scholarly journals Does California’s Low Carbon Fuel Standards reduce carbon dioxide emissions?

PLoS ONE ◽  
2018 ◽  
Vol 13 (9) ◽  
pp. e0203167 ◽  
Author(s):  
Samir Huseynov ◽  
Marco A. Palma
2011 ◽  
Vol 213 ◽  
pp. 302-305
Author(s):  
Xiao Fei Zhu ◽  
Da Wei Lv

There are more and more low-carbon architectures around us gradually. Low-carbon architectures is to decrease the use of renewable energy, improving energy efficiency, reduce carbon dioxide emissions during materials and equipment manufacturing, construction and the whole life of building use. According to calculating carbon emissions of the building materials in production, construction, using and removal, and the process of calculation, the total sum of carbon emissions in the life cycle was calculated.


2013 ◽  
Vol 689 ◽  
pp. 241-245
Author(s):  
Gyeong Seok Choi ◽  
Su Jin Woo ◽  
Seong Eon Lee ◽  
Jae Sik Kang

Based on the increase of the global interest in climate change, various political and technological efforts are being made in Korea in order to reduce carbon dioxide emissions, considered to be one of the main causes of greenhouse gas effects. Low energy and low carbon technologies with high reusability that enhance the performance of architectural materials have been developed in the architectural construction field [1]. This study has developed an FS insulation panel using recycled resources, and has verified the enhancement of economic efficiency, reduction of carbon dioxide emissions, and enhanced energy performance of the developed insulating panel. The results of the analysis have confirmed a 1.2t reduction of carbon dioxide emissions and a 7.3% increase in energy performance in comparison to standard insulators based on the existing legislative standards. Furthermore, cost effectiveness was also seen as the cost increased by 72% with a 10 year return period.


Author(s):  
David Vincent

This chapter sets the scene for future chapters covering a range of low carbon technologies from renewables through to nuclear. It reviews how the evidence base for climate change is building up, what the impacts of climate change might be, and how we are beginning to explore the policies and measures which will be needed to make the transition to a low carbon economy. The year 2005 will go down in history as the beginnings of a broad, politically backed consensus that man’s activity is influencing our climate. In February 2005, the Kyoto Protocol came into force—binding over 170 countries in action to reduce carbon dioxide emissions, accepted by most informed commentators to be the principal cause of anthropogenically forced climate change. In the same year, the G8 group of countries at Gleneagles, Scotland, considered climate change as a key agenda item. Significantly, it set up a forum for discussion with other countries and the emerging economies. The forum, known as the ‘Dialogue on Climate Change, Clean Energy and Sustainable Development’ met for the first time in November 2005. However, the value of the Kyoto protocol is not universally acknowledged. Some argue that although the science underpinning the existence of climate change and the link with carbon dioxide emissions has become unequivocal, the Kyoto protocol is not appropriate for them. A group of these countries, including the US, China, and India (huge emitters of carbon dioxide in their own right) has agreed the need to tackle climate change. Their approach is to promote clean technology development initiatives; though how exactly that partnership will evolve and deliver new low carbon technologies is not, at the time of writing, clear. Nevertheless, whether via the formalized Kyoto Protocol with carbon dioxide emission reduction targets or via other initiatives, a start has been made on the long, uncertain road to a low carbon world. Slowly, but surely, global action on climate change is gathering momentum. The term ‘greenhouse effect’ was first coined by the French mathematician Jean Baptiste Joseph Fourier in 1827. It enables and sustains a broad balance between solar radiation received and Earth’ s radiation emitted or reflected.


