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Financial Analysis

To determine the profitability of the project a financial analysis was performed. Net present value was used as a financial metric.

Capital Cost

In order to determine the capital cost of our project the price for each component was determined. Our aim was to have values that are as realistic as possible. However, due to the luck of information from manufactures in some cases values from the literature were used. Table 1 shows the values that were determined for the main components.

Table 1: Cost for the main components of the project

The total capital cost is 653.61 million pounds. The percentage of each component is shown in Figure 1. As it expected the largest percentage of the capital cost is the offshore wind farm with 62% and the electrolyzers with 19%.

capital cost.png

Figure 1: Percentage of capital cost for each component

Net Present Value

What is Net Present Value?

 

   To determine if our project was profitable we used Net Present Value as a financial metric. Npv is the difference between the present value of cash inflows and the present value of cash outflows over lifetime of the investment . NPV is a calculation used in capital budgeting and investment planning to determine the feasibility of a proposed investment or project [1],[3].

 

NPV for Investments

​

   Although NPV equations are helpful for analysing investment prospects, they are far from ideal. The NPV estimate is a good starting point, but it is not a conclusive metric that an investor can rely on for all investment decisions because it has certain drawbacks. It is not an absolute science to assign a percentage number to an investment to reflect the risk premium[2],[4].

If the investment is risk-free and has a low risk of failure. The selection of the discount rate is crusial and in many cases is increase the erros in the calculations .  The is a big probability that the investment will not have the same amount of risk over the whole time period[3].

​

Calculation

​

  The equation for the calculation of NPV using eq.1

  

nvp.png

(1)

 The lifetime of the project, t, was determined at 15 years based on the expected life time of the project as a whole and the discount rate was chosen at 5%. The outflow of cash for each year was 10.7 m£ for the operational cost and the cashflows was 3.7 m£ for the electricity sold to the grid assuming a price of 0.045 £/kWh and 24.88 m£ for the sold hydrogen assuming a price of 4.35 (£/kg) [5]. The results are shown in Figure 2. With the assumed prices for the hydrogen in the lifetime of our project there will be not a return of the initial investment.

  

nvpdd.png

Figure 2: Initial results of NVP.

Sensitivity Analysis

  A crusial aspect of our project been profitable is the price of hydrogen since is the majority of the income. To determine the price of hydrogen that can do our project profitable a sensitivity  analysis was performed using the build in solver of excel. The results of the sensitivity analysis are shown in Figure 3. By varying the number of year we want the return of the initial investment we determine the prices that the hydrogen must be sold. Finally we compare the results of for the equivalent price of Heavy Fuel Oil (HFO) for 1 kg of hydrogen. The results showed that than none of the selling prices was competitive with HFO.

sensitivity_now.png

Figure 3: Sensitivity analysis for the return of investment

Now Vs Future

 The big question now is how the price of hydrogen will look in the future. To investigate that a few assumptions were made based on projections for the near future. These assumptions are shown in Table 2. All the assumptions have a positive ,direct or indirect, effect on the capital cost of the project. Overall, the capital cost has a 46% reduction.

Table 2: Assumptions made for the future

The same sensitivity analysis was performed to determine the price of hydrogen based on the return of the investment. The results are given in Figure 4. The hydrogen has better prices but still fails to be competitive with HFO.

sens_both.png

Figure 4: Sensitivity analysis for both scenarios.

Future Reduction Proposal for Capex - Opex, according to ΄Green Energy Programs UK΄, 'Green Bonds UK΄ ΄ and the participation of Offsh2re Shetland in the Capacity Market

According to the results shown previously for the Offsh2re Shetland project, we observe that green hydrogen is not yet competitive with HFO. Undoubtedly, substantial and targeted moves create an economically attractive 'green project' for the exploitation of wind energy and at the meanwhile the production of green hydrogen[11]. The volume of offshore wind and hydrogen production could be significantly increased through smart market planning and regulation, including the continuation of the pioneering banking scheme as well as 'green lending' to help the UK economy grow, protecting but also creating an environment with less emissions[12].

​

               The United Kingdom has long been a laggard in green bond issuance, placing 12th in Climate Bonds annual 2020 estimates, behind the United States, China, and a number of European countries[12]. The government's plan to place the UK as a sustainable finance pioneer has been evident since last November, when Sunak called for a "new chapter for financial services," emphasising the importance of green finance[12]. In the run-up to hosting COP26, the international climate summit, in November, the United Kingdom is keen to establish itself as a green finance pioneer[12]. Six years since the Paris Climate Agreement, the burden on policymakers and corporations to achieve a zero-carbon future has never been greater[12].

​

               Green bonds are an excellent solution to the increasing appetite in the financial world for investments that help ensure a zero-carbon future[13]. Our joint proposal for the Offsh2re Shetland project is supposed to have the potential to receive public support from the government and to be funded for assets[3]. Offsh2re Shetland according to the results studied, is fully capable of helping the business community, so it undoubtedly helps the United Kingdom to achieve its climate goals[13]. A monetary allocation from the government's green government bond strengthens the UK's position as a world leader in sustainable financing as well as supporting the economic recovery the country needs[13].

​

               According to all the analyzes carried out, Offsh2re Shetland will undoubtedly create green jobs in the supply chain, including construction, storage and installation[14]. Such investments complement the government's contract renewable energy support system, the fourth round of which (to be held in late 2021), which aims to increase the capacity of renewable energy sources[13]. These 'green initiatives like Offsh2re Shetland' will promote the UK's position as a world leader in offshore wind energy and ensure that the industry is strong[14]. However, in the future we propose that part of the electricity generation will be channeled to the surrounding areas[14]. In this way, we reinforce the government's goal that offshore wind farms will power every home in the UK by 2030, in addition to acknowledging the hypothetical investment drive for Offsh2re Shetland to enter the Capacity Market[14],[15].

