CN109990670B - An electric shock anti-stress training grenade and its anti-stress training method - Google Patents

Abstract

The invention discloses an electric shock type anti-stress training grenade and an anti-stress training method thereof. One end of the elastic body, which is close to the pull ring, is provided with a cover body, and the pull rope and the pull ring are both of conductive structures. The detection module is used for generating a first trigger signal when the cover body is separated from the rest part. The timing module is used for generating a trigger signal II after the timing time reaches the preset time. The sounding module is used for sending prompt information when the trigger signal is generated. The electric shock module comprises a power supply module and a boost circuit, wherein the boost circuit is used for boosting and conveying the output voltage of the power supply module to the pull rope. The control module is used for driving the power module and the boost circuit to be conducted when the trigger signal II is generated, and driving the power module and the boost circuit to be disconnected after the pull rope is pulled out. The invention is convenient for training personnel to control the throwing time and improves the throwing training effect of grenades.

Description

An electric shock anti-stress training grenade and its anti-stress training method

technical field

The invention relates to an anti-stress training grenade in the technical field of military training equipment, in particular to an electric shock anti-stress training grenade, and also relates to an electric shock anti-stress training method of the anti-stress training grenade.

Background technique

A hand grenade is a kind of ammunition thrown by hand, generally composed of two parts: a projectile body and a fuze. Grenades can kill living targets as well as damage tanks and armored vehicles. Hand grenades have played an important role in previous wars due to their small size, small weight, and easy portability and use. With the in-depth development of actual combat military training, grenade throwing training for new recruits has become the norm.

However, when soldiers are training to throw grenades, due to their first contact with grenades, some soldiers will have a certain degree of fear, and may experience hesitation and stiffness, rapid heartbeat, and trembling arms, which will lead to too long time for throwing grenades. The effect is average, and it may cause psychological shadows on soldiers and affect the follow-up training effect of soldiers. In addition, it is often difficult for soldiers to control the throwing time during grenade throwing training, and the actual application effect of grenade will also be affected by this.

Contents of the invention

Aiming at the existing technical problems, the present invention provides an electric shock anti-stress training grenade and its anti-stress training method, which solves the problem that the existing grenade throwing training effect is mediocre and the throwing time is difficult to control.

The present invention adopts the following technical solutions to realize: an electric shock type anti-stress training grenade, which includes:

body;

a pull cord, one end of which is articulated in the elastic body; and

a pull ring connected to the other end of the pull cord;

Wherein, one end of the projectile close to the pull ring has a cover body; both the pull rope and the pull ring are conductive structures; the anti-stress training grenade also includes:

A detection module, which is arranged between the cover body and the remaining part of the projectile body, and is used to generate a trigger signal one when the cover body is separated from the remaining part of the projectile body;

A timing module, which is used to perform timing when the detection module generates the trigger signal 1, and generate a trigger signal 2 after the timing time reaches a preset time;

A sounding module, which is used to send out prompt information when the detection module generates the trigger signal; wherein, the prompt information includes a countdown length, and the countdown length is the difference between the preset time and the countdown time;

An electric shock module, which includes a power module and a boost circuit both arranged in the body; the boost circuit is used to boost the output voltage of the power module and send it to the pull rope, so that the pull ring has an electric shock voltage; and

a control module, which is used to drive the conduction between the power supply module and the boost circuit when the timing module generates the trigger signal 2, and drive the power supply module and the booster circuit after the pulling rope is pulled out; The electrical connection between the booster circuits is disconnected.

As a further improvement of the above scheme, the anti-stress training grenade also includes:

A pull switch is fixed in the elastic body and connected in series between the power module and the boost circuit; one end of the pull rope is connected to the free end of the pull switch.

As a further improvement of the above scheme, the anti-stress training grenade also includes:

The wireless transmission module is used to remotely transmit the timing data of the timing module to a training statistics platform, and the training statistics platform is used to display the timing time.

As a further improvement of the above solution, the sounding module includes a buzzer; the buzzer is installed in the missile body and is used to send out the prompt information.

As a further improvement of the above solution, the detection module includes a touch switch; the touch switch is installed on the remaining part, and the cover is against the touch end of the touch switch; the touch switch is connected between the cover and the remaining part. When the parts are separated, the trigger signal one is generated.

