IEEE 1547.1 Test Tools
Enabling an Efficient and Automated Testing of IEEE 1547.1 Interoperability
IEEE 1547.1-2020-based certification has been mandated in many states, including California and Hawaii, with many others requiring the same standards to be met. QualityLogic’s IEEE 1547.1 Test Tool has helped many OEMs and NRTLs in their execution of the IEEE 1547.1/UL 1741SB certification testing since 2021. The test tool has also been an essential component of many OEMs’ ability to pass official NRTL-based certification.
Fully Automated Data Analysis!
Our new IEEE 1547.1 Analysis feature provides participating customers access to fully automated data analysis – built on the expertise we have gained from delivering this type of analysis to OEMs before/during the actual NRTL certification.
Introducing QualityLogic’s IEEE 1547.1 Test Tools
With the approval and adoption of IEEE 1547.1-2020 and the September 2021 update to UL 1741 Version 3, the inverter industry now has an opportunity to standardize its communications interactions with grid operators. QualityLogic leveraged its experience and know-how with IEEE 2030.5 to develop the IEEE 1547.1 Interoperability Test Tool for the interoperability testing required in UL 1741 SB. We also added support for SunSpec Modbus and DNP3 Interoperability testing requirements in UL 1741 SB and went further to support Type tests using all three protocols.
Unlike protocol testing, UL 1741 SB is a functional test specification (based on IEEE 1547.1-2020) that requires an actual inverter product (unit under test) to be set up in an inverter testing lab with a grid simulator, DC power supply, and data capturing equipment. Using the popular SCPI interface, QualityLogic’s 1547.1 test tools have a complete equipment management module that automatically sets starts and manages the lab equipment settings and data capture for each Interoperability and Type test defined in UL 1741 SB. All of the equipment control is “out-of-the-box” for supported equipment: no scripting is required. By standardizing the management of inverter testing equipment, QualityLogic’s 1547.1 test tools provide a quantum leap in efficiency and quality of UL 1741 SB testing and certification.
The most important value of the toolset is the automation of the IEEE 1547.1/UL 1741 testing process. UL 1741 SB testing can take 8 – 12 weeks to complete all the required setup, testing, and analysis. By automating much of the process using QualityLogic’s 1547.1 test tools, significant time savings can be realized, and your product can get to market faster.
IEEE 1547.1 Training Workshop
QualityLogic offers a training workshop for companies interested in learning about the IEEE 1547.1 / UL 1741 SB-based standards and certification testing.
Since 2021, QualityLogic has helped OEMs and NRTLs by providing an in-depth technical workshop that provides fundamental knowledge of IEEE 1547, UL 1741 SB, and testing of each of the IEEE 1547 grid support tests by using a live inverter lab for the workshop attendees. QualityLogic’s training workshop provides attendees with a deeper understanding of the standards and teaches the technical skills needed to conduct the testing defined in UL 1741 SB.
IEEE 1547.1 Interoperability and Type Tests
IEEE 1547.1 test standard defines Interoperability Tests that require using a DER communication protocol to configure and manage the target DER device. Using the supported protocol, a set of tests are defined that validate the DER device for interoperability.
- DER Communication Protocol – IEEE 2030.5, IEEE 1815 (DNP3), or SunSpec Modbus are the supported protocols for DER devices to be supported. One of these protocols must be supported by the target DER device under test as a local communication interface.
- Nameplate Data Tests – Verifies that a set of nameplate data can be read from the target DER using one of the three supported protocols.
- Configuration Information Tests – Verifies that a set of DER settings can be read and adjusted using one of the three supported protocols. The DER settings will be independently compared to the reported values from the connected test equipment.
- Monitoring Information Tests – Verifies that a set of DER-monitored data can be reported by the DER using one of the three supported protocols. The monitored data will be independently compared to the reported values from the connected test equipment.
- Management Information and Type Tests – Verifies that a set of grid support functions can be communicated through the use of the supported DER communication protocol and that the desired effect be implemented by the target DER at the power level. These tests leverage the 1547.1 Type tests that are defined for the required grid support functions.
