Server room environment safety management system

Abstract

The invention relates to the technical field of equipment management, in particular to a server room environment safety management system, which comprises a design module used for uploading server room structure parameters and designing monitoring point positions in a sensing module based on the server room structure parameters; the sensing module is used for sensing internal environment parameters of the server room; according to the invention, through the design of the sensing device carried by the unmanned aerial vehicle and the flight path, the environment state parameters of any position in the server room can be acquired by debugging the system, and at the same time, in the flight path design stage, the environment parameters of any position in the server room can be acquired by the unmanned aerial vehicle. Based on the specified logic, it is ensured that the selected point locations used for forming the flight path better meet the monitoring requirement of the server room, so that real-time collection of effective environment parameters in the server room is achieved, safety analysis logic is further configured, and final judgment of the server room environment safety is completed.

Description

Technical Field

[0001] The present invention relates to the technical field of equipment management, and in particular to a server room environment safety management system. Background Art

[0002] The server room is a place where servers and other key equipment are stored. It has strict environmental requirements and needs to maintain appropriate temperature and humidity, generally at 20-25℃ and 40%-60% humidity. The room must have a stable power supply and be equipped with UPS and other equipment.

[0003] The invention patent with application number 202010993996.6 discloses a server room environment monitoring system, which is characterized in that it includes a server, several computer room monitoring hosts and several environment acquisition modules, each environment acquisition module is connected to a computer room monitoring host, and all computer room monitoring hosts communicate with the server through a WIFI network; the computer room monitoring host includes a main controller, a WIFI module, a switch interface and a 485 interface, the environment acquisition module includes a temperature transmitter and a mains detection module, the temperature transmitter is used to detect the ambient temperature and is connected to the 485 interface through a 485 bus, the mains detection module is used to detect the mains power supply status and is connected to the switch interface; the computer room monitoring host judges and alarms the ambient temperature through the following steps: Step 1: The user inputs a preset temperature value through the server, and the server sends the preset temperature value to the computer room monitoring host, and the computer room monitoring host generates a temperature lower limit value, a warning temperature lower limit value, a warning temperature upper limit value and a temperature upper limit value according to the preset temperature value: temperature lower limit value < warning temperature lower limit value < preset temperature value < warning temperature upper limit value < temperature upper limit value.

[0004] The application aims to solve the problem that: "the set temperature alarm value has only one warning temperature value. When the temperature value of the computer room fluctuates within a small range above and below the warning temperature value, continuous alarms and false alarms will be generated; since there is only one warning temperature value, it is difficult to give the administrator time to prepare when the alarm occurs, making it difficult for the administrator to calmly arrange a treatment plan after receiving the alarm information; traditional temperature sampling uses the same timing time, and its sampling frequency clock is fixed and does not meet the low power design requirements."

[0005] However, the current daily management of server rooms mostly focuses on the operating status of servers inside the room. For the monitoring of internal environmental parameters of server rooms, simple sensors are mostly used for real-time monitoring, which has poor intelligence. There is a great need to judge the safety of the internal environment of the server room by reading monitoring data through manual inspections.

[0006] To this end, we proposed a server room environment security management system. Summary of the invention

[0007] In view of the above-mentioned shortcomings of the prior art, the present invention provides a server room environment safety management system, which solves the technical problems raised in the above-mentioned background technology.

[0008] To achieve the above objectives, the present invention is implemented through the following technical solutions:

[0009] A server room environment safety management system, comprising:

[0010] A design module is used to upload the structural parameters of the server room and design the monitoring points in the perception module based on the structural parameters of the server room; a perception module is used to perceive the internal environmental parameters of the server room; a storage module is used to receive the internal environmental parameters of the server room perceived by the perception module and store the received internal environmental parameters of the server room; an analysis module is used to obtain the internal environmental parameters of the server room stored in the storage module and analyze the internal environmental safety of the server room based on the internal environmental parameters of the server room; an alarm module is used to set an alarm trigger threshold, receive the internal environmental safety analysis results of the server room in the analysis module in real time, compare the analysis results with the alarm trigger threshold, and execute the sending operation of the alarm message when the analysis results meet the alarm trigger threshold;

