Millimeter wave broadband throwing type active radio frequency decoy projectile

Abstract

The utility model discloses a millimeter wave broadband throwing type active radio frequency bait bullet which comprises a launching bullet shell and a bait bullet body, and the launching bullet shell is filled with the bait bullet body. According to the utility model, signals are received and transmitted through the millimeter wave antenna assembly, the master controller controls the millimeter wave radio frequency assembly to carry out filtering amplification and down-conversion processing on millimeter wave receiving signals so as to output received digital intermediate frequency signals, and controls the signal processing circuit to carry out digital sampling and data analysis on the received digital intermediate frequency signals so as to output digital receiving signals; the master controller also controls the signal processing circuit to modulate and generate a digital interference signal according to the digital receiving signal, carries out simulation reconstruction on the digital interference signal to output an emission digital intermediate frequency signal, and controls the millimeter wave radio frequency assembly to carry out up-conversion processing on the emission digital intermediate frequency signal to output a millimeter wave emission signal. Therefore, the millimeter wave guidance radar with a broadband frequency agility anti-interference working mode can be effectively dealt with.

Description

Technical Field

[0001] This utility model relates to the field of terminal self-defense countermeasures against radar-guided weapons by flight platforms, and in particular to a millimeter-wave broadband throwable active radio frequency decoy munition. Background Technology

[0002] Terminal self-defense mechanisms for flight platforms against radar-guided weapons are mainly divided into passive and active jamming. Active jamming includes towed decoys and drop-type decoys, both of which employ a reconnaissance-relay jamming system. High-power jamming signals simulate the radar echo of the aircraft, preventing the terminal guidance radar from accurately tracking and locking onto it. With the development of terminal guidance weapons, their radar operating frequency bands have expanded to the millimeter-wave Ka band, and signal patterns increasingly utilize broadband frequency-agile signals. However, existing drop-type active decoy flares are designed based on the X / Ku band, a common frequency band for terminal guidance radars, and their instantaneous operating bandwidth typically does not exceed 1 GHz, rendering existing drop-type active decoys ineffective against them. Utility Model Content

[0003] The purpose of this invention is to design a millimeter-wave broadband throwable active radio frequency decoy to solve the above problems.

[0004] This utility model achieves the above objectives through the following technical solutions:

[0005] A millimeter-wave broadband throwable active radio frequency decoy flare, comprising a launch casing and a decoy body, wherein the decoy body is filled within the launch casing, and the decoy body comprises:

[0006] A millimeter-wave antenna assembly, wherein the millimeter-wave antenna assembly is used to receive millimeter-wave received signals and transmit millimeter-wave transmitted signals;

[0007] A millimeter-wave radio frequency component, wherein the millimeter-wave radio frequency component is connected to the millimeter-wave antenna component;

[0008] A signal processing circuit, wherein the signal processing circuit is connected to the millimeter-wave radio frequency component;

[0009] The main controller is connected to the millimeter-wave radio frequency component and the signal processing circuit respectively. The main controller is used to control the millimeter-wave radio frequency component to filter, amplify and down-convert the millimeter-wave received signal to output the received digital intermediate frequency signal, and to control the signal processing circuit to perform digital sampling and data analysis on the received digital intermediate frequency signal to output the digital received signal.

[0010] The main controller is also used to control the signal processing circuit to modulate and generate a digital interference signal according to the digital received signal, and to perform analog reconstruction on the digital interference signal to output a transmitted digital intermediate frequency signal, and to control the millimeter wave radio frequency component to perform up-conversion and filtering amplification processing on the transmitted digital intermediate frequency signal to output the millimeter wave transmitted signal.

[0011] The beneficial effects of this utility model are as follows:

[0012] The millimeter-wave broadband throwable active radio frequency decoy flare uses a millimeter-wave antenna assembly to transmit and receive signals. The main controller controls the millimeter-wave radio frequency assembly to filter, amplify, and down-convert the millimeter-wave received signal to output the received digital intermediate frequency signal. It also controls the signal processing circuit to perform digital sampling and data analysis on the received digital intermediate frequency signal to output the digital received signal. The main controller also controls the signal processing circuit to generate a digital interference signal based on the digital received signal, and to perform analog reconstruction on the digital interference signal to output the transmitted digital intermediate frequency signal. It also controls the millimeter-wave radio frequency assembly to up-convert the transmitted digital intermediate frequency signal to output the millimeter-wave transmitted signal, thereby effectively countering millimeter-wave guided radars with broadband frequency agile anti-jamming operating modes. Attached Figure Description

