Patent Application
20230123996
The present invention relates in general to the field of forming compacts from powdered material.
None.
None.
Without limiting the scope of the invention, its background is described in connection with the compaction of powder in an ammunition cartridge.
U.S. Pat. No. 1,913,259, entitled, “Explosive cartridge and method of making the same,” discloses improvements in explosive cartridges and methods of making the same. The invention provides an improved explosive cartridge comprising a powder-packed shell container having its ends closed and sealed cup-shaped closure members which fit nicely into the ends of the container and are interlocked therewith and sealed thereto by means of a self-hardening sealing medium, such as paraffin wax.
U.S. Pat. No. 4,083,912, entitled, “Process for the compression of black powder,” discloses a method for the continuous production of compressed higher density black powder comprising feeding from a feed container means mealy black powder of low density enclosed between upper and lower endless belts into a precompression zone, to produce precompressed black powder, and to expel air contained in said black powder, passing the precompressed black powder through a primary compressing zone containing a primary compression means to achieve a new orientation and displacement of the said black powder, then passing the black powder through a final compressing zone containing a final compression means, while supplying the final pressure to obtain breaking or flow of the crystals as well as crystal lattice displacements of said black powder, and recovering the compressed higher density black powder, each of said primary compression means and said final compression means being capable of building-up compaction pressure as well as being capable of idling, the black powder being moved through said precompression zone, said primary compressing zone and said final compressing zone by synchronized lateral movement of said primary and final compression means towards and away from each other and said black powder being withdrawn from said feed container means onto said lower belt by said movement of said primary and final compression means, whereby the build-up of compaction pressure and the idling time of each of said primary and final compression means is synchronized with the forward movement of said black powder caused by the advancing movement of said primary and final compression means.
U.S. Pat. No. 3,670,928, entitled, “Powder metering device for loading ammunition,” discloses a powder metering device includes a powder reservoir, a pouring conduit below the reservoir and an elongated cylindrical channel between the reservoir and the pouring conduit. Inlet and outlet openings provide communication into the channel from the reservoir and the pouring conduit, respectively. A cylindrical slide having a reduced diameter portion intermediate its length is slidably mounted in the channel. The reduced diameter portion provides a metering chamber for receiving powder from the inlet conduit and for emptying the powder out of the outlet conduit. The opposite ends of the metering chamber are movable toward and away from one another so as to vary the size of the metering chamber. Grooves on the slide prevent shearing off of powder particles as the slide moves past the inlet opening. Emptying means on the powder reservoir permit the removal of unused powder without the necessity of inverting the metering device.
The present invention provides a process for the compacting of black powder, which is suitable for a fully or partially automated manufacturing plant.
The present invention provides a powder compaction device comprising a loading platform positioned above a lower platform; a drive motor connected to the loading platform; a compaction rod operably extending from the drive motor through the loading platform, wherein the compaction rod comprises a metering region adjacent to a loading region extending to a compaction end; a first funnel-shaped device positioned below the loading platform, wherein the first funnel-shaped device comprises a first funnel shaped area extending to a first funnel aperture, wherein the first funnel aperture aligns to allow the metering region of the compaction rod to pass through the first funnel aperture; an ammunition cartridge fixture positioned below the first funnel-shaped device, wherein the ammunition cartridge fixture comprises a second funnel-shaped area extending to a second funnel aperture that connects to an ammunition cartridge shaped void adapted to receive an ammunition cartridge, wherein the second funnel aperture aligns with the first funnel aperture to allow the loading region of the compaction rod to pass through the second funnel aperture and the compaction end in the ammunition cartridge shaped void; a one or more metering reliefs positioned in the metering region of the compaction rod, wherein each of the one or more reliefs has a powder metering volume; a powder reservoir comprising a powder housing connected to a powder gate operably connected to a transport conduit in communication with the first funnel-shaped area to transport a powder from the powder housing to the first funnel-shaped area; a compaction controller in communication with the drive motor and one or more first sensors to control the vertical movement of the compaction rod and to control the force applied to the compaction rod end whereby controlling the compaction of