April 17, 2024

National Primate Research Centers Prioritize Openness for Scientific Progress

At the forefront of biomedical and behavioral research are the seven National Primate Research Centers (NPRCs). They form a vital network dedicated to conducting and enabling groundbreaking research to improve human and animal health. Studies at the centers include development & aging, genetics & genomics, infectious disease, neuroscience & brain disorders, and reproduction & endocrinology. The NPRCs have been instrumental in driving discoveries crucial for overcoming health challenges and in helping the public understand the significance of research that involves animals.   

   

A Comprehensive Approach  

A priority of the NPRCs is to share information via local, regional and national outreach. Through a multifaceted approach, the NPRCs foster education and dialogue, ensuring openness about their research and the expert care of animals involved in NPRC research studies.   

   

From participating in local events to leveraging digital platforms, the NPRCs employ diverse strategies to make connections. NPRC.org provides the latest information for the public, and NPRCresearch.org, which is undergoing updates, ensures the scientific community has comprehensive information about the resources the NPRCs offer NIH-funded researchers. Through timely and engaging content, the NPRCs strive to explain the highly regulated research process and showcase their contributions to scientific progress.   

   

A Legacy of Excellence  

With a history spanning more than six decades, the NPRCs stand as pillars of scientific expertise and exemplars of public outreach. The U.S. Animal Research Openness initiative (USARO) recently featured information about the NPRCs’ outreach programs on the USARO website. This article provides encouragement for other research centers to follow the NPRC lead.   

   

A Future Filled with Accurate Information  

As the NPRCs continue to make scientific discoveries, their dedication to openness will continue to expand. The NPRCs believe openness helps empower individuals to make informed decisions, is critical to instilling confidence in scientific research and care of research animals, inspires future generations of scientists and ensures the public has accurate information about how research with animals is improving lives.  

  

  

 

 

April 1, 2024

Every day, the seven National Primate Research Centers (NPRCs) conduct and enable collaborative research studies to improve human and animal health. For more than five years now, we’ve been sharing our latest news and scientific advancements with you via NPRC.org and @NPRCnews (X), and there’s more coming your way. 

To ensure the NPRCs provide the topics of most interest to our readers and followers, we looked back at your favorite stories to help us move forward. Your top interests span behavior and psychology, infectious disease and neuroscience and brain disorders research. We will continue to share news that represents what you have most enjoyed, and we will also bring you information that reflects the breadth and depth of research across the NPRC network.   

We appreciate our readers and followers, and encourage you to take another look at your favorite blogs about NPRC research, to share the information with your family, friends and colleagues, and to continue connecting with us via NPRC.org, @NPRCnews and, now, on the new NPRC LinkedIn account. Via these resources, you’ll always be able to access the latest news on NPRC research that is helping people across generations and around the world live longer, healthier lives.   

 

Behavior and Psychology 

  1. The Effects of Wildfire Smoke Exposure in Early Pregnancy 

A study by California NPRC and UC Davis researchers investigated the effects of wildfire smoke exposure on infant monkeys during early pregnancy. The study found that exposure led to increased inflammation, reduced stress response, memory deficits and a more passive temperament in the monkeys. The findings suggest environmental changes during pregnancy can have lasting effects on offspring.  

 

Infectious Disease 

2. A Deadly Relationship: Stopping the Progression of Tuberculosis in HIV Patients   

Researchers at the Southwest National Primate Research Center have discovered chronic immune activation in the lungs plays a crucial role in the progression of tuberculosis (TB) and HIV co-infection. This dysfunction hampers the body’s ability to fight off infections. The study suggests the need to develop treatments targeting chronic immune activation alongside antiretroviral therapy (ART). TB and HIV are global pandemics that reinforce each other, affecting a significant portion of the world’s population. The findings offer hope for improved treatment strategies in the next decade. 

3. New Possible Correlation Between Lyme Disease and Lewy Body Dementia  

At Tulane National Primate Research Center, researchers discovered intact spirochetes of Borrelia burgdorferi, the bacterium that causes Lyme disease, in the central nervous system of a 69-year-old woman who received multiple rounds of antibiotic treatment. The presence of this bacterium coupled with her persistent neurological decline raises the possibility of a correlation between Lyme disease and Lewy body dementia. This finding highlights the bacterium’s persistence despite targeted therapy and emphasizes the need for further research to comprehend its role in severe neurological conditions. 

4. Are DNA Vaccinations a Perennial Answer to the Flu?  

Researchers at the Washington National Primate Research Center are developing a universal flu vaccine that could protect against all strains of the influenza virus. Using a DNA vaccine administered through the skin, the team has achieved promising results in macaques, providing 100% protection against a previous flu virus. This approach could eliminate the need for annual flu shots and be quickly deployed during pandemics. The researchers believe this technology could also be effective against other viruses and outbreaks. 

 

Neuroscience & Brain Disorders 

5. Past Social Experiences May Affect Brain’s Response to Oxytocin

A study at the Emory (formerly Yerkes) National Primate Research Center and Emory University showed the response of neurons to oxytocin, a chemical involved in social bonding, can vary based on an individual’s past experiences. Using female prairie voles, the researchers examined the nucleus accumbens, a brain region related to pair bonding. They found that oxytocin reduced neuron firing before bonding and increased it afterward, when triggered. The study also revealed a connection between oxytocin signals and endocannabinoids, affecting defensive interactions. These findings provide insights into how prior experiences influence oxytocin’s impact on brain circuits. 

