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NBOMe overdoses: Aleph-like dose response, and natural tolerance explained?

Deinonychus

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Joined
Oct 20, 2012
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401
I saw thizzkid's thread and started writing up a reply I've been mulling over but haven't put to paper yet for a while. The post kinda outgrew its holding cage, so I figured I'd post it as its own thread.

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In response to thizzkid's experience, I said: I think this emphasizes a potential wrinkle in the ongoing clusterfuck that is the NBOMe overdose saga.

I have been suspecting for a while that these compounds may have some of the unpredictable dose/response curve that the Aleph series exhibits. As a caveat, this is not to say that all overdoses are explained by this theory, that it isn't important to be safe with your measurements and dosages, etc. Or, it is possible that the full-on agonism of these compounds may interact with differences in receptor structure amongst the general population. Bear with me..

If you care to, take a minute some time and take a good look over the BnD threads for the 25x series. Pay attention to doses, in particular people's average or 'favorite' dose, their sweet spot. I have seen people give doses of between 400 micrograms and 4 milligrams, varying by compound. I personally do not take any less than 1.5 to 2 mg of 25I or C, and 2 to 3 of 25B, in combination with other substances most of the time.

I'm no neuroscientist or biochemist, but I read and enjoy all types of science, those subjects included. As such I would be willing to provisionally postulate one possible mechanism for such dose sensitivity. It is possible that some people may exhibit modifications in the generic code for specific 5-HT receptors. This would have to be something small, were not talking deletion or accidental stop codons or van transposition, more likely would be a single-nucleotide polymorphism, or SNP. These SNPs are what are measured when you take one of those mail-in 'what's my ancestry' DNA kits, as full sequencing would be financially infeasible. The SNP variations are correlated in theory with genetic population groups, and thus can be used to determine in broad terms where your ancestors came from. These variations don't usually affect people's health, which again would point to a very small and likely mostly harmless type of modification in the protein that the altered gene codes for, in this case one of the 5-HT receptors.

If this is the case (and Wikipedia says it is, so yeah, so there!) I would further speculate that this modification would likely be located somewhere that is not the binding location, but is close enough to change the conformation of that area slightly. Remember, when we are talking about chemical agonism or partial agonism we are not talking about (relatively) strong connections like covalent (except for compounds that do, and fuck up the receptor's ability to unbind itself) or even ionic bonds between the compound and the receptor, we're talking hydrophobic/philic stuff, steric bulk, floppy alkyl moieties, hydrogen bonding, and van der Walls and electrostatic interactions, so a small change in either the drug – see difference between various alkyl or halogen substituents at 4-position of PEAs – or in the receptor – like small conformational changes in the makeup of the protein(s) that make up the receptor structure – can have a proportionally large effect on the effect produced by the receptor-substrate complex.

An analogy would be a compound that acts on a receptor in an allosteric fashion – that is to say that the compound doesn't actually sit in the location where the normal substrate binds, instead it attaches elsewhere, slightly altering the shape of the receptor and producing changes from the natural state in this fashion. Except that in this theory it is an SNP that changes a single codon and thus swaps out one amino acid for a very similar but different one, thus also changing the receptor shape and thus how the receptor handles agonist or partial agonist substrates.

Keep in mind though, besides the fact that I'm theorizing out of my admittedly somewhat well-informed ass, there are a hundred and one other things it could be. And even if it is a change in SNP fashion, there's epigenetic effects, intron and exon action, positive and negative feedback loops of every imaginable complexity and depth, the environment around the receptor, natural differences in brain chemistry, electrochemical interactions between neurons, the non-neuron cell population in the brain, etc etc all the way through the orders of magnitude and through the boundary between generally known in a semi-mechanistic fashion (like receptor binding and neurochemical structure) and unknown (consciousness and its subsystems).

