Oh boy, where do I start with this one.
There is a gentleman named "Dose" on a cannabis community social network site called Shabong. At all started when a comrade of mine had mentioned closed loop systems. Dose got all upset and responded with
lol What?
This guy then went on to say
Last time I checked butane doesn't create ionic bonds? I'm pretty sure this is held together with "van der waals" forces. But lets keep going.
I'm pretty sure this doesn't apply to saturated hydrocarbons.
What?
Here is where he really reveals his lack of understanding of chemistry. Butane will not react with any salts present in a plant. Period. You can have "salts" of organic compounds and metals, which are called organometallic compounds, but they are typically highly reactive specialty reagents and not relevant to this discussion. An example would be butyllithium, C4H9Li.
You can view the entire thread here.
There is a gentleman named "Dose" on a cannabis community social network site called Shabong. At all started when a comrade of mine had mentioned closed loop systems. Dose got all upset and responded with
Thank you for the offer, but closed loop systems trap hydrocarbons which in turn lead to cell damage in the lungs.(NIH study confirmed this.)
lol What?
This guy then went on to say
I'm not bouncing anything. Everything is a scientific fact. Pick up an Organic Chemistry book and you'll see for yourself. I stated that butane is an organic hydrocarbon C4H10. C is carbon and H is hydrogen. If you combine it with something else, those atoms go through an ionic bond and end up in the finished product. We learned about ionic and covalent bonds in middle school. My editing was simply a reflection of why butane is bad for so many reasons. But it doesn't make CO2 any better. You now seem to be simply a pusher looking for a crowd to throw your products at because you wasted a bunch of money on expensive equipment, and you need customers to recoup your losses. The rest is simple science.
Last time I checked butane doesn't create ionic bonds? I'm pretty sure this is held together with "van der waals" forces. But lets keep going.
My claim isn't that a chemical bond cannot be broken. My claim is that residual hydrocarbons from the solvent are left behind due to the reaction of the covalent bonds in butane ionizing when butane reacts with oxygen, regardless of a closed or open system. When butane comes into contact with oxygen, it creates carbon dioxide and water. So, butane does form an ionic bond, as it undergoes the removal of an atom through chemical ionization. The chemical reaction is
2 C4H10 (g) + 13 O2 (g) 8 CO2 (g) + 10 H2O (g)
I'm pretty sure this doesn't apply to saturated hydrocarbons.
As you can see, the chemical structure of iso-butane isomer and the butane molecule have vast differences. The principle thing of concern to note is the hydrocarbon chain H3C in the Iso-butane. This is an example of a hydrocarbon molecule that is not removed during purging, because it has undergone an exothermic reaction that leaves the atom in an ionic bond when butane reacts with oxygen.
What?
#3-Two key things. The first is that salts will allow butane to form bonds. But we are talking about the contaminants, not the butane itself.
Remember the water? Salt dissolves in it. The water evaporates away leaving salt behind. If there is water in the butane, and salt in the water, when the water evaporates away, the salts are left behind. This is elementary school science, if a chemist can't understand it, I don't know what to tell you.
Here is where he really reveals his lack of understanding of chemistry. Butane will not react with any salts present in a plant. Period. You can have "salts" of organic compounds and metals, which are called organometallic compounds, but they are typically highly reactive specialty reagents and not relevant to this discussion. An example would be butyllithium, C4H9Li.
You can view the entire thread here.