[0013] Figure 1 This is an overall block diagram of the millimeter-wave broadband throwable active radio frequency decoy munition of this utility model;

[0014] Figure 2 This is a schematic diagram of the structure of the millimeter-wave broadband throwable active radio frequency decoy munition of this utility model;

[0015] In the diagram: 1-Main shell, 2-Primer device, 3-Buffer piston, 4-Front cover, 5-Second chamber, 6-First chamber, 7-Foldable tail fin. Detailed Implementation

[0016] To make the objectives, technical solutions, and advantages of the embodiments of this utility model clearer, the technical solutions of the embodiments of this utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of this utility model. The components of the embodiments of this utility model described and shown in the accompanying drawings can generally be arranged and designed in various different configurations.

[0017] Therefore, the following detailed description of the embodiments of the present invention provided in the accompanying drawings is not intended to limit the scope of the claimed invention, but merely to illustrate selected embodiments of the invention. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without inventive effort are within the scope of protection of the present invention.

[0018] It should be noted that similar labels and letters in the following figures indicate similar items. Therefore, once an item is defined in one figure, it does not need to be further defined and explained in subsequent figures.

[0019] In the description of this utility model, it should be understood that the terms "upper", "lower", "inner", "outer", "left", "right", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings, or the orientation or positional relationship that the utility model product is usually placed in during use, or the orientation or positional relationship that is commonly understood by those skilled in the art. They are only used to facilitate the description of this utility model and to simplify the description, and are not intended to indicate or imply that the device or component referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this utility model.

[0020] Furthermore, the terms "first," "second," etc., are used only to distinguish descriptions and should not be interpreted as indicating or implying relative importance.

[0021] In the description of this utility model, it should also be noted that, unless otherwise explicitly specified and limited, terms such as "set" and "connection" should be interpreted broadly. For example, "connection" can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection or an indirect connection through an intermediate medium; it can be a connection within two components. Those skilled in the art can understand the specific meaning of the above terms in this utility model according to the specific circumstances.

[0022] The specific embodiments of this utility model will now be described in detail with reference to the accompanying drawings.

[0023] like Figure 1-2 As shown, a millimeter-wave broadband throwable active radio frequency decoy flare includes a launch casing and a decoy body, wherein the decoy body is filled inside the launch casing, and the decoy body includes:

[0024] A millimeter-wave antenna assembly, wherein the millimeter-wave antenna assembly is used to receive millimeter-wave received signals and transmit millimeter-wave transmitted signals;

[0025] A millimeter-wave radio frequency component, wherein the millimeter-wave radio frequency component is connected to the millimeter-wave antenna component;

[0026] A signal processing circuit, wherein the signal processing circuit is connected to the millimeter-wave radio frequency component;

[0027] The main controller is connected to the millimeter-wave radio frequency component and the signal processing circuit respectively. The main controller is used to control the millimeter-wave radio frequency component to filter, amplify and down-convert the millimeter-wave received signal to output the received digital intermediate frequency signal, and to control the signal processing circuit to perform digital sampling and data analysis on the received digital intermediate frequency signal to output the digital received signal.

[0028] The main controller is also used to control the signal processing circuit to modulate and generate a digital interference signal according to the digital received signal, and to perform analog reconstruction on the digital interference signal to output a transmitted digital intermediate frequency signal, and to control the millimeter wave radio frequency component to perform up-conversion and filtering amplification processing on the transmitted digital intermediate frequency signal to output the millimeter wave transmitted signal.

[0029] In one embodiment, the millimeter-wave antenna assembly includes a forward antenna, a backward antenna, a forward radome, and a backward radome.

[0030] In this embodiment, the millimeter-wave antenna assembly includes a forward antenna, a backward antenna, a forward antenna radome, and a backward antenna radome. The forward antenna radome and the backward antenna radome protect the forward antenna and the backward antenna from environmental influences, respectively, thereby improving the electromagnetic performance and lifespan of the forward antenna and the backward antenna. The antenna operates in the millimeter-wave Ka band to convert radio frequency signals into energy between radio frequency signals and spatial electromagnetic waves. The instantaneous operating bandwidth is greater than 4 GHz, which can effectively counter millimeter-wave guided radars with broadband frequency agile anti-interference operating modes.

