Authors Posts by Daniel Dunaief

Daniel Dunaief

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From left, Shawn Serbin, University of Maryland collaborator Feng Zhao and Ran Meng. Photo by Roger R. Stoutenburgh

By Daniel Dunaief

Not all greenery is the same. From above the Earth, forests recovering after a fire often look the same, depending on the sensing system. An area with bushes and shrubs can appear to have the same characteristics as one with a canopy.

From left, Shawn Serbin, University of Maryland collaborator Feng Zhao and Ran Meng. Photo by Roger R. Stoutenburgh

Working in associate ecologist Shawn Serbin’s laboratory at Brookhaven National Laboratory, Ran Meng, a postdoctoral researcher, recently figured out a way to improve the level of information gained from these remote images, enabling them to distinguish among the different types of growth after a forest fire.

Examining the growth in a pine forest on Long Island after a fire near BNL in 2012, Meng used various spectral properties to get a more accurate idea of how the forest was recovering. Meng and Serbin recently published their results in the journal Remote Sensing of Environment.

“Using our remote sensing analysis, we were able to link detailed ground measurements from [BNL’s Kathy Schwager and Tim Green] and others to better understand how different burn severities can change the recovery patterns of oak and pine species,” Serbin explained in an email. The information Meng and Serbin collected and analyzed can map canopy moisture content and health as well as fuels below the canopy to identify wildfire risk.

The imagery can be used to map the water content or moisture stored in the leaves and vegetation canopies, Serbin explained. LiDAR data can see through the canopy and measure the downed trees and other fuels on the forest floor. This type of analysis can help differentiate the type of growth after a fire without requiring extensive surveys from the ground.  “One of the issues on the ground is that it’s time consuming and expensive,” Serbin said. Remote sensing can “cover a much larger area.”

Assisted by Meng’s background in machine learning, these researchers were able to see a higher resolution signal that provides a more detailed and accurate picture of the vegetation down below. One of the purposes of this work is to help inform forest managers’ decision-making, Serbin added. A forest with a canopy will likely capture and retain more water than one dominated by bushes and shrubs. A canopied forest acts “more like a sponge” in response to precipitation.

A canopied forest can “hold water,” Meng said. If the canopy disappears and changes to shrubs or grass, the forest’s capacity to store water will be damaged. Altering the trees in a forest after a fire can start a “reaction chain.” Without a nearby canopied forest, the water cycle can change, causing more erosion, which could add more sediment to streams.

Serbin recently met with the Central Pine Barrens Commission, the Department of Environmental Conservation and SUNY College of Environmental Science and Forestry, which is based in Syracuse.

Serbin had planned to meet with these groups several years ago to try to build a better relationship between the information the lab was collecting and the pine barrens and ESF to “use the lab as a field research site.”

They discussed ways to use the science to inform management to keep the pine barrens healthy. The timing of the meeting, so soon after the publication of the recent results related to fire damage surveys, was fortuitous.

“It just happens that this work with [Meng] comes out and is highly relevant,” Serbin said. “This is a happy coincidence.” He said he hopes these groups can use this information to feed into a larger model of research collaboration. This work not only provides a clearer picture of how a forest recovers, but also might suggest areas where a controlled burn might benefit the area, minimizing the effect of a more intense fire later on.

“These forests used to burn more often but with less intensity due to the lower fuel loads from more frequent fire,” Serbin explained. Fire suppression efforts, however, have meant that when fires do burn, they occur with higher intensities. “It could be harder to maintain the pine barrens because the fires burn more strongly, which can reduce or destroy the soil seed stock or alter the recovery trajectory in other ways,” he said.

The remote sensing analysis of trees uses shapes, sizes, leaf color and chemistry to explore the fingerprints of specific trees. This could offer researchers and conservationists an opportunity to monitor endangered species or protected habitats.

“We can do even better using platforms like NASA G-LiHT because we can use both the spectral fingerprint as well as unique structural characteristics of different plants” to keep track of protected areas, Serbin explained.

As for what’s next, Serbin said he would like to scale this study up to study larger areas in other fire-prone systems, such as boreal forests in Alaska and Canada. He plans to apply these approaches to develop new forest recovery products that can be used in conjunction with other remote sensing data and field studies to understand forest disturbances, recovery and carbon cycling.

Meng plans to move on in August to work directly with the NASA G-LiHT team. He said he believes this kind of work can also track infestations from beetles or other pests that attack trees or damage forests, adding, “There are some slight changes in spectral patterns following beetle outbreaks.”

A final goal of this project, which admittedly requires considerably more work according to Meng, is to monitor those changes early to enable forest managers to intervene, potentially creating the equivalent of an insect break if they can act soon enough.

Serbin appreciated the work his postdoc contributed to this project, describing Meng as a “dedicated researcher” who had to “sort out what approaches and computational techniques to use in order to effectively characterize” the images.

