normally, mechanical gyroscope 3, temperature detector 6, and electronic monitoring module 8 monitor environmental changes around data server 1 in real time. When a disaster (such as an earthquake or fire) occurs, these sensors detect abnormal environmental changes and transmit them to data transmission controller 7. After receiving these signals, data transmission controller 7 controls data server 1 to transfer the data stored in data server 1 to a remote data backup device for storage and backup via data transmission port 2 and a data cable. This system is particularly suitable for deployment and application by small, capital-constrained technology innovation companies that rely heavily on data to demonstrate their R&D results.

[0030] In this embodiment, in addition to the aforementioned wired transmission, when a disaster occurs, data files in data server 1 can also be transferred to an off-site server for backup and preservation via NFS or SSH remote transmission protocols. If data transmission from data server 1 to the off-site server is interrupted or the transmission information is incomplete, a checksum field is set to verify the integrity of the data file information before the data file is re-uploaded.

[0031] The above is only a preferred specific implementation method of the present invention, but the protection scope of the present invention is not limited to this. Any technician familiar with the technical field within the technical scope disclosed by the present invention can make equivalent replacements or changes based on the technical solution and utility model concept of the present invention, which should be covered by the protection scope of the present invention.

Claims

1. A protection system for disaster backup, characterized in that: The invention comprises a data server (1), a data transmission port (2), a mechanical gyroscope (3), a supporting platform (4), a rocking spring (5) and a temperature detector (6), wherein the data server (1) is placed on the upper end surface of the supporting platform (4), the rocking spring (5) is arranged on the lower end surface of the supporting platform (4), the data transmission port (2) is arranged on the rear end surface of the data server (1), a plurality of temperature detectors (6) are installed on the end surface of the data server (1) on both sides of the data transmission port (2), the mechanical gyroscope (3) is installed on the upper end surface of the data server (1), the mechanical gyroscope (3) and the temperature detector (6) are connected to the data transmission controller (7), the data transmission controller (7) is arranged on the top of the data server (1) and establishes a control connection with the data server (1), and the data server (1) establishes a data cable transmission connection with a data backup device arranged in a remote location through the data transmission port (2).

2. A disaster backup protection system according to claim 1, characterized in that: The data server (1) stores data, and is provided with a chassis for protection on the outside. The temperature detectors (6) are symmetrically mounted on the outer surfaces of both sides of the chassis.

3. A disaster backup protection system according to claim 1, characterized in that: An electronic monitoring module (8) is provided in the box of the data transmission controller (7), and the electronic monitoring module (8) includes an accelerometer (81), a compass (82), an electronic gyroscope (83), and a barometer (84). The accelerometer (81), the compass (82), the electronic gyroscope (83), and the barometer (84) are integrated on the same circuit board.

4. A disaster backup protection system according to claim 1, characterized in that: The mechanical gyroscope (3) comprises an upper cover (31), a lower cover (32) and a rotor (33); the rotor (33) is rotatably mounted on an inner frame (34) of a circular ring structure; the inner frame (34) is rotatably mounted on both sides of the inner wall of the lower cover (32); the upper cover (31) is mounted on the lower cover (32); a signal collector (35) is arranged on one side of the rotor (33); and the signal collector (35) is connected to the data transmission controller (7).

5. A disaster backup protection system according to claim 1, characterized in that: The supporting platform (4) is a rectangular plate-shaped structure, and the number of the rocking springs (5) is four, which are respectively arranged at the four corners of the lower end surface of the supporting platform (4).

6. A disaster backup protection system according to claim 1, characterized in that: The temperature detector (6) includes a detection needle (61), a signal converter (62) and a signal transmission terminal (63). The detection needle (61) for collecting the ambient temperature is installed on the housing of the signal converter (62) and establishes a transmission connection with the signal converter (62). One end of the signal transmission terminal (63) is horizontally arranged on one side of the housing of the signal converter (62), and the other end is installed on the outer surface of the chassis of the data server (1). The signal transmission terminal (63) and the detection needle (61) are vertically distributed. The signal transmission line connected to the signal converter (62) passes through the signal transmission terminal (63) and the chassis wall and is connected to the data transmission controller (7).

7. A disaster backup protection system according to claim 5, characterized in that: The rocking spring (5) is composed of a pad (51), a spring (52) and a limiting concave plate (53), the lower end of the spring (52) is fixedly connected to the upper end surface of the pad (51), the upper end of the spring (52) is placed in the groove of the limiting concave plate (53), and the upper surface of the limiting concave plate (53) is fixedly mounted on the lower end surface of the supporting platform (4).

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