Renewable Energy Integration in Aus – Reactive Power Requirements of the New National Electricity Rule
Digital Substations: overview and experiences
Digital Substations: overview and experiences
19 February 2020 - Gavin de Hosson
The Digital Substation: Overview and Experiences presentation will introduce the emerging field of IEC 61850 based digital substation equipment using sampled values and GOOSE messages. The presentation will highlight key differences to conventional constructions and introduce key components such as process interface units and the need for a robust time synchronisation system. The presentation will also recount practical experiences with digital substation equipment, including the digitisation of a substation busbar and implementation of a distributed low impedance busbar protection scheme.
Gavin de Hosson is a Senior Protection Engineer with Endeavour Energy with ten years of experience in the electricity supply industry. Specializing in Power System
Protection, previous experience included a team leader role to conduct, coordinate and review power system studies, protection system designs, post
fault investigations, and investment planning proposals. Recent focus has been the review IEC 61850 digital substation equipment for opportunities
to support greenfield substation secondary system designs.
Modular Switch Buildings – Lessons from Practical Rollouts and Value Engineering
Modular Switch Buildings – Lessons from Practical Rollouts and Value Engineering
18 November 2019 - David Platt
The following content will be covered by the presentation:
David Platt - Principal Switchgear Engineer
David holds an Honours degree in Engineering from the University of Sunderland, UK. He is dual skilled in mechanical and electrical engineering, with over 28 years’ experience in electrical transmission and distribution. Having begun his career with a high voltage switchgear manufacturer in the UK, David transitioned into Consultancy, which has seen him travel the world. Prior to moving to Australia, David spent 4 years in the United Arab Emirates, working as Owners Engineer, project managing the installation of mobile substations and standby generators in many of the leading Sheikh’s palaces.
David has supported Asset Engineering for a number of electrical utilities in the UK and Australia. He has also served as lead Electrical Engineer on several wind and mining projects. David’s current role at AusNet Services covers both MV and EHV switchgear assets. It requires him to specify equipment, provide engineering support in the execution of projects, investigate equipment failures and develop asset management strategies.
Insulation Co-ordination for Transmission & Distribution Equipment
Insulation Co-ordination for Transmission & Distribution Equipment
07 November 2019 - Colin Lee
EESA is pleased to present Colin Lee, a long-time electricity industry professional, who will present on the topic of Insulation Coordination.
Insulation coordination encompasses the studies and steps used to select the insulation strength of electrical equipment so that it can survive the operating and transient overvoltages (from lightning and switching) which it is subjected to over its life. A good knowledge of insulation coordination will generally lead to the optimal amount of insulation, but to adequately address lightning strikes some form of overvoltage protection is still required, such as the installation of shielded earthwires or surge arresters.
Colin will go through the insulation coordination principles outlined in the various standards and how to apply it using worked examples to select the insulation requirements for transmission and distribution equipment.
Colin Lee has had more than 41 years’ experience in the electric utility business in both transmission and distribution utilities in Queensland, with his last role as Lead (or Principal) Engineer for Energy Queensland. Colin extensive knowledge and expertise encompasses Planning, Protection, Transmission and Distribution design including the development of Policies and Standards.
Colin has been a member of a number of ENA committees and forums and chaired the Australian Standards committee which developed the overhead line design standard AS/NZS7000 and accompanying handbook HB331.
We are excited to have the opportunity to tap into Colin’s extensive knowledge and experience of design, maintenance and operation of overhead transmission and distribution lines.
Network Connection Opportunity Maps
Network Connection Opportunity Maps
25 September 2019 - Frank Bucca and Matthew Brooks
The Network Opportunity Maps was developed subsequent to the development of the DAPR Network Mapping Portal. The mapping portal was seen as a powerful tool to provide information in the public domain in an easy to understand and accessible fashion. The purpose of the Network Opportunity Maps is to inform developers, local councils and other regulatory bodies and parties of where spare network capacity exists to enable lower cost connections to the network. This will reduce the time required for developers and other network connection applicants for identifying suitable development sites. This will ultimately improve network utilisation and lead to lower network costs to all customers.