the powder at the compaction end; a powder metering controller in communication with the powder gate and one or more second sensors to control the amount of the powder delivered to the first funnel-shaped area; and a loading controller in communication with the drive motor to control the vertical movement of the metering region of the compaction rod, wherein the loading controller positions the metering region and the one or more metering reliefs above the first funnel aperture to allow the powder into the one or more metering reliefs to load the powder, wherein the loading controller releases the powder by moving the metering region and the one or more metering reliefs through the first funnel aperture to allow the powder to release from the one or more metering reliefs and into the second funnel-shaped area of the ammunition cartridge fixture and through the second funnel aperture. In some embodiments the powder compaction device includes the one or more reliefs comprise a first relief and a second relief. In some embodiments the powder compaction device the first relief and a second relief are about equal. In some embodiments the powder compaction device the first relief and a second relief are not equal. In some embodiments the powder compaction device the one or more reliefs comprise 2, 3, 4, 5, 6, 7, 8, 9 10 or more reliefs. In some embodiments the powder compaction device each of the one or more reliefs are about equal. In some embodiments the powder compaction device each of the one or more reliefs are a different. In some embodiments the powder compaction device each of the one or more reliefs increase in volume. In some embodiments the powder compaction device each of the one or more reliefs decrease in volume. In some embodiments the powder compaction device the compaction rod has a diameter of about the diameter of a projectile aperture in the ammunition cartridge. In some embodiments the powder compaction device the ammunition cartridge shaped void is adapted to receive a 223, 0.243, 0.245, 0.25-06, 0.270, 0.277, 6.8 mm, 0.300, 0.308, 0.338, 0.30-30, 0.30-06, 0.45-70 or 0.50-90, 50 caliber, 45 caliber, 380 caliber or 38 caliber, 5.56 mm, 6 mm, 6.5 mm, 7 mm, 7.62 mm, 8 mm, 9 mm, 10 mm, 12.7 mm, 14.5 mm, 14.7 mm, 20 mm, 25 mm, 30 mm, 40 mm, 57 mm, 60 mm, 75 mm, 76 mm, 81 mm, 90 mm, 100 mm, 105 mm, 106 mm, 115 mm, 120 mm, 122 mm, 125 mm, 130 mm, 152 mm, 155 mm, 165 mm, 175 mm, 203 mm or 460 mm, 4.2 inch or 8 inch ammunition cartridge. In some embodiments the powder compaction device further comprises a compaction foot connected to the compaction end of the compaction rod to aid in compaction. In some embodiments the powder compaction device the compaction foot is fixed on the compaction end of the compaction rod. In some embodiments the powder compaction device the compaction foot extendable from the compaction end of the compaction rod. In some embodiments the powder compaction device the compaction foot is offset from the compaction rod. In some embodiments the powder compaction device the compaction foot, the compaction rod or both rotate to compact the powder. In some embodiments the powder compaction device the loading region has a loading region diameter and the metering region has a metering region diameter and the loading region diameter is less than the metering region diameter. In some embodiments the powder compaction device the loading region has a one or more feeding regions that allow passage from the second funnel-shaped area into the ammunition cartridge shaped void.
The present invention provides a method of powder compaction in an ammunition cartridge comprising the steps of: providing a powder compaction device comprising a loading platform positioned above a lower platform; a drive motor connected to the loading platform; a compaction rod operably extending from the drive motor through the loading platform, wherein the compaction rod comprises a metering region adjacent to a loading region extending to a compaction end; a first funnel-shaped device positioned below the loading platform, wherein the first funnel-shaped device comprises a first funnel shaped area extending to a first funnel aperture, wherein the first funnel aperture aligns to allow the metering region of the compaction rod to pass through the first funnel aperture; an ammunition cartridge fixture positioned below the first funnel-shaped device, wherein the ammunition cartridge fixture comprises a second funnel-shaped area extending to a second funnel aperture that connects to an ammunition cartridge shaped void adapted to receive an ammunition cartridge, wherein the second funnel aperture aligns with the first funnel aperture to allow the loading region of the compaction rod to pass through the second funnel aperture and the compaction end in the ammunition cartridge shaped void; a one or more metering reliefs positioned in the metering region of the compaction rod, wherein each of the one or more reliefs has a powder metering volume; a powder reservoir comprising a powder housing connected to a powder gate operably connected to a transport conduit in communication with the first funnel-shaped area to transport a powder from the powder housing to the first funnel-shaped area; a compaction controller in communication with the drive motor and one or more first sensors to control the vertical movement of the compaction rod and to control the force applied to the compaction rod end whereby controlling the compaction of the powder at the