The present invention relates to an improved design of a multi-featured fishing hook.
Fishing hooks are available in a multitude of designs, varying hook styles, including single and multiple hooks, shapes, colors and sizes. Traditionally, these hooks all have in common the basic elements of an eyelet for connecting to a fishing line, a shank extending therefrom, and one or more hooks formed at the end, used to both secure bait and capture aquatic prey. With this basic design, a fish striking (or attempting to ingest the bait attached to the hook) will become ensnared by the hook, provided the fisherman is able to set the hook sufficiently once in the fish's mouth. This “setting” of the hook is accomplished by the fisherman detecting the strike by observing the line moving as a result of the fish's contact with the bait and line (in the fish's attempt to consume the bait), or the fisherman may feel the actual tugging on the line through the fishing rod. Once this striking activity is ascertained, the fisherman typically will tug (or “pop”) the line in order to get the hook lodged in the fish's mouth, and subsequently ensnare the fish. Once hooked in this manner, it is typically far more difficult for a fish to work its way loose of the fisherman's line.
While the above-described method may provide a user with a way to catch fish, this type of apparatus leaves open the possibility of failure due to several reasons, such as not setting the hook quickly enough and having the target fish consume the bait without the hook, having a fish spit the hook out before it has a chance to be set, tugging too violently on the line and pulling the hook from the fish's mouth before it has a chance to be set, and/or tugging too softly and not having the hook set within the fish's mouth. If any of these circumstances, or myriad others, occurs, the fish will not be sufficiently secured to the line, and will typically escape capture.
Clear downsides to the current mode of fishing with a traditional hook exist. Firstly, an easy-to-set solution is not readily available, as the fisherman must keep steady vigil over his line in order to detect any striking activity. Secondly, even while the common method of using a fishing hook may have design variations which help to promote setting of the hook, none offer a solution which automatically helps set the hook once struck by the aquatic prey. Further, additional features which provide for additional bait securing and/or snag protection have not been available with fishing hooks. For those methods employed by others to supply an improved hook design which are now available, the concept is often overwrought and/or ineffective in its implementation.
The consequence of these issues is the inherent ineffectiveness of the current state of the art for fishing hooks. The absence of a solution which provides an automatic assist with setting a hook in multiple locations in a secure manner, especially one that includes a snag guard to reduce line entanglements and/or a bait securing barb, has yet to be developed. The present invention provides a simple, innovative and effective apparatus for fishing. The present invention of a revised fishing hook is thus a novel, needed and functional answer to the problems in the field relating to having an effective fishing hook.
All of these aspects of the current state of fishing hooks lead to an increased need for a revised method of implementation with minimized cost and complexity, all of which the present invention addresses.
One object of the invention is to provide a new fishing hook design.
An additional object of this invention is to provide a fishing apparatus with an adjustable tension arm for setting a hook in a fish when fishing.
Another object of this invention is to provide a new apparatus for hooking a fish in multiple places.
Yet another object of this invention is to provide a fishing hook with a snag guard to prevent a fishing hook from getting caught in vegetation and other hazards.
Still another object of this invention is to provide a fishing hook with a barb that aids in securing bait to a fishing hook.
Other objects and advantages of this invention shall become apparent from the ensuing descriptions of the invention.
According to the present invention, an apparatus for fishing is provided in the form of a hook is herein disclosed with multiple hook points, an adjustable tension arm, optional snag guard and auxiliary bait retainer.
The accompanying drawings and figures illustrate embodiment(s) of this invention. However, it is to be understood that these embodiments are intended to be neither exhaustive, nor limiting of the invention. They are but examples of some of the forms in which the invention may be practiced.
Without any intent to limit the scope of this invention, reference is made to the figures in describing the various embodiments of the invention.
The present invention relates to fishing hook 100 as pictured in
Due to the joining of shanks, 101, 106, at a common point 116, an acute angle is formed between the two shanks, 101, 106. The precise degree of the angle is dictated by the distance desired between first hook 104 and second hook 109. For example, if a small fish is desired, which has a corresponding small mouth, the distance may be small, which would reduce the angle, and thus the overall width of hook pair 99. A larger mouth opening would dictate a greater distance between the hooks, and thus a larger angle would be present at eyelet 111, and an overall larger width of hook pair 99.
Tension arm 112 is formed along the length of first shank 101, typically by forming a portion of first shank 101 into a new shaft perpendicular to first shank 101 and which is shaped to engage second shank 106 and hold it in tension. Essentially then, along first shank 101, a section is bent perpendicular to itself, and then back again, thus continuing the overall shape of shank 101, but while also introducing the bent, or manipulated section forming tension arm 112 as pictured in the Figures. Tension arm 112 has a proximate end 117 and a distal end 118. The overall length of tension arm 112 will be greater than the distance between first hook 104 and second hook 109 when set to permit an operable connection between the two when set.