6. NPRC Study May Have Found Link That Causes Anxiety and Depression  

Researchers at the Wisconsin National Primate Research Center and the University of Wisconsin-Madison have discovered brain pathways in juvenile monkeys that could contribute to anxiety and depression later in life. By studying the connections between specific brain regions, they found a correlation between synchronization and anxious temperament. These findings may lead to better treatment approaches and help identify gene alterations associated with anxiety. 

7. The Drinking Gene: Could Alcoholism Be Inherited?  

Research conducted at Oregon National Primate Research Center has identified a gene, GPR39, as a potential target for developing medication to prevent and treat alcoholism. By modifying protein levels encoded by this gene in mice, the researchers observed a significant reduction in alcohol consumption. They also found a link between alcohol and the activity of this gene. The study draws attention to the importance of cross-species approaches to identify drugs for treating alcohol use disorder. Further investigations are under way to determine if the same mechanism applies to humans. These findings offer potential insights for developing drugs to address chronic alcoholism and mood disorders. 

May 10, 2023

Marina Emborg, medical physics professor and director of the University of Wisconsin–Madison’s Preclinical Parkinson’s Research Program, focuses on understanding and developing treatments for neurological disorders in a highly collaborative, interdisciplinary fashion. 

 

In her article, “Reframing the perception of outliers and negative data in translational research,” published last month in Brain Research Bulletin, Emborg describes how publishing negative or unexpected data from a research project helps scientific research advance. 

 

Scientific results are termed ‘positive’ when supporting the driving hypothesis and ‘negative’ when countering it. Both can be equally informative. But it is noteworthy that ‘negative’ data differs from ‘useless’ data. 

  • Useless data is defined as the results obtained by a biased or poorly performed experiment. 
  • Negative data are unexpected results that prove or disprove a hypothesis in a way not previously known. 

“Overall, the paper aims to reframe the perception of working with, reporting and reviewing unexpected data as an opportunity to provide rationale for innovative ideas, prevent the misuse of limited resources and, ultimately, strengthen the reputation of a scientist,” writes Emborg in the paper’s abstract. 

While scientists may be initially disappointed by negative data, analyzing it is helpful for the scientific community, including individual scientists, explains Emborg, whose lab is based at the Wisconsin National Primate Research Center. 

August 15, 2022

Interview with the Director: The importance of the Washington National Primate Research Center by Chris Petkov & Renee Hartig

The following article was originally posted to the Speaking of Research website June 27, 2022.

Primate neuroscience research has been a bedrock of scientific discoveries on how the brain works. This has led to scientific breakthroughs and discoveries to advance treatments for Parkinson’s disease and many other disorders, including clinical depression and blindness. Primate research has also been critical for advancing vaccines to fight COVID-19. Despite these advances, a couple of former scientists are calling for an end to animal research.

Shouldn’t former scientists know the societal benefits that animal research brings?

In the USA, the National Institutes of Health (NIH) supports seven National Primate Research Centers (NPRCs), distributed across the country. As we can see by this investment, the NIH strongly values primate research, recognizing its vital role in scientific and biomedical advances. These advances benefit everyone, including those opposed to animal research.

The Washington National Primate Research Center (WaNPRC) is one of these seven sites, and it recently obtained a new director who we were keen to speak with.

Speaking of Research interviewed Professor Michele A. Basso, the new director of WaNPRC to hear her vision for primate research at the Center and across the United States.

Professor Basso, thank you for taking the time to speak with us. You recently took on the exciting, though also very challenging, role of Director at the WaNPRC. Could you tell us why you decided to take on this role?

Yes, thank you, I’m delighted to be speaking with you. I’m so proud of the work done at the WaNPRC and would love to share with you why I chose to take on this key leadership role.

As Director of one of the 7 National Primate Research Centers (NPRCs) in the US – I have an opportunity to serve the scientific community and the public locally, nationally and internationally. I want to help young and seasoned scientists, veterinarians, behavioral specialists, and other technical staff be successful. I want to help solve some of the most important questions that affect the health and well-being of people around the globe, and I want to be part of a community that advances scientific knowledge and medical breakthroughs.

WaNPRC has a long history of contributions to scientific knowledge and medical breakthroughs. Now as Director, working with amazing people, I have an opportunity to be part of that tradition and expand my contributions.

Why does the US have publicly-funded NPRCs?

Congress appropriated funds in 1960 to establish national primate centers, now referred to as the National Primate Research Centers (NPRCs), because Congress members realized the critical importance of providing scientists across the nation with specialized resources to conduct research with nonhuman primates.

Then, as is still true today, it is not possible to get the data we need to understand aspects of human biology by using computer models alone, or even research using animals with less sophisticated biology or behavior. It is impossible to overstate the importance of nonhuman primate research in helping us address the key health challenges faced by people around the world.

The NPRCs provide the vital infrastructure and the scientific, clinical and behavioral expertise needed to work with these animals to help us combat international health crises, including diseases such as Zika and Malaria, tuberculosis and most recently, COVID-19. In addition, the Centers help us understand and treat issues faced by millions of people around the world, including fertility and disorders of the reproductive system, cardiovascular disease and stroke, spinal cord injury, blinding diseases such as macular degeneration and other age-related neurodegenerative diseases including Alzheimer’s and Parkinson’s disease. Given the number of people suffering with diseases that we cannot fully understand without the work performed at the NPRCs and elsewhere, I believe we have a moral imperative to do this work.

