Regulation Too Often Shackles the Hands of Innovators
[Editor's Note: Our Big Moral Question this month is, "Do government regulations help or hurt the goal of responsible and timely scientific innovation?"]
After biomedical scientists demonstrated that they could make dangerous viruses like influenza even more dangerous, the National Institutes of Health (NIH) implemented a three-year moratorium on funding such research. But a couple of months ago, in December, the moratorium was lifted, and a tight set of rules were put in its place, such as a mandate for oversight panels.
"The sort of person who thinks like a bureaucratic regulator isn't the sort of person who thinks like a scientist."
The prospect of engineering a deadly pandemic virus in a laboratory suggests that only a fool would wish away government regulation entirely.
However, as a whole, regulation has done more harm than good in the arena of scientific innovation. The reason is that the sort of person who thinks like a bureaucratic regulator isn't the sort of person who thinks like a scientist. The sad fact of the matter is that those most interested in the regulatory process tend to be motivated by politics and ideology rather than scientific inquiry and technological progress.
Consider genetically engineered crops and animals, for instance. Beyond any reasonable doubt, data consistently have shown them to be safe, yet they are routinely held in regulatory limbo. For instance, it took 20 years for the AquAdvantage salmon, which grows faster than ordinary salmon, to gain approval from the FDA. What investor in his right mind would fund an entrepreneurial scientist who wishes to create genetically engineered consumer goods when he is assured that any such product could be subjected to two decades of arbitrary and pointless bureaucratic scrutiny?
Other well-intentioned regulations have created enormous problems for society. Medicine costs too much. One reason is that there is no international competition in the U.S. marketplace because it is nearly impossible to import drugs from other countries. The FDA's overcautious attitude toward approving new medications has ushered in a grassroots "right-to-try" movement, in which terminal patients are demanding access to potentially life-saving (but also potentially dangerous) treatments that are not yet federally approved. The FDA's sluggishness in approving generics also allowed the notorious former hedge fund manager Martin Shkreli to jack up the price of a drug for HIV patients because there were no competitors on the market. Thankfully, the FDA and politicians are now aware of these self-inflicted problems and are proposing possible solutions.
"Other well-intentioned regulations have created enormous problems for society."
The regulatory process itself drags on far too long and consists of procedural farces, none more so than public hearings and the solicitation of public comments. Hearings are often dominated by activists who are more concerned with theatrics and making the front page of a newspaper rather than contributing meaningfully to the scientific debate.
It is frankly absurd to believe that scientifically untrained laypeople have anything substantive to say on matters like biomedical regulation. The generals at the Pentagon quite rightly do not seek the public's council before they draw up battlefield plans, so why should scientists be subjected to an unjustifiable level of public scrutiny? Besides, there is a good chance that a substantial proportion of feedback is fake, anyway: A Wall Street Journal investigation uncovered that thousands of posts on federal websites seeking public comment on topics like net neutrality are fraudulent.
In other cases, out-of-date regulations remain on the books, holding back progress. For more than 20 years, the Dickey-Wicker Amendment has tied the hands of the NIH, essentially preventing it from funding any research that must first create human embryos or derive new embryonic stem cell lines. This seriously impedes progress in regenerative medicine and dampens the potential revolutionary potential of CRISPR, a genome editing tool that could someday be used in adult gene therapy or to "fix" unhealthy human embryos.
"Regulators and especially politicians give the false impression that any new scientific innovation should be made perfectly safe before it is allowed on the market."
Biomedicine isn't the only science to suffer at the hands of regulators. For years, the Nuclear Regulatory Commission (NRC) – an organization ostensibly concerned about nuclear safety – instead has played politics with nuclear power, particularly over a proposed waste storage facility at Yucca Mountain. Going all the way back to the Reagan administration, Yucca has been subjected to partisan assaults, culminating in the Obama administration's mothballing the project. Under the Trump administration, the NRC is once again reconsidering its future.
Perhaps the biggest problem that results from overregulation is a change in the culture. Regulators and especially politicians give the false impression that any new scientific innovation should be made perfectly safe before it is allowed on the market. This notion is known as the precautionary principle, and it is the law in the European Union. The precautionary principle is a form of technological timidity that is partially to blame for Europe's lagging behind America in groundbreaking research.
