I'm willing to bet vast majority of commenters here have never made MDMA in their life and while some here do have some chemistry knowledge, they look for answers that validate their claims instead of using the scientific method. (WHAT THAT GC ANALYSIS SAID ITS MDMA?! THEY MUST NOT KNOW HOW TO LOOK"
Armchair chemists mostly
Here is what I will say to being an "armchair"
I by NO MEANS hold any degree in chemistry either analytical, O-chem, bio synth with a crispr, etc etc. But I can read and decipher MOST patents. Some just go WAYYYY over my head also and some that go overhead I get like 50%.
I like maybe many others got A LOT info learned from TS2 AND HIVE. Strike always said this is a base, a MAP AND COMPASS not many people headed his words. Yes I do have plenty of safrole and NE if I want it all OTC by in large no waivers. Yes If I wanted to I could also start from piperonal acetate or the alcohol or other unlikely watched products. I got a very nice cop and judge that let me go with a stern warning and me being watched. Mainly because the claim was "explosives" which HELL NO I wouldn't ever do and with hexamine but no nitric acid they had a weak case. But alas. That helped beat my case. Reguardless I STOPPED ASAP being too watched however. You also price wise by in large can't beat the super duper labs. Especially all the risk considered... have spoken to MANY MANY people who do hold Masters of chemistry degrees in either O chem or analytics and they go you are better then the class I teach... Anyways does this mean I know everything? Hell I can't even get nomenclature or smiles correct half of the time. For me to calculate Avagadro's number or mols it would take me A WHOLE lot longer then I would like to admit it would take me to solve because.. I haven't done it in ages..
However, there is usually as I discussed earlier 3 levels of lab people.
1) people who read recipes and do monkey see monkey do "bath tub labs" They are the LOW end of the rung willing to make as much product sloppy in the preview of profits. These labs probably typically use glycidate and I'll call these monkey see diy pancake mixers. Maybe just 1 step up from DMT extraction so to speak. As the glycidate is soupfonicaion like the extraction of deemz by in large. I assume people will call this champagne and while there are "rocks" the chemical bonds are weak and break down to powder. My understanding the crystal structure is not "right"
2) the mid level guy. The mid level guy is someone who has a MUCH MUCH deeper understanding of chemistry. They took TS2 AS A map and compass or have a degree. And with enough time either develope their own less likely watched paths by doing some funny work. Either via glycolic acid or even better more off the "beaten path" as I've described coming up with something unique more unique the acetate or similar routes but there's others LESS WATCHED of course... That second part isn't too hard with a little effort and work, and reviewing patents and adapting but you have to be pretty fucking deep into chemistry. Their purity may or may not be better then #1 but they don't just blindly follow a recipe that happens to have mols or something miscalculated... They confirmed their work, may have access to safrole, etc. These people CANNOT COMPETE WITH #3 the pickards and Nick Sands etc of the world.. they MAY or may NOT have chemistry degrees. But even so, lab work is different then arm chair theory ... so to speak.
3)
Anyone can make pancakes user #1. Anyone with enough time can make their own pancake mix with their "special" sourdough or buckwheat starter we will call these usually between #2 and #3. However, the difference between someone following a recipe, someone making their own mix and someone (making, eggo waffles/pancakes or poptarts for Kellogg's doing chemical engineering) a #3 lab are 3 different skills. And I believe that is where we are at. Remember even Kelloggs, etc get recalls from either contaminated batches, misprinted pucks or chips etc etc. This is a LEVEL where even #1 or #2 can't compete of SCALE Period. At this point I'm assuming it's 55+ gallon jacketed reactors or alike. They might create a new route for fun, either for greater, yeild, less side products, or just experiment more then a #2 for "fun". These guys might have ugly looking grey rock stuff. But it was chemically bonded where even a hammer couldn't break it easy and was some pure FLAME as MDA. As Gale said I can't account for the blue color. But it is quite good amazing purity actually...
The path for a molecule, therefore, from early-phase API and drug product to a commercial product, is an iterative one. It involves increased levels of understanding around the synthesis, potential impurities, isomers, crystalline forms, and physical properties—all of which need to be controlled and understood to the fullest, as they can have an effect the safety and pharmacology of the drug.
The chemistry of MDMA is not a given, and requires expert development to get to the commercial standard we need to ensure patient access and safety at scale. However, it should not be expected that we will stop learning about the chemistry of this compound; changes in manufacturing process, scale, and product formulation can bring with them new challenges and lessons.
These are mechanics of chemistry that while anyone can make bathtub MDMA or meth.It takes someone true understanding not only the synthesis but how to also chemically manipulate the bonds.
To go from 94% to 99% is reallly hard. Hell I purified white stuff, removed purple junk from WHITE MDMA. Made crystal clear MDMA that looked like shards of meth so clear you could see thru it. It was still meh MDMA and tested as MDMA but was VERY lack luster. This MDMA made both BEAUTIFUL flat prisms and square cubes. They were bonded as TRASH. Very easy to break.
My only guess is I live in an extremely high humidity area and had water contimation via recrystallization due to high humidity. Recrystallization was done with 99% + dry ethanol, 99% methanol and isopropyl and 99%+ dry acetone and Dh20 , Ethyl acate was not tried yet... These were FRESH non opened bottles as well... Part of me wondered if I should have either distilled again just in case.. or use a molsieve... Reguardless
If I could I would try again I would probably use pressure/heat recrystallization next time instead.
