阅读说明：本技术 一种炮射试验用能源装置 (Energy device for gun shooting test ) 是由 黄琼 阮凌飞 程舟 于 2021-10-29 设计创作，主要内容包括：本发明公开了一种炮射试验用能源装置,属于能源技术领域,解决炮射试验引信供电问题。本发明包括管制机构、击发机构、热电池部件、锁定销、本体、压板和侧压螺。管制机构包括惯性体、弹簧、钢球和压螺,管制机构中惯性体和钢球利用膛内过载反向运动,钢球掉入本体的侧孔内,在出炮口后弹簧驱动惯性体正向运动,从而解除对击发机构的约束。击针在击针簧的抗力作用下击发热电池,热电池输出电能。本发明具有构思巧妙、安全性高、不易误触发、工作可靠等优点。(The invention discloses an energy device for a gun shooting test, belongs to the technical field of energy, and solves the problem of power supply of a fuse of the gun shooting test. The invention comprises a control mechanism, a firing mechanism, a thermal battery component, a locking pin, a body, a pressure plate and a lateral pressure screw. The control mechanism comprises an inertial body, a spring, a steel ball and a pressing screw, wherein the inertial body and the steel ball in the control mechanism move reversely by utilizing the overload in the chamber, the steel ball falls into the side hole of the body, and the spring drives the inertial body to move in the forward direction after the steel ball is discharged from the gun hole, so that the restraint on the firing mechanism is removed. The firing pin fires the thermal battery under the resistance action of the firing pin spring, and the thermal battery outputs electric energy. The invention has the advantages of ingenious conception, high safety, difficult false triggering, reliable work and the like.)

1. The utility model provides a gun is shot energy device for experiment which characterized in that: comprises a body, a control mechanism, a firing mechanism, a thermal battery component and a locking pin which are arranged in the body;

in an initial state, the locking pin is positioned between the control mechanism and the firing mechanism, the body locks the position of the control mechanism, the control mechanism locks the position of the locking pin, and the locking pin locks the firing mechanism above the thermal battery component and is isolated from the thermal battery component;

under an overload condition, the control mechanism is started to keep locking the locking pin;

after the overload condition disappears, the body, the control mechanism, the locking pin and the trigger mechanism sequentially transmit unlocking in pairs, the trigger mechanism triggers the thermal battery component, and the energy device outputs electric energy outwards.

2. The energy source device for a shot firing test as set forth in claim 1, wherein:

the control mechanism comprises an inertial body, a spring and a steel ball, and the spring, the inertial body and the steel ball are sequentially arranged from top to bottom along the axis direction.

3. The energy source device for a shot firing test as set forth in claim 2, wherein:

the body is sequentially provided with a guide hole, an accommodating hole and a limiting hole;

an inertial body and a spring are arranged in the guide hole;

the steel ball is accommodated in the accommodating hole, and the diameter of the limiting hole is smaller than that of the accommodating hole and the diameter of the steel ball and larger than that of the inserted part of the inertia body;

in an initial state, the inertial body presses the steel ball at the end part in the accommodating hole by virtue of the spring, at the moment, the outer wall of the inertial body is abutted and locked with the locking pin and is isolated from the thermal battery component, and the whole energy device cannot output electric energy outwards;

under the overload condition, the inertial body and the steel ball compress the spring to return, the containing hole releases the restraint on the steel ball, and the outer wall of the inertial body is still abutted to and locks the locking pin;

after the overload disappears, the steel ball relieves the constraint on the inertial body, the inertial body is inserted into the limiting hole, and the outer wall of the inertial body does not constrain the locking pin any more.

4. The energy source device for a shot firing test as set forth in claim 3, wherein:

and a through lateral groove is formed in the wall body of the guide hole and used for releasing the limit of the inertial body inserted into the limit hole when the steel ball returns and falls into the lateral groove under the action of gravity.

5. The energy source device for a shot firing test as set forth in claim 3, wherein:

the inertial body is approximately T-shaped and comprises a first cylinder and a second cylinder;

the first cylinder is arranged on the inner wall of the guide hole in a sliding manner; the end part of the second cylinder props against the steel ball in an initial state, and is inserted into the limiting hole after the overload disappears.

