What is a Spray Dryer and How does a spray dryer work?

Spray drying is a method of rapidly drying a liquid or slurry into a dry powder with a hot gas. Many heat sensitive products, such as foods and medicines, favour this technique of drying. AlaquaInc is a spray dryer supplier for various industries such as food processing and pharmaceutical industries.

A spray dryer separates the solute or suspension as a solid and the solvent as a vapour from a liquid stream. In most cases, the material is gathered in a drum or cyclone. The liquid input stream is sprayed into a hot vapour stream and evaporated using a nozzle. As the liquid in the droplets evaporates, solids form. To maximise heat transmission and the rate of water vaporisation, a nozzle is frequently utilised to make the droplets as tiny as feasible. High-pressure single-fluid nozzles and two-fluid nozzles, with one fluid being the liquid to dry and the other being compressed gas, are the two primary types of nozzles.

When compared with other methods of drying, a spray dryer works faster than other methods of drying. The spray dryer can also turn a solution into a dried powder just through a single step that helps to improve the profit margins and makes the process more simple.

Spray drying is used in pharmaceutical production to produce Amorphous Solid Dispensation by evenly dispersing Active Pharmaceutical Ingredients into a polymer matrix. This condition causes the active chemicals (drug) to be at a greater level of energy, which enhances drug spice dispersion in the patient's body.

How does Spray Dryer work?

The spray drying process consists of five key processes, regardless of the factory's level of sophistication:

1. Wet Process: The materials to be dried are in liquid condition prior to spray drying. The procedure before the spray drier seeks to prepare the materials in such a way that spray drying is achievable and yield is maximised.
2. Atomization: It is vital to atomize the influx of liquid in extremely minute droplets in order to provide very quick drying. The exchange surface where humidity may escape the particles is greatly increased as a result.
3. Contact between the dry substance and the air: Dry air contacts the sprayed droplets, causing them to dry. By heating the air before it reaches the spray drying chamber, the ability of the air to absorb moisture and so dry the particles is boosted. It has a low relative humidity at the entrance and high relative humidity at the exit, as well as a lower temperature. Air can be blown to the product either co-currently from the top of the tower or counter-currently from the bottom. Counter-current is favoured in many processes, but for spray drying, co-current offers a major advantage: the air at the higher temperature touches the particles with the highest humidity first, sparing the particles from overheating.
4. Drying: Drying occurs over the length of the spray drying chamber, following the movement of the solid particles inside. Moisture is gradually removed from the particle through a mass and heat transfer between the particle and the air.
5. Solids Separation: It is vital to gather the particles once they have dried. Such separations are frequently carried out in cyclones, which may be outfitted with filters to improve their effectiveness. The powder is gathered in the spray dryer's bottom and pneumatically delivered to a cyclone, where it is separated from the air. The air from the drying chamber is also directed to another cyclone, which separates any fines that may have been carried over by the air and returns them to the main product stream. Humid air is normally rejected, but because it is still hot, it can be utilised for pre-heating in specific cases. 

We provide the latest technology evaporators, crystallizers, spray dryer, distillation system, solvent recovery systems, and heat exchangers. Contact us today to get amazing processing equipment for various industries.

The Advantage of Mixed Salt Crystallizers in Zero Liquid Discharge (ZLD) Wastewater Treatment Systems | Alaqua Inc

True ZLD wastewater treatment is required by environmental requirements in a variety of industries, including electricity, manufacturing, refining, mining, pulp and paper, and chemical processing. This means that all industrial effluent at a location is converted to dry solids before being recycled or disposed of. The factory recycles any usable water collected during the waste treatment process. A falling film evaporator, a membrane technique like reverse osmosis, or both are frequently used to preconcentrate large volumes of wastewater. Concentrated wastewater contains 100,000-300,000 mg/l total solids and flows at a rate of 3 to 100 gpm (0.01 to 0.38 m3/minute). A forced circulation crystallizer is then used to decrease the volume to dry solids.

Crystallization has long been employed in the production of common compounds like sodium chloride and sodium sulfate. Unlike commodity manufacturing, when just one salt crystallizes, industrial waste is often reduced to dryness by crystallizing numerous salts. To prevent difficulties like extreme foaming and quick scaling, this sort of mixed salt crystallizer necessitates drastically different design settings. Furthermore, when sizing vapour compressors for mechanical vapour recompression (MVR) cycle, mixed salt solutions have considerably large boiling point increases, necessitating careful consideration to design factors. 