Frank Bucca, Network Demand Manager at Endeavour Energy
Responsible for demand forecasting and investigating and implementing demand management programs. Has been working in the field of demand management since 1999.
Matthew Brooks, Non Network Solutions Engineer at Endeavour Energy
Investigates non network solutions to network constraints to help ensure economically efficient network augmentation and replacement.
Distribution Voltage Management, High PV Penetrations and the 230V Transition
Distribution Voltage Management, High PV Penetrations and the 230V Transition
27 August 2019 - Peter Kilby
There has been a rapid increase in the connection of distributed solar photovoltaic (PV) systems in Queensland over the last decade. This has led to a range of challenges for the distribution networks including reverse flows and voltage rise on distribution feeders which traditionally only supplied loads. As a result there has been an increased range in steady-state voltage regulation on the low voltage (LV) network. Reductions in LV levels to transition from the 240V to the 230V standard have helped reduce overvoltage, increasing PV hosting capacity. Ongoing increases in steady state voltage rise on distribution feeders, associated with rising PV penetrations, will continue to increase voltage regulation. This becomes problematic where voltages already swing significantly between the upper (253V) and lower (216V) statutory limits as is observed on rural networks and increasingly networks with high existing PV penetrations.
This presentation will cover:
Peter Kilby – Intelligent Grid Engineer at Energy Queensland
Peter is an Intelligent Grid Engineer at Energy Queensland with a focus on distribution voltage management practices and the integration of high penetrations of DER. After completing a Bachelor of Engineering with honours in Electrical Engineering and a Bachelor of Science majoring in Physics in 2009, he joined Energex, the South East Queensland distributor, which later merged with Ergon Energy to become part of the Energy Queensland Group. He has worked in a range of areas including standards, substation design, voltage management and DER integration.
Electrolysis Corrosion Caused by Stray Current
Electrolysis Corrosion Caused by Stray Current
14 August 2019 - Jim Hickey
Corrosion of metals can be categorised into four main types. The least aggressive forms of corrosion can be attributed to general corrosion where anodes and cathodes distribute corrosion currents on the surface of a metal which are typically in the order of µA or smaller. A more aggressive type of corrosion can be found when the anode/cathode driving voltage increases due to contact between dissimilar metals in a common conductive medium such as water or earth. This type of corrosion is known as galvanic corrosion and typically is another order of magnitude higher then general corrosion. The next level more aggressive then galvanic corrosion is electrolysis corrosion or commonly referred to as stray current corrosion. This type of corrosion is caused by stray current from dc sources such as cathodic protection systems, battery charging facilities and sola generation etc. With the increased driving voltages due to the use of external power sources, stray current in the ampere range can cause rapid corrosion by conduction through 3rd party assets that share the common medium of earth or water. Arguably, the most severe form of corrosion is due to stray traction current where corrosion current magnitudes readily reach ten to hundreds of amps.
This webinar outlines the characteristics of electrolysis corrosion with an emphasis on stray traction current effects and management strategies.
Jim Hickey, Ausgrid, Newcastle, Australia
Jim Hickey is the Electrolysis Engineering Officer at Ausgrid. Jim has over 36 years’ experience with Energy Authorities covering electrical testing, earthing design and assessment and electrolysis corrosion fields. Jim is also the Chairperson for the NSW Electrolysis Committee and is an active member of the Australian Electrolysis Committee and the Australasian Corrosion Association NSW and Newcastle Branches. As Ausgrid’s ACA accredited Corrosion Technologist, Jim is responsible for managing the electrolysis corrosion aspects of Ausgrid’s electrical network.
Commercial Asset Management and the ISO55000 Series
Commercial Asset Management and the ISO55000 Series
26 June 2019 - John Hardwick
This webinar is about the implementation of commercial asset management, specifically, how can an organisation manage their assets in a way that maximises usage and return both in terms of framework and implementation. Also, how compliance with the ISO55000 series of standards benefit an organisation and how can they transform their organisation to realise these benefits.
