Public Nights are contingent on clear weather. Please also note individual time shifts, below. Find updated schedules, potential closures, driving and parking directions, and more info at: astronomy.gatech.edu

Stargazers are invited to the Georgia Tech Observatory for public nights throughout fall and spring semesters.

On the grounds between the Howey and Mason Buildings, several telescopes are typically set up for viewing, and visitors are invited to bring their own telescope, as well.

Jim Sowell, principal academic professional and director of the Georgia Tech Observatory, is excited that public nights have returned after a break during the pandemic. “A clear evening with some celestial objects visible is as much a delight for me as it is for the visitors.”

The viewing targets for this fall include the Moon, Jupiter, and Saturn. Sowell, along with members of the Georgia Tech Astronomy Club, will help answer questions and showcase various celestial objects. “I describe my role these days as a tour guide,” said Sowell, “and I greatly enjoy hearing the squeals and gasps as people see craters on the moon, or the rings of Saturn, or moons orbiting Jupiter.”

Tentative Schedule, Fall and Spring 2022-23:

  • November 3 — 7 to 9 p.m. — Moon, Jupiter, Saturn
  • December 1 — 6 to 8 p.m. — Moon, Jupiter, Saturn
  • February 2 — 7 to 9 p.m. — Moon, Jupiter, Mars
  • March 2 — 7 to 9 p.m. — Moon, Mars, Orion Nebula
  • March 30 — 8 to 10 p.m. — Moon, Mars, Orion Nebula
  • April 27 — 9 to 11 p.m. — Moon, Mars, Double Star

Event Details

Ever stare at those last few pieces of breakfast cereal and watch them seemingly clump together or cling to the side of the bowl?

Scientists have dubbed it the “Cheerios effect,” the combination of forces causing those clumps. Researchers at Georgia Tech have discovered those same forces draw small numbers of ants together to begin to form water-repellent ant rafts — even though the ants seem to be uninterested in collaborating with their neighbors for survival.

Described in the journal Physical Review Fluids, their study explains for the first time the underlying forces at play in attracting ants to each other. Ants clump together into rafts to survive during flooding, and the team determined it takes exactly 10 ants to form a stable raft.

“I think the surprising thing here is that ants prioritize exploration, actively avoiding each other on the water surface. They instead rely on physical forces to bring them together — the Cheerios effect,” said Hu, professor in the George W. Woodruff School of Mechanical Engineering and the School of Biological Sciences. “Previously, we only studied the change in the shape of the raft once formed; we never asked how ants find each other on the water surface.”

Read the full story on the College of Engineering website.

Ever stare at those last few pieces of breakfast cereal and watch them seemingly clump together or cling to the side of the bowl?

Scientists have dubbed it the “Cheerios effect,” the combination of forces causing those clumps. Researchers at Georgia Tech have discovered those same forces draw small numbers of ants together to begin to form water-repellent ant rafts — even though the ants seem to be uninterested in collaborating with their neighbors for survival.

Described in the journal Physical Review Fluids, their study explains for the first time the underlying forces at play in attracting ants to each other. Ants clump together into rafts to survive during flooding, and the team determined it takes exactly 10 ants to form a stable raft.

“I think the surprising thing here is that ants prioritize exploration, actively avoiding each other on the water surface. They instead rely on physical forces to bring them together — the Cheerios effect,” said Hu, professor in the George W. Woodruff School of Mechanical Engineering and the School of Biological Sciences. “Previously, we only studied the change in the shape of the raft once formed; we never asked how ants find each other on the water surface.”

Read the full story on the College of Engineering website.

Joel Kostka will soon receive $3.2 million from the Department of Energy (DOE) to build upon research that has ranged from northern Minnesota peat bogs to coastal Georgia wetlands, all to learn how climate change impacts soils and plants that trap greenhouse gasses — and whether some of those plants could end up as eco-friendly biofuels.

Kostka, a professor and associate chair of research in the School of Biological Sciences with a joint appointment in the School of Earth and Atmospheric Sciences, will receive funding as part of a wider $178 million dollar DOE effort to advance sustainable technology breakthroughs that can improve public health, help address climate change, improve food and agricultural production, and create more resilient supply chains. The 37 new projects also include efforts to engineer plants and microbes into bioenergy and improve carbon storage. 