“[He] persevered and was able to figure out how to analyze these very detailed remote sensing data sets to come up with a new and novel pattern that hadn’t really been seen before,” said Serbin.

I’m starting a new movement. I’m going to call it CCDD, for CounterCulture Dan Dunaief.

Hey, look, if other people can put their names on buildings, airlines and bills that become laws, why can’t I, right?

My movement is all about trying to get away from a world in which large groups of people line up on either side of an issue, without much consensus or common ground in between. The polar opposites are like a barbell, with heavy weights on either end and a thin line between them. The counterculture lives along that line.

So, I’m going to establish my own rules for CCDD. For starters, I’m not going to hurry to do anything. I’m going to smile when the person in front of me doesn’t hit the gas as soon as the light turns green. I’m going to let people go ahead of me. Let’s not get ridiculous about this, right? I mean, if I’m waiting for a sandwich and I’m starving, I’m not going to let everyone go, but, I’m just saying, I’m going to take my foot off the accelerator and stop acting as if I have to race to every event.

OK, I’m also going to stop acting as if I know everything. Everyone is supposed to know everything, or at least fake it. Besides, if we don’t know something, we can check on the internet, which is the greatest source of information and misinformation ever invented. I’m going to say, “I don’t know,” and try to reason through what I recall from my education, from my reading and from people around me before asking Siri, Alexa or any other computer created voice for help. I can and will try to figure it out on my own.

I’m not going to read anything shorter than the length of a tweet message. No offense to Twitter, but the president of the galaxy vents his extreme frustration with people inside and outside his cabinet regularly through this system, so strike while the iron is hot, right? Except that I don’t want to read short ideas, short sentences or shorthand. I want to read a full, detailed thought and idea.

I’m going to care more than I ever have about grammar and spelling. I’m going to encourage others to care about the difference between counsel (advice) and council (a collection of people) because words matter.

I will look carefully at nature whenever I have the chance. I plan to consider the importance of the journey, even as I head toward a destination. The ends will not justify the means, even if it’s easier to cut corners and to take small liberties along the way.

I will believe in facts. This one might be the hardest to live by because, after all, what is a fact today? How do we know, for sure, that something is true? I will research information and will make my own informed decision.

In CCDD, I’m going to listen to people who speak to me, and ignore those who shout to get my attention. If what you say is important and relevant, the value should speak for itself.

Finally, I’m going to celebrate my differences with other people. I’m not going to assume someone passionate about a belief different from my own is wrong. I am going to try to listen attentively, so that I can meet them somewhere closer to that barbell line. If they can change me, maybe I can change them?

Rachel Caston looks at lunar soil simulant JSC1A. Photo by Upasna Thapar

By Daniel Dunaief

It’s the ultimate road trip into the unknown. Space travel holds out the possibility of exploring strange new worlds, boldly going where no one has gone before (to borrow from a popular TV show).

While the excitement of such long-distance journeys inspires people, the National Aeronautics and Space Administration, among other agencies, is funding scientific efforts to ensure that anyone donning a spacesuit and jetting away from the blue planet is prepared for all the challenges to mind and body that await.

Rachel Caston, recently completed her doctorate, which included work at Stony Brook University in the laboratory of Bruce Demple for a project that explored the genetic damage lunar soil simulants have on human lung cells and on mouse brain cells.

Geologist Harrison Schmitt, who was the Apollo 17 lunar module pilot, shared symptoms he described as “lunar hay fever,” which included the types of annoyances people with allergies have to deal with during the spring: sore throat, sneezing and watery eyes.

Using simulated lunar soil because actual soil from the moon is too scarce, Caston found that several different types of soil killed the cell or damaged the cell’s genes, or DNA for both human lung and mouse brain cells.

While there has been considerable research that explores the inflammation response to soil, “there wasn’t any research previously done that I know of [that connected] lunar soil and DNA damage,” said Caston, who was the lead author on research published recently in the American Geophysical Union’s journal GeoHealth.

The moon’s soil becomes electrostatic due to radiation from the sun. Astronauts who walked on the moon, or did various explorations including digging into its surface, brought back some of that dust when it stuck to their space suits.

Caston sought to understand what causes damage to the DNA.

Going into the study, Demple, a professor of pharmacological sciences at SBU, suggested that they expected that the materials most capable of generating free radicals would also be the ones that exerted the greatest damage to the cells and their DNA. While free radicals may play a role, the action of dust simulants is more complex than that created by a single driving force.

Caston looked at the effect of five different types of simulants, which each represented a different aspect of lunar soil. One of the samples came from soil developed to test the ability of rovers to maneuver. Another one came from a lava flow in Colorado.

Demple said that the materials they used lacked space weather, which he suggested was an important feature of lunar soil. The surface of the moon is exposed constantly to solar wind, ultraviolet light and micrometeorites. The researchers mimicked the effect of micrometeorites by crushing the samples to smaller particle sizes, which increased their toxicity.

