New global trends in project finance help mitigate the risks and attract funding from various sources, including banks, private investors, and financial institutions.

Project finance (PF) is a form of financing used to fund large-scale infrastructure, energy or industrial projects.

In the new global trends in project finance, the financial structure is designed to be a “standalone” entity separate from the sponsors, and the project’s future cash flow and assets are used as collateral to secure financing. 

The significance of project finance in global economic development lies in its ability to facilitate the implementation of complex and capital-intensive projects that may otherwise be challenging to fund through traditional financing methods. Key features of project finance include risk allocation, where risks are assigned to the party best equipped to manage them, and a focus on the project’s future cash flows rather than the creditworthiness of the project sponsors.

This approach allows for the realization of essential infrastructure, energy, and other development projects, contributing to economic growth, job creation, and improved living standards on a global scale.

The new global trends in project finance will actively supports important initiatives ranging from major transportation and electrification projects to social infrastructure and sustainable development initiatives.

Brief overview of current trends in project finance

Last decade marks a pivotal juncture in the trajectory of large project financing, as stakeholders navigate a terrain defined by environmental imperatives, technological disruptions, and an intricate net of economic interdependencies.

From renewable energy sector facilities to digital infrastructure projects, the global stage is witnessing a confluence of trends that not only redefine traditional financing models but also reflect a broader commitment to sustainability and innovation.

In this exploration of current global trends in project finance, we must unravel new forces steering the area.

The dominance of renewable initiatives to close integration of Environmental, Social, and Governance (ESG) considerations, this chapter seeks to provide insights into main drivers and transformative shifts influencing project finance practices on a worldwide scale. We must consider innovative financial models, changes of regulatory landscapes, and technologies.

To decipher the mosaic of trends in project finance, shaping the future is rapidly changing business world.

Some global trends in project finance that have become important are listed below;

Renewable energy dominance: Continued growth in project finance is now especially important for huge renewable energy projects (solar power plants mainly in Asia, Africa and Latin America, wind parks around the world, as well as geothermal projects in seismically active regions), with a focus on solar and wind. In the last few years increasing interest in “energy storage projects” (for example, pumped storage power plants) to address intermittency challenges associated with renewable sources.

Sustainability and ESG integration

The intersection of sustainability and project finance has become a characteristic feature of the contemporary international business landscape. There is a growing emphasis on Environmental, Social, and Governance (ESG) considerations in project finance.

These considerations have already transcended mere corporate responsibility to emerge as critical factors influencing decision-making. This integration is reshaping the project finance landscape in numerous profound ways. Integration of sustainability principles in project design, execution, and reporting is currently important to meet global ESG standards.

Digital transformation of project finance

This means adoption of digital technologies, including blockchain and artificial intelligence, advanced FinTech solutions, using remote collaborative platforms and enhanced data analysis for better project efficiency and risk management. The digital transformation reflects a paradigm shift in the financial industry, promising increased return on capital, transparency, and adaptability.

As technologies continue to evolve, project finance stakeholders must navigate the opportunities and challenges presented by this transformative trend to stay competitive in the dynamic landscape.

Resilience planning

There is also heightened focus on resilience in project design and financing structures to address unforeseen challenges, such as pandemics, climate events, and geopolitical uncertainties. Resilience planning in project finance signifies a strategic approach to anticipating, preparing for, responding to, and recovering from unforeseen challenges and disruptions.

Transition to hydrogen economy

The global trend towards a hydrogen economy marks a significant shift in the energy landscape, emphasizing the role of hydrogen as a clean and versatile energy carrier. This transition involves the production, distribution, and utilization of hydrogen as an element in the decarbonization of various sectors, including industry, transportation, and energy storage.

As a zero-emission fuel, hydrogen is gaining traction as a viable solution to address environmental concerns and meet ambitious climate goals, with investments and large projects focusing on green hydrogen production methods to ensure sustainability and reduce carbon footprints.

Adaptation to regulatory changes

The global trend of adaptation to regulatory changes in project finance underscores the industry’s responsiveness to a continually evolving legal landscape. With an increased emphasis on environmental sustainability, social responsibility, and transparency, project financiers are navigating a complex net of regulations worldwide.

This trend necessitates a comprehensive approach, integrating regulatory compliance considerations into every stage of project development. From conducting deep environmental impact assessments to addressing social governance criteria, project financiers are proactively incorporating regulatory requirements into their planning and execution strategies.

This adaptability not only ensures legal compliance but also mitigates potential risks, enhancing project resilience in the face of changing governmental policies and regulations. As regulatory frameworks continue to evolve, the ability to adeptly navigate and incorporate these changes is becoming a hallmark of successful and sustainable project finance initiatives.

Innovation in financing models

Innovation in financing models is reshaping the landscape of project finance, introducing creative and adaptive approaches to fund large-scale initiatives. Traditional funding is being complemented by emerging models such as crowdfunding, peer-to-peer lending, and digital securities issuance.

This trend reflects a dynamic shift towards diversification in funding sources, providing project stakeholders with more flexibility and efficiency in securing capital. As the financial ecosystem continues to evolve, the exploration and implementation of innovative financing models are becoming integral to fostering resilience and adaptability in large project financing.

Role of project finance in funding large-scale projects

In essence, project finance serves as a pillar in funding large-scale infrastructure and development projects by providing a flexible and collaborative financial structure.

Its role extends beyond mere funding, influencing the project success, overall economic impact, and contribution to sustainable development goals. As the global demand for transformative projects grows, PF continues to be a vital enabler of progress on an international scale.

Project finance plays a crucial role in funding large-scale energy, industrial, infrastructure and development projects, offering a tailored financial structure that addresses the unique challenges associated with these ventures.

PF initially did not play a priority social and economic role, but in the last decade this can truly be called a key global trend in project finance.

Large-scale projects funded through project finance encourage job creation, generate employment opportunities, contributing to local and regional economic growth. These projects actively stimulate economic activity beyond the construction phase, benefiting related industries and services.

Project finance enables the integration of sustainable practices, aligning projects with environmental and social responsibility goals.

Among the most capital-intensive projects that could benefit from the use of PF tools, we can name DEWA CSP Project (UAE), Vineyard Wind Farm (United States), Transnordestina Railway Project (Brazil) and many others. Large initiatives in energy sector, industry and infrastructure may involve a combination of government funding, international financial support, and potentially project finance schemes for specific components.

Understanding the nuances of economic, political, and regulatory factors in host country is crucial for project financiers, investors, and policymakers to navigate the complex and dynamic landscape of global trends in project finance.

It’s essential to consult with experts and refer to current reports, analyses, and official government publications for the most accurate information.

CP Finance UK Finance is ready to provide you with comprehensive support when planning large investment projects, developing financial models, attracting long-term capital or bridge financing, project management, etc.

Contact us.

CP Finance UK FINANCE LIMITED
Website:https://c-pfinanceuk.com/
E-mail:finance@cpuk-financeltd.com
Alt-Email:admin@cpukfinanceltd.com

Models for financing of chemical plants is a key tool for economic and investment evaluation of a business project, which calculates the quantitative parameters of a business idea, starting from the assets and funds required for project implementation, and ending with indicators of the financial return on these investments and the investment return period.

A well-prepared models for financing of chemical plants is an indispensable tool that provides a clear understanding of the economics of the chemical enterprise and its prospects, which allows sponsors to monitor the life of the project and adjust its parameters.

At the same time, this model serves as a basis for finding investors or attracting debt financing.

CP Finance UK Finance offers a wide range of financial services for companies in the chemical industry, including long-term loans, project finance schemes, financial modeling, consulting and much more.

Our team of financial experts forecast several scenarios for the development of a chemical project and calculate its profitability depending on changes in key parameters, such as sales volume and prices, operating costs, risk factors and investment budget.

CP Finance UK Finance specialists will help your team prepare the following:

• Financial model.
• Forecast of cash flows of the enterprise.
• Calculation of the net value of assets.
• Analysis of project profitability and capital needs.
• Simulation of chemical plant activity scenarios.
• Analysis of project sensitivity to changes in various factors.
• Detailed financial analysis based on NPV, IRR, etc.
• Information memorandum, executive summary and much more.

Our company develops models for financing of chemical plants using advanced software tools and environments, so as a result of the work.

The customer will receive a fully automated document with flexible formulas.

The comprehensive model contains summary parameters of the chemical project, sources of construction financing, total investment costs, financing schedule, chemical product sales plans, forecast reports on cash flow, income and expenses, detailed analysis of project profitability and so on.

Models for financing of chemical plants provides users with the opportunity to adjust the project in case of introducing new indicators and changing parameters and data during project implementation.

We also offer long-term financing of large industrial projects, including investment loans of up to 90% of the project cost.

Our proposals for large businesses start at 50 million euros, and financing terms reach 20 years, depending on the project.

Contact us for details.

Basics of models for financing of chemical plants industry

The financial health and models for financing of chemical plants of and enterprise directly depends on revenues, capital structure and assets.

These factors determine the level of financial stability, liquidity and efficiency of capital use. There is a direct relationship between groups of financial indicators that characterize the financial health of a chemical plant. Indicators of financial stability characterize the capital structure and dependence of the enterprise on external sources of financing and are related to the turnover of accounts payable, while equity is affected by the profit received in the reporting period.

In turn, solvency ratios, which reflect the ability of a chemical enterprise to fulfill its obligations in a timely manner, are closely related to the turnover of working capital and accounts payable.

Financial modeling and forecasting makes it possible to effectively analyze complex and uncertain situations related to strategic decision-making.

Therefore, the models for financing of chemical plants  serves as a financier’s instrument that allows considering a large number of “what if?” scenarios. Forecasting allows project participants to obtain the most likely scenario of business development based on the analysis of the current situation and propose measures for its correction.

Financial modeling is particularly effective for solving time-consuming problems that require extensive practical experience and a high-quality methodological basis:

• Assessment of investment projects, formation and revision of the investment program.
• Comprehensive risk assessment and management.
• Forecasting cash flows and dynamics of the company’s financial condition.
• Carrying out financial calculations of the business plan.
• Determination of optimal options for financing a chemical plant, its volumes and structure.
• Establishing regular business planning and investment decision-making processes.
• Modeling and evaluation of various business development scenarios.

Financial modeling is especially relevant in times of crisis, when the availability and cost of external financing decreases, the risks of loss of liquidity and business stability increase, and the most important condition for business development remains the growth of operational efficiency.

Models for financing of chemical plants provides a single solution to the following problems:

• Simulation of cash flows of planned activities and assessment of future financial indicators of the enterprise under construction.

• Finding and studying project elements, where the company’s financial resources will come from and what they will be spent on.

• Creation of a mathematical basis for project risk analysis and restructuring of the company’s risk management system.

• Ensuring continuous analytical work, allowing to quickly adjust and recalculate possible project options and business development scenarios.

• Significant time savings, as the model allows the financial team to avoid consideration of unacceptable options and unpromising investment projects.

