By Ryan Moore, Founder and CEO, Pheasant Energy
Oil and gas expertise comprises the technical, operational, and commercial knowledge developed over decades of energy exploration, production, transport, and infrastructure management. In the renewable energy transition, this expertise matters because clean energy is not only about replacing fossil fuels with solar panels and wind turbines. It is also about building reliable, safe, and large-scale energy systems.
The world is already moving in that direction. Clean energy investment has reached record levels, and renewable capacity is expanding across power markets. Yet the transition still faces serious challenges, including grid constraints, permitting delays, supply chain risk, storage limitations, and a shortage of skilled energy workers.
This is where the conversation becomes more practical. Oil and gas experience can support renewables in areas such as offshore wind, geothermal energy, hydrogen, carbon capture, safety systems, project delivery, and workforce transition.
However, that support must be honest and measurable. Oil and gas knowledge can help the transition, but it should not be used as an excuse to delay decarbonisation or protect old business models.
Why is conventional energy expertise relevant to renewable energy?
Oil and gas expertise is relevant to renewable energy because both industries depend on complex engineering, strict safety standards, large capital investments, and long-term asset management. A wind farm, geothermal project, or hydrogen hub may look different from an oil field, but many of the operational problems are familiar.
Energy projects must be planned, financed, built, inspected, and maintained. They need permits, contractors, logistics, environmental controls, and skilled field teams. When projects move offshore or underground, the overlap becomes even clearer.
The petroleum industry has extensive experience across upstream, midstream, and downstream oil and gas operations. That includes drilling, processing, storage, transportation, compliance, equipment maintenance, and risk management.
Some of this knowledge can be redirected toward cleaner energy. For example, offshore oil experience can help offshore wind development. Subsurface expertise can support geothermal energy and carbon storage. Pipeline knowledge can help with hydrogen and CO2 transport.
The key point is simple: the value is not in fossil fuels themselves. The value lies in practical knowledge of energy systems that can deliver cleaner outcomes.
What skills transfer from conventional energy to renewables?
Many oil and gas skills transfer to renewables because both sectors require disciplined planning and risk control. Renewable energy projects often slow down due to weak infrastructure, poor supply chains, permitting issues, or technical uncertainty.
Useful transferable skills include:
- Managing large-scale energy projects
- Planning offshore construction and maintenance
- Understanding geology, reservoirs, and subsurface conditions
- Operating pipelines, terminals, and storage systems
- Building strong safety cultures for field crews
- Monitoring environmental risks
- Coordinating contractors and suppliers
- Managing long-term energy assets
These skills do not replace renewable energy expertise. They support it where the technical overlap is real.
What are the main applications and advantages of this expertise in clean energy?
Offshore wind is one of the strongest examples. Offshore wind development is the process of building wind farms in bodies of water where stronger wind resources can generate electricity. Oil and gas companies already understand marine logistics, vessel operations, seabed surveys, offshore safety, and harsh weather maintenance.
Carbon capture and storage is another important application. Carbon capture and storage is a technology that captures carbon dioxide from industrial sources and stores it underground. It depends on subsurface mapping, well integrity, pressure management, and long-term monitoring. These are areas where oil and gas teams have relevant technical experience.
Geothermal energy also has a natural connection. Geothermal energy is energy produced from heat stored beneath the Earth’s surface. It requires drilling, reservoir evaluation, well design, and pressure control. These are all familiar disciplines in oil and gas operations.
Hydrogen projects can also benefit from experience in gas handling. Hydrogen production, compression, storage, and transport require robust safety systems and a strong understanding of infrastructure.
Methane monitoring is another area where traditional energy companies can act immediately. Cutting leaks from existing operations is one of the fastest ways to reduce emissions while longer-term clean energy systems are built.
There are six major advantages:
- Accelerate project delivery by using teams familiar with large budgets, complex schedules, and technical uncertainty.
- Improve safety through experience with hazardous sites, heavy equipment, and field operations.
- Reuse infrastructure where pipelines, ports, storage assets, or industrial sites can support clean energy.
