This disclosure relates to a novel apparatus and method of feeding and watering animals. More specifically, this disclosure relates to a device and method of feeding and watering backyard fowl, such as chickens.
Chicken feeders that are currently on the market take one of a few different forms. The most basic form is a cylindrically shaped structure that holds feed and allows the feed to be guided downward by gravity. The bottom of the cylindrical housing has one or more openings through which feed spills into a tray that encircles the cylindrical housing. Because setting this structure on the ground can cause it to become wet, increases the exposure of the feed to insects and rodents and allows the chickens to waste feed by scratching it out of the device, the structure can be suspended or hung from a separate structure such as a portion of the chicken coop frame. This helps to keep the feed in the device dry and to prevent the birds from knocking the device over. Any chicken feeder must be difficult to knock over as chickens tend to explore their world by scratching and pecking and tend to knock things over in the process.
This basic design has several well-known drawbacks including, but not limited to, constant exposure of the feed to the elements. As a result, some improvements have been made in this field over the years. For example, a treadle chicken feeder is a feeding box that has a platform operably connected to a lid that covers the portion of the device that contains feed. When sufficient weight is applied to the platform, the lid opens and uncovers the reservoir of feed in the device, thereby allowing the birds to reach it. This device requires training for the birds to be able to use it and it allows the feed to become wet or exposed to insects and rodents when the lid is opened. In addition, there is nothing that prevents the feed from becoming contaminated when exposed to animal waste as the device necessarily has to be placed near the ground where the birds can step on it.
There are also a number of devices that are made of PVC (polyvinylchloride) or similar materials that are either tube or bucket shaped and feature and upturned spout to prevent feed from falling onto the ground. These devices are less sophisticated than the treadle chicken feeders and as a result are easier to make and maintain. However, they do not solve any of the problems presented by devices above. The feed is still exposed to the weather and is left open to insects and rodents.
There is a need in the industry for an improved feeder that (1) protects the feed from damage caused by the elements, (2) keeps the feeder off the ground, (3) keeps the feeder out of reach of rodents and insects (4) prevents the birds from scratching feed out of the feeder and (5) prevents the birds from defecating in the feed. This disclosure details a device and method using the device that solves these problems and provides other advantages over the prior art.
This disclosure relates to a novel feeder that is suitable for use with various types of domesticated fowl including chickens, ducks, turkeys and guinea hens. The feeder is shaped to prevent the feed from becoming contaminated by precipitation. Preferred embodiments of the feeder feature a body or housing which is larger in diameter than the feed area and has “drip edges” or surfaces on the body of the feeder that serve to cover or hang over the portion of the device from which animals feed. This shape allows the body of the device to cover the feed such that it does not get wet when it rains, for example. In addition, the body of the device is shaped to make it difficult for birds to roost on top of the device; thereby, making it difficult for their droppings to wind up in the feeder or the feed itself. Preferred embodiments of the feeder have a body with a lid that with a steep pitch that makes it difficult for birds to roost on the top of the device. The inventors' have found that a roof angle of approximately 30 degrees or more is optimal to prevent birds from roosting on the lid. In other words, the lid has an upper or outer surface that extends away from the body of the feeder at an angle of at least 30 degrees. That is to say the angle between the outer surface of the lid and a theoretical horizontal line drawn from one side to the other side of the opening in the body is at least 30 degrees. This angle corresponds to approximately a 7:12 pitch or a rise of approximately 7 inches of height for every 12 inches of depth. Approximately in this context means within 1 degree of the stated angle or 1 inch of the stated measurement.
Preferred embodiments of the feeder have a plurality of feed ports that are located on a lower portion or bottom of the body of the feeder. The lower portion of the body that features the feed ports is tapered, i.e. the upper section of the body has a larger diameter than the lower section in which the feed ports are located. This configuration takes advantage of the drip edges located on the upper section of the body of the device in that any precipitation that is falling onto the lid of the device will get directed by the shape of the lid and body of the device away from the feed ports.
