Borosilicate Glass Reactor LBGR-T2010

Introduction

Borosilicate Glass Reactor offers a 100 reactions without frequent batch changes. The double-layer glass design supports stable heat exchange for controlled thermal performance. Its stirring system handles viscous media, maintaining uniform agitation across process stages. Our Borosilicate Glass Reactor is widely used in synthesis, formulation, and small-scale production research.

This laboratory glass reactor is designed to meet the rigorous requirements of modern laboratory operations, ensuring high precision, reliability, and ease of use for various experimental applications.

Applications

Borosilicate Glass Reactor is used for controlled reactions under variable pressure and temperature environments in laboratory and pilot-scale setups. This allows consistent synthesis, crystallization, distillation, and purification across pharmaceutical, chemical, and environmental research industries.

Specifications

Volume	100 L
Jacket Volume	30 L
Feeding Tank Volume	2 L
Recovery Tank Volume	20 L
Discharge Valve Height	450 mm
Condensation Area	1.1 m²
Impeller Diameter	60 mm flange type
Temperature Sensor Diameter	40 mm flange type
Speed Regulation Mode	Frequency control
Speed Adjustment Range	0 to 600 rpm
Condenser Connection	50 mm spherical grinding
Liquid Feed Inlet	34 mm standard grinding ×1
Feeding Tank Interface	40 mm standard grinding
Solid Feed Inlet	80 mm flange type
Working Temperature	120℃ to 300℃
Maximum Temperature Difference	Less than or equal to 60℃
Temperature Sensor	PT100
Temperature Display Accuracy	±0.1℃
Water Bath Temperature Range	RT to 90℃
Oil Bath Temperature Range	RT to 300℃
Environment Temperature	5 to 35℃
Relative Humidity	Less than or equal to 65%
Kettle Pressure	-0.1 to 0.1 MPa
Jacket Pressure Resistance	Less than or equal to 0.1 MPa
Vacuum System Pressure Rise Rate	Less than or equal to 2 kPa/h
Glass Assembly	High borosilicate glass 3.3
Stirring Paddle	Paddle agitator (internal stainless steel, external , titanium)
Move Method	Lockable casters
Seal Material
Motor Type	High-power motor for viscous materials
Explosion-Proof Mixing Motor Power	370 W
Power Consumption	200 W
Power Supply	220V/110V, 50/60Hz
Packaging Dimension (W×D×H)	1720×730×840 mm
Dimension (W×D×H)	800×710×2600 mm
Weight	150 kg

Features

Corrosion-resistant joint connections

High-visibility transparent chamber

Chemical spill-resistant frame

Adjustable feed valve system

Stable caster-mounted base

FAQs

1. What key features make the Borosilicate Glass Reactor ideal for a wide range of chemical processes?

Borosilicate Glass Reactor is designed for versatility and reliability in a variety of chemical applications. Its borosilicate glass construction offers excellent resistance to thermal shock and chemicals, ensuring durability even under extreme conditions. This makes it suitable for both simple and complex reactions, from routine synthesis to more demanding processes. The reactor's stable environment helps minimize contamination risk, essential for high-quality research. Compact in design, it integrates seamlessly into most lab setups, optimizing space while maintaining full functionality. Additionally, it features easy-to-use controls and an efficient heat transfer system, enhancing the overall reaction speed and consistency. With its robust build and versatility, the Borosilicate Glass Reactor is an excellent choice for labs requiring both performance and safety.

2. How does the Borosilicate Glass Reactor perform for large-scale reactions, and can it be used for pilot production?

The Borosilicate Glass Reactor is built to handle scalability, making it an excellent choice for both research and small-scale production. Its large capacity allows for high-volume reaction processes without sacrificing efficiency. The robust construction is tailored to manage extended use, ensuring stable operation during high-volume production. It is especially well-suited for scaling experiments from lab trials to pilot production, providing a smooth transition. This reactor offers reliable performance in diverse chemical processes, making it ideal for industrial applications.

3. Is the Borosilicate Glass Reactor easy to clean, and how does its design contribute to ease of maintenance?

Borosilicate Glass Reactor is designed with smooth, non-porous glass surfaces that make cleaning hassle-free. Its innovative design minimizes the retention of chemical residues, making it simple to clean between experiments. Detachable parts offer easy access for thorough cleaning of all components. The materials used resist chemical corrosion, ensuring that cleaning is efficient and reduces the risk of contamination. This design helps laboratories maintain high standards of cleanliness with minimal downtime. Whether switching between experiments or cleaning after long processes, the Borosilicate Glass Reactor’s design streamlines maintenance tasks.

4. What maximum pressure can the Borosilicate Glass Reactor safely handle during reactions?

The Borosilicate Glass Reactor is engineered to safely manage moderate pressures, making it suitable for reactions that require a controlled environment with both gases and liquids. Its robust construction ensures the system can handle high-pressure conditions without compromising integrity. Reinforced joints and secure seals reduce the risk of leaks, while pressure gauges and safety valves provide continuous monitoring during operations. This reactor is designed for pressurized reactions, such as those found in gas-phase processes. With its dependable performance, the Borosilicate Glass Reactor ensures that pressure-related safety is maintained throughout the experiment.

5. How does the Borosilicate Glass Reactor ensure operational safety during high-pressure or high-temperature experiments?

It prioritizes safety in the design of the Borosilicate Glass Reactor by incorporating several built-in safety features. It is constructed with durable materials that can withstand extreme pressures and temperatures, ensuring reliability during high-demand experiments. Pressure gauges and valves enable real-time monitoring and control, reducing the risk of overpressure. The reactor’s seals and joints are designed to prevent leaks, minimizing the potential for hazardous chemical exposure. With its sturdy build, which reduces the likelihood of glass breakage, the Borosilicate Glass Reactor ensures safe operation while maintaining optimal performance throughout intense chemical reactions.

6. Can the Borosilicate Glass Reactor effectively support both liquid-phase and gas-phase reactions in the same setup?

Yes, the Borosilicate Glass Reactor is specifically designed to handle both liquid-phase and gas-phase reactions, providing flexibility for various chemical processes. It features multiple ports and valves, allowing for easy introduction of liquids and gases, giving researchers full control over reaction conditions. The reactor’s structure ensures that it can handle the different properties of liquids and gases without compromising its overall function. This adaptability makes it a versatile tool in diverse laboratory environments, from basic liquid reactions to more complex gas-phase experiments. Whether for academic research or industrial applications, the Borosilicate Glass Reactor offers a reliable solution for multiple reaction types.