Fishing tackle with a rod body
Patent Information
- Application Number
- CN202611246292.6
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Priority Date
- 2018-11-06
- Filing Date
- 2019-11-06
- Publication Date
- 2026-09-15
AI Technical Summary
如上所述,通过在多节竿体彼此的连结部分的前后具有阶差部的朝向互不相同的带痕区域,从而在振出式钓具中能够容易地将前侧竿体收纳于后侧竿体,在插节式钓具中能够容易地将前后竿体彼此分离。
Smart Images

Figure CN122744288A_ABST
Abstract
Description
[0001] Divisional application This application is a divisional application of patent application filed on November 6, 2019, with application number 201911076951.6 and invention title: Fishing tackle with rod body. Technical Field
[0002] This invention relates to fishing tackle such as a telescopic rod and a telescopic rod. Background Technology
[0003] For example, a vibrating rod has multiple sections. The rod blank is typically formed from a pre-impregnated material. The pre-impregnated material is wound around a mandrel and pressed onto it with a forming strip. As a result, after the forming strip is peeled off, spiral marks remain on the rod blank. The outer circumference of the rod blank is then ground to remove these marks.
[0004] Existing technical documents Patent documents Patent Document 1: JP Japanese Patent Application Publication No. 8-38002 Summary of the Invention
[0005] Therefore, the present invention was made in view of the above-mentioned existing problems, and its subject is to actively use traces.
[0006] This invention was made to solve the aforementioned problem. The fishing tackle with a rod body according to this invention is a telescopic fishing tackle in which multiple rod sections are connected in a telescopic manner. The front rod body has a stepped portion with a groove formed by a shaping band on its rear outer peripheral surface, facing forward, and the rear rod body has a stepped portion with a groove formed by a shaping band on its front outer peripheral surface, facing backward, and facing backward. In addition, the rod tip side is designated as the front side, and the rod butt side is designated as the rear side.
[0007] For example, when the telescopic rod is extended, the outer circumferential surface of the rear end of the front rod body abuts against and is fixed to the inner circumferential surface of the front end of the rear rod body through friction. When retracting the telescopic rod, for example, by holding the rear of the front rod body with the right hand and the front of the rear rod body with the left hand, bringing the right hand closer to the left hand, the front rod body is tucked inside the rear rod body. A front band mark area is formed on the outer circumferential surface of the rear part of the front rod body. Since the step portion of the front band mark area faces forward, the right hand is less likely to slip to the rear. Furthermore, a rear band mark area is formed on the outer circumferential surface of the front part of the rear rod body. Since the step portion of the rear band mark area faces backward, the left hand is less likely to slip to the front. Therefore, the front rod body can be easily tucked into the rear rod body.
[0008] In particular, when the rod comprises a first rod body, a second rod body connected to the rear of the first rod body, and a third rod body connected to the rear of the second rod body, it is preferable that the first rod body has a front band mark area on its rear outer peripheral surface, the second rod body has a rear band mark area on its front outer peripheral surface and a front band mark area on its rear outer peripheral surface, and the third rod body has a rear band mark area on its front outer peripheral surface. By having both the rear band mark area and the front band mark area on the second rod body located between the first and third rod bodies, it is easy to store the second rod body within the third rod body and it is also easy to store the first rod body within the second rod body. Furthermore, in this case, the telescopic rod only needs to have at least three rod sections, but it can also have four or more rod sections. When the telescopic rod has four or more rod sections, the first rod body can be a tip rod, a second rod section (tip rod) connected to the rear of the tip rod, or a third rod section connected to the rear of the second rod section, etc. In a rod with four or more sections, the three consecutive sections are the first to the third rod sections.
[0009] Furthermore, preferably, the tip rod has a front band mark area on its rear outer circumference, the tail rod has a rear band mark area on its front outer circumference, and one or more intermediate rod sections located between the tip rod and the tail rod have a rear band mark area on their front outer circumference and a front band mark area on their rear outer circumference. Additionally, when multiple intermediate rod sections are provided, each section preferably has both a rear band mark area and a front band mark area.
