with reference now to the various figures in which identical elements are numbered identically throughout , a description of various exemplary aspects of the present invention will now be provided . the preferred embodiments are shown in the drawings and described with the understanding that the present disclosure is to be considered an exemplification of the invention and is not intended to limit the invention to the embodiments disclosed . fig1 is an outline from the right side of a round baler 100 constructed to form cylindrical bales of crop material . it is illustrated as a single side view . one skilled in the art will recognize the fact that there are two opposing sides , left and right , spaced apart a distance equal to the length of the cylindrical bale . the crop material enters the round baler at the pickup 10 where it is lifted and positioned in contact with a drum roller 12 that supports the forming bale at the bottom . the crop material is formed into the cylindrical shape by the cooperative action of the drum roller 12 , and the bale forming belts 14 . the pickup 10 , and drum roller 12 are supported in the front portion of the baler frame 50 . this front portion 50 also includes belt rollers 16 , over which the bale - forming belts 14 travel , draft tongue 18 and axle assembly 20 . axle assembly 20 includes a cross tube 22 and end plates 24 that form the main structure of the axle assembly 20 . the end plates allow a hub and spindle assembly 26 , onto which the wheel assembly 28 mounts , to be positioned independent of the position of the cross tube 22 . this allows flexibility to locate the cross tube 22 furthest forward , to enhance the ability to eject a bale , while positioning the wheel assembly 28 to most appropriately balance the machine in all its operational configurations . the round baler 100 also includes a rear portion , the bale discharge gate 80 . this discharge gate 80 includes belt rollers 16 which guide the bale forming belts 14 . it is pivotally connected to the front section 50 at bale discharge gate pivot 70 . discharge gate lift cylinders 72 are provided to propel the discharge gate 80 from a closed position to an open position , gravity typically propels the discharge gate 80 from the open position to the closed position ; in fig1 it is shown in the closed position . the bale ramp 200 of the present invention is also illustrated in fig1 . it includes an activation link 210 , a frame 220 , a first ramp section 230 , and a second ramp section 240 . the frame 220 pivotally supports both ramp sections . the activation link 210 is pivotally attached at the top to the discharge gate 80 at bracket 74 and is also pivotally connected to the first ramp section 230 at a pivot pin 232 . the frame 220 is attached to the cross tube 22 of the axle assembly 20 . fig2 illustrates the bale ramp 200 in more detail . the ramp is illustrated in this single side view . one skilled in the art will recognize that there are two opposing sides , so that the ramp has a width sufficient to provide support to the bale . the width is not important to the aspects here - in described , and may be adjusted to match the length of the cylindrical bale . frame 220 includes a pair of front adapters 222 which are configured to attach to the axle cross - tube 22 of the axle assembly 20 . only one is illustrated in the side view . this adapter can be configured to adapt to any variation of cross - tube utilized for the axle . it further includes a pair of side arms 226 , each one attached to a front adapter 222 . the side arms 226 are attached , at the opposite end , to a cross - tube 228 that , as properly installed , is generally parallel to the axle cross - tube 22 . cross tube 228 defines the width of the frame 220 . the frame 220 is sufficiently rigid to support the full weight of a formed bale setting on the cross - tube 228 . frame 220 further defines a pivot axis 224 for first ramp section 230 . it also provides a pivot axis 225 for second ramp section 240 . first ramp section 230 is pivotally attached to frame 220 at pivot axis 224 . it further includes a pair of pivot pins 232 attached to a cross - tube 236 , a bale support frame 234 , and a pivot tube 238 . bale support frame 234 attaches to pivot tube 238 at its reward end , and is adapted to rest against the front adapter 222 or axle cross - tube 22 at the front end . the cross - tube 236 is attached to the bale support frame 234 near the center and is of sufficient length to position the pivot pins 232 outside the width of the baler &# 39 ; s discharge gate 80 , and in alignment with the activation link brackets 74 . this provides for convenient connection to the activation link 210 , the activation link 210 being substantially vertical , as illustrated in fig1 . the activation link 210 is a strap that includes a pivot feature 212 at its top end that is adapted to cooperate with the activation link bracket 74 . in the preferred embodiment , this pivot feature 212 is a through hole sized to accept a shaft that is a part of the activation link bracket 74 . some form of retainer is employed to hold the activation link 210 engaged with the activation link bracket 74 . the opposite , bottom , end of the activation link 210 includes slot 214 with a top end that is closest to the top and a bottom end that is closest to the bottom . slot 214 is sized to accept pin 232 . a type of retainer ( not shown ) is employed to hold activation link 210 in engagement with pin 232 such that the activation link 210 can move through the range of travel defined by the length of slot 214 without moving the first ramp section 230 . this linkage between the activation link 210 and the first ramp section 230 is a lost - motion linkage . the lost - motion linkage is constrained by a pair of tension springs 250 such that the pin 232 is held against the top of slot 214 , when there is no significant load carried by the first ramp section . this results from installation of