fx-72F
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- るるみ あいしま
- 5 years ago
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1 SA1310-A JA fx-72f RJA V01
2 A!j(CLR)d(All)w SD/REG 45 PRGM 73 1
3 ! a s!s(sin 1 )bw b(contrast) fcde REPLAY 2
4
5 u u u u 4
6 u u 15 5
7 3 1 6
8 Ans M A B C D X Y π e
9 n ENG...40 CMPLX...41 SD/REG n BASE PRGM
10 O 11 A 1. 1N SETUP d1 Contrast u L I GHT DARK CASIO 2. d e 3. A 1p EXIT N +- A 1A OFF M M A x! LOGIC DT CL 9
11 M+ M 1 M a DT SD REG CL A SD REG 1 CMPLX 1 a A BASE LOGIC BASE A 2 ( 5+4 ) A 7 sin( 30) Deg 10
12 6 A 1., u u 1 2, d e COMP CMPLX BASE COMP CMPLX BASE n SD REG PRGM 1(COMP) 2(CMPLX) 3(BASE) 4(SD) 5(REG) 6(PRGM) u SD REG PRGM 4 5 6!, SETUP 6 e d 11
13 A 90 π 2 100!,1(Deg)!,2(Rad)!,3(Gra) A !,e1(Fix) 0(0 ) 9(9 )!,e2(sci) 1( 1 ) 9( 9 ) 0( 10 )!,e3(norm) 1(Norm1) 2(Norm2) Fix Fix Fix2 Sci
14 Sci Sci4 Norm1 Norm2 Norm x, x Norm x, x Norm1, Norm Norm Norm2 A!,ee1(ab/c)!,ee2(d/c) A!,eee1(a+bi )!,eee2(r θ ) A SD REG Frequency!,dd1(FreqOn)!,dd2(FreqOff) 13
15 ... COMP... Deg... Norm1... ab /c... a+bi... FreqOn!9(CLR)2(Setup)w w A w - 2 ( ) 2 ( 3 ) = 2*(5+4)- 2*y3E 2 ( 5+4 ) A sin, cos, ' ) sin(, cos(, tan(, sin 1 (, cos 1 (, tan 1 (, sinh(, cosh(, tanh(, sinh 1 (, cosh 1 (, tanh 1 (, log(, ln(, e^(, 10^(, '(, 3 '(, Abs(, Pol(, Rec(, arg(, Conjg(, Not(, Neg(, Rnd( 14
16 - sin 30 = s30)e sin( 30) 05 A ( 2 ( 5 4 ) 2 sin(30) 2 '(3) 2 h A 2 π A A sin sin π 6 2π 2 2'(2) 2 2' 2 4π 2π 4π 2π Pol Rec, A E ) = 15 (2+3)* (4-1E ( 2+3 ) ( E 15
17 A 16 > > e f c A I I A 16
18 1 2I I I 1Y(INS) A Y *13 Y I 369 1I I A d e Y Y **12 dd I 369 I12 17
19 Y 369**12 ddd Y 369 I A d e Y d e A d e E d e /0*2E ed d1 14 0I I0 2 Mat h ERROR E
20 e d A BASE + - * / = E = 36 7*8-4*5E { 7v3 2v1v3 7 { 3 2 { 1 { 3 2{4= 1{2 19
21 A 1 2 3v1v4+ 1v2v3E 4-3v1v2E = 7 d/c v3+1v2E 10 A 1v(d/c) A = = = = E v 3{1{4+1{2{3 4 3{1{2 2{3+1{2 4{11{12 1{2 7{6 15 1{1{2 20
22 v % % 1/100 A 2 1 2% = ((%)E 2% % = *20 1((%)E % 660/880 1((%)E % * 151((%)E % % % % * 251((%)E % % E
23 -G*201((%)E Ans Ans 20% g300g% ( ) /5001((%)E % 48 (46-40) /401( % E ( ) 500% 160 ( 46 40) 40% 15 eeeey8e ( 48 40) 40% A 60 { } e { } e { } e e30e30eE e e0e30e 22
