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The disclosure relates to shell reloading devices and more particularly pertains to a new shell reloading device for simulataneously performing required steps for reloading ammunition shells using a single reloading press mechanism. Thus, multiple shells can be acted upon simultaneously and the device can be set a single time prior to processing multiple shells in a significantly reduced time.
The prior art relates to shell reloading devices. Conventional reloading presses act upon a single shell at a time. To avoid resetting of the device for each step, a number of shells are typically run through a single step before each shell is then run through a subsequent step.
An embodiment of the disclosure meets the needs presented above by generally comprising a press including a fixed section, a linkage, and a handle pivotally coupled to the fixed section. The handle is coupled to the linkage wherein the linkage is moved relative to the fixed section by operation of the handle. A compressor is operationally coupled to the press such that the compressor provides compression to each of a plurality of stations when the handle is operated. Each of the stations holds a respective shell in a position to be acted upon by the compressor for respective associated steps in reloading each shell.
There has thus been outlined, rather broadly, the more important features of the disclosure in order that the detailed description thereof that follows may be better understood, and in order that the present contribution to the art may be better appreciated. There are additional features of the disclosure that will be described hereinafter and which will form the subject matter of the claims appended hereto.
The objects of the disclosure, along with the various features of novelty which characterize the disclosure, are pointed out with particularity in the claims annexed to and forming a part of this disclosure.
The disclosure will be better understood and objects other than those set forth above will become apparent when consideration is given to the following detailed description thereof. Such description makes reference to the annexed drawings wherein:
With reference now to the drawings, and in particular to
As best illustrated in
A compressor 20 is removably coupled to the press 12. The compressor 20 is operationally coupled to the press 12 such that the press 12 acts on the compressor 20 instead of upon a shaft or piston as in a conventional reloading press. The compressor 20 provides compression to each of a plurality of stations 22 when the handle 18 is operated. Each of the stations 22 is configured for holding a respective one of a plurality of shells 24 such that each respective shell 24 is positioned to be acted upon by the compressor 20 for respective associated steps in reloading each shell 24. The plurality of stations 22 includes a primer removal station 26, a resizing station 28, a primer insertion station 30, a wad insertion station 32, an initial crimping station 34, and a final crimping station 36. Each of the stations 22 is operated by manipulation of the handle 18. The stations 22 may be all used simultaneously by a single use of the handle 18. The stations 22 are also independent of each other meaning that each station 22 may act on the respective shell 24 whether or not any other station 22 is or is not simultaneously acting on another shell 24. The compressor 20 comprises a base section 40 couplable to the linkage 16 of the press 12 in a conventional manner wherein the base section 40 moves with the linkage 16. A top section 42 is coupled to the press 12 in a static position relative to the fixed section 14 of the press 12. Thus, the base section 40 is moved towards the top section 42 by operation of the handle 18 of the press 12. The range of motion of the base section 40 relative to the top section 42 is generally larger than may be needed for at least one of the stations 22. The compressor 20 includes a medial frame 44 supported between the top section 42 and the base section 40 in a resting position spaced over the base section 40. The medial frame 44 is engaged by the bottom section 40 part way through the full range of motion between the base section 40 and the top section 42 effectively providing a second smaller range of motion for the medial frame 44 than for the base section 40. The medial frame 44 is moved toward the top section 42 when the base section 40 is moved fully towards the top section 42.
The primer removal station 26 comprises a primer removal post 46 coupled to and extending vertically upwards from the base section 40. The primer removal post 46 has a distal end 48 relative to the base section 40. A primer removal aperture 50 extends through the top section 42. The primer removal aperture 50 is vertically aligned with the primer removal post 46 such that the distal end 48 of the primer removal post 46 extends through the primer removal aperture 50 when the compressor 20 is fully compressed. Thus, the primer removal post 46 is configured to push a used primer out of a shell 24 positioned in the primer removal station 26 and through the primer removal aperture 50 where the used primer may be removed for disposal.
The resizing station 28 comprises a collet 52 coupled to the top section 42 of the compressor 20. The collet 52 has a threaded connection base 108 for connection to the press 12. An appropriately sized adapter 106 may be used for connection of variously sized collets 52 as desired. The range of motion required for resizing of a brass head 54 of the shell 24 is less than for the other stations 22. Thus, a sleeve 56 is coupled to the medial frame 44. The sleeve 56 is positioned to compress the collet 52 wherein the collet 52 is configured for compressing and resizing the brass head 54 of the shell 24 inserted into the collet 52. Each of the collet 52 and the sleeve 56 is removably coupled to the compressor 20 such that the collet 52 and sleeve 56 are interchangeable with a differently sized second collet and second sleeve. It is understood that one of ordinary skill in the art would understand interchangeable parts would require similar conventional coupling to the compressor 20 in combination with changes to the size of the collet 52 and sleeve 56 to provide the various sizes desired for resizing. Thus, the compressor 20 is configurable for resizing to a selectable desired shell size.
