BG64719B1 - Multifunctional piezoelectric fuse - Google Patents

Abstract

The fuse is designed to make up, different in construction, hollow-charge, high explosive, chemical (including thermobaric), smoke and other ammunition to different weapons and systems of armament, as well as multifunctional ammunition of tandem or cassette type. The fuse (1) is fabricated as an integral part with autonomous piezogenerator (2), mounted to a housing (6) of the fuse, in which unified modules for initial and long-distance extraction and protection, and in the detonation circuit of the fuse (1) two independently acting circuits of explosion are included. The first one is piezoelectric actuation, which is ensured by a standard electrodetonator, fitted centrally in the housing of the fuse, and the second one is fabricated as a standard inertia destruction mechanism, selected as a rule, to have such sensitivity and time of actuation so as to be able to explode the electrodetonator under most unfavorable conditions of meeting the target (obstacle) after a predetermined time delay in case the faster actuating piezoelectric circuit has not been actuated. The fuse has a detonator booster, actuated by the electrodetonator and ensuring higher power of the blast wave, initating in the most suitable way the detonator module, following it, which guarantees its uniform and reliable operation.

Description

Technical field

The invention relates to a multifunctional piezoelectric fuse equipped with an independently actuated piezoelectric and inertial device for blasting into a target (barrier).

The fuze according to its implementation is intended to complete various construction cumulative, fragmentation, fragmentation-explosive - chemical (including thermobaric), smoke and other ammunition to grenade launchers, mortars, barrel and jet artillery and unmanaged aerial missiles multifunctional ammunition of tandem or cluster type.

BACKGROUND OF THE INVENTION

Piezoelectric fuses, various in design and technical design, are known and are known to be designed to complete various ammunition such as cumulative anti-tank grenades, rockets, mines, unmanaged aerial missiles and cumulative artillery shells, as well as tandem parts them.

Typical Representative front-bottom fuses of this type are the piezoelectric fuse VP-7 presented in FIG. 16 in [1]. The fuze is made up of two self-formed front and bottom parts (the latter also called the detonation mechanism, abbreviated PDM), located respectively in the front of the ammunition front and rear in the cumulative charge of the ammunition body.

The VP-7 front is a piezogenerator with a piezoelectric element, which, after firing ammunition upon impact of the fuze front in a barrier of a certain type, generates a current pulse with a certain voltage capable of detonating an electrodetonator located at the bottom and connected in this moment through ammunition and bottom elements (PDM) in a circuit common to the piezo generator.

The bottom part (PDM) of VP-7, in turn, is arranged, and in the sleeve, which is the main body of the PDM and hereinafter referred to as the body, there are built-in elements for initial firing, a pyrotechnic stopper for long-range cocking, a pyrotechnic self-destructor, slider with a longitudinal opening, laterally positioned in a diametrical groove in the back of the body, the slider being spring-loaded and locked by a pyrotechnic stopper, and an electric detonator in front of which a transmitting charge is placed centrally in the opening of the body, centered in the aperture of the body, in conjunction with the transfer charge, a detonator is positioned in the cup near the front face of the body. These, along with the other elements of the PDM, are enclosed in one piece by means of a cylindrical hollow body with a bottom curved towards it.

Initial mounting elements are located in the longitudinal opening of the PDM body against each other, the igniter capsule and the fixed core, spaced apart from each other before firing from a spring which, when fired, shrinks, allowing the igniter capsule to move inertially in the cord. , whereby it ignites by transmitting a fire pulse to the pyrotechnic elements of the PDM.

The pyrotechnic stopper serving to lock the slider in the PDM in service and when firing up to a certain moment of its movement, is arranged, with a pyrotechnic composition (delay) pressed in the central hole of the sleeve with a certain ignition timing, with one of its foreheads it contacts the central fire opening at the rear of the sleeve and the other forehead with a stem stopper resting against the forehead of the composition. After ignition by the capsule igniter, the pyrotechnic composition burns, allowing space for the stopper to sink in the sleeve under the action of force on the part of the spring slider, thereby releasing the locking element for its movement in a certain way in the PDM.

