Uniform temperature treatment method and system for fluid inclusion

Abstract

The invention discloses a fluid inclusion uniform temperature processing method and system, and relates to the technical field of resource exploration. According to the method, fluid inclusion uniform temperature data of a research block is obtained, a fluid inclusion uniform temperature data set is constructed, and after preprocessing of sorting and grouping is carried out, a plurality of fluid inclusion uniform temperature data subsets are obtained; according to the number of the fluid inclusion uniform temperature data in each fluid inclusion uniform temperature data subset, the charging period of the fluid inclusion in the thermal history burial history diagram is determined, and in combination with a preset temperature gradient, the fluid inclusion uniform temperature values at the beginning of oil gas charging and at the end of oil gas charging are extracted; and acquiring oil and gas filling starting time and oil and gas filling ending time in the thermal history burial history diagram to obtain oil and gas filling duration of the research block. According to the method, the precision and efficiency of uniform temperature data processing of the fluid inclusion are effectively improved, and the thermal evolution process and the burying history of the geologic body can be accurately restored.

Description

Technical Field

[0001] The present invention relates to the technical field of resource exploration, and in particular to a method and system for uniform temperature treatment of fluid inclusions. Background Art

[0002] In the field of geological exploration, accurate reconstruction of thermal and burial histories is crucial to understanding the formation and evolution of geological bodies and resource accumulation conditions. Fluid inclusions, especially brine inclusions, are regarded as "natural thermometers" formed at different times of geological bodies. As microscopic samples of fluids sealed during the formation of geological bodies, they contain key information such as temperature, pressure and fluid chemical composition of ancient geological conditions.

[0003] By analyzing the homogenized temperature in fluid inclusions, the maximum burial depth and maximum temperature experienced by the geological body can be inferred, which helps technical personnel in this field to accurately construct the thermal history and burial history of the rock formation, and is of great significance for the exploration of oil, natural gas and mineral resources. Therefore, the homogenized temperature processing method of fluid inclusions has gradually become an important tool in the fields of geological research, oil exploration, and mineral resource assessment.

[0004] At present, the homogenization temperature processing method for fluid inclusions needs to rely on human experience. The homogenization temperature of fluid inclusions is extracted by relying on historical experience valuation and judgment. The accuracy is poor and it is easy to be affected by external interference during the processing, resulting in deviations. It is difficult to be widely used in thermal history burial history maps. At the same time, the homogenization temperature processing method of fluid inclusions currently used cannot finely divide the temperature of fluid inclusions according to different thermal evolution stages, making it difficult to obtain detailed thermal history information in complex geological environments. The processing process requires staff to manually extract and analyze the homogenization temperature of fluid inclusions. The processing efficiency is low and prone to errors. The degree of automation is low, and it is difficult to apply to the processing of large-scale fluid inclusion homogenization temperature data.

[0005] Therefore, it is urgent to propose a method, system and storage medium for processing the homogenization temperature of fluid inclusions, so as to realize the automatic extraction and fine division of the homogenization temperature of fluid inclusions, improve the accuracy and efficiency of the homogenization temperature data processing of fluid inclusions, and provide a basis for accurately restoring and constructing the thermal evolution process and burial history of geological bodies. Summary of the invention

[0006] The present invention aims to solve the deficiencies of the prior art and proposes a method and system for homogenizing the temperature of fluid inclusions, which overcomes the problems of excessive reliance on manual experience, low precision and long processing time in the current fluid processing for determining the oil and gas filling time based on the thermal history burial history diagram. By automating the homogenizing temperature data of fluid inclusions, the efficiency and precision of the processing of the homogenizing temperature data of fluid inclusions are improved, which is beneficial to accurately restore the thermal evolution process and burial history of geological bodies, and is of great significance to the exploration and development of oil, natural gas and mineral resources.

[0007] The present invention adopts the following technical solutions:

[0008] A fluid inclusion homogenization temperature processing method is used to determine the filling period and oil and gas filling time of the fluid inclusion in the thermal history burial history diagram, and specifically comprises the following steps:

[0009] Step 1: collect multiple fluid inclusions in the research block, measure the uniform temperature data of each fluid inclusion by performing a temperature measurement experiment, obtain multiple fluid inclusion uniform temperature data, and construct a fluid inclusion uniform temperature data set;