​

               Offsh2re Shetland hypothetically claims a portion of the funds in the portfolio, which aims to accelerate the commercialization of low-carbon technologies, systems and business models in buildings and industry[13]. The "Green Project", with original and innovative techniques, stores long-lasting, first-class energy that will reduce the cost of pure zero, storing excessively low carbon energy for longer periods, coming from the development of offshore wind technology[14]. According to the published requirements of the United Kingdom which are necessary and the introduction in the investment 'green programs'[5]. Offsh2re Shetland has the potential to gain £4.8 million in government funds to pilot the production of green hydrogen – hydrogen produced by clean energy and an electrolyzer – and its use as a zero-emission fuel for heavy-duty vehicles[4]. This could fund up to 500 jobs, according to the Budget[14],[15].

               Offsh2re Shetland have the full potential according to the results, in theory to be able to ideally support the capacity market. They can meet the mechanism introduced by the government to ensure that electricity supply continues to meet demand, tackling the problem of instability for unpredictable renewable energy units being created[15]. Ensure that there is sufficient capacity to generate or manage load in the system to cope with moments of pressure on the network[15]. The Capacity Market's goal is to achieve long-term supply stability. Following the Government's thorough analysis of the energy sector, the Capacity Market was proposed[15]. The Capacity Market will coexist with the existing Energy Market, which will be funded by the Balancing Services Market[15]. Participants would be compensated on a per-MW basis for the power they provide to the industry[15]. This capability must be available as National Grid calls on providers at any point during the contract term[15].

​

               Potential Capacity Market participants will bid on contracts four years before the delivery date in auctions[15]. Existing generators and demand-side responses will be given one-year capacity agreements at the clearing price if the auction is successful[14]. Longer-term (15-year) agreements are valid for new plant to enable investment in next-generation assets, while three-year agreements are available for refurbished plant[14]. During the distribution year, capacity providers will be paid annually at the auction clearing price for their agreed-upon obligation[14]. Offsh2re Shetland can be assumed that, according to the in-depth study of 'Aurora Energy Research Ltd', it has the ability to formulate scenarios where offshore wind capacity can meet the needs by the 2030s[15],[16]. If this analysis is adopted, it allows offshore wind to accumulate revenue, providing further capital cuts and Opex for offshore wind energy as technology[15],[16].

​

               Because of the fierce rivalry that has pushed down offshore wind prices, owners and operators have been looking for ways to extract more profit from their properties. As a result, there has been a surge of interest in new income sources and ‘revenue-stacking' market models[16]. Finally, the increased focus on system integration costs has enabled the industry to create technologies that minimise the externalities of offshore wind[16]. Offshore wind developers and operators are working on a variety of options that use offshore wind as part of the solution to reduce system costs and maintain a balanced grid[6]. This adds to the impetus for the emergence of new modes of operation for offshore wind properties[16]. Offshore wind investment costs have dropped significantly in recent (CfD) auctions[16].

​

               In 2015, the average clearance price for (CfD) Round 1 was about £117 per MWh. The average price had dropped to £62 per MWh in 2017, with clearing rates as low as £58 per MWh[6]. A variety of factors contributed to this drop, including increased turbine size, advancement in operation and servicing practises, streamlined supply chains, and improved financing structures[16]. This decrease in offshore wind prices in the UK market has been balanced by similarly remarkable cost declines in Europe[6],[17]. Orsted and EnBW submitted bids to construct offshore wind turbines in 2024/25[7]. Developers anticipate that 13-15 MW turbines will be available by the time these developments are completed in 5-7 years, resulting in considerable additional cost savings[16],[17].

​

               Offsho2re Shetland hypothetically, if it takes advantage of the two policy tools analyzed by 'Aurora Energy Research Ltd', could unlock additional possibilities from the offshore wind[16]. To begin with, offering a zero-subsidy Contract for Difference (CfD): Stabilizing offshore wind sector sales by the government ensuring a per MWh premium at a cost that results in no net charges from or to the commodity over a 15-year term (a ‘zero-subsidy' (CfD)[16]. Second, allowing revenue stacking: lifting obstacles that currently prevent offshore wind from competing in the Capacity Market, Balancing Mechanism, and ancillary resources, thereby levelling the playing field and creating more technologically neutral and productive markets[16]. Both strategies, according to analysis, result in new, cost-effective, economically efficient offshore wind power on the GB grid[6].

​

               On a subsidized basis, this ‘zero-subsidy' (CfD) will generate about the same income as the wholesale market for an offshore wind commodity for a 15-year term[16]. This encourages asset owners to discount bulk demand revenue at a cheaper cost by offloading more of the price and uncertainty burden to the government (and indirectly to consumers). In short, the government essentially de-risks wholesale merchant sales, lowering the cost of capital and allowing for further offshore wind growth[16]. Under this zero-subsidy proposal, it is expected that offshore wind will continue to successfully compete at their 15-year catch price in (CfD) auctions until the influence of offshore price cannibalization is such that the marginal offshore wind unit cannot recover its costs on an NPV basis[16]. Clarity about potential timings and volumes makes for more supply chain growth, which aids in more offshore Capex reductions[16].

