(13%) Problem 8: Suppose you have a 9.8 cm diameter fire hose with a 3.8 cm diameter nozzle. a 50% Part (a) Calculate the pressure drop due to the Bermoulli effect us water enters the nozzle from the hose at the rate of 40.0 L's. Take 1.00 x 10 kg'm for the density of the water. Grude Summury P, - P2 = 1 Ietucrions Potential sin() cos() tun() 7 8 9 Submissions HUMI EA 4 Alvempis romsining: 3 (S% per amenmpt) cotun() asin() acos() 6 detailed view atan() acotun() sinh() 1 3 cosh() tanb() cotanh() LND ODegrees Radians vo SPACH CLBAR Suhmit Hint Feedhock I give up! Hints: dalintion per hinl. Hints remaining 2 Feedback: 5% duluction per Joallack. 50% Part (b) To what maximum height, in meters, above the nozzle can this water rise? (The actual height will he significantly smaller due to air resistance.)
(13%) Problem 8: Suppose you have a 9.8 cm diameter fire hose with a 3.8 cm diameter nozzle. a 50% Part (a) Calculate the pressure drop due to the Bermoulli effect us water enters the nozzle from the hose at the rate of 40.0 L's. Take 1.00 x 10 kg'm for the density of the water. Grude Summury P, - P2 = 1 Ietucrions Potential sin() cos() tun() 7 8 9 Submissions HUMI EA 4 Alvempis romsining: 3 (S% per amenmpt) cotun() asin() acos() 6 detailed view atan() acotun() sinh() 1 3 cosh() tanb() cotanh() LND ODegrees Radians vo SPACH CLBAR Suhmit Hint Feedhock I give up! Hints: dalintion per hinl. Hints remaining 2 Feedback: 5% duluction per Joallack. 50% Part (b) To what maximum height, in meters, above the nozzle can this water rise? (The actual height will he significantly smaller due to air resistance.)
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