6. The energy source device for a shot firing test as set forth in claim 2, wherein:

the body is in one side of control mechanism still sets up percussion hole and battery hole from top to bottom in proper order, is used for holding percussion mechanism and thermal battery part respectively.

7. The energy source device for a shot firing test as set forth in claim 6, wherein:

the firing mechanism comprises a firing pin and a firing pin spring, the control mechanism locks the firing pin through a locking pin, and the firing pin spring is initially in a compressed state and used for providing kinetic energy for the motion of the firing pin.

8. The energy source device for a shot firing test as set forth in claim 7, wherein:

the thermal battery component comprises a thermal battery, a heat insulation sleeve and a bottom pad;

the thermal battery component is arranged at the lower end of the firing mechanism, the firing end face of the thermal battery is opposite to the firing pin, and the bottom pad of the thermal battery component is fixed on the body.

9. The energy source device for a shot firing test as set forth in claim 7, wherein:

the locking pin is arranged in a side hole of the inertial body, and the side hole is communicated with the guide hole and the firing hole;

one side of the locking pin is inserted into the side edge of the striker, and the other side of the locking pin is pressed against the outer wall of the inertial body.

10. The energy source device for a shot-peening test according to claim 9, wherein:

one side of the locking pin is of a ball head structure, one side of the locking pin is of a cylindrical structure, one side of the ball head is inserted into the lateral annular groove of the firing pin to lock the firing pin, and one side of the cylindrical structure abuts against the outer wall of the inertial body.

Technical Field

The invention belongs to the technical field of energy, and particularly relates to an energy device for a shot-firing test.

Background

The shot test is an important assessment item for assessing the performance of the fuze and the bullet. For the fuse, energy is generally needed to supply power to the fuse, and in order to ensure the safety of the fuse in the artillery, the fuse is generally expected to be supplied with power after the fuse is discharged from a muzzle for a certain distance, so that the safety of the fuse can be ensured, and the safety of a shot firing test is ensured from a design source.

Because the energy of the common fuse is provided by the missile system, the energy for supplying power to the fuse is preferably in a plug-in mode during the shot test, so that the state change of the fuse can be ensured to be minimum. The safety and operational reliability of the energy device is of great importance, since its operational performance directly affects whether the fuse can operate reliably.

Disclosure of Invention

In view of at least one of the above drawbacks or needs for improvement in the prior art, the present invention provides an energy device for a shot-peening test, including a tube control mechanism, a firing mechanism, a thermal battery unit, a locking pin, a body, a pressing plate, and a lateral pressing screw. The control mechanism comprises an inertial body, a spring, a steel ball and a pressing screw, wherein the inertial body and the steel ball in the control mechanism move reversely by utilizing the overload in the chamber, the steel ball falls into the side hole of the body, and the spring drives the inertial body to move in the forward direction after the steel ball is discharged from the gun hole, so that the restraint on the firing mechanism is removed. The firing pin fires the thermal battery under the resistance action of the firing pin spring, and the thermal battery outputs electric energy. The invention solves the problem of power supply of the fuze in the shot-blasting test, and has the advantages of ingenious conception, high safety, difficult false triggering, reliable work and the like.

To achieve the above object, according to one aspect of the present invention, there is provided an energy source device for a shot test, wherein: comprises a body, a control mechanism, a firing mechanism, a thermal battery component and a locking pin which are arranged in the body;

in an initial state, the locking pin is positioned between the control mechanism and the firing mechanism, the body locks the position of the control mechanism, the control mechanism locks the position of the locking pin, and the locking pin locks the firing mechanism above the thermal battery component and is isolated from the thermal battery component;

under an overload condition, the control mechanism is started to keep locking the locking pin;

after the overload condition disappears, the body, the control mechanism, the locking pin and the trigger mechanism sequentially transmit unlocking in pairs, the trigger mechanism triggers the thermal battery component, and the energy device outputs electric energy outwards.

