Apr. 12, 2022
As Earth Day approaches, it’s a great time to look for new ways to get involved with sustainability efforts on campus. Tech students have a long history of being good stewards of the Earth’s resources and looking for ways to promote environmentally conscious practices.
Here are nine groups to look at if you want to get involved. To stay plugged in to all campus events, visit calendar.gatech.edu or engage.gatech.edu.
Students Organizing for Sustainability
This group has been active on campus for many years. One of its most visible initiatives is the Community Garden located on the Instructional Center Lawn. The group also hosts guest speakers and assists with invasive species removal on campus.
Association for Sustainable Investment
This group combines interest in sustainability and finance to promote investment in climate solutions and educate students about sustainable finance and fossil fuel divestment. The group hosts guest speakers, debates, and podcast discussions.
Trailblazers
The purpose of Trailblazers is to increase appreciation for the outdoors through trail adventure and exploration. The group coordinates trips that combine service, such as park cleanup or tree planting, with outdoor recreation. They also assist with on-campus projects such as invasive species removal. Trailblazers welcomes students, faculty, and staff to participate in its events.
Energy Club
The Energy Club’s premier event is its annual conference, which took place earlier this month. They also host weekly “energy chats” where an invited speaker will present on an area of their work in the energy landscape, focusing on topics that touch on technology, economics, and policy.
Solar Racing
Solar Racing designs and builds solar-powered race cars for track and cross-country competitions worldwide. The group recently built a vehicle that completed the American Solar Challenge last fall. Students of all experience levels and backgrounds are invited to participate and learn about solar vehicles — and have fun.
Engineers Without Borders (EWB)
The Tech student chapter, EWB-GT, is a chapter of EWB-USA, a nonprofit humanitarian organization. The goal of this group is to support community-driven development projects worldwide through partnerships that design and implement sustainable engineering projects. The Georgia Tech group has four ongoing projects in communities around the world.
IEEE PES
The IEEE Power and Energy Society is the oldest society of the Institute of Electrical and Electronics Engineers (IEEE), the world’s largest technical professional organization. IEEE PES at Georgia Tech is a student branch of the national organization. The group’s events are focused on the power and energy sectors and include group meetings, guest speakers, and networking opportunities.
Veggie Jackets
This group is designed for vegetarian and vegan students, offering many occasions to share meals together, including potlucks and other events. The group also hosts documentary viewings that focus on how eating habits can affect the Earth.
Effective Altruism
This group hopes to have its members maximize the positive impact they can have on the world and tackle some of the greatest challenges, including extreme climate change, mitigating the next pandemic, and human-compatible AI. The group focuses on making professional connections to work that addresses these global challenges.
Apr. 06, 2022
This year marks the 25th anniversary of celebrating Earth Day at Georgia Tech. A four-day schedule of events is planned for this campuswide program to celebrate nature, the preservation of our planet, and the Georgia Tech community’s contributions to campus sustainability. A few events are already collecting items or have opened registration — so get a head start on your Earth Day plans.
The keynote event on Monday, April 18, features Maria Cimilluca, vice president of Infrastructure and Sustainability, who will share the path forward for sustainability at Georgia Tech. The event will also feature the presentation of the Student Sustainability Champion Award. Register here.
If sustainable transportation is your thing, you can join a Group Bike Ride led by President Ángel Cabrera on Tuesday, April 19. The 4.75 mile ride requires registration and will begin in front of the Campus Recreation Center.
If you are more tuned in to understanding campus waste streams, join the Student Government Association’s Sustainability Committee and the Office of Solid Waste Management and Recycling on Tuesday, April 19, to assist with conducting a waste audit of the Clough Undergraduate Learning Commons. You will see firsthand how recycling and composting services support Georgia Tech’s goals to achieve zero waste.
If understanding and protecting nature fits more with your passions, register for a bird walk led by a subject matter expert and learn about which birds prefer to make their homes on campus. In partnership with Georgia Audubon and The Kendeda Building for Innovative Sustainable Design, the walk begins at 9 a.m. on Wednesday, April 20.
The week rounds out with the Sustainability Fair, which showcases student groups and campus departments such as Tech Dining, Landscape Services, and Building Services, highlighting the ways campus operations support sustainable initiatives. The Urban HoneyBee Project and the Georgia Tech Global Change Program will offer opportunities to get involved and be a part of the climate solution. Table registration for the Fair closes Friday, so register for a spot to showcase your organization's work supporting campus sustainability.
The Hard to Recycle Materials Dropoff and the Clothing Swap will take place on the lower level of The Kendeda Building from 10 a.m. to 4 p.m. each day. Clothing can be donated for the swap at Housing locations through Monday, April 11.
Most importantly, the Earth Day planning committee would love your help. Volunteer to help make this 25th anniversary event a success.
News Contact
Cathy Brim
Institute Communications
Feb. 21, 2022
A majority of Georgia residents strongly support new solar and wind power capacity over new coal-fired plants and believe the state should set a carbon emissions reduction goal, according to a new survey conducted for researchers at Georgia Tech and the University of Georgia.
The survey, conducted by polling firm Dynata, found that 60% of Georgia residents back the creation of a state carbon emissions reduction goal. That includes 74% of Democrats and Democratic-leaning independents, 52% of independents, and 45% of Republicans and Republican-leaning independents.
The poll also found that 70% of Georgians support new solar power and 64% support new wind power, with new hydroelectric and natural gas capacity also receiving relatively favorable marks.
The survey found only 30% of respondents supported new coal-fired power plants.
“This survey demonstrates that many Georgians across the political spectrum are in favor of green energy solutions that will benefit the state’s environment, create new jobs, and support our economy,” said Marilyn Brown, Regents Professor and Brook Byers Professor of Sustainable Systems in Georgia Tech’s School of Public Policy.
Cory Struthers, assistant professor in the School of Public and International Affairs at the University of Georgia, and Brown designed the survey with help from graduate students in Georgia Tech’s Climate and Energy Policy Lab (CEPL).
