although certain embodiment of the present invention will be shown and described in detail , it should be understood that various changes and modifications may be made without departing from the scope of the appended claims . the scope of the present invention will in no way be limited to the number of constituting components , the materials thereof , the shapes thereof , the relative arrangement thereof , etc ., and are disclosed simply as an example of an embodiment . the features and advantages of the present invention are illustrated in detail in the accompanying drawings , wherein like reference numerals refer to like elements throughout the drawings . the present invention pertains to rejection of a component in a component placement machine having a housing with a frame upon which one or more pick / place heads are mounted for assembling printed circuit boards . the component placement machine includes a reject station , which may be a dump bucket located within the placement machine accessible to the pick / place head or it may be mounted on the housing contiguous with the pick / place heads . the inventive apparatus includes a flap contiguous with the reject station which acts to dampen the force of the component as it enters the reject station and then prevents the component from escaping the reject station once the component passes by the flap . the type of components that typically are rejected and stored by the invention are electronic circuit components with a weight in the range from approximately 50 micrograms to 15 grams . turning now to fig1 a , which depicts a dump bucket 10 that would be mounted in a machine accessible to the pick / place head from the related art , said dump bucket 10 includes an opening 20 that leads to a reservoir 25 for retaining rejected components ( s ) 50 ( see e . g ., fig1 b ). the side sectional view in fig1 b shows a vacuum spindle 30 with nozzle 40 having just deposited a rejected component 50 into the reservoir 25 of the dump bucket 10 . a trajectory path 60 of the rejected component 50 shows that upon the impact point 61 of the component 50 on a portion of the reservoir 25 , that in many cases the component 50 then bounces out of the opening 20 of the reservoir 25 and dump bucket 10 . similarly , fig2 a and 2b depict a second embodiment of a dump bucket 10 that would be mounted contiguous to the pick / place head in the related art , wherein the same shortcoming exists . that is upon the depositing of the rejected component 50 , on many occasions , the component 50 ultimately ends up outside the dump bucket 10 . one trajectory path 60 is shown as an example of one typical path that the component may take . that is the component 50 makes a series of impacts 61 a , 61 b , 61 c , 61 d on various parts of the reservoir 25 , or other parts of the dump bucket 10 , ultimately ending up beyond the opening 20 of the dump bucket 10 . it should be apparent to those of ordinary skill in the art , that while some rejected components 50 are retained within the reservoir 25 of the dump bucket 10 , one or more components 50 clearly will be ejected out of the dump bucket 10 as shown in fig1 b and 2b . the present invention corrects this deficiency by ensuring that no components 50 escape the dump bucket 10 . referring first to fig3 a there is shown a top , perspective view of a first embodiment of a dump bucket 10 , or component rejection station , in accordance with the present invention , with opening 20 , adapted with a flap 80 . fig3 b is a side , sectional view of fig3 a and includes the path 60 of the component 50 as it is rejected from the vacuum spindle 30 of nozzle 40 . the vacuum spindle 30 releases the component 50 by removing vacuum from the nozzle 40 . vacuum spindle 30 may also release the component 50 by a combination of removing vacuum from the nozzle 40 and applying an airkiss , a slight flow of air , to component 50 via nozzle 40 . component 50 becomes disengaged from nozzle 40 and drops on to flap 80 . the first impact of the component 50 is denoted 61 a . flap 80 is then deflected allowing component 50 to pass through the opening 20 into the bottom of dump bucket 10 . a second impact 61 b of the component is shown at the bottom of the reservoir 25 . when component 50 impacts flap 80 , flap 80 absorbs force from component 50 slowing the descent of component 50 . component 50 may then continue to bounce within dump bucket 10 . subsequent impact of the component 50 upon the underside of the flap 80 is shown 61 c . however since the force of component 50 was reduced by flap 80 upon passage through opening 20 , it does not have sufficient energy to pass back through opening 20 via flap 80 . the component 50 ultimately comes to rest upon the bottom of the reservoir 25 , as shown at 61 d . referring next to fig4 a which depicts a second embodiment of a component rejection station which is mounted contiguous with pick and place spindles , in accordance with the present invention . in this case , the component rejection station includes a dump bucket 10 , with opening 20 , adapted with flap 80 . fig4 b , similarly , is a side sectional view of fig4 a and includes the path 60 of the component 50 as it is rejected from the vacuum spindle 30 of nozzle 40 . the various impacts of the rejected component 50 are denoted 61 ( e . g ., 61 a , 61 b , 61 c , 61 d , 61 e , 61 f ). the vacuum spindle 30 releases the component 50 by removing vacuum from the nozzle 40 . vacuum spindle 30 may also release the component 50 by a combination of removing vacuum from the nozzle 40 and applying an airkiss , a slight flow of air , to component 50 via nozzle 40 . component 50 becomes disengaged from nozzle 40 and drops on to flap 80 . the impact upon the flap 80 is denoted 61 a . flap 80 is then deflected allowing component 50 to pass through the opening 20 into the bottom of the dump bucket 10 . when component 50 impacts 61 a flap 80 , flap 80 absorbs force from component 50 slowing the descent of component 50 . component 50 may then continue to bounce within the reservoir 25 of the dump bucket 10 . however since the force of component 50 was reduced by flap 80 upon passage through opening 20 , it does not have sufficient energy to pass back through opening 20 via flap 80 . numerous subsequent impacts of the component 50 are shown as 61 b , 61 c , 61 d 61 e , while the final resting location of the component 50 upon the bottom of the reservoir 25 is denoted as 61 f . it should be apparent that although two embodiments of the present invention are depicted there are other embodiments available that provide the requisite improvements of the present invention . for example , the flap 80 , while depicted as either a single flap 80 ( e . g ., fig4 a , 4 b ) or two opposing flaps 80 ( e . g ., fig3 a , 3 b ), may have other embodiments . the flap 80 may be , for example , more than two flaps 80 . in the embodiments where there is a plurality of flaps 80 , the various flaps 80 may also abut or overlap each other . further , the flap ( s ) 80 may , depending on the configuration and shape of the opening 20 and other parts of the dump bucket 10 , not abut , or overlap , each other , or even completely cover the opening 20 . likewise , there are various materials in which the flap 80 may be constructed . the flap 80 should be of a resilient , energy - absorbing material so that various sized rejected components 50 may pass by the flap 80 upon initial contact , yet cannot pass through a second time , or any subsequent time , upon the rebounding of the component 50 around the reservoir 25 of the dump bucket 10 . one embodiment the flap 80 may be made of mylar ®. alternatively , the flap 80 may be made of multiple materials . since other modifications and changes varied to fit particular operating requirements and environments will be apparent to those skilled in the art , the invention is not considered limited to the example chosen for purposes of disclosure , and covers all changes and modifications which do not constitute departures from the true spirit and scope of this invention .