, . , , . T * q . (P P G I) .
(6.17) , c , , P , G II, , .. . (6.14).
, . h , , ( ).
, h r II = 1, h = h . P G I 1 , , (6.16), P G I.
(P G I) max = L e / V , , . (V = 0) P G I.
h r II (6.8), , . h , . , P G I (. 6.6).
, P G I.
. 6.6.
(L e= 560 /, V = 200 /, h II = 0,96)
, P G I . ,
m opt = = f (L e, L r II, V ). (6.19)
, , , . , . .
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: P G I (. . 6.6), , .. .
, (4.2). P G I (1.2).
, P G I , P . G I G S , , . , , , .
(. . 6.6). . 7.
6.5.
(c II = c I). , c II ¹ c I, P G I , , [9].
6.5.1.
(c II ¹ c I)
:
P = P IG I + P II G II,
P G I = P I + P II m, (6.20)
P I P II :
P G I = c I V + m (c II V ). (6.20)
(5.6), L II L e (6.12):
c I =.
(6.11). L II, :
h II =,
c II =.
L II L II (6.5), L e (6.12),
c II =.
c I c II (6.20),
P G I = V + m.
(6.21)
(6.21) , , ( ) , , , , .
. 5 , , , . , P G I T * p S, , m , V T h , h h II.
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P (6.15), (6.14), h r II (6.13) , , .
6.5.2.
x, , , m= const , P , . ( m= const P G I P , P G I, P .)
x = 0. , - , , . x= 0 .
L II, , L II, p *II, . , . , (. 6.8).
x= 1 , . , m= 1 (6.21). (h II < 1).
. 6.8. (L e = 560 /, V = 200 /, m = 1) |
, x= 0 x= 1 m= 1 ( , h II = 1, ) . , 0 < < 1 , , (. . 6.4). , m ¹ 1.
(6.16) , (L e V ) P G I h . , , , (h I) (h II) . 0 h I, .. c I. h , h II, .. c II (. . 6.8). .
:
x opt = = f (m, h II, L e, V ). (6.22)
(h II = 1), , (6.22),
x opt = =.
L II, , , .. . c II = c I, .
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opt , c II / c I.
(x opt), .
, (6.22).
, . , .
, . , . P = f() m = const . m , . p *II. . .
, P G I , (6.18), . P G I (6.18), .
( " ")
1. () , . ( ) ( ) , , , . .
2. (c V ) P , .. , P (m + 1) 1 , P G I, .. P / G I. (T * p S), (m, ), (V T ) (h , h h II).
3. m = 0() m 1000( ). , , , , .
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4. h r II , , . (h II) ( ) (, ), .
5. . , , , . V = const P . P .
6. h , PV L e G I ( ), h = h r IIh . h L e P G IV , .. 1 , .
7. (x opt), . (c I V )2 / 2 (c II V )2 / 2 . , , ( , .. h II= 1, ) .
8. ( x = x opt) P , P G I . P G I : . , , 6 10. 15 20 30 60 [34].
9. (m opt x opt), P G I( ) , L r II . , T *, L r II (m opt, x opt) ( ).
10. . , , , .. . .