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Daniel Dunaief

Pixabay photo

By Daniel Dunaief

Rain can put a damper on life, as the two children at the beginning of Dr. Seuss’s The Cat in the Hat shared and as the itsy bitsy spider that went up the water spout only to get washed out again discovered.

As it turns out, rain, clouds, wind and foul weather can reduce the trading decisions of people who buy and sell large sums of money in stocks, as they grapple with their own reactions to clouds that they’d like to go away and come again some other day.

Danling Jiang

Danling Jiang, associate dean of research and faculty development in Stony Brook University’s College of Business; Lin Sun, Assistant Professor at George Mason University; and Dylan Norris, Assistant Professor at Troy University recently published a study in which they explored the effect of cloudy or inclement weather in the two weeks before an earnings surprise on investor reactions.

Every three months, public companies provide a detailed disclosure of their profits and losses, giving investors a chance to look over the equivalent of a quarterly report card.

Like helicopter parents who monitor every line, sentence and word in a report card, institutional investors tend to have a stronger reaction, either positively or negatively, if those numbers are considerably different than they expected. An “A” in advanced calculus might be like profits that exceed estimates by 10 percent, while a “C” might be the equivalent of an unexpected loss in a business that had been doing well.

As it turns out, institutional investors are less likely to react as strongly, at least initially, to an earnings surprise if the skies in the two weeks before they review the earnings announcements are cloudy or unpleasant.

“We find strong supporting evidence in our empirical tests which reveal increases in the pre-announcement unpleasant weather of institutional investors results in muted immediate market responses to earnings news and amplified port-earnings-announcement drifts,” Jiang explained in an email.

Over the course of two to three months, the stock price reflects a more typical pattern that aligns with the direction of the earnings surprise.

The researchers published their work in the Journal of Corporate Finance.

These results, which came from an analysis of reactions to earnings surprises from 1990 to 2016, validate and extend previous efforts to understand how weather affects investor decisions.

Earlier studies revealed the effects of weather on individuals’ psychological and physiological states, according to Jiang.

“These effects have also been shown to influence financial decisions and security prices, even through the actions of sophisticated market participants such as market makers and security analysts,” she said.

The three academics started working together when Lin and Jiang were faculty and Norris was a PhD student at Florida State University.

“We were fascinated by the idea present in prior research that weather seems a perfect exogenous shock to investor psychology and physiology,” said Jiang. “This exogenous feature allows us to draw some causality of psychology on market pricing in a new setting with institutional investors and earnings announcements.”

The researchers chose the years 1990 to 2016 because they had the data in their possession.

“We tried to ensure that our sample period was long enough to confirm the weather effect was a persistent force throughout time and not merely a phenomenon of a small segment in time,” said Jiang who added that solving the weather-related muted effect by adding brighter lights to a trading floor could backfire, as excessive bright lights can have negative effects.

“Overillumination can cause fatigue, stress and anxiety,” she explained. “It is also likely that most traders are subject to the weather at some point during the day” through arriving at work, leaving for lunch or glancing out the window. That means the weather still likely influences them even when they may be in a brightly-lit indoor setting.

The researchers used two measures of weather conditions. One integrated wind, cloud and rain, and the other used cloud cover only. Both measures produced similar findings.

Using earlier studies and their own research, it appears accounting for the combined effect of simultaneous weather parameters or focusing on cloud cover better captures any physiological or psychological effects as opposed to using wind or rain alone, said Jiang.

Public companies are unlikely to trigger a more muted response to earnings surprises by recruiting investors from areas with greater cloud cover, as prior research demonstrated that seasonal climate norms don’t appear to affect the behavior of investors once they acclimate, so to speak, to the weather.

In addition to the 14-day window to create the weather measures, the researchers generated a seven-day measure that showed similar results.

Announcement day weather may also affect market reactions to earnings news and “we do not discredit its importance,” Jiang said. Indeed, other research has shown that the weather in New York City at the time of an earnings announcement impacts market reactions.

The explanation for the muted reaction to earnings is based on psychological and physiological reactions of institutional investors to weather, including anxiety and sadness as well as fatigue and decreased activity.

“In addition to causing delayed information processing, weather could cause a reduction in energy amongst some traders,” said Jiang

That means institutional investors may struggle with the same factors that made the boy and Sally from The Cat in the Hat struggle while it was “too wet to go out and too cold to play ball. So we sat in the house, we did nothing at all,” Dr. Seuss wrote.

While institutional investors don’t do nothing at all, they are less active, at least according to the recent research, than they are when the sun shines brightly, reliably and more consistently.

Pixabay photo
Daniel Dunaief

This past week, I spent more time personally and professionally speaking with other people than I had in over a year.

I give myself mixed reviews. Two anecdotes capture the range of my experiences. During one meeting, my brain had its own mini dialog, even as I tried to stay focused on details about a story I was researching. Here’s a sample of that internal dialog:

Wait, why is he looking away? Should I not have had that salad earlier? Do I have something green in my teeth?