Further preferably, the control mechanism comprises an inertial body, a spring and a steel ball, and the spring, the inertial body and the steel ball are arranged in sequence from top to bottom along the axis direction.

Further preferably, the body is provided with a guide hole, a containing hole and a limiting hole in sequence;

an inertial body and a spring are arranged in the guide hole;

the steel ball is accommodated in the accommodating hole, and the diameter of the limiting hole is smaller than that of the accommodating hole and the diameter of the steel ball and larger than that of the inserted part of the inertia body;

in an initial state, the inertial body presses the steel ball at the end part in the accommodating hole by virtue of the spring, at the moment, the outer wall of the inertial body is abutted and locked with the locking pin and is isolated from the thermal battery component, and the whole energy device cannot output electric energy outwards;

under the overload condition, the inertial body and the steel ball compress the spring to return, the containing hole releases the restraint on the steel ball, and the outer wall of the inertial body is still abutted to and locks the locking pin;

after the overload disappears, the steel ball relieves the constraint on the inertial body, the inertial body is inserted into the limiting hole, and the outer wall of the inertial body does not constrain the locking pin any more.

Further preferably, a through lateral groove is formed in a wall body of the guide hole, and is used for releasing the limit of the inertial body inserted into the limit hole when the steel ball retracts and falls into the lateral groove under the action of gravity.

Further preferably, the inertial body is substantially T-shaped and comprises a first cylinder and a second cylinder;

the first cylinder is arranged on the inner wall of the guide hole in a sliding manner; the end part of the second cylinder props against the steel ball in an initial state, and is inserted into the limiting hole after the overload disappears.

Further preferably, a firing hole and a battery hole are further sequentially arranged in the body up and down on one side of the control mechanism and are respectively used for accommodating the firing mechanism and the thermal battery component.

Further preferably, the firing mechanism includes a firing pin and a firing spring, the firing pin is locked by the locking pin by the regulating mechanism, and the firing spring is initially in a compressed state to provide kinetic energy for the movement of the firing pin.

Further preferably, the thermal battery component comprises a thermal battery, a heat insulating sleeve and a base mat;

the thermal battery component is arranged at the lower end of the firing mechanism, the firing end face of the thermal battery is opposite to the firing pin, and the bottom pad of the thermal battery component is fixed on the body.

Further preferably, the locking pin is placed in a side hole of the inertial body, and the side hole is communicated with the guide hole and the firing hole;

one side of the locking pin is inserted into the side edge of the striker, and the other side of the locking pin is pressed against the outer wall of the inertial body.

Further preferably, one side of the locking pin is of a ball head structure, the other side of the locking pin is of a cylindrical structure, one side of the ball head is inserted into the lateral annular groove of the firing pin to lock the firing pin, and one side of the cylindrical structure abuts against the outer wall of the inertial body.

The above-described preferred features may be combined with each other as long as they do not conflict with each other.

Generally, compared with the prior art, the above technical solution conceived by the present invention has the following beneficial effects:

1. high safety and difficult false triggering. The energy device can not act accidentally even if being subjected to shaking, centrifugal force, collision and the like, and the starting overload is set to be larger, so that the overload is not easy to generate in ordinary environments; and the energy device needs to reliably move the inertial body into the limit hole to realize power supply, but due to the limit of the steel ball, the space and physical isolation between the inertial body and the limit hole of the body is caused, and the structural form is not easy to malfunction. And after the energy device is arranged in the artillery, the energy device can not act at all, only the artillery generates bore pressure to enable the control mechanism to act reversely, at the moment, the firing mechanism can not act, and after the bore pressure disappears due to the muzzle outlet, the control mechanism can act in place in the forward direction again and remove the restraint on the firing mechanism, so that the firing mechanism acts. This design essentially ensures the safety of the energy source device.

2. The reliability is high, and the fuse is powered after the fuse is discharged from the blast hole. The unique structural design of the energy device ensures that the energy device can only be started by sensing high overload, and the overload in the bore of the artillery is generally 15000m/s²Therefore, the inertia body can reliably move in place in the reverse direction, and the steel ball passes through the chamberThe spring in a compressed state can reliably drive the inertial body to move in place after overload in the chamber disappears, the second cylindrical end of the inertial body is inserted into the limiting hole of the body, so that the constraint on the locking pin is reliably removed, the locking pin moves into the guide hole, the firing pin moves under the action of resistance of the firing pin spring, the generated kinetic energy reliably fires the thermal battery, and the thermal battery outputs electric energy. The operational reliability of the energy source device is essentially ensured.