Therefore, forecasting the financial health of the enterprise should be understood as the development of a system of scientifically based assumptions about basic and alternative structural changes in the assets and liabilities of the enterprise.

Given the complexity of the chemical industry in general, which depends on specific technological processes, fuel and electricity prices, market conditions, environmental legislation and many other factors, a complete financial model can be extremely complex and multifaceted.

CP Finance UK Finance’s professional team is ready to help you with financial modeling and forecasting at any stage.

Stages of creating a financial model of a chemical plant

In modern financial literature and practice, a large number of methodological approaches to the analysis and assessment of the financial health of chemical industry enterprises are proposed.

When choosing certain approaches to forecasting financial indicators, the following features of the forecasting environment should be taken into account:

• Macroeconomic risk and uncertainty caused by global events, changes in legislation, market trends and geopolitical upheavals.

• The development of a high-quality financial model requires professional processing of a large amount of information within a strict time frame.

• Most of the financial indicators of an investment project are closely related, so a change in one of them automatically affects the expected values of others.

It is not always possible to obtain a sufficient amount of data to build an accurate and complete financial model.

On the one hand, many innovative technologies in the chemical industry have a short period of practical use, and, therefore, a small amount of accumulated data. On the other hand, the impact of unpredictable factors can lead to both gradual and long-term changes in financial indicators and short-term impulsive deviations. As a result, the horizon of the developed forecast is narrowed, its quality deteriorates, and the scope of its application is significantly limited.

It is advisable to forecast the financial indicators of the enterprise using economic and mathematical modeling.

It allows the project team to display promising scenarios depending on a large number of factors. The adequacy of the forecast depends on the correctly chosen procedure and logic of building the financial model.

Typical stages of creating models for financing of chemical plants:

1. Collection and analysis of initial data for the financial model, including production and financial indicators.

2. Highlighting key factors that are considered drivers of the future financial model.

3. External factors affecting the performance of the chemical plant (market trends, exchange rates, inflation, gas prices, etc.).

4. Development and comparison of financial models of alternative scenarios or variants of investment projects.

5. Calculation of investment and financial indicators, in particular, the terms of long-term investment lending.

6. Analysis of the stress resistance of the project to changes in the external environment (for example, settlements with suppliers).

Multibillion-dollar investments in water treatment plant projects over the past decades have boosted economies, preserved fragile ecosystems, and improved the health of millions of people around the world.

This provides huge benefits for communities using reclaimed water for agricultural and technical needs.

However, each new project must be carefully planned, as increasingly stringent environmental regulations and the high cost of capital make mistakes extremely costly for sponsors and investors.

Financial model of the water treatment plant projects is the basis for the future success of the project, allowing the financial team to predict its response to changing conditions.

Professional financial modeling services offered by leading consulting firms help project participants to choose the most suitable sources of financing in the context of current investment needs.

CP Finance UK Finance has brought together an international team of experienced professionals in project finance, financial modeling and project management to provide large companies with a full range of services for the implementation of environmental projects from A to Z.

We are also ready to offer investment financing for water treatment plant projects in the amount of 50 million euros and more for a period of more than 10 years.

We operate in North America, EU, Middle East, Asia and Latin America etc.

Contact us to find out more.

The concept of financial modeling in water treatment plant projects

The financial model refers to a model of interrelated financial parameters that ensure the achievement of the project’s goals.

A high-quality financial model, on the one hand, expands the idea of the company’s future financial results and its success in the market.

On the other hand, it allows the financial team to better control many factors that affect the development of the project. In water treatment projects, this is an extremely important element, since the initiators of the construction of such facilities must take into account numerous legal regulations, social requirements, trends and financial constraints.

The search for opportunities for effective analysis of uncertain situations related to the adoption of investment decisions and the choice of appropriate financial instruments leads to an improvement in the results of financial modeling. The importance of the financial model as part of the business case for a water treatment plant projects has changed significantly in recent years. It has become one of the determining factors for the success of a project presentation to a lender or investor.

Financial modeling becomes especially important when the availability of capital shrinks and the cost of external financing rises in many sectors.

It is also extremely useful in increasing the risks of losing business liquidity.

The main purpose of financial modeling is to forecast the project’s cash flow and evaluate its financial efficiency under threshold values of key input parameters. An adequate financial model is a very important tool in the process of financial evaluation of a water treatment plant project.

The financial model of a large investment project provides the solution of the following tasks:

• Simulate the cash flows of planned activities and evaluate the company’s financial health.

• Determination of investment directions and sources of financing for the project (enterprise).

• Calculation of the main project performance indicators.

• Preparing forecast reports for various types of accounting.

• Development of a basis for risk analysis and building a company’s risk management system.

• Ensuring continuous analytical work in order to quickly adjust and recalculate possible project options and business development scenarios.

• Save time by avoiding consideration of unacceptable investment options and making quick decisions to terminate unpromising projects.

Financial modeling seems to be especially effective for solving labor-intensive tasks that require extensive practical experience of the financial team.

This includes the following:

• Evaluation of investment projects, development and revision of the investment program.
• Determination of optimal options for financing the project, its scope and financial structure.
• Setting up a regular business planning and investment decision-making process.
• Modeling and evaluation of various scenarios for further business development.
• Assessment and risk management of an investment project.
• Forecasting cash flows and financial health dynamics.
• Carrying out financial calculations of the business plan.

Before embarking on financial modeling of a water treatment plant projects, there are a number of guidelines that should be considered to improve the modeling process.

Financial model can be used in five areas, including project costs and financing structure, operating income and expenses, debt service, taxation and accounting.

These assumptions are actively used to calculate project cash flow projections, which in turn form the basis for calculating investor returns and debt coverage ratios for lenders.

Building a financial model in the preparation of investment projects

The process of building a financial model for a large investment project can be conditionally divided into 11 stages.

These steps apply to water treatment plant construction and modernization projects as capital intensive investments with high technical complexity and environmental risk.

The first stage is preparatory. Before starting modeling, the financial team needs to carefully study the essence of the business processes of an environmental project. The input data (main financial parameters) of the model, the scale and level of detail of the modeling should also be defined.

The second stage is the systematization and organization of the initial data. For more convenient use of the financial model, all initial data should be grouped in a separate table or block, and financial model calculations should be linked to initial data through appropriate formulas. Systematization of the financial parameters of the water treatment plant model creates additional convenience for users: they do not have to look through a complex multi-level structure in search of the necessary parameters for their adjustment.

The third stage is business process modeling. At this stage, the main business processes and cash flows of the investment project are modeled.

It is important that the relationships and calculations displayed in the model correspond exactly to the business processes that will occur in real world.

The fourth stage is the calculation of capital costs and accounting for fixed assets and intangible assets.

The model should describe in detail the capital costs of the project, since they usually receive the lion’s share of the funds raised. When calculating capital costs, it is also necessary to take into account the periods of investment until the moment when the assets are put on the balance sheet of the water treatment plant and begin to be depreciated.

The fifth stage is the calculation of operating costs. Typically, these costs are projected based on industry standards and industry statistics. These calculations do not seem obvious, and their correctness largely depends on the professional experience of the finance team.

The sixth stage is the calculation of taxes and fees.

The calculation of the necessary taxes and fees is carried out in accordance with national legislation.

For this part, the finance team can successfully use standard formulas and modules integrated into the software used.

The seventh stage is the calculation of the real need for project financing. After describing all the cash flows of the project, it is necessary to calculate the need for external financing. The volume of attracted funds should provide a positive balance throughout the entire planning period.

The eighth stage is the development of the financial statements of the project. The main part of the source data is taken, as a rule, from the financial statements of the enterprise. In addition, users should be able to compare the results of financial modeling with actual results, which means that the format for presenting the results should be consistent with standard reporting forms.

The ninth stage is the calculation of project performance indicators. The final stage of modeling is the calculation of IRR, NPV, payback period and other parameters as the main indicators of project efficiency. On separate spreadsheets, financial consultants can calculate the effectiveness of participation in a particular project for the initiator and for the investor.

The tenth stage is sensitivity analysis. At this stage, a sensitivity analysis of project performance indicators to changes in the main parameters should be carried out.

The last stage is the presentation of the final indicators. At the end of financial modeling, it is necessary to present the final indicators in a visual form (graphs and diagrams). It is also important to link the initial data and final indicators of the financial model with the content of the business plan or presentation, if one is being prepared for potential investors.

In the practice of investment analysis, various methods are used to build a financial model of an investment project. Since a water treatment plant projects is usually a small part of a large branched business, the margin analysis method is considered one of the most applicable for such projects.

Margin analysis is based on the assessment of changes that a specific project makes to the company’s performance indicators.

The goal of many investment projects, including environmental facilities, is to reduce emissions and minimize environmental fines, which ultimately affects the company income (if we are talking about waste water treatment plant projects for large industrial enterprises).

The disadvantage of the method is that it does not allow assessing the financial stability of the company implementing the particular project. The complexity of this method lies in the fact that it is necessary to correctly highlight all the changes that the project makes to the company’s activities, including changes related to the calculation and payment of taxes. Project performance indicators calculated by the margin method characterize the company’s effects arising from the project implementation and can be used to form cash flows and project performance indicators.

The main advantage of the method is the relative simplicity of preparing the initial data.

The main source of information for project evaluation is a pool of purely “technical” parameters expressed in the final results (wastewater flow rate, sedimentation efficiency, safety improvement, etc.).

We are talking about the parameters that characterize the production process, as well as their comparison with additional investments, for example, the costs of purchasing new equipment and installing it.

This method allows the financial team to generate a net cash flow (NCF) forecast, which serves as the basis for calculating such widely used investment performance indicators as project net present value (NPV), internal rate of return (IRR), etc. Margin analysis can be used for projects that are characterized by an increase in technical parameters and do not require an assessment of the financial stability of the company, including industry programs to improve reliability.

Choosing financial sources for water treatment plants

The main source of financing the construction and modernization of large facilities in the environmental sector is the internal financial resources of companies.

Their large share among financial sources can be explained by a vague and complex process of attracting financial resources, especially in developing countries (unfavorable investment climate, underdeveloped financial market, etc.). The right choice of sources, schemes and methods of project financing based on a high-quality financial model plays a critical role in the future success of the project.

Self-financing of construction of water treatment plant projects for large industrial facilities can be carried out at own expense with the use of net profit and depreciation deductions.

At the same time, the internal financial resources of a business usually cannot be fully used to finance large projects, as part of the net profit is directed to the growth of working capital, payment of dividends and so on.

This practice causes many structural, financial and technological obstacles in running a modern business. Therefore, most companies are actively raising funds from external sources, including long-term investment loans from commercial banks.

In addition, in a crisis, many industrial enterprises are operating at a loss or are acutely short of financial resources to support investment activities. However, strict environmental legislation requires increasing investment in wastewater treatment.

Therefore, companies seek to attract borrowed financial resources through long-term lending, including through the use of project finance mechanisms (PF).

