Hotplate Magnetic Stirrer FM-HMS-D102 provides a temperature control range from room temperature to 330°C. It supports a speed range of 100 to 1500 rpm, allowing flexible stirring for various laboratory needs. It is equipped with a PID temperature control system to ensure accurate and consistent heating. It has an LCD display screen that offers clear visibility of all operating parameters for easy monitoring and control.
$2,878.00
| Temperature Control Range | RT to 330 °C |
| Speed Range | 100 to 1500 rpm |
| Max Stirring H20 Volume | 5 × 4 L |
| Timing Range | 1 to 99h59min |
| Motor Type | DC Brushless Motor |
| Power Consumption | 3600 W |
| Power Supply | AC220 : 50 Hz |
| Dimension | φ150 mm |
1: Can the Hotplate Magnetic Stirrer FM-HMS-D102 handle multiple samples simultaneously without compromising performance?
Yes, it supports a maximum stirring capacity of 5 × 4 L, allowing multiple containers to be stirred at the same time. Its high-efficiency heating system and DC brushless motor maintain uniform speed and temperature across all samples.
2: How does the dust-proof mesh and heat dissipation design of the Hotplate Magnetic Stirrer FM-HMS-D102 enhance its lifespan?
The dust-proof mesh prevents particle buildup inside the unit, protecting internal components, while the strategically placed heat dissipation holes reduce the risk of overheating, ensuring longer operational life and consistent performance.
3: Is the Hotplate Magnetic Stirrer FM-HMS-D102 suitable for long-duration experiments?
Yes, the device offers a programmable timing range from 1 hour to 99 hours 59 minutes, making it ideal for long-term processes such as continuous stirring, solvent evaporation, or compound synthesis without requiring manual supervision.
4: How does the PID temperature control system in the Hotplate Magnetic Stirrer FM-HMS-D102 benefit my laboratory applications?
The PID temperature control system ensures precise and consistent heating by automatically adjusting the power output based on real-time temperature readings. This minimizes fluctuations, which is especially important for experiments that require stable thermal conditions over extended periods.