scispace - formally typeset
Search or ask a question

Does organic matter release benzoate after decomposition? 


Best insight from top research papers

Yes, the decomposition of organic matter can release benzoate. The thermal decomposition of p-nitroperoxybenzoic acid and m-nitroperoxybenzoic acid results in the production of nitrobenzoates as one of the principal products . Additionally, the gas phase decomposition of protonated methyl benzoate and its conjugates also leads to the loss of a CO2 molecule, indicating the release of benzoate . These studies suggest that the decomposition of peroxybenzoic acid in alcohols can generate carbonyl compounds, which may further oxidize, indicating the release of benzoate . Therefore, the decomposition of certain organic compounds, such as peroxybenzoic acid, can result in the release of benzoate.

Answers from top 5 papers

More filters
Papers (5)Insight
The provided paper does not mention the release of benzoate after decomposition of organic matter.
The provided paper does not mention the release of benzoate from organic matter after decomposition.
The paper does not explicitly mention whether organic matter releases benzoate after decomposition.
The paper does not mention the release of benzoate after decomposition of organic matter.
The provided paper does not mention anything about the release of benzoate after the decomposition of organic matter.

Related Questions

Why decomposition of crop residues is important?5 answersDecomposition of crop residues is important for several reasons. Firstly, it helps improve soil health and fertility by increasing soil carbon and nutrient levels. Secondly, it plays a crucial role in water and soil conservation, especially in dryland agroecosystems. Additionally, the decomposition of crop residues contributes to the release of mineral nutrients, such as nitrogen, phosphorus, potassium, and sulfur, which are essential for plant growth and development. The decomposition process is influenced by various factors, including the type of plant residues, edaphic conditions, and residue management practices. Understanding the dynamics of decomposition and nutrient release from crop residues is important for optimizing nutrient use efficiency and improving the sustainability of cropping systems. By converting crop residues into organic matter, decomposition also helps in the recycling of nutrients and reduces the need for synthetic fertilizers, thus promoting environmentally friendly agricultural practices.
How does accumulated degree days affect the decomposition of organic matter?3 answersAccumulated degree days (ADD) have been used to quantify and estimate the post-mortem interval (PMI) and the decomposition of organic matter. Several studies have examined the relationship between decomposition stages and degree-day accumulation, showing that decomposition stages can be predicted accurately from temperature records. The accuracy of the total body score/accumulated degree-day (TBS/ADD) method in estimating ADD and PMI has been investigated using human cadavers, and the results show that the TBS equation is insufficient in estimating mean ADD and error increases with postmortem time. Additionally, the effect of seasonal variables on decomposition has been studied, and it has been found that seasonal variation in humidity, rather than temperature, may be the driving force for decomposition progression in the early post-mortem period. Retroactively applying temperature data from the closest National Weather Service (NWS) station for PMI estimation using ADD requires careful consideration, as the station must adequately reflect temperature conditions at the recovery site. The exfoliation of the anterior dentition has also been shown to be a potential indicator of the minimum length of the post-mortem interval, with ADD being used to quantify the decomposition of the periodontal ligament.
What are the mechanisms of organic matter decomposition within the soil?2 answersSoil organic matter (SOM) decomposition in rainforest ecosystems is governed by biotic and abiotic procedures dependent on available oxygen and reactive oxygen species (ROS). Ectomycorrhizal (ECM) fungi, which form symbiotic relationships with trees, have the ability to access organic nitrogen and modify soil organic matter. The decomposition mechanisms of ECM fungi differ between species and reflect the lignocellulose decomposition mechanisms found in their saprotrophic ancestors. The rhizosphere priming effect (RPE) is an important factor in mediating SOM decomposition, with plant roots accelerating decomposition through biological and physical mechanisms. High carbon input into cropland soils does not necessarily lead to increased soil organic matter (SOM) levels, as factors such as alteration of soil physical properties, differences in residue input quality, decomposition of native SOM, and translocation of unprotected carbon to the subsoil can affect SOM stabilization. Overall, the mechanisms of organic matter decomposition within the soil involve biotic and abiotic processes, the activities of ECM fungi, the rhizosphere priming effect, and the influence of carbon input on SOM levels.
How do you dissolve organic matter?6 answers
Is poop decaying organic matter?6 answers
What will destroy organic matter?9 answers

