WO2020019906A1 - 一种微型电动机动车破窗器 - Google Patents
一种微型电动机动车破窗器 Download PDFInfo
- Publication number
- WO2020019906A1 WO2020019906A1 PCT/CN2019/091820 CN2019091820W WO2020019906A1 WO 2020019906 A1 WO2020019906 A1 WO 2020019906A1 CN 2019091820 W CN2019091820 W CN 2019091820W WO 2020019906 A1 WO2020019906 A1 WO 2020019906A1
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- WIPO (PCT)
- Prior art keywords
- window
- sleeve
- window breaking
- thimble
- cam
- Prior art date
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Classifications
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- A—HUMAN NECESSITIES
- A62—LIFE-SAVING; FIRE-FIGHTING
- A62B—DEVICES, APPARATUS OR METHODS FOR LIFE-SAVING
- A62B3/00—Devices or single parts for facilitating escape from buildings or the like, e.g. protection shields, protection screens; Portable devices for preventing smoke penetrating into distinct parts of buildings
- A62B3/005—Rescue tools with forcing action
Definitions
- the invention relates to a window breaker, in particular to a miniature motor-driven vehicle window breaker capable of being controlled by a wire remote control.
- the existing window-controlling device for remote control by remote control generally adopts an electronic control method, and uses a magnetic attraction force to drive a rigid impact member such as a metal striker to hit a vehicle window to achieve the purpose of window breaking.
- a larger electromagnetic coil and current are required to generate sufficient power.
- the purpose of the present invention is to provide a micro-motor window-breaker for a motor with a simple structure, a smaller volume, and a lower requirement for a vehicle power source in order to overcome the disadvantages of the prior art.
- the present invention discloses a miniature electric motor vehicle window breaker, which is characterized by including a window breaking mechanism and a driving device, the window breaking mechanism includes a metal striker, and the driving device includes a first driving motor and a receiving device. A first cam driven by the first cam controls the movement of the metal striker to complete window breaking.
- the metal firing pin in the present invention is driven by a motor to drive the first cam, the structure is greatly simplified, the volume is reduced, and the cost is reduced. Furthermore, the speed reduction by the reducer makes the driving force output by the motor significantly larger. Increased, reduced requirements for working power, more suitable for promotion and application.
- FIG. 1 is a schematic diagram of a three-dimensional structure of a specific embodiment 1 of the present invention.
- FIG. 2 is a schematic diagram of the appearance of a specific embodiment 1 of the present invention (with a casing);
- FIG. 3 is a schematic structural diagram of a specific embodiment 1 (open state of the casing) of the present invention.
- FIG. 4 is a schematic exploded view of a partial structure of a specific embodiment 1 (with a casing) of the present invention
- FIG. 5 is a schematic view of a three-dimensional structure of a specific embodiment 2 (tension spring type) of the present invention.
- FIG. 6 is a partial cross-sectional view of an internal structure of a specific embodiment 2 (tension spring type) of the present invention.
- Figure 7 is a schematic diagram of the three-dimensional structure of the specific embodiment 2 (upper torsion spring type) of the present invention.
- FIG. 8 is a partial cross-sectional view of the internal structure of the specific embodiment 2 (upper torsion spring type) of the present invention.
- Figure 9 is a schematic diagram of the three-dimensional structure of the specific embodiment 2 (lower torsion spring type) of the present invention.
- FIG. 10 is a schematic diagram of an external three-dimensional structure of a specific embodiment of a manual pressing window breaking device according to the present invention.
- FIG. 11 is a front view of a specific embodiment of a manual pressing window breaking device according to the present invention.
- FIG. 12 is a cross-sectional view of the structure of FIG. 11 A-A;
- FIG. 13 is a partially exploded schematic diagram of the structure of a manual pressing window breaking device of the present invention.
- FIG. 14 is a schematic diagram of the external appearance of a manual pressing window breaking device (with a pressing cap) according to an embodiment of the present invention.
- FIG. 15 is a schematic partial exploded view of the structure of a specific embodiment of a manual pressing window breaking device (with a pressing cap) according to the present invention.
- FIG. 16 is one of the partial exploded schematic diagrams of the specific embodiment 5 of the present invention.
- Figure 17 is a partial exploded schematic view of a specific embodiment 5 of the present invention.
- FIG. 18 is a schematic partial exploded view of the structure of another embodiment of the manual pressing window breaking device (with a pressing cap) according to the present invention.
- FIG. 19 is a rear view of the structure of another embodiment of a manual pressing window breaking device (with a pressing cap) according to the present invention.
- Fig. 20 is a sectional view of the structure of Fig. 19 B-B.
- the micro-motor window breaking device of the present invention includes a window breaking mechanism and a driving device.
- the window breaking mechanism includes a metal striker.
- the driving device includes a first driving motor and a first cam driven by the driving device.
- the first cam controls the movement of the metal striker to complete the window breaking.
- the metal striker is preferably made of a metal material with high hardness and strength, and the front end is preferably tapered.
- the window breaking mechanism may have different structural forms, for example, one type has an elastic energy storage member, and the metal striker strikes a vehicle window under the action of the elastic energy of the elastic energy storage member to complete the window breaking; the other type may be through
- the cam in the driving device directly drives the metal striker to hit the vehicle window to complete the window breaking.
- the window breaking mechanism further includes a metal striker, a first elastic energy storage member, and an energy storage driving and releasing device.
- the first elastic energy storage member is in the energy storage driving and releasing device. Driven by energy storage, and released after storing sufficient elastic energy, the metal striker hits the window under the action of the elastic energy, and the energy storage drive and release device includes a first drive motor and driven by it.
- the first cam drives the energy storage and release of the first elastic energy storage member.
- the metal striker is preferably made of a metal material with high hardness and strength, and the front end is preferably tapered.
- the first elastic energy storage member is driven by an energy storage drive and a release device. Description
- the first elastic energy storage member is composed of a strip spring steel 6 having elasticity, such as carbon spring steel or alloy spring steel.
- the first elastic energy storage member One end is fixed and the other end is a free end.
- the metal striker 7 is fixed on the free end.
- the first cam 8 is provided on one side of the free end. The free end of the first elastic energy storage member is attached. On the cam surface of the first cam 8.
- the micro-motor vehicle window breaker is provided with a rectangular shell (of course, other shapes can also be selected according to specific conditions), as shown in Figure 2-4, the shell includes A lower case 10 and an upper cover 11 are provided with a fixing post at a position near the corner in the lower case 10, and the first elastic energy storage member is arranged on one side and one end is fixed on the fixing post. top.