The pyrotechnic self-destructor is used to detonate ammunition after a certain period of time after the ammunition was fired at the target but did not fall into it or if it did not explode after being hit by the target or terrain. It is made up of a sleeve filled with side firing openings at one end, in which a pyrotechnic composition (delay) is pressed into a longitudinal opening, and which at the opposite end of its firing holes is connected with a capsule detonator. The pyrotechnic self-destructor is placed in a lateral opening of the PDM body so that the detonator capsule is positioned coaxially and close to the detonator in a raised position in order to reliably detonate it after burning the pyrotechnic composition.

The transfer charge is arranged by compressing and detonating a small charge of a detonating explosive, which detects the burst from the detonator when it is ejected by moving the lateral side by moving the sides by moving the slide in a cup with a central opening with the bottom in the body of the PDM. inward into the body market is centrally opposed to the transmitting charge.

The detonator of the fuse is arranged, and in a cup whose bottom ends with a central contact stem in the form of a fork, it is pressed and detonates a volumetric charge of a brilliant explosive substance, as a result of which the explosive charge of the ammunition explodes. The detonator with the cup is positioned and sealed with pads front to the body coaxially with the transmitter charge with the detonator face open to it, thus forming the detonator circuit of the detector of the detonator to the detonator.

Another known construction is the piezoelectric fuse bottom [2]. From the information available to him, it can be judged that it is constructed as a whole with an autonomous piezo generator connected in a common electrical circuit together with a standard electric detonator, which is located in the central opening in the housing (body) of the fuse of non-conducting material, and in the total detonation circuit is followed by a charge transfer and a detonator, similar to those in the RP-7 PDM. The autonomous piezogenerator is designed as a self-assembled unit with elements located in a separate metal housing, providing mechanical axial load upon impact in a piezoelectric barrier by a piezomodule djj and generating a voltage of ~ 2000 V, which through corresponding terminals and connections ammunition is supplied to the detonator electrode located in the fuse body.

There is a known construction of a VP-7 type fuze, in which the bottom, in addition to the elements for electrical blasting, is equipped with an inertial liquidator instead of a pyrotechnic self-liquidator [3], [4]. As far as one can tell, its electrical explosion circuit is arranged and contains the same explosive elements - an electric detonator, a transfer charge and a detonator - as the fuse according to [1].

The peculiarity of this construction is that the ammunition must have a piezo generator connected electrically to the bottom of the fuse separately located in its front.

The aforementioned and other similarly known structures have as a general sign the presence of a mechanically loaded piezoelectric element which, under certain conditions of their construction and / or conditions of encounter with a barrier, generates a current impulse, which activates associated devices for electric ignition or electric explosion. They, in turn, give an initial burst of impulse to the detonation elements that are standard in the firing (detonation) circuit of the fuses - transmitting charges and detonators, the latter forming an explosive-triggering ammunition.

Based on the known information about these fuses, several conclusions can be drawn, namely:

1. Fuses with autonomous piezogenerators, arranged as a whole, have only one single blasting circuit for a purpose (barrier) encounter - electric, using standard explosive detonators, transmission charges and detonators. The characteristics of the last burst firing impulse generated by the latter are dependent only on the dimensions and mass of the explosive charge contained therein, on a particular explosive or explosive composition and on the parameters determined by the volumetric burst.

2. Frontal piezoelectric fuses, additionally equipped with a pyrotechnic self-destructor or inertial liquidator, require a separate piezo generator located electrically at the front of the ammunition. Due to the complicated munitions design, the piezoelectric circuit is susceptible to failure and reduced efficiency under certain conditions, especially when encountering soft barriers and soil, water space, lateral shocks, bounce, etc. when the generated current pulse is insufficient in size or as a result of deformations of conductive elements in the ammunition front, the current circuit is either short-circuited or interrupted.

As with the fuses above, the initiating detonation impulse of these fuses is formed by standard explosive elements operating according to the scheme of a conventional bulk explosion.

The above creates prerequisites for an increased number of failures and non-destructive ammunition in the area, which, apart from the reduced combat effectiveness, creates dangers for their personnel and military equipment when passing them.

SUMMARY OF THE INVENTION

It is an object of the invention to provide a multifunctional piezoelectric fuse in which, in addition to the known standard actuation and blasting devices, two independent circuits with simultaneous (duplicated) or sequential (defaced) actuation and blasting are provided. Simultaneously, by incorporating detonation devices at the blasting outlet according to the type of explosive-equipped ammunition, to ensure radially or axially-enhanced detonation capability or to generate a shock wave (UV) with a predetermined geometry and parameters of the front of UV, due to optimal blasting and combat characteristics of the respective ammunition.

