PPL Inside Chamber for Hydrothermal Synthesis Autoclave Reactors, Volume:500ml

Technical Specification:

1. Material Composition:
   • Material: Polyphenylene (PPL).
     • Known for its superior chemical resistance, thermal stability, and performance in highly acidic, basic, or oxidative conditions.
   • Purity: High-grade PPL ensures minimal reactivity and consistent results across experiments.
2. Physical Dimensions:
   • Volume: 500 mL.
     • Designed to fit seamlessly into standard 500 mL hydrothermal synthesis autoclave reactors.
   • Wall Thickness: Typically 3–5 mm, providing excellent structural integrity under high-pressure environments.
   • Height and Diameter: Precisely engineered for compatibility with common 500 mL autoclave models.
3. Thermal Properties:
   • Maximum Operating Temperature: 280°C
     • Suitable for reactions requiring high thermal tolerance.
   • Thermal Stability:
     • Maintains consistent performance across prolonged exposure to elevated temperatures.
4. Mechanical Properties:
   • Pressure Resistance: Supports pressures up to 3 MPa (30 bar), depending on the autoclave specifications.
   • Durability: Highly resistant to deformation and stress, ensuring long-term usability.
5. Chemical Resistance:
   • Inertness:
     • Compatible with strong acids (e.g., HCl, H₂SO₄), strong bases (e.g., NaOH), and organic solvents.
   • Non-Contaminating:
     • Ensures that the liner does not interfere with the chemical reactions.
6. Ease of Use:
   • Non-Stick Surface:
     • Simplifies cleaning and reduces residue accumulation.
   • Insertable Design:
     • Designed for quick and hassle-free installation and removal from the autoclave body.

Applications:

1. Primary Applications:
   • Reaction Vessel Liner:
     • Serves as a protective and chemically resistant barrier inside the hydrothermal synthesis autoclave.
2. Industries:
   • Material Science:
     • Facilitates the fabrication of advanced nanomaterials, crystals, and composite structures.
   • Chemical Research:
     • Enables high-pressure, high-temperature reactions for compound synthesis and reaction mechanism studies.
   • Pharmaceuticals:
     • Assists in crystallization and the synthesis of high-purity compounds.
   • Geology:
     • Simulates natural hydrothermal environments for mineral and crystal growth.
3. Advantages for Applications:
   • Large Capacity:
     • Suitable for medium-to-large scale experiments or small batch production.
   • Chemical and Thermal Stability:
     • Withstands harsh chemical environments and elevated temperatures.
   • Durability:
     • Built for repeated use in high-stress laboratory conditions.
   • Safety and Reliability:
     • Prevents corrosion or chemical damage to the stainless steel reactor shell.
4. Specialized Uses:
   • Nanotechnology:
     • Supports the growth of nanowires, carbon nanotubes, graphene oxide, and other advanced nanostructures.
   • Catalyst Development:
     • Enables the preparation of advanced catalytic materials for research and industrial applications.
   • Experimental Research:
     • Suitable for studies of reaction kinetics, material properties, and chemical transformations under hydrothermal conditions.
5. Challenges and Mitigation:
   • Volume Limitations:
     • While larger than smaller liners, it may still be insufficient for industrial-scale production.
       • Solution: Ideal for R&D or pilot-scale experiments; consider scaling up with larger reactors for industrial applications.
   • Handling and Maintenance:
     • PPL is softer than stainless steel and requires careful handling to avoid scratches or damage.
       • Solution: Use non-abrasive cleaning tools and avoid sharp objects.
   • Temperature Constraints:
     • Operating above 280°C can degrade the liner.
       • Solution: Strictly adhere to temperature recommendations for optimal performance.

Summary:

The PPL Inside Chamber for Hydrothermal Synthesis Autoclave Reactors (500 mL) is a durable, chemically resistant, and thermally stable liner designed for advanced material synthesis and chemical research. Its large capacity and exceptional properties make it indispensable for high-temperature, high-pressure experiments in material science, nanotechnology, and experimental chemistry. Proper handling and adherence to operational guidelines ensure long-term performance and reliable results.