BACKGROUND OF THE INVENTION
The pivoting head pliers pertains to a channel locking type pliers and a cannon plug pliers used to disconnect or connect connection or connector in an area requiring the gripping head to be at a different angel from the plier's arm. The pivoting head pliers gripping heads will be able to pivot in different angles from the arms.
In the industries such as aircraft, automobile, etc., and even in a household, there are many types of connections or connectors that require the use of a channel locking pliers and in the aircraft industry in particular, a cannon plug pliers is often used. These pliers are generally manufactured as a type of pliers with fixed straight gripping heads in reference to its arm. These types of channel lock or cannon plug pliers often cannot be use due to the position of a connection or in many cases on an aircraft you may have a cluster of connectors making it difficult to disconnect or connect a connector with the conventional cannon plug pliers. The present invention will obviate the afore mentioned disadvantages.
BRIEF SUMMARY OF INVENTION
The primary object of the present invention is to enable the user to position the gripping heads of a channel lock or cannon plug pliers at different angles in reference to its arm for easier accessibility to a connection or connector to disconnect or connect. The gripping heads will pivot on a pin that connects between both the heads and arms. The pin holds the heads and arms together. The positioning of both heads, after the desired angle is obtained, will be able to lock in its position. The locking mechanism will be between the Pliers arms and gripping heads. The locking feature detailed in the present invention assure both heads are at the same angle and it also adds to the stability of the use of the present invention.
BRIEF DESCRIPTION OF THE DRAWINGS
FIG. 1: is a Side View of the Pivoting Head Pliers
FIG. 2: is a View Showing the Rotational Axis of the Pivoting Head Pliers
FIG. 3: is a Cross Section of the Lock Release and Gripping Head
FIG. 4: is a Top View of the Gripping Head and Lock Release
FIG. 5: is a Cross Section of a Spring Embodiment with Flat Spring
FIG. 6: is a Cross Section of a Spring Embodiment with single Compression Spring
FIG. 7: is a Cross Section of a Spring Embodiment with dual Compression Spring
FIG. 8: is a Side View of the Pivoting Head Pliers for the Spring Loading Ball Bearing Locking Mechanism
FIG. 9: is a Cross Section of the Spring Loading Ball Bearing Locking Mechanism and Gripping Head
FIG. 10: is a Top View of the Gripping Head and Spring Loading Ball Bearing Locking Mechanism with cavity in Arm for Spring
FIG. 11: is a Cross Section of a Spring Embodiment for Spring Loading Ball Bearing Locking Mechanism
FIG. 12: is a View showing the Rotational Axis of the Pivoting Head Pliers for the Spring Loading Ball Bearing Locking Mechanism
DETAILED DESCRIPTION OF INVENTION
The following provides a detailed description of various drawings of the present invention. Each of the drawing explains the invention and are not to be limited for those skilled in this art. Various modifications or variations may be made in the present invention without changing the scope of the present invention.
Referring to the drawings and initially to FIGS. 1 and 8, the channel lock pliers or the cannon plug plies is used to disconnect or connect a connection or connector. The pliers (10), in-regards to the present invention comprises of two arms (12) and (14) pivotally joined by a pivotal shaft (24). A first gripping head (20) and a second gripping head (22) are respectively pivotally connected to the front end of the first arm (14) and the second arm (12). The first arm (14) has an elongated through hole (42) and the second arm (12) has a pivotal pin (24) that allows the second arm (12) to rotate. The second arm (12), when rotated clockwise on its axis, will be able to adjust into the first arm (14) through hole (42) and lock into position when it's rotated counterclockwise. This action between the first arm (14) and the second arm (12) will allow the first gripping head (20) and the second gripping head (22) to expand for a wider gripping surface.
With reference to FIGS. 2 and 12, the first gripping head (20) will be able to pivot on a pin (28) that joins the first arm (14) and the first gripping head (20) together. The first gripping head (20) will be able to pivot at different degrees in the clockwise or counterclockwise position. The second gripping head (22) will also be able to pivot on a pin (30) that joins the second arm (12) and the second gripping head (22) together. The second gripping head (22) will be able to pivot at different degrees in the clockwise and counterclockwise position.
