AI’s green future: Balancing innovation and the environment
Singtel Global Services
Your trusted service provider for a secure, sustainable, and tech-driven future
Artificial intelligence (AI) technology enhances efficiency, data accuracy, and decision-making across industries worldwide. Yet, as we turn to AI for sustainable technologies like IoT devices and edge computing to manage smart buildings and reduce resource usage, we end up using more energy.
Addressing the development, maintenance, and disposal of AI-based machinery components is critical as AI becomes more integral to business operations.
Powering up with energy-efficient AI
To address AI's high energy demands, we must focus on optimising its systems through algorithm optimisation.
AI researchers and developers are improving algorithms to perform efficiently without compromising accuracy. Techniques include:
Responsible resource use in AI development
As AI technology advances, it’s crucial to address the responsible use of resources required for developing and deploying AI systems.
By adopting the following practices, enterprises can minimise the environmental impact of their AI hardware production and promote a more responsible use of resources.
a. Ethical sourcing of AI hardware
b. Recycling and reuse initiatives
Technologically advanced mitigation strategies
The large carbon footprint associated with training AI models can be reduced with end-to-end energy management strategies. Incorporating 5G and the Internet of things (IoT) can significantly enhance operational efficiency and sustainability in more ways than one:
a. Data centre optimisation
Optimising data centre operations involves implementing energy-efficient cooling and power systems to reduce overall energy consumption. Advanced technologies like liquid cooling systems and AI-driven climate control help maintain optimal operating temperatures for servers, reducing the need for traditional, energy-intensive cooling methods.
Where 5G and IoT come in: These technologies enable real-time monitoring and control of cooling systems, allowing for precise adjustments that optimise energy usage. IoT sensors provide data on temperature, humidity, and airflow, while 5G ensures fast and reliable communication between sensors and control systems.
b. Edge computing
Implementing edge computing reduces the need for constant data centre interaction by processing data locally, thus reducing latency and minimising energy consumption. Edge devices can handle real-time data processing, allowing data centres to focus on more extensive computational tasks.
Where 5G and IoT come in: These technologies support edge computing by providing the connectivity and data transfer speeds needed for efficient local processing and real-time decision-making.
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c. Energy monitoring tools
Real-time energy monitoring tools track energy usage across AI operations, providing valuable insights to identify areas for reducing energy consumption. Smart meters and energy management platforms, for instance, offer detailed data and comprehensive analytics to monitor and manage energy use effectively.
Where 5G and IoT come in: 5G facilitates the rapid transmission of data from IoT sensors to monitoring platforms, enabling real-time analysis and response. Meanwhile, IoT devices can continuously collect data on energy consumption, allowing for immediate identification and rectification of inefficiencies.
d. Transparent stakeholder collaboration
Establishing optimal partnerships between AI developers, data centre operators, and energy providers fosters transparent collaboration. Solutions offering an end-to-end view of the supply chain on single-source collaborative platforms ensure that energy-saving measures are aligned across all levels, promoting holistic energy management.
Where 5G and IoT come in: IoT sensors collect real-time energy data, and low-latency 5G networks transmit this data quickly to monitoring systems. Together, they enable immediate analysis, precise adjustments, and seamless communication between stakeholders, optimising energy usage and collaboration.
Data-driven environmental monitoring
Leveraging cutting-edge technologies to monitor and manage the environmental impact in real time is essential for sustainable AI operations:
a. Digital twin-powered monitoring
Digital replicas of data centres and AI operations, developed using advanced IoT and 5G technologies, provide real-time data to monitor and manage environmental impact through predictive analysis, which:
b. Robust risk management
Implementing a robust risk management approach is essential for safeguarding the development of sustainable AI practices. By ensuring data quality, rigorous testing, and robust cybersecurity measures, enterprises can enhance the efficiency and sustainability of their AI operations.
It is through these risk management strategies, that businesses can enhance the sustainability of their AI operations, ensuring they are resilient, efficient, and environmentally responsible.
Embrace green AI today for a greener tomorrow
In short, adopting sustainable AI practices is crucial for long-term business viability and environmental preservation. Addressing AI’s high energy consumption, resource use, and implementing mitigation strategies ensures a balanced approach to innovation and environmental responsibility.
Ready to integrate sustainable AI practices?
Leverage our forward-thinking solutions like Singtel Paragon , which enables AI capabilities at the edge, reducing data centre trips and lowering energy consumption. Meanwhile, our next-generation data centres, such as Nxera , are designed to optimise operations and reduce environmental impact, ensuring sustainability in every technological advancement.
Read our eBook to explore how enterprises can navigate AI's green future responsibly.
Contact us today to jumpstart your sustainable AI journey.