Brown and Struthers are affiliated with Drawdown Georgia, a project of the Ray C. Anderson Foundation, which provided funding to universities and stakeholders across Georgia to identify promising climate solutions for the state. The Foundation provided support for this survey, in addition to other activities to translate research into action, including the Drawdown Business Compact.
“This survey provides important new information about how people in Georgia feel about climate solutions,” said Blair Beasley, the Foundation’s director of climate strategies. “We are pleased to see that the results validate Georgians' support of many high-impact solutions that Drawdown Georgia has identified for their potential to reduce emissions in our state this decade.”
The Busbee Endowment at the University of Georgia and Georgia Tech’s Brook Byers Institute for Sustainable Systems also provided support for the survey.
Support for a Range of Climate Solutions
The survey of 1,788 Georgia residents was conducted online from Aug. 20, 2021, to Sept. 5, 2021.
All survey participants answered a set of common questions about their demographics, energy bills, knowledge of climate solutions, values, and more. The respondents were then divided into three groups, with participants in each answering additional questions that focused on one of three transformational climate solutions: rooftop solar, retrofitting, or electric vehicles.
The survey’s margin of error is plus or minus 2 percentage points for questions in the larger, common, sample and plus or minus 4 percentage points for those in the smaller sample.
Overall, 75% of Democrats, 55% of independents, and 49% of Republicans supported development of a climate resiliency plan for Georgia to prepare for the impacts of climate change.
When asked about new energy infrastructure, new solar panels and wind farms received 70% and 64% support, respectively. In contrast, 36% of those surveyed showed support for new nuclear power plants, somewhat higher than for new coal plants. Seventy-one percent of respondents favored energy efficiency strategies and smart-meter infrastructure.
Climate technologies that individuals can adopt at home were also well-viewed. A majority of respondents either already had residential energy-saving technologies or were interested in adopting them. The highest combined level of interest and adoption was for using LED lights at 93%, followed by efficient HVAC systems (80%), rooftop solar (59%), community solar (59%), and electric vehicles (55%).
Many respondents were also willing to support government funding for financial incentives to go green: 50% said they would support $5,000 rebates for electric vehicles, 55% said they would look favorably on up-front financing for heat pumps, and 64% said they would support a similar strategy for rooftop solar projects.
“These high-impact solutions have the potential to both reduce emissions and increase energy efficiency in Georgia,” Struthers said. “A cleaner, more efficient Georgia means increased air and environmental quality, job creation, and gains in public health.”
Survey Also Reveals Details of Energy Poverty, Low Energy Literacy
The survey findings also shed light on the prevalence of “energy poverty” in Georgia. A household is energy-poor when it spends more than 6% of its income on energy. The survey found that while households with incomes greater than $150,000 spent about 2% of their income on energy bills each month, households with incomes less than $20,000 spent, on average, between 14% and 21% of their monthly earnings on energy.
The survey also found low levels of literacy in regard to climate solutions, energy technology, and policy among respondents. Fewer than 35% of respondents knew the correct answer to questions related to energy and climate, including what energy sources are fossil fuels and the relative cost of operating electric and gasoline-powered vehicles. Only 4% of those surveyed correctly answered that solar panels generate energy in full sunlight, in the shade, and on rainy days.
“We want to use this data to continue to answer questions about the diffusion of, and support for, clean and equitable energy technology transition in Georgia,” Brown said. “How can this data help us overcome ambivalence toward clean energy and design programs that make the energy transition work for all Georgians, especially the most vulnerable? How can it help us to raise knowledge and awareness about the promise of high-impact climate solutions?”
A PowerPoint of the full findings can be downloaded from the CEPL website.
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.
The Ivan Allen College of Liberal Arts, home of the School of Public Policy, provides innovative, human-centered perspectives at the intersections of humanities, social sciences, arts, and STEM, developing leaders who advance technology and improve the human condition. Nearly 350 tenured, tenure-track, non-tenure track, and permanent research faculty, prepare students to be leaders capable of balancing a richly defined base of expertise with a well-grounded sense of responsibility. Our programs encompass traditional fields as well as unique and professional disciplines. Many of our faculty members engage in ground-breaking, interdisciplinary research to solve complex issues of the world.
About the University of Georgia
Chartered by the state of Georgia in 1785, the University of Georgia is the birthplace of public higher education in America. What began as a commitment to inspire the next generation grows stronger today through global research, hands-on learning, and extensive outreach. A top value in public higher education and research, the University of Georgia tackles some of the world’s grand challenges, from combating infectious diseases and creating a dependable food supply to advancing economic growth and strengthening cyber and global security.
As Georgia’s flagship institution, the university is recognized for its commitment to student excellence through an emphasis on rigorous learning experiences both inside and outside the classroom, including hands-on research and leadership opportunities. These experiences contribute to the university’s exceptional rates in retention, graduation, and career placement. Among public universities, the University of Georgia has been one of the nation’s top three producers of Rhodes Scholars over the past two decades. The university is also home to the Peabody Awards, the most prestigious prize in electronic media.
Since 2001, the School of Public and International Affairs has been dedicated to enhancing civic engagement, public leadership, scholarship on political institutions and policy, and effective governance. Now, more than ever, the nation and the world require scholars and students to focus their attention on the pressing policy and governance issues of the day. Guided by an award-winning teaching faculty and innovative research, the School offers critical training to future public servants and a deep understanding of national and international politics.
News Contact
Michael Pearson
michael.pearson@iac.gatech.edu
Jan. 21, 2022
This country’s semiconductor chip shortage is likely to continue well into 2022, and a Georgia Tech expert predicts that the U.S. will need to make major changes to the manufacturing and supply chain of these all-important chips in the coming year to stave off further effects.
That includes making more of these chips here at home.
Madhavan Swaminathan is the John Pippin Chair in Electromagnetics in the School of Electrical and Computer Engineering. He also serves as director of the 3D Systems Packaging Research Center.
As an author of more than 450 technical publications who holds 29 patents, Swaminathan is one of the world’s leading experts on semiconductors and the semiconductor chips necessary for many of the devices we use every day to function.