To achieve the above, the fuse is made up of several structurally united and functionally assembled units - functional modules, namely:

- launching startup module (startup), arranged as a mechanism that is triggered by the starting axial inertial overloads in an unlimited advance range of the same;

- safety module with a remote control device, which is arranged as a mechanism with a pyrotechnic stopper-delay, providing until the firing a lock, and after firing - a release for subsequent movement and fixing of the elements of the fuse in the working (functional) position after a certain delay and distance from the starting (firing) position;

- the first independent explosion circuit, constructed on the basis of a piezoelectric generator, arranged as a whole with the fuse, and connected in a single current circuit with a centrally located detonator, followed by a detonation amplifier of the explosive shock (UV) in the fire circuit. certain orientation and increased power of its action on the detonator module;

- a second independent firing circuit which, according to the principle of operation selected (duplication or dephasing of the explosion), can be filled with the same or different sensitivity and corresponding firing times with respect to the first independent module. This module is preferably configured as an inertia liquidator built into the fuse body;

- a detonation amplifier that perceives the primary blast pulse from the detonator and converts it into a blast pulse with a definite direction and increased power to activate (detonate) a detonator module following it into the detonator circuit of the fuse;

- detonator module forming an explosive pulse-exiting fuse-to-ammunition whose characteristics (magnitude, orientation, geometry and parameters of the explosive or other charge ammunition-triggering UV) are determined by the design and arrangement of its elements and the characteristics of its elements and types of explosive components used therein.

The advantages of a fuze made according to the invention are:

- Increased reliability and trouble-free operation of the fuse and the corresponding ammunition at the point of impact due to the presence of two independent explosion circuits at a target or barrier encounter.

- According to the sensitivities selected and other determining conditions for the activation of the two independent circuits of the fuse, a wider range of targets (barriers) and conditions for meeting ammunition with them can be ensured, which guarantees the smooth and effective striking action of the ammunition.

- The presence of a detonation amplifier stabilizes the action of the detonator circuit of the fuse and guarantees the uniformity of the action of the detonator modules of a given type built into it.

- The detonator modules can be arranged in the most appropriate way for the effective blasting of a given type of ammunition and can be replaced with the detonation amplifiers, thereby achieving an appropriate degree of unification and reciprocation of the other elements of the fuse for a variety of devices, and action of ammunition.

Description of the attached figures

Figure 1. Multifunctional piezoelectric fuse with radially enhanced detonation capability.

Figure 2. Fuse initial startup module.

Figure 3. Fuse remote control device.

Figure 4. Detonation amplifier forming an annular shock wave.

Figure 5. Detonation amplifier forming a flat shock wave.

Figure 6. Detonator module with axially reinforced detonation capability.

Figure 7. Detonator module forming a flat shock wave.

Examples of carrying out the invention

In FIG. 1 shows the basic embodiment of a multifunctional piezoelectric fuse with two independent detonation circuits and a detonator module with radially reinforced detonation capability, hereinafter referred to as fuse.

The fuse 1 is arranged, with its body 33 of non-combustible and non-conductive material at the rear relative to the firing direction (in the direction of arrow A) connected to a standard autonomous piezo generator 2 located in a metal housing 6. It contacts the piezo generator 2 centrally located in an aperture of the body 33 is a standard detonator 7, with the detonator 7 being unplugged at the front not separated from the sleeve 14 of the detonation amplifier 8 from the dense slider portion 10 which is offset and a spring-loaded and on the same side with the spring 11 in the diametrical Goa front of the body 33, and on the other hand, the slider 10 is retained laterally by the originator in the Re stem of the stopper 31 of the device for remote transfer bar 5 (see Fig. 3).

The slider 10 thus formed, together with the spring 11 and the remote mounting device 5, constitute the safety module 4.

To the left of the detonator 7 coaxially in the longitudinal groove of the body 33 is positioned in accordance with the direction of the arrow B in the starter module 3, the device of which is shown in detail in FIG. 2.

Contrary to the initial ejection module 3, a cylindrical orifice of the body 33 coaxially with the detonator 7 is positioned in accordance with the direction of the arrow With a remote ejection device 5, the device of which is shown in detail in FIG. 3.