Farm to table: Caston eats ice cream and pets the cow that provided the milk for her frozen dessert at Cook’s Farm Dairy in Ortonville, Michigan. Photo by Carolyn Walls

In future experiments, the researchers plan to work with colleagues at the Department of Geosciences at SBU, including co-author Joel Hurowitz and other researchers at Brookhaven National Laboratory to mimic solar wind by exposing dust samples to high-energy atoms, which are the main component of solar wind. The scientists expect the treatment would cause the simulants to become more reactive, which they hope to test through experiments.

Caston credits Hurowitz , an assistant professor in the Department of Geosciences, with providing specific samples.

The samples are commonly used simulants for lunar rocks that mimic the chemical and mineral properties of the lunar highlands and the dark mare, Hurowitz explained.

“This has been a really fruitful collaboration between geology and medical science, and we’ll continue working together,” Hurowitz wrote in an email. They plan to look at similar simulants from asteroids and Mars in the future.

NASA has considered engineering solutions to minimize or eliminate astronaut’s exposure to dust. It might be difficult to eliminate all exposure for workers and explorers living some day on the moon for an extended period of time.

“The adherence of the dust to the space suits was a real problem, I think,” suggested Demple, adding that the next steps in this research will involve checking the role of the inflammatory response in the cytotoxicity, testing the effects of space weathering on toxicity and applying to NASA for actual samples of lunar regolith brought back by Apollo astronauts.

It took about two years of preliminary work to develop the methods to get consistency in their results, Demple said, and then another year of conducting research.

In addition to her work on lunar soil, Caston has studied DNA repair pathways in mitochondria. She used her expertise in that area for the DNA damage results they recently reported.

Caston, who is working as a postdoctoral researcher in Demple’s lab, is looking for a longer-term research opportunity either on Long Island or in Michigan, the two places where she’s lived for much of her life.

Caston lives in Smithtown with her husband Robert Caston, a software developer for Northrop Grumman. She earned her bachelor’s degree as well as her doctorate from Stony Brook University.

Her interest in science in general and genetics in particular took root at an early age, when she went with her father Kenneth Salatka, who worked at Parke Davis, a company Pfizer eventually bought. 

On April 23, 1997, she convinced her friend and her identical twin sister to attend a “fun with genetics” event.

Two of the people at her father’s company were using centrifuges to isolate DNA out of blood. “That was the coolest thing I ever saw,” she said. “I wanted to be a geneticist from that point on.” 

Her sister Madeline, who now sells insurance for Allstate, and her friend weren’t similarly impressed.

As for the work she did on lunar soil, Caston said she enjoys discussing the work with other people. “I like that I’m doing a project for NASA,” she said. “I’ve learned quite a bit about space travel.”

From the time we’re teenagers, we’re taught to control our emotions. As we get older, people tell us not to make emotional decisions.

We see our emotions, particularly the ones in the moment, as being at odds with the rational decision-making side of our thought processes.

We roll our eyes and shake our heads when a teenager makes decisions or declarations that seem driven more by the hormones surging through their growing bodies than by the intellect we hope they’ve developed.

And yet, every so often, we and our teenagers take those raw emotions out for a few hours or even days.

This past weekend, my wife and I did our periodic Texas two-step, where she brought our son to his baseball game in one state and I drove hundreds of miles to our daughter’s volleyball tournament in another.

The journey involves considerable effort, finding food that doesn’t upset allergies or sensitive stomachs at a time when indigestion or a poorly timed pit stop could derail the day.

The games themselves are filled with a wide range of emotions, as a player’s confidence and ability can rise and fall quickly from one point to the next, with slumping shoulders quickly replaced by ecstatic high fives.

In the stands and outside the lines, the emotional echoes continue to reverberate.

One girl sat next to her father, sobbing uncontrollably with her ankle high on the chair in front of her. Her father put his arm around her shoulders and spoke quiet, encouraging words into her ear. Her coach came over, in front of a stand filled with strangers, and said the girl would be able to play the next day as soon as the swelling in her ankle went down — the coach didn’t want to risk further injury. The girl nodded that she heard her coach, but couldn’t stop the torrent of tears.

Not far from her, a mother seethed as her daughter missed a shot. The mother was angry, defensive and, eventually, apologetic to the parents of the other players for her daughter’s performance. Other parents assured her that it was fine and that everyone could see her daughter was trying her best.

Another parent hooted and hollered, clapping long after the point ended, as her daughter rose above her diminutive frame to hit the ball around a group of much taller girls.

Many of the emotional moments included unbridled joy, as a group of girls continued to embrace each other after winning a tough match, replaying point after point and laughing about the time the ball hit them in the head or they collided with a teammate on the floor.

What will they remember next week, next month or in 20 years? Will it be satisfying when they find a picture of a younger version of themselves, beaming from ear to ear with girls they may not have seen for many years?