Heh way to shoot down my own theory, right? Except that my point is exactly that: there's so much shit going on in out heads all damn day! And even when were tripping its *still all going on in there*, and we have generally no idea how much of it works or fits together. I mean we haven't even yet elucidated the structure of any of the 5-HT receptors yet!

We *have* located their genes however. And the 5-HT2A has two hundred and fucking fifty fucking five *known* SNPs (citation)! 255! My thinking is that there is more than slight probability that at least one of them may change the conformation of the receptor binding area enough to modify the reaction to agonists... and what strong agonists the NBOMe series are! On the tenth of nanomolar level at that... enough so that these chemicals can be used as fully-agonistic ligands to map the distribution of 5-HT2A receptors when labelled with a radioisotope using a PET scan. Besides that, it also targets the 5-HT1A, D3, H2, 5-HT1D, α1A adrenergic, δ opioid, serotonin uptake transporter, 5-HT5A, 5-HT1B, D2, 5-HT7, D1, 5-HT3, 5-HT1E, D5, muscarinic M1-M5, H3, and the dopamine uptake transporter at >500 nanomolar levels.

So not only is there a possibility that one of the 255 different 5-HT2A variants will change binding affinities, each SNP can be combined with multiple others, so using the party handshake equation of x(x-1)/2, we get 32,385 possible combinations with the *known* extant SNPs for the single receptor variant subtype. Gee, I wonder how many SNPs there are for each target listed above, no? Very fucking many handshakes, is the droid you're looking for.

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Getting down to the point past the walls of text, I would be highly surprised if there weren't geometrical differences between various individuals when it comes to serotonin receptor structures, as a result of various changes in receptor protein structure. Psychedelic users have always known that some people are 'hardheaded', and others are extra-susceptible.

The thing is though, that this is the first time that we have such ridiculously wickedly strong full agonists in circulation amongst the drug-eating/sniffing/shooting/plugging public. But what about acid you say? Well, LSD is only a strong partial-agonist. That's not to say that biological permutations may not also affect its binding affinity and effects – indeed, of the classical psychedelics there is hardly such a variable subjective experience as that produced from acid.

So, having established that there are variants in the genetic code for the various receptor subtypes, and understanding that small changes in the code can mean small changes in the protein, it only follows that we understand that once we are in the realm of concrete, physical things like proteins as opposed to the information coded within an albeit concrete chemical like DNA, the effects compound one another, because the interactions between amino acids within a folded protein are legion, complicated, and not fully understood. This is why four fucking values, a simple base four / quaternary numeral code like DNA, produces such an absurd profusion of dissimilar things.

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It is a total fucking tragedy that people have died from these compounds. There is seriously no excuse for being unsafe with these violently powerful tools. But the key there is the word tool. What if you picked up a hammer to nail something together and found yourself using a sledgehammer on a penny nail, or a ball-peen hammer? You'd be pretty confused, no? Now imagine if the result was that the hammer still *looked* like a normal carpenters' hammer, but applied the force of a sledge/ball-peen/ordinary hammer based on who was holding it? It might follow that some people were simply hitting the nail way too hard, and others too softly, instead of that something unseen was taking place. Occam's razor, but without all the information and with an incomplete picture of things, and thus unhelpful.

This is a contrived analogy, but it is designed for people to easily understand when SNPs and receptor binding affinities are not known quantities. That's just fine too, I started reading on Erowid back in '01, and it's required constant leisure-time studying until now to grasp as much about drugs' effects in the brain as I do as somebody not in that field as a career – and there's still infinitely more to know.

Basically, there are two effects that I'be unfortunately mixed and blended together here into this post now that I re-read it, into an inextricable mess. There is:

1. the natural variation in binding affinities that SNPs themselves may probably cause
2. the unpredictable dose/response curve of the Aleph series

Now it is possible that the mechanism for the Aleph thing has to do with conformational differences between different people's receptor types. But I expect it to be either more metabolic, or more organic chem-oriented. And despite my having just done so throughout the post, it is important not to conflate the effects of theoretical causes 1 and 2. Do as I say, not as I do!

