Welcome to The Long View—where we peruse the news of the week and strip it to the essentials. Let’s work out what really matters.
This week: Data centers cause climate change, and Meta is rolling out Precision Time Protocol. (more…)

The rise of remote workforces, cryptocurrencies and super-sized data centers brings to the forefront a concern in tech development that doesn’t get enough attention: The impact of computing and advanced technologies on the environment.
About six months into the pandemic, people began to notice cleaner air, clearer water and an overall calming effect on the environment in the reduced presence of industry. Memes were created and widely circulated that suggested maybe we were the problem after all.
That lasted for about six weeks before cabin fever set in, and we became impatient and ready to get back to business as usual.
In the time between the last quarter of 2020 and the sudden waxing and waning of NFTs, a few timid voices again raised concerns about the impact of super-computing and other technologies on the environment. Those concerns eventually became muffled amidst socioeconomic and political turmoil, fears about inflation, staff shortages and logistical issues surrounding supply chain disruption.
App development tried to fill some of those gaps and new data centers appeared as we struggled to find our footing again in a post-pandemic world.
While environmental issues have been a matter of growing concern for decades, the past few years have put a particularly intense focus on the issue, with entire industries growing up around everything from climate-friendly investing to carbon offsets, and more. The environmental impact of technology has become an issue yet unresolved in spite of a growing focus on sustainability.
The typical DevOps journey focuses mainly on how app development will impact an organization. Rarely does it address how development impacts the environment.
In addition to factors like improving time-to-market, reducing human error, debugging and making financial resource management more efficient, part of your DevOps strategy should include ways to reduce your carbon footprint and impact on the planet.
First, it helps to understand exactly how technology affects the climate and depletes natural resources so you can incorporate sustainable development into your plan in a meaningful way.
Even relatively passive use of technology, like video streaming and remote collaboration, for example, has the potential to consume more power than entire countries. Add up all of the hours of Netflix, Zoom meetings and other remote activities and ponder the implications.
To become part of the solution, it’s important to do more than just invest in green businesses. Here are some steps you can take to clean up your DevOps process and become part of the solution rather than contributing to the problem.
Software engineering and DevOps are increasingly embracing new territory and emphasizing sustainable engineering. The first step in the right direction is to become aware of how power and resources are consumed during your development cycle.
Consider:
In the realm of sustainable engineering, the process can be broken down into three categories: Technical, operational and environmental. The goal is to balance these aspects to monitor and optimize the development process and do the least amount of damage possible.
Once you’ve identified areas of risk and set goals for sustainable software engineering, use the results to create and enforce a set of development best practices that better support environmentally responsible design and production. If you need some help or ideas, you can model your own initiatives after these emerging standardization principles.
In 2021, more than 200 countries signed the Glasgow Climate Pact, solidifying their commitment to reducing their carbon footprint and resultant environmental damage from tech development and use. The conference brought together stakeholders from businesses, government agencies and others to share information and create standards and best practices for sustainable computing and tech development.
Tech giants like Google, Amazon, and Microsoft are creating tools to help DevOps and IT monitor and measure the environmental impact of everything from cloud computing to app development. Seek out and incorporate these tools into your own set of best practices or work on creating your own solutions.
Tech development is intended to improve our quality of life and reshape how we conduct business. There’s no reason that intention shouldn’t extend to the world in which we live and engage in commerce.
The first step toward combating climate change without negatively impacting development is understanding how technology affects our environment. Then, we can make informed decisions that support responsible, sustainable DevOps.

The pandemic highlighted many things, not least of which was the shift in consumer behavior toward further encouraging companies to change their operations and act with sustainability in mind. An overwhelming 96% of businesses said the pandemic shifted their focus to the social component of environmental, social and governance (ESG) strategies. Technology has been a key player in helping corporations quantify and tackle ESG issues in their sectors.
A recent PwC and WEF report outlining the use of technology to drive large-scale sustainable change looked at 300 cases of emerging technology in relation to achieving global sustainable development goals. The study found 70% of their 169 targets could be enabled by technology applications.
With the link between sustainability and technology clear to see, here’s where technology and innovative thinking are boosting sustainability in three key industry areas.
With 30% of overall greenhouse gas emissions stemming from power plants, it is not surprising that utility companies are under intense scrutiny and pressure to transition to green energy. Many are actively investing in renewable energies such as wind farms, hydro stations and solar power. “Green steel” is at the center of America’s 2030 greenhouse gas pollution reduction target, and the U.S. already generates around 11.4 million tons of hydrogen per year. All eyes are on these green steel initiatives that are showing that, with the right resources, there is plenty of potential to decarbonize the U.S. energy, utilities and resources sector.