[0010] Furthermore, the fishing tackle with a rod body involved in this invention is a multi-section rod body that can be connected and separated front and back. The front rod body has a rear band mark area on the outer peripheral surface of the rear part, which is a stepped portion formed by a forming band and faces the rear side. The rear rod body has a front band mark area on the outer peripheral surface of the front part, which is a stepped portion formed by a forming band and faces the front side.
[0011] For example, in a telescoping rod, the rear end of the front rod body is joined to the front end of the rear rod body. When separating the two connected rod bodies, for instance, by holding the rear of the front rod body with the right hand and the front of the rear rod body with the left hand, the rod bodies are pulled apart by moving the right hand away from the left hand. A rear band mark area is formed on the outer circumference of the rear part of the front rod body. Because the step portion of the rear band mark area faces rearward, the right hand is less likely to slip forward. Similarly, a front band mark area is formed on the outer circumference of the front part of the rear rod body. Because the step portion of the front band mark area faces forward, the left hand is less likely to slip backward. Therefore, the front and rear rod bodies can be easily separated.
[0012] In particular, it is preferable that the tip rod has a rear band mark area on its rear outer peripheral surface, the tail rod has a front band mark area on its front outer peripheral surface, and one or more intermediate rod sections located between the tip rod and the tail rod have a front band mark area on their front outer peripheral surface and a rear band mark area on their rear outer peripheral surface. By having both a front band mark area and a rear band mark area on the intermediate rod, it is easy to separate the intermediate rod from the rod body before and after it. Furthermore, in the case of multiple intermediate rod sections, it is preferable that each of the multiple intermediate rod sections has a front band mark area and a rear band mark area.
[0013] The effects of the invention As described above, by having stepped areas with different orientations at the front and rear of the connecting parts of the multi-section rod, the front rod can be easily stored in the rear rod in a telescoping tackle, and the front and rear rods can be easily separated in a tack rod. Attached Figure Description
[0014] Figure 1 This is a front view showing the main part of the vibrating rod according to an embodiment of the present invention; Figure 2(a) is an enlarged cross-sectional view of the front stripe area, and (b) is a cross-sectional view showing the state of the forming strip in the same area before peeling. Figure 3(a) is an enlarged cross-sectional view of the area with the back strip mark, and (b) is a cross-sectional view showing the state of the forming strip in the same area before peeling. Figure 4 This is a front view showing the main part of the vibrating rod; Figures 5(a) and (b) are front views showing the main parts of the vibrating rod; Figure 6 This is a front view showing the main part of the insertion rod according to another embodiment of the present invention; Figure 7 This is a front view showing the main part of the connector rod. Detailed Implementation
[0015] The following is for reference Figure 1 Figure 5 illustrates a telescoping rod as fishing tackle according to one embodiment of the present invention. The telescoping rod has a multi-section rod body. The multi-section rod body is telescopically connected. In this embodiment, a hand rod (extended rod) without a fishing line guide is shown, but it can also be a fishing rod with a fishing line guide, such as a surf rod.
[0016] Figure 1The diagram shows the connection between two sections 1 and 2 of a multi-section telescopic rod. Sections 1 and 2 can be any two sections of the multi-section rod, as long as they are connected end-to-end. When the telescopic rod is extended, the outer circumferential surface of the rear end of the front section 1 abuts against and is fixed to the inner circumferential surface of the front end of the rear section 2 through friction, preventing the front section 1 from being pulled further forward from the rear section 2. When the telescopic rod is to be retracted, the front section 1 is retracted inside the rear section 2.
