About the Southeast Asia Human Capacity Development Fellowships Program
The CSIRO Southeast Asia Energy Transition Human Capacity Development (SEA-HCD) Fellowships Program aims to strengthen the capability of energy sector professionals across Southeast Asia to support the transition to more affordable, secure, and sustainable energy systems.
The Fellowship provides an opportunity for Southeast Asian professionals from energy ministries, utilities, and research institutions to undertake a three-month placement with CSIRO in Australia. Fellows work on real-world energy transition challenges relevant to their organisations, with guidance from CSIRO experts and access to Australia’s research and industry networks.
In 2026, the Fellowship will support high-performing professionals from Malaysia’s Tenaga National Berhad (TNB) and Electricity Generating Authority of Thailand (EGAT).
The SEA-HCD Fellowship is managed by CSIRO and funded by the Department of Foreign Affairs and Trade (DFAT).
Purpose of Fellowship
The Fellowship aims to
- Equip participants with practical knowledge and learnings from Australia to manage high shares of variable renewable energy (VRE) and distributed energy resources (DER)
- Enhance research capability and promote continuous learning through joint research and academic engagement
- Build long-term professional networks and partnerships across the region
These outcomes contribute to stronger organisational capacity, improved systems thinking, and greater ability among participants to design, implement, and lead energy transition initiatives in their home countries.
Fellowship Focus Areas
Research projects under the Fellowship should address key technical challenges related to the energy transition, including:
- Integration of variable renewable energy (VRE) into power systems
- Management of distributed energy resources (DERs)
- Planning and operation of energy systems with higher shares of VRE and DER
Priority Project Themes
Priority will be given to project proposals that align with one or more of the following themes and reflect the needs and priorities of the applicant’s home organisation.
| Theme | Description |
|---|---|
| 1 | Inverter Design
Development of capabilities, services, design methodologies and standards for inverter-based resources (IBRs) to ensure power system reliability. |
| 2 | Stability Tools and Methods
New tools and methods are required to ensure reliability, security and stability in power systems with more IBRs, as traditional synchronous machines continue to be phased out. |
| 3 | Control Room of the Future
Development of new technologies and approaches for enhanced real-time visibility and analysis in power system operator control rooms. |
| 4 | Planning
New planning metrics, methods, and tools to capture the characteristics and influence of a changing |
| 5 | Restoration and Black Start
Creating new procedures for black starting and restoring a power system with high or 100% IBR penetration. |
| 6 | Services
Quantifying the technical service requirements of future power systems to maintain the supply-demand balance reliably and at least cost with higher penetration of renewables. |
| 7 | Architecture
Identifying appropriate future power system architectures for coordinating new technology capability, regulatory approaches, market design, and the distribution/transmission interface in a highly distributed, variable renewable energy-based system to support an orderly power system transition. |
| 8 | Distributed Energy Resources (DER)
Investigating the challenges and opportunities from very high levels of DERs to make power system control and operation more effective. |
| 9 | DER and Stability
Modelling and analysis of DER dynamic responses to ensure system operators can maintain power system security under very high DER penetration. |
| 10 | Cost-informed Power System Transition Modelling
Developing transparent modelling approaches that connect technology costs, generation-storage-transmission investment, system reliability, and emissions outcomes to support evidence-based energy transition planning. |
| 11 | Open and Transparent Electricity System Modelling Tools
Creating accessible modelling tools, datasets, and workflows that allow utilities, regulators, researchers, and decision-makers to test electricity system scenarios and understand the assumptions behind future cost and reliability outcomes. |
| 12 | Residential Energy Efficiency and Housing-Stock Analytics
Developing models, analytics, and rating methods to assess residential building energy performance, support efficient design, and identify ways to reduce heating and cooling demand. |
| 13 | Home Energy Rating Data and Retrofit Targeting
Using home energy rating data, climate-zone information, and dwelling characteristics to identify retrofit priorities, improve household comfort, reduce energy bills, and lower residential emissions. |
| 14 | Smart Buildings as Flexible Grid Resources
