The Future of Sustainable Technology
As the world continues to grow with new technologies, it’s important to create innovative solutions that lessen the negative impact this may have on the environment. Read below to learn how the benefits of sustainable, green, and clean technology can come into the picture.
On this resource page you’ll learn…
- The many ways that companies are committed to going green including transportation, conducting energy and waste management, cultivating agriculture, and building sustainably.
- How the industry of sustainable technology is expected to reach almost $62 billion (USD) by the year 2030 and what that means for the job market.
- Details for environmental engineering careers and opportunities to learn, train, and network with others in sustainable computing.
- How the increasing demand for environmental change calls for a discussion on ethics and standards as new challenges arise.
What is Sustainable Technology?
“…[Many] instantiations of computing collectively consume as much as 10% of the world’s electricity today, and this number may grow to be more than 20% by the decade’s end,” N. Ahmad and J. Williams, “Green and Sustainable Computing” in Computer magazine, 2023.
Sustainable technology utilizes engineering to develop products and solutions intended to meet present day needs without impeding the future environment. By encouraging environmentally friendly behaviors, resource conservation, and decreased environmental damage, sustainable technology strives to address urgent environmental and social concerns.
The Five Principles of Sustainable Development
To ensure that these goals are met and understood, five principles of sustainable development have been identified and defined:
Conservation of the Environment which relates to developing and maintaining an environment which contains minimal pollution.
Population Management and Control is an effort that ensures resources on Earth are distributed fair and evenly.
Sustainable Development of Society means that society should innovate itself without being at the expense of future generations.
Conservation of Biodiversity which aims to sustain the health of biodiversity within ecosystems.
Conservation of Human Resources refers to how human activities should also be conducted in a sustainable fashion.
A major advancement includes the decarbonization project, to which the majority of countries, including the US, have committed to. The goal of this initiative is to counterbalance all greenhouse gas emissions by 2050; in other words, reaching ‘net-zero.’ This works through a combination of reducing greenhouse gas emissions and absorbing carbon that’s already in the atmosphere. Making key aspects of our lives such as transportation, energy management, waste management, and agriculture more green can aid this effort.
The Role of Sustainable Technology in Sustainable Development and How it’s Applied
”Aside from individual choice and agency, the role of technology in sustainability may be the most important, since advancement in technology both informs and facilitates decarbonization and sustainability initiatives” states Hewlett Packard Enterprise Development.
Reaching net-zero is no small feat for the individual. Alternatively, the three largest sectors contributing to greenhouse gas emissions included transportation (28%), electricity (25%), and industry (23%) according to the EPA’s Report on U.S. greenhouse gas emissions by economic sector in 2021.
It’s important to take note of how sustainable technology can be key in reaching the goals of sustainable development. With its aid, the ability to generate renewable energy and monitor the overall climate can continue to be innovated. Specifically, this can be achieved with changes in transportation, smart grid adaptation, improved waste management, agriculture 4.0, and sustainable buildings.
Transportation and Mobility
Green tech and sustainability applications have great potential in the transportation sector because these newer technologies can focus on eliminating tailpipe emissions and can limit the negative effects vehicles have on climate change and pollution. According to the paper “Connected and Autonomous Electric Vehicles (CAEVs),” published in IT Professional, ”The powerful capabilities of connected and autonomous electric vehicles will make them a popular provider of a wide range of services, including mobility, sensing, computing, traffic control, and energy management.”
Originally quoted from 2018, this statement still holds truth, as the number of battery electric vehicles (BEVs) and plug-in hybrid electric vehicles (PHEVs) went up to 6.6 million in 2021 according to the 2022 Global EV Outlook Report. Furthermore, S&P Global Mobility anticipates that demand will continue to grow, as electric vehicles are projected to account for 40% of all new car purchases by 2030.
Hybrid and electric public transportation systems, such as trains and buses, also provide eco-friendly options for the infrastructure of cities. As more and more people opt for sustainable public transportation, the carbon footprint of the entire city shrinks; adding another benefit to this innovation is the potential savings in fuel costs, despite the resources needed upfront.
- Ethics, Safety, and Autonomous Vehicles
- Connected and Autonomous Electric Vehicles (CAEVs)
- Toward Full Autonomous and Networked Vehicles
- Data Centers on Wheels: Emissions From Computing Onboard Autonomous Vehicles
Smart Grids and Energy Management
Smart grids have long led the way in green and sustainable applications. According to Greenly, they’ve changed the trajectory on how we use power. This starts by creating a system that manages energy flow by using insights from real time data. This is important because these systems are able to generate just enough power to meet public needs without waste, and saving costs.
It doesn’t stop there. Smart grids have other benefits besides real time monitoring, such as automated outage management and faster restoration. As stated by the National Electrical Manufacturers Association (NEMA), “Smart Grid can minimize interruptions during an extreme weather event by effectively managing unplanned outages as well as enhancing the restoration of energy infrastructure after a storm, lessening the impact on human life and critical infrastructure.”
