Single Layer Glass Reactor LSGR-T2019

Introduction

Single features a 100 chemical reactions with uniform heating. Its design ensures stable vacuum performance for consistent evaporation and reactions under reduced pressure. The ceramic mechanical seal resists wear, maintaining system integrity over time. Our Single Layer Glass Reactor supports extraction, distillation, and synthesis in pharmaceutical, chemical, and research applications.

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 supports chemical synthesis, distillation, and thermal reactions under variable laboratory conditions. It is widely used in pharmaceutical research, chemical engineering, and academic laboratories where controlled heating and vacuum processing are essential.

Specifications

Glass Vessel Volume	100 L Cylindrical
Glass Vessel Diameter	Φ 610 mm
Temperature Range	-80 to 250 ℃
Bath Temperature	RT to 180 ℃
Temperature Measurement Accuracy	+/-1℃
Heating Power	8000 W
Stirring Speed	0 to 450 rpm
Vacuum Degree	0.0098 Mpa
Dropping Funnel	5000 ml
Power Consumption	200 W
Power Supply Stirrer	220V/50Hz
Power Supply Heating Bath	380V/50 Hz
Dimensions (W×D×H)	900×770×2550 mm
Weight	110 kg

Features

Digital speed display controller

Adjustable stirring shaft height

Wide mouth reaction port

Integrated cooling coil option

Explosion-proof control box

FAQs

1. What type of motor is used in the Single Layer Glass Reactor and how does it affect long-term operation?

Single Layer Glass Reactor is equipped with a copper brushless motor that delivers quiet, high-torque performance across extended use. This motor ensures stable agitation during viscosity fluctuations and supports variable speed control without producing excess heat. Its energy-efficient design lowers operating costs while reducing wear on moving parts. By minimizing vibration and eliminating brushes, it increases the motor's lifespan and maintains consistent output over time. The brushless configuration also supports quiet environments in research spaces. This setup enables smoother operations across different protocols. The reactor offers mechanical reliability for repeated experimental use.

2. How does the Single Layer Glass Reactor handle chemical compatibility during experiments?

The Single Layer Glass Reactor is constructed with high borosilicate glass and -contact materials that resist corrosion from a broad range of chemical agents. This chemical resistance allows researchers to conduct diverse syntheses without compromising product purity. Both acidic and alkaline solutions can be processed without deterioration of internal surfaces. The reactor also avoids reaction with solvents often used in organic and inorganic research. These durable materials reduce contamination risk and lower cleaning frequency. Over long use, material integrity remains unchanged, which helps ensure reproducibility. reactor supports rigorous formulations and varied research environments. It’s ideal for sensitive and multi-step reactions.

3. What measures are taken to reduce mechanical wear in the Single Layer Glass Reactor?

The Single Layer Glass Reactor uses ceramic bearings and a reinforced sealing system to minimize wear from stirring and thermal cycling. These features allow it to perform under sustained agitation without degradation in rotating parts. The system resists material ingress into key components, ensuring continued operational efficiency. Its thermal resistance helps maintain function during hot or cold phase transitions. Users benefit from extended intervals between maintenance or part replacement. This internal protection ensures stable rotation across variable workloads. reactor is engineered for prolonged, high-demand operations. It suits settings that require mechanical consistency over many use cycles.

4. How does the Single Layer Glass Reactor help manage noise in the lab environment?

The Single Layer Glass Reactor incorporates a low-vibration motor and precision-balanced drive shaft to maintain quiet performance during reactions. This minimizes disturbance in shared research environments and supports better focus among lab staff. The structure suppresses acoustic feedback from moving parts, reducing fatigue for operators during long procedures. Ceramic bearings further reduce mechanical hum and grinding noises. This sound-dampening setup is especially useful in facilities conducting parallel operations. The low-noise design is a key benefit for educational and pharmaceutical labs. reactor contributes to more comfortable and disruption-free lab work. It suits labs with strict acoustic standards.

5. Can the Single Layer Glass Reactor be integrated with other lab systems?

The Single Layer Glass Reactor features ports and adapters that support integration with peripheral lab equipment such as chillers, condensers, and vacuum pumps. This interconnectivity allows researchers to build modular setups suited to specific experimental workflows. Inlets and outlets are designed to avoid interference with sample handling. Condenser compatibility makes it suitable for continuous distillation tasks. The open-architecture design enables easy scaling or modification without system overhauls. reactor supports batch and semi-continuous protocols in both academic and industrial setups. It is built for evolving research needs. Adaptability makes it a smart fit for multipurpose lab infrastructure.

6. What makes the Single Layer Glass Reactor suitable for pilot-scale work?

Single Layer Glass Reactor is designed to support pilot-scale experimentation with high material throughput and durable construction. The reactor handles intermediate batch volumes, which bridges small-scale lab work and commercial production. It supports long reaction durations with consistent heating and vacuum performance. With its robust frame and sealed assembly, the reactor maintains operational integrity during extended tests. Users benefit from reliable outcomes under process development conditions. Its flexibility suits the iterative nature of pre-commercial trials. The product structure accommodates changes in formulation or run time. This system supports scaling studies across multiple sectors.