Intelligent management system for full life cycle of intelligent engineering of indwelling base

Abstract

The invention discloses a full-life-cycle intelligent management system for intelligent engineering of an indwelling base, relates to the technical field of intelligent management of the indwelling base, and solves the technical problem that the use efficiency of the real-time indwelling base cannot be evaluated through data acquisition according to a numerical curve in the prior art. The method specifically comprises the steps that a data collecting and analyzing unit collects and analyzes environment data of all areas of the indwelling base, the indwelling base is divided into a plurality of sub-areas according to the use requirement of the indwelling base, environment control analysis information is obtained according to all the sub-areas, and the environment control analysis information is substituted into a formula to obtain environment data collecting and analyzing coefficients of the areas in the indwelling base; whether data collection and analysis in the indwelling base are qualified or not is deduced through coefficient threshold value comparison; the regional equipment analysis unit obtains control parameters according to the operation requirements of equipment arranged in each sub-region in the indwelling base, and collects a multi-region parameter control ratio and a single-region performance value ratio; and deducing whether the operation state of the indwelling base equipment is qualified according to numerical value comparison.

Description

Technical Field

[0001] The present invention relates to the technical field of intelligent management of detention bases, and specifically to an intelligent management system for the entire life cycle of intelligentized detention base projects. Background Art

[0002] With the development of science and technology and the growing demand for intelligence in the construction industry, intelligent building projects have become an important part of modern construction; intelligent management of the entire life cycle of intelligent retention base projects is a vital task, which covers all stages from project planning, design, construction to operation and maintenance, and achieves efficient and precise management through intelligent means.

[0003] However, in the existing technology, the detention base is unable to perform environmental control analysis and regional equipment analysis on each area during actual operation, so that it is impossible to ensure that the operating environment of the detention base meets the needs. At the same time, it is impossible to model and analyze the detention base, and it is impossible to collect data and evaluate the real-time utilization efficiency of the detention base based on numerical curves, which reduces the intelligent control efficiency of the detention base.

[0004] In view of the above technical defects, a solution is now proposed. Summary of the invention

[0005] The purpose of the present invention is to solve the above-mentioned problems and to propose an intelligent management system for the entire life cycle of intelligent detention base projects, which solves many problems such as insufficient informatization and intelligence level in the operation and management of detention base projects, and insufficient attention to the confidentiality of security information.

[0006] The purpose of the present invention can be achieved through the following technical solutions:

[0007] A full life cycle intelligent management system for a retention base intelligent project includes a full life cycle management platform, wherein the full life cycle management platform is connected to:

[0008] The data collection and analysis unit is used to collect and analyze the environmental data of each area of ​​the detention base. The detention base is divided into several sub-areas according to the use requirements of the detention base. Environmental control analysis information is obtained according to each sub-area, and the coefficient of regional environmental data collection and analysis in the detention base is obtained by substituting it into a formula. Whether the data collection and analysis in the detention base is qualified is inferred through comparison of the coefficient threshold;

[0009] The regional equipment analysis unit is used to obtain control parameters according to the operation requirements of the equipment in each sub-area of ​​the retention base, collect the multi-area parameter control ratio and the single-area performance value ratio; and infer whether the operation status of the retention base equipment is qualified based on the numerical comparison;

[0010] The digital twin modeling and monitoring unit is used to model and monitor the retention base.

[0011] As a preferred embodiment of the present invention, the environmental control analysis information includes the air circulation speed control ratio, the ratio of the illumination duration of the illumination area to the illumination duration of the non-illuminated area in the open sub-area within the retention base, and the maximum deviation value of the temperature and humidity values ​​between different locations in any connected area within the retention base, and is labeled KSB, SCB, and WSD.

[0012] As a preferred embodiment of the present invention, the formula is:

[0013] Among them, HF is the regional environmental data collection and analysis coefficient, cv1, cv2, and cv3 are the preset proportional coefficients of the air circulation control speed ratio, the corresponding light duration ratio, and the maximum deviation value of the temperature and humidity values, respectively, and β is used as the error correction factor, and its value is 0.97.

[0014] As a preferred embodiment of the present invention, if the regional environmental data collection and analysis coefficient within the detention base does not exceed the data collection and analysis coefficient threshold, the data collection and analysis within the detention base is judged to be unqualified; if the regional environmental data collection and analysis coefficient within the detention base exceeds the data collection and analysis coefficient threshold, the data collection and analysis within the detention base is judged to be qualified.

