Power Industry
Case studyUtilities

Power Industry

Nanosecond-accurate synchronisation for grid stability, substation automation and renewable integration.

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The increasing complexity of modern power grids — driven by renewable integration, distributed generation and rising cybersecurity threats — demands highly precise time synchronisation to maintain operational stability, efficiency and security. According to the International Energy Agency, Taiwan's energy demand is projected to grow by 25% by 2040. A major Taiwanese power utility deployed TimeBeat Open TimeCard technology to address persistent synchronisation errors causing phase mismatches, false alarms in protection relays, and excessive blackout duration.

For a successful technology, reality must take precedence over public relations, for nature cannot be fooled.

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The challenge

Identified challenges

The utility's grid network suffered timing drifts of up to 120 milliseconds that resulted in inaccurate phase angle measurements, reducing the efficiency of grid balancing mechanisms and increasing the likelihood of cascading failures.

Synchronisation errors and grid instability

Timing drifts of up to 120 milliseconds resulted in inaccurate phase angle measurements, reducing the efficiency of grid balancing mechanisms and increasing the likelihood of cascading failures.

Delayed fault detection and response

Misaligned event logs and inaccurate timestamping meant relay protection systems failed to react in real-time to electrical faults, increasing the average blackout duration by 15%.

Compliance and operational risk

The company faced challenges in meeting IEC 61850 compliance requirements, with substation automation relying on outdated NTP systems that lacked the precision required for mission-critical applications.

Cybersecurity vulnerabilities

Existing timing systems were vulnerable to GPS spoofing attacks, which could manipulate timestamps and disrupt grid operations.

The solution

Implementation of a high-precision timing solution

The utility deployed a high-precision timing architecture incorporating TimeBeat Open TimeCard technology to achieve sub-nanosecond synchronisation across substations and control centres.

Step 01

Infrastructure assessment & upgrade

A comprehensive audit of existing timing architecture, identifying points of failure and assessing network latency.

Step 02

Deployment of Open TimeCard nodes

Installing highly accurate timing sources at strategic locations to provide IEEE 1588 PTP and GNSS-based synchronisation.

Step 03

SCADA & protection relay integration

Ensuring seamless interoperability with IEC 61850-compliant substation automation systems.

Step 04

Cybersecurity reinforcement

Implementing tamper-resistant timestamping and authentication mechanisms to safeguard against timing-related cyber threats.

Step 05

Testing & validation

Phased testing reduced synchronisation errors from 500 microseconds (legacy system) to sub-100 nanoseconds.

The results

By the numbers

120 ms → < 100 ns

Drift elimination

30%

Reduction in transmission losses

45%

Faster blackout resolution

17%

Renewable dispatch efficiency gain

Outcomes

01

Improved grid stability

Enhanced synchronisation accuracy led to a 30% reduction in transmission losses and improved system resilience against frequency fluctuations.

02

Optimised fault response time

Real-time fault detection improved blackout resolution by 45%, minimising operational downtime.

03

Regulatory compliance

The upgraded system fully complied with IEC 61850 and NERC standards, ensuring long-term stability and operational integrity.

04

Cybersecurity hardening

Secure, tamper-proof timestamps improved forensic analysis of security incidents, reducing vulnerability to GPS spoofing and cyber-physical attacks.

05

Enhanced renewable integration

Refined synchronisation capabilities facilitated a 17% increase in renewable energy dispatch efficiency, ensuring grid stability despite fluctuating solar and wind power inputs.

Conclusion

The deployment of TimeBeat Open TimeCard technology within the Taiwanese power generation sector underscores the essential role of high-precision timing in modern grid stability, security and efficiency. By mitigating synchronisation-related risks and enhancing fault response mechanisms, power utilities can future-proof their infrastructure against growing energy demands and evolving cybersecurity threats.

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In their words

Hear it from the team that built it

Three short clips from the engineers who deployed and operate this timing fabric — what worked, what surprised them, what they'd do differently.

Why timing matters for the grid

30 seconds from the operations manager.

What we replaced

The legacy fabric that came before.

The compliance angle

Auditing and the regulator conversation.

The infrastructure of time

Built for the networks that can’t afford to drift.