Finally, to lower the cost of smaller crystallizer systems, new filtering techniques have been devised. Typical functioning crystallizer systems will be examined, including steam and MVR cycles, various solids separation devices, and low-flow-rate systems. Even with synthetic waters, the crucial use of testing will be examined.

Mixed Salt Crystallizers

A two-pass horizontal or one-pass vertical external heater, in which the solution is heated by steam in the shell, is typical of crystallizers. The heated solution is then sprayed into a huge container known as a vapour body. Boiling water in the heater tubes is suppressed by the liquid elevation in the vapour body, thus the tubes are inundated (submergence). Crystals are removed from a slipstream that is pulled into a solids separation equipment (usually a centrifuge or automated pressure filter). Various energy sources are employed.

• Steam Driven: The amount of evaporation per pound of steam used is around one pound, which might result in high running expenses. The vapour created must also be condensed, which necessitates the use of cooling water.
• Thermocompressor Driven: A thermocompressor can be used to reduce the amount of steam required if greater pressure steam is available. The thermocompressor's suction recycles a part of the vapour that has evaporated in the vapour body. The motive steam is typically between 150 and 200 psig. Steam use is often reduced by 20% to 30% while using this arrangement. The rest of the vapour that isn't returned to the thermocompressor must be condensed, therefore a condenser is still necessary.
• Vapour Compression Cycle: A system in which the energy for the crystallizer is supplied by a vapour compressor powered by electricity or a gas or steam turbine. The evaporated water is squeezed to elevate its condensation temperature slightly over the boiling point of the recirculating brine inside the tubes. The discharge steam from the compressor condenses on the tubes' outside. For bigger flows, a single-stage centrifugal compressor can be utilised instead of a positive displacement rotary blower.
• Calandria Crystallizer with Salt Basket: A calandria crystallizer can be utilised for minor flow applications. The heater is housed inside the vapour body, resulting in a compact design. Low-pressure steam is used to power the calandria crystallizer. The vapour is either condensed or released into the environment. The condensing steam (shell side) gives up its latent heat to the rising liquid via a propeller pump placed in the bottom half of the crystallizer. The heated liquid (brine) loses its vapour and returns to the propeller suction when it reaches the surface. During crystallizer operation, the unique salt basket is a vertical tank used to collect solids. The following procedures are done to dewater and discharge the salts from the basket:

1. The vapour body and the basket are separated (calandria).
2. The salt basket's brine is emptied.
3. The solids in the basket are dewatered using steam.
4. The salts are discharged by opening the flanged cover. The salt basket is ideal for mixed salts with big crystal salts like sodium sulphate or sodium chloride that are quickly dewatered. Instead of a salt basket, the calandria crystallizer can be equipped with a pressure filter or centrifuge for more challenging filtering applications.

Waste savings using mixed salt crystallisation has been proved. A successful system, on the other hand, necessitates design characteristics and characteristics that differ significantly from those found in traditional single salt commodity crystallizers.

Alaqua is a crystallizer supplier in the USA along with other processing equipment such as the evaporator, solvent recovery system, distillation equipment and heat exchangers for various industrial purposes. We also provide the system with the necessary size tanks, pumps, and pipework to ensure proper operation. This will allow the customer to have a fully functional system when it has been installed. PFD, PID with pump specs, pipe size, control loops, instruments and controls, and GAD with loads will all be included in Alaqua's scope.

What equipment is needed for distillation? | variety of alternative multi-effect distillation techniques,

Distillation is a process for separating chemical components in a boiling liquid combination based on variations in their volatilities. Distillation is sometimes referred to as a unit operation since it is normally done as part of a larger chemical process. Alaqua is a distillation equipment supplier along with other processing equipment suppliers to serve various industrial machinery requirements.

Distillation has a variety of commercial applications. It's used to separate crude oil into different fractions for different applications including transportation, power production, and heating. To eliminate contaminants such as salt from seawater, water is distilled. For industrial applications, the air is distilled to separate its constituents, most notably oxygen, nitrogen, and argon.

THE PROCESS OF DISTILLATION

Distillation is a method of separating components or compounds from a liquid using the boiling and condensation process. To enable the successful separation, each element's boiling point must be distinct. The more complicated the distillation process is, the closer the boiling points of the components within the liquid are.