No, hold on, maybe it’s that you’re tired and your eyes are closing. Open your eyes wider to indicate that you’re paying attention. No. NO. NO! Too wide! Now, he’s wondering why you’re staring so intently at him.

Okay, he’s looking at you again. Oh, no, I have to scratch my face. What do I do? Ignore it. Yes, that’s working. No, it’s not. Now, my face itches even more. Come on face, suck it up. No, I have to scratch. Maybe I can coordinate the scratch with the moment when he looks away. Come on, look away!

Great, now he’s looking at me without blinking, like Jack Nicholson in “A Few Good Men.” Wait, I’m listening. Really, I am, but I’m a tad distracted. It’s not my fault. It’s my face’s fault. 

I’m focused. I have a good question ready, but I still need to scratch my face. Look away. LOOK a-WAY! It’s not working. Instead of scratching, I’m twitching. Now he’s staring at the part of my face that itches and twitches.

I’m going to lean on my hand and scratch subtly, while listening intently and making solid, but not scary eye contact.

Okay, so, maybe that was a slight exaggeration, but it was an imperfect and slightly distracted moment in the real world.

Later in the week, I had another opportunity to multitask. Just as I started walking across a courtyard to a meeting, it started pouring.

I walked quickly. Running didn’t seem like a great choice because panting, dripping and sweating is never a good look for me.

When I arrived, an incredibly supportive executive assistant asked me if I wanted a hot tea, coffee, towel or water. I said I’d be fine.

Once I got in the office, I immediately realized, dripping onto, into and around the chair of one of my favorite sources, that his air conditioning was among the strongest in the area. In addition to the cool air in the room, I felt a slight breeze, which made me feel as if each droplet of water clinging to me might soon turn to ice.

As I spoke to him, rocking slightly back and forth, putting my hands under my legs to keep them warm, I was well aware of how ridiculous I must have looked. At the same time, I appreciated the in-person nature of the experience, which wasn’t an option six months earlier.

I enjoyed how the multitasking necessary to stay on track was so much different than the challenges of Zoom, where my primary concerns were whether the background in the screen included messy clothing, whether I was looking at the right place on the screen, and whether my dog would decide to bark at the five-year-old learning to ride a bike in front of our house.

Venturing further out than I have in over a year from the turtle-shell life felt like stepping back into a familiar but altered role. Despite the momentary and awkward setbacks, it was a welcome return to a three-dimensional world.

Photo courtesy of CSHL

By Daniel Dunaief

Cold Spring Harbor Laboratory’s DNA Learning Center and the Red Cloud Indian School recently launched a program called Students Talk Science in which high school students could ask questions from several senior scientists about the vaccine for COVID-19 and healthcare disparities in minority communities.

Dr. Eliseo Pérez-Stable

 

The talks are a component of a program called STARS, for Science, Technology & Research Scholars, an effort the group started in 2019 to build interest and experience in STEM for minority students. The Students Talk Science program engaged the STARS participants and students from the Red Cloud Indian School on the Pine Ridge Indian Reservation.

Jason Williams, Assistant Director of Inclusion and Research Readiness at the DNA Learning at CSHL; Brittany Johnson, an educator at the DNA Learning Center; Katie Montez, a teacher at the Red Cloud Indian School ;and Carol Carter, Professor in the Department of Microbiology and Immunology at the Renaissance School of Medicine at Stony Brook University, wanted to connect minority students with practicing physicians and scientists in leadership positions at the National Institutes of Health to allow them to ask questions of concern regarding the vaccines.

Dr. Monica Webb-Hooper

“We did this to empower them to function as trusted resources for their families, friends and network,” Carter, who participated as an individual rather than as a formal representative of Stony Brook University, explained in an email.

The conversations included interactions with Dr. Eliseo Pérez-Stable, Director of the National Institute on Minority Health and Health Disparities, or NIMHD at the National Institutes of Health; Dr. Monica Webb Hooper, Deputy Director of the NIMHD; Dr. Gary Gibbons, Director of the National Heat, Lung and Blood Institute; and Dr. Eugenia South, Assistant Professor in Emergency Medicine at the Hospital of the University of Pennsylvania and the Presbyterian Medical Center of Philadelphia.

The high school students prepared informed questions.

Dr. Gary Gibbons

“The students were encouraged to do their own research” on the interview subjects, Williams explained. “We asked students not to look just at [each] interviewee’s science work, but also any personal background/ biography they could find. Students had multiple opportunities for follow up and were largely independent on their choices of questions.”

Samantha Gonzalez, a student at Walter G. O’Connell Copiague High School, asked South about her initial skepticism for the vaccine.

South acknowledged that she had no interest in taking the vaccine when she first learned she was eligible. “I almost surprised myself with the fierceness with which I said, ‘No,’” South said. “I had to step back and say, ‘Why did I have this reaction?’”

Some of the reasons had to do with mistrust, which includes her own experiences and the experiences of her patients, whom she said have had to confront racism in health care. In addition, she was unsure of the speed at which the vaccine was developed. She had never heard of the mRNA technology that made the vaccines from Moderna and Pfizer/ BioNTech possible.

“I had to do my own research to understand that this wasn’t a new technology,” she said.