Kostka’s wetlands research will continue in the salt marshes off Georgia’s coast, where his team has already conducted studies on the microbial life that benefits Spartina cordgrass in those areas, helping to strengthen resilience of the plant to sea level rise and catastrophic storms.

The DOE’s funding initiative is split into four groups. Kostka’s studies will focus on the role of microbiomes — all the microorganisms living in a particular environment — in the biogeochemical cycling of carbon in terrestrial soils and wetlands by using genomics-based and systems biology. 

Other research areas involve renewable bioenergy and biomaterials production; quantum-enabled bioimaging and sensing for bioenergy, and research to characterize gene function in bioenergy crop plants.

“Our project seeks to understand the controls of soil organic matter degradation and the release of greenhouse gasses, both of which are largely mediated by microbes” Kostka said. “And then also, as we've been studying for many years now, how climate drivers — principally the warming of ecosystems and carbon dioxide enrichment in the atmosphere — limit greenhouse gas release to the atmosphere. How might changes in plant and microbial communities lead to climate feedbacks, thereby accelerating the release of greenhouse gasses from soil carbon stores?”

That question has driven much of Kostka’s research team in the past as they focused on how soil microbes break down biomasses like woody plants and peat mosses, at an Oak Ridge National Laboratory facility in northern Minnesota called Spruce and Peatland Responses Under Changing Environments (SPRUCE). Kostka’s team is using genomics to study all the genes that code for microbial enzymes that decompose biomass in soil and how plants, which are also changing with climate, impact microbiomes by providing carbon sources that fuel microbial activities. In particular, the work is focused on lignocellulose or lignin, which gives plants their rigidity or structure and arguably comprises the most abundant renewable carbon source on the planet.

“We're just at the point now where we finally have the tools to unlock the black box of soil microbiology and chemistry,” Kostka said. “Recent advances in sophisticated analytical chemistry methods used to quantify microbial metabolites along with improved metagenome sequencing approaches enable us to better uncover metabolic pathways.”

Kostka will serve as principal investigator of the research team for the grant. That team includes School of Biological Sciences researchers Caitlin Petro, research scientist, and Katherine Duchesneau, a third-year Ph.D. student; co-principal investigator Kostas Konstantinidis, Richard C. Tucker Professor in the School of Civil and Environmental Engineering; Rachel Wilson, research scientist, Florida State University; Malak Tfaily, associate professor, University of Arizona; and Chris Schadt, senior staff scientist, Oak Ridge National Laboratory. 

Unlocking the “enzyme latch” hypothesis

As part of his new research, Kostka will revisit what scientists call the “enzyme latch” hypothesis. This could help uncover the mechanisms by which soils and plants capture harmful greenhouse gasses, and what prompts their release into the atmosphere.

The idea behind this hypothesis is that when soils are wet, they lack oxygen, which suppresses a specific class of enzymes, oxidases, that catalyze the beginning steps in the microbial breakdown of organic compounds produced by plants in soil. When oxidases are suppressed, the breakdown products of lignin, phenolic compounds, accumulate and poison the rest of the microbial carbon cycle.  Thus a single class of enzymes may be responsible for keeping greenhouse gasses like carbon dioxide and methane captured within the soil.

“The climate linkage here is that it's thought that as the climate warms, we'll get more greenhouse gas production, because simply it'll be warmer, and microbial enzymes work faster at higher temperature. But then also, in wetlands in particular, the hypothesis is that as wetlands warm, they're going to dry out. And so when a wetland dries out, you're going to get more injection of oxygen-rich air into the soil, which would then accelerate the breakdown of organic matter.”

When that happens, it could also mean different plants having an impact on carbon storage and the breakdown of biomass. “As wetlands dry out, plant communities in northern peatlands where most of Earth’s soil carbon is stored, are expected to shift from a dominance of mosses, which do better when it's wet — to woody plants, shrubs, and trees that do better with less water, when it's drier. That would in turn potentially spark the release of more reactive carbon compounds from plant roots — mosses don’t have roots — which would likely accelerate organic matter decomposition and the production of more greenhouse gas in a feedback loop with climate.”