External sources of funding for water treatment plant projects can be funded from state and local budgets, as well as funds from investors.

Public funds and subsidies often fund targeted integrated programs that are of particular importance to the environment. Government financing of modernization projects can take the form of interest-free or soft loans.

Businesses may have different alternatives to raising capital.

For some companies it is advisable to use internal sources of funding for water treatment plant projects, for others it is better to use external ones.

An important source is the financial resources of enterprises formed as a result of asset restructuring.

One of the main tasks of attracting investment in environmental projects is to justify decisions on the optimal forms of financing. In this regard, companies are often faced with the need to make decisions about choosing the best alternatives.

The financial model provides objective information, helps to assess the benefits of each of the financial alternatives and predict future results.

In deciding on the sources of project financing, it is important to take into account the criteria, advantages and disadvantages of raising loan capital and equity, external and internal sources of financing.

From the point of view of the project initiator, equity is less risky compared to borrowed capital.

For lenders, on the other hand, being a lender is less risky than being an owner, due to the peculiarities of bankruptcy law and some other factors.

If you are interested in financial modeling services, please contact CP Finance UK Finance for details.

Our company offers long-term financing of water treatment facilities, project finance (PF) services, loan guarantees, project management, engineering services and much more.

CP Finance UK FINANCE LIMITED
Website:https://c-pfinanceuk.com/
E-mail:finance@cpuk-financeltd.com
Alt-Email:admin@cpukfinanceltd.com

The construction of large hydroelectric power plants project is becoming an increasingly complex and costly task amid dwindling water resources and tightening environmental standards around the world.

The use of advanced financial models of hydroelectric power plants project in the planning of investment projects is now becoming of great importance for business.

Having high quality financial forecasts can be a key success factor that will push partners to invest in your multi-million dollar project.

The financial model is an important tool that opens the door to external financing in modern capital markets.

CP Finance UK offers private and public customers professional assistance in financing energy projects around the globe, including long-term bank loans and project finance schemes.

We also develop tailor-made financial solutions for energy sector and other capital intensive areas.

Long-term hydroelectric power plants project financial model: theoretical basis

In corporate finance practice, the term “financial model” refers to a comprehensive analytical tool that is used to evaluate and compare projects.

This tool is based on initial project data with a set of assumptions that are processed using standard mathematical and statistical methods to obtain the most accurate predictions of future results.

Financial modeling principles include the following:

• Taking into account all significant aspects of the hydroelectric power plants project and all future events.

• The analysis period should cover the years over which the values of the variables can be predicted with reasonable accuracy.

• The long-term financial model of the hydropower plant should help to generate financial statements (income statement, balance sheet).

• The model must be dynamic, which means that important financial variables can be changed with a corresponding recalculation of the results.

• Revenues and costs for a single project should be modeled separately for each activity.

• The model should take into account the trends observed in real-world projects.

Since the construction of Hydroelectric power plants project currently requires significant investments (in most cases, at least 2 million euros for 1 MW of installed capacity, taking into account the construction of reservoirs and environmental costs), the role of a high-quality financial model of hydropower plant in the long term can hardly be overestimated.

Most often, such models should cover an investment period of at least 5-7 years.

The stages of forecasting the financial results of the hydroelectric power plants project include:

• Making a set of assumptions for financial analysis.
• Development of a detailed program to maximize profit (electricity sales).
• Forecasting revenues from electricity sales taking into account internal and external factors.
• Forecasting the costs of production and supply / sale of electricity.
• Drawing up a project budget with a plan of expenditures and sources of funds.
• Planning financial costs, taking into account the schedules of loan repayment.
• Drawing up a detailed report on the profit and loss of the project.
• Planning for working capital requirements.
• Drawing up detailed reports on cash flows.
• Determination of the cost of capital.
• Assessment of the effectiveness of the project.
• Risk analysis.

In practice, compiling a financial model for a hydroelectric power plant will require the collection and processing of a large amount of information that is relevant to the future and therefore subject to uncertainty.

This activity requires complex calculations, taking into account changes caused by objective reasons or a change in the position of the project participants on specific issues.

Thus, the level of qualifications, practical experience and technical equipment of the financial team, along with access to project information, determine the result of financial modeling of each project.

Capital structure in a financial model of a hydroelectric power plant

One of the most important tasks at the planning stage of a hydroelectric power plants project is to determine the capital structure.

In this context, experts identify the following criteria:

• Types of capital: a set of sources of financial resources and instruments available to the company that will be used for the construction and launch of the facility.

• Time frame: comparison of specific sources of capital and financial instruments involved in the implementation of the project at different stages. This kind of structure is built on a clear time frame for the start and end of financing / refinancing of the HPP project.

The complexity of the financial decisions taken during the construction and launch of large capital-intensive facilities is due to a number of factors.

The choice of the optimal sources of financing for the HPP project depends on the following:

• A clear understanding of the need for financial resources, the method and time of their receipt, the schedule for the use of funds and settlements with creditors.

• Rational choice of financial instruments, taking into account their availability for a specific project, advantages and disadvantages of use.

• Taking into account the peculiarities of the interaction of various financial sources and instruments, their influence on the effectiveness of each other.

• Understanding the relationship of each funding source and financial instrument to the project’s ownership structure and value.

• Minimization of the cost of attracting external financial resources.

• Correct assessment of the risks and constraints of the project.

These aspects require the project participants to take a comprehensive approach to drawing up the financial model of the hydroelectric power plant, constantly monitoring changes and promptly adjusting the relevant parameters within the project structure.

The role of financial models and forecasts in hydropower projects

Financial forecasting means a set of activities through which financial forecasts are made.

The subject of forecasting in hydropower projects is financial flows, the models of which are compiled on the basis of initial forecasts of material flows, the most important of which is the forecast of electricity sales, as well as forecasts of consumption of materials, labor, etc.

A predictive model in financial forecasting can be represented as a financial model of a hydroelectric power plant, consisting of a system of equations.

Such models can be developed, for example, for the analysis and comparison of financial statements of several projects, preliminary cash flow estimates, investment cash flow projections and free cash flow projections.

Each of the financial forecasts is created by building a complex financial model as a result of changing a set of one or more initial parameters.

Financial forecasts can be created by specialists of the initiating company or developed under a contract by third-party organizations (contractors, rating agencies, financial analysts, consultants).

Typically, financial modeling of hydropower projects is performed with changes in assumptions about external factors such as economic growth, exchange rates and interest rates. The purpose of making financial forecasts is to reduce risk in the decision-making process.

For example, in the course of forecasting financial statements and assessing future cash flows of hydroelectric power plants on their basis, experts assess the financial needs of the project, which vary depending on external factors, methods and scale of the project, and planned electricity sales.

The source of meeting these financial needs are investments in working capital and fixed assets. This requires making the most rational investment decisions regarding the sources of attracting additional funds. On the other hand, based on cash flow forecasts, HPP investment projects are compared, which makes it possible to decide whether to accept or reject a specific project.

Depending on the objectives of the forecast, qualifications and the level of access of the performers, the composition of the variables included in the financial model of hydroelectric power plants project changes.

For external analysis, many parameters are uncontrollable variables, so the role of modeling is reduced.

In the literature on financial management of the energy sector, the goal of financial forecasting is reduced only to determining the financial needs of the enterprise.

In practice, this goal is much broader and covers not only the financing of the hydropower project, but also other needs.

Among them are the development of the enterprise, the management of working capital, the formation of the value of the project for investors, as well as the management of project risks of various nature, and much more.

If you are looking for professional financial modeling services for hydropower projects, contact the CP Finance UK team.

Our company provides long-term financing for large projects, offering clients comprehensive support at all stages.

CP Finance UK FINANCE LIMITED
Website:https://c-pfinanceuk.com/
E-mail:finance@cpuk-financeltd.com
Alt-Email:admin@cpukfinanceltd.com

Models for financing a solar energy projects and the global renewable energy sector has shown steady growth over the past decades.

According to the Energy Outlook 2021, the combined market for wind and solar PV technology in Europe could grow by 35 GW during 2021, requiring an investment of 60 billion euros.

The International Energy Agency says wind power will grow by 8% and solar power by 13%.

Once completed, the solar power plant becomes the cheapest technology to operate for power generation, since solar radiation is available completely free of charge, and modern equipment requires minimal operating costs.

Thus, renewable energy sources easily displace fossil fuels as soon as they enter the market.

This gap will widen even further in 2021. Positive market trends plus preferential terms persisting in many countries will drive the sector’s growth. This is complemented by technological advances that have made newly built solar power plants cheaper on average than coal or nuclear power plants.

An important point in the context of increasing the competitiveness of solar energy is the correct choice models for financing a solar energy plant project.

Among the potential instruments for the implementation of these capital-intensive projects, long-term investment loans and complex project finance instruments are now available to businesses.

CP Finance UK offers the implementation of investment projects in the field of renewable energy around the world.

Our specialists are ready to provide customized solutions for each project, from long-term financing to the development of technical documentation and the construction of a solar power plant under an EPC contract.

Contact us.

Long-term bank loans as models for financing a solar energy plants

A bank loan is one of the oldest and most popular business financing instruments that remains in high demand in solar energy.

A significant percentage of the $ 2.7 trillion invested in renewable energy sources in the world over the previous decade came from long-term loans.

In general, there is no fundamental difference between short-term and long-term loans. Some of the features of the latter are listed below:

• Long-term loans for the construction of solar power plants are usually provided for a period of 5-7 years or more, depending on the type of project.

• The interest rate can be fixed or variable, the latter being common. Recently, loans with a more complex variable interest rate are often offered.

The volatility of interest rates makes it necessary to propose new financial transactions adapted to changing market conditions.

In this sense, the variable interest rate makes the financial model of the solar power plant project more flexible, adapting it to the general conditions of the financial environment. For this reason, banking operations that were previously subject to fixed interest rates are gradually being replaced by indexed loans (linked to the index), the parameters of which vary depending on market fluctuations.

Any lending operation involves the assumption of a certain risk by the lender.

As the maturity period increases, the uncertainty increases, so the requirement for guarantees that protect the lender becomes more common.

A loan for the implementation of a solar project can be protected by real guarantees in the form of securities, real estate, movable property and other valuable assets. If there is not enough collateral, the financial institution may request one or more guarantors to provide debt repayment in the event of a default on the borrower’s company.

Considering that the construction of a large solar power plant with an installed capacity of 100 MW may require about $ 80-100 million or more, some projects are financed by bank syndicates, rather than individual banks.

Syndicated loans are provided for the implementation of large projects and models for financing a solar energy through one credit operation.

This type of lending helps energy companies reconcile the demand for large volumes of financing with their desire to avoid excessive concentration of risk from financial institutions.

Benefits of investment loans for solar energy projects

Investment bank loans as models for financing a solar energy projects have become extremely popular and the ease of obtaining funds is far from the only reason for the demand for this versatile financial instrument.

