Scientists Just Gave Octopuses Ecstasy for the First Time and the Results were Profound

 An incredibly profound observation of the effects  of methylendioxymethamphetamine (MDMA) on octopuses was just published  this week in Current Biology. The findings of the study titled, A Conserved Role for Serotonergic Neurotransmission in Mediating Social Behavior in Octopus, suggest incredible implications for how social behavior is built into the very molecules coded by our DNA.

 Researchers chose the octopus because they are one species on this  planet that seemingly couldn’t be further from a human biologically  speaking. As the study points out, Human and octopus lineages are  separated by over 500 million years of evolution and show divergent  anatomical patterns of brain organization. One of the major differences  is the function and construction of the nervous system. 

The human brain and nervous system is centralized whereas the octopus  has its nervous system decentralized and spread throughout the body  which includes control systems in each arm in addition to a brain. 

Science has figured out that the feeling of ecstasy humans get when  we ingest MDMA is due to the chemical’s ability to increase the activity  of at least three neurotransmitters (the chemical messengers of brain  cells) serotonin, dopamine, and norepinephrine. 

This increase in  activity is what gives us the warm and fuzzy feeling that makes us want  to be very close to people we may have just met when we take MDMA. The study wanted to see if MDMA had a similar effect on the octopus  given the vast difference in their nervous system and behavior of being  solitary and asocial creatures. The results were mind blowing. As Gizmodo reports: 

The fun began when the researchers gave MDMA to seven Octopus bimaculoides octopuses  inside laboratory tanks. They hoped to test whether the animals behaved  more socially after receiving a dose of MDMA—a sign that the drug bound  to their serotonin transporters. After hanging out in a bath containing ecstasy, the animals moved to a  chamber with three rooms to pick from: a central room, one containing a  male octopus and another containing a toy. This is a setup frequently  used in mice studies. Before MDMA, the octopuses avoided the male octopus. But after the MDMA bath, they spent more time with the other octopus, according to the study published  in Current Biology. They also touched the other octopus in what seemed  to be an exploratory, rather than aggressive, manner.

Gül Dölen and her colleague Eric Edsinger, the authors of the study,  took this behavior to mean that in spite of our vastly different nervous  systems, social behavior is built into animals on a molecular level,  coded by DNA. “An octopus doesn’t have a cortex, and doesn’t have a reward  circuit,” Dölen, assistant professor of neuroscience at Johns Hopkins  University, told Gizmodo. “And yet it’s able to respond to MDMA and produce the same effects, in an animal with a totally different brain organization. To me, that means we really need to appreciate that the business end of these things is at the level of the molecule.” 

“This was such an incredible paper, with a completely unexpected and  almost unbelievable outcome,” Judit Pungor, a postdoctoral researcher at  the University of Oregon not involved in the study, told Gizmodo. “To  think that an animal whose brain evolved completely independently from  our own reacts behaviorally in the same way that we do to a drug is  absolutely amazing.” Indeed it is. 

What’s more, the scientists found that when given too much MDMA —  just like humans — the octopuses breathed erratically and turned white,  illustrating that it may have been “freaking out.” However, Dölen noted  that this behavior wasn’t written into the study as it teeters on the  edge of anthropomorphizing the octopuses. 

But on lower doses, as Gizmodo reports, one animal “looked like it  was doing water ballet,” swimming around with outstretched arms. Another  spent part of the time doing flips, and another seemed especially  interested in minor sounds and smells. Dölen was clear to point out that this study is only in its infancy  and much more work needs to be done. But what it could mean in  understanding how the brain evolved and how other species act in  relation to humans is incredible.

 As TFTP has consistently reported, psychedelic drugs are only just  beginning to garner the attention they deserve by the scientific  community. Thanks to the erosion of decades of prohibition, the  scientific community is finally discovering the profound effects of  psychoactive drugs like MDMA, LSD, and magic mushrooms. 

In fact, just this past May, TFTP reported  on a trial in the UK, led by a team of researchers at the Imperial  College of London, which sought to determine whether MDMA can help  alcoholics overcome their addiction. The results suggested that it  actually could help. In other studies, MDMA has already been found to have positive impacts on treatments with PTSD, as well as relationship counseling. As TFTP’s John Vibes recently wrote, Psychedelics offer us a glimpse into the final frontier of humanity—the consciousness.  

With these substances, we can explore the human imagination with  profound insight that will help us in our own personal lives and the  bigger picture as well. We must push for new legitimate scientific  research into the therapeutic uses for these drugs. These studies will  prove, as they have in the past, that psychedelic compounds have many  medical and spiritual uses that are necessary for our species to  continue the evolution of our consciousness. And now, the octopus is becoming our unlikely ally in this journey.