Kostka’s research may also help to develop new approaches for converting woody biomass into potential alternative energy sources. “To make our society more sustainable, we have to basically recycle everything, or reuse as much as we can. And that includes the biomass from plants that can be grown on more arid lands that are less suitable for food crops,” he said, referring to plant-based materials that can be used to produce biofuels and bioenergy. “And so the DOE is leading research efforts to understand the controls of biomass degradation in plants such as switchgrass and poplar.” 

Kostka and Konstantinidis will develop a database of genes that code for the breakdown of lignocellulose and lignin, compounds that largely make up plant biomass and for which metabolic pathways of degradation have been elusive. Kostka and his colleagues will also have access to the extensive resources of the DOE Genomic Sciences program, including a collaboration with the agency’s Joint Genome Institute.

“We hope that information generated from our project can be used to improve methods for breaking down woody biomass so that it can be used in a sustainable way to produce biofuels,” Kostka said. 

Public abstract of Department of Energy grant DE-SC0023297

About Georgia Tech

The Georgia Institute of Technology, or Georgia Tech, is a top 10 public research university developing leaders who advance technology and improve the human condition. The Institute offers business, computing, design, engineering, liberal arts, and sciences degrees. Its nearly 44,000 students representing 50 states and 149 countries, study at the main campus in Atlanta, at campuses in France and China, and through distance and online learning. As a leading technological university, Georgia Tech is an engine of economic development for Georgia, the Southeast, and the nation, conducting more than $1 billion in research annually for government, industry, and society.

Note: This story, written by Cory Hopkins, first appeared on the website of the Office Of Undergraduate Education, and has been tailored for our audiences.

Ten Georgia Tech students, including four from the College of Sciences, were selected for the 2022 Millennium Fellowship, a joint leadership program of the Millennium Campus Network (MCN) and the United Nations Academic Impact (UNAI).

The fellowship is an ambitious program to help make the United Nations Sustainable Development Goals (SDG) and UNAI principles a reality. The Class of 2022 Millennium Fellows have been selected among a record-breaking 31,397 applicants from over 2,417 campuses across 140 nations.

Millennium Fellows are university undergraduates selected based on their leadership on sustainable development-related projects that advance the SDGs in their communities. As Millennium Fellows, they will participate in a semester-long leadership development program to improve their student organizing, partnership building, and community impact skills.

"Students' ongoing pursuit of the Millennium Fellowships reflects Georgia Tech's larger commitment to pursuing solutions on a global scale. The fellowship supports real-world initiatives in sustainable development, providing leadership training and a community of like-minded recipients," said Shannon Dobranski, director of Pre-Graduate and Pre-Professional Advising in the Georgia Tech Career Center. "Each year, the Millennium Fellowship helps Georgia Tech students invested in sustainability to identify and connect with each other. It also helps them to refine and articulate their own goals related to sustainability and the impact they hope to have on their community now and in the future."

Three School of Biological Sciences students are included in the latest cohort of Millennium Fellows: Shania Khatri, Michelle Seeler, and Mandy Zhu. Biochemistry major Nathan Bowman, also invited to the Fellows program, plans to pursue his project at a later date.

The College of Sciences students join six more Georgia Tech Millennium Fellows:

  • Pratul Amenini, Biomedical Engineering
  • Eyas Ayesh, Mechanical Engineering
  • Haaris Jilani, Biomedical Engineering
  • Velin Kojouharov, Mechanical Engineering
  • Athena Verghis, Environmental Engineering
  • Alix Wagner, Biomedical Engineering

The Millennium Fellowship Class of 2022 includes over 3,000 Millennium Fellows on 200 campuses in 37 nations that are participating in the program this year. The Class of 2022 is on track to engage in projects collectively advancing all 17 Sustainable Development Goals and all 10 UNAI Principles.

Georgia Tech's fellowship recipients will take part in a semester-long development program divided into three parts:

1. CONVENE

  • Georgia Tech Millennium Fellows will convene on-campus to learn from and challenge each other. Millennium Fellows convene at least 8 times during the program.