[0017] The front rod body 1 and the rear rod body 2 each have a cylindrical rod blank 10 and rod blank 20 formed from a pre-impregnated material, respectively. On the outer peripheral surface of the rod blank 10 and rod blank 20, there are areas with residual spiral-shaped band marks formed by the forming strip. The rod blank 10 and rod blank 20 are formed by winding the pre-impregnated material around a mandrel and then pressing and calcining it. During pressing, the forming strip is wound into a spiral shape on the pre-impregnated material at a predetermined interval. The interval is, for example, several millimeters, less than the width of the forming strip. In particular, the interval is preferably less than half the width, preferably about 1 / 10 of the width, and preferably less than 2 mm. The forming strip is wound into a spiral shape while overlapping with an adjacent forming strip. The forming strip is peeled off after calcination. The outer peripheral surface of the rod blank 10 and rod blank 20 after peeling off the forming strip forms a spiral-shaped band mark, also referred to as a seam. The strip mark has a stepped portion. If the forming strip is wound from the rear end to the front end of the rod blank 10 and 20, the stepped portion of the strip mark faces rearward. That is, the end face of the stepped portion of the strip mark faces rearward. If the forming strip is wound from the front end to the rear end of the rod blank 10 and 20, the stepped portion of the strip mark faces forward. That is, the end face of the stepped portion of the strip mark faces forward.
[0018] On the rear part of the outer peripheral surface of the rod blank 10 of the front rod body 1, there is a stepped portion 11 of the forming strip 100 remaining, facing the front strip mark region 12. The front strip mark region 12 is shown in FIG2(a). As shown in FIG2(a), in the front strip mark region 12, the end face 11a of the stepped portion 11 of the strip mark faces the front. The stepped portions 11 of the strip mark are formed at fixed intervals along the axial direction of the rod blank 10, that is, in the front-back direction. The interval between these stepped portions 11 is the winding pitch of the forming strip 100.
[0019] In Figure 2(a), for simplicity, the portion between adjacent stepped portions 11 is represented as a straight, tapered surface 13 that tapers to the rear, but most of the tapered surface 13 can also be a substantially non-inclined circumferential surface. The end face 11a of the stepped portion 11 has a steep angle, while the tapered surface 13 has a gentle angle. As shown in Figure 2(b), the band marks in this front band mark region 12 are formed by winding the forming strip 100 into a spiral shape on the outer circumferential surface of the prepreg. In Figure 2(b), the width of the forming strip 100 is reduced for easier observation. In this way, the forming strip 100 is wound into a spiral shape from the front side toward the rear side with overlapping edges at a predetermined interval in the front band mark region 12. If the forming strip 100 is peeled off after heating and calcination, it becomes the state shown in Figure 2(a).
[0020] On the other hand, a rear strip mark region 22, with a stepped portion 21 of the forming strip 100 remaining on the outer periphery of the rod blank 20 of the rear rod body 2 facing rearward, is formed. The rear strip mark region 22 is shown in FIG3(a). As shown in FIG3(a), in the rear strip mark region 22, the end face 21a of the stepped portion 21 of the strip mark faces rearward, configured to face in the opposite direction to the front strip mark region 12. The stepped portions 21 of the strip mark are formed at fixed intervals along the axial direction of the rod blank 20, i.e., the front-rear direction. The interval between these stepped portions 21 is the winding pitch of the forming strip 100. In this embodiment, the pitch is set to be the same as the pitch in the front strip mark region 12, but they may also be different. The forming strip 100 in the front strip mark region 12 and the forming strip 100 in the rear strip mark region 22 may be the same as each other or different. That is, the material, thickness, bandwidth, tension, etc. of the forming strip 100 may be the same or different.