The feed ports are openings that communicate with an interior cavity featured by the body or housing of the feeder. Each opening can optionally be fitted with a ring or plug. In preferred embodiments, the plug is shaped like a truncated cylinder, i.e., the wall(s) of the plug are not a uniform height. This lack of uniformity creates a hood that extends away from the feeder when the ring is positioned inside the feed port. The taller or longer section of the walls of the plug is positioned to partially cover the feed port. In addition, some embodiments feature a small wall that partially closes the opening of the cylinder. This wall also helps prevent feed from spilling out of the feeder, particularly when the feeder is being filled.
The interior of the feeder can be accessed by opening the hinged lid. There is a funnel that is located inside the body of the device. It is positioned above a cone that is located on a floor or bottom surface of the interior of the body of the feeder. The feed is loaded through the top of the body of the device after opening the lid. The feed immediately falls through the funnel that directs the feed toward the center of the floor of the body. Preferred embodiments also feature a cone onto which the feed falls as it is loaded into the feeder. The feed distribution cone is located on the floor of the interior of the body of the feeder and forces feed that is falling through the funnel away from the center of the feeder towards the feed ports. This prevents “dead spots” that the animals cannot get to when feeding.
Another embodiment of the disclosed silo feeder is adapted to hold water instead of feed. In this case, the feed ports are closed with a different type of plug that features a drinking valve or nipple that when manipulated by an animal, causes water to flow out of the interior cavity of the silo feeder and through the drinking valve featured by the plug.
The device can be supported in more than one way. Preferred embodiments of the feeder include a plurality of legs the height of which can be adjusted. In addition, the legs are removable. Some embodiments of the legs also feature a plate positioned over an opening or pocket into which the leg is inserted when attached to the feeder. The plate helps to prevent rodents from climbing up the legs into the feeder. In addition, the feed funnel can be equipped with molded female receptacles that fit and lock in place over molded sleeves used to attach the legs to the feeder.
In addition, a single post can be used to support the feeder. The exterior of the bottom of the body of the device is inverted where the feed distribution cone is located, i.e. the feed distribution cone extends upward into the interior of the feeder creating a divot or insertion point into which a single post can be inserted to support the device. This configuration also prevents rodents from climbing into the feeder using the post in that the post is connected to the underside of the feeder and does not communicate with the interior of the feeder.
The novel feeder that is herein described has a number of advantages over the prior art. The disclosed feeder protects the feed from moisture or precipitation as well as bird droppings, makes it easier for feed to be distributed to the feed ports, and makes it difficult for rodents to enter the device and steal or contaminate some of the feed. It is easy to load the feeder and distribute feed to the feed ports without spilling the feed out of the feed ports and the configuration of the interior of the device virtually eliminates portions of the interior where feed accumulates and does not leave the feeder.
As mentioned above, the side wall(s) of the cylindrically shaped plug are not uniform, i.e. a portion of the side wall 14c of the plug 14 can extend further away from the base 14b of the cylindrical plug 14 than other portions of the side wall 14c. This extended portion can form a hood 15 that extends away from the rest of the plug 14 and the feeder 10. This hood 15 provides additional coverage or shielding from any precipitation or bird droppings that could fall in or near the feed port 13. Other versions of the plug 14 include a vertically oriented wall 16 that covers a portion of the opening 14d in the plug 14 that communicates with the feed port 13. This wall 16 is small enough for the birds to peck feed around or over it, but at the same time reduces feed spillage when the bird is feeding and/or when feed is being loaded into the interior cavity 12 of the feeder as it prevents birds from scratching or dragging feed out of the feed port 13. Preferred embodiments of the device feature plugs or other portions of the device that are red as some backyard fowl such as chickens are said to be attracted to the color red.