- Support energy security while grids, storage, and renewable capacity expand.
- Reduce learning curves in offshore wind, geothermal, and carbon storage projects.
- Create new career paths for workers with experience in energy, maintenance, and engineering.
Workforce transition is especially important. Workforce transition is the process of helping workers move from one industry to a new role through retraining, certification, and practical experience.
A fair transition should not treat oil and gas workers as outdated. Many engineers, welders, technicians, safety officers, inspectors, and project managers already understand energy infrastructure. With targeted training, they can support offshore wind, hydrogen, geothermal, grid upgrades, and emissions monitoring.
What are the limitations of relying on oil and gas companies?
The main limitations are conflicts of interest, slow investment shifts, public trust issues, and the risk of greenwashing. Oil and gas companies can bring useful expertise, but many still depend heavily on fossil fuel production for revenue.
There are six important limitations:
- Delay decarbonisation if fossil fuel expansion remains the main priority.
- Weaken public trust when climate messaging is stronger than real action.
- Reduce the focus on clean energy if renewables are treated as side projects.
- Carry over business models that do not fit flexible clean power systems.
- Overdependence on carbon capture instead of direct emissions cuts
- Confuse communities when transition language is mixed with high-emission activity.
Oil and gas expertise can also slow the transition if it is used to defend fossil fuel dependence rather than to build cleaner systems. The problem is not the knowledge itself. The problem is how companies choose to use it.
Carbon capture, for example, can help hard-to-abate industries. But it becomes a problem when used to justify delaying renewable power, electrification, or methane reduction.
The dividing line is clear. Expertise helps when it reduces emissions and supports cleaner infrastructure. It slows progress when it protects old revenue streams without changing real outcomes.
How can oil and gas expertise support renewables without greenwashing?
Oil and gas expertise can support renewables without greenwashing by connecting technical claims to measurable clean energy results. Companies must show what they are building, how much they are investing, and what emissions they are reducing.
There are six practical steps:
- Set clear emissions targets that include methane and operational emissions.
- Separate real clean energy investment from branding campaigns
- Use technical expertise where it truly fits, such as offshore wind, geothermal, hydrogen, and carbon storage.
- Measure results through transparent reporting and third-party verification.
- Retrain workers for renewable energy roles.
- Partner with renewable developers, utilities, communities, and regulators
Real progress should be measured through emissions reductions, clean energy capacity built, capital allocated to low-carbon projects, methane cuts, and workforce transition outcomes.
Trust also depends on tone. Companies should avoid exaggerated claims and admit where fossil fuels still dominate their business. Stakeholders do not expect every traditional energy company to become a renewable developer overnight. They do expect honesty, accountability, and visible change.
What does this mean for the future of energy?
The future of energy will require the rapid deployment of renewable energy and practical expertise from existing energy industries. Solar, wind, storage, grids, geothermal, hydrogen, and carbon management all require skilled people, strong supply chains, and disciplined execution.
Oil and gas expertise should have a supportive role, not a dominant one. Its strongest contribution lies in areas where the transition intersects with offshore engineering, subsurface science, gas handling, safety culture, and large infrastructure development.
The energy transition is not a simple swap from one fuel to another. It is a redesign of the systems that power homes, factories, transport networks, and industries.
The companies that help most will be the ones that turn old knowledge into cleaner outcomes.
Conclusion
Oil and gas expertise can support the renewable energy transition when it is applied honestly, selectively, and with measurable results. Its best uses are in offshore wind, geothermal energy, carbon capture and storage, hydrogen, methane reduction, safety systems, and large-scale project delivery.
But expertise is not the same as progress. If traditional energy companies continue to prioritise fossil fuel expansion while using clean energy language for reputation, they will slow the transition rather than support it.
The real question is not whether oil and gas knowledge has value. It does. The better question is whether that knowledge will be used to protect old systems or build cleaner, safer, and more reliable energy infrastructure for the future.
These are the author’s own views and do not reflect the views of REGlobal