Communication series satellite initiating explosive device cable contact distribution method

Abstract

The invention discloses a communication series satellite initiating explosive device cable contact distribution method. The method comprises the following steps: importing an IDS table of an initiating explosive device management device and an IDS table of an initiating explosive device product; obtaining the number of detonation paths, the name of each group control switch and the attribute of each detonation path according to the auxiliary table of the initiating explosive device management device; according to the initiating explosive device product auxiliary table, the number of initiating explosive devices, the type of each initiating explosive device and the detonation mode of each initiating explosive device are obtained; obtaining the priority of the initiating explosive device type under each group control switch according to the corresponding relation auxiliary table; judging the number N of detonation channels in the initiating explosive device management device auxiliary table and the number M of all initiating explosive device products in the initiating explosive device product auxiliary table; and completing distribution of each group control switch and the initiating explosive device type corresponding to each group control switch according to the corresponding relation auxiliary table. According to the method, high-reliability distribution of initiating explosive device cable contact design and detonation mode design is guaranteed, and the efficiency and accuracy of initiating explosive device cable contact design are greatly improved.

Description

Technical Field

[0001] The invention belongs to the technical field of satellite cable network design, and in particular relates to a method for distributing cable contact points of communication series satellite explosives. Background Art

[0002] Pyrotechnics are a general term for disposable components and devices that contain gunpowder and burn or explode when stimulated by external stimuli to ignite the gunpowder and perform mechanical work. Pyrotechnics are key products on satellites. They are responsible for the opening and closing of important satellite equipment such as propulsion pipelines, the locking and deployment of solar panels and antennas, and are the key to the success or failure of satellites. With the significant improvement in the functions and performance of communication series satellites, the demand for pyrotechnics for corresponding satellites has increased significantly, and the types and numbers of single machines that require pyrotechnic detonation have increased. In order to ensure that pyrotechnics can be detonated safely and reliably, the pyrotechnic cable connections need to be designed and allocated accurately to ensure that all pyrotechnics are reliably connected to the ignition device.

[0003] The traditional design method of pyrotechnic cable connection points requires manual point-to-point distribution design for the needs of the entire star pyrotechnics. During the design process, it is necessary to consider the single-channel / dual-channel detonation requirements of pyrotechnics, redundant backup design, grouping design of different types of pyrotechnics, etc. It ensures that pyrotechnics triggered at different times are in different groups to reduce the probability of false triggering, and at the same time ensures that if any pyrotechnic fails to trigger, it will not affect the smooth detonation of other types of pyrotechnics.

[0004] With the increase in the number of communication satellites that require pyrotechnic locking equipment (such as cameras, deployable thermal radiators, laser equipment, etc.) and the resulting increase in the types of pyrotechnics, the traditional allocation design method is time-consuming, error-prone, and inefficient, and cannot meet mission requirements. Summary of the invention

[0005] The technical problem solved by the present invention is: to overcome the shortcomings of the prior art, to provide a method for allocating cable contacts of a communication series satellite pyrotechnics, to ensure high reliability allocation of pyrotechnics cable contact design and detonation mode design, and to greatly improve the efficiency and accuracy of pyrotechnics cable contact design.

[0006] The object of the present invention is achieved through the following technical scheme: a method for allocating contact points of communication series satellite pyrotechnic cables, comprising: step S1: importing the IDS table of the pyrotechnic management device and the IDS table of the pyrotechnic products; step S2: importing the auxiliary table of the pyrotechnic management device; obtaining the number of detonating paths, the name of each group control switch and the attributes of each detonating path according to the auxiliary table of the pyrotechnic management device; step S3: importing the auxiliary table of pyrotechnic products; obtaining the number of pyrotechnic products, each pyrotechnic type and the detonation method of each pyrotechnic according to the auxiliary table of pyrotechnic products; step S4: importing the corresponding relationship auxiliary table; obtaining the priority of the pyrotechnic type under each group control switch according to the corresponding relationship auxiliary table; step S5: judging the size of the number of detonating paths N in the auxiliary table of the pyrotechnic management device and the number M of all pyrotechnic products in the auxiliary table of pyrotechnic products, if N≥M, entering step S6; if N<M, returning to step S2; step S6: according to the corresponding relationship auxiliary table, allocating each group control switch to the pyrotechnic type corresponding to each group control switch is completed.

[0007] In the above communication series satellite pyrotechnic cable contact point distribution method, the pyrotechnic management device IDS table contains the contact point information of each pyrotechnic detonation path, and the pyrotechnic product IDS table contains the external contact point information of all pyrotechnics of the satellite.

