referring now in greater detail to the drawings , wherein the showings are for the purpose of illustrating preferred embodiments of the invention only , and not for the purpose of limiting the invention , the figures show many aspects of an animal feeder according to the present invention . with reference to fig1 - 6 , shown is a deer feeder 10 having a hopper 12 , a support frame 14 and spill or overflow troughs 16 a and 16 b . the feeder is utilized to feed any one of a wide range of animals including , but not limited to , domestic animals and wildlife . as is discussed above , keepers of animals must feed these animals , and it is advantageous that they have an efficient and cost effective way of feeding the animals . the invention of this application can be many different sizes without detracting from the invention of this application . this includes increasing and / or reducing the dimensions of any one component of the feeder or all components of the feeder . hopper 12 is designed and configured to retain and support a desired quantity of animal feed f , that can be a wide range of animal feed known in the art , and can be made according to any manufacturing techniques known in the art . it has been found that plastics can be used to create a durable hopper that protects the animal feed from the elements and which is lightweight and durable . in particular , it has been found that a rotating mold can be used effectively to mold the plastic hopper as a unified one - piece hopper . the hopper is supported and maintained in a desired position by support frame 14 . hopper 12 is constructed to include a top opening 20 having a protective lid 22 for sealing the opening is configured to protect the feed after it has been loaded into the hopper . as can be appreciated , feeder 10 can be utilized outdoors such that the feed must be protected by the feeder in that it must remain dry and free of contaminations . hopper 12 further includes a storage reservoir 24 sized based on the amount of feed that is desired to be maintained at one time in the animal feeder . hopper 12 can further include a feed directing chute 26 to direct the gravitational flow of the feed downwardly in the feeder as will be discussed in greater detail below . in one embodiment , feeder 10 include chutes 26 a - 26 h to allow the feed in the hopper to be directed from reservoir 24 to a respective one of feeding chambers 28 a - 28 h . while eight feeding arrangements are shown , the invention of this application can include more or less than eight feeding arrangements without detracting from the invention of this application . chutes 26 a - 26 h can be used to “ funnel ” the feed into the respective feeding chambers . chutes 26 a - 26 h can respectively be formed by walls 33 , 34 , 35 and 36 , as is shown on chute 26 a , to direct the flow to the feeding chambers that are configured to be accessed by the desired animal . some or all of these walls can be tapered inwardly such that the feeding chamber is a desired size . as is shown , walls 33 , 34 and 35 are tapered inwardly while wall 36 is basically vertical . feeding chambers 28 a - 28 h have feed supporting surface 29 a - 29 h , respectively to support the feed in the feeding chamber and to maintain the feed within the animal feeder while allowing the animal to access the feed in the feeding chamber through openings 30 a - 30 h . elongated channels 32 a - 32 h can be anyone of a number of configurations including the cylindrical configuration shown . the channels are configured to allow snout s of animal a to enter the feeder and access the feed . further , in this embodiment , the feeding chamber is partially formed by the channel and , therefore , the supporting surface for the feed is a single surface for each station . however , if other configurations , such as an octagonal cross - sectionally configured channel would result in multiple surfaces being utilized for the supporting surfaces 29 a - 29 h . by spacing the feeding chamber from opening 30 , the feed remains spaced from the outside and is , therefore , at least partially protected form the environment such as from rain and snow . however , since channel 32 is configured to the size and the shape of the snout of the desired animal , the snout of the animal can enter the animal feeder and feed on the feed within the feed chamber at any time . further , it has been found that other animals , such as raccoons and birds , do not and / or cannot enter the channels to steel food . in this respect , the channels are too small for raccoons to enter and too long to allow them to pull the food out . with respect to birds , they could move into the channel , but the bird would be required to back out of the channel which is a motion that they are not willing to make . as can be appreciated , feed chambers 28 a - 28 h can be a portion of channels 32 a - 32 h , respectively , can be completely formed by the channel and / or can be separate components with out detracting from the invention of this application . further , each of the feed chambers and / or channels can be configured differently . for example , it has been found that it can be advantageous to configure one or more of the feeding channels and chambers for younger animals . this allows free access to younger animals even when larger dominant adults are around . since the channel and chamber are too small for the larger animals , the larger animals will loose interest in that particular station a find a larger channel for feeding . as is discussed above , channels 32 a - 32 h are designed to prevent food from falling from the hopper and to protect the food from the elements . in this respect , elongated channels 32 a - 32 h can have a length 38 that is long enough to prevent the feed from falling from outlet 30 while being short enough to allow snout s of animal a to enter and reach the respective feeding chamber . again , length 38 can be adjusted or changed based on the snout size of the animal to be fed . further , the cross - sectional opening configuration of opening 30 and elongated channel 32 can be configured based on the animal to be fed and , further , to prevent unwanted animal feeding of other species and / or ages . again , while elongated channel 32 is shown to be a cylindrical channel , other configurations could be