[0015] As a preferred embodiment of the present invention, the multi-area parameter control ratio and the single-area performance value ratio are respectively the ratio of the floating amount of the control parameter of the equipment equipped in any adjacent sub-area in the retention base to the regional parameter value deviation value of the control parameter in the corresponding adjacent sub-area, and the span ratio of the floating span value of the sub-area control parameter value of the equipment equipped in any sub-area in the retention base to the reduced span of the control parameter control amount of the sub-area.

[0016] As a preferred embodiment of the present invention, if the multi-region parameter control ratio exceeds the parameter control ratio threshold, a regional environmental monitoring signal is generated; if the multi-region parameter control ratio does not exceed the parameter control ratio threshold, an environmental control risk signal is generated;

[0017] If the single-area performance value ratio exceeds the performance value ratio threshold, a device rematch signal is generated; if the single-area performance value ratio does not exceed the performance value ratio threshold, a device matching qualified signal is generated.

[0018] As a preferred embodiment of the present invention, the operation process of the digital twin modeling monitoring unit is as follows:

[0019] The overlapping frequency of different types of personnel in the connecting channels corresponding to different types of sub-areas during the operation of the detention base is obtained, and the overlapping area of ​​the activity range of personnel in the areas of different types of sub-areas during the operation of the detention base is obtained. The overlapping frequency of different types of personnel in the connecting channels corresponding to different types of sub-areas during the operation of the detention base and the overlapping area of ​​the activity range of personnel in the areas of different types of sub-areas during the operation of the detention base are uniformly marked as building structure influencing parameters; according to the digital twin technology, the building structure influencing parameters are collected for a historical set period of time, and the data collected during the historical set period of time is marked as building reference parameters.

[0020] As a preferred embodiment of the present invention, according to the increase in the use frequency of the retention base, the control parameters of each moment in the continuous use period of each type of sub-area are obtained, and the historical operation period is selected with the same duration as the continuous use period and the control parameters of each moment in the historical operation period are collected;

[0021] The deviation values ​​of the regional control parameters in the current continuous use period and the corresponding control parameters at the same stage in the historical operation period are collected, and the increase in value is a positive number, otherwise it is a negative number. The regional supply parameter curve is constructed based on the control parameter deviation value, and the regional supply parameter curve is analyzed.

[0022] As a preferred embodiment of the present invention, if the maximum span value of the reciprocating floating of the control parameter deviation values ​​corresponding to adjacent moments in the regional supply parameter curve exceeds the set threshold, it is inferred that the current continuous use period is a supply pressurization period; conversely, if the maximum span value of the reciprocating floating of the control parameter deviation values ​​corresponding to adjacent moments in the regional supply parameter curve does not exceed the set threshold, it is inferred that the current continuous use period is a supply low-intensity period.

[0023] As a preferred embodiment of the present invention, the main influence curve and the reference curve are constructed according to the building structure influence parameters and the building reference parameters in the current operation period of the retention base, and the curve floating deviation time point is collected according to the floating trends of the two curves; if the curve floating deviation time point is in the supply pressurization period, a regional alternating use signal is generated;

[0024] If the curve floating deviation time point is in a period of low supply intensity, a temporary job adjustment signal is generated.

[0025] Compared with the prior art, the present invention has the following beneficial effects:

[0026] 1. In the present invention, environmental data of each area of ​​the retention base is collected and analyzed, and the environmental data analysis in each area of ​​the retention base is used to infer whether the area where the retention base is located in the current period meets the use demand, so as to avoid the inability to efficiently control the environment in the retention base, thereby reducing the use efficiency of the retention base and failing to create a use environment for the retention base;

[0027] Carry out equipment analysis on each sub-area within the detention base. By analyzing the equipment configured in the area within the detention base, it is inferred whether the current operating status of the detention base equipment is qualified, so as to carry out operation and maintenance control in time when the operating status fluctuates to ensure that the equipped equipment can play an operating role in the corresponding sub-area. Carry out sub-area demand control according to the equipment's own demand supply capacity to ensure the operation qualification of the detention base.

