According to McKinsey, offshore wind capacity worldwide is slated to reach 630 gigawatts (GW) by 2050 from a meagre 40 GW in 2020. As the climate challenge quickens, the need to transition to a sustainable energy pace has become palpable. The aim, of course, is to limit global warming to 1.5 degrees Celsius (2.7 degrees Fahrenheit) above pre-industrial levels. International efforts are increasingly turning towards clean technologies to curtail greenhouse gas emissions from fossil fuels and rely more on renewable energy sources. To this end, utility-scale wind energy is the cheapest renewable energy form. Wind power expansion has been brewing up a storm, registering rapid growth, and utility companies all over the world have ramped up the development of large-scale offshore wind farms. 

Grid integration is becoming a bottleneck for greener grids

Maintaining a stable grid over vast geographical distances is always challenging. Energy consumption patterns vary, and all grids require a minimum level of energy flow or a constant base load. While balancing grid variability has always been a concern, especially with larger grids, it is normally managed through flexible generation. But additional variability factors with wind energy may require generators that feature higher ramp rates, deeper cycles, and wind turbines to maintain grid inertia. Wind power plants (WPPs) are typically located off-shore in remote areas or on the sea. Connecting them to onshore grids may require a new or an upgrade to the existing transmission lines with issues such as high losses and high voltage level fluctuations at interconnection points, requiring reactive power compensation, etc.

Utilities typically make use of High Voltage Direct Current (HVDC) and FACTS (Flexible AC Transmission Systems) solutions to transmit more power over long distances. Such HV systems also allow them to efficiently integrate energy from renewables, connect grids in a network, and improve its overall performance. Whether utilities are looking to support existing systems or develop new power lanes, HV systems are needed for both. In the case of centralized utility-scale generation of renewable energy, such as large-scale offshore wind farms, there is a need to connect with the onshore grid through high-voltage grid integration infrastructure.  

In the past, grid integration was often approached on an ad hoc, project-by-project basis. The approach was on project-specific requirements and engineering of various related components, such as HV transmission infrastructure, HV primary equipment, connecting substations, auxiliary systems, and, more importantly, the timely completion and quality of deliverables. Not much attention was paid to capturing the related knowledge, nurturing it, scaling it, and optimizing the respective process. Because of the significant increase in grid integration projects, it is essential to capture the knowledge and prepare to address the large volume requirements coming up across the world in a very cost-effective and efficient manner. Engineering service providers have a critical role to play here, to scale up and support OEMs to address the unprecedented scenario of a large pipeline of grid integration projects.

Lack of right-skilled talent pool to handle HV grid integration projects

Updating our HV energy transmission infrastructure is a pressing need, but there are only a few companies across the world capable of carrying out such complex infrastructure requirements. Transmission projects have a much longer lead time. High Voltage infrastructure (HVDC, HVAC, HV Substations etc.) projects are typically time and resource-intensive to the point where only a few can be carried out at any given time by the respective OEMs. McKinsey estimates that global renewable electricity capacity will reach more than 5,022 gigawatts by 2026 – an unbelievable increase of more than 80 percent from 2020. Two-thirds of this growth will be driven by wind and solar, registering a 150 percent increase at 3,404 gigawatts. McKinsey also says renewables could generate as much as 60 percent of global electricity by 2035. As the cost of renewable plummets and demand for energy rises precipitously, companies could be faced with the prospect of handling 4-5x the number of current high voltage installations. 

While handling the volume of high-voltage installations is challenging enough, companies may also have to contend with a yawning skill set gap regarding multi-disciplinary engineering services required to implement grid integrations. In India, a key country slated to jump from fossil fuel to renewables, there is an eye-watering need for more than 2 million additional skilled technical workers in the power sector by 2022, given the government’s ambitious goal to reach 175 GW of renewable energy generation capacity.

Engineering services can bridge the gap

The list of OEMs and utilities taking up major HV grid integration projects is growing longer. While we cannot expect thousands of people with the right skills to suddenly appear, there is a pressing need for continued investments in building relevant engineering capacity in the workforce. This is where engineering service providers like Quest Global are ideally positioned to bridge the gap between engineers and a workforce ready to tackle high-voltage installations. Knowing the industry’s need, Quest Global has invested in building a Grid Academy to retain the knowledge gained through projects and upskill the resources to ensure the availability of enough talent to the industry. Grid Academy manages the expertise and conducts various programs to upskill its resources and the customer’s resources, collaborates with identified industry veterans (consultants) and universities known for Power System research programs and related infrastructures. Quest Global is a one-stop solution provider for retraining and retooling global engineering talent to carry out HV installations. 

Need to shift from a staff augmentation model to Grid Integration as a Service (GIaaS)

With global recognition from HV equipment OEMs, Quest Global has critical domain expertise in designing, detailing, and delivering customized grid integration sub-systems for various applications. This knowledge base enables us to offer a deeper level of partnership than the ad-hoc staff augmentation model employed by most OEMs and utilities. Quest Services for Grid Integration includes industry-leading adaptive consultation, end-to-end solution offerings, and ownership of identified workstreams. Our Grid Integration as a Service (GIaaS) can enhance the capacity of OEMs to execute HV projects at scale and accelerate the transformation of the grid.

 

Frequently Asked Questions

How can managed services address the talent deficit in grid integration projects? +

Managed services, particularly Grid Integration as a Service (GIaaS), offer a comprehensive approach to tackling the talent deficit in grid integration projects. By leveraging specialized providers, organizations can access a pool of skilled professionals without the need for extensive internal training. This model facilitates the efficient execution of high-voltage projects by providing end-to-end solutions, adaptive consultation, and ownership of critical workstreams. The focus on advanced engineering practices and continuous upskilling ensures that talent is readily available to meet the demands of the sector.

Why is it essential to shift from a staff augmentation model to Grid Integration as a Service (GIaaS)? +

The shift from a staff augmentation model to GIaaS is essential for several reasons. GIaaS provides a more strategic partnership, enabling companies to focus on core competencies while relying on experts for grid integration. This model offers greater flexibility, scalability, and the ability to manage complex projects effectively. By adopting GIaaS, organizations benefit from comprehensive service offerings that enhance project execution, accelerate transformation, and foster innovation in the grid sector.

What are the long-term benefits of investing in engineering services for grid integration? +

Investing in engineering services for grid integration offers long-term benefits such as enhanced operational efficiency, reduced project lead times, and improved sustainability metrics. By partnering with expert providers, organizations can access cutting-edge technology and innovative solutions that drive the efficient execution of high-voltage projects. This investment not only addresses the immediate talent gap but also fosters ongoing innovation and competitiveness in the energy sector.

What role does Quest Global play in scaling high-voltage grid projects? +

Quest Global plays a pivotal role in scaling high-voltage grid projects by offering tailored engineering solutions through our Grid Academy. The academy is dedicated to retaining and enhancing knowledge gained from past projects while upskilling engineers to ensure readiness for future challenges. Quest Global’s expertise in designing and delivering customized grid integration subsystems positions it as a key partner for OEMs seeking to expand their capabilities beyond the traditional staff augmentation model.

How do High Voltage Direct Current (HVDC) and Flexible AC Transmission Systems (FACTS) support grid integration? +

HVDC and FACTS are critical technologies in supporting grid integration, particularly for renewable energy sources like offshore wind farms. HVDC allows the efficient transmission of power over long distances, minimizing losses and enabling the integration of renewable energy into the grid. FACTS enhance the grid’s stability and flexibility by controlling power flows and reducing voltage fluctuations. Together, these technologies facilitate the seamless connection of remote wind power plants to onshore grids, improving overall grid performance and reliability.