- the first drive motor 9 in the energy storage drive and release device is fixedly disposed against the side adjacent to the free end in the lower housing 10.
- the first drive motor 9 is a micromotor, preferably a micromotor with a reduction mechanism. The rotation speed can be determined according to design requirements.
- the rotation speed is about 60 rpm, which can output a large torque and keep the window broken once every second.
- the output shaft of the micromotor is close to the first elastic energy storage member. Free end setting.
- the eccentricity of the first cam 8 driven by the micro-motor needs to meet the requirements of energy storage. After reaching the maximum eccentric point, the eccentricity is quickly reduced to the minimum eccentric point.
- the contour of the first cam 8 in this embodiment is similar to that of involute opening.
- the first cam 8 is fixed on the output shaft of the miniature motor 9 when the maximum eccentric point is reached.
- the first cam 8 is provided on one side of the free end.
- the metal striker 7 The tail end is fixed on the free end, and the tip (front end) faces the bottom of the inner cavity of the lower case 10.
- the bottom of the inner cavity of the lower case 10 is provided with a through hole 12 at a position corresponding to the tip of the metal striker 7.
- the tip of the metal striker 7 can pass through the through hole to hit the window to complete the window break.
- the free end of the first elastic energy storage member is attached to the cam surface of the first cam 8. When the micro motor drives the first cam 8 to rotate, the free end of the first elastic energy storage member is gradually raised under the action of the cam surface to generate deformation, thereby accumulating elastic energy.
- the micro-motor vehicle window breaker is provided with a rigid strip-shaped fixing piece 13, and one end of the fixing piece 13 is positioned and hinged on a fixing post 14 through a hinge mechanism for fixing.
- the other end of the sheet 13 is a free end, and the other end is a hinged end swingably disposed on a hinged shaft 15.
- the first elastic energy storage member is a tension spring 16, and one end of the tension spring 16 is fixed on the free end.
- the metal striker 7 is also fixed on the free end, and the pulling force of the tension spring 16 faces the direction in which the metal striker 7 hits the broken window (that is, toward the bottom of the inner cavity of the lower casing 10), as shown in FIG.
- the energy storage driving and releasing device in this specific embodiment may be the same as that in Embodiment 1, and also includes a first driving motor 9 and a first cam 8 driven by the first driving motor 9, and the first cam 8 is disposed on one side of the free end.
- the free end of the fixing piece 13 is attached to the cam surface of the first cam 8.
- the same rectangular housing as in Embodiment 1 may also be provided.
- the first driving motor 9, the first cam 8, the metal striker 7, and the fixing piece 13 are installed and implemented in Embodiment 1.
- one end of the fixing piece 13 is hingedly disposed on a fixing post 14 in the lower case 10 of the housing through a hinge mechanism, one end of the tension spring 16 is fixed on a free end, and the other end of the tension spring 16 is fixed on the The bottom of the inner cavity of the lower case 10 of the housing.
- the first elastic energy storage member may also be in another manner, such as a torsion spring 17, and the metal striker 7 is also fixed on the free end.
- a torsion spring 17 is sleeved on the hinge shaft 15. The torsion of the torsion spring 17 is directed to the direction in which the metal striker 7 strikes a broken window.
- the first cam 8 is provided on one side of the free end. It is provided on the cam surface of the first cam 8 so that the same function can be achieved.
- the first elastic energy storage device includes a compression spring, a housing, a first driving motor 9 and a first cam 8 driven by the first elastic energy storage device.
- the compression spring constitutes the first elastic energy storage member
- the housing is provided with a cylindrical cavity
- the front end of the cylindrical cavity is open.
- the housing and the internal cavity are cylindrical
- the compression spring The metal striker 7 and the metal striker 7 are sequentially arranged in the cylindrical cavity.
- One end of the compression spring is against the bottom of the cylindrical cavity, and the other end is against the tail end of the metal striker 7.
- An axial slide is provided on the housing wall.
- the metal striker 7 is provided with a radially protruding pin, and the end of the pin protrudes from the axial sliding groove.
- the energy storage driving and releasing device in this specific embodiment may be the same as that in Embodiment 1, and also includes a first driving motor 9 and a first cam 8 driven by the first driving motor 9, and the first cam 8 is disposed on one side of the housing. The end of the pin is attached to the cam surface of the first cam 8.
- the same rectangular shell as in Embodiment 1 may also be provided. The open end of the shell is fixedly disposed toward the bottom of the inner cavity of the lower shell 10, and the bottom of the inner cavity of the lower shell 10 corresponds to the shell opening.
- a through hole is provided at the position, and the front end of the metal striker 7 faces the through hole.
- a manual push-type window breaking device can also be added. For details, refer to the following specific embodiments.
- the micro-motor moving vehicle window breaker is further provided with a manual pressing window breaking device.
- the manual pressing window breaking device is disposed in the middle of the inner cavity of the lower casing 10, and the manual pressing window breaking device includes a rigid impact member.
- the rigid impact member may also be made of a high-strength metal material, and preferably the whole is a cylindrical shape with a tapered front end.
- the pressing elastic energy storage and firing mechanism includes a second elastic energy storage. And a pressing member, by manually driving the pressing member, the pressing elastic energy storage and firing mechanism causes the second elastic energy storage member to store energy and release it after storing sufficient elastic energy, and the rigid impact member is Impacted by the elastic energy on the window.
- the manual pressing window breaking device includes a metal striker 7, a second elastic energy storage member 4, a first sleeve 1 and a second sleeve 2, and the first sleeve
- the tube 1 constitutes the pressing member
- the rigid impact member is a striker 3 composed of a rod-shaped member.
- the front end of the striker 3 is preferably tapered.
- the second elastic energy storage member 4 is a compression spring, and one end of the first sleeve 1 and the second sleeve 2 are axially slidably inserted.
- the first sleeve 1 may be inserted into the second sleeve 2.
- the second sleeve 2 may be inserted into the first sleeve 1.
- the outer shape of the first sleeve 1 and the second sleeve 2 is a quadrangular prism shape
- the inner cavity cross section of the second sleeve 2 is matched with the front section of the first sleeve 1
- the front end of the second sleeve 2 A boss 201 is provided, and the front section of the first sleeve 1 is axially slidably inserted into the second sleeve 2.
- the inner cavity space between the first sleeve 1 and the second sleeve 2 forms a striker volume.
- the tail end of the first sleeve 1 may be closed, the striker 3 and the compression spring are arranged in the striker cavity, and the second sleeve 2 is far from the end of the first sleeve 1 (ie, the front end of the second sleeve 2) ) Is provided with a through hole 202 through which the end of the striker 3 can protrude.