Even if they do think about one particular point or a strategic decision that paid off in a game against talented competition, they will also remember where and how they expressed those raw, dramatic emotions.

While feelings can get in the way of whatever grand plan we’re executing in our head, holding us back from
taking a risk or preventing us from showing how much we care, they can and do enhance the way we experience our lives. Despite all the work driving behind slow-moving vehicles which take wide right turns and encourage you to call a number to let someone know how they’re driving, the effort — even when the event doesn’t turn out as well as we might hope — is well worth the opportunity to drop the mask and indulge those emotions.

From left, Libo Wu, Zhangjie Chen (both are doctoral students on the ARPA-E project), Ya Wang, Xing Zhang (graduated), Muzhaozi Yuan and Jingfan Chen (both are doctoral students on the NSF project). Photo courtesy of Stony Brook University

By Daniel Dunaief

Picture a chalkboard filled with information. It could include everything from the basics — our names and phone numbers, to memories of a hike along the Appalachian Trail, to what we thought the first time we saw our spouse.

Diseases like Alzheimer’s act like erasers, slowly moving around the chalkboard, sometimes leaving traces of the original memories, while other times removing them almost completely. What if the images, lines and words from the chalk could somehow be restored?

Ya Wang with former student Wei Deng at Stony Brook’s Advanced Energy Research and Technology Center. Photo courtesy of SBU

Ya Wang, a mechanical engineering assistant professor at Stony Brook University, is working on a process that can regenerate neurons, which could help with a range of degenerative diseases. She is hoping to develop therapies that might restore neurons by using incredibly small magnetic nanoparticles.

Wang recently received the National Science Foundation Career Award, which is a prestigious prize given to faculty in the early stages of their careers. The award lasts for five years and includes a $500,000 grant.

Wang would like to understand the way small particles can stimulate the brain to rebuild neurons. The award is based on “years of effort,” she said. “I’m happy but not surprised” with the investment in work she believes can help people with Alzheimer’s and Parkinson’s diseases.

“All neuron degeneration diseases will benefit from this study,” Wang said. “We have a large population in New York alone with patients with neuron degeneration diseases.” She hopes the grant will help trigger advancements in medicine and tissue engineering.

Wang’s “work on modeling the dynamic behavior of magnetic nanoparticles within the brain microenvironment would lay the foundation for quantifying the neuron regeneration process,” Jeff Ge, the chairman and professor of mechanical engineering, said in a statement.

Wang said she understands the way neurodegenerative diseases affect people. She has watched her father, who lives in China, manage through Parkinson’s disease for 15 years.

Ge suggested that this approach has real therapeutic potential. “This opens up the exciting new possibility for the development of a new microchip for brain research,” he said.

At this point, Wang has been able to demonstrate the feasibility of neuron regeneration with individual nerve cells. The next step after that would be to work on animal models and, eventually, in a human clinical trial.

That last step is a “long way” off, Wang suggested, as she and others will need to make significant advancements to take this potential therapeutic breakthrough from the cell stage to the clinic. 

She is working with a form of coated iron oxide that is small enough to pass through the incredibly fine protective area of the blood/brain barrier. Without a coating, the iron oxide can be toxic, but with that protective surface, it is “more biofriendly,” she said.

The size of the particles are about 20 nanometers. By contrast, a human hair is 80,000 nanometers thick. These particles use mechanical forces that act on neurons to promote the growth or elongation of axons.

Ya Wang. Photo from SBU

As a part of the NSF award, Wang will have the opportunity to apply some of the funds toward education. She has enjoyed being a mentor to high school students, some of whom have been Siemens Foundation semifinalists. Indeed, her former students have gone on to attend college at Stanford, Harvard and Cal Tech. “I was very happy advising them,” she said. “High school kids are extremely interested in the topic.”

A few months before she scored her NSF award, Wang also won an Advanced Research Projects Agency–Energy award for $1 million from the Department of Energy. In this area, Wang also plans to build on earlier work, developing a smart heating and cooling system that enables a system to direct climate control efforts directly at the occupant or occupants in the room.

Extending on that work, Wang, who will collaborate in this effort with Jon Longtin in the Department of Mechanical Engineering at SBU and Tom Butcher and Rebecca Trojanowski at Brookhaven National Laboratory, is addressing the problem in which the system no longer registers the presence of a person in the room.

Wang has “developed an innovation modification to a simple, inexpensive time-honored position sensor, but that suffers from requiring that something be moving in order to detect motion,” Longtin explained in an email. The sensors can’t detect a person that is not moving. The challenge, Longtin continued, is in fooling the sensor into thinking something is there in motion to keep it active.

Wang described a situation in which a hotel had connected an occupant-detecting system to its HVAC system. When a person fell asleep in the room, however, the air conditioning turned off automatically. On a hot summer night, the person was frustrated. She put colored paper and a fan in front of the sensor, which kept the cool air from turning off.

