Single Layer Glass Reactor LSGR-T2012

Introduction

Single features a 3-liter glass vessel that provides efficient thermal distribution for optimal reaction conditions. The stirring mechanism of the unit operates smoothly across a wide speed range, ensuring reliable mixing. Its broad temperature range makes it suitable for various chemical reactions. Our Single and the chemical industry.

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 used in laboratories for chemical synthesis, mixing, and reaction processes. It offers controlled heating, stirring, and vacuum conditions for efficient material processing.

Specifications

Glass Vessel Volume	3 L
Glass Vessel Diameter	Φ195 mm
Temperature Range	-80 to 250 ℃
Bath Temperature	RT to 180 ℃
Temperature Measurement Accuracy	+/-1℃
Heating Power	1500 W
Stirring Speed	0 to 800 rpm
Vacuum Degree	0.0098 Mpa
Dropping Funnel	500 ml
Power Consumption	90 W
Power Supply	220V/50Hz
Dimensions (W×D×H)	1030×330×1100 mm
Weight	23 kg

Features

High corrosion resistance

Leak-proof construction

Accurate vacuum control system

Versatile for chemical processes

User-friendly operation interface

FAQs

1. What makes the Single Layer Glass Reactor suitable for various laboratory applications?

The Single Layer Glass Reactor is designed with versatility, offering a wide temperature range from -80 to 250 ?. This flexibility allows researchers to carry out a variety of chemical reactions under different conditions. Its adaptability makes it ideal for use in pharmaceuticals, material science, and chemical engineering. By providing stable control over temperature, it supports a broad spectrum of experimental setups. Researchers can achieve consistent results across varying processes. This reactor provides an essential solution for labs seeking a multi-purpose tool. The durability and design make it a reliable choice for everyday lab tasks. As a result, it remains a go-to equipment for diverse applications.

2. How can the Single Layer Glass Reactor maintain high vacuum performance during experiments?

Single Layer Glass Reactor ensures excellent vacuum performance with a degree of 0.0098 MPa. This allows for effective solvent evaporation and distillation under vacuum conditions. The vacuum system helps maintain a consistent environment, crucial for chemical reactions sensitive to atmospheric pressure. Its design includes seals that minimize leakage, ensuring high vacuum integrity. This high vacuum performance is particularly beneficial when working with volatile compounds. The reactor's vacuum functionality also helps reduce contamination risks. With this system, researchers can rely on controlled environments for critical processes. As a result, it supports efficient and safe operations in various chemical experiments.

3. Can the Single Layer Glass Reactor handle continuous reactions for extended periods?

The Single Layer Glass Reactor is designed for extended, continuous operation without sacrificing performance. Its durable motor and reliable temperature control systems are built for long-term use. This reactor can withstand the demands of continuous reactions, ensuring that the system operates smoothly for hours. Researchers can rely on the reactor for ongoing experiments, knowing it will perform consistently over time. The design allows for minimal maintenance, ensuring that the unit remains operational. This is crucial for labs requiring constant, reliable results. Furthermore, the reactor’s high-quality construction ensures that wear and tear is minimized, even during prolonged use. With these features, it becomes a dependable piece of equipment for extended experiments.

4. How does the material construction of the Single Layer Glass Reactor contribute to its durability?

Single Layer Glass Reactor is made from high borosilicate glass and seals, which are both chemically resistant and capable of withstanding high temperatures. These materials ensure that the reactor is durable and can endure demanding lab conditions. The borosilicate glass is known for its strength and resistance to thermal shock, ensuring longevity even under extreme temperature variations. The seals prevent any leakage, maintaining a secure environment during reactions. The combination of these materials minimizes the risk of contamination during sensitive experiments. This sturdy construction makes the reactor ideal for laboratories handling corrosive or high-temperature chemicals. It offers peace of mind to researchers seeking a robust and reliable solution. Overall, it delivers an extended lifespan for frequent use.

5. What benefits does the 3L capacity of the Single Layer Glass Reactor provide to researchers?

The Single Layer Glass Reactor offers a 3L capacity, providing ample space for conducting a wide range of experiments. This capacity is ideal for laboratory-scale reactions, offering flexibility without taking up excessive space. It allows researchers to process a moderate amount of material, balancing efficiency with practicality. The 3L size ensures that experiments involving various chemicals can be performed without needing larger, more expensive equipment. This mid-range capacity is perfect for pilot studies, smaller batch productions, or academic research. The reactor's compact design makes it suitable for tight laboratory spaces, optimizing workflow. Researchers can easily monitor and control reactions within this size range. As a result, it meets the needs of labs with varying research scales.

6. Is the Single Layer Glass Reactor easy to set up and use in a laboratory environment?

The Single Layer Glass Reactor is designed for straightforward setup and operation, allowing researchers to begin experiments with minimal hassle. Its user-friendly controls make it easy to operate, even for those with limited technical expertise. The system is designed to be assembled quickly, with clear instructions that simplify the process. It requires minimal maintenance, which reduces downtime between experiments. The reactor’s parts are also easy to clean, ensuring that it remains ready for the next use. This ease of use makes it a practical addition to any lab, helping to boost productivity. Researchers can start using it almost immediately after installation, saving valuable time. It serves as a reliable tool for day-to-day laboratory work.