The public has and continues to have a huge interest in advances that can only come as a result of biomedical research with nonhuman primates. Because of the importance of this work, the federal government has continued to support the NPRCs for 60 years – we just celebrated our 60th anniversary. We at WaNPRC are also celebrating the successful renewal of our P51 Center award for another 5 years.

When you speak to the public, how do you explain the value and importance of primate research?

I am a first-generation college graduate with an immigrant Italian working-class background. For as long as I can remember, it’s been important to me to be able to explain to the people I love what I do and why I do it. After all, they sacrificed for me to be able to do science and their tax dollars are funding the work. I learned very early on the importance of being able to explain my work to those without a background in science, which is just as important to me as being able to explain my work within the scientific community.

There is so much about biology that we still don’t understand – even basic things – why do some vaccines require multiple boosters and others do not? Why do certain brain cells die in some diseases and others do not? So many of these questions remain a mystery to us but the answers hold the key to alleviating human and other animal suffering.

Monkeys are important because some of their biology (aspects of the immune system, reproductive system and brain) is more similar to ours than other animal models. While there is much we can and do learn from computer models and animals that are farther removed from humans, we encounter many scientific questions that can only be answered through work with nonhuman primates.

For example, the development of the COVID-19 vaccine required work in monkeys. Mice do not have the receptor on their cells that the virus sticks to – so the rodents had to be genetically manipulated to express that receptor to study COVID-19 infection. Monkeys, like humans, have the receptor, so the virus could be studied directly in the monkeys and more precisely and more rapidly than in rodents.

There are many myths about scientists, and science, some of which likely result from media and the movies, but even more so now in today’s world of chronic misinformation. One common myth that I often think about is how people think that in the lab we scientists say ‘eureka!’ and there’s a new discovery – nothing could be further from the truth. Scientists must work methodically, day in and day out – it is hard work and progress is frequently only made after a long list of failures. I think the public understanding of how science works fails to capture that truth – that we actually depend on failure to be successful and make progress. And I believe it is important to dispel myths about science and the use of animals in scientific research. I believe that talking to people helps dispel those myths.

We saw this dramatically unfold in the development of the mRNA vaccine for COVID-19—that vaccine was reported to have been developed in record time, but in truth the COVID-19 vaccine was developed as a result of many years of deliberate and careful research using animal models, and especially monkeys.

What is your vision for the WaNPRC going forwards and how do you plan to deliver on it?

The mission of the WaNPRC is to empower the delivery of leading-edge scientific discoveries to improve human health, while promoting the highest standards of care, health, well-being and conservation for primates around the world.

We are an organization made up of over 150 scientists, animal husbandry and care specialists, behavior management specialists, veterinarians, administrative staff and senior leadership. We work to support the efforts of over 400 scientists locally at the University of Washington and across the greater Seattle area, the United States and Europe. The first thing I want to do is to get that message out. Historically, those of us who worked with monkeys remained hidden, and many still do out of fear—fear of bullying and harassment or worse, from anti-animal research individuals or groups. These individuals try to take scientists hostage—silence them, terrorize them and make it impossible for them to help address health crises.

I have been outspoken for a long time now, publicly since around 2006 when I testified at the 109th Congress on behalf of the Animal Enterprise Terrorism Act. I remain committed to the idea that if we speak out, we are safer – because when people understand what we do and why we do it, they side with the scientists vs. the terrorists, because they want to see the medical advances primate researchers are able to provide, and they come to learn what exactly that entails. They also come to understand that our animals get outstanding, compassionate care! They have experts caring for them 365 days a year — more care than most humans receive! So, I want to broadcast our work to let people know about our many successes and contributions, and equally importantly to know how much we too love these animals, and how they get the best care possible from a large team of superbly trained and skilled professionals.

Because of the expertise we have at WaNPRC, I also want to get the message out to other institutions, including other institutions with small monkey footprints looking to WaNPRC for support. I want them to know that we are here to help them to ensure that they have the necessary expertise and support.

My vision is for WaNPRC to become the national beacon for other institutions to allow them to build, support and be comfortable engaging in this critical work. 

I am very fortunate to be working with an amazing team of scientists, veterinarians and care staff and primatologists. Our Associate Director of Research, Dr. Deb Fuller, an infectious disease expert, is spearheading a new program focused on Valley Fever. Valley Fever (VF) is a disease with symptoms that remarkably, resemble COVID symptoms, but VF is not a virus.  People and their animal companions become infected with VF by inhaling the fungal spores that live in soil. VF is endemic to arid communities largely in the Americas and is even spreading to the Pacific Northwest because of climate change. We have a colony of macaque monkeys in Arizona that will play an important role in the development of this vaccine and new diagnostics for VF disease. This includes defining mechanisms of the disease, identifying new immunogens to maximize efficacy of our vaccine and development of new tests for diagnosing the disease in humans and animals. Since VF affects animals too, we have a vigorous monitoring, screening and treatment program should any of our animals be exposed to VF, to ensure they remain healthy and suitable for research projects. Dr. Fuller’s focus will be to use the mRNA technology that was used for some COVID vaccines, to develop a vaccine for VF.