compaction end; a powder metering controller in communication with the powder gate and one or more second sensors to control the amount of the powder delivered to the first funnel-shaped area; and a loading controller in communication with the drive motor to control the vertical movement of the metering region of the compaction rod, wherein the loading controller positions the metering region and the one or more metering reliefs above the first funnel aperture to allow the powder into the one or more metering reliefs to load the powder, wherein the loading controller releases the powder by moving the metering region and the one or more metering reliefs through the first funnel aperture to allow the powder to release from the one or more metering reliefs and into the second funnel-shaped area of the ammunition cartridge fixture and through the second funnel aperture; positioning an ammunition cartridge in the ammunition cartridge shaped void; moving the metering region into the first funnel shaped area above the first funnel aperture; releasing a first powder load into the first funnel shaped area; filling the one or more reliefs with the powder; moving the metering region through the first funnel aperture to release the powder from the one or more reliefs into the second funnel-shaped area; allowing the powder to pass through the second funnel aperture into the ammunition cartridge; moving the compaction end into the ammunition cartridge to compress the powder; compressing the powder with the compaction end; removing the compaction end from the ammunition cartridge and the second funnel aperture; and removing the ammunition cartridge in the ammunition cartridge shaped void. In some embodiments, the method of powder compaction in an ammunition cartridge further comprises the steps of additional powder compactions by repeating powder compaction steps one or more times, wherein the powder compactions steps comprise moving the metering region into the first funnel shaped area above the first funnel aperture; releasing a first powder load into the first funnel shaped area; filling the one or more reliefs with the powder; moving the metering region through the first funnel aperture to release the powder from the one or more reliefs into the second funnel-shaped area; allowing the powder to pass through the second funnel aperture into the ammunition cartridge; moving the compaction end into the ammunition cartridge to compress the powder; compressing the powder with the compaction end; removing the compaction end from the ammunition cartridge and the second funnel aperture before removing the ammunition cartridge in the ammunition cartridge shaped void. In some embodiments, the method of powder compaction in an ammunition cartridge further comprises a compaction foot connected to the compaction end of the compaction rod to aid in compaction. In some embodiments, the method of powder compaction in an ammunition cartridge includes the compaction foot is fixed on the compaction end of the compaction rod. In some embodiments, the method of powder compaction in an ammunition cartridge includes the compaction foot extendable from the compaction end of the compaction rod and further comprising the step of rotating the compaction rod to rotate the compaction foot. In some embodiments, the method of powder compaction in an ammunition cartridge includes the compaction foot is offset from the compaction rod and further comprising the step of rotating the compaction rod to rotate the compaction foot. In some embodiments, the method of powder compaction in an ammunition cartridge includes the one or more reliefs comprise a first relief and a second relief. In some embodiments, the method of powder compaction in an ammunition cartridge includes the first relief and a second relief are about equal. In some embodiments, the method of powder compaction in an ammunition cartridge includes the first relief and a second relief are not equal. In some embodiments, the method of powder compaction in an ammunition cartridge includes the one or more reliefs comprise 2, 3, 4, 5, 6, 7, 8, 9 10 or more reliefs. In some embodiments, the method of powder compaction in an ammunition cartridge includes each of the one or more reliefs are about equal. In some embodiments, the method of powder compaction in an ammunition cartridge includes each of the one or more reliefs are a different. In some embodiments, the method of powder compaction in an ammunition cartridge includes each of the one or more reliefs increase in volume. In some embodiments, the method of powder compaction in an ammunition cartridge includes each of the one or more reliefs decrease in volume. In some embodiments, the method of powder compaction in an ammunition cartridge includes the compaction rod has a diameter of about the diameter of a projectile aperture in the ammunition cartridge. In some embodiments, the method of powder compaction in an ammunition cartridge includes the ammunition cartridge shaped void is adapted to receive a 223, 0.243, 0.245, 0.25-06, 0.270, 0.277, 6.8 mm, 0.300, 0.308, 0.338, 0.30-30, 0.30-06, 0.45-70 or 0.50-90, 50 caliber, 45 caliber, 380 caliber or 38 caliber, 5.56 mm, 6 mm, 6.5 mm, 7 mm, 7.62 mm, 8 mm, 9 mm, 10 mm, 12.7 mm, 14.5 mm, 14.7 mm, 20 mm, 25 mm, 30 mm, 40 mm, 57 mm, 60 mm, 75 mm, 76 mm, 81 mm, 90 mm, 100 mm, 105 mm, 106 mm, 115 mm, 120 mm, 122 mm, 125 mm, 130 mm, 152 mm, 155 mm, 165 mm, 175 mm, 203 mm or 460 mm, 4.2 inch or 8 inch ammunition cartridge.