​

               Following the transition to zero-subsidy (CfDs), offshore wind projects may be rewarded for their commitment to supply protection, as determined by Equivalent Firm Capacity (EFC)[16]. National Grid and BEIS already conclude that onshore and offshore wind power has an EFC of about 20% when estimating the levels of new capacity to be procured in each year's Capacity Market[16]. Subsidy-free or zero-subsidy offshore wind will be permitted to compete in the Capacity Market under this plan, but offshore wind with current (CfDs) or Renewable Obligations would not[16].

 

Conclusion

 

There is optimism that the UK’s first green bonds would signal the start of an exciting green finance path. The goals of the UK’s green financing policies must be embedded on Offsh2re Shetland, orchestrated in accordance with international climate change targets. At all levels, the growth of Offsh2re Shetland has much to offer the UK economy, consumers, and communities. Offsh2re Shetland owners would need to fix the merchant factor of wind power projects in the long run. This highlights the significance of funding strategies that capture the nature of merchant risk and stabilise sales flows in these ventures[18]. The wind energy market in Europe is critical to the EU economy[18]. Wind energy now serves 15% of Europe’s energy demand[18],[20]. As discussed above, as renewable energy and storage deployment grow, the constraints that have driven power market architecture will shift, and new challenges, such as grid stability planning, will emerge[19],[20].  Many industry players would be producing as well as using energy, necessitating changes in market pricing, settlement, and legislation[19],[20]. The key is to keep the installed energy, price, and subsidy of offshore wind power balanced[19]. As the offshore wind power industry grows, price and subsidy become more critical than energy[20]. Capex savings are expected to be 25-30% compared to existing available wind turbine technology[16]. Opex cuts are expected to take a similar trajectory[16]. Assumes the contracted revenue is discounted at 8% nominal, unlevered, pre-tax, and merchant revenue is discounted at 13% nominal, unlevered, pre-tax[20]. Finally, the above creates a hypothetical patchwork that which delivers on plans to economy, that will bring a range of positive social benefits such as creating green collar jobs, skills and regional revitalisation[20].

Future Reduction Proposal for Capex - Opex, according to ΄Green Energy Programs UK΄, 'Green Bonds UK΄  and the participation of Offsh2re Shetland in the Capacity Market

According to the results shown previously for the Offsh2re Shetland project, we observe that green hydrogen is not yet competitive with HFO. Undoubtedly, substantial and targeted moves create an economically attractive 'green project' for the exploitation of wind energy and at the meanwhile the production of green hydrogen[11]. The volume of offshore wind and hydrogen production could be significantly increased through smart market planning and regulation, including the continuation of the pioneering banking scheme as well as 'green lending' to help the UK economy grow, protecting but also creating an environment with less emissions[12].

​

The United Kingdom has long been a laggard in green bond issuance, placing 12th in Climate Bonds annual 2020 estimates, behind the United States, China, and a number of European countries[12]. The government's plan to place the UK as a sustainable finance pioneer has been evident since last November, when Sunak called for a "new chapter for financial services," emphasising the importance of green finance[12]. In the run-up to hosting COP26, the international climate summit, in November, the United Kingdom is keen to establish itself as a green finance pioneer[12]. Six years since the Paris Climate Agreement, the burden on policymakers and corporations to achieve a zero-carbon future has never been greater[12].

​

 Green bonds are an excellent solution to the increasing appetite in the financial world for investments that help ensure a zero-carbon future[13]. Our joint proposal for the Offsh2re Shetland project is supposed to have the potential to receive public support from the government and to be funded for assets[3]. Offsh2re Shetland according to the results studied, is fully capable of helping the business community, so it undoubtedly helps the United Kingdom to achieve its climate goals[13]. A monetary allocation from the government's green government bond strengthens the UK's position as a world leader in sustainable financing as well as supporting the economic recovery the country needs[13].

​

According to all the analyzes carried out, Offsh2re Shetland will undoubtedly create green jobs in the supply chain, including construction, storage and installation[14]. Such investments complement the government's contract renewable energy support system, the fourth round of which (to be held in late 2021), which aims to increase the capacity of renewable energy sources[13]. These 'green initiatives like Offsh2re Shetland' will promote the UK's position as a world leader in offshore wind energy and ensure that the industry is strong[14]. However, in the future we propose that part of the electricity generation will be channeled to the surrounding areas[14]. In this way, we reinforce the government's goal that offshore wind farms will power every home in the UK by 2030, in addition to acknowledging the hypothetical investment drive for Offsh2re Shetland to enter the Capacity Market[14],[15].

​

               Offsh2re Shetland hypothetically claims a portion of the funds in the portfolio, which aims to accelerate the commercialization of low-carbon technologies, systems and business models in buildings and industry[13]. The "Green Project", with original and innovative techniques, stores long-lasting, first-class energy that will reduce the cost of pure zero, storing excessively low carbon energy for longer periods, coming from the development of offshore wind technology[14]. According to the published requirements of the United Kingdom which are necessary and the introduction in the investment 'green programs'[5]. Offsh2re Shetland has the potential to gain £4.8 million in government funds to pilot the production of green hydrogen – hydrogen produced by clean energy and an electrolyzer – and its use as a zero-emission fuel for heavy-duty vehicles[4]. This could fund up to 500 jobs, according to the Budget[14],[15].

               Offsh2re Shetland have the full potential according to the results, in theory to be able to ideally support the capacity market. They can meet the mechanism introduced by the government to ensure that electricity supply continues to meet demand, tackling the problem of instability for unpredictable renewable energy units being created[15]. Ensure that there is sufficient capacity to generate or manage load in the system to cope with moments of pressure on the network[15]. The Capacity Market's goal is to achieve long-term supply stability. Following the Government's thorough analysis of the energy sector, the Capacity Market was proposed[15]. The Capacity Market will coexist with the existing Energy Market, which will be funded by the Balancing Services Market[15]. Participants would be compensated on a per-MW basis for the power they provide to the industry[15]. This capability must be available as National Grid calls on providers at any point during the contract term[15].