[0011] The warning module stores a warning message manually edited by the system end user, and the warning message is sent to the mobile computer device held by the system end user;

[0012] The design module is interactively connected to a construction unit and a selection unit via a wireless network, the design module is interactively connected to a perception module via a wireless network, the perception module is interactively connected to a drone module via a wireless network, the perception module is interactively connected to a planning unit via a wireless network, the planning unit is interactively connected to the drone module and the selection unit via a wireless network, the perception module is interactively connected to a storage module, an analysis module and an alarm module via a wireless network, the analysis module is interactively connected to a retrieval unit via a wireless network, and the retrieval unit is interactively connected to the storage module via a wireless network.

[0013] Furthermore, the server room structural parameters uploaded in the design module include: the specifications and location information of the walls constituting the server room, the specifications and location information of the fixed installations and constructed equipment and structures inside the server room, and the design module is provided with submodules at the lower level, including:

[0014] A construction unit, used for receiving the server room structural parameters uploaded in the design module, and constructing a server room model based on the server room structural parameters;

[0015] A selection unit is used to traverse the server room model constructed in the construction unit and select a monitoring point of a sensing module in the server room model;

[0016] When the construction unit constructs the server room model, the equipment and structure models inside the server room simultaneously execute the construction operation, and the equipment and structure models are part of the server room model.

[0017] Furthermore, the perception module is internally provided with submodules, including:

[0018] The drone module is used to carry the perception module and move it around the server room, controlling the perception module to perform real-time environmental parameter perception operations;

[0019] Among them, the drone module includes a drone and a charging warehouse, and the charging warehouse is installed at any position in the server room. When the selection unit selects the monitoring point of the perception module, it simultaneously selects the deployment position of the charging warehouse twice in succession. The number of perception module monitoring points selected by the selection unit is not less than three groups except the deployment position of the charging warehouse.

[0020] Furthermore, when selecting the monitoring point of the sensing module, the selection unit complies with:

[0021] The server room model is reduced to half of its original volume, and the equipment and structure models inside the server room model are enlarged to twice their original volume. The contour lines of each surface of the enlarged equipment and structure model are disassembled into several groups of line segments at the node position. The two ends of the several groups of line segments are infinitely extended until they intersect at the surface of the reduced server room model. Each group of intersection points is recorded as a monitoring point to be selected. Further, a monitoring point is selected from the monitoring points to be selected. When selecting a monitoring point, the selection tendency value of each monitoring point to be selected is calculated:

[0022]

[0023] Where: F(a) is the selection tendency of the monitoring point a to be selected; η is the compensation; m is the total number of monitoring points to be selected that belong to the equipment and structure models corresponding to the source line segment of the monitoring point a to be selected; d q is the vertical distance from the monitoring point a to be selected to the surface of the original server room model; d p is the vertical distance from the monitoring point a to be selected to the surface of the original equipment or structure model; ε is a constant; Q is the judgment value;

[0024] Among them, compensation η>0 is used to avoid the denominator of the fraction being zero. The value of compensation η is set to 1 by default. The constant ε>0 and is customized by the system user. The judgment value Q is customized by the system user. The monitoring points to be selected are selected based on formula (2). The monitoring points to be selected that meet formula (2) are selected as monitoring points. When the number of monitoring points selected based on the above formula is less than three groups, the system user manually selects points inside the server room model as monitoring points.

[0025] Furthermore, the perception module is integrated by a temperature and humidity sensor, a magnetic field change sensor and an air quality sensor, and the perception module is provided with submodules at the lower level, including:

[0026] The planning unit is used to receive all the monitoring points of the perception modules selected by the selection unit, and connect the monitoring points adjacent to each other to create a perception path of the perception modules;

[0027] Among them, when the planning unit is based on the adjacent and interconnected monitoring points, it selects the charging warehouse deployment positions twice in a row as the starting point and the end point. The perception module perception path created by the planning unit is fed back to the drone module in real time, and the drone module is used to carry the perception module to move along the planned path. During the movement along the planned path, the internal environmental parameters of the server room are perceived.

