Steam Ejector

Description: usually condensing types. Two-Stage Steam Jet Ejector Principle of Operation Two-Stage Steam Jet Ejectors have the same general field of application as the single stage units. They handle both condensable and non-condensable gases or vapors, as well as mixtures of the two

• Application: General Purpose / Industrial, Analytical / Scientific, Chemical / Corrosive Gas, Food Processing, Manufacturing Processing, Medical / Laboratory, Packaging, Power Generation, Pharmaceutical / Sanitary, Semiconductor Manufacturing, Other
• Ultimate Operating Vacuum: 0.0 to 760 torr
• Vacuum Pump Stages: Four or More Stages
• Venturi Jet Type / Media: Venturi Air Jet, Steam Ejector, Liquid Eductor / Ejector, Other

Description: Single-Stage Steam Jet Ejectors are based on the ejector-venturi principle. In operation, steam issuing through an expanding nozzle has its pressure energy converted to velocity energy. A vacuum is created and the high velocity of steam entrains air or gas and the

• Application: General Purpose / Industrial, Analytical / Scientific, Chemical / Corrosive Gas, Food Processing, Manufacturing Processing, Medical / Laboratory, Packaging, Power Generation, Pharmaceutical / Sanitary, Semiconductor Manufacturing, Other
• Ultimate Operating Vacuum: 0.0 to 710 torr
• Vacuum Pump Stages: Single Stage
• Venturi Jet Type / Media: Venturi Air Jet, Steam Ejector, Liquid Eductor / Ejector, Other

Description: Steam Ejector Atomizing Desuperheaters serve a wide range of applications. Steam Ejector Atomizing Desuperheaters are recommended for use where sufficient high-pressure steam is available to provide the atomizing steam supply. The most frequent application

Description: Steam Jet Blowers utilize the ejector-venturi principle to move large volumes of air and other gases against low back pressures. The Steam Jet Blower normally utilizes high-pressure steam as the motive force, but compressed air or gas at 15 psig or higher can also be

• Venturi Jet Type / Media: Venturi Air Jet, Steam Ejector, Liquid Eductor / Ejector

Description: Testing methods for steam jet air ejectors

Description: ESDU 86030 gives step-by-step calculation procedures, based on performance charts, for the optimum design of steam/liquid and steam/gas ejectors. For steam/gas ejectors the data are derived from a wide range of experimental results, but for steam/liquid

Description: EJECTOR ASSEMBLY, AIR (STEAM JET)

Description: Armstrong offers a stainless steel sump ejector for use in draining unwanted water from steam pits, steam tunnels or enclosed spaces. The stainless steel sump ejector uses a snap-acting Inconel X-750 spring-assisted mechanism, which engages a steam motive valve,

• Actuation: Mechanical Device
• Connection: Threaded
• Number of Ports/Ways: 2
• Pressure Rating: 40 to 175 psi

Description: experimental data obtained for steam ejectors pumping air at 20 degrees C. If other gases are handled the secondary mass flow rate is converted by the program to an equivalent rate based on the molar mass of the secondary gas. For the second the input is a selection of entry and

Description: Stainless Steel Sump Ejector Armstrong offers a stainless steel sump ejector for use in draining unwanted water from steam pits, steam tunnels or enclosed spaces. The stainless steel sump ejector uses a snap-acting Inconel X-750 spring-assisted mechanism, which

• Discharge Size: 0.7500 to 1.5 inch
• Maximum Discharge Pressure: 40 to 175 psi
• Maximum Discharge Flow: 2 to 56.8 GPM
• Power Source: None, Pump Only

Description: are intended primarily for the test of ejectors in which the motive fluid is steam. They may be used, however, with any motive fluid for which the physical properties are completely and reliably known. The instructions and capacity measurements provide for tests where the suction fluid

Description: are intended primarily for the test of ejectors in which the motive fluid is steam. They may be used, however, with any motive fluid for which the physical properties are completely and reliably known. The instructions and capacity measurements provide for tests where the suction fluid

Description: The development of energy-saving technologies is in great demand recently to stop global warming. We are committed to developing the Ejector Cycle as an energy-saving technology for refrigerating air conditioners. The ejector, which is an energy-saving technological innovation,

Description: steam flow occurs. The venturi design minimizes pressure drop so that the downstream pressure is nearly equal to upstream pressure. Ejector Atomizing Type The ejector atomizing desuperheater is similar to the venturi design, but provides for a high turndown capability of 50:1.

Description: process vents, and steam ejectors. Our gas turbine silencers are engineered for the unique qualities of a gas turbine exhaust. Years of experience have provided us the expertise required to handle the high temperature and low pressure drop requirements of gas turbines.

• Cross Section: Square / Rectangular
• Silencer / Muffler Design: Other
• Special Features: Other / Specialized
• Type / Application: Vent / Blowdown Silencer, Engine Silencer, Blower / Fan Silencer, Compressor Silencer, Turbine Silencer

Description: -driven ejector. At this pressure, the seawater to be distilled enters the evaporator where it evaporates at approx. 44°C - 49°C when passing the plates heated by the heating medium - typically hot water (engine jacket water) at 75°C - 90°C. The steam leaves the evaporator through the

Description: Thermal Vapor Recompression (TVR) In multiple-effect evaporators with TVR, the heating medium in the first calandria is the product vapor from one of the associated effects, compressed to a higher temperature level by means of a steam ejector (TVR). The heating medium in any