the springs 250 , one on each side , attached to a spring pin 216 which is fixedly attached to activation link 210 . the opposite end of each spring 250 is attached to a pin 232 . in this position each of the springs will be slightly preloaded such that each pin 232 is forced against the top of slot 214 . thus , the position of the top of slot 214 and the position of pivot 224 , defined by the frame 220 , determines the position of the first ramp section 230 in an unloaded condition . in addition to providing support for the first ramp section 230 , frame 220 also supports the second ramp section 240 . the two side arms 226 define a pivot axis 225 . second ramp section 240 includes a pair of ramp arms 244 , each pivoting at pivot axis 225 on pivot tubes 242 . the ramp arms 244 are spaced a distance apart , approximately equal to the spacing of the side arms 226 . in the preferred embodiment the side arms 244 are connected by an end tube 246 . the second ramp section 240 is held in position by a pair of compression springs 260 , each acting between a ramp side arm 244 and a frame side arm 226 . in its non loaded condition the springs 260 are located to hold the second ramp section 240 in the position as illustrated in fig1 holding it off the ground and raised to avoid inadvertent contact with the ground . the function of the ramp is illustrated in fig3 - 11 . fig3 illustrates the bale forming machine 100 holding a formed bale , with the discharge gate 80 closed and in condition to begin bale discharge . the first step of discharging a bale is to begin extending lift cylinders 72 to raise the discharge gate 80 , as illustrated in fig5 . this initial motion will allow the formed bale to begin moving out of the bale forming chamber , where it will be supported by the first ramp section 230 . movement of the bale discharge gate 80 will also cause the activation link 210 to be raised . fig4 illustrates the resulting condition of the ramp 200 . the formed bale is resting on the first ramp section 230 such that it cannot move upwards . activation link 210 has been raised until the pivot pin 232 has contacted to bottom of slot 214 ( fig2 ). this motion has resulted in stretching spring 250 an additional amount equal to the length of the slot , distance 215 ( fig4 ). the lift cylinders 72 will continue raising the discharge gate 80 to its fully open position as illustrated in fig7 . this will result in additional travel of the activation link 210 causing the first ramp section 230 to pivot into a second position as illustrated in fig6 and 7 . in this position , the pivot pins 232 are still in contact with the bottom of slots 214 , and spring 250 is still stretched . first ramp section 230 is pivoted into a raised position sufficient to force the formed bale to slide or roll backwards . as the bale begins to slide or roll , the energy stored in springs 250 will be used to raise the first ramp section 230 and to accelerate the formed - bale . fig8 and 9 illustrate the position of the bale and the condition of the bale ramp 200 in this next position . springs 250 have retracted and pivot pins 232 are again contacting the top of slots 214 . the first ramp section 230 is in its highest position . the bale has thus begun to travel out of the baler 100 and contacted second ramp section 240 and forcing it to pivot down until contacting the ground and compressing springs 260 . at this point the top of the formed - bale may still be slightly in contact with the bale - forming belts 14 . this contact was more significant in the earlier positions of the bale , and may have restricted its ability to roll . however , from the position of bale as shown in fig9 and as it continues to move down the second ramp section 240 , it will be freed from this contact and will begin to roll . as it rolls down second ramp section 240 it will gain speed and thus will continue to roll beyond the end of second ramp section 240 . as it continues to roll along the ground , the springs 260 will lift second ramp section 240 into contact with the bale tending to continue propelling it along the ground . fig1 and 11 illustrate the position of the bale , baling machine 100 and ramp 200 after the formed - bale has exited . the second ramp section 240 has been raised by springs 260 and the bale has been propelled away from the baling machine 100 . it is now possible to close the discharge gate 80 without interfering with the formed - bale , back into the position illustrated in fig1 . the embodiments of the present disclosure may be used in a variety of applications . for example , the two - stage bale ramp as detailed in the preferred embodiment is adapted to variable chamber baler , however it could likewise be adapted to a fixed chamber baler . in addition , it is obvious that many other modifications and variations of the present invention are possible in light of the above teachings . it is therefore to be understood that , within the scope of the appended claims , the invention may be practiced otherwise than as specifically described .
a method and apparatus for discharging a bale from a baler including a bale ramp that is capable of moving a formed cylindrical bale away from the bale - forming machine . the bale ramp is capable of supporting the formed bale , and utilizing power from a linkage to the bale discharge gate to provide initial horizontal travel of the bale prior to the bale losing significant potential energy . the linkage between the bale discharge gate and the bale ramp includes a lost motion device including a spring that allows energy to be stored from the hydraulic system that powers the bale discharge gate open . that stored energy is applied to the bale , at the appropriate time , as it is able to move . a second stage is provided , which utilizes a traditional spring - loaded ramp . as the bale drops a portion of its potential energy is translated into horizontal momentum and the bale will be caused to move away from the baler .