With reference to FIGS. 1-7, the first dual action locking embodiment (16) is inserted into a cavity forward of the first arm (14) with a flat spring (32) or single compression spring (34) or double compression springs (36) and (38) between the aft side of the first dual action locking embodiment (16) and the inside of the cavity of the first arm (14). The first dual action locking embodiment (16) and the first arm (14) cavity will have square shapes and angles cut out to allow the first dual action locking embodiment (16) to be maneuver freely inside of the first arm (14) cavity. The first action of the first dual action embodiment (16) is moving the spring loaded first dual action embodiment (16) aft, riding along the top forward side of the first arm (14). This first action will temporarily release, while the user is holding the top side of the first dual action embodiment (16), the forward side of the first dual action locking embodiment (16) plunger (40) from the aft side of the first gripping head (20) detents (26). By releasing the forward side plunger (40) of the dual action locking embodiment (16) out of the aft side first gripping head (20) detents (26), the first gripping head (20) will be able to pivot in the desired angle by the user. The second action of the first dual action locking embodiment (16), after the desired angle of the first gripping head (20) is achieved by user, the first dual action locking embodiment (16) can be released by user allowing the first dual action locking embodiment (16) to automatically spring forward. The second action of the first dual action locking embodiment (16) also includes, the first dual action locking embodiment (16) forward side plunger (40) being inserted into the aft side of the first gripping head (20) desired angle detent (26). The first and second action of the first dual action locking embodiment (16), will lock the first gripping head (20) at a desired angle in relation to the first arm (14). The second dual action locking embodiment (18) is inserted into a cavity forward of the second arm (12) with a flat spring (32) or single compression spring (34) or double compression springs (36) and (38) between the aft side of the second dual action locking embodiment (18) and the inside of the cavity of the second arm (12). The second dual action locking embodiment (18) and the second arm (12) cavity will have square shapes and angles cut out to allow the second dual action locking embodiment (18) to be maneuver freely inside of the second arm (12) cavity. The first action of the second dual action embodiment (18) is moving the spring loaded second dual action embodiment (18) aft, riding along the bottom forward side of the second arm (12). This first action will temporarily release, while the user is holding the top gripping side of the second dual action embodiment (18), the forward side of the second dual action locking embodiment (18) plunger (50) from the aft side of the second gripping head (22) detents (58). By releasing the forward side plunger (50) of the second dual action locking embodiment (18) out of the aft side second gripping head (22) detents (58), the second gripping head (22) will be able to pivot in the desired angle by the user. The second action of the second dual action locking embodiment (18), after the desired angle of the second gripping head (22) is achieved by user, the second dual action locking embodiment (18) can be released by user allowing the second dual action locking embodiment (18) to automatically spring forward. The second action of the second dual action locking embodiment (18) also includes the second dual action locking embodiment (18) forward side plunger (50) being inserted into the aft side of the second gripping head (22), after being released by user, into the desired angle detent (58). The first and second action of the second dual action locking embodiment (18), will lock the second gripping head (22) at a desired angle in relation to the second arm (12).
With reference to FIGS. 9-11, the first single action locking compression spring (44) and the ball bearing (48) is inserted into a cavity (54) forward of the first arm (14). The compression spring (44) is inserted first into the forward side of the first arm (14) cavity (54) and the ball bearing (48) is inserted second against the compression spring (44). After the compression spring (44) and the ball bearing (48) is inserted into the forward side of the first arm (14) forward cavity (54), the first gripping head (20) is attached to the first arm (14) with a pivotal pin (28). When the first gripping head (20) is attached to the first arm (14), the aft side of the first gripping head (20) detent (26) will compress the ball bearing (48) and compression spring (44) into the cavity (54). The ball bearing (48), when seated into the aft side of the first gripping head (20) detent (26) will lock the first gripping head (20) into the desired angle. The only action required to pivot the first gripping head (20) at a different angle in relation to the first arm (14), is by the user holding the first gripping head (20) and pivoting the first gripping head (20) by force against the ball bearing (48) and compression spring (44), then releasing the first gripping head (20) when desired angle is achieved. When the user releases the first gripping head (20), after desired angle is achieved, the ball bearing (48), compressed by the compression spring (44), will lock into another angled detent (26). The second single action locking compression spring (46) and the ball bearing (52) is inserted into a cavity (56) forward of the second arm (12). The compression spring (46) is inserted first into the forward side of the second arm (12) cavity (56) and the ball bearing (52) is inserted second against the compression spring (46). After the compression spring (46) and the ball bearing (52) is inserted into the forward side of the second arm (12) forward cavity (56), the second gripping head (22) is attached to the second arm (12) with a pivotal pin (30). When the second gripping head (22) is attached to the second arm (12), the aft side of the second gripping head (22) detent (58) will compress the ball bearing (52) and compression spring (46) into the cavity (56). The ball bearing (52), when seated into the aft side of the second gripping head (22) detent (58) will lock the second gripping head (22) into the desired angle. The only action required to pivot the second gripping head (22) at a different angle in relation to the second arm (12), is by the user holding the second gripping head (22) and pivoting the second gripping head (22) by force against the ball bearing (52) and compression spring (46), then releasing the second gripping head (22) when desired angle is achieved. When the user releases the second gripping head (22), after desired angle is achieved, the ball bearing (52), compressed by the compression spring (46), will lock into another angled detent (58). In the scope of the present invention, the user will pivot both the first gripping head (20) and the second gripping head (22) at the same desired angle. The design of the aft side first gripping head (20) detent (26) and the aft side of the second gripping head (22) detent (58) will allow the locking of both the first gripping head (20) and the second gripping head (22) to be symmetrical.