To ensure optimal system performance, safety, and reliability, it’s critical to ensure the right size valve is used. Proper valve sizing allows for reduced costs, less downtime, and fewer labor needs — keeping operations running smoothly and efficiently.
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Steam ejectors deliver precise control of the atmosphere and pressure in a system. These are highly useful in chemical processing, vacuum sealing, and food packaging, as well as various processes in power, oil, and gas. Steam ejectors can also be used to create vacuum conditions in large areas where a conventional vacuum pump is inadequate. The steam ejector injects high-temperature and pressure steam into a system at a high velocity. The steam expels other gases from the system, creating a low-pressure vacuum inside the system.
Three-way control valves are designed to give operators more flexible control over the flow and pressure of a fluid in a pipeline. Each 3-way valve features an actuator that an operator—or an automated system—can move to send the valve plug up or down and, through that mechanism, open and close the different valve ports.
Flow control is critical to ensure proper conditions for water and wastewater processing and treatment. Valves control the flow, direction, and volume of water, with actuators allowing for remote and automated control of valves. Temperature controllers closely monitor temperature fluctuations in wastewater systems. Together, these technologies ensure proper water treatment and allow for more sustainable practices in the wastewater industry.
Mixing and diverting valves are used to provide reliable flow and pressure control in systems by mixing or diverting fluids or gasses. Also known as 3-way control valves, they are ideal for use with hot or cold water, oil, or steam applications. They are installed in many types of industrial equipment and machinery, including engines, compressors, steam desuperheaters, and lubrication oil cooling systems.
Ejector pumps (also called jet pumps) are a special version of a 3-way valve that works based on a fluid dynamics concept known as Bernoulli’s principle: pressure and fluid velocity are inversely proportional causing the Venturi effect. Ejector pumps are controlled by an electric or pneumatic actuator. These static devices mount to a pipeline system and are connected to both a high-pressure water or steam supply and another vessel with a low-pressure fluid. The ejector has two inlets leading to a nozzle, which is incorporated into an asymmetrical, hourglass-shaped tube called a diffuser. The components are often made of brass, cast iron, carbon steel, or stainless steel for durability and low maintenance, effectively offering longer lifespan and energy-saving service.
High-pressure steam or water, called the motive fluid, enters through one inlet and passes through the nozzle, which converts its pressure to velocity. As speed increases, a vacuum forms and the lower-pressure fluid is drawn in through the suction inlet.
Industries are increasingly converting their mechanical pumps to water- or steam-driven alternatives. That's because steam and water ejectors are much easier to install and are powered fully by their own motive gas or fluid. This key benefit makes water and steam ejectors much more efficient than mechanical pumps, reducing costs and improving system reliability for diverse industrial applications.
Linear actuators provide a push or pull motion along a single drive axis. They are key components in many machines, where they enable smooth and precise lifting, sliding, tilting, or dropping. Electric linear actuators, in particular, convert electrical energy into linear motion with high accuracy and speed, features that make them a popular choice for applications requiring controlled and precise movement.
Choosing the correctly sized control valve makes all the difference in controlling flow rates and managing fluid operations. Valves that are either too big or too small can jeopardize fine-tuned operations and make it impossible to ensure a consistent, standardized flow rate. Here, we provide a list of what is needed to properly size control valves, including why this step is very important with insuring long life and little to no maintenance.
Desuperheating is an important process that is used in a variety of industrial settings, including power plants, chemical plants, and natural gas processing facilities. In simple terms, desuperheating is the process of reducing the temperature of superheated steam or gases to a desired level before they are used in downstream processes. This process is necessary to ensure that the steam or gases are at the proper temperature to prevent damage to equipment and to improve the efficiency of the overall process.