[0031] In this embodiment, the millimeter-wave radio frequency component includes a T / R component, a frequency converter, and a frequency synthesizer. The signal processing circuit includes a high-speed data acquisition and conversion circuit and a digital processing circuit. Specifically, the forward antenna receives the millimeter-wave received signal, and the main controller controls the millimeter-wave radio frequency component to filter, amplify, and down-convert the millimeter-wave received signal to output a received digital intermediate frequency signal. The main controller also controls the signal processing circuit to perform digital sampling and data analysis on the received digital intermediate frequency signal to output a digital received signal. The main controller also controls the signal processing circuit to generate a digital interference signal based on the digital received signal and to perform analog reconstruction on the digital interference signal to output a transmitted digital intermediate frequency signal. The main controller also controls the millimeter-wave radio frequency component to perform up-conversion and filtering amplification on the transmitted digital intermediate frequency signal to output a millimeter-wave transmitted signal. The millimeter-wave transmitted signal is then transmitted via the backward antenna, thereby effectively countering millimeter-wave guided radar with a broadband frequency-agile anti-interference working mode.

[0032] In this embodiment, the millimeter-wave broadband throwable active radio frequency decoy flare uses a millimeter-wave antenna assembly to transmit and receive signals. The main controller controls the millimeter-wave radio frequency assembly to filter, amplify, and down-convert the millimeter-wave received signal to output a received digital intermediate frequency (IF) signal. It also controls the signal processing circuit to perform digital sampling and data analysis on the received IF signal to output a digital received signal. The main controller further controls the signal processing circuit to generate a digital interference signal based on the digital received signal and to perform analog reconstruction on the digital interference signal to output a transmitted IF signal. It also controls the millimeter-wave radio frequency assembly to up-convert and filter the transmitted IF signal to output a millimeter-wave transmitted signal, thereby effectively countering millimeter-wave guided radars with broadband frequency-agile anti-interference operating modes.

[0033] In one embodiment, the decoy projectile further includes a power supply assembly for providing corresponding operating power to the main controller, the signal processing circuit, the millimeter-wave radio frequency assembly, and the millimeter-wave antenna assembly.

[0034] In one embodiment, the power supply assembly includes a ignition tube, a thermal battery, and a power conversion circuit. The thermal battery is connected to both the ignition tube and the power conversion circuit. The ignition tube is used to activate the thermal battery to output power, and the power conversion circuit is used to convert the power voltage output by the thermal battery.

[0035] In this embodiment, the power supply component provides the necessary operating power to the main controller, signal processing circuit, millimeter-wave radio frequency component, and millimeter-wave antenna component. Specifically, the power supply component includes a thermal battery, an ignition tube, and a power conversion module. The thermal battery is thermally activated by the ignition tube to provide a stable DC power supply to the system. The power conversion circuit is connected to the thermal battery and converts the DC voltage provided by the thermal battery into the voltage required by the main controller, signal processing circuit, millimeter-wave radio frequency component, and millimeter-wave antenna component.

[0036] In one embodiment, the decoy body further includes a first cavity 6, a second cavity 5, and a foldable tail fin 7, wherein the first cavity 6 is connected to the second cavity 5;

[0037] The first cavity 6 is used to connect and fasten the millimeter-wave antenna assembly;

[0038] The second cavity 5 is used to house and secure the millimeter-wave radio frequency component, the signal processing circuit, the power supply component, and the main controller;

[0039] The foldable tail fin 7 is connected to the second cavity 5, and the foldable tail fin 7 is conformally aligned with the receiving area of ​​the power supply component.