[0008] In the above-mentioned communication series satellite pyrotechnic cable contact allocation method, the pyrotechnic management device auxiliary table includes the "group control switch name", "initiation method" and "pyrotechnic channel general name" of each ignition channel.

[0009] In the above-mentioned communication series satellite pyrotechnic cable contact point allocation method, the pyrotechnic product auxiliary table includes "pyrotechnic type", "ignition method" and "pyrotechnic special name".

[0010] In the above communication series satellite pyrotechnic cable contact allocation method, the corresponding relationship auxiliary table specifies the corresponding relationship between the "group control switch name" in the pyrotechnic management device auxiliary table and the "pyrotechnic type" in the pyrotechnic product auxiliary table.

[0011] In the above communication series satellite pyrotechnic cable contact allocation method, the allocation of each group control switch to the pyrotechnic type corresponding to each group control switch is completed through the following steps:

[0012] Select group switch x m , according to the corresponding auxiliary table, we can get the group control switch x m The corresponding pyrotechnic device type {y1, y2…y N}; where y1 is the first type of explosive device, y2 is the second type of explosive device, and y N It is the Nth type of explosive device;

[0013] Determine m1+m2…+m N-1 ≥n m ||m1+m2…+m N-2 ≥n m …||m1+m2≥n m ||m1≥n m Is it true? If true, return to step S3; where n m For group control switch x m m1 is the number of pyrotechnic detonation paths under the first pyrotechnic type, m2 is the number of pyrotechnics under the second pyrotechnic type, m N-2 is the number of explosive devices of the N-2 explosive device type, m N-1 The number of explosive devices of the N-1 explosive device type;

[0014] If not, assign the first pyrotechnic type y1 on m1 to n m In the road channel, until the Nth pyrotechnic type y N Upper N Road pyrotechnics distribution in n m Finally, y is allocated N Upper N Road pyrotechnics, until m N Road pyrotechnics are evenly distributed (n m There is a remaining path), or n m All detonation channels have been allocated (m N There is a surplus of explosives on the road). At this time, it means x m Allocation completed. All group control switches x1 to x1 are allocated in the above order. m

[0015] A communication series satellite pyrotechnic cable contact point distribution system includes: a first module, used to import the IDS table of the pyrotechnic management device and the IDS table of the pyrotechnic product; a second module, used to import the auxiliary table of the pyrotechnic management device; obtain the number of detonation paths, the name of each group control switch and the attribute of each detonation path according to the auxiliary table of the pyrotechnic management device; a third module, used to import the auxiliary table of the pyrotechnic product; obtain the number of pyrotechnic products, each pyrotechnic type and the detonation method of each pyrotechnic according to the auxiliary table of the pyrotechnic product; a fourth module, used to import the corresponding auxiliary table; obtain the priority of the pyrotechnic type under each group control switch according to the corresponding auxiliary table; a fifth module, used to judge the size of the number of detonation paths N in the auxiliary table of the pyrotechnic management device and the number M of all pyrotechnic products in the auxiliary table of the pyrotechnic product; a sixth module, used to complete the allocation of each group control switch to the pyrotechnic type corresponding to each group control switch according to the corresponding auxiliary table.

[0016] In the above-mentioned communication series satellite pyrotechnic cable contact point distribution system, the pyrotechnic management device IDS table contains the contact point information of each pyrotechnic detonation path, and the pyrotechnic product IDS table contains the external contact point information of all pyrotechnics of the satellite.

[0017] In the above-mentioned communication series satellite pyrotechnic cable contact distribution system, the pyrotechnic management device auxiliary table includes the "group control switch name", "detonation method" and "general name of pyrotechnic channel" of each detonation path; the pyrotechnic product auxiliary table includes "pyrotechnic type", "detonation method" and "pyrotechnic special name".

[0018] An electronic device comprises: a memory for storing computer-readable instructions; and a processor for running the computer-readable instructions to execute a method for allocating cable points of communication series satellite explosives.

