scispace - formally typeset
Search or ask a question

Which is most abundantly found green house gas? 

Thermal decomposition
Artinite
Dypingite
Carbonate minerals
Carbonate

Answers from top 9 papers

More filters
Papers (9)Insight
Open access•Journal Article•DOI
Refrigerants and their Environmental Impact Substitution of Hydro Chlorofluorocarbon HCFC and HFC Hydro Fluorocarbon. Search for an Adequate Refrigerant
Samira Benhadid-Dib, Ahmed Benzaoui 
01 Jan 2012-Energy Procedia
85 Citations
The solution to the environmental impacts of refrigerant gases would therefore pass by a gas which contains no chlorine no fluorine and does not reject any CO2 emissions in the atmosphere, in brief a green gas!
Open access•Journal Article•DOI
Building envelope performance with different insulating materials – An exergy approach
Y. Anand, Sanjeev Anand, A. Gupta, S. K. Tyagi 
01 Apr 2015-Journal of Thermal Engineering
10 Citations
Buildings have now a days become the largest producer of green house gases, thus making them a potential option for analysis.
Open access•Journal Article•DOI
Thermal stability of artinite, dypingite and brugnatellite—Implications for the geosequestration of green house gases
Ray L. Frost, Silmarilly Bahfenne, Jessica E. Graham, Wayde N. Martens 
15 Sep 2008-Thermochimica Acta
57 Citations
The approach to remove green house gases by pumping liquefied carbon dioxide several kilometres below the ground implies that many carbonate containing minerals will be formed.
Journal Article•DOI
Comparison of organic matter occurrence and organic nanopore structure within marine and terrestrial shale
han Zhang, Yanming Zhu, Yang Wang, Wei Kang, Shangbin Chen 
01 May 2016-Journal of Natural Gas Science and Engineering
19 Citations
are most promising for gas accumulation.
Open access•Journal Article•DOI
The structure of selected magnesium carbonate minerals – A near infrared and mid-infrared spectroscopic study
Ray L. Frost, Silmarilly Bahfenne, Jessica E. Graham, B. Jagannadha Reddy 
26 Jun 2008-Polyhedron
24 Citations
The approach to remove green house gases by pumping liquid CO2 several kilometres below the ground implies that many carbonate containing minerals will be formed.
Book Chapter•DOI
Spectroscopic and Chromatographic Characterization of the Composition of Organic Matter in Arid Salt-Affected Soils Under Different Vegetation Cover, Southeastern Tunisia (Gabes and Medenine)
Zohra Omar, Abdelhakim Bouajila, Jalloul Bouajila, Rami Rahmani, Houda Besser, Younes Hamed 
12 Nov 2018
5 Citations
It consolidates the soil’s potential to store the green house gases.
Journal Article•DOI
Iron catalyzed hydrogenation and electrochemical reduction of CO2: The role of functional ligands
Arne Glüer, Sven Schneider 
15 Apr 2018-Journal of Organometallic Chemistry
21 Citations
The reduction of CO2 is an attractive route to utilize the green-house gas as a C1 building block.
Journal Article•DOI
Measurement of particulate phase polycyclic aromatic hydrocarbon (PAHs) around a petroleum refinery.
Padma S. Rao, M. Faiyaz. Ansari, P. Pipalatkar, Anupama Kumar, P. Nema, Sukumar Devotta 
01 Feb 2008-Environmental Monitoring and Assessment
29 Citations
Also, since it acts as precursor to green house gas, the data would be useful for climate change assessments.
Open access•Journal Article•DOI
Thermal stability of artinite, dypingite and brugnatellite—Implications for the geosequestration of green house gases
Ray L. Frost, Silmarilly Bahfenne, Jessica E. Graham, Wayde N. Martens 
15 Sep 2008-Thermochimica Acta
57 Citations
It is concluded that pumping liquefied green house gases into magnesium bearing mineral deposits is feasible providing a temperature of 350-355 degrees Celsius is not exceeded to prevent escape of CO2 towards the surface.