Batch distillations are the most common type of distillation used in laboratories. There are three pieces of distillation equipment that are required to complete the process:

• The source liquid is heated in a reboiler or a pot.
• The heated vapour is cooled back to a liquid condition in the condenser.
• The device into which the concentrate/distillate is collected is called a receiver flask.

DISTILLATION TYPES

Distillation can take several forms, and the one employed will be determined by the substances being dealt with. The following are three of the most popular approaches:

• Distillation in Fractions - This is a method of removing distinct compounds from a combination by distilling the same liquid many times at higher temperatures.
• Distillation of Steam - Used to extract temperature-sensitive chemicals that may decompose if extracted using procedures with higher boiling points.
• Distillation in Vacuum - The boiling point of some substances is exceptionally high. In certain instances, it may be more beneficial to reduce the pressure in the column above the material, allowing lower vapour pressure components in the combination to evaporate.

Doctor blades with certain designs can mix the waste solvent being distilled, resulting in a powder or flake being discharged from the distillation system. The trash would be reduced to a thick syrup or paste if the doctor blades were not used. Distilling to a powder or flake typically results in a non-hazardous substance that may be disposed of. If your distillation waste is a thick syrup, you'll almost certainly have to dispose of it as a hazardous item.

Multi-effect distillation

The purpose of multi-effect distillation is to improve the process’s energy efficiency, which can be used in desalination or as one stage in the creation of ultrapure water in some situations. When compared to single-effect distillation, the number of effects is inversely related to the kWh/m3 of water recovered figure and relates to the volume of water recovered per unit of energy. Approximately 636 kWh/m3 is one consequence.

• With thermal energy input, multi-stage flash distillation may create more than 20 effects.
• Vapor compression evaporation – According to manufacturers, commercial large-scale machines can generate about 72 effects with electrical energy input.

There are a variety of alternative multi-effect distillation techniques, including one known as simply multi-effect distillation (MED), which employs numerous chambers with intervening heat exchangers.

We supply made in USA distillation equipment to all the industries that require distillation equipment. Contact us today for more information!!!

processing equipment supplier | Alaqua INC

The company ALAQUA is based in the United States. We are a processing equipment supplier. For over 25 years, we’ve been selling evaporators, crystallizers, spray dryers, solvent recovery, and distillation systems that are food-grade, hygienic, and ASME code compliant. Alaqua was founded in 1989 and came into a corporation in 1993.

It doesn’t have to be difficult to plan for the purchase of a new piece of processing equipment. Knowing what questions to ask before making a purchase might help you achieve your goals.

As you consider your options, consider the following three questions to ask your processing equipment manufacturer:

What level of experience do you have in my field of production?

It’s crucial to make sure that any manufacturer with whom you’ll be collaborating has the necessary competence to make the finest recommendations for your processing equipment.

Expertise is an important component of the decision-making process. Key distinctions in goods will be understood by a producer with the right level of knowledge in a certain area of processing. A manufacturer with experience in food processing equipment, for example, will understand how that equipment differs from that utilized in a dairy application. Manufacturers who have designed equipment for specific culinary applications (soups vs sauces, for example) will be able to provide you a more detailed view of how your equipment will affect your operating efficiency and product quality.

What are the conditions of your guarantee?

Although most equipment manufacturers provide warranties, not all warranties are equivalent. It’s a good idea to familiarise yourself with the details of the warranty that comes with your equipment.

While many warranties cover one year of service, a two-year guarantee is desirable because the majority of warranty-related issues don’t occur until after the first year of operation. And, though you hope you’ll never need to file a warranty claim, be sure your equipment maker can perform repairs on-site so you don’t have to transport your equipment.

Inquiring about your manufacturer’s multi-year warranty and on-site warranty repairs is a good place to start in making the best choice for your business.

What should I anticipate from your customer service?

You’ll almost certainly need to communicate with the maker of your equipment after you’ve made your purchase. As a result, it’s critical to understand how you’ll communicate with your manufacturer’s customer support staff.

Ask the necessary questions regarding your manufacturer’s customer service methods and staff to ensure that you understand what this process includes. Who will you be in touch with? In your customer service relationship, what exactly are their responsibilities? What mechanism will they use to respond to your complaints and questions once you’ve contacted them?