[0040] In this embodiment, the first cavity 6 includes a forward antenna cavity and a rear antenna cavity. The forward antenna cavity is used to connect and fasten the forward antenna and the forward antenna cover, and the rear antenna cavity is used to connect and fasten the rear antenna and the rear antenna cover. The second cavity 5 is used to house and fasten the millimeter-wave radio frequency components, signal processing circuits, power supply components, and main controller. The second cavity 5 is connected to the forward antenna cavity and the rear antenna cavity. A detachable debugging cover is provided on one side of the second cavity 5, and the debugging interface of the whole machine is behind the debugging cover. Four foldable tail fins 7 are connected to the second cavity 5. The foldable tail fins 7 are conformal to the housing area of ​​the thermal battery in the power supply component. That is, when the foldable tail fins 7 are folded, the tail fins overlap in pairs and fit completely against the second cavity 5. They can be loaded into the launch case along with the decoy projectile. When the decoy projectile leaves the barrel, the tail fins automatically unfold and lock under the action of the torsion spring to stabilize the flight attitude of the decoy projectile.

[0041] In one embodiment, the signal processing circuit includes a high-speed data acquisition and conversion circuit and a digital processing circuit, wherein the high-speed data acquisition and conversion circuit is connected to the digital processing circuit;

[0042] The main controller is used to control the high-speed data acquisition and conversion circuit to perform digital sampling and data analysis on the received digital intermediate frequency signal to output the digital received signal, and to control the digital processing circuit to modulate the digital interference signal according to the digital received signal, and to control the high-speed data acquisition and conversion circuit to perform analog reconstruction on the digital interference signal to output the transmitted digital intermediate frequency signal.

[0043] In this embodiment, the signal processing circuit includes a high-speed data acquisition and conversion circuit and a digital processing circuit. The high-speed data acquisition and conversion circuit is connected to the frequency converter and is also connected to the digital processing circuit. Specifically, the main controller controls the high-speed data acquisition and conversion circuit to perform digital sampling and data analysis on the received digital intermediate frequency signal to output a digital received signal, and controls the digital processing circuit to modulate a digital interference signal according to the digital received signal. It also controls the high-speed data acquisition and conversion circuit to perform analog reconstruction on the digital interference signal to output a transmitted digital intermediate frequency signal.

[0044] In one embodiment, the millimeter-wave radio frequency component includes:

[0045] A frequency synthesizer, which is used to provide a local oscillator signal;

[0046] A T / R assembly is connected to the millimeter-wave antenna assembly, and the T / R assembly is used to filter and amplify the millimeter-wave received signal and the millimeter-wave transmitted signal.

[0047] The frequency converter is connected to the T / R component and also to the frequency synthesizer. The frequency converter is used to receive the local oscillator signal, perform down-conversion processing on the millimeter-wave received signal, and perform up-conversion processing on the transmitted digital intermediate frequency signal.

[0048] In this embodiment, the radio frequency component includes a T / R component, a frequency converter, and a frequency synthesizer. The T / R channel is connected to the millimeter-wave antenna component to filter and amplify the millimeter-wave received signal and the millimeter-wave transmitted signal. The frequency converter is connected to the T / R component to perform down-conversion processing on the millimeter-wave received signal and up-conversion processing on the transmitted digital intermediate frequency signal. The frequency synthesizer is connected to the frequency converter to provide the local oscillator signal required by the frequency converter during frequency conversion.

[0049] In one embodiment, the launch case includes a main housing 1, a primer device 2, a buffer piston 3, and a front cover 4; a detachable adjustment cover is provided on one side of the main housing 1, the adjustment cover corresponding to the external adjustment interface of the decoy projectile, the main housing 1 is used to accommodate and fix the decoy projectile; the primer device 2 is used to fill the bottom of the main housing 1; the front cover 4 is snap-fitted to the main housing 1.

[0050] In this embodiment, the launch case is a standard 1*2*8 airborne decoy launch case. The launch case includes a main shell 1, a primer device 2, a buffer piston 3, and a front cover 4. The main shell 1 is used to accommodate and fix the decoy projectile. A detachable adjustment cover is provided on one side of the main shell 1, which corresponds to the external adjustment interface of the decoy projectile. The primer device 2 is a standard pyrotechnic explosive, which is filled at the bottom of the main shell 1. When the decoy projectile is filled, it is close to the ignition tube. After the primer device 2 is activated by external control, it explodes and ejects the decoy projectile from the barrel. The buffer piston 3 is made of metal and is adapted to the shape of the front and rear radomes of the decoy projectile. Under high overload during launch, it disperses the impact force to the first cavity 6 of the decoy projectile to avoid the radome being directly stressed. The front cover 4 is connected to the main shell 1 by a snap-fit. The front cover 4 has a rubber gasket inside for sealing and buffering the force.