A unique program that we have at WaNPRC, is the Global Conservation, Education and Outreach Program, led by Dr. Randy Kyes. I am very excited about this program not only for its work in the conservation space that is performed with our global partners, but also because of the science that Dr. Kyes and his colleagues perform – they are very interested in understanding animal-human and animal-animal disease transmission. This work is foundational for our country’s pandemic preparedness moving forward. Dr Kyes and I are planning to grow this program and continue our initiatives in One Health.

WaNPRC also has a strong and growing Neuroscience Unit of Scientific Excellence as well. One aspect of this program that we are developing is ex vivo recording of neuronal activity to address critical questions about brain circuit function. These novel procedures allow us to make cell cultures and collect data for long periods of time, as long as 2-3 weeks. Establishing this work at the Center reflects our strong commitment to the 3Rs ethical principle of animals in research – one of which is to Reduce animal use whenever possible. Now we can ask many questions of these preserved cell cultures instead of using animals. Our commitment to Replacing (another of the 3Rs) the use of animals in research whenever possible is deep.

What are some of the biggest challenges that face science in the US and internationally?

I would first say that despite the challenges, the importance of this work to the health and wellbeing of people around the world cannot be overstated.

I don’t know whether I would put this list in any order – in my mind they each have equivalent weight in terms of their potential impact on the future of science. From a safety perspective, the first is addressing the onslaught of bullying and harassment stemming from anti-animal research organizations targeting our scientists and animal care workers and staff, who work tirelessly to perform and support great science and to take exemplary care of our animals. The bullying and harassment from these organizations is unacceptable. We all have an obligation to make it a safe environment for scientists, animal technicians and veterinarians.

The campaigns against science also extend to the public and to our policy and lawmakers. This in my view is potentially catastrophic, as anti-animal research organizations are convincing unwitting people that what we do is wrong – when in fact it is the foundation of every major medical advance of the last and current centuries – including and especially our recent ability to have vaccines curbing a global pandemic.

Another major concern that I imagine most people don’t realize, is that like many things, we rely on China for a large portion of our animal imports for research purposes.  However, China recently stopped all imports of research animals to the US. Europe and Canada are also experiencing this roadblock. The lack of imports, together with the fact that our NPRCs have had flat or decreasing budgets from NIH and Congress for the last many years, have left us now in a significant lurch.

This is the first time in history that I am aware that the US is facing the very real possibility that we will no longer be leaders in medical and scientific discoveries. This is very sad to me but is also entirely reversible if we all act now to preserve the primate research capabilities of the United States of America.

As we learn more about how to optimize the care of our animals and ensure the strongest science possible, we are committed to modifying our housing enclosures to more closely simulate the natural environment. This will take resources and significant monetary investments from NIH and Congress. This is an important part of my vision for the WaNPRC going forward.

Some former scientists, now turned activists, are questioning the importance of primate neuroscience and the role of the NPRCs. Some of these activists, including an individual that worked briefly at WaNPRC, in a recent Guardian article, seem to be quite proud of now working for PETA, we quote: “One of the things I take probably undue pleasure in is that you really can’t tell Peta no,” she says. “If you do, Peta will draft a lawsuit and drop it on your doorstep. They’ll put together a TV ad and start running it.” Once the organization takes on an issue, its commitment is absolute. For Lisa Jones-Engel, that’s worth letting go of the prestige, the adrenaline and the other trappings of her former calling. She’s making peace with the idea that she can never go back now.”

How do you address their critiques about your role and that of the NPRCs from folks that unfortunately seem to be being used because of their previous status as scientists, as the quote states?

This is a very revealing quote as were several other comments in the article.

We waste enormous amounts of time and thus taxpayer money dealing with frivolous lawsuits and records requests made by the anti-animal research organizations, purposely designed not to ‘educate the public’ as they claim but to keep us away from our important work of caring for animals and indirectly, people.

I am a neuroscientist and not a mind reader, so I would never pretend to understand, without direct knowledge, what motivates anyone, including former scientists, to do what they choose to do. What I do know based on fact, however, is that an individual used to perform research with monkeys here at WaNPRC and unfortunately had a failed research program. This happened before my time at WaNPRC. I do know that it is the responsibility of the Director to ensure good stewardship of Center resources and see that primate research is advancing science, in part, because financial resources come from the US taxpayer. Decisions have to be made when scientific programs do not deliver on their objectives. I understand that this could lead to some hard feelings which may impact the decisions a person makes to engage with organizations that seem to be using them in ways that they do not seem to fully agree with but cannot escape, as the quote clearly states.

As for critiques of the Center, our accomplishments speak for themselves. And the whole of animal research as a field dedicated to public health, speaks for itself, but we need to regularly remind the public. I am hoping that we as scientists can get better about communicating these accomplishments. For example, I wonder how many people know that 93 Nobel prizes were awarded to scientists for discoveries that involved work with animals. And no fewer than 11 of these came from work with non-human primates, monkeys but also chimpanzees. As recently as 2020, the Nobel Prize in Physiology or Medicine went to scientists who discovered the Hepatitis C virus in chimpanzees.

Another claim by activists is that primate research is conducted with poor or no animal welfare standards. How do you answer this criticism, often made by folks that have not done primate neuroscience for 40 or more years?

It is hard to know where to begin with criticisms of animal welfare, as it is so far from the reality of science and animal care today.

