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I. EXPERIMENT 1.10: STANDING WAVES ON STRINGS A. Abstract Waves on a string under tension and fixed at both ends result in weExercise 1 Do you think using n = 4 is in any way optimal to the experiment? A sample segment of length, l, and mass, m, is uD. Instructions 1. Measure the length, l, and mass, m, of a sample piece of string from the experiment. 2. Measure the lengthE. Measurements 1.4 sample string mass, m [gram] sample string length, l [cm] 89.5 length of string under tension, L = 91.2 [F. Calculations M[kg] 2 [H22] string linear mass density, u= m/l (kg/m] f2 vs. M: slope [ Hz2/kg ] acceleration due to gravit

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Fl Calculations: SIMO MCKg) fy ² CH 22) H2²kg 1- Pos x 10375867.56 – 55. 38 x703 Q = 1254 x103 -> 5256.25 42.01x103 - 148.3x1htira Qі сеох том дана : кт. . 1. 4 x 103E -2 q.fх “м. , з 1564 x10° (тә|»). ren 42 27 т Аш- . 24. до н?/wa x10° я ч. 34. 406I have no graph to show you but if you will draw a graph you will also get the same results. Thank you

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