Trends in Horticulture

Fertilizers and Biological Products

Submission deadline: 2024-06-30
Section Editors

Section Collection Information

Dear Colleagues,

 

Fertilizers improve plant growth by improving soil efficiency and changes in water retention and climate. Fertilizers usually contain substances in different proportions. Fertilizers are classified in several ways. They can be classified based on having only one nutrient. Combined fertilizers contain two or more different nutrients. Fertilizers are sometimes classified according to their nature (organic or inorganic). Organic fertilizers usually are plants (recycled) or taken from animals. Inorganic fertilizers are commonly referred to as chemical fertilizers because they require several chemical processes. Manufacturing Fertilizers in an industrial scale-up and in the framework of a project demands a certain pathway to be recognized in the implementation stage. Extracting nutrients and main materials from waste materials, waste residuals, and exploiting the raw materials or a combination of the alternatives sound economic viability in the manufacturing of fertilizers. But the question about; which one is efficient is uncertain concerning massive resources of raw materials in nature.

 

Thus, we are interested in the collective mentioned subjects in the framework of decision theory and green products sovereignty and competition, their internal strengthening processes, their operational strategies, their procedures about the biological products, and how technologies are generated and implemented.


For this, it is important to collect the experiences of manufacturing and cultivating different Fertilizers and Biological Products that have been implemented and considered their impacts and new achievements.

 

Research articles and reviews in this area of study are welcome. We look forward to receiving your contributions.


Dr. Malek Hassanpour

Section editor

Keywords

Project Identification; Decision-making Theory; Sustainability; Environmental Impact Assessment; Green Technology; Energy Conservation; Efficiency Assessment; Data Envelopment Analysis

Published Paper

Due to polymorphism and complex crystal structure, compounds of the argyrodite family and phases based on them exhibit several interesting functional properties, such as thermoelectric, photoelectric, optical, as well as ionic conductivity for Cu+ and Ag+ cations. The paper presents the results of the study of phase equilibria in the Ag8SiSe6-Ag8SiTe6 system by DTA, XRD, and SEM methods. Refined data on the melting temperature (1278 K) and polymorphic transitions (315 K and 354 K) of the Ag8SiSe6 compound are presented. The crystallographic parameters of LT-Ag8SiSe6 (Cubic, F-43m, a = 1.0965 nm) and IT-Ag8SiSe6 (Cubic, P4232, a = 1.0891 nm) are also determined. It has been established that the investigated system is quasi-binary and its phase diagram is characterized by the formation of a continuous series of substitutional solid solutions between HT-Ag8SiSe6 and Ag8SiTe6. This process is accompanied by a strong decrease in the temperatures of polymorphic transformations of Ag8SiSe6, which leads to the stabilization of the ion-conducting cubic phase at room temperature in the >10 mol% Ag8SiTe6 compositions area. The crystal lattice parameters of the synthesized solid solutions are calculated by indexing the powder diffraction patterns. The stabilization of the high-temperature cubic phase at room temperature achieved by us presents new opportunities for the development of environmentally friendly thermoelectrics and ion-electronic conductors based on silicon argyrodites with desired composition and properties.