Stainless Steel Reactor

Stainless Steel Reactor

Stainless steel reactors are essential equipment in various industries, including chemical, pharmaceutical, biotechnology, and food processing. These versatile vessels are designed to withstand harsh conditions, corrosive materials, and extreme temperatures, making them indispensable for a wide range of applications.
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Description

Why Choose Us?

 

 

Professional Team
We possess a high-tech and well-trained team consisting of over 260 employees, among whom there are 80 engineering and technical personnel (5 senior engineers and 50 professionals with junior and intermediate titles) and more than 100 certified welders.


Advanced Equipment
In addition to the high-quality production supporting equipment, the company is equipped with advanced and perfect inspection and testing equipment, pressure leakage test equipment, physical and chemical equipment, and a welding laboratory, etc.


Complete Product Range
Our products include heat exchanger, separator, reactor, storage tank, tower, cryogenic equipment, filters, chemical and alumina evaporator.


Quality Control
The company has passed ISO: 9001 standard quality system certification, ISO14001 environmental management system certification, and ISO45001.

 

What Is Stainless Steel Reactor

 

 

Stainless steel reactors are essential equipment in various industries, including chemical, pharmaceutical, biotechnology, and food processing. These versatile vessels are designed to withstand harsh conditions, corrosive materials, and extreme temperatures, making them indispensable for a wide range of applications.

Stainless Steel Jacketed Reactor

Stainless Steel Jacketed Reactor

A stainless steel reactor is a type of industrial equipment used for carrying out chemical reactions or processes involving stainless steel materials.

Stainless Reactor

Stainless Reactor

A stainless reactor is a type of industrial equipment made from stainless steel, a durable and corrosion-resistant alloy.

Reactor Stainless Steel

Reactor Stainless Steel

It Is a kind of container for chemical reaction ‌ mainly made of stainless steel‌.

Ss316 Reactor

Ss316 Reactor

SS316 Reactor is made of 316 stainless steel ‌with excellent corrosion resistance and high temperature stability.

Stainless Steel Chemical Reactor

Stainless Steel Chemical Reactor

A stainless steel chemical reactor is a vessel made of stainless steel, a durable and corrosion-resistant material.

High Pressure Stainless Steel Reactor

High Pressure Stainless Steel Reactor

It is a stainless steel reactor that can withstand high pressure environment.

Glass Lined Stainless Steel Reactor

Glass Lined Stainless Steel Reactor

A glass-lined stainless steel reactor is a type of stainless steel chemical reactor that has a glass lining on its inner surface.

Steel Reactor

Steel Reactor

It is a kind of equipment used in chemical or nuclear reaction, ‌ made of steel.

Stainless Steel Pressure Reactor

Stainless Steel Pressure Reactor

A stainless steel pressure reactor is a type of chemical reactor made from stainless steel.

 

Types of Stainless Steel Reactors

 

Stainless steel reactors come in various types to cater to different industrial needs and applications. The most common types include:


1. Jacketed reactors
Jacketed reactors feature an outer jacket surrounding the reactor vessel, allowing for efficient heat transfer. This design enables precise temperature control by circulating heating or cooling media through the jacket. Jacketed reactors are widely used in processes that require precise temperature regulation, such as chemical synthesis, polymerization, and distillation.


2. Pressure reactors
Pressure reactors are designed to withstand high pressures, making them suitable for reactions that require elevated pressure conditions. These reactors are equipped with robust sealing mechanisms and reinforced walls to ensure safe operation under high-pressure environments. Pressure reactors are commonly used in hydrogenation, polymerization, and supercritical fluid extraction processes.


3. Agitated reactors
Agitated reactors feature an impeller or agitator system that promotes efficient mixing and dispersion of reactants. These reactors are essential for processes that require homogeneous blending, such as emulsification, suspension polymerization, and fermentation. Agitated reactors can be further classified based on the type of agitator used, such as anchor, turbine, or helical impeller.


4. Batch reactors
Batch reactors are designed for processing materials in discrete batches. These reactors are commonly used in the pharmaceutical, fine chemical, and specialty chemical industries, where precise control over reaction conditions and product quality is crucial. Batch reactors can be equipped with various features, such as heating/cooling jackets, agitation systems, and sampling ports, to facilitate efficient batch processing.


5. Continuous reactors
Continuous reactors are designed for continuous processing, where reactants are continuously fed into the reactor, and products are continuously removed. These reactors are commonly used in large-scale chemical production processes, such as polymer synthesis, petrochemical processing, and bulk chemical manufacturing. Continuous reactors offer high throughput and consistent product quality.

