The present invention relates to a paintball drive system, and more particularly, to a paintball drive system of a paintball loader.
Paintball guns typically use a paintball loader to feed paintballs into the gun so as to permit them to shoot continuously. The paintballs are ejected from the paintball gun using pressurized air which is provided by a high-pressure bottle. Generally, the paintball loader is attached on the top of the paintball gun and the paintballs are fed into the paintball gun one by one by a drive system in the paintball loader. In conventional loaders, the drive system comprises a disk with an inclined ramp and at least one plate located on the ramp. The disk is driven by a motor and the paintballs are shifted by the plate toward a passage, and the paintballs travel through the passage and enter into the gun one by one. Paintballs generally have a flexible and thin shell that is filled with paint. Unfortunately, paintballs may not travel through the loader as expected and/or the paintball shell may be broken during movement of the paintballs. Paintballs becoming jammed within the loader is a major problem for the players.
The present inventive concepts provide a paintball loader, and a paintball drive system of a paintball loader, that eliminate the shortcomings of the conventional art.
The present inventive concepts relate to a paintball loader and a paintball drive system of a paintball loader. The paintball drive system may be located in a paintball loader which has a top casing and a bottom casing. The paintball drive system may comprise a board having a hole, and an inclined ramp that extends from the periphery of the hole. A power unit may be connected to one end of the board. A base may be located at the underside of the board and located corresponding to the hole. A room or chamber may be formed in the top of the base and a non-rotating center member, such as a cone, a cover, or both, may be arranged on the base over an outlet. The outlet may be defined through a center of the center member and a paintball way may be formed along the base and communicate with the room. The member may provide an entrance which communicates with the outlet and the paintball way. A gear ring may be located in the room of the base and have teeth defined in the outside thereof. The power unit may be engaged with the teeth to rotate the gear ring. A driving member may, for instance, include a friction ring and/or a driving ring. The friction ring may be located at the inside of the gear ring so as to push the paintballs toward the entrance. The driving ring may be connected to the gear ring and rotated by the gear ring so as to move the paintballs.
Preferably, the board has two wings respectively extending from two sides thereof, and each of the two wings has an engaging edge which is connected to the top and bottom casings.
Preferably, the friction ring is made of multiple duraometer silicone and has multiple protrusions extending at equal distance from the inner periphery thereof so as to move the paintballs.
Preferably, the power unit has a power source and at least one transmission member. The power source has an output shaft which rotates the at least one transmission member which is engaged with the teeth of the gear ring so as to rotate the gear ring which in turn drives the driving member.
Preferably, a first sensor is located beneath the inclined ramp and detects the presence or absence of paintballs in the paintball loader.
Preferably, the power unit has a first gear and a second gear whose teeth are less than those of the first gear. The output shaft of the power source is engaged with the first gear which is engaged with the second gear. The second gear is engaged with the teeth of the gear ring.
Preferably, a second sensor is located at the outlet of the base and detects paintballs passing through the outlet.
Preferably, the first and second sensors are electrically connected to each other.
Preferably, a non-touch sensor is connected to a root portion of the paintball loader. The non-touch sensor activates or shuts off electric power by way of non-physical touch.
Preferably, the first and second sensors are infrared sensors.
The primary object of the present inventive concepts is to provide a paintball loader and a paintball drive system of a paintball loader, wherein paintballs (or other projectiles) are smoothly fed into the paintball (or pneumatic) gun and are not broken during feeding. In other words, the loader and drive system of the present inventive concepts preferably eliminate jamming and breaking of paintballs within the loader and drive system.
The present inventive concepts will become more readily apparent from the following description when taken in connection with the accompanying drawings which show, for purposes of illustration only, a preferred embodiment.
Referring initially to
The paintball drive system “A” of the present inventive concepts may comprise a board (or floorboard) 1 having a hole 11 which may be defined therethrough, and an inclined ramp 12 extending from the periphery of the hole 11. A power unit 13 may be connected to one end of the board 1.
A base 2 may be arranged at or near the underside of the board 1 and positioned at a location corresponding to the hole 11. A room or chamber 21 may formed in the top of the base 2. A center member (such as a cone 22, cover 26, or both), that is non-rotatable with respect to the base 2 and loader casings 10, 20, extends from the top of the base 2, and an outlet 23 is defined below the center member. A paintball way 24 may be formed along the periphery of the cone 22 and/or a floor of the base 2 to communicate with the room 21. The cone 22 may further include an entrance 25 which communicates with the outlet 23 and the paintball way 24. The cover 26 may be engaged with the outlet 23. Multiple connection members 27 may be provided which extend from the base 2 so as to be connected with the board 1 by locking members 271. Each of the connection members 27 may include a roller 272 connected thereto. These rollers 272 may be located beneath the board 1.
A gear ring 3 may be located in the room 21 of the base 2 and have teeth 31 defined in the outside thereof. The power unit 13 is preferably engaged with the teeth 31 to rotate the gear ring 3. An annular groove 32 may be defined in the outside of the gear ring 3 and located above the teeth 31, and the rollers 272 may move along the annular groove 32.