Besides, perfect safety is an impossible goal. Nothing in life is perfectly safe. The same people who drive to Whole Foods to avoid GMOs and synthetic pesticides seem not to care that automobiles kill 30,000 Americans every single year.
Government regulation is necessary because people rightfully expect a safe place to work and live. However, charlatans and lawbreakers will always exist, no matter how many new rules are added. The proliferation of safety regulations, therefore, often results in increasing the burden on innovators without any concomitant increase in safety. Like an invasive weed, government regulation has spread far beyond its proper place in the ecosystem. It's time for a weedkiller.
[Ed. Note: Check out the opposite viewpoint here, and follow LeapsMag on social media to share your perspective.]
Stronger psychedelics that rewire the brain, with Doug Drysdale
A promising development in science in recent years has been the use technology to optimize something natural. One-upping nature's wisdom isn't easy. In many cases, we haven't - and maybe we can't - figure it out. But today's episode features a fascinating example: using tech to optimize psychedelic mushrooms.
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These mushrooms have been used for religious, spiritual and medicinal purposes for thousands of years, but only in the past several decades have scientists brought psychedelics into the lab to enhance them and maximize their therapeutic value.
Today’s podcast guest, Doug Drysdale, is doing important work to lead this effort. Drysdale is the CEO of a company called Cybin that has figured out how to make psilocybin more potent, so it can be administered in smaller doses without side effects.
The natural form of psilocybin has been studied increasingly in the realm of mental health. Taking doses of these mushrooms appears to help people with anxiety and depression by spurring the development of connections in the brain, an example of neuroplasticity. The process basically shifts the adult brain from being fairly rigid like dried clay into a malleable substance like warm wax - the state of change that's constantly underway in the developing brains of children.
Neuroplasticity in adults seems to unlock some of our default ways of of thinking, the habitual thought patterns that’ve been associated with various mental health problems. Some promising research suggests that psilocybin causes a reset of sorts. It makes way for new, healthier thought patterns.
So what is Drysdale’s secret weapon to bring even more therapeutic value to psilocybin? It’s a process called deuteration. It focuses on the hydrogen atoms in psilocybin. These atoms are very light and don’t stick very well to carbon, which is another atom in psilocybin. As a result, our bodies can easily breaks down the bonds between the hydrogen and carbon atoms. For many people, that means psilocybin gets cleared from the body too quickly, before it can have a therapeutic benefit.
In deuteration, scientists do something simple but ingenious: they replace the hydrogen atoms with a molecule called deuterium. It’s twice as heavy as hydrogen and forms tighter bonds with the carbon. Because these pairs are so rock-steady, they slow down the rate at which psilocybin is metabolized, so it has more sustained effects on our brains.
Cybin isn’t Drysdale’s first go around at this - far from it. He has over 30 years of experience in the healthcare sector. During this time he’s raised around $4 billion of both public and private capital, and has been named Ernst and Young Entrepreneur of the Year. Before Cybin, he was the founding CEO of a pharmaceutical company called Alvogen, leading it from inception to around $500 million in revenues, across 35 countries. Drysdale has also been the head of mergers and acquisitions at Actavis Group, leading 15 corporate acquisitions across three continents.
In this episode, Drysdale walks us through the promising research of his current company, Cybin, and the different therapies he’s developing for anxiety and depression based not just on psilocybin but another psychedelic compound found in plants called DMT. He explains how they seem to have such powerful effects on the brain, as well as the potential for psychedelics to eventually support other use cases, including helping us strive toward higher levels of well-being. He goes on to discuss his views on mindfulness and lifestyle factors - such as optimal nutrition - that could help bring out hte best in psychedelics.
Show links:
Doug Drysdale full bio
Doug Drysdale twitter
Cybin website
Cybin development pipeline
Cybin's promising phase 2 research on depression
Johns Hopkins psychedelics research and psilocybin research
Mets owner Steve Cohen invests in psychedelic therapies
Doug Drysdale, CEO of Cybin
How the body's immune resilience affects our health and lifespan
Story by Big Think
It is a mystery why humans manifest vast differences in lifespan, health, and susceptibility to infectious diseases. However, a team of international scientists has revealed that the capacity to resist or recover from infections and inflammation (a trait they call “immune resilience”) is one of the major contributors to these differences.