For a more complete understanding of the features and advantages of the present invention, reference is now made to the detailed description of the invention along with the accompanying figures and in which:
While the making and using of various embodiments of the present invention are discussed in detail below, it should be appreciated that the present invention provides many applicable inventive concepts that can be embodied in a wide variety of specific contexts. The specific embodiments discussed herein are merely illustrative of specific ways to make and use the invention and do not delimit the scope of the invention.
To facilitate the understanding of this invention, a number of terms are defined below. Terms defined herein have meanings as commonly understood by a person of ordinary skill in the areas relevant to the present invention. Terms such as “a”, “an” and “the” are not intended to refer to only a singular entity, but include the general class of which a specific example may be used for illustration. The terminology herein is used to describe specific embodiments of the invention, but their usage does not delimit the invention, except as outlined in the claims.
In operation, The present invention provides a powder compaction device comprising a loading platform positioned above a lower platform; a drive motor connected to the loading platform; a compaction rod operably extending from the drive motor through the loading platform, wherein the compaction rod comprises a metering region adjacent to a loading region extending to a compaction end; a first funnel-shaped device positioned below the loading platform, wherein the first funnel-shaped device comprises a first funnel shaped area extending to a first funnel aperture, wherein the first funnel aperture aligns to allow the metering region of the compaction rod to pass through the first funnel aperture; an ammunition cartridge fixture positioned below the first funnel-shaped device, wherein the ammunition cartridge fixture comprises a second funnel-shaped area extending to a second funnel aperture that connects to an ammunition cartridge shaped void adapted to receive an ammunition cartridge, wherein the second funnel aperture aligns with the first funnel aperture to allow the loading region of the compaction rod to pass through the second funnel aperture and the compaction end in the ammunition cartridge shaped void; a one or more metering reliefs positioned in the metering region of the compaction rod, wherein each of the one or more reliefs has a powder metering volume; a powder reservoir comprising a powder housing connected to a powder gate operably connected to a transport conduit in communication with the first funnel-shaped area to transport a powder from the powder housing to the first funnel-shaped area; a compaction controller in communication with the drive motor and one or more first sensors to control the vertical movement of the compaction rod and to control the force applied to the compaction rod end whereby controlling the compaction of the powder at the compaction end; a powder metering controller in communication with the powder gate and one or more second sensors to control the amount of the powder delivered to the first funnel-shaped area; and a loading controller in communication with the drive motor to control the vertical movement of the metering region of the compaction rod, wherein the loading controller positions the metering region and the one or more metering reliefs above the first funnel aperture to allow the powder into the one or more metering reliefs to load the powder, wherein the loading controller releases the powder by moving the metering region and the one or more metering reliefs through the first funnel aperture to allow the powder to release from the one or more metering reliefs and into the second funnel-shaped area of the ammunition cartridge fixture and through the second funnel aperture.