Dr. Eugenia South

South went through a learning process, in which she read information and talked to experts. After she received answers to her questions and with the urging of her mother, she decided to get the vaccine.

“I’m so thankful that I was able to do that,” South said.

The team behind Students Talk Science not only wanted to empower students to make informed decisions, but also wanted to give them the opportunity to interact with scientists who might serve as personal and professional role models, providing a pathway of information and access that developed amid an extraordinary period.

“We wanted to engage high school students in something unique going on in their lifetime,” Carter said.

To be sure, Carter and Williams said the scientific interactions weren’t designed to convince students to take the vaccine or to urge their parents or families to get a shot. Rather, they wanted to provide an opportunity for students to ask questions and gather information.

“We purposely did not participate in the discussions because our goal was not to convince or ‘preach,’ but to enable students and their networks to make informed decisions,” Carter said.

Parents had to read and sign off on the process for students to participate. The organizers didn’t want a situation where they were doing something that conflicts with a parents’ decisions or views.

Williams added that the purpose of the conversations was never to say, “you must get the vaccine. Our purpose is to talk about information.”

The objective of these interactions is to help minority students find a track for a productive career in ten years.

In addition to questions about hesitancy, Williams said some of the high school students expressed concerns about access to vaccines. He is pleased with the result of this effort to connect students with scientists and doctors.

The group was “able to get some of the most important scientists in the country to sit with high school students,” he said. “It was very powerful to give students access to these role models.”

The goal is to stay with these students, mentor them and stay in touch with them until they graduate from college and, perhaps, return as research scientists.

Even for students who do not return, this type of interaction could provide an “impactful experience that prepares them for other opportunities,” Williams explained, adding that the STARS program would incorporate the Students Talk Science Series into the program more formally in the future, with new students and topics most likely during the school year.

The interviews are available at the following website: https://dnalc.cshl.edu/resources/students-talk-science/.

Above, microscopic image showing brown, antibody-based staining of keratin 17 (K17) in bladder cancer. Image from Shroyer Lab, Stony Brook University

By Daniel Dunaief

Detectives often look for the smallest clue that links a culprit to a crime. A fingerprint on the frame of a stolen Picasso painting, a shoe print from a outside a window of a house that was robbed or a blood sample can provide the kind of forensic evidence that helps police and, eventually, district attorneys track and convict criminals.

Kenneth Shroyer MD, PhD                  Photo from SBU

The same process holds true in the world of disease detection. Researchers hope to use small and, ideally, noninvasive clues that will provide a diagnosis, enabling scientists and doctors to link symptoms to the molecular markers of a disease and, ultimately, to an effective remedy for these culprits that rob families of precious time with their relatives.

For years, Ken Shroyer, the Marvin Kuschner Professor and Chair of Pathology at the Renaissance School of Medicine at Stony Brook University, has been working with a protein called keratin 17.

A part of embryological development, keratin 17 was, at first, like a witness who appeared at the scene of one crime after another. The presence of this specific protein, which is unusual in adults, appeared to be something of a fluke.

Until it wasn’t.

Shroyer and a former member of his lab, Luisa Escobar-Hoyos, who is now an Assistant Professor at Yale, recently published two papers that build on their previous work with this protein. One paper, which was published in Cancer Cytopathology, links the protein to pancreatic cancer. The other, published in the American Journal of Clinical Pathology, provides a potentially easier way to diagnose bladder cancer, or urothelial carcinoma.

Each paper suggests that, like an abundance of suspicious fingerprints at the crime scene, the presence of keratin 17 can, and likely does, have diagnostic relevance.

Pancreatic cancer

A particularly nettlesome disease, pancreatic cancer, which researchers at Stony Brook and Cold Spring Harbor Laboratory, including CSHL Cancer Center Director David Tuveson, have been studying for years, has a poor prognosis upon diagnosis.

During a process called surgical resection, doctors have been able to determine the virulence of pancreatic cancer by looking at a larger number of cells.

Shroyer and Escobar Hoyos, however, used a needle biopsy, in which they took considerably fewer cells, to see whether they could develop a k17 score that would correlate with the most aggressive subtype of the cancer.

“We took cases that had been evaluated by needle biopsy and then had a subsequent surgical resection to compare the two results,” Shroyer said. They were able to show that the “needle biopsy specimens gave results that were as useful as working with the whole tumor in predicting the survival of the patient.”

A needle biopsy, with a k17 score that reflects the virulence of cancer, could be especially helpful with those cancers for which a patient is not a candidate for a surgical resection.“That makes this type of analysis available to any patient with a diagnosis of pancreatic cancer, rather than limiting it to the small subset of cases that are able to undergo surgery,” Shroyer said. 

Ultimately, however, a k17 score is not the goal for the chairman of the pathology department.

Indeed, Shroyer would like to use that score as a biomarker that could differentiate patient subtypes, enabling doctors to determine a therapy that would prove most reliable for different groups of people battling pancreatic cancer.

The recently published report establishes the foundation of whether it’s possible to detect and get meaningful conclusions from a needle biopsy in terms of treatment options.

