A method for distributing pyrotechnic cable contacts for a communication constellation satellite

Abstract

The application discloses a communication series satellite initiating explosive cable contact point distribution method, comprising the following steps: introducing an initiating explosive management device IDS table and an initiating explosive product IDS table; obtaining the number of detonation channels, the name of each group control switch and the attribute of each detonation channel according to the initiating explosive management device auxiliary table; obtaining the number of initiating explosive products, the type of each initiating explosive and the detonation mode of each initiating explosive according to the initiating explosive product auxiliary table; obtaining the priority of the type of initiating explosive under each group control switch according to the corresponding relationship auxiliary table; judging the size of the number N of detonation channels in the initiating explosive management device auxiliary table and the number M of all initiating explosive products in the initiating explosive product auxiliary table; and distributing each group control switch and the type of initiating explosive corresponding to each group control switch according to the corresponding relationship auxiliary table. The application guarantees the high reliability distribution of the design of initiating explosive cable contact points and the design of detonation modes, and greatly improves the efficiency and accuracy of the design of initiating explosive cable contact points.

Description

Technical Field

[0001] This invention belongs to the field of satellite cable network design technology, and particularly relates to a method for allocating cable contacts for pyrotechnic devices in communication satellites. Background Technology

[0002] Pyrotechnics are a general term for disposable components and devices that contain gunpowder and ignite or explode upon external stimulation to perform mechanical work. They are critical products on satellites, responsible for controlling important satellite equipment such as the opening and closing of propulsion lines and the locking and deployment of solar panels and antennas, thus determining the satellite's success or failure. With the significant improvement in the functionality and performance of communication satellites, the demand for pyrotechnics has increased substantially, requiring a greater variety and quantity of individual pyrotechnic detonators. To ensure the safe and reliable detonation of pyrotechnics, the cable connections must be designed and allocated accurately to ensure reliable connection of all pyrotechnics to the ignition device.

[0003] Traditional pyrotechnic cable connection design methods require manual point-to-point allocation design for the entire pyrotechnic system. The design process must consider single / dual-path detonation requirements, redundancy backup design, and grouping of different types of pyrotechnics. This ensures that pyrotechnics triggered at different times are grouped together, reducing the probability of false triggering, and that a triggering failure in any one pyrotechnic will not affect the successful detonation of other types of pyrotechnics.

[0004] With the increasing number of communication satellites requiring pyrotechnic devices (such as cameras, deployable thermal radiators, and laser equipment) and the resulting increase in the variety of pyrotechnics, traditional allocation and design methods are time-consuming, error-prone, and inefficient, failing to meet mission requirements. Summary of the Invention

[0005] The technical problem solved by this invention is to overcome the shortcomings of the prior art and provide a method for allocating cable contacts for pyrotechnic devices in communication satellites. This method ensures high reliability in the design of cable contacts and detonation methods for pyrotechnic devices, and greatly improves the efficiency and accuracy of cable contact design.

[0006] The objective of this invention is achieved through the following technical solution: a method for allocating cable contacts for pyrotechnic devices in a communication satellite system, comprising: Step S1: importing the IDS table of the pyrotechnic device management device and the IDS table of the pyrotechnic product; Step S2: importing the auxiliary table of the pyrotechnic device 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 device management device; Step S3: importing the auxiliary table of the pyrotechnic product; obtaining the number of pyrotechnic products, the type of each pyrotechnic product, and the detonation method of each pyrotechnic product according to the auxiliary table of the pyrotechnic product; Step S4: importing the auxiliary table of correspondence; obtaining the priority of the pyrotechnic type under each group control switch according to the auxiliary table of correspondence; Step S5: determining the size of the number of detonation paths N in the auxiliary table of the pyrotechnic device management device and the number M of all pyrotechnic products in the auxiliary table of the pyrotechnic product; if N≥M, proceed to Step S6; if N<M, return to Step S2; Step S6: allocating each group control switch to the corresponding pyrotechnic type according to the auxiliary table of correspondence.

[0007] In the above-mentioned method for allocating cable contacts for pyrotechnic devices in communication satellites, the pyrotechnic device IDS table contains contact information for each pyrotechnic detonation path, and the pyrotechnic product IDS table contains external contact information for all pyrotechnic devices of the satellite.