​

Potential Capacity Market participants will bid on contracts four years before the delivery date in auctions[15]. Existing generators and demand-side responses will be given one-year capacity agreements at the clearing price if the auction is successful[14]. Longer-term (15-year) agreements are valid for new plant to enable investment in next-generation assets, while three-year agreements are available for refurbished plant[14]. During the distribution year, capacity providers will be paid annually at the auction clearing price for their agreed-upon obligation[14]. Offsh2re Shetland can be assumed that, according to the in-depth study of 'Aurora Energy Research Ltd', it has the ability to formulate scenarios where offshore wind capacity can meet the needs by the 2030s[15],[16]. If this analysis is adopted, it allows offshore wind to accumulate revenue, providing further capital cuts and Opex for offshore wind energy as technology[15],[16].

​

 Because of the fierce rivalry that has pushed down offshore wind prices, owners and operators have been looking for ways to extract more profit from their properties. As a result, there has been a surge of interest in new income sources and ‘revenue-stacking' market models[16]. Finally, the increased focus on system integration costs has enabled the industry to create technologies that minimise the externalities of offshore wind[16]. Offshore wind developers and operators are working on a variety of options that use offshore wind as part of the solution to reduce system costs and maintain a balanced grid[6]. This adds to the impetus for the emergence of new modes of operation for offshore wind properties[16]. Offshore wind investment costs have dropped significantly in recent (CfD) auctions[16].

​

 In 2015, the average clearance price for (CfD) Round 1 was about £117 per MWh. The average price had dropped to £62 per MWh in 2017, with clearing rates as low as £58 per MWh[6]. A variety of factors contributed to this drop, including increased turbine size, advancement in operation and servicing practises, streamlined supply chains, and improved financing structures[16]. This decrease in offshore wind prices in the UK market has been balanced by similarly remarkable cost declines in Europe[6],[17]. Orsted and EnBW submitted bids to construct offshore wind turbines in 2024/25[7]. Developers anticipate that 13-15 MW turbines will be available by the time these developments are completed in 5-7 years, resulting in considerable additional cost savings[16],[17].

​

 Offsho2re Shetland hypothetically, if it takes advantage of the two policy tools analyzed by 'Aurora Energy Research Ltd', could unlock additional possibilities from the offshore wind[16]. To begin with, offering a zero-subsidy Contract for Difference (CfD): Stabilizing offshore wind sector sales by the government ensuring a per MWh premium at a cost that results in no net charges from or to the commodity over a 15-year term (a ‘zero-subsidy' (CfD)[16]. Second, allowing revenue stacking: lifting obstacles that currently prevent offshore wind from competing in the Capacity Market, Balancing Mechanism, and ancillary resources, thereby levelling the playing field and creating more technologically neutral and productive markets[16]. Both strategies, according to analysis, result in new, cost-effective, economically efficient offshore wind power on the GB grid[6].

​

On a subsidized basis, this ‘zero-subsidy' (CfD) will generate about the same income as the wholesale market for an offshore wind commodity for a 15-year term[16]. This encourages asset owners to discount bulk demand revenue at a cheaper cost by offloading more of the price and uncertainty burden to the government (and indirectly to consumers). In short, the government essentially de-risks wholesale merchant sales, lowering the cost of capital and allowing for further offshore wind growth[16]. Under this zero-subsidy proposal, it is expected that offshore wind will continue to successfully compete at their 15-year catch price in (CfD) auctions until the influence of offshore price cannibalization is such that the marginal offshore wind unit cannot recover its costs on an NPV basis[16]. Clarity about potential timings and volumes makes for more supply chain growth, which aids in more offshore Capex reductions[16].

​

Following the transition to zero-subsidy (CfDs), offshore wind projects may be rewarded for their commitment to supply protection, as determined by Equivalent Firm Capacity (EFC)[16]. National Grid and BEIS already conclude that onshore and offshore wind power has an EFC of about 20% when estimating the levels of new capacity to be procured in each year's Capacity Market[16]. Subsidy-free or zero-subsidy offshore wind will be permitted to compete in the Capacity Market under this plan, but offshore wind with current (CfDs) or Renewable Obligations would not[16].

 

Conclusion

 

There is optimism that the UK’s first green bonds would signal the start of an exciting green finance path. The goals of the UK’s green financing policies must be embedded on Offsh2re Shetland, orchestrated in accordance with international climate change targets. At all levels, the growth of Offsh2re Shetland has much to offer the UK economy, consumers, and communities. Offsh2re Shetland owners would need to fix the merchant factor of wind power projects in the long run. This highlights the significance of funding strategies that capture the nature of merchant risk and stabilise sales flows in these ventures[18]. The wind energy market in Europe is critical to the EU economy[18]. Wind energy now serves 15% of Europe’s energy demand[18],[20]. As discussed above, as renewable energy and storage deployment grow, the constraints that have driven power market architecture will shift, and new challenges, such as grid stability planning, will emerge[19],[20].  Many industry players would be producing as well as using energy, necessitating changes in market pricing, settlement, and legislation[19],[20]. The key is to keep the installed energy, price, and subsidy of offshore wind power balanced[19]. As the offshore wind power industry grows, price and subsidy become more critical than energy[20]. Capex savings are expected to be 25-30% compared to existing available wind turbine technology[16]. Opex cuts are expected to take a similar trajectory[16]. Assumes the contracted revenue is discounted at 8% nominal, unlevered, pre-tax, and merchant revenue is discounted at 13% nominal, unlevered, pre-tax[20]. Finally, the above creates a hypothetical patchwork that which delivers on plans to economy, that will bring a range of positive social benefits such as creating green collar jobs, skills and regional revitalisation[20].