At this point, Shroyer isn’t sure whether these results increase the potential clinical benefit of a needle biopsy.

“Although this paper supports that hypothesis, we are not prepared yet to use k17 to guide clinical decision making,” Shroyer said.

Bladder cancer

Each year, doctors and hospitals diagnose about 81,000 cases of bladder cancer in the United States. The detection of this cancer can be difficult and expensive and often includes an invasive procedure.

Shroyer, however, developed a k17 protein test that is designed to provide a reliable diagnostic marker that labs can get from a urine sample, which is often part of an annual physical exam.

The problem with bladder cancer cytopathology is that the sensitivity and specificity aren’t high enough. Cells sometimes appear suggestive or indeterminate when the patient doesn’t have cancer.

“There has been interest in finding biomarkers to improve diagnostic accuracy,” Shroyer said. 

Shroyer applied for patent protection for a k17 assay he developed through the Stony Brook Technology Transfer office and is working with KDx Diagnostics. The work builds on “previous observations that k17 detects bladder cancer in biopsies,” Shroyer said. He reported a “high level of sensitivity and specificity” that went beyond that with other biomarkers.

Indeed, in urine tests of 36 cases confirmed by biopsy, 35 showed elevated levels of the protein.

KDx, a start up biotechnology company that has a license with The Research Foundation for The State University of New York, is developing the test commercially.

The Food and Drug Administration gave KDx a breakthrough device designation for its assay test for k17.

Additionally, such a test could reveal whether bladder cancer that appears to be in remission may have recurred.

This type of test could help doctors with the initial diagnosis and with follow up efforts, Shroyer said.“Do patients have bladder cancer, yes or no?” he asked. “The tools are not entirely accurate. We want to be able to give a more accurate answer to that pretty simple question.”

A scene from Broadway's 'Dear Evan Hanson'

By Daniel Dunaief

Daniel Dunaief

With my fingers crossed, I am excited about the return of shows on Broadway, which is scheduled to reopen in September.

Something magical happens when a curtain rises, taking an excited audience on a musical journey to other places and other times.

Decades ago, I attended a production of “The King and I.” While the famous Yule Brenner played the title role, I found the experience utterly meaningless.

I remember asking my mother what those small people were doing so far away from me, as we watched that production in the third balcony.

“Next time,” my mother said through gritted teeth to my father, “I’m getting the tickets.”

Sure enough, my parents took my brothers and me to “A Chorus Line.” The experience was as different as standing across the street, looking through the fog at a candy store and sitting at the counter, reading through a menu and enjoying the smell of warm waffles and ice cream and the sight of tantalizing delicacies akin to what I imagined Turkish delights from the Narnia series would taste like.

The live performance so completely captivated me that I left the auditorium humming some of the songs and hoping everything would work out for characters who came from broken homes and broken dreams. Each of the actors was taking his or her shot, hoping for approval, and a job, doing what he or she loved.

I have found numerous shows that have been as moving and as thrilling, including more modern performances, like “Dear Evan Hansen.”

The combination of sights and sounds, the emotional range from humor to tragedy and the riveting live voices that cause seats to vibrate and artwork to come alive provide a completely immersive artistic experience.

I don’t always love every moment in a show, and I don’t always understand what a director or actor is conveying, but that doesn’t stop me from trying or from appreciating the effort.

When I was in high school, I joined the pit orchestra of the musicals “The Wizard of Oz” and “West Side Story.” I far preferred the latter, with its more complicated and intricate music, although participating in each performance provided artistic highlights for my high school career.

On one of my first dates with my wife, we attended “A Funny Thing Happened on the Way to the Forum,” starring Nathan Lane. The show, which I had seen once or twice before, was a familiar pleasure, while Lane’s periodic breaking of character and hamming up the role tickled the audience, sharing the equivalent of a modern-day wink with an appreciative crowd.

After the show, I was thrilled to find that my wife shared my love and appreciation for the Great White Way. We repeated lines that amused us, commented on the sets, and appreciated the spectacular stage presence of an acting legend who, somehow, show after show, seemed to be completely in the moment.

As we continue to emerge from a pandemic in which we discussed books we’d read and Netflix shows we’d seen, I am eagerly looking forward to returning to the cushioned seats, the brightly-colored programs, the friendly ushers, and the hard-working cast members who inspire and elevate my life with their dedication, talent and hard work.

Who knows? This year, I might even go back to dressing up for the occasion, tying a tie, finding matching dark socks, and wearing dress shoes as the lights return to live performances, the orchestra holds up its instruments, and the actors take deep breaths, preparing to serenade those lucky enough to score tickets to a transformative ride.

Matt Damon in a scene from ‘The Martian’

By Daniel Dunaief

One of the seminal, and realistic, scenes from the movie “The Martian” involves astronaut Mark Watney, played by Matt Damon, clearing the dust from a solar panel.

The cleaning process not only made it possible for the space station on Mars to continue to generate solar energy, but it also alerted the National Aeronautics and Space Administration staff on Earth to the fact that Watney somehow survived a storm and was alive and stranded on the Red Planet.