[0010] Step 2, according to the value of each fluid inclusion homogenous temperature data in the fluid inclusion homogenous temperature data set, sorting each fluid inclusion homogenous temperature data in the fluid inclusion homogenous temperature data group in ascending order, and grouping all the fluid inclusion homogenous temperature data in the fluid inclusion homogenous temperature data group to obtain multiple fluid inclusion homogenous temperature data subsets, and obtaining the number of fluid inclusion homogenous temperature data in each fluid inclusion homogenous temperature data subset;

[0011] Step 3, comparing the number of fluid inclusion homogenous temperature data in each fluid inclusion homogenous temperature data subset, obtaining the number of fluid inclusion homogenous temperature data subsets containing the most fluid inclusion homogenous temperature data, and determining the filling period of the fluid inclusions in the thermal history burial history diagram;

[0012] Step 4, in the fluid inclusion homogenization temperature data subset, combined with the preset temperature gradient, extracting the fluid inclusion homogenization temperature value at the beginning of oil and gas filling and the fluid inclusion homogenization temperature value at the end of oil and gas filling;

[0013] Step 5, according to the homogenized temperature values ​​of the fluid inclusions at the beginning and the end of the oil and gas filling, determine the time corresponding to the homogenized temperature values ​​of the fluid inclusions at the beginning of the oil and gas filling and the homogenized temperature values ​​of the fluid inclusions at the end of the oil and gas filling in the thermal history burial history diagram, obtain the oil and gas filling start time and the oil and gas filling end time, and obtain the oil and gas filling duration of the study block.

[0014] Preferably, the fluid inclusions are saline inclusions.

[0015] Preferably, in step 2, the temperature range corresponding to each fluid inclusion uniform temperature data subset is determined according to a preset temperature gradient, and according to the numerical value of each fluid inclusion uniform temperature data, each fluid inclusion uniform temperature data in the fluid inclusion uniform temperature data set is divided into a corresponding fluid inclusion uniform temperature data subset, and the number of fluid inclusion uniform temperature data in each fluid inclusion uniform temperature data subset is counted.

[0016] Preferably, the temperature gradient is set to 5°C.

[0017] Preferably, the step 4 includes the following steps:

[0018] Step 4.1, taking the first fluid inclusion homogenized temperature data subset containing fluid inclusion homogenized temperature data in the fluid inclusion homogenized temperature database as the first subset, finding the minimum value of the fluid inclusion homogenized temperature data in the first subset as the minimum boundary value, extracting the fluid inclusion homogenized temperature value closest to the minimum boundary value and taking the value as an integer multiple of the preset temperature gradient as the fluid inclusion homogenized temperature value at the beginning of oil and gas filling, and the fluid inclusion homogenized temperature value at the beginning of oil and gas filling is not greater than the minimum boundary value;

[0019] Step 4.2, take the last fluid inclusion homogenized temperature data subset containing fluid inclusion homogenized temperature data in the fluid inclusion homogenized temperature database as the second subset, find the maximum value of the fluid inclusion homogenized temperature data in the second subset as the maximum boundary value, extract the fluid inclusion homogenized temperature value closest to the maximum boundary value and the value that is an integer multiple of the preset temperature gradient as the fluid inclusion homogenized temperature value when the oil and gas filling is completed, and the fluid inclusion homogenized temperature value when the oil and gas filling is completed is not less than the minimum boundary value.

[0020] A fluid inclusion uniform temperature treatment system, used to implement the fluid inclusion uniform temperature treatment method as described above, comprising an input module, a pre-processing module, a charging period determination module, an oil and gas charging time determination module and an output module;

[0021] in,

[0022] The input module is used to input fluid inclusion homogenization temperature data and construct a fluid inclusion homogenization temperature data set;

[0023] The preprocessing module is used to preprocess the fluid inclusion uniform temperature data in the input fluid inclusion uniform temperature data set, and obtain multiple fluid inclusion uniform temperature data subsets by sorting and grouping the fluid inclusion uniform temperature data in the fluid inclusion uniform temperature data set;

[0024] The charging period determination module is used to determine the charging period of the fluid inclusions in the thermal history burial history diagram;

[0025] The oil and gas filling time determination module is used to extract the uniform temperature value of the fluid inclusion at the beginning of the oil and gas filling and the uniform temperature value of the fluid inclusion at the end of the oil and gas filling to determine the oil and gas filling time;

[0026] The output module is used to output the filling period and oil and gas filling duration of the fluid inclusions in the thermal history and burial history diagram.

[0027] Preferably, the input module, preprocessing module, filling period determination module, oil and gas filling time determination module and output module are connected in sequence.