“Almost any consumer device that is electronic tends to have at least one semiconductor chip in it,” Swaminathan explains. “The more complicated the functions any device performs, the more chips it is likely to have.”
Some of these semiconductor chips process information, some store data, and others provide sensing or communication functions.
In short, they are crucial in devices from video games and smart thermostats to cars and computers.
Our current shortage of these chips began with the Covid-19 pandemic. When consumers started staying at home and car purchases took a downward turn, chip manufacturers tried to shift to make more chips for other goods like smartphones and computers.
But Swaminathan explains that making that kind of switch is not simple. Entire production operations have to be changed. The chips are highly sensitive and can be damaged by static electricity, temperature variations, and even tiny specks of dust. The manufacturing environments must be highly regulated, and changes in the process can add months.
The pandemic highlighted another challenge with the semiconductor chip industry, according to Swaminathan.
“There’s a major shortage of companies making chips,” he says. “If you look worldwide, there are maybe four or five manufacturers making 80-90% of these chips and they are located outside of the United States.”
This creates supply chain hiccups with the raw supplies needed to make these chips as well. Add in the fact that many of these companies only design their chips – they don’t manufacture them directly.
“American consumers use 50% of the world’s chips,” Swaminathan says, which creates a serious challenge when the overwhelming majority of those chips are manufactured in other nations.
In the short term, the costs of the chip shortage is being passed on to the consumer. We see this directly with products like PlayStations and Xboxes that are more and more expensive and harder to purchase when the chips necessary for the consoles to function are in short supply.
Beyond 2022, Swaminathan says we need to work to revitalize the industry domestically.
“We need to bring more manufacturing back to the United States,” he says. “The U.S. government has recognized the importance of this semiconductor chip shortage and is trying to address the issue directly.”
That means investing in new plants to manufacture the chips, but America's journey toward chip self-sufficiency will continue to be a work in progress.
“This is a cycle,” Swaminathan explains. “But this is probably the first time where it has had such a major effect in so many different industries.”
But consumers can take direct action on their own in the coming year. “Reduce the number of times you purchase or upgrade electronic devices like phones and cars,” he says. “Then it becomes just a supply problem, not a demand and supply problem.”
Dec. 16, 2021
The global supply chain has been rocked by disruptions triggered largely by the coronavirus pandemic, resulting in a cascade of shortages on a host of products ranging from computer chips to medications.
But supply chain disruptions also highlight the potential vulnerabilities in the U.S. manufacturing sector’s critical segments like defense.
To help manufacturers across the state, the Georgia Institute of Technology has launched the Georgia Manufacturing 4.0 Consortium to work with those businesses in defense and related industries become more resilient and less susceptible to supply chain disruptions. The Consortium, which will begin accepting members in April 2022, will work with Georgia defense manufacturers to incorporate cybersecurity protocols, smart technologies such as sensor packs, machine learning, artificial intelligence, and other best practices under Industry 4.0 technology standards.
Led by Aaron Stebner, associate professor in the George W. Woodruff School of Mechanical Engineering and the School of Materials Science and Engineering, the Consortium is an 18-month pilot funded by a Department of Defense Office of Local Defense Community Cooperation (OLDCC) grant of nearly $1 million. Georgia Tech is working in partnership with Spelman College, the Technical College System of Georgia, and the Georgia Department of Economic Development, under the grant to develop workforce, training manuals, a curriculum, and to support businesses in adapting to economic and technological changes that emerge at a much more rapid pace today.
“It’s a cooperative effort that’s really focused on helping to get modern technologies to these Georgia manufacturers. This is about establishing a community of manufacturers who all want to move forward but don’t have the bandwidth or capabilities do it individually,” Stebner said.
The Consortium has three goals. The first is to increase the manufacturing defense supply chain’s resilience and diversification. That will allow those companies to pivot quickly in response to demand and let non-defense-related industries enter the supply chain at critical junctures. The second goal is to work with Georgia manufacturers in adopting new technologies and address challenges that put those businesses at risk.
Lastly, the Consortium is to be a conduit that helps small- and medium-sized manufacturers test out innovations using Georgia Tech resources such as the Advanced Manufacturing Pilot Facility, connect manufacturers with each other, and potentially unlock new markets and collaboration opportunities.
While the focus is on defense manufacturing, the Consortium is open to all manufacturers.
“We want to help as many manufacturers as we can, to grow a bigger pie that helps everybody, lowers risk, and allows companies to be part of building innovative solutions” Stebner said.
Manufacturing Supports Georgia Economy
National Association of Manufacturers data show that manufacturing accounts for $61.1 billion in economic activity, roughly 10% of Georgia’s total output. The industry includes more than 6,600 firms that employ nearly 400,000.
At $14 billion a year, Georgia is ranked 13th in federal defense spending. Roughly 1,200 manufacturers in the state are in defense or related industries. Those include information technology companies that support cybersecurity, wireless communications, and other innovations that are critically essential to Industry 4.0 in defense manufacturing.
University partners from the Technical College System of Georgia and Spelman College will look to take the Consortium findings and data from the work they do with member companies to create educational programming and workforce training.
Today, there is a need for more workers in machine learning and other aspects of advanced manufacturing, as well as a need to change perceptions of manufacturing, especially in rural parts of the state, Stebner explained.
To that end, the Technical College System of Georgia could develop programming for students within its two-year education curriculum. It also has a mobile manufacturing unit that could be taken to rural parts of the state and used as a tool to highlight opportunities in manufacturing and dispel misconceptions about the industry.
The all-women’s Spelman College, one of the nation’s premier historically black colleges and universities, launched an extended reality program in the fall of 2020. That program aims to integrate art, technology, and narrative on a gaming platform which is familiar and engaging for students. Those students will develop the technical skills to develop games, create immersive virtual experiences, and develop visual simulations for research, education, and training.
For Consortium members, Spelman’s extended reality program can be used to help turn research data gathered from them into workforce training and development modules.