Alexander Orlov Photo from SBU

Back in 1967, engineers from NASA proposed a system to remove dust from solar panels, which can deprive space stations of energy and can cause rovers and other distant remotely operated vehicles to stop functioning. Washing these solar cells on dried out planets with water is not an option.

That’s where Alexander Orlov, a Professor of Materials Science and Chemical Engineering in the College of Engineering and Applied Science, his graduate student Shrish Patel, Victor Veerasamy, Research Professor of Materials Science and Chemical Engineering at Stony Brook University, and Jim Smith, Chief Technology Officer at Bison Technologies and a board member at the Clean Energy Business Incubator Program at SBU, come in.

Working at a company Orlov founded called SuperClean Glass, Orlov, Patel and other colleagues tried to make an original effort started by NASA feasible. The particles have an electric charge. An electric field they created on the solar glass lifts the particles and then throws them away.

The process recently became a finalist in the Department of Energy’s American-Made Solar Prize for 2021. The 10 companies who are finalists get a $100,000 prize and $75,000 in vouchers from the Department of Energy to test their technology.

The DOE will announce two winners in September of 2021, who will each get an additional half a million dollars and $75,000 in vouchers to develop and test their prototypes.

Orlov, who was delighted that this effort received the recognition and the funds, said the company would use the money to develop prototypes and verify that ‘this technology works at the National Renewable Energy Lab.”

SuperClean Glass is creating prototypes of larger scale to show that turning on a power supply will cause dust to levitate and be removed within seconds.

At this point, Orlov estimates that companies can recoup the additional cost of using this technology within four to five years. The average lifespan of a solar panel is about 25 years, which means that companies could increase their energy efficiency for the 20 years after the initial investment in the technology.

Orlov said the current state of the art for cleaning solar panels typically involves using either water, getting people to dust off the surface, or deploying robots.

This device used for experiments is a highly transparent electrodynamic shield deposited on glass to repel dust from solar panels. Image courtesy of SuperClean Glass Inc

In Egypt, where labor costs are lower, companies can pay people to remove dust with brushes. While robots reduce the cost of labor, they are not always efficient and can break down.

Some companies put a coating on the panels that allows rainwater to wash the dust away more easily. That, however, relies on rain, which is scarce in desert conditions.

Orlov originally became involved in trying to develop an alternative to these methods when Sam Aronson, the former director of Brookhaven National Laboratory, contacted him following a visit to the Turkana Basin Institute in Kenya.

When he visited the archeological site in Kenya, Aronson saw that dust frequently reduced the efficiency and effectiveness of the solar panels. The dust problem is not specific to Kenya or the United States, as many of the most attractive sites for solar panels are in regions with considerable sun and little rainfall. The benefit of minimal precipitation is that it provides access to critical sunlight, which generates energy.

The downside of these sites, however, is that the dry, sunny climates often produce dust.

Orlov researched the NASA technology, where he discovered that it wasn’t efficient and couldn’t be scaled up.

Using $150,000 he received from the New York State energy Research and Development Authority, or NYSERDA, Orlov and Patel started reaching out to solar panel manufacturers to determine the price point at which such a dust cleaning removal service might be viable.

“We conducted interviews with 180 people who use solar panels to find out the particular price point where this technology becomes attractive,” Orlov said. That was the steep curve, to do economic analysis, financial projections and to understand what the market wants. All that is not present in [typical] academic research.”

They reduced the power consumption for electrodes by a factor of five. They also explored commercial methods for scaling up their manufacturing approach.

Dust isn’t the same throughout the world, as it is a different color in various areas and has different mineral contents.

“In the future, depending on where this might be deployed, there needs to be some tweaking of this technology,” Orlov said.

As a part of the technology roadmap for the work they are proposing, the SuperClean effort includes a self-monitoring system that would activate the electrodes on the shield if needed to repel an accumulation of dust.

Orlov described the market for such a self-cleaning and efficient process as “very significant.” He is hoping to provide a field demonstration of this approach later this year. If the process continues to produce commercially viable results, they could license the technology within two to three years.

In the near term, Orlov is focused on producing results that could enhance their positioning for the DOE’s grand prize.

“There are a lot of steps before September to be eligible” to win the $500,000, he said. The biggest hurdle at this point is to get positive results from the National Renewable Energy Lab and demonstrate that the technology is effective and also durable.

“Our expectation is that it should last for 25 years, but the lab, which is going to do the testing, is the gold standard to verify that claim,” he said.

Photo from Pixabay

By Daniel Dunaief

Daniel Dunaief

Aliens are all the rage these days.

People are excited about the declassified documents that seem to suggest a technology that exceeds American understanding and know-how.

Of course, one possible explanation is that other people built them. With billions of intelligent humans scattered around the planet, it’s possible that we have fallen a few steps behind the most advanced surveillance technology of the world, making these sudden flying objects that disappear an enormous mystery, even as our fellow humans elsewhere are snickering.

While that only feeds into the advanced state of American paranoia, it doesn’t preclude the possibility that these technological mysteries are human-generated. Then again, maybe someone has built a time machine and is tooling around in a craft from future humans. If that’s the case, why didn’t our descendants do more to fix historical tragedies, global warming or other human errors?