The primer insertion station 30 comprises a priming mechanism 58. The priming mechanism 58 is a generally conventional mechanism which would be known to one skilled in the art as it is currently used for insertion of a primer into a shell. Generally, the priming mechanism 58 supports a new primer while allowing the brass head of a shell to be positioned in proper alignment for compression such that the supported new primer is urged into the primer space in the brass head of the shell. The priming mechanism 58 is coupled to the base section 40 in a conventional manner. This may include use of a slot directly in the base section 40 or in a support coupled to the base section 40. The priming mechanism 58 is configured to receive the new primer and have the shell 24 positioned on the priming mechanism 58 over the new primer. A rod 60 is coupled to the top section 42. The rod 60 is aligned over the priming mechanism 58 wherein the rod 60 is configured to compress the shell 24 against the priming mechanism 58 wherein the new primer is inserted into the shell 24 when the handle 18 is operated. The rod 60 is interchangeable to accommodate insertion of primers for different sized shells.
The wad insertion station 32 comprises a wad insertion seat 62 is coupled to the base section 40. The wad insertion seat 62 is configured for engaging the brass head of the shell 24 after a proper powder charge is placed into the shell 24. A wad insertion guide 64 coupled to the base section 40 and positioned over the wad insertion seat 62 such that the wad insertion guide 64 is configured to engage and hold an open end 66 of the shell 24. The wad insertion guide 64 has a wad insertion opening 68 configured to be aligned with the open end 66 of the shell 24. A wad tamper 70 is coupled to the top section 42 of the compressor 20 wherein the wad tamper 70 is insertable through the wad insertion opening 68 such that the wad tamper 70 is configured for pressing a wad 72 inserted into the open end 66 of the shell 24 towards the brass head when the handle 18 is operated. By proper spacing of the wad insertion guide 64 and a bottom end 74 of the wad tamper 70, the wad 72 can be placed on the wad insertion guide 64 and held upright by the wad tamper 70 sufficiently that the wad 72 will be driven into the shell 24 upon operation of the handle 18 without needing to be held by hand. This requires closeness which may interfere with positioning of the wad 72. To address this issue, the wad tamper 70 is pivotable, using set screws 110 or similar conventional mechanisms, relative to the fixed section 14 into a wad loading position wherein the bottom end 74 of the wad tamper 70 is angled laterally away from the wad insertion opening 68 wherein the wad tamper 70 is configured for facilitating positioning of the wad 72 onto the wad tamper 70 before pivoting the wad tamper 70 back into alignment with the wad insertion opening 68. The wad tamper 70 is slidable towards the wad insertion seat 62 wherein the wad tamper 70 is configured for tamping the wad 72 further into the shell 24 after the compressor 20 is fully compressed. This insures the wad 72 is properly compressed against the powder charge. A distance between the wad insertion guide 64 and the wad insertion seat 62 when the compressor is fully compressed is adjustable. One manner of achieving this adjustment is as shown wherein a threaded rod 76 is fixed extending up from the base section 40. Nuts 78 are used to secure the wad insertion guide 64 at a desired position along the threaded rod 76. Alternatively, or in combination with the above adjustment, the wad insertion seat 62 may be coupled to the base section 40 at an adjustable effective height either by interchangeable seats of varying heights or by use of an adjustable height intermediate support structure between the base section 40 and the wad insertion seat 62. Thus, the wad insertion station 32 is configured for holding and inserting wads into shells having a variety of different lengths. Each of the wad insertion seat 62 and wad insertion guide 64 may also be interchangeable with alternative pieces to accommodate variations in size such as ten or twelve gauge shells.
The initial crimping station 34 comprises an initial crimping seat 80 coupled to the base section 40 of the compressor 20. An initial crimping mold 82 is coupled to the top section 42 of the compressor 20 and vertically aligned over the initial crimping seat 80. Initial crimping molds are conventionally known and provided with a lip which may be used to engage a slot or socket in the top section 42 to position the initial crimping mold 82 consistently over the initial crimping seat 80. The initial crimping mold 82 is spaced from the initial crimping seat 80 such that the initial crimping mold 82 is configured to begin crimping of the open end 66 of the shell 24 seated in the initial crimping seat 80 after the shell 24 is filled with shot. A distance between the initial crimping seat 80 and the initial crimping mold 82 when the compressor 20 is fully compressed is adjustable. This can be achieved in the same manner of adjustment as described above pertaining to the wad insertion seat 62. Thus, the initial crimping station 34 is configured for holding and initially crimping shells 24 having a variety of different lengths. The initial crimping seat 80 and initial crimping mold 82 are also replaceable to accommodate variously sized shells 24.