Long-term bank loans, although used most often for solar projects, cannot be seen as ideal financing.

When determining models for financing a solar energy project, a company should consider the advantages and disadvantages of each of them in a specific business situation.

Disadvantages of using bank loans:

There are no ideal financial instruments.

Every company has a unique economic and financial situation, so not every solution for one company will work for another.

Business owners or those responsible for managing corporate finance should not forget about other alternative financing options that are emerging in the market and can often be more attractive than the popular investment loan.

Borrowers should understand current financial market offerings and carefully analyze individual offers.

The financial team of  CP Finance UK  is ready to provide you and your employees with comprehensive advice on the implementation of investment projects.

Project finance for solar power plants

The project finance (PF) method is one of the most advanced methods of raising funds for the construction of large solar power plants or other capital-intensive energy facilities.

The PF allows a business to attract significantly larger funds in comparison with traditional bank lending.

Large enterprises making long-term investments today are forced to attract capital from outside, since they rarely have significant amounts of their own funds. Various financial instruments come to the rescue, which include loans, leasing and project finance.

Energy companies that run several expensive projects at the same time or are faced with debts for previously consumed energy need capital for further development and implementation of large projects. PF opens up new opportunities for business expansion, relying on the prospects of a specific project, and not on the assets of the borrowing company.

Along with the growing popularity of project finance and the development of more and more efficient variants of Models for financing a solar energy, it is becoming suitable for smaller and smaller projects.

Choosing a model for financial a solar energy project

Companies that succeed in the auction often have limited time to expand their PV capacity.

What are the best models for financing a solar energy project today?

There are two main ways.

The first business models for financing a solar energy projects and  the construction of  the facility is through a long-term bank loan.

In many countries, such a loan is not difficult to obtain by holding a successful auction and submitting a serious business plan.

The second business model involves the organization of project finance (PF) with the involvement of an investor who, at a price determined depending on the capacity of a given facility, finances its construction and acquires ownership of this asset. Sometimes the company, in addition to cash injections associated with the completion of the solar power plant, receives a long-term contract for its maintenance.

The transaction is usually carried out as the purchase of shares in a limited liability company whose assets are a photovoltaic installation.

Typically, a long-term contract for the operation and maintenance of the facility is signed between the same parties.

The company that is the subject of the transaction receives a guaranteed sales price for the energy produced for 10-20 years and guarantees the estimated costs necessary to keep the installation at the highest level of efficiency.

This situation allows investors not only to gain know-how related to the engineering design and construction of power plants, but also to secure a long-term source of income. Equally important in this case is the availability of free funds that can be spent on the development of new projects.

How much does a 1 MW solar power plant cost?

The cost of building a solar power plant remains a secret, which is revealed to the initiator only as a result of detailed design calculations and negotiations with potential contractors and equipment suppliers.

The cost of each megawatt of installed capacity can be named only approximately, focusing on the specifics of the project and the market of the host country.

When developing models for financing a solar energy projects, it is important to take into account the complexity of the construction of such facilities, which in some cases are associated with a certain risk and unpredictability.

This is not only about the construction and installation time of equipment, which can vary from 3-6 months to 1 year or more, taking into account the scale and technical difficulties that may arise at the site.

The project depends on successful planning, engineering design of a solar farm, finding and preparing a suitable site for construction, obtaining licenses, supplying electrical components and metal structures, installation, etc.

If you are planning to build a large solar power plant, contact our consultants.

Our financial and technical team will help you get the expected construction cost estimate, select engineering solutions and determine the optimal financial model for a specific project.

CP Finance UK FINANCE LIMITED
Website:https://c-pfinanceuk.com/
E-mail:finance@cpuk-financeltd.com
Alt-Email:admin@cpukfinanceltd.com

Funding of mineral fertilizer plants is a generalized plan that reflects the expected costs and income of the project in a certain time horizon.

It is a critical element of any large investment project that is required not only by sponsors, but also by potential lenders, contractors and clients.

Funding for mineral fertilizer plants and The construction of a modern facility associated infrastructure typically requires tens of millions of euros, most of which must be raised in the early stages of the project.

Financing capital-intensive projects on the right terms is becoming increasingly challenging in this industry, requiring sponsors to have a perfect business plan, a flexible financial model and guarantees.

CP Finance UK Finance, with extensive international experience, offers a full range of professional services for funding a mineral fertilizer plants worldwide, including the following:

• Long-term loans.
• Project finance services.
• Credit guarantees.
• Project management.
• Financial modeling.
• Support and consulting.

Contact our representative for details.

Basics of financial modeling for funding the mineral fertilizer industry

In general, a financial model is a system of interrelated indicators that can be used to assess the health of a company or its projects.

It is aimed at forecasting revenue, cash flow, profit and other important parameters. But the main advantage of financial modeling is the flexibility of the finished product, including the ability of the user to calculate in two clicks how changes in the market or within the company will affect its financial condition.

A high-quality financial model shows all stakeholders how a particular business project works and justifies the level of its expected profitability. This gives confidence to partners, which is especially important in the early stages of cooperation. The financial model is included in the structure of the business plan of the mineral fertilizer plant, being a financial expression of all other elements of a particular investment project.

The financial model helps owners to control the development of the company, and also allows lenders to make a more informed decision on issuing a loan. The financial model is studied by both lenders and investors.

For the latter, not only the idea is important, but also real results and growth.

Since the mineral fertilizer industry is closely linked to agriculture and other sectors of the economy, as well as highly globalized and dependent on numerous factors, the requirements for such a model are very strict. For example, any change in the cost of gas, electricity and logistics immediately affects the operation of mineral fertilizer plants.

The principles of financial modeling applicable to funding the mineral fertilizer plants are listed below:

• Availability of a certain set of accurate and reliable initial data on the external and internal environment of the investment project.
• Comprehensive assessment of the entire range of available financial resources, taking into account the terms of their attraction and use.
• High-quality assessment of the efficiency of the project under different conditions.
• Sensitivity analysis of the financial plan.

The essence of the financial model can be considered in three aspects, including the feasibility of the project (viability), its overall economic efficiency and sensitivity.

For an ideal funding of a mineral fertilizer plants, the deterioration of any of its parameters should not have a significant negative impact on key performance indicators.

The model should include several scenarios, such as a baseline, an optimistic scenario, and a pessimistic scenario. For each of them, detailed calculations are made in a certain time horizon. Scenario settings should include all relevant parameters, including exchange rates, tax changes, changes in duties on chemical products and fertilizers, personnel salaries, equipment repair and modernization costs, and other direct and indirect costs.

The more parameters a financial model takes into account, the more accurate its results will be in different scenarios.

Typical sections of the financial model

Given the complexity of the modern mineral fertilizer industry, as well as the versatility of contractual relations between participants in project finance schemes, it is better to entrust the development of a financial model for a large project to a professional team.

Regardless of the approach chosen, any financial model should include the following sections:

• Initial data.
• Capital investments.
• Sources of project financing.
• Project cash flows.
• Investment efficiency.
• Sensitivity analysis.

The foundation of any investment project is the correct initial data on which subsequent forecasts and models are based.

This section should contain parameters that directly affect the activity of the project. This includes external factors, internal factors, operating costs, additional sources of income, obligatory payments on loans, as well as forecasts for KPIs based on this data.

With regard to capital investments, this section should reflect the costs of purchasing (creating) long-term assets such as land, premises, infrastructure, production equipment and transport.

For each item, it is important to calculate depreciation costs that will be deducted from revenue.

Since funding a mineral fertilizer plants and construction of its facility is a very complex engineering project, capital investment consists of many components. The more complex the project (for example, ammonia production or mining facilities), the more capital investment will be required and the more complex the structure of the financial model will be.

The selection of project finance sources is the next important step in model development once the capital costs have been determined and the overall scope of the investment project is understood. Since the cost of building a fertilizer plant from scratch is typically in the tens of millions of euros, project sponsors may need a long-term investment loan and other leverage mechanisms.

This includes the issuance of additional shares and bonds, as well as leasing instruments.

When describing the cash flows of a project, the finance team should systematize all the information from the previous sections and calculate the difference between income (positive cash flow) and expenses (negative cash flow) for the period for which specific model is being developed.

For investors and lenders, this parameter may be more important than profit, as it demonstrates the real financial health of an investment project.

But negative cash flow does not always mean that the company is incurring losses. This situation is normal during the period of business restructuring. In any case, it is important to add a rational explanation for potential providers of capital.

There are three key financial parameters that are important to consider:

1. NPV (Net Present Value) is the sum of cash inflows and outflows at the date the investor would like to make a profit. For example, a year after he invested money. By negative NPV, the investor will understand that the costs of the project exceeded the investments.

2. IRR (Internal Rate of Return) is the rate at which NPV is zero. It demonstrates the average profitability of a mineral fertilizer plant project over a certain period. In other words, IRR reflects the profit that an investor participating in the project will receive.

3. PP (payback period) is the minimum period for which the costs of the project will pay off. To correctly calculate this indicator, the team needs to predict how much profit the business will bring each year. The longer the investment pays off, the less attractive it is considered.

Finally, the last important part of the financial model is sensitivity analysis.

It shows how the profit of the enterprise will change under the influence of external factors, which are listed in the first section.

In particular, sensitivity analysis helps to understand how the cost of production will increase with an increase in the foreign exchange rate if the plant buys ammonia from abroad.

External factors in a globalized market cannot be underestimated, especially when it comes to the mineral fertilizer industry. The most recent example is the skyrocketing rise in natural gas prices in Europe, which led to a sharp increase in electricity prices in 2021 and reduced the activity of some plants producing ammonia, one of the main components of nitrogen fertilizers.

Main metrics in the financial model of a mineral fertilizer plants

The attractiveness and viability of any business project is measured by a standard set of parameters that must be reflected in financial model.

From the perspective of investors and lenders, key project performance indicators include the following:

• Net present value (NPV).
• Profitability index (PI).
• Internal rate of return (IRR).
• Modified Internal Rate of Return (MIRR).
• Payback period of initial costs (PP).
• PP calculated using discounted cash flows (DPP).
• Weighted average rate of return (ARR).

Importance of financial modeling services

Most often, the financial model is the basis for the financial forecast and evaluation of the profitability of investment projects in the mineral fertilizer industry and related areas.

Thanks to the financial forecast, stakeholders will receive concrete figures about the future financial results of a particular project.

The financial model and funding for mineral fertilizer plants is an effective motivational tool for constantly improving business engineering.

Liquidity risk is of considerable importance, which is minimized by calculating the projected net cash flows and funding requirements to obtain the most profitable source of project financing. In an increasing number of companies, forecasts are used to determine KPIs.

On the other hand, the assessment of the profitability of an investment is valuable information regarding the decision to participate in this investment project and the study of the financial benefits associated with its implementation.

The financial model and funding of a mineral fertilizer plant is used when attracting investors, applying for a loan, selling a business, or distributing shares between partners.

