Fitzer - Cooling Tower

Fitzer Closed Loop Cooling Tower operates in a manner similar to conventional cooling towers, except that the heat load to be rejected is transferred from the process fluid to water and ambient air directly through a heat exchange coil. The coil serves to isolate the process fluid from outside environment, keeping it clean and contamination free in a closed loop, thus creating two separate circuits Primary / Internal circuit in which the process fluid circulates inside the coil Secondary / External circuit sprays circulating water from the basin over the coil which evaporates to reject heat to the environment.

Our air-cooled scroll chillers can reduce your total cost of ownership because they are engineering for lower life cycle costs and reliability through design simplicity. Our compressor technology is direct drive, low speed (3600 rpm) with only two rotating parts for high reliability and efficiency. Optimized compressor parts profiles are designed specifically for chilled water applications to optimize full and part-load efficiency. Our 'Smart H' Microprocessor provides greater reliability through a proactive control strategy, safety functions with simple diagnostics and easy interface with any building automation / energy management using a single twisted pair of wires. Hiver air-cooled scroll chillers are the right choice for tight temperature control in virtually any application. Our compact chillers install easily and quickly into most building / factory layouts, making them ideal choices for retrofit or new building designs. Models Single Compressor Series : HACS Dual Compressor Series : HACD Multiple Compressor Series : HACM Applications : Comfort Air-Conditioning Chemical & Pharmaceuticals Engineering & Industrial Commercial & Institutional Hospitals & Hospitality Telecommunications Laser Technology Welding Engineering Aeronautical Testing Facility Defense Laboratory Testing facility Computer Chip Manufacturing Medical Process Blow Mold Machines Injection Molding Machines Plastics Processing Electroplating Industry Factory Furnaces Laboratory Equipment Food and Beverage Industry Food Process Industry Anodizing Plants Dye and Pigment Manufacturing Plasma Spray Machines Induction Hardening Machine Foundries Features : Superior Reliability High Energy Efficiency Long Equipment Life Adaptive frequency drive option available Clean Energy & Intelligent Managements Solution for Energy Saving Equipment Easy Interface with BMS through protocols Ozone friendly refrigerant HFC134a, HFC407c Highly reliable design with best class cop Equipped with advanced 'H-smart' microprocessor based controller Efficient lubrication, even in the event of power failure Body is made up of Galvanized Steel Powder Coated / Polyurethane paint. Anti-freeze safety and water flow switches. World-class safety controllers for equipment & compressors Custom built machine enquiries are also entertained 100% functionally tested Equipment extended warranty options are available up to 10 yrs. Site support with AMC options are available for entire life of equipment.

High quality and guaranteed thermal performance High efficiency pvc fills & nozzles with low pressure drop. Minimize noise & carry over Modular capabilities, single cell to multi cells installation Weather proof, rust resistant and easy maintenance Space saving, lightweight and easy installation Piece/pieces

A 500-ton cooling tower is a type of cooling tower that is designed to remove up to 500 tons of heat per hour from water used in industrial processes or HVAC systems. A 500-ton cooling tower would typically be appropriate for large industrial applications, such as power plants, chemical manufacturing facilities, or large commercial buildings. The capacity of a cooling tower is determined by several factors, including the design of the tower, the temperature of the water to be cooled, and the humidity of the surrounding air. Cooling towers are essential components of many industrial processes and HVAC systems, as they help to maintain the desired temperature of water used in cooling applications. Proper maintenance and operation of cooling towers are important to ensure optimal efficiency and prevent the growth of harmful bacteria like Legionella. Cooling tower Features Large capacity: A 500-ton cooling tower is designed to handle a high volume of water flow and remove a significant amount of heat from the water. High efficiency: Many cooling towers are designed to be highly efficient, using advanced technology and innovative design features to optimize cooling performance and minimize energy consumption. Durable construction: Cooling towers are often constructed of materials such as fiberglass, stainless steel, or galvanized steel to ensure durability and resistance to corrosion and environmental factors. Fan and motor assembly: The fan and motor assembly is a critical component of the cooling tower, as it provides the necessary air flow to remove heat from the water. The motor and fan assembly is typically designed to be highly reliable and energy-efficient. Water distribution system: The water distribution system in a cooling tower is responsible for evenly distributing the water over the fill material to ensure maximum contact with the air flow. Fill material: The fill material is an important component of the cooling tower, as it provides a large surface area for water to be exposed to the air flow, facilitating heat transfer and evaporation. Drift eliminators: Drift eliminators are designed to capture and remove water droplets that are carried out of the cooling tower by the air flow, preventing water loss and reducing the risk of environmental impact. 500 Ton Cooling Tower Application A 500-ton cooling tower is typically used in industrial or commercial applications where large amounts of heat need to be removed from water. Some common applications of a 500-ton cooling tower include: Power plants: A 500-ton cooling tower can be used to remove heat from the water used to cool steam in power plants. This helps to maintain the efficiency of the plant by ensuring that the steam is cooled sufficiently before it is reused.