Instead of using a fan and colored paper, the new system Wang is developing cuts the flow of heat to the sensor, which enhances its ability to recognize stationary or moving people.

Wang and her colleagues will use low-power liquid crystal technology with no moving parts. “The sensor detects you because you are a human with heat,” she said. “Even though you are not moving, the amount of heat is changing.”

The sensor will be different in various locations. People in Houston will have different temperature conditions than those in Wisconsin. Using a machine-learning algorithm, Wang said she can pre-train the system to respond to different people and different conditions.

She has developed a smart phone app so that the house can react to the different temperature preferences of a husband and wife. People can also choose night or day modes.

Wang also plans to work on a system that is akin to the way cars have different temperature zones, allowing one side of the car to be hotter than the other. She intends to develop a similar design for each room.

Astronaut Scott Kelly and author Tom Wolfe. Photo courtesy of Amiko Kauderer

By Daniel Dunaief

How often do you get to talk to someone whose legend loomed large over your childhood?

Last year, I had the privilege of interviewing author Tom Wolfe, who died last week at the age of 88. Wolfe wrote “The Right Stuff,” “The Bonfire of the Vanities,” and “The Electric Kool-Aid Acid Test,” among others. I spoke with Wolfe about astronaut Scott Kelly, who was so inspired by “The Right Stuff” that he directed a life he considered somewhat aimless toward becoming a fighter pilot and, eventually, an astronaut.

My conversation was rewarding and memorable, so I thought I’d share my interview with the legendary author.

DD: Kelly credits you with putting him on a path that led him to spend almost a year aboard the International Space Station. Is there a satisfaction that comes from that?

TW: Nothing else I’ve written has had such a beautiful result. He told me he’d been floundering around trying to figure out what to do with his life. He hadn’t been doing well in school. Then he just got the idea of going into space and became an astronaut.

DD: Did you know he took “The Right Stuff” with him?

TW: He sent me from the space station a picture of the cover on his iPad. That was one of the greatest messages I ever got.

DD: Do you think Kelly’s mission increased the excitement about space?

TW: There’s been a general lack of a sense of heroism in much of the post-World War II era and there were people who responded to the space program in general in that fashion.

DD: How does the excitement now compare to the early days of the space program?

TW: John Glenn’s return created a lot of excitement. At that time, we seemed to be at war in space with the Russians. That was what kept the space program going. There was always this threat. It’s very hard to hit the Earth from space. You’ve got three speeds: the speed of what you fired the rocket with, then you’ve got the speed at the end of that opening shot and you’ve got the speed of hitting the Earth, which is moving.

DD: How do you think people will react to Kelly’s mission?

TW: It remains to be seen whether it inspires young people the way the Mercury program did.

DD: What drove the space program until that point?

TW: Wernher van Braun [a German engineer who played a seminal role in advancing American rocket science] spoke in his last year. The point of the space program was not to beat the Russians. It was to prepare for the day when the sun burns out and we have to leave Earth and go somewhere else. It’s hard to imagine everybody shipping off to another heavenly body.

DD: Getting back to Kelly, how difficult do you think Kelly’s mission was?

TW: Scott Kelly’s adventures were a test of the human body and the psyche. Being that removed from anybody you could talk to and see must be a terrible stress. That’s what he and others in the space station are chosen for.

DD: Do people like Kelly still need “the right stuff” to be astronauts?

TW: It’s the same except anyone coming into the program is more confident that these things can be done. For Mercury astronauts, these things were totally new. The odds against you, the odds of death, were very high.

DD: What advice did you give to Kelly when he started writing his book?

TW: Begin at the beginning. So many of the astronauts and other people who have memorable experiences will start with the adventure to get you interested. Then, the second chapter, suddenly you’re saying, “Harold Bumberry was born in 1973,” and it makes you take a deep breath [and say], ‘OK, here it comes.” Whereas starting at the beginning always works.

DD: What do you think of the movies made about your books?

TW: I think they’re terrible. Three of my books were made into movies and I disliked them all. The reason being they didn’t do it like I did. You can’t do a lot of things in a movie that you can in print. You’re better at presenting themes, better at dialogue. You can hear it, you can’t get inside a mind of a character the way you can in print. Movies don’t have time.

DD: What impact did Scott Kelly’s being inspired by your book have on you?

TW: It’s the best compliment I’ve ever gotten.

From left, Jon Longtin, Sotirios Mamalis and Benjamin Lawler. Photo courtesy of Stony Brook University

By Daniel Dunaief

It’s not exactly Coke and Pepsi designing a better soda. It’s not Nike and Reebok creating a more efficient sneaker. And, it’s not McDonald’s and Burger King uniting the crown and the golden arches. At Stony Brook University, it is, however, a combination of energy systems that haven’t historically worked together.

“Fuel cells and engines have been seen as competing technologies,” said Sotirios Mamalis, an assistant professor of mechanical engineering at SBU. “The truth of the matter is that these two technologies are very complementary because of their operating principals.”

