Patent Application
20240147980
This invention relates generally to fishing rod holders. More specifically, the invention relates to a fishing rod holder for use in hooking a fish without human intervention.
“Fishing” is a favorite past time of many adventurers. As used herein, the act of fishing includes using a conventional fishing rod, attached to a fishing line, which is further attached to a lure or a hook. The fisherman will typically toss his lure into a pond, lake river or the like, to attract the fish to be caught. Once the lure attracts the fish, the fish may bite the lure. When the fish bites the lure, the fisherman may draw back on the fishing rod to secure his catch. Since the lure will also have hooks on it, a fish that bites the lure risks getting hooked by the lure when the fisherman draws back the fishing pole to ensure the hooks dig into the fish's inner mouth.
Some fishermen use a technique called “tight-lining.” In tight lining, the fisherman will ordinarily “bait his hook” with an item that will entice the fish to bite the hook. For example, a fisherman may affix a worm, snail, grub, dough, or the like that the fish will want as a meal. In tight lining, the fisherman will cast the fishing hook, including the bate, into the water where there may be fish. The term “tight lining” refers to the position of the fishing line relative to the fishing pole and the water. That is the fishing line draws a straight tight line from the fishing pole to the water. The effectiveness of tight line fishing is that when the fish bites the bait, then the line will respond to the fish's bite. The response from the fish's bite is typically a pull or trembling on the line that is experienced at the pole. Specifically, when the fish bites the bate the pull of the bite will cause the tip of the fishing pole to dip toward the direction of the pull. When the tip of the fishing pole dips, the is an indication that the there is a fish ready to be hooked. The specifics of the tight line fishing technique are well known. As such, tight line fishing techniques will not be discussed herein for brevity.
As noted, to ensure that the fish is properly hooked, once the fisherman sees the fishing pole dip indicating that a fish is at the end of the tight line, the fisherman may quickly draw back on the fishing rod to ensure that the hook firmly affixes itself to the fish's mouth. This is called “setting the hook” or “hooking a fish.” A fish that is properly hooked may be brought to the bank as a successful catch of a fish. A fish that is not properly hooked may not be brought to the bank to be successfully caught. Devices currently exist for helping a fisherman set the hook.
What is needed is an apparatus that may hold a fisherman's fishing pole and will hook a fish without the fisherman's intervention. It is also needed for the apparatus to be configured to be used with any size fishing pole able to be cast by an ordinary fisherman.
The present invention provides a fishing rod holder designed to assist a fisherman in hooking a fish when the fisherman's fishing pole is unattended. In one exemplary embodiment, the fishing rod holder of the present invention includes A fishing rod holder for automatically hooking a fish comprises:
A fishing rod holder according to the present invention may be used by fishermen to hook a fish with no human intervention. In one aspect, the fishing rod holder may be affixed to ground, for example, when the fisherman is fishing from the bank. In another aspect, the fishing rod holder of the present invention may be affixed to a watercraft. In either instance, the fishing rod holder is affixed to a surface that provides a secure foundation from which to reinforce the fishing rod's recoil action.
In another aspect, the present invention includes a trigger setting mechanism that allows the fisherman to manually control the sensitivity at which the trigger activates. In yet another aspect, the present invention is able to be used with fishing poles of any size.
The following description may be understood with reference to the below drawings and figures, wherein the reference numbers indicate elements of the invention, and wherein:
The present invention teaches innovations not found in the prior art. The present invention teaches a fishing rod holder that can automatically hook a fish for a fisherman, without the fisherman's intervention. The terms pivoting, pivot, rotate or variations thereof are used herein to teach the physical relationship between the elements. Such pivoting may be accomplished using pins, dowels, flange bearing, bearing washers, screws, washers, and nuts, or any suitable physical coupling that permits one element of the invention to pivot with respect to another element of the invention. Consequently, when discussing “pivot points” or that elements are pivotably “connected” herein, what is taught is the use of the aforementioned pivoting mechanisms permitting the invention's elements taught to pivot one with respect to the other.
Further, various elements are discussed herein as being affixed or attached to adjacent elements. In such instance, the elements may be affixed on to the other using any conventional method for affixing or attaching one element to another. For example, elements of this invention that are affixed or attached one to another using welding, epoxy, soldering, brazing, riveting, or using mechanical fasteners.