“Spelman has a long history of graduating women in the natural sciences, and that history has recently led the Department of Defense to distinguish the College as a Center of Excellence for educating women in STEM,” said Jerry Volcy, a Spelman professor and co-director of the Spelman Innovation Lab.
The extended reality program furthers Spelman’s goal to increase the technological readiness of its graduates.
“Spelman has a long record of forging pathways for women of color into new spaces. Today, these spaces include extended reality, defense and, to some extent, manufacturing research,” Volcy said. “From the College’s perspective, participation in the Consortium has the dual potential of creating and discovering new pathways into these industries while immediately providing real-world applications laboratory for the developing extended reality program.”
Fulfilling Georgia Tech’s Mission
Within Georgia Tech, the Georgia Manufacturing Extension Partnership and the Georgia Tech Manufacturing Institute will support Consortium efforts.
The Consortium reflects Georgia Tech’s broader mission to further its Advanced Manufacturing Initiative, said George White, Georgia Tech’s interim vice president of Industry Collaboration.
“The anticipated research impact envisioned through the Defense Manufacturing Consortium will strengthen Georgia Tech’s positioning in enabling major public private collaborations,” White said. “The advent of the Consortium represents the opportunity to convene key stakeholders from government, academics, and industry to innovate and solve the most challenging problems in manufacturing.”
News Contact
Writer and media relations contact:
Péralte C. Paul
peralte.paul@comm.gatech.edu
404.316.1210
Dec. 14, 2021
The Georgia Institute of Technology was awarded a grant from the U.S. Department of Commerce’s Economic Development Administration (EDA) as part of its $1 billion Build Back Better Regional Challenge. Georgia Tech is one of 60 entities to be awarded funding to assist communities nationwide in their efforts to accelerate the rebuilding of their economies in the wake of the pandemic.
As a leader in artificial intelligence, manufacturing research, and innovation-led economic development, Georgia Tech will utilize the grant for technical assistance to plan the Georgia Artificial Intelligence Manufacturing Corridor (GA-AIM). Led by Thomas Kurfess and Aaron Stebner in the George W. Woodruff School of Mechanical Engineering and in collaboration with local partners, GA-AIM will fill existing technology gaps, build a technological opportunity framework that includes underrepresented communities and rural Georgia counties, and better secure the state’s manufacturing infrastructure.
Georgia Tech’s partners in the effort include the Russell Innovation Center for Entrepreneurs, Spelman College, the Technical College System of Georgia, and the Georgia Department of Economic Development.
“We are truly honored to be awarded this grant to implement our vision for manufacturing excellence in Georgia with our partners in artificial intelligence research,” said Chaouki T. Abdallah, executive vice president for Research at Georgia Tech. “Alongside these important partners, the grant enables us to collaborate to include diverse backgrounds and perspectives in the process of learning, discovery, and creation, furthering Georgia Tech’s mission to expand access.”
Georgia Tech and its partners will pair artificial intelligence and manufacturing research innovation to better secure the manufacturing ecosystem, expand opportunity to distressed and rural communities and underrepresented groups, and support business growth across the state.
“We are thrilled to help communities work together — in coalitions of government, nonprofits, academia, the private sector, and others — to craft ambitious and regionally unique plans to rebuild their communities,” said Alejandra Y. Castillo, assistant secretary of commerce for the EDA. “These projects will help revitalize local economies and tackle our biggest challenges related to climate change, manufacturing, supply chains, and more. EDA is proud to ignite these plans and help communities nationwide build back better.”
GA-AIM’s partners have created a complementary network of resources that focus on each partner organization’s expertise and mission.
“We have an opportunity to create meaningful impact at the intersection of AI and manufacturing,” said Stebner, who wrote the grant proposal that resulted in the $500,000 grant from EDA.
Kurfess, who serves as the regional economic competitiveness officer for the grant, added, “Bringing together AI and manufacturing will ensure a strong manufacturing base for Georgia that will leverage our well-trained workforce and our strong educational institutions that are participating in this effort. What excites me the most is that AI will augment our workforce, making it more valuable and productive, ensuring job growth for Georgia and the U.S. well into the future.”
The GA-AIM effort takes a multifaceted approach to address its core goals:
Georgia Tech
- Formation of the AI Manufacturing Pilot Facility: Georgia Tech’s Advanced Manufacturing Pilot Facility will be transformed into the AI Manufacturing Pilot Facility. The new facility allows for government pilot trials, cybersecurity games, and workforce training to innovate, transition, and create a workforce for AI manufacturing technologies without exposing the region’s supply chains to risk.
- Center for AI Commercialization: Two of Georgia Tech’s commercialization programs — VentureLab and I-Corps South — will create a center for the commercialization of AI manufacturing technologies into local and regional startups. Those commercialization efforts will occur through a quarterly cohort-based entrepreneurial training program built on the National Science Foundation’s I-Corps curriculum. The center will also provide training for instructors to build a sustainable workforce and will secure investment funding for these startups.
- AI Manufacturing Community Engagement: The Enterprise Innovation Institute, Georgia Tech’s chief economic development arm, will engage in focused outreach and technical assistance to small and mid-sized manufacturers and minority business enterprises through its Georgia Manufacturing Extension Partnership and Georgia Minority Business Development Agency Business Center programs. A third Enterprise Innovation Institute program, the Economic Development Lab, will focus on outreach and engagement in distressed and underserved parts of the state, create workforce development programs and implementation strategies, and attract outside investment.
- AI Manufacturing Rural Supply Chain: The Supply Chain and Logistics Institute will study the impact of automation technologies, build automation solutions tailored for rural manufacturers, and create programs that lower the barrier for rural manufacturers’ access to use the AI Manufacturing Pilot Facility.
- AI InVenture K-12 Experiences: To ensure a technically capable workforce in the coming years, Georgia Tech’s InVenture Prize and the Center for Education Integrating Science, Mathematics, and Computing will expand their emphasis to rural and underserved areas of the state by piloting a rural regional event with a region-specific prize. They will also create supplemental lessons centered on AI and data science that will be part of a K-12 InVenture Prize curriculum website.
