Single Mode Microwave Synthesizer XH-EP20 Unicorn

XH-EP20 Single Mode Microwave Synthesizer Overview

The XH-EP20 represents a significant advancement in microwave-assisted chemistry, utilizing high-frequency electromagnetic energy to induce molecular vibration and friction. This specialized heating mechanism effectively lowers activation energy barriers, accelerates chemical reaction rates, and ensures superior thermal uniformity. Engineered for both atmospheric and high-pressure environments, the system is an essential tool for high-purity nanomaterial preparation, organic synthesis, and advanced catalytic research.

Core Technical Advantages

Intelligent Adaptive Control: Employs continuous non-pulsed microwave technology with an output power of ≥900 W.

High-Speed Heating: Capable of achieving rapid heating rates of ≥100℃ per minute with 0–100% automatic power adjustment.

Dual-Mode Capability: Features an oversized single-mode resonant cavity that supports effective reaction volumes up to 100 mL in both open and closed systems.

Extreme Condition Reliability: Supports a maximum operating temperature of 350℃ and a maximum working pressure of ≥5 MPa (725 psi).

Precision Thermal Sensing: Utilizes a high-resolution penetrating infrared sensor with a 5 ms response time for real-time temperature tracking from 60℃ to 350℃.

Integrated Smart System: Built-in Android OS with a 10-inch capacitive touchscreen allows for independent program control and data storage without an external PC.

Visual Monitoring: Integrated ≥5-megapixel camera provides real-time video feeds of the reaction area, which can be captured and exported via USB.

Main Technical Parameters

FAQ

1. What primary applications is this instrument designed for?

It is optimized for microwave synthesis, extraction, hydrothermal processes, degradation, catalysis, and pyrolysis.

2. What are the benefits of a single-mode resonant cavity?

It provides high energy density and uniformity, ensuring samples exhibit high purity, excellent dispersion, and controllable morphology.

3. Is the microwave output continuous or pulsed?

The system uses continuous non-pulsed microwave technology to ensure stable and precise energy delivery.

4. Can the reaction vessels be reused?

Yes, the pressure vessels ($0.5\text{mL}$ to $100\text{mL}$) and PTFE lids are designed for multiple uses and are highly resistant to acid and base corrosion.

5. How does the system ensure safety during high-pressure experiments?

It features "Super Microwave Dual-Pincer Automatic Locking" technology and a dual-layered splash-proof safety lid.

6. Does it require a dedicated computer to run the software?

No, it features an integrated Android operating system that manages all processes and data storage independently.

7. How fast is the temperature sensor response?

The penetrating infrared sensor has a response time of $5\text{ms}$, allowing it to capture rapid temperature changes instantly.

8. Can I view the reaction while it is in progress?

Yes, the built-in $\geq 5$-megapixel camera allows you to visually monitor and record the reaction area in real-time.

9. What is the maximum pressure capacity of the reaction chamber?

The microwave resonant cavity is rated to withstand a maximum pressure of $\geq 20\text{MPa}$ ($2900\text{psi}$).

10. How many stages can be set in a single reaction program?

Users can program up to 20 distinct reaction stages.

11. Is remote operation supported?

Yes, the instrument can be remotely controlled via a local area network (Wi-Fi).

12. What cooling mechanisms are available for post-reaction safety?

An internal vortex cooling system is standard, which can be enhanced with an optional air compressor for rapid cooling.