Both however may produce the same statistical pattern: a variation in mean dose over the population that is wider than should be expected. I mean we have had people die from under 10mg, and live from 20-30mg if that nutsack-crazy report on erowid is true. And we have people taking a milligram and freaking, and taking a milligram and getting almost nothing (me!).

The two mechanism are different though. Aleph unpredictability in dose/response is some mechanism I don't have enough information to conjecture about, whereas my SNP idea relies on the full-agonist nature of the NBOMes and the fact that at that potency differences in binding affinity that result from differently structured receptors may make a huge difference in effect, instead of merely resulting in 'hard/soft' heads.

So if it is true that these drugs do have an Aleph-y nature to them, it is critical to figure that out, and soon, since elucidating receptor structures is beyond the abilities of even Bluelight. In an ideal world we would have real statisticians to measure these things, but we don't. In this case, perhaps a stickied thread somewhere asking about dose would be better than nothing. We already have the 'have you heard about NBOMes and if so where' thread in PD, so the idea of gathering as much information with the largest sample size we amateurs can is not an alien idea.

With the Alephs, we had Shulgin to watch out for our collective asses. There is no such luxury here. Think about how often we have seen psychedelic phenisopropylamines around: DOX shit ain't hard to track down. Ditto for 4-thio PEAs. But how often have we seen Alephs? To my knowledge I have seen them on offer in a group buy that got scammed by the lab a grand total of one time. It isn't like they don't have interesting properties, or aren't easy to synthesize. But there's a degree of risk in letting them out into the world without supervision.

Unfortunately with these N-benzyl PEAs it is too late for that. So damage control and mitigation must be implemented, and acting without information isn't a useful thing. We need to know whether these compound have Aleph-action, and soon.

Besides that, anybody have stuff to add or take issue with? I'd love some input on this idea, whether NBOMe related, Aleph related, receptor/gene related, whatevs. Have at it!
 
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Nothing to add I am not a neuroscience expert but excellent write up! Easy to read and understand, and I am grateful that you are thinking deeper. Although I could care less about this family, I know others (who's opinions I value) find some of the NBOMe series very useful for their exploration....thus for us to better understand them will help to dispel the myths and the annoying 'NBOME are bad' sweeping statements. We all know people often say that about a particular material when it didn't work for them, or they acted a fool with it and got bit in the ass by it. Emotional connections (positive or negative) a real...I still am urked when anyone says anything bad about 2C-T-7 and then talk about snorting it.....since in my line of experience 2C-T-7 is A-1 happy camper material when you take it orally....so your work will help separate the emotions from the facts.
 
I'm no neuroscientist or biochemist, but I read and enjoy all types of science, those subjects included. As such I would be willing to provisionally postulate one possible mechanism for such dose sensitivity. It is possible that some people may exhibit modifications in the generic code for specific 5-HT receptors. This would have to be something small, were not talking deletion or accidental stop codons or van transposition, more likely would be a single-nucleotide polymorphism, or SNP.
If you look at post #2 of this thread I started back in early May, there's a link offered by Sekio in response to me to a study that mentions this exact theory. I didn't see it linked to in your original post so I think you'll find it informative. I think you would probably get more of the discussion you seem to be looking for it Advanced Drug Discussion, so I recommend you delete this thread (since we're not supposed to double post) and re-post it there.
 
To add my hopefully useful input: I had a friend that insufflated 25C about 30 mg over 2 hours with little to no effect. Please don't judge his actions for that's not the point of this post, the point is to share this useful information about the NBOMES. 25I effects him fine, 25C? Nothing unless vaporized, and then it lasts only a few seconds.
 
great, well thought out post.

i work on yeast cells in a biochem lab, and i have been sequencing genes and finding single nucleotide differences that result in a phenotype.
if it happens in yeast, it most likely happens in humans.
 
