Using the original recipe:
Recipe Used
1200 g meat
600 g brine
brine:
16 g cure #1
45 g salt
30 g sugar
509 g water
spices
green weight (lb) meat block x 0.8 x lb nitrite x 1,000,000
------------------------------------------------------------------------ = ppm
green weight (lb) meat block + lb pickle
I have changed the above, so I and anybody in the EU may understand the formula a little better.
green weight (g) meat block x % water in meat x g nitrite x 1,000,000
------------------------------------------------------------------------------------- = ppm
green weight (g) meat block + g pickle * 100
1200 x 80 x 1 x 1,000,000
------------------------------------ = 533333 ppm
1200 + 600 * 100
As you can see 533333 ppm , now if you divide that figure by 1000 it makes some sort of sense, but I cannot find any logic for me to divide it by 1000. Still thinking about it..
It seems relevant at this point to introduce the following from the FDA:
FDA wrote:Fat tissue commonly contains 5-8% water;
Water
Water is by far the largest component of meat, comprising 65-80% of the lean tissue. The water present in muscle functions as a solvent for the transportation of metabolites and as a medium in which reactions occur. In meat, water provides juiciness, color, and also acts as a solute.
Generally, the water content of meat is about 3.5 to 3.7 times the amount of protein. Fat tissue commonly contains 5-8% water; thus, meat with higher fat content will have less protein and water. Water plays a significant role in processed meats because additional water is added to emulsion-type products and to cured whole muscle meats through the use of curing brines. Obviously, water loss lowers processing yield, which generally is not desirable in cooked meats but is desired in fermented and other dried meats. The manipulation of water content in processed meat is critical to the successful production of the entire range of processed meats.
Water exists in meat as
1. bound (restricted or immobilized) water, and
2. free or bulk water.
One type of bound water, often called restricted or immobilized water, is attracted to the protein, forming loosely ordered associations. For example, when salt is added to meat, it increases the amount of restricted water due to its effect on the meat proteins; thus, “binding” of the water occurs. Another type of bound water is the water structurally associated with meat proteins, membranes and connective tissue. This bound water can only be removed by very high heat such as when meat is ashed (3-5% of total water). Bound water is not available for microbial activities.