In “tension” in this example means that first shank 101 and second shank 106 are pulled together in closer relation against the forces of the two shanks' 101, 106 common point 116 and retained in place by tension arm interlock 115 located at distal end 118 of tension arm 112. One exemplary method of this type of arrangement is by having tension arm 112 include a small bend as interlock 115 which is shaped to retain second shank 106 in tension. Interlock 115 will typically be of a length at least twenty percent of said overall length of said tension arm 112 to permit easy manipulation by a user. This minimum length will allow easy manipulation with the fingers of a user, or a tool (such as pliers) if desired.
Perpendicular in the case of the tension arm means perpendicular to the longest dimension of first shank 101 as pictured in
In an exemplary embodiment, the entirety of the above hook 100 is formed of one continuous piece of material, typically a metal or other durable, ductile and malleable material, for ease of construction and for increased structural integrity. Continuous in this sense means an uninterrupted ductile strand of material, drawn in one piece. In this way, grafting of pieces together, or “connecting” of various components is avoided, adding simplicity and structural rigidity. Having a single extrusion for the hook also reduces failures, decreases the complexities of construction, all of which result in a better product.
An example of this is a malleable and ductile metal such as wire, which can be drawn in a generally circular cross-section, and from which a single strand of such material the entire hook pair 99 can be formed, by bending or otherwise manipulating the material to form hook pair 99 as described above. Clearly some portions, such as barbs 105, 110, will not be perfectly circular, but the substantial portion of the hook 100 in the exemplary embodiment will generally be circular in cross-section.
Optionally, fishing hook 100 can also employ snag guard 114. Snag guard 114 is formed of a length of material substantially parallel to shanks 101, 106, affixed and extending substantially from either or both first shank's 101 and second shank's 106 first opposite end 102, 107 toward hooks 104, 109, and terminating near hooks 104, 109. In this way, weeds and other debris are less likely to become tangled in hooks 104, 109 and cause snags, loss of the hook or other detrimental effects. This is accomplished because snag guard 114 discourages the entry of weeds and the like into the plane formed between hooks 104, 109 and first opposite ends 102, 107 thus preventing same from being snared by hooks 104, 109. Snag guard 114 can be employed on any number of hooks, depending on the overall design chosen.
Additionally, fishing hook 100 can include secondary barb 113 on either or both first shank's 101 and second shank's 106 first opposite end 102, 107. Secondary barb(s) 113 extend downward toward hooks 104, 109 such that the points of hooks 104, 109 face the points of secondary barb(s) 113 and are used to help retain bait within fishing hook 100. Secondary barb 113 is constructed of a piece of material attached to shanks 101, 106 and drawn to a point at the end. This additional point assists in capturing and retaining bait and or aquatic prey.
Additional exemplary embodiments are pictured in
In either of the alternate exemplary embodiments, hooks 104, snag guards, 114, secondary barbs 113, are all employed in the same manner on the additional hook pairs 99 or third shank 201, if desired, as pictured in
In operation, then, fishing hook 100 is attached to the operator's line of choice via eyelet 111. Tension arm 112 is then “set” by putting tension between first shank 101 and second shank 106 (closing the distance between the two) and then using tension arm 112 on first shank 101 to engage second shank 106 with interlock 115, as seen in
By manipulating interlock 115, bending it by hand or with a tool (enabled because of the malleability mentioned above) the overall length of tension arm 112 in relation to interlock 115 is varied. As tension arm 112 is thusly made shorter, the distance between first hook 104 and second hook 109 is also made smaller, and the opposite forces between first hook 104 and second hook 109 increase as a result, which correlates to an increasing amount of kinetic energy. Conversely, bending interlock 115 the opposite direction will increase overall length of tension arm 112 and thus the distance between first hook 104 and second hook 109, thereby reducing the tension and stored kinetic energy. This is where the variable tension is manipulated depending on the user's desired tension for a particular application, or the overall width of the “set” hook pair 99.
When hook 100 is “hit” or attempted to be ingested by a fish, tension arm 112 will be released by the agitation and turbulent action about hook 100, and will spring open and expend its kinetic energy in the process, as seen in
Although only a few exemplary embodiments of this invention have been described in detail above, those skilled in the art will readily appreciate that many modifications are possible in the exemplary embodiments without materially departing from the novel teachings and advantages of this invention. Accordingly, all such modifications are intended to be included within the scope of this invention as defined in the following claims.
This application is a continuation-in-part of U.S. patent application Ser. No. 13/219,774, filed on Aug. 29, 2011, which is hereby incorporated by reference in its entirety.