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Directions: Show your complete solutions clearly. Show proper unit conversions and cancellations. Do not use shift solve. Avoid erasures. Round off your answers to 4 decimal places. 60.00

Directions: Show your complete solutions clearly. Show proper unit conversions and cancellations. Do not use shift solve. Avoid erasures. Round off your answers to 4 decimal places. 60.00

Elements Of Electromagnetics
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
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NOTE: PICTURE 2 CONVERSION OF UNITS REFERENCE

Directions: Show your complete solutions clearly. Show proper unit conversions and cancellations. Do not use shift solve. Avoid erasures. Round off your answers to 4 decimal places. 1. An oil having a specific gravity of 0.80 has a kinematic viscosity of 0.20 stokes flows in a 3.94 inches diameter pipe at the rate of 1 L/s. Calculate the Reynolds Number. 2. The head loss of a cast iron pipe 900 m long is 4 meters. Compute the diameter in inches of the pipe if it carries a discharge of 0.8 m³/s. Use a friction factor of 0.018. 3. Compute the friction head loss in meters of a fluid at a certain condition (S.G.-1.101) that is flowing at a rate of 130 lbm/min through a 5 cm, 50 m long pipe. The viscosity of the fluid is 0.015x103 reyn.
Transcribed Image Text:Directions: Show your complete solutions clearly. Show proper unit conversions and cancellations. Do not use shift solve. Avoid erasures. Round off your answers to 4 decimal places. 1. An oil having a specific gravity of 0.80 has a kinematic viscosity of 0.20 stokes flows in a 3.94 inches diameter pipe at the rate of 1 L/s. Calculate the Reynolds Number. 2. The head loss of a cast iron pipe 900 m long is 4 meters. Compute the diameter in inches of the pipe if it carries a discharge of 0.8 m³/s. Use a friction factor of 0.018. 3. Compute the friction head loss in meters of a fluid at a certain condition (S.G.-1.101) that is flowing at a rate of 130 lbm/min through a 5 cm, 50 m long pipe. The viscosity of the fluid is 0.015x103 reyn.
LENGTH 1 m 1 ft 1 in 1 yd = 1 statute mile = PRESSURE 1 atm = 1 nautical mile = 1 furlong = 1 bar = POWER 1 HP = = || || || || || || || = = = = || || || || || || || 1 pferdestarke = 1 TOR = = 3.2808 ft 12 in 2.54 cm 3 ft 5280 ft 1.609 km 6080 ft 660 ft 101325 Pa 14.7 psi 760 mm.Hg 760 torr 29.92 in.Hg 1.0332 kg/cm² 100 kPa 746 watts 33,000 ft-lbf/min 550 ft-lbf/s 2545 BTU/hr 736 watts 12,000 BTU/hr 3.5167 kW AREA AND VOLUME = 1 hectare 1 acre 1 ft³ 1 m³ 1 gal 1 drum FORCE 1 N 1 dyne. 1 lbf 1 kgf = = = = = = = 10,000 m² 43,560 ft² 7.48 gal 1000 L 3.785 L 4 quartz 8 pints 55 gal 1 kg m/s² 1x105 dynes 1 gcm/s² 32.174 lbm ft/s² 4.448 N 9.8066 N MASS 1 kg 1 lbm 1 1 slug 1 metric ton or (long ton) 1 english ton = or (short ton) ENERGY 1 BTU 1 cal 1J 1 erg 1 CHU = 8m-cm dyne-s² || || || || || || || || = PROPORTIONALITY CONSTANTS, k kgm-m kN-s² 2.2046 lbm 16 oz 7000 grains 32.174 lbm 1000 kg 2000 lbm 1000 1055 J 778 ft-lbf 252 cal 4.187 J 1 N-m 1x107 erg 1 dyne-cm. 1.8 BTU
Transcribed Image Text:LENGTH 1 m 1 ft 1 in 1 yd = 1 statute mile = PRESSURE 1 atm = 1 nautical mile = 1 furlong = 1 bar = POWER 1 HP = = || || || || || || || = = = = || || || || || || || 1 pferdestarke = 1 TOR = = 3.2808 ft 12 in 2.54 cm 3 ft 5280 ft 1.609 km 6080 ft 660 ft 101325 Pa 14.7 psi 760 mm.Hg 760 torr 29.92 in.Hg 1.0332 kg/cm² 100 kPa 746 watts 33,000 ft-lbf/min 550 ft-lbf/s 2545 BTU/hr 736 watts 12,000 BTU/hr 3.5167 kW AREA AND VOLUME = 1 hectare 1 acre 1 ft³ 1 m³ 1 gal 1 drum FORCE 1 N 1 dyne. 1 lbf 1 kgf = = = = = = = 10,000 m² 43,560 ft² 7.48 gal 1000 L 3.785 L 4 quartz 8 pints 55 gal 1 kg m/s² 1x105 dynes 1 gcm/s² 32.174 lbm ft/s² 4.448 N 9.8066 N MASS 1 kg 1 lbm 1 1 slug 1 metric ton or (long ton) 1 english ton = or (short ton) ENERGY 1 BTU 1 cal 1J 1 erg 1 CHU = 8m-cm dyne-s² || || || || || || || || = PROPORTIONALITY CONSTANTS, k kgm-m kN-s² 2.2046 lbm 16 oz 7000 grains 32.174 lbm 1000 kg 2000 lbm 1000 1055 J 778 ft-lbf 252 cal 4.187 J 1 N-m 1x107 erg 1 dyne-cm. 1.8 BTU
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