Single Layer Glass Reactor LSGR-T2010

Introduction

Single features a 1L glass vessel, providing efficient temperature control for various reactions. Its high-performance sealing system maintains consistent vacuum levels, minimizing contamination. The copper brushless motor ensures smooth stirring with adjustable speed for uniform mixing. Our Single development, and chemical engineering.

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

Single Layer Glass Reactor is built for efficient chemical reactions under controlled temperature and vacuum conditions. This reactor enhances chemical synthesis, evaporation, and pharmaceutical processes with consistency.

Specifications

Glass Vessel Volume	1L
Glass Vessel Diameter	Φ131mm
Temperature Range	-80 to 250 ℃
Bath Temperature	RT to 180 ℃
Temperature Measurement Accuracy	+/-1℃
Heating Power	1500 W
Stirring Motor Power	40 W
Stirring Speed	0 to 800 rpm
Vacuum Degree	0.0098 Mpa
Dropping Funnel	250 ml
Power Supply	220V/50Hz
Dimensions (W×D×H)	700×300×900 mm
Weight	18 Kg

Features

Adjustable stirring speed control

Stable pressure monitoring system

Easy-to-clean glass components

Quick cooling and heating

High thermal shock resistance

FAQs

1. What makes the Single Layer Glass Reactor suitable for chemical synthesis?

Single Layer Glass Reactor excels in chemical synthesis due to its uniform heating capabilities. It ensures consistent temperature control, which is crucial for stable reactions and optimized product outcomes. This helps in maintaining an even reaction environment, reducing the risk of inconsistent results. The heating system is highly efficient, promoting effective thermal distribution throughout the glass vessel. Additionally, it operates at a broad temperature range, which is beneficial for various chemical processes. Users can achieve improved reaction rates and more accurate results. The reactor’s robust construction supports long-term use in demanding applications. Its versatility makes it ideal for different types of research and manufacturing.

2. How does the stirring speed of the Single Layer Glass Reactor contribute to its functionality?

The stirring speed control of the Single Layer Glass Reactor provides flexibility in handling various materials. Its adjustable speed range allows the user to tailor stirring according to the viscosity and type of substance being processed. The high torque motor supports smooth mixing, which is vital for ensuring uniformity in reactions. With stirring speeds reaching up to 800 rpm, it can accommodate a wide range of laboratory applications. This capability enhances the efficiency of both low and high-viscosity substances. The reactor’s low noise operation is also an advantage in quieter lab environments. For optimal performance, it delivers consistent stirring even under different operational conditions.

3. How does the glass material of the Single Layer Glass Reactor impact its use?

The Single Layer Glass Reactor uses high-quality borosilicate glass that is resistant to thermal shock and chemicals. This makes the reactor durable and reliable for long-term use in research and industrial settings. The glass ensures that there is no unwanted interaction between the reactor and the substances being processed. It also offers clear visibility, allowing users to monitor reactions easily. The use of borosilicate glass ensures that the reactor maintains its structural integrity even under extreme temperature fluctuations. The material is also resistant to corrosion, ensuring that the reactor performs optimally for years. Its transparent nature supports better monitoring of the contents and reaction progress.

4. What is the advantage of the vacuum system in the Single Layer Glass Reactor?

The Single Layer Glass Reactor is equipped with a high-performance vacuum system that ensures low pressure operation. This system is particularly beneficial in reducing the boiling points of solvents, which is key for applications like distillation. By maintaining a stable vacuum, it enhances evaporation efficiency, especially when dealing with sensitive compounds. The vacuum setup helps prevent contamination, which can compromise the purity of the product. Its reliable performance ensures that reactions proceed smoothly, even under controlled low-pressure conditions. The ability to achieve a vacuum of 0.0098 Mpa makes this reactor ideal for high-precision processes. This feature also supports improved safety by preventing over-pressurization.

5. Can the Single Layer Glass Reactor be used for sensitive biological applications?

The Single Layer Glass Reactor is highly suitable for bio-pharmaceutical applications due to its precise temperature control. The ability to maintain a consistent thermal environment is crucial when dealing with sensitive biological materials. Its vacuum system also helps prevent contamination during the reaction process, ensuring the integrity of the substances. The reactor’s construction from high borosilicate glass and minimizes chemical reactions between the materials. This feature makes it ideal for applications such as drug formulation, enzyme reactions, and other biotechnological processes. The reactor’s quiet operation adds to its appeal for lab environments that require minimal disturbance.

6. How does the Single Layer Glass Reactor ensure safety during operation?

The Single Layer Glass Reactor is designed with safety as a primary consideration. The high borosilicate glass construction ensures it is resistant to thermal stress, reducing the likelihood of cracking or breaking under heat. The vacuum sealing system also prevents over-pressurization and leaks, further enhancing operational safety. The motor and heating elements are housed in durable, secure components that reduce the risk of accidents. The reactor’s vacuum pressure gauge allows users to monitor safety levels in real time. Additionally, the reactor operates with minimal noise, reducing safety concerns in laboratory environments.