2010 ◽  
Vol 14 (3) ◽  
pp. 200-216 ◽  
Author(s):  
Matti Kuronen ◽  
Seppo Junnila ◽  
Wisa Majamaa ◽  
Ilkka Niiranen

This paper examines the possibility of Public‐Private‐People partnership (4P) model as a way to reduce carbon dioxide emissions from residential developments. The case project focuses on the energy system design as a part of urban planning. Based on the case experiences, the paper presents a 4P framework for low‐carbon residential development systems. The theoretical model was tested in one specific case project, Nupurinkartano. The major findings were that the 4P framework is a relevant tool for decreasing carbon emissions when planning a new development; the applied solution delivered an energy system design that could reduce the CO2 emissions of the development by 75%. Based on literature this paper suggests that a new development should be viewed as one system instead of several different subsystems. The paper concludes by suggesting that 4P offers an alternative approach for urban planning, specifically energy system planning, and it can deliver significant improvements in carbon efficiency. Santruka Šiame darbe nagrinejama galimybe viešojo ir privataus sektoriu bei žmoniu partnerystes (angl. Public‐Pri‐vate‐People Partnership ‐ 4P) modeli taikyti kaip būda mažinti anglies dvideginio emisijas gyvenamuosiuose rajonuose. Pasirinktame projekte daugiausia demesio skiriama energetikos sistemos projektavimui, kuris yra miestu planavimo dalis. Remiantis atvejo patirtimi, darbe pristatoma 4P struktūra, skirta mažai anglies dvideginio išmetančioms gyvenamuju rajonu sistemoms. Teorinis modelis išmegintas pasirinkus konkretu projekta Nupurinkartano rajone. Padaryta išvada, kad, planuojant nauja rajona, 4P struktūra — tinkama priemone mažinti anglies dvideginio emisijas. Pritaikius ši sprendima buvo parengtas energetikos sistemos projektas, CO2 emisijas rajone galintis sumažinti 75 proc. Remiantis literatūros šaltiniais šiame darbe teigiama, kad nauja rajona reiketu traktuoti kaip viena sistema, o ne kelis skirtingus posistemius. Darbas baigiamas teigiant, kad 4P — tai alternatyvus miestu, ypač energetikos sistemu, planavimo būdas, galintis suteikti galimybiu veiksmingai mažinti anglies dvideginio emisijas.


2012 ◽  
Vol 616-618 ◽  
pp. 1484-1489 ◽  
Author(s):  
Xu Shan ◽  
Hua Wang Shao

The coordination development of economy-energy-environment was discussed with traditional environmental loads model, combined with "decoupling" theory. Considering the possibilities of social and economic development, this paper set out three scenarios, and analyzed quantitatively the indexes, which affected carbon dioxide emissions, including population, per capita GDP, industrial structure and energy structure. Based on this, it forecasted carbon dioxide emissions in China in future. By comparing the prediction results, it held that policy scenario was the more realistic scenario, what’s more it can achieve emission reduction targets with the premise of meeting the social and economic development goals. At last, it put forward suggestions to implement successfully policy scenario, from energy structure, industrial structure, low-carbon technology and so on.


2021 ◽  
Vol 11 (5) ◽  
pp. 2009
Author(s):  
Valerii Havrysh ◽  
Antonina Kalinichenko ◽  
Anna Brzozowska ◽  
Jan Stebila

The depletion of fossil fuels and climate change concerns are drivers for the development and expansion of bioenergy. Promoting biomass is vital to move civilization toward a low-carbon economy. To meet European Union targets, it is required to increase the use of agricultural residues (including straw) for power generation. Using agricultural residues without accounting for their energy consumed and carbon dioxide emissions distorts the energy and environmental balance, and their analysis is the purpose of this study. In this paper, a life cycle analysis method is applied. The allocation of carbon dioxide emissions and energy inputs in the crop production by allocating between a product (grain) and a byproduct (straw) is modeled. Selected crop yield and the residue-to-crop ratio impact on the above indicators are investigated. We reveal that straw formation can consume between 30% and 70% of the total energy inputs and, therefore, emits relative carbon dioxide emissions. For cereal crops, this energy can be up to 40% of the lower heating value of straw. Energy and environmental indicators of a straw return-to-field technology and straw power generation systems are examined.


2022 ◽  
Vol 1 (15) ◽  
pp. 71-75
Author(s):  
Dmitriy Kononov

The strategy of low-carbon development of the economy and energy of Russia provides for the introduction of a fee (tax) for carbon dioxide emissions by power plants. This will seriously affect their prospective structure and lead to an increase in electricity prices. The expected neg-ative consequences for national and energy security are great. But serious and multilateral research is needed to properly assess these strategic threats


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