A Swedish partnership, which includes Europe’s largest iron ore producer and IFS customer LKAB, has delivered the first fossil-free steel in the world. The steel was made with 100% fossil-free hydrogen instead of coal and coke—paving the way for a completely fossil-free value chain for iron and steelmaking.
As experienced by LKAB, enterprise software can strategically support the shift to a more sustainably focused energy, utilities and resources sector. To thrive, new business collaborations and joint ventures must be agile and able to develop at pace, unencumbered by restrictive enterprise solutions; to achieve both these goals, cloud deployment and full supply chain sustainability is key.
The manufacturing sector is another major industry facing complex challenges—and opportunities—on the path to sustainability. The time is now for manufacturers to drastically change their linear approach of material, manufacture, dispose and move toward a circular economy of reduce, reuse, recycle. This means adopting reverse logistics methods enabling manufacturers to integrate more environmentally friendly practices into their manufacturing processes.
According to a recent Deloitte op-ed, “Through the use of digital technology, manufacturers may already have a head start in their sustainability journey. In recent years, the implementation of lean processes using digital capabilities has boosted productivity, created safer workplaces and reduced costs.” For example, enterprise resource planning (ERP) software is helping manufacturers to develop and maintain the overall life of a product by using data and tracking of which areas need more sustainable practices. For instance, manufacturers embracing a circular model can rely on ERP software to help them maintain, recondition, recycle and support a product over an extended life cycle.
And again, the software can incorporate environmental footprint management tools to capture the footprint of their product over its life cycle and present information that can be used for better decision support. By analyzing the percentage of post-consumer waste used in a product, manufacturers can then see where they can maximize the reutilization of components and preempt sustainability challenges.
Every industry has a part to play in reducing carbon emissions, and the aerospace sector is no different, so it’s necessary and right that the industry is taking significant steps toward improved sustainability. Some of the key enabling technologies that will support this are highlighted by Global Data in its Thematic Research on ESG in Aerospace and Defense. The report highlights: “Electric aircraft, hydrogen-powered aircraft, and sustainable aviation fuels (SAFs) are key innovations that will shape the future of air travel. Improving social sustainability is vital for companies seeking to earn government contracts, increasing visibility and improving management throughout the whole supply chain will be vital.”
Leading original equipment manufacturers (OEMs) are highlighted in the report for applying innovative thinking to solve industry emissions challenges. Rolls-Royce, for example, has already announced the first flight of its all-electric “Spirit of Innovation” aircraft and has committed that by 2023 all of its Trent family engines will have been proven compatible with 100% SAF.
The Rolls-Royce Trent, a family of high bypass turbofans produced by Rolls-Royce, has been able to help airline customers automatically update predicted maintenance deadlines for every life-limited component inside their engines by using AI forecasting and digital twins through IFS aviation maintenance software. This forms a key part of the Rolls-Royce Blue Data Thread strategy; a digital information thread connecting every Rolls-Royce-powered aircraft, every airline operation, every maintenance shop and every factory.
More effective maintenance will also translate into sustainability benefits. As the aviation industry moves toward a greener future, digitalization and predictive maintenance are important elements for the engineering side of the industry. By reducing the need for maintenance interventions, part replacements and overhauls, the use of energy and resources in manufacturing is reduced, and the emissions footprint of part and engine logistics is minimized.
These are just three industries where technology is playing a pivotal role in achieving ESG goals. The case is clear: Sustainability initiatives can be accelerated by here-and-now technology such as IoT, AI, cloud deployments and more, not space age or future–focused solutions. The link between meeting customer demands, fulfilling environmental goals and greater profitability has never been closer. Technology will be a strategic business enabler to achieve all three.

Digital technology is responsible for 3.7% of total CO emissions, according to estimates from The Shift Project. This could increase, as cryptocurrency mining is leaving a massive carbon footprint. With the world’s climate at stake, every percentage point matters.
Thankfully, many tech companies have announced significant climate pledges to reduce emissions or offset their carbon footprint. For example, Microsoft states they will be carbon neutral by 2030. Amazon has committed to a deadline of 2040, and other companies such as Infosys have co-signed. Netflix’s climate commitment states they will reach net-zero greenhouse gas emissions by the end of 2022.
Sustainability goals are vital long-term benchmarks, but on-the-ground technologists must make immediate optimizations to realize them. So, what exact steps can enterprise IT take to reduce their energy consumption and thereby reduce greenhouse gas emissions?