Fishing rod holder 100 further includes a second elongated member 102, the second elongated member including a second elongated member proximal end 102a, a second elongated member distal end 102b, a second elongated member first elongated surface 105, a second elongated member second elongated surface 107, wherein the second elongated member includes a second elongated member first elongated surface midpoint 105a, wherein the second elongated member first elongated surface midpoint 105a is located between the second elongated member proximal end 102a and the second elongated member distal end 102b. In one exemplary embodiment, first elongated member distal end 104b is pivotably connected to the second elongated member proximal end 102a at pivot limiting hinge 110. Pivot limiting hinge 110 permits first elongated member 104 to pivot relative to second elongated member 102.
Wit brief reference to
With reference to
With reference to
With reference to
Referring now to
Trigger 131 further includes a trigger second loop 130, wherein the trigger second loop 130 includes a trigger second loop first section 130a and a trigger second loop second section 130b. Trigger first loop first section 130a and the trigger second loop second section 130b may be perpendicular one to the other. Trigger first loop first section 132a is affixed to the second elongated member second elongated surface 107. wherein the trigger first loop second section 132b is pivotably connected to the trigger second loop first section 130b.
Trigger 131 further includes an actuating arm 106. Actuating arm 106 is configured to move simultaneously to movement of trigger second loop 130. Actuating arm 106 includes an actuating arm proximal end 106a and an actuating arm distal end 106b. Trigger second loop second section 130a is pivotably connected to the actuating arm distal end 106b, using for example, a pivot point 136 to ensure that trigger second loop second section 130a pivots with respect to actuating arm distal end 106b.
Fishing rod holder 100 further includes a trigger setting mechanism 128. Trigger setting mechanism 128 is affixed to the first elongated member second elongated face 101.
With reference to, for example,
Elongated trigger setting member distal end 108b is convex on a first side 146. Elongated trigger setting member distal end 108b is convex to a point on a first side 146, and wherein elongated trigger setting member distal end 108b opposite convex first side 146 comprises a straight edge. Elongated trigger setting member distal end 108b is formed such that second elongated trigger distal end 108b on the first side is curved outwardly and to a point at second elongated trigger distal end 108b.
Elongated trigger setting member proximal end 108a is rotatably connected to actuating arm proximal end 106a, using, for example, a pivot point 112. Elongated trigger setting member 108 is further pivotably affixed to the third elongated member proximal end 114a. In one exemplary embodiment, elongated trigger setting member 108 is affixed to the third elongated member proximal end 114a, wherein the third elongated member proximal end 114a is pivotably affixed to elongated trigger setting member 108 using for example a pivot point 118. Third elongated member proximal end 114a is pivotably affixed to elongated trigger setting member 108 at a point on elongated trigger setting member 108 that is between the elongated trigger setting member proximal end 108a and elongated trigger setting member distal end 108b. In another exemplary embodiment, third elongated member proximal end 114a is pivotably affixed at a point proximate to the midpoint between elongated trigger setting member proximal end 108a and elongated trigger setting member distal end 108b. In still another exemplary embodiment, third elongated member proximal end 114a is pivotably affixed to the midpoint between elongated trigger setting member proximal end 108a and elongated trigger setting member distal end 108b.
In still another exemplary embodiment, elongated trigger setting member 108 further includes a stop stud 109, for restricting the pivoting of elongated trigger setting member 108 relative to third elongated member 114.
With reference to
Tension setting disk 124 may be affixed to the first elongated member first elongated surface 101 such that is abuts elongated trigger setting member distal end 108b. In another exemplary embodiment, tension setting disk 124 may be affixed to the first elongated member first elongated surface 101 such that may abut elongated trigger setting member distal end 108b. Tension setting disk 124 may be affixed to the first elongated member first elongated surface 101 such that the outer edge of the tension setting disk 124 may abut elongated trigger setting member distal end 108b on its convex edge, as described for fully below. Tension setting disk 124 may be affixed to the first elongated member first elongated surface 101 such that the outer edge of the tension setting disk 124 may abut elongated trigger setting member distal end 108b on its curved edge. Tension setting disk 124 may be affixed such that movement of the elongated trigger setting member 108 causes elongated trigger setting member distal end 108b to move along the outer edge of tension setting disk 124. Tension setting disk 124 may be affixed to the first elongated member first elongated surface 101 using, for example, a screw 126, rivet, or the like, affixed through the tension setting disk 124 central axis which allows tension setting disk 124 to freely rotate on the tension setting disk 124 central axis.
Trigger setting mechanism 128 may further include a trigger setting tension set screw 150. Trigger setting tension screw 150 may be affixed to first elongated member first elongated face 101 using a first anchor 154 and a second anchor 157. Anchor 154 and anchor 157 are affixed to first elongated member first elongated face 101. Anchor 154 and anchor 152 are configured to permit trigger setting tension screw 150 to traverse through anchor 154 and anchor 157. Anchor 154 and anchor 157 are configured to permit trigger setting tension screw 150 to rotate freely through anchor 154 and anchor 157.
