noted by Kazuma MATSUDA (force) (mechanics) (statics) (dynamics) O F OA O (point of application) (line of action) (vector) F F F

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1 noted by Kazuma MATSUDA (force) (mechancs) (statcs) (dynamcs) O F OA O (pont of applcaton) (lne of acton) (vector) F F F F 1.2 ( ) 1 (kg-wt) (Internatonal System of Unt, SI) kg SI 1

2 kgf SI N SI 1 kg 1 m/s 2 1 N 1 N = 1 [kg] 1 [m/s 2 ] = 1 kg m/s 2 g = m/s 2 1 kgf = 9.81 kg m/s 2 = 9.81 N 1 N = kgf (a) O F 1, F 2 OC R R F 1 F 2 (resultant force) 1 2(b) OAC (force trangle) R 1 3 F 1 F 2 α R 2 = F F 2 2 2F 1 F 2 cos(180 α) = F F F 1 F 2 cos α R = F F F 1 F 2 cos α (1.1) R F 1 θ F 2 sn θ = θ R sn(180 α) = R sn α sn θ = F 2 R sn α (1.2) 2

3 2. (component of force) F F F x, F y F x θ F x = F cos θ, F y = F sn θ (1.3) F F F = F x 2 + F y 2 (1.4) tan θ = F y F x θ = tan 1 F y F x (1.5) (a) O F 1, F 2,, F N (b) F 1 F 2 OA2 F 3 F 1, F 2, F 3 OA3 F 4 R ( OAN ) OA 1 A 2 A N (force polygon) 1 8 R x, y x, y R x = F 1 cos θ 1 + F 2 cos θ F N cos θ N R y = F 1 sn θ 1 + F 2 sn θ F N sn θ N (1.6) 3

4 R = F cos θ 2 + F sn θ 2 (1.7) tan θ = F sn θ F cos θ θ = tan 1 F sn θ (1.8) F cos θ A N O x, y (1.6) R x = R y = F cos θ = 0 F sn θ = 0 (1.9) 1 11(a) (b) 180 α, 180 β, 180 γ 4

5 F 1 sn(180 α) = F 2 sn(180 β) = F 3 sn(180 γ) F 1 sn α = F 2 sn β = F 3 sn γ (1.10) (Lam s theorem) F d (moment of force) M = Fd (1.11) d (arm) N m 2. F 1, F 2 O 1 15 O OA x O-xy 5

6 F 1, F 2 x θ 1, θ 2 O d 1, d 2 OA a d 1, d 2 d 1 = a sn θ 1, d 2 = a sn θ 2 M 1 = F 1 d 1 = F 1 a sn θ 1 M 1 = F 2 d 2 = F 2 a sn θ 2 (1.6) M 1 + M 2 = (F 1 sn θ 1 + F 2 sn θ 2 )a = Ra sn θ R F 1 F 2 R θ x a sn θ = d R O M 1 + M 2 = M (1.12) (Vargnon) 1 16 xy P(x, y) F O F x, F y M = F y x F x y (1.13) F y F x 3. (couple) 1 18 O 6

7 M = F OA F OB = F BA = Fd (1.14) d (arm of couple) M ( 1 19) ( 1 20) (a) A F (b) F F, F A F A F O F Fd A (c) F Fd F d Fd 7

8 A, B F 1 F 2 F 1 F 2 O 2. A, B F 1, F A, B F, F R 1, R 2 O O R 1, R 2 R F 1, F 2 R F 1 F 2 R = F 1 + F 2 (1.15) R AB C AC OC = F F 1, BC OC = F F 2 AC BC = F F 1 F 2 = (1.16) F F 1 F 2 C AB F 1, F AB C 1 26 O F 1, F 2 R d 1, d 2 d (1.16) 8

9 d 1 d d d 2 = F 2 F 1 F 1 (d 1 d) = F 2 (d d 2 ) F 1 d 1 + F 2 d 2 = F 1 d + F 2 d = (F 1 + F 2 )d = Rd ( (1.15)) (1.18) F 1 d 1 + F 2 d 2 F 1 F 2 O Rd R 3. ( ) 1 27(a) F 1, F 2, F 3, F 4 (b) P 0 P 1 P 2 P 3 P 4 P 5 P 0 P 4 (force dagram) R O F 1 Q 1 OP 1 Q 1 Q 2 F 2 Q 2 Q 2 OP 2 Q 2 Q 3 F 3 Q 3 Q 4 Q 1 Q 2 OP 0 OP 4 Q 1 Q 0. Q 4 Q 0 Q 0 R 1 27(b) F 1, F 2, F 3, F 4 OP1 (F 1 ) P1 O OP2 (F 2 ) P2 O OP3 (F 3 ) P3 O OP4 (F 4 ) R R R P0 O OP4 P0 O, OP4 Q 0 Q 1 Q 0 Q 4 Q 0 Q 0, Q 1, Q 2, Q 3, Q 4 (funcular dagram) (strng) 9

10 1 28(b) (a) F 1 Q 1 (a) OP 1, OP 2, OP 3, OP 4 (b) R Q 0 4. ( ) O-xy F P (x, y ) x θ F O x, y F cos θ, F sn θ M = (F sn θ )x (F cos θ )y R = F cos θ tan θ = F cos θ 2 + F sn θ x θ F sn θ F sn θ 2 (1.19) θ = tan 1 (1.20) F cos θ M = Rr = F (x sn θ y cos θ ) (1.21) (1.21) r 5. 10

11 F cos θ = 0, F sn θ = 0 F (x sn θ y cos θ ) = 0 (1.22) A, B A B (Newton ) A B (reactor force) (a) R (b) R (c) R M 11

12 1.8 (member) (framework) (truss) (jont) (tenson member) (compresson member) (Rahmen) 1. (nternal force) 2. 12

