Introduction to Preparation Technologies

What is/are Preparation Technologies?

Preparation Technologies - This review introduces imprinting strategies and polymerization methods for MIPs, and briefly summarizes some new molecular imprinting strategies and preparation technologies. ^[1] Due to the reality demand, epitaxy and preparation technologies of antimonide-based materials have achieved rapid progress. ^[2] This review systematically introduces the recent research progress of a variety of Sb-based anodes for SIBs and PIBs from the perspective of composition selection, preparation technologies, structural characteristics, and energy storage behaviors. ^[3] In this review, internal physical dynamics, preparation technologies, and modulation methods are systemically examined as well as the progress, challenges, and possible solutions are proposed for next generation emerging ABO3-based memristive application in artificial intelligence. ^[4] The preparation technologies of electrospun functional fiber membranes are then summarized. ^[5] Here, this paper not only reviews the preparation technologies for various forms of silk fibroin and the recent progress in the use of silk fibroin as a fundamental material but also focuses on the recent advanced works in which silk fibroin serves as functional components. ^[6] To create a precise treatment strategy for cancer, a variety of nano delivery systems and preparation technologies based on ginsenosides have been conducted (e. ^[7]

dual cross linking

Five different cross-linking copolymers, including a polymerized vinyl ester/single-cross-linking (PVESC) polymer, a polymerized epoxy/single-cross-linking (PESC) copolymer, a thermal-photo-initiated/dual-cross-linking (TPIDC) copolymer, a photo-thermal-initiated/dual-cross-linking copolymer (PTIDC), and a thermal-initiated/dual-cross-linking copolymer (TIDC), were obtained with different preparation technologies by different initiated cross-linking processes. ^[1]

Sample Preparation Technologies

Sample preparation technologies and pollutant detection technologies considerably affect the results of pollutant screening. ^[1] Most proteome sample preparation technologies utilize precipitation or filter-based separation, both of which have significant disadvantages. ^[2] Contributions about new separation approaches and the associated sample preparation technologies, improvements of existing methods and intuitive, elegant hyphenation applications are providing a representative snapshot on the “state of the art” of the aspects of bioseparations today. ^[3]

Advanced Preparation Technologies

One of the main tasks of fodder production is the introduction of advanced preparation technologies. ^[1] In addition, the synergistic optimization methods of the electrical and thermal transport parameters and advanced preparation technologies of p-type filled skutterudite materials in recent years are also briefly summarized. ^[2] In this paper, orienting the applications of MIPs in sample pretreatment, sensors and stimuli responses, some advanced preparation technologies and strategies for MIPs materials are highlighted, including ingenious imprinting technologies (surface imprinting, nanoimprinting; controlled/living polymerization, solid-phase synthesis, etc. ^[3]

Three Preparation Technologies

In this article, three preparation technologies of thin films are introduced, including CVD, PVD and ALD. ^[1] In order to study the relationship between the interfacial adhesion and preparation technology, nano CaCO3 impregnation modification (IM) as an efficient way was reported for improving the interfacial interactions, using three preparation technologies which include hot press molding (HPMP), extrusion molding (EMP) and injection molding process (IMP) to produce the bamboo pulp fiber (BPF) reinforced HDPE composites. ^[2]

Different Preparation Technologies

Five different cross-linking copolymers, including a polymerized vinyl ester/single-cross-linking (PVESC) polymer, a polymerized epoxy/single-cross-linking (PESC) copolymer, a thermal-photo-initiated/dual-cross-linking (TPIDC) copolymer, a photo-thermal-initiated/dual-cross-linking copolymer (PTIDC), and a thermal-initiated/dual-cross-linking copolymer (TIDC), were obtained with different preparation technologies by different initiated cross-linking processes. ^[1] In this paper, the different preparation technologies and composite structures of Si@C compound materials by in-situ synthesis are introduced. ^[2]

Soil Preparation Technologies

The research results have shown that deep plowing preparation of soil to obtain high results in rooting, preservation, and growth of shrub species has an advantage over other soil preparation technologies in the semi-desert zone. ^[1] As the result of the search for the optimal combination of moisture supply and mineral nutrition levels, it was established that for the Nizhneje Povolzhje region, in the conditions of the existing land use and the adopted soil preparation technologies, indicators that provide 80% of minimum water capacity are the optimal variant. ^[2]

New Preparation Technologies

Hence, new preparation technologies are required for FS-PANI electrodes and their electrochemical performance must be estimated. ^[1] In recent years, new preparation technologies of ultra-hydrophilic TiO2 films have emerged in an endless stream, such as spray pyrolysis, electrostatic spinning, spray printing, micro-arc oxidation, pulsed laser deposition, atomic force deposition, ion beam deposition, etc. ^[2]

Library Preparation Technologies

We compared three different hybridization-based library preparation technologies in order to implement a suitable NGS workflow for heterogeneous, forensic as well as diagnostic sample material. ^[1] The results also show that RNA library preparation technologies have a considerable impact on tRNA profiling and need to be optimized in the future. ^[2]