To add my hopefully useful input: I had a friend that insufflated 25C about 30 mg over 2 hours with little to no effect. Please don't judge his actions for that's not the point of this post, the point is to share this useful information about the NBOMES. 25I effects him fine, 25C? Nothing unless vaporized, and then it lasts only a few seconds.


30mg? Thats ridiculous.

The only challenge I would have to your genetically susceptible 5HT receptor theory would be that many substances also effect the 5HTx receptors- in fact, I would suspect more so than any other receptor. Any genetic variability would already be prominent. I feel as if the discrepancy in synthesizing the chemical; remember, its a complex synthesis from the 2Cx series; read, potential error after potential error. Unfortunately very little research has been done on the NBOMe series so any hypothesis is hard to support. Interesting thought though, made me think.
 
30mg? Thats ridiculous.

The only challenge I would have to your genetically susceptible 5HT receptor theory would be that many substances also effect the 5HTx receptors- in fact, I would suspect more so than any other receptor. Any genetic variability would already be prominent. I feel as if the discrepancy in synthesizing the chemical; remember, its a complex synthesis from the 2Cx series; read, potential error after potential error. Unfortunately very little research has been done on the NBOMe series so any hypothesis is hard to support. Interesting thought though, made me think.
Im pretty sure its not very complex. Also it is my belief that there is some big difference in how much and how fast it enters the brain in different users.
 
How sure are you that what your friend took was actually 25C-NBOMe? Was it tested?

I didn't independently test it but it was the same 25C-NBOME batch that I used and it worked as expected for me. It felt different than 25I-NBOME which I also had at the time. I had a different batch of both before also. Are you refusing to believe that something strange might be at play when it comes to absorption? I think that is definitely the case. It is kind of like breaking through on DMT, except when you break through on this you can die.
 
I don't get the comparison with a DMT breakthrough and it's not like I don't believe that some other mechanism relating to absorption might be in place, but it's wise to eliminate all options before drawing conclusions, no? Nevertheless, I still find it hard to believe that someone would insufflate a potentially lethal amount of an unknown very potent psychoactive material and have no effects. That means I'm open to other explanations, but since this is a substance that's causing deaths at dosages way lower than that which you just mentioned, I think it's important to be cautious before drawing conclusions, which might possibly lead others to think they're hardheads too and take dangerously high amounts.
 
It's not truly overly complex, but it's still enough to be notable. Remember that insuffilation tends to act in a much more potent way than oral ingestion. With the relative popularity in question, it isn't a farcry to assume that various purities can be different. There haven't been any studies to prove the anecdotal evidence, like I said before, anything at this point is speculation.

I can't stand 25i-nbome, it's way too powerful for me psychologically. But I could see how people would even take more of the dose than I've taken If one actually enjoyed the chemical (which is something i am amazed at). A large amounts of the unpleasant experience (even deaths) result from a large amount of chemical ingested usually by inexperienced people. 1000ug, for example in thizzkid's post (I believe that was the amount) is a rather substantial dose. I think at this point it's more due to psychological tolerance than anything else. Remember you can actually die from panic- more specifically, the elevated heart rate it induces. If one was tripping off a huge amount of 25x-nbome, I wouldn't be suprised to have natural euphedra induced cardiovascular discrepancies along with the heart problems that the NBOMe's parents the 2c-x series brings to be potentially fatal. As far as different times of brain permeability or bioavailability absorption, I have not observed significant discrepancies in reports, though I may be wrong.
 
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morninggloryseed said:
Nothing to add I am not a neuroscience expert but excellent write up! Easy to read and understand, and I am grateful that you are thinking deeper. Although I could care less about this family, I know others (who's opinions I value) find some of the NBOMe series very useful for their exploration....thus for us to better understand them will help to dispel the myths and the annoying 'NBOME are bad' sweeping statements. We all know people often say that about a particular material when it didn't work for them, or they acted a fool with it and got bit in the ass by it. Emotional connections (positive or negative) a real...I still am urked when anyone says anything bad about 2C-T-7 and then talk about snorting it.....since in my line of experience 2C-T-7 is A-1 happy camper material when you take it orally....so your work will help separate the emotions from the facts.

