AI uses a lot of computer power. Big models and AI systems in medical offices need many GPUs. These GPUs run nonstop for weeks or even months. Because of this, AI uses a lot of energy.
In 2023, data centers in the U.S. used 4.4% of all electricity. By 2028, this might almost triple because of more AI work. Between 2030 and 2035, data centers worldwide could use about 20% of the world’s electricity. This growth is not just from AI but also from more data storage and processing.
Training big AI models like GPT-3 used about 1,287 megawatt-hours of electricity. That is enough to power about 120 homes in the U.S. for a whole year. Asking AI assistants one question can use five to ten times more electricity than a simple web search.
Healthcare providers using AI tools, like Simbo AI’s phone systems, may add to this big energy use. Much of the electricity powering data centers comes from fossil fuels. These fuels release greenhouse gases that cause climate change.
Energy grids in big cities where healthcare facilities are located can feel stressed. IT managers and practice leaders should know that while AI helps with work, it also has a hidden energy cost that affects the environment.
AI data centers also use a lot of water. They need water mainly to cool the machines because AI systems generate a lot of heat.
In the U.S., one big data center like Google’s uses about 550,000 gallons of water every day. This is the same amount of water about 4,200 people use daily. Smaller data centers use tens of thousands of gallons each day. There are over 5,400 data centers in the country. Together, they use nearly 450 million gallons daily. That’s about 164 billion gallons a year, which is a big amount, especially since fresh water is scarce in many places.
Water for AI data centers is used in three main ways:
In places like Northern Virginia, where many data centers are, water use has jumped by over 60% in a few years. This puts pressure on local water supplies and harms nearby communities and nature.
Many companies only share their carbon emissions and not their water use. New laws like the Artificial Intelligence Environmental Impacts Act of 2024 and the EU AI Act now require water use reports. This will make it easier to track water use over time.
Healthcare leaders in dry areas need to know how much water cloud-based AI uses. They should look for data centers that save water or use renewable energy.
AI runs on physical parts like GPUs, servers, and circuits. These parts do not last forever. Because AI needs bigger and better equipment all the time, old parts become electronic waste, or e-waste.
Making AI hardware uses rare metals like cobalt, silicon, and gold. Mining these metals can harm the environment by causing soil erosion and polluting water. When e-waste is thrown away wrongly, it can poison soil and water with toxic materials.
In 2022, data centers got about 2.67 million AI-focused GPUs. In 2023, this number rose to 3.85 million. This shows that many hardware parts are being changed out, which creates more e-waste. Without better recycling and design, e-waste problems will grow.
Healthcare IT leaders and practice managers should talk to AI suppliers about how they handle hardware buying, disposal, and recycling. Choosing responsible options helps reduce environmental harm.
AI tools such as Simbo AI’s phone automation are quickly becoming common in U.S. medical practices. These tools help reduce staff work, make patient contact easier, and improve office tasks. However, the environmental impact of these tools is less clear but still important.
Servers and data centers that run AI use a lot of electricity and water. AI phone calls need computing power in large data centers with big energy and water needs.
While AI improves efficiency, practice managers should balance these benefits with environmental costs. Choosing AI partners who use green data centers and renewable energy can reduce environmental harm.
AI can also help by cutting paper use and improving office workflow, which may save resources. But these gains must be seen alongside the hidden costs of running AI technology.
Healthcare IT managers must think about where their cloud services are located, especially if those areas have water shortages or rely on fossil fuels. This affects the sustainability of AI services.
Over 190 countries, including the U.S., are aware of the ethical use of AI. Now there is more focus on its environmental effects. Laws like the U.S. Artificial Intelligence Environmental Impacts Act and the EU AI Act are part of new rules.
These laws require that companies be transparent about AI’s environmental impacts. This includes reporting on carbon emissions, water use, and e-waste. The laws also push for standard ways to measure these impacts.
Medical practices using AI should know about these laws. Using AI tools that follow environmental rules helps align with larger health and community goals.
There are new ideas and methods to reduce how much AI harms the environment:
Healthcare organizations can support these changes by working with AI providers who focus on these improvements and provide clear reports on their environmental impact.
Knowing the environmental challenges of AI helps healthcare leaders make smart choices. AI makes workflows faster and improves patient service. But it also raises energy, water, and e-waste issues mostly from data centers and hardware making.
Healthcare workers in the U.S. can help by:
Handling AI’s environmental footprint connects to healthcare’s goal of keeping people well. It means caring for health through medical work and protecting the environment in the digital era.
AI’s environmental problem includes high energy consumption, electronic waste generation, heavy water usage, and reliance on rare minerals often mined unsustainably, leading to significant greenhouse gas emissions and resource depletion.
AI can detect data patterns, anomalies, and predict outcomes, enhancing environmental monitoring accuracy. It helps track harmful emissions such as methane and assists governments and businesses in making sustainable decisions and improving resource efficiencies.
Data centres consume massive electricity, mostly from fossil fuels, generate electronic waste with hazardous substances, require large water quantities for cooling, and depend on rare earth minerals mined destructively, cumulatively impacting the environment negatively.
Higher-order effects include unintended consequences such as increased greenhouse gas emissions from AI-enabled technologies like self-driving cars and the potential spread of misinformation about environmental issues, undermining public awareness and climate action efforts.
UNEP recommends measuring AI’s impact with standardized methods, enforcing transparency in environmental disclosures, improving algorithm and hardware efficiency, greening data centres with renewables, and integrating AI policies into broader environmental regulations.
AI-related infrastructure may consume up to six times more water than Denmark, a country of 6 million, posing serious concerns given global water scarcity and the lack of access to clean water by many.
A single request to an AI virtual assistant like ChatGPT uses ten times more electricity than a Google Search, illustrating AI’s high energy demands relative to conventional digital activities.
The number of data centres surged from 500,000 in 2012 to 8 million currently, driven largely by AI’s explosion, thereby greatly intensifying energy and resource consumption associated with computing infrastructure.
While data centre impacts are better understood, AI’s broader environmental effects are uncertain due to unpredictable application usage, second-order consequences, and potential behavioral changes driven by AI technologies.
Over 190 countries have non-binding ethical AI recommendations including environment, with some legislation in the EU and USA; however, environmental considerations are often absent in national AI strategies, highlighting a policy gap in sustainable AI governance.