24 A u 60 u = e20e30e+ 0e39e30eE = e20e*3.5E A e E e e COMP CMPLX BASE f
25 - 1+1E2+2E 3+3E f f c 1 O d e d e E = = 4.9 4*3+2.5E d I
26 YYYY -7.1E 4 3I Ans SD REG A B C D X Y 6 A Ans Ans A Ans/ Ans Ans SD REG Ans Ans 25
27 Ans CMPLX Ans A Ans *4E /30E Ans / Ans w+4wE E Ans 14 2 E Ans A Ans G A Ans G Ans '(Ans 5 26
28 E 789-GE 789 Ans w+4wE G)+5E '(Ans)+5 10 M M M M A M m 10M M 105/3m 105 3M+ 35 A M 1m(M ) 27
29 - 3 2 M 3*21m(M ) m 1m M M M 3 2M 6 m 1m M A tm(m) A 0 01t(STO)m(M) M A M 01t STO m M = m 53 6 = m ) 45 2 = 90 45*21m(M ) 99 3 = 33 99/3m () 22 tm(m) M A B C D X Y A B C D X Y 6 A - A t(STO)-(A) 28
30 A t - A t-(a) A - 5 A 5+S-(A)E A 0 - A 01t(STO)-(A) A - B C = *6+3 1t(STO)e(B) 5*81t(STO)w(C) Se(B)/Sw(C)E B 5 8 C B C (CLR)1(Mem)E E A 29
31 π e π e π e π e BASE π e(π) e Si(e) 40 π e BASE A 1. 17(CONST) u 1 mp m mn me mμ u 10 e d e d u mp m mn me mμ mpi u E mp
32 A 1 17(CONST) dddd4(c 0 )E C c 0 = 1/ ε 0 μ 0 1/1 17(CONST) ddd4( 0 ) 17(CONST) dd1(μ 0 )) E 1 '(I 1 '( ε0i 1 '( ε 0 μ0)i 1 '( ε 0 μ0) A No. 17(CONST) No. 1-1 m p kg 1-2 m n kg 1-3 m e kg 1-4 μ mμ kg 2-1 a m 2-2 h J s 2-3 μ N J T μ B J T H J s
33 No. 3-2 α r e m 3-4 λ c m 4-1 γ p s 1 T λ cp m 4-3 λ cn m 4-4 R m u kg 5-2 μ p J T μ e J T μ μ n J T 1 μ μ J T F C mol e C 6-4 N A mol k J K V m m 3 mol R J mol 1 K C m s C W m C m K σ W m 2 K ε F m μ N A φ Wb 9-3 g m s G S 32
34 No Z Ω 10-2 t K 10-3 G m 3 kg 1 s atm Pa u CODATA 2010 BASE A { } { } { } { } ( ) ( ) A sin(, cos(, tan(, sin 1 (, cos 1 (, tan 1 ( sin({n}), cos({n}), tan({n}), sin 1 ({n}), cos 1 ({n}), tan 1 ({n}) - sin 30 = 0.5 sin = 30 Deg sin( ( 30 ) s30)e 05 33
35 1s(sin 1 )0.5)E A CMPLX i sin(30) sin(1 i ) sin 1 ( 0.5) 30 1G(DRG') 1(D) D R G 2(R) (G) π Deg (1e(π)/2) 1G(DRG')2(R)E (π 2 ) r G(DRG') 3(G)E 50 g 45 sinh(, cosh(, tanh(, sinh 1 (, cosh 1 (, tanh 1 ( A sinh({n}), cosh({n}), tanh({n}), sinh 1 ({n}), cosh 1 ({n}), tanh 1 ({n}) 34
36 - sinh 1 = ws(sinh)1)e A w 1w s c t CMPLX A 10^(, e^(, log(, ln(, 10^({n}) {n} e^( log({n})... log 10 {n} log({m},{n})... log {m} {n} {m} ln({n})... loge{n} 1 log 2 16 = 4 log16 = sinh( 1 ) l2,16)e l16)e log ( 2,16) log ( 16) ln 90 (log e 90) = i90)e 3 e 10 = i(e x )10)E 35 In( 90) eˆ ( 10 )