SWOT Analysis of Offsh2re Shetland

To maintain Europe's and the United Kingdom's leadership in green energy sources, to incorporate renewable energy sources into the energy grid in a productive and cost-effective manner, and to create new generations of renewable technologies[25],[26].

In this regard, a series of research and innovation goals for more sustainable energies have been set at the European level, resulting in cost reductions and productivity gains, as well as global expansion[28].

Offshore wind energy is a renewable source of energy and harnessing its power in a sustainable manner is an important component of EU energy policy[22].

As a result, the energy market provides an incentive for the UK to contribute to economic development and employment creation in coastal regions, while also rising energy supply stability and productivity through technical innovation[25],[30]. Exploring the horizons of these offshore Shetland energy sources, from the exploitation of offshore wind energy, with significant implications for the UK's economic and environmental benefits, requires a number of key actions to make this action a reality[29].

In order to outline an overview of the use of renewable energy sources and to identify the possibilities of increasing the share of wind energy and hydrogen production, a SWOT analysis was performed[23]. Which presents a combination of the strengths of the project as well as the weaknesses and how these are combined with opportunities as well as unexpected threats that may arise, in the creation of a 'green project' for electricity generation and how these theoretically affect its 'renewable' supply chain Scotland and the objectives of the European Union, Paris Agreement.

 

Strengths of Offsh2re Shetland

 

  • The existing supply chain capacity strengths to help a possible future green hydrogen project are in project areas. Renewable energy sources may provide dependable electricity.

  • About the fact that the Scottish green hydrogen market is still in the infancy, its future supply chain has many potential areas of power. The green hydrogen supply chain has significant overlap with parallel markets, most prominently offshore wind and engineering.

  • Plan engineering, consulting services, and architecture are areas of strength in the growth of hydrogen infrastructure.

  • Assumed on a high presence of consultancies, trade bodies, and research organizations capable of supporting business expansion, the Scottish supply chain is well positioned to provide sector support functions to the green hydrogen sector.

  • Seasonal energy can be retained without energy loss over time. Renewable energy sources can provide reliable power through their networks.

  • It is possible to manage power variations in order to integrate intermittent renewable energy sources optimally.

  • Hydrogen is not a pollutant, but it does emit free energy when produced by excessive wind energy. Growing rate of growth and implantation of low- carbon energy technologies.

  • Lowering the emissions of greenhouse gases and other toxins. The EU would prosper economically and environmentally Lowering the European Union’s reliance on fossil fuels.

  • Constructing interconnected offshore electrical networks. Wind energy exploitation technology is more advanced than other technologies.

  • The offshore wind power is expanding at a rapid pace. Offshore wind turbines systems have shown a high degree of sophistication and growing the energy absorption potential.

  • Involving European industry in the development of offshore wind energy technologies. Thus of the sophistication of wind power technology, a large amount of energy can be produced.

  • Ports are a gateway economy of international importance that connects to markets. Key local academic organizations have strong links to the clean tech and digital industries.

  • Composites, defense, and renewables technologies are highly established markets, as is turbine experience – Vestas. Present growth momentum and business excitement to act.

  • Suppliers of high-value professional PEM stack components with deep and proven global relationships. PEM electrolyzers have a very large scientific base in electrolyser technology and chemistry, and they have a high reliability.

  • A broad supply base that includes prospective EU stack vendors as well as strong vehicle parts producers. There is a vertical integration of electrolyzer manufacturers.

 

Weaknesses of Offsh2re Shetland

 

  • The difficulty of obtaining permits and clearing procedures results in project delays and cost increases from agreements with suppliers and increased costs for construction companies.

  • The lack of financial assistance, as well as the low adoption rates of energy technology exacerbates the difficulty of offshore activities resulting in technological development delays that prove the huge cost of construction.

  • Cost of capital, lack of lifelong expertise and unstable supply network are all factors to consider. Because they affect the cost of the system, making it difficult to minimize, so better funding is critical.

  • Too many different local regulations and standards can hinder growth. Due to the complex regulations, the creation of the project will be time consuming and equally expensive. As a result, fewer buyers are risking their money to start a business. 

  • Offshore wind turbines are expensive and complex to build and operate. In fact, it is extremely difficult to build strong and stable wind farms at great depths.

  • Wind turbines can be damaged by the action of the waves and even by very strong winds, especially during strong storms or hurricanes. The construction and construction of powercables under the seabed for the transmission of energy back to earth is very expensive.

 

 

Opportunities of Offsh2re Shetland

​

  • There are also prospects for Scottish manufacturers dependent on expertise in the local supply chain in areas where comparative advantage is not based on region. This applies to project planning aspects such as hydrogen sector architecture and engineering, as well as certain sector support functions.

  • A major hydrogen market could provide an impetus for new capacity investment to satisfy demand. A high demand for hydrogen could entice a supplier to set up indigenous manufacturing and associated hardware capability supply in Scotland, with strong pan-European supply capacity.

  • Scottish firms will operate on an open market in the manufacture and construction of facilities and balance of plant, depending on their track record and commercial offering. Opportunities in export markets can arise where Scottish companies have expertise and can compete on quality.

  • Due to demonstrative projects and technological advances, there is an opportunity to lower  construction costs for project energy generation, establishing targets for hydrogen power research and development by funding programs.

  • Opportunities remain to capitalize on supply chain capabilities. For the Scottish supply chain, this would be determined by the sector's size and whether the projects they are supplying are in the domestic or export sectors.