[0028] Furthermore, the perception module performs a perception operation based on a specified perception frequency during the movement of the drone module, and the operation of the drone module carrying the perception module is performed based on the specified frequency, and the specified frequency is customized by the system end user;

[0029] Among them, when the perception module performs the perception operation of the internal environmental parameters of the server room based on the specified perception frequency, the perception positions corresponding to each group of perception parameters at least include all monitoring points on the perception path except the starting point and the end point.

[0030] Furthermore, when storing the internal environmental parameters of the server room, the storage module simultaneously marks the perception position of the internal environmental parameters of the server room, further creates a parameter-differentiated storage interval in the storage module, and stores the internal environmental parameters of the server room in the parameter-differentiated storage interval, so that the perception position marks corresponding to the internal environmental parameters of the server room stored in each parameter-differentiated storage interval are all different.

[0031] Furthermore, the analysis module is provided with submodules at the lower level, including:

[0032] A retrieving unit, used to access the storage module, retrieve the internal environment parameters of the server room in the storage module, and forward them to the analysis module;

[0033] The internal environment parameters of the server room retrieved by the retrieval unit each time are: the two sets of parameters newly created in the storage module distinguish the internal environment parameters of the server room placed in the storage interval.

[0034] Furthermore, the security analysis logic of the internal environment of the server room in the analysis module is:

[0035]

[0036] Where: G is the internal environment safety performance value of the server room; C 1 , C 2 are the latest two sets of temperatures in the server room's internal environmental parameters; C 0 is the rated temperature of the server room; RH 1 RH 2 The two latest sets of humidity in the server room internal environment parameters; RH 0 is the rated humidity of the server room; M 1 、M 2 are the latest two sets of magnetic field temperatures in the internal environmental parameters of the server room; M 0 is the rated magnetic field strength of the server room; ρ 1 , 2 are the latest two sets of particle concentrations in the internal environmental parameters of the server room; ρ 0 is the rated particle concentration in the server room;

[0037] Among them, C 0 RH 0 、M 0 and 0 The security performance value G of the internal environment of the server room is obtained by the user of the system end. The larger |G-1| is, the lower the security of the internal environment of the server room is. Conversely, the smaller the security of the internal environment of the server room is, the higher the security of the internal environment of the server room is.

[0038] Compared with the known public technology, the technical solution provided by the present invention has the following beneficial effects:

[0039] The present invention provides a server room environmental safety management system. During operation, the system applies drone technology to the server room environmental monitoring scenario. By designing the drone-carried sensing equipment and flight path, environmental status parameters at any position in the server room can be collected through system debugging. At the same time, in the flight path design stage, based on the specified logic, it is ensured that the points selected for constituting the flight path are more in line with the monitoring requirements of the server room, thereby realizing real-time collection of effective environmental parameters inside the server room, and further configuring the security analysis logic, and applying the collected environmental parameters to complete the final judgment of the server room environmental safety. BRIEF DESCRIPTION OF THE DRAWINGS

[0040] In order to more clearly illustrate the embodiments of the present invention or the technical solutions in the prior art, the drawings required for use in the embodiments or the prior art descriptions are briefly introduced below. Obviously, the drawings described below are only some embodiments of the present invention, and for ordinary technicians in this field, other drawings can be obtained based on these drawings without creative work.

[0041] Figure 1 The figure is a structural diagram of a server room environment safety management system. DETAILED DESCRIPTION

[0042] In order to make the purpose, technical solution and advantages of the embodiments of the present invention clearer, the technical solution in the embodiments of the present invention will be clearly and completely described below in conjunction with the drawings in the embodiments of the present invention. Obviously, the described embodiments are part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0043] The present invention will be further described below in conjunction with the embodiments.