Drawings

Fig. 1 is a schematic view of an initial state structure of an energy device according to the present invention;

fig. 2 is a schematic structural view of a state in which the energy source device of the present invention is subjected to an overload motion in the bore;

FIG. 3 is a schematic structural view of the energy source device of the present invention in a state of being moved in place;

FIG. 4 is an exploded view of a regulatory agency of the present invention;

FIG. 5 is an exploded view of the firing mechanism of the present invention;

FIG. 6 is an exploded view of a thermal battery component of the present invention;

FIG. 7 is a schematic view of the structure of the present invention with the pressure plate attached to the thermal battery part.

Detailed Description

In order to make the objects, technical solutions and advantages of the present invention more apparent, the present invention is described in further detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the invention and are not intended to limit the invention. In addition, the technical features involved in the embodiments of the present invention described below may be combined with each other as long as they do not conflict with each other. The present invention will be described in further detail with reference to specific embodiments.

As a preferred embodiment of the present invention, as shown in fig. 1 to 7, the present invention provides an energy source device for a shot test, in which: comprises a body 5, a control mechanism 1, a firing mechanism 2, a thermal battery component 3 and a locking pin 4 which are arranged in the body 5;

as shown in fig. 1, in an initial state, the locking pin 4 is located between the regulating mechanism 1 and the firing mechanism 2, the body 5 locks the position of the regulating mechanism 1, the regulating mechanism 1 locks the position of the locking pin 4, and the locking pin 4 locks the firing mechanism 2 above the thermal battery component 3 and is isolated from each other;

as shown in fig. 2, in an overload condition, the regulating mechanism 1 is activated to maintain the locking of the locking pin 4;

as shown in fig. 3, after the overload condition disappears, the body 5, the control mechanism 1, the locking pin 4 and the trigger mechanism 2 sequentially transmit unlocking in pairs, the trigger mechanism 2 triggers the thermal battery component 3, and the energy device outputs electric energy outwards.

As shown in fig. 4, it is further preferable that the control mechanism 1 includes an inertial body 1-1, a spring 1-2 and a steel ball 1-3, and the spring 1-2, the inertial body 1-1 and the steel ball 1-3 are sequentially arranged from top to bottom along the axial direction.

As shown in fig. 1-3, it is further preferable that the body 5 is provided with a guide hole, a containing hole and a limiting hole in sequence;

an inertial body 1-1 and a spring 1-2 are arranged in the guide hole;

the steel ball 1-3 is accommodated in the accommodating hole, and the diameter of the limiting hole is smaller than that of the accommodating hole and the diameter of the steel ball and larger than that of the inserted part of the inertia body 1-1;

in an initial state, the inertial body 1-1 presses the steel ball 1-3 at the end part in the accommodating hole by means of the spring 1-2, at the moment, the outer wall of the inertial body 1-1 is abutted and locked with the locking pin 4 and is isolated from the thermal battery component 3, and the whole energy device cannot output electric energy outwards;

under the overload condition, the inertial body 1-1 and the steel ball 1-3 compress the spring 1-2 to retract, the containing hole releases the restraint on the steel ball 1-3, and the outer wall of the inertial body 1-1 is still abutted to and locks the locking pin 4;

after the overload disappears, the steel ball 1-3 releases the constraint on the inertial body 1-1, the inertial body 1-1 is inserted into the limiting hole, and the outer wall of the inertial body 1-1 does not constrain the locking pin 4 any more.

Further preferably, a through lateral groove is formed in the wall body of the guide hole, a threaded hole is formed in the outer end of the lateral groove and used for placing a lateral pressing screw 7, the lateral groove of the body 5 is arranged, the lateral pressing screw 7 is fixed at the outer end of the lateral groove, the lateral groove is mainly used for enabling the steel ball 4 to return and fall into the lateral groove under the action of gravity, and the limit that the inertial body 1-1 is inserted into the limit hole is removed.