37 A {n} x 2... {n} 2 {n} x 3... {n} 3 {n} x 1... {n} 1 x 2, x 3, x 1, ^(, '(, 3 '(, x '( 2 3 {(m)}^({n})... {m} {n} '({n})... {n} 3 '({n})... 3 {n} ({m}) x {m} '({n})... {n} 1 ('2 + 1) ('2 1) = 1 (1 + 1) 2+2 = 16 (12)+1) (12)-1)E (1+1)^2+ 2)E ('( 2 ) +1 )('(2 ) 1 ) 1 ( 1+ 1) ˆ ( 2+2 ) = y2^2v3)e A x 2 x 3 x 1 CMPLX CMPLX ^( '( 3 '( x '( Pol(, Rec( 2ˆ ( 2{3 )
38 o o (Rec) A Pol Pol( x, y ) x : x y : y Rec Rec( r, ) r : r : (Pol) 1 '2, '2 Deg 1+(Pol)12),12))E Pol('( 2 ),'(2 )) 2 t,(y) 2 2, 30 Deg 1-(Rec)2, 30)E Y Rec ( 2, 30) y t,(y) 37 Y 1
39 A COMP SD REG r x r x y X Y y Y r x Pol ('2, '2) + 5 = = 7 x!, Abs(, Ran#, npr, ncr, Rnd( x! npr ncr CMPLX A {n}! {n} 0 - (5 + 3)! (5+3) 1E(x!)E A Abs Abs( CMPLX 41 Abs ({n}) - Abs (2 7) = 5 1)(Abs)2-7)E A Ran# Ran# 38 (5+3 )! Abs ( 2 7 )
40 - 1000Ran# (Ran#) E E u A nprncr {n} P {m}, {n} C {m} *(nPr)4E 101/(nCr)4E A Rnd Rnd({n}) Norm1 Norm2 11 Fix Sci = /7*14E 3 1Ne1(Fix)3 1000Ran# 1000Ran# 10P4 10C
41 15 200/7E *14E Ans /7E (Rnd)E Rnd( Ans *14E Ans n ENG 3 ENG 2 ENG W ENG 1W( ) ENG Eng 1234E W
42 W Eng 123E 1W( ) W( ) CMPLX CMPLX N 2 A i CMPLX W i a+bi W i i 2+3W(i) A (r ) y( ) ii 5 30I θ 12 41
43 R I 1E(Re Im) ENG ENG i a+bi 1N(SETUP)eee1 a+bi 2+W(i)E 1E(Re Im) 2+ i 2+ i 2 1 i A b a + bi O a O 13 A (a+bi) 1N(SETUP)eee1 a+bi 42
44 1 2 ('3 + i) = 2'3 + 2i = i 2*(13)+W(i)) E 2 ('(3)+i ) E(Re Im) 2 ('(3)+i ) 2 2 '2 45 = 1 + 1i Deg 12)1y( ) 45E '(2) E(Re Im) A (r) 1N (SETUP)eee2 r 1 2 ('3 + i) = 2'3 + 2i = 4 30 '(2) *(13)+W(i)) E 2 ('(3)+i ) 4 1E(Re Im) 2 ('(3)+i ) i = Deg 1+1W(i)E 1+1 i E(Re Im) i 45
45 Conjg z = a+bi z = a bi i 1,(Conjg)2+3W(i) )E Conjg( 2+3 i ) 2 1E(Re Im) Conjg( 2+3 i ) - 3 Abs, arg z = a + bi zarg i Deg b = 2 O a = 2 1)(Abs)2+2W(i ) )E Abs ( 2+2 i ) ((arg)2+2W(i ) )E arg( 2+2 i ) 45 44
46 A 1-('a+bi) - 2'2 45 = 2 + 2i Deg 212)1y( )45 1-('a+bi)E 1E(Re Im) 2' ( 2 ) 45 a + bi A 1+('r) i = 2'2 45 = Deg 2 2' ( 2 ) 45 a + bi 2 2+2W(i)1+('r) E 2+2 i r θ E(Re Im) 2+2 i r θ 45 SD REG A FreqOn FreqOff FreqOn 13 A FreqOn FreqOff 45
47 FreqOn FreqOff SD REG A 1 SD N4 SD A FreqOn x1, x2 xn Freq1, Freq2 Freqn {x1}1,(;) {Freq1}m(DT) {x2}1,(;) {Freq2}m(DT) {xn}1,(;) {Freqn}m(DT) 1 {xn} m(dt) - (x) (Freq) ,(;) ; 4I 0 m(dt) 1 46 Line = 1