Investigating how commercial, industrial, and residential buildings can provide flexible demand through controllable loads such as HVAC, batteries, electric vehicles, hot water, and thermal storage. |
| 15 | Digital Infrastructure for Energy Flexibility
Developing secure, interoperable data platforms that enable behind-the-meter assets, building systems, and third-party services to exchange data and participate in energy flexibility markets. |
| 16 | Flexible Demand Markets and Asset Registers
Designing methods, data structures, and governance models for registering, characterising, dispatching, and rewarding flexible demand resources across buildings, industrial sites, and distributed energy assets. |
| 17 | Building Data Analytics, Load Forecasting and Fault Detection
Applying data science and machine learning to building energy data to improve load forecasting, detect faults, optimise equipment operation, and reduce energy use while maintaining occupant comfort. |
| 18 | Real-Time Emissions-Aware Demand and Operations
Developing methods to align electricity consumption with renewable generation availability using real-time emissions intensity, carbon-aware control, and demand-shifting strategies. |
| 19 | AI Benchmark Datasets and Evaluation Methods for Energy Systems
Creating benchmark datasets, challenges, and evaluation methods for machine learning in energy systems, including load classification, demand response detection, flexibility estimation, and behaviour modelling. |
What the Fellowship Includes
The SEA-HCD Fellowship provides a three-month placement at CSIRO in Australia, offering hands-on experience, expert guidance, and opportunities to work on real-world energy challenges.
During the Fellowship, participants will:
- Spend up to three months at CSIRO’s Energy Research Unit working on a high-impact energy transition challenge
- Undertake an energy research or industry-focused project aligned with their organisation’s priorities
- Receive mentoring and co-supervision from CSIRO experts and Australian academics
- Build practical technical and problem-solving skills through applied research
- Engage with researchers, industry, and policy stakeholders through networking, presentations, and consultations
Financial Support
The SEA-HCD Fellowship provides financial support to cover reasonable costs associated with participation in the Fellowship. This includes:
- Visa application and associated fees
- One return economy-class airfare between the Fellow's home country and Australia
- Accommodation for the duration of the placement (arranged by CSIRO)
- A living allowance to assist with meals, local transportation, and incidental expenses; and
- Approved work-related travel undertaken as part of the Fellowship program
- The Fellowship does not provide salary replacement. Participating organisations are expected to continue paying the Fellow’s salary during the placement period.
Further details on reimbursement and support arrangements will be provided to successful applicants during pre-departure preparation.
What You’ll Get Out of the Fellowship
The SEA-HCD Fellowship provides Fellows with valuable opportunities for professional development and capability building in support of the energy transition.
Fellows will benefit from:
- Mentorship and technical guidance from CSIRO experts and Australian academics
- Opportunities to engage and collaborate with Australian researchers, engineers, and energy practitioners
- The ability to shape and lead a project aligned with their organisation’s priorities, in consultation with supervisors
- Exposure to Australia’s experience in managing power systems with high levels of renewable energy integration
- Applied knowledge and insights relevant to Southeast Asian energy systems
The Fellowship also enables Fellows to:
- Build practical skills and strengthen their capability to address energy transition challenges
- Expand professional networks across Southeast Asia and Australia
- Gain visibility within the regional energy community
- Strengthen their ability to contribute to organisational development and support long-term energy transition goals
Requirements to Apply
In 2026, the Fellowship will support high-performing professionals from Malaysia’s Tenaga National Berhad (TNB) and Electricity Generating Authority of Thailand (EGAT). There are several prerequisites for application to the Fellowship. Applicants must:
- have significant technical capability;
- have a clearly defined problem and a viable proposal for how to address the issue;
- have full support from their home organisations, both during the Fellowship and for implementation of outcomes upon their return;
- be eligible and available to travel to Australia for up to three months;
- hold a valid passport permitting travel to and stay in Australia for the duration of the Fellowship
- be able to apply for and obtain and Australian Visa for the purpose of the Fellowship program
- have no restrictions (medical, legal, or employment-related) preventing international travel
- have no conflicting commitments
- be able to participate within the Fellowship timelines;
- be fluent in English.