- the front section of the inner cavity of the second sleeve 2 is preferably matched with the striker 3 to form a guide.
- the compression spring is provided at the tail end of the striker 3, and the striker 3 The diameter of the tail portion is smaller than the front portion to form a shoulder step.
- the compression spring is sleeved on the tail portion of the striker 3, one end of the compression spring is against the shoulder step of the striker 3, and the other end is against the top of the inner cavity of the first sleeve 1.
- Radial (vertical to the sliding direction) convex posts 301 are provided on both sides of the firing pin 3, and are preferably symmetrically arranged on the opposite sides of the second sleeve 2 (corresponding to the convex posts 301 on both sides of the firing pin 3) )
- the protruding posts 301 on both sides of the striker 3 are caught in the bayonet 204, and the first sleeve 1 is provided with a first inclined surface 101 on both sides of the tube wall.
- the compression of the compression spring that is, pressing the first sleeve 1 into the second sleeve 2
- the protrusion 301 is in the stroke of the first inclined surface 101, and the direction of the first inclined surface 101 is closer to the compression stroke.
- the end of the first sleeve 1 tends to be closer to the guide groove 203 and the other side of the bayonet 204 is provided.
- a position corresponding to the guide groove 203 of the second sleeve 2 on the first sleeve 1 is provided along the edge.
- the axially and penetrating trip slot 102, the protruding post 301 passes through the trip slot 102 and the guide slot 203 at the same time, and the first inclined surface 101 is provided at the tail end of the trip slot 102 (that is, 3 cones with the striker pin)
- the opposite end is near the bayonet 204, and the first inclined surface 101 gradually narrows the tail end of the tripping long groove 102 to ensure that the compression spring (that is, the first sleeve 1 to the second sleeve) is compressed.
- the first inclined surface 101 gradually squeezes the protruding post 301 out of the bayonet 204 to complete the trip action.
- the length of the firing pin 3 should not be too long.
- the tapered end of the firing pin 3 should be within the end face of the second sleeve 2 with a certain distance, and the length of the guide groove 203 and the tripping long groove 102 should ensure that the firing pin strikes 3 has a sufficient sliding stroke, that is, the tapered end of the striker 3 is sufficient to be exposed from the through hole 202 on the end surface of the second sleeve 2.
- the action process of the window breaker of the miniature electric motor vehicle is as follows: In the initial state, the protruding posts 301 on both sides of the striker 3 are caught in the bayonet 204, and the tapered end of the striker 3 is within the front end surface of the second sleeve 2. When the window needs to be broken in an emergency, press the front surface of the second sleeve 2 against the window glass and press the first sleeve 1. Since the convex post 301 is caught in the bayonet 204 at this time, the striker 3 will not follow the first A sleeve 1 slides together, and the compression spring is compressed to store energy.
- the first inclined surface 101 at the tail end of the trip slot 102 starts to push outward from the inside of the bayonet 204 Squeeze the convex pillar 301, as the first sleeve 1 continues to be pressed, and finally the convex pillar 301 is completely pushed out of the bayonet 204, the striker 3 is quickly pushed out of the impact window glass under the force of the compression spring, thereby completing one time Window breaking action.
- the manual pressing type window breaking device can be further set, as shown in FIG. 4, the striker capacity A resetting spring 5 is also provided in the cavity.
- the resetting spring 5 is arranged in the inner cavity of the second sleeve 2 and is sleeved on the front section of the firing pin 3. One end of the resetting spring 5 is against the inner cavity wall of the second sleeve 2. One end bears on the end face of the first sleeve 1 so that the first sleeve 1 has a returning force, and the second tube surface on both sides of the first sleeve 1 is also provided with a second inclined surface 103.
- the first sleeve 1 During the resetting process under the action of the reset spring 5, the convex post 301 is in the stroke of the second inclined plane 103, and the direction of the second inclined plane 103 is opposite to that of the first inclined plane 101.
- the second inclined surface 103 is disposed on the other end of the tripping long groove 102 relative to the first inclined surface 101, and the direction of the second inclined surface 103 is opposite to that of the first inclined surface 101.
- the external pressure pushes the first sleeve 1 forward against the elastic force of the return spring 5, and the compression spring and the return spring 5 store energy at the same time, and then release and release the energy of the compression spring Make the striker 3 hit the window glass to complete a window breaking action; after the external pressure is removed, the first bushing 1 returns to its position under the spring force of the return spring 5, in the process, the protruding post 301 is set in the trip The second inclined surface 103 at the other end of the long groove 102 is returned together. When the position opposite to the bayonet 204 is reached, the protruding column 301 cannot continue to move in the restricted axial direction. Under the action of the inclined surface of the second inclined surface 103, the protruding column 301 slides into the bayonet 204, returns to the initial state, and prepares for the next window breaking action. This reciprocation can achieve the purpose of repeated use.
- the manual pressing window breaking device preferably further includes a pressing cap 18, which is sleeved on the end of the first sleeve 1 to increase the contact area and increase the pressing. Comfort.
- the structure of the manual pressing window breaking device may further include a metal thimble 21 with a tapered front end, a return spring 22, a thimble mounting base 23, and a pressing cap 18, the thimble mounting base.
- 23 has a tubular structure as a whole, and the inner cavity constitutes a thimble receiving cavity.
- the metal thimble 21 and the return spring 22 are disposed in the thimble receiving cavity.
- the metal thimble 21 and the thimble receiving cavity form a gap and an axial guide fit.
- the end of the thimble container cavity opposite to the front end of the metal thimble 21 is provided with a perforation for the front end of the thimble to complete the broken window.
- the return spring 22 makes the metal thimble 21 always have an elastic force opposite to the direction of the thimble breaking the window.
- the cap 18 is provided at the rear end of the metal thimble 21 for driving the metal thimble 21 to break a window
- the micro-motor vehicle window breaker is further provided with a shell, the shell includes a lower shell 10 and an upper cover 11, the window breaking mechanism, the driving device and the manual pressing window breaking device
- the thimble mounting base 23 is a tubular structure and is vertically arranged in the lower case 10.
- the thimble mounting base 23 may be integrated with or separated from the lower case 10.
- a pair of axially long guide grooves 24 are symmetrically provided on the wall, a lateral pin 25 is provided on the side of the metal thimble 21, and the return spring 22 is sleeved on the front part of the metal thimble 21 and is also set in the thimble mounting seat 23, The two ends of the cross pin are fitted in a pair of axially long guide grooves 24 to form a limit and guide. The upper end of the return spring 22 abuts the two ends of the cross pin 25 so that the metal thimble 21 always has one and a thimble. The elastic force in the direction of the broken window is opposite.