[0051] This utility model's millimeter-wave broadband throwable active radio frequency decoy munition includes a packaging and storage stage, a launch activation stage, a reconnaissance stage, a jamming stage, and a self-destruct stage during combat use. The packaging and storage stage involves the decoy munition being filled into the launch casing and sealed for transport, storage, and operational readiness. During operational readiness, the decoy munition can be directly mounted on an airborne jamming launcher for immediate launch. The launch activation stage occurs when the airborne jamming launcher receives a system launch command and activates the primer device 2 of the decoy munition's launch casing. The primer device 2 explodes, generating a high-temperature, high-pressure blast wave. The impact force is transmitted sequentially to the decoy munition body and the front cover 4 via the buffer piston 3. The latching connection between the front cover 4 and the main casing 1 of the launch casing is broken, and the decoy munition is ejected from the barrel. The four foldable tail fins 7 rapidly unfold and lock under the action of torsion springs, stabilizing the munition's flight. Simultaneously, the explosion of primer 2 will activate the rear-end ignition tube of the decoy projectile, thereby activating the thermal battery. The thermal battery will then power the decoy projectile system, and the system will complete self-test and initialization configuration. During the reconnaissance phase, after the system completes initialization, it automatically enters the frequency sweep reconnaissance state, performing time-division frequency sweep reconnaissance of the forward and backward reconnaissance airspace and the millimeter-wave Ka band. The instantaneous bandwidth is not less than 4 GHz. During the dwell time of each frequency sweep channel, the millimeter-wave radar signal detected by the millimeter-wave antenna assembly is converted into a broadband received intermediate frequency signal via the T / R channel and down-conversion channel of the radio frequency assembly. This signal is then sent to the high-speed data acquisition and conversion module of the signal processing circuit to complete analog-to-digital conversion. The resulting high-speed digital signal is then digitally stored and processed by the signal processing module. Digital storage is performed in DRFM (Digital Radio Frequency). In the Radio Frequency Memory (DRFM) system, high-speed acquired radar intermediate frequency (IF) signal samples are stored for subsequent jamming signal modulation generation. The reconnaissance processing includes digital channelization, signal detection, parameter measurement, pulse descriptor word (PDW) formation, and signal sorting and identification. Signal parameter measurement includes estimating parameters such as radar signal arrival time (TOA), pulse width (PW), pulse repetition frequency (PRI), and signal amplitude (PA). These parameters are summarized to obtain the pulse descriptor word (PDW), which can be used for signal sorting and identification, thereby guiding the subsequent modulation generation of targeted jamming signals. In the jamming stage, the digital processing circuit modulates and generates targeted digital jamming signals according to the radar signal characteristics acquired in the reconnaissance stage and an adaptive jamming strategy. This digital jamming signal is converted from digital to analog and sent to the radio frequency transmission channel. After up-conversion and filtering amplification, it is transmitted by the antenna. In the DRFM system, the jamming signal modulation generation directly uses the acquired and stored original radar signal samples, combined with the reconnaissance radar signal characteristics, and generates coherent jamming signals with good deception or suppression characteristics through various means such as dense replication, time delay modulation, Doppler modulation, RCS modulation, and noise modulation.The self-destruct phase, or millimeter-wave broadband throwable active radio frequency decoy munition's self-destruct phase, involves automatically erasing the program and data from the processing chip after being launched, powered on, and operating for a certain period. Since the decoy munition is consumable and non-recoverable, this soft self-destruction ensures that the decoy munition, once launched, will not cause data or technology leakage to the user. This utility model's millimeter-wave broadband throwable active radio frequency decoy munition features detachable debugging covers on both the launch casing and the decoy body. Underneath the debugging cover are the system's external power supply and debugging interfaces. Therefore, the decoy munition can be connected to a loading cable while loaded and without activating the thermal battery, allowing for software program loading, upgrades, and debugging tests via external DC power and communication.

[0052] The above description is only a preferred embodiment of the present utility model. It should be noted that for those skilled in the art, several improvements and modifications can be made without departing from the technical principles of the present utility model, and these improvements and modifications should also be considered within the protection scope of the present utility model.