Each of these concerns is critical to your pre-purchase investigation. Your manufacturer’s short- and long-term relationship might be made or broken based on your responses. Before making your next processing equipment purchase, do everything you can to locate the answers.

For the Chemical, Environmental, Food, Pharmaceutical, and Power Generation sectors, Alaqua produces evaporators, crystallizers, distillation facilities, and solvent and oil recovery systems that meet ASME and CE criteria. The surgery was completed according to plan. We train your employees and assist you in finding the most cost-effective solutions to help you enhance productivity and revenues. For More Please visit on Site - https://www.alaquainc.com/

Distillation is used in industry and Use of Distillation System in Industry | Alaqua, INC

Distillation is used in industry for a variety of purposes, including oil refining, water purification, and the creation of alcoholic beverages. Distillation is a physical process that uses heat and other methods to extract desirable pure chemicals from an original source. It does not entail chemical processes on its own; it separates but does not change components. Many businesses, both large and small, rely on distillation. We supply distillation equipment services for various processing industries.

Distillation is a key component of any process plant’s profitability. Because nearly every operation includes some sort of distillation equipment or fractionation columns, successful results are dependent on excellent distillation monitoring and troubleshooting. Despite the significance of quality, many companies have neglected or overlooked distillation. In the long term, this behavior might be quite costly.

To separate components depending on their boiling points, the distillation method is performed. Chemicals with variable boiling points, such as gasoline, diesel, and jet fuel, boil at various temperatures. Separating mixed input streams into their own unique products is done using distillation columns.

In the design, control, and operation of towers, advanced technology is taking over. Internal tower innovation is delivering greater results than ever before in terms of increasing tower efficiency and capacity. All of these advancements appear to lower the failure rate of distillation towers. However, the rate of tower failure is increasing and will continue to do so.

Distillation Types

Hundreds of years of chemical study have resulted in a variety of distillation methods. Each has benefits in terms of efficiency or a specialized mode of action that is customized to certain chemicals. A few distillation procedures are illustrated in the following instances.

Different liquids are separated by boiling point temperatures using basic distillation equipment. This procedure only works if the boiling temperatures of the two substances are clearly different; otherwise, separating them would require a different approach.

When the boiling points of two liquids are near, fractional distillation works better than ordinary distillation to separate them. The equipment is similar, but the vapours travel through a fractional distillation column, which has a large surface area material that aids condensation.

The boiling point of most liquids falls as the pressure is reduced. At near-zero pressure, vacuum distillation occurs; liquids boil at lower-than-normal temperatures. This increases the distillation process’ efficiency; less heat means less energy use. Vacuum distillation prevents high temperatures from breaking down heat-sensitive liquids, allowing for more efficient processing.

Freeze-drying is a process that is similar to vacuum distillation. After dissolving a material in water or another solvent, it is frozen. Without heating or melting the ice, a vacuum converts it to vapour, leaving a solid dry material behind. Microbes and other biological materials are used in food preparation and packaging.

Distillation Equipment on a Larger Scale

Simple distillation does not need a lot of equipment; it may be done on a tabletop or in a home kitchen. It’s just as effective in enormous, vast oil refineries as it is in warehouse-sized micro breweries. Smaller setups can have much of the intricacy of larger ones because of tiny contemporary electronic controllers. The cost and volume of the production are the primary distinctions between large and small companies.

Fuels derived from petrochemicals and related products

The manufacturing of gasoline, diesel, and other fuels and chemicals is a major industrial use of distillation, with yearly processing costs in billions of dollars. The procedure involves feeding crude oil, which is a mixture of many different compounds, into one end of a refinery. Lighter components like kerosene, gasoline and lubricating oil are removed in each distillation phase, leaving heavier compounds like tar.

Methanol and other biofuels are produced

Distillation is required for the manufacturing of biofuels, as well as for the manufacturing of gasoline and diesel from crude oil. Heat is used to release methanol from maize and other organic compounds in this scenario. Unlike petroleum refining, which begins with a liquid, biofuels begin with organic solids, which include water, sugars, and other things. Other processes in the process chemically create the appropriate fuel liquids, which distillation removes and purifies.

Manufacturing of pharmaceuticals and distillation

Chemical purity is critical in the manufacture of medicines. Drug companies, on the other hand, demand high-quality goods that can be mass-produced in large amounts. Distillation is one method that allows pharmaceutical businesses to maintain strict purity and uniformity while producing huge quantities of the needed ingredients.

