referring now by reference numerals to the drawings which depict the invention in its preferred embodiment , attention is initially directed to fig1 and 2 . it will be understood that shown therein is a planter 10 generally comprising a container 12 and a convertible base 14 . the base 14 is depicted in fig2 in both its upright 16 ( phantom lines ) and inverted 18 configurations . in fig1 it can be seen that the container 12 generally comprises an upper lip 20 , an inner wall 22 and a bottom 24 . disposed between the inner wall 22 and the bottom 24 is an annular ring 26 which is stepped - down from both inner wall 22 and bottom 24 . upper lip 20 , inner wall 22 , annular ring 26 and bottom 24 are all integrally formed as by injection molding . thus , while any suitable materials can be employed for manufacturing the components of the present invention , it is preferred that moldable thermosetting and thermoplastic synthetic resinous materials such as olefin polymer and copolymeric materials like polypropylene and polyethylene be used . desirably , these materials provide a sufficient degree of rigidity while retaining a degree of resiliency . as can be seen in fig1 and 4 , there are disposed radially about inner wall 22 a plurality of stanchions 28 which support base lip 30 when one planter 10 is placed within another . while planter 10 can be stacked or nested with base 14 in either of its upright 16 or inverted 18 configurations , it is preferred that nesting be performed with base 14 in its upright 16 configuration in order to achieve optimum compactness . disposed within bottom 24 are a plurality of capillary wells 32 . as clearly shown in fig2 and 4 , capillary wells 32 are molded to bottom 24 such that they depend downwardly therefrom . the capillary wells 32 each include a plurality of cut - outs 34 , as best shown in fig1 and 3 , which facilitate the passage of water into and out of the container 12 . positioned below both inner wall 22 and bottom 24 of the container 12 is molded and stepped - down annular ring 26 . radially disposed therein are a plurality of star - shaped connectors 36 and slots 38 . like cut - outs 34 in capillary wells 32 , both connectors 36 and slots 38 also facilitate the passage of water into and out of the container 12 . when it is desired to attach container 12 to base 14 in its upright 16 configuration , such as is shown in phantom in fig2 and in fig4 capillary wells 32 are aligned with corresponding well reservoirs 40 which depend downwardly from the bottom 42 of base 14 when in its upright 16 configuration . preferably both capillary wells 32 and well reservoirs 40 are circular , the diameter of each capillary well being slightly smaller than that of each corresponding well reservoir 40 . once the corresponding structures are aligned , the capillary wells 32 are lowered into the corresponding well reservoirs 40 . because the capillary wells 32 depend downward from the bottom 24 of container 12 to a distance slightly less than the distance the corresponding well reservoirs 40 depend downward of the bottom 42 of the base 14 in its upright 16 configuration , a suitable clearance is established within each well reservoir 40 to permit the unrestricted flow of water therein and into each capillary well 32 . this relationship is shown particularly in fig4 . with the capillary wells 32 and well reservoirs 40 in registry , star - shaped connectors 36 align with tray nipples 44 which are stepped - up from and circumferentially disposed thereabout the bottom 42 of the base 14 in its upright 16 configuration . as shown particularly in fig1 and 4 and more particularly in fig5 and 7 , star - shaped connectors 36 include individual tabs 46 which yield to graspingly engage tray nipples 44 when sufficient downward pressure is applied to container 12 when it is aligned with base 14 in its upright 16 configuration . it should be noted that , because tray nipples 44 are molded in such a way as to project upwardly from spacers 48 , sufficient clearance is provided between the underside 50 of annular ring 26 and the tray 52 region of base 14 in its upright 16 configuration so as to permit the unrestricted passage of water through slots 38 and connectors 36 disposed within the annular ring 26 . as can be appreciated , the passage of water through these structures and either into or out of the container 12 occurs in both directions depending upon how full the tray 50 is with water . in operation , the planter 10 of the present invention ( when configured with its base 14 in its upright 16 position ) is readily adaptable to be placed upon a supporting surface or , following the attachment of appropriate suspension means ( not shown ) for use as a hanging planter . once the base 14 is secured to the container 12 , as described , it is only detachable when sufficient prying force is applied . as configured , when plants contained within the planter are watered , water migrates through the soil toward the bottom 24 of the container 12 . once the water reaches the bottom 24 , it flows both into the individual capillary well 32 / well reservoir 40 structures and also into the stepped - down annular ring 26 