  • The existence at UK level of the provisions to facilitate the development of the renewable energy sources, funds provided by the EU in order to finance the actions for the energy technologies.

  • Creating public-private collaborations to stimulate private investment - establishing a sound energy policy structure for renewable energy and stimulating competition through technical innovation.

  • Current national and EU financing schemes, new job opportunities. Increasing number of companies involved in the energy sector reduction of environmental impact.

 

Threats of Offsh2re Shetland

​

  • Developed European fabricators will be more competitive on price while minimising significant logistics costs, or where hydrogen-specific manufacturing experience is established outside of Europe. If those countries develop robust domestic markets, supply chains for subcomponents and centres of excellence will most likely emerge around key infrastructure suppliers. ·      

  • Due to the lack of current advances, there are few opportunities for Scottish firms to demonstrate capabilities and build a track record, and continuing project complexity can discourage suppliers from investing in facilities and technologies.

  • Existence of risks associated with ostentatious exploitation that hinder the progress of hydrogen energy technology resulting in the lack of funding mechanisms for the implementation of the demonstration stages of the project.

  • Insufficient political-judicial restrictions and administrative obstacles that hinder the implementation of the projects, have the effect of showing uncertainty about the proper  implementation of environmental legislation.    

  • Difficult climatic conditions, socio-economic and environmental barriers to infrastructure combined with global social and economic uncertainties, create a negative impact on investment.

  • A market trend that indicates that energy technologies are less competitive compared to costs and other methods of producing renewable energy sources.·    ·     

  • A significant reduction in funding and income support for energy produced from other renewable energy sources creates a clear reduction in investor confidence.  

  • Obstacles that hinder the development of hydrogen, affecting the availability of production and this affects investors and this in turn obstacles to the completion of the project.

Conclusions

 

Theoretically, through the results we seek a significant overlap of the hydrogen supply chain with elements from Offshore Shetland. The current strengths of the hydrogen supply chain lie in the areas of project development, installation, operations and maintenance and in areas of support where these capabilities can be transferred by Scottish companies with experience in similar industries[25],[30].

Hydrogen transport seems to be able to fill gaps in the supply chain, finding mainly the ideal supply areas related to the design, construction and maintenance of a hydrogen plant [24],[10].

We assume that the established supply chains may take advantage of the low barriers to Scottish project supply or create strong experience and background from Scottish suppliers[26]. The Offshore Shetland project according to the results is able to greatly strengthen Scotland's industry and ultimately support the development of green hydrogen from wind energy, providing a complete and ideal economic exploitation[25].

However, the steady growth of hydrogen over the next decade will be a necessary 'green combination' to ensure the development of a domestic supply chain so that Scotland is ready to deliver and take full advantage of commercial growth[28].

The European Commission has set targets for reducing energy technology costs, making a significant contribution to the future of the European Energy System. (European Commission, 2015),[27][30].

The SWOT analysis obtained shows that the increase in the level of capitalization of the potential of the wind energy sector depends on factors such as the existence of a stable policy framework at European level, which supports the development of technology[25],[28].

In addition, various financial instruments at European, national and regional level that could enhance the development of wind energy and thus increase hydrogen production from the existing project[22]. Finally, the immediate implementation of certain actions for the development and integration of innovative technologies and the promotion of best practices combined with a unified set of ideas that will help the wind energy sector and therefore the hydrogen production sector to overcome with optimal success any technical, economic and environmental barriers to such a project[23],[25].

References

 [1] Liu,Q.,Sun,Y.,Wu,M., (2021) ‘Decision-making methodologies in offshore wind power investments : A review’ , Journal of Cleaner Production,295. DOI: https://doi.org/10.1016/j.jclepro.2021.126459

 

[2] Knoke,T.,Gosling,E.,Paul,C.,(2020) ‘Use and misuse of the present value in environmental studies’, Ecological Economics,174 . DOI: https://doi.org/10.1016/j.ecolecon.2020.106664

 

[3] Abdelhady,S.,(2021)’Performance and cost evaluation of solar dish power plant: sensitivity analysis of levelized cost of electricity (LCOE) and net present value (NPV)’,Renewable Energy,168,pp.332-342 . DOI: https://doi.org/10.1016/j.renene.2020.12.074

 

[4] Liang,B.C.,(2013) ‘Chapter 6 – Finance and Accounting’, The Pragmatic MBA for Scientific and Technical Executives ,pp.83-101. DOI: https://doi.org/10.1016/B978-0-12-397932-2.00006-5

[5] BEIS, Electricity Generation Costs (24 August 2020).

[6] O. Schmidt, A. Gambhir, I. Staffell, A. Hawkes, J. Nelson, S. Few,Future cost and performance of water electrolysis: An expert elicitation study,International Journal of Hydrogen Energy,Volume 42, Issue 52,2017,Pages 30470-30492,ISSN 0360-3199, DOI: https://doi.org/10.1016/j.ijhydene.2017.10.045.​

[7] Nel Hydrogen company , https://nelhydrogen.com/

[8] Zizlavsky,O.,(2014)’Net Present Value Approach: Method for Economic Assessment of Innovation Projects’, Procedia-Social and Behavioral Sciences, 156,pp.506-512. DOI: https://doi.org/10.1016/j.sbspro.2014.11.230

 

[9] Nel Hydrogen, press realease.

 

[10]Mongird, Kendall, Viswanathan, Vilayanur V., Balducci, Patrick J., Alam, Md Jan E., Fotedar, Vanshika, Koritarov, V S., and Hadjerioua, Boualem. Mon . "Energy Storage Technology and Cost Characterization Report". United States. https://doi.org/10.2172/1573487. https://www.osti.gov/servlets/purl/1573487.