As a further improvement of the above solution, the detection module includes a photoelectric sensor; the photoelectric sensor is installed on the remaining part, and emits light to the cover, and receives the return light reflected from the cover; the photoelectric sensor is not received When the light is returned, the trigger signal one is generated.

As a further improvement of the above solution, the power supply module includes a storage battery; the storage battery is installed in the missile body and is used to supply power to the booster circuit.

As a further improvement of the above scheme, the projectile body also has a cartridge case and a handle; one end of the handle is connected to the cartridge case, and the other end is movably connected to the cover; the boost circuit is arranged in the cartridge case, and the power module is arranged in the cartridge handle middle.

Further, the elastic body also has a base; the base is installed in the other end of the elastic handle, and opens a rope outlet hole set towards the cover; the stay rope is arranged in the base, and the other end passes through the rope outlet hole and is located in the cover. The pull ring connection.

The present invention also provides an electric shock anti-stress training method, which is applied to any of the above-mentioned electric shock anti-stress training grenades, which includes the following steps:

Separate the cover body from the missile body to generate a trigger signal one;

When the trigger signal 1 is generated, timing is started, and prompt information is issued at the same time; wherein, the prompt information includes a countdown length, and the countdown length is the difference between the preset time and the timing time;

judging whether the timing time reaches a preset time;

When the counting time reaches the preset time, the conduction between the power module and the boost circuit is driven, so that the pull ring has an electric shock voltage;

After the timing time does not reach the preset time and the pull cord is pulled out, the electrical connection between the power module and the boost circuit is driven to be disconnected.

In the electric shock type anti-stress training grenade and its anti-stress training method of the present invention, the detection module of the anti-stress training grenade can generate a trigger signal 1 when the cover is separated, and the trigger signal 1 can trigger the timing module to perform timing At the same time, the sound module is triggered to send a prompt message to remind the trainers that the countdown is long, so that the trainers can control the throwing time, thereby improving the training effect of grenade throwing. When the timing time of the timing module reaches the preset time, trigger signal 2 will be generated. When the trigger signal 2 appears, the control module will drive the power module and the boost circuit to conduct, so that the output voltage of the power module will be boosted. The circuit is boosted, and after the voltage is boosted, the voltage will be led to the pull rope, so that the pull ring has an electric shock voltage. At this time, the trainer will be shocked by the high voltage, creating a sense of fear when dropping the bomb, improving adaptability, and preventing the trainer from holding The grenade throwing time is too long, which further improves the effect of grenade throwing training, and helps trainers develop the concept of throwing time, forming a more three-dimensional grenade throwing training system.

Description of drawings

Fig. 1 is the structural representation of the electric shock type anti-stress training grenade of embodiment 1 of the present invention;

Fig. 2 is the front view of the electric shock type anti-stress training grenade in Fig. 1;

Fig. 3 is a perspective view of the electric shock type anti-stress training grenade in Fig. 1;

Fig. 4 is the system frame diagram of the electric shock type anti-stress training grenade of embodiment 1 of the present invention;

5 is a schematic structural view of an electric shock anti-stress training grenade according to Embodiment 2 of the present invention;

6 is a schematic structural view of an electric shock anti-stress training grenade according to Embodiment 3 of the present invention;

Fig. 7 is the front view of the electric shock type anti-stress training grenade of embodiment 4 of the present invention;

8 is a schematic structural view of an electric shock anti-stress training grenade according to Embodiment 5 of the present invention;

9 is a schematic structural view of an electric shock anti-stress training grenade according to Embodiment 6 of the present invention;

FIG. 10 is an enlarged view of area A in FIG. 9 .

Symbol Description:

1 Projectile Body 15 Indicator Light

2 Pull cord 17 Power switch

3 Pull Ring 18 Display

4 Cover Body 19 Installation Box

5 Pull switch 20 Battery

6 Buzzer 21 Delay relay

7 Touch switch 22 Insulation base

8 Photoelectric sensor 23 Support column one

9 Battery 24 Support column two

10 Cartridge case 25 Metal trigger piece

11 Bullet handle 26 Return spring

12 Base 27 Conductive contact 1

13 Rope outlet hole 28 Conductive contact 2

14 Boost circuit board

Detailed ways

In order to make the object, technical solution and advantages of the present invention clearer, the present invention will be further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described here are only used to explain the present invention, not to limit the present invention.