CP Finance UK Finance is ready to offer the development of a financial model, as well as a company’s cash flow forecast for banks and investors.

Our company can also conduct a break-even analysis of the project and a stress test that will show how the financial health of the company will change if key indicators deviate from the plan.

As part of the preparation of the financial model, our company can also carry out calculations of the economic efficiency of your investment project, which include NPV (net present value of the project) and IRR (internal rate of return), as well as building a DCF model of future cash flows from the funding of mineral fertilizer plants.

We don’t take a one-size-fits-all approach, but our team develops customized solutions for each client. If the financial model is needed only for internal purposes, we can prepare only a model and a short memorandum.

If the document is being prepared for investors or lenders, we can present your project by supplementing the financial model with the market analysis in which the company operates and a high-quality presentation of the project, highlighting its strengths and advantages.

We operate in many countries such as Spain, France, USA, Germany, Mexico, Saudi Arabia, UAE, Brazil, Argentina, Egypt and others.

For advice and possible financing, please contact CP Finance UK Finance at any time.

CP Finance UK FINANCE LIMITED
Website:https://c-pfinanceuk.com/
E-mail:finance@cpuk-financeltd.com
Alt-Email:admin@cpukfinanceltd.com

Funding for thermal power plants projects is declining every year, but the use of fossil fuel energy remains a bridge linking the modern economy with an innovative carbon-free model of the future.

The growth of renewable energy sources in recent decades heralds an imminent green transformation of the global energy sector.

Against this background, investment projects in the field of coal energy over the past decade have decreased by almost 5 times, retaining, however, a dominant role only in the PRC and developing countries of Asia.

According to the Sustainable Finance Program (Oxford University), the cost of borrowed funds for the construction of new thermal power plants in the world is growing, while the development of renewable energy projects is rapidly becoming cheaper.

Funding for thermal power plants projects is becoming more expensive, reflecting the potential risks associated with changes in legislation.

Despite gloomy forecasts, the construction of combined cycle thermal power plants, including gas-fired power plants and innovative integrated gasification combined cycle technology, continues to play an important role in the energy strategy of the United States, China, Russia, India and other countries.

Considering the huge reserves of coal, oil and gas, which will be enough for the energy industry for at least half a century, the energy of fossil fuels continues to be used even in the context of the global energy transition.

Under the new conditions, companies planning to implement fossil fuel energy projects should prioritize the choice of a financial model for a thermal power plant project.

The correct choice of funding sources becomes the key to the viability of such projects in the future.

Bank loan, combined project finance instruments or bond issue?

It is critical to choose the right financial model for a thermal power plant project, the success of which depends on the asset value of the initiators, future cash flows, electricity and fuel prices, demand forecast and other factors. A deep understanding of the market will help you find the most adequate funding for your project.

Securing funding for thermal power plants projects on the world market requires practical experience and cannot be successfully carried out without the qualified assistance of financial consultants. Assuming that the thermal power plant project already has a viable financial model, the next step should be to use the services of one or two international banks with sufficient experience in financing energy projects.

CP Finance UK Finance brings together an international team of professionals providing comprehensive services for medium and large businesses.

We offer project finance services, develop advanced financial models and advise clients on any financial, legal and engineering issues.

Are you looking for a reliable partner for your energy project?

We are ready to act as your general contractor, offering the construction of thermal power plants under an EPC contract.

Contact us anytime with your project details.

Choosing a financing model for a thermal power plants project

When structuring project financing, the lender must adapt the construction contract or EPC contract accordingly.

It must be drafted in such a way that the rights of the initiator in relation to the specified contract can be transferred in favor of the creditors.

A professional analysis of the contract as part of the structuring of the financial model for a thermal power plant is crucial mainly due to the following fundamental aspects:

• The lender or investor must have access to any economic benefit that the issuing company receives under the contract. In case of violation of the terms of the contract, these funds can be used to compensate for losses to the party financing the construction of the thermal power plant.

• The proponent of the project has limited financial obligations to the contractor, which are clearly defined by the contract in such a way as to avoid “overestimating” the project. To minimize risk, it is important to enter into contracts on a “one-time payment” basis.

It is clear that the more predictable the project budget is and the more limited the risk of its increase during the construction phase of the facility, the lower the risk for the investor.

The financial model for a thermal power plant project should be designed in such a way that the parties have the maximum interest in the successful completion of this project. It is obvious that the investor sets the following conditions.

First, the funded project must be completed on time and put into operation on schedule.

Secondly, the investor is interested in not having a significant cost overrun during the construction phase.

If the proponent of the project does not guarantee that the aforementioned points are properly provided for in the construction contract, then there is a risk that potential investors will refuse to participate in the project. If the project is financed through the stock markets, the success of the bond placement cannot be guaranteed under these circumstances.

For these reasons, the participation of professional financial consultants is essential for the correct organization of financing for the construction of a thermal power plant and ensuring acceptable conditions for the implementation of the project, whether it is a new or mature project.

Bank lending for the construction of thermal energy

The successful launch and expansion of any business initiative, including the implementation of large energy projects, requires available sources of financial resources.

Bank loans are a very popular source of capital for acquiring assets, financing operating expenses, and fulfilling contractual obligations to suppliers, contractors, customers and other lenders.

Despite the wide range of available funding sources, the issue of financial provision of the project with bank capital comes to the fore. Funding for thermal power plants projects on bank lending compares favorably with its simplicity compared to alternative financial models.

Despite the rapid development of equity markets, banks are much more important sources of financing for the energy sector.

Investment loans in some regions of the world account for more than half of all capital-intensive energy projects implemented.

Investment loans: An investment loan is a long-term loan provided by a bank or other financial institution to finance investment expenses related to running and developing a business, including the construction of large facilities.

This loan is used to finance investment projects related to the modernization, reconstruction or expansion of the company’s fixed assets.

The funds raised are used to purchase a land plot for construction, build new power units or expand existing facilities, purchase generators, boilers, turbines, conveyors and other equipment.

The loan amount is allocated to the borrowing company in accordance with the individual needs of the project. A loan can be obtained once or, for example, in parts adapted to the schedule of the investment project.

Funding for thermal power plants projects and construction cost of the facilities ranging from $ 600 to $ 1,000 per megawatt, the total project cost can reach several hundred million dollars.

This makes the development of a financial model critical to the success of the project.

The condition for obtaining an investment loan for the construction of a thermal power plant is confirmation of the economic efficiency of this project, as well as the issuance of loan collateral or other reliable guarantees, well-prepared technical documentation and financial plans.

To reduce credit risk, banks often require the borrower to participate in the planned investment project.

Depending on the type of project, the contribution ranges from 10% to 20% of the investment value.

This requirement is based on the assumption that a borrower risking equity capital will be more interested in the success of his investment.

Bank financing or bond issue: important considerations

Choosing a financing model for any capital intensive project is often a dilemma.

Bank loan, project finance or bond issue?

There are many financial and legal reasons in the thermal energy sector that are important to assess in each case.

If the analysis of the financial model and funding for the thermal power plant project showed that it is necessary to take a long-term loan (15 or 20 years), then the international capital market may be a more appropriate solution compared to the traditional bank loan.

With rare exceptions (for example, long-term loans from the International Finance Corporation), the syndicated loan market offers shorter maturities than may be required to finance a TPP project.

On the other hand, bond financing tends to have fairly long maturities with easy setup and restructuring.

For this reason, the financing of the thermal power plant project can be carried out through the issue of bonds. Given the complex nature of the issue, companies need the right financial instruments and professional support to successfully place bonds, especially among international investors.

Bank loans in many cases are simpler and more affordable compared to entering the stock markets or organizing project financing.

However, there are several good reasons to finance a TPP project through international bond markets:

• The company needs large investments, but banks and the local stock market do not have sufficient appetite to finance the project.

• Companies, for certain reasons, are not satisfied with the financing conditions offered by local banks, credit institutions or private investors.

• The project initiator seeks to diversify risk by opening up access to international institutional investors from other parts of the world.

• Placing bonds on the international market makes the TPP project more competitive given the high rates on bank loans and the complexity of organizing project financing.

The choice largely depends on the scale of the project, the supply of fuel (natural gas, coal, fuel oil or possibly biomass), guaranteed demand for electricity, and the availability of strong sponsors with extensive experience in the sector.

It is important to understand that it is more difficult for companies from developing countries to take advantage of certain financial instruments, such as placing bonds on the global market.

The flexibility ofD is considered to be an advantage over bond-based financial models due to the broad opportunities for negotiating with the bank on changing debt repayment schedules, as well as restructuring and refinancing loans.

On the one hand, serious energy projects are carefully planned and studied, including a detailed risk assessment.

On the other hand, the construction of thermal power plants in developing countries carries serious risks that may require a revision of the financing conditions at any time.

This is not easy to do in the case of the issuance of project bonds.

The project initiator must also anticipate future legislative changes, which are rapidly moving towards green energy in many countries. Obtaining government guarantees can secure the project and will help to increase its investment attractiveness.

Project bonds: a new word in energy financing

Recently, project bonds have been actively used to finance capital-intensive projects.

This can be explained by a number of advantageous features of this type of securities that distinguish them from traditional corporate bonds. Borrowed funds raised by placing project bonds are paid from the cash flow generated by the project, but not from the issuer’s current income.

This feature makes project bonds a kind of long-term investment in future projects. Today, project bonds have become very attractive to large financial players looking for stable and long-term investment opportunities.

Such securities are readily purchased by pension funds, large investment funds, as well as insurance companies and other institutional investors.

The concept of project bonds is underdeveloped in some regions of the world, but this method is gradually crowding out traditional debt financing, especially in capital-intensive sectors such as energy, infrastructure and the LNG industry.

An innovative financial model of a thermal power plant project based on the placement of project bonds has a number of advantages for the initiator.

However, some aspects continue to cause debate among entrepreneurs.

The first argument against the use of project bonds to finance large objects is the so-called negative carry.

Its essence lies in the fact that the issuing company receives funds immediately, while the costs of building a power plant are spread over a period of several years.

This leads to a situation where the issuer is forced to regularly pay interest on borrowed funds that are not actually used at a given time. To avoid unnecessary costs, companies should use a special mechanism of deferred payments or issue several series of bonds in accordance with the financial needs of the project.

The second argument in favor of debt financing for the TPP project is limited access to stock markets.

Some companies will not be able to effectively place their bonds on the international market, while the local market is underdeveloped and does not meet the needs of the business.

This problem is especially common in young companies. But on the other hand, such companies rarely undertake the implementation of large energy projects. In addition, small companies with limited assets do not have access to bank loans, turning to project finance instruments.

Despite a number of controversial issues, project bonds are widely used for funding for thermal power plants projects and construction of the facilities and other large energy projects.

Since such projects are characterized by very high and stable incomes, which are guaranteed by long-term agreements, investors’ appetite for purchasing project bonds is high today.

Project finance (PF) for thermal power plants

The term “project finance” means funding a thermal power plants from internal financial resources and (or) borrowed funds provided against future cash flows, but not against the assets of the company that initiated the project.

