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G4: A three effect MEE system operates at the following conditions: - Plant capacity = 500 ton/day. - Steam temperature = 110 OC. - Intake seawater salinity = 42,000 ppm. - Temperature of vapor in last effect = 40 oC. - Intake seawater temperature = 20 °C. - Heat transfer coefficient in effect 1 = 3.123 kW/m2 oC. - Heat transfer coefficient in effect 2 = 1.987 kW/m2 oC. - Heat transfer coefficient in effect 3 = 1.136 kW/m2 oC. Calculate the plant performance ratio, the specific heat transfer area, and the mass flow rate of cooling water, And the unit cost

G4: A three effect MEE system operates at the following conditions: - Plant capacity = 500 ton/day. - Steam temperature = 110 OC. - Intake seawater salinity = 42,000 ppm. - Temperature of vapor in last effect = 40 oC. - Intake seawater temperature = 20 °C. - Heat transfer coefficient in effect 1 = 3.123 kW/m2 oC. - Heat transfer coefficient in effect 2 = 1.987 kW/m2 oC. - Heat transfer coefficient in effect 3 = 1.136 kW/m2 oC. Calculate the plant performance ratio, the specific heat transfer area, and the mass flow rate of cooling water, And the unit cost

Introduction to Chemical Engineering Thermodynamics
Introduction to Chemical Engineering Thermodynamics
8th Edition
ISBN:9781259696527
Author:J.M. Smith Termodinamica en ingenieria quimica, Hendrick C Van Ness, Michael Abbott, Mark Swihart
Publisher:J.M. Smith Termodinamica en ingenieria quimica, Hendrick C Van Ness, Michael Abbott, Mark Swihart
Chapter1: Introduction
Section: Chapter Questions
Problem 1.1P
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G4: A three effect MEE system operates at the following conditions: - Plant capacity = 500 ton/day. - Steam temperature = 110 OC. - Intake seawater salinity = 42,000 ppm. - Temperature of vapor in last effect = 40 oC. - Intake seawater temperature = 20 °C. - Heat transfer coefficient in effect 1 = 3.123 kW/m2 oC. - Heat transfer coefficient in effect 2 = 1.987 kW/m2 oC. - Heat transfer coefficient in effect 3 = 1.136 kW/m2 oC. Calculate the plant performance ratio, the specific heat transfer area, and the mass flow rate of cooling water, And the unit cost
Transcribed Image Text:G4: A three effect MEE system operates at the following conditions: - Plant capacity = 500 ton/day. - Steam temperature = 110 OC. - Intake seawater salinity = 42,000 ppm. - Temperature of vapor in last effect = 40 oC. - Intake seawater temperature = 20 °C. - Heat transfer coefficient in effect 1 = 3.123 kW/m2 oC. - Heat transfer coefficient in effect 2 = 1.987 kW/m2 oC. - Heat transfer coefficient in effect 3 = 1.136 kW/m2 oC. Calculate the plant performance ratio, the specific heat transfer area, and the mass flow rate of cooling water, And the unit cost
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