A detonation amplifier 8 consisting of a sleeve 14 with a central socket with a bottom in which a charge 15 of the amplifier 8 is pressed into the opening of the body 33 directly next to the slider 10 is charged, with the charge 15 being conical cumulative recess with a metal lining 16 therein, directed substantially to the detonator module 9.

The fuse outlet assembly is shaped as a detonator module 9, which is housed in a detonator cup 17 and coaxially fronted in the fuse body 1, resting first with its cap 18 on the detonator amplifier sleeve 8.

In FIG. 1 shows an embodiment of a detonator module 9 having a radially reinforced detonation capability, for which a detonator charge 20 is occupied in the detonator cup 17 of a high-explosive explosive, occupying a volume formed by deformable pads 21 mounted at its bottom and the sleeve 19 with a central conical-cylindrical opening, the rear face of the sleeve 19 is closed by a cap 18. The arrows in the charge 20 show the directions of propagation of the detonation in the detonator module thus formed.

The initial erection module 3 (Fig. 2), in turn, is arranged by a body 22 with two lateral cylindrical openings and a groove in its central part. In the side opening with arrow B is placed a weight 23, which engages with its forehead sideways with one end of the retaining lever 24, which is pivotally mounted on the axis 25 in the groove of the body 22, and in the opposite side opening are accommodated by a spring of impactor 27 with a cable 26 held in the shown unbuilt state by engaging with the other end of the retaining lever 24 (with a fuse assembled). Contrary to the impactor with a strand 26, a firing capsule 28 is fixed in the opening at the level at which a feed channel E is provided in the body 22. This channel has a continuation G in the body 33 reaching the longitudinal cock 5.

The remote lifting device 5 itself (Fig. 3) is designed as a pyrotechnic retarder, with a shell of pyrotechnic composition 30 having a case-specific selection pressed into the liner 29 with a lateral opening F near its bottom. the front of the composition 30 is supported by a spring 32 of a stop with a stem 31.

The remote control device is oriented and fixed in the opening of the body 33 to the opening of the detonator 7 so that the opening F is located in the area of the feed channel G and the stopper stem 31 enters the groove of the body 33, with which it holds (stop) laterally displaced slider 10 resting on it with no rest.

To provide a circuit for actuation of the transducer 1 in a piezoelectric manner (first independent detonation circuit), a spring contact stem 12 and a contact spring 13, in contact with the housing 6 respectively, are arranged in a side opening of the body 33 to the opening for the remote sensing device 5. the autonomous piezogenerator 2 and with the sleeve 14 of the detonation amplifier 8.

For the second independent firing and detonation circuit in the fuse body 33 at 90 ° from that shown in FIG. 1, a standard inertial liquidator is housed in a contiguous side opening adjacent to one side.

The detonation amplifier 8 except in the manner of FIG. 1 can be arranged as in FIG. 4 and FIG. 5.

In FIG. 4 shows a detonation amplifier 8 providing a circular (annular) initiation of the detonator module 9, for which the bottom with the bottom in the sleeve 14 is filled in a broad and T-shaped configuration, and a blast wave guide is introduced centrally in the charged charge 15. element - cone-shaped inert body 34 with a cone pointing to the bottom.

To initiate the detonator module 9 according to the scheme of a plane shock wave generator, the detonation amplifier 8 is arranged as shown in FIG. 5, wherein in the center-width extended socket with a bottom in the sleeve 14, the lenticular charge 35 and charge 36 are pressed sequentially and complementary to each other, the first being a high-explosive explosive of that of charge 36.

In FIG. 6 shows an embodiment of the detonator module 9 with axially reinforced detonation capability. For this purpose, the detonator cup 17 is provided with a cumulative lining 38 formed at the bottom and therein is placed a deformable cylindrical sleeve 37, which acts as a lateral damper, in which a detonator charge 20 is successively pressed with a cumulative cavity having defined by the metal lining 38 times geometry, and the cap 18.

The detonator module 9 may be provided with a composite detonator charge for forming a certain geometry of the edge of the outgoing blast wave, flat, lens, etc. In FIG. 7 shows an embodiment for the first case in which the cone-shaped charge 39 and charge 40 are sequentially pressed into the detonator cup 17, the latter being a higher-explosive explosive than that of charge 39, and the cap 18.