[0008] In the above-mentioned method for allocating cable contacts for pyrotechnic devices in communication satellites, the auxiliary table of the pyrotechnic device management device includes the "group control switch name", "initiation method" and "general name of pyrotechnic device path" for each detonation path.

[0009] In the above-mentioned method for allocating cable contacts for pyrotechnic products in communication satellites, the auxiliary table for pyrotechnic products includes "pyrotechnic product type", "detonation method" and "pyrotechnic product name".

[0010] In the above-mentioned method for allocating cable contacts for pyrotechnic products in the communication series satellites, the auxiliary table of correspondence specifies the correspondence between the "group control switch name" in the auxiliary table of pyrotechnic product management devices and the "pyrotechnic product type" in the auxiliary table of pyrotechnic product.

[0011] In the above-mentioned method for allocating pyrotechnic cable contacts for communication satellites, the allocation of each group control switch to the corresponding pyrotechnic type is completed through the following steps:

[0012] Select group control switch x m Based on the correspondence auxiliary table, the group control switch x is obtained. m The corresponding pyrotechnic product types {y1, y2…y N}; where y1 is the first type of pyrotechnic item, y2 is the second type of pyrotechnic item, and y N This is the Nth type of pyrotechnic product;

[0013] Determine m1+m2…+m N-1 ≥n m ||m1+m2…+m N-2 ≥n m …||m1+m2≥n m ||m1≥n m Check if the condition is true; if true, return to step S3; where n m Group control switch x m The number of pyrotechnic initiation paths under each pyrotechnic type; m1 is the number of pyrotechnics under the first pyrotechnic type, m2 is the number of pyrotechnics under the second pyrotechnic type, m N-2 m represents the quantity of pyrotechnics under the (N-2)th type of pyrotechnics. N-1 This represents the quantity of pyrotechnic items under the (N-1)th type of pyrotechnic item.

[0014] If this is not true, then allocate the pyrotechnic item of type y1 from path m1 to n. m In the road passage, until m N Road is the Nth type of explosive y N The pyrotechnics are distributed in n m In the road passage. Finally, y is assigned. N m N Road fire products, until m N All road and fire-fighting equipment has been distributed (n) m (There are remaining paths), or n m All detonation channels have been allocated (m) N (There are remaining road and fire-fighting equipment). This indicates that x... m Allocation complete. All group control switches x1 to x2 have been allocated in the order described above. m .

[0015] A communication satellite pyrotechnic cable contact allocation system includes: a first module for importing an IDS table for pyrotechnic management devices and an IDS table for pyrotechnic products; a second module for importing an auxiliary table for pyrotechnic management devices; obtaining the number of detonation paths, the name of each group control switch, and the attributes of each detonation path based on the auxiliary table; a third module for importing an auxiliary table for pyrotechnic products; obtaining the number of pyrotechnic products, the type of each pyrotechnic product, and the detonation method of each pyrotechnic product based on the auxiliary table; a fourth module for importing a correspondence auxiliary table; obtaining the priority of the pyrotechnic product type under each group control switch based on the correspondence auxiliary table; a fifth module for determining the size of the number N of detonation paths in the auxiliary table for pyrotechnic management devices and the size M of all pyrotechnic products in the auxiliary table; and a sixth module for allocating each group control switch to its corresponding pyrotechnic type based on the correspondence auxiliary table.

[0016] In the aforementioned communication satellite pyrotechnic cable connection distribution system, the pyrotechnic management device IDS table contains the connection information of each pyrotechnic detonation path, and the pyrotechnic product IDS table contains the external connection information of all pyrotechnics of the satellite.

[0017] In the aforementioned communication series satellite pyrotechnic cable connection distribution system, the auxiliary table of the pyrotechnic management device includes the "group control switch name", "initiation method" and "general name of pyrotechnic path" for each initiation path; the auxiliary table of pyrotechnic products includes the "pyrotechnic type", "initiation method" and "specific name of pyrotechnic".

[0018] An electronic device includes: a memory for storing computer-readable instructions; and a processor for executing the computer-readable instructions to perform a method for distributing pyrotechnic cable contacts for communication satellites.