utilized without detracting from the invention of this application . in addition , while the elongated channel is shown to have a uniform cross - sectional configuration , a tapered channel could be used , or other configurations could be used without detracting from the invention of this application . as animal a feeds from feeding chamber 28 , feed f continually replenishes the feeding chamber based on a gravitational flow from reservoir 24 . this feeding chamber configuration allows the animal to feed upon demand while continuously preventing the feed from being exposed to the elements . as can be appreciated , feed which is deposited in an open tray can be damaged by rain , snow or other environmental factors . by maintaining the feed in a protective position in the feeder , these factors are minimized . further , the feed is also shielded from sunlight in addition to the other environmental factors discussed above . in one embodiment , feeder 10 can include trough or spill trays 16 a and 16 b . these trays are not designed to be used primarily as a feeding tray . conversely , troughs 16 are configured primarily to catch the overflow and spillage from the animal when it feeds from the feed chamber . in this respect , the feeding action of animals can cause some of the feed to exit opening 30 . accordingly , trough 16 can be used to catch the falling feed and prevent it from accumulating on the ground . this configuration prevents the animals from feeding on the ground wherein the feed has been exposed to the environment . further , it allows for the easy clean - up of spilled feed to reduce the attraction of unwanted animals such as raccoons . as can be appreciated , the animals may eat the spilled food , however , this spilled food is not on the ground . spill troughs 16 a and 16 b can include an opening 40 a and 40 b , respectively , which can be used to clear the overflow feed periodically . as can be appreciated , the overflow feed is exposed to the elements ; and this opening can be used to easily remove the feed from the tray into a container to safely carry the discarded feed away from animal feeder 10 . in addition , opening 40 can also be used as a drain point for moisture in the tray such as from rain or snow . opening 40 can be positioned anywhere in tray 16 . tray 16 can be made from any material known in the art and is preferably made from a weather resistant material . as is shown , trays 16 a and 16 b are made from a plastic material to minimize the effect of the environment on this component . as can be appreciated , rust and other environmental damages to this component part could have an adverse effect especially since it is positioned near the feeding point ( s ) of the animal feeder . as is stated above , the animals may feed from the feed which has fallen from the outlets . with reference to fig5 and 6 , in yet another embodiment , trough 16 a and / or 16 b can be pivotally connected to frame 14 to allow the trays to pivot from an opened or feeding position 42 to allow the animal to feed from the animal feeder to a closed position 44 which prevents animal feeding . as is shown , trough 16 b is in closed position 44 and trough 16 a is in opened position 42 . as is stated above , it is desirous to have control over the time and frequency that a particular animal feeds . by including a pivotal tray configuration , the feeding of the animals can be easily controlled . further , this tray configuration prevents the feed from being exposed to the elements by at least partially closing opening 30 . while , as shown , the animal feed is not sealed , moisture is prevented from entering opening 30 when tray 16 is in closed position 44 . this configuration can also allow moisture in the feeding chamber to evaporate , which would not be possible if openings 30 were completely sealed . the pivotal action of each tray 16 is achieved by hinges 50 each having several hinge plates 52 connected to hinge rods 54 . hinge rod 54 is allowed to pivot relative to the frame about an axis 56 , such that tray 16 pivots about axis 56 between the feeding position and the closed position . while one particular hinge assembly is shown , other assemblies known in the art could be used for either tray without detracting from the invention of this application . hinge plate 52 is secured the trays by fasteners 60 , which can be any known fasteners in the art . tray 16 and hinge 50 can further include a lock assembly , not shown , which can be any known lock assembly and can be fashioned to prevent the animal from overriding the lock assembly and moving the tray from the closed position to the open position . further , tray 16 does not need to cover all outlets on one side , wherein multiple trays could be used on either side to selectively close one or more of the feeding openings without closing all openings . further , the trough on the back side can be the same or different than the trough on the front side of feeder 10 . as will be discussed in greater detail below , the openings and feeding chambers can also be configured differently from one station to the next to allow the animal feeder to be used with multiple species of animals and also animals of different sizes or ages . further , reservoir can also be sectioned to allow different feed to exit out of different feeding stations . as is stated above , feeder 10 is supported by a frame 14 . this frame can be designed from any known framing techniques in the art . as is shown , frame 14 includes base members 70 and 72 to support the animal feeder on a desired ground surface . these base members can be skid - like members to allow the animal feeder to be pushed or pulled over a wide variety of terrain . as is shown , frame 14 is a steel frame , wherein the steel is coated with a weather - resistant coating , such as a paint . the components of the frame are welded and / or bolted together based on the desired characteristics of the particular joint . as will be discussed below , some components of the frame are designed to be removable such that components , such as the hopper , can be removed without damaging the frame . frame 14 further includes inverted u - shaped end assemblies 74 and 76 that are secured to base members 70 and 72 . end assembly 74 includes cross members 80 and 82 , and end assembly 76 includes