48 25.51,(;)6 m(dt) Line = ,(;)2 m(dt) FreqOff x1, x2 xn {x1}m(dt) {x2}m(dt) {xn}m(dt) A c - FreqOn A Line = I 3 0 c c c c x 1= Freq 1= x 2= Freq 2 =
49 FreqOn x1, Freq1, x2, Freq2 FreqOff x1, x2, x3 f A E -Freq3 2 3 Af 3E A 1m(CL) -x 2 Accc 1m(CL) x1: 24.5 Freq1: 4 x1: 24.5 Freq1: 4 x2: 25.5 Freq2: 6 x2: 26.5 Freq2: 2 x3: 26.5 Freq3: 2 FreqOn x Freq A 19(CLR)1(Stat)E 48 Freq 3 = Freq 3 = x 2= Line =
50 E A A E o 12(S-VAR) 1E A SD Σx 2 11(S-SUM)1 2 Σx 2 = 2 Σx i Σx n o σx x x σx sx (S-SUM)2 Σx = Σx i 11(S-SUM)3 12(S-VAR)1 x = Σx i n 12(S-VAR)2 σx = sx 12(S-VAR)3 sx = 49
51 minx maxx (S-VAR)e1 12(S-VAR)e2 REG N5 REG A REG 7 y = a + bx y = a + bx + cx 2 y = a + b lnx e y = ae bx ab y = ab x y = ax b y = a + b/x REG 1. N5 REG REG u 2 d e Lin Log Exp Pwr e ab Inv Quad AB Exp (Lin) 2(Log) 3(Exp) 4(Pwr) e1(inv) e2(quad) e3(ab-exp)
52 REG 12(S-VAR)3(TYPE) 1 A FreqOn (x1, y1), (x2, y2) (xn, yn) Freq1, Freq2 Freqn {x1}, {y1} 1,(;) {Freq1}m(DT) {x2}, {y2} 1,(;) {Freq2} m(dt) {xn}, {yn} 1,(;) {Freqn} m(dt) 1 {xn}, {yn} m(dt) FreqOff (x1, y1), (x2, y2) (xn, yn) {x1}, {y1} m(dt) {x2}, {y2} m(dt) {xn},{yn} m(dt) A c FreqOn x 1, y 1, Freq1, x 2, y 2, Freq2FreqOff x 1, y 1, x 2, y 2, x 3 f 51
53 A E A 1 m CL A 48 A E o p 12(S-VAR)1(VAR) x σx sx E 12(S-VAR)1(VAR)e x y σy 115 sy A REG S-SUM Σx 2 11(S-SUM)1 x Σx 2 = Σx i 2 Σx y 1E 14 11(S-SUM)2 x Σx = Σx i 52
54 n Σy 2 11(S-SUM)3 11(S-SUM)e1 y 2 Σy 2 = Σy i 2 Σy y Σxy x y Σx 2 y { x 2 y } Σx 3 11(S-SUM)e2 Σy = Σy i 11(S-SUM)e3 Σxy = Σx i y i 11(S-SUM)d1 Σx 2 y = Σx i 2 yi 11(S-SUM)d2 x 3 Σx 3 = Σx i 3 Σx 4 11(S-SUM)d3 x 4 Σx 4 = Σx i 4 VAR o 12(S-VAR)1(VAR)1 x σx x sx x x = Σx i n 12(S-VAR)1(VAR)2 σx = Σ(x i x) 2 n 12(S-VAR)1(VAR)3 sx = 53
55 p y σy y sy y 12(S-VAR)1(VAR)e1 12(S-VAR)1(VAR)e2 12(S-VAR)1(VAR)e3 VAR 55 a a b b r r m 12(S-VAR)1(VAR)ee1 12(S-VAR)1(VAR)ee2 12(S-VAR)1(VAR)ee3 12(S-VAR)1(VAR)d1 y x n σy = sy = y = Σy i n 12(S-VAR)1(VAR)d2 x y 54
56 VAR a 12(S-VAR)1(VAR)ee1 a b 12(S-VAR)1(VAR)ee2 b c 12(S-VAR)1(VAR)ee3 c m 1 12(S-VAR)1(VAR)d1 y x 1 m 2 12(S-VAR)1(VAR)d2 y x 1 n 12(S-VAR)1(VAR)d3 x y MINMAX minx 12(S-VAR)2(MINMAX)1 x maxx 12(S-VAR)2(MINMAX)2 x miny 12(S-VAR)2(MINMAX)e1 y maxy 12(S-VAR)2(MINMAX)e2 y A 55