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

[0020] This invention ensures a highly reliable allocation of pyrotechnic cable connection design and detonation method design, greatly improving the efficiency and accuracy of pyrotechnic cable connection design, advancing the digital design of cable networks, and can be applied to the design of all satellite cable networks requiring pyrotechnic detonation. The pyrotechnic cable designed in this embodiment has a 100% accuracy rate, and the design time is reduced by more than 60%. Attached Figure Description

[0021] Various other advantages and benefits will become apparent to those skilled in the art upon reading the following detailed description of preferred embodiments. The accompanying drawings are for illustrative purposes only and are not intended to limit the invention. Furthermore, the same reference numerals denote the same parts throughout the drawings. In the drawings:

[0022] Figure 1 This is a flowchart of the method for allocating cable contacts for communication satellite pyrotechnic devices provided in an embodiment of the present invention. Detailed Implementation

[0023] Exemplary embodiments of the present disclosure will now be described in more detail with reference to the accompanying drawings. While exemplary embodiments of the present disclosure are shown in the drawings, it should be understood that the present disclosure may be implemented in various forms and should not be limited to the embodiments set forth herein. Rather, these embodiments are provided to enable a more thorough understanding of the present disclosure and to fully convey the scope of the disclosure to those skilled in the art. It should be noted that, unless otherwise specified, the embodiments and features described herein can be combined with each other. The present invention will now be described in detail with reference to the accompanying drawings and embodiments.

[0024] Figure 1This is a flowchart of the cable connection allocation method for communication satellite pyrotechnic devices provided in an embodiment of the present invention. Figure 1 As shown, the method includes the following steps:

[0025] Step S1: Import the IDS table for pyrotechnics management devices and the IDS table for pyrotechnics products;

[0026] Step S2: Import the auxiliary table for pyrotechnics management device; obtain the number of detonation paths, the name of each group control switch, and the attributes of each detonation path based on the auxiliary table for pyrotechnics management device;

[0027] Step S3: Import the pyrotechnics product auxiliary table; obtain the quantity of pyrotechnics products, the type of each pyrotechnic, and the detonation method of each pyrotechnic based on the pyrotechnics product auxiliary table;

[0028] Step S4: Import the correspondence auxiliary table; obtain the priority of the pyrotechnic device type under each group control switch based on the correspondence auxiliary table;

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

[0030] Step S6: Based on the correspondence auxiliary table, assign each group control switch to the corresponding pyrotechnic type.

[0031] The pyrotechnics Management Device (IDS) table contains contact information for each pyrotechnics detonation path, while the Pyrotechnics Product IDS table contains external contact information for all pyrotechnics on the satellite.

[0032] The auxiliary table for pyrotechnics management devices includes the “group control switch name”, “initiation method”, and “general name of pyrotechnics path” for each detonation path.

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

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

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

[0036] Select group control switch x m Based on the correspondence auxiliary table, the group control switch x is obtained. m The corresponding pyrotechnic product types {y1, y2…y N}; where y1 is the first type of pyrotechnic item, y2 is the second type of pyrotechnic item, and y N This is the Nth type of pyrotechnic product;

[0037] Determine m1+m2…+m N-1 ≥n m ||m1+m2…+m N-2 ≥n m …||m1+m2≥n m ||m1≥n m Check if the condition is true; if true, return to step S3; where n m Group control switch x m The number of pyrotechnic initiation paths under each pyrotechnic type; m1 is the number of pyrotechnics under the first pyrotechnic type, m2 is the number of pyrotechnics under the second pyrotechnic type, m N-2 m represents the quantity of pyrotechnics under the (N-2)th type of pyrotechnics. N-1 This represents the quantity of pyrotechnic items under the (N-1)th type of pyrotechnic item.

[0038] If this condition is not met, assign the first type of pyrotechnic item y1 to the m1 path of the pyrotechnic item in the n path. m In the road passage, up to the Nth type of explosive y N m N Road-fired equipment is allocated in n m In the road passage. Finally, y is assigned. N m N Road fire products, until m N All road and fire-fighting equipment has been distributed (n) m (There are remaining paths), or n m All detonation channels have been allocated (m) N (There are remaining road and fire-fighting equipment). This indicates that x... m Allocation complete. All group control switches x1 to x2 have been allocated in the order described above. m

[0039] This embodiment proposes a design method for distributing cable contacts in pyrotechnic devices for communication satellites. The method achieves automatic distribution of pyrotechnic device contacts according to the following steps: [Flowchart follows] Figure 1 As shown below. Examples of auxiliary tables 1, 2, and 3 mentioned below are attached tables.