[0019] Compared with the prior art, the present invention has the following beneficial effects:

[0020] The present invention ensures high reliability distribution of the pyrotechnic cable contact design and the detonation mode design, greatly improves the efficiency and accuracy of the pyrotechnic cable contact design, promotes the digital design of the cable network, and can be applied to the design of all satellite cable networks that require pyrotechnic detonation. The pyrotechnic cable designed in this embodiment has an accuracy rate of 100%, and the design time is shortened by more than 60%. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Various other advantages and benefits will become apparent to those of ordinary skill in the art by reading the detailed description of the preferred embodiments below. The accompanying drawings are only for the purpose of illustrating the preferred embodiments and are not to be considered as limiting the present invention. Moreover, the same reference symbols are used throughout the accompanying drawings to represent the same components. In the accompanying drawings:

[0022] Figure 1 It is a flow chart of a method for distributing cable contacts of a communication series satellite explosive device provided by an embodiment of the present invention. DETAILED DESCRIPTION

[0023] Exemplary embodiments of the present disclosure will be described in more detail below with reference to the accompanying drawings. Although exemplary embodiments of the present disclosure are shown in the accompanying drawings, it should be understood that the present disclosure can be implemented in various forms and should not be limited by the embodiments set forth herein. On the contrary, these embodiments are provided in order to enable a more thorough understanding of the present disclosure and to be able to fully convey the scope of the present disclosure to those skilled in the art. It should be noted that, in the absence of conflict, the embodiments of the present invention and the features described in the embodiments can be combined with each other. The present invention will be described in detail below with reference to the accompanying drawings and in combination with the embodiments.

[0024] Figure 11 is a flow chart of a method for allocating cable contacts of a communication satellite explosive device provided by an embodiment of the present invention. Figure 1 As shown, the method comprises the following steps:

[0025] Step S1: Importing the IDS table of the pyrotechnic management device and the IDS table of the pyrotechnic product;

[0026] Step S2: importing the auxiliary table of the pyrotechnic management device; obtaining the number of detonation paths, the name of each group control switch and the attributes of each detonation path according to the auxiliary table of the pyrotechnic management device;

[0027] Step S3: importing the pyrotechnic product auxiliary table; obtaining the pyrotechnic product quantity, each pyrotechnic product type and each pyrotechnic product detonation method according to the pyrotechnic product auxiliary table;

[0028] Step S4: importing the corresponding relationship auxiliary table; obtaining the priority of the pyrotechnic device type under each group control switch according to the corresponding relationship auxiliary table;

[0029] Step S5: Determine the number N of detonation paths in the auxiliary table of the pyrotechnic management device and the number M of all pyrotechnic products in the auxiliary table of pyrotechnic products. If N≥M, proceed to step S6; if N<M, return to step S2;

[0030] Step S6: According to the corresponding relationship auxiliary table, each group control switch is assigned to the type of pyrotechnic device corresponding to each group control switch.

[0031] The IDS table of the pyrotechnic management device contains the contact information of each pyrotechnic detonation path, and the IDS table of the pyrotechnic product contains the external contact information of all pyrotechnics of the satellite.

[0032] The auxiliary table of the pyrotechnic management device includes the "group control switch name", "initiation method" and "general name of pyrotechnic channel" of each ignition channel.

[0033] The auxiliary table for pyrotechnic products includes "pyrotechnic type", "detonation method" and "special name of pyrotechnic".

[0034] The corresponding relationship auxiliary table specifies the corresponding relationship between the "group control switch name" in the pyrotechnic management device auxiliary table and the "pyrotechnic type" in the pyrotechnic product auxiliary table.

[0035] The assignment of each group control switch to the type of explosive device corresponding to each group control switch is completed through the following steps:

[0036] Select group switch x m , according to the corresponding auxiliary table, we can get the group control switch x m The corresponding pyrotechnic device type {y1, y2…y N}; where y1 is the first type of explosive device, y2 is the second type of explosive device, and y N It is the Nth type of explosive device;

[0037] Determine m1+m2…+m N-1 ≥n m ||m1+m2…+m N-2 ≥n m …||m1+m2≥n m ||m1≥n m Is it true? If true, return to step S3; where n m For group control switch x m m1 is the number of pyrotechnic detonation paths under the first pyrotechnic type, m2 is the number of pyrotechnics under the second pyrotechnic type, m N-2 is the number of explosive devices of the N-2 explosive device type, m N-1 The number of explosive devices of the N-1 explosive device type;

[0038] If not, assign the first pyrotechnic type y1 on m1 to n m In the road channel, until the Nth pyrotechnic type y N Upper N Road pyrotechnics distribution in n m Finally, y is allocated N Upper N Road pyrotechnics, until m N Road pyrotechnics are evenly distributed (n m There is a remaining path), or n m All detonation channels have been allocated (m N There is a surplus of explosives on the road). At this time, it means x m Allocation completed. All group control switches x1 to x1 are allocated in the above order. m

[0039] This embodiment proposes a communication series satellite pyrotechnic cable contact point allocation design method, according to the following steps to achieve automatic allocation of pyrotechnic contacts, the process is as follows: Figure 1 See the attached table for examples of auxiliary tables 1, 2, and 3 mentioned below.

