Fill in the chart. The total mass is 505g. Data Table for Parts B – Resonance at 500 gramsMeasured String Density p measured =kg/mLength of StringL =1.48mTensionT=Nf=(n/2L)*/ (T/µ)µ= (n2*T)/(4L2*f?)ExpectedFrequenciesMeasuredMeasuredCalculatedFrequenciesSegment LengthString Densityfn [Hz]fn, expected [Hz]L/n [m]U n, calculated kg/m]11422633645670Average u calculated% Difference (µmeasured VS. U calculated)

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Data Table for Parts B – Resonance at 500 grams Measured String Density u measured = kg/m Length of String L= 1.48 т Tension T= N f=(n/2L)*/ (T/µ) µ= (n²*T)/(4L2*f?) Measured Calculated Expected Frequencies Measured Frequencies Segment Length L/n [m] String Density f„[Hz] fn, expected [Hz] H n, calculated [kg/m] 1 14 2 26 3 36 4 56 70 Average µ akated % Difference (µ measured VS. H akeulated)

Data Table for Parts B – Resonance at 500 grams Measured String Density u measured = kg/m Length of String L= 1.48 т Tension T= N f=(n/2L)/ (T/µ) µ= (n²T)/(4L2*f?) Measured Calculated Expected Frequencies Measured Frequencies Segment Length L/n [m] String Density f„[Hz] fn, expected [Hz] H n, calculated [kg/m] 1 14 2 26 3 36 4 56 70 Average µ akated % Difference (µ measured VS. H akeulated)

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.

Chapter5: Analysis Of Convection Heat Transfer

Section: Chapter Questions

Problem 5.8P

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