Ignition device capable of increasing firepower by means of wind

Abstract

The ignition device capable of increasing firepower by means of the wind trend comprises an ignition assembly, an air inlet mechanism and an air blowing channel, the ignition assembly comprises a fire outlet mechanism, the air blowing channel is independent in the ignition device, the air blowing channel and the ignition assembly are arranged in a separated mode, and the air blowing channel comprises an air inlet and an air outlet. The air inlet mechanism is arranged on one side of the fire outlet mechanism, the air outlet is distributed on one side of the fire outlet mechanism, so that external air can enter the air blowing channel through the air inlet through the action of the air inlet mechanism after ignition or in the ignition process during ignition, and then is discharged from the air outlet and discharged to the position of the fire outlet mechanism, so that the fire behavior is enhanced; meanwhile, the firepower of the lighter is increased by means of the wind trend, the lighter is suitable for all devices capable of being used for ignition in the market, the blowing channel is designed to be independent of the interior of the ignition device, so that normal ignition of the ignition device is not affected due to the unreasonable design of the blowing channel in the process that the ignition device executes fire enhancement, and the ignition effect is improved. And the rationality and reliability of the design are ensured.

Description

Technical Field

[0001] This utility model relates to an ignition device that can increase the firepower by utilizing the wind. Background Technology

[0002] Lighters, igniters, spray guns, and cigarette lighters on the market are all types of ignition devices. Regardless of whether it is a lighter, igniter, spray gun, or cigarette lighter, its working process involves the ignition button driving the internal ignition mechanism. Simultaneously, the gas storage mechanism is opened by the action of the ignition button or the ignition mechanism. When the combustible gas in the gas storage mechanism enters the position of the ignition mechanism, the gas is ignited by the electronic fuse or the grinding wheel on the ignition mechanism on one side of the ignition mechanism.

[0003] However, the intensity of the flame from existing lighters, igniters, spray guns, or cigarette lighters is generally controlled by adjusting the amount of combustible gas emitted from the gas storage mechanism. In practice, it has been found that in some situations where it is necessary to ignite or heat something, the flame needs to be turned up very high, otherwise the ignition or heating process will take a long time. As the flame increases, the combustible gas in the gas storage mechanism, i.e., the energy, will be used up more quickly. This results in a significant reduction in the lifespan of the lighter, igniter, spray gun, or cigarette lighter, leading to unfavorable usage conditions. Summary of the Invention

[0004] In view of the above shortcomings, this utility model provides an ignition device that can reduce the amount of combustible gas used in the gas storage mechanism while still ensuring the ignition intensity.

[0005] To achieve the above objectives, this utility model employs an ignition device that can increase firepower by utilizing wind force, including an ignition assembly. The ignition assembly includes an ignition button, a gas storage mechanism, a gas outlet mechanism, a ignition mechanism, a flame outlet mechanism, and a firepower adjustment mechanism. The firepower adjustment mechanism is connected to the gas storage mechanism and is used to adjust the gas outlet size, thereby adjusting the flame intensity of the ignition device. The ignition device also includes an air inlet mechanism and a blowing channel. The blowing channel is independent of the ignition device and is separated from the ignition assembly.

[0006] The blowing channel includes an air inlet and an air outlet. The air outlet is located on one side of the flame-emitting mechanism. Through the air inlet, outside air passes through the blowing channel and is discharged through the air outlet, thus enhancing the flame output of the flame-emitting mechanism.

[0007] The beneficial effect of the above structure is that, in addition to the ignition components generally involved in ignition devices, namely the ignition button, gas storage mechanism, gas outlet mechanism, ignition mechanism, flame outlet mechanism, and firepower adjustment mechanism, it also involves an air intake mechanism and an air blowing channel. At the same time, the air blowing channel involves an air inlet and an air outlet, and the air outlet is distributed on one side of the flame outlet mechanism. Even during ignition, after or during ignition, the air intake mechanism can be activated to allow outside air to enter the air blowing channel through the air inlet and then be discharged from the air outlet to the position of the flame outlet mechanism, thereby strengthening the fire.

[0008] Furthermore, by utilizing wind to increase the flame of the lighter, compared to existing methods that require adjusting the gas output of the gas storage mechanism, this method significantly reduces the consumption of combustible gas in the gas storage mechanism. This wind-assisted flame-increasing method is applicable to all ignition devices on the market, not just lighters, lighters, torches, or cigarette lighters. Additionally, this invention designs the airflow channel independently of the ignition device, separating it from the ignition component. This ensures that during the flame-increasing process, outside air will not enter the ignition component due to an improperly designed airflow channel, thus preventing interference with normal ignition and guaranteeing the design's rationality and reliability.