 

What Are the Uses of a Stainless Steel Reactor
 

Batch distillation
Batch distillation involves boiling and vaporizing, then cooling two liquids with different boiling points to create a highly concentrated product. Batch chemical processing, food and beverage, and pharmaceutical industries use this separation method the most compared to other distillation techniques.
Food and beverage manufacturers, use batch distillation to produce alcoholic beverages. Distillers pour a fermented grain and water mixture into a still or heating vessel to produce an alcohol-water mixture. They then raise the initial product's alcohol content through additional batch distillations and age it to create a final alcoholic beverage.
Pharmaceutical companies also use batch distillation to manufacture and check small quantities of drugs against product specifications and avoid producing large quantities of off-quality products.

 

Crystallization
Crystallization is the second most frequently used separation process after distillation. It involves removing the water-dissolved inorganic compounds of a liquid, solution, or gas to form a crystallized product. The solid result comprises an organized arrangement of molecules, ions, or atoms.
Process and pharmaceutical industries use this process to crystallize metal salts from highly concentrated solutions, treat wastewater, and remove free fluoride ions, calcium, magnesium, magnesium-ammonium, or potassium-magnesium phosphate. Crystallization is also a generic term for evaporative or cooling crystallization, precipitation, and melt crystallization.

 

Polymerization
Also known as polymer synthesis, polymerization combines monomers to produce polymers essential in making plastic products. Industrial polymer manufacturers use two classes of polymerization: condensation polymerization and addition polymerization.
Every step of the condensation polymerization process involves forming a molecule of simple compounds like water. Meanwhile, additional polymerization doesn't require by-products. It uses catalysts that control the structural details of monomers and, ultimately, affect the properties of polymers.
Industrial polymer manufacturers use different polymerization reactors, such as continuous, semi-batch, and batch reactors, in their production. They typically use batch reactors for small to intermediate batches of polymers or specialty grades. On the other hand, they use continuous reactors for large batches of commodity polymers polyolefins and high-impact polystyrene.

 

Hydrogenation
Food, petrochemical, and pharmaceutical industries use hydrogenation to process raw products, materials, or ingredients. They use nickel, platinum, and palladium catalysts to create the desired chemical reaction between molecular hydrogen and an element or compound. The process needs elevated temperatures and pressure to increase the hydrogen density and reaction rate.

Hydrogenated products include vegetable oil, ammonia, diesel, gasoline, isopropyl alcohol, drugs, margarine, polyols, various polymers, hydrogen chloride, and hydrogen peroxide.

 

Alkylation
Alkylation involves transferring an alkyl group from one molecule to another to produce petroleum. Here, the alkyl group turns into an alkyl carbocation, free radical, or carbanion.
This process also uses sulfuric or hydrofluoric acid catalysts to combine olefins with isobutane and create an alkylate product. The end product will have high-octane, branched-chain paraffin hydrocarbons that blend into a gasoline pool.

 

Stainless Steel Reactor

Why Do We Use Stainless Steel Reactors

Stainless steel reactors are widely used in various industries due to several key advantages:


● Corrosion Resistance: Stainless steel is highly resistant to corrosion, which is crucial when handling reactive chemicals, acids, and bases. This property extends the lifespan of the reactor and reduces maintenance costs.


● Durability: Stainless steel is a strong and durable material, capable of withstanding high pressures and temperatures. This makes it suitable for a wide range of chemical processes.


● Cleanliness and Hygiene: Stainless steel is easy to clean and sanitize, which is particularly important in food, pharmaceutical, and biotechnology industries where contamination must be minimized.


● Mechanical Properties: Stainless steel has excellent mechanical properties, including high tensile strength and toughness, making it suitable for various mechanical stresses during operation.

Ease of Fabrication

Stainless steel can be easily welded and formed into complex shapes, allowing for versatile designs that can optimize the reaction conditions.

Non-reactivity

Stainless steel does not react with most chemicals, which helps in maintaining the purity of the reactants and products.

Temperature Resistance

It can withstand a wide range of temperatures, making it ideal for processes that involve heating or cooling.

Aesthetic Appeal

Stainless steel has a shiny, attractive finish, which can be important for visible equipment in some industries.

 

Choosing the Right Stainless Steel Reactor

Selecting the optimal stainless steel reactor requires careful consideration of several factors:


Material Compatibility
Ensure the reactor is compatible with the chemicals and materials used in your process to prevent corrosion or contamination.