Essential oils and fragrances

Extracting perfumes from plants and other biological materials may be done using vacuum distillation. Because these compounds are delicate and can degrade at high temperatures, vacuum distillation is an excellent method for extracting them from natural sources. Scented oils can be found in soap, air fresheners, and other personal care items.

Whiskey and other alcoholic beverages

Ethanol, often known as ethyl alcohol, is a key element in vodka, bourbon, and other alcoholic beverages; additional ingredients contribute colour and taste. Water, yeast, and potatoes, grains, or berries are combined in a classic brewing procedure. Distillation occurs later in the process, increasing the alcohol content and modifying the flavour of the drink.

Cleaning and Maintenance of Distillation Equipment | Alaqua INC

Cleaning and Maintenance of Distillation Equipment

The quality of distillates produced, whether they be water, essential oils, spirits, or fuel alcohol, is determined by how well distillation equipment is cleaned and maintained. Before utilizing your still, for the first time, clean it well to remove any pollutants that may have remained on its surface during construction. Cleaning should be done on a regular basis after each usage, as well as between batches or when transitioning from one spirit to another, especially for commercial distillers. This removes contaminants like sulfuric acid from fermented mash that gather on the surface during distillation. 

Cooling crystallizers

What are the benefits of cleaning your stills on a regular basis?

When copper is exposed to the environment, it oxidises and the colour fades to a bluish-green hue, finally becoming virtually black. Patina is the natural colour that occurs when copper metal is used over time. Some individuals attempt to keep copper’s natural colour by washing and polishing it on a regular basis or covering it with benzotriazole. Others are unconcerned with the dulling, although this is just true on the exterior.

Stainless steel stills, on the other hand, will immediately display dirt and smudges on their surface. Stainless steel is easy to clean, but it does require periodic washing to maintain it immaculate.

To maintain a safe, sanitary, and suited for generating pure distillates, the inside of a still, whether copper or stainless steel, should be carefully cleaned. Additionally, when copper stills are clean, they are more successful in removing sulphides.

Latest Blog: Application of Falling Film Evaporator in Sugar Industry.  

Cleaning Fermentation Equipment

The distillation setup includes fermentation equipment, which is separate from the still. Because they deal with grain right from harvesting, this equipment tends to contain a lot more dirt and microbes than the still. As a result, fermentation equipment should be cleaned as well as sanitised. Cleaning removes grime and other bigger particles, whereas sanitising kills bacteria that aren’t visible.

cooling crystallizers

Copper stills need to be cleaned

Cleaning copper stills is necessary for two situations: before using it for the first time after purchase and on a regular basis after use. Your copper still may be cleaned using a vinegar solution, rye flour, and water, or a salt solution. Alternatively, commercial copper cleaners are available.

Keeping your copper mesh clean

Maintain a regular after-use cleaning routine for the copper mesh, just as you would for the still. The cleanliness of your copper mesh will influence its capacity to remove sulphur compounds from your liquor, which will have a direct impact on its quality.

Still polishing your copper

Polishing your copper while it’s still on the exterior gives it a brilliant, gleaming finish. While you’re at it, choose a non-toxic polish and stay away from abrasive cleaners at all costs. To avoid your still getting tarnished by the very cleaners that are supposed to remove tarnish, rinse carefully and dry it after using whatever cleaner you choose to give it a shine.

Stills made of stainless steel that have been cleaned

Stainless steel stills are much simpler to clean, and unlike copper equipment, they do not tarnish with proper maintenance. They will, however, show up even the tiniest smudge of dirt, which may be removed with a simple wipe. 

Cooling crystallizers

High-quality goods and great-tasting spirits come from well-maintained stills. Copper stills, in particular, are more successful at removing sulphur compounds from your moonshine, resulting in a great-tasting product. Depending on the type and purpose of your still, you’ll want to take special care to clean it properly. Cleaning with warm or hot water is also advised since it removes not only dirt and oil residues but also hidden bacteria. In the end, frequent cleaning and maintenance will keep your distillery in peak operating order for longer.