[0044] Embodiment 1:

[0045] A server room environment security management system of this embodiment, such as Figure 1 As shown, including:

[0046] A design module is used to upload the structural parameters of the server room and design the monitoring points in the perception module based on the structural parameters of the server room;

[0047] The server room structural parameters uploaded in the design module include: the specifications and location information of the walls constituting the server room, the specifications and location information of the fixed installations and constructed equipment and structures inside the server room. The design module is provided with sub-modules, including:

[0048] A construction unit, used for receiving the server room structural parameters uploaded in the design module, and constructing a server room model based on the server room structural parameters;

[0049] A selection unit is used to traverse the server room model constructed in the construction unit and select a monitoring point of a sensing module in the server room model;

[0050] When the construction unit constructs the server room model, the equipment and structure models inside the server room simultaneously perform construction operations, and the equipment and structure models are part of the server room model;

[0051] When selecting the monitoring points of the perception module, the selection unit shall comply with:

[0052] The server room model is reduced to half of its original volume, and the equipment and structure models inside the server room model are enlarged to twice their original volume. The contour lines of each surface of the enlarged equipment and structure model are disassembled into several groups of line segments at the node position. The two ends of the several groups of line segments are infinitely extended until they intersect at the surface of the reduced server room model. Each group of intersection points is recorded as a monitoring point to be selected. Further, a monitoring point is selected from the monitoring points to be selected. When selecting a monitoring point, the selection tendency value of each monitoring point to be selected is calculated:

[0053]

[0054] Where: F(a) is the selection tendency of the monitoring point a to be selected; η is the compensation; m is the total number of monitoring points to be selected that belong to the equipment and structure models corresponding to the source line segment of the monitoring point a to be selected; d q is the vertical distance from the monitoring point a to be selected to the surface of the original server room model; d p is the vertical distance from the monitoring point a to be selected to the surface of the original equipment or structure model; ε is a constant; Q is the judgment value;

[0055] Among them, compensation η>0 is used to avoid the denominator of the fraction in which it is located is zero, the value of compensation η is set to 1 by default, the constant ε>0, and is customized by the system end user, the judgment value Q is customized by the system end user, and the monitoring points to be selected are selected based on formula (2). The monitoring points to be selected that meet the formula (2) are selected as monitoring points. When the number of monitoring points selected based on the above formula is less than three groups, the system end user manually selects points inside the server room model as monitoring points;

[0056] A sensing module is used to sense the internal environmental parameters of the server room;

[0057] The perception module is internally configured with submodules, including:

[0058] The drone module is used to carry the perception module and move it around the server room, controlling the perception module to perform real-time environmental parameter perception operations;

[0059] The drone module includes a drone and a charging warehouse. The charging warehouse is installed at any position in the server room. When selecting the monitoring point of the perception module, the selection unit simultaneously selects the deployment position of the charging warehouse twice in succession. The number of the monitoring points of the perception module selected by the selection unit is not less than three groups except the deployment position of the charging warehouse.

[0060] The perception module is integrated with temperature and humidity sensors, magnetic field change sensors and air quality sensors. The perception module is equipped with submodules, including:

[0061] The planning unit is used to receive all the monitoring points of the perception modules selected by the selection unit, and connect the monitoring points adjacent to each other to create a perception path of the perception modules;

[0062] Among them, when the planning unit is based on the adjacent and interconnected monitoring points, it takes the charging warehouse deployment positions selected twice in succession as the starting point and the end point. The perception module perception path created by the planning unit is fed back to the drone module in real time, and the drone module is used to carry the perception module to move along the planned path. During the movement along the planned path, the internal environmental parameters of the server room are perceived;

[0063] A storage module, used for receiving the internal environment parameters of the server room sensed by the sensing module, and storing the received internal environment parameters of the server room;

[0064] An analysis module, used to obtain the internal environment parameters of the server room stored in the storage module, and analyze the internal environment security of the server room based on the internal environment parameters of the server room;

[0065] The analysis module is provided with submodules, including:

[0066] A retrieving unit, used to access the storage module, retrieve the internal environment parameters of the server room in the storage module, and forward them to the analysis module;

[0067] The internal environment parameters of the server room retrieved by the retrieval unit each time are: the two sets of parameters newly created in the storage module distinguish the internal environment parameters of the server room placed in the storage interval;

[0068] The security analysis logic of the internal environment of the server room in the analysis module is:

[0069]

[0070] Where: G is the internal environment safety performance value of the server room; C 1 , C 2 are the latest two sets of temperatures in the server room's internal environmental parameters; C 0 is the rated temperature of the server room; RH 1 RH 2 The two latest sets of humidity in the server room internal environment parameters; RH 0 is the rated humidity of the server room; M 1 、M 2 are the latest two sets of magnetic field temperatures in the internal environmental parameters of the server room; M 0 is the rated magnetic field strength of the server room; ρ1 , 2 are the latest two sets of particle concentrations in the internal environmental parameters of the server room; ρ0 is the rated particle concentration of the server room;

[0071] Among them, C 0 RH 0 、M 0 and 0 The system user defines the security performance value G of the internal environment of the server room. The larger the value of |G-1| is, the lower the security of the internal environment of the server room is. On the contrary, the smaller the value is, the higher the security of the internal environment of the server room is.