Use of the invention

Fuze 1 according to its embodiment according to FIG. 1 operates in the composition of the fired ammunition as follows.

Prior to firing, the individual elements occupy the position described corresponding to the unexposed state of the fuse. In this state, the protection module 4, by means of the slider 10, separates the detonator 7 from the detonation amplifier 8 and thus ensures the safety of the fuse in service and when fired until it is fully erected.

When fired by inertial overloads, the weight 23 in the initial ejection module 3 rotates the retaining lever 24, overcoming the resistance of the spring 27 and the inertia of the impactor 26 until it engages with the lever 24, after which the latter is released and the impactor 26 is fired. "From the coiled spring 27 with virtually the same force (regardless of the inertial firing effort), engaging and reliably igniting the igniter capsule 28.

The products of actuation of the capsule igniter 28, passing through the channel E in the body 22, reach by means of its extension G in the body 33 to the long-distance device (pyrotechnic retarder) 5 and ignite the pyrotechnic composition 30 therein. After the composition 30 burns for a certain amount of time, under the action of the spring 32, the stopper 31 moves inward into the sleeve 29, releasing the locked slider 10.

Under the action of the spring 11, the latter moves in the groove of the body 33 in the direction of the arrow D, in which the side opening of the slider 10 is centered and the detonator 7 falls into it, coming into contact with the sleeve 14. Thus, and through the contact spring 13 and the step 12 of the piezogenerator circuit 2 is closed through the detonator 7, and the fuse 1 is cocked and ready to be actuated piezoelectrically by a barrier impact (first independent firing and detonation circuit). At the same time, the standard inertial liquidator is raised under the action of inertial forces. In an encounter (strike) at a target or barrier according to the conditions of the encounter (strike) and the set sensitivity of the piezo generator 2 and the inertial liquidator, one of the two explosion circuits is activated, as a rule, the piezoelectric.

The sensitivity of an inertial liquidator is generally chosen such that it will in any case explode last if the faster piezoelectric explosion circuit is not triggered, wherein the electrodetonator 7 is initiated by a capsuldetonator in the inertial liquidator, analogously to inertia by inertia. self-destructor in the known fuze [1].

The blast pulse from the detonator 7 is transmitted through the bottom of the socket in the sleeve 14 to the charge 15 of the detonation amplifier 8, which for the depicted in FIG. 1 embodiment, due to its cumulative cavity and lining 16, detonates with an axially increased blast wave power and detonates the detonator module 9.

The detonator charge 20 in the latter detonates, transmitting a bursting impulse to the ammunition according to its design. For the depiction of FIG. 1, the detonator module 9 is formed by an increased radially detonating and explosive shock wave, and its action in the axial direction is weakened by the damping effect of the deformable pads 21.

The detonation amplifier 8 and the detonator module 9 are interchangeable in their respective ammunition, and the detonator 7 is a common element in the detonation circuit of fuse 1 for the two blast circuits.

Initial erection at different inertial overloads according to the ammunition unit 1 supplied with the ammunition is only ensured by selecting the parameters of gravity 23, spring 27 and striker 26.

The required delay in the operation of the remote cocking module 4 for different ammunition is achieved by selecting the characteristics and the method of pressing the pyrotechnic composition 30 into the sleeve 29 of the remote cocking device 5.

The blower according to the invention can be manufactured from accessible materials and by traditional means of industry and technical means.

Claims (5)

