64 3 g=9.85 m/s 2 g=9.791 m/s 2 36, km ( ) 1 () 2 () m/s : : a) b) kg/m kg/m k

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1 63 3 Section 3.1 g : :

2 64 3 g=9.85 m/s 2 g=9.791 m/s 2 36, km ( ) 1 () 2 () m/s : : a) b) kg/m kg/m kg/m m

3 : 1 5 m/s

4 66 3 l u B S 3.4 l S l l S l d C 2 C G 2 S 2 A 3.4 Section S S A A

5 S (S ) l S (l S ) l (= l S + l S ) T d (T u ) g α (2π) 2 g = [ Td 2 + T u 2 + T d 2 T 2 ]( u 1 1 2l 2(l S l S ) 8 α2 + O(α 4 ) ) (3.1) (l S ) (3.1) l S l S g = (2π)2 l T 2 ( α2) (T = T d = T u ) (3.2) T l l A, B, C-C l l θ(θ =.19 deg 1 ) T R ( C) l l = l (1 + (T R 15)θ) (3.3) 3.2.2

6 ( 3.6) I I II 1 1 µsec ( 1 ) sec ( 3.5) 1 1 1/1 1 µsec 1/1 3.6 Section 3.3 T d = T u 1 2

7 cm(±1 mm ) TA C C 77 cm 79 cm 81 cm 83 cm 85 cm

8 7 3 1 T d = T u A T d = T u C C 1. T d C C 77 cm 85 cm 2. T u C C 77 cm 85 cm 3. C C T d T u T d T u T d = T u T A A 2 T d = T u B A C C 79 cm, 81 cm, 83 cm T d T u T d = T u 1. C C 79 cm, 81 cm, 83 cm 2. C C 79 cm, 81 cm, 83 cm 3. TA 4. T d, T u B 5. B

9 d= (down) u= (up) C-C (cm) (sec) 1 d C-C (cm) (sec) u : : : 2 d u : : : d : : : u : : : : : : : : : : l TA 2 cm =.1 sec C-C cm 3.7

10 B B C C T d = T u A 1. C C 2. C C T d T u 3. T d T u T = T d T u 3 B T d T u AC C T d T u T 4, p

11 C C cm T d T u 3. 2 B TA 4. A B Section

12 74 3 Section T d = T u A B T d = T u CT d = T u T 5 2. C A B C A B B C C 77, 79, 81, 83, 85 cm T d T u 3. C 3.2 C T g( m/s 2 ) g 4 π = A.2 p l l g( ) g(+) A.3 A.4 p Section 3.5 g = 9.83 ±.2 m/s 2 (3.4) 9.81 m/s m/s 2 5. C A B T A B - - A.4 p. 274

13 m Section 3.5 (g N ) m/s 2 m Section g 1. h = 67.8 m g 1 m m/s 2 g f : g f = h m g B = 2πGρh ρ = kg/m 3 G = m 3 kg 1 s 2 2. g N g f g B g = (g + g f g B ) g N (3.5) ρ = kg/m 3 g ρ

14 76 3 Section m m (g N ) 1984 g N = ( sin2 λ ) (3.6) sin 2 λ (λ h g(= g g f ) g R g R 2 = g (R + h) 2 ( mg = G mm R, mg = G mm 2 (R + h) ) (3.7) 2 (m: M: G: g g g =g h g f = h

15 ρ h ρ g B g B = 2πGρh (3.8) g g N g g = (g h 2πGρh) g N (3.9) g > g < S S A A M I l S θ d 2 dt θ(t) = 2 ω2 sin θ(t) (3.1) ω 2 = Mgl S I + Ml 2 S (3.11) θ d 2 dt θ(t) = ( 1 2 ω2 θ(t) 6 θ(t)3 + O(θ 5 ) ) (3.12) α α 4 θ(t) = α ( sin ωt α2 sin 3ωt + O(α 4 ) ) (3.13) ω = ω ( α2 + O(α 4 ) ) (3.14) I + Ml 2 ( S 1 T d = 2π 1 + Mgl S 16 α2 O(α 4 ) ) (3.15)

16 78 3 I T d T u T u I + Ml 2 ( S 1 T u = 2π 1 + Mgl S 16 α2 O(α 4 ) ) (3.16) (3.15) (3.16) I (3.1) (3.2) g = (2π)2 l T 2 ( α2) (3.2) l T α g T α l 1-4 l α l l δl l + δl (3.2) g l δl l = ±.2 mm.2 mm (3.3) 1 C 15 C 22 C +.19 (22 15) = mm mm ±.2 mm m m

17 h r mm 1.7 mm 1 mm.7 mm 1 mm δh δr(> ) h h δh h + δh V π V = πr 2 h (3.17) V + V + = π(r + δr) 2 (h + δh) = π(r 2 h + 2rhδr + hδr 2 + r2 δh + 2rδrδh + δr2 δh ) (3.18) 2 V + = π(r 2 h + 2rhδr + r 2 δh) (3.19) π(2rhδr + r 2 δh) V V = π(r 2 h 2rhδr r 2 δh) (3.2) V V + V δv ±π(2rhδr + r 2 δh) δv 1 2πrhδr V r r δr 2 V h δh δv δv = V r V δr + δh (3.21) h X Y Z R(X, Y, Z, ) δx δy δz R δr δr = R X δx + R Y R δy + δz + (3.22) Z δr δr = R X δx + R Y δy + R Z δz + (3.23)

18 (3.2) 3 ± g A.3 A % 1/3

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