Alaqua is a distillation equipment supplier along with other processing equipment such as the evaporator, crystallizer, solvent recovery system, spray dryers and heat exchangers. Contact us today to overcome all your industrial processing equipment requirements. For more details please also visit our site - https://www.alaquainc.com/

Application of Falling Film Evaporator in Sugar Industry | Alaqua, Inc

ALAQUA is a company based in the United States that supplies processing equipment worldwide. We’ve been supplying food-grade, sanitary, and ASME code evaporators, crystallizers, spray dryers, solvent recovery, and distillation systems for over 25 years. Alaqua was founded in 1989 and came to a corporation in 1993. The evaporators include falling film evaporators, rising film evaporators, plate evaporators, and various other types of processing equipment.

The liquid product normally reaches the evaporator from the top of falling film evaporators. The stock is uniformly dispersed into the heating tubes in the top head. At boiling temperature, a thin film reaches the heating tube and flows downward, partly evaporating. Typically, steam is used to fuel the evaporator. Inside the heating tubes, both the product and the vapors flow downward in a parallel flow. The gravity-induced downward acceleration is amplified by the co-current vapor wave. The vapor separator is used to separate the liquid from its vapor.

Low-temperature variations between the heating media and the boiling liquid can be seen in falling film evaporators, and they have brief product touch intervals, usually measured in seconds per pass. These characteristics make the falling film evaporator ideal for heat-sensitive materials, and it is now the most commonly used evaporator type.

However, falling film evaporators must be properly configured for each working condition; adequate wetting of the heating surface by liquid is critical for the plant’s trouble-free operation. Dry patches and scaling will appear if the heating surfaces are not properly wetted; in the worst-case scenario, the heating tubes will get clogged.

To ensure complete and even product wetting of the tubing, the product delivery mechanism in the head of the evaporator must be properly designed. The falling film evaporator can be started quickly and switched to cleaning mode or another product due to the small liquid holding capacity in this sort of device.

Changes in parameters such as energy source, vacuum, feed rate, concentrations, and so on have a big impact on falling film evaporators. They will deliver a reliable focused product when fitted with a well-designed automatic control system. Since falling film evaporators can work with minor temperature variations, they can be used in multiple-effect setups or in modern plants with low energy consumption mechanical vapor compression systems.

In India, there are approximately 550 sugar factories in operation, with 70 backend refineries and 6 standalone refineries. Falling film tubular evaporators with tube sizes of 35/45 mm and tube lengths ranging from 8.0 m to 12.0 m are used in about 40% of sugar factories, including sugar refineries. About 300 sugar refineries and factories use different types of falling film evaporators around the world. Isgec has advanced the concept of a falling film evaporator by incorporating a Novel juice distributor. We all know that the most essential component of Falling Film Evaporator is the juice dealer. A bad design can be disastrous, resulting in tube clogging due to sugar caramelization, which wastes a lot of sugar and reduces performance.

The energy economy of the beet sugar business has been consistently enhanced and refined over decades in order to minimize steam use as much as possible, but the cane sugar business has placed a low priority on this issue for a long time. This mindset, however, is no longer valid. More and more cane sugar mills are closely monitoring their energy consumption numbers in order to cut steam use as much as possible by investing in equipment and optimizing processes. The current global trend of installing cogeneration facilities is the primary reason for cane sugar companies to track not only the number of bags of sugar produced daily but also the amount of bagasse saved daily. After the campaign to create electric power, the bagasse saved is used as an energy source.

Steam saving for the sugar process is required in order to obtain additional money from cogeneration. Plants with obviously less than 30% steam on the cane for the plantation white process, as well as plants with around 40% steam on the cane for the cane sugar mill with a full refinery, are already effectively operating.

In the beet sugar sector, falling film evaporators have proven to be great performers. They may also be utilized successfully in the cane sugar business, thanks to a well-designed cleaning procedure and proper discharge of non-condensable gases. Because these evaporators need a lower temperature gradient than Roberts evaporators and have a shorter residence period, the temperature in the evaporation plant’s final effects can be raised. As a result, vapour from effects 3 and even 4 may be used for crystallisation, allowing cane sugar companies to optimize their heating systems.

When falling film evaporators are combined with a well-organized sugar house operation (continuous boiling, batch pans with stirrers, and regulated water application), specific steam consumption values of 30% on the cane in cane sugar factories without a refinery and 40% on the cane in cane sugar factories with a refinery can be consistently reached.

We are an evaporators supplier for all kinds of evaporators, crystallizers, solvent recovery systems, distillation systems, spray dryers, and all other kinds of processing equipment. Contact us today for all kinds of processing equipment!!!