Further preferably, the lateral grooves are in the form of a continuous ring sector, or in the form of a plurality of spaced concentric sectors, the withdrawn ball 4 being located at the centre of the circle. Preferably, the lateral grooves of the balls are oriented in the direction of gravity when mounted.

3-4, it is further preferred that the inertial body 1-1 is a generally T-shaped stepped cylinder comprising a first cylinder and a second cylinder; the first cylinder is internally provided with a blind hole for placing a spring 1-2, the spring 1-2 is placed between an inertial body 1-1 and a pressing screw 1-4 and is in a compressed state, the compression amount is 10% -15%, and the end part of the second cylinder of the inertial body 1-1 abuts against the steel ball 1-3 so as to be limited; the first cylinder is arranged on the inner wall of the guide hole in a sliding manner; the end part of the second cylinder props against the steel balls 1-3 in an initial state, and is inserted into the limiting hole after overload disappears. The upper end of the guide hole is provided with threads, and the pressing screw 1-4 is installed on the upper end of the guide hole.

It is further preferred that the difference between the radii of the first and second cylinders is much smaller than the diameter of the steel ball, for example less than one third of the latter (fig. 1-3 are merely examples, and the proportions are not limiting), so as to avoid the steel ball from mistakenly falling into the radius difference empty slot at the side of the first cylinder, but directly falling into the lateral slot under the action of gravity. Or, further preferably, even if the difference between the radii of the first cylinder and the second cylinder is larger than the diameter of the steel ball (not shown), even if the steel ball should fall into the radius difference empty groove, the steel ball will be pushed into the lateral groove through the slope in the process of resetting the first cylinder by forming the wall surface of the guide hole above the lateral groove into the slope (the wall surface is more downward and more toward the lateral groove); preferably, the lower surface of the first cylinder is inclined from the bottom to the top, from the inside to the outside; preferably, the lower surface of the lateral groove slopes in a bottom-to-top, outside-to-inside direction. Or, further preferably, the guide hole is also a T-shaped groove (not shown), which is divided into an upper groove and a lower groove, and is matched with the T shape of the inertia mass, in a state of being in place, the bottom of the second cylinder is basically aligned with the upper inner wall of the lateral groove positioned in the lower groove section, and the radius difference empty groove is positioned in the upper groove section, and a certain thickness distance is arranged above the opening of the lateral groove, so that the gravity of the steel groove is not influenced and the steel groove falls off; alternatively, and further preferably, when the inertial body and the pilot bore are all through walls of equal diameter (not shown), the lower end of the inertial contact body is also substantially aligned with the upper inner wall of the lateral slot when in position.

Further preferably, a firing hole and a battery hole are further sequentially arranged in the body 5 up and down on one side of the control mechanism 1 and are respectively used for accommodating the firing mechanism 2 and the thermal battery component 3, and a blind hole is further formed in the bottom end of the battery hole and used for placing the pressing plate 6.

As shown in fig. 5, it is further preferred that said firing mechanism 2 comprises a firing pin 2-1 and a firing spring 2-2, that the regulating mechanism 1 locks the firing pin 2-1 by means of a locking pin 4, that the firing spring 2-2 is initially in a compressed state for providing kinetic energy to the movement of the firing pin 2-1.

As shown in fig. 6-7, it is further preferred that the thermal battery part 3 includes a thermal battery 3-1, a heat insulating jacket 3-2, and a base mat 3-3; the thermal battery component 3 is arranged at the lower end of the firing mechanism 2, the firing end face of the thermal battery 3-1 is opposite to the firing pin 2-1, and the bottom pad 3-3 of the thermal battery component 3 is fixed on the body 5 through the pressing plate 6 and the screw.