John Hardwick, Executive Director Sydney, Roads and Maritime Services
Qualifications GAICD, CFAM, EMBA
John commenced as Executive Director Sydney in April 2017. Prior to joining Roads and Maritime, John was Head of Asset Management for Ausgrid, where he delivered ongoing savings of over $30 million per annum and the successful lease of the network business. Previously John held a number of senior management positions including Head of Network Strategy at Networks NSW, where he led key transformations and cost savings for three electricity distribution businesses (Ausgrid, Endeavour and Essential Energy). He did this by developing and implementing consistent frameworks and strategies for asset management and safety.
John is a graduate of the Australian Institute of Company Directors and serves as a board member for numerous global and Australian asset management organisations and co-authored the book Living Asset Management. In 2018 John was awarded the MESA medal by the Asset Management Council. The MESA Medal is awarded to an individual who has personally contributed at the highest level to the advancement of the science and/or practice of asset management.
John is accountable for the end-to-end management of the Sydney road network. This includes investment prioritisation, planning, asset management, operations, maintenance and performance.
In 2017/18 John successfully implemented a new structure for Sydney Division to align to the OneRMS operating model which commenced in April 2017. The new structure enables better outcomes for Sydney customers, increases Divisional productivity and reduces duplication.
The Sydney Division consists of North West and South East Precincts, Sydney Planning, Sydney Maintenance, Easing Sydney’s Congestion and Program Controls.
Key responsibilities of the division include:
STATCOM Solutions for Voltage Management on Distribution Systems
STATCOM Solutions for Voltage Management on Distribution Systems
13 June 2019 - Ryan Rainville
Increased penetration of renewable generation resources (e.g., wind and solar), driven by defined targets for the amount of renewable generation mix, is pushing the performance of today’s transmission grids to new limits in many regions. To ensure a secure and reliable operation of the grid, the Australian utilities and regulators provide direction through their updated interconnection requirements. In this webinar series, reactive power requirements of the new National Electricity Rule (NER) are reviewed for its impact on renewable energy projects.
Meanwhile, on the distribution system, distributed energy sources (DER) in the form of PV solar installations are becoming more prevalent. The existing distribution systems face challenges, including power quality, voltage stability, and reverse power flow.
Solutions that provide secure and reliable power are needed. AMSC is conducting this workshop to increase awareness on the following subjects:
The workshop will include basic concepts on STATCOMs, renewable energy integration, reactive power compensation, active and reactive power transmission and voltage stability. In-depth analysis of actual voltage stability events along with a discussion on modern methods to prevent such events will be discussed. Attendees will also be able to learn about some of the latest developments in modeling tools and techniques. These techniques will allow power system planners to appropriately identify and address potential problems and ensure compliance of the renewable plants to local codes and requirements.
The workshop is an outstanding opportunity for consultants, engineers and developers who are involved in planning, operation, design, specification, installation and maintenance of transmission and distribution assets, renewable energy or large industrial and mining facilities.
Ryan Rainville - Engineer, AMSC
Mr. Rainville joined AMSC’s Network Planning and Applications group in 2018. His responsibilities include software modeling and analysis of the electric power system for voltage support, transient stability, and hosting capacity. Prior to joining AMSC he worked 2.5 years in ControlPoint Technologies’ System Planning Group. While there, he evaluated the system impact of intermittent resources on distribution and subtransmission circuits. Before ControlPoint he worked for 3.5 years at Green Mountain Power and managed the technical aspects of distributed generator interconnections from the application stage through commissioning. Mr. Rainville has experience evaluating the dynamic voltage impact of cloud passage and PV, wind variability and turbines, storage resources in frequency regulation markets, and static VAR compensators. His past work also included disturbance analysis, relay coordination studies, arc flash assessment, and microgrid development. He received his B.S degree in electromechanical engineering from Wentworth Institute of Technology and his E.I.T. certification in the state of Massachusetts.