 

[11] Jones, L., (2021) ‘UK Debut Sovereign Green Bonds to Ignite Britain’s Market’, Climate Bonds INITIATIVE. Available at : https://www.climatebonds.net/2021/03/uk-announces-debut-sovereign-green-bonds-ignite-britains-market

 

[12] Green Finance Institute., (2020) ‘ UK Government announces a sovereign green bond’, Green Finance. Available at : https://www.greenfinanceinstitute.co.uk/uk-government-announces-a-sovereign-green-bond/ 

 

[13] Weis, P., (2021) ‘UK Budget 2021: A Meaningful Step Towards Net Zero?’, LEXOLOGY. Available at : https://www.lexology.com/library/detail.aspx?g=e7aeb361-7f77-4d51-8fdf-bd81258df6ea 

 

[14] Lempriere, M., (2021) ‘Budget lacks – Watershed moment for green business despite welcome infrastructure support’, CURRENT ±. Available : https://www.current-news.co.uk/news/budget-lacks-watershed-moment-for-green-business-despite-welcome-infrastructure-support 

 

[15] Government UK, (2019) ‘Capacity Market Reform:2015, to the target capacity for Capacity Market auction’, Capacity Market. Available at : https://www.gov.uk/government/collections/electricity-market-reform-capacity-market-2015 

 

[16] Aurora Energy Research, (2018) ‘ The new economics of offshore wind’ Energy Research Ltd. Available at : https://ore.catapult.org.uk/app/uploads/2018/02/The-new-economics-of-offshore-wind.-Aurora-Energy-Research-Report..pdf 

 

[17] Petrova, V., (2019) ‘Orsted to back offshore wind growth with UK green bond sale’, Renewables Now. Available : https://renewablesnow.com/news/rsted-to-back-offshore-wind-growth-with-uk-green-bond-sale-653085/

 

[18] Youzho, W., Zou, Q., Lin, X., (2021) ‘Evolution of price policy for offshore wind energy in china: Trilemma of capacity. Price and subside’, Renewable and Sustainable Energy Reviews, (136), pp. 110366, DOI: https://www.sciencedirect.com/science/article/pii/S1364032120306547

 

[19] Raikar, S., Seabron, A., (2020) ‘8- Renewable energy in power markets’, Renewable Energy Finance, pp. 115-129, DOI: https://www.sciencedirect.com/science/article/pii/B9780128164419000088

 

[20]Helman, U., (2021) ‘Chapter 19 – Distributed Energy Resources in the US Wholesale Markets: Recent Trends, New Models, and Forecasts, Consumer, Prosumer, Prosumager, pp. 431 – 469, DOI: https://www.sciencedirect.com/science/article/pii/B978012816835600019X

References

 [1] Liu,Q.,Sun,Y.,Wu,M., (2021) ‘Decision-making methodologies in offshore wind power investments : A review’ , Journal of Cleaner Production,295. DOI: https://doi.org/10.1016/j.jclepro.2021.126459

 

[2] Knoke,T.,Gosling,E.,Paul,C.,(2020) ‘Use and misuse of the present value in environmental studies’, Ecological Economics,174 . DOI: https://doi.org/10.1016/j.ecolecon.2020.106664

 

[3] Abdelhady,S.,(2021)’Performance and cost evaluation of solar dish power plant: sensitivity analysis of levelized cost of electricity (LCOE) and net present value (NPV)’,Renewable Energy,168,pp.332-342 . DOI: https://doi.org/10.1016/j.renene.2020.12.074

 

[4] Liang,B.C.,(2013) ‘Chapter 6 – Finance and Accounting’, The Pragmatic MBA for Scientific and Technical Executives ,pp.83-101. DOI: https://doi.org/10.1016/B978-0-12-397932-2.00006-5

​

[5] BEIS, Electricity Generation Costs (24 August 2020).

​

[6] O. Schmidt, A. Gambhir, I. Staffell, A. Hawkes, J. Nelson, S. Few,Future cost and performance of water electrolysis: An expert elicitation study,International Journal of Hydrogen Energy,Volume 42, Issue 52,2017,Pages 30470-30492,ISSN 0360-3199, DOI: https://doi.org/10.1016/j.ijhydene.2017.10.045.​

​

[7] Nel Hydrogen company , https://nelhydrogen.com/

​

[8] Zizlavsky,O.,(2014)’Net Present Value Approach: Method for Economic Assessment of Innovation Projects’, Procedia-Social and Behavioral Sciences, 156,pp.506-512. DOI: https://doi.org/10.1016/j.sbspro.2014.11.230

 

[9] Nel Hydrogen, press realease.

 

[10]Mongird, Kendall, Viswanathan, Vilayanur V., Balducci, Patrick J., Alam, Md Jan E., Fotedar, Vanshika, Koritarov, V S., and Hadjerioua, Boualem. Mon . "Energy Storage Technology and Cost Characterization Report". United States. https://doi.org/10.2172/1573487. https://www.osti.gov/servlets/purl/1573487.

