In the last ten years, there has been an enormous momentum towards renewable energy on an international scale. It is common knowledge that solar power and wind energy are the fastest-growing solutions for energy-based decarbonization in industries. While these renewable energy systems have tremendous potential, adding this great source of energy to a business or industry can be fraught with challenges. In particular, manufacturing challenges in solar energy and supply chain challenges in wind energy solutions. Combining these factors into a decision to develop a renewable energy option also means confronting hurdles related to technical, financial, and regulatory barriers. Understanding these barriers, and enabling solutions to minimize them, is critical for any organization looking to adopt sustainable energy production.
This guide looks to address some of the industry challenges facing renewable energy today, and provide pragmatic guidance on cutting-edge solutions, such as hybrid solar-wind energy systems, and partnerships with established EPC companies, in growing this sector.

The solar sector is still confronting a number of manufacturing challenges in solar energy that remain relevant to both production and pricing concerns. One key aspect of the supply chain is accessing and procuring high-purity silicon, which is still relied on for photovoltaic cell production. Global supply chain disruptions have led to silicon shortages from time to time, resulting in rapid increases in the base cost of raw materials, which have created bottlenecks in the manufacturing of panels.
In addition, the production process requires significant energy intensity and specialized equipment. There are challenges for many manufacturers with scaling while maintaining quality, especially when there are low-cost competitors from established solar manufacturing markets. There are also challenges with continual technology evolution, so as efficiency gains are being introduced at a rapid pace, manufacturers are under continuous pressure to make investments to retool facilities to stay competitive.
For large-scale solar installations, choosing the right Solar Module Mounting Structures becomes essential to ensure durability, optimal tilt, and long-term generation efficiency.
Supply chain challenges in wind energy are equally severe in nature, considering the extreme manufacturing size and precision that are required for components that make up wind turbine assemblies. Achieving the extension of a turbine blade to more than 60 meters in length creates significant logistical issues around transportation; significant infrastructure modifications are required, requiring specialized vehicles for this component. The supply chain of rare earth elements, which are used in permanent magnets for direct drive generators, is obviously susceptible to price volatility risk, as well as geopolitical risk. These factors, combined with limitations in ports and the skilled workforce required for manufacturing and the need to produce locally to minimize transportation costs, continue to create supply chain challenges in wind energy projects globally.
While technology costs have decreased, some cost barriers in solar and wind projects persist in the industrial sector. Initial capital expenditure requirements may still be too high, particularly for small and medium-sized enterprises. The levelized cost of energy (LCOE) has declined sharply, but the upfront cost remains a barrier to financing.
Recommended changes are needed to address financing. Many financial institutions are not equipped to assess renewable energy projects, making them conservative lenders with lending terms that reflect those assessments. Projects that require materials sourced overseas are particularly at risk from currency fluctuations, which adds uncertainty to the project budget. Insurance premiums remain elevated for renewable energy installations, especially in areas that experience severe weather.Technical and Infrastructure Barriers in Renewable Power
Grid integration challenges for renewables present perhaps the most important technical barrier to adoption in industry. The intermittent nature of solar and wind power creates an essential stability problem for grid operators who have only ever managed dispatchable baseload generation. When certain thresholds of renewable penetration are reached, frequency regulation becomes complicated, requiring complex control systems and ancillary services.
Transmission infrastructure is often insufficiently sized to connect renewable generation to demand centers. Many of the best renewable resource locations are often remote, requiring the construction of expensive transmission lines. Limited capacity on the existing lines creates congestion limits on how much power can be evacuated, and often requires renewable generation curtailment during periods of high production.
Energy storage limitations in renewable power systems constrain the reliability and dispatchability of solar and wind installations. Although battery technologies are evolving rapidly, the costs associated with long-duration storage remain challenging from an economic perspective. Lithium-ion batteries offer the functionality to serve as energy storage, however they typically provide 2-4 hours of discharge duration, which is not sufficient for most multi-day weather events.
Battery performance is affected by degradation as the batteries operate under normal cycling, and they lose 2-3% of their capacity annually. Moreover, the temperature sensitivity of batteries means there are climate control systems operating, which adds complexity and cost. Lastly, battery installations raise safety concerns due to thermal runaway, necessitating expensive fire suppression systems, and procedures for safety.
Regulatory challenges in renewable energy arise from dynamic policy frameworks that do not always keep pace with technological innovation. Policy uncertainty creates investment uncertainty as subsidy programs and tax credits can be changed or discontinued, and net metering policies can be more or less favorable to distributed generation, impacting the economic viability of the installation from the industrial consumer's perspective.
Environmental permitting processes typically add time to project development, often adding 12–24 months, as multiple agencies often require different documents and separate approvals to develop. In particular, wildlife protection regulations require additional layers for wind installations with respect to bird and bat species at or near the installations, including operational restrictions and/or mitigation measures. Additionally, land use regulations in some jurisdictions create land use conflicts when locating renewable installations on pre-existing industrial properties.
While there are barriers to entry, there are also a number of incentives and mechanisms to support the uptake of renewable energy sources in industry. Accelerated depreciation allows businesses to front-load their capital costs, improving project economics. Production tax credits and investment tax credits also help to reduce effective costs for projects in many jurisdictions by as much as 20-40%.
Green financing mechanisms, such as sustainability-linked loans and green bonds, provide favorable terms for finance when applied to renewable energy projects. Corporate renewable energy purchase agreements (PPAs) are becoming popular procurement strategies because they lock-in long-term price certainty without the need for upfront capital costs. In addition, government-supported loan guarantees help to reduce the cost of financing while increasing bankable structures behind the projects.