[0040] Step 1: Input the IDS table for the pyrotechnics management device and the IDS table for the pyrotechnics products for the communication series satellites. The IDS table for the pyrotechnics management device contains the contact information for each pyrotechnic initiation path, and the IDS table for the pyrotechnics products contains the external contact information for all pyrotechnics of the satellite.

[0041] Step 2: Input the auxiliary table (Auxiliary Table 1) for the pyrotechnics management device into the system. This auxiliary table shows information such as the "group control switch name," "detonation method" (single-path or dual-path detonation, where pyrotechnics with dual-path detonation are in the same position under two different group control switches, i.e., there is a corresponding relationship), and "general name of pyrotechnics path" for each detonation path. Let n be the number of pyrotechnics detonation paths under each group control switch. x Then the total number of detonation paths that the pyrotechnics management device can provide is N = n1 + n2 + n3 + ... + n x The system records the name of each group control switch as {x1, x2, x3...}. It also records 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 path 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] Auxiliary Table 1

[0043]

[0044]

[0045] Step 3: Input the auxiliary table (auxiliary table 2) information for all pyrotechnic products requiring contact assignment into the system. This auxiliary table includes information such as "pyrotechnic type," "detonation method," and "pyrotechnic specific name." Each pyrotechnic type has m... y For each pyrotechnic item, the system obtains the total quantity of all pyrotechnic items as M = m1 + m2 + ... + m y The system records each pyrotechnic item type as {y1, y2, y3...}, and records the detonation method of each pyrotechnic item as its attribute. Single-path detonation is marked as {a1, a2, a3...}, and dual-path detonation is marked as {b...}. 1-1 b 2-1 b 3-1 ……}、{b 1-2 b 2-2 b 3-2 ...}, of which (b 1-1 b 1-2 () is a group of dual-path detonation products, and so on.

[0046] Auxiliary Table 2

[0047]

[0048] Step 4: Input the correspondence auxiliary table (Auxiliary Table 3) into the system. This auxiliary table specifies the correspondence between the "Group Control Switch Name" in Auxiliary Table 1 and the "Pyrotechnic Item Type" in Auxiliary Table 2. Generally, one group control switch can correspond to multiple pyrotechnic item types, meaning that during allocation, these types of pyrotechnic items can only be assigned to that group control switch. The system records the correspondence, i.e., {y1, y2, ... y...} N}∈x1 (1 group control switch corresponds to N pyrotechnic devices), {y1, y2……y N The same pyrotechnic type can appear under multiple group control switches. If no pyrotechnic type is under a group control switch, the system records that group control switch x as... This indicates that no pyrotechnic devices are assigned under this control switch.

[0049] Auxiliary Table 3

[0050]

[0051] Multiple pyrotechnic device types under a group control switch need to have their priorities determined. This auxiliary table specifies the priority order, and the system sorts and records them according to the order specified in the auxiliary table, using {y1, y2, ... y...} N Taking x1 as an example, y1 is the first priority under x1, y2 is the second priority, and so on. During allocation, higher priority pyrotechnic types are assigned first.

[0052] Step 5: The system determines the values ​​of N and M. If N ≥ M, it indicates that the available pathways N are greater than the number of pyrotechnic products M, and allocation can continue. If N < M, the system will prompt an error, and the number of pathways needs to be rechecked and auxiliary tables 1 and 2 need to be entered.

[0053] Step 6: Select and assign group control switches in sequence.

[0054] Select group control switch x m The system reads that {y1, y2…y} N}∈x m It is necessary to determine:

[0055] If (m1+m2…+m N-1 ≥n m ||m1+m2…+m N-2 ≥n m …||m1+m2≥n m ||m1≥n m This indicates that the group control switch x m With pyrotechnic product type {y1, y2…y NThe correspondence between} is incorrect, and the system prompts an error, requiring the re-entry of auxiliary table 3. Where, n m For the xth m Number of pyrotechnic initiation paths under each group control switch.

