Some of these goals include reducing project completion time, eliminating project backlogs, improving customer satisfaction and gaining the ability to look into the future with grid resiliency in mind. However, this simply changes the way existing information is stored and accessed without adding further value to the data or the business process that was digitized. In fact, the Smart Electric Power Alliance (SEPA) recently identified digitalization as a vital industry need based on an extensive utility survey. Ltd., for her research, editorial, and design contributions, and Rithu Thomas, assistant manager, Deloitte Support Services India Pvt. Companies will roll out change management strategies and activities to shape this new culture—and those strategies will likely incorporate incentives, rewards, https://power-at-work.com/how-construction-equipment-can-help-in-implementing-circular-economy-practices/ and performance milestones to encourage desired behaviors and practices.
AI-driven workforce scheduling reduces overtime costs by 20% in utility operations Smart meters enable real-time theft detection, reducing revenue loss by 18% in India, per Power Grid Corporation Digital twin technology for power grids is used by 19% of utilities, with 80% reporting improved grid resilience The number of utility-scale energy storage systems paired with digital controls grew by 40% in 2022 By 2025, 50% of distribution feeders will be automated, up from 22% in 2020, per IEEE 85% of utilities use data analytics to optimize asset performance, with an average https://pagemakers.net/building-a-sustainable-home-eco-friendly-design-and-construction/ ROI of 2.3x
- Companies will roll out change management strategies and activities to shape this new culture—and those strategies will likely incorporate incentives, rewards, and performance milestones to encourage desired behaviors and practices.
- A distribution system operator (DSO) in Europe uses an asset analytics platform that enables risk-based asset management and investment planning.
- Over the coming decades, digital technologies are set to make energy systems around the world more connected, intelligent, efficient, reliable and sustainable.
- In this scenario, broad adoption of higher levels of automation is coupled with strong increases in demand for travel, and no efficiency benefits materialise (e.g. no platooning or eco-driving).
- By continuously analyzing data from sensors and connected devices, Mímir identifies subtle patterns and early warning signals that often precede equipment failures, whether it’s a pump, pipeline, or distribution node for utilities, as well as for the energy industry.
Advanced analytics provide real-time insights and forecasts at every level—from grid-wide performance to individual user patterns. Beyond asset health, Mímir also detects unusual consumption behavior, such as sudden spikes or drops in usage, potentially pointing to leaks, inefficiencies, or tampering. Instead of relying on routine checkups or reactive fixes, utilities can schedule maintenance precisely when it’s needed—just before a failure is likely to occur. By continuously analyzing data from sensors and connected devices, Mímir identifies subtle patterns and early warning signals that often precede equipment failures, whether it’s a pump, pipeline, or distribution node for utilities, as well as for the energy industry. Digitizing operations isn’t just about automation—it’s about ensuring the right information reaches the right people at the right time. In the evolving utility landscape, the future workforce must be supported by intelligent systems that capture, retain, and deliver expertise at scale.
Choosing the Right Tech Vendor for Digital Transformation in Utilities and Energy Industry
Policy and market design are vital to steering digitally enhanced energy systems onto an efficient, secure, accessible and sustainable path. In the long term, one of the most https://master-your-business.com/what-are-the-latest-trends-in-innovation/ important potential benefits of digitalisation in the power sector is likely to be the possibility of extending the operational lifetime of power plants and network components, through improved maintenance and reduced physical stresses on the equipment. A highly digital and automated workflow keeps the design fabric woven throughout the entire process, leading to more efficient workflows and improved asset management.
It also provides automatic updates that feed both upstream and downstream systems, offering near real-time reconciliation between the proposed design and as-built construction. Parts of the design can be mapped iteratively rather than waiting months or longer for the final design to be constructed in the field. This work order processing approach supports large-scale construction projects by enabling utilities to post sections of the design to the GIS in an energized, as-built state. The design fabric is either fully maintained throughout the as-built workflow in this framework or digitally reconstructed in the field, for example, by sketching with GPS (Track and Trace). In the pinnacle framework, the digital as-built is recorded when the materials and spatial as-builts are integrated as part of the seamless design fabric, rather than as separate layers or markups. However, while the as-built reconciliation methods can be digital in this framework, an intact design fabric can only be fully maintained when there is integration between the data sources.