Research funded by the federal government that involves any vertebrate animal, is highly regulated by local, state and federal laws and guidelines. Before a project begins, researchers have to write a protocol outlining in detail what the animals will experience throughout their lifetime, and what the goals of the science are, including how the animals will be protected and cared for. The protocols are carefully scrutinized by other scientists, veterinarians and members of the general public, members of the Institutional Animal Care and Use Committee (IACUC for short). Once approved, the work and facilities are monitored regularly. Veterinarians provide regular oversight and support as well. Interestingly to the public, researchers are also required to justify anything they do scientifically, and even the particular animal species they select to work with. This is the only arena where the animal species has to be justified – why this particular model is required to answer the scientific question.

Our society uses animals in many ways, but unlike the strict guidelines in scientific research, commercial industries, such as clothing or food for example, do not have to provide the type of justification required of scientists. I find this interesting.

Some of the activists also suggest that scientists need to use their brains to find cures? Supposedly that means you don’t need to do anything to find cures for brain disorders other than through thought experiments, studying cultured tissue samples or conducting computational modeling to understand the brain. It may also mean that scientists just don’t use their brains to find cures, or are not motivated to do so because they just want to extend their careers for, as many activists argue, no good reason. What do you think is at the basis of statements like these and how do you respond to something like this?

This just doesn’t pass the logic test in my view. If we could do what we do without animals, of course we would do it!

Think about it for a minute – we maintain facilities that must meet standards outlined by the government and other oversight bodies, the spaces need specialized air handling and sanitation capabilities, we house live animals that require large amounts of real estate and 365 days a year care. We employ many people with specialized training and skills to feed and water and care for these animals who depend on us for their every need. This is a complicated endeavor and costs money, time and emotional investment. It would be MUCH easier and less costly if we could solve all the complexities of human biology on a computer chip! But you can’t program a chip to do things that you don’t yet understand.

Scientists are smart people, and they could make a heck of a lot more money much more easily on Wall Street than in science, but many choose science because like me they want to help people and other animals. So, the idea that we want to extend our careers for no good reason is just silly to me. Scientists are constantly using their brains individually and as a collective to find cures not possible without animal research.

Some critics claim that studies of rats and mice do not often enough lead to treatments for human diseases and thus all animal research should stop. How do you explain to the public why that simply is not true?

This is false and a complete non-sequitur. First, foundational science that is performed on animals is a necessary prerequisite for all treatments for humans and other animals. Foundational science, much of it performed in mice and rats, tells us about fundamental principles and basic biology. This is the pipeline of information that leads to the discovery of new treatment targets or drugs. Without that foundational knowledge we would not know where to look for possible treatments in the first place.

Second, mice have contributed to a number of discoveries leading to human treatments – immunologically-based cancer therapies, treatments for parasitic infections, and techniques related to monoclonal antibody formation to name a few, but there are limits in areas of biomedical science, to what we can learn from animals with less complex organs – such as the brain for example. Third, as scientists we select the animal model that is best suited to answer the question posed and as mentioned, strict regulations require us to justify that selection. Our models are selected based on the process that we are studying and for some processes – certain molecular, genetic processes for example, are shared among many species – rodents to humans.

There are processes that require an animal model that more closely resembles humans, such as the monkey. One example is higher mental function. There are areas of the brain that exist in primates that simply do not exist in rodents. The prefrontal cortex is an example – the region of the brain that controls executive function. In my opinion, one of the reasons we have not made as much progress as we would like on certain neuropsychiatric illnesses is because we lack good animal models of those processes, like schizophrenia and bipolar disorder.

If research with primates is less than 0.5% of all animals in research, why is this such a small but important segment of animal research?

For the reasons mentioned before this research is vastly important AND scientists follow ethical principles to ensure that they use the smallest number of primates to complete the work successfully. This is an extremely efficient line of work because primate research is so ethically sensitive and regulated. Also regulations may require that rodent studies are validated with primates before clinical trials in humans are conducted. For certain processes the primate model best reproduces the process in the human that we wish to understand. Whether it be a receptor for the COVID virus that mice do not possess but monkeys do, or the sophisticated cognitive behavior that monkeys have but rodents do not share, primate research can provide answers with very few numbers of primates being required.

WaNPRC has an Arizona facility that has been the subject of media reports and criticism about Valley Fever (VF). Why does WaNPRC have a segment in Arizona? What are the facts here?

We put an FAQ on our web site because the misinformation that was being spread about our WaNPRC was so egregious, so we made accurate information available. I won’t repeat all the accusations here, but suffice it to say that the accusations were unsubstantiated by the facts. Also, our facility is regularly inspected by the NIH Office of Laboratory Animal Welfare (OLAW) and the USDA and there were no findings.

We continue to remain in compliance with all laws and regulations.

As mentioned earlier, Valley Fever (VF) is endemic to arid locations and humans, companion animals, and our monkeys are susceptible to exposure given that they are in AZ and have enclosures with outdoor access. In fact, because of this, our colony will play an important role in the development of a vaccine and new diagnostics for VF. VF is a significant clinical and public health concern, including to the local tribal communities who live in this area. We work with the indigenous community on communication about VF.

Another topic on which there is quite a bit of scientific misinformation propagated by the activists is monkeypox. What is the issue here and what are the facts?