Hybrid solar-wind energy systems are becoming increasingly advantageous solutions for both intermittency and land-use efficiency. These systems produce generation profiles that complement each other, i.e., solar production peaks during the day and wind is often the strongest at night, and as such they can provide a more reliable and consistent power output. Sharing of infrastructure reduces the per-megawatt cost of energy by 15–25% compared to when solar or wind standalone systems are used, including a shared transmission line, substation, and land use.
Advanced control systems for hybrid solar-wind energy systems have been developed that will dispatch solar and wind components to better meet an industrial load profile. The future of industrial renewable energy will leverage increasing hybrid systems that will be installed worldwide and provide better combined overall performance metrics compared to each single technology deployment.
Digital transformation is changing the way renewable energy operates through predictive maintenance, performance optimization, and remote monitoring. Internet of Things (IoT) sensors embedded throughout installations record real-time data capturing equipment performance, environmental conditions, and power output. Machine learning algorithms analyze this data to anticipate component failures weeks beforehand; proactively scheduling maintenance that leads to a reduction of downtime by 30 to 40%.
AI optimizes power generation strategies by juxtaposing weather forecasts, grid conditions, and demand patterns for evaluation and analysis simultaneously in real-time. These technologies, combined, address and lessen many of the traditional industrial issues in renewable energy operational efficiencies by improving reliability, lowering operations costs, and maximizing energy yield.
Engineering, Procurement, and Construction (EPC) companies serve a central function in the complex landscape of renewable energy. An experienced EPC provider delivers a combined set of capabilities that include project engineering, procurement of equipment, construction management, and commissioning. They can use their established relationships with manufacturers to secure competitive pricing and conditional delivery schedules during supply chain constraints.
The best solar wind & hybrid EPC company partners provide a turnkey (EPC/OM) solution that accounts for the many challenges associated with bringing a project to fruition, starting with the initial feasibility study through long-term operations and maintenance. KP Group is a demonstration of how specialized EPC experience accelerates industrial renewable adoption by delivering reliable, bankable projects that meet rigorous performance specifications.
Decarbonizing industries with renewable energy is shifting from a goal to an operational necessity; companies are under increased pressure from investors, consumers, and regulatory requirements. Heavy industries (e.g.: steel, cement, chemicals, data centers) have implemented aggressive renewable procurement strategies to support net-zero commitments.
Renewable electricity powering green hydrogen production has emerged as a key decarbonization pathway for industrial processes that are more difficult to electrify. While behind-the-meter renewable generation permits energy-intensive industries to reduce their reliance on the grid, it also allows businesses to better manage electricity prices through long-term fixed pricing.
In the coming decade, collaborative ecosystems will be a hallmark of innovation, enabling never-before-seen advances among technology providers, industrial users, utilities, and policymakers. Floating offshore wind technology will provide access to ocean resources that may not have been considered before. Perovskite solar cells may develop pathways to efficiency gains that could dramatically reduce the resources needed to produce solar cells and lower costs.
The use of artificial intelligence and quantum computing will provide levels of operation of the grids that have never been considered, with the same outcomes of greater renewables penetration, never before achieved with reliability. These systems are steadily unwinding the very real industrial challenges in renewable energy applications and moving us toward decarbonized industrial sectors.

The selection of the right EPC partner is fundamentally important to the success of implementation projects in renewable energy. The best partner will have full capabilities in the areas of technology selection, financing, regulation and ensuring performance over time, as well as understand that to ensure project success they will need to do a thorough site assessment using advanced modelling tools to accurately determine generation potential and to help overcome challenges.
An experienced EPC company will have proven procedures to maintain quality control throughout the supply chain and will ensure all equipment meets specifications and is supplied on time. They will provide construction management to prevent mistakes and delays, and will provide cost effective pre-commissioning protocols that will make certain that systems work as intended at handover.
Finally, the best partner will also deliver post-installation support through operations and maintenance contracts, performance monitoring services and upgrading systems, keeping all systems working in good condition throughout the life of the project, which may provide valuable operation for up to 25-30 years.
In renewable energy, project returns are closely related to experience. Technical challenges, market factors, and a host of issues facing prospective renewable project developers can negate a project's return and offer a lot of opportunities for the unobservant to stumble into consequences. Established EPC contractors typically have set standardized processes, having gone through dozens or hundreds of past projects and learning to avoid failure points that would otherwise erode a project's return.
Furthermore, their relationships with vendors will provide either better structures for pricing or even priority during issues such as equipment shortages. Financial institutions value and prefer projects undertaken by reputable EPC contractors, seeing their presence as a necessity for better terms of financing as well as overall project economics. Performance guarantees can be underwritten by their balance sheet, which enhances the bankability of the project and instills additional interest from investors. Conversely, experience can assist partners with system designs where they can reasonably predict (and therefore be more flexible about) outcomes related to regulatory actions and trends. Long-term relationships with trusted (and repeatable) EPC partners can assist in the rapid (from an organizational perspective) introduction of additional or increased capacity as needs or potential evolve for ongoing industrial operations. Established relationships also provide unique insights and expertise on eligible emerging technologies, which can help clients keep competitive pace with their competitors in the looming energy transition.
KP Green Engineering Ltd. provides complete engineering and steel structure manufacturing solutions worldwide, serving industries such as renewable energy, telecommunications and beyond.
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