SCADA – EESA’s Fundamentals series
SCADA – EESA’s Fundamentals series
9 May 2019 - Peter Poulos
How well do you know the technology your remote systems and control rooms depend upon?
While perhaps not a flavour of the month like the topical “Internet-of-Things” or “Deep Learning” SCADA (Supervisory Control And Data Acquisition) and related operational technology disciplines are a key enabling infrastructure of many industries.
Technology will continue to evolve rapidly and change some of the ways we provide the remote monitoring and control of assets. The fundamental need to deliver these services in a robust manner is increasing. The exponential growth in telecommunications capacity driven by the internet, mobile computing and the growth of home automation makes it easier and cheaper than ever to remotely control and monitor almost anything.
Just as SCADA practitioners leverage knowledge from other domains, some of lessons the SCADA domain has collectively learnt from over the last 80 odd years might be worth considering.
The talk will cover:
Peter Poulos, Energy Queensland
Peter is an Electronic Engineer working on SCADA and Telecommunications systems and standards for Energy Queensland.
From his initial undergraduate thesis project with Leeds & Northrup Australia to the present day, Peter has been involved in communication and control systems work of one form or another for more than 20 years.
Having had the good fortune to work closely with and learn from bright and experienced experts both local and international, from both the end-user corporation side and the product development side, Peter is well placed to provide a holistic overview of the Fundamentals of SCADA.
STATCOM Solutions for Voltage Stability and Power Quality Problems
STATCOM Solutions for Voltage Stability and Power Quality Problems
9 May 2019 - Bilgehan Donmez & Ryan Rainville
Increased penetration of renewable generation resources (e.g., wind and solar), driven by defined targets for the amount of renewable generation mix, is pushing the performance of today’s transmission grids to new limits in many regions. To ensure a secure and reliable operation of the grid, the Australian utilities and regulators provide direction through their updated interconnection requirements. In this webinar series, reactive power requirements of the new National Electricity Rule (NER) are reviewed for its impact on renewable energy projects.
Meanwhile, on the distribution system, distributed energy sources (DER) in the form of PV solar installations are becoming more prevalent. The existing distribution systems face challenges, including power quality, voltage stability, and reverse power flow.
Solutions that provide secure and reliable power are needed. AMSC is conducting this workshop to increase awareness on the following subjects:
The workshop will include basic concepts on STATCOMs, renewable energy integration, reactive power compensation, active and reactive power transmission and voltage stability. In-depth analysis of actual voltage stability events along with a discussion on modern methods to prevent such events will be discussed. Attendees will also be able to learn about some of the latest developments in modeling tools and techniques. These techniques will allow power system planners to appropriately identify and address potential problems and ensure compliance of the renewable plants to local codes and requirements.
The workshop is an outstanding opportunity for consultants, engineers and developers who are involved in planning, operation, design, specification, installation and maintenance of transmission and distribution assets, renewable energy or large industrial and mining facilities.
Bilgehan Donmez - Lead Engineer, AMSC
Ryan Rainville - Engineer, AMSC
Renewable Energy Integration in Aus – Reactive Power Requirements of the New National Electricity Rule
Renewable Energy Integration in Aus – Reactive Power Requirements of the New National Electricity Rule
11 April, 2019 - Tim Freiberg
Increased penetration of renewable generation resources (e.g., wind and solar), driven by defined targets for the amount of renewable generation mix, is pushing the performance of today’s transmission grids to new limits in many regions. To ensure a secure and reliable operation of the grid, the Australian utilities and regulators provide direction through their updated interconnection requirements. In this webinar series, reactive power requirements of the new National Electricity Rule (NER) are reviewed for its impact on renewable energy projects.
Meanwhile, on the distribution system, distributed energy sources (DER) in the form of PV solar installations are becoming more prevalent. The existing distribution systems face challenges, including power quality, voltage stability, and reverse power flow.