Operating Conditions
Consider temperature, pressure, and agitation requirements specific to your process to select a reactor that can operate safely and efficiently under these conditions.

Capacity and Scale

Choose a reactor size that matches your production volume and scalability needs. Batch reactors are suitable for smaller quantities, while continuous flow reactors offer higher throughput for large-scale production.

Customization and Accessories

Evaluate the availability of customization options such as additional ports, instrumentation, and control systems to tailor the reactor to your operational requirements.

Compliance and Certification

Ensure the reactor meets industry standards and regulatory requirements for safety, quality, and environmental compliance.

 

Manufacturing Stainless Steel Reactors

 

 

Manufacturing stainless steel reactors follows industrial standards and involves several stages. The manufacturing process typically includes the following steps:


Design Stage: The manufacturing process begins with the design phase. A design is developed based on the client's needs and requirements, encompassing details such as the reactor's dimensions, capacity, pressure resistance, temperature tolerance, and other technical specifications.


Material Selection: Stainless steel is commonly chosen for manufacturing stainless steel reactors due to its durability, corrosion resistance, and functionality. Selecting high-quality materials ensures the longevity of the reactor.


Manufacturing Stage: Once the design is approved and materials are selected, the manufacturing process commences. This involves various operations such as cutting, welding, bending, assembly, etc. The manufacturing process includes quality control and testing stages to ensure compliance with standards and safety.


Testing and Quality Control: At the end of the manufacturing process, stainless steel reactors undergo various tests. Pressure tests, leak tests, material analyses, among others, are conducted to verify the reactor's safety and functionality. Rigorous quality control ensures that the reactor is ready for use.

 

 
Stainless Steel Reactor Maintenance Guide: Ensuring Safe & Smooth Operations
 

Stainless steel reactor (SSR) vessels are workhorses in many industries. Proper reactor maintenance is crucial for their longevity, optimal performance, and most importantly, safety.

01/

Cleaning for Optimal Performance:
● Regularly remove residual substances, sediments, and contaminants
● Drain the vessel completely
● Rinse with clean water
● Use appropriate cleaning agents for stainless steel
● Scrub gently with non-abrasive materials to avoid scratches
● Thoroughly rinse and dry to prevent moisture build-up and corrosion

02/

Inspection for Peace of Mind:
● Identify potential problems before they escalate, ensuring vessel integrity
● Inspect external surfaces for corrosion, discoloration, or dents
● Check welded joints for cracks or leaks
● Utilize specialized equipment to assess internal surfaces for wear, scaling, or pitting
● Check Hub fitting on shaft for optimal performance at operating agitator speed

03/

Preventive Maintenance for Longevity:
● Proactive measures extend the life of your SSRs and prevent costly downtime
● Monitor temperature and pressure levels during operation
● Lubricate moving parts to prevent wear
● Replace worn gaskets, seals, or O-rings promptly
● Conduct pressure tests periodically to verify vessel integrity
● Follow manufacturer-recommended maintenance schedules

04/

Safety First:
● Prioritize safety when working with SSRs
● Use proper handling procedures and safety gear
● Ensure ventilation and gas detection in enclosed areas
● Train personnel on emergency protocols and response procedures
● Maintain accurate records of maintenance, inspections, and repairs

 

Our Factory

 

Zhangjiagang Changshou Industrial Equipment Manufacturing Co., Ltd
The company has a registered capital of RMB 80 million and a production base area of ​​35,000 square meters., and a high-tech and well-trained team of more than 260 employees, including 80 engineering and technical personnel (5 senior engineers and 50 professionals with junior and intermediate titles) and more than 100 certified welders. These employees have the extensive experience in the manufacturing and installation of pressure vessels and the on-site manufacturing of large equipment. In addition to the high-quality production supporting equipment, the company has the advanced and perfect inspection and testing equipment, pressure leakage test equipment, physical and chemical equipment, welding laboratory and so on.

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Our Certificate

 

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FAQ
 

Q: What is the principle of stainless steel reactor?

A: In the process of operation, the stainless steel reactor will effectively pass the temperature controller on its electric heating constant temperature control cabinet, which can effectively control the temperature of its heat transfer oil and the reaction temperature of the internal materials.

Q: What are the advantages of stainless steel reactors?

A: Durability: Stainless steel is known for its strength and resistance to wear and tear, making these reactors long-lasting and resilient to physical impacts. Versatility: These reactors can handle a wider range of temperatures and pressures, making them suitable for a variety of chemical processes.

Q: What is the difference between a glass-lined reactor and a stainless steel reactor?

