scholarly journals How could Finland promote renewable-energy technology innovation and implementation?

Clean Energy ◽  
2021 ◽  
Vol 5 (3) ◽  
pp. 447-463
Author(s):  
Eelis Paukku

Abstract Several major market failures are hindering renewable energy production. Probably the most significant one of these are negative externalities. Another issue hindering renewable energy production is low technological and commercial maturity. These technologies might not become commercially viable in the near future without state intervention. This study aims to analyse Finnish energy policy based on current legislation related to renewable energy production and budget policy related to renewable-energy subsidies. This study shows that the polluter-pays principle is implemented quite well in Finland due to the emissions trading scheme and taxation. Still, this principle is not entirely implemented in electricity production as electricity tax is not based on the carbon intensity of the fuel used, but rather on who uses the electricity. National subsidy policies focus on a short-term increase in renewable energy production as most subsidies are production subsidies granted through a bidding process, making these subsidy policies partly technology-neutral. These policies do not take into account long-term needs for energy policy as much as they could.

2019 ◽  
Vol 8 (1) ◽  
pp. 13-17
Author(s):  
Ondrej Beňuš ◽  
Dominika Čeryová

Abstract Renewable energy production is one of key actions undertaken by the EU to lower its dependency on energy imports from third countries. Renewable energy is not competitive compared to fossil fuels at this moment. Under these circumstances, there is a need for an effective legal regulation. The EU has set main targets relating renewable energy use in the directive (EU) 2018/2001. Slovak policymakers have recognized these new targets. The main objective of the paper is to examine the latest changes to the Slovak legal regulation of the renewable energy production with focus on electricity production. We analyse changes made by the amendment of the Act No. 309/2009 Coll. and provide a short explanation of new instruments.


2005 ◽  
Vol 16 (2) ◽  
pp. 273-282 ◽  
Author(s):  
Jonathan ◽  
M.O. Scurlock

Recent claims about the potential of UK land to support significant biofuels production for transport are bold, if not surprising. British renewable energy policy appears to be focussed on electricity production, at the expense of the heat and transport sectors. However there are environmental and strategic reasons for reducing the carbon intensity of UK road transport. This paper reviews past and recent studies of the feasibility of liquid biofuels production in Britain. Many earlier studies may have underestimated this potential, and the policy context has shifted significantly, but it would still be difficult to meet current UK gasoline needs from arable and set-aside land. In conclusion, a realistic short-term goal may be 2–3% of UK transport fuel needs from domestic resources by 2010.


2020 ◽  
Author(s):  
Ipsita Kumar ◽  
Kuishuang Feng ◽  
Varaprasad Bandaru ◽  
Laixiang Sun

<p>Population and economic growth have increased demand for food, energy, and other resources. At the same time, there is competition from those sectors on limited water and land resources. Thailand faces similar challenges as they transition towards energy independence by increasing renewable energy production for energy security, and to become future exporters of energy. Thailand implemented the Alternative Energy Development Policy (AEDP) in 2012, which led to shifting land use from rice for food to sugarcane for energy production, especially from crop residue. Currently, crop residue use for electricity production is well below its potential. In 2017, 1.06% and 4.44% of total potential of paddy husk and sugarcane bagasse respectively were being used for electricity generation (DEDE, 2017). The AEDP looks to increase energy production from residue use, by targeting future growth in demand, technological changes, and potential areas for renewable energy production. This policy will also impact food supply, water and land use. The sugarcane act in Thailand sets minimum internal prices, in line with international sugar prices, to safeguard the industry, and farmers. However, this safeguard does not apply to sales for energy production, thus discouraging farmers to sell sugarcane to power plants. The study uses an input-output model to understand the economic effects of using crop residue for electricity on the economy, land, labour, etc. The study runs two future scenarios and two historical years (2011 and 2014) to assess these impacts. The first scenario looks at the policy from the Ministry of Industry to stop sugarcane residue burning by 2022. The second scenario looks at the AEDP, which seeks to rapidly increase the generation of electricity from biomass by 2036. The results demonstrate that in the first scenario, where the entire potential of sugarcane bagasse is used for electricity production, electricity generated from all other sources remains nearly the same. Therefore, reliance on non-renewable sources do not change from 2014 to 2022. Similar results are seen for water use, labour and capital, where there is no change over time. The second scenario shows that while the AEDP increases production from biomass, it is not capturing the full potential and therefore electricity production is much lower from crop residues than in scenario 1. This leads to increasing production of electricity from other non renewable sources. We also see a reduction in paddy production and a rise in cane production before the implementation of the AEDP to the future. We conclude that while Thailand is moving towards energy security, policies should target technological development and mechanization at the farm level. The subsidies targeting farmers selling cane for sugar production should also reach those used for energy production, as well as to rice. To ensure reliability of energy supply, irrigation would also be required, as droughts and flooding are both common in different regions of Thailand. Another solution would be to increase the AEDP target, where a larger potential of sugarcane and rice residues are being used for electricity generation.</p>


Symmetry ◽  
2021 ◽  
Vol 13 (2) ◽  
pp. 334 ◽  
Author(s):  
Chia-Nan Wang ◽  
Thanh-Tuan Dang ◽  
Hector Tibo ◽  
Duy-Hung Duong

Climate change and air pollution are among the key drivers of energy transition worldwide. The adoption of renewable resources can act as a peacemaker and give stability regarding the damaging effects of fossil fuels challenging public health as well as the tension made between countries in global prices of oil and gas. Understanding the potential and capabilities to produce renewable energy resources is a crucial pre-requisite for countries to utilize them and to scale up clean and stable sources of electricity generation. This paper presents a hybrid methodology that combines the data envelopment analysis (DEA) Window model, and fuzzy technique for order of preference by similarity to ideal solution (FTOPSIS) in order to evaluate the capabilities of 42 countries in terms of renewable energy production potential. Based on three inputs (population, total energy consumption, and total renewable energy capacity) and two outputs (gross domestic product and total energy production), DEA window analysis chose the list of potential countries, including Norway, United Kingdom, Kuwait, Australia, Netherlands, United Arab Emirates, United States, Japan, Colombia, and Italy. Following that, the FTOPSIS model pointed out the top three countries (United States, Japan, and Australia) that have the greatest capabilities in producing renewable energies based on five main criteria, which are available resources, energy security, technological infrastructure, economic stability, and social acceptance. This paper aims to offer an evaluation method for countries to understand their potential of renewable energy production in designing stimulus packages for a cleaner energy future, thereby accelerating sustainable development.


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