2. CHALLENGE

  • Students will develop a plan of action for their sessions together, meet to exchange best practices, and think bigger.

3. CELEBRATE

  • When the cohort meets their goals and completes the Fellowship graduation requirements, they will earn a certificate of recognition from United Nations Academic Impact and Millennium Campus Network.

Learn more about the Millennium Fellowship here.

How to Apply for This Fellowship and More

Promoting and supporting the Millennium Fellowship is a team effort each year. Pre-Graduate and Pre-Professional Advising works with fellowship administrators to host information sessions and Serve-Learn-Sustain reaches out to the SLS community to spread the word. Students interested in the Millennium Fellowship, or any nationally or internationally competitive award, should follow up by scheduling an appointment with Prestigious Fellowships Advisor, Karen Mura, on AdvisorLink.

Pre-Graduate and Pre-Professional Advising is part of the Office of Undergraduate Education (OUE). Learn more about OUE by following @gtoue on InstagramTwitter, and Facebook.

As a Georgia Tech graduate, Andrew Kokabi, D.M.D. knows the Institute’s motto, Progress and Service, well — and also incorporates that ethos in life and work at his Atlanta dental practice, Brookhaven Family Dentistry.

Kokabi, who graduated with a B.S. in Biology in 2000, credits his time on campus and in the College of Sciences for preparing him to advance in his dentistry career. “The habits I developed during my undergraduate studies enabled me to thrive in dental school,” he said. “I specifically remember thinking biochemistry in dental school was a breeze compared to biochem classes at Tech.” Georgia Tech’s pre-health classes can better prepare medical students for advanced studies at a specialized medical school, he added.

Kokabi and his business partner, Joon Koh, D.M.D., a fellow Georgia Tech graduate with a B.S. in Chemical and Biomolecular Engineering, also enjoy working together on campaigns to help local schools and charities.

The College of Sciences recently talked with Kokabi about his time at Georgia Tech, the ethos of the Institute, generosity and business values, and advice for pre-health students and those interested in a career in health and medical fields.

What was your experience at Tech like? How did it prepare you for your career as a dentist?

My academic experience was top-notch. It was hard and demanding, but looking back at it, that is exactly what my 18-year-old self needed at the time. It was a great introduction into what the real world expects of professionals. Socially, it was wonderful as well. I met people from all around the country. I became friends with people of various backgrounds, and everyone got along. It was right after the Olympics so it was an exciting time.

My time at Georgia Tech also gave me great time management skills. The academic workload of dental school was a breeze compared to Georgia Tech. Meeting people from around the world enabled me to carry on a conversation with just about anyone — this is an important trait that still serves me well today. I meet lots of patients at my dental practice from all over, and I can usually carry on a conversation about their place of origin relatively easily. This helps them feel more comfortable with me, and strengthens the doctor-patient relationship. 

What made you want to be a dentist?  

My parents are from Iran. As I'm sure most Persian and Asian children will tell you, from birth your parents are pressuring you to be a doctor. I did not want to be around sick people all day and did not want to be on call weekends. So dentistry offers the perfect balance of being a doctor, but having a more normal schedule and not having to treat serious life-threatening illnesses. I am very happy with my decision and cannot think of myself doing anything else. 

Georgia Tech's motto, “Progress and Service” — what did that mean to you as a student, and what does it mean as an alumnus?

It meant and still means a great deal. I think people have to start at a young age thinking about how they can serve others. That is where true fulfillment comes from.  One reason we have so much depression in our country is our self-absorbed "me, me, me" culture. There is a lot of happiness and joy that comes from helping and serving others. 

It's also great for business as well. People want to buy from companies that are doing more than just selling goods and services. They want companies that care about making a difference in the world. Of course, we do quality dentistry, and care about our patients' oral health. But we take it a step further and have a community mission. We strive to be active members of our community and help our local schools and charities.  Our Brookhaven community has given us so much, the least we can do is give back.

Tell me about the "Brighten Your Smile, Better the World" campaign and how effective it has been so far.  

The "Brighten Your Smile, Better the World'' campaign is one of our two main initiatives.  Each month we partner with a different school or charity.  Any patient of ours that makes a donation to that month's chosen partner gets a set of custom teeth whitening trays for free. It's a win-win for all parties involved. 