Example 1

Please refer to Fig. 1-4, present embodiment provides a kind of electric shock type anti-stress training grenade, and this grenade comprises projectile body 1, pull rope 2, pull ring 3, detection module, electric shock module, timing module, sound module and control The module may also include one or more of a pull switch 5, a wireless transmission module, an indication module and a power switch 17. It should be noted here that the total weight of the anti-stress training grenade in this embodiment is the same as or similar to that of the existing actual combat grenade, so as to ensure the authenticity of the grenade throwing and improve the training effect of the grenade throwing.

One end of projectile body 1 has cover body 4, and in the present embodiment, projectile body 1 also has cartridge case 10, bullet handle 11 and base 12. In some embodiments that do not include this embodiment, the cover body 4, the cartridge case 10, the handle 11 and the base 12 can be integrally formed. In the present embodiment, the cartridge case 10 is a metal cartridge case, and the bullet handle 11 is a wooden structure, and one end is connected with the cartridge case 10, and the other end is movably connected with the cover body 4. Certainly, the cartridge case 10 and the bullet handle 11 can be metal structures, can be connected by welding or the like, and can also be integrally formed. The cover body 4 can be directly inserted on the other end of the bullet handle 11, and its material is metal. In other embodiments, the cover body 4 can also be clamped or screwed on the handle 11 . The base 12 is installed in the other end of the bullet handle 11 and has a rope hole 13 . The base 12 can be directly welded or clamped on the bullet handle 11, and can also be integrally formed with the bullet handle 11 separately. It should be pointed out that the overall shape of the missile body 1 can be the same or similar to that of the existing grenade, so as to ensure the authenticity of the throwing training.

One end of the stay rope 2 is movably connected in the elastic body 1, and the other end is connected with the draw ring 3. Wherein, the cover body 4 is arranged on an end of the projectile body 1 close to the pull ring 3. Both the pull rope 2 and the pull ring 3 are conductive structures, and can be made of metal materials to realize electrical connection. The rope outlet hole 13 is arranged towards the cover body 4, and the stay cord 2 is arranged in the base 12, and the other end passes through the rope outlet hole 13 and is connected with the draw ring 3 positioned in the lid body 4. In this way, when the trainer needs to pull out the pull ring 3, the cover body 4 needs to be separated from the remaining part of the body 1. Therefore, when training to throw a grenade, the first step of the trainer is to take out the cover body 4 . The stay cord 2 in this embodiment can be elastically reset by an elastic reset member, that is, when the stay cord 2 is not subjected to external force, the stay cord 2 will directly return to its original position, so that the stay cord 2 can be used repeatedly.

The detection module is arranged between the cover body 4 and the remaining part of the projectile body 1, and is used to generate a trigger signal one when the cover body 4 is separated from the remaining part of the projectile body 1. In this embodiment, the detection module includes a touch switch 7 . The touch switch 7 is installed on the remaining part of the elastic body 1 , and the cover body 4 is against the touch end of the touch switch 7 . The touch switch 7 generates a trigger signal one when the cover body 4 is separated from the rest.

The timing module is used for timing when the detection module generates trigger signal 1, and generates trigger signal 2 after the timing time reaches a preset time. The timing module may include a countdown timer, and the preset time is the countdown length of the countdown timer. When the countdown of the countdown timer is completed, the timing module will generate a trigger signal 2 . The timing module can also include a plurality of timing setting buttons, and the timing setting buttons are installed on the outer wall of the missile body 1 . In this way, the trainer can adjust the preset time in the timing module by pressing the timing setting button, thereby setting the preset time separately for trainers with different training levels, and can adjust the preset time at any time.