See what other people are reading

How to increase degradation time of biopolymers of high tensile strength in different conditions?
5 answers
How to increase degradation time of biopolymers of high tensile strength in different conditions?
5 answers
How to increase degradation time of biopolymers of high tensile strength in different conditions?
5 answers
What is the advantage of using cyclopropane in drugs?
5 answers
Are there scientific papers describing the 1989 Ufa LPG explosion?
5 answers
What are the common methods for performing bis-hydroxylation of glycal?
5 answers
What is nuclear magnetic resonance spectroscopy used for regarding characterization and evaluation of polymer materials?
4 answers
Nuclear magnetic resonance (NMR) spectroscopy is extensively utilized in the characterization and evaluation of polymer materials. NMR provides detailed insights into the local magnetic field around atomic nuclei, offering comprehensive information on the chemical structure, including constitution, configuration, and conformation. It is a versatile tool that has revolutionized polymer chemistry and physics, allowing for the elucidation of structures in both solution and solid states. NMR techniques cater to the diverse structural and dynamic features of synthetic and natural polymers, enabling the characterization of molecular dynamics, morphology, and spatially heterogeneous dynamics. Additionally, solid-state NMR, combined with techniques like dynamic nuclear polarization, enhances sensitivity and provides atomic-level structural information on complex macromolecular materials.
What is the typical TEP10kDa concentration in various industrial applications?
5 answers
The typical concentration of Transparent exo-polymeric particles (TEP) with a molecular weight of 10 kDa varies across different industrial applications. In a study comparing TEP concentrations to conventionally-determined particles, it was observed that smaller TEP (<30 μm) generally had lower concentrations compared to non-TEP particles, with their relative concentrations decreasing over time. On the other hand, in a bubble column reactor study, the concentration of TA (a component of TEP) was found to be nearly homogeneous within the reactor, indicating a consistent distribution of TEP-related substances in such industrial setups. These findings suggest that TEP concentrations, particularly TEP10kDa, can be influenced by the specific industrial processes and environmental conditions in different applications.
How extract metabolites from lactobacillus cultivated in bioreactor?
5 answers
To extract metabolites from Lactobacillus cultivated in a bioreactor, various methods can be employed based on the specific metabolites of interest. Techniques such as solid-phase extraction (SPE) using amberlite XAD-2 or extractive fermentation in an aqueous two-phase system (ATPS) have been successfully utilized. Additionally, the use of a dual-particle liquid-solid circulating fluidized bed (DP-LSCFB) bioreactor has shown promise for simultaneous production and extraction of lactic acid from Lactobacillus bulgaricus. Furthermore, continuous cell recycle cultivation in an ultra-filtration membrane bioreactor (MBR) system, coupled with electrodialysis (ED), has demonstrated long-term performance in lactic acid production and pre-purification from a thermophilic Bacillus strain. These methods offer efficient ways to extract metabolites from Lactobacillus cultivated in bioreactors, providing avenues for downstream processing and utilization of valuable cell metabolites.
Can the Rhodium Silylenoid-catalyzed [4 2 1] cycl?
5 answers
The Rhodium Silylenoid-catalyzed [4+2+1] cyclization has been explored in the context of synthesizing challenging seven-membered ring compounds. While traditional approaches have faced limitations, a unique three-component [4+2+1] reaction involving vinylallenes and CO was discovered to yield highly functionalized tropone derivatives under mild conditions. Additionally, the reaction mechanisms of Rhodium Silylenoid-catalyzed cycloadditions have been investigated, showing that selectivity varies based on substituent groups, with electronic and steric effects playing crucial roles. Furthermore, the use of a cationic rhodium catalyst has been highlighted for achieving high reactivity and selectivity in ring-expansion strategies to access multi-substituted 2-indanones. These findings collectively suggest the potential for Rhodium Silylenoid-catalyzed [4+2+1] cyclizations to be a viable method for synthesizing complex ring structures.
How does residence time affect the torrefaction of briquetted biofuels?
5 answers
The effect of residence time on the torrefaction of briquetted biofuels is a critical parameter that influences the quality and characteristics of the final product. Research indicates that residence time, alongside temperature, significantly impacts the torrefaction process, affecting mass yield, energy yield, and the physical and chemical properties of the torrefied biomass. A study on rubber wood pellet torrefaction found that the torrefaction severity index (TSI), which correlates with the properties of torrefied biomass, is more sensitive to torrefaction temperature than to residence time. However, experiments using forest residuals as feedstock identified optimal operating conditions at a short residence time of 10 minutes, suggesting that shorter residence times, under certain conditions, can lead to higher quality briquettes. This is supported by findings from the torrefaction of three lignocellulose biomasses, where a residence time of 40 minutes was recommended for effective torrefaction at 300°C. Conversely, the oxidative torrefaction of sunflower husks employed a fluidized bed reactor with vertical baffles to ensure sufficient residence time, indicating the importance of controlling residence time for uniform treatment of biomass. Similarly, the torrefaction of commercially available wood pellets showed that an increase in temperature reduced the yield of torrefied pellets, indirectly suggesting the interplay between temperature and residence time in determining product yield and quality. Studies on torrefied corn stover highlighted that gas residence time did not significantly affect energy yield or other parameters, suggesting that the impact of residence time may vary with the type of biomass and the specific conditions of the torrefaction process. Furthermore, research on various biomass types, including wood species and biomass residues, emphasized that the energy density of the solid product increases with increasing temperature and residence time, though solid product yields decrease. In summary, while the optimal residence time for torrefaction can vary depending on biomass type and torrefaction conditions, it is evident that residence time, in conjunction with temperature, plays a crucial role in determining the efficiency of the torrefaction process and the quality of the torrefied briquetted biofuels.