quality Lab Glass Reactor & Chemical Glass Reactor factory

The Vacuum Rotary Evaporator has become an essential instrument in modern chemical, pharmaceutical, and biological laboratories. Designed for concentration, crystallization, drying, separation, and solvent recovery, this innovative device significantly improves productivity and safety in research and production environments. By operating under vacuum conditions, the Vacuum Rotary Evaporator enables solvent evaporation at lower temperatures. As the rotating flask spins at a constant speed, the material spreads into a thin film across the inner wall, increasing surface area and accelerating evaporation. The evaporated solvent vapor is then condensed through a high-efficiency glass condenser and collected for reuse — offering exceptional solvent recovery and energy savings. Manufactured by Nantong Sanjing Chemglass Co., Ltd., the Vacuum Rotary Evaporator stands out with its customizable design and intelligent features. The explosion-proof motor ensures maximum safety, while the automatic lifting bath and vacuum feeding system minimize glass breakage. The advanced temperature control system works with both water and oil baths, maintaining a precise stability of ±0.02°C for consistent evaporation. The product lineup includes models from 2L to 50L capacity (PR-2, PR-5, PR-10, PR-20, and PR-50), meeting the diverse needs of laboratory and industrial users. Each Vacuum Rotary Evaporator model is built with high-quality glassware, durable motors, and corrosion-resistant materials to guarantee long-term performance. Nantong Sanjing Chemglass, established in 2006, specializes in the production of chemical glass instruments such as glass reactors, wiped film evaporators, short-path molecular distillation units, and rotary evaporators. With strong customization capabilities and global export experience, the company provides efficient packaging, fast delivery, and comprehensive after-sales support, including a one-year warranty and free replacement of damaged parts within the warranty period. The Vacuum Rotary Evaporator is particularly suited for processing heat-sensitive materials that easily decompose or denature at high temperatures, making it ideal for pharmaceutical research, biochemistry, and fine chemical synthesis. As laboratory automation and process efficiency become top priorities worldwide, the Vacuum Rotary Evaporatorcontinues to play a vital role in innovation, quality assurance, and sustainable production. Keywords: Vacuum Rotary Evaporator, rotary vacuum distiller, rotary film evaporator, chemical glassware, solvent recovery system

What Is a Chemical Glass Reactor? A chemical glass reactor is a transparent vessel made from borosilicate glass, allowing operators to observe reactions in real time. It’s used for mixing, heating, cooling, distilling, and crystallizing chemical compounds under controlled conditions. The reactor can handle vacuum or pressure, and is compatible with most solvents, acids, and bases — making it ideal for pharmaceutical R&D, fine chemicals, and laboratory synthesis.  Key Factors to Consider When Choosing a Chemical Glass Reactor 1. Capacity and Scale Choose the reactor size according to your process volume and application type: Lab-scale reactors: 1L – 20L for research and small-batch testing Pilot-scale reactors: 30L – 100L for intermediate process development Industrial-scale reactors: 100L – 500L+ for production use If you plan to scale up later, choose a model compatible with modular expansion or upgrade options. 2. Type of Reactor Design There are several common designs, each suited for specific needs: Single-Layer Glass Reactor: Used mainly for simple mixing or reactions at room temperature. Jacketed Glass Reactor (Double-Layer): Includes a jacket for circulating heating/cooling fluids — ideal for temperature-sensitive reactions. Triple-Layer Glass Reactor: Offers additional insulation and efficiency for high-precision temperature control.  Tip: For processes that require heating and cooling cycles, a jacketed reactor is the best choice. 3. Temperature and Pressure Requirements Check the working temperature range (typically -80°C to +250°C) and whether your reaction requires vacuum operation or positive pressure. Ensure the glass material and sealing components can handle your process conditions safely. 4. Material and Chemical Compatibility Use borosilicate 3.3 glass for excellent resistance to acids, bases, and solvents. Verify that the gaskets, valves, and joints are made of PTFE or stainless steel for durability. 5. Stirring and Mixing System Different reaction types require different agitator designs (propeller, anchor, paddle, or turbine). Look for a variable-speed motor and stable stirring mechanism to ensure homogeneous mixing and prevent sedimentation or localized overheating. 6. Additional Features and Accessories Consider useful add-ons such as: Condensers for reflux or distillation Vacuum pumps for solvent removal Temperature and pressure sensors Control systems with digital displays or automation options  Typical Applications of Chemical Glass Reactors Chemical glass reactors are widely used in: Pharmaceutical synthesis and formulation Organic and inorganic chemical research Crystallization and extraction processes Polymer and resin production Material science and nanotechnology experiments   Choosing the right Chemical Glass Reactor depends on your process requirements, scale, and temperature control needs. A jacketed glass reactor is ideal for precise thermal reactions, while a single-layer reactor suits basic lab processes. When in doubt, consult an experienced manufacturer like Wuxi Fenigal Science and Technology Co., Ltd., which provides customized, OEM-ready glass reactors designed for durability, safety, and performance.