[0028] 2. In the present invention, the detention base is modeled and analyzed based on the digital twin technology, and the current operating status of the detention base is inferred to be qualified based on the analysis of the components of the detention base, so as to ensure the normal use of the detention base and avoid the situation where the detention base cannot meet the living needs of the personnel under personnel supervision, thereby reducing the utilization efficiency of the detention base;

[0029] Carry out safety early warning monitoring during the operation period of the detention base. Through multi-faceted safety early warning monitoring, the operation efficiency of the detention base is guaranteed while ensuring the safety of work within the detention base. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] In order to facilitate understanding by those skilled in the art, the present invention is further described below with reference to the accompanying drawings.

[0031] Figure 1 This is a principle block diagram of Embodiment 1 of the present invention;

[0032] Figure 2 This is a principle block diagram of the second embodiment of the present invention. DETAILED DESCRIPTION

[0033] In order to enable those skilled in the art to better understand the scheme of the present invention, the technical scheme 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 only 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.

[0034] Reference to "embodiments" herein means that a particular feature, structure, or characteristic described in conjunction with the embodiments may be included in at least one embodiment of the present invention. The appearance of the phrase in various places in the specification does not necessarily refer to the same embodiment, nor is it an independent or alternative embodiment that is mutually exclusive with other embodiments. It is explicitly and implicitly understood by those skilled in the art that the embodiments described herein may be combined with other embodiments.

[0035] Embodiment 1

[0036] This embodiment performs intelligent monitoring of the area where the detention base is located. Figure 1 As shown, a full life cycle intelligent management system for intelligent engineering of retention bases includes a full life cycle management platform, wherein the full life cycle management platform is communicatively connected with a data acquisition and analysis unit, a regional equipment analysis unit, and a digital twin modeling and monitoring unit;

[0037] The full life cycle management platform generates a data collection and analysis signal and sends the data collection and analysis signal to the data collection and analysis unit. After receiving the data collection and analysis signal, the data collection and analysis unit collects and analyzes the environmental data of each area of ​​the retention base, and infers whether the area where the retention base is located in the current period meets the use demand based on the environmental data analysis of each area of ​​the retention base, so as to avoid the inability to efficiently control the environment in the retention base, thereby reducing the use efficiency of the retention base and failing to create a use environment for the retention base;

[0038] The detention base is divided into several sub-areas according to the use requirements of the detention base. The sub-areas are divided according to the use requirements. Specifically, if personnel supervision is required in the detention base, the environmental parameters in the corresponding sub-areas must be controlled to be qualified, such as air circulation and temperature control, or if clothes need to be dried in the detention base, the lighting time and light intensity must be guaranteed; therefore, this technical solution is named according to the use requirements of the sub-areas. In the actual operation of the detention base, there are still other types of demand sub-areas, and they are still applicable when substituted into this system;

[0039] The deviation between the air circulation speed and the set speed in the closed sub-area of ​​the retention base and the maximum control speed during air circulation speed control are obtained, and the air circulation speed control ratio is calculated according to the ratio, and the label KSB is set; at the same time, the corresponding time ratio of the illumination duration of the illumination area to be illuminated and the illumination duration of the non-illuminated area in the open sub-area of ​​the retention base is obtained, and the corresponding time ratio of the illumination duration of the illumination area to be illuminated and the illumination duration of the non-illuminated area in the open sub-area of ​​the retention base is set as SCB; at the same time, the maximum deviation value of temperature and humidity between different positions in the connected area of ​​any area in the retention base is obtained, and the maximum deviation value of temperature and humidity between different positions in the connected area of ​​any area in the retention base is marked as WSD; the maximum deviation value of temperature and humidity can be the maximum deviation value of temperature or humidity;

[0040] The above collected data are uniformly marked as environmental control analysis information, and substituted into the formula to obtain the regional environmental data collection and analysis coefficient within the retention base, where the formula is Among them, HF is the regional environmental data collection and analysis coefficient, cv1, cv2, and cv3 are the preset proportional coefficients of the air circulation control speed ratio, the corresponding duration ratio of the light duration, and the maximum deviation value of the temperature and humidity values, and β is used as the error correction factor, and its value is 0.97;

[0041] Compare the regional environmental data collection and analysis coefficient within the retention base with the data collection and analysis coefficient threshold:

[0042] If the data collection and analysis coefficient of the area within the retention base does not exceed the data collection and analysis coefficient threshold, the data collection and analysis within the retention base is judged to be unqualified, and an environmental analysis abnormality signal is generated and sent to the full life cycle management platform. After receiving the environmental analysis abnormality signal, the full life cycle management platform marks the corresponding sub-area as an environmental rectification area, and conducts targeted management and control of the environmental rectification area according to the use needs of the sub-area. For example, if light is needed, the light duration is increased, and if temperature and humidity need to be stable, the temperature and humidity are controlled;

