Technical Specification:
- Material Composition:
- Material: Polyphenylene (PPL).
- Renowned for its superior chemical resistance and thermal stability, particularly in extreme environments where PTFE liners may fail.
- Material: Polyphenylene (PPL).
- Physical Dimensions:
- Volume: 100 mL.
- Designed to fit perfectly within standard 100 mL hydrothermal synthesis autoclave reactors.
- Wall Thickness: Typically 2–5 mm, ensuring robust protection and structural stability under high pressure.
- Height and Diameter: Precisely engineered to match the internal dimensions of the autoclave.
- Volume: 100 mL.
- Thermal Properties:
- Maximum Operating Temperature: 280°C–300°C.
- Higher thermal tolerance compared to PTFE liners, making it suitable for reactions under elevated conditions.
- Thermal Stability:
- Maintains performance across a wide range of reaction temperatures.
- Maximum Operating Temperature: 280°C–300°C.
- Mechanical Properties:
- Pressure Resistance: Supports pressures up to 10 MPa (100 bar), depending on the reactor design.
- Durability: Built to withstand multiple reaction cycles without degradation.
- Chemical Resistance:
- Inertness:
- Resistant to aggressive chemicals, including strong acids (e.g., HCl, H₂SO₄), strong bases (e.g., NaOH), and organic solvents.
- Non-Contaminating:
- Maintains the purity of reactions by preventing chemical interactions.
- Inertness:
- Ease of Use:
- Non-Stick Surface:
- Ensures easy cleaning and reduces the accumulation of residues.
- Insertable Design:
- Simple to insert and remove from the autoclave reactor shell.
- Non-Stick Surface:
Applications:
- Primary Applications:
- Reaction Vessel Liner:
- Acts as a chemically resistant barrier to contain reactants and solvents during hydrothermal or solvothermal synthesis.
- Reaction Vessel Liner:
- Industries:
- Material Science:
- Enables the synthesis of nanomaterials, crystals, and advanced materials.
- Chemical Research:
- Facilitates high-pressure, high-temperature reaction studies.
- Pharmaceuticals:
- Suitable for the crystallization of high-purity compounds.
- Geology:
- Used to replicate hydrothermal conditions for mineral and crystal growth.
- Material Science:
- Advantages for Applications:
- Chemical Compatibility:
- Suitable for reactions involving aggressive chemicals and high acidity.
- High Thermal Tolerance:
- Can handle elevated temperatures up to 300°C, expanding the range of reactions.
- Durability:
- Designed for long-term use with minimal maintenance requirements.
- Compact and Efficient:
- A convenient size for laboratory-scale experiments.
- Chemical Compatibility:
- Specialized Uses:
- Nanotechnology:
- Facilitates the growth of nanostructures like nanowires, graphene oxide, and carbon nanotubes.
- Catalyst Development:
- Supports the preparation of advanced catalytic materials for research and industry.
- Experimental Research:
- Enables detailed studies on reaction mechanisms, kinetics, and material behavior.
- Nanotechnology:
- Challenges and Mitigation:
- Volume Limitations:
- Restricted to 100 mL reaction capacity.
- Solution: Ideal for medium-scale research; scale up with larger reactors for production.
- Restricted to 100 mL reaction capacity.
- Handling and Maintenance:
- PPL is more delicate than stainless steel and requires careful handling.
- Solution: Use non-abrasive tools and gentle cleaning methods.
- PPL is more delicate than stainless steel and requires careful handling.
- Temperature Constraints:
- Exceeding 300°C may damage the liner.
- Solution: Operate within the recommended temperature range for optimal performance.
- Exceeding 300°C may damage the liner.
- Volume Limitations:
Summary:
The PPL Inside Chamber for Hydrothermal Synthesis Autoclave Reactors (100 mL) is a durable and versatile solution for conducting high-temperature, high-pressure reactions. Its exceptional chemical resistance and thermal stability make it an ideal choice for material synthesis, nanotechnology, and chemical research. Proper use and maintenance ensure consistent performance and long-term reliability in demanding laboratory environments.