Indeed, Mamalis is the principal investigator on a multi-year project to create a hybrid fuel cell-engine system that recently won a $2.3 million award from the Department of Energy’s Advanced Research Projects Agency-Energy.

Working with Benjamin Lawler and Jon Longtin at Stony Brook and Tom Butcher, leader of the Energy Conversion Group at Brookhaven National Laboratory, Mamalis plans to build a system that uses solid oxide fuel cells partnered with a split-cylinder, internal combustion engine. The engine system will use the tail gas from the fuel cell to provide additional power, turning the inefficiency of the fuel cell into a source of additional energy.

“These ARPA-E awards are extremely competitive,” said Longtin, adding “If you land one of these, especially a decent-sized one like this, it can move the needle in a lot of ways in a department and at the university level.” The group expects that this design could create a system that generates 70 percent fuel to electricity efficiency. That is well above the 34 percent nationwide average.

Reaching that level of energy efficiency would be a milestone, said Longtin, a Professor in the Department of Mechanical Engineering at Stony Brook. The core of the idea, he suggested, is to take the exhaust from fuel cells, which has residual energy, and run that through a highly tuned, efficient internal combustion engine to extract more power. The second part of the innovation is to repurpose the cylinders in the engine to become air compressors. The fuel cell efficiency increases with higher pressure.

A fuel cell is a “highly efficient device at taking fuel and reacting it to produce DC electricity,” Lawler said. One of its down sides, aside from cost, is that it can’t respond to immediate needs. An engine is the opposite and is generally good at handling what Lawler described as transient needs, in which the demand for energy spikes.

The idea itself is ambitious, the scientists suggested. “These projects are high-risk, high-reward,” said Mamalis. The risks come from the cost and the technical side of things.

The goal is to create a system that has a disruptive role in the power generation market. To succeed, Mamalis said, they need to bring something to market quickly. Their work involves engineering, analysis and design prior to building a system. The project could involve more tasks to reduce technical risk but “we’re skipping a couple of steps so we can demonstrate a prototype system sooner than usual,” Mamalis said.

They will start by modeling and simulating conditions, using mathematical tools they have developed over the years. Once they have modeling results, they will use those to guide specific experimental testing. They will take data from the engine simulation and will subject the engine to conditions to test it in a lab. 

“The biggest challenges will be in changing the operation of each of these two technologies to be perhaps less than optimal for each by itself and then to achieve an integrated system that ends up far better,” Butcher explained in an email. “The target fuel-to-electricity efficiency will break barriers and be far greater than is achieved by conventional power plants today.”

Butcher, whose role will be to provide support on system integration concepts and testing, suggested that this could be a part of distribution power generation, where power is produced locally in addition to central power plants. People have looked into hybrid fuel cell-gas turbine systems in the past and a few have been installed and operational, Mamalis explained. The problem is with the cost and reliability.

Mamalis and his colleagues decided they can tap into the inefficiency of fuel cells, which leaves energy behind that a conventional engine can use. The reason this works is that the fuel cell is just inefficient enough, at about 55 percent, to provide the raw materials that a conventional engine could use. A fuel cell that was more efficient, at 75 or 80 percent, would produce less unused fuel in its exhaust, limiting the ability of the system to generate more energy.

The team needs to hit a number of milestones along the way, which are associated with fuel cell development and engine and hybrid system development.

The first phase of the work, for which the team received $2.3 million, will take two years. After the group completes Phase I, it will submit an application to ARPA-E for phase II, which would be for an additional $5 million.

Lawler suggested that fundamental research made this kind of applied project with such commercial potential possible. “The people who did fundamental work and [were involved in] the incremental steps led us to this point,” he said. “Incremental work leads to ground-breaking ideas. You can’t predict when groundbreaking work will happen.”

The other researchers involved in this project credit Mamalis for taking the lead on an effort that requires considerable reporting and updating with the funding agency.

Every three months, Mamalis has to submit a detailed report. He also participates in person and on conference calls to provide an update. He expects to spend about 90 percent of his time on a project for which the team has high hopes.

“It’s an exciting time to be a part of this,” Longtin said. “These folks are pivotal and we have developed into a very capable team, and we have been setting our sights on larger, more significant opportunities.”

What do the signs tell us?

In Hawaii, numerous small earthquakes caused parts of Big Island to shake. Geologists, who monitor the islands regularly, warned of a pending volcanic eruption. They were right, clearing people away from lava flows.

How did they know?

It’s a combination of history and science. Researchers in the area point to specific signs that are reflections of patterns that have developed in past years. The small earthquakes, like the feel of the ground trembling as a herd of elephants is approaching in the Serengeti, suggest the movement of magma underneath the ground.

Higher volumes of lava flows could come later on, as in 1955 and 1960, say USGS scientists in the archipelago.