[0009] The present invention is further configured such that the air intake mechanism includes a power mechanism, an air intake actuator, and an energy conversion mechanism electrically connected to the power mechanism. The energy conversion mechanism includes an output section. The energy conversion mechanism is connected to the air intake actuator via the output section. The air intake actuator faces the air inlet and is distributed between the energy conversion mechanism and the air inlet. The outside air entering the air inlet enters the blowing channel with the air intake actuator and is then discharged through the air outlet.

[0010] With the above settings, the air intake mechanism can be reliably driven during the process of air intake or subsequent air blowing to the flame outlet mechanism, and at the same time drive the air intake actuator to export outside air through the blowing channel.

[0011] The present invention is further configured such that the ignition device also includes a housing, and a partition wall is formed inside the housing. The housing is divided into an ignition drive space for inserting the ignition assembly and a blowing channel for outside air to enter and blow onto the ignition mechanism through the partition wall. The power mechanism and energy conversion mechanism are confined in the ignition drive space. The air intake actuator is distributed in the blowing channel and is close to the air inlet. The output part of the energy conversion mechanism extends into the blowing channel and is connected to the air intake actuator to perform torque output.

[0012] The above-mentioned configuration ensures reliable separation between the air blowing channel and the installation space of the ignition component, i.e., the ignition drive space. At the same time, the power mechanism, energy conversion mechanism, and air intake actuator involved in the air intake mechanism can be reliably connected and execute torque output, thereby realizing the reliable installation of the air intake mechanism involved in this utility model in the ignition device.

[0013] The present invention is further configured such that the ignition device has a pistol-type structure, the gas storage mechanism, the gas outlet mechanism, the ignition mechanism, and the firepower adjustment mechanism are all distributed at the grip position of the pistol-type ignition device, the ignition button is distributed at the trigger position of the pistol-type ignition device, the ignition mechanism is distributed at the muzzle position of the pistol-type ignition device, the air blowing channel is distributed at the sleeve position of the pistol-type ignition device, the air inlet of the air blowing channel is distributed at one end of the sleeve of the pistol-type ignition device, and the air outlet is located at the other end of the sleeve.

[0014] The above settings further ensure that the ignition components, air intake mechanism, and air blowing channel can be reliably distributed within the ignition device, thereby further ensuring the reliability of the ignition device design.

[0015] The present invention is further configured such that an air outlet is provided on the housing relative to the muzzle position of the pistol-type ignition device, one end of the air outlet is confined inside the housing, and the other end extends outside the housing, and a through hole is provided in the air outlet, and a plurality of air outlet holes are distributed around the through hole, and the ignition mechanism passes through the through hole.

[0016] The above settings ensure that the air entering the blowing channel through the air inlet and then passing through the air outlet can reliably enhance the flame ejected by the flame ejection mechanism.

[0017] The present invention is further configured such that the start / stop control of the air intake mechanism and the flame control of the flame outlet mechanism are controlled uniformly by the ignition button.

[0018] The above settings ensure that the air intake mechanism and the flame output mechanism can be driven in a unified manner during the use of the ignition device, thereby guaranteeing the ease of use of the ignition device.

[0019] The present invention is further configured such that the power mechanism is a rechargeable battery, the energy conversion mechanism is a motor, the output part is a motor shaft, and the air intake actuator is a fan blade. In the ignition drive space of the housing, a motor cavity and a battery cavity are arranged sequentially on the side opposite to the adjacent partition wall and opposite to the direction facing the air intake.

[0020] With the above configuration, the power mechanism and energy conversion mechanism can be reliably limited within the housing. By limiting the power mechanism to a rechargeable battery, the energy conversion mechanism to a motor, the output section to a motor shaft, and the air intake actuator to a fan blade, the power mechanism and energy conversion mechanism can be reliably limited within the housing. At the same time, the motor shaft can reliably connect with the fan blade and output torque, thereby further ensuring the reliability of the air intake mechanism design.

[0021] The present invention is further configured such that the ignition device also includes a charging port, which is located on the housing and is electrically connected to the power mechanism.

[0022] The above settings allow the air intake mechanism's power unit, namely the rechargeable battery, to be charged through the charging port. This ensures that the air intake mechanism can be used for a long time and will not malfunction due to a lack of power in the power unit, thus guaranteeing the reliability and rationality of the ignition device. Attached Figure Description

[0023] Figure 1 This is a three-dimensional schematic diagram of an ignition device according to a specific embodiment of this utility model;

[0024] Figure 2 This is a schematic diagram of the structure of the ignition device after removing part of the housing in a specific embodiment of this utility model;

[0025] Figure 3 This is a half-sectional schematic diagram of an ignition device according to a specific embodiment of this utility model;

[0026] Figure 4 yes Figure 2 Enlarged view of part A;