A friction ring 4 may be located at the inside of the gear ring 3 so as to push paintballs in the chamber 21 toward the entrance 25. Multiple protrusions 41 may be arranged at equal distances from one another and may extend inwardly a small distance from the inner periphery thereof.
A driving ring 5 may be connected to the gear ring 3 and may be rotated by the gear ring 3 arranged in the hole 11 to move the paintballs.
As shown in
When in use, the paintballs located in the room or chamber between the board 1 and the top casing 10 enter the hole 11 and are moved toward the paintball way 24. The paintballs in the base 2 contact a non-action surface of the paintball way 24 and are moved by friction force along a guiding face of the friction ring 4 and the driving ring 5. Paintballs loaded into the loader are arranged in the room between the center member, the friction ring 4 and the paintball way 24. The paintballs are detected by the first sensor 15 which is electrically connected with a control circuit 18. The control circuit 18 activates a power source 131 of the power unit 13, and an output shaft 132 of the power source 131 drives at least one transmission member 133 which is engaged with the teeth 31 of the gear ring 3 so that the gear ring 3 is rotated. The motor of the control circuit 18 controls the revolutions per minute (R.P.M.) of the power source. In one preferable embodiment, the power unit 13 has a first gear 133a and a second gear 133b whose teeth are less than those of the first gear 133a. The output shaft 132 of the power source 131 is engaged with the first gear 133a which is engaged with the second gear 133b, and the second gear 133b is engaged with the teeth 31 of the gear ring 3. By this arrangement, a gear reduction unit may be provided and utilized.
When the gear ring 3 rotates, the driving member, which may include the friction ring 4 and the driving ring 5, is rotated. The paintballs are driven by friction force provided by the friction ring 4 and the driving ring 5 so as to roll along the paintball way 24.
When the gear ring 3 rotates clockwise, each of the paintballs rolls along a fixed surface (provided by the paintball way 24), and a movable surface (provided by the friction ring 4 or the driving ring 5). The paintballs are moved by the friction ring 4 toward the cone 22 and reach the cover 26. The cover 26 may include an arm that guides the paintballs to the outlet 23 so that the paintballs enter into the path 201. When the paintballs reach the cover 26 and the entrance 25, because the entrance 25 and the paintball way 24 may be two different faces joined together, the paintballs may be temporarily stopped at the interface between the entrance 25 and the paintball way 24, and then forced into the path 201 by the following paintballs.
Referring now to
Referring to
Using the combination of signals from the first and second sensors 15, 16, the player may be informed of the status of the paintball loader. Furthermore, when a jam is detected (for instance when paintballs are detected in the chamber by the first sensor 15 and the second sensor 16 detects no paintball movement through the outlet 23), a signal is sent by the control circuit 18 to rotate the power source in reverse to clear the jam. Once the jam is cleared, the drive system operates to drive paintballs forward through the paintball way and the paintballs are again fed normally.
In addition to the components described above, a non-touch sensor 17 may be provided and connected to a main portion of the paintball loader. The non-touch sensor 17 may comprise a non-physical-touch sensor that does not need to be physically touched by an object to activate or shut off the electric power. The “ON” and “OFF” operation of the paintball loader may thereby be controlled by simply inserting a finger into an area where a power icon is marked, and movement of the finger can activate or shut off the power via the non-touch sensor 17.
The friction ring 4 can be made of multiple duraometer silicone to provide a surface that imparts a frictional force on the paintballs to roll them along the paintball way 24 of the base 2. By providing a frictional force to urge the paintballs along, rather than arms that catch and force paintball movement, the risk of breaking paintballs within the loader can be significantly reduced.
Using these principles, the paintballs can be smoothly and quickly urged and guided along the paintball way 24 of the base 2 toward the outlet 23 so that the paintball gun can shoot continuously without jamming.
According to still other principles of the inventive concepts, the connection between the first and second casings 10, 20 and the wings can be easily connected and disconnected quickly without the use of any tool.
According to still other principles, the player can be informed of an operational status of the loader (including if the chamber is empty) via LED indicators arranged on the paintball loader. The operational status can be determined using the combination of signals from the first and second sensors 15, 16. Based on information obtained from the sensors and indicated by the LEDs, the player can reload more efficiently.
The non-physical-touch sensor arranged on the surface of a main body of the paintball loader can also enable the player to activate or shut off the power quickly and easily while also ensuring that it is not inadvertently deactivated by accidental bumping or jarring.
While we have shown and described a preferred embodiment in accordance with the present inventive concepts, it should be clear to those skilled in the art that further embodiments may be made without departing from the scope of those concepts.
This application is a continuation of, and claims priority from, U.S. patent application Ser. No. 15/046,816, filed Feb. 18, 2016, now U.S. Pat. No. 9,857,141, issued Jan. 2, 2018, which is a continuation of U.S. patent application Ser. No. 14/285,816, filed May 23, 2014, now U.S. Pat. No. 9,297,605, issued Mar. 29, 2016, the contents of each of which are incorporated herein by reference in their entirety.
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Number | Date | Country | |
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20180073832 A1 | Mar 2018 | US |
Number | Date | Country | |
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Parent | 15046816 | Feb 2016 | US |
Child | 15811985 | US | |
Parent | 14285816 | May 2014 | US |
Child | 15046816 | US |