The present invention provides a method of powder compaction in an ammunition cartridge comprising the steps of: providing a powder compaction device comprising a loading platform positioned above a lower platform; a drive motor connected to the loading platform; a compaction rod operably extending from the drive motor through the loading platform, wherein the compaction rod comprises a metering region adjacent to a loading region extending to a compaction end; a first funnel-shaped device positioned below the loading platform, wherein the first funnel-shaped device comprises a first funnel shaped area extending to a first funnel aperture, wherein the first funnel aperture aligns to allow the metering region of the compaction rod to pass through the first funnel aperture; an ammunition cartridge fixture positioned below the first funnel-shaped device, wherein the ammunition cartridge fixture comprises a second funnel-shaped area extending to a second funnel aperture that connects to an ammunition cartridge shaped void adapted to receive an ammunition cartridge, wherein the second funnel aperture aligns with the first funnel aperture to allow the loading region of the compaction rod to pass through the second funnel aperture and the compaction end in the ammunition cartridge shaped void; a one or more metering reliefs positioned in the metering region of the compaction rod, wherein each of the one or more reliefs has a powder metering volume; a powder reservoir comprising a powder housing connected to a powder gate operably connected to a transport conduit in communication with the first funnel-shaped area to transport a powder from the powder housing to the first funnel-shaped area; a compaction controller in communication with the drive motor and one or more first sensors to control the vertical movement of the compaction rod and to control the force applied to the compaction rod end whereby controlling the compaction of the powder at the compaction end; a powder metering controller in communication with the powder gate and one or more second sensors to control the amount of the powder delivered to the first funnel-shaped area; and a loading controller in communication with the drive motor to control the vertical movement of the metering region of the compaction rod, wherein the loading controller positions the metering region and the one or more metering reliefs above the first funnel aperture to allow the powder into the one or more metering reliefs to load the powder, wherein the loading controller releases the powder by moving the metering region and the one or more metering reliefs through the first funnel aperture to allow the powder to release from the one or more metering reliefs and into the second funnel-shaped area of the ammunition cartridge fixture and through the second funnel aperture; positioning an ammunition cartridge in the ammunition cartridge shaped void; moving the metering region into the first funnel shaped area above the first funnel aperture; releasing a first powder load into the first funnel shaped area; filling the one or more reliefs with the powder; moving the metering region through the first funnel aperture to release the powder from the one or more reliefs into the second funnel-shaped area; allowing the powder to pass through the second funnel aperture into the ammunition cartridge; moving the compaction end into the ammunition cartridge to compress the powder; compressing the powder with the compaction end; removing the compaction end from the ammunition cartridge and the second funnel aperture; and removing the ammunition cartridge in the ammunition cartridge shaped void.
The drive motor 20 may be manually controlled or automatically controlled. The drive motor 20 includes one or more sensors to measure, record, transmit, store, or report one or more physical measurements. For example, the one or more sensors may be force and/or distance sensor that measure the force applied to the compaction rod, the force exerted by the motor, the compression force applied at the tip of the compaction rod, the distance the compaction rod moves, etc. The data from the sensors may be stored, reported and/or used to control the operation of the drive motor. For example, the sensor may record the force applied to the powder and when a specific compression force (e.g., 5-5000 psi) is reached the motor will reverse direction to move the compaction rod opposite direction. The specific parameters (distance or force curve) may vary and depend on the specific powders, caliber, compaction rod diameter or tip profile being used.
The ammunition cartridge fixture 26 is aligned and positioned below the first funnel-shaped device 23. The ammunition cartridge fixture 26 includes a funnel-shaped opening 28 positioned adjacently above and in communication with the interior chamber 30 through the funnel aperture 32. The funnel-shaped opening 28 allows propellant to be funneled into the ammunition cartridge (not shown) placed into the ammunition cartridge fixture 26. The ammunition cartridge fixture 26 includes a lower groove 34 that is adapted to slide into the tongue 38 of the adaptor platform 24 to secure the ammunition cartridge fixture 26 in position. In one embodiment, the ammunition cartridge fixture 26 is slidably secured in the adaptor platform 24 to align the compaction rod aperture 21, the first funnel aperture 25 and the funnel aperture 32 to allow movement of the compaction rod 22 into the interior chamber 30. In another embodiment, the ammunition cartridge fixture 26 is comprised of 2, 3, 4, or more sections that are moved together to form the ammunition cartridge fixture 26.
The compaction rod 22 includes reliefs 22a and 22b located in the wall of the compaction rod 22. The reliefs 22a and 22b are positioned to correspond to the position of the first funnel aperture 25 to act as a metering device. Initially the reliefs 22a and 22b are positioned in the first funnel-shaped device 23 above the first funnel aperture 25. Powder added to the first funnel-shaped device 23 fills the reliefs 22a and 22b. As compaction rod 22 is moved by the drive motor 20 the reliefs 22a and 22b move through the first funnel aperture 25 to locate the reliefs 22a and 22b below the first funnel aperture 25. As the reliefs 22a and 22b upon passing through the first funnel aperture 25 the powder is released. The released powder is transferred to the funnel-shaped opening 28. The size, shape, number, location, depth, etc. of the reliefs 22a and 22b may be varied to finetune the amount of powder released. The powder is then transferred into the interior chamber 30. The compaction rod 22 is moved by the drive motor 20 through the funnel aperture 32 and into the interior chamber 30 for compaction. The compaction rod 22 may have a compaction rod tip at the compaction end that is flat, convex, concave, curved, angled or any other shape. In addition, the compaction rod 22 may be hollow to allow passage through the compaction rod 22. The compaction rod 22 may be removable and replicable either entirely or partially. The compaction rod 22 may be adapted to receive a replaceable compaction rod tip depending on the particular application.