Hah hey thanks MGS, that's great to hear and is doubly cool coming from you! I also consider this series to be rather plain and not very useful, in my opinion they're only useful when in combination with other compounds, and in that case the result is more than the sum of its parts for sure! It's sometimes difficult for me to square my time with the NBOMes with those of folks that have had immense, powerfully awesome spiritual experiences. It's one of those examples of people's mileage varying really, really much, and definitely points in my eyes towards not only the dose/response curve being really variable amongst different parts of the population, but also potentially the ability of different forms of receptor proteins leading to actually different subjective effects. In other words perhaps some people's receptors are geared in such a way as to allow these compounds to produce +4 type stuff, when they simply produce a light, unexciting generically psychedelic state in others.

Case in point: look at the first page of this iteration of the 25C BnD thread. On the first page there's a guy who says the most he's comfortable with is 2.4 milligrams, and a due who says that he doesn't push higher than 350 micrograms, though he does say the effects might be considered to be a bit light for most people. Still, even if you assume the 2.4 mg guy probably takes less most of the time, 2 milligrams is considered to be a lot, though that's about the dose I consider my minimum. And even if you double the other guys dose for a good measure seeing as he acknowledges that the 350 mic dose isn't super strong in subjective effects, you still end up under a milligram. These are widely dispersed doses, especially for a compound that is so active and that las so little room for error.

psood0nym said:
If you look at post #2 of this thread I started back in early May, there's a link offered by Sekio in response to me to a study that mentions this exact theory. I didn't see it linked to in your original post so I think you'll find it informative. I think you would probably get more of the discussion you seem to be looking for it Advanced Drug Discussion, so I recommend you delete this thread (since we're not supposed to double post) and re-post it there.

Hey man, thanks a lot for that link! That paper is really interesting, and directly relevant to the idea I have. It seems the polymorph they studied doesn't have binding affinities that different from normal, but some other aspects such as desensitization are altered in the polymorph. As for ADD, I was planning on leaving this here in PD for a few days to see what cropped up in terms of responses and then request it get moved by a mod to ADD.

One datapoint from that study that's definitely relevant relates to the frequency of occurance of SNPs in the genes for the 5-HT receptor. It seems that the most common of the variants shows up in a total of 9% of the population. Now, a bit less than 1/10th of the population may not sound huge, and it's not, but it's important because that is only one of the 255 known variations in the genes coding for this receptor. And as the most frequent mutation it indicates that the other variants show up in less than 9% of the population per mutation. That said, with 255 SNPs to choose from, I expect that the majority of the population, probably a very large majority, express at least one of the variants, and some people are bound to express more than one.

I wonder if there's any correlation between these variants and ancestral stock. As mentioned in the OP, SNPs are used by those mail-in DNA test companies to determine the genetic contribution of various ethnic groups to your genome, thus tracing out where your ancestors originated. It turns out that as I learned in one of my biology courses back in school, there's a particular mutation that exists in Asians and native Americans that results in reduced levels of the enzyme alcohol dehydrogenase.

This means that any ethanol consumed is destroyed metabolically much slower and less efficiently, resulting in getting more drunk faster and sobering up slower. This may be one of the reasons that native Americans were so susceptible to alcohol and why it's still such a scourge on reservations across the country. Anyway it makes me wonder if there are any racially-based correlations between variations in the genes coding for 5-HT receptors.

bloodshed344 said:
To add my hopefully useful input: I had a friend that insufflated 25C about 30 mg over 2 hours with little to no effect. Please don't judge his actions for that's not the point of this post, the point is to share this useful information about the NBOMES. 25I effects him fine, 25C? Nothing unless vaporized, and then it lasts only a few seconds.