Monkeypox is a misleading name, and the WHO is committed to changing it. Monkeypox is an orthopox virus similar to smallpox, but it affects multiple animal species and is generally less severe than smallpox. There have been outbreaks of monkeypox associated with animal contact in Africa periodically over time. There was an outbreak of monkeypox in the United States in 2003 associated with pet prairie dogs imported from Ghana. The reason the current outbreak is newsworthy is because there is human-to-human spread.

Infrequent but regular monkeypox outbreaks have occurred starting in the late 1970s after the smallpox vaccine stopped being routinely administered (since smallpox vaccine provides protection from monkeypox). Most of these cases have been self-limiting and quickly isolated except the notable cases mentioned above.

The current monkeypox outbreak is believed to have originated from Western Africa based on genetic similarity. Speculation is that an individual who was infected (possibly via a rodent bite) traveled to Europe and exposed others at a MSM (men having sex with men) party. Thus, the outbreak that was first identified in Europe was initially primarily among MSM. A significant concern here is the potential for stigma, similar to early days of HIV infection, that the virus is a disease of MSM. Like HIV, monkeypox can transmit between anybody who has close contact.

Unlike COVID-19 (that can spread very efficiently in the air between people just standing in the same room or even after entering a room where someone was infected), transmission of monkeypox is not very efficient. It can spread via fomites (generated by sneezing, coughing or spitting while talking) but fomites don’t travel far so it requires very close face to face interaction or more often, direct contact with that person. It can also spread by contacting bedding/clothing of someone with ruptured pustules but generally the person touching these items will not get infected unless there is an open sore. As such, the CDC and WHO maintain that the risk of getting monkeypox is very low and overall, the number of cases, while rising, is expected to remain low and eventually peter out.

At present, it’s not known if this strain of monkeypox is actually sexually transmitted or if it’s just appearing more frequently among sexual contacts. However, it is recognized that the transmission pattern of this outbreak is different from previous outbreaks and studies are still underway to understand better what the mechanisms are.

Getting outbreaks under control is in progress and is generally very effective if implemented immediately. A number of local outbreaks have already been brought under control by these measures. It entails 3 major strategies: 1) identify and diagnose cases, 2) identify recent close contacts and quarantine them, 3) deploy the stockpiled licensed smallpox vaccine in a ring vaccination strategy – that is vaccinating close contacts and their close contacts to build a buffer of immunity around an outbreak (we now have a newer version that is safer and causes less reactions called Modified Vaccinia Ankara) such that those outside the “ring” are protected and the transmission is stopped.

What do you think that the animal research communities and the NIH could be doing better to get the message out about the importance of primate neuroscience?

Speak out! Talk about your research.

Tell people about the care the animals receive and your commitment to both animal care and scientific advance.

In my experience, people are unlikely to know all of the facts, and they want to understand the science. They are interested in the work, so they tend to be very eager to hear what you have to say and to discuss it with you.

That’s why it is so important to me to talk about the critical importance of animal research and the contributions it brings to benefit the health and well-being of us all—supporters and detractors alike.

How do you strike that work and life balance as you take on the role of director for such a vital national resource?

Yeah, I’ve always struggled a bit with this.

I’ve taken on this new role, and I still have my very active laboratory, so it’s a bit like having two jobs! I am exceptionally privileged to have a team of students, trainees and scientists with whom I work who are just amazing. WaNPRC has an equally amazing and talented team of veterinarians, animal care and behavioral trainers who are such a joy to work with.

And the monkeys, I’ve always loved working with them, so it really doesn’t feel like work to me.

Director Basso thank you for taking the time to talk to us at Speaking of Research. There is a substantial amount of scientific misinformation circulating, including now by former scientists turned anti-animal research activists.

It was wonderful to hear directly from you about the topic of primate science, your vision for the WaNPRC and its importance.

November 18, 2021

California National Primate Research Center (NPRC) Director and neuroscientist John Morrison, PhD, is a leader in sharing science with the public. His latest public outreach effort is serving as the lead scientist behind the exhibit, “Life of a Neuron.” This comes after years of collaboration between Washington, D.C.’s technology-based art space ARTECHOUSE and the Society for Neuroscience, a professional organization that represents neuroscientists around the globe. The immersive experience marries cutting-edge science and art to illuminate the life experience of the brain’s 86 billion neurons.

Read more about the exhibit and Dr. Morrison’s involvement here, and listen to NPR’s coverage here

March 3, 2021

Scientific discovery is an ongoing process that takes time, observation, data collection and analysis, patience and more. At the NPRCs, our recent COVID-19 research is an example of the ongoing basic science process — how current research builds on previous discoveries and how discoveries help improve human health. This article from the National Institutes of Health (NIH) explains why basic science, such as the NPRCs conduct, is important and how taking time, as long as it takes, is a necessary part of scientific discovery.

Discoveries in Basic Science: A Perfectly Imperfect Process

Have you ever wondered why science takes so long? Maybe you haven’t thought about it much. But waiting around to hear more about COVID-19 may have you frustrated with the process.

Science can be slow and unpredictable. Each research advance builds on past discoveries, often in unexpected ways. It can take many years to build up enough basic knowledge to apply what scientists learn to improve human health.

“You really can’t understand how a disease occurs if you don’t understand how the basic biological processes work in the first place,” says Dr. Jon Lorsch, director of NIH’s National Institute of General Medical Sciences. “And of course, if you don’t understand how the underlying processes work, you don’t have any hope of actually fixing them and curing those diseases.”

