IEEE P60255-118-1/D6, Oct 2016

P60255-118-1/D6, Oct 2016 is an English technical document focused on synchrophasor measurements for power systems, giving guidance for how phasor-based quantities are determined and assessed in electrical networks. It sits within the Power, Energy and Industry Applications area and is relevant to components, circuits, devices, and system-level engineering where measurement consistency matters. For projects that depend on time-synchronized data, this standard helps define a clearer basis for evaluation, interoperability, and performance comparison.

P60255-118-1/D6, Oct 2016 overview

This standard addresses the measurement side of synchrophasors in power system applications, with emphasis on how electrical quantities are represented and verified in a synchronized context. As a technical specification, P60255-118-1/D6, Oct 2016 is useful where accurate phase, magnitude, and timing relationships must be managed across equipment and monitoring systems. Its scope supports engineering teams that need a common reference for measurement behavior, test planning, and system alignment in power network environments.

Typical use cases

P60255-118-1/D6, Oct 2016 is commonly used in power system monitoring, wide-area measurement setups, and equipment qualification where synchrophasor data is central to operation or analysis. It may apply to measurement units, protective relays, control systems, and other grid-facing devices that rely on synchronized electrical measurements. The document is also relevant during integration work, when comparing instrument performance or checking that data output aligns with expected power system measurement practices.

Why this standard matters

For teams working with power and energy systems, this standard helps reduce ambiguity around synchrophasor measurement requirements and supports more consistent engineering decisions. Using P60255-118-1/D6, Oct 2016 can improve procurement comparisons, test consistency, and design control when different devices must exchange or interpret synchronized data reliably. It also helps limit performance risk by providing a clearer technical basis for measurement-related compliance and validation activities.

• Synchrophasor measurement context
• Power system timing and phase alignment
• Testing and verification reference
• Grid monitoring and control applications
• Equipment interoperability checks