[0072] The warning module is used to set the warning trigger threshold, receive the security analysis results of the internal environment of the server room in the analysis module in real time, compare the analysis results with the warning trigger threshold, and execute the sending operation of the warning message when the analysis results meet the warning trigger threshold;

[0073] The warning module stores a warning message manually edited by the system end user, and the warning message is sent to the mobile computer device held by the system end user;

[0074] The design module is interactively connected to the construction unit and the selection unit through a wireless network. The design module is interactively connected to the perception module through a wireless network. The perception module is interactively connected to the drone module through a wireless network. The perception module is interactively connected to the planning unit through a wireless network. The planning unit is interactively connected to the drone module and the selection unit through a wireless network. The perception module is interactively connected to the storage module, the analysis module and the warning module through a wireless network. The analysis module is interactively connected to the retrieval unit through a wireless network. The retrieval unit is interactively connected to the storage module through a wireless network.

[0075] In this embodiment, the design module runs to upload the structural parameters of the server room, designs the monitoring points in the perception module based on the structural parameters of the server room, the construction unit synchronously receives the structural parameters of the server room uploaded in the design module, builds a server room model based on the structural parameters of the server room, the selection unit traverses the server room model built in the construction unit in real time, selects the monitoring points of the perception module in the server room model, the perception module post-operates to perceive the internal environmental parameters of the server room, the drone module synchronously carries the perception module to move in the internal space of the server room, controls the perception module to perform real-time environmental parameter perception operations, the planning unit receives all the monitoring points of the perception module selected by the selection unit in real time, and connects the adjacent monitoring points to each other, A perception path of the perception module is created, and then the storage module receives the internal environmental parameters of the server room perceived by the perception module, and stores the received internal environmental parameters of the server room. The analysis module further obtains the internal environmental parameters of the server room stored in the storage module, and analyzes the internal environmental security of the server room based on the internal environmental parameters of the server room. The retrieving unit synchronously accesses the storage module, retrieves the internal environmental parameters of the server room in the storage module, and forwards them to the analysis module. Finally, the warning trigger threshold is set through the warning module, and the internal environmental security analysis result of the server room in the analysis module is received in real time. Based on the comparison between the analysis result and the warning trigger threshold, when the analysis result meets the warning trigger threshold, the sending operation of the warning message is executed.

[0076] Through the operation of the system in the above embodiment, a highly intelligent and comprehensive server room environment monitoring and management technology is provided to ensure that the server room can be operated in a safer and more stable environment.

[0077] Embodiment 2:

[0078] In terms of specific implementation, based on Example 1, this example refers to Figure 1 A server room environment safety management system in Example 1 is further described in detail:

[0079] The perception module performs perception operations based on the specified perception frequency during the movement of the drone module. The operation of the drone module carrying the perception module is performed based on the specified frequency, and the specified frequency is customized by the system end user;

[0080] Among them, when the perception module performs the perception operation of the internal environmental parameters of the server room based on the specified perception frequency, the perception positions corresponding to each group of perception parameters at least include all monitoring points on the perception path except the starting point and the end point.

[0081] Through the above settings, the operating logic of the perception module and the monitoring point determination logic used by the perception module are further limited, ensuring that the perception module can operate stably and collect effective internal environmental parameters of the server room.

[0082] like Figure 1 As shown, when the storage module stores the internal environmental parameters of the server room, it simultaneously marks the sensing position of the internal environmental parameters of the server room, further creates a parameter-differentiated storage interval in the storage module, and stores the internal environmental parameters of the server room in the parameter-differentiated storage interval, so that the corresponding sensing position marks of each server room internal environmental parameter stored in each parameter-differentiated storage interval are different.