In its first year, we have been able to raise more than $15,000 for numerous schools and organizations. Featured partners have included Ashford Park Elementary School, Huntley Hills Elementary School,  Montgomery Elementary School, Chamblee Middle School, the Chattahoochee Riverkeeper, Giving Grace, and The Kyle Pease Foundation. 

You said you talk to many pre-dental students. What advice do you give them about whether or not they should get a degree at Georgia Tech before heading off to dental school?

A science degree from Georgia Tech is extremely valuable. It sets you apart from other candidates applying for the same spot in a specialty program. The healthcare school knows that if someone was able to get a Tech degree, they will be able to handle the academic workload of dental or medical school. 

Also, know what you are getting into. Being a healthcare professional means a lifelong pursuit of learning. It is not just a job, but a career. It takes a lot of effort and time even after you have left work for the day (being on call, continuing education, representing your profession in the community, etc).

You should also know that it's worth it. There are not too many jobs that allow you to make as big of an impact in people's lives as being a healthcare professional. I feel truly blessed and honored that I am in my field of work. 

Joel Kostka will soon receive $3.2 million from the Department of Energy (DOE) to build upon research that has ranged from northern Minnesota peat bogs to coastal Georgia wetlands, all to learn how climate change impacts soils and plants that trap greenhouse gasses — and whether some of those plants could end up as eco-friendly biofuels.

Kostka, a professor and associate chair of research in the School of Biological Sciences with a joint appointment in the School of Earth and Atmospheric Sciences, will receive funding as part of a wider $178 million dollar DOE effort to advance sustainable technology breakthroughs that can improve public health, help address climate change, improve food and agricultural production, and create more resilient supply chains. The 37 new projects also include efforts to engineer plants and microbes into bioenergy and improve carbon storage. 

Kostka’s wetlands research will continue in the salt marshes off Georgia’s coast, where his team has already conducted studies on the microbial life that benefits Spartina cordgrass in those areas, helping to strengthen resilience of the plant to sea level rise and catastrophic storms.

The DOE’s funding initiative is split into four groups. Kostka’s studies will focus on the role of microbiomes — all the microorganisms living in a particular environment — in the biogeochemical cycling of carbon in terrestrial soils and wetlands by using genomics-based and systems biology. 

Other research areas involve renewable bioenergy and biomaterials production; quantum-enabled bioimaging and sensing for bioenergy, and research to characterize gene function in bioenergy crop plants.

“Our project seeks to understand the controls of soil organic matter degradation and the release of greenhouse gasses, both of which are largely mediated by microbes” Kostka said. “And then also, as we've been studying for many years now, how climate drivers — principally the warming of ecosystems and carbon dioxide enrichment in the atmosphere — limit greenhouse gas release to the atmosphere. How might changes in plant and microbial communities lead to climate feedbacks, thereby accelerating the release of greenhouse gasses from soil carbon stores?”

That question has driven much of Kostka’s research team in the past as they focused on how soil microbes break down biomasses like woody plants and peat mosses, at an Oak Ridge National Laboratory facility in northern Minnesota called Spruce and Peatland Responses Under Changing Environments (SPRUCE). Kostka’s team is using genomics to study all the genes that code for microbial enzymes that decompose biomass in soil and how plants, which are also changing with climate, impact microbiomes by providing carbon sources that fuel microbial activities. In particular, the work is focused on lignocellulose or lignin, which gives plants their rigidity or structure and arguably comprises the most abundant renewable carbon source on the planet.

“We're just at the point now where we finally have the tools to unlock the black box of soil microbiology and chemistry,” Kostka said. “Recent advances in sophisticated analytical chemistry methods used to quantify microbial metabolites along with improved metagenome sequencing approaches enable us to better uncover metabolic pathways.”

Kostka will serve as principal investigator of the research team for the grant. That team includes School of Biological Sciences researchers Caitlin Petro, research scientist, and Katherine Duchesneau, a third-year Ph.D. student; co-principal investigator Kostas Konstantinidis, Richard C. Tucker Professor in the School of Civil and Environmental Engineering; Rachel Wilson, research scientist, Florida State University; Malak Tfaily, associate professor, University of Arizona; and Chris Schadt, senior staff scientist, Oak Ridge National Laboratory. 