What Is a Chemical Glass Reactor and How Does It Work? A Chemical Glass Reactor is a specialized vessel used to mix, react, heat, cool, and crystallize chemicals under controlled conditions. It’s a core piece of equipment in pharmaceutical, chemical, and research laboratories, providing excellent visibility and chemical resistance for precise reaction control.  What Is a Chemical Glass Reactor? A chemical glass reactor is typically made of borosilicate glass, known for its durability and resistance to corrosion, acids, and temperature shocks. It allows chemists and engineers to visually monitor reactions while maintaining complete control over temperature, pressure, and mixing speed. These reactors are available in various sizes — from 1 liter for laboratory use to 200 liters or more for pilot and industrial production. How Does a Chemical Glass Reactor Work? A standard glass reactor system is composed of several key parts that work together to create a safe and stable reaction environment: 1. Jacketed Glass Vessel The reactor features a double-layered (jacketed) wall that allows a heat-transfer fluid (such as oil or water) to circulate. This enables precise heating or cooling of the reaction mixture. The temperature can range from -80 °C to +250 °C, depending on the process. 2. Stirring System A motor-driven stirrer mixes the reactants evenly, improving reaction uniformity. Variable-speed control ensures optimized mixing for different viscosities and reaction types. 3. Condensers and Reflux System Glass reactors often include a condenser for distillation or reflux operations, allowing continuous reactions without loss of solvent. 4. Vacuum and Pressure Control The system can operate under vacuum to remove gases or solvents, or under pressure for certain synthesis reactions. 5. Observation and Sampling Because the reactor body is transparent, operators can visually observe phase changes, color shifts, or precipitation in real time. Sampling ports make it easy to test reaction progress safely.  Common Applications Chemical glass reactors are widely used in: Chemical synthesis and polymerization Pharmaceutical R&D and intermediate production Crystallization and extraction processes Material and nanotechnology research Pilot-scale experiments before industrial manufacturing  Advantages of Using a Chemical Glass Reactor Excellent visibility for process monitoring Corrosion and solvent resistance Precise temperature and pressure control Easy cleaning and maintenance Customizable configurations (single-layer, double-layer, or triple-layer designs)  Conclusion A Chemical Glass Reactor is essential for performing controlled reactions safely and efficiently. With its transparent design, accurate temperature control, and versatility, it is a preferred solution for research laboratories, pharmaceutical manufacturers, and chemical engineers around the world.

A jacketed glass reactor is a type of laboratory and industrial equipment used for chemical reactions, mixing, and temperature control under precise and safe conditions. It is a common tool in pharmaceutical, chemical, and biotechnology industries for processes such as synthesis, crystallization, and distillation.   Advantages of Jacketed Glass Reactors Excellent visibility for process monitoring Accurate temperature control (heating & cooling) Corrosion resistance to acids, bases, and solvents Scalable from lab (1L–20L) to industrial scale (50L–200L or more) Customizable with condensers, vacuum pumps, sensors, and controllers  Typical Applications Industry Common Use Pharmaceutical Drug synthesis and formulation Chemical Polymer and resin production Food & Beverage Flavor or additive development Biotechnology Fermentation and extraction Research & Education Experimental chemistry and teaching labs  In Summary A jacketed glass reactor is used for performing chemical reactions under controlled temperature and mixing conditions, with real-time visual observation and safe operation. It is a cornerstone piece of equipment in laboratories, R&D centers, and pilot plants worldwide. SEO Keywords: jacketed glass reactor, chemical reactor, glass reactor uses, laboratory reactor, pharmaceutical synthesis, crystallization equipment

What Is a Jacketed Glass Reactor? A jacketed glass reactor consists of a borosilicate glass vessel with a double-layer (jacketed) wall. The outer jacket allows a heating or cooling fluid (like water, oil, or glycol) to circulate around the inner vessel. This design provides accurate temperature control for the reaction materials inside. The vessel is usually mounted on a steel frame with stirring mechanisms, temperature sensors, and control systems, allowing researchers to conduct reactions safely and efficiently.  How Does a Jacketed Glass Reactor Work? Temperature Control A thermal fluid (heating or cooling medium) is pumped through the jacket. Heat exchange occurs through the glass wall, maintaining a stable internal temperature. This is ideal for reactions requiring precise thermal conditions, from -80°C (for cooling) to +250°C (for heating). Mixing & Stirring The reactor includes a mechanical or magnetic stirrer driven by a motor. It ensures uniform mixing, improving reaction efficiency and consistency. Vacuum or Pressure Operation Many jacketed reactors can operate under vacuum conditions to remove solvents or gases, or under pressure for certain synthesis reactions. Observation & Safety The transparent borosilicate glass allows operators to visually monitor the reaction process in real time. The glass material is chemical-resistant and thermal shock–resistant, ensuring safety and longevity. Main Uses of a Jacketed Glass Reactor Chemical Synthesis Ideal for mixing and reacting raw materials under controlled temperature and stirring conditions. Used in organic synthesis, polymerization, and catalyst reactions. Crystallization Used to grow and purify crystals by carefully controlling temperature and solvent evaporation. Distillation & Reflux Can be connected to condensers for distillation, reflux, or solvent recovery processes. Extraction Suitable for liquid–liquid extraction or separation of components in chemical mixtures. Pharmaceutical Production Commonly used for drug formulation, synthesis of intermediates, and pilot-scale experiments. Material & Nanotechnology Research Used in development of nanomaterials, coatings, and composites requiring precise reaction environments.