[0021] In Figure 3(a), for simplicity, the portion between adjacent step portions 21 is represented as a straight conical surface 23 that expands rearward, but most of the conical surface 23 can also be a substantially non-inclined circumferential surface. The end face 21a of the step portion 21 has a steep angle, while the conical surface 23 has a gentle angle. As shown in Figure 3(b), the band marks in this rear band mark region 22 are formed by winding the forming strip 100 into a spiral shape on the outer circumferential surface of the prepreg. In Figure 3(b), the width of the forming strip 100 is reduced for easier observation. In this way, in the rear band mark region 22, the forming strip 100 is wound into a spiral shape with overlapping edges at a predetermined interval from the rear side toward the front side. If the forming strip 100 is peeled off after heating and calcination, it becomes the state shown in Figure 3(a).
[0022] When retracting the rod, for example, hold the rear of the front rod body 1 with your right hand and the front of the rear rod body 2 with your left hand, bringing your right hand close to your left hand to retract the front rod body 1 inside the rear rod body 2. A front banding region 12 is formed on the outer circumferential surface of the rear part of the front rod body 1. Since the step portion 11 of the front banding region 12 faces forward, the right hand is less likely to slip to the rear. Furthermore, a rear banding region 22 is formed on the outer circumferential surface of the front part of the rear rod body 2. Since the step portion 21 of the rear banding region 22 faces rear, the left hand is less likely to slip to the front. That is, it is easy to bring both hands close together. Therefore, the fixed state formed by friction between the outer circumferential surface of the rear end of the front rod body 1 and the inner circumferential surface of the front end of the rear rod body 2 can be easily released, and the front rod body 1 can be easily retracted into the rear rod body 2.
[0023] Figure 4 The overall structure of the vibrating rod is simplified and shown in the figure. Figure 4 For simplicity, this description focuses on a four-section rod, but the same applies to rods with five or more sections. The extended rod, starting from the front, consists of a tip rod (3), a second section (called the tip support rod) (4), a third section (called the handle rod) (5), and a tail rod (6). The numbers for the second section (4) and third section (5) are the same as when the tip rod (3) is number 1. The second section (4) and third section (5) form the middle section between the tip rod (3) and the tail rod (6). Figure 4 The image shows the case of a two-section intermediate rod, but the same applies even if there are three or more intermediate rods.
[0024] The tip rod 3 has a front band mark region 12 on the outer peripheral surface of the rear part of the rod blank 30. The front band mark region 12 can be formed along the entire length of the outer peripheral surface of the tip rod 30, or it can be formed only in the rear part of the entire length of the outer peripheral surface of the tip rod 30. The tail rod 6 has a rear band mark region 22 on the outer peripheral surface of the front part of the rod blank 60. The rear band mark region 22 can be formed along the entire length of the outer peripheral surface of the tail rod 60, or it can be formed only in the front part of the entire length of the outer peripheral surface of the tail rod 60. The second section rod 4 has a rear band mark region 22 on the outer peripheral surface of the front part of the rod blank 40, and a front band mark region 12 on the outer peripheral surface of the rear part of the rod blank 40.
[0025] Figure 5(a) shows the entirety of the second rod section 4. Approximately half of the front side of the outer periphery of the rod blank 40 of the second rod section 4 is the rear band mark region 22. Approximately half of the rear side of the outer periphery of the rod blank 40 of the second rod section 4 is the front band mark region 12. The outer periphery of the rod blank 40 of the second rod section 4 is divided into two regions: the front rear band mark region 22 and the rear front band mark region 12. In this embodiment, the ratio of the rear band mark region 22 to the front band mark region 12 is approximately 1:1, but it can be any ratio. The junction 90 between the rear band mark region 22 and the front band mark region 12 is arbitrary. In this embodiment, the junction 90 is located at the center of the rod blank 40 in the front-rear direction, but the junction 90 can also be located further forward or further backward than the center of the rod blank 40 in the front-rear direction. This junction 90 is the portion where the winding direction of the forming strip 100 changes.