 

[11] Jones, L., (2021) ‘UK Debut Sovereign Green Bonds to Ignite Britain’s Market’, Climate Bonds INITIATIVE. Available at : https://www.climatebonds.net/2021/03/uk-announces-debut-sovereign-green-bonds-ignite-britains-market

 

[12] Green Finance Institute., (2020) ‘ UK Government announces a sovereign green bond’, Green Finance. Available at : https://www.greenfinanceinstitute.co.uk/uk-government-announces-a-sovereign-green-bond/ 

 

[13] Weis, P., (2021) ‘UK Budget 2021: A Meaningful Step Towards Net Zero?’, LEXOLOGY. Available at : https://www.lexology.com/library/detail.aspx?g=e7aeb361-7f77-4d51-8fdf-bd81258df6ea 

 

[14] Lempriere, M., (2021) ‘Budget lacks – Watershed moment for green business despite welcome infrastructure support’, CURRENT ±. Available : https://www.current-news.co.uk/news/budget-lacks-watershed-moment-for-green-business-despite-welcome-infrastructure-support 

 

[15] Government UK, (2019) ‘Capacity Market Reform:2015, to the target capacity for Capacity Market auction’, Capacity Market. Available at : https://www.gov.uk/government/collections/electricity-market-reform-capacity-market-2015 

 

[16] Aurora Energy Research, (2018) ‘ The new economics of offshore wind’ Energy Research Ltd. Available at : https://ore.catapult.org.uk/app/uploads/2018/02/The-new-economics-of-offshore-wind.-Aurora-Energy-Research-Report..pdf 

 

[17] Petrova, V., (2019) ‘Orsted to back offshore wind growth with UK green bond sale’, Renewables Now. Available : https://renewablesnow.com/news/rsted-to-back-offshore-wind-growth-with-uk-green-bond-sale-653085/

 

[18] Youzho, W., Zou, Q., Lin, X., (2021) ‘Evolution of price policy for offshore wind energy in china: Trilemma of capacity. Price and subside’, Renewable and Sustainable Energy Reviews, (136), pp. 110366, DOI: https://www.sciencedirect.com/science/article/pii/S1364032120306547

 

[19] Raikar, S., Seabron, A., (2020) ‘8- Renewable energy in power markets’, Renewable Energy Finance, pp. 115-129, DOI: https://www.sciencedirect.com/science/article/pii/B9780128164419000088

 

[20]Helman, U., (2021) ‘Chapter 19 – Distributed Energy Resources in the US Wholesale Markets: Recent Trends, New Models, and Forecasts, Consumer, Prosumer, Prosumager, pp. 431 – 469, DOI: https://www.sciencedirect.com/science/article/pii/B978012816835600019X

​

[21] Carbon Trust Advisory Ltd (2019) 'Powering the Solent ,Solent Heat and Power Strategy and Action Plan to 2050'.Available at : https://solentlep.org.uk/media/2669/solent-lep-heat-and- power-strategy-and-action-plan-final-docx.pdf (Accessed : May 2021)

​

[22] Department of Energy (US) (2016) '2016 Offshore Wind Technologies Market Report'. Available at : www.energy.gov/sites/prod/files/2017/08/f35/2016%20Offshore%20Wind%20Techn ologies%20Market%20Report.pdf (Accesses at : May 2021)

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[23] Department of Energy (US) (2018) ‘2017 Offshore Wind Technologies Market Update’ .Available at : https://www.energy.gov/sites/prod/files/2018/08/f54/71709_0.pdf (Accessed : May 2021)

​

[24] Minister for Energy, Connectivity and the Islands (2020) ‘Scottish Offshore Wind to GreenAssessment’.Availableat:https://www.gov.scot/publications/scottish- offshore-wind-green-hydrogen-opportunity-assessment/ (Accessed : May 2021)

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[25] Stingheru,C.,Gasparotti,C.,Raileanu,A.,Rusu,E.,(2018) ’A SWOT Analysis of the MarineEnergy Sector at the European Level’. Acta Universitatis Danubius. OEconomica,DanubiusUniversity of Galati,14(3), pp.213-237. Available at :www.researchgate.net/publication/324983877_A_SWOT_Analysis_of_the_Marine_E nergy_Sector_at_the_European_Level (Accessed : May 2021)

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[26] Chen,W.,Kim,H.,Yamaguchi,H.,(2014) 'Renewable energy in eastern Asia : Renewable energy policy review and and comarative SWOT analysis for promoting renewable energy in Japan,South Korea and Taiwan',Energy Policy,74(C),pp.319-329.DOI: 10.1016/j.enpol.2014.08.019

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[27] European Commission (2015) ‘ Communication from the Commission : Towards anIntegrated Strategic Energy Technology (SET) Plan :Accelerating the European EnergySystem Transformation’ .Available at :https://ec.europa.eu/energy/sites/ener/files/documents/1_EN_ACT_part1_v8_0.pdf.(Accessed: May 2021)

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[28] Jaber,J.O.,Elkarmi,F.,Alasis,E.,Anagnostopoulos,K.,(2015) 'Employment of renewable energy in Jordan : Current status , Swot and problem analysis',Renewable and Sustainable Energy Reviews,49(C),pp.490-499. DOI : 10.1016/j.rser.2015.04.050

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[29] Terrados,J.,Almonacid,G.,Hontoria,L.,(2007) 'Regional energy planning through SWOT analysis and strategic planning tools : Impact on renewables development',Renewable and Sustainable Energy Reviews , 11(6),pp.1275-1287. DOI : https://doi.org/10.1016/j.rser.2005.08.003

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[30] De Andrade,F.R., (2013) ’Hydrogen as energy backup for the Hexicon : A case study onMalta ‘ . Master of Science Thesis . KTH School of Industrial Engineering and Management .Available at : https://www.diva-portal.org/smash/get/diva2:608990/FULLTEXT01.pdf(Accessed: May 2021)

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[31] Amos, W. A. (1998), "Costs of Storing and Transporting Hydrogen", National Renewable Energy Laboratory, Managed by Midwest Research Institute for the U.S. Department of Energy

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