Tension screw 150 further includes a tension screw retention cap 156 affixed to a tension screw 150 first end, where the tension screw 150 first end is opposite the end the tension screw 150 that is manually actuated by a user. In this way, tension screw retention cap 156 acts to restrict the movement of tension screw 150 from anchor 154 and anchor 157. Tension screw retention cap 156 ensures that tension screw 150 remains within anchor 154 and anchor 157. Similarly, tension setting mechanism 128 further includes a guard 152 affixed to tensing screw 150, for restricting the movement of tension screw 150 through anchor 154 and 157.
Trigger setting mechanism 128 may further include a tensing setting plate 158. Trigger setting plate 158 is affixed to trigger setting tension setting screw 150, such that as screw 150 is turned, tension setting plate 158 moves along tension screw 150 central axis. Trigger setting plate 158 may be affixed such that one plane of the trigger setting plate is perpendicular to tension screw 150.
Tension setting plate 158 may be affixed to tension setting screw 150 such that an edge of tension setting plate 158 may be placed in abutment with elongated trigger setting member distal end 108b straight edge when the fishing rod holder 100 is being arranged for use in hooking a fish. A user may cause the concave edge of the elongated tension setting member distal end 108b to come in contact with tension setting disk 124 outer edge. In particular, a user may adjust tension setting screw 150 such that tension setting plate restricts the amount of travel the elongated trigger setting member distal end 108b concave portion may travel along the perimeter of tension setting disk 124. In this way, the user can establish the sensitivity at which fishing rod holder 100 may respond to a fish biting the hook 170.
When a user turns (“rotates”) tension setting screw 150, tension setting plate 158 moves the elongated tension screw 150 to control the amount of the elongated trigger setting member distal end 108 convex edge will angularly contact the tension setting disk 124 outer edge (i.e., tenson setting disk perimeter) when the fishing rod holder is activated, as described more fully below. Briefly, a user may rotate tension screw 150 such that tension setting plate 158 restricts the amount of contact elongated trigger setting member convex edge 146 will have with tension setting disk 124 outer edge when fishing rod holder 100 hooks a fish.
The angular contact distance travelled can be measured by measuring the angular distance the elongated trigger setting member curved distal end 108b travels along the tension setting disk 124 outer edge. The greater the angular distance traveled, the harder it is to trigger the fishing rod holder 100 to hook a fish. That is, a user may control the sensitivity of the trigger by controlling the distance the elongated trigger setting member curved distal end 108b travels along tension setting disk 124 outer edge. Additionally, the movement of the elongated trigger setting member convex edge 146 along the tension setting disk 124 outer edge affects the energy stored in the spring 116. For example, the greater the angular distance traveled corresponds to the recoil energy stored in spring 116.
Referring now to
An exemplary trigger safety according to the present invention can be seen in
During operation, a user (i.e., fisherman) will receive fishing rod holder 100 in a resting position as shown in
However, to hook a fish, the fisherman must first arm the fishing rod holder to recoil when the trigger 131 is activate. Prior to arming the dishing rod holder 100, the fisherman must set the tension screw 128 how much for is required to activate the fishing rod holder to hook a fish. The fisherman establishes the force to activate the fishing rod holder 100 by rotating tension screw 128 to control the distance the elongated trigger setting member distal end 108b traverses tension setting disk outer edge. In this way, the fisherman can set his desired tension. Greater tension means it takes a greater force to activate the fishing rod holder to hook a fish.
To “arm” fishing rod holder 100 for hooking fish, the user may pivot second elongated member 102 relative to first elongated member 104 along pivot point 134.
As can be seen, arming fishing rod holder 100 causes trigger second loop 130 to pivot relative to trigger first loop 132 around pivot point 134. Additionally, actuating arm 106 moves as trigger second loop 130 moves. That is, movement of trigger second loop 130 correlates to the movement of trigger second loop 130.
The movement of actuating arm 106 causes movement of elongated trigger setting member 108. Elongated trigger setting member distal end 108b curved edge is then made to traverse the edge of the tension setting disk 124. Once the elongated trigger setting member distal end 108b curved edge is set on the tension setting disk 124 according to the desired tension, the fisherman may secure desired tension by setting the safety bar 140 to restrict movement of elongated trigger setting member distal end 108b curved edge along tension disk 124 outer edge. Safety bar 140 may restrict movement of elongated trigger setting member distal end 108b curved edge along tension disk 124 outer edge by abutting the elongated trigger setting member 108 to prevent rotation of the elongated trigger setting member 108 relative to third elongated member 114.