- Constant Power Factor Mode*
- Voltage-Reactive Power Mode*
- Active Power-Reactive Power Mode*
- Constant Reactive Power Mode*
- Voltage-Active Power Mode*
- High-Voltage Ride Through
- Low-Voltage Ride Through
- High-Frequency Ride Through
- Low-Frequency Ride Through
- Voltage Trip Test*
- Frequency Trip Test*
- Frequency Droop Test*
- Enter Service and Cease to Energize and Trip Tests*
- Limit Maximum Active Power Test*
- Volt Var Imbalanced Grid
- Volt Watt Imbalanced Grid
- Voltage Frequency Regulation Priority Tests
*Required for Interoperability Tests
Key Features of the New QualityLogic IEEE 1547.1 Test Tools
NEW! Automatic Data Analysis: Measurements of the DER’s 1547-based behaviors will be automatically analyzed against the IEEE 1547 required accuracies so that the user can quickly determine whether their DER device is in compliance or not – saving hours of time over users manually analyzing the collected data.
Test Equipment Automation: Automation is included right out of the box and does not require the user to write a single line of automation script. Each 1547.1 FTS test case remotely controls and monitors the list of required Test Equipment.
Automation Support: 1547.1 FTS test tool has REST API functions that enable customers to use automation scripts to control and execute 1547.1 tests.
New IEEE 1547.1 FTS and Type Tests: Supports the IEEE 1547.1 Interoperability Tests Section 6 and Type Tests Section 5. Includes support for Nameplate Data test, Configuration Information Test, Monitoring Information Test, and Management Information Test sections.
DER Protocols: Supports the 2030.5 and SunSpec Modbus communications required by each of the IEEE 1547.1 Interoperability tests with the target DER. DNP3 is supported based on the customer’s interests.
End-to-End Testing: 1547.1 FTS performs end-to-end testing where the DER is configured and managed through the selected DER Protocol while the power-based testing and verification are performed in an automated fashion.
Customizable 1547.1 Test Values – Enables the user to modify the test values that are used during testing, such as the values that are used during each grid code test.
Product Architecture
QualityLogic 1547.1 FTS automates the DER protocol messaging to the smart inverters and remotely manages the various test equipment required to perform 1547.1-based tests.
IEEE 1547.1 Supported Equipment List
A key feature of the QualityLogic 1547.1 Test Tools is the ability to manage the lab equipment required for conducting both Interop and Type tests. The management of the equipment includes changing settings as a part test, monitoring status, and capturing the electrical behavior for the unit under test. Management is done through the Standard Commands for Programmable Instruments (SCPI). Below is our currently supported list. We continue to add new equipment to our portfolio of tested equipment so if your favorite lab system is not listed, talk with us about adding it.
- Grid Simulators: Ametek MX, NHR 9xxx Models, Chroma 61xxx Models, NF, Keysight SL Models, ITech/Rexgear IT7900 Series, Regatron TC.ACS Models
- PV/DC Supplies: Magna SL Models, Keysight N8900, Chroma PV, Terra SAS, Regatron, Ametek SGX, Sorensen/Ametek SGi600/33C, TDK
- Data Collection Devices (or Power Analyzer): Dewetron, Chroma, Virtrek, Yokogawa, WT3000, WT5000, PX8000, and similar models.
- Oscilloscope Devices: Yokogawa DL750/850/950 and similar models, Instek GDS-2104A, Agilent, Virtrek, Teledyne Lecroy, Rhode & Schwarz, Tektronix
Ready to Learn More About Our 1547.1 Test Tools?
If you are interested in expediting your certification process, contact us today. We’ll also send you a complimentary data sheet on the QualityLogic 1547.1 Test Tools to share with your team.
Frequently Asked Questions About IEEE 1547
What does the IEEE 1547-2018 standard focus on regarding the interconnection of distributed energy resources (DERs)?
The IEEE 1547-2018 standard primarily concentrates on the interconnection and interoperability of utility electric power systems (EPS) with distributed energy resources (DER). This standard outlines the technical specifications and testing protocols necessary to ensure a secure and efficient integration of DERs, such as synchronous machines, induction machines, and power inverters/converters, into the power grid.
Key components of the standard include:
- Performance and Operation: It sets forth requirements that govern how these resources perform and operate when connected to the grid.
- Testing and Safety: Safety considerations and rigorous testing procedures are established to maintain the integrity of the power system.
- Maintenance: Guidelines for ongoing maintenance are provided to ensure the continued reliability of the interconnected systems.
- Response to Abnormal Conditions: The standard addresses DER behavior under abnormal grid conditions, focusing on maintaining power quality.
