Jacketed Glass Reactor LJGR-T2017

Introduction

Jacketed Glass Reactor features a 50 jacket interface. It includes a high clearance drain port for direct discharge without moving the receiving vessel. Our reactor is used in synthesis, distillation, and material research across chemical engineering, biopharmaceutical laboratories.

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

Jacketed Glass Reactor is designed for complex chemical applications such as synthesis, distillation, and concentration, offering precise thermal regulation through its dual-layer jacket structure. This allows researchers to conduct temperature-sensitive reactions efficiently while maintaining vacuum integrity and uniform heat distribution across the vessel.

Specifications

Glass Vessel Volume	50 L Cylindrical
Dropping Funnel Volume	2000 mL
Dropping Funnel Interface	40/38
Glass Vessel Flange	Φ 215 mm
Glass Vessel Opening OD	Φ 265 mm
Glass Material	3.3 Borosilicate
Bottom Valve ID	Φ 21 mm
Jacket Interface	45 mm
Jacket Interface Pressure Limit	Less than or equal to 0.03 Mpa
Circulation Hose Connection Port	Rc3/4
Glass Vessel Lid Openings	6
Center Opening of Lid	50 mm
Side Opening of Lid	34/35, 35 mm, 40/38, S51
Seal Ring on Vessel Lid	Φ264×Φ220×3
Drain Port Ground Clearence	315 mm
Stirring Speed	50 to 500 rpm
Support Parts for Stirrer
Condenser Interface	40/38
Condenser Area	0.429 m2
Solid Charging Port	80 mm
Liquid Collection Tray	Optional
Receiving Bottle	Optional
Power Consumption	180 W
Dimensions (W×D×H)	825×720×2130 mm

Features

Tilt-resistant frame design

Explosion-safe drive integration

Fast-lock hose couplings

Stirring load stability control

Resin-coated valve components

FAQs

1. What safety measures does Jacketed Glass Reactor include for handling reactive solvents?

It has designed the Jacketed Glass Reactor with explosion-proof compatibility, so hazardous atmospheres are mitigated during volatile solvent use. The glass vessel and components resist corrosion from aggressive chemicals. A pressure-rated jacket prevents overpressure incidents by maintaining vacuum integrity during temperature cycling. A ground-level drain port ensures spills are contained safely into compatible containers. Circuit boards and control systems are isolated from liquid paths to avoid electrical hazards. Each unit passes pressure and vacuum testing before dispatch. Safety interlocks are included to prevent operation if the lid or hoses are improperly connected. Lab technicians can maintain high safety standards under batch or continuous processing conditions.

2. How easy is it to clean the interior surfaces of the Jacketed Glass Reactor ?

Jacketed Glass Reactor features broad glass surfaces and accessible openings to support efficient cleaning workflows. Smooth stirrer supports minimize residue buildup on mechanical parts. The high clearance drain port allows complete emptying before rinse cycles. Detachable hose connections simplify disassembly for internal wash-downs. Inner glass surfaces resist staining or adsorption of reactants. Glass thickness provides safe handling during temperature cycling and cleaning. Cleaning can be performed with common laboratory solvents or mild detergents without damaging components. Post-cleaning rinse validation ensures no solvent residues remain before the next application.

3. Can the Jacketed Glass Reactor handle high-viscosity or slurry reactions without clogging?

It ensures the stirring system within the Jacketed Glass Reactor maintains torque when working with viscous slurries. stirrer supports resist chemical build-up and allows smooth rotation under load. The 500-rpm top-end stirring speed supports agitation intensity even during dense mixtures. A wide drain port keeps thick materials moving during discharge. Hose connections remain accessible, letting draining and flushing be performed even under slurry conditions. The jacket temperature control helps prevent solidification in cold zones during stirring. Vacuum capability helps draw off gases or vapors from viscous reaction mixtures. Transparent glass walls enable visual inspection to avoid stagnation or dead zones.

4. Does the Jacketed Glass Reactor support solvent recovery or reflux operations?

Jacketed Glass Reactor comes with a standardized 40/38 condenser interface that matches common glass condenser joints. Glass reflux lines and receiving flasks can be added without needing adapter kits. The specified condenser area ensures effective solvent condensation over prolonged runs. Jacket temperature management maintains stable reflux ratios. Drain port integration means solvent recovery paths remain accessible below the reactor. Optional receiver bottles or trays can be fitted under the drain for captured condensate. Vapor recovery accessories are supported without modification of the main unit. This allows extended distillation, reflux, or recovery operations under controlled reaction environments.

5. How does Jacketed Glass Reactor support additive or powder loading mid-reaction?

design of the Jacketed Glass Reactor accommodates in-process additions via its solid addition port. The port is sized and shielded to reduce exposure during powder transfer. Operators can load finely divided solids without halting stirring or vacuum cycles. Addition occurs safely outside the main headspace to contain dust and vapor buildup. A secure seal prevents leaks even during continuous stirring. Once loading is done, the port is re-sealed to resume reaction conditions seamlessly. The glass vessel remains transparent for visual monitoring of powder dispersal. Compatible with hopper attachments or glove-port systems based on user preference.

6. Are there options for filtering or separating solids directly in the reactor?

Jacketed Glass Reactor can be customized to include internal filter setups. Filter elements can be fitted above the drain port to retain solids while liquid drains. This eliminates the need to transfer mixtures to an external filtration apparatus. plug and valve assemblies provide control over filtration flow rates. Filter configurations adapt to particle size and process viscosity. Once filtration is complete, solids can remain inside the reactor for further processing or cleaning. The glass vessel transparency enables monitoring of solids accumulation. This enhances laboratory efficiency by combining reaction and separation within one unit.