Basic research asks fundamental questions about how life works. Scientists study cells, genes, proteins, and other building blocks of life. What they find can lead to better ways to predict, prevent, diagnose, and treat disease.

How Basic Research Works

When scientists are interested in a topic, they first read previous studies to find out what’s known. This lets them figure out what questions still need to be asked.

Using what they learn, scientists design new experiments to answer important unresolved questions. They collect and analyze data, and evaluate what the findings might mean.

The type of experiment depends on the question and the field of science. A lot of what we know about basic biology so far has come from studying organisms other than people.

“If one wants to delve into the intricate details of how cells work or how the molecules inside the cells work together to make processes happen, it can be very difficult to study them in humans,” Lorsch explains. “But you can study them in a less complicated life form.”

These are called research organisms. The basic biology of these organisms can be similar to ours, and much is already known about their genetic makeup. They can include yeast, fruit flies, worms, zebrafish, and mice.

Computers can also help answer basic science questions. “You can use computers to look for patterns and to try to understand how the different data you’ve collected can fit together,” Lorsch says.

But computer models have limits. They often rely on what’s already known about a process or disease. So it’s important that the models include the most up-to-date information. Scientists usually have more confidence in predictions when different computer models come up with similar answers.

This is true for other types of studies, too. One study usually only uncovers a piece of a much larger puzzle. It takes a lot of data from many different scientists to start piecing the puzzle together.

Building Together

Science is a collective effort. Researchers often work together and communicate with each other regularly. They chat with other scientists about their work, both in their lab and beyond. They present their findings at national and international conferences. Networking with their peers lets them get feedback from other experts while doing their research.

Once they’ve collected enough evidence to support their idea, researchers go through a more formal peer-review process. They write a paper summarizing their study and try to get it published in a scientific journal. After they submit their study to a journal, editors review it and decide whether to send it to other scientists for peer review.

“Peer review keeps us all informed of each other’s work, makes sure we’re staying on the cutting-edge with our techniques, and maintains a level of integrity and honesty in science,” says Dr. Windy Boyd, a senior science editor who oversees the peer-review process at NIH’s scientific journal of environmental health research and news.

Different experts evaluate the quality of the research. They look at the methods and how the results were gathered.

“Peer reviewers can all be looking at slightly different parts of the work,” Boyd explains. “One reviewer might be an expert in one specific method, where another reviewer might be more of an expert in the type of study design, and someone else might be more focused on the disease itself.”

Peer reviewers may see problems with the experiments or think different experiments are needed. They might offer new ways to interpret the data. They can also reject the paper because of poor quality, a lack of new information, or other reasons. But if the research passes this peer review process, the study is published.

Just because a study is published doesn’t mean its interpretation of the data is “right.” Other studies may support a different hypothesis.

Scientists work to develop different explanations, or models, for the various findings. They usually favor the model that can explain the most data that’s available.

“At some point, the weight of the evidence from different research groups points strongly to an answer being the most likely,” Lorsch explains. “You should be able to use that model to make predictions that are testable, which further strengthens the likelihood that that answer is the correct one.”

An Ever-Changing Process

Science is always a work in progress. It takes many studies to figure out the “most accurate” model—which doesn’t mean the “right” model.

It’s a self-correcting process. Sometimes experiments can give different results when they’re repeated. Other times, when the results are combined with later studies, the current model no longer can explain all the data and needs to be updated.

“Science is constantly evolving; new tools are being discovered,” Boyd says. “So our understanding can also change over time as we use these different tools.”

Science looks at a question from many different angles with many different techniques. Stories you may see or read about a new study may not explain how it fits into the bigger picture.

“It can seem like, at times, studies contradict each other,” Boyd explains. “But the studies could have different designs and often ask different questions.”

The details of how studies are different aren’t always explained in stories in the media. Only over time does enough evidence accumulate to point toward an explanation of all the different findings on a topic.

“The storybook version of science is that the scientist is doing something, and there’s this eureka moment where everything is revealed,” Lorsch says. “But that’s really not how it happens. Everything is done one increment at a time.”

 

December 15, 2020

Research with animals is crucial to improving human and animal health. Animals in research provide unique insights not available with other scientific models, and they help scientists determine safety and effectiveness of preventions, treatments and cures. During the COVID-19 pandemic, animals in research have been especially important in accelerating the development COVID-19 vaccines as well as better diagnostics and additional treatment options.

At the NPRCs, we’re helping fill a critical role in halting COVID-19 by leading NIH-funded studies at our centers. We’re also participating in the public-private partnership ACTIV (Accelerating COVID-19 Therapeutic Interventions and Vaccines) to develop treatments and vaccines by sharing our knowledge, resources and animals, including conducting preclinical studies with NPRC monkeys for some of the leading industry vaccine candidates.

Scientific collaboration is especially important during a pandemic when time is of the essence and, in this case, animal resources are limited. At the onset of the pandemic, monkey importation was halted, putting increasing demands on the NPRC animal colonies, which were already limited in quantity and availability. The NPRCs account for only 1 in every 5 nonhuman primates (NHPs) used in U.S.-based research, so the limited supply at a time of high demand impacts NPRC COVID-related studies as well as pre-pandemic studies under way at the NPRCs and those in planning stages.