Thus, the potential return on investment and risks largely depend on an accurate and reasonable assessment of a particular project by the investor.

Project finance (PF) is widely used in the energy sector due to the attraction of large investments on an off-balance sheet basis.

Thanks to the competent implementation of this financial model for the TPP project, companies can simultaneously build several large facilities without burdening their financial statements with a huge debt.

In most cases, partners create a dedicated project company, whose assets serve as collateral and its future cash flows are used to service debt.

Banks in this case provide about 70-80% of the project cost, but some financial institutions offer to finance 90% of the project and even the full cost.

The complex structure of the contractual relationship in the framework of project finance contributes to the optimal distribution of project risks between the parties who can best cope with these risks. Consequently, the organization of the PF, along with a detailed analysis of the project, requires multi-stage negotiations and time-consuming legal work.

Regardless of the project type and funding method, partners will make a decision to participate based on implementation risks and expected income.

The financing structure, collateral and other points depend on the specific case.

The cost of arranging project finance (fixed costs) is considered to be higher than traditional debt finance models of a thermal power plant project. In this regard, the PF can be used only for the implementation of large investment projects, estimated at tens of millions of euros.

Most often, project finance is used for the construction of large-scale facilities that require expensive R&D, engineering, as well as technically complex construction and the purchase of expensive equipment.

Until recently, project finance was considered quite risky, but in the mid-2000s, a number of economic studies appeared that confirm the significant advantages of PF instruments over traditional corporate lending in a number of investment projects.

This financing method has been used for the construction of numerous thermal power plants, substations and power lines in the United States, Latin America, Africa, Europe, as well as in East Asia, the Middle East and other regions of the world.

CP Finance UK Finance is ready to offer long-term bank funding for thermal power plants projects on attractive terms.

We also arrange project finance for the construction of thermal power plants around the world, providing a full range of financial, legal and engineering services for energy companies.

Advantages of project finance

Project finance is chosen by energy companies due to several principal advantages, listed below:

• Non-recourse or limited recourse financing.
• Off-balance sheet financing of the project.
• High share of borrowed funds in the project, reaching 90%.
• Absence of strict restrictions in the contract.
• Isolated financing, where SPV acts as a borrower.
• Potential tax benefits.
• Minimization of risks.

To better understand the advantages of project funding of thermal power plants, below we describe in more detail about each of these aspects.

Any combination of the above aspects is sufficient for sponsors to consider the project finance method as optimal for project implementation.

But the most important benefits of the PF for the initiator include limited recourse and off-balance sheet financing through the creation of an independent project company.

If you are interested in project finance for thermal power plants, contact the CP Finance UK Finance financial team. Together with our European partners, we have implemented numerous energy projects in more than 30 countries around the world, so we are ready to use our experience and business contacts to promote your business.

Our services in financing the construction of thermal power plants

CP Finance UK Finance, an international financial company, has served private companies and government customers for over a quarter of a century.

We provide loans, project financing in the energy sector, provide loan guarantees, as well as offer investment engineering services, financial model development and consulting.

The geography of CP Finance UK Finance services covers almost the whole world: USA, China, Mexico, France, Germany, Spain, UAE, Argentina, Brazil, Venezuela, South Africa and other countries. Extensive international experience and deep understanding of the energy sector guarantee the high performance of our solutions.

Our team with partners carries out engineering design, construction and modernization of coal and gas thermal power plants of various types.

CP Finance UK Finance offers advanced integrated solutions for industrial customers.

If you are looking for a reliable financial partner or general contractor, please contact us.

CP Finance UK FINANCE LIMITED
Website:https://c-pfinanceuk.com/
E-mail:finance@cpuk-financeltd.com
Alt-Email:admin@cpukfinanceltd.com

Financial modeling is critical to the evaluation of a mining and processing plant projects.

The purpose of the financial model of a mining and processing plant projects is to answer the question whether the proposed project can provide a sufficient return on capital and create additional value for business owners.

The cost of building a mining and processing plant projects, taking into account geological exploration, engineering, research, construction, purchase / installation of equipment, infrastructure development and staff training, can amount to billions of euros in the case of large projects.

This is a huge investment even for such market giants as Glencore, ArcelorMittal, BHP or POSCO.

Obviously, developing a financial model for Mining and processing plant projects is a great responsibility.

CP Finance UK Finance provides a wide range of financial, engineering, investment and consulting service for large businesses around the world.

In particular, we offer project finance, financial modeling, as well as loan guarantees, financial advice and comprehensive investment support for mining projects.

Basics of financial modeling mining and processing plant projects

The construction of a mining and processing plant projects is usually a colossal investment project that greatly affects the fate of the mining business, and also changes the lives of local communities, regions, and sometimes entire countries.

Attracting hundreds of millions of euros in the form of investments and long-term loans requires a comprehensive financial analysis and forecast from the project initiators, which is why the financial modeling of mining and processing plants is considered one of the most complex and demanding services in this area.

The main difficulty is modeling the discounted cash flows of an investment project, taking into account the changing value of money in the required time horizon. Potential investors, lenders and project sponsors must be clear about whether the mining and processing plant’s revenues will be sufficient to repay the project debts in accordance with the approved schedule, while still allowing the project participants to earn an adequate profit.

Professional discounted cash flow (DCF) modeling is an important part of a feasibility study and allows stakeholders to test the economic viability of a capital-intensive project with long-term loans or investments.

Cash flow modeling should be carried out throughout the project development cycle, increasing in detail as more project information becomes available.

As the mining project develops, detailed engineering studies and market analysis should be carried out and capital costs, operating costs and projected sales can be determined with reasonable accuracy. Thus, the cash flow model will be more accurate and will include tax calculations, sensitivity analysis, as well as full project financing scenarios.

When evaluating the project documentation, the potential investor/lender will carefully examine the cash flow model of the project. Often, capital providers use the professional services of independent consultants to test proposed financial models. The investor/lender will also conduct a detailed risk analysis and evaluate the project’s funding sources to determine the best scenario.

Discounted cash flow modeling demonstrates the viability of a mining project not only by verifying that the revenues generated are significantly higher than the costs and debt service requirements, but also by measuring the present value of these funds.

The principle behind DCF-based financial modeling and analysis is that any project should be compared to investing the same cash flow in alternative projects.

One of the main issues of the analysis is how to choose the most appropriate discount rate. The discounted cash flows can be used to determine the net present value of a mining project (NPV). It includes many components, including an assessment of the potential of a mineral deposit to generate future profits. Mining projects with NPV greater than 0 will generate more income than their costs, at a minimum acceptable rate of return, and any mutually exclusive investment alternatives can be ranked by NPV.

Internal rate of return (IRR) and payback period can also be calculated based on a discounted cash flow model. Internal rate of return refers to the discount rate at which the net present value of all cash flows at the start of the project is zero.

A mining project is considered profitable if the IRR is greater than the opportunity cost of capital, and mutually exclusive investment alternatives are ranked by IRR value.

The payback period is the period of time required for the initial investment to pay off from the flow of positive cash flows.

This indicator is considered secondary and is usually not used independently for making financial decisions, since it does not take into account the change in the cost of resources over time.

Regardless of the approach chosen and the parameters used, the most important requirements for a financial model are convenience, consistency and operational flexibility. Developed in the form of spreadsheets or software applications, such a model should provide easy access to key financial indicators and forecasts to any interested person.

Development of financial model for mining industry

In large mining projects, spreadsheets with financial indicators can be extremely complex and large-scale, so the financial model of the mining and processing plant is mainly implemented in the form of special software.

This allows users to easily follow the calculation logic and change any project parameters by introducing new input data. Such a model should be accurate, concise and adaptable.

To achieve this goal, finance teams often use specialized software products designed for the financial evaluation of mining projects. Such programs contain the main parameters, stages and formulas inherent in the financial models of mines, quarries and mining and processing plants of various sizes. It takes into account a number of engineering, production, geological, environmental and other project parameters that may affect the financial result.

The discounted cash flow method described above has many advantages for project participants, as it helps to predict the expected results at the early stages of the project.

However, the effectiveness of the DCF-based approach directly depends on the professional experience of the project team, including in the field of mining engineering and mining project financing.

The first step in creating a spreadsheet cash flow model is to collect all available information about the mining and processing plant project. This includes all engineering information that will allow calculation of mine life, annual ore output and salable output. It is also necessary to estimate the cost of the project so that capital costs, annual operating costs and other costs can be calculated. The financial model should take into account the projected price of products in a certain time horizon, tax rates, discount rates, interest on loans and other financial parameters.

The complexity of financial modeling of projects related to the extraction and processing of minerals can be largely explained by the life of the deposits.

Many iron ore deposits, for example, have been successfully exploited for 50 years or more, which ensures the prosperity of mining and processing enterprises and related infrastructure.

At the same time, the long life of a mining project is inevitably associated with additional investments in modernization and expansion, which may be required 10-20 years after the facility is put into operation. For this reason, the rational financial planning horizon should not exceed 15 years for such projects. On the other hand, too rapid depletion of the field jeopardizes project financing plans, as it does not provide an adequate return on investment.

As mentioned above, the input data determine the success of financial modeling.

Input data for building a financial model of a mining and processing plant projects based on DCF include the following:

• Main parameters of the project.
• A complete report on mineral deposits.
• Production potential, taking into account the chosen technology.
• Estimation of capital expenditures and operating expenses.
• Forecasts of product prices, demand and market conditions.
• Parameters that determine the life of the project, etc.

In addition to a deep understanding of mining and processing business principles, the project team must understand the specific product (pellets, iron ore concentrate, non-metallic products, crushed stone) in order to correctly develop a financial model.

That is why it is important to contact professionals who have sufficient practical experience in a particular field.

During the planning of an investment project, numerous additional costs are expected, such as infrastructure development, obtaining building permits, environmental certificates and much more. All these expenses incurred before the commissioning of the facility begin to pay off only after the mining and processing plant projects begins to receive a stable income.

This moment marks the end of the project financing period and the beginning of the project debt repayment period.

The mining and processing plant project requires participants to take into account key financial parameters, such as the discount rate, net present value of capital, taxation, inflation rate, capital structure, lending conditions and others.

All this forms the basis for constructing certain scenarios for financing an investment project.

To determine the true cost of capital in a financial model, experts can use the weighted average cost of capital (WACC) or an approved discount rate. Since net present value is calculated based on post-tax cash flows, an adjustment is made for tax changes in interest payments on project debt.

WACC in mining projects can vary significantly depending on the specific ratio of debt and equity in the project financing structure.

The cost of equity is generally higher than the cost of debt, reflecting the high expectations of capital providers. In general, the larger the proportion of capital investments financed by debt, the lower the WACC and the more favorable NPV.

The debt/equity ratio and project debt are also determined based on the financial model. In general, companies that simultaneously implement numerous investment projects and require significant financial resources seek to maximize the share of debt capital.

