Clackamuss Coot on flushing.
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Here's the most recent answer that I gave to this question a couple of weeks ago....
Chlorophyll b is the 'type' found in plants as we're defining it. Other structures are found in algae, cyanobacteria, et al.
\nHere is the molecular formula - <span style="background-color:rgb(249,249,249);">C[SUB]55[/SUB]<span style="background-color:rgb(249,249,249);">H[SUB]70[/SUB]O[SUB]6[/SUB]N[SUB]4[/SUB]Mg so we're looking at 55 Carbon ions, 70 Hydrogen ions, 6 Oxygen ions, 4 Nitrogen ions and 1 Magnesium ion. All 6 forms of chlorophyll have one consistent dynamic, i.e. a single Magnesium ion. Not two, not three - one. So much for the mythology about
magnesium-hungry plants or worse in the wacky weed world where specific 'strains' can be
magnesium-hungry. Looking at just chlorophyll b a better myth would be
carbon-hungry or
hydrogen-hungry and maybe even
oxygen-hungry and nothing to do with magnesium.
My understanding of this worst example of stoner science is that by dumping copious amounts of water somehow water with it's simple H[SUB]2[/SUB]O formula is able to reach up from the root zone then into a plant's vascular system and deconstruct a fairly complex molecule - that must be some really unique water indeed!
In a dynamic called translocation plants can and do move materials from leaves to other tissues - that is established botany. Plants produce carbohydrates (sugars) in the leaves by photosynthesis but non-photysynthetic parts of the plant also require carbohydrates and other organic and nonorganic materials. It's for this reason that nutrients are translocated from sources (regions of excess carbohydrates, primarily matures leaves) to what are called
sinks.
​Some important
sinks are roots, flowers, fruits, stems and developing leaves. Leaves are particularly interesting in the translocation process because they are sinks when they are young and become sources later when they are about half-grown.
Carbohydrates are simply Carbon, Hydrogen and Oxygen molecules, i.e. simple sugars.
So let's say for sake of silliness that flushing can trigger translocation which must be a real threat for rice plants, where are the chlorophyll molecules going? They can't be destroyed because they're elements which cannot be destroyed or changed unless of course we're talking about cannabis which has special properties that negate almost every law of botany, biology, chemistry, physics imaginable.
My simple question is this: once this special water deconstructs the chlorophyll compound where do the ions go? Into thin air? That would be difficult since Magnesium is a metallic element but again we have to suspend even common sense to shore-up the flushing argument so who knows? Perhaps a special air canopy is created from flushing which can move magnesium around at will.
Even if water could deconstruct and force translocation of elements doesn't that defeat the purpose in the first place which is claimed that flushing will remove the nasties causing us to not have dank! If the mature leaves are the repository the why would you want to move these ions to the buds which you plan on consuming?
It's difficult to write this stuff without falling out of my chair with laughter. The argument fails on every level - even common sense.
Fire away! I'm wearing stainless-steel
Fruit of the Loom briefs - I can take it!
CC</span></span>
So explain just how H20 reaches into the plant and deconstructs the so called nasties ??