the deformed bottom 466 are less the corresponding length or width of the set of springs 461, the deformation processing of the set of springs 461 in this step may require repetition.
The construction details of the invention as shown in Fig. 22 are "as shown" and "may be" made of steel, more preferably made of steel harder than the steel in the set of springs 461.
The advantages of the present invention shown in Fig. 22 include, without limitation, the purpose of deforming the set of springs 461 is to increase their rigidity and thereby hold individual springs of the set of springs 461 in place during the compaction process.
In broad embodiment, the invention Fig. 22, may be of any size or shape and the pattern of the deformed top 464 and the deformed bottom 466’s faces may be of any interlocking design or any design intended to deform the set of springs 461 or to deform any set of springs. The device is shown in the horizontal position, it can be operated in the vertical position or in any angle between the horizontal and vertical positions.
Referring now to the invention in more detail, in Fig. 23 there is shown one embodiment of the current invention comprising: a hydraulic pump 490, a movable cylinder 470, a powered ram 472, a four sided compaction chamber 474, a plurality of movable cylinders 476, a resistance block 478, a secondary three sided compaction chamber 484, a plurality of moving cylinders 482, a resistance block 481, a plurality of movable cylinders with shafts 480, a movable cylinder 488, a powered ram 486, a plurality of movable cylinders 492 with a subcomponent slinder vertical powered ram 491, and a set of springs 485 of height 487.
In more detail, still referring to the invention of Fig. 23, in operation the set of springs 485 is placed inside the four sided compaction chamber 474. Then the hydraulic pump 490 activates the movable cylinder 470 pushing the powered ram 472 forward into the four sided compaction chamber 474 compacting the set of springs 485 within the four sided compaction chamber 474 between the powered ram 472 and the resistance block 478. Then the hyrdraulic pump 490 activates the movable cylinder 470 pulling the powered ram 472 back just enough to relieve pressure on the now compacted set of springs 485. Then the hyrdraulic pump 490 activates the plurality of movable cylinders 476 pulling the resistance block 478 up above the four sided compaction chamber 474. Then the hydraulic pump 490 activates the movable cylinder 470 pushing the powered ram 472 forward moving the now compacted set of springs 485 against the
Plurality of the subcomponent slinder vertical powered ram 491. Then the hydraulic pump 490 activates the movable cylinder 470 pulling the powered ram 472 back to its original shown position. Then the hyrdraulic pump 490 activates the plurality of movable cylinders 476 pushing the resistance block 478 down to its original shown position. Then the hyrdraulic pump 490 activates the plurality of movable cylinders with shafts 480 pushing their shafts upward into the holes in the top of the secondary three sided compaction chamber 484. Then the hydraulic pump 490 activates the plurality of movable cylinders 492 pushing their subcomponent slinder vertical powered ram towards the resistance block 478 folding the now compacted set of springs 485 between the now extended shafts of the plurality of movable cylinders with shafts 480 and the plurality of the subcomponent slinder vertical powered rams 491. Then the hydraulic pump 490