Another tantalizing option exists: what if they are, indeed, alien? What if advanced creatures from another planet, galaxy, solar system, or celestial neighborhood, have come into our airspace to spy on us, learn our secrets and decide whether to stick their appendages out at us so we can meet them and become acquaintances or allies?

I was thinking about what I might say to an alien scout gathering information to decide whether to bring all manner of other creatures to our planet to share a drink, catch a baseball game, and argue the merits of communism versus capitalism.

I imagine a conversation might go something like this:

Alien: So, tell me about yourself?

Me: Well, uh, I’m human.

Alien: What does that mean?

Me: I guess it means I can talk to you and that, unlike other animals on this planet, I have imagined what this conversation might be like for much of my life.

Alien: How do you know other creatures didn’t imagine it?

Me: Maybe they did, but they seem kind of busy trying to avoid getting eaten.

Alien: That doesn’t mean they couldn’t imagine it.

Me: I suppose. So, where are you from?

Alien: Somewhere else.

Me: Wow, helpful. Can you tell me about yourself?

Alien: Yes, but I made a long trip and I’d like to hear about you, first. Do you mind?

Me: Now that you put it that way, I wouldn’t want to be considered intergalactically rude. So, what else can I tell you?

Alien: What’s the best and worst part of humanity?

Me: It’s hard to come up with one of each. Our ability to help each other is near the top of the list. Oh, as is our ability to imagine something, like traveling to the moon or Mars, and then making it happen. Music and art are also pretty amazing.

Alien: What about the worst?

Me: Destruction? Hatred? Violence? Excluding people? Preying on people’s weaknesses? Using our trauma to traumatize other people?

Alien: You sound complicated. Can we trust you?

Me: We don’t trust each other, so, going by that, I’d say, caveat emptor.

Alien: What does that mean?

Me: It means, “let the buyer beware.”

Alien: Hmm. So, who is this near your leg?

Me: That’s the family dog.

Alien barks at the dog. The dog barks back. The alien nods.

Alien: We’ve decided to go in a different direction.

Me: Wait, where are you taking my dog?

Alien: He’s not yours, and he’s chosen to join us.

Me: Can I come?

Alien laughs and flies off, buzzing close by a jet, the sound of the family pet laugh-barking in the skies.

From left, John Inglis and Richard Sever. Photo from CSHL

By Daniel Dunaief

Scientists rarely have people standing at their lab door, waiting eagerly for the results of their studies the way the public awaits high-profile verdicts.

That, however, changed over the last 16 months, as researchers, public health officials, school administrators and a host of others struggled to understand every aspect of the basic and translational science involved in the Sars-Cov2 virus, which caused the COVID-19 pandemic.

With people becoming infected, hospitalized and dying at an alarming rate, businesses closing and travel, entertainment and sporting events grinding to a halt, society looked to scientists for quick answers. One challenge, particularly in the world of scientific publishing, is that quick and answers don’t often mesh well in the deliberate, careful and complicated world of scientific publishing.

The scientific method involves considerable checking, rechecking and careful statistically relevant analysis, which is not typically designed for the sharing of information until other researchers have reviewed it and questioned the approach, methodology and interpretation.

The pandemic changed that last year, increasing the importance of preprint servers like bioRxiv and medRxiv at Cold Spring Harbor Laboratory, which provide a way for researchers to share unfiltered and unchecked information quicker than a scientific review and publishing process that can take months or even years.

The pandemic increased the importance of these preprint servers, enabling scientists from all over the world to exchange updated research with each other, in the hopes of leading to better basic understanding, diagnosis, treatment and prevention of the spread of the deadly virus.

The importance of these servers left those running them in a bind, as they wanted to balance between honoring their mission of sharing information quickly and remaining responsible about the kinds of information, speculation or data that might prove dangerous to the public.

Richard Sever and John Inglis, Assistant Director and Executive Director of Cold Spring Harbor Laboratory Press, created pandemic-specific criteria for work reporting potential Covid-19 therapies.

“Manuscripts making computational predictions of COVID-19 therapies are accepted only if they also include in vitro [studies in test tubes or with live cells] or in vivo [studies in live subjects] work,” the preprint directors wrote in a recent blog. “This restriction does not apply to non-covid-19 work.”

Inglis and Sever continue to decline research papers that might cause people to behave in ways that compromise public health.

“We are simply doing our best to tread carefully in the early days of clinical preprints, as we gain experience and bias our actions toward doing no harm” the authors wrote in their blog.

In the first few months after the pandemic hit the United States, the pace at which scientists, many of whom pivoted from their primary work to direct their expertise to the public health threat, was the highest bioRxiv, which was founded in November of 2013, and medRxiv, which was started in June of 2019, had ever experienced.

These preprint servers published papers that wound up leading to standards of care for COVID-19, including a June research report that appeared on June 22nd in medRxiv on the use of the steroid dexamethasone, which was one of the treatments former President Donald Trump received when he contracted the virus.