cross members 84 and 86 . end assemblies 74 and 76 are joined by base members 70 and 72 and also by intermediate members 90 and 92 . again , as is stated above , the joints between these members can be joined by any known means in the art ; and as is shown , these components are welded together to create a secure and rigid base for the frame of the animal feeder . tray 16 can be pivotally joined to one or more of these frame components to allow the pivotal rotation about axis 56 . further , these joints can include joint - reinforcing cross member 94 , which can be sized and configured based on the desired strength characteristic of the particular joint . frame 14 can further include removable frame sections 100 and 102 that , in part , support the weight of hopper 12 and position the hopper over the trays . frame sections 100 and 102 can be removable to allow hopper 12 to be removed from frame 14 without damaging the hopper or the frame . frame sections are positionable in recesses 101 and 103 , respectively which in part support the hopper . as is shown , frame section 100 includes end plates 104 and 106 ; and frame section 102 includes end plates 108 and 110 . end plates can be selectively joined to inverted u - shaped end assemblies 74 and 76 by fasteners 112 . while fasteners 112 are shown to be threaded fasteners , they can be any fasteners known in the art without detracting from the invention of this application . by utilizing threaded fasteners , or other quick - release fasteners , hopper 12 can be easily removed from the frame assembly . while base members 70 and 72 are shown to include skid configurations to move the animal feeder across a ground surface , other types of movement configurations could be used with the invention of this application . this can include , but is not limited to , wheels utilized on one or more ends of the frame assembly and even a solid base assembly , such as a sled - like configuration . with respect to a base which includes wheels , the axles of the wheels could be movable relative to the bottom of the frame , such that the surface of the wheels is spaced from the ground surface when in a stationary position , and the wheels could be moved downwardly to engage the ground surface when the animal feeder is to be moved . frame 14 can further include a central support member 120 to further support the hopper 12 . as is shown , hopper 12 includes directing chutes 26 a - 26 h which direct the feed outwardly toward the feeding stations . this creates a central v - shaped area 122 in the hopper portion of the animal feeder . this central support member can be used to further support the hopper by supporting the underside of this v - shaped arrangement . this assembly can also be selectively detachable to help remove the hopper from the frame . as can be appreciated , the animal feeder of the invention of this application can have many configurations . this includes changes to the number of outlets or feeding stations , including but not limited to , one station , or more than eight feeding station . this further includes a feeding stations on only one side or outlets on more than two sides . further , the feeder could include multiple outlets 30 and feeding chamber 28 wherein some or all feeding stations are configured differently . for example , as discussed above , one or more the stations could be configured for a younger animal which includes lowering the particular feeding station . this can further include , an animal feeder that includes one or more smaller outlets which are lower to the ground while having other , larger outlets higher from the ground . again , this particular arrangement allows certain outlets to be used by smaller or younger animals , while the larger outlets can be used by the adult animals . by having this multiple outlet size arrangement , adult animals cannot feed from the smaller outlets and will not feed from these outlets , thereby allowing the smaller , less dominant animals to feed . multiple outlet configurations could also be used for the use of the animal feeder with more than one species . for example , one side of the animal feeder could be used for one species , while the other side of the animal feeder could be used for another species . the animal feeder could then be positioned such that it is between two different animal pens , such that the outlets from one side extend into one pen , while the outlets from the other side extend into another pen . furthermore , hopper 12 could be a single - chamber hopper , or it could be a multiple - chamber hopper , wherein different types of feed could be simultaneously contained within one animal feeder . while considerable emphasis has been placed on the preferred embodiments of the invention illustrated and described herein , it will be appreciated that other embodiments can be made and that many changes can be made in the preferred embodiments without departing from the principles of the invention . accordingly , it is to be distinctly understood that the foregoing descriptive matter is to be interpreted merely as illustrative of the invention and not as a limitation .
an animal feeder for supplying a feed to an animal of choice for feeding the animal of choice in an unprotected environment such as the outdoors . the feeder comprising a base for support the feeder on a ground surface , a support frame extending upwardly from the base and a hopper supported by the frame . the hopper having a storage reservoir for storing a supply of feed with a feed entry opening that is closeable to prevent exposure to the outdoors . the hopper further including a feed chute below the reservoir having an upper region sealingly joined to the reservoir and a lower region below the upper region that is sealingly joined to a feeding chamber . the feeding chamber having a bottom surface wherein the feed supply can move from the reservoir into the feeding chamber and rest on the bottom surface based on gravity alone . the hopper further including a horizontally extending elongated channel extending from the feeding chamber with an outer end having a feeding opening open to the outdoors wherein the feeding chamber is spaced from the opening and the feed substantially remains within the hopper and spaced from the outdoors until it is consumed by the animal of choice .