The sounding module is used for sending out prompt information when the detection module generates a trigger signal. Wherein, the prompt information includes the countdown length, and the countdown length is the difference between the preset time and the timing time. In this embodiment, the sounding module includes a buzzer 6, which is installed in the projectile body 1 and used to send out prompt information. After the trainer separates the cover body 4 from the remaining part of the body 1, the buzzer 6 will immediately send out a real-time countdown length, so as to remind the trainer of the real-time throwing time, so as to remind the trainer of the countdown length, which is convenient for training The personnel control the throwing time, so as to improve the training effect of grenade throwing.

The electric shock module includes a power module and a booster circuit, both of which are arranged in the projectile body 1 . The boost circuit is used to boost the output voltage of the power module and send it to the pull rope 2, so that the pull ring 3 has an electric shock voltage. In this embodiment, the power module includes a battery 9, and a charging port is provided on the body 1, and the trainer can charge the battery 9 through the charging port. Storage battery 9 is installed in body 1, and is used for supplying power to booster circuit. The boosting circuit can adopt the existing boosting circuit, which can boost the low voltage output by the battery 9 to a high voltage, and can rise to a pulse voltage of 500-1000V, so that the pulse voltage is carried on the pull ring 3 to train personnel by electric shock finger. What needs to be explained here is that the booster circuit of this embodiment can adopt the booster circuit of the existing electric mosquito swatter, and other booster circuits can also be used to generate pulse voltages that cannot cause health hazards to the trainers. On the one hand, it can Electric shock trainers, on the other hand, avoid causing physical harm to trainers. It should be understood here that although the output voltage of the booster circuit is relatively large, its output current is very small, so that it will not affect the human body and will only generate electrical stimulation to the trainers.

In this embodiment, the booster circuit board 14 where the booster circuit is located is arranged in the cartridge case 10 , and the power module is arranged in the cartridge handle 11 . Since the grenade will be thrown out during the throwing process, it will generate a very large vibration when it lands, so the structure located in the projectile body 1 is vulnerable to damage. In this embodiment, after the booster circuit board 14 is placed in the cartridge case 10, elastic glue is injected into the cartridge case 10, that is, liquid silica gel is injected to solidify and seal. On the one hand, the stability of the booster circuit board 14 installation can be improved. On the other hand, the vibration of the boost circuit board 14 can be reduced, thereby protecting the boost circuit. Similarly, other structures in the projectile body 1 can also be fixed by silica gel, so as to ensure the stability of other structures and play a shockproof role for other structures.

The control module is used for driving the conduction between the power module and the boost circuit when the timing module generates the trigger signal 2, and disconnecting the electrical connection between the power module and the boost circuit after the pull rope 2 is pulled out. Like this, when the trainer pulls out the cover body 4 from the projectile body 1, after the timing time of the timing module reaches the preset time, the electrical connection between the power supply module and the boost circuit will be made, so that the pull ring 3 is put on The pulse voltage that can electrically stimulate the trainers, so that the trainers will be shocked by high voltage, create a sense of fear when throwing bombs, improve adaptability, prevent trainers from holding grenades for too long, thereby further improving the effect of grenade throwing training, and It helps trainers develop the concept of throwing time and form a more three-dimensional grenade throwing training system.

The pull switch 5 is fixed in the elastic body 1 and connected in series between the power module and the boost circuit. One end of stay cord 2 connects the free end of stay cord switch 5. When the trainer pulls the pull rope 2 through the pull ring 3, the pull rope 2 will drive the free end of the pull switch 5, so that the opening and closing state of the pull switch 5 changes, and a corresponding trigger signal 1 can be generated. The pull switch 5 can be fixed directly on the base 12 or in the handle 11 . In addition, it should be noted that when the trainer receives an electric shock, the trainer can pull the pull cord 2 to make the pull switch 5 in a disconnected state, thereby disconnecting the connection between the power module and the booster circuit, and then stopping the electric shock .

The wireless transmission module is used to remotely transmit the timing data of the timing module to a training statistics platform, and the training statistics platform is used to display the timing time. The wireless transmission module is arranged in the bomb body 1, and directly receives the power supply of the power supply module, so as to transmit the timing time to the background. In this way, the management personnel in the background can count the time and generate the throwing time curve of each trainer. sex training. Moreover, the management staff can reset the preset time according to the throwing time of each trainer, and then train the trainers to a higher standard, thereby improving the grenade throwing level of the trainers.