1-3, it is further preferred that the locking pin 4 is placed in a side hole of the inertial body 1-1, which communicates with the pilot hole and the firing hole; one side of the locking pin 4 is inserted into the side edge of the striker 2-1, and the other side of the locking pin is pressed against the outer wall of the inertial body 1-1. Further preferably, one side of the locking pin 4 is of a ball head structure, the other side of the locking pin is of a cylindrical structure, one side of the ball head is inserted into the lateral annular groove of the firing pin 2-1 to lock the firing pin 2-1, and one side of the cylindrical structure abuts against the outer wall of the inertial body 1-1.

Further preferably, the pressing plate 6 is used for fixing the thermal battery component 3, has two threaded holes thereon, and is fixed on the body 5 through screws, and the pressing plate 6 has a notch for facilitating leading out of a lead at an output end of the thermal battery component 3.

Further preferably, the lateral compression screws 7 are fixed at the lateral groove outer ends of the body 5 to prevent the steel balls 1-3 from coming out of the body 5.

Further preferably, the inertial body 1-1 is directed towards the spring 1-2 in a direction opposite to the direction of movement of the energy means out of the bore when loaded into the bore.

Further preferably, the diameter of the second cylinder of the inertial body 1-1 is smaller than the diameter of the limiting hole of the body 5.

Further preferably, in the initial installation state, the distance between the upper end surface of the first cylinder of the inertial body 1-1 and the lower end surface of the pressing screw 1-4 is smaller than the distance between the lower end surface of the locking pin 4 and the lower end surface of the first cylinder of the inertial body 1-1; after the steel ball 1-3 moves into the lateral groove of the body 5, the second cylinder of the inertial body 1-1 is inserted into the limit hole of the body 5, and the upper end surface of the first cylinder of the inertial body 1-1 is positioned at the lower end of the locking pin 4, so that the constraint on the locking pin 4 can be completely removed.

Further preferably, the direction of the lateral groove of the body 5 pointing to the outer end of the body to install the lateral pressing screw 7 is coincident with the direction of the gravity sensed by the energy device, and the height and the width of the lateral groove are both larger than the diameter of the steel ball 1-3.

Further preferably, the heat insulation sleeve 3-2 is processed by a phenolic aldehyde laminated cloth rod and used for heat insulation, the bottom mat 3-3 is a 6144 silicon rubber sheet material with the thickness of 1mm, and the bottom mat 3-3 protrudes out of the end face of the battery hole of the body 5 by about 0.1 mm-0.2 mm and is used for heat insulation and ensuring that the thermal battery component 3 is pressed and fixed by the pressing plate 6.

Further preferably, the relationship between the spring 1-2 and the inertia body 1-1 in the control mechanism 1 is that when the inertia body 1-1 compresses the spring 1-2 to move towards the pressing screw 1-4, the required starting overload is 2000m/s²～6000m/s²When the inertial body 1-1 compresses the spring 1-2 to move to the position of the pressing screw 1-4, the required in-place overload is 8000m/s²～10000m/s²。

The working principle/power supply method of the invention is as follows:

as shown in figure 1, at ordinary times, the inertia body in the control mechanism is pressed against the steel ball due to the existence of the spring in a compression state on the inertia body, the steel ball is locked in the accommodating hole due to the existence of the body limiting hole, the control mechanism locks the firing mechanism through the locking pin, and the firing mechanism is constrained and cannot fire the heat battery. At this time, the whole energy device cannot output electric energy outwards.

As shown in figure 2, when the energy device is installed in the artillery, the direction of the inertial body pointing to the spring is opposite to the moving direction of the energy device coming out from the bore, and the direction of the body lateral groove pointing to the lateral pressing screw installed at the outer end of the body is coincident with the direction of gravity force felt by the energy device, when the artillery is launched, huge air pressure generated in the bore pushes the control switch to move outwards due to propellant, and huge overload is generated at the moment and is generally all at 15000m/s²And when the steel ball moves into the guide hole of the body, the steel ball slides into the lateral groove of the body under the action of self gravity.

As shown in fig. 3, after the energy device comes out of the bore of the gun, the overload in the bore disappears, the spring in the compressed state drives the inertial body to move towards the limit hole of the body, because the steel ball slides into the lateral groove of the body, the constraint on the inertial body is removed, the second cylindrical end of the inertial body passes through the containing hole of the body and enters into the limit hole, the constraint on the locking pin is removed by the inertial body, the firing pin moves under the resistance action of the firing pin spring, the generated kinetic energy reliably fires the thermal battery, and the thermal battery outputs electric energy.

