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Leaf carbon content per dry mass (LCC) is an important plant trait and also a very key factor influencing our estimations of regional and global carbon sequestration in plants. Compared with the nitrogen and phosphorus, Carbon content of plants change slight, and most studies have accepted the value of 50%, however, the variations of LCC among different biomes and life …
Leaf carbon content enhances soil organic carbon accumulation mainly through organic carbon derived from apoplastic decomposition, while leaf carbon is also an important component of plant carbon stocks (Monika et al., 2019). Functional diversity did not contribute significantly to the accurate prediction of soil carbon stock, while functional ...
The increasing availability of nutrients in the soil increases the carbon content of the leaves through greater photosynthesis, and more elements are introduced to the rhizosphere by the fine roots. In the growing season, the leaf biomass increases with the growth of plants and the distribution of carbon content per unit in the leaves decreases
In addition to taxonomic turnover, functional axis 2 (w = −0.23, p < 0.001), and functional axis 3 (w = 0.12, p < 0.1; Fig. 3 a) showed a weaker but still significant contribution to tree composition, indicating variations in carbon fractions as well as the water-related traits leaf dry matter content (LDMC) and leaf water content (LWC).
The carbon content of soil (0-100 cm) was between 0.3 and 2.7% and had an obvious vertical distribution characteristic: the surface soil layer had a higher carbon content and carbon content ...
Phenolic Acid Content Testing in Pollen; Plant Leaf Physiological Detection; Plant Root System Detection; Plant Fruit Detection; Ferns Analysis and Testing Services. ... Detection and Analysis of influencing factors of Plant carbon content. *The service project is constantly updated, please contact our staff by email for more up-to-date and ...
as activated carbon is a more acceptable utilization method (Ayinla, et al. [2]). Activated carbon is a solid product with a high C content obtained from the pyrolysis reaction, also called carbonization. This product can be used in wastewater applications as an adsorbent. Giv-en the increasing environmental concerns and urgent requirement
Leaf carbon content (LCC) is widely used as an important parameter in estimating ecosystem carbon (C) storage, as well as for investigating the adaptation strategies of …
Appropriate application of nitrogen (N) fertilizer promotes plant growth, inflorescence yield, and flower quality of orchids. In this study, we used the near-infrared spectroscopy (NIRS) technique to develop a prediction model of the N content in the leaf of Dendrobium orchid, which is an essential indicator for monitoring plant health. The …
An increase in nitrogen content in photosynthetic parts enhances nitrogen assimilation, leading to competition with photosynthetic carbon assimilation for ATP, NADPH and the carbon shelf produced by photosynthesis; analysis of the data revealed that carbohydrate accumulation in leaves is inhibited to some extent with increasing nitrogen ...
With a change in forest age, the carbon content of the leaves gradually increased and then decreased, reaching a maximum in NMF. There were significant differences between the …
Considerable alterations in leaf carbon content were found not only during the course of the growing season, but also as a function of tree height. Until about August, leaf …
Compared with the widely used elemental-level carbon content or carbon-to- nitrogen ratio 11,52, the molecular-level carbon traits provide more direct support for the diversity of root forms and ...
This data set provides carbon (C), nitrogen (N), phosphorus (P), potassium (K), calcium (Ca), and magnesium (Mg) concentrations in green and senesced leaves. Vegetation characteristics reported include species growth habit, leaf area, …
The colorful leaves piling up in your backyard this fall can be thought of as natural stores of carbon. In the springtime, leaves soak up carbon dioxide from the atmosphere, converting the gas into organic carbon compounds. Come autumn, trees shed their leaves, leaving them to decompose in the soil as they are eaten by microbes.
Considerable alterations in leaf carbon content were found not only during the course of the growing season, but also as a function of tree height. Until about August, leaf carbon content of oak gradually increased and then showed a decline as the leaves yellowed in October. In beech sun leaves there was a gradual increase in organic carbon ...
Citation: Sun J, Li J, Koyama K, Hu D, Zhong Q and Cheng D (2023) The morphology and nutrient content drive the leaf carbon capture and economic trait variations in subtropical bamboo forest. Front. Plant Sci. …
Plant carbon content increases significantly with the increasing lignin in plants (r 2 = 0.29, p < 0.001), whereas it is not correlated with the cellulose in plants. ... Mahmood et al. [26] found ...
The reported average for leaf carbon content globally is 46.9% (Ma et al. 2018). A range of values around this average could be expected for healthy plants, for plants undergoing drought values...
Table 1, it was found that the carbon released to the atmosphere from the DDF fires represented 88.38 ± 2.02% of the initial dead leaves carbon content. The results showed that each gram of ...
There are basically two schools of thought when it comes to the description and analysis of allocation to the different plant organs. In the first, biomass allocation at any given time is considered to be a strong driver of the capacity of plants to take up C, water and nutrients for future use (Evans, 1972).As such, it plays an important role in the growth of plants.
The lower ratio of carbon to nitrogen implies too much N nutrient, which will lead to high chlorophyll content due to close linkage between N and chlorophyll 29,38,39, and high chlorophyll content ...
Carbon and nitrogen contents of leaves or plants are central issues in crop cultivation. The ratio of carbon and nitrogen directly affects the redistribution of biomass among root-to-shoot (Grechi et al., 2007).Nitrogen stress (low nitrogen) improves the percentage of fixed carbon and then affects plant growth (Green et al., 2010).Considerable research has also …
Plant carbon (C), nitrogen (N), and phosphorus (P) concentrations and stoichiometry play effective roles in indicating the response and adaptation to environmental changes (Sun et al., 2019, Cao et al., 2020, Zhang et al., 2020).Taking account into these important applications, patterns of leaf stoichiometry and driving factors in terrestrial …
Forests cover more than one third of the world's land area and constitute the major terrestrial carbon pool [5], [6].Trees and other forest plants fix CO 2 through photosynthesis, and all forest organisms release CO 2 through respiration [7], [8].Thus, forests are both sinks and sources for atmospheric CO 2.Increasing the biomass or carbon content of the world's existing …
Nitrogen and carbon content, leaf mass per area and leaf water content of leaves sampled from the NGEE Arctic Teller study site, Seward Peninsula, Alaska in 2017. Data is included for 13 species from the deciduous shrub, forb and graminoid plant functional types. See related dataset for leaf reflective spectra, sample photographs and dGPS ...
Plant carbon (C) content is one of the most important plant traits and is critical to the assessment of global C cycle and ecological stoichiometry; however, the global variations in plant C content remain poorly understood. ... Plant C content in leaves (global mean of 46.9 %) was higher than that in roots (45.6 %). Across life forms, woody ...
source. Due to their high carbon content, leaves may take 5 months to 2 years to compost by themselves. However, leaves will compost and turn out a good finished product if moisture is adequate and if the pile is turned frequently, ensur-ing a good supply of oxygen. Mixing other organic wastes with leaves is an important step in optimizing the
Among herbaceous plants, C content ranged from 42.41% in stems to 44.73% in leaves and among woody 117 plants, it changed from 47.43% in roots to 48.56% in reproductive organs (Table 1).