In this embodiment, the indicating module includes at least one indicator light 15, which is arranged on the body 1 and is used to display the system status of the grenade, such as the power of the power module or whether it is in an electric shock state. The power switch 17 is installed on the missile body 1, and it is the main switch of the grenade, which can control the power supply of all electrical structures in the grenade. The power switch 17 can be a push-button switch, a push-type switch, or a remote switch, which can be activated and deactivated by a remote signal. Here, the training statistics platform can remotely control the opening and closing of the power switch 17, and can start or close the power switches 17 of multiple grenades at one time, and can also control the power switches 17 separately to realize the function of remote control. In addition, it should be noted that in some embodiments, the grenade can also be provided with a reset button, and the trainer can reset the grenade by pressing the reset button, so that the entire system is reset.

In summary, the electric shock type anti-stress training grenade of the present embodiment has the following advantages:

The detection module of the anti-stress training grenade can generate a trigger signal 1 when the cover body 4 is separated, and the trigger signal 1 can trigger the timing module for timing, and simultaneously trigger the sound module to send a prompt message to remind the trainer that the countdown is long, which is convenient Trainers control the throwing time, so as to improve the effect of grenade throwing training. When the timing time of the timing module reaches the preset time, trigger signal 2 will be generated. When the trigger signal 2 appears, the control module will drive the power module and the boost circuit to conduct, so that the output voltage of the power module will be boosted. The circuit is boosted, and after the boost, the voltage will be led to the pull rope 2, so that the pull ring 3 has an electric shock voltage. At this time, the trainer will be shocked by the high voltage, creating a sense of fear when dropping the bomb, improving adaptability, and preventing the trainer from Holding the grenade for too long will further improve the effect of grenade throwing training, and help trainers develop the concept of throwing time, forming a more three-dimensional grenade throwing training system.

Example 2

Please refer to Fig. 5, the present embodiment provides an electric shock type anti-stress training grenade, which is similar to the electric shock type anti-stress training grenade in Embodiment 1, the difference is that the structure of the detection module in this embodiment is different. In this embodiment, the detection module includes a photoelectric sensor 8 . The photoelectric sensor 8 is installed on the remaining part, and emits light to the cover 4 and receives the return light reflected from the cover 4 . When the photoelectric sensor 8 does not receive the return light, that is, when the cover body 4 is separated from the projectile body 1, it generates a trigger signal one. The emitter and receiver of the photoelectric sensor 8 are all installed on the remaining part of the projectile 1, so that when the cover 4 is placed on the remaining part of the projectile 1, the light emitted by the transmitter will be incident after being reflected by the cover 4. to the receiver, thereby forming a closed loop of the optical path, and when the cover 4 is separated, the light emitted by the transmitter cannot return to the receiver, so that the photoelectric sensor 8 will generate a trigger signal 1, thereby accurately and timely displaying Out of the state of the cover body 4.

Example 3

Referring to Fig. 6, the present embodiment provides a kind of electric shock type anti-stress training grenade, and it has increased display screen 18 on the basis of embodiment 1, and projectile body 1 adopts metal structure as a whole in addition. The display screen 18 is installed on the bomb body 1, and is used for displaying the preset time and timing time in the timing module, and can also display the electric quantity of the power module. Projectile body 1 is directly electrically connected to the output terminal of the booster circuit, so that when the trainer is given an electric shock, the projectile body 1 will also come into contact with the human body, thereby increasing the electric shock area, and maximizing the electric shock effect of the trainer and probability of electric shock.

Example 4

Please refer to Fig. 7, this embodiment provides an electric shock type anti-stress training grenade, which is similar to the electric shock type anti-stress training grenade in Embodiment 1, the difference is that the structure of the power module is different. In this embodiment, the power module includes an installation box 19 and a plurality of batteries 20 . The installation box 19 is installed on the body 1, specifically, a groove is provided on the body 1, and the installation box 19 is directly installed in the groove. A plurality of batteries 20 are installed in the installation box 19 and connected in series to form a battery pack, and the output end of the battery pack is connected to the output end of the boost circuit. Due to the limitation of the place where the grenade throwing training takes place, especially in some field environments, the way of power supply through the battery cannot meet the actual needs, and the power supply mode of the battery pack in this embodiment only needs to prepare the battery in advance It can meet the actual training needs, and there is no need to wait for the charging time. A grenade can be used all the time to ensure the efficiency of the grenade.