[0040] Step 1: The system inputs the IDS table of the communication series satellite pyrotechnic management device and the IDS table of pyrotechnic products. The IDS table of the pyrotechnic management device contains the contact information of each pyrotechnic detonation path, and the IDS table of the pyrotechnic product contains the external contact information of all pyrotechnics of the satellite.

[0041] Step 2: Enter the auxiliary table of the pyrotechnic management device (auxiliary table 1) in the system, which shows the "group control switch name", "detonation method" (single-way or dual-way detonation, where the pyrotechnics for dual-way detonation are in the same position under two different group control switches, that is, there is a corresponding relationship), "common name of pyrotechnic channels" and other information of each detonation channel. Suppose the number of pyrotechnic detonation channels under each group control switch is n x , then the system obtains the total number of detonation paths that the pyrotechnic management device can provide: N = n1 + n2 + n3 + ... + n x The system records the name of each group control switch as {x1, x2, x3...}. Record the attributes of each detonation path. If the detonation path is a single-path detonation, the system marks it as {A1, A2, A3...}; if the detonation path is a dual-path detonation, the system marks it as {B 1-1 , B 2-1 , B 3-1 ……}, and label the other route as {B 1-2 , B 2-2 , B 3-2 ……}, where (B 1-1 , B 1-2 ) is a set of dual-path detonation paths, and so on.

[0042] Supplementary Table 1

[0043]

[0044]

[0045] Step 3: Enter all the information of the auxiliary table (auxiliary table 2) of the pyrotechnic products that need to be assigned contacts in the system. The auxiliary table contains information such as "pyrotechnic type", "detonation method", "pyrotechnic special name", etc. Each pyrotechnic type has m y The system obtains the number of all pyrotechnic products as M = m1 + m2 + ... + m y The system records the type of each pyrotechnic as {y1, y2, y3...}, and the detonation method of each pyrotechnic product as the property of the pyrotechnic product. The single-way detonation mark is {a1, a2, a3...}, and the dual-way detonation mark is {b 1-1 , b 2-1 , b 3-1 ……}、{b 1-2 , b 2-2 , b 3-2 ……}, where (b 1-1 , b 1-2 ) is a set of dual-path detonating products, and so on.

[0046] Auxiliary Table 2

[0047]

[0048] Step 4: Enter the corresponding auxiliary table (auxiliary table 3) in the system, which specifies the corresponding relationship between the "group control switch name" in auxiliary table 1 and the "pyrotechnic type" in auxiliary table 2. Generally speaking, a group control switch can correspond to multiple types of pyrotechnics, that is, when assigning, these types of pyrotechnics can only be assigned to this group control switch. The system records the corresponding relationship, that is, {y1, y2...y N}∈x1 (1 group control switch corresponds to N explosive devices), {y1, y2...y N}∈x2...The same explosive device type can appear under multiple group control switches. If a group control switch does not have an explosive device type, the system records the group control switch x as Indicates that no explosive devices are assigned to this group control switch.

[0049] Supplementary Table 3

[0050]

[0051] Multiple types of explosive devices under a group control switch need to determine the priority. The priority order is specified in the auxiliary table. The system sorts and records them according to the order specified in the auxiliary table. N}∈x1 as an example, then y1 is the first priority under x1, y2 is the second priority, and so on. When allocating, the pyrotechnic type with a high priority is allocated first.

[0052] Step 5: The system determines the size of N and M. If N≥M, it means that the number of channels N that can be provided is greater than the number of pyrotechnic products M, and the allocation can continue. If N<M, the system prompts an error, and the number of channels needs to be rechecked and input into auxiliary table 1 and auxiliary table 2.

[0053] Step 6: Select the group control switches one by one for allocation.

[0054] Select group switch x m , it can be seen from the system that {y1, y2…y N}∈x m , need to judge:

[0055] If (m1+m2…+m N-1 ≥n m ||m1+m2…+m N-2 ≥n m …||m1+m2≥n m ||m1≥n m ), indicating that the group control switch x m With the type of explosive device {y1, y2…y N} is incorrect, the system prompts an error and requires you to re-enter auxiliary table 3. m For the xth m The number of pyrotechnic detonation pathways under a group control switch.