Hey, thanks for the input! I would be shocked if the 25C was actually the real deal. The stuff is just too strong to produce such an idiosyncratic reaction. While I believe that there's variation in the response to these drugs as a result of mutations in the genes that code for the receptor proteins, 30mg is a little hard to try to justify in this manner.

Did anybody else take this particular batch, and if so did that result in any effects?

porkstock said:
great, well thought out post.

i work on yeast cells in a biochem lab, and i have been sequencing genes and finding single nucleotide differences that result in a phenotype.
if it happens in yeast, it most likely happens in humans.

Hey thanks! I hoped people might find the post/idea interesting, but I was afraid the wall of text might deter them from even reading far enough in to have their curiosity piqued. Luckily that doesn't seem to be the case!

MentalMana said:
The only challenge I would have to your genetically susceptible 5HT receptor theory would be that many substances also effect the 5HTx receptors- in fact, I would suspect more so than any other receptor. Any genetic variability would already be prominent. I feel as if the discrepancy in synthesizing the chemical; remember, its a complex synthesis from the 2Cx series; read, potential error after potential error. Unfortunately very little research has been done on the NBOMe series so any hypothesis is hard to support. Interesting thought though, made me think.

Synthesis of the NBOMes is actually pretty easy. Without going into forbidden details it's in my opinion probably only as difficult as the initial synthesis of the parent PEA itself, which is easy stuff as long as you have a reasonably well-appointed lab that comes equipped with a glovebox/schlenk shit to exclude air and moisture from certain seps, and a rotovap for pulling solvent off of stuff.

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I think this is a good point to clarify a little what my point with the receptor theory really is, as your objection highlights a lack of clarity on the subject that I'd identified but hadn't really fixed. In the simplest and most concise of terms, the theory is basically that geneticly-produced variations in the structure of the 5-HT receptors, particularly 5-HT2A, results in a wide variation in the way that the population responds to various doses of these drugs. Then there's also the possibility that they are inherently unpredictable as far as dose/response curve, like the Aleph series, but that isn't what I was to focus on clarifying.

The natural objection to this idea is why we don't see such variation in the doses for other compounds as a result of SNPs in the receptor code? I would venture a few points:

1. The psychedelic subculture has long known that some people need either more or less of drugs than the average person, resulting in some people being 'hardheads' and some being 'lightweights'. So in this way there is actually variation amongst the population with existing psychedelics.
2. However, the doses of the more traditional compounds typically range from ten milligrams to several hundred in the case of mescaline. There are exceptions, like Ganesha/2C-G compounds and definitely the psychedelic amphetamines, but with the exception of acid no psychedelics exist that exhibit as strong of affinities for the 5-HT system as the NBOMes. As a result, if somebody requires more of a drug than someone else, that will likely mean 5-10 mg more, and when the drug is already at 20-50 mg, that isn't a huge fraction of the existing norm for dosing and is well-within the variation between taking a normal dose and taking a strong or even heroic dose.
3. But what about acid? Well, are there any other psychedelics that are as notorious for producing differing effects between people and even between one persons various experiments as acid? It's difficult to gauge whether some people simply need more acid than others when the drug itself is so variable, the dose is so variable depending on desired effects, the strength of blotters is so variable and often misrepresented if given a value at all.
4. Finally, there's the most critical thing that differentiates the NBOMes. They are full-on, balls to the walls full agonists, whereas traditional psychedelics, even acid, are only partial agonists.

It's important to differentiate between receptor affinity and amount of agonism. Superficially they appear similar and were not well defined, separate concepts in my mind until I started reading up on ligands while formulating this idea. The amount of agonism (superagonism, full agonism, partial agonism, antagonism, inverse full or partial agonism) describes what the effect is within a given cell when one of its receptors is activated by binding a substrate. By definition, whatever the strength of the response is within a cell to the natural, endogenous receptor ligand, is 100%, or full agonism. If a cell produces an equally strong response to an exogenous substrate, something that doesnt naturally occur in vivo coming from outside the body, like a drug, then that compound is a full agonist. Any percentage of response that is under 100% compared to the natural ligand is a partial agonist, and more than 100% (more intracellular activity than the natural ligand) is superagonism. A compound that binds the receptor, taking up space but doing nothing/producing no intracellular response, is an antagonist. Something that produces a response that is actually the opposite of the normal ligand is an inverse agonist, and the size of the response relative to that produced by the endogenous ligand determines whether it is a full or partial inverse agonist.