57 a b a = Σy i b. Σx i n n b. Σx = i y i Σx i. Σyi n. 2 Σxi (Σx i ) 2 n r r. Σx = i y i Σx i. Σyi {n. 2 Σx i (Σx i ) 2 }{n. 2 Σy i (Σy i ) 2 } y a m m = b n = a + bx n a 2 Σy Σx i Σx a = i b ( ) c( i n n n ) Sxy. Sx2 x 2 Sx 2 y. Sxx 2 b = b Sxx. Sx2 x 2 (Sxx 2 ) 2 Sx 2 y. Sxx Sxy. Sxx 2 c = c Sxx. Sx 2 x 2 (Sxx 2 ) 2 (Σx i ) Sxx 2 = Σx i2 n (Σx i. Σyi ) Sxy = Σx i y i n m1 m1 = m2 m2 = b + b 2 4c(a y) 2c b b 2 4c(a y) 2c n n = a + bx + cx 2 Sxx (Σx. i Σx i2 ) 2 = Σx i3 n Sx 2 x 2 4 = Σx i (Σx i 2 ) 2 n Sx 2 2 y = Σx i y i (Σx i 2. Σyi ) n 56
58 a b Σy a i b. Σlnx i = n n. Σ(lnx i )y i Σlnx i. Σyi b = n. Σ(lnx i ) 2 (Σlnx i ) 2 r r = m n n. Σ(lnx i )y i Σlnx i. Σyi {n. Σ(lnx i ) 2 (Σlnx i ) 2 }{n. 2 Σy i (Σy i ) 2 } y a b m = e n = a + blnx e a a = Σlny i b. Σx exp( i n ) b r r = m m = n n. Σx i lny i Σx i. Σlnyi b = n. Σx i 2 (Σx i ) 2 n = ae bx n. Σx i lny i Σx i. Σlnyi {n. 2 Σx i (Σx i ) 2 }{n. Σ(lny i ) 2 (Σlny i ) 2 } lny lna b ab a b a = Σlny exp( i lnb. Σx i n ) n b = exp(. Σx i lny i Σx i. Σlnyi n ). 2 Σx i (Σx i ) 2 r r = n. Σx i lny i Σx i. Σlnyi {n. 2 Σx i (Σx i ) 2 }{n. Σ(lny i ) 2 (Σlny i ) 2 } 57
59 m m = n n = ab x lny lna lnb a a = Σlny i b. Σlnx exp( i ) n b b = n. Σlnx i lny i Σlnx i. Σlnyi n. Σ(lnx i ) 2 (Σlnx i ) 2 r r = ln y ln a m b m = e n. Σlnx i lny i Σlnx i. Σlnyi {n. Σ(lnx i ) 2 (Σlnx i ) 2 }{n. Σ(lny i ) 2 (Σlny i ) 2 } n n = ax b a b Σy a = i b. 1 Σx i n Sxy b = Sxx Sxy r r = Sxx. Syy 1 (Σx Sxx = i ) 2 1 Σ(x i ) 2 n m b m = y a (Σy i ) Syy 2 = Σy i2 n Σx i 1. 1 Σyi Sxy = Σ(x i )y i n n n = a + x b 58
60 SD N4(SD) FreqOn 1N(SETUP)dd1(FreqOn) 55m(DT) 571,(;)2m(DT) 591,(;)2m(DT) 611,(;)5m(DT) 631,(;)8m(DT) 651,(;)9m(DT) 671,(;)8m(DT) 691,(;)6m(DT) 711,(;)4m(DT) 731,(;)3m(DT) 751,(;)2m(DT) 12(S-VAR)1(o)E x (S-VAR)3(sx)E sx
61 2 g REG N5(REG)1(Lin) FreqOff 1N(SETUP)dd2(FreqOff) 20,3150m(DT)50,4800m(DT) 80,6420m(DT)110,7310 m(dt)140,7940m(dt)170,86 90m(DT)200,8800m(DT)230, 9130m(DT)260,9270m(DT)29 0,9310m(DT)320,9390m(DT) a 12(S-VAR)1(VAR)ee 1(a)E b 12(S-VAR)1(VAR)ee 2(b)E 12(S-VAR)1(VAR)ee 3(r)E 60 a b r