The science involves regular monitoring of events, looking for evidence of what’s going on below the surface. “Hopefully we’ll get smart enough that we can see [tremors] coming or at least be able to use that as a proxy for having people on the ground watching these things,” Tina Neal, scientist-in-charge at USGS Hawaiian Volcano Observatory, explained to KHON2 News in Honolulu.

People look for signs in everything they do, hoping to learn from history and to use whatever evidence is
available to make predictions and react accordingly.

Your doctor does it during your annual physical, monitoring your blood chemistry, checking your heart and lungs, and asking basic questions about your lifestyle.

Scientists around Long Island are involved in a broad range of studies. Geneticists, for example, try to see what the sequence of base pairs might mean for you. Their information, like the data the geologists gather in
Hawaii, doesn’t indicate exactly what will happen and when, but it can suggest developments that might affect you.

Cancer researchers at Cold Spring Harbor Laboratory and Stony Brook University are using tools like the gene editing system called CRISPR to see how changing the genetic code affects the course of development or the pathway for a disease. Gene editing can help localize the regions responsible for the equivalent of destructive events in our own bodies, showing where they are and what sequences cause progression.

Scientists, often working six or seven days a week, push the frontiers of our ability to make sense of
whatever signs they collect. Once they gather that information, they can use it to help create more accurate diagnoses and to develop therapies that have individualized benefits.

Indeed, not all breast cancers are the same, which means that not all treatments will have the same effect. Some cancers will respond to one type of therapy, while others will barely react to the same treatment.

Fundamental, or basic, research is critical to the understanding of translational challenges like treating
Alzheimer’s patients or curing potentially deadly fungal infections.

Indeed, most scientists who “discover” a treatment will recognize the seminal studies that helped them finish a job started years — and in some cases decades — before they developed cures. Treatments often start long before the clinical stages, when scientists want to know how or why something happens. The pursuit of knowledge for its own sake can lead to unexpected and important benefits.

Outside the realm of medicine, researchers on Long Island are working on areas like understanding the climate and weather, and the effect on energy production.

Numerous scientists at SBU and Brookhaven National Laboratory study the climate, hoping to understand how one of the most problematic parts of predicting the weather — clouds — affects what could happen tomorrow or in the next decade.

The research all these scientists do helps us live longer and better lives, offering us early warnings of
developing possibilities.

Scientists not only interpret what the signs tell us, but can also help us figure out the right signs to study.

Gholson Lyon. Photo courtesy of Cold Spring Harbor Laboratory

By Daniel Dunaief

With the cost of determining the order of base pairs in the human genome decreasing, scientists are increasingly looking for ways to understand how mutations lead to specific characteristics. Gholson Lyon, an assistant professor at Cold Spring Harbor Laboratory, recently made such a discovery in a gene called NAA15.

People with mutations in this gene had intellectual disability, developmental delay, autism spectrum disorder, abnormal facial features and, in some cases, congenital cardiac anomalies.

In a recent interview, Lyon explained that he is trying to understand how certain mutations influence the expression of specific traits of interest, such as intelligence, motor development and heart development. He’s reached out to researchers scattered around the world to find evidence of people who had similar symptoms, to see if they shared specific genetic mutations in NAA15 and found 37 people from 32 families with this condition.

“I really scoured the planet and asked a lot of people about this,” said Lyon, who recently published his research in The American Journal of Human Genetics. The benefit of this kind of work, he explained, is that it can help screen for specific conditions for families at birth, giving them an ability to get an earlier diagnosis and, potentially, earlier treatment. “Being able to identify children at birth and to know that they are at risk of developing these disorders would, in a perfect world” allow doctors to dedicate resources to help people with this condition, he said.

Lyon published a similar study on a condition he named Ogden syndrome seven years ago, in which five boys in a single family died before they reached the age of 3. A mutation in a similar gene, called NAA10, led to these symptoms, which is linked to the X chromosome and was only found in boys.

Lyon found the genes responsible on NAA15 by comparing people with these symptoms to the average genome. The large database, which comes from ExAC and gnomAD, made it possible to do a “statistical calculation,” he said. The next steps in the research is to look for protein changes in the pathway in which these genes are involved. The people he studied in this paper are all heterozygous, which means they have one gene that has a mutation and the other that does not.

With this condition, they have something called haploinsufficiency. In these circumstances, they need both copies of the fully functioning gene to produce the necessary proteins. These mutations likely decrease the function of the protein. Lyon would like to study each of these cases more carefully to understand how much the mutation contributes to the various conditions. He looked for evidence of homozygous mutations but didn’t find any. “We don’t know if they don’t exist” because the defective gene may cause spontaneous miscarriages or if they just didn’t find them yet, he said.

Lyon plans on reaching out to geneticist Fowzan Alkuraya, who was trained in the United States and is working at King Faisal Specialist Hospital and Research Centre clinic in Saudi Arabia. The geneticist has studied the genes responsible for a higher rate of genetic disorders linked to the more common practice of people having children with cousins in what are called consanguineous marriages. 

