Help please Required informationIn a certain medical application, water at room temperature and pressure flows through a rectangular channel of length L =22 cm, width s = 2.6 cm, and gap thickness b = 0.3 mm as shown in the diagram below. The volume flow rate is sinusoidalwith amplitude Q = 0.50 mL/s and frequency f = 20 Hz, i.e., Q = Q sin (2Tft ). Assume that v = 1 x 10 6 m2/s and u =0,001 Pa-s.b.Calculate the maximum Reynolds number (Re = Vb / u) based on maximum average velocity and gap thickness. Channel flow like thisremains laminar for Re less than about 2000. If Re is greater than about 2000, the flow will be turbulent.The Reynolds number is17of 17Next >Prev16

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In a certain medical application, water at room temperature and pressure flows through a rectangular channel of length L = 22 cm, widths= 2.6 cm, and gap thickness b = 0.3 mm as shown in the diagram below. The volume flow rate is sinusoidal Q sin (21ft ). Assume that v =1 x 10 m2/s and p = with amplitude Q = 0.50 mL/s and frequency f = 20 Hz, i.e., Q = 0.001 Pa-s.

In a certain medical application, water at room temperature and pressure flows through a rectangular channel of length L = 22 cm, widths= 2.6 cm, and gap thickness b = 0.3 mm as shown in the diagram below. The volume flow rate is sinusoidal Q sin (21ft ). Assume that v =1 x 10 m2/s and p = with amplitude Q = 0.50 mL/s and frequency f = 20 Hz, i.e., Q = 0.001 Pa-s.

Principles of Heat Transfer (Activate Learning with these NEW titles from Engineering!)

8th Edition

ISBN:9781305387102

Author:Kreith, Frank; Manglik, Raj M.

Publisher:Kreith, Frank; Manglik, Raj M.

Chapter6: Forced Convection Over Exterior Surfaces

Section: Chapter Questions

Problem 6.34P

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