The feeder 10 also includes an internal funnel 20 that is seated inside the interior cavity 12 of the feeder 10. The funnel 20 directs feed being poured into the interior cavity 12 toward a center of the floor 21 of the interior cavity 12. The floor 21 or bottom surface of the interior cavity 12 can be shaped to force feed to flow towards the feed ports 13 if desired. Preferred embodiments of the device include a floor 21 that includes a feed distribution cone 22 attached to or integrated into the floor 21. The shape of the funnel 20 directs feed entering the opening in the body 11 of the device on top of the feed distribution cone 22. As feed falls onto the feed distribution cone 22, it flows down the sides of the cone 22 toward the feed ports 13 of the feeder 10. The funnel 20 does not rest against the floor 21 of the interior cavity 12, but rather there is a space between the funnel and the floor 21 through which feed can pass. This configuration prevents feed from accumulating at the center of the floor 21 of the interior cavity 12 where animals are less likely to be able to reach it. This configuration also helps to preserve feed as little to no feed should be located in a place that cannot be reached by the animals.
The plug 29 in these embodiments can include a drip tray 34 on the portion of the plug facing the interior cavity and/or the side facing away from the feeder 10. In addition, preferred embodiments of the water plug 29 feature O-rings 32 on the inside and the outside of the water plug 29 to “double-seal” the plug in place.
In broad embodiment, the present invention is a feeding device for animals. While the device is disclosed as a bird feeder, it can be adapted to be used to dispense virtually any form of dry animal food by adjusting the height at which the device is positioned and/or increasing the size of the feed ports.
The advantages of the disclosed silo feeder include, without limitation, the ability to (1) protect the feed from damage caused by the elements, (2) keep the feeder off the ground, (3) keep the feeder out of reach of rodents and insects (4) prevent the birds from scratching feed out of the feeder and (5) prevents the birds from defecating in the feed.
Reference throughout the specification to features, advantages, or similar language does not imply that all of the features and advantages that may be realized with the present invention should be or are in any single embodiment of the invention. Rather, language referring to the features and advantages is understood to mean that a specific feature, advantage, or characteristic described in connection with an embodiment is included in at least one embodiment of the present invention. Thus, discussion of the features and advantages, and similar language, throughout the specification may, but do not necessarily, refer to the same embodiment.
Furthermore, the described features, advantages, and characteristics of the invention may be combined in any suitable manner in one or more embodiments. One skilled in the relevant art will recognize that the invention can be practiced without one or more of the specific features or advantages of a particular embodiment. In other instances, additional features and advantages may be recognized in certain embodiments that may not be present in all embodiments of the invention.
It is understood that the above described embodiments are only illustrative of the application of the principles of the present invention. The present invention may be embodied in other specific forms without departing from its spirit or essential characteristics. The described embodiment, including the best mode, is to be considered in all respects only as illustrative and not restrictive. The scope of the invention is, therefore, indicated by the appended claims, if any, in conjunction with the foregoing description.
While the foregoing written description of the invention enables one of ordinary skill to make and use what is considered presently to be the best mode thereof, those of ordinary skill will understand and appreciate the existence of variations, combinations, and equivalents of the specific embodiment, method, and examples herein. The invention should therefore not be limited by the above-described embodiment, method, and examples, but by all embodiments and methods within the scope and spirit of the invention.
This application claims the benefit of priority to U.S. Provisional Application No. 63/109,889 filed on Nov. 5, 2020. The content of U.S. Provisional Application No. 63/109,889 filed on Nov. 5, 2020 is incorporated by reference in its entirety. This application claims the benefit of priority to PCT Application No. PCT/US21/58201 filed on Nov. 5, 2021. The content of PCT Application No. PCT/US21/58201 filed on Nov. 5, 2020 is incorporated by reference in its entirety.
Filing Document | Filing Date | Country | Kind |
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PCT/US21/58201 | 11/5/2021 | WO |
Number | Date | Country | |
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63109889 | Nov 2020 | US |