Alkuraya works on the Saudi Human Genome Program, which studies the inherited diseases that have a higher incidence in Saudi Arabia.

For Lyon, finding the people who carry this mutation was challenging, in part because it hasn’t run in the family for multiple generations. Instead, Lyon and his colleagues, including Holly Stessman of Creighton University in Omaha, Nebraska and Linyan Meng at Baylor College of Medicine in Houston, Texas, found 32 unrelated families. In some of these families, one or two siblings carried this mutation in a single mutation.

By defining a new genetic disease, the scientists could help families seeking a diagnosis, encourage the start of early intervention such as speech therapy and connect patients with the same diagnosis. This can provide a support network in which people with this condition and their families know they are not battling this genetic challenge alone, Meng, the assistant laboratory director at Baylor Genetics and assistant professor at Baylor College of Medicine, explained in an email.

Every patient with an NAA15 mutation won’t have the same symptoms. “We see a range of phenotypes in these patients, even though they carry the same diagnosis with defects in the same disease,” Meng added. “Early intervention could potentially make a difference for NAA15 patients.”

Lyon works as a psychiatrist in Queens providing medication management. During his undergraduate years at Dartmouth College, in Hanover, New Hampshire, Lyon said he was interested in neurology and psychology. As he went through his residency at NYU, Columbia and New York State Psychiatric Institute, he gravitated toward understanding the genetic basis of autism, which he said is easier than conditions like schizophrenia because autism is more apparent in the first few years of life.

Lyon recently started working part time at the Institute for Basic Research in Developmental Disabilities on Staten Island. While Lyon appreciates the opportunity to work there, he is concerned about a potential loss of funding. “These services are vital” on a clinical and research level, he said. He is concerned that Gov. Andrew Cuomo (D) is thinking about decreasing the budget for this work. Reducing financial support for this institution could cause New York to lose its premiere status in working with people with developmental disabilities, he said.

“It has this amazing history, with an enormous number of interesting discoveries in Down syndrome, Alzheimer’s disease and Fragile X,” he said. “I don’t think it gets enough credit.”

As for his work with NAA, Lyon plans to continue to search for other people whose symptoms are linked to these genes. “I am looking for additional patients with mutations in NAA10 or NAA15,” he said.

It’s only May and, despite the warm weather, it feels a bit like October around here, at least, if you talk to fans of the Yankees and Red Sox.

The two best teams in baseball, as of earlier this week, were preparing to go head-to-head in a three-game
series that seemed to have more on the line than a typical series between the heated rivals at this point
in spring.

The Red Sox had that incredibly hot start, winning 17 of their first 19 games, tearing up the league and anyone who dared to try to compete with them. The Yankees, meanwhile, started slowly, sputtering to a .500 record.

And then the Yankees seemed to have gotten as hot as the weather, scoring runs in the clutch, pitching with confidence and bringing in rookies like Gleyber Torres and Miguel Andujar, who play more like seasoned veterans.

On a recent evening, my wife and I made a quick stop to the grocery store. As we were walking out, a friend saw me in my Yankees sweatshirt. The friend asked if the team pulled out a win, even though they were losing 4-0 in the eighth inning.

As my wife waited patiently, I recounted nearly every at bat that led to another improbable Yankees comeback. A man who worked at the supermarket came over to listen, put up his hand to high-five me and said he had a feeling they might come back.

While the team measures the success of the season by the ability to win the World Series, the fans, particularly during a season with so much early promise, can bask in the excitement of individual games or series.

The first season, as the incredibly long 162 games from March through October is called, can include
numerous highlights that allow fans to appreciate the journey, as well as the destination.

Nothing is a given in a game or a season. We attend or watch any game knowing that the walk-off home run the rookie hit could just as easily have been an inning ending double play.

Ultimately, the most important part of the season is the recognition that it is a game. You can see that when the players mob each other at the plate or smile through their interviews with the sideline reporters after a tight contest.

Year after year, all these teams with all their fans hope the season ends with a victory parade. They want to be able to say, “I was there.”

Ultimately, in life, that’s what we’re hoping for. Moments to cheer for friends and family, to celebrate victories and to enjoy these contests.

Indeed, the winners often look back on the moments when nothing came easily, when their team, their family or their opportunity seemed to be so elusive. These are occasions when nothing that seems to go right turns into those where everything goes according to plan. They don’t happen because you’ve got the right fortune cookie, put on the right socks or asked for some deity to help your team beat another team full of equally worthy opponents, whose fans utter the same prayers.

They happen because of the hard work and dedication. They also often happen because people are taking great pride in doing their jobs and being a part of a team.

Right now, it feels like these two blood rivals are well-matched, facing off in a May series that can bring the energy of October. And, hey, if you’re looking to connect with someone, put on a Yankees or Red Sox sweatshirt and head to the supermarket.