[0043] If the regional environmental data collection and analysis coefficient in the retention base exceeds the data collection and analysis coefficient threshold, the data collection and analysis in the retention base is determined to be qualified, and a normal environmental analysis signal is generated and sent to the digital twin modeling monitoring unit; at the same time, a regional equipment analysis signal is generated and sent to the regional equipment analysis unit;

[0044] After receiving the regional equipment analysis signal, the regional equipment analysis unit performs equipment analysis on each sub-area in the retention base, and infers whether the current equipment operation status of the retention base is qualified by analyzing the regional equipment configuration in the retention base, so as to timely perform operation and maintenance control when the operation status fluctuates, so as to ensure that the equipped equipment can play an operating role in the corresponding sub-area, and perform sub-area demand control according to the equipment's own demand supply capacity to ensure the operation qualification of the retention base;

[0045] The control parameters are obtained according to the operation requirements of the equipment in each sub-area of ​​the retention base, specifically, when the equipment is a temperature control device, the corresponding control parameter is the temperature, and when the equipment is an air control device, the corresponding control parameter is the air flow rate; the deviation value of the regional parameter value of the control parameter of the equipment in any adjacent sub-area of ​​the retention base and the control parameter in the corresponding adjacent sub-area is obtained, and the multi-area parameter control ratio is obtained according to the ratio calculation;

[0046] At the same time, the ratio of the floating span value of the sub-region control parameter value corresponding to the equipment in any sub-region of the retention base to the corresponding span value of the control parameter control amount reduction span in the sub-region is obtained, and the ratio of the floating span value of the sub-region control parameter value corresponding to the equipment in any sub-region of the retention base to the corresponding span value of the control parameter control amount reduction span in the sub-region is marked as the single-region performance value ratio;

[0047] The multi-region parameter control ratio and the single-region performance value ratio are compared with the parameter control ratio threshold and the performance value ratio threshold respectively: wherein the threshold is represented by the control efficiency of the control parameters of the equipment corresponding to the relevant parameters and the corresponding area during the historical operation of the corresponding sub-area of ​​the retention base. The set threshold, such as the parameter control ratio threshold, when the parameter value ratio does not exceed a certain value during the historical operation, the control efficiency is abnormal, and the current certain value is the threshold of the current period;

[0048] If the deviation between the floating amount of the control parameter of the equipment in any adjacent sub-area in the retention base and the regional parameter value of the control parameter in the corresponding adjacent sub-area exceeds the parameter control ratio threshold, it is determined that the environmental parameters of the corresponding sub-area in the retention base are floating and the equipment is equipped to perform effective environmental control, and a regional environmental monitoring signal is generated and sent to the full life cycle management platform. After receiving the regional environmental monitoring signal, the full life cycle management platform will trace the floating source of the environmental parameters of the corresponding sub-area and infer the floating reasons of the environmental parameters, so as to control them at the source and reduce the operating pressure of the equipment;

[0049] If the deviation between the floating amount of the control parameter of the equipment in any adjacent sub-area in the retention base and the regional parameter value of the control parameter in the corresponding adjacent sub-area does not exceed the parameter control ratio threshold, it is determined that the equipment in the retention base cannot effectively control the environment, and an environmental control risk signal is generated and sent to the full life cycle management platform. After receiving the environmental control risk signal, the full life cycle management platform will control the environment of the corresponding sub-area until the parameter is within the set range, and adjust the range of the control parameters of the equipment, and replace the specifications when necessary;

[0050] If the ratio of the floating span value of the sub-region control parameter value corresponding to the equipment in any sub-region within the retention base to the span corresponding to the reduced span of the control parameter control amount in the sub-region exceeds the performance value ratio threshold, it is determined that the operating performance of the equipment in the sub-region within the retention base cannot meet the regional demand, and an equipment rematching signal is generated and sent to the full life cycle management platform. After receiving the equipment rematching signal, the full life cycle management platform will replace the model of the equipment in the corresponding sub-region within the retention base in advance;