13 kg m = 100 kg 20 T 1 30 T 2 Lam mg sn( ) = T 1 sn( ) = T 2 sn( ) 100 [kg] 9.81 [m/s2 ] sn 50 = T 1 [N] sn 150 = T 2 [N] sn 160 T 1 = = 640 [N] sn 150 sn 50 sn 160 T 2 = sn 50 = [N] Ans. T 1 = 640 N, T 2 = 440 N kg 30 m = 50 kg N F Lam mg sn( ) = N sn 90 = 50 [kg] 9.81 [m/s2 ] sn 120 = N [N] sn 90 = F sn( ) F [N] sn

14 sn 90 N = sn 120 = [N] sn 150 F = sn 120 = [N] Ans. 280 N N y x A A(x, y) x = 0.45 [m] cos 30 y = 0.2 [m] [m] sn 30 x = 30 F = 150 N F y = 150 sn 30 F x = 150 cos 30 M M = F y x F x y = 150 sn cos 30 ( 150 cos 30 ) ( sn 30 ) = = [N m] Ans. 84 N l F P F M 14

15 M = Fl P θ P M M = P cos θ b P sn θ b θ = 90 M = P 0 b + P 1 = P b 3 b 3 M = M Fl = P b 3 P = 3Fl b Ans. P = 3Fl b A, B 90 N P 300 N AB P O AB C O B x m C 90 [N] (x + 0.5)[m] [N] x [m] 90 [N] (0.5 x) [m] = 0 90x x x = 0 300x = 90 x = 0.3 Ans. O B 30 cm 15

16 m l 30 θ N 1 N 2 g N 1 mg + N 2 cos 30 = 0 (1) (2) F N 2 sn 30 = 0 (2) N 2 = F sn 30 (1) cos 30 N 1 mg + F sn 30 = 0 1 N 1 mg + F tan 30 = 0 N 1 mg + F 3 = 0 (3) mg cos θ l 2 + F sn θ l N 1 cos θ l = 0 (4) (3) mg 2 l + F sn θ cos θ l N 1l = 0 mg 2 + F tan θ N 1 = 0 mg 2 + F tan θ mg + F 3 = 0 F ( tan θ + 3 ) mg 2 = 0 N 1 = mg 2 F ( tan θ + 3 ) = mg 2 mg F = 2 ( tan θ + 3 ) + F tan θ (4) 16

17 Ans. F = mg 2 ( tan θ + 3 ) m (a) T T 1, T 2, T 3 T 1 + T 2 mg = 0 T 1 = T 2 T 1 = T 2 = mg 2 2T 2 = mg (1) r T 1 r + rt 2 = 0 T 1 + T 2 = 0 T 1 = T 2 T 2 T 3 = 0 T 2 = T 3 (2) T 3 = T (3) (1) 2T 2 mg = 0 2T 3 mg = 0 ( (2)) 2T mg = 0 ( (3)) T = mg 2 17

18 (b) T 1,, T 6 T 2 + T 3 + T 6 mg = 0 (1) T 2 = T 6 (2) T 1 = T (3) T 4 = T 5 (4) T 1 T 2 = 0 T 2 = T 1 (5) T 4 + T 3 = 0 T 3 = T 4 (6) T 5 + T 6 = 0 T 6 = T 5 (7) (1) 2T 2 + T 3 mg = 0 ( (2)) 2T 2 + T 6 mg = 0 ( (6), (4) T 3 = T 6 ) 2T 2 + T 2 mg = 0 3T 2 mg = 0 3T mg =0 ( (5), (3)) T = mg 3 Ans. (a) : T = mg mg, (b) : T =

19 R T R θ R sn θ 800 [N] 1200 [N] + T sn 30 = 0 R sn θ T = 0 (1) R cos θ T cos 30 = 0 3 R cos θ 2 T = 0 (2) (1) (2) θ 800 [N] 0.25 [m] 1200 [N] ( ) [m] + T sn 30 [N] ( ) [m] = T 1 = T = 920 T = 1840 [N] R sn θ = T = = [N] 3 3 R cos θ = 2 T = = [N] R = R 2 sn 2 θ + R 2 cos 2 θ = = [N] tan θ = R sn θ R cos θ = θ = tan 1593 = R sn θ = R A, T > R B 19

20 Ans. T = 1.8 kn, R = 1.9 kn N A, B R A, R B R A + R B F = 0 (1) A 500 [N] 0.3 [m] + R B [N] 0.35 [m] F [N] 0.32[m] = R B 0.55F = R B = F R B = F (2) B 500 [N] ( ) [m] R A [N] 0.35 [m] F [N] 0.2[m] = R A 0.2F = R A = F R A = F (3) F B A F R B (3) (1) F + 0 F = F = 428 F = [N] R A = 0 (2) (1) F F = F = 928 F = 1628 [N] 20

21 Ans. F = 273 N 1328 N Ans. 21

4 4 θ X θ P θ 4. 0, 405 P 0 X 405 X P 4. () 60 () 45 () 40 (4) 765 (5) 40 B 60 0 P = 90, = ( ) = X

4 4 θ X θ P θ 4. 0, 405 P 0 X 405 X P 4. () 60 () 45 () 40 (4) 765 (5) 40 B 60 0 P = 90, = ( ) = X 4 4. 4.. 5 5 0 A P P P X X X X +45 45 0 45 60 70 X 60 X 0 P P 4 4 θ X θ P θ 4. 0, 405 P 0 X 405 X P 4. () 60 () 45 () 40 (4) 765 (5) 40 B 60 0 P 0 0 + 60 = 90, 0 + 60 = 750 0 + 60 ( ) = 0 90 750 0 90 0

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