Embodiments of the present invention provide methods for forming cooked egg products for use in ready-to-eat breakfast foods. The cooked egg products are formed as a unitary mass of cooked egg as distinguished from scrambled eggs, which include a plurality of discrete egg curds. In one embodiment, the egg products are formed by preparing a liquid egg mixture, depositing the mixture in machine milled recesses corresponding in shape to the desired egg product and then cooking the egg product.
The liquid egg mixture is formed by combining a liquid egg material with food chunks or particles. In one embodiment, the liquid egg material includes whole eggs, egg whites and/or egg yolks, along with one or more optional additives that are combined to form the liquid egg material. Optional additives include water, dairy substances (e.g., powdered milk), oil (e.g., soybean oil), various starches (e.g., corn/maize or tapioca starch), gums (e.g. xanthan gum), flavorants, salt and/or citric acid. For example, the egg based material may include between about 60 wt % and 90 wt % whole egg, up to about 15 wt % water, up to about 2 wt % powdered whole milk, up to about 3 wt % soybean oil, up to about 2 wt % starch, up to about 1 wt % salt, up to about 0.5 wt % xanthan gum and up to about 0.5 wt % citric acid.
A wide variety of suitable non-egg food materials may be combined with the liquid egg material prior to cooking, including various types of cheese, meats (e.g., bacon, ham or sausage), and vegetables (e.g., peppers, onions or potatoes). In one embodiment, the resulting mixture includes about 60 wt % liquid egg, 20 wt % cheese and 20 wt % ham, sausage or another meat product. Notably, this embodiment includes greater than 30 wt % food particles, more particularly between about 30-40 wt % food particular, as compared to conventional egg patties which tend to suffer from processing difficulties if more than about 30% food particles are used.
After combining and mixing the liquid egg material and food particles, the resulting liquid egg mixture is dispensed into oblong recesses formed in an egg pan and then cooked.
To provide the desired oblong shape for the egg loaf, the recesses 14 shown in
The pans shown in
As part of the milling process according to embodiments of the present invention, an aluminum block is cut or otherwise formed into a desired dimension for the egg pan base 12. The recesses 14 are then machine milled into top side 30 of the base 12. Bottom side 32 of the base 12 is also machine milled to reduce the overall thickness and weight of the egg pan 10. After forming the recesses 14, a non-stick coating such as Teflon® can be applied as part of a separate coating process. The milling operation can be performed by a skilled machinist using commercially available milling machines.
Machine milling the recesses in an aluminum base provides several benefits. First, unlike stainless steel stamping, the milling process produces consistent, accurate and repeatable recess dimensions. This may result in consistent egg products that can increase cooking efficiency and overall filling quality on a commercial scale and quantity.
Another benefit to cooking eggs in machine milled recesses is that the resulting egg filling has smooth edges that are less likely to pierce, tear or compromise the tortilla or other food product that encloses the filling. This also allows for the preparation of egg fillings having a significantly higher amount of non-egg material than traditional egg fillings, because the non-egg material tends to contribute to sharper edges on the filling.
In operation, the egg pans described above can be incorporated into a continuous commercial scale cooking operation. In one embodiment, one or more pans are placed on a horizontal conveyor. The pans are advanced to a filling machine that dispenses a predetermined volume (e.g., 2-4 oz) of liquid egg material into each recess. The pans are then advanced into an impingement oven that applies hot air to the liquid egg material at an operating temperature of between about 160° C. and 175° C., until the center of the egg material is cooked. In one embodiment, cooking time is between about 5 to 10 minutes, more particularly, between about 6 to 8 minutes. Cooking time will vary based on cooking temperature and vice versa. Once cooked, the shaped egg fillings are removed from the pan and are optionally frozen prior to preparing a completed food product, such as a breakfast wrap or burrito.
Various alternative embodiments of the present invention may be utilized. For example, the aluminum pans described above can be formed from any other metal, alloy or other material amenable to machining. Suitable metals include stainless steel, copper, brass, titanium, platinum, various alloys and other non-corrosive metals. Similarly, recesses having a variety of shapes, dimensions and depths can be formed if desired.
This application claims the benefit under 35 U.S.C. § 119(e) of U.S. provisional application No. 60/843,180 entitled “Egg Products and Methods of Making Egg Products,” which has a filing date of Sep. 8, 2006. This application is incorporated by reference in its entirety.
Number | Date | Country | |
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60843180 | Sep 2006 | US |