[0051] If the ratio of the floating span value of the sub-region control parameter value corresponding to the equipment in any sub-region within the retention base to the span corresponding to the reduced span of the control parameter control amount in the sub-region does not exceed the performance value ratio threshold, it is determined that the operating performance of the equipment in the sub-region within the retention base meets the regional requirements, and a qualified equipment matching signal is generated and sent to the full life cycle management platform;

[0052] After the corresponding collection and analysis of regional equipment and regional environment is completed, the digital twin modeling and monitoring unit models and monitors the detention base, models and analyzes the detention base based on the digital twin technology, and infers whether the current operating status of the detention base is qualified based on the analysis of the various components of the detention base, ensuring the normal use of the detention base, and avoiding the detention base being unable to meet the living needs of the personnel under supervision, thereby reducing the utilization efficiency of the detention base;

[0053] The overlapping frequency of different types of personnel in the connecting channels corresponding to different types of sub-areas during the operation of the detention base is obtained, and the overlapping area of ​​the activity range of the personnel in the areas of different types of sub-areas during the operation of the detention base is obtained, and the overlapping frequency of different types of personnel in the connecting channels corresponding to different types of sub-areas during the operation of the detention base and the overlapping area of ​​the activity range of the personnel in the areas of different types of sub-areas during the operation of the detention base are uniformly marked as building structure influencing parameters; the building structure influencing parameters are collected for historical set time periods according to the digital twin technology, and the data collected for the historical set time periods are marked as building reference parameters; the sub-areas can be types such as detention areas, office areas, and living areas;

[0054] Then, according to the increase in the frequency of use of the retention base, the control parameters of each type of sub-area at each moment in the continuous use period are obtained, and according to the data twin technology, the historical operation period is selected with the same duration as the continuous use period and the control parameters at each moment in the historical operation period are collected;

[0055] First, the deviation values ​​of the regional control parameters in the current continuous use period and the corresponding control parameters at the same stage in the historical operation period are collected, and the value increase is a positive number, otherwise it is a negative number. The regional supply parameter curve is constructed according to the control parameter deviation value, and the regional supply parameter curve is analyzed. If the maximum span value of the reciprocating floating of the control parameter deviation values ​​corresponding to adjacent moments in the regional supply parameter curve exceeds the set threshold, it is inferred that the current continuous use period is a supply pressure period; conversely, if the maximum span value of the reciprocating floating of the control parameter deviation values ​​corresponding to adjacent moments in the regional supply parameter curve does not exceed the set threshold, it is inferred that the current continuous use period is a supply low intensity period;

[0056] According to the current operation period of the detention base, the building structure influencing parameters and building reference parameters are used to construct the main influence curve and the reference curve, and according to the floating trends of the two curves, the curve floating deviation time point is collected, which is expressed as the time when the floating span value deviation of the two curves is too large or the time when the floating slope of the two curves is too large; if the curve floating deviation time point is in the supply pressurization period, a regional alternating use signal is generated and sent to the full life cycle management platform. After receiving the regional alternating use signal, the full life cycle management platform will alternately replace the detention area of ​​the detained personnel in the current detention base to ensure that the environmental control of the detention area meets the needs while avoiding close contact between personnel in the detention base, causing the risk of information leakage;

[0057] If the curve floating deviation time point is in the period of low supply intensity, a temporary post transfer signal is generated and sent to the full life cycle management platform. After receiving the temporary post transfer signal, the full life cycle management platform will temporarily transfer the staff responsible for the detained personnel during the continuous detention control stage of the detained personnel to avoid too long a rotation time between the detained personnel and any staff;

[0058] Embodiment 2

[0059] In the previous embodiment, the environmental control and equipment analysis in the detention base are managed, and the working hours of the detained personnel in the detention base are also specifically regulated. Based on the previous embodiment, this embodiment provides multiple safety warnings for the detention base. Please refer to Figure 2 As shown, the data twin modeling monitoring unit is communicatively connected with the safety early warning monitoring unit;

[0060] The data twin modeling monitoring unit generates a safety warning monitoring signal and sends it to the safety warning monitoring unit. After receiving the safety warning monitoring signal, the safety warning monitoring unit conducts safety warning monitoring during the operation period of the detention base. Through multi-faceted safety warning monitoring, the operation efficiency of the detention base is ensured while ensuring the safety of work within the detention base.