62 12(S-VAR)3(TYPE) 2(Log) a A12(S-VAR)1(VAR) ee1(a)e b 12(S-VAR)1(VAR) ee2(b)e 12(S-VAR)1(VAR)ee 3(r)E x 1 = a b r x = 350n y 12(S-VAR)1(VAR)d 2(n)E nbase BASE N3 n A DEC w x ' HEX 10 x BIN e x M l i OCT e 61
63 10 w(dec) d 16 ^(HEX) H 2 l(bin) b 8 i(oct) o A n Al(BIN)1+1E Ai(OCT)7+1E Syntax ERROR BASE A A B C D E F 1 1 b b 10 o { }{A} y {B} e {C} w sin -1 {D} s cos -1 E c tan -1 F t F F+ 1 A^(HEX)1t(F)+1E 20 H 62
64 A 2 0 x x x x x x 7FFFFFFF x FFFFFFFF Math ERROR n w DEC^ HEXl BINi OCT Aw(DEC)30E l(bin) i(oct) ^(HEX) d b 36 o 1E H LOGIC BASE E BASE LOGIC LOGIC 3 d e 63
65 a nd o r x no r d h b o x o r No t Neg A 10 3 E(LOGIC)d1(d)3 A Al(BIN)E(LOGIC)d1(d) 5+E(LOGIC)d2(h)5 E d3i d5+h l BIN A and 1010 b and = E(LOGIC) 1(and)1100E 1010and b 64
66 A or or = E(LOGIC) 2(or)11010E A xor xor = or b 1010E(LOGIC)e 1(xor)1100E 1010xor b A xnor xnor = E(LOGIC) 3(xnor)101E A Not 1111xnor b - Not( ) = E(LOGIC)e2(Not) 1010)E A Neg 2 No t ( 1010) b - Neg( ) = E(LOGIC)e3(Neg) )E Neg ( ) b 65
67 23 COMP A 1. G u Formula No.? u 68 Formula No.? Q 06 0 A 1. G 2. c f A Gccc 03:HeronFormula E a a 0 a 8 8E 66 b 0
68 b 5 c 5 5E 5E c s 0 03:HeronFormula 12 E A a b c r t v ρ 1j CLR b Mem 1j CLR d All 2 E a a E E a 8 a 8 67
69 A 1G LOOK a 0 1G(LOOK) 03: S= ' (s ( s a )(s 1 e 1p(EXIT) A No. 01 a b c ax 2 + bx + c = 0 a 0, b 2 4ac 0 No b, c 2 1 a a = b 2 +c 2 2bc cos b, c 0,
70 No a b c S S = s(s a)(s b)(s c), s = (a+b+c) (a + b > c > 0, b + c > a > 0, c + a > b > 0) No. 04 P(x) x P(x) Hastings 2 1 x P(x) = e dt 2π t 2 2 P x (0 x < ) x No. 05 Q(x) x Q(x) Hastings 1 x 2 2π 0 Q(x) = e dt t 2 Q x (0 x < ) x No Q, q r F F = 1 Qq (r > 0) 4πε 0 (ε r 0 : ) Q, q: Cr: m 2 69
71 No. 07 S ρ R R = ρ S (S,, ρ > 0) : m, S: m 2, ρ : Ω m, R : Ω No. 08 B I F F = IB sin θ ( > 0, 0 90 ) θ B : T, I : A, : m, θ :, F : N No. 09 RC R RC R C V t R VR VR = V e t/cr (C, R, t > 0) R : Ω, C : F, t :, V V R : V No. 10 G E E ( ) [db] E' G[dB] = 20 log10 (E E >0) E E E : VG : db No. 11 LRC f LRC R L C Z 2 Z = R π f L = ( 2π f C ) R ( ωc ) 2 + ωl ' / ( ) (R, f, L, C > 0) f : HzL : HC : FR Z : Ω 70
72 No. 12 LRC f LRC R L C Z Z = π f C ( R ) ( 2π f L ) 2 (R, f, L, C > 0) f : HzC : FL : HR Z : Ω No. 13 L C f 1 1 f 1 = (L, C > 0) L : HC : Ff 1 : Hz 2π LC No. 14 v 1 t S 1 S= v 1 t + gt 2 (g : t 0) 2 v 1 : m st : S : m No. 15 T T = 2π g (g : > 0) : mt : No. 16 m k T T = 2π m k (m k > 0) m : kgk : N/mT : No. 17 f1 v v1 u f 71