The optimal period for using debt financing can be agreed between the sponsor and the lender. In practice, long-term investment loans for the construction of mining and processing plant projects are issued for a period of 5-10 years or more.

To complete the cash flow model, it is necessary to take into account the loan repayment schedule and grace period, which may be established by the loan agreement.

Loan repayment can be made in equal shares or depending on the performance of the object, which is generally considered preferable for sponsors.

Project finance in the construction of mining and processing plants

If the financing of a new actively developing mining project requires financial resources that significantly exceed the capabilities of the participants, it is recommended to consider project finance (PF) schemes.

In these leveraged schemes, the project’s debt is repaid using the cash flows generated by the mining and processing plant as a result of its production activities.

Financing is carried out without recourse to the borrower, which provides additional benefits for sponsors.

Given the high risk for the lender, banks always carefully analyze the project, paying special attention to the financial model. Obviously, potential lenders will be interested in the financial strength of the mining project in the most stressful scenarios.

Despite the positive results of financial modeling, banks usually require loan guarantees from sponsors. When it comes to a large-scale project carried out by a young company with minimal assets, the role of loan guarantees increases dramatically.

The peculiarity of large projects in the mining industry is that small companies with promising deposits cannot receive project financing on adequate terms until they organize mining and processing at a certain level. Therefore, such companies have to attract initial investments from other sources (for example, issue of shares) to bring the project to viable indicators. In subsequent stages, financing becomes much easier and more affordable, as potential lenders have more confidence in the success of the project.

It should also be noted that project finance schemes are widely used for mining projects based on well-established technologies. In particular, this includes the modernization of mining equipment at existing facilities, the rehabilitation of old quarries, and so on.

It is quite difficult to use PF schemes to finance innovative projects or poorly explored deposits due to the high risk.

Mining projects are capital-intensive and high-risk initiatives, so they are often not considered attractive enough for traditional financing. Project sponsors often avoid taking on the risks and incurring debt associated with traditional lending or issuing debt securities, even when these instruments are available.

Project finance is an attractive alternative because it allows project participants to rationally allocate risks.

An important advantage of non-recourse financing is that the sponsor is not obligated to service the debt if the cash flows generated from mining are not sufficient to pay the principal and interest payments. The lender is secured primarily by a credit guarantee and adequate collateral.

Financial modeling and in-depth study of the project allows lenders to avoid unforeseen shortcomings discovered during the construction phase and during the initial period of the project.

When the project has passed a comprehensive review, the providers of capital will have sufficient confidence in financing the investment project.

Project finance may result in a lower cost of capital because a lower interest rate is used. This is achieved, in particular, through a flexible approach to taxation.

Project finance schemes should be organized in such a way as to maximize potential tax benefits.

The process of making a decision on financing a mining and processing plant project will depend heavily on the quality of the prepared project documentation and financial model. The lender takes note of the information memorandum and often hires an independent financial advisor to perform due diligence or prepare an independent feasibility study.

Banks can build their own financial models and perform detailed sensitivity analysis to make the final decision on financing.

If you are interested in services for the development of a financial model for a mining and processing plant projects, quarry or other mining project, please contact our consultants.

CP Finance UK Finance provides a full range of financial, investment and consulting services for large businesses in the mining and processing of minerals around the world.

CP Finance UK FINANCE LIMITED
Website:https://c-pfinanceuk.com/
E-mail:finance@cpuk-financeltd.com
Alt-Email:admin@cpukfinanceltd.com

CP Finance UK Finance is an international finance and engineering company that focuses on innovation and business development through investment funds for Project financing 

We support companies and projects at all stages of the life cycle, helping to turn innovative solutions into successful business ventures.

Providing a full range of financial services, together with Spanish and international partners, we concentrate financial resources on projects with high growth potential.

We also focus on collaboration between business and science, helping to overcome the challenges of bringing innovative products and services to market.

We actively finance investment projects in the following industries:

• Energy sector, including renewable energy sources.
• Oil and gas sector, including the liquefied natural gas industry.
• Waste disposal and recycling, as well as WtE technologies.
• Wastewater treatment and desalination plants.
• Extraction and processing of minerals.
• Logistics and infrastructure.
• Agriculture.
• Industry.

By investing in your business, we strive to provide a positive impact on the environment, society and economy of a particular region. This is why our portfolio includes environmentally friendly facilities such as solar power plants, wind farms, waste treatment plants and water treatment plants.

Investing in each project, our experts evaluate the proposed technology, the professional level of the team, competitive advantages, the amount of investments, the market situation and prospects.

We work closely with numerous banks, networks of high net-worth individuals and investment funds in the EU countries, and also attract private investors from all over the world.

Are you planning a major project in Europe, the Middle East, East Asia, Africa or Latin America?
Interested in cheap funding sources?

Contact us and tell our experts about your business project. Along with Investment funds and Project financing, we also provide engineering and technical services for the successful implementation of the project.

The role of investment funds in project financing

In addition to grants, businesses can obtain investment funds or project financing  (loans) through equity participation.

These funds are provided through specialized models under operating programs called financial instruments. Funds offered through financial instruments must be returned, which is an important difference from a grant.

Funding projects through these financial instruments in a global context ensures a more efficient use of resources compared to grants, since the funds provided are subject to return, reuse and mobilization of additional co-financing.

Investment funds and project financing are targeted at companies willing to share risks and rewards.

They are ideal tools for businesses that cannot access sufficient bank financing.

Mutual investment funds are an option through which young companies can finance a large project for future cash flows.

These funds are a kind of financial intermediaries that channel the resources of large investors to companies unable to finance their projects from traditional sources, such as bank loans.

To obtain funding from this source, a business will also need a well-structured and well-founded business plan. Young companies may need the support of an incubator or business accelerator to effectively present their project to private equity funds focused on venture capital.

The situation is different with existing companies that have a long operating history.

CP Finance UK Finance financial experts will conduct comprehensive studies of activity and assess the prospects of a specific project, offering their professional conclusions to the largest European investors.

Current requirements and rules for bank financing for credit institutions often restrict financing of projects that promise good returns, but have some risk. Some companies with a strong innovation focus are unable to meet the strict requirements of bank lending, although they have an original and promising idea.

Young companies, especially those that rely on innovative technologies or workflows, cannot get bank financing because of the risk, no matter how valuable their idea is.

Some projects, such as innovative solar power plants, biomass thermal power plants or geothermal plants, require a special approach to financing.

Meanwhile, renewable energies, waste recycling, water treatment and energy efficiency are now on the list of national priorities in many countries around the world. These areas contribute to the overall technological progress of the economy, opening up new markets, ensuring high-quality growth and saving natural resources.

CP Finance UK Finance offers investment funds for project financing in EU and other countries of the world, providing a reliable source of funds for your strategic plans.

From the point of view of recipient companies, financing a project by an investment fund ensures that funds are received on favorable terms (lower interest rates, lower collateral, a long financing period, favorable levels of risk) compared to bank lending.

The largest investment funds in the world

First emerging in Europe in the 19th century, investment funds over the past decades have become one of the most demanded sources of funds for the implementation of large projects in the energy sector, mining, logistics, industry and agriculture.

Currently, investment funds are considered to be an excellent economic strategy allowing investors to earn money in the short, medium or long term, and this situation will depend on the type of investment fund chosen.

For potential clients, this is a unique opportunity to finance large innovative projects anywhere in the world.

It may sound incredible, but in 2019, the five largest investment funds in the world concentrated in their hands about $ 20 trillion. This is comparable to the GDP of the United States of America or 15 times the GDP of Spain.

According to recent research, BlackRock turned out to be the largest investment fund in 2019 with $ 6.96 trillion in assets under management. In fact, BlackRock is the world largest asset manager.

The second and third places in the ranking are occupied by the Vanguard Group and State Street Global Advisors, managing assets of $ 5.5 trillion and 2.8 trillion, respectively.

The top five are closed by investment funds with a long history of JP Morgan Chase ($ 2.78 trillion) and Fidelity Investments ($ 2.5 trillion).

Currently, American and European financial companies continue to be the global leaders in project financing, concentrating more than $ 80 trillion of investor funds in their hands.

Professional asset management and balanced financial policy make investment funds the leaders in trust both among investors and among clients implementing large projects with multi-billion dollar investments.

The main advantages of investment funds for business

Joint investment is based on the accumulation of free financial resources of individual investors.

These resources are professionally managed using science-based asset management and risk minimization techniques.

The advantage of Investment funds for project financing lies in the ease of attracting financing, even in cases where obtaining bank loans is problematic. This is a convenient option for companies that generate promising ideas and need to receive significant funds for future cash flows.

It is also the best choice for those willing to share risk and reward, regardless of project outcomes. If a company expects to fund its growth plans with investment funds, it must be prepared to share the dividend or profit. For example, private equity funds spend 5 to 15 years in a company, make it profitable, and then sell their stake to another investor.

The main advantages of investment funds and project financing over other financial instruments for potential investors and clients are as follows.

Professional financial management. Small investors are not very familiar with the situation on the stock market, asset management, etc. Management companies can provide high profitability to investors of any level.

Cheap source of funding. Funds provided by an investment fund for project financing are usually provided at a lower interest rate than bank loans and other sources of funding.

Diversification of investments in stock market instruments. Investment funds greatly simplify investment risk management by diversifying investments.

Ease of receiving funds. Many investment funds, especially those specializing in startups (innovative companies), have minimum requirements for clients, in contrast to commercial banks.

Providing high liquidity. Typically, investment fund securities have a higher liquidity than primary securities.

Low collateral. Investment funds interested in an innovative business idea usually do not require high-value assets as collateral for the client’s financial obligations.

The construction of liquefied natural gas plants presents a huge investment opportunity for energy companies in Europe, the Middle East, North Africa and Latin America.

The cheapening of technologies and equipment for liquefying natural gas and transporting LNG makes this type of fuel more and more attractive to consumers around the world.

LNG demand and production are expected to rise in the coming years, which will contribute to significant savings in many sectors and an acceleration of the global economy.

Morgan Stanley research shows that massive investments in new terminals, ships and liquefied natural gas plants will soon pay off. According to the agency’s estimates, the new capacity will lead to global growth of this market by 50% by 2025.

CP Finance UK Finance offers financing and construction of liquefied natural gas plants under an EPC contract.

For over 20 years our specialists have been offering financial and innovative solutions in the energy sector for private companies and government customers.

In this article, you will learn more about the prospects for investments in LNG plants, new technologies for the production of liquefied natural gas and our opportunities.

Liquefied natural gas plants: new investment opportunities

Liquefied natural gas is a non-corrosive, odorless cryogenic liquid made up of 90% methane.

Liquefied natural gas is a revolutionary fuel that could spur global economic growth over the next decade. It is becoming a more affordable fuel thanks to the development of technologies and the groeth of an extensive infrastructure for the production, transportation and regasification of LNG.