[0061] The deviation time between the dynamic control time of the sub-area equipment equipped in the detention base operation process and the current control execution detection qualified time is obtained, and at the same time, the time ratio of the transmission receiving terminal review time after the network information transmission instruction of any sub-area personnel is generated in the detention base operation process to the actual transmission instruction interception setting time is obtained. The deviation time between the dynamic control time of the sub-area equipment equipped in the detention base operation process and the current control execution detection qualified time, and the time ratio of the transmission receiving terminal review time after the network information transmission instruction of any sub-area personnel is generated in the detention base operation process to the actual transmission instruction interception setting time are marked as environmental warning data and information warning data, respectively, and compared with the control deviation time threshold and time ratio threshold, respectively:

[0062] If the deviation time between the dynamic control time of the equipment equipped in the sub-area and the current control execution detection qualified time during the operation of the detention base exceeds the control deviation time threshold, or the time ratio of the transmission receiving terminal review time after the network information transmission instruction of any sub-area personnel is generated during the operation of the detention base to the actual transmission instruction interception setting time exceeds the time ratio threshold, then it is determined that there is a risk in the operation of the detention base, and a safety warning signal is generated and sent to the full life cycle management platform. After receiving the safety warning signal, the full life cycle management platform controls and monitors the equipment equipped in the sub-area of ​​the detention base in real time and re-formats the information security monitoring gateway, and adjusts the review time of the information receiving terminal to avoid obstruction of personnel communication;

[0063] If the deviation between the dynamic control time of the equipment in the sub-area and the current control execution detection qualified time during the operation of the detention base does not exceed the control deviation time threshold, and the ratio of the time consumed by the transmission receiving terminal to review the network information transmission instruction generated by any sub-area personnel during the operation of the detention base to the actual transmission instruction interception set time does not exceed the time ratio threshold, then the operation in the detention base is judged to be safe, and a monitoring safety signal is generated and sent to the full life cycle management platform.

[0064] The above formulas are obtained by collecting a large amount of data and performing software simulation, and a formula close to the actual value is selected. The coefficients in the formula are set by technicians in this field according to actual conditions;

[0065] When the present invention is in use, the data collection and analysis unit collects and analyzes environmental data of each area of ​​the detention base, divides the detention base into several sub-areas according to the use requirements of the detention base, obtains environmental control analysis information according to each sub-area, and substitutes it into the formula to obtain the regional environmental data collection and analysis coefficient within the detention base, and infers whether the data collection and analysis in the detention base is qualified through coefficient threshold comparison; the regional equipment analysis unit obtains control parameters according to the operating requirements of the equipment equipped in each sub-area in the detention base, and collects multi-area parameter control ratios and single-area performance numerical ratios; it is inferred whether the operating status of the detention base equipment is qualified based on numerical comparison; the digital twin modeling and monitoring unit models and monitors the detention base.

[0066] The preferred embodiments of the present invention disclosed above are only used to help explain the present invention. The preferred embodiments do not describe all the details in detail, nor do they limit the invention to only specific implementation methods. Obviously, many modifications and changes can be made according to the content of this specification. This specification selects and specifically describes these embodiments in order to better explain the principles and practical applications of the present invention, so that those skilled in the art can understand and use the present invention well. The present invention is limited only by the claims and their full scope and equivalents.

Claims

1. An intelligent management system for the entire life cycle of intelligent engineering of retention bases, characterized in that: Including the full life cycle management platform, among which the communication connections of the full life cycle management platform are: The data collection and analysis unit is used to collect and analyze the environmental data of each area of ​​the detention base. The detention base is divided into several sub-areas according to the use requirements of the detention base. Environmental control analysis information is obtained according to each sub-area, and the coefficient of regional environmental data collection and analysis in the detention base is obtained by substituting it into a formula. Whether the data collection and analysis in the detention base is qualified is inferred through comparison of the coefficient threshold; The regional equipment analysis unit is used to obtain control parameters according to the operation requirements of the equipment in each sub-area of ​​the retention base, collect the multi-area parameter control ratio and the single-area performance value ratio; and infer whether the operation status of the retention base equipment is qualified based on the numerical comparison; The digital twin modeling and monitoring unit is used to model and monitor the retention base.

2. According to claim 1, a smart management system for the entire life cycle of a retention base intelligent project, characterized in that: Environmental control analysis information includes the air circulation speed control ratio, the ratio of the illumination duration of the illuminated area in the open sub-area within the retention base to the illumination duration of the unilluminated area, and the maximum deviation value of temperature and humidity between different locations in any connected area within the retention base, and is labeled KSB, SCB, and WSD.