Example 5

Referring to Fig. 8, the present embodiment provides an electric shock type anti-stress training grenade, which is similar to the grenade in Embodiment 1, except that the timing module of the present embodiment includes a delay relay 21. The time-delay relay 21 is a relay that delays the output for a certain period of time after receiving a signal at the input terminal, and is arranged in the projectile body 1. The input end of the delay relay 21 is connected in series with the touch switch 7, and when the touch switch 7 is turned off, the delay time is delayed for a preset time, and the output end of the delay relay 21 is turned on. In this embodiment, the size of the preset time can be realized by adjusting the time delay relay 21, and can also be set by selecting different time delay relays 21, so that the preset time can be set separately for trainers with different training levels, and at any time The size of the preset time can be adjusted. The delay relay 21 can delay the state change of the touch switch 7 and reflect it through its output terminal, that is, when its input terminal is disconnected, the output terminal will be closed after a delay. Moreover, both the power module and the boost circuit are connected in series with the output terminal of the delay relay 21, so that when the output terminal of the delay relay 21 is closed, the power module and the boost circuit will be connected.

Example 6

Please refer to FIG. 9 and FIG. 10 , this embodiment provides an electric shock anti-stress training grenade, which is similar to the grenade in Embodiment 5, the difference lies in the structure of the pull switch 5 in this embodiment. Wherein, the pull switch 5 includes an insulating base 22 , a supporting column 1 23 , a supporting column 2 24 , a metal trigger piece 25 and at least one return spring 26 . The insulating base 22 is installed in the missile body 1 and has a chute. Support column one 23 and support column two 24 are all installed on the insulating base 22, and are arranged in parallel, and are positioned at the two ends of chute. The first support column 23 is provided with a first conductive contact 27 , and the second support column 24 is provided with a second conductive contact 28 suspended in the air. One end of the metal trigger piece 25 slides in the chute, and is located between the first support column 23 and the second support column 24 . One end of the back-moving spring 26 is installed on the metal trigger piece 25 , and the other end is installed on the support column one 23 or the support column two 24 . Moreover, one end of the pull cord 2 is connected to the metal trigger piece 25 , and among the first conductive contact 27 and the metal trigger piece 25 , one of them is connected to the power module, and the other is connected to the boost circuit. In the original state, the metal trigger piece 25 will be in contact with the conductive contact one 27 under the action of the return spring 26, and the power supply module and the boost circuit will be connected, and when the trainer pulls the pull cord 2, the metal trigger will be triggered. Sheet 25 is in contact with conductive contact 2 28, and now the power module will be disconnected from the booster circuit.

Example 7

This embodiment provides an electric shock anti-stress training method, which is applied to any of the electric shock anti-stress training grenades provided in Embodiments 1-4, and includes the following steps:

1. Separate the cover body 4 from the projectile body 1 to generate a trigger signal 1;

2. When the trigger signal 1 is generated, start timing and send out prompt information at the same time; wherein, the prompt information includes the countdown length, and the countdown length is the difference between the preset time and the timing time;

3. Determine whether the timing time reaches a preset time;

4. When the timing time reaches the preset time, the conduction between the power supply module and the booster circuit is driven, so that the pull ring 3 has an electric shock voltage;

5. After the timing time does not reach the preset time and the pull cord 2 is pulled out, the electrical connection between the power supply module and the boost circuit is disconnected.

The above descriptions are only preferred embodiments of the present invention, and are not intended to limit the present invention. Any modifications, equivalent replacements and improvements made within the spirit and principles of the present invention should be included in the protection of the present invention. within range.