The rush to publish information related to the virus has slowed, although researchers have still posted over 16,000 papers related to the virus through the two pre-print servers. MedRxiv published 12,400 pandemic-related papers since January of 2020, while bioRxiv published over 3,600.

At its peak in late March of 2020, medRxiv’s abstract views reached 10.9 million, while downloads of the articles were close to five million.

Currently, bioRxiv is publishing about 3,500 papers a month, while medRxiv put up about 1,300 during a month. Close to 60 percent of the medRxiv papers continue to cover medical issues related to the pandemic.

The numbers of page views are “not anywhere near the frenzy of last year,” Inglis said in an interview. 

With the volume of papers still high, people can receive alerts from the preprint servers using parameters like their field of interest or word searches.

“The real question is how to sort out the gold from the dross,” Inglis said. While some people have suggested a star system akin to the one shopping services use, Inglis remained skeptical about the benefit of a scientific popularity contest.

“Have you looked at the stuff [with four or five stars] on Amazon? It’s one thing if you’re buying a widget, but it’s different if you’re trying to figure out what’s worthwhile science,” he said.

Other organizations have reviewed preprints, including the Bloomberg School of Public Health at Johns Hopkins.

“By sheer diligence, the [Johns Hopkins team] go into medRxiv mostly and simply pick out things they think are striking,” Inglis said. 

At the same time, a team of researchers led by Nicolas Vabret, Robert Samstein, Nicolas Fernandez, and Miriam Merad created the Sinai Immunology Review Project, which provides critical reviews of articles from the Cold Spring Harbor Laboratory preprint sites. The effort ranks COVID-related preprints according to their immunological relevance. Fernandez created a dedicated website to host and integrate the reviews. The group also worked with Nature Reviews Immunology to publish short weekly summaries of preprints, according to a comment piece in that journal.

BioRxiv and medRxiv were founded on the belief that early sharing of results as preprints would speed progress in biomedical research, better equipping scientists to build on each other’s work.

“My team is proud to have contributed to the response to this worldwide human tragedy,” Inglis said. “We’re also glad we made the decision to set up a separate server for health science, in which the screening requirements are different and more stringent.”

Inglis explained that the pre-print servers have “learned a lot in the past year” about providing information during a crisis like the pandemic. “If another pandemic arose, we’d apply these learnings and respond immediately in the same way.”

Pixabay photo

By Daniel Dunaief

Daniel Dunaief

You don’t have to look hard to see them alongside the road. They aren’t even always on the sharpest curves or the steepest hills.

There, along the median or over there, by the right side of the road, are the homemade crucifixes, the flowers, the stuffed animals and the personal effects of people who never made it wherever they were going, their lives ending on or near asphalt as other vehicles collided with theirs.

My family recently took a road trip, where we easily could have become another statistic, and our family or friends could have just as easily been visiting the spot where it ended for one, two, three or all four of us.

I was driving during a recent weekend, excited by the open road and eager to remove the family from the neighborhood patterns that have defined our lives for well over a year.

My wife navigated, checked her email, exchanged texts with friends, and regularly asked if I wanted her to drive, if I needed a drink, or if I was hungry.

Our son was napping behind me, his head tilted back and to the left. Our daughter was immersed in virtual interactions with her friends, head down, a Mona Lisa smile plastered on her face.

With my peripheral vision, I traced the flow of the taller and shorter trees that passed by, the familiarity of the Texas, Indiana, Ohio and California license plates on nearby cars and trucks, and the click, click, click of the road that churned beneath our wheels.

Up ahead, the driver of one of the thousands of SUVs that dot the American landscape hit his brakes. My wife instantly saw it and closed her eyes. Unlike me, she typically hits her brakes as soon as she sees the red lights at the back of the car in front of her.

I immediately take my foot off the accelerator, where it hovers over the brake. As we rapidly approached the car in front of us, I applied the brake with some force, coming to an almost complete stop just feet before reaching the bumper.

I exhaled in relief, while immediately hitting the hazards. I wanted the cars behind me to know I wasn’t merely touching my brakes, but that I, and all the other cars around me, were stopping.

For a moment, I chatted with my wife. I have no idea what she or I was saying, when I noticed a truck coming towards at an incredible rate of speed.

“Hold on! This isn’t good!” I shouted, waking my son and drawing my daughter away from her phone.

I reflexively tapped my accelerator and drove my car directly towards the nearly stopped SUV on my right side. The truck, meanwhile, dove into the thin shoulder.

As it flew by, the truck somehow missed us completely. The car next to me honked in frustration, as the driver, who must have moved to her right, glared. I wanted to tell her that a truck might have crushed our family if the driver and I hadn’t each made last second adjustments.

Her lane kept moving, and she likely didn’t give my sudden maneuver another thought. With my hands in a vice grip on the wheel and my breathing rapid, I stared at the truck in front of me. I wasn’t sure whether I would have liked to punch or hug the driver, who didn’t notice me slowing down, see my hazard lights or leave himself enough room to stop. At the same time, though, he — and it could have been a woman, because I never saw the driver — turned onto the small shoulder, finding just enough space to squeeze past me without destroying my car, my family or my life.