Related Questions

Which gas contributes more to green house?8 answers
Which gas is called green house gas?12 answers
Which gas is known as green house gas?6 answers
Which gas is responsible for green house?9 answers
Which is the most abundantly found green house gas?8 answers
Which one is the major green house gas responsible for global warming?8 answers

See what other people are reading

Doed lithium carbonatye react with organic solvents
5 answers
Lithium carbonate does not react with organic solvents. However, lithium does react with various organic solvents commonly used in lithium-ion batteries, such as tetrahydrofuran (THF) and propylene carbonate (PC). Highly concentrated solutions of lithium perchlorate in organic solvents have been utilized for synthetic transformations due to the mild Lewis acidity of the lithium ion in donor solvents like diethyl ether. Theoretical investigations have shown that cyclic carbonate electrolytes in lithium-ion batteries form complexes with lithium that contribute to high performance by constructing a solid electrolyte interface and enhancing Li ion conductance. Organolithium reagents interact with coordinating solvents like HMPA, forming contact ion pairs, but lithium carbonate specifically does not partake in such reactions.What is the chemical formula for converting isotópica values from calcite to aragonite?
5 answers
The chemical formula for converting isotopic values from calcite to aragonite involves an enrichment in heavy isotopes in aragonite compared to calcite, indicating aragonite precipitation from isotopically heavier solutions. Additionally, dolomite displays higher δ18O values but lighter δ13C values, possibly due to organic activity during its formation. The equilibrium curve for calcite-aragonite transformation can be expressed as P = 5500 + 12.6T, where pressure (P) is in bars and temperature (T) is in degrees Celsius. Experiments show that aragonite can readily convert to calcite under heating and mechanical stress, with changes in δC and δO showing a linear correlation during mineral structure alteration. A proposed model for the aragonite-calcite transition suggests a dislocation mechanism leading to topotactic relationships between the two minerals.What influences the ageing of double based propellants?
5 answers
The ageing of double-based propellants is influenced by various factors such as chemical stability, mechanical properties, and the presence of additives like polytetrafluoroethylene (PTFE). Chemical changes occur due to nitrate esters decomposition, leading to worsened chemical stability over time. Mechanical properties deteriorate as a result of binder network collapse, phase separation, and interfacial dewetting during ageing. Additionally, the presence of stabilizers plays a crucial role in maintaining propellant stability, with stabilizer depletion affecting the overall performance and safety of the propellant. The ageing process can be accelerated artificially, leading to decreased activation energy values and changes in reaction models, ultimately impacting the propellant's lifetime and safety. Thermal decomposition studies also show that ageing accelerates decomposition processes in double-based propellants.How does limestone contribute to the health of ecosystems, both terrestrial and aquatic?
4 answers
Limestone plays a crucial role in the health of ecosystems, both terrestrial and aquatic. In terrestrial ecosystems, limestone contributes to soil formation and rock weathering, aiding in the colonization of microorganisms and facilitating the restoration of degraded ecosystems. In aquatic ecosystems, limestone bedrock can lead to the deposition of calcium carbonate, forming travertine or tufa, which can encrust aquatic insects. The presence of calcium carbonate deposits on aquatic insects is linked to longer-lived aquatic stages, potentially reducing predation pressure and affecting ecological interactions. Furthermore, the production and preservation of reef limestones are vital for coral reefs, recording Earth's history and biogeochemical cycles. Limestones provide insights into the consequences of human activities on the future of ecosystems, emphasizing the importance of understanding carbonate processes to mitigate the effects of global warming and climate change.What is the effectiveness of laser on enamel conditioning?
5 answers
Laser technology, specifically Er:YAG and CO2 lasers, has shown promising results in enamel conditioning. Er:YAG laser treatment, combined with acid etching, significantly reduces microleakage and improves sealant adaptation. Additionally, Er:YAG laser irradiation on enamel surfaces enhances micromorphology, with a laser power of 5.5 W being optimal for non-carious enamel. On the other hand, CO2 laser irradiation inhibits caries-like lesion formation in primary teeth, reducing mineral loss and demonstrating a significant decrease in lesion formation when combined with fluoride treatment. These findings collectively suggest that laser technology, particularly Er:YAG and CO2 lasers, can effectively condition enamel, improving bonding strength, reducing microleakage, and inhibiting caries progression in both permanent and primary teeth.Does the electrical resistance of the epoxy resin change after curing?
5 answers
