Tanks T(1) and T (2) contain 75 gallons and 125 gallons of salt solutions, respectively. A solution with 3 pounds of salt per gallon is pumped into T(1)from an external source at 1 gal/min, and a solution with 4 pounds of salt per gallon is pumped into T(2) from an external source at 2 gal/min. The solution from T(1) is pumped into T (2) at 3 gal/min, and the solution from T(2) is pumped into T(1) at 4 gal/min. T(1) is drained at 2 gal/min and T(2) is drained at 1 gal/min. Let Q 1 (t) and Q 2 (t) be the number of pounds of salt in T(1)and T(2), respectively, at time t> 0. Derive a system of differential equations for Q(1) and Q(2). Assume that both mixtures are well stirred. No need to solve the system.
Tanks T(1) and T (2) contain 75 gallons and 125 gallons of salt solutions, respectively. A solution with 3 pounds of salt per gallon is pumped into T(1)from an external source at 1 gal/min, and a solution with 4 pounds of salt per gallon is pumped into T(2) from an external source at 2 gal/min. The solution from T(1) is pumped into T (2) at 3 gal/min, and the solution from T(2) is pumped into T(1) at 4 gal/min. T(1) is drained at 2 gal/min and T(2) is drained at 1 gal/min. Let Q 1 (t) and Q 2 (t) be the number of pounds of salt in T(1)and T(2), respectively, at time t> 0. Derive a system of differential equations for Q(1) and Q(2). Assume that both mixtures are well stirred. No need to solve the system.
Advanced Engineering Mathematics
10th Edition
ISBN:9780470458365
Author:Erwin Kreyszig
Publisher:Erwin Kreyszig
Chapter2: Second-order Linear Odes
Section: Chapter Questions
Problem 1RQ
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![Tanks T(1) and T (2) contain 75 gallons and 125 gallons of salt solutions, respectively. A solution with
3 pounds of salt per gallon is pumped into T(1)from an external source at 1 gal/min, and a solution with
4 pounds of salt per gallon is pumped into T(2) from an external source at 2 gal/min. The solution from
T(1) is pumped into T (2) at 3 gal/min, and the solution from T(2) is pumped into T(1) at 4 gal/min. T(1)
is drained at 2 gal/min and T(2) is drained at 1 gal/min. Let Q 1 (t) and Q 2 (t) be the number of pounds
of salt in T(1)and T(2), respectively, at time t > 0. Derive a system of differential equations for Q(1) and
Q(2). Assume that both mixtures are well stirred. No need to solve the system.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2Ff8b48535-184f-4977-af2d-d816dbce40fd%2F09ddf04d-6a82-4330-b177-824e4c43d2d8%2F4j4c2bd_processed.jpeg&w=3840&q=75)
Transcribed Image Text:Tanks T(1) and T (2) contain 75 gallons and 125 gallons of salt solutions, respectively. A solution with
3 pounds of salt per gallon is pumped into T(1)from an external source at 1 gal/min, and a solution with
4 pounds of salt per gallon is pumped into T(2) from an external source at 2 gal/min. The solution from
T(1) is pumped into T (2) at 3 gal/min, and the solution from T(2) is pumped into T(1) at 4 gal/min. T(1)
is drained at 2 gal/min and T(2) is drained at 1 gal/min. Let Q 1 (t) and Q 2 (t) be the number of pounds
of salt in T(1)and T(2), respectively, at time t > 0. Derive a system of differential equations for Q(1) and
Q(2). Assume that both mixtures are well stirred. No need to solve the system.
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