Unlocking the “enzyme latch” hypothesis

As part of his new research, Kostka will revisit what scientists call the “enzyme latch” hypothesis. This could help uncover the mechanisms by which soils and plants capture harmful greenhouse gasses, and what prompts their release into the atmosphere.

The idea behind this hypothesis is that when soils are wet, they lack oxygen, which suppresses a specific class of enzymes, oxidases, that catalyze the beginning steps in the microbial breakdown of organic compounds produced by plants in soil. When oxidases are suppressed, the breakdown products of lignin, phenolic compounds, accumulate and poison the rest of the microbial carbon cycle.  Thus a single class of enzymes may be responsible for keeping greenhouse gasses like carbon dioxide and methane captured within the soil.

“The climate linkage here is that it's thought that as the climate warms, we'll get more greenhouse gas production, because simply it'll be warmer, and microbial enzymes work faster at higher temperature. But then also, in wetlands in particular, the hypothesis is that as wetlands warm, they're going to dry out. And so when a wetland dries out, you're going to get more injection of oxygen-rich air into the soil, which would then accelerate the breakdown of organic matter.”

When that happens, it could also mean different plants having an impact on carbon storage and the breakdown of biomass. “As wetlands dry out, plant communities in northern peatlands where most of Earth’s soil carbon is stored, are expected to shift from a dominance of mosses, which do better when it's wet — to woody plants, shrubs, and trees that do better with less water, when it's drier. That would in turn potentially spark the release of more reactive carbon compounds from plant roots — mosses don’t have roots — which would likely accelerate organic matter decomposition and the production of more greenhouse gas in a feedback loop with climate.”

Kostka’s research may also help to develop new approaches for converting woody biomass into potential alternative energy sources. “To make our society more sustainable, we have to basically recycle everything, or reuse as much as we can. And that includes the biomass from plants that can be grown on more arid lands that are less suitable for food crops,” he said, referring to plant-based materials that can be used to produce biofuels and bioenergy. “And so the DOE is leading research efforts to understand the controls of biomass degradation in plants such as switchgrass and poplar.” 

Kostka and Konstantinidis will develop a database of genes that code for the breakdown of lignocellulose and lignin, compounds that largely make up plant biomass and for which metabolic pathways of degradation have been elusive. Kostka and his colleagues will also have access to the extensive resources of the DOE Genomic Sciences program, including a collaboration with the agency’s Joint Genome Institute.

“We hope that information generated from our project can be used to improve methods for breaking down woody biomass so that it can be used in a sustainable way to produce biofuels,” Kostka said. 

Public abstract of Department of Energy grant DE-SC0023297

About Georgia Tech

The Georgia Institute of Technology, or Georgia Tech, is a top 10 public research university developing leaders who advance technology and improve the human condition. The Institute offers business, computing, design, engineering, liberal arts, and sciences degrees. Its nearly 44,000 students representing 50 states and 149 countries, study at the main campus in Atlanta, at campuses in France and China, and through distance and online learning. As a leading technological university, Georgia Tech is an engine of economic development for Georgia, the Southeast, and the nation, conducting more than $1 billion in research annually for government, industry, and society.

Note: This story, written by Cory Hopkins, first appeared on the website of the Office Of Undergraduate Education, and has been tailored for our audiences.

Ten Georgia Tech students, including four from the College of Sciences, were selected for the 2022 Millennium Fellowship, a joint leadership program of the Millennium Campus Network (MCN) and the United Nations Academic Impact (UNAI).

The fellowship is an ambitious program to help make the United Nations Sustainable Development Goals (SDG) and UNAI principles a reality. The Class of 2022 Millennium Fellows have been selected among a record-breaking 31,397 applicants from over 2,417 campuses across 140 nations.

Millennium Fellows are university undergraduates selected based on their leadership on sustainable development-related projects that advance the SDGs in their communities. As Millennium Fellows, they will participate in a semester-long leadership development program to improve their student organizing, partnership building, and community impact skills.