[0056] Otherwise, perform the following steps:

[0057] Choose the first path of the m1-path pyrotechnic devices and assign it to n. m In each detonation channel, ensure that the attribute (a / b) of the pyrotechnic item in that channel is the same as the attribute (A / B) of the assigned detonation channel. If a matching attribute cannot be found, the system will report an error and require re-entry of Auxiliary Table 1 and Auxiliary Table 2. It is important to note that if the assigned pyrotechnic item is of attribute b (i.e., a dual-channel detonation), the assumed attribute for that group is b after allocation. 1-1 B 1-1 Afterwards, the corresponding set of pyrotechnics must be assigned to the channel with the corresponding attribute, that is, b. 1-2 Assigned to B 1-2 superior.

[0058] After all the explosives on m1 route of y1 have been allocated, the allocation of y2 begins. Y2 has m2 route of explosives, and the allocation principle is the same as above. This process continues until all explosives on y1 are allocated. N-1 m N-1 Road fire-fighting equipment.

[0059] Finally, y is allocated. N m N Road fire products, until m N All road and fire-fighting equipment has been distributed (n) m (There are remaining paths), or n m All detonation channels have been allocated (m) N (There are remaining road and fire-fighting equipment). This indicates that x... m Allocation complete.

[0060] Step 7: After allocating all group control switches {x1, x2, x3...} in the manner of Step 6, it is permissible to have any remaining unassigned paths in the total N detonation paths. At this point, check that all M pyrotechnic devices have been allocated.

[0061] If all the explosives on M-path have been allocated, the allocation process ends, and the allocation results are output.

[0062] If there are still unassigned channels for M-channel pyrotechnics, the system will report an error, still output the assignment result, but require a reassignment, and input auxiliary table 1, auxiliary table 2, and auxiliary table 3.

[0063] This embodiment provides a communication satellite pyrotechnic cable contact allocation system. The system includes: a first module for importing an IDS table for pyrotechnic management devices and an IDS table for pyrotechnic products; a second module for importing an auxiliary table for pyrotechnic management devices; obtaining the number of detonation paths, the name of each group control switch, and the attributes of each detonation path based on the auxiliary table; a third module for importing an auxiliary table for pyrotechnic products; obtaining the number of pyrotechnic products, the type of each pyrotechnic product, and the detonation method of each pyrotechnic product based on the auxiliary table; a fourth module for importing a correspondence auxiliary table; obtaining the priority of pyrotechnic types under each group control switch based on the correspondence auxiliary table; a fifth module for determining the size of the number of detonation paths N in the auxiliary table and the number M of all pyrotechnic products in the auxiliary table; and a sixth module for allocating each group control switch to its corresponding pyrotechnic type based on the correspondence auxiliary table.

[0064] This embodiment also provides an electronic device, including: a memory for storing computer-readable instructions; and a processor for running the computer-readable instructions to execute a method for allocating cable contacts for communication satellite pyrotechnic devices.

[0065] This embodiment ensures a highly reliable allocation of pyrotechnic cable connection design and detonation method design, greatly improving the efficiency and accuracy of pyrotechnic cable connection design, advancing the digital design of cable networks, and can be applied to the design of all satellite cable networks requiring pyrotechnic detonation. The pyrotechnic cable designed in this embodiment has a 100% accuracy rate, and the design time is reduced by more than 60%.

[0066] Although the present invention has been disclosed above with reference to preferred embodiments, it is not intended to limit the present invention. Any person skilled in the art can make possible changes and modifications to the technical solutions of the present invention by utilizing the methods and techniques disclosed above without departing from the spirit and scope of the present invention. Therefore, any simple modifications, equivalent changes and alterations made to the above embodiments based on the technical essence of the present invention without departing from the content of the technical solutions of the present invention shall fall within the protection scope of the technical solutions of the present invention.

Claims

1. A method for distributing pyrotechnic cable junctions for a series of communication satellites, characterized in that The method comprises the following steps: Step S1: importing the initiating explosive device management device IDS table and the initiating explosive device product IDS table; Step S2: importing the initiating explosive device management device auxiliary table; obtaining the number of detonation channels, the name of each group control switch and the attribute of each detonation channel according to the initiating explosive device management device auxiliary table; Step S3: importing the initiating explosive device product auxiliary table; obtaining the number of initiating explosive device products, the type of each initiating explosive device and the detonation mode of each initiating explosive device according to the initiating explosive device product auxiliary table; Step S4: importing the corresponding relationship auxiliary table; obtaining the priority of the type of initiating explosive device under each group control switch according to the corresponding relationship auxiliary table; Step S5: judging the size of 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; if N≥M, entering step S6; if N Step S6: completing the distribution of each group control switch and the type of initiating explosive device corresponding to each group control switch according to the corresponding relationship auxiliary table.