- the lower casing 10 is provided with a through hole 31 at a position corresponding to the perforation.
- the outer cover is also provided with an inner cover 29.
- the inner cover 29 is provided at the metal thimble 21 and the thimble installation.
- the shape of the pressing cap 18 is cylindrical, Said metal cover plate 29 corresponding to the position of the thimble 21 has a mounting hole 30 fitted with the cap 18 pressing gap, the pressing cap 18 constituting a guide disposed in the mounting hole 30 and against the rear end.
- the micro electric motor window breaking device may further be provided with a metal thimble 21, a return spring 22, and an electric motor. Drive mechanism.
- a metal thimble 21 As shown in FIGS. 16 and 17 (other parts omitted), the front end of the metal thimble 21 is provided in a tapered shape, the metal thimble 21 is movably disposed in the axial direction under the guidance of the guide structure, and the metal thimble 21 and the guide The structure can be set in an appropriate position according to the arrangement of each part structure.
- This embodiment is provided in the middle of the inner cavity of the lower case 10, and a straight cylindrical structure is formed in the middle of the inner cavity of the lower case 10 to constitute the guide structure.
- the metal thimble 21 is provided with a flange 28 at the rear end.
- the metal thimble 21 is provided in the straight cylinder 23, and the diameter of the flange 28 is matched with the inner diameter of the straight cylinder 23.
- the side wall of the straight cylinder 23 is provided with a pair of axial guide grooves 24 symmetrically.
- a cross pin 25 is exposed, and both ends of the cross pin 25 are exposed and are located in the shaft guide groove 24, so that the metal thimble 21 is movably disposed in the axial direction under the guidance of the inner diameter guide structure of the straight cylinder 23.
- the electric driving mechanism includes a second driving motor 26 and a second cam 27 driven by the second driving motor 26.
- the second cam 27 is disposed on the rear end side of the metal thimble 21, and the return spring 22 is sleeved on the metal thimble 21 to reset.
- the upper end of the spring 22 abuts on the flange 28 and the lower end abuts on the bottom of the straight cylinder 23, so that the rear end of the metal thimble 21 is elastically pressed against the cam surface of the second cam 27 by the reset spring 22,
- a through hole is provided at the bottom of the straight cylinder 23 corresponding to the front end of the metal thimble 21.
- an alarm 19 may be further provided in the casing, and a trigger switch for opening the upper cover 11 may be provided.
- the alarm 19 may adopt the existing technology.
- the start trigger can be in many different forms, such as using light-sensitive control, pressure control, or magnetic induction control.