[0028] The present invention has the following beneficial effects:

[0029] (1) The present invention proposes a method for uniform temperature treatment of fluid inclusions. By extracting fluid inclusions and performing fine division, the thermal evolution process and burial history of the geological body are accurately restored by utilizing the characteristics of the fluid inclusions. This solves the problem of the difficulty in accurately obtaining thermal history information of complex geological environments, is conducive to predicting favorable conditions for oil and gas accumulation, evaluating resource potential, and providing a basis for guiding the optimization of exploration and development strategies.

[0030] (2) The uniform temperature treatment method for fluid inclusions proposed in the present invention realizes the automated extraction and analysis of fluid inclusion data. The entire processing and analysis process does not need to rely on the observation and historical experience of staff, thus minimizing the errors caused by human factors. The processing speed is fast and the accuracy is high, and it has a high promotion value. BRIEF DESCRIPTION OF THE DRAWINGS

[0031] Figure 1 The present invention is a flow chart of a method for uniform temperature treatment of fluid inclusions.

[0032] Figure 2 It is a schematic diagram of the uniform temperature treatment system of fluid inclusions of the present invention.

[0033] Figure 3 This is a bar chart showing the grouping of homogenization temperature data of brine inclusions. DETAILED DESCRIPTION

[0034] The present invention is described in detail below with reference to the accompanying drawings and specific embodiments:

[0035] Example 1

[0036] This embodiment proposes a method for uniform temperature treatment of fluid inclusions, such as Figure 1 As shown in the figure, it is used to determine the filling period and oil and gas filling time of the fluid inclusions in the thermal history burial history diagram, which specifically includes the following steps:

[0037] Step 1: Collect multiple fluid inclusions in the study area, measure the uniform temperature data of each fluid inclusion through temperature measurement experiments, obtain uniform temperature data of multiple fluid inclusions, and construct a uniform temperature data set of fluid inclusions.

[0038] In this embodiment, the fluid inclusions are specifically salt water inclusions, and the constructed fluid inclusion uniform temperature data set is a one-dimensional array.

[0039] Step 2: sort the homogenous temperature data of each fluid inclusion in the homogenous temperature data set in order from small to large according to the numerical value of each fluid inclusion in the homogenous temperature data set of the fluid inclusion, determine the temperature range corresponding to each homogenous temperature data subset of the fluid inclusion according to the preset temperature gradient, divide the homogenous temperature data of each fluid inclusion in the homogenous temperature data set of the fluid inclusion into the corresponding homogenous temperature data subset of the fluid inclusion, group all the homogenous temperature data of the fluid inclusion in the homogenous temperature data group of the fluid inclusion to obtain multiple homogenous temperature data subsets of the fluid inclusion, and count the number of homogenous temperature data of the fluid inclusion in each homogenous temperature data subset of the fluid inclusion.

[0040] Step 3, compare the number of fluid inclusion homogenized temperature data in each fluid inclusion homogenized temperature data subset, obtain the number of fluid inclusion homogenized temperature data subsets containing the most fluid inclusion homogenized temperature data, and determine the filling period of the fluid inclusions in the thermal history burial history diagram.

[0041] Generally speaking, according to the number of fluid inclusion homogenization temperature data in the fluid inclusion homogenization temperature data subset, there is a fluid inclusion homogenization temperature data subset containing the most fluid inclusion homogenization temperature data. In this case, the filling period of fluid inclusions in the thermal history burial history diagram is determined to be 1. However, there may be multiple fluid inclusion homogenization temperature data subsets with the same number of fluid inclusion homogenization temperature data and they are all the largest. In this case, the total number of fluid inclusion homogenization temperature data subsets containing the most fluid inclusion homogenization temperature data is n, and the filling period of fluid inclusions in the thermal history burial history diagram is n.

[0042] Step 4: In the fluid inclusion homogenization temperature data subset, the fluid inclusion homogenization temperature value at the beginning of oil and gas filling and the fluid inclusion homogenization temperature value at the end of oil and gas filling are extracted in combination with the preset temperature gradient. The specific process is as follows:

[0043] Step 4.1, take the first fluid inclusion homogenized temperature data subset containing fluid inclusion homogenized temperature data in the fluid inclusion homogenized temperature database as the first subset, find the minimum value of the fluid inclusion homogenized temperature data in the first subset as the minimum boundary value, extract the fluid inclusion homogenized temperature value closest to the minimum boundary value and the value that is an integer multiple of the preset temperature gradient as the fluid inclusion homogenized temperature value at the beginning of oil and gas filling, and the fluid inclusion homogenized temperature value at the beginning of oil and gas filling is not greater than the minimum boundary value.