[0026] Alternatively, as shown in Figure 5(b), a coating section 91 of a predetermined length can be formed in the center of the rod blank 40 in the front-rear direction. If the coating section 91 is provided, the rear marking area 22 and the front marking area 12 are divided by the coating section 91. The coating section 91 is formed covering the entire circumference of the outer peripheral surface of the rod blank 40. The coating section 91 covers the junction 90 of the rod blank 40. The coating section 91 is formed by applying a coating to a predetermined length portion of the outer peripheral surface of the rod blank 40, including the junction 90, after grinding. Markings are removed from the coating section 91 by grinding. Markings can also be removed from the outer peripheral surface of the rear end of the front end of the rod body, such as the rear end of the tip rod 3, the rear end of the second section rod 4, or the rear end of the third section rod 5, which are connecting parts to the rear rod body.
[0027] The third section 5 has the same structure as the second section 4. That is, the third section 5 has a rear band mark region 22 on the outer peripheral surface of the front part of the rod blank 50, and a front band mark region 12 on the outer peripheral surface of the rear part of the rod blank 50. In addition, when there are three or more intermediate rods, it is preferable that all three or more intermediate rods have the same rear band mark region 22 and front band mark region 12 as the second section 4 or the third section 5 described above. In this way, by having the second section 4 or the third section 5, which is an intermediate rod, have the rear band mark region 22 and the front band mark region 12, it is easy to store the third section 5 in the tail rod 6, easy to store the second section 4 in the third section 5, and easy to store the tip rod 3 in the second section 4.
[0028] Next, the case of the jointed rod will be explained. The jointed rod has multiple sections. These sections can be connected and separated. The jointing methods of the jointed rod include parallel jointing, reverse parallel jointing, and incense stick jointing, etc. As an example, the parallel jointing method will be shown below. Figure 6 A pole with two or more sections is acceptable. Figure 6The diagram shows the connection between two sections 1 and 2 of a multi-section rod. Sections 1 and 2 can be any two sections of the multi-section rod, as long as they are connected end-to-end. In the spliced rod, the rear end of the front section 1 engages with the front end of the rear section 2. In the parallel connection, with the front section 1 and rear section 2 connected, the outer circumferential surface of the rear end of the front section 1 abuts against and is fixed to the inner circumferential surface of the front end of the rear section 2 through friction, preventing the front section 1 from moving further rearward.
[0029] A rear band mark region 22 remains on the rear outer periphery of the rod blank 10 of the front rod body 1, and a front band mark region 12 remains on the front outer periphery of the rod blank 20 of the rear rod body 2. When the front rod body 1 and the rear rod body 2 are separated, for example, by holding the rear of the front rod body 1 with the right hand and the front of the rear rod body 2 with the left hand, the rod bodies 1 and 2 are pulled apart by moving the right hand away from the left hand. The rear band mark region 22 is formed on the outer periphery of the rear part of the front rod body 1. Since the step portion 21 of the rear band mark region 22 faces the rear, the right hand is less likely to slip forward. Similarly, the front band mark region 12 is formed on the outer periphery of the front part of the rear rod body 2. Since the step portion 11 of the front band mark region 12 faces the front, the left hand is less likely to slip backward. In other words, the two hands can be easily separated. Therefore, the fixed state formed by friction between the outer peripheral surface of the rear end of the front rod 1 and the peripheral surface of the front end of the rear rod 2 can be easily released, and the front and rear rods 1 and 2 can be easily separated from each other.
[0030] Figure 5 shows a simplified overall structure of the jointed rod. For simplicity, Figure 5 illustrates a three-section rod, but the same applies even with four or more sections. The jointed rod comprises a tip rod 3, a second section rod 4, and a tail rod 6. The second section rod 4 is the middle section, but the same applies to middle sections with two or more sections. The tip rod 3 has a rear band mark region 22 on the outer peripheral surface of the rear portion of the rod blank 30. The rear band mark region 22 may be formed along the entire length of the outer peripheral surface of the tip rod 3, or it may be formed only at the rear portion of the entire length of the outer peripheral surface of the tip rod 3, or it may be formed only at the rear portion of the entire length of the outer peripheral surface of the tip rod 3, or it may be formed only at the front portion of the entire length of the outer peripheral surface of the tail rod 6 ... The second section of the rod 4 has a front band mark region 12 on the outer peripheral surface of the front part of the rod blank 40, and a rear band mark region 22 on the outer peripheral surface of the rear part of the rod blank 40.