The LNG industry value chain consists of four links:

• Extraction of natural gas.
• Purification and liquefaction.
• Transportation.
• Regasification.

upon extraction, natural gas is transported via pipelines to liquefied natural gas plants, where it undergoes preliminary treatment.

This treatment removes all liquids and other components that may freeze (propane, butane, ethane, carbon dioxide and water). Then the gas is converted into a liquid state by deep cooling at atmospheric pressure, during which the volume is reduced by 600 times.

The resulting product is loaded onto LNG carriers, which are equipped with refrigeration and insulation systems to store and maintain the liquid state of the gas until it reaches the port of destination (LNG terminal).

The gas that evaporates during transportation is used as fuel.

In an LNG terminal, liquefied gas is vaporized during the heating process. The terminals have storage tanks that provide a continuous flow of gas into pipelines and cover peaks in demand.

Finally, after pressure regulation, natural gas is pumped into the main gas pipeline and sold to distributors or directly to power plants and large industrial consumers.

In some cases, liquefied is supplied to consumers by specially equipped tank trucks.

The importance of LNG for the global economy

In recent years, hydraulic fracturing has revolutionized the US energy sector, making the country the largest exporter of energy for the first time.

However, until recently, the role of liquefied natural gas plants in the global economy was small due to the technical difficulties associated with transporting and storing this flammable gas.

Experts predict that cheap LNG exports in the coming years will reduce energy prices in Europe and Asia, thereby stimulating the energy sector and commodity markets.

In the late 1990s, concerns about oil shortages arose in developed countries. The emergence of hydraulic fracturing technology, which is used to release gas and oil under high pressure, has radically changed the situation in the energy market.

Natural gas prices have declined 80% since the mid-2000s, largely driven by exponential growth in shale gas production in North America.

Thanks to the boom in shale gas, coal consumption has fallen in half and CO2 emissions have fallen by 25%.

This is despite the fact that in those years it was very difficult to transport and store natural gas, and the main share of gas exports fell on expensive gas pipeline systems.

The situation changed with the advent of LNG: natural gas became liquid and it is now very easy to transport it by tanker trucks or ships. For this reason, experts are talking about big changes in the energy market, opening up investment opportunities for the next few years.

Economic implications of increased LNG production

Building new liquefied natural gas plants could forever change the gas market and the energy companies that make money from it.

The LNG industry will affect the following companies:

• Engineering companies (EPC contractors).
• Transport companies (including ship owners).
• LNG equipment manufacturers.
• European chemical manufacturers.
• Other gas consumers.

Engineering and construction companies will clearly benefit from the introduction of the new fuel, as multibillion-dollar LNG production, transportation and regasification projects are under way around the world.

Industrial equipment manufacturers receive orders for new equipment and everything related to it. This represents a potential growth of 50% over the next five years over the previous decade.

Finally, chemical companies and other industrial gas consumers will benefit from reduced energy costs.

This will affect regional markets and change the direction of energy-intensive product flows.

The switch to LNG could put more pressure on other sectors, including those dependent on coal. Coal carriers may face a 5% decline in revenue in 2020 as more customers switch from coal to gas.

It should be noted that the construction of LNG plants around the world has a positive impact on the environment. Liquefied natural gas offers an alternative with lower CO2 emissions compared to solid fuels. However, the environmental benefits of switching to LNG vary greatlu.

Supply chain efficiency is key as distribution factors such as methane leakage can reduce these benefits.

Investment risks: In the LNG industry, long-term contracts are the main mechanism for ensuring coordination between all parts of the value chain.

Such coordination is necessary because the production capacity of Liquefied natural gas plants is in many ways limited by the capacity of transport systems.

The liquefied natural gas industry has a high level of investment risk due to the small number of alternative uses for LNG plants, terminals and ships, as well as the high volume of investments. Until now, there is high uncertainty about large LNG projects.

The risk factors for the construction Liquefied natural gas plants are as follows:

• Product prices are falling faster than costs.
• Concerns about security of demand (risk of recession).
• Conflicts in the distribution of gas supplies.
• Financial obstacles of all kinds.
• Environmental problems.
• Political tensions.

Uncertainty complicates the process of making investment decisions, since it is not known how much capacity will be commissioned in the coming years.

The risk is clear when you look at the delays that some companies face.

These delays are due to financial, environmental, social, regulatory and political issues. The planning, construction and commissioning times for LNG plants sometimes reach 4-6 years. During this time, the economic situation, demand and production can change significantly, so investors need accurate forecasts.

Liquefied natural gas plants: projects technology

Liquefied natural gas production is a proven technology that has been successfully used in the energy sector for many years.

Typically, an Liquefied natural gas plants consists of the following elements:

• Gas pre-treatment and liquefaction line.
• LNG production equipment.
• Protected gas storage tanks.
• Equipment for loading gas carriers.
• Auxiliary systems.

The transformation of natural gas into a liquid state is carried out in several stages. In the first stage, impurities (primarily carbon dioxide and minimal residues of sulfur compounds) are removed.

Then water is removed, which can turn into crystals and damage the system.

The next stage is the removal of heavy hydrocarbons, after which mainly methane and ethane remain. Recently, for the purpose of complex gas purification from moisture, carbon dioxide and heavy hydrocarbons, the adsorption method of deep gas purification on molecular sieves has been used. The gas is then gradually cooled by passing through several heat exchangers (evaporators).

Purification and fractionation are carried out, like most cooling processes, under high pressure.

The temperature is reduced to -160C using refrigeration cycles. Under these conditions, natural gas becomes a liquid at atmospheric pressure.

The construction of LNG plants begins with the selection of the most suitable technology.

There are currently seven LNG production technologies in use worldwide, including AP-C3MR, AP-X, AP-SMR, MFC, PRICO, DMR, Liquefin and Optimized Cascade.

However, Air Products remains the industry leader.

The AP-SMR, AP-C3MR and AP-X processes developed by this company account for over 80% of the market.

The only competitor for these processes is Optimized Cascade technology from ConocoPhillips.

AP-SMR (single mixed refrigerant) is traditionally used for onshore LNG plants, typically with a capacity of up to 1 million tons per year per line. Several separate lines are needed to increase the capacity of the plant. A feature of the AP-SMR is a unified automated system that simultaneously controls several gas turbines. The use of a mixed refrigerant increases the efficiency of heat exchange.

AP-C3MR is often used in the construction of LNG plants.

This technology accounts for the vast majority of the world’s liquefied natural gas production capacity. The AP-C3MR process uses two separate refrigerant cycles. The propane cycle is designed to pre-cool natural gas and partially dilute the refrigerant, and in some cases remove fuel gas (used for plant needs), while the mixed refrigerant cycle is used to liquefy and sublimate natural gas.

C3MR is a proven technology, proven over decades, making it suitable for many onshore plants. For floating LNG plants, this technology looks less attractive due to the large supply of propane, especially when kettle-type heat exchangers are used. Storing propane requires an increased strength tank where the working fluid is stored.

Since the C3MR process in floating LNG plants is of low appeal, Air Products has developed the more efficient AP-X technology (which is used in a number of large production lines in Qatar). An external nitrogen cycle is used to liquefy natural gas. Compression of nitrogen refrigerant is performed in three stages, which helps to optimize the process when there are significant fluctuations in natural gas flow.

The above technologies for the production of liquefied natural gas, as a rule, are used for the production of large volumes intended for further export.

Low-tonnage LNG plants also have a high development potential, meeting the demand of individual enterprises.

Estimated cost of building LNG plants

The gas industry is characterized by significant investment in infrastructure, unlike other solid or liquid energy sources that are easy to store and transport without an increased risk of loss.

The fact that natural gas is difficult to extract and transport via gas pipelines to the consumer’s boiler has slowed the development of the sector for many years.

It would seem that these disadvantages are not inherent in LNG, since it is transported in liquid form by sea like oil, without pipeline restrictions. But the fact that it must be liquefied and stored at low temperatures makes it difficult to handle and requires strict safety regulations.

Consequently, the LNG value chain also requires large investments.

Today, we see a reduction in capital costs at all links of the chain, including the production of LNG. This is happening both as a result of improving technologies and increasing capacities, and as a result of increased competition between technology and equipment suppliers, shipyards, etc.

Over the past 10 years, the cost of capital per unit of production at liquefied natural gas plants has decreased by 25%, for LNG tankers this figure has dropped by 35%, and at regasification terminals by 20% over the same period.

The cost of LNG plants can vary widely.

Building an LNG plant in Norway is not the same as implementing a similar project, for example, in Nigeria. Obviously, the availability of engineers, trained personnel, workshops and logistics services plays an important role.

Building a liquefied natural gas plant or receiving terminal near an existing port is not the same as building tens of kilometers from the sea coast. Floating LNG plants require a specific approach.

The approximate investment amounts given below are only averages and can vary greatly depending on the project conditions.

In the late 2000s, building an LNG plant from scratch with an estimated capacity of 8 million tons per year (MTPA) cost $ 1.5-2 billion.

Of this amount, 50% was for engineering design, construction and installation, 30% for the purchase of equipment, and the remaining 20% ​​for building materials.

The previous example refers to large LNG plants designed to supply large existing markets.

On the other hand, when a company is about to open up a new market or cover an emerging shortage in a small market, it makes sense to build a smaller plant with the prospect of future expansion.

Building LNG plants with a lower capacity is more expensive in terms of MTPA.

Thus, a plant with a capacity of 4-5 million tons of LNG per year at the end of the 2000s cost about $ 1 billion.

Due to the reduction in the cost of technology and equipment, the cost of liquefied natural gas plants has dropped significantly, and the scale of projects has increased.

Our services in the field of construction of LNG plants

CP Finance UK Finance offers a full range of services in the field of financing and construction, modernization and expansion, maintenance and operation of liquefied natural gas plants in Europe, Latin America, North Africa and the Middle East.

Services include:

• Feasibility study and financial modeling.
• Development of a general project and detailed design.
• Design and manufacture of customized LNG equipment.
• Construction and commissioning.
• Consultations during the operation of the plant.
• Modernization and expansion.

Cooperation with CP Finance UK Finance brings clear benefits to our customers in the form of favorable financing conditions, cost-effective production, high reliability, long equipment life and a quick return on investment.

We can design the optimal workflow for your business in order to simplify your LNG production scheme, saving on future plant expansion. A tailor-made approach contributes to reduced feed gas consumption, stable operation at low pressure and other benefits.

CP Finance UK Finance and partners help major energy companies around the world to achieve their goals.

In recent years, the EPC contract has become the most common form of cooperation in the construction of large-scale facilities such as LNG plants and terminals.

The advantage of an EPC contract for investors is that a single professional contractor performs all the work and bears full responsibility for the implementation of the project.

Contact us at any time to learn more about the construction of LNG plants under the EPC contract.

CP Finance UK FINANCE LIMITED
Website:https://c-pfinanceuk.com/
E-mail:finance@cpuk-financeltd.com
Alt-Email:admin@cpukfinanceltd.com