The electrical resistance of epoxy resin can indeed change after curing. Research has shown that the curing process affects the electrical resistance of epoxy resin due to various factors. For instance, during the curing process, the electrical resistance of CNT/epoxy composite films can vary significantly due to resin rheological properties, thermal expansion, and curing shrinkage. Additionally, the dielectric properties of epoxy resin, which are closely related to its electrical resistance, can be influenced by the curing degree, leading to changes in the distribution of polar groups and the mobility of chain segments within the resin. Monitoring the curing reaction of epoxy resins through techniques like electrical impedance spectra analysis can provide insights into the changes in electrical properties post-curing.What are the hyper-alkaline leachates?
5 answers
Hyper-alkaline leachates are solutions with high pH levels that result from the interaction between cementitious materials and groundwater in deep geological repositories for radioactive waste storage. These leachates play a significant role in altering the mineralogy of the host rock, leading to mineral dissolution and precipitation reactions. The interaction of hyper-alkaline leachates with the host rock can create a chemically disturbed zone, affecting pore fluid chemistry, porosity changes, and secondary mineral phase formation within the rock matrix. Experimental studies have shown that hyper-alkaline leachates can induce mineral alteration, secondary phase precipitation, and enhance sorption of radionuclides like strontium in sediments. Modeling studies have also highlighted the influence of hyper-alkaline leachates on host rocks in nuclear waste disposal facilities, emphasizing the importance of understanding these interactions for long-term waste containment.What are the most effective methods for removing carbon dioxide from the atmosphere?
5 answers
The most effective methods for removing carbon dioxide from the atmosphere include direct air capture using chemical processes, injecting anode exhaust stream into underground coal beds to cause CO2 adsorption onto coal, utilizing CO2 permselective membranes to selectively remove CO2 from gas mixtures, and employing adsorption technologies with solid adsorbents like activated carbons, carbon nanotubes, and metal-organic framework materials. Additionally, a method involving the absorption of carbon dioxide into an aqueous solution of alkali or alkaline earth metals, followed by electrodialysis and thermal desorption, has also shown effectiveness in removing CO2 from ambient air. These methods offer promising approaches to mitigate the impact of carbon dioxide emissions on the environment.Can alterations in pH be used as a predictive tool for H2S production in water systems?
5 answers
Alterations in pH can indeed serve as a predictive tool for H2S production in water systems. pH measurements play a crucial role in evaluating top-of-line corrosion and wellbore integrity in sour fields. Additionally, modeling H2S emissions in wastewater treatment plants involves analyzing the influences of different pH values on H2S concentrations. Furthermore, alterations in pH due to the presence of H2S can impact calcium carbonate scaling potential in reservoirs, affecting productivity and system integrity. Moreover, high Z values indicating H2S production risk in sewage networks correlate with seasonal pH variations, highlighting the importance of pH monitoring to prevent corrosion and H2S-related issues. Therefore, monitoring pH levels can be a valuable tool in predicting and managing H2S production in water systems.What factors influence the rate of TNT decomposition?
5 answers
The rate of TNT decomposition is influenced by various factors as highlighted in the research papers. Factors such as pH, initial TNT concentration, dosage of oxidants (ozone or hydrogen peroxide), reaction time, and the presence of hydroxide ions play crucial roles. Additionally, the physical properties of the soil, specifically the porosity increased by detonations, can enhance TNT transformation and loss, making it more accessible for biodegradation. Furthermore, the application of nanoscale zero-valent iron (nZVI) particles has shown promising results in TNT remediation, with factors like treatment dosages and reaction time affecting the degradation rate. Understanding these factors is essential for optimizing TNT remediation strategies in contaminated water and soil environments.Why mass loss with CO2 atmosphere the decomposition of solid mass was slightly higher compared to N2 for biomass?
5 answers
The slightly higher mass loss during the decomposition of solid biomass in a CO2 atmosphere compared to N2 can be attributed to the different gasification pathways and reactions involved. In the presence of CO2, the complex gas reforming reactions lead to the promotion of CO and CH4 formation, impacting the thermal mass loss of the biomass. Additionally, the presence of CO2 during pyrolysis enhances secondary condensation of volatiles, reducing cracking and influencing the composition of the biochar formed, ultimately affecting the mass loss. These findings suggest that the specific gas-phase reactions and gas properties under CO2 atmosphere play a role in the slightly higher mass loss observed during the decomposition of solid biomass compared to N2.