For the next several minutes, I struggled to drive, as the image of the speeding truck with nowhere to go in my rear view mirror replayed itself in my head.

“Are you okay? Do you need me to drive?” my wife asked anxiously.

My family and I were okay. We weren’t a part of a sad story that ended on an American highway. Skid marks left on the road weren’t a marker for the final seconds of our lives.

We are grateful for the combination of factors that turned a close call into a near miss. Perhaps this happened for a reason beyond giving us more opportunities to extend the journeys of our lives. Perhaps one of the purposes is to provide a warning to everyone else to remain vigilant, to brake early and to stay sharp and focused on the roads.

Xiaoning Wu at her recent PhD graduation with Kevin Reed. Photo by Gordon Taylor

By Daniel Dunaief

If they build it, they will understand the hurricanes that will come.

That’s the theory behind the climate model Kevin Reed, Associate Professor at the School of Marine and Atmospheric Sciences at Stony Brook University, and his graduate student Xiaoning Wu, recently created.

Working with Associate Professor Christopher Wolfe at Stony Brook and National Center for Atmospheric Research scientists, Reed and Wu developed an idealized computer model of the interaction between the oceans and the atmosphere that they hope will, before long, allow them to study weather events such as tropical cyclones, also known as hurricanes.

In his idealized program, Reed is trying to reduce the complexity of models to create a system that doesn’t require as much bandwidth and that can offer directional cues about coming climate change.

“When you’re trying to build a climate model that can accurately project the future, you’re trying to include every process you know is important in the Earth’s system,” Reed said. These programs “can’t be run” with university computers and have to tap into some of the biggest supercomputers in the world.

Reed’s work is designed to “peel back some of these advances that have happened in the field” which will allow him to focus on understanding the connections and processes, particularly between the ocean and the atmosphere. He uses fewer components in his model, reducing the number of equations he uses to represent variables like clouds.

“We see if we can understand the processes, as opposed to understanding the most accurate” representations possible, he said. In the last ten years or so, he took a million lines of code in a climate model and reduced it to 200 lines.

Another way to develop a simpler model is to reduce the complexity of the climate system itself. One way to reduce that is to scale back on the land in the model, making the world look much more like something out of the 1995 Kevin Costner film “Waterworld.”

About 30 percent of the world is covered by land, which has a variety of properties.

In one of the simulations, Reed reduced the complexity of the system by getting rid of the land completely, creating a covered aqua planet, explaining that they are trying to develop a tool that looks somewhat like the Earth.

“If we could understand and quantify that [idealized system], we could develop other ways to look at the real world,” he said.

The amount of energy from the sun remains the same, as do the processes of representing oceans, atmospheres and clouds.

In another version of the model, Reed and Wu represented continents as a single, north-south ribbon strip of land, which is enough to change the ocean flow and to create currents like the Gulf Stream.

The expectation and preliminary research shows that “we should have tropical cyclones popping up in these idealized models,” Reed said. By studying the hurricanes in this model, these Stony Brook scientists can understand how these storms affect the movement of heat from around the equator towards the poles.

The weather patterns in regions further from the poles, like Long Island, come from the flow of heat that starts at the equator and moves to colder regions.

Atlantic hurricanes, which pick up their energy from the warmer waters near Africa and the southern North Atlantic, transfer some of that heat. Over the course of decades, the cycling of that energy, which also reduces the temperature of the warmer oceans, affects models for future storm systems, according to previous studies.

Reed said the scientific community has a wide range of estimates for the effect of hurricanes on energy transport, with some researchers estimating that it’s negligible, while others believing it’s close to 50 percent, which would mean that hurricanes could “play an active role in defining” the climate.

Reed’s hypothesis is that a more rapid warming of the poles will create less of an energy imbalance, which will mean fewer hurricanes. This might differ in various ocean basins. He has been studying the factors that control the number of tropical cyclones.

Reed and Wu’s research was published in the Journal of Advances in Modeling Earth Systems in April.

Wu, who is completing her PhD this summer after five years at Stony Brook, described the model as a major part of her thesis work. She is pleased with the work, which addresses the changing ocean as the “elephant in the room.”

Oftentimes, she said, models focus on the atmosphere without including uncertainties that come from oceans, which provide feedback through hurricanes and larger scale climate events.

Wu started working on the model in the summer of 2019, which involved considerable coding work. She hopes the model will “be used more widely” by the scientific community, as other researchers explore a range of questions about the interaction among various systems.

Wu doesn’t see the model as a crystal ball so much as a magnifying glass that can help clarify what is happening and also might occur in the future.

“We can focus on particular players in the system,” she said.

A native of central China, Wu said the flooding of the Yangtze River in 1998 likely affected her interest in science and weather, as the factors that led to this phenomenon occurred thousands of miles away.

As for her future, Wu is intrigued by the potential to connect models like the one she helped develop with applications for decision making in risk management.

The range of work she has done has enabled her to look at the atmosphere and physical oceanography and computational and science communication, all of which have been “useful for developing my career.”