[0031] The front half of the outer periphery of the rod blank 40 of the second rod section 4 is designated as the front banding region 12, and the rear half as the rear banding region 22. The outer periphery of the rod blank 40 of the second rod section 4 is divided into the front banding region 12 and the rear banding region 22. The ratio of the front banding region 12 to the rear banding region 22 is approximately 1:1 in this embodiment, but can be various ratios. The junction 90 between the front banding region 12 and the rear banding region 22 can be at any position. In this embodiment, the junction 90 is located at the center of the rod blank 40 in the front-rear direction, but the junction 90 may also be located further forward or further backward than the center of the rod blank 40 in the front-rear direction. Furthermore, a coating portion 91 may be provided at the junction 90. In this way, by giving the second section 4, which serves as the middle rod, two areas—the front scar area 12 and the rear scar area 22—it is easy to separate the tail rod 6 from the second section 4, and it is also easy to separate the second section 4 from the tip rod 3. The same applies to reverse-jointed or incense-jointed rods.
[0032] In addition, in the above embodiments, a telescopic rod or a sectioned rod is exemplified as a fishing tackle with a rod body, but the fishing tackle may also be a handle or a rod hanger in addition to a fishing rod. Attached image description: 1. Front rod body 2. Rear rod body 3. Tip-shaped pole 4. Second section of the rod (middle section) 5. Third section of the rod (middle section) 6. Tail rod 10 rod blanks 11th order difference part 11a end face 12 Anterior scar area 13. Inverted conical surface 20 rod blanks 21st order difference part 21a end face 22. Rear scar area 23 Conical surface 30 rod blanks 40 rod blanks 50 rod blanks 60 rod blank 90. Border area 91 Painting Department 100 forming belt.
Claims
1. A fishing tackle, which is a telescopically connected multi-section rod body, comprising: rod body, The front rod body has a stepped portion of the band mark formed by the forming band on the outer peripheral surface of the rear part, which faces the front band mark area, and the rear rod body has a stepped portion of the band mark formed by the forming band on the outer peripheral surface of the front part, which faces the rear band mark area.
2. The fishing tackle according to claim 1, comprising: First rod body; The second rod body, which is connected to the rear side of the first rod body; and The third rod is connected to the rear side of the second rod. The first rod has a front band mark area on its rear outer circumference, the second rod has a rear band mark area on its front outer circumference and a front band mark area on its rear outer circumference, and the third rod has a rear band mark area on its front outer circumference.
3. The fishing tackle according to claim 1, wherein, The tip rod has a front band mark area on the outer circumference of the rear part, the tail rod has a rear band mark area on the outer circumference of the front part, and one or more intermediate rods located between the tip rod and the tail rod have a rear band mark area on the outer circumference of the front part and a front band mark area on the outer circumference of the rear part.
4. A fishing tackle, which is a multi-section rod body that can be connected and separated end to end, comprising: rod body, The front rod body has a rear band mark area on the outer peripheral surface of the rear part, which is formed by a band mark created by a forming band and faces the rear side. The rear rod body has a front band mark area on the outer peripheral surface of the front part, which is formed by a band mark created by a forming band and faces the front side.
5. The fishing tackle according to claim 4, wherein, The tip rod has a rear band mark area on its rear outer circumference, the tail rod has a front band mark area on its front outer circumference, and one or more intermediate rod sections located between the tip rod and the tail rod have a front band mark area on their front outer circumference and a rear band mark area on their rear outer circumference.
Citation Information
Patent Citations
Method for finishing surface of fishing rod
JP1996038002A