[0056] Otherwise, perform the following steps:

[0057] Select the first route of the pyrotechnics in route m1 and assign it to n m In the channel, ensure that the properties (a / b) of the pyrotechnics are the same as the properties (A / B) of the assigned detonation channel. If the same properties cannot be found, the system reports an error and requires re-entering auxiliary table 1 and auxiliary table 2. It is worth noting that if the pyrotechnics assigned are of attribute b, i.e. dual-channel detonation, after assigning the group, the attribute is assumed to be b. 1-1 , B 1-1 After that, you must assign the corresponding set of pyrotechnics to the channel with the corresponding attributes, that is, 1-2 Assigned in B 1-2 superior.

[0058] After all the pyrotechnics on m1 on y1 are allocated, start allocating y2. There are m2 pyrotechnics on y2, and the allocation principle is the same as above. Follow this rule until all y N-1 Upper N-1 Road pyrotechnics.

[0059] Finally, assign y N Upper N Road pyrotechnics, until m N Road pyrotechnics are evenly distributed (n m There is a remaining path), or n m All detonation channels have been allocated (m N There is a surplus of explosives on the road). At this time, it means x m Allocated.

[0060] Step 7: Allocate all group control switches {x1, x2, x3...} in the same manner as in step 6, allowing for a total of N detonation paths to have unallocated paths remaining. At this time, check that all M paths of pyrotechnics have been allocated.

[0061] If all M explosive devices have been allocated, this allocation is completed and the allocation results are output.

[0062] If there are still unallocated routes for M-route pyrotechnics, the system will raise an error and still output the allocation result, but will require reallocation by entering auxiliary table 1, auxiliary table 2, and auxiliary table 3.

[0063] The present embodiment provides a communication series satellite pyrotechnic cable contact distribution system, which includes: a first module, used to import the IDS table of the pyrotechnic management device and the IDS table of the pyrotechnic products; a second module, used to import the auxiliary table of the pyrotechnic management device; according to the auxiliary table of the pyrotechnic management device, the number of detonating paths, the name of each group control switch and the attributes of each detonating path are obtained; a third module, used to import the auxiliary table of pyrotechnic products; according to the auxiliary table of pyrotechnic products, the number of pyrotechnic products, each pyrotechnic type and the detonation method of each pyrotechnic are obtained; a fourth module, used to import the corresponding auxiliary table; according to the corresponding auxiliary table, the priority of the pyrotechnic type under each group control switch is obtained; a fifth module, used to judge the size of the number of detonating paths N in the auxiliary table of the pyrotechnic management device and the number M of all pyrotechnic products in the auxiliary table of pyrotechnic products; a sixth module, used to complete the allocation of each group control switch to the pyrotechnic type corresponding to each group control switch according to the corresponding auxiliary table.

[0064] This embodiment also provides an electronic device, including: a memory: used to store computer-readable instructions; and a processor: used to run the computer-readable instructions to execute a communication series satellite pyrotechnic cable contact point allocation method.

[0065] This embodiment ensures high reliability distribution of the pyrotechnic cable connection design and the detonation mode design, greatly improves the efficiency and accuracy of the pyrotechnic cable connection design, promotes the digital design of the cable network, and can be applied to the design of all satellite cable networks that require pyrotechnic detonation. The pyrotechnic cable designed by this embodiment has a 100% accuracy rate, and the design time is shortened by more than 60%.

[0066] Although the present invention has been disclosed as above in the form of a preferred embodiment, it is not intended to limit the present invention. Any person skilled in the art may make possible changes and modifications to the technical solution of the present invention by using the methods and technical contents disclosed above without departing from the spirit and scope of the present invention. Therefore, any simple modifications, equivalent changes and modifications made to the above embodiments based on the technical essence of the present invention without departing from the content of the technical solution of the present invention shall fall within the protection scope of the technical solution of the present invention.

Claims

1. A method for distributing cable contacts of satellite explosive devices in a communication series, characterized in that include: Step S1: Importing the IDS table of the pyrotechnic management device and the IDS table of the pyrotechnic product; Step S2: importing the auxiliary table of the pyrotechnic management device; obtaining the number of detonation paths, the name of each group control switch and the attributes of each detonation path according to the auxiliary table of the pyrotechnic management device; Step S3: importing the pyrotechnic product auxiliary table; obtaining the pyrotechnic product quantity, each pyrotechnic product type and each pyrotechnic product detonation method according to the pyrotechnic product auxiliary table; Step S4: importing the corresponding relationship auxiliary table; According to the corresponding relationship auxiliary table, the priority of the pyrotechnic device type under each group control switch is obtained; Step S5: Determine the number N of detonation paths in the auxiliary table of the pyrotechnic management device and the number M of all pyrotechnic products in the auxiliary table of pyrotechnic products. If N≥M, proceed to step S6; if N<M, return to step S2; Step S6: According to the corresponding relationship auxiliary table, each group control switch is assigned to the type of pyrotechnic device corresponding to each group control switch.

