Some of the posts on the thread sent me reading…(my mom would’ve been proud of you guys

) It will probably take two posts to explain what I found:
PART I
so was the blood of jesus on the cross stoped being his blood once it hit the grown …no so how does the wine stop being his blood once its mixed with water … it does not make and sense even in the physical… and atom is always and atom … no matter how small it gets…its still the blood of jesus
Actually, very soon after it hit the air, notwithstanding the ground, the PreciousBlood of Jesus shed on the Cross would have begun to undergo chemical changes and decomposition. Here’s a commentary on that subject of how human blood reacts to certain catalysts in that situation - from a site dedicated to the Eucharistic miracle at Lanciano…
miraclerosarymission.org/lanciano.html :
“…Another unusual characteristic of the blood is that when liquified, it has retained the chemical properties of freshly shed blood. When we cut ourselves and stain our clothes, the chemical properties of the blood are gone within 20 minutes to a half hour. If blood is not refrigerated within an hour maximum, the composition rapidly breaks down. If blood were taken from a dead body, it would lose its qualities quickly through decay. This blood is over 1250 years old and still contains all its properties, chemicals and protein of freshly shed blood. And yet in the testing, it was determined that no preservatives of any kind were found in the blood…”
There is no such thing as an atom of bread or an atom of wine. I’m no microbiologist but wine is so complex , it is made up of many kinds of different molecules, such as: Acetic acid, anthochyanins, caftaric acid, catechins, citric acid, gallic acid, lactic acid malic acid, quercetin, reservatrol, succinic acid, sulfur dioxide, tannins, tartaric acid.
Here are the three main classifications of wheat flour components summarized from the following site:
library.wur.nl/wda/dissertations/dis4389.pdf
STARCH “…A wheat flour contains around 80% starch (based on dry matter). The native starch
granules are between around 5 and 55 μm in size and consist of two different types
of polymers: amylose (around 30%) and amylopectin (around 70%). Amylose is a
linear molecule of α-1,4 linked D-glucopyranosyl units and amylopectin is a
branched molecule of α-1,4 linked D-glucopyranosyl units with about one α-1,6 link
each 20 monomer units (33)…
PROTEINS “…
The second largest component present in wheat flour is protein (content 10-15%).
The largest part of these proteins have the unique properties that enable the
production of a viscoelastic dough with good gas holding abilities and the
preparation of a proper bread due to the fact that they are mainly water insoluble.
Osborne (35) classified the wheat flour proteins into four groups based on their
differences in solubility: albumins that are soluble in water, globulins soluble in salt
solutions, gliadins soluble in 70% ethanol and glutenins partly soluble in dilute acid
or alkali. The major part of wheat proteins (80%) consists of gliadins and glutenins with the glutenins being the proteins that primarily provide the structure to the
dough (36). The gluten proteins have heat-setting properties and undergo
crosslinking reactions in the temperature range 70-160ーC which results in the…
OTHER “…
Lipids and non-starch polysaccharides (NSP) are two minor components in wheat
flour. The lipid content varies between 1.5 and 2.5%. Pentosans (mainly
arabinoxylans (AX)) are the most important NSPs and they can influence the water
absorption of the flour. Pentosans are usually divided into water extractable
pentosans (WEP, mainly water extractable AX) and water unextractable solids
(WUS, mainly water unextractable AX). Wheat flour contains about 2-3%
pentosans of which 20-25% are water soluble (36 .”
Okay give the eyes a break for a minute