Claims (10)

1. An electric shock type anti-stress training grenade, which comprises: projectile (1); A stay rope (2), one end of which is movably connected in the elastic body (1); and Pull ring (3), it is connected with the other end of stay rope (2); It is characterized in that the elastic body (1) has a cover (4) at one end close to the pull ring (3); the pull rope (2) and the pull ring (3) are both conductive structures; the anti-stress training grenade also includes: A detection module, which is arranged between the cover (4) and the remaining part of the elastic body (1), and is used to generate a trigger signal one when the cover (4) is separated from the remaining part of the elastic body (1); A timing module, which is used to perform timing when the detection module generates the trigger signal 1, and generate a trigger signal 2 after the timing time reaches a preset time; A sounding module, which is used to send out prompt information when the detection module generates the trigger signal; wherein, the prompt information includes a countdown length, and the countdown length is the difference between the preset time and the countdown time; An electric shock module, which includes a power module and a boost circuit both arranged in the body (1); the boost circuit is used to boost the output voltage of the power module and send it to the pull rope (2), so that the pull ring (3) carry a shock voltage; and A control module, used for driving the power supply module to conduct with the boost circuit when the timing module generates the trigger signal 2, and driving the power supply module after the pull rope (2) is pulled out The electrical connection between the module and the boost circuit is disconnected. 2. The electric shock type anti-stress training grenade as claimed in claim 1, wherein the anti-stress training grenade also comprises: A pull switch (5), which is fixed in the elastic body (1), and is connected in series between the power module and the boost circuit; one end of the pull rope (2) is connected to the free end of the pull switch (5). 3. The electric shock type anti-stress training grenade as claimed in claim 1, wherein the anti-stress training grenade also comprises: The wireless transmission module is used to remotely transmit the timing data of the timing module to a training statistics platform, and the training statistics platform is used to display the timing time. 4. The electric shock type anti-stress training grenade as claimed in claim 1, characterized in that, the sound module comprises a buzzer (6); the buzzer (6) is installed in the projectile body (1), and is used for Issue the prompt message. 5. The electric-shock type anti-stress training grenade as claimed in claim 1, characterized in that, the detection module comprises a touch switch (7); the touch switch (7) is installed on the remaining part, and the cover ( 4) Push against the pressure end of the pressure switch (7); the pressure switch (7) generates the trigger signal one when the cover (4) is separated from the remaining part. 6. The electric shock type anti-stress training grenade according to claim 1, characterized in that, the detection module includes a photoelectric sensor (8); the photoelectric sensor (8) is installed on the remaining part, and emits light to the cover body (4), and receive the return light reflected from the cover body (4); when the photoelectric sensor (8) does not receive the return light, it generates the trigger signal one. 7. The electric shock type anti-stress training grenade as claimed in claim 1, characterized in that, the power supply module includes a storage battery (9); the storage battery (9) is installed in the missile body (1) and is used to supply voltage circuit power supply. 8. The electric shock type anti-stress training grenade as claimed in claim 1, characterized in that, the projectile body (1) also has a bullet case (10) and a bullet handle (11); one end of the bullet handle (11) and the bullet case (10) ) connection, and the other end is movably connected with the cover body (4); the boost circuit is arranged in the shell case (10), and the power module is arranged in the bullet handle (11). 9. The electric shock type anti-stress training grenade as claimed in claim 8, characterized in that, the body (1) also has a base (12); the base (12) is installed in the other end of the bullet handle (11), and Open the rope outlet hole (13) set towards the cover (4); the stay cord (2) is arranged in the base (12), and the other end passes through the rope outlet hole (13) and the pull cord located in the cover (4). Ring (3) is connected. 10. An electric shock type anti-stress training method, which is applied in the electric shock type anti-stress training grenade as described in any one of claims 1 to 9, is characterized in that it comprises the following steps: Separate the cover body (4) from the projectile body (1) to generate a trigger signal one; When the trigger signal 1 is generated, timing is started, and prompt information is issued at the same time; wherein, the prompt information includes a countdown length, and the countdown length is the difference between the preset time and the timing time; judging whether the timing time reaches a preset time; When the counting time reaches the preset time, the conduction between the power supply module and the boost circuit is driven, so that the pull ring (3) has an electric shock voltage; After the timing time does not reach the preset time and the pull cord (2) is pulled out, the electrical connection between the power module and the boost circuit is driven to be disconnected.

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