How do I find the T th (s) I'm confused on it how to get the an Figure 4. How to correctly measure the position of the bottom of the spring when theweight hanger carries the required added masses.M₁ (8) = 6,56MSW(g)Table # 1: Determination of the spring constant K8 = 9.80 m/s2xo (cm) = 1, 2XoMT= Mh+ MswMT(8)MT(kg)F=W=MrgF(N)0506.6.5, 0.066.50.65/7100150116.52 0.116.5 1.1417166.50.1786.5 1.6317216.2 0.2165 2.1217250266.55 02. 266.5 2.6/17Average force constant Kavg200Force constant Ktren from the slope of the trendline% relative difference between Kavg and KtrenMh: Mass of the weight hangerMsw: Mass of added slotted weightsMT: Total MassW: Weight of hanger plus slotted weightsxf(cm)X = Xƒ- XoX(cm)X(m)00.2 0.12.5ch 0.025You 0.093.34.96.4 558K=F(N)x(m)K(N/m)G₁346840.79250:055 38.576363647.2 0.072 36.97361111201in the graphxo: Position of the spring's bottom (unstretched)xf: Position of the spring's bottom (stretched)x: Elongation of the springK: Force constant of the spring table # 2.3. Make the calculations to fill the empty cells in table # 2.Table # 2: Determination of the period and frequency of the simple harmonic motionM₁ (g) =MT= Mh+ MswМт(g)2:00 0200226 0.0220240MT(kg)Msw(g)200220240Frequency when Msw = 200 g.1Note: fexpTexpTexpMh: Mass of the weight hangerMsw: Mass of added slotted weightsMT: Total Masst1010Texp(s)t10(s)4.16 6.4160.0220 4.56 0.4560.02405.880.580QUESTIONS:1. How does the period change with increasing mass?MVKT = 27.thTth(s)t10: Time for 10 oscillationsTexp: Experimental periodTth: Theoretical periodfexp: Experimental frequencytant increases?Tπ = 3.14% dif inT

You can calculate T th by using the given formula Tth=2πMKWhere the values of M and K are given in…

labie TT 2. 3. Make the calculations to fill the empty cells in table # 2. Table # 2: Determination of the period and frequency of the simple harmonic motion Mn (g) = MT= Mh+ Msw MT Msw (g) 200 220 240 0.0240 Frequency when Msw=200 g. 1 Note: fexp = T MT (kg) t10 (s) 200 0000 4.16 6.416 226 0.0220 4.5.6 0.456 240 5.880.580 exp Texp Mh: Mass of the weight hanger Msw: Mass of added slotted weights MT: Total Mass = t10 10 Texp (s) Th=27₁ Tth (s) QUESTIONS: 1. How does the period change with increasing mass? MT K t10: Time for 10 oscillations Texp: Experimental period Tth: Theoretical period fexp: Experimental frequency π = 3.14 % dif in T

labie TT 2. 3. Make the calculations to fill the empty cells in table # 2. Table # 2: Determination of the period and frequency of the simple harmonic motion Mn (g) = MT= Mh+ Msw MT Msw (g) 200 220 240 0.0240 Frequency when Msw=200 g. 1 Note: fexp = T MT (kg) t10 (s) 200 0000 4.16 6.416 226 0.0220 4.5.6 0.456 240 5.880.580 exp Texp Mh: Mass of the weight hanger Msw: Mass of added slotted weights MT: Total Mass = t10 10 Texp (s) Th=27₁ Tth (s) QUESTIONS: 1. How does the period change with increasing mass? MT K t10: Time for 10 oscillations Texp: Experimental period Tth: Theoretical period fexp: Experimental frequency π = 3.14 % dif in T

Physics for Scientists and Engineers: Foundations and Connections

1st Edition

ISBN:9781133939146

Author:Katz, Debora M.

Publisher:Katz, Debora M.

Chapter16: Oscillations

Section: Chapter Questions

Problem 5PQ

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