- Cybersecurity for the Smart Grid
- Smart Homes or Real Homes: Building a Smarter Grid with “Dumb” Houses
- A Real-Time Cosimulation Testbed for Electric Vehicle Charging and Smart Grid Security
- Research Challenges for Energy-Efficient Computing in Automated Vehicles
Waste Management, Water Purification, and Desalination
Similarly, waste management and water purification systems must incorporate e-waste recycling (electronic waste) to keep dangerous electrical components and chemicals away from ecosystems. This process helps prevent precious metals and unusable components from electronics from damaging soil and water resources when they’re being dumped in landfills. On top of the positive environmental impact, this within itself, creates an industry. “…[P]ublic pressure to recycle e-waste is having a major impact, and e-waste recycling is now one of the fastest-growing industries in the world,” Jan Krikke, IT Professional.
Desalination systems are another common application for green and sustainable tech because engineers are able to design them to run on renewable or recovered energy. Recovered energy solutions capture energy from desalination processes and use it to continue desalinating the water.
- Smart Waste Management Using Blockchain
- Challenges and Opportunities of Waster Management in IoT-Enabled Smart Cities: A Survey
- Data Center Cooling System Integrated with Low-Temperature Desalination and Intelligent Energy-Aware Control
- AI for Water
Food and Agriculture
Thanks to the sheer size of the food and agriculture sector, companies are able to significantly reduce energy footprints using green and sustainable technologies. Some of the most popular green technology and sustainable applications in agriculture include smart farming, water recycling, and optimized supply chains.
With the powers of IoT, smart farms can use communication technology to improve product quality and quantity, all while minimizing the need for human labor. Additionally, farms can recycle water by collecting the runoff from crops they’re watering and re-use it to irrigate their fields and greenhouses. This reduces water waste and the pollution of nearby rivers and lakes.
Growers and distributors can also use various technologies to trace food and ensure it isn’t wasted as it moves through the supply chain. Distributors also use green technology to optimize the timing of when cold foods get shipped and arrive at their destinations. This, in turn, reduces the energy burden created by the refrigerated vehicles that transport these goods.
- An Exploratory Analysis on Agritech Policies, Innovations, and Funding for Climate Change Mitigation
- IoT Based Smart Farming: Are the LPWAN Technologies Suitable for Remote Communication?
- Smart Agriculture Based on IoT and Cloud Computing
- On the Application of Internet of Things in Smart Agriculture
Building Green: Architecture, Construction, and Infrastructure
When introducing innovative practices and materials, sustainable technology plays a crucial role in the development of architecture and construction. Specifically, employing methods that foster environmental responsibility, energy efficiency, and long-term sustainability is key within this sector.
Starting with the foundation, Green Building Materials, which are eco-friendly and recycled materials that replace plastics and glass. These alternatives reduce the environmental impact of construction, promote resource conservation, and minimize waste generation.
Green practices extend to the technology being used in doors. HVAC (Heat, Ventilation, Air Conditioning) systems make up a large portion of energy consumption within a building. Energy efficient building designs, such as improved wall and window insulation, optimize usage of the air and cooling within a building. Additionally, energy-efficient lighting options not only contribute to reduced heat but also help determine the ideal number of luminaries needed in rooms without compromising lighting quality. These modifications, coupled with the integration of an HVAC Scheduling System, contribute to a reduction in energy output from these configurations. Utilizing such a system has the potential to save up to 49% in energy, according to researchers at the University of Pittsburgh.
Finally, Building Energy Management Systems monitor various activities related to power, gas, water, and more. With the capabilities of artificial intelligence, the systems collect data from these sources and monitor changes while forecasting future trends. By strategically mapping out this information, they can empower building occupants to devise better solutions for energy conservation.
- Design of Building Energy Monitoring and Management System
- Safe HVAC Control via Batch Reinforcement Learning
- A BIM-Based Design Method for Energy-Efficient Building
- On How to Design Smart Energy-Efficient Buildings
The Future of Sustainable Computing
The demand for green technology continues to increase. Especially when investments from today create a sustained environment for tomorrow. The green technology industry is expected to reach almost $62 billion (USD) by the year 2030 with an increasing compound rate of 20.8% according to Statista reports. Green technology has the potential to save companies money, improve productivity, and boost their brand image. This, according to Greenly, is because, “70% of shoppers believe brands should be sustainable and environmentally responsible, which poses a fantastic opportunity for brands willing to make the switch.”
Entering the Field
As always, a bright market forecast means a bright future for job opportunities. To aid computer scientists and engineers pursuing a path within sustainability, IEEE has put together resources, including forums, courses, conferences, and research.
IEEE forums relating to sustainability, environmental engineering, sustainable computing, EarthOS, and e-waste are available to the public. This is an opportunity to lean into the community and exchange ideas, all related to bettering our planet. Engage and network while learning and discovering more about sustainability.