[0027] Figure 5 yes Figure 2 Enlarged view of part B;

[0028] Figure 6 yes Figure 3 Enlarged schematic diagram;

[0029] Figure 7 This is an explosion diagram of the ignition device after part of its casing has been removed, according to a specific embodiment of this utility model;

[0030] Figure 8 yes Figure 7 An enlarged schematic diagram. Detailed Implementation

[0031] like Figure 1-8As shown, a specific embodiment of this utility model is an ignition device that can increase the firepower by using wind force. It includes an ignition assembly, which includes an ignition button 3, a gas storage mechanism 20, a gas outlet mechanism, an ignition mechanism 9, a flame outlet mechanism 5, and a firepower adjustment mechanism 4. The firepower adjustment mechanism 4 is connected to the gas storage mechanism 20 and is used to adjust the gas outlet size, thereby adjusting the flame intensity of the ignition device. The ignition device also includes an air inlet mechanism and a blowing channel a. The blowing channel a is independent of the ignition device and is separated from the ignition assembly.

[0032] The blowing channel a includes an air inlet a2 and an air outlet a1. The air outlet a1 is located on one side of the flame-emitting mechanism 5. Through the air inlet mechanism, outside air passes through the air inlet a2, passes through the blowing channel a, and is discharged through the air outlet a1, thus enhancing the flame-emitting power of the flame-emitting mechanism 5.

[0033] In addition to the ignition components typically involved in ignition devices, namely the ignition button 3, gas storage mechanism 20, gas outlet mechanism, ignition mechanism 9, flame outlet mechanism 5, and flame adjustment mechanism 4, the above-mentioned device also includes an air intake mechanism and a blowing channel a. The blowing channel a includes an air inlet a2 and an air outlet a1, with the air outlet a1 located on one side of the flame outlet mechanism 5. This allows outside air to be drawn into the blowing channel a through the air inlet a2 during ignition, after or during ignition, and then discharged from the air outlet a1 to the flame outlet mechanism 5, thereby enhancing the flame intensity.

[0034] Furthermore, by using wind to increase the flame of the lighter, compared to the existing method that requires adjusting the gas output of the gas storage mechanism 20, the consumption of combustible gas in the gas storage mechanism 20 can be greatly reduced. At the same time, this method of increasing the flame of the lighter by using wind is applicable to all fire-starting devices on the market, and is not limited to lighters, igniters, blowtorches, or cigarette lighters. In addition, this utility model sets the air blowing channel a independently from the ignition device, and the air blowing channel a is separated from the ignition component. This ensures that when the ignition device increases the flame, outside air will not enter the ignition component due to an unreasonable design of the air blowing channel a, thus affecting the normal ignition of the ignition device, thereby ensuring the rationality and reliability of the design.

[0035] like Figure 2-3As shown in Figures 5-6, the aforementioned air intake mechanism includes a power mechanism 6, an air intake actuator 8, and an energy conversion mechanism 7 electrically connected to the power mechanism 6. The energy conversion mechanism 7 includes an output section 71. The energy conversion mechanism 7 is connected to the air intake actuator 8 via the output section 71. The air intake actuator 8 faces the air inlet a2 and is distributed between the energy conversion mechanism 7 and the air inlet a2. The outside air entering the air inlet a2 enters the blowing channel a along with the air intake actuator 8 and is then discharged through the air outlet a1.

[0036] like Figure 2-6 As shown, the aforementioned ignition device also includes a housing 2, with a partition wall 21 formed inside the housing 2. The housing 2 is divided by the partition wall 21 into an ignition drive space b for inserting the ignition assembly and an air blowing channel a for outside air to enter and blow onto the ignition mechanism 5. The power mechanism 6 and the energy conversion mechanism 7 are located in the ignition drive space b. The air intake actuator 8 is distributed in the air blowing channel a and is adjacent to the air inlet a2. The output part 71 on the energy conversion mechanism 7 extends into the air blowing channel a and is connected to the air intake actuator 8, and performs torque output.

[0037] like Figure 1-8 As shown, the aforementioned ignition device has a pistol-type structure. The gas storage mechanism 20, gas outlet mechanism, ignition mechanism 9, and firepower adjustment mechanism 4 are all located at the grip position of the pistol-type ignition device. The ignition button 3 is located at the trigger position of the pistol-type ignition device. The ignition mechanism 5 is located at the muzzle position of the pistol-type ignition device. The air blowing channel a is located at the sleeve position of the pistol-type ignition device. The air inlet a2 of the air blowing channel a is located at one end of the sleeve of the pistol-type ignition device, and the air outlet a1 is located at the other end of the sleeve.

