In this paper, we study single-step natural gas conversion technologies that directly convert methane to olefins and higher hydrocarbons.
The results from this study can serve as a baseline for future comparison and as a basis for comparing this process to other associated flare gas conversion technologies at the wellhead.
In this article, various barriers to the technology, such as challenges with biomass supply chain management, biomass pretreatment, generic shortcomings, gas conditioning and conversion technology have been highlighted.
Natural gas-fired electricity conversion technology would play a key role in the power generation activities, coal-fired power would be in a second place and wind power would be the supplement under 10%and20%0% pollutants emissions reduction.
Given the increasing importance of natural gas to global energy supply, this work investigates the application of an iron oxide based chemical looping technology for natural gas conversion.
The main advantage of gasification-based systems in terms of flexibility is the possibility to use existing flexible CHP technology known from gas conversion.
Natural gas reburning is a NOx to N2 conversion technology in which turbulent jets are used to mix reburning fuel into furnace gases.
The LCA results presented in this study can serve as a baseline for future comparison and as a basis for comparing this process to other flare gas-to-fuel conversion technologies.
In addition, the aim of this paper is to highlight the impact of NGCS-10 in the advancement of research activities in gas conversion processes and other related gas monetization technologies.
However, this technique is versatile and has high gas conversion, possibility of continuous operations, good homogeneity of products, technology easy to use and to rescale, and low costs in equipment.