Claims

1. A millimeter-wave broadband throwable active radio frequency decoy munition, characterized in that, The millimeter-wave broadband throwable active radio frequency decoy flare includes a launch casing and a decoy body, wherein the decoy body is filled inside the launch casing, and the decoy body includes: A millimeter-wave antenna assembly, which is used to receive millimeter-wave received signals and transmit millimeter-wave transmitted signals; A millimeter-wave radio frequency component, wherein the millimeter-wave radio frequency component is connected to the millimeter-wave antenna component; A signal processing circuit, wherein the signal processing circuit is connected to the millimeter-wave radio frequency component; The main controller is connected to the millimeter-wave radio frequency component and the signal processing circuit respectively. The main controller is used to control the millimeter-wave radio frequency component to filter, amplify and down-convert the millimeter-wave received signal to output the received digital intermediate frequency signal, and to control the signal processing circuit to perform digital sampling and data analysis on the received digital intermediate frequency signal to output the digital received signal. The main controller is also used to control the signal processing circuit to modulate and generate a digital interference signal according to the digital received signal, and to perform analog reconstruction on the digital interference signal to output a transmitted digital intermediate frequency signal, and to control the millimeter wave radio frequency component to perform up-conversion and filtering amplification processing on the transmitted digital intermediate frequency signal to output the millimeter wave transmitted signal.

2. The millimeter-wave broadband throwable active radio frequency decoy munition according to claim 1, characterized in that, The millimeter-wave antenna assembly includes a forward antenna, a backward antenna, a forward radome, and a backward radome.

3. The millimeter-wave broadband throwable active radio frequency decoy munition according to claim 2, characterized in that, The decoy projectile also includes a power supply assembly, which provides corresponding operating power to the main controller, the signal processing circuit, the millimeter-wave radio frequency assembly, and the millimeter-wave antenna assembly.

4. The millimeter-wave broadband throwable active radio frequency decoy munition according to claim 3, characterized in that, The power supply assembly includes a ignition tube, a thermal battery, and a power conversion circuit. The thermal battery is connected to both the ignition tube and the power conversion circuit. The ignition tube is used to activate the thermal battery to output power, and the power conversion circuit is used to convert the power voltage output by the thermal battery.

5. The millimeter-wave broadband throwable active radio frequency decoy munition according to claim 4, characterized in that, The decoy projectile also includes a first cavity, a second cavity, and a foldable tail fin; The first cavity is used to connect and secure the millimeter-wave antenna assembly; The second cavity is used to house and secure the millimeter-wave radio frequency component, the signal processing circuit, the power supply component, and the main controller; The foldable tail fin is connected to the second cavity, and the foldable tail fin is conformally aligned with the receiving area of ​​the power assembly.

6. The millimeter-wave broadband throwable active radio frequency decoy munition according to claim 1, characterized in that, The signal processing circuit includes a high-speed data acquisition and conversion circuit and a digital processing circuit, wherein the high-speed data acquisition and conversion circuit is connected to the digital processing circuit. The main controller is used to control the high-speed data acquisition and conversion circuit to perform digital sampling and data analysis on the received digital intermediate frequency signal to output the digital received signal, and to control the digital processing circuit to modulate the digital interference signal according to the digital received signal, and to control the high-speed data acquisition and conversion circuit to perform analog reconstruction on the digital interference signal to output the transmitted digital intermediate frequency signal.

7. The millimeter-wave broadband throwable active radio frequency decoy munition according to claim 1, characterized in that, The millimeter-wave radio frequency component includes: A frequency synthesizer, which is used to provide a local oscillator signal; A T / R assembly is connected to the millimeter-wave antenna assembly, and the T / R assembly is used to filter and amplify the millimeter-wave received signal and the millimeter-wave transmitted signal. The frequency converter is connected to the T / R component and also to the frequency synthesizer. The frequency converter is used to receive the local oscillator signal, perform down-conversion processing on the millimeter-wave received signal, and perform up-conversion processing on the transmitted digital intermediate frequency signal.

8. The millimeter-wave broadband throwable active radio frequency decoy munition according to claim 1, characterized in that, The launch case includes a main casing, a primer device, a buffer piston, and a front cover; a detachable adjustment cover is provided on one side of the main casing, the adjustment cover corresponding to the external adjustment interface of the decoy projectile, the main casing is used to accommodate and fix the decoy projectile; the primer device is used to fill the bottom of the main casing; the front cover is snap-fitted to the main casing.

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