A plant operates under steady-state conditions. Sea water enters the plant with a mass flow rate of 1000 kg/hr and a density of 1030 kg/m³. Brine (i.e., a high- concentration solution of salt in water) exits at 150 kg/hr with a density of 1250 kg/m³. Water vapor also exits the plant at a pressure of 125 kPa and a temperature of 115°C. The water vapor can be modeled as an ideal gas with Rvapor = 461 J/(kg-K). 1 Seawater
A plant operates under steady-state conditions. Sea water enters the plant with a mass flow rate of 1000 kg/hr and a density of 1030 kg/m³. Brine (i.e., a high- concentration solution of salt in water) exits at 150 kg/hr with a density of 1250 kg/m³. Water vapor also exits the plant at a pressure of 125 kPa and a temperature of 115°C. The water vapor can be modeled as an ideal gas with Rvapor = 461 J/(kg-K). 1 Seawater
Elements Of Electromagnetics
7th Edition
ISBN:9780190698614
Author:Sadiku, Matthew N. O.
Publisher:Sadiku, Matthew N. O.
ChapterMA: Math Assessment
Section: Chapter Questions
Problem 1.1MA
Related questions
Question
a.) Determine the mass flow rate of the water vapor, in kg/hr.
b.) Calculate the volumetric flow rate of the water vapor leaving the plant, in m^3/hr.
c.) Calculate the volumetric flow rate of the brine, in m^3/hr.
![A plant operates under steady-state conditions. Sea
water enters the plant with a mass flow rate of 1000
kg/hr and a density of 1030 kg/m³. Brine (i.e., a high-
concentration solution of salt in water) exits at 150 kg/hr
with a density of 1250 kg/m³. Water vapor also exits the
plant at a pressure of 125 kPa and a temperature of
115°C. The water vapor can be modeled as an ideal gas
with Rvapor = 461 J/(kg-K).
For full credit, show all your work, including diagrams,
equations, general principles, assumptions, etc.
Seawater
3
,2
Brine
Water Vapor](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F6abec00c-0df5-4c95-bf6e-fd605cb914b4%2Ff85ed1c6-2234-4f68-acb3-8512cee3c1bf%2Fglio06a_processed.png&w=3840&q=75)
Transcribed Image Text:A plant operates under steady-state conditions. Sea
water enters the plant with a mass flow rate of 1000
kg/hr and a density of 1030 kg/m³. Brine (i.e., a high-
concentration solution of salt in water) exits at 150 kg/hr
with a density of 1250 kg/m³. Water vapor also exits the
plant at a pressure of 125 kPa and a temperature of
115°C. The water vapor can be modeled as an ideal gas
with Rvapor = 461 J/(kg-K).
For full credit, show all your work, including diagrams,
equations, general principles, assumptions, etc.
Seawater
3
,2
Brine
Water Vapor
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