- English language competency will be assessed as part of the selection process, proficiency will be evaluated through an interview (phone or online)
- No formal language test is required
- Applicants may provide supporting evidence, such as:
- Study or work experience in an English-speaking environment
- Completion of studies conducted in English
- Relevant language courses or test results
Indicative Fellowship Modules
This section provides an indicative overview of the key activities and learning components undertaken during the Fellowship placement.
| Week | Module |
|---|---|
|
Week 1 |
On-boarding, induction, and online training
|
|
Week 2-3 |
Understanding the energy transition challenge
|
|
Week 4-5 |
Problem analysis and evidence generation
|
|
Week 6 |
Fellow presents the problem/dataset to a broader audience
|
|
Week 7-8 |
Designing and evaluating energy transition solutions
|
|
Week 9-10 |
Governance, regulation, and responsible innovation
|
|
Week 11-12 |
Project Refinement, final presentations and feedback
|
Fellowship Timeline
The application period opens on 23 Jun 2026 and closes on 24 July 2026, 23:59 (Singapore time - UTC+8). The indicative timeline for the application, selection, and fellowship components of the Fellowship is as follows:
| Date | Action |
|---|---|
|
23 June – 24 July 2026 |
Stage 1: Call for applications Applicants to submit CV and project proposal |
|
27 – 31 July 2026 |
Applications reviewed; applicants notified of shortlisting |
|
03 – 20 August 2026 |
Stage 2: Panel Interview Shortlisted applicants and their supervisors will be invited for online interviews by the joint selection panel. |
|
21 August 2026 |
Announcement of successful fellows |
|
22 August – 30 September 2026 |
Pre-departure preparation
|
|
02 October – 18 December 2026 |
Fellowship conducted in Australia
|
Enquiries
Questions about the program or the selection process can be sent to hcd@csiro.au; cc: ira.martina@csiro.au.
About the Southeast Asia Human Capacity Development Fellowships Program
The CSIRO Southeast Asia Energy Transition Human Capacity Development (SEA-HCD) Fellowships Program aims to strengthen the capability of energy sector professionals across Southeast Asia to support the transition to more affordable, secure, and sustainable energy systems.
The Fellowship provides an opportunity for Southeast Asian professionals from energy ministries, utilities, and research institutions to undertake a three-month placement with CSIRO in Australia. Fellows work on real-world energy transition challenges relevant to their organisations, with guidance from CSIRO experts and access to Australia’s research and industry networks.
In 2026, the Fellowship will support high-performing professionals from Malaysia’s Tenaga National Berhad (TNB) and Electricity Generating Authority of Thailand (EGAT).
The SEA-HCD Fellowship is managed by CSIRO and funded by the Department of Foreign Affairs and Trade (DFAT).
Purpose of Fellowship
The Fellowship aims to
- Equip participants with practical knowledge and learnings from Australia to manage high shares of variable renewable energy (VRE) and distributed energy resources (DER)
- Enhance research capability and promote continuous learning through joint research and academic engagement
- Build long-term professional networks and partnerships across the region
These outcomes contribute to stronger organisational capacity, improved systems thinking, and greater ability among participants to design, implement, and lead energy transition initiatives in their home countries.
Fellowship Focus Areas
Research projects under the Fellowship should address key technical challenges related to the energy transition, including:
- Integration of variable renewable energy (VRE) into power systems
- Management of distributed energy resources (DERs)
- Planning and operation of energy systems with higher shares of VRE and DER
Priority Project Themes
Priority will be given to project proposals that align with one or more of the following themes and reflect the needs and priorities of the applicant’s home organisation.