where it disperses onto tray 52 after having passed through slots 38 and star - shaped connectors 36 . provided that sufficient watering occurs to fill the well reservoir 40 structures and the tray 52 , water will then be absorbed by the plant life until such time as the water is either totally absorbed or evaporated . as indicated at the outset , and as depicted generally in fig2 the base 14 is convertible such that , in addition to being adapted for connection to the container 12 in its upright 16 configuration , it is also adapted for use in its inverted 18 configuration whereupon it functions as a pedestal . fig3 provides , perhaps , the best depiction of the planter 10 of the present invention when adapted for use with base 14 in its inverted 18 configuration . in fig3 it can be seen that the underside 50 of annular ring 26 fits between concentric inner 54 and outer 56 annular ribs which extend upwardly and away from the bottom exterior surface 58 of the base 14 . basically , the distance between the inner and outer ribs 54 and 56 forms a channel 60 the width of which corresponds with the width of the underside 50 of the annular ring 26 . thus , when so configured , the container 12 rests securely within the channel 60 as shown in fig3 and 6 . pedestal nipples 61 , shown in fig3 and 6 and particularly in fig4 are also provided and are disposed circumferentially within and upwardly from channel 60 . when base 14 is attached to container 12 in its inverted 18 configuration , these structures function in conjunction with star - shaped connectors 36 in the same manner as do tray nipples 44 when base 14 is in its upright 16 configuration . this structure is shown in fig3 and 6 . thus , base 14 securely attches to container 12 in both its upright 16 and inverted 18 configurations thereby facilitating ease of handling and movement of planter 10 both when empty and when filled with soil and plant life . also shown in fig3 is the cavity reservoir 62 which is formed when container 12 is mated with base 14 in its inverted 18 configuration . while not shown in fig3 ( rather see fig4 ), well reservoirs 40 which depend downwardly from the bottom 24 of base 14 in its upright 16 configuration project upwardly into cavity reservoir 62 when the base 14 is in its inverted 18 configuration . thus , to properly position the container 12 with the base in this configuration , the container need only be rotated slightly until the capillary wells 32 are out of alignment with well reservoirs 40 . when water is added to plants contained within the planter 10 in its pedestal configuration , the water migrates to the bottom 24 of the container whereupon it is dispersed into cavity reservoir 62 through capillary wells 32 . also , as can be seen in fig6 gaps 64 in the annular inner 54 rib allow any water that migrates through slots 38 and / or star - shaped connectors 36 to flow into cavity reservoir 62 . as is true when base 14 is assembled with container 12 in the upright 16 configuration , when sufficient water is added to fill cavity reservoir 62 of planter 10 with base 14 inverted , water can then be absorbed by the contained plant life until such time as as the water is either totally absorbed or evaporated . as can readily be appreciated , base 14 easily and conveniently separates from container 12 for cleaning or removal of any debris impeding water flow in either of its upright 16 or inverted 18 configurations . the foregoing description of specific embodiments of the present invention has been presented for purposes of illustration and description . it is not , however , intended to limit the invention to the precise embodiments disclosed because , obviously , modifications and variations are possible in light of the above teaching . the described embodiments were chosen in order to best explain the principles of the invention and its practical applications , to thereby enable others skilled in the art to best utilize the invention and various modifications as are suited to the particular use contemplated . thus , while the present invention has been described by reference to specific embodiments , it should be understood that modifications and variations of the invention may be constructed without departing from the scope of the invention as defined by the appended claims .
an improved planter apparatus for holding soil and plants and the like comprising a container and a base releasably securable to the bottom of the container . the container and base are provided with press - fit locking means for connecting the base to the container . the base is convertible such that it functions as a tray in an upright configuration and as a pedestal when inverted . downwardly depending capillary wells project from the bottom of the container into association with reservoirs disposed within the base in both of its convertible configurations . the dimension of the base is such that , when the base is attached to the container in its upright configuration , multiple planters can be nested . the nestability of the apparatus provides for convenient handling of multiple planters as well as commercial packaging and transportation cost benefits .