[0044] Step 4.2, take the last fluid inclusion homogenized temperature data subset containing fluid inclusion homogenized temperature data in the fluid inclusion homogenized temperature database as the second subset, find the maximum value of the fluid inclusion homogenized temperature data in the second subset as the maximum boundary value, extract the fluid inclusion homogenized temperature value closest to the maximum boundary value and the value that is an integer multiple of the preset temperature gradient as the fluid inclusion homogenized temperature value when the oil and gas filling is completed, and the fluid inclusion homogenized temperature value when the oil and gas filling is completed is not less than the minimum boundary value.

[0045] Step 5, according to the homogenized temperature values ​​of the fluid inclusions at the beginning and the end of the oil and gas filling, determine the time corresponding to the homogenized temperature values ​​of the fluid inclusions at the beginning of the oil and gas filling and the homogenized temperature values ​​of the fluid inclusions at the end of the oil and gas filling in the thermal history burial history diagram, obtain the oil and gas filling start time and the oil and gas filling end time, and obtain the oil and gas filling duration of the study block.

[0046] Example 2

[0047] In this embodiment, a uniform temperature treatment system for fluid inclusions is proposed, such as Figure 2 As shown, the method for uniform temperature treatment of fluid inclusions as described in Example 1 includes an input module, a pretreatment module, a filling period determination module, an oil and gas filling time determination module and an output module, and the input module, the pretreatment module, the filling period determination module, the oil and gas filling time determination module and the output module are connected in sequence.

[0048] in,

[0049] The input module is used to input the homogenized temperature data of fluid inclusions and construct a homogenized temperature data set of fluid inclusions.

[0050] The preprocessing module is used to preprocess the fluid inclusion uniform temperature data in the input fluid inclusion uniform temperature data set, and obtain multiple fluid inclusion uniform temperature data subsets by sorting and grouping the fluid inclusion uniform temperature data in the fluid inclusion uniform temperature data set.

[0051] The filling period determination module is used to determine the filling period of the fluid inclusions in the thermal history and burial history diagram.

[0052] The oil and gas filling time determination module is used to extract the uniform temperature value of the fluid inclusions at the beginning of the oil and gas filling and the uniform temperature value of the fluid inclusions at the end of the oil and gas filling to determine the oil and gas filling time.

[0053] The output module is used to output the filling period and oil and gas filling duration of the fluid inclusions in the thermal history and burial history diagram.

[0054] Example 3

[0055] This embodiment takes a certain research block as an example, by storing the fluid inclusion homogenization temperature processing system described in Example 2 in a computer-readable medium, using a processor to load and execute the fluid inclusion homogenization temperature processing method described in Example 1, and obtaining the oil and gas filling start time and oil and gas filling end time of the research block according to the salt water inclusion homogenization temperature data of the research block, and determining the oil and gas filling duration of the research block, specifically including the following steps:

[0056] Step 1: Collect multiple brine inclusions in the study area, measure the uniform temperature data of each brine inclusion using a temperature measurement experiment, obtain the uniform temperature data of each brine inclusion, and construct a brine inclusion uniform temperature data set in a one-dimensional array.

[0057] Step 2: According to the numerical value of each salt water inclusion uniform temperature data in the salt water inclusion uniform temperature data set, the salt water inclusion uniform temperature data in the salt water inclusion uniform temperature data group are sorted in order from small to large, and according to the preset temperature gradient of 5°C, the temperature range corresponding to each salt water inclusion uniform temperature data subset is determined; according to the numerical value of each salt water inclusion uniform temperature data, each salt water inclusion uniform temperature data in the salt water inclusion uniform temperature data set is divided into the corresponding salt water inclusion uniform temperature data subset; all the salt water inclusion uniform temperature data in the salt water inclusion uniform temperature data group are grouped to obtain 5 salt water inclusion uniform temperature data subsets, and the temperature ranges are (125, 130], (130, 135], (135, 140], (140, 145], (145, 150], respectively, in °C; the number of salt water inclusion uniform temperature data in each salt water inclusion uniform temperature data subset is counted, as shown in FIG. Figure 3 shown.