2. The communication constellation satellite pyrotechnic cable junction point assignment method of claim 1, wherein: The initiating explosive device management device IDS table contains the contact information of each initiating explosive device detonation channel, and the initiating explosive device product IDS table contains the external contact information of all initiating explosive devices of the satellite.

3. The communication constellation satellite pyrotechnic cable junction distribution method of claim 1, wherein: The initiating explosive device management device auxiliary table comprises the "group control switch name", "detonation mode" and "initiating explosive device channel general name" of each detonation channel.

4. The communication fleet of satellite pyrotechnic cable junction distribution method according to claim 1, characterized in that: The initiating explosive device product auxiliary table comprises the "initiating explosive device type", "detonation mode" and "initiating explosive device special name".

5. The communication fleet of satellite pyrotechnics cable junction point distribution method according to claim 1, characterized in that: The corresponding relationship auxiliary table defines the corresponding relationship between the "group control switch name" in the initiating explosive device management device auxiliary table and the "initiating explosive device type" in the initiating explosive device product auxiliary table.

6. The communication fleet of satellite pyrotechnic cable junction break-out method of claim 1, wherein: The completion of the distribution of each group control switch and the type of initiating explosive device corresponding to each group control switch is obtained through the following steps: Select group control switch x m , according to the corresponding relationship auxiliary table gets group control switch x m Corresponding to the type of initiating explosive{y1, y2… y N}; In which, y1 is the first type of initiating explosive, y2 is the second type of initiating explosive, y N Is the N type of initiating explosive Determine m1+m2…+m N-1 ≥n m ||m1+m2…+m N-2 ≥n m …||m1+m2≥n m ||m1≥n m Check if the condition is true; if true, return to step S3; where n m Group control switch x m The number of pyrotechnic initiation paths under each pyrotechnic type; m1 is the number of pyrotechnics under the first pyrotechnic type, m2 is the number of pyrotechnics under the second pyrotechnic type, m N-2 m represents the quantity of pyrotechnics under the (N-2)th type of pyrotechnics. N-1 This represents the quantity of pyrotechnic items under the (N-1)th type of pyrotechnic item. If not, distribute the m1th explosive of the first explosive type y1 in the n m path channel until m N -1th explosive of the first explosive type y N is distributed in the n m path channel.

7. A communication series satellite pyrotechnics cable contact point distribution system characterized by The method comprises the following steps: A first module is configured to import the initiating explosive device management device IDS table and the initiating explosive device product IDS table; A second module is configured to import the initiating explosive device management device auxiliary table; the number of detonation channels, the name of each group control switch and the attribute of each detonation channel are obtained according to the initiating explosive device management device auxiliary table; A third module is configured to import the initiating explosive device product auxiliary table; the number of initiating explosive device products, the type of each initiating explosive device and the detonation mode of each initiating explosive device are obtained according to the initiating explosive device product auxiliary table; A fourth module is configured to import the corresponding relationship auxiliary table; the priority of the type of initiating explosive device under each group control switch is obtained according to the corresponding relationship auxiliary table; A fifth module is configured to judge the size of 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; A sixth module is configured to complete the distribution of each group control switch and the type of initiating explosive device corresponding to each group control switch according to the corresponding relationship auxiliary table.

8. The communication fleet of satellite pyrotechnic cable junction distribution system of claim 7, wherein: The initiating explosive device management device IDS table contains the contact information of each initiating explosive device detonation channel, and the initiating explosive device product IDS table contains the external contact information of all initiating explosive devices of the satellite.

9. The communication fleet of satellite pyrotechnic cable junction distribution system of claim 7, wherein: The initiating explosive device management device auxiliary table comprises the "group control switch name", "detonation mode" and "initiating explosive device channel general name" of each detonation channel. The initiating explosive device product auxiliary table comprises the "initiating explosive device type", "detonation mode" and "initiating explosive device special name".

10. An electronic device, comprising: The method comprises the following steps: memory: for storing computer readable instructions; and a processor: for running the computer readable instructions, performing the method of any one of claims 1-6.

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