- Islanding Prevention: Provisions are included to detect and prevent unintended islanding scenarios.
- Design and Evaluation: It also covers specifications and requirements for the design, production, installation evaluation, commissioning, and periodic testing.
- Universal Applicability: The criteria cater to all DER technologies connected to typical primary or secondary distribution systems, with a particular focus on radial distribution networks.
This comprehensive framework emphasizes ensuring that DERs operate effectively within the power grid, particularly on a 60 Hz source.
What technical specifications and requirements are covered in the IEEE 1547 series?
The IEEE 1547 series stands as a comprehensive framework addressing the interconnection of electric power systems (EPS). This series is pivotal for ensuring consistency and reliability when integrating distributed energy resources.
Key Areas Covered:
- General Requirements: Establishes foundational rules and guidelines for the safe and effective interconnection of systems.
- Performance and Operation: Outlines the expected levels of performance, including operation under different conditions.
- Response to Abnormal Conditions: Details how systems should react to irregularities, ensuring stability and safety.
- Power Quality: Offers specifications to maintain high standards of electrical power quality, crucial for seamless integration.
- Islanding: Provides directives on managing islanding scenarios, where a portion of the grid operates independently.
- Testing and Maintenance: Defines the necessary tests—type, production, and commissioning—required to validate system integrity both initially and periodically.
Specific Considerations:
- Technical Specifications:
- Covers design and installation criteria.
- Involves guidelines on evaluating and commissioning distributed resources.
- Design and Alternative Approaches:
- Suggests best practices for the optimal design and integration of distributed resource island systems.
- Encourages innovative approaches while maintaining core safety and performance standards.
- Secondary Networks:
- Offers insight into managing both spot networks and grid networks, ensuring robust power distribution.
This meticulous approach guarantees that whether working with synchronous machines, induction machines, or power inverters/converters, the guidelines set forth in the IEEE 1547 series will facilitate a smooth interconnection process for various installations.
What are the IEEE 1547 series standards for interconnecting distributed resources with electric power systems?
The IEEE 1547 series sets forth critical guidelines and standards for connecting distributed energy resources (DERs) to electric power systems. This series serves as a foundational framework for ensuring that these connections are efficient, safe, and reliable.
Key Components of the IEEE 1547 Series:
- Technical Specifications and Testing: The standards outline the necessary technical criteria and testing protocols required for DERs interconnecting with power systems. This includes performance, operation, and safety assessments.
- Response to Abnormal Conditions: They provide guidelines on how systems should react to unusual conditions, maintaining stability and security within the grid.
- Power Quality and Islanding: These standards also deal with power quality issues and include measures to prevent ‘islanding’—a condition where a power generator continues to power a location without a central grid connection.
- Testing and Maintenance Requirements: There’s a significant focus on regular testing and maintenance to ensure all interconnections operate effectively over time. This includes design, production, installation evaluation, commissioning, and periodic tests.
- Design and Integration Guidance: Recommendations for alternative approaches and best practices for designing and integrating DERs with power systems are also provided. The guidance covers both spot networks and grid networks.
- Project Implementation Tips: Practical tips and techniques for implementing DER projects are included to aid in seamless integration into existing power systems.
Importance of the IEEE 1547 Series
The IEEE 1547 standards are indispensable for ensuring the harmonious integration of various distributed resources like synchronous machines, induction machines, and power inverters or converters with the electric grid. They aim to facilitate compatibility across different installations and enhance the reliability of electric power systems globally.
These guidelines, updated periodically, reinforce the standards to accommodate emerging technologies and evolving grid requirements, ensuring a robust infrastructure that meets the needs of both current and future power systems.
What recommendations does the IEEE 1547.6-2011 standard provide for interconnecting distributed resources on distribution secondary networks?
The IEEE 1547.6-2011 standard offers comprehensive guidelines for integrating distributed resources (DR) with electric power systems, specifically focusing on distribution secondary networks. These networks encompass both spot and grid networks, and the standard lays out crucial considerations for seamless interconnection.
Key Recommendations:
- System Design and Components: The standard provides an overview of the design and key components involved in distribution secondary networks. It highlights the need for understanding the unique configurations of these systems to ensure proper integration of distributed resources.
- Operational Considerations: It outlines critical operational factors when connecting DR to these networks. This includes ensuring that the existing infrastructure can support new connections without compromising reliability or efficiency.