- a permanent magnet 20 is embedded in the upper cover 11 and a lower case is used.
- the corresponding position in 10 is provided with a reed switch, and the reed switch contacts are used to control the alarm 19 to achieve the purpose of triggering the alarm when the upper cover 11 is opened.
- the manual pressing window breaking device preferably further includes a pressing cap 18, which is sleeved on the end of the first sleeve 1 to increase the contact area and increase the pressing. Comfort.
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Abstract
一种破窗器,为一种可以通过线控远距离控制的微型电动机动车破窗器,包括破窗机构及驱动装置,破窗机构包括金属撞针(7),驱动装置包括第一驱动电动机(9)和受其驱动的第一凸轮(8),第一凸轮(8)控制金属撞针(7)移动完成破窗。由于金属撞针(7)以第一驱动电动机(9)驱动第一凸轮(8)驱动,结构大为简化,体积减小,降低了成本,并且,通过减速器减速,使得第一驱动电动机(9)输出的驱动力提高,降低了对工作电源的要求,适合推广应用。
Description
本发明涉及一种破窗器,特别是一种可以通过线控远距离控制的微型电动机动车破窗器。
随着我国经济的发展,人们的生活水平的提高,机动车越来越普及了,特别是过去作为达官贵人才能拥有的轿车也逐渐进入寻常百姓家庭了,因此驾车上路的情况大为增加,特别是在节假日期间,由此也导致事故的上升,造成人员伤亡。事故中有一部分是因为连人带车坠入水中,由于水的压力缘故,或者由于着火失电,导致车门无法打开,而车窗玻璃又非常牢固,特别是在贴有车膜的情况下,车窗玻璃难以击碎,将会导致车上人员溺水或烧伤身亡。特别是在一些大型车辆如公交汽车、长途客车等有较多乘客的车辆,在出现紧急状况时需要尽快将车窗玻璃击碎,打开逃生通道。通常乘客在此时会惊慌失措,不知如何操作车上配备的破窗工具或破窗装置,而司机一般都是经过相应的训练,能够在第一时间操作车上配备的破窗工具或破窗装置。现有的线控远距离控制的破窗装置一般采用电控的方式,利用电磁吸引力驱动刚性撞击部件如金属撞针撞击车窗达到破窗的目的。然而采用这种方式,需要较大的电磁线圈和电流才能产生足够的力量,因此装置整体体积及重量较大,并且装置的高度尺寸较大,安装在车窗上对逃生通道造成一定的阻碍,长年累月增加了油耗;同时也需要更大电流的电源,对车载电源要求比较高,难以推广应用。
本发明的目的在于为了克服现有技术的不足而提供了一种结构简单、体积更小、对车载电源要求更低的微型电动机动车破窗器。
为了实现上述目的,本发明公开了一种微型电动机动车破窗器,其特征在于:包括破窗机构及驱动装置,所述破窗机构包括金属撞针,所述驱动装置包括第一驱动电动机和受其驱动的第一凸轮,所述第一凸轮控制所述金属撞针移动完成破窗。
与现有技术相比较,由于本发明中的金属撞针以电动机驱动第一凸轮驱动,结构大为简化,体积减小,降低了成本,并且,通过减速器减速,使得电动机输出的驱动力大为提高,降低了对工作电源的要求,更加适合推广应用。
下面结合附图及具体实施例对本发明作进一步说明。
附图1为本发明具体实施例1立体结构示意图;
附图2为本发明具体实施例1外观示意图(设有外壳);
附图3为本发明具体实施例1(外壳打开状态)结构示意图;
附图4为本发明具体实施例1(设有外壳)局部结构分解示意图;
附图5为本发明具体实施例2(拉簧式)立体结构示意图;
附图6为本发明具体实施例2(拉簧式)内部结构局部剖视图;
附图7为本发明具体实施例2(上扭簧式)立体结构示意图;;
附图8为本发明具体实施例2(上扭簧式)内部结构局部剖视图;
附图9为本发明具体实施例2(下扭簧式)立体结构示意图;;
附图10为本发明手动按压式破窗装置具体实施例外观立体结构示意图;
附图11为本发明手动按压式破窗装置具体实施例主视图;
附图12为图11 A - A结构剖视图;
附图13为本发明手动按压式破窗装置结构局部分解示意图;
附图14为本发明手动按压式破窗装置(设有按压帽)具体实施例外观立体结构示意图;
附图15为本发明手动按压式破窗装置(设有按压帽)具体实施例结构局部分解示意图;
附图16为本发明具体实施例5结构局部分解示意图之一;
附图17为本发明具体实施例5结构局部分解示意图之二;
附图18为本发明另一手动按压式破窗装置(设有按压帽)具体实施例结构局部分解示意图;
附图19为本发明另一手动按压式破窗装置(设有按压帽)具体实施例结构后视图;
附图20为图19 B - B结构剖视图。
具体实施方式
总体来说,本发明的微型电动机动车破窗器包括破窗机构及驱动装置,所述破窗机构包括金属撞针,所述驱动装置包括第一驱动电动机和受其驱动的第一凸轮,所述第一凸轮控制所述金属撞针移动完成破窗,其中金属撞针优选硬度、强度高的金属材料制作,前端优选呈锥形。所述破窗机构可以有不同结构形式,如一类是具有弹性储能件,所述金属撞针在所述弹性储能件的弹性能量作用下撞击车窗,完成破窗;另一类可以是通过所述驱动装置中的凸轮直接驱动金属撞针撞击车窗,完成破窗。下面通过具体实施例进一步详细说明。
对于第一类微型电动机动车破窗器,所述破窗机构还包括金属撞针、第一弹性储能件和储能驱动及释放装置,所述第一弹性储能件在储能驱动及释放装置的驱动下储能,并在储存足够的弹性能量后将其释放,所述金属撞针在所述弹性能量作用下撞击车窗,所述储能驱动及释放装置包括第一驱动电动机和受其驱动的第一凸轮,所述第一凸轮驱动第一弹性储能件的储能及释放。其中金属撞针优选硬度、强度高的金属材料制作,前端优选呈锥形;所述第一弹性储能件在储能驱动及释放装置的驱动下储能有多种不同的实施方式,下面具体举例说明;
具体实施例1:
本具体实施例中,如图1所示,所述第一弹性储能件由具有弹性的条片状弹簧钢6构成,如碳素弹簧钢或合金弹簧钢,所述第一弹性储能件的一端固定设置,另一端为自由端,所述金属撞针7固定在所述自由端上,所述第一凸轮8设置在自由端的一侧,所述第一弹性储能件的自由端贴设在所述第一凸轮8的凸轮面上。为了便于安装及保护装置,本具体实施例中,所述微型电动机动车破窗器设有一个矩形外壳(当然也可以根据具体情况选用其他形状),如图2-4所示,所述外壳包括一个下壳体10和一个上盖11,所述下壳体10中靠近角的位置设有一个固定柱,所述第一弹性储能件靠一侧边设置,一端固定在所述固定柱的顶端。所述储能驱动及释放装置中的第一驱动电动机9靠在下壳体10中与自由端相邻的侧边固定设置,第一驱动电动机9选用微型电动机,优选自带减速结构的微型电动机,转速可根据设计要求确定,本具体实施例中转速在60转/min左右,可以输出较大的扭矩,并保持分秒钟破窗一次,微型电动机的输出轴靠近所述第一弹性储能件的自由端设置。所述受微型电动机驱动的第一凸轮8的偏心形成要满足储能的要求,到达最大偏心点后快速降为最小偏心点,本具体实施例中的第一凸轮8的轮廓线采用类似渐开线的形式,到达最大偏心点后直接降为最小偏心点,所述第一凸轮8固定设置在微型电动机9的输出轴上,所述第一凸轮8设置在自由端的一侧,所述金属撞针7尾端固定在所述自由端上,尖端(前端)朝向下壳体10内腔底部,所述下壳体10内腔底部与金属撞针7尖端相对应的位置设有通孔12,所述金属撞针7尖端可以穿过所述通孔撞击车窗完成破窗,所述第一弹性储能件的自由端贴设在所述第一凸轮8的凸轮面上。当微型电动机驱动所述第一凸轮8旋转时,所述第一弹性储能件的自由端在凸轮面的作用下逐渐抬高产生形变,从而积蓄弹性能量,当所述第一弹性储能件的自由端在凸轮面的作用下逐渐抬至最高点时,弹性能量积蓄最大,所述第一凸轮8继续旋转,所述第一弹性储能件的自由端在弹性能量的作用下快速下落至最低点而撞击车窗完成破窗。如果所述第一凸轮8不停地继续旋转,即可以进行多次重复破窗。
具体实施例2:
如图5所示,本具体实施例中,所述微型电动机动车破窗器设有刚性条状固定片13,所述固定片13的一端通过铰接机构定位铰接设置在一个固定柱14上,固定片13的另一端为自由端,另一端为铰接端可摆动地设置在一铰接轴15上,所述第一弹性储能件为拉簧16,所述拉簧16一端固定在自由端上,所述金属撞针7同样固定在所述自由端上,所述拉簧16的拉力朝向所述金属撞针7撞击破窗的方向(即朝向下壳体10内腔底部),如图5所示,本具体实施例中所述储能驱动及释放装置可以与实施例1相同,同样包括第一驱动电动机9和受其驱动的第一凸轮8,所述第一凸轮8设置在自由端的一侧,固定片13的自由端贴设在所述第一凸轮8的凸轮面上。如图6所示,本具体实施例中,同样可以设有实施例1相同的矩形外壳,所述第一驱动电动机9、第一凸轮8、金属撞针7和固定片13等安装与实施例1相同,所述固定片13的一端通过铰接机构定位铰接设置在外壳的下壳体10中的固定柱14上,所述拉簧16一端固定在自由端上,拉簧16另一端固定在所述外壳的下壳体10的内腔底部。
如图7-9所示,本具体实施例中,所述第一弹性储能件还可以是其他方式,如为扭簧17,所述金属撞针7同样固定在所述自由端上,所述扭簧17套设在铰接轴15上,所述扭簧17的扭力朝向所述金属撞针7撞击破窗的方向,所述第一凸轮8设置在自由端的一侧,固定片13的自由端贴设在所述第一凸轮8的凸轮面上,这样同样能够达到相同功能。
具体实施例3:
本具体实施例中微型电动机动车破窗器,所述第一弹性储能件在储能驱动及释放装置包括压缩弹簧、壳体和第一驱动电动机9及受其驱动的第一凸轮8,所述压缩弹簧构成所述第一弹性储能件,所述壳体设有柱状容腔,柱状容腔前端开口,本具体实施例中所述壳体及内部容腔为圆柱状,所述压缩弹簧和金属撞针7依次设置在所述柱状容腔中,所述压缩弹簧一端抵在所述柱状容腔的底部,另一端抵在金属撞针7尾端,所述壳体壁上设有轴向滑槽,所述金属撞针7上设有径向突出的销钉,所述销钉端部从轴向滑槽中伸出。本具体实施例中所述储能驱动及释放装置可以与实施例1相同,同样包括第一驱动电动机9和受其驱动的第一凸轮8,所述第一凸轮8设置在壳体的一侧,所述销钉端部贴设在所述第一凸轮8的凸轮面上。本具体实施例中,同样可以设有实施例1相同的矩形外壳,所述壳体开口端朝下壳体10内腔底部固定设置,下壳体10内腔底部与所述壳体开口相对应的位置设有通孔,金属撞针7前端朝向通孔。
为了使得本微型电动机动车破窗器除了具有集中控制的功能外,还同时具有手动控制的功能,另外还可以增设手动按压式破窗装置,具体参见以下具体实施例。
具体实施例4:
在具体实施例1-3的基础上,所述微型电动机动车破窗器还设有手动按压式破窗装置。本具体实施例中,如图4所示,在具体实施例1的基础上,所述手动按压式破窗装置设置在下壳体10内腔中部,所述手动按压式破窗装置包括刚性撞击部件和按压弹性储能及击发机构,所述刚性撞击部件同样可以采用强度高的金属材料制作,优选整体为前端呈锥形的圆柱形,所述按压弹性储能及击发机构包括第二弹性储能件和按压件,通过手动驱动所述按压件,所述按压弹性储能及击发机构使第二弹性储能件储能,并在储存足够的弹性能量后将其释放,所述刚性撞击部件在弹性能量作用下撞击车窗。
本具体实施例中,如图10-13所示,所述手动按压式破窗装置包括金属撞针7、第二弹性储能件4、第一套管1和第二套管2,第一套管1构成所述按压件,所述刚性撞击部件为杆状件构成的撞针3,为了增强破窗效果,撞针3前端最好为锥形。第二弹性储能件4选用压缩弹簧,所述第一套管1和第二套管2的一端轴向可相对滑动地插接,可以是第一套管1插入第二套管2中,也可以是第二套管2插入第一套管1中。本具体实施例中,所述第一套管1和第二套管2外形为四棱柱形,第二套管2内腔截面与第一套管1前段间隙配合,第二套管2的前端设有凸台201,所述第一套管1的前段轴向可相对滑动地插设在第二套管2中,第一套管1和第二套管2之间内腔空间形成撞针容腔,第一套管1尾端可以是封闭的,撞针3和压缩弹簧设置在撞针容腔中,所述第二套管2远离第一套管1的一端(即第二套管2的前端)设有可供撞针3端部伸出的通孔202,第二套管2内腔前段最好与撞针3间隙配合形成导向,所述压缩弹簧设置在撞针3的尾端,所述撞针3尾部直径小于前部形成肩阶,所述压缩弹簧套设在撞针3尾部,压缩弹簧一端抵在所述撞针3的肩阶上,另一端抵在所述第一套管1内腔顶部。所述撞针3两侧设有径向(与滑动方向垂直)凸柱301,优选对称设置,在所述第二套管2相对的两侧管壁(与撞针3两侧的凸柱301相对应)上均设有与凸柱301间隙配合的轴向导向槽203,所述两侧管壁上导向槽203的同一侧边设有与凸柱301间隙配合的内凹的卡口204。