73 v u v v 1 f = f 1 (v v 1, f 1>0, (v u)/(v v 1) >0) vv 1 u : m/sf 1 f : Hz No. 18 n T V P P nrt = (R n T V > 0) V n : molt : KV : m 3 P : N/m 3 No. 19 m v r F F = m v 2 r (m v r >0) m : kgv : m/sr : mf : N No. 20 k x U 1 2 U = kx 2 (k, x > 0) k : N/mx : mu : J No. 21 v z ρ P C 1 C = v P 2 + +gz 2 ρ (g v, z, ρ, P > 0) v : m/sz : mρ : kgf/m 3 P : kgf/m 2 C : m 2 /s 2 72
74 No. 22 h 1 h = K sin2 θ +Csin θ 2 (K C 0 < θ 90, > 0) : mθ : h : m No. 23 S S = K cos 2 θ +Ccos θ (K C 0 < θ 90, > 0) PRGM PRGM,6 PRGM COMP CMPLX BASE SD REG A PRGM PRGM 1 COMP, CMPLX, BASE, SD, REG A : mθ : S : m
75 A - 1 inch = 2.54cm? A : A ,6(PRGM) PRGM ED I T RUN DEL (EDIT) EDIT Prog ram P P1 P4 3. u e /d 1 2 MODE : COMP CMPLX 1 2 MODE : BASE SD REG u 1 1 (COMP) COMP I
76 5.? A : A u? A : A (P-CMD)1(?) 1t( )y(a)e Sy(A)*2.54 u 1 3 (P-CMD) A 1p EXIT u E RUN Program u, 1 COMP A 1.,6 PRGM 1 EDIT EDIT Program e /d u f/c / 4. A 1p EXIT PRGM PRGM 75
77 A PRGM 1. p P1 P2 P3 P A PRGM 1., 6 PRGMPRGM 2. 2 RUN u RUN Program RUN P r o g ram P P1 P u A d e A 1., 6 PRGMPRGM 76
78 2. 3 DEL DELETE Prog ram P P1 P u DELETE Prog ram P A 1. 13(P-CMD) u 1? : ^ e d w A 78 77
79 g 1 3 (P-CMD) p A g (??? A? A + 5 A? A A 2 Ans 2 ^ ^ Q? A A 2^Ans 2 A g Goto Lbl Goto nlbl n Lbl ngoto n n 0 9 Goto n Lbl n? A Lbl 1? B A B 2^Goto 1 Goto n Lbl n Syntax ERROR 78
80 A g Lbl 1? A A 0 (A) ^ Goto 1 If While If While Ans A /If g If If u If Then Syntax ERROR 79
81 u Then Else * Goto Break u 84 If Then ( Else) IfEnd IfThen *Else *IfEnd u If Then Else IfEnd If Else IfEnd u Else { } u IfEnd:{ } If 1? A If A 10 Then 10A ^ Else 9A ^ IfEnd Ans ? A If A 0 Then A 10 A IfEnd Ans 1.05 A / For g For For Next For u For Next Syntax ERROR u 84 For To Next For To Next For Next 1 Next Next For 1 A To 10 A 2 B B ^ Next 80
82 For To Step Next For To StepNext For Next For To Next For 1 A To 10 Step 0.5 A 2 B B ^ Next A / While g u 84 While WhileEnd While WhileEnd While 0 While WhileEnd While 0WhileEnd? A While A 10 A 2 ^ A+1 A WhileEnd A While While WhileEnd WhileEnd A g Break Then Else Break For While Then Break? A While A 0 If A 2 Then Break IfEnd WhileEnd A ^ A 11 81