[0058] Step 3, comparing the number of uniform temperature data of brine inclusions in each uniform temperature data subset of brine inclusions. In this embodiment, the uniform temperature data set of brine inclusions is sorted and divided into five uniform temperature data subsets of brine inclusions, namely, a first uniform temperature data subset of brine inclusions, a second uniform temperature data subset of brine inclusions, a third uniform temperature data subset of brine inclusions, a fourth uniform temperature data subset of brine inclusions, and a fifth uniform temperature data subset of brine inclusions. The number of uniform temperature data of brine inclusions in the first uniform temperature data subset of brine inclusions is 8, the number of uniform temperature data of brine inclusions in the second uniform temperature data subset of brine inclusions is 1, and the number of uniform temperature data of brine inclusions in the first uniform temperature data subset of brine inclusions is 8. The number of homogenized temperature data of brine inclusions is 19, the number of homogenized temperature data of brine inclusions in the third homogenized temperature data subset of brine inclusions is 42, the number of homogenized temperature data of brine inclusions in the fourth homogenized temperature data subset of brine inclusions is 18, and the number of homogenized temperature data of brine inclusions in the fifth homogenized temperature data subset of brine inclusions is 3. Among them, the third homogenized temperature data subset of brine inclusions contains the largest number of homogenized temperature data of brine inclusions, and no other subset of brine inclusions has the same number of homogenized temperature data of brine inclusions as it contains, that is, the filling period of fluid inclusions in the historical burial history diagram is determined to be 1.

[0059] Step 4, since the homogenized temperature data of brine inclusions appears for the first time in the first homogenized temperature data subset of the homogenized temperature data set of brine inclusions in this embodiment, the first homogenized temperature data subset of brine inclusions is taken as the first subset. The homogenized temperature data of brine inclusions in the first subset are {127.9, 128.3, 128.6, 129.4, 129.7, 129.8, 129.9}, and the minimum value of the homogenized temperature data of brine inclusions in the first subset is 127.9°C. Taking 127.9°C as the minimum boundary value, the homogenized temperature value of brine inclusions that is less than and closest to the minimum boundary value 127.9°C and is an integer multiple of 5°C is extracted as the homogenized temperature value of brine inclusions at the start of oil and gas charging, that is, the homogenized temperature value of brine inclusions at the start of oil and gas charging in this embodiment is determined to be 125°C.

[0060] Since the homogenized temperature data of brine inclusions appears for the last time in the fifth homogenized temperature data subset of brine inclusions in the homogenized temperature data set of brine inclusions in this embodiment, the fifth homogenized temperature data subset of brine inclusions is taken as the second subset, and the homogenized temperature data of brine inclusions in the second subset are {145.6, 145.8, 148.3}, then the maximum value of the homogenized temperature data of brine inclusions in the second subset is 148.3°C, and 148.3°C is taken as the maximum boundary value, and the homogenized temperature values ​​of brine inclusions that are greater than and closest to the maximum boundary value 148.3°C and are integer multiples of 5°C are extracted as the homogenized temperature values ​​of brine inclusions at the end of oil and gas filling, that is, the homogenized temperature value of brine inclusions at the end of oil and gas filling in this embodiment is determined to be 150°C.

[0061] Step 5. According to the homogenized temperature value of 125°C of the brine inclusions at the beginning of oil and gas charging and the homogenized temperature value of 150°C of the brine inclusions at the end of oil and gas charging, the thermal burial history diagram of the study block shows the homogenized temperature values ​​of the brine inclusions in the reservoirs at different depths and the oil and gas charging time. The start time and the end time of oil and gas charging are determined in the thermal burial history diagram. In the thermal burial history diagram, the oil and gas time information can be accurately obtained according to the homogenized temperature values ​​of the brine inclusions corresponding to each burial depth in the diagram, so as to determine the oil and gas charging duration of the study block.

[0062] Of course, the above description is not a limitation of the present invention, and the present invention is not limited to the above examples. Changes, modifications, additions or substitutions made by technicians in this technical field within the essential scope of the present invention should also fall within the protection scope of the present invention.