Spelman College
- Virtual Reality for AI Workforce Training Innovation: Spelman’s Innovation Lab will develop virtual reality technology for training or retraining the GA-AIM workforce to make workers comfortable with new technologies before deployment in real-world applications.
Russell Innovation Center for Entrepreneurs
- LaunchPad AI Innovation Studio: The Russell Innovation Center for Entrepreneurs will create the 5,000-square-foot LaunchPad AI Innovation Studio to provide prototyping and proof of concept development of physical products. Black entrepreneurs will be given access to equipment, training, and mentoring. LaunchPad AI will also be open to AI InVenture teams from Atlanta’s K-12 public schools, with special programs designed for startup mentoring and seed funding for K-12 entrepreneurs.
Technical College System of Georgia (TCSG)
- AI Manufacturing Technical Workforce Development: As Georgia’s technical college coordinating organization, the TCSG will design, develop, and implement curricula at community colleges that include apprenticeships at AI-MPF and virtual reality modules from Spelman. The TCSG will also provide regional entry points for dual enrollment and traditional students to AI manufacturing technical education at certificate and degree levels. Graduates will have exit points that lead directly to careers in the industry or provide for the continuation of education and higher degree attainment through articulation agreements among GA-AIM members.
With this grant, Tech becomes a finalist for significantly more funding to implement projects that support an industry sector and help communities withstand future economic shocks.
“GA-AIM is in strategic alignment with the EDA’s funding priorities, including manufacturing, workforce development, equity, and technology-based economic development,” said David Bridges, vice president of the Enterprise Innovation Institute at Georgia Tech and co-author of the grant proposal. “With manufacturing employing more than 400,000 people across the state and contributing more than $61 billion in economic activity, it’s critical that we leverage the best ideas and programs through our coalition of partners.”
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About the Georgia Institute of Technology
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.
About the U.S. Economic Development Administration
The mission of the U.S. Economic Development Administration (EDA) is to lead the federal economic development agenda by promoting competitiveness and preparing the nation's regions for growth and success in the worldwide economy. An agency within the U.S. Department of Commerce, EDA makes investments in economically distressed communities in order to create jobs for U.S. workers, promote American innovation, and accelerate long-term sustainable economic growth.
Writer: Péralte C. Paul I peralte.paul@comm.gatech.edu I 404.316.1210
Media contact: Steven Norris | stephen.norris@comm.gatech.edu| 404.281.3343
News Contact
Péralte C. Paul
404.316.1210
Dec. 08, 2021
Supply chain disruptions are not new, but the current disruptions have not only been persistent but have also impacted several industries – and consumers – at the same time. The result has ranged from empty shelves at retail stores to prolonged lead times for consumer products and automobiles.
We sat down with three Georgia Tech Scheller College of Business faculty experts in operations management: Vinod Singhal, Charles W. Brady Chair; Manpreet Hora, associate professor; and Ravi Subramanian, professor. The discussion centered around overarching causes, financial ramifications, and multi-pronged approaches to mitigate the impact of supply chain disruptions in the coming months and year.
1. What caused the supply chain and logistical issues to arise? What effect did Covid-19 play in all of this? Did the influx of stimulus checks and the extension of additional aid to U.S. citizens (rent deferment, etc.) affect the purchase of goods enough to cause the current situation?
All three experts agree there are several factors on both the supply side and the demand side of the supply chain, and logistical challenges that companies and customers are currently facing.
On the supply side, there are issues in global supply chains that are beyond the control of individual companies. A significant one is the congestion at the ports of Los Angeles and Long Beach in the U.S. Nearly 40 percent of imports into the U.S. flow through these two ports. There are stranded containers that have not been unloaded due to labor shortages, limited unloading capacity, and warehouse space constraints.
For example, a CBS news report on November 11, 2021, indicated that at the ports of Los Angeles and Long Beach, about 80 ships carrying more than half a million containers were waiting to unload. Clearing this backlog will take some time. Another related issue that has added to the congestion is the growing number of empty containers that are sitting on ports to be returned back to exporters.
The congestion at ports is being further exacerbated by trucker shortages that could pose a more persistent and long-term challenge for supply chains.
“Moving products from ports to distribution centers, manufacturing plants, and further downstream to retailers was already a concern for many companies even before the pandemic. Now the combination of port congestion and trucker shortage is further delaying the process of bringing products to the right place at the right time,” said Hora.
Shortages of critical components, such as semiconductor chips, have created additional delays for a range of industries. Shutdowns in chip production during the early stages of the pandemic, coupled with increased demand for products such as computers, smartphones, and automobiles has resulted in fierce competition for acquiring chips across industries. For example, the professors noted that during the initial period of the Covid-19 pandemic, semiconductor companies prioritized chip manufacturing to meet the increasing demand for consumer electronics. This, in turn, diverted supply away from automotive production, resulting in substantial delays in cars rolling off assembly lines
The pandemic either amplified the above-mentioned supply chain and logistical issues or brought in unexpected new ones. It necessitated the closure of borders at the national level, and of plants and warehouses at the company level. These closures, in the initial months of the pandemic, followed by new requirements such as social distancing during the opening of facilities affected and slowed down production, warehousing, distribution, and transportation of products.
On the demand side, explained Subramanian, two phenomena occurred that have led to a surge in demand for goods that were already in short supply.
First, during the pandemic, many people were working from home. This curtailed spending on travel, vacations, and demand for experiential goods and services. People had more disposable income, which they diverted to consumer products that were already in short supply.
Second, the global economy and the US, in particular have been turbocharged by trillions of dollars in stimulus during the pandemic. This stimulus, while necessary to deal with the hardships during the pandemic, enhanced the surge in demand for products.
2. Why are some retailers able to deliver goods without an issue?
“Many large retailers, including Walmart Inc., Home Depot Inc., and Target Corp., do not seem to have supply chain and product shortage issues like their counterparts, because they ordered and took delivery of goods earlier than usual this year. They have not only built-up inventories but have enhanced their inventory management practices. Some retailers have also chartered their own ships to counteract delays in transportation,” said Singhal.