初始状态下,所述撞针3两侧的凸柱301卡在所述卡口204中,所述第一套管1两侧管壁上设有第一斜面101,所述第一套管1在压缩所述压缩弹簧(即将第一套管1向第二套管2中按压)过程中,所述凸柱301处于第一斜面101的行程中,所述第一斜面101方向是越靠近压缩行程的末端,越倾向和靠近导向槽203设有卡口204的另一侧,本具体实施例中,所述第一套管1上与第二套管2的导向槽203对应的位置设有沿轴向并且贯通的脱扣长槽102,所述凸柱301同时穿过脱扣长槽102和导向槽203,所述第一斜面101设置在脱扣长槽102尾端(即与撞针3锥形端相反的一端)靠卡口204的一侧,第一斜面101使得脱扣长槽102尾端逐渐变窄,以保证在压缩所述压缩弹簧(即将第一套管1向第二套管2中按压)过程的末段,第一斜面101逐渐将凸柱301从卡口204中挤出完成脱扣动作。撞针3的长度不要过长,初始状态下,撞针3锥形端要处于第二套管2端面以内并留有一段距离,而导向槽203和脱扣长槽102的长度要保证脱扣后撞针3有足够的滑动行程,即撞针3锥形端足以从第二套管2端面的通孔202中露出。本微型电动机动车破窗器的动作过程如下:初始状态下,撞针3两侧的凸柱301卡在所述卡口204中,撞针3锥形端处于第二套管2前端面以内;当遇到紧急情况需破窗时,将第二套管2前端面抵压在车窗玻璃上,按压第一套管1,由于此时凸柱301卡在卡口204中,撞针3不会随第一套管1一起滑动,压缩弹簧即被压缩而储能,当第一套管1向前滑动一定距离后,脱扣长槽102尾端的第一斜面101开始从卡口204的内侧向外推挤凸柱301,随着继续按压第一套管1,最后将凸柱301从卡口204中完全推出,撞针3在压缩弹簧弹力的作用下快速向前冲出撞击车窗玻璃,从而完成一次破窗动作。
为了达到可以多次重复破窗,提高破窗成功率的目的,在具体实施1的基础上,所述手动按压式破窗装置还可以做进一步的设置,如图4所示,所述撞针容腔中还设有复位弹簧5,复位弹簧5设置在第二套管2内腔中并套在撞针3的前段上,所述复位弹簧5一端抵在第二套管2内腔壁上,另一端抵在第一套管1端面上使得第一套管1有一个回位的力,所述第一套管1两侧管壁上还设有第二斜面103,所述第一套管1在所述复位弹簧5作用下复位过程中,所述凸柱301处于第二斜面103的行程中,所述第二斜面103方向与第一斜面101方向相反。本具体实施例中,所述第二斜面103设置在脱扣长槽102相对于第一斜面101的另一端上,并且第二斜面103方向与第一斜面101方向相反。通过这样设置后,在进行破窗操作时,外部压力克服复位弹簧5的弹力将第一套管1向前推压,压缩弹簧和复位弹簧5同时进行储能,然后脱扣、压缩弹簧释放能量使撞针3撞击车窗玻璃完成一次破窗动作;在外界压力撤除后,第一套管1复位弹簧5的弹力作用下回位,在此过程中,所述凸柱301随着设置在脱扣长槽102另一端的第二斜面103一起回位,当达到与卡口204相对起的位置时凸柱301受限轴向无法继续移动,在第二斜面103的斜面作用下,所述凸柱301侧滑进入卡口204,回到初始状态,为下一次破窗动作做好了准备,如此往复,可以实现多次重复使用的目的。
为了便于按压,如图14、15所示,所述手动按压式破窗装置优选还设有一个按压帽18,按压帽套设在第一套管1的端部以加大接触面积,增加按压舒适度。
如图18-20所示,所述手动按压式破窗装置结构还可以是包括所述前端为锥形的金属顶针21、复位弹簧22、顶针安装座23和按压帽18,所述顶针安装座23整体呈管状结构,内腔构成顶针容腔,所述金属顶针21和复位弹簧22设置在顶针容腔中,所述金属顶针21与顶针容腔之间构成间隙及轴向导向配合,所述顶针容腔与金属顶针21前端相对的一端设有穿孔供顶针前端穿出完成破窗,所述复位弹簧22使得所述金属顶针21始终具有一个与顶针破窗方向相反的弹性力,所述按压帽18设置在所述金属顶针21后端用于驱动金属顶针21破窗。
本具体实施例中,所述微型电动机动车破窗器还设有一个外壳,所述外壳包括一个下壳体10和一个上盖11,所述破窗机构、驱动装置及手动按压式破窗装置设置在外壳中,所述顶针安装座23为管状结构,垂直设置在下壳体10中,所述顶针安装座23可以是与下壳体10一体或分体设置,所述顶针安装座23的侧壁上对称设有一对轴向长导槽24,所述金属顶针21侧面设有一横销25,所述复位弹簧22套设在金属顶针21中前部上一并设置在顶针安装座23中,所述横销两端间隙配合在一对轴向长导槽24中构成限位及导向,所述复位弹簧22上端抵在所述横销25两端使得所述金属顶针21始终具有一个与顶针破窗方向相反的弹性力,所述下壳体10与穿孔对应位置设有通孔31,所述外壳中还设有内盖板29,所述内盖板29设置在金属顶针21及顶针安装座23上方,所述按压帽18外形呈圆柱形,所述内盖板29对应金属顶针21的位置设有与所述按压帽18间隙配合的安装孔30,所述按压帽18设置在安装孔30中构成导向并与后端相抵。
具体实施例5:
为了使得本微型电动机动车破窗器具有多种破窗装置,提高可靠性,在上述任一实施例基础上,所述微型电动机动车破窗器还可以设有金属顶针21、复位弹簧22及电动驱动机构。如图16、17所示(省略其他部分),所述金属顶针21前端为锥形设置,所述金属顶针21在导向结构的导向下沿轴向可移动地设置,所述金属顶针21和导向结构可以根据各部分结构的安排设置在合适的位置。本具体实施例中设置在下壳体10内腔的中部,在所述下壳体10内腔的中部设有一个直筒状结构构成所述导向结构,所述金属顶针21后端设有凸缘28,所述金属顶针21设置在直筒23中,所述凸缘28的直径与直筒23的内径间隙配合,所述直筒23的侧壁对称设有一对轴向导槽24,金属顶针21上径向设有横销25,所述横销25两端外露并处在所述轴向导槽24中,使所述金属顶针21在直筒23的内径导向结构的导向下沿轴向可移动地设置。所述电动驱动机构包括第二驱动电动机26和受其驱动的第二凸轮27,所述第二凸轮27设置在所述金属顶针21后端侧,复位弹簧22套设在金属顶针21上,复位弹簧22上端抵在凸缘28上,下端抵在直筒23底部,使所述金属顶针21后端在所述复位弹簧22的作用下弹性地抵压在所述第二凸轮27的凸轮面上,所述直筒23底部对应金属顶针21前端的位置设有通孔。
为了防止被人误碰,上述任一实施例中,所述外壳中还可以设有报警器19,并设有上盖11开启触发开关,报警器19可以采用现有技术。其中开启触发开关可以有多种不同形式,如利用光敏控制、压力控制或磁力感应控制,如图3所示,本具体实施例中采用在上盖11中嵌设永磁体20,并在下壳体10内对应位置设有干簧管,利用干簧管触点控制报警器19,达到上盖11开启触发报警的目的。
为了便于按压,如图14、15所示,所述手动按压式破窗装置优选还设有一个按压帽18,按压帽套设在第一套管1的端部以加大接触面积,增加按压舒适度。
在此处键入本发明的实施方式描述段落。
在此处键入工业实用性描述段落。
在此处键入序列表自由内容描述段落。
Claims (17)
- 一种微型电动机动车破窗器,其特征在于:包括破窗机构及驱动装置,所述破窗机构包括金属撞针,所述驱动装置包括第一驱动电动机和受其驱动的第一凸轮,所述第一凸轮控制所述金属撞针移动完成破窗。