Through IEEE’s Learning Network, a variety of courses are offered in an effort to further educate and train engineers with an interest in sustainable development. These courses include a multidisciplinary combination of sustainable project design, community engagement, supply chain management, and more.
Sharing different perspectives and connecting with those who want to make an impact through the powers of sustainability is vital. IEEE SustainTech is an event that will do just that. At its premiere event in 2024, the conference aims to open discussion on how technologies such as AI, IoT, autonomous systems, and electrification can improve our environment.
The Career Market
Not only do those who enter this field get to work with cutting edge technologies, they get to be a part of the wave that benefits the planet. The demand for jobs under the umbrella of an ‘environmental engineer’ is expected to grow 6% by 2032 as reported by the U.S. Bureau of Statistics. In general, a bachelor’s degree in environmental engineering or a related field can earn someone, on average, $96K (USD) upon entering the workforce according to the U.S. Bureau of Statistics. Below are a few examples of occupations that one can pursue. View estimates for other countries on salaryexpert.com
Renewable Energy Engineers
Renewable Energy Engineers create systems that generate low impact energy. This includes renewable energy resources such as windmills or solar panels. With the percentage of carbon dioxide emissions continuing to increase, these engineers use research, mathematics, design and testing to create technologies that sustain current day living without further damaging our future.
- Skills: Project management, mathematics, IT, knowledge of standards and protocols.
- Networking Opportunities & Research:
Environmental Data Scientists
Environmental Data Scientists analyze data related to key points of the environment such as air, water, soil, and ice. This information is then used to better understand the status of climate change, pollution, and public health. Scientists can then take these findings to create the reports that have the potential to influence law enforcement.
- Skills: Testing, environmental monitoring, data analysis, and reporting.
- Networking Opportunities & Research:
Waste Management Engineers
Waste Management Engineers manage the disposal and collection of waste, as well as recycling operations. Their goal is to ensure that waste materials are being handled in accordance with policy in areas such as landfills or how it’s transported.
Ethics & Standards
Ethics within sustainability involve nuanced challenges, and difficult decisions as more technology around it gets developed.
One of the primary concerns is the environmental cost of sourcing green technologies. For instance, a lot of green technology involves storing electricity inside batteries. Disposing of “green” power cells can harm the environment, putting dangerous chemicals into local ecosystems. Setting international standards and ethical best practices for the industry are needed to mitigate harm.
Many green initiatives also involve collecting data, which raises privacy concerns. For example, suppose a power company were to collect energy usage data from a factory. If the power company mishandled this information, the factory’s competition could use it to map out when it’s making products and estimate how many units it makes daily.
To meet these and other challenges, the IEEE Computer Society has established committees, guidelines, and data security standards that foster ethical green technology practices. For instance, IEEE 1922.2 improves the accuracy with which engineers can model the effect of generating electrical power.
IEEE has also taken aim at combating climate change and its associated effects. Using thoughtful technical solutions, IEEE helps lead technology innovators as they tackle a range of climate change-related issues. Explore and learn more about these efforts at the IEEE Climate Change website.
Prof. Dr. Luca Benini
In 2023, the IEEE Computer Society was proud to award those who have made a large impact within sustainable computing. The Edward J. McCluskey Award was given to Luca Benini, who has made groundbreaking contributions to energy-efficient chip designs such as ORIGAMI. Read more about him in this exclusive interview here.
Prof. Dr. Luca Benini holds the chair of digital Circuits and systems at ETHZ and is Full Professor at the Universita di Bologna. He received a PhD from Stanford University. He has been visiting professor at Stanford University, IMEC, EPFL. He has worked in Synopsys, Hewlett-Packard Labs and he served as chief architect in STmicroelectronics France. Prof. Dr.Benini’s research interests are in energy-efficient parallel computing systems, smart sensing micro-systems and machine learning hardware. Prof. Dr.Benini is the leader of the PULP (parallel-ultra-low power), an open source hardware platform based on the RISC-V ISA. In his early career, he made pioneering contributions to the fields of Networks-on-Chip, and design automation for low power digital circuits and systems. He has published more than 1000 peer-reviewed papers and five books. He is a Fellow of the IEEE, of the ACM and a member of the Academia Europaea. He is the recipient of the 2016 IEEE CAS Mac Van Valkenburg award, the 2020 EDAA achievement Award and the 2020 ACM/IEEE A. Richard Newton Award.
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- ESG Digital Transformation: Combining Sustainability and Digitization in Tech Upgrades
- Green Tech: IT and Environmental Sustainability
- How to Use Corporate Social Responsibility to Enhance Communication and Relationships
- Addressing Eco-Anxiety in Software Engineering Curricula
- How Cloud Design Can Support Sustainability and Improve Efficiency
- Sustainability Driven by Agriculture through Digital Transformation