- Interconnection Solutions: IEEE 1547.6-2011 suggests potential solutions to facilitate the interconnection process. These solutions aim to address common challenges faced when integrating DR with network distribution systems.
- Compliance with Existing Standards: The standard complements the existing IEEE Std 1547-2003, which mandates the general requirements for interconnecting DR with electric power systems. While Std 1547-2003 focuses on radial distribution circuits, 1547.6-2011 provides additional insights specifically for networked systems.
By following these recommendations, organizations can ensure that their distributed resources integrate smoothly into existing electric power systems, maintaining both safety and efficiency.
What does the IEEE 1547.7-2013 guide offer regarding conducting distribution impact studies for distributed resource interconnection?
The IEEE 1547.7-2013 guide is designed to enhance the process of conducting distribution impact studies for distributed resource (DR) interconnections. While it forms part of the larger IEEE 1547 series, this guide uniquely focuses on alternative methods and best practices for evaluating the potential effects of connecting DRs to electric power distribution systems.
Rather than insisting on compliance with previous standards like IEEE 1547-2003, this guide encourages flexibility by not making specific interpretations or imposing additional requirements. It acknowledges that DR interconnections can sometimes lead to unforeseen conditions within the distribution network. As such, it advises on a variety of engineering studies that can assess and mitigate these impacts effectively.
What sets this guide apart is its emphasis on defining the criteria, scope, and range for these engineering studies. It stresses the importance of tailoring study scopes and extents to the particular characteristics of the DR, the electric power system (EPS), and the specifics of the interconnection. The overarching goal is to ensure consistency in impact assessments while allowing for a clear understanding of which studies are technically necessary. This is all anchored in a commitment to transparency and relevance in analyzing DR interconnections.
What alternative approaches and practices are outlined in the IEEE 1547.4-2011 guide for integrating distributed resource island systems?
The IEEE 1547.4-2011 guide lays out innovative methods and effective practices for integrating distributed resource (DR) island systems with electric power systems (EPS).
Key Points Outlined in the Guide
- Seamless Separation and Reconnection: One of the primary focuses is ensuring that DR island systems can autonomously disconnect from, and later re-establish connections with, parts of the main area EPS. This allows for reliable power provision even when the system is temporarily islanded.
- Holistic Integration Strategies: The guide emphasizes creating an interconnected system that encompasses various distributed resources, the interconnection systems themselves, and the participating electrical power systems. This integration aims to enhance reliability and efficiency across the network.
- Operational Flexibility: By promoting these practices, the guide encourages flexibility in operation and management, enabling systems to adapt to both planned and unexpected changes in grid dynamics.
This comprehensive approach ensures that DR island systems can effectively supplement and maintain grid stability, especially in scenarios where traditional grid power may be disrupted or unavailable.
What guidance does the IEEE 1547.3-2007 guide offer for monitoring, information exchange, and control?
The IEEE 1547.3-2007 guide provides a comprehensive framework to support monitoring, information exchange, and control for distributed energy resources (DERs). This standard is pivotal as it ensures effective interaction between various systems and devices within power networks.
Key Guidance Areas
1. Monitoring Strategies
The guide outlines effective strategies for monitoring the performance and reliability of distributed energy resources. It emphasizes the use of real-time data to assess operational status and identify potential issues swiftly. By implementing these strategies, utilities can enhance system reliability and operational efficiency.
2. Information Exchange Protocols
IEEE 1547.3-2007 details protocols for seamless information exchange between different stakeholders, including grid operators, DER providers, and regulatory bodies. It highlights the importance of standardized data formats and secure communication channels to ensure data integrity and accessibility.
3. Control Techniques
To maintain grid stability, the guide provides techniques for controlling DERs. It covers various control methodologies that allow for responsive adjustments to power production, aligning supply with demand effectively. These techniques help in optimizing resource use while maintaining grid reliability.
Benefits
- Enhanced System Reliability: By following the monitoring guidelines, operators can decrease downtime through proactive maintenance.
- Improved Communication: Streamlined information exchange fosters better collaboration between stakeholders.
- Increased Flexibility: Advanced control methods enhance the ability to integrate diverse energy sources seamlessly.
The IEEE 1547.3-2007 guide serves as a valuable resource for professionals in the energy sector, enabling them to handle the evolving landscape of distributed energy with confidence and precision.