The drive motor 20 may be manually controlled or automatically controlled. The drive motor 20 includes one or more sensors to measure, record, transmit, store, or report one or more physical measurements. For example, the one or more sensors may be force and/or distance sensor that measure the force applied to the compaction rod, the force exerted by the motor, the compression force applied at the tip of the compaction rod, the distance the compaction rod moves, etc. The data from the sensors may be stored, reported and/or used to control the operation of the drive motor. For example, the sensor may record the force applied to the powder and when a specific compression force (e.g., 5-5000 psi) is reached the motor will reverse direction to move the compaction rod opposite direction. The specific parameters (distance or force curve) may vary and depend on the specific powders, caliber, compaction rod diameter or tip profile being used.
In operation an ammunition cartridge 36 to be loaded with powder is positioned in the ammunition cartridge fixture 26 such that the ammunition cartridge 36 mates to the interior chamber 30. The ammunition cartridge fixture 26 is positioned in the adaptor platform 24 by sliding the lower groove 34 of the ammunition cartridge fixture 26 into the tongue 38 of the adaptor platform 24. The ammunition cartridge fixture 26 is secured in the adaptor platform 24 allowing the ammunition cartridge interior 40 to be accessible through the funnel-shaped opening 28. Powder is placed in the first funnel-shaped device 23 and the compaction rod 22 extends into the funnel-shaped opening 28 and through the first funnel aperture 25. The reliefs 22a and 22b of the compaction rod 22 are positioned in the first funnel-shaped device 23 and filled with the powder. The drive motor 20 moves the compaction rod 22 to transition the reliefs 22a and 22b and powder contained therein through the first funnel aperture 25. As the reliefs 22a and 22b exit the first funnel aperture 25 the powder contained in the reliefs 22a and 22b is released. The controlled volume and release of the powder serves to meters the amount of powder delivered for compaction. The powder is then transported into the funnel-shaped opening 28 which is then funneled through the funnel aperture 32 and into the ammunition cartridge 36. The compaction rod 22 is moved through the funnel aperture 32 and into the ammunition cartridge interior 40 to contact the deposited powder for compaction. The drive motor 20 is activated to move the compaction rod 22 contacts the powder and moved to compress the powder to a specific preset distance of movement or pressure. Once the powder is compressed the compaction rod 22 may be removed (either manually or automatically), the ammunition cartridge fixture 26 is removed from the adaptor platform 24 and the ammunition cartridge 36 removed from the interior chamber 30. During operation the powder may be added in stages and then compressed at each stage to form a layered powder configuration. Alternatively, the powder may be added in single stage or layer and then compressed. Each stage or layer may use the same powder or a different powder. Similarly, each stage or layer may be compressed to a different degree of compaction. As a result, the individual cartridge powder compaction may be fine-tuned through the adjustment of the type of powder, the number of powders, the distribution (or layers) of the powders, the amount of compression, the compaction of the layers of the powders, etc.
The ammunition cartridge being loaded may be any ammunition cartridge caliber. For example, loading a 7.62 mm ammunition cartridge requires an interior chamber 30 with a profile that mates to the 7.62 mm ammunition cartridge. The ammunition cartridge fixture 26 includes a funnel-shaped opening 28 positioned adjacently above and in communication with the interior chamber 30 through the funnel aperture 32. The funnel-shaped opening 28 allows powder to be funneled into the ammunition cartridge (not shown) secured in the interior chamber 30 of the ammunition cartridge fixture 26. The ammunition cartridge fixture 26 includes a lower groove 34 that is adapted to slide into the adaptor platform (not shown) to secure the ammunition cartridge fixture 26 in position.