| Theme | Description |
|---|---|
| 1 | Inverter Design
Development of capabilities, services, design methodologies and standards for inverter-based resources (IBRs) to ensure power system reliability. |
| 2 | Stability Tools and Methods
New tools and methods are required to ensure reliability, security and stability in power systems with more IBRs, as traditional synchronous machines continue to be phased out. |
| 3 | Control Room of the Future
Development of new technologies and approaches for enhanced real-time visibility and analysis in power system operator control rooms. |
| 4 | Planning
New planning metrics, methods, and tools to capture the characteristics and influence of a changing |
| 5 | Restoration and Black Start
Creating new procedures for black starting and restoring a power system with high or 100% IBR penetration. |
| 6 | Services
Quantifying the technical service requirements of future power systems to maintain the supply-demand balance reliably and at least cost with higher penetration of renewables. |
| 7 | Architecture
Identifying appropriate future power system architectures for coordinating new technology capability, regulatory approaches, market design, and the distribution/transmission interface in a highly distributed, variable renewable energy-based system to support an orderly power system transition. |
| 8 | Distributed Energy Resources (DER)
Investigating the challenges and opportunities from very high levels of DERs to make power system control and operation more effective. |
| 9 | DER and Stability
Modelling and analysis of DER dynamic responses to ensure system operators can maintain power system security under very high DER penetration. |
| 10 | Cost-informed Power System Transition Modelling
Developing transparent modelling approaches that connect technology costs, generation-storage-transmission investment, system reliability, and emissions outcomes to support evidence-based energy transition planning. |
| 11 | Open and Transparent Electricity System Modelling Tools
Creating accessible modelling tools, datasets, and workflows that allow utilities, regulators, researchers, and decision-makers to test electricity system scenarios and understand the assumptions behind future cost and reliability outcomes. |
| 12 | Residential Energy Efficiency and Housing-Stock Analytics
Developing models, analytics, and rating methods to assess residential building energy performance, support efficient design, and identify ways to reduce heating and cooling demand. |
| 13 | Home Energy Rating Data and Retrofit Targeting
Using home energy rating data, climate-zone information, and dwelling characteristics to identify retrofit priorities, improve household comfort, reduce energy bills, and lower residential emissions. |
| 14 | Smart Buildings as Flexible Grid Resources
Investigating how commercial, industrial, and residential buildings can provide flexible demand through controllable loads such as HVAC, batteries, electric vehicles, hot water, and thermal storage. |
| 15 | Digital Infrastructure for Energy Flexibility
Developing secure, interoperable data platforms that enable behind-the-meter assets, building systems, and third-party services to exchange data and participate in energy flexibility markets. |
| 16 | Flexible Demand Markets and Asset Registers
Designing methods, data structures, and governance models for registering, characterising, dispatching, and rewarding flexible demand resources across buildings, industrial sites, and distributed energy assets. |
| 17 | Building Data Analytics, Load Forecasting and Fault Detection
Applying data science and machine learning to building energy data to improve load forecasting, detect faults, optimise equipment operation, and reduce energy use while maintaining occupant comfort. |
| 18 | Real-Time Emissions-Aware Demand and Operations
Developing methods to align electricity consumption with renewable generation availability using real-time emissions intensity, carbon-aware control, and demand-shifting strategies. |
| 19 | AI Benchmark Datasets and Evaluation Methods for Energy Systems
Creating benchmark datasets, challenges, and evaluation methods for machine learning in energy systems, including load classification, demand response detection, flexibility estimation, and behaviour modelling. |
What the Fellowship Includes
The SEA-HCD Fellowship provides a three-month placement at CSIRO in Australia, offering hands-on experience, expert guidance, and opportunities to work on real-world energy challenges.
During the Fellowship, participants will:
- Spend up to three months at CSIRO’s Energy Research Unit working on a high-impact energy transition challenge
- Undertake an energy research or industry-focused project aligned with their organisation’s priorities
- Receive mentoring and co-supervision from CSIRO experts and Australian academics
- Build practical technical and problem-solving skills through applied research
- Engage with researchers, industry, and policy stakeholders through networking, presentations, and consultations
Financial Support
The SEA-HCD Fellowship provides financial support to cover reasonable costs associated with participation in the Fellowship. This includes:
- Visa application and associated fees
- One return economy-class airfare between the Fellow's home country and Australia
- Accommodation for the duration of the placement (arranged by CSIRO)
- A living allowance to assist with meals, local transportation, and incidental expenses; and
- Approved work-related travel undertaken as part of the Fellowship program
- The Fellowship does not provide salary replacement. Participating organisations are expected to continue paying the Fellow’s salary during the placement period.