Claims

1. A method for uniform temperature treatment of fluid inclusions, characterized in that: It is used to determine the filling period and oil and gas filling time of fluid inclusions in the thermal history and burial history diagram, and specifically includes the following steps: Step 1: collect multiple fluid inclusions in the research block, measure the uniform temperature data of each fluid inclusion by performing a temperature measurement experiment, obtain multiple fluid inclusion uniform temperature data, and construct a fluid inclusion uniform temperature data set; Step 2, according to the value of each fluid inclusion homogenous temperature data in the fluid inclusion homogenous temperature data set, sorting each fluid inclusion homogenous temperature data in the fluid inclusion homogenous temperature data group in ascending order, and grouping all the fluid inclusion homogenous temperature data in the fluid inclusion homogenous temperature data group to obtain multiple fluid inclusion homogenous temperature data subsets, and obtaining the number of fluid inclusion homogenous temperature data in each fluid inclusion homogenous temperature data subset; Step 3, comparing the number of fluid inclusion homogenous temperature data in each fluid inclusion homogenous temperature data subset, obtaining the number of fluid inclusion homogenous temperature data subsets containing the most fluid inclusion homogenous temperature data, and determining the filling period of the fluid inclusions in the thermal history burial history diagram; Step 4, in the fluid inclusion homogenization temperature data subset, combined with the preset temperature gradient, extracting the fluid inclusion homogenization temperature value at the beginning of oil and gas filling and the fluid inclusion homogenization temperature value at the end of oil and gas filling; Step 5, according to the homogenized temperature values ​​of the fluid inclusions at the beginning and the end of the oil and gas filling, determine the time corresponding to the homogenized temperature values ​​of the fluid inclusions at the beginning of the oil and gas filling and the homogenized temperature values ​​of the fluid inclusions at the end of the oil and gas filling in the thermal history burial history diagram, obtain the oil and gas filling start time and the oil and gas filling end time, and obtain the oil and gas filling duration of the study block.

2. The method for uniform temperature treatment of fluid inclusions according to claim 1, characterized in that: The fluid inclusions are salt water inclusions.

3. The method for uniform temperature treatment of fluid inclusions according to claim 1, characterized in that: In step 2, the temperature range corresponding to each fluid inclusion uniform temperature data subset is determined according to a preset temperature gradient, and the uniform temperature data of each fluid inclusion in the fluid inclusion uniform temperature data set is divided into a corresponding fluid inclusion uniform temperature data subset according to the value of each fluid inclusion uniform temperature data, and the number of fluid inclusion uniform temperature data in each fluid inclusion uniform temperature data subset is counted.

4. The method for uniform temperature treatment of fluid inclusions according to claim 3, characterized in that: The temperature gradient was set to 5°C.

5. The method for uniform temperature treatment of fluid inclusions according to claim 1, characterized in that: The step 4 includes the following steps: Step 4.1, taking the first fluid inclusion homogenized temperature data subset containing fluid inclusion homogenized temperature data in the fluid inclusion homogenized temperature database as the first subset, finding the minimum value of the fluid inclusion homogenized temperature data in the first subset as the minimum boundary value, extracting the fluid inclusion homogenized temperature value closest to the minimum boundary value and taking the value as an integer multiple of the preset temperature gradient as the fluid inclusion homogenized temperature value at the beginning of oil and gas filling, and the fluid inclusion homogenized temperature value at the beginning of oil and gas filling is not greater than the minimum boundary value; Step 4.2, take the last fluid inclusion homogenized temperature data subset containing fluid inclusion homogenized temperature data in the fluid inclusion homogenized temperature database as the second subset, find the maximum value of the fluid inclusion homogenized temperature data in the second subset as the maximum boundary value, extract the fluid inclusion homogenized temperature value closest to the maximum boundary value and the value that is an integer multiple of the preset temperature gradient as the fluid inclusion homogenized temperature value when the oil and gas filling is completed, and the fluid inclusion homogenized temperature value when the oil and gas filling is completed is not less than the minimum boundary value.

6. A fluid inclusion uniform temperature treatment system, characterized in that: A method for uniform temperature treatment of fluid inclusions according to any one of claims 1 to 5, comprising an input module, a pretreatment module, a charging period determination module, an oil and gas charging time determination module and an output module; in, The input module is used to input fluid inclusion homogenization temperature data and construct a fluid inclusion homogenization temperature data set; The preprocessing module is used to preprocess the fluid inclusion uniform temperature data in the input fluid inclusion uniform temperature data set, and obtain multiple fluid inclusion uniform temperature data subsets by sorting and grouping the fluid inclusion uniform temperature data in the fluid inclusion uniform temperature data set; The charging period determination module is used to determine the charging period of the fluid inclusions in the thermal history burial history diagram; The oil and gas filling time determination module is used to extract the uniform temperature value of the fluid inclusion at the beginning of the oil and gas filling and the uniform temperature value of the fluid inclusion at the end of the oil and gas filling to determine the oil and gas filling time; The output module is used to output the filling period and oil and gas filling duration of the fluid inclusions in the thermal history and burial history diagram.

7. The fluid inclusion uniform temperature treatment system according to claim 6, characterized in that: The input module, preprocessing module, filling period determination module, oil and gas filling time determination module and output module are connected in sequence.

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