2. The method for distributing cable contacts of a communication series satellite explosive device according to claim 1, characterized in that: The IDS table of the pyrotechnic management device contains the contact information of each pyrotechnic detonation path, and the IDS table of the pyrotechnic product contains the external contact information of all pyrotechnics of the satellite.

3. The method for distributing cable contacts of communication satellite explosive devices according to claim 1, characterized in that: The auxiliary table of the pyrotechnic management device includes the "group control switch name", "initiation method" and "general name of pyrotechnic channel" of each ignition channel.

4. The method for distributing cable contacts of satellite explosive devices of communication series according to claim 1, characterized in that: The auxiliary table of pyrotechnic products includes "pyrotechnic type", "detonation method" and "specific name of pyrotechnic".

5. The method for distributing cable contacts of communication satellite explosive devices according to claim 1, characterized in that: The correspondence auxiliary table specifies the correspondence between the "group control switch name" in the pyrotechnic management device auxiliary table and the "pyrotechnic type" in the pyrotechnic product auxiliary table.

6. The method for distributing cable contacts of communication satellite explosive devices according to claim 1, characterized in that: The assignment of each group control switch to the type of explosive device corresponding to each group control switch is completed through the following steps: Select group switch x m , according to the corresponding auxiliary table, we can get the group control switch x m The corresponding pyrotechnic device type {y1, y2…y N }; where y1 is the first type of explosive device, y2 is the second type of explosive device, and y N It is the Nth type of explosive device; Determine m1+m2…+m N-1 ≥n m ||m1+m2…+m N-2 ≥n m …||m1+m2≥n m ||m1≥n m Is it true? If true, return to step S3; where n m For group control switch x m m1 is the number of pyrotechnic detonation paths under the first pyrotechnic type, m2 is the number of pyrotechnics under the second pyrotechnic type, m N-2 is the number of explosive devices of the N-2 explosive device type, m N-1 The number of explosive devices of the N-1 explosive device type; If not, assign the first pyrotechnic type y1 on m1 to n m In the road channel, until the Nth pyrotechnic type y N Upper N Road pyrotechnics distribution in n m In the road passage.

7. A communication series satellite explosive device cable contact distribution system, characterized in that include: The first module is used to import the IDS table of the pyrotechnic management device and the IDS table of the pyrotechnic product; The second module is used to import the auxiliary table of the pyrotechnic management device; according to the auxiliary table of the pyrotechnic management device, the number of detonation paths, the name of each group control switch and the attributes of each detonation path are obtained; The third module is used to import the auxiliary table of pyrotechnic products; according to the auxiliary table of pyrotechnic products, the number of pyrotechnic products, the type of each pyrotechnic product and the detonation method of each pyrotechnic product are obtained; The fourth module is used to import the corresponding relationship auxiliary table; According to the corresponding relationship auxiliary table, the priority of the pyrotechnic device type under each group control switch is obtained; The fifth module is used to determine the number N of detonation paths in the auxiliary table of the pyrotechnic management device and the number M of all pyrotechnic products in the auxiliary table of pyrotechnic products; The sixth module is used to assign each group control switch to the type of pyrotechnic device corresponding to each group control switch according to the corresponding relationship auxiliary table.

8. The communication satellite explosive device cable contact distribution system according to claim 7 is characterized by: The IDS table of the pyrotechnic management device contains the contact information of each pyrotechnic detonation path, and the IDS table of the pyrotechnic product contains the external contact information of all pyrotechnics of the satellite.

9. The communication satellite explosive device cable contact distribution system according to claim 7, characterized in that: The auxiliary table of the pyrotechnic management device includes the "group control switch name", "initiation mode" and "common name of pyrotechnic channel" of each ignition channel; The auxiliary table of pyrotechnic products includes "pyrotechnic type", "detonation method" and "specific name of pyrotechnic".

10. An electronic device, characterized in that: include: Memory: used to store computer-readable instructions; as well as Processor: used to run the computer-readable instructions to perform the method according to any one of claims 1 to 6.

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