1. A de-oiled whole grain product.
2. The de-oiled whole grain product of claim 1, wherein said de-oiled whole grain product is selected from the group consisting of de-oiled whole grain meal and de-oiled whole grain flour.
3. The de-oiled whole grain product of claim 1, wherein said de-oiled whole grain product includes oil in an amount (by weight) selected from the group consisting of less than about 50%, less than about 40%, less than about 30%, less than about 25%, less than about 20%, less than about 15%, less than about 10%, less than about 5%, or less than about 1% of that of an otherwise identical whole grain product that is not de-oiled.
4. A method for producing a de-oiled whole grain product in a dry corn milling process, comprising:
(a) obtaining a grain;
(b) tempering said grain;
(c) degerminating said grain to produce an endosperm stream and a at least one of a germ stream and a germbran stream;
(d) extracting oil from at lest one of the germ stream and the germbran stream to produce oil and an oil extracted germ andor germbran stream;
(e) combining said endosperm stream and said oil extracted stream to produce a de-oiled whole grain product containing endosperm, bran and de-oiled germ components.
5. The method of claim 4 wherein the germ stream is separated from the germbran stream to form the germ enriched stream and a bran enriched stream, the germ enriched stream is de-oiled, and the de-oiled germ and bran enriched stream are combined with the endosperm stream.
6. A flour made by the method of claim 4.
7. The method of claim 4 wherein said extracting step is performed using a method selected from the group consisting of chemical extraction, expeller extraction, hydraulic press, mechanical press, carbon dioxide assisted expeller extraction, and supercritical fluid extraction.
8. The method of claim 7, wherein said extracting step is performed using supercritical fluid extraction, and wherein said supercritical fluid is carbon dioxide.
9. A method of any of claims 4wherein said grain is selected from the group consisting of wheat, millet, barley, sorghum, triticale, rice, corn, amaranth, and buckwheat.
10. The method of claim 9 wherein said grain is corn.
11. A de-oiled whole grain product of claim 1, wherein said grain is corn.
12. A de-oiled whole grain corn product comprising, by weight on a dry basis, about 60 to about 80% starch, about 0.01 to about 3% fat, about 5 to about 15% protein, about 1 to about 2% ash, and about 1 to about 3% sugar, with the remainder being water.
13. The de-oiled whole grain corn product of claim 12, comprising, by weight on a dry basis, from 69 to 75% starch, from 0.01 to 2.2% fat, from 8 to 12% protein, from 1.4 to 1.6% ash, and from 1.5 to 2.5 sugar, with the remainder being moisture.
14. The de-oiled whole grain corn product of claim 13, comprising, by weight on a dry basis, about 72% starch, about 1% fat, about 10% protein, about 1.5% ash, about 2.0% sugar, and about 13.5% water.
15. A de-oiled whole grain corn product comprising, by weight, 75% starch, 0.1% fat, 12% protein, 1.6% ash, 2.5% sugars and 8.8% moisture.
The claims below are in addition to those above.
All refrences to claim(s) which appear below refer to the numbering after this setence.
What is claimed is:
1. An m-bit random keystream generating apparatus for use in an encryption system, comprising:
a PS-LFSR (Parallel Shift-Linear Feedback Shift Register) with n storage stages for storing n-bit binary data, said n storage stages each divided into k sub-storages connected in series, each sub-storage having parallel storage stages, each sub-storage storing in said parallel storage stages m-bit parallel binary data received from a previous sub-storage and outputting the m-bit parallel binary data simultaneously in accordance with a system clock signal, wherein k is a minimum integer greater than the quotient of n divided by m;
a buffer having m storage stages for storing m-bit parallel data received from a last sub-storage of the PS-LFSR; and
m feedback connections for receiving the outputs of the sub-storages and the buffer corresponding to predetermined primitive polynomials, calculating the primitive polynomials with the received data, and outputting the calculation results as the bits of a keystream.
2. The m-bit random keystream generating apparatus of claim 1, wherein a first storage stage of the buffer is not used.
3. The m-bit random keystream generating apparatus of claim 1, wherein each sub-storage has the same number of parallel storage stages.
4. The m-bit random keystream generating apparatus of claim 1, wherein at least one of the sub-storages has a number of parallel storage stages less than the other sub-storages.
5. An m-bit random keystream generating method for use in an encryption system, comprising the steps of:
dividing a PS-LFSR with n storage stages for storing n-bit binary data into k sub-storages connected in series, each sub-storage having parallel storage stages wherein k is a minimum integer greater than the quotient of n divided by m, and m is the number of bits in parallel binary data contained in the keystream;
receiving m-bit parallel binary data from a previous sub-storage and outputting the m-bit parallel binary data simultaneously from each of the sub-storages in accordance with a system clock signal;
buffering in a buffer having m storage stages m-bit parallel data received from a last sub-storage of the PS-LFSR in a buffer; and
receiving the outputs of sub-storages corresponding to a predetermined primitive polynomial, calculating the primitive polynomial with the received data, and outputting the calculation result as a first feedback value;
generating (m1) primitive polynomials by shifting the predetermined primitive polynomial to the left by one bit at a time;
receiving the outputs of the sub-storages and the buffered m-bit parallel data corresponding to the (m1) primitive polynomials, calculating the primitive polynomials with the received data, and outputting the (m1) calculation results as (m1) feedback values; and
outputting the m feedback values as the bits of a keystream.
6. The m-bit random keystream generating method of claim 5, wherein a first storage stage of the buffer is not used.
7. The m-bit random keystream generating method of claim 5, wherein each sub-storage has the same number of parallel storage stages.
8. The m-bit random keystream generating method of claim 5, wherein at least one of the sub-storages has a number of parallel storage stages less than the other sub-storages.