They have also moved the unloading of their goods from the ports on the west coast to other ports in the U.S. that are less congested. These retailers have used their clout and deep pockets to get suppliers and logistics companies to prioritize their orders. Their far-flung supply chain networks can identify and work with several suppliers to find options to source items that are out of stock.
3. What are the financial ramifications to the U.S. and to the world for this supply chain issue?
The professors note that large companies have used their clout to deal with the current supply chain issues. Although their costs of procuring supplies have increased, they may be able to pass on some of the cost increase to customers. Some of these companies may see an increase in total sales and total profits in nominal terms although they may experience thinner profit margins. The stock market seems to have incorporated these factors in the valuations and the rising stock market suggests that large companies are expected to do fine financially. For example, the Dow Jones Index has jumped 18 percent this year, S&P 500 is up 25 percent, and Nasdaq has risen 24 percent.
The financial ramifications to smaller retailers and manufacturing firms may be quite negative. As Subramanian explained, these firms do not have the clout and financial resources to work around the supply issues. Often their sales during the holiday season are critically dependent on receiving a container or two of goods from overseas suppliers. Given the long and uncertain transportation and delivery times, and the high cost of transportation, many small firms may not be able to receive supplies in time for the holiday season and may be left holding unsold inventory or unfinished products. Overall, small firms may take a big hit from the current supply chain issues.
4. Are there any additional issues that consumers may face that they may not be aware of? How will the shortage of goods to retailers affect consumers shopping during the holidays? Is there anything individual consumers can do to help solve the problem?
Consumers can do certain things so that they are not disappointed, said the panel. They should start shopping earlier, expect to pay closer to full price on many products, and not wait for promotions or discounts to make their purchases. They will need to be flexible in their shopping habits and look for substitute products if their desired products are not available. Consumers may also want to prioritize their shopping decisions – for example, ensuring they have the gifts for young children who expect Santa to deliver irrespective of supply chain issues! Likewise, for older parents and relatives, for whom the holiday season is a very special time. For others, they may want to consider giving gift cards.
5. When do you think this issue will be resolved and how?
“Supply chains getting back to normal will be contingent upon the nature of the underlying supply chain issues. Shipping and retail executives indicate that they expect the West Coast port backlogs to clear in early 2022, when the Lunar New Year shuts many factories for a week in February, thus slowing output and shipments from Asia,” said Singhal. However, chip shortages may last until 2022 or even extend into 2023. Many chip manufacturers have announced plans to significantly increase their level of capital expenditure but bringing new capacity online can take several years.
This storm of collective issues has brought the importance of supply chain resilience to the forefront. Companies emerging from the pandemic are revisiting or will have to revisit their past approaches to managing supply chains.
Having flexibility and slack in supply chains has been a persistent strategy for several companies but this strategy will now need to be more holistic. For example, companies will need to re-think where to source their critical and irreplaceable components. Companies are already deliberating to not only near-shore suppliers of their critical components but also expand this supply base. This may also entail carrying more inventory of such components to meet demand variability and hedge against supply chain disruptions. Another development is manufacturers vertically integrating to design and produce critical components in-house.
Even before the pandemic, companies were investing in technology to digitize their supply chains. This long-term imperative will be prioritized even more as companies aspire for more transparency and traceability of products in their supply chains. Moreover, advanced automation in manufacturing plants and warehousing could ease some of the pain of labor shortages.
“Despite the current supply chain issues, we believe that supply chains will remain global and complex, but there will be renewed thinking in companies to recognize that Black Swan events such as the Covid-19 pandemic can create a multitude of interrelated and cascading supply chain issues that have serious financial implications. And companies will need to blend flexibility, adaptability, and efficiency to develop capabilities to mitigate impacts and remain resilient during such supply chain disruptions,” stated Hora.
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Lorrie Burroughs
Oct. 14, 2021
In the last few years, mechanically assistive exosuits, long depicted in works of popular science fiction and film, have finally started to see commercial deployment, according to Aaron Young, professor in the George W. Woodruff School of Mechanical Engineering at Georgia Tech. Most of these exosuits have a so-called passive design, assisting the wearer with unpowered elements like springs.
Active exosuits that incorporate electronics and powered motors are yet to be broadly applied. They tend to be big and heavy, and rely on rigid exoskeletons to transfer weight from body to ground. Exoskeletons add a great deal of stiffness, as well, Young said. Putting on most active exosuits is a little like becoming one with a forklift, restricting a wearer to lifting weights in a vertical plane.
For all these reasons, Young’s Asymmetric Back eXosuit (ABX) described in the October 5 issue of IEEE Transactions on Robotics is highly non-standard. There’s no exoskeleton, no rigid structure, nothing that makes contact with the floor. If the wearer is just standing there, it does nothing except for adding 14 pounds to their legs. But if they raise their body from a leaning over position, it makes a somewhat frantic noise: that is the sound of the ABX helping them rotate their torso, helping them twist.
Although most active exosuits support vertical lifts, rotating and twisting movements are also ubiquitous, especially in certain fields of manual labor like garbage collection and baggage handling. In many cases, these motions can be awkward and strenuous, leading to work-related injuries as well as back pain, according to Young. Back pain, in turn, is directly correlated with the strength of compressive forces and shear forces that are applied to the spine.
In designing their exosuit, the researchers sought a way to reduce these loads on the spinal joints. Putting it on looks a little like donning a futuristic backpack. Two motors are first strapped onto the back of each upper thigh. These motors are then connected to the back of the opposite shoulders, each with their own cable, making for two cables that diagonally overlap. The exosuit provides assistance by applying tension to the cables when it detects a wearer rise from a bending posture.
“It's definitely a different sensation than a sort of standard exoskeleton. It's not your standard design,” said Young.