[0083] Through the above settings, the internal environmental parameters of the server room collected by the perception module can be logically stored and managed after collection, so that the internal environmental parameters of the server room can be retrieved more quickly in subsequent applications.

[0084] In summary, during the operation of the system in the above embodiment, drone technology is applied to the server room environment monitoring scenario. Through the design of the drone-carrying sensing equipment and flight path, the environmental status parameters at any location in the server room can be collected through the debugging of the system. At the same time, in the flight path design stage, based on the specified logic, it is ensured that the points selected to constitute the flight path are more in line with the monitoring needs of the server room, thereby realizing the real-time collection of effective environmental parameters inside the server room, and further configuring the security analysis logic, and applying the collected environmental parameters to complete the final judgment of the server room environmental safety.

[0085] The above embodiments are only used to illustrate the technical solutions of the present invention, rather than to limit the same. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art should understand that the technical solutions described in the aforementioned embodiments may still be modified, or some of the technical features may be replaced by equivalents. Such modifications or replacements will not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of the present invention.

Claims

1. A server room environment security management system, characterized in that: include: A design module is used to upload the structural parameters of the server room and design the monitoring points in the perception module based on the structural parameters of the server room; A sensing module is used to sense the internal environmental parameters of the server room; A storage module, used for receiving the internal environment parameters of the server room sensed by the sensing module, and storing the received internal environment parameters of the server room; An analysis module, used to obtain the internal environment parameters of the server room stored in the storage module, and analyze the internal environment security of the server room based on the internal environment parameters of the server room; The warning module is used to set the warning trigger threshold, receive the security analysis results of the internal environment of the server room in the analysis module in real time, compare the analysis results with the warning trigger threshold, and execute the sending operation of the warning message when the analysis results meet the warning trigger threshold; The warning module stores a warning message manually edited by the system end user, and the warning message is sent to a mobile computer device held by the system end user.

2. A server room environment safety management system according to claim 1, characterized in that: The server room structural parameters uploaded in the design module include: the specifications and location information of the walls constituting the server room, the specifications and location information of the fixed installations and constructed equipment and structures inside the server room, and the sub-modules are arranged at the lower level of the design module, including: A construction unit, used for receiving the server room structural parameters uploaded in the design module, and constructing a server room model based on the server room structural parameters; A selection unit, used to traverse the server room model constructed in the construction unit, and select a monitoring point of a perception module in the server room model; When the construction unit constructs the server room model, the equipment and structure models inside the server room simultaneously execute the construction operation, and the equipment and structure models are part of the server room model.

3. A server room environment safety management system according to claim 1, characterized in that: The perception module is internally provided with submodules, including: The drone module is used to carry the perception module and move it around the server room, controlling the perception module to perform real-time environmental parameter perception operations; Among them, the drone module includes a drone and a charging warehouse, and the charging warehouse is installed at any position in the server room. When the selection unit selects the monitoring point of the perception module, it simultaneously selects the deployment position of the charging warehouse twice in succession. The number of perception module monitoring points selected by the selection unit is not less than three groups except the deployment position of the charging warehouse.

4. A server room environment safety management system according to claim 2 or 3, characterized in that: When selecting the monitoring point of the sensing module, the selection unit complies with: The server room model is reduced to half of its original volume, and the equipment and structure models inside the server room model are enlarged to twice their original volume. The contour lines of each surface of the enlarged equipment and structure model are disassembled into several groups of line segments at the node position. The two ends of the several groups of line segments are infinitely extended until they intersect at the surface of the reduced server room model. Each group of intersection points is recorded as a monitoring point to be selected. Further, a monitoring point is selected from the monitoring points to be selected. When selecting a monitoring point, the selection tendency value of each monitoring point to be selected is calculated: Where: F(a) is the selection tendency of the monitoring point a to be selected; η is the compensation; m is the total number of monitoring points to be selected that belong to the equipment and structure models corresponding to the source line segment of the monitoring point a to be selected; d q is the vertical distance from the monitoring point a to be selected to the surface of the original server room model; d p is the vertical distance from the monitoring point a to be selected to the surface of the original equipment or structure model; ε is a constant; Q is the judgment value; Among them, compensation η>0 is used to avoid the denominator of the fraction being zero. The value of compensation η is set to 1 by default. The constant ε>0 and is customized by the system user. The judgment value Q is customized by the system user. The monitoring points to be selected are selected based on formula (2). The monitoring points to be selected that meet formula (2) are selected as monitoring points. When the number of monitoring points selected based on the above formula is less than three groups, the system user manually selects points inside the server room model as monitoring points.