The powder may be any powder or propellant know to the skilled artisan for use in ammunition loading. For example, vihta vuori n310, alliant blue dot, hodgdon varget, accurate arms nitro 100, accurate arms no. 7, imr 4320, alliant e3, alliant pro reach, winchester 748, hodgdon titewad, hodgdon longshot, hodgdon bl-c(2), ramshot competition, alliant 410, hodgdon cfe 223, alliant red dot, alliant 2400, hodgdon leverevolution, alliant promo, ramshot enforcer, hodgdon h380, hodgdon clays, accurate arms no.9, ramshot big game, imr red, accurate arms 4100, vihtavuori n540, alliant clay dot, alliant steel, winchester 760, hodgdon hi-skor 700-x, norma 8123, hodgdon h414, alliant bullseye, vihtavuori n110, vihtavuori n150, imr target, hodgdon lil' gun, accurate arms 2700, hodgdon titegroup, hodgdon 110, imr 4350, alliant american select, winchester 296, imr 4451, accurate arms solo 1000, imr 4227, hodgdon h4350, alliant green dot, accurate arms 5744, alliant reloder 17, imr green, accurate arms 1680, accurate arms 4350, winchester wst, hodgdon cfe blk, norma 204, hodgdon trail boss, norma 200, hodgdon hybrid 100v, winchester super handicap, alliant reloder 7, vihtavuori n550, hodgdon international, imr 4198, alliantreloder 19, accurate arms solo 1250, hodgdon h4198, imr 4831, vihtavuori n320, vihta vuori n120, ramshot hunter, accurate arms no. 2, hodgdon h322, accurate arms 3100, ramshot zip, accurate arms 2015br, vihtavuori n160, hodgdon hp-38, alliant reloder 10x, hodgdon h4831 & h4831sc, winchester 231, vihta vouri n130, hodgdon superformance, alliant 20/28, imr 3031, imr 4955, winchester 244, vihtavouri n133, winchester supreme 780, alliant unique, hodgdon benchmark, norma mrp, hodgdon universal, hodgdon h335, alliant reloder 22, imr unequal, ramshot x-terminator, vihtavuori n560, alliant power pistol, accurate arms 2230, vihtavuori n165, vihta vuori n330, accurate arms 2460s, imr 7828 & imr 7828 ssc, alliant herco, imr 8208 xbr, alliant reloder 25, winchester wsf, ramshot tac, vihtavuori n170, vihtavuori n340, hodgdon h4895, accurate arms magpro, hodgdon hi-skor 800-x, vihtavuori n530 140 imr 7977, ramshot true blue, imr 4895, hodgdon h1000, accurate arms no. 5, vihtavuori n135, ramshot magnum, hodgdon hs-6, alliant reloder 12, hodgdon retumbo, winchester autocomp, accurate arms 24951r, imr 8133, hodgdon cfe pistol, imr 4166, vihtavuori n570, ramshot silhouette, imr 4064, accurate arms 8700, vihtavuori 3n37, norma 202, vihta vuori 24n41, vihtavuori n350, accurate arms 4064, hodgdon 50bmg, vihtavuori 3n318, accurate arms 2520, hodgdon us869, imr blue, alliant reloder 15, vihtavuori 20n29, or other similar powders or propellants.
The present invention is not limited to the described caliber and is believed to be applicable to other calibers as well. This includes various small, medium and large caliber munitions, including 5.56 mm, 7.62 mm, 308, 338, 3030, 3006, and 0.50 caliber ammunition cartridges, as well as medium/small caliber ammunition such as 380 caliber, 38 caliber, 9 mm, 10 mm, 20 mm, 25 mm, 30 mm, 40 mm, 45 caliber and the like. The projectile and the corresponding cartridge may be of any desired size, e.g., 0.223, 0.243, 0.245, 0.25-06, 0.270, 0.277, 6.8 mm, 0.300, 0.308, 0.338, 0.30-30, 0.30-06, 0.45-70 or 0.50-90, 50 caliber, 45 caliber, 380 caliber or 38 caliber, 5.56 mm, 6 mm, 6.5 mm, 7 mm, 7.62 mm, 8 mm, 9 mm, 10 mm, 12.7 mm, 14.5 mm, 14.7 mm, 20 mm, 25 mm, 30 mm, 40 mm, 57 mm, 60 mm, 75 mm, 76 mm, 81 mm, 90 mm, 100 mm, 105 mm, 106 mm, 115 mm, 120 mm, 122 mm, 125 mm, 130 mm, 152 mm, 155 mm, 165 mm, 175 mm, 203 mm or 460 mm, 4.2 inch or 8 inch. The cartridges, therefore, are of a caliber between about 0.05 and about 5 inches. Thus, the present invention is also applicable to the sporting goods industry for use by hunters and target shooters.
