Hydrothermal Reactor and Autoclave Screw Type

Description

Hydrothermal Reactors and Autoclaves (SS – 316)

• -Designed for hydrothermal synthesis, a method involving chemical reactions in high-temperature and high-pressure water environments
• -Entirely constructed with stainless steel to ensure corrosion resistance and durability
• -Capable of withstanding elevated temperatures and pressures, creating an ideal environment for hydrothermal reactions
• -Widely used in materials science, nanotechnology, and organic synthesis for the production of nanoparticles, nanocomposites, and unique materials
• -Suitable for various reactions, including crystallisation, polymerization, and modification of materials under hydrothermal conditions
• -Stainless steel construction enhances safety by preventing corrosion or contamination of the reaction mixture
• -Engineered with precision to control temperature and pressure parameters, ensuring the reproducibility of experiments
• -The stainless steel design facilitates easy cleaning and maintenance, crucial for consistent and reliable performance
• -Widely utilised in research institutions, universities, and laboratories for innovative studies and experiments in the field of hydrothermal chemistry
• -Stainless steel hydrothermal reactors offer a cost-effective solution for researchers requiring a robust and corrosion-resistant apparatus for their experiments

Hydrothermal Reactors and Autoclaves (Made of Titanium):

• -Hydrothermal reactors are vessels designed to handle high-pressure and high-temperature conditions for chemical reactions
• -When constructed entirely of titanium, these reactors exhibit exceptional corrosion resistance and durability
• -Titanium’s resistance to corrosion makes it ideal for applications involving harsh chemical environments, such as hydrothermal reactions
• -Hydrothermal reactors are used in processes where water is a solvent under extreme conditions, typically above its critical point (374°C and 221 bar)
• -Titanium’s strength and resistance to corrosion enable these reactors to withstand the demanding pressure and temperature requirements
• -Titanium hydrothermal reactors find applications in various chemical processes, including the synthesis of nanoparticles, organic compounds, and hydrothermal carbonisation
• -They are utilised for catalytic reactions and the synthesis of advanced materials due to their ability to maintain integrity under aggressive hydrothermal conditions
• -Titanium’s stability and inertness ensure the precision and reliability of hydrothermal reactions, contributing to consistent and reproducible experimental outcomes