Koleksi Soalan PSPM 2006 - 2010
Sila klik [link] di bawah untuk download:
Sila klik [link] di bawah untuk download:
1. PSPM 2006/07: [Download]
2. PSPM 2007/08: [Download]
3. PSPM 2008/09: [Download]
4. PSPM 2009/10: [Download]
TQ
This post was published to physics@kms_sf017/027 at 11:18:37 AM 10/11/2010
Suggestion Answer PSPM1
MATRICULATION DIVISION/ MINISTRY OF EDUCATION MALAYSIA/ KOLEJ MATRIKULASI SELANGOR
PSPM 1/ SUGGESTION ANSWERS
SECTION A
NO | 2006/ 07 | 2007/ 08 | 2008/09 | 2009/ 10 |
1 | 1.53 s | 510 m | (b) (i) 0.75 (ii) inelastic | Derive from v-t graph |
2 | 2 550 W | (a) åF = 0, åt = 0 (b) NOT in equilibrium | (a) 13 J (b) 2.6 W | |
3 | (a) – 3.33 rad s-2 (b) 3.25 rev | 3.5 x 105 m | (a) (1.4, 1.2) m (b) 152 kg m2 | (a) 3.53 x 1022 N |
4 | (a) 8.89 s (b) 21.2 m s-1 | 0.696 kg | (a) 30.12 m s-2 (b) 27.11 N | 0.4 s |
5 | (a) velocity of wave profile travelled or energy transfered (b) 144 Hz | 1.5 m | (a) standing wave (b) y = y1 + y2 = 12 cos 3x sin t | (b) 250 Hz |
6 | 0.195 m | (b) 0.502 m s-1 | (a) 1.77 x 1011 N m-2 (b) 1.10 J | 1 022 kg m-3 |
7 | (a) 4.61 x 10-3 (b) Temperature increase e < 1 (poor emitter) | 9.24 x 108 J | (a) For 1K of temperature increase, fractional length increase 2.6 x 10-5 (b) 3.74 x 10-5 m3 | (b) 308 oC |
8 | (a) Energy distributed evenly for every degree of freedom, ½ kT (b) 1.29 | (a) K = 3/2 kT (b) 22.5% | (a)  U decrease(b) Surrounding – Volume decrease, -W | (b) 1 200 J |
SECTION B
NO | 2006/ 07 | 2007/ 08 | 2008/09 | 2009/ 10 |
9 | (c) 3.24 N m-2 (d) 3.24 x 10-4 kg m-1 | (c) 0.21 s2 m-1 (d) 9.52 m s-2 | (c) 1 250 m (d) 110.7 m s-1 | (c) - 4.91 m s-2 (d) 9.82 m s-2 (e) 65 m |
10 | (a) (ii) 2.30 N (iii) Slides upward (b) (ii) 4.62 m | (b) (i) v1 = 0.824 m s-1 v2 = 2.82 m s-1 (ii) – 4.70 N (c) elastic, F µ 1/t | (a) (i) – 1.67 m s-1 (ii) 3 m s-1 (iii) – 7 m s-1 (iv) 0 (b) (i) 17.52 m (ii) – 19.49 m s-1 (iii) 2.45 s | (a) (i) 10.8 m s-1 (ii) 1.06 m (iii) increase u, q = 45o (b) (i) 1.83 m s-2 (ii) 23.94 N |
11 | (b) (ii) 0.96 m (c) (i) 1.85 x 10-3 m s-2 (ii) 3.93 x 10-4 rad s-1 | (b) (i) 98.1 J (ii) 8.09 m s-1 (iii) 2.47 s (c) vsolid > vhollow | (b) 3.38 x 10-2 m s-2 (c) (i) 31.84 N (ii) 28.16 N | (a) 7.36 m s-2 (b) 736 N (c) (i) 23.12 J (ii) 0.68 kg m2 s-1 |
12 | (a) (i) 0.134 m (ii) 7.03 x 10-2 s (iv) amplitude reduced with time& period becomes large (b) (i) -p/6 rad (ii) 0.8 m | (c) (i) 0.5p rad s-1 (ii) 0.4p cm-1 (iii) 1.25 x 10-1 m (iv) 2.51 x 10-2 m s-1 (v) y(x,t) = 2.0 sin (0.5p + 0.4px) | (b) F µ 1/x (c) 1.6 m s-2 (d) ± 4.3 cm (e) (i) y = 15 x 10-3 sin (78.5t – 15.7x) (ii) – 1.17 m s-1 | (a) A = 10 cm, T = 3.14 s (b) (i) 0.04 kg m-1 (ii) 0.4 s (c) 261.8 m s-1 |
13 | (c) (ii) k = EA/L (d) 1.66 x 10-2 m | (a) 119 Hz (b) (2A/B)1/6 (c) From Bernoulli’s equation, h2 > h1, r1 > r2 (d) 3 x 104 Pa | (a) 8 005 m (c) (i) 190 cm3 (ii) 190 cm3 | (a) (i) 15.6 cm (ii) hR = hS (b) (i) Ventury tube |
14 | (c) (i) 3.58 x 10-2 m (ii) 1.33 | (b) (ii) 197 J | (a) (ii) Q =  U + W(c) 1 417.94 K (d) (i) 1 863 J (ii) 747.9 J (iii) 2610.9 J | (b) (i) 7 327.8 kPa (ii) 1 471 g (c) (i) 483 m s-1 (ii) 18.7 kJ |