The present invention includes a motor controller in communication with at least the drive motor and/or one or more sensors. The motor controller may also include one or more microprocessors, a servo amplifier for driving the motor and a proportional integral derivative (PID) filter for controlling the motor based upon feedback from the motor and/or the one or more sensors. The motor controller may also be connected to a computer or memory module that contain information regarding parameters of the motion of the drive motor to control the force, actual position, velocity, errors and/or motor status. The position, force, velocity or acceleration of the compaction rod or the drive motor can be programmed into the controller with extreme precision in any of those parameters, yielding extremely fine resolution and control over the drive motor. The controller has a communications port that may be accessed by an RS232 plug from a personal computer. Two or more controllers can be linked together via their communication ports to provide multi-axis motion with the controllers and their connected motors synchronized. A peripheral device port located adjacent to the communications port on a back end of the controller affords connections for devices such as a flat panel display, which may be mounted on the controller and display information regarding the motor or controller, or joystick for controlling the motor directly.
In addition, the present invention may include a powder reservoir in communication with the funnel-shaped opening directly or through a pouring conduit below the reservoir and extending to the funnel-shaped opening either with or without a gate or slide to control flow.
It will be understood that particular embodiments described herein are shown by way of illustration and not as limitations of the invention. The principal features of this invention can be employed in various embodiments without departing from the scope of the invention. Those skilled in the art will recognize, or be able to ascertain using no more than routine experimentation, numerous equivalents to the specific procedures described herein. Such equivalents are considered to be within the scope of this invention and are covered by the claims.
All publications and patent applications mentioned in the specification are indicative of the level of skill of those skilled in the art to which this invention pertains. All publications and patent applications are herein incorporated by reference to the same extent as if each individual publication or patent application was specifically and individually indicated to be incorporated by reference.
The use of the word “a” or “an” when used in conjunction with the term “comprising” in the claims and/or the specification may mean “one,” but it is also consistent with the meaning of “one or more,” “at least one,” and “one or more than one.” The use of the term “or” in the claims is used to mean “and/or” unless explicitly indicated to refer to alternatives only or the alternatives are mutually exclusive, although the disclosure supports a definition that refers to only alternatives and “and/or.” Throughout this application, the term “about” is used to indicate that a value includes the inherent variation of error for the device, the method being employed to determine the value, or the variation that exists among the study subjects.
As used in this specification and claim(s), the words “comprising” (and any form of comprising, such as “comprise” and “comprises”), “having” (and any form of having, such as “have” and “has”), “including” (and any form of including, such as “includes” and “include”) or “containing” (and any form of containing, such as “contains” and “contain”) are inclusive or open-ended and do not exclude additional, unrecited elements or method steps.
The term “or combinations thereof” as used herein refers to all permutations and combinations of the listed items preceding the term. For example, “A, B, C, or combinations thereof” is intended to include at least one of: A, B, C, AB, AC, BC, or ABC, and if order is important in a particular context, also BA, CA, CB, CBA, BCA, ACB, BAC, or CAB. Continuing with this example, expressly included are combinations that contain repeats of one or more item or term, such as BB, AAA, MB, BBC, AAABCCCC, CBBAAA, CABABB, and so forth. The skilled artisan will understand that typically there is no limit on the number of items or terms in any combination, unless otherwise apparent from the context.
All of the compositions and/or methods disclosed and claimed herein can be made and executed without undue experimentation in light of the present disclosure. While the compositions and methods of this invention have been described in terms of preferred embodiments, it will be apparent to those of skill in the art that variations may be applied to the compositions and/or methods and in the steps or in the sequence of steps of the method described herein without departing from the concept, spirit and scope of the invention. All such similar substitutes and modifications apparent to those skilled in the art are deemed to be within the spirit, scope and concept of the invention as defined by the appended claims.
This application claims priority based on U.S. Provisional Application Nos. 62/820,536, and 62/820,531 filed Mar. 19, 2019. The contents of which is incorporated by reference in its entirety.
| Number | Date | Country | |
|---|---|---|---|
| 62820531 | Mar 2019 | US | |
| 62820536 | Mar 2019 | US |
| Number | Date | Country | |
|---|---|---|---|
| Parent | 16822313 | Mar 2020 | US |
| Child | 17994379 | US |