A: Stainless steel reactors can achieve higher temperatures and pressures than glass reactors and have shorter heat-up and recovery times. Some advantages of stainless steel reactors are: They have high mechanical strength and stability. They have good resistance to abrasion and wear.

Q: Why stainless steel is used in nuclear reactors?

A: Stainless steel is an essential material in the nuclear industry due to its exceptional strength, durability, and resistance to extreme temperatures and radiation.

Q: How to clean a stainless steel reactor?

A: Stainless Steel's best friends are quite simply soap, mild detergent or ammonia solutions in warm water, applied with a soft cloth or nylon sponge.

Q: What is the operating principle of stainless steel reactor?

A: In stainless steel reactor, reactants can be heated or cooled through the outer shell. Heating usually takes the form of steam or electric heating, and the reactants are heated by the heating medium flowing through the shell.

Q: What are the applications of stainless steel reactor?

A: Stainless steel reactors are essential equipment in various industries, including chemical, pharmaceutical, biotechnology, and food processing. These versatile vessels are designed to withstand harsh conditions, corrosive materials, and extreme temperatures, making them indispensable for a wide range of applications.

Q: What is the temperature range of a stainless steel reactor?

A: Stainless steel reactors are ideal for countless applications, and can handle a temperature range of -55C to +250C.

Q: What is stainless steel reactor?

A: Stainless steel reactors are essential equipment in various industries, including chemical, pharmaceutical, biotechnology, and food processing. These versatile vessels are designed to withstand harsh conditions, corrosive materials, and extreme temperatures, making them indispensable for a wide range of applications.

Q: How do you remove heat from a stainless steel reactor?

A: In a power reactor, the heat generated in the fuel as a result of fission is removed by passing a coolant through the reactor core. The coolants most commonly used are water, heavy water, carbon dioxide, and liquid sodium.

Q: What is the maximum temperature for a stainless steel reactor?

A: The maximum operating temperature of a power reactor is probably in the 600 degrees C region. They are generally cooled by high-pressure water (high pressure allows it to remain liquid above 100 C) pumped through the core and then into a heat exchanger where the primary water is cooled.

Q: What happens if a stainless steel reactor gets too cold?

A: Overcooling a reactor can result in accumulation of unreacted material which can cause an uncontrollably high temperature later. Understand the consequences of deviating from critical safety parameters – temperature, pressure, flow rate, mixing, or whatever is critical for your process.

Q: What is the thickness of an SS reactor?

A: AISI grade 304 or 316 stainless steel construction. Capacities from 1000 litres to 50.000 litres. Customised diameters. Wall thickness: 4 mm, 6 mm, 7.5 mm, 8 mm, 10 mm.

Q: Why are reactors made of stainless steel?

A: Stainless steel is the preferred material for piping systems in nuclear reactors because of its high resistance to corrosion. Stainless steel piping systems are made using high-quality, corrosion-resistant stainless steel alloys, which are designed to withstand the harsh environments found in nuclear reactors.

Q: What kind of stainless steel is used in reactors?

A: Austenitic stainless steels are one of the most important alloy systems used as structural components in current and future nuclear reactor systems.

Q: What happens when a stainless steel reactor overheats?

A: In addition to the fuel rods melting, the heat passes to the water in the reactor; this generates high pressures. If the hot uranium contacts water, it can react to form hydrogen. The steam pressures and/or the explosion of the hydrogen can rupture the reactor vessel and allow radioactive vapors to escape.

Q: What is the pressure limit for a stainless steel reactor?

A: Standard 4560 reactors are rated at 3000 psi (200 bar) maximum pressure at 350 °C maximum temperature. One should not assume that any vessel being operated at a lower temperature can be used at pressures exceeding the rated MAWP.

Q: How do you maintain the temperature of a stainless steel reactor?

A: To control the temperature of a reactor, the temperature control system continuously pumps the heat-transfer liquid through the jacket of the reactor. Sudden changes in temperature within the reactor are dynami- cally balanced by rapid heat-up or cool-down.

Q: What happens if pressure is too low in a stainless steel reactor?

A: When pressure drops to the saturation point, dryout in the coolant channels will occur. As the reactor heats the water flowing through coolant channels, subcooled nucleate boiling takes place, in which some of the water becomes small bubbles of steam on the cladding of the fuel rods.

Q: Why do we need stainless steel reactors?

A: They are critical in improving voltage control, protecting against overloads, and increasing the transmission network's power factor. The use of reactors in a transmission substation is critical to ensuring efficient and reliable electricity distribution.

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