So thus the level of or lack thereof of response in the cell itself once the receptor is activated is measured by and described using the various gradations of agonism. Affinity on the other hand is generally speaking a measure of what concentration of a drug is necessary to activate a population of receptors. In more detail, it is a measure of how much of some substance is required to reach a state where half the receptors on a cell are occupied. This is to say that the binding affinity is a disassociation constant, much like the pKa of an acid. Just as Ka is a ratio of how much acid has lost it's proton, the binding affinity is determined by a measure of the amount of a compound bound to receptors and the amount not bound. When the number of molecules of the substrate that are bound equals the number that are not bound, which is also when the number of receptor/ligand complexes equals the number of unbound receptors, that concentration is then recorded as the Ki value for that drug. Thus the lower a Ki value the stronger the drug is potency-wise, because less total compound is required for binding half the receptors, and as a result the total concentration of drug is lower. So Ki measures concentration of the compound in nanomoles per volume of liquid as a proxy for the strength of the attraction between a drug and a receptor, since we cannot directly measure the attractive strength for drugs relative to a given potential binding site.

In short, the binding affinity determines how much drug is needed achieve activation of receptors, in place of the probably impossible measurement of how well a drug binds to receptors. Agonism level determines what happens within a single hypothetical cell when that activation has then taken place. And the NBOMes have a massively strong binding affinity relative to their parent PEAs, and most other things for that matter *and* they are full agonists, fully as strong as serotonin itself in producing an effect inside cells once it binds.

So, thus there are two mechanisms which may be in play if SNP-induced variations in receptor shape play any role in the seemingly very variable response to these drugs. First, the modification to the receptor may facilitate easier binding. This lowers the concentration needed to produce an effect in the subject that has been dosed. This could happen by changing the folding and conformational shape of the receptor activation/binding site in such a way that it presents slightly different electrostatic attraction, hydrogen bonding, van der Walls forces, and distribution of steric bulk to the drug. These altered interactions could be either beneficial or negative as far as binding affinity, producing either 'hardheaded' or 'lightweight' individuals.

Second, the receptor could be modified in such a way, likely in the intracellular portion of the structure (the bit that is inside the lipid bilayer and is in contact with the cytoplasm), that the response from the drug could be either more or less strong than the normal fully-atomistic response. Further, both mechanisms could be combined. This would not even necessarily require two different SNPs in two different locations on the gene. Proteins are fucking ridiculously complicated, and G-coupled protein receptors are pretty big as far as protein complexes go. Due to the highly sensitive nature of the folding process due to the complex and not fully understood relationships between their various amino acid subunits, a single change in the right location could end up changing the shape of the receptor on both the intra- and extracellular domains of the structure.

The whole structure of a receptor or enzyme or other conformationally sensitive protein relies on the interactions of steric effects, electrostatic and van der Walls forces, hydrogen bonding between amino acid residues, covalent cross-links between amino acids, topological aspects (helical winding and other second and third order shaping), and various post-translational modifications during production. So changes tend to produce differences that spread and cascade, shifting the positions of the amino acids directly before and after the polymorphism, which in turn shift the positions not only of the amino acids further along the chain in either direction but also the amino acids that are adjacent to the site of modification in 3-dimensional space but far away in the genetic code/protein chain due to the folded, coiled, twisted-up nature of proteins and protein complexes. So yeah, two mechanisms potentially to effect the working of the drug on the receptor.

