1. The pressure of 1cm of mercury (assume specific weight of mercury is 13.6) is Int/m² 1320dynes/cm² _13328dyne/cm² 1.333nt/cm2 In horizontal steady state flow water moves from: high to low pressure potential gravitational potential low to high high to low gravitational potential
1. The pressure of 1cm of mercury (assume specific weight of mercury is 13.6) is Int/m² 1320dynes/cm² _13328dyne/cm² 1.333nt/cm2 In horizontal steady state flow water moves from: high to low pressure potential gravitational potential low to high high to low gravitational potential
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![Note: nt newton kPa-Kilopascal atm-atmosphere
Q1. In probleme
1. The pressure of 1cm of mercury (assume specific weight of mercury
is 13.6) is
Int/m²
1320dynes/cm²
_13328dyne/cm²
1.333nt/cm
2. In horizontal steady state flow water moves from:
high to low pressure potential
gravitational potential
low to high total potential
low to high
high to low gravitational potential
3. The downwards water movement in steady state saturated vertical
soil column with minimum depth of water maintained at the upper
end is mainly attributed to:
suction head
gravity head
no enough information is available
pressure head](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F54572b69-302d-4050-9890-b305e2c0d907%2F41d767c1-538b-458b-b36d-b5ea9d86f077%2Fcdyyyen_processed.jpeg&w=3840&q=75)
Transcribed Image Text:Note: nt newton kPa-Kilopascal atm-atmosphere
Q1. In probleme
1. The pressure of 1cm of mercury (assume specific weight of mercury
is 13.6) is
Int/m²
1320dynes/cm²
_13328dyne/cm²
1.333nt/cm
2. In horizontal steady state flow water moves from:
high to low pressure potential
gravitational potential
low to high total potential
low to high
high to low gravitational potential
3. The downwards water movement in steady state saturated vertical
soil column with minimum depth of water maintained at the upper
end is mainly attributed to:
suction head
gravity head
no enough information is available
pressure head
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