Because the diagonal cables have a component of motion that is horizontal, they exert a pull on the torso that can aid in twisting it from side to side. In tests, the researchers showed that when a wearer of the ABX swung a weight from the ground to one side, the exosuit reduced their back muscle activations by an average of 16%, as measured by electromyography (EMG) sensors. The exosuit also provided a 37% reduction in back muscle exertion when a wearer lifted weights symmetrically, straight off the ground – an assistance level comparable to more rigid designs.
“People definitely felt like the technology is assisting them, which is great. And we did see the concurrent EMG reduction,” said Young. “I think it’s a great first step.”
In a sense, wearing the exosuit is almost like strapping two additional muscles onto the body – unconventional muscles, which run directly from back to leg. Interestingly, it is the positioning of these muscles rather than their brute strength that makes them functional, said Young.
The motors pull the cables with much less power than the muscles in the body. However, the cables are positioned much further away from the joints. Through this positioning, the cables obtain greater leverage and mechanical advantage, allowing the wearer to reduce their overall muscular output and hence the load that they place on their spine. (Spinal loading was not directly measured in the study.)
Aside from its overall performance, it is the flexible, asymmetric nature of the suit that really makes it unique, Young said. There are currently no other active exosuits that provide assistance for twisting and rotating through a comparable range of motion. While other exosuits also use cables, none have arranged them along diagonal lines.
Young is currently seeking collaborations with industry partners to further develop the exosuit. In future work, he sees its control system as a point to improve. Currently, when a person raises their torso from a lowered position, the cables simply pull with constant tension. But it should be possible to make the system detect different actions of the wearer and adjust its pull in response.
References
J. M. Li, D. D. Molinaro, A. S. King, A. Mazumdar and A. J. Young, "Design and Validation of a Cable-Driven Asymmetric Back Exosuit," in IEEE Transactions on Robotics, doi: 10.1109/TRO.2021.3112280.
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 40,000 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.
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Mordechai Rorvig
Senior Science Writer
Georgia Institute of Technology
Jun. 16, 2020
So many people Seth Marder spoke to didn’t see the hand sanitizer crisis brewing. The country was going to run dangerously short if someone did not act urgently.
The professor at the Georgia Institute of Technology rallied colleagues and partners around the cause in March, and by early June, they had replaced a key component of hand sanitizer, created a new supply chain, and initiated their own donation of 7,000 gallons of a newly designed sanitizer to medical facilities.
Its name: Han-I-Size White & Gold, named for the colors of Georgia Tech. The new supply chain also may ensure that hand sanitizer producers across the country do not run out of the main active ingredient, alcohol, but the team’s path to success was a stony labyrinth.
“This project was on life support so many times because people did not understand how severe this shortage was going to be,” said Marder, a Regents Professor in Georgia Tech’s School of Chemistry and Biochemistry. “I called hospitals and institutions to assess the need and heard the same thing over and over: ‘No, we just got a delivery. We have no need. You’re wasting your time.’”
Marder was not. Contacts at major chemical suppliers of hand sanitizer ingredients said that a critical shortage of alcohol, particularly the one usually in hand sanitizer, isopropanol, was coming.
“Isopropanol plants in the U.S. were running at full capacity and still didn’t have enough. People were using pharmaceutical-grade ethanol now, too, but it was also in short supply. We weren’t going to have enough of either; I mean the whole United States was running low,” Marder said.
Clean hands cabal
Marder hastily drafted Chris Luettgen, a professor of practice in Georgia Tech’s School of Chemical and Biomolecular Engineering, George White, interim vice president of Georgia Tech’s Office of Industry Collaboration, and Atif Dabdoub, a Georgia Tech alumnus and owner of a local chemical company, Unichem Technologies, Inc.
To the three chemists and the business professional, it seemed simple: Mix alcohol with water, peroxide, and the moisturizer glycerin then bottle and ship it. That bubble burst quickly.
Luettgen, who had worked in the consumer products industry for 25 years at Kimberly-Clark Corporation and knew how to take products to market, had to plow through constant unexpected supply chain barriers and bureaucracy while White forged connections between companies. Neither the supply chain nor the business relationships had existed before, and the teams’ phones stayed glued to their ears night and day as they created them from scratch.
“When I worked for Kimberly-Clark, getting a new product out would take the company nine to 18 months, and the three of us had to get this done in weeks. The demand was there, and people were getting sick in some cases from lack of sanitizing. We felt speed was necessary to meet the growing demand. Seth told me to push this across the goal line, and I put everything into it,” Luettgen said.
“Georgia Tech is about the power to convene. Companies and stakeholders are eager to come to the table here to make things happen,” White said about forging new business ties. “Not everyone has that incredible recognition as a problem solver with the brainpower amassed here.”
Stinking of gin
Purchasing truckloads of alcohol was priority one.
Boutique liquor distilleries in Georgia were already converting to sanitizer ethyl alcohol production, but output was nowhere near enough to meet demand. ExxonMobil connected the team with Eco-Energy, a company that handles fuel-grade ethanol as a gasoline additive.
“The amount of ethanol that’s made for fuel in the U.S. is 1,500 times the amount of the isopropanol made. They could drain off about 1 percent of what is used for fuel and double or triple the amount of alcohol available for hand sanitizer in this country. And the fuel companies wouldn’t even notice it was gone, especially since hardly anyone was driving anymore,” Marder said.
But then prospective hand sanitizer distributors crimped their noses at that ethanol, saying it smelled odd.
“I thought, ‘This has the makings of a screenplay.’ I asked the distributor if we could come over to smell a sample for ourselves,” White said. “It needed a little love.”
Eco-Fuels produced the highly refined ethanol and then processed it through carbon filtration to increase purity and reduce odor. Atlanta-based chemical manufacturer, Momar, Inc., oversaw production, packaging, and distribution of Han-I-Size White & Gold.
The Georgia Tech team garnered funding through a donation from insurer Aflac Incorporated allocated through the Global Center for Medical Innovation (GCMI), a Georgia Tech affiliated non-profit organization that guides new experimental medical solutions to market. Aflac’s gift of $2 million through GCMI has also expedited the development, production, and purchase of other PPE to donate to health care workers.