It's important to note that I am just theorizing out of my ass here, and questions or objections like MentalMana's are great because they force me to think things through more strictly and in more exacting detail. So thanks dude, good call!
 
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That's true. You're making me maybe have some sort of breakthrough here.

Do you believe the common overdose symptoms, including seizure and brain hemorrhaging problems, come from sometimes small doses of 25i/c/b which may prove that serotonin syndrome may have resulted from these chemicals? That's one of my theories now. Your theory does make sense this way; if serotonin syndrome is onset and not onset at gradually different amounts of chemical ingested, this may support your theory. We know that people have different numbers of serotonin receptors and react with them a certain way.

I wonder if the evidence of depression in this way would dull 25x's effect. This is all wild speculation however. What do you think?

http://www.ncbi.nlm.nih.gov/pubmed/8131155

What do you think?
 
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Hey, thanks for the input! I would be shocked if the 25C was actually the real deal. The stuff is just too strong to produce such an idiosyncratic reaction. While I believe that there's variation in the response to these drugs as a result of mutations in the genes that code for the receptor proteins, 30mg is a little hard to try to justify in this manner.

Did anybody else take this particular batch, and if so did that result in any effects?

Yes, like I said I had strong effects from the same batch. Effects that matched up with 25C I had before that was in a different batch. I also had 25I to contrast it to, two different batches also, and they were of the expected compared strength.

So really, there's no holes in my information. Take it if you want to, if you don't that's fine but please don't make me repeat myself so much...

To MentalMana: I really doubt it's due to serotonin syndrome, I think it's most likely due to the receptors being completely overwhelmed at once, which is where the DMT breakthrough comparison comes from.
 
I think it's most likely due to the receptors being completely overwhelmed at once, which is where the DMT breakthrough comparison comes from.

You mean, like what happens when serotonin syndrome occurs? SS: predictable consequence of excess serotonergic activity at central nervous system (CNS) and peripheral serotonin receptors. (wikipedia).

And this 'breakthrough' may not just have to do with the 5-HT receptors. Salvia, for instance, I consider a very breakthrough prone substance, is I believe, more chemically potent than the NBOMe series (smoked anyway) and about 10x more fast acting than even cocaine, and I suspect it acts faster than 25i NBOME (even during my severe overdose, which i experienced what I believe to be an out of body/near death experience culminating to waking up in a hospital bed) 2 days later. Additionally, salvia doesn't heavily act on the 5-HTx or SERT receptors.
 
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You mean, like what happens when serotonin syndrome occurs? SS: predictable consequence of excess serotonergic activity at central nervous system (CNS) and peripheral serotonin receptors. (wikipedia).

And this 'breakthrough' may not just have to do with the 5-HT receptors. Salvia, for instance, I consider a very breakthrough prone substance, is I believe, more chemically potent than the NBOMe series (smoked anyway) and about 10x more fast acting than even cocaine, and I suspect it acts faster than 25i NBOME (even during my severe overdose, which i experienced what I believe to be an out of body/near death experience culminating to waking up in a hospital bed) 2 days later. Additionally, salvia doesn't heavily act on the 5-HTx or SERT receptors.

No, it's very different from serotonin syndrome. Also, salvia isn't a full 5-HT2A agonist, so it's not very relevant.
 
It is relevant. It's saying that the breakthrough from DMT and the breakthrough from 25i-nbome may or may not be related to the serotonin agonism or to something else. Also, do you know if NBOMes act on the 5HT2b receptors? i have read that these sometimes can be linked to heart disease.
 
It is relevant. It's saying that the breakthrough from DMT and the breakthrough from 25i-nbome may or may not be related to the serotonin agonism or to something else. Also, do you know if NBOMes act on the 5HT2b receptors? i have read that these sometimes can be linked to heart disease.

Pretty sure every other psychedelic family acts on them more than the NBOMes. Also the breakthrough from DMT and NBOMes are probably both from 5-HT2A agonism.
 
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