- 根据权利要求1所述的微型电动机动车破窗器,其特征在于:所述破窗机构还包括第一弹性储能件,所述第一凸轮驱动第一弹性储能件储能,并在储存足够的弹性能量后将其释放,所述金属撞针在所述弹性能量作用下撞击车窗完成破窗。
- 根据权利要求2所述的微型电动机动车破窗器,其特征在于:所述第一弹性储能件由条状锰钢片构成,所述第一弹性储能件的一端固定设置,另一端为自由端,所述金属撞针固定在所述自由端上,所述第一凸轮设置在自由端的一侧,所述第一弹性储能件的自由端贴设在所述第一凸轮的凸轮面上。
- 根据权利要求2所述的微型电动机动车破窗器,其特征在于:所述破窗机构还设有刚性固定片,所述固定片的一端定位铰接设置,另一端为自由端,所述金属撞针同样固定在所述自由端上,所述第一弹性储能件为拉簧,所述拉簧一端固定在自由端上,所述拉簧的拉力朝向所述金属撞针撞击破窗的方向,所述第一凸轮设置在自由端的一侧,固定片的自由端贴设在所述第一凸轮的凸轮面上。
- 根据权利要求2所述的微型电动机动车破窗器,其特征在于:所述破窗机构还设有刚性固定片,所述固定片的一端定位铰接设置,另一端为自由端,所述第一弹性储能件为扭簧,所述金属撞针同样固定在所述自由端上,所述扭簧的扭力朝向所述金属撞针撞击破窗的方向,所述第一凸轮设置在自由端的一侧,固定片的自由端贴设在所述第一凸轮的凸轮面上。
- 根据权利要求2所述的微型电动机动车破窗器,其特征在于:所述破窗机构还设有压缩弹簧和壳体,所述压缩弹簧构成所述第一弹性储能件,所述壳体设有柱状容腔,柱状容腔前端开口,所述压缩弹簧和金属撞针依次设置在所述柱状容腔,所述压缩弹簧一端抵在所述柱状容腔的底部,另一端抵在金属撞针尾端,所述壳体壁上设有轴向滑槽,所述金属撞针上设有径向突出的销钉,所述销钉端部从轴向滑槽中伸出,所述第一凸轮设置在壳体的一侧,所述销钉端部贴设在所述第一凸轮的凸轮面上。
- 根据权利要求2-6任一项所述的微型电动机动车破窗器,其特征在于:所述微型电动机动车破窗器还设有手动按压式破窗装置,所述手动按压式破窗装置包括刚性撞击部件和按压弹性储能及击发机构,所述按压弹性储能及击发机构包括第二弹性储能件和按压件,通过手动驱动所述按压件,所述按压弹性储能及击发机构使第二弹性储能件储能,并在储存足够的弹性能量后将其释放,所述刚性撞击部件在弹性能量作用下撞击车窗。
- 根据权利要求7所述的微型电动机动车破窗器,其特征在于:所述手动按压式破窗装置包括刚性撞击部件和按压弹性储能及击发机构,所述刚性撞击部件为杆状件构成的撞针,撞针前端为锥形,第二弹性储能件为压缩弹簧,所述破窗器还设有第一套管和第二套管,所述第一套管和第二套管中之一的一端轴向可相对滑动地插设在另一个套管中,内腔形成撞针容腔,所述撞针设置在撞针容腔中,所述第二套管远离第一套管的一端设有可供撞针端部伸出的通孔,所述压缩弹簧设置在撞针的尾端,所述压缩弹簧一端抵在撞针上,另一端抵在第一套管内壁上,所述撞针两侧设有径向凸柱,所述第二套管相对的两侧管壁上设有与凸柱间隙配合的轴向导向槽,所述两侧管壁上导向槽的同一侧边设有与凸柱间隙配合的内凹的卡口,所述第一套管两侧管壁上设有第一斜面,所述第一套管在压缩所述压缩弹簧过程中,所述凸柱处于第一斜面的行程中,所述第一斜面方向是越靠近压缩行程的末端,越倾向和靠近导向槽设有卡口的另一侧。
- 根据权利要求8所述的微型电动机动车破窗器,其特征在于:所述第一套管的前端轴向可相对滑动地插设在第二套管的尾端中,所述第一套管上与第二套管的导向槽对应的位置设有沿轴向并且贯通的脱扣长槽,所述第一斜面设置在脱扣长槽尾端靠卡口的一侧,所述凸柱穿过脱扣长槽和导向槽,所述撞针尾部直径小于前部形成肩阶,所述压缩弹簧套设在撞针尾部,压缩弹簧一端抵在所述肩阶上,另一端抵在所述第一套管内腔顶部。
- 根据权利要求9所述的微型电动机动车破窗器,其特征在于:所述容腔中还设有复位弹簧,所述复位弹簧一端抵在第二套管上,另一端抵在第一套管上使得第一套管有一个回位的力,所述第一套管两侧管壁上还设有第二斜面,所述第一套管压缩在所述复位弹簧作用下复位过程中,所述凸柱处于第二斜面的行程中,所述第二斜面方向与第一斜面方向相反。
- 根据权利要求2-6任一项所述的微型电动机动车破窗器,其特征在于:所述微型电动机动车破窗器还设有金属顶针、复位弹簧及电动驱动机构,所述金属顶针前端为锥形设置,所述金属顶针在导向结构的导向下沿轴向可移动地设置,所述电动驱动机构包括第二驱动电动机和受其驱动的第二凸轮,所述第二凸轮设置在所述金属顶针后端侧,所述金属顶针后端在所述复位弹簧的作用下弹性地抵压在所述第二凸轮的凸轮面上。
- 根据权利要求11所述的微型电动机动车破窗器,其特征在于:所述微型电动机动车破窗器还设有一个外壳,所述外壳包括一个下壳体和一个上盖,所述破窗机构、驱动装置及手动按压式破窗装置设置在外壳中,所述外壳中设有报警器,并设有上盖开启触发开关。
- 根据权利要求2-6任一项所述的微型电动机动车破窗器,其特征在于:所述微型电动机动车破窗器还设有一个外壳,所述外壳包括一个下壳体和一个上盖,所述破窗机构、驱动装置及手动按压式破窗装置设置在外壳中,所述外壳中设有报警器,并设有上盖开启触发开关。
- 根据权利要求7所述的微型电动机动车破窗器,其特征在于:所述微型电动机动车破窗器还设有一个外壳,所述外壳包括一个下壳体和一个上盖,所述破窗机构、驱动装置及手动按压式破窗装置设置在外壳中,所述外壳中设有报警器,并设有上盖开启触发开关。
- 根据权利要求2-6任一项所述的微型电动机动车破窗器,其特征在于:所述微型电动机动车破窗器还设有手动按压式破窗装置,所述手动按压式破窗装置包括所述前端为锥形的金属顶针、复位弹簧、顶针安装座和按压帽,所述顶针安装座整体呈管状结构,内腔构成顶针容腔,所述金属顶针和复位弹簧设置在顶针容腔中,所述金属顶针与顶针容腔之间构成间隙及轴向导向配合,所述顶针容腔与金属顶针前端相对的一端设有穿孔供顶针前端穿出完成破窗,所述复位弹簧使得所述金属顶针始终具有一个与顶针破窗方向相反的弹性力,所述按压帽设置在所述金属顶针后端。
- 根据权利要求15所述的微型电动机动车破窗器,其特征在于:所述微型电动机动车破窗器还设有一个外壳,所述外壳包括一个下壳体和一个上盖,所述破窗机构、驱动装置及手动按压式破窗装置设置在外壳中,所述顶针安装座垂直设置在下壳体中,所述金属顶针和复位弹簧设置在顶针安装座中,所述下壳体与穿孔对应位置设有通孔,所述外壳中还设有内盖板,所述内盖板设置在金属顶针及顶针安装座上方,所述按压帽外形呈圆柱形,所述内盖板对应金属顶针的位置设有与所述按压帽间隙配合的安装孔,所述按压帽设置在安装孔中并与后端相抵。
- 根据权利要求16所述的微型电动机动车破窗器,其特征在于:所述外壳中设有报警器,并设有上盖开启触发开关。
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