"Students' ongoing pursuit of the Millennium Fellowships reflects Georgia Tech's larger commitment to pursuing solutions on a global scale. The fellowship supports real-world initiatives in sustainable development, providing leadership training and a community of like-minded recipients," said Shannon Dobranski, director of Pre-Graduate and Pre-Professional Advising in the Georgia Tech Career Center. "Each year, the Millennium Fellowship helps Georgia Tech students invested in sustainability to identify and connect with each other. It also helps them to refine and articulate their own goals related to sustainability and the impact they hope to have on their community now and in the future."

Three School of Biological Sciences students are included in the latest cohort of Millennium Fellows: Shania Khatri, Michelle Seeler, and Mandy Zhu. Biochemistry major Nathan Bowman, also invited to the Fellows program, plans to pursue his project at a later date.

The College of Sciences students join six more Georgia Tech Millennium Fellows:

  • Pratul Amenini, Biomedical Engineering
  • Eyas Ayesh, Mechanical Engineering
  • Haaris Jilani, Biomedical Engineering
  • Velin Kojouharov, Mechanical Engineering
  • Athena Verghis, Environmental Engineering
  • Alix Wagner, Biomedical Engineering

The Millennium Fellowship Class of 2022 includes over 3,000 Millennium Fellows on 200 campuses in 37 nations that are participating in the program this year. The Class of 2022 is on track to engage in projects collectively advancing all 17 Sustainable Development Goals and all 10 UNAI Principles.

Georgia Tech's fellowship recipients will take part in a semester-long development program divided into three parts:

1. CONVENE

  • Georgia Tech Millennium Fellows will convene on-campus to learn from and challenge each other. Millennium Fellows convene at least 8 times during the program.

2. CHALLENGE

  • Students will develop a plan of action for their sessions together, meet to exchange best practices, and think bigger.

3. CELEBRATE

  • When the cohort meets their goals and completes the Fellowship graduation requirements, they will earn a certificate of recognition from United Nations Academic Impact and Millennium Campus Network.

Learn more about the Millennium Fellowship here.

How to Apply for This Fellowship and More

Promoting and supporting the Millennium Fellowship is a team effort each year. Pre-Graduate and Pre-Professional Advising works with fellowship administrators to host information sessions and Serve-Learn-Sustain reaches out to the SLS community to spread the word. Students interested in the Millennium Fellowship, or any nationally or internationally competitive award, should follow up by scheduling an appointment with Prestigious Fellowships Advisor, Karen Mura, on AdvisorLink.

Pre-Graduate and Pre-Professional Advising is part of the Office of Undergraduate Education (OUE). Learn more about OUE by following @gtoue on InstagramTwitter, and Facebook.

As a Georgia Tech graduate, Andrew Kokabi, D.M.D. knows the Institute’s motto, Progress and Service, well — and also incorporates that ethos in life and work at his Atlanta dental practice, Brookhaven Family Dentistry.

Kokabi, who graduated with a B.S. in Biology in 2000, credits his time on campus and in the College of Sciences for preparing him to advance in his dentistry career. “The habits I developed during my undergraduate studies enabled me to thrive in dental school,” he said. “I specifically remember thinking biochemistry in dental school was a breeze compared to biochem classes at Tech.” Georgia Tech’s pre-health classes can better prepare medical students for advanced studies at a specialized medical school, he added.

Kokabi and his business partner, Joon Koh, D.M.D., a fellow Georgia Tech graduate with a B.S. in Chemical and Biomolecular Engineering, also enjoy working together on campaigns to help local schools and charities.

The College of Sciences recently talked with Kokabi about his time at Georgia Tech, the ethos of the Institute, generosity and business values, and advice for pre-health students and those interested in a career in health and medical fields.

What was your experience at Tech like? How did it prepare you for your career as a dentist?

My academic experience was top-notch. It was hard and demanding, but looking back at it, that is exactly what my 18-year-old self needed at the time. It was a great introduction into what the real world expects of professionals. Socially, it was wonderful as well. I met people from all around the country. I became friends with people of various backgrounds, and everyone got along. It was right after the Olympics so it was an exciting time.