Claims 1. A multifunctional piezoelectric fuse composed as a whole of an autonomous piezoelectric generator and a fuse body connected to one another, with a spring slider fitted in the fuse body diametrical groove which is provided with a longitudinal opening and laterally locked with a spacer housing delayed, and in its opening is a detonator followed by a transmitter charge of a diamond explosive placed in a cup with a cap centrally located in the opening of the body and coaxially positioned in front of the body it is a cup with a detonator of a diamond explosive, with a pyrotechnic or inertial liquidator and, separately from it, a fixed core and a movable capsule-type igniter, spaced from one another and spaced apart from the diametrical groove in longitudinal openings in the body of the fuze. provided that the fuse (1) consists of a rearward-coupled rearward-firing autonomous pie-generator (2) housed in a metal housing (6) and a body (33) made of non-combustible and non-conductive material, and a row in the opening of the body (33) next to the diametrical groove filled therein is a replaceable detonation amplifier (8), directed forward with the cumulative cavity of its charge (15), followed by a detonator module coaxially arranged next to it with its cap (18). (9), as standard in the opening of the body (33), in contact with the piezo generator (2) a standard electric detonator (7), and in the lateral longitudinal groove of the housing (33) of the fuse (1) there is a module for initial erection ( 3) mounted in a body (22) with a feed channel (E), reaching through a filled as not a continuation in the body (33) of the channel (G) to a longitudinal opening device (5) arranged in a longitudinal opening on the other side of the detonator (5), which is arranged so that its stem (31) protrudes into the diametrical groove and the lateral its feed opening (F) is located in the area of the channel (G) of the body (33), and in the diametrical groove in front of the body (33) there is a slider with a lateral opening (10), which is displaced by its opening to the side and is spring-loaded on the same side by a spring (11) until it is locked on the other side into the stem (31), separating by way ahead of the detonator (7) from the detonation amplifier (8) and, in conjunction with the spring (11) and the long-distance mounting device (5), the fuse protection module (4) and in the lateral longitudinal opening of the body (33) ) a spring contact stem (12) and a contact spring (13) are permanently in contact with the opening of the long-distance device (5), in constant contact with the housing (6) of the autonomous piezo generator (2) and the detonator amplifier sleeve (14), respectively. 8). Multifunctional piezoelectric fuse according to claim 1, characterized in that the initial ejection module (3) is arranged by a body (22) with two coaxially cylindrical openings and a groove in its central part, in one of the openings being located weight (23) fastened to the front end with one end of the hinge in the central part on an axis (25) of a retaining lever (24), and in the second lateral opening a spring (27) and a spring-loaded impactor (26) held therein in this position by engaging with the other end of the retaining elk t (24), with a fixed capsule igniter (28) fixed in the same opening opposite to the impactor (26), and a discharge channel (E) is filled longitudinally in the body (22) at the level of the capsule igniter (28). Multifunctional piezoelectric fuse according to Claims 1 and 2, characterized in that the long-distance ejection device (5) is provided, with a pyrotechnic composition post pressed into the sleeve (29) with a lateral opening (F) near its bottom. (30) and in the open face of the composition (30) is supported by a spring (32) stopper with a stem (31). Multifunctional piezoelectric fuse according to claims 1, 2 and 3, characterized in that the detonation amplifier (8) is arranged in a sleeve (14), the amplifier (8) being arranged in a sleeve (14) having a front in it. a filled center socket with a bottom in which a charge (15) is pressed from a blasting explosive material with a cavity shaped cavity formed at the front, where a metal lining (16) may be located, or the detonation amplifier (8) is arranged with the central socket of the sleeve (14) is extended and T-shaped from its front that lo, and together with the charge (15) from the same forehead, a cone-shaped inert body (34) is pressed into the sleeve socket (14), with a cone-tip pointing towards the bottom and with a diameter at the base constituting from 0.25 to 0.75 of the diameter of the expansion or the detonation amplifier (8) is arranged, with a first charge (35) pressed into a diameter-extended socket of the sleeve (14), the central part of which is formed by a certain configuration and dimensions, and complementary thereto. from the front face of the sleeve (14) is pressed a second charge (36) of a brilliantly selected other in Rivne substance as formed by detonation amplifier (8) the explosive shock wave. Multifunctional piezoelectric fuse according to claims 1, 2, 3 and 4, characterized in that the detonator module (9) is arranged by a detonator cup with a bottom (17) in which a detonator charge (20) is pressurized by a high-explosive substance. occupying a T-shaped volume formed by deformable washers (21) and a rear sleeve (19) having a central conical-cylindrical bore (19), closed by a cap (18), or the detonator module (9) is arranged, the detonator cup (17) being filled with a bottom, forming but with its base aimed at the initiated ammunition, the metal cumulative lining (38), and in the detonator cup (17) there is a cylindrical sleeve of deformable material (37) in which the detonator charge (20) is sequentially pressed with a cumulative cavity having defined of the lining (38) dimensions and geometry, and the cap (18), or the detonator module (9) is arranged, with a charge and a complementary charge (39) having a cone-shaped or other selected geometry pressed into the detonator cup (17) and dimensions, and on it a charge (40) of odbrano in Shattering another explosive according formed by detonation amplifier (9) to output initiated munition explosive shock wave.