The final crimping station 36 is similar to the initial crimping station 34. The final crimping station 36 includes a final crimping seat 84 coupled to the base section 40 of the compressor 20. A final crimping mold 86 is coupled to the top section 42 of the compressor 20 and vertically aligned over the final crimping seat 84. The final crimping mold 86 is spaced from the final crimping seat 84 such that the final crimping mold 86 is configured to finish crimping of the shell 24 seated in the final crimping seat 84 to close the open end 66 of the shell 24 completing the overall reloading process. In the same manner as described above for the initial crimping station 34, a distance between the final crimping seat 84 and the final crimping mold 86 when the compressor 20 is fully compressed is adjustable. Thus, the final crimping station 36 is configured for holding and finally crimping shells 24 having a variety of different lengths. The final crimping seat 84 and final crimping mold 86 are also replaceable to accommodate variously sized shells 24.
The handle 18 may have a base portion 88, an upper portion 90, and an offset portion 92 between the base portion 88 and the upper portion 90. The base portion 88 is rotatably coupled to the fixed section 40 of the press 12 wherein the upper portion 90 of the handle 18 is selectively positionable between and end 94 of the press 12 and a side 96 of the press 12 when the handle 18 is in an unpivoted position 98. The handle 18 is rotatable such that the upper portion 90 is selectively positionable between a lowered position 100 and a raised position 102 while the handle 18 is in a pivoted position 104. Thus, the handle 18 may be initially pivoted until the upper portion 90 is in the lowered position 100. To increase leverage for completion of the full range of motion, the handle 18 is rotatable to the raised position 102 facilitating further pivoting of the handle 18 through the remainder of the range of pivoting motion for the handle 18.
In use, the device 10 provides for a method of reloading shells 24. The method comprises sequential steps moving individual shells 24 through the primer removal station 26, the resizing station 28, the primer insertion station 30, the wad insertion station 32, the initial crimping station 34, and the final crimping station 36. The method may include an initial step of running through each station with a single shell 24 to insure settings, spacing, and sizing of each station 22 prior to reloading multiple shells sequentially through the stations. The initial operation of the handle 18 will act upon one shell 24 with each subsequent operation adding an additional shell 24 to the sequential process until each station 22 is acting upon a respective shell 24.
With respect to the above description then, it is to be realized that the optimum dimensional relationships for the parts of an embodiment enabled by the disclosure, to include variations in size, materials, shape, form, function and manner of operation, assembly and use, are deemed readily apparent and obvious to one skilled in the art, and all equivalent relationships to those illustrated in the drawings and described in the specification are intended to be encompassed by an embodiment of the disclosure.
Therefore, the foregoing is considered as illustrative only of the principles of the disclosure. Further, since numerous modifications and changes will readily occur to those skilled in the art, it is not desired to limit the disclosure to the exact construction and operation shown and described, and accordingly, all suitable modifications and equivalents may be resorted to, falling within the scope of the disclosure. In this patent document, the word “comprising” is used in its non-limiting sense to mean that items following the word are included, but items not specifically mentioned are not excluded. A reference to an element by the indefinite article “a” does not exclude the possibility that more than one of the element is present, unless the context clearly requires that there be only one of the elements.
Number | Name | Date | Kind |
---|---|---|---|
937604 | Hodge | Oct 1909 | A |
1066980 | Bailey | Jul 1913 | A |
1474355 | Fraser | Nov 1923 | A |
2031850 | Peterson | Feb 1936 | A |
2061977 | Newcomb | Nov 1936 | A |
2819644 | Corcoran | Jan 1958 | A |
3001436 | Deitemeyer | Sep 1961 | A |
3057247 | Alfrede | Oct 1962 | A |
3110214 | Hess, Sr. | Nov 1963 | A |
3113483 | Puth | Dec 1963 | A |
3336829 | Lee | Aug 1967 | A |
3376781 | Swanson | Apr 1968 | A |
3450000 | Ponsness | Jun 1969 | A |
3693497 | Jacobitz | Sep 1972 | A |
3702089 | Bachhuber | Nov 1972 | A |
3732774 | Griffin | May 1973 | A |
3771411 | Hazel | Nov 1973 | A |
4065997 | Allen | Jan 1978 | A |
4078472 | Simpson | Mar 1978 | A |
4133249 | Bachhuber | Jan 1979 | A |
4177711 | Lee | Dec 1979 | A |
4188855 | Alberts | Feb 1980 | A |
4522102 | Pickens | Jun 1985 | A |
4637291 | Alexander | Jan 1987 | A |
4723472 | Lee | Feb 1988 | A |
4836078 | Lee | Jun 1989 | A |
5040449 | Lee | Aug 1991 | A |
5177315 | Burgess | Jan 1993 | A |
5202529 | Shields | Apr 1993 | A |
5221806 | Chaney | Jun 1993 | A |
5649465 | Beebe | Jul 1997 | A |
5900574 | Hart | May 1999 | A |
6318226 | Swedberg | Nov 2001 | B1 |
6772668 | Shields | Aug 2004 | B2 |
9605936 | Burgan | Mar 2017 | B1 |
10794676 | Aerni | Oct 2020 | B1 |
20040025677 | Koch | Feb 2004 | A1 |
20040025678 | Shields | Feb 2004 | A1 |
20100037758 | Lee | Feb 2010 | A1 |
20130139675 | Baxter | Jun 2013 | A1 |