Immune resilience involves controlling inflammation and preserving or rapidly restoring immune activity at any age, explained Weijing He, a study co-author. He and his colleagues discovered that people with the highest level of immune resilience were more likely to live longer, resist infection and recurrence of skin cancer, and survive COVID and sepsis.
Measuring immune resilience
The researchers measured immune resilience in two ways. The first is based on the relative quantities of two types of immune cells, CD4+ T cells and CD8+ T cells. CD4+ T cells coordinate the immune system’s response to pathogens and are often used to measure immune health (with higher levels typically suggesting a stronger immune system). However, in 2021, the researchers found that a low level of CD8+ T cells (which are responsible for killing damaged or infected cells) is also an important indicator of immune health. In fact, patients with high levels of CD4+ T cells and low levels of CD8+ T cells during SARS-CoV-2 and HIV infection were the least likely to develop severe COVID and AIDS.
Individuals with optimal levels of immune resilience were more likely to live longer.
In the same 2021 study, the researchers identified a second measure of immune resilience that involves two gene expression signatures correlated with an infected person’s risk of death. One of the signatures was linked to a higher risk of death; it includes genes related to inflammation — an essential process for jumpstarting the immune system but one that can cause considerable damage if left unbridled. The other signature was linked to a greater chance of survival; it includes genes related to keeping inflammation in check. These genes help the immune system mount a balanced immune response during infection and taper down the response after the threat is gone. The researchers found that participants who expressed the optimal combination of genes lived longer.
Immune resilience and longevity
The researchers assessed levels of immune resilience in nearly 50,000 participants of different ages and with various types of challenges to their immune systems, including acute infections, chronic diseases, and cancers. Their evaluation demonstrated that individuals with optimal levels of immune resilience were more likely to live longer, resist HIV and influenza infections, resist recurrence of skin cancer after kidney transplant, survive COVID infection, and survive sepsis.
However, a person’s immune resilience fluctuates all the time. Study participants who had optimal immune resilience before common symptomatic viral infections like a cold or the flu experienced a shift in their gene expression to poor immune resilience within 48 hours of symptom onset. As these people recovered from their infection, many gradually returned to the more favorable gene expression levels they had before. However, nearly 30% who once had optimal immune resilience did not fully regain that survival-associated profile by the end of the cold and flu season, even though they had recovered from their illness.
Intriguingly, some people who are 90+ years old still have optimal immune resilience, suggesting that these individuals’ immune systems have an exceptional capacity to control inflammation and rapidly restore proper immune balance.
This could suggest that the recovery phase varies among people and diseases. For example, young female sex workers who had many clients and did not use condoms — and thus were repeatedly exposed to sexually transmitted pathogens — had very low immune resilience. However, most of the sex workers who began reducing their exposure to sexually transmitted pathogens by using condoms and decreasing their number of sex partners experienced an improvement in immune resilience over the next 10 years.
Immune resilience and aging
The researchers found that the proportion of people with optimal immune resilience tended to be highest among the young and lowest among the elderly. The researchers suggest that, as people age, they are exposed to increasingly more health conditions (acute infections, chronic diseases, cancers, etc.) which challenge their immune systems to undergo a “respond-and-recover” cycle. During the response phase, CD8+ T cells and inflammatory gene expression increase, and during the recovery phase, they go back down.
However, over a lifetime of repeated challenges, the immune system is slower to recover, altering a person’s immune resilience. Intriguingly, some people who are 90+ years old still have optimal immune resilience, suggesting that these individuals’ immune systems have an exceptional capacity to control inflammation and rapidly restore proper immune balance despite the many respond-and-recover cycles that their immune systems have faced.
Public health ramifications could be significant. Immune cell and gene expression profile assessments are relatively simple to conduct, and being able to determine a person’s immune resilience can help identify whether someone is at greater risk for developing diseases, how they will respond to treatment, and whether, as well as to what extent, they will recover.