Further details on reimbursement and support arrangements will be provided to successful applicants during pre-departure preparation.
What You’ll Get Out of the Fellowship
The SEA-HCD Fellowship provides Fellows with valuable opportunities for professional development and capability building in support of the energy transition.
Fellows will benefit from:
- Mentorship and technical guidance from CSIRO experts and Australian academics
- Opportunities to engage and collaborate with Australian researchers, engineers, and energy practitioners
- The ability to shape and lead a project aligned with their organisation’s priorities, in consultation with supervisors
- Exposure to Australia’s experience in managing power systems with high levels of renewable energy integration
- Applied knowledge and insights relevant to Southeast Asian energy systems
The Fellowship also enables Fellows to:
- Build practical skills and strengthen their capability to address energy transition challenges
- Expand professional networks across Southeast Asia and Australia
- Gain visibility within the regional energy community
- Strengthen their ability to contribute to organisational development and support long-term energy transition goals
Requirements to Apply
In 2026, the Fellowship will support high-performing professionals from Malaysia’s Tenaga National Berhad (TNB) and Electricity Generating Authority of Thailand (EGAT). There are several prerequisites for application to the Fellowship. Applicants must:
- have significant technical capability;
- have a clearly defined problem and a viable proposal for how to address the issue;
- have full support from their home organisations, both during the Fellowship and for implementation of outcomes upon their return;
- be eligible and available to travel to Australia for up to three months;
- hold a valid passport permitting travel to and stay in Australia for the duration of the Fellowship
- be able to apply for and obtain and Australian Visa for the purpose of the Fellowship program
- have no restrictions (medical, legal, or employment-related) preventing international travel
- have no conflicting commitments
- be able to participate within the Fellowship timelines;
- be fluent in English.
- English language competency will be assessed as part of the selection process, proficiency will be evaluated through an interview (phone or online)
- No formal language test is required
- Applicants may provide supporting evidence, such as:
- Study or work experience in an English-speaking environment
- Completion of studies conducted in English
- Relevant language courses or test results
Indicative Fellowship Modules
This section provides an indicative overview of the key activities and learning components undertaken during the Fellowship placement.
| Week | Module |
|---|---|
|
Week 1 |
On-boarding, induction, and online training
|
|
Week 2-3 |
Understanding the energy transition challenge
|
|
Week 4-5 |
Problem analysis and evidence generation
|
|
Week 6 |
Fellow presents the problem/dataset to a broader audience
|
|
Week 7-8 |
Designing and evaluating energy transition solutions
|
|
Week 9-10 |
Governance, regulation, and responsible innovation
|
|
Week 11-12 |
Project Refinement, final presentations and feedback
|
Fellowship Timeline
The application period opens on 23 Jun 2026 and closes on 24 July 2026, 23:59 (Singapore time - UTC+8). The indicative timeline for the application, selection, and fellowship components of the Fellowship is as follows:
| Date | Action |
|---|---|
|
23 June – 24 July 2026 |
Stage 1: Call for applications Applicants to submit CV and project proposal |
|
27 – 31 July 2026 |
Applications reviewed; applicants notified of shortlisting |
|
03 – 20 August 2026 |
Stage 2: Panel Interview Shortlisted applicants and their supervisors will be invited for online interviews by the joint selection panel. |
|
21 August 2026 |
Announcement of successful fellows |
|
22 August – 30 September 2026 |
Pre-departure preparation
|
|
02 October – 18 December 2026 |
Fellowship conducted in Australia
|
Enquiries
Questions about the program or the selection process can be sent to hcd@csiro.au; cc: ira.martina@csiro.au.