I recently met with Anant Adya, Infosys, to explore the overall energy footprint of enterprise technology. Below, I’ll cover 10 ways IT can reduce its impact on the environment, including actions like auditing legacy infrastructure, optimizing cloud operations and moving toward renewable energy sources. Many of these energy optimizations bring the added benefits of cost savings and code consolidation.
One potential cause of unnecessary energy consumption is legacy infrastructure. To reduce power consumption, Adya recommends going straight to a network compute storage setup. You may find energy consumption savings by porting resource-heavy legacy systems to the cloud. This will be especially effective if you’re running older end-of-life machines with less efficient processing.
Next, look at the number of clouds your organization has adopted, Adya recommended. In recent years, companies have moved to multi-cloud setups for reasons like performance, cost or features. However, these movements could cause unnecessary duplication. For a large enterprise, refactoring your multi-cloud usage could mean reducing from five or six clouds to two or three, said Adya. With the right combination, you could very likely reach equivalent benefits with less reliance on multiple clouds.
Look at the number of sites in your core data centers and reduce the footprint, if possible. In his digital transformation work, Adya described working with a client to consolidate six large data centers into three essential locations — one for disaster recovery and two others to support American and European zones.
Large organizations may be supporting a lot of edge infrastructure. Yet some locations, such as offices, don’t require that kind of infrastructure, Adya suggested. He recommended reducing local servers and embracing more cloud-based computing solutions, overall. He described one case in which an organization consolidated 600 edge sites to 350, thus reducing power consumption by 40%. Adya credited the cloud for delivering lower costs and greater scalability and resiliency.
Cloud computing is arguably more energy efficient than traditional on-premises arrangements with its pay-per-use model and multi-tenant approach. To get the most out of the cloud, Adya recommended moving to the cloud, along with adopting cloud-native software. Most operational and administrative work can be processed in the cloud, he noted.
Another way to stem energy consumption is to check for underused or forgotten assets. While the cloud can help optimize software, there is a good deal of unnecessary cloud spending on underused resources. In 2020, companies wasted $17.6 billion paying for idle resources and overprovisioned computing instances, reported ParkMyCloud. Adya thus recommended looking at the entire server and storage estate to calculate the server utilization and slimming down wherever possible.
Hardware is much more efficient these days — sometimes by as much as 10X more powerful with 10X less energy consumed. As storage technologies also are always improving, it could make sense to upgrade to new hardware to reduce overall power usage. It’s important to monitor power usage effectiveness (PUE) and check power ratings before and after migrations. Adapting your information life cycle management tiering practices for storage could also help optimize to reduce wasted power, Adya added.
Have you ever driven by an office park at night and seen thousands of empty rooms with all the lights on? This has got to change. Another way to reduce power is to limit a campus’s energy consumption, described Adya. Smart automation and remote monitoring could be used to manage power efficiency by turning off lights and heating and cooling to meeting rooms when empty, for example.
Run your campus with solar power. Adya described how Infosys is doing this by mounting 40MW solar panels at their corporate centers, in effect sourcing 43% of its energy from renewable sources. Another more passive way to invest in renewables is to choose a data center provider that commits, under contract, to using a high percentage of renewable energy.
The previous goals are all active steps to reduce energy requirements. However, once an organization has attempted these optimizations, another option is carbon offsetting. This indirect method effectively cancels out a company’s emissions by funding green activities, such as tree planting.
However, there is debate over the effectiveness of carbon offsetting, as trees take decades to become effective carbon consumers, and the practice doesn’t advocate for immediate change to harmful practices. “To be serious about tackling climate change, [organizations] need to stop carbon emissions from getting into the atmosphere in the first place,” wrote Alia al Ghussan for Greenpeace.
Dire climate circumstances require quick action from all business units. In the process, organizations will likely consider many initiatives simultaneously to address their climate impact. However, as more companies become digital-first businesses, the onus falls on IT to support these changes.
In addition to the above actions, there are undoubtedly other ways enterprise software architects can stimulate sustainability initiatives within their organization. This could include refactoring code into more lean iterations or eliminating unnecessary records storage. Tech leaders could also vocalize their support for global pledges, such as the Paris Climate Agreement, RE100 or Global Optimism.
It would take a solar power plant covering 115,625 square miles, roughly the size of New Mexico, to power the world with solar energy! As you can see, it will take a lot of work to reverse our reliance on fossil fuels. But with scalable cloud computing and more intelligent infrastructure optimizations, IT can do its part to contribute to curbing climate change.