In addition, GCMI helped guide the hand sanitizer through regulatory processes and to market. In a another development, the U.S. Food and Drug Administration was also aware of the dire shortage of alcohol for sanitizer and issued waivers for the pandemic to allow for use of ethanol in sanitizers without having to meet usual specifications.
Water, water everywhere
Arkema, Inc. donated hydrogen peroxide, which was delivered to PSG Functional Materials, which mixed and packaged the product then shipped with no delivery fee to Atlanta. Though water is ubiquitous, hand sanitizer requires purified water, and the Coca-Cola Company donated a tanker truck of it just when White was pondering desperate measures.
“If I have to get a truck to go pick up water and drive it, I’ll do it myself,” he said.
Finally, the first few hundred gallons of donated Han-I-Size White & Gold rolled into Piedmont Healthcare in Atlanta and Brightmoor Nursing Center in Griffin, Georgia, in the second week of June 2020.
GCMI is facilitating donations of the 7,000 gallons nationwide. Separate from the Aflac-financed donations, Momar will continue to manufacture the new hand sanitizing formula commercially to include in its regular product lineup, and Georgia Tech will be able to purchase it at a reduced rate to help protect researchers now returning to their labs.
The new supply chain, the first of its kind, of “waiver-grade” ethanol has given hand sanitizer producers across the country a new opportunity to re-supply America.
“Hopefully, we helped solved a national need,” Luettgen said.
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Georgia Institute of Technology
May. 07, 2020
Why did the gecko climb the skyscraper? Because it could; its toes stick to about anything. Engineers can already emulate the secrets of gecko stickiness to make strips of rubbery materials that can pick up and release objects, but simple mass production for everyday use has been out of reach until now.
Researchers at the Georgia Institute of Technology have developed, in a new study, a method of making gecko-inspired adhesive materials that is much more cost-effective than current methods. It could enable mass production and the spread of the versatile gripping strips to manufacturing and homes.
Polymers with “gecko adhesion” surfaces could be used to make extremely versatile grippers to pick up very different objects even on the same assembly line. They could make picture hanging easy by adhering to both the picture and the wall at the same time. Vacuum cleaner robots with gecko adhesion could someday scoot up tall buildings to clean facades.
“With the exception of things like Teflon, it will adhere to anything. This is a clear advantage in manufacturing because we don’t have to prepare the gripper for specific surfaces we want to lift. Gecko-inspired adhesives can lift flat objects like boxes then turn around and lift curved objects like eggs and vegetables,” said Michael Varenberg, the study’s principal investigator and an assistant professor in Georgia Tech’s George W. Woodruff School of Mechanical Engineering.
Current grippers on assembly lines, such as clamps, magnets, and suction cups, can each lift limited ranges of objects. Grippers based on gecko-inspired surfaces, which are dry and contain no glue or goo, could replace many grippers or just fill in capability gaps left by other gripping mechanisms.
Drawing out razors
The adhesion comes from protrusions a few hundred microns in size that often look like sections of short, floppy walls running parallel to each other across the material’s surface. How they work by mimicking geckos’ feet is explained below.
Up to now, molding has produced these mesoscale walls by pouring ingredients onto a template, letting the mixture react and set to a flexible polymer then removing it from the mold. But the method is inconvenient.
“Molding techniques are expensive and time-consuming processes. And there are issues with getting the gecko-like material to release from the template, which can disturb the quality of the attachment surface,” Varenberg said.
The researchers’ new method formed those walls by pouring ingredients onto a smooth surface instead of a mold, letting the polymer partially set then dipping rows of laboratory razor blades into it. The material set a little more around the blades, which were then drawn out, leaving behind micron-scale indentations surrounded by the desired walls.
Varenberg and first author Jae-Kang Kim published details of their new method in the journal ACS Applied Materials & Interfaces on April 6, 2020.
Forget about perfection
Though the new method is easier than molding, developing it took a year of dipping, drawing, and readjusting while surveying finicky details under an electron microscope.
“There are many parameters to control: Viscosity and temperature of the liquid; timing, speed, and distance of withdrawing the blades. We needed enough plasticity of the setting polymer to the blades to stretch the walls up, and not so much rigidity that would lead the walls to rip up,” Varenberg said.
Gecko-inspired surfaces have a fine topography on a micron-scale and sometimes even on a nanoscale, and surfaces made via molding are usually the most precise. But such perfection is unnecessary; the materials made with the new method did the job well and were also markedly robust.
“Many researchers demonstrating gecko adhesion have to do it in a cleanroom in clean gear. Our system just plain works in normal settings. It is robust and simple, and I think it has good potential for use in industry and homes,” said Varenberg, who studies surfaces in nature to mimic their advantageous qualities in human-made materials.
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Gecko foot fluff
Behold the gecko’s foot. It has ridges on its toes, and this has led some in the past to think their feet stick by suction or some kind of clutching by the skin.
But electron microscopes reveal a deeper structure – spatula-shaped bristly fibrils protrude a few dozen microns long off those ridges. The fibrils make such thorough contact with surfaces down to the nanoscale that weak attractions between atoms on both sides appear to add up enormously to create overall strong adhesion.
In place of fluff, engineers have developed rows of shapes covering materials that produce the effect. A common shape makes a material’s surface look like a field of mushrooms that are a few hundred microns in size; another is rows of short walls like those in this study.
“The mushroom patterns touch a surface, and they are attached straightaway, but detaching requires applying forces that can be disadvantageous. The wall-shaped projections require minor shear force like a tug or a gentle grab to generate adherence, but that is easy, and letting go of the object is uncomplicated, too,” Varenberg said.
Varenberg’s research team used the drawing method to make walls with U-shaped spaces in between them and walls with V-shaped spaces in between. They worked with polyvinylsiloxane (PVS) and polyurethane (PU). The V-shape made in PVS worked best, but polyurethane is the better material for industry, so Vanenberg’s group will now work toward achieving the V-shape gecko gripping pattern in PU for the best possible combination.
Also read: Lung-heart super sensor on a chip tinier than a ladybug
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