Solutions that provide secure and reliable power are needed. AMSC is conducting this workshop to increase awareness on the following subjects:
The workshop will include basic concepts on STATCOMs, renewable energy integration, reactive power compensation, active and reactive power transmission and voltage stability. In-depth analysis of actual voltage stability events along with a discussion on modern methods to prevent such events will be discussed. Attendees will also be able to learn about some of the latest developments in modeling tools and techniques. These techniques will allow power system planners to appropriately identify and address potential problems and ensure compliance of the renewable plants to local codes and requirements.
The workshop is an outstanding opportunity for consultants, engineers and developers who are involved in planning, operation, design, specification, installation and maintenance of transmission and distribution assets, renewable energy or large industrial and mining facilities.
Tim Freiberg - Engineer, AMSC
Mr. Freiberg joined American Superconductor in 2008 as a Technical Inside Sales Engineer, and AMSC’s Network Planning and Applications team in 2014. As a Sales Engineer, his responsibilities included specification review and the preparation and pricing of proposals for AMSC’s STATCOM and SVC products. Currently he performs studies for wind farms and other renewable resource interconnection, as well as transmission and distribution voltage stability and load growth. These studies include load flow analyses, harmonic analyses, and dynamic simulations to design reactive compensation solutions. He earned his B.S. in Electrical Engineering from Milwaukee School of Engineering and is a member of IEEE.
STATCOM Equipment Capabilities and Model Validation Required to Meet AEMO Guidelines
STATCOM Equipment Capabilities and Model Validation Required to Meet AEMO Guidelines
21 March, 2019 - Bilgehan Donmez
Increased penetration of renewable generation resources (e.g., wind and solar), driven by defined targets for the amount of renewable generation mix, is pushing the performance of today’s transmission grids to new limits in many regions. To ensure a secure and reliable operation of the grid, the Australian utilities and regulators provide direction through their updated interconnection requirements. In this webinar series, reactive power requirements of the new National Electricity Rule (NER) are reviewed for its impact on renewable energy projects.
Meanwhile, on the distribution system, distributed energy sources (DER) in the form of PV solar installations are becoming more prevalent. The existing distribution systems face challenges, including power quality, voltage stability, and reverse power flow.
Solutions that provide secure and reliable power are needed. AMSC is conducting this workshop to increase awareness on the following subjects:
The workshop will include basic concepts on STATCOMs, renewable energy integration, reactive power compensation, active and reactive power transmission and voltage stability. In-depth analysis of actual voltage stability events along with a discussion on modern methods to prevent such events will be discussed. Attendees will also be able to learn about some of the latest developments in modeling tools and techniques. These techniques will allow power system planners to appropriately identify and address potential problems and ensure compliance of the renewable plants to local codes and requirements.
The workshop is an outstanding opportunity for consultants, engineers and developers who are involved in planning, operation, design, specification, installation and maintenance of transmission and distribution assets, renewable energy or large industrial and mining facilities.
Bilgehan Donmez - Lead Engineer, AMSC
Mr.
Donmez joined AMSC’s Network Planning and Applications group in 2016. His responsibilities center around technical studies and research on electric
power systems, as well as developing computer models and software tools to simulate and analyze power system networks. He is experienced in utilizing
load flow, dynamic and electromagnetic transient, and harmonic analyses, to design solutions that address electrical power systems’ challenges and
constraints. Prior to joining AMSC he worked for 5 years at ISO New England as a Real-Time Studies Engineer in the Operations Department, where he
provided engineering support to the control room for the day to day operation of the New England electric grid. Before the ISO, he worked at National
Grid as a Transmission Planning Engineer for 3 years. Mr. Donmez earned his B.S. degree in electrical engineering from the joint engineering program
of University of Missouri and Washington University in St. Louis. He received his M.S. degree in electrical engineering from Northeastern University
and is currently pursuing his Ph.D. degree there. He is a member of the IEEE.