Crossflow is a design in which the air flow is directed perpendicular to the water flow air flow enters one or more vertical faces of the cooling tower to meet the fill material. Water flows (perpendicular to the air) through the fill by gravity. The air continues through the fill and thus past the water flow into an open plenum area. A distribution or hot water basin consisting of a deep pan with holes or nozzles in the bottom is utilized in a crossflow tower. Gravity distributes the water through the nozzles uniformly across the fill material. Piece/pieces

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The cooling tower fan is located at the top of the cooling tower, which is directly connected with the motor or indirectly connected with the gearbox and pulley. The fan draws the hot air in the cooling tower after heat exchange from the top and guides the low-temperature air to enter from the air inlet of the bottom cooling tower. As a professional cooling tower manufacturer, we also provide plastic or FRP (fiberglass) cooling tower fans or fan blades at good prices. You can surely pick out what you need from the different types of industrial cooling tower fans below.

Closed Circuit Cooling Tower Closed circuit cooling tower (also known as an evaporative air cooler or closed cooling tower) is the tubular heat exchanger placed in the tower, through the circulation of air, spray water and circulating water heat exchange to ensure the cooling effect. AUVC not only provides different shapes of cooling towers used in industries, such as round shape cooling towers and square cooling towers, but also offers closed cooling towers and open circuit cooling towers as well. The type of closed circuit cooling tower is widely used in iron and steel metallurgy, power electronics, machining, air conditioning system and other industries. How do closed circuit cooling towers work? Closed-circuit cooling towers make it possible to separate the evaporative circuit from the process circuit (customer circuit). A stainless-steel plate heat exchanger attached to the cooling tower, in its dedicated room, allows a glycol-free operation, and a simplified and unequalled ease of maintenance. The closed circuit cooling tower works as follows On the process side to be cooled (customer loop), the water to be cooled enters a plate heat exchanger connected to the tower and is cooled and discharged. The primary loop is closed and never comes into contact with air. On the secondary side of the cooling tower, the water is sucked out of the pool by a pump and circulated through a stainless steel plate heat exchanger. The water leaving the exchanger is piped to the top of the unit. This water is graded and evenly dispersed over the exchange surfaces by dispersers (also known as water distribution nozzles). Air driven by fans (axial or centrifugal) enters from the lower part of the cooling tower, is heated and saturated with water and exits from the upper part, passing between the exchange surfaces. Under the effect of the surface tension of the filler ladder, the water spreads uniformly and flows away over the entire height of the tower. The exchange surface is thus increased. The water cooled by forced ventilation falls freely into an inclined pool located at the bottom of the unit. Types of Closed Type Cooling Tower

Cooling Tower Motors Cooling tower motor is a new type of energy-saving and environmental protection improved motor, with protection grade of IP55, insulation grade of B, and power supply voltage of 380V and 50Hz. Generally, a closed waterproof motor is used in the cooling tower, which can operate for a long time in outdoor humid and high temperature environments. The cooling tower motor material is cast iron and aluminum shell. Derived from one of the most rugged motor platforms used in the most demanding industrial applications, direct drive motors are the right solution for operation in hot and humid environments in towers. Direct drives are ideally suited for cooling towers, air-cooled condensers and air-cooled heat exchangers.