5. A server room environment safety management system according to claim 1, characterized in that: The sensing module is integrated with a temperature and humidity sensor, a magnetic field change sensor and an air quality sensor. The sensing module is provided with submodules at the lower level, including: The planning unit is used to receive all the monitoring points of the perception modules selected by the selection unit, and connect the monitoring points adjacent to each other to create a perception path of the perception modules; Among them, when the planning unit is based on the adjacent and interconnected monitoring points, it selects the charging warehouse deployment positions twice in a row as the starting point and the end point. The perception module perception path created by the planning unit is fed back to the drone module in real time, and the drone module is used to carry the perception module to move along the planned path. During the movement along the planned path, the internal environmental parameters of the server room are perceived.

6. A server room environment safety management system according to claim 1, characterized in that: The sensing module performs sensing operations based on a specified sensing frequency during the movement of the drone module. The operation of the drone module carrying the sensing module is performed based on the specified frequency, and the specified frequency is customized by the system end user; Among them, when the perception module performs the perception operation of the internal environmental parameters of the server room based on the specified perception frequency, the perception positions corresponding to each group of perception parameters at least include all monitoring points on the perception path except the starting point and the end point.

7. A server room environment safety management system according to claim 1, characterized in that: When storing the internal environmental parameters of the server room, the storage module simultaneously marks the perception position of the internal environmental parameters of the server room, further creates a parameter-differentiated storage interval in the storage module, and stores the internal environmental parameters of the server room in the parameter-differentiated storage interval, so that the perception position marks corresponding to the internal environmental parameters of the server room stored in each parameter-differentiated storage interval are all different.

8. A server room environment safety management system according to claim 1, characterized in that: The analysis module is provided with submodules at the lower level, including: A retrieving unit, used to access the storage module, retrieve the internal environment parameters of the server room in the storage module, and forward them to the analysis module; The internal environment parameters of the server room retrieved by the retrieval unit each time are: the two sets of parameters newly created in the storage module distinguish the internal environment parameters of the server room placed in the storage interval.

9. A server room environment safety management system according to claim 1, characterized in that: The security analysis logic of the internal environment of the server room in the analysis module is as follows: Where: G is the safety performance value of the internal environment of the server room; C1 and C2 are the two latest sets of temperatures in the internal environment parameters of the server room; C0 is the rated temperature of the server room; RH1 and RH2 are the two latest sets of humidity in the internal environment parameters of the server room; RH0 is the rated humidity of the server room; M1 and M2 are the two latest sets of magnetic field temperatures in the internal environment parameters of the server room; M0 is the rated magnetic field strength of the server room; ρ1 and ρ2 are the two latest sets of particle concentrations in the internal environment parameters of the server room; ρ0 is the rated particle concentration of the server room; Among them, C0, RH0, M0 and ρ0 are customized by the system user. After obtaining the security performance value G of the internal environment of the server room, the larger the |G-1| is, the lower the security of the internal environment of the server room is. Conversely, the smaller the |G-1| is, the higher the security of the internal environment of the server room is.

10. A server room environment safety management system according to claim 1, characterized in that: The design module is interactively connected to a construction unit and a selection unit via a wireless network, the design module is interactively connected to a perception module via a wireless network, the perception module is interactively connected to a drone module via a wireless network, the perception module is interactively connected to a planning unit via a wireless network, the planning unit is interactively connected to the drone module and the selection unit via a wireless network, the perception module is interactively connected to a storage module, an analysis module and an alarm module via a wireless network, the analysis module is interactively connected to a retrieval unit via a wireless network, and the retrieval unit is interactively connected to the storage module via a wireless network.

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