3. According to claim 2, a smart management system for the entire life cycle of a retention base intelligent project, characterized in that: The formula is Among them, HF is the regional environmental data collection and analysis coefficient, cv1, cv2, and cv3 are the preset proportional coefficients of the air circulation control speed ratio, the corresponding light duration ratio, and the maximum deviation value of the temperature and humidity values, respectively, and β is used as the error correction factor, and its value is 0.

97.

4. According to claim 3, a smart management system for the entire life cycle of a retention base intelligent project is characterized in that: If the regional environmental data collection and analysis coefficient within the detention base does not exceed the data collection and analysis coefficient threshold, the data collection and analysis within the detention base is judged to be unqualified; if the regional environmental data collection and analysis coefficient within the detention base exceeds the data collection and analysis coefficient threshold, the data collection and analysis within the detention base is judged to be qualified.

5. According to claim 1, a smart management system for the entire life cycle of a retention base intelligent project, characterized in that: The multi-area parameter control ratio and the single-area performance value ratio are respectively the ratio of the floating amount of the control parameters of the equipment in any adjacent sub-area within the retention base to the regional parameter value deviation value of the control parameters in the corresponding adjacent sub-area, and the span ratio of the floating span value of the sub-area control parameter value corresponding to the equipment in any sub-area within the retention base to the reduced span of the control parameter control amount in the sub-area.

6. According to claim 5, a full life cycle intelligent management system for intelligent engineering of retention bases is characterized in that: If the multi-region parameter control ratio exceeds the parameter control ratio threshold, a regional environmental monitoring signal is generated; if the multi-region parameter control ratio does not exceed the parameter control ratio threshold, an environmental control risk signal is generated; If the single-area performance value ratio exceeds the performance value ratio threshold, a device rematching signal is generated; If the single-region performance value ratio does not exceed the performance value ratio threshold, a device matching qualified signal is generated.

7. According to claim 1, a retention base intelligent engineering full life cycle intelligent management system is characterized in that: The operation process of the digital twin modeling monitoring unit is as follows: The overlapping frequency of different types of personnel in the connecting channels corresponding to different types of sub-areas during the operation of the detention base is obtained, and the overlapping area of ​​the activity range of personnel in the areas of different types of sub-areas during the operation of the detention base is obtained. The overlapping frequency of different types of personnel in the connecting channels corresponding to different types of sub-areas during the operation of the detention base and the overlapping area of ​​the activity range of personnel in the areas of different types of sub-areas during the operation of the detention base are uniformly marked as building structure influencing parameters; according to the digital twin technology, the building structure influencing parameters are collected for a historical set period of time, and the data collected during the historical set period of time is marked as building reference parameters.

8. According to claim 7, a full life cycle intelligent management system for intelligent engineering of retention bases is characterized in that: According to the increase in the frequency of use of the retention base, the control parameters of each time in the continuous use period of each type of sub-area are obtained, and the historical operation period is selected with the same duration as the continuous use period and the control parameters of each time in the historical operation period are collected; The deviation values ​​of the regional control parameters in the current continuous use period and the corresponding control parameters at the same stage in the historical operation period are collected, and the increase in value is a positive number, otherwise it is a negative number. The regional supply parameter curve is constructed based on the control parameter deviation value, and the regional supply parameter curve is analyzed.

9. According to claim 8, a smart management system for the entire life cycle of a retention base intelligent project, characterized in that: If the maximum span value of the reciprocating floating of the control parameter deviation values ​​corresponding to adjacent moments in the regional supply parameter curve exceeds the set threshold, it is inferred that the current continuous use period is a supply pressure period; conversely, if the maximum span value of the reciprocating floating of the control parameter deviation values ​​corresponding to adjacent moments in the regional supply parameter curve does not exceed the set threshold, it is inferred that the current continuous use period is a supply low intensity period.

10. The intelligent management system for the entire life cycle of intelligent engineering of retention base according to claim 9 is characterized in that: According to the current operating period of the retention base, the building structure influencing parameters and the building reference parameters are used to construct the main influence curve and the reference curve, and the curve floating deviation time points are collected according to the floating trends of the two curves; if the curve floating deviation time point is in the supply pressure period, a regional alternating use signal is generated; if the curve floating deviation time point is in the low-intensity supply period, a temporary post adjustment signal is generated.

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