In summary, compared with the prior art, the scheme of the invention has the following significant advantages:

1. high safety and difficult false triggering. The energy device can not act accidentally even if being subjected to shaking, centrifugal force, collision and the like, and the starting overload is set to be larger, so that the overload is not easy to generate in ordinary environments; and the energy device needs to reliably move the inertial body into the limit hole to realize power supply, but due to the limit of the steel ball, the space and physical isolation between the inertial body and the limit hole of the body is caused, and the structural form is not easy to malfunction. And after the energy device is arranged in the artillery, the energy device can not act at all, only the artillery generates bore pressure to enable the control mechanism to act reversely, at the moment, the firing mechanism can not act, and after the bore pressure disappears due to the muzzle outlet, the control mechanism can act in place in the forward direction again and remove the restraint on the firing mechanism, so that the firing mechanism acts. This design essentially ensures the safety of the energy source device.

2. The reliability is high, and the fuse is powered after the fuse is discharged from the blast hole. The unique structural design of the energy device ensures that the energy device can only be started by sensing high overload, and the overload in the bore of the artillery is generally 15000m/s²Therefore, the inertia body can reliably move reversely in place, the steel ball can also reliably fall into the lateral groove of the body under the action of overload and gravity in the chamber, after the overload in the chamber disappears, the spring in a compressed state can reliably drive the inertia body to move in place, the second cylindrical end of the inertia body is inserted into the limiting hole of the body, so that the constraint on the locking pin is reliably removed, the locking pin moves into the guide hole, the firing pin moves under the action of resistance of the firing pin spring, the generated kinetic energy reliably fires the thermal battery, and the thermal battery outputs electric energy. The operational reliability of the energy source device is essentially ensured.

It will be appreciated that the embodiments of the system described above are merely illustrative, in that elements illustrated as separate components may or may not be physically separate, may be located in one place, or may be distributed over different network elements. Some or all of the modules can be selected according to actual needs to achieve the purpose of the scheme of the embodiment. One of ordinary skill in the art can understand and implement it without inventive effort.

In addition, it should be understood by those skilled in the art that in the specification of the embodiments of the present invention, the terms "comprises," "comprising," or any other variation thereof, are intended to cover a non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements does not include only those elements but may include other elements not expressly listed or inherent to such process, method, article, or apparatus. Without further limitation, an element defined by the phrase "comprising an … …" does not exclude the presence of other identical elements in a process, method, article, or apparatus that comprises the element.

In the description of the embodiments of the invention, numerous specific details are set forth. It is understood, however, that embodiments of the invention may be practiced without these specific details. In some instances, well-known methods, structures and techniques have not been shown in detail in order not to obscure an understanding of this description. Similarly, it should be appreciated that in the foregoing description of exemplary embodiments of the invention, various features of the embodiments of the invention are sometimes grouped together in a single embodiment, figure, or description thereof for the purpose of streamlining the disclosure and aiding in the understanding of one or more of the various inventive aspects.

However, the disclosed method should not be interpreted as reflecting an intention that: that is, the claimed embodiments of the invention require more features than are expressly recited in each claim. Rather, as the following claims reflect, inventive aspects lie in less than all features of a single foregoing disclosed embodiment. Thus, the claims following the detailed description are hereby expressly incorporated into this detailed description, with each claim standing on its own as a separate embodiment of an embodiment of this invention.

Finally, it should be noted that: the above embodiments are only used to illustrate the technical solutions of the embodiments of the present invention, and not to limit the same; although embodiments of the present invention have been described in detail with reference to the foregoing embodiments, it should be understood by those skilled in the art that: the technical solutions described in the foregoing embodiments may still be modified, or some technical features may be equivalently replaced; and the modifications or the substitutions do not make the essence of the corresponding technical solutions depart from the spirit and scope of the technical solutions of the embodiments of the present invention.