Glass Liquid Separator LGLS-T2014

Introduction

Glass features a 100 L working volume, enabling effective liquid-liquid extraction in high-capacity setups. Its frequency-controlled stirring adjusts speed dynamically to enhance material interaction. The adjustable discharge valve supports layer-wise separation with stable outflow and better control during draining. Our liquid separator is used in chemical engineering, bio-pharmaceutical processes, and academic 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

Glass Liquid Separator is designed for efficient liquid-liquid extraction and controlled discharge after reaction completion. This enables separation of clarified components in chemical processes across research, pharmaceutical, and industrial laboratories.

Specifications

Volume	100 L
Vacuum Degree	0.098 MPa
Stirring Speed	0 to 450 rpm
Stirring Motor Power	120W1/3
Power Supply	220V/50 Hz
Dimensions (W×D×H)	750 × 800 × 2100 mm
Weight	41 kg

Features

Splash-limiting upper seal

Corrosion-safe support connectors

Clear visibility operation panel

Reinforced vessel locking clamps

Easy drainage control interface

FAQs

1. What safety measures are integrated into the Glass Liquid Separator during stirring operations?

Glass Liquid Separator incorporates built-in protections that reinforce operational safety during intense mixing. The secured motor base minimizes displacement even during high-viscosity agitation, reducing risks of toppling or spills. Its chemical vapor containment limits exposure in reactions involving volatile liquids. A non-slip base keeps the glass body anchored, preventing micro-shifts during extended operation. Its structure also buffers vibration transmission, improving lab safety and user confidence. Clear visibility of the separation zone enables fast intervention in case of unexpected reactions. These features contribute to a safer and more predictable workflow. The design supports researchers working with reactive or high-risk samples.

2. How does the Glass Liquid Separator support maintenance during frequent usage?

It Glass Liquid Separator is designed to simplify cleaning between experiments and reduce maintenance effort. Its modular build lets users remove key components without disrupting the rest of the assembly, easing access to cleaning surfaces. The detachable drain valve enables rinsing of only the outlet system, saving time during frequent liquid changes. Smooth inner walls minimize buildup of sticky or viscous residues after processing. It also includes corrosion-resistant elements that preserve structural quality over multiple cycles. The wide upper chamber supports quick flushing during turnaround between tests. These factors make it suitable for labs with high daily usage rates.

3. Does the Glass Liquid Separator accommodate varying liquid types with different flow behaviours?

Glass Liquid Separator is engineered to adjust to substances with contrasting densities and viscosities. Its motor adapts speed according to flow resistance, ensuring that heavier or layered liquids don’t disrupt the separation process. The vertical design benefits gravity-led phase distinction, useful when handling immiscible or stratified compounds. Its interface remains stable when alternating between solvents, oils, or aqueous suspensions. The sealing elements prevent residual cross-transfer between samples with different chemical properties. It allows batch-wise liquid handling without compromising purity. This adaptability makes it ideal for labs that process multiple liquid types across research cycles.

4. Can the Glass Liquid Separator be integrated with external lab setups or workflows?

Glass Liquid Separator features connection-friendly ports and flexible mounting that support integration into broader laboratory systems. Its outlet geometry facilitates guided discharge into flasks, filtration units, or external collection vessels without spillage. The structure supports vacuum or low-pressure setups where downstream processing is essential. Adjustable stirrer height ensures alignment with different benchtop instruments, improving physical compatibility across platforms. It can be used alongside synthesis setups or extraction trains for coordinated processing. This system fits seamlessly into labs operating hybrid workflows across stages. Its configurability reduces setup constraints in multi-step lab environments.

5. How does the Glass Liquid Separator ensure clarity during observation of phase separation?

The Glass Liquid Separator incorporates a high-visibility chamber that offers an unobstructed view of settling interfaces. This vertical transparency is especially valuable when distinguishing subtle emulsion layers or particulate deposits. Its smooth walls avoid distortion or visual noise during real-time tracking of liquid behaviour. The design allows ambient lighting to penetrate without internal shading, improving photographic or live analysis. Researchers can monitor droplet separation or cloudiness with greater control. The lack of internal fogging or condensation keeps visibility consistent across sessions. It supports applications where qualitative judgment is essential. Its clarity enables timed and accurate fluid collection.

6. Is the motor performance of the Glass Liquid Separator affected by extended laboratory usage?

Glass Liquid Separator is built with a motor system capable of sustaining prolonged operation without degradation. It includes an adaptive response to stir loads that reduces overheating and protects against long-term wear. Its noise-reduction design keeps the unit quieter even during viscous or foaming processes. The sealed housing improves airflow around the drive system, preventing thermal stress from accumulating over time. Internal components are selected to minimize friction and energy loss. This consistent output benefits labs conducting batch work or time-sensitive extractions. It withstands repetitive use without compromising stability. Its reliability supports uninterrupted research cycles.