Anyways I had the person ask me these questions help teach me to make man.... He asked, How detrimental is the 5-6 percent really when asked is there much of a difference. There are the Walter White's and Gales of the world. There is also Gus fringe "How pure can pure reallly be" I said you should learn to purify your own before you start running boy...
Gale mentions the blue meth that Gus had him test. He tells Gus that his own meth is 96% pure, a hard work and HARD EARNED but this blue meth is 99% pure. Gale says there's a huge difference between the two and that Gus should hire whoever made the blue meth. Gus says for our purposes 96% is just fine. Gale goes. It might not seem like it's a lot but it's a lot. It's Tremendous!
Yes, the basic chemistry is clod-simple, or at least as close to clod-simple as organic chemistry ever gets. You can, if you're of a mind to, learn how to do it in an hour. I've done more complex experiments in a high school chemistry class that I failed.
But the devil, as they say, is in the details.
There is a difference between running a reaction in a beaker when you're sitting there with your goggles and your lab coat babying it, and doing it at production volumes. Even a simple reaction becomes a whole ‘nother world when you're doing it repeatably on an industrial scale. It's the difference between a notion of water and an ocean of water.
Doing it is just chemistry. No, scratch that, it's not even chemistry, it's following a recipe. Can you make pancakes? Then you have what it takes to cook meth, other than the difficulty in sourcing the chemicals.
Doing it on the scale that was in the TV show as reliably and with the level of quality control they showed on the TV show is not chemistry. It's chemical engineering. Chemical engineering is neither simple nor easy. Chemical engineering is a combination of chemistry, process management and control, mass production, manufacturing, and engineering design (and the chemistry part is not necessarily the hardest part).
I believe Jessie Pinkman, when hired by the cartel in mexico and told to work talks about what about. If there is excess humidity in the room ,what will you do. That goes back to polymorphs and hydrates debate. Without the right equipment.
There are 3 anhydrous and 4 hydrates of MDMA. DO YOU KNOW if you have form 1,2 or 3... or do you know if you have 1 of the 4 HYDRATES? I bet you dont... Do you have a XRD to test which form or hydrate you have? This of course goes back to talks of
For over 100 samples, only one sample was found to contain anhydrous MDMA·HCl. This seized sample had a peculiar appearance as a very fine and dusty powder. It is noteworthy that re-analysis of this particular sample a year after seizure showed that the MDMA·HCl transformed into its hydrated state as described for model substances in section 3.5. The rareness of anhydrous MDMA·HCl is also depicted in Fig. 8, where an overlay of randomly selected casework samples (2019 – 2020, The Netherlands) showed that all crystalline samples (Fig. 8, B) and all tablets (Fig. 8, C) show the spectral features diagnostic for hydrated MDMA·HCl in their NIR spectrum.
Thorough polymorph screening is crucial in the understanding of active pharmaceutical ingredients as different polymorphs may exhibit variations in solubility, bioavailability, stability, and other critical properties in the evaluation of a drug. (1,4,10,11) There are many techniques to induce crystallization for polymorph screening including antisolvent methods, solution-based methods, evaporation methods, high-pressure crystallization, and crystallization from the melt. (4,11−20) While many recent studies on ritonavir relate to its performance as an amorphous solid dispersion, there have been recent advances in understanding the crystallization of ritonavir. (4,21−25) After the appearance of Form II ritonavir, two new solvates and an anhydrous form were discovered by Morissette et al. (4) In 2014, Kawakami et al. published their findings after crystallizing ritonavir from its melt. They detected the appearance of a crystalline form after annealing in a 60 °C oven over a period of several days. (24) They concluded that the material was Form IV identified by Morissette et al. (4,24) However, the X-ray powder diffraction (XPRD) patterns labeled as such do not match the Form IV XRPD pattern in the publication by Morissette et al. (4,24)
The path for a molecule, therefore, from early-phase API and drug product to a commercial product, is an iterative one. It involves increased levels of understanding around the synthesis, potential impurities, isomers, crystalline forms, and physical properties—all of which need to be controlled and understood to the fullest, as they can have an effect the safety and pharmacology of the drug. As someone who I would say I'm between a 1-2. But people with masters would probably say I'm a solid #2. I don't know the school knowledge to become a #3. My old friend who graduated west point for chemical engineering... and worked at military gov and Kelloggs yeah he probably could if I pried. But I would never ask him these questions....
Remember even in a SUPER LAB. GALE got like 95-96, it took Jessie a awhile to match GALES purity, when he got hired, and later Jessie under stress only reached like 60% consistently and Lydia got pissed and wanted walt back to get things on track. But to reach GMP 99.5+% PURE. CONSISTENTLY with the correct polymorph is no simple chemistry even ritonavir fucked up too many times. And then even found a new polymorph like years later after disaster #1. Ritonavir Form III is a new polymorph of ritonavir, an antiviral drug used to treat HIV/AIDS. It was discovered in 2023 through melt crystallization.
Properties of ritonavir Form III
Stability: Form III is the least stable of the three known polymorphs of ritonavir
Density: Form III is the least dense of the three polymorphs
Conformation: Form III has a different conformation than Forms I and II
Hydrogen bonding: Form III has different hydrogen bonding motifs than Forms I and II
Nucleation: Form III nucleates in a narrow temperature range of 60–70 °