[0038] like Figure 1-4 As shown in Figures 7-8, an air outlet 1 is provided on the housing 2 relative to the muzzle of the pistol-type ignition device. One end of the air outlet 1 is confined inside the housing 2, and the other end extends outside the housing 2. A through hole 11 is provided inside the air outlet 1, and several air outlet holes 12 are distributed around the through hole 11. The ignition mechanism 5 passes through the through hole 11.

[0039] like Figure 1-3 As shown in Figures 5-7, the start / stop control of the air intake mechanism and the flame control of the flame outlet mechanism 5 are controlled by the ignition button 3.

[0040] like Figure 5 As shown, the power mechanism 6 is a rechargeable battery, the energy conversion mechanism 7 is a motor, the output part 71 is a motor shaft, and the air intake actuator 8 is a fan blade. In the ignition drive space b of the housing 2, on the side opposite to the adjacent partition wall 21 and opposite to the direction facing the air intake a2, the motor cavity 23 and the battery cavity 22 are arranged in sequence.

[0041] like Figure 5-6 As shown, the ignition device also includes a charging port 30, which is located on the housing 2 and is electrically connected to the power mechanism 6.

Claims

1. An ignition device capable of increasing firepower by utilizing wind force, comprising an ignition assembly, wherein the ignition assembly includes an ignition button, a gas storage mechanism, a gas outlet mechanism, a ignition mechanism, a flame output mechanism, and a firepower adjustment mechanism, wherein the firepower adjustment mechanism is connected to the gas storage mechanism and is used to adjust the gas output, thereby adjusting the flame intensity of the ignition device, characterized in that: The ignition device also includes an air intake mechanism and an air blowing channel, wherein the air blowing channel is independent of the ignition device and is separated from the ignition components. The blowing channel includes an air inlet and an air outlet. The air outlet is located on one side of the flame-emitting mechanism. Through the air inlet, outside air passes through the blowing channel and is discharged through the air outlet, thus enhancing the flame output of the flame-emitting mechanism.

2. The ignition device that can increase firepower by utilizing wind force according to claim 1, characterized in that: The air intake mechanism includes a power mechanism, an air intake actuator, and an energy conversion mechanism electrically connected to the power mechanism. The energy conversion mechanism includes an output section. The energy conversion mechanism is connected to the air intake actuator via the output section. The air intake actuator faces the air inlet and is distributed between the energy conversion mechanism and the air inlet. Outside air entering the air inlet enters the blowing channel with the air intake actuator and is then discharged through the air outlet.

3. The ignition device that can increase firepower by utilizing wind force according to claim 2, characterized in that: The ignition device also includes a housing with a partition wall inside. The housing is divided into an ignition drive space for inserting the ignition assembly and a blower channel for outside air to enter and blow onto the ignition mechanism. The power mechanism and energy conversion mechanism are located in the ignition drive space. The air intake actuator is distributed in the blower channel and is close to the air inlet. The output part of the energy conversion mechanism extends into the blower channel and is connected to the air intake actuator to perform torque output.

4. The ignition device that can increase firepower by utilizing wind force according to claim 3, characterized in that: The ignition device has a pistol-style structure. The gas storage mechanism, gas outlet mechanism, ignition mechanism, and fire control mechanism are all located at the grip position of the pistol-style ignition device. The ignition button is located at the trigger position of the pistol-style ignition device. The ignition mechanism is located at the muzzle position of the pistol-style ignition device. The air duct is located at the sleeve position of the pistol-style ignition device. The air inlet of the air duct is located at one end of the sleeve of the pistol-style ignition device, and the air outlet is located at the other end of the sleeve.

5. The ignition device that can increase firepower by utilizing wind force according to claim 4, characterized in that: The housing is provided with an air outlet at the position of the muzzle of the pistol-type ignition device. One end of the air outlet is confined inside the housing, and the other end extends outside the housing. The air outlet has a through hole, and several air outlet holes are distributed around the through hole. The firing mechanism passes through the through hole.

6. The ignition device that can increase firepower by utilizing wind force according to claim 1, 2, 3, 4 or 5, characterized in that: The start / stop control of the air intake mechanism and the flame output control of the flame output mechanism are controlled uniformly via the ignition button.

7. The ignition device that can increase firepower by utilizing wind force according to claim 3, 4 or 5, characterized in that: The power mechanism is a rechargeable battery, the energy conversion mechanism is a motor, the output part is a motor shaft, and the air intake actuator is a fan blade. In the ignition drive space of the housing, the motor cavity and the battery cavity are arranged sequentially on the side opposite to the adjacent partition wall and opposite to the direction facing the air intake.

8. The ignition device that can increase firepower by utilizing wind force according to claim 3, 4 or 5, characterized in that: The ignition device also includes a charging port, which is located on the housing and is electrically connected to the power mechanism.

Images