The NPRCs remain dedicated to our other areas of study, including research into HIV/AIDS and other infectious diseases, the neurosciences, cardiovascular and respiratory health, genetics and transplant medicine. 

We are also committed to meeting the future needs of animals for NIH-funded research. This is why the NPRCs support establishing a strategic reserve of NHPs to be used in times of national health crises. We are already growing our on-site breeding colonies when time, space and funding permit, strategically assigning animals to research protocols, harmonizing across centers for efficient use of animals and increasing rigor and reproducibility to facilitate collaboration and consistency across research labs. These strategic steps now further position the NPRCs for the translation of our research advancements from cell and animal models to humans, and are indicative of our commitment to help people across generations and the world live longer, healthier lives. 

To learn more about the NPRCs’ ongoing efforts to combat COVID-19, visit this page.

Editor’s Note, 2/22/21: The New York Times covered the research monkey shortage in today’s issue. Read the story here.

November 6, 2020

It’s been 25 years since University of Wisconsin-Madison scientist James Thomson, VMD, PhD, was the first in the world to isolate and culture primate embryonic stem cells. He accomplished this breakthrough with nonhuman primates (NHPs) at the Wisconsin National Primate Research Center (NPRC) in 1995, using rhesus monkey cells, and again in 1996 with marmoset cells. Thomson then published his world-changing breakthrough on human embryonic stem cell derivation in Science Nov. 6, 1998.

From these early discoveries, stem cell research has advanced to human clinical trials for treating both age-related and juvenile macular degeneration, heart disease, blood and immune system cancers, skin wounds, hearing disorders, spinal cord injury, graft-versus-host disease and more. Just as Thomson predicted in the 1990s, NHPs, which were instrumental to basic stem cell research 25 years ago, are now in demand for a wealth of preclinical studies necessary before human clinical trials can begin.

Thanks to advances in pluripotent stem cell research and also gene-editing, researchers are also making progress in understanding the underlying causes of Parkinson’s disease, diabetes, pregnancy disorders, sickle-cell anemia, autoimmune diseases, cartilage regeneration and much more. Universities and medical institutions today have well-established stem cell and regenerative medicine centers to help bring researchers and resources together to advance the field and educate the next generation of stem cell scientists, doctors, educators, business people and policy makers.

The main uses of stem cells today include basic research to understand the human body, discovering the genetic origins of disease, growing new cells and tissues for transplant medicine, and growing cells and tissues for testing pharmaceuticals in the lab before animal and human trials begin. Stem cell research is helping animals, too. Pets as well as research animals at the NPRCs naturally get cancer, diabetes, arthritis and other diseases that stem cell therapies may be able to treat.

It’s important to make sure therapies are based on well-designed and thorough clinical trials. The Federal Food and Drug Administration (FDA) recently cracked down on a number of rogue stem cell clinics that have offered untested, unapproved and even potentially dangerous medical interventions. Only a licensed physician with a patient under his or her direct care should recommend any stem cell therapy or other medical treatment.

Thanks to stem cell research breakthroughs pioneered at the NPRCs – and advanced by many researchers and doctors who have joined the field since – we are finally unraveling the mysteries of cell biology from early development through aging as never before. Read more here.

September 28, 2020

The seven National Primate Research Centers (NPRCs) are participating in SciFest All Access 2020. This is the virtual answer to the postponed USA Science & Engineering Festival, which is recognized as the nation’s top science and engineering festival for K-12 students, college students, educators and families. Happening now through Oct. 3, registered participants can visit the NPRCs in the “Exhibit Portal, Health & Medicine Zone II.”

The NPRC booth includes links to NPRC.org, our collective website, as well as individual web pages for the seven centers. All pages are filled with educational resources and links to help you learn more about our research, the scientific advancements we’re making and the care we provide our research animals. Direct access links to these seven pages are provided below.

NPRC representatives will be “on site” at SciFest All Access answering questions registered participants submit via the “Ask a Question” link in the booth. We’re also answering questions participants email us at nprcoutreach@gmail.com.

You can learn even more about the NPRCs’ research to improve human and animal health by visiting NPRC.org and following us on Twitter at @NPRCnews.

We look forward to joining thousands of students, educators and families at this year’s SciFest All Access!

SciFest All Access NPRC Web Pages

California NPRC

Oregon NPRC

Southwest NPRC

Tulane NPRC

Washington NPRC

Wisconsin NPRC

Yerkes NPRC

September 8, 2020

The Wisconsin National Primate Research Center (WiNPRC) has launched the newly improved Primate Info Net (PIN). The website provides resources for anyone interested in nonhuman primates.

Some of PIN’s most prominent features include primates in the news, educational resources, such as the always popular primate species fact sheets, informational services and research resources. Whether looking for a few nonhuman primate facts or more detailed information, PIN can provide the guidance you need.

Other features on the improved site include Ask Primate and the Career Center. Ask Primate allows anyone to inquire about any primate or primatology topic. The Career Center facilitates exploration of jobs and volunteer opportunities in primatology, as well as career guidance from scientists.

“We hope the relaunch of PIN will make learning about primates an enjoyable and informative experience,” says Jordana Lenon, Senior Editor, at WiNPRC. “We encourage you to explore the new PIN and to contact us with any questions about this updated resource. We hope you’re as excited as we are about PIN’s return!”

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