My time at Georgia Tech also gave me great time management skills. The academic workload of dental school was a breeze compared to Georgia Tech. Meeting people from around the world enabled me to carry on a conversation with just about anyone — this is an important trait that still serves me well today. I meet lots of patients at my dental practice from all over, and I can usually carry on a conversation about their place of origin relatively easily. This helps them feel more comfortable with me, and strengthens the doctor-patient relationship. 

What made you want to be a dentist?  

My parents are from Iran. As I'm sure most Persian and Asian children will tell you, from birth your parents are pressuring you to be a doctor. I did not want to be around sick people all day and did not want to be on call weekends. So dentistry offers the perfect balance of being a doctor, but having a more normal schedule and not having to treat serious life-threatening illnesses. I am very happy with my decision and cannot think of myself doing anything else. 

Georgia Tech's motto, “Progress and Service” — what did that mean to you as a student, and what does it mean as an alumnus?

It meant and still means a great deal. I think people have to start at a young age thinking about how they can serve others. That is where true fulfillment comes from.  One reason we have so much depression in our country is our self-absorbed "me, me, me" culture. There is a lot of happiness and joy that comes from helping and serving others. 

It's also great for business as well. People want to buy from companies that are doing more than just selling goods and services. They want companies that care about making a difference in the world. Of course, we do quality dentistry, and care about our patients' oral health. But we take it a step further and have a community mission. We strive to be active members of our community and help our local schools and charities.  Our Brookhaven community has given us so much, the least we can do is give back.

Tell me about the "Brighten Your Smile, Better the World" campaign and how effective it has been so far.  

The "Brighten Your Smile, Better the World'' campaign is one of our two main initiatives.  Each month we partner with a different school or charity.  Any patient of ours that makes a donation to that month's chosen partner gets a set of custom teeth whitening trays for free. It's a win-win for all parties involved. 

In its first year, we have been able to raise more than $15,000 for numerous schools and organizations. Featured partners have included Ashford Park Elementary School, Huntley Hills Elementary School,  Montgomery Elementary School, Chamblee Middle School, the Chattahoochee Riverkeeper, Giving Grace, and The Kyle Pease Foundation. 

You said you talk to many pre-dental students. What advice do you give them about whether or not they should get a degree at Georgia Tech before heading off to dental school?

A science degree from Georgia Tech is extremely valuable. It sets you apart from other candidates applying for the same spot in a specialty program. The healthcare school knows that if someone was able to get a Tech degree, they will be able to handle the academic workload of dental or medical school. 

Also, know what you are getting into. Being a healthcare professional means a lifelong pursuit of learning. It is not just a job, but a career. It takes a lot of effort and time even after you have left work for the day (being on call, continuing education, representing your profession in the community, etc).

You should also know that it's worth it. There are not too many jobs that allow you to make as big of an impact in people's lives as being a healthcare professional. I feel truly blessed and honored that I am in my field of work. 

Join us for a public seminar hosted by the Interdisciplinary Health and Environment Leadership Development (IHE-LeaD) program. Greg Gibson, Tom and Marie Patton Chair and professor of Biological Sciences and fellow of the American Association for the Advancement of Science, will give his talk entitled “Integrating genes and the environment into predictive health.”

The event will start at 10 am with coffee, snacks, and conversation. The seminar talk will begin at 10:30 am.

Seminar Background: The Interdisciplinary Health and Environment Leadership Development (IHE-LeaD) program at GT facilitates impact-driven exchange and training at the intersection of human and environmental health. Seminar speakers present their work on impact-driven research at the intersection of IHE, and discuss opportunities for translate their work into actions with public impact and visibility. Sign up for the IHE seminars email list to receive regular updates (contact Gabi Steinbach: gsteinbach6@gatech.edu). 

About Greg: Greg Gibson's major research interests are in genetic and environmental interactions, genomic approaches in ecology and evolution, and genetics in public policy. He received his PhD in 1989 from the University of Basel, was a Helen Hay Whitney Fellow at Stanford University, then a David and Lucille Packard Fellow from 1997-2002. He has led the integrative genomics initiatives at GT since 2009.

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