The action of pivoting second elongated member 102 relative to first elongated member 104 causes spring 116 to store energy (i.e., “recoil energy”). When the trigger 131 is activated, the recoil energy stored in spring 116 causes the fishing rod holder 100 to forcefully return back (e.g., snap back) to its resting position. By “activated” what may be meant is that fishing rod holder 100 is actuated to hook a fish.
The present invention is described with respect to the fishing rod holder 100 “hooking a fish,” or “activating to hook a fish.” When used herein with respect to the fishing rod holder 100, the terms “hooking a fish” or “activating to hook a fish,” or the like, refer to the fishing rod holder 100 using a conventional rod 162 and hook 170 to hook the fish. That is, during use, a conventional fishing rod 162 is included in fishing rod holder 100 for use in hooking a fish.
In one operation of fishing rod holder 100, once the fishing rod holder 100 is put in “armed” position, the conventional fishing rod 162 is inserted in the fishing rod holder 100, and fishing reel 166 is made to come to rest on first loop 132, the fishing rod holder 100, including the fishing rod 162, is “armed.” By armed, what is meant is that the coil 116 has stored recoil energy.
Typically, a fisherman may place bait on hook 172 to entice a fish to bite the hook 172. The biting action of the fish causes movement on the fishing line 168, which is detected at staff 172. When a fish bites the hook, the fish ordinarily moves the bait away from the fishing rod holder 100. Specifically, the fish biting on the bait and hook 170 causes the staff 172 to move toward the direction the fish is pulling the hook 170 (the “pulling movement”).
The pulling movement causes trigger second loop 130 to pivot around pivot point 134. In one embodiment, the pulling movement causes trigger second loop 130 to pivot relative to trigger first loop 132. Trigger second loop 130 will ordinarily pivot down and away from the second elongated member distal end 102b. The pivoting of trigger second loop 130 causes actuating arm 196 to move toward the direction of trigger second loop 130. The movement of actuating arm 196 toward the trigger second loop 130 causes elongated trigger setting member 108 to pivot around pivot point 118 with respect to third elongated member 114.
As noted, a fisherman may adjust the distance the elongated trigger setting member distal end 108b travels along tension setting disk 124 outer edge. The fisherman adjusts the distance (e.g., the tension or sensitivity at which the fishing rod holder 100 actuates) by adjusting tension setting screw 128 to restrict or regulate the amount of perimeter surface to be travelled by the elongated trigger setting member distal end 108b along tension setting disk 124. For example, if a fisherman sets tension setting screw 128 such that maximum distance is traversed then the maximum amount of tension is achieved.
As the elongated trigger setting member 108 pivots relative to third elongated member 114, elongated trigger setting member distal end 108b traverses the outer edge of tension setting disk 124. Once elongated trigger setting member distal end 108b traverses the outer edge of tension setting disk 124 and is no longer in contact with the outer edge of tension setting disk 124, then fishing rod holder 100 is actuated and the recoil energy stored in spring 116 is instantly released causing the fishing rod hold 100 to spring to the rest position.
In one exemplary embodiment, the elongated trigger setting member distal end 108b includes friction between the outer edge of tension setting disk 124 and the elongated trigger setting member distal end 108b when fishing rod holder 100 is set, and no friction exists between the outer edge of tension setting disk 124 and the elongated trigger setting member distal end 108b when fishing rod holder 100 after the fishing rod holder 100 is actuated. Moreover, the recoil energy stored in spring 116 causes fishing rod holder 100 causes recoil energy to forcefully and suddenly return fishing rod holder 100 to the rest position. The sudden return of the fishing rod holder 100 to the rest position hooks the fish moving the hook 170, thereby hooking the fish.
In one particular embodiment, as shown in
First elongated member 104 may be hollow. In accordance with one embodiment of the invention, during operation, vertical member upper extension 168b may be inserted into the hollow first elongated member proximal end 104a. Vertical member lower extension 168a may be inserted into the ground to stabilize fishing rod holder 100 to facilitate the optimal recoil action of the spring 116.
In some instances, as shown in
The present invention is discussed with reference to a conventional fishing rod 162 including a fishing reel 162, the invention is useful with any conventional fishing rod. For example, the fishing rod holder 100 of the present invention may be used with a fishing rod without a reel. It should be understood that modifications made to the invention that are known to one skilled in the are included herein.
| Number | Date | Country | |
|---|---|---|---|
| 63423485 | Nov 2022 | US |