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85 A DT (SD, REG) { x } ; { Freq } DT { x } DT SD FreqOn SD FreqOff { x }, { y } ; { Freq } DT { x }, { y } DT REG FreqOn REG FreqOff 1,(;),, m DT 1 DT SD REG m DT A u ENG ENG u 1E Re Im u 19 CLR 3 All E u 19(CLR)2 Setup E A IfForWhile u If If u For While u While For u u 84
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87 u 1 2π = 1/(2π) = π = (1/2) π = Stack ERROR CMPLX 1 2 CMPLX 5 86
88 A DEG 0 < x < sin x RAD 0 < x < GRA 0 < x < DEG 0 < x < cos x RAD 0 < x < GRA 0 < x < DEG sin x x = (2n 1) 90 tan x RAD sin x x = (2n 1) π / 2 GRA sin x x = (2n 1) 100 sin 1 x cos 1 x 0 < x < 1 tan 1 x 0 < x < sinh x cosh x 0 < x < sinh 1 x 0 < x < cosh 1 x 1 < x < tanh x 0 < x < tanh 1 x 0 < x < log x / ln x 0 < x < x < x < e x < x < 'x 0 < x < x 2 x < /x x < ; x 0 3 'x x <
89 x! 0 < x < 69 x : npr ncr Pol(x,y) Rec(r,θ) ^(x y ) x 'y a b / c 0 < n < , 0 < r < n n, r : 1 < {n!/(n r)!} < < n < , 0 < r < n n, r : 1< n!/r! < < n!/(n r)! < x, y < ' x 2 + y 2 < < r < : sinx a, b, c < < b, c x < < x < x > 0: < ylogx < 100 x = 0: y > 0 m x < 0: y = n, 2n+1 m, n : < y log x < 100 y > 0: x 0, < 1/x logy < 100 y = 0: x > 0 y < 0: x = 2n+1, 2n+1 m m 0; m, n : < 1/x log y < ^(x y ), x 'y, 3 ', x!, npr, ncr 1 Mat h ERROR A 88
90 d e 18 A A Math ERROR u u u 0 u u 87 Stack ERROR u u
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92 O O 19 CLR 2 Setup E LR44 2 TWO WAY POWER A 91
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No δs δs = r + δr r = δr (3) δs δs = r r = δr + u(r + δr, t) u(r, t) (4) δr = (δx, δy, δz) u i (r + δr, t) u i (r, t) = u i x j δx j (5) δs 2
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6 2 T γ T B (6.4) (6.1) [( d nm + 3 ] 2 nt B )a 3 + nt B da 3 = 0 (6.9) na 3 = T B V 3/2 = T B V γ 1 = const. or T B a 2 = const. (6.10) H 2 = 8π kc2
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IA hara@math.kyushu-u.ac.jp Last updated: January,......................................................................................................................................................................................