:: LIMFUNC4 semantic presentation
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Lm1:
for g, r being Real st 0 < g holds
( r - g < r & r < r + g )
Lm2:
for f2, f1 being PartFunc of REAL , REAL
for s being Real_Sequence st rng s c= dom (f2 * f1) holds
( rng s c= dom f1 & rng (f1 * s) c= dom f2 )
theorem Th1: :: LIMFUNC4:1
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theorem Th2: :: LIMFUNC4:2
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theorem :: LIMFUNC4:3
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theorem :: LIMFUNC4:4
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theorem :: LIMFUNC4:5
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theorem :: LIMFUNC4:6
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theorem :: LIMFUNC4:7
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theorem :: LIMFUNC4:8
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theorem :: LIMFUNC4:9
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theorem :: LIMFUNC4:10
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theorem :: LIMFUNC4:11
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theorem :: LIMFUNC4:12
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theorem :: LIMFUNC4:13
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theorem :: LIMFUNC4:14
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theorem :: LIMFUNC4:15
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theorem :: LIMFUNC4:16
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theorem :: LIMFUNC4:17
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theorem :: LIMFUNC4:18
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theorem :: LIMFUNC4:19
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theorem :: LIMFUNC4:20
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theorem :: LIMFUNC4:21
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theorem :: LIMFUNC4:22
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theorem :: LIMFUNC4:23
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theorem :: LIMFUNC4:24
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theorem :: LIMFUNC4:25
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theorem :: LIMFUNC4:26
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theorem :: LIMFUNC4:27
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theorem :: LIMFUNC4:28
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theorem :: LIMFUNC4:29
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theorem :: LIMFUNC4:30
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theorem :: LIMFUNC4:31
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theorem :: LIMFUNC4:32
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theorem :: LIMFUNC4:33
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theorem :: LIMFUNC4:34
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theorem :: LIMFUNC4:35
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theorem :: LIMFUNC4:36
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theorem :: LIMFUNC4:37
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theorem :: LIMFUNC4:38
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theorem :: LIMFUNC4:39
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theorem :: LIMFUNC4:40
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theorem :: LIMFUNC4:41
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theorem :: LIMFUNC4:42
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theorem :: LIMFUNC4:43
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theorem :: LIMFUNC4:44
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theorem :: LIMFUNC4:45
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theorem :: LIMFUNC4:46
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theorem :: LIMFUNC4:47
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theorem :: LIMFUNC4:48
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theorem :: LIMFUNC4:49
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theorem :: LIMFUNC4:50
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theorem :: LIMFUNC4:51
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theorem :: LIMFUNC4:52
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theorem :: LIMFUNC4:53
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theorem :: LIMFUNC4:54
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theorem :: LIMFUNC4:55
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theorem :: LIMFUNC4:56
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theorem :: LIMFUNC4:57
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theorem :: LIMFUNC4:58
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theorem :: LIMFUNC4:59
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theorem :: LIMFUNC4:60
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theorem :: LIMFUNC4:61
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theorem :: LIMFUNC4:62
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theorem :: LIMFUNC4:63
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theorem :: LIMFUNC4:64
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theorem :: LIMFUNC4:65
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theorem :: LIMFUNC4:66
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theorem :: LIMFUNC4:67
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theorem :: LIMFUNC4:68
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theorem :: LIMFUNC4:69
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theorem :: LIMFUNC4:70
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theorem :: LIMFUNC4:71
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theorem :: LIMFUNC4:72
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theorem :: LIMFUNC4:73
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for
x0 being
Real for
f1,
f2 being
PartFunc of
REAL ,
REAL st
f1 is_convergent_in x0 &
f2 is_left_convergent_in lim f1,
x0 & ( for
r1,
r2 being
Real st
r1 < x0 &
x0 < r2 holds
ex
g1,
g2 being
Real st
(
r1 < g1 &
g1 < x0 &
g1 in dom (f2 * f1) &
g2 < r2 &
x0 < g2 &
g2 in dom (f2 * f1) ) ) & ex
g being
Real st
( 0
< g & ( for
r being
Real st
r in (dom f1) /\ (].(x0 - g),x0.[ \/ ].x0,(x0 + g).[) holds
f1 . r < lim f1,
x0 ) ) holds
(
f2 * f1 is_convergent_in x0 &
lim (f2 * f1),
x0 = lim_left f2,
(lim f1,x0) )
theorem :: LIMFUNC4:74
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theorem :: LIMFUNC4:75
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for
x0 being
Real for
f1,
f2 being
PartFunc of
REAL ,
REAL st
f1 is_convergent_in x0 &
f2 is_right_convergent_in lim f1,
x0 & ( for
r1,
r2 being
Real st
r1 < x0 &
x0 < r2 holds
ex
g1,
g2 being
Real st
(
r1 < g1 &
g1 < x0 &
g1 in dom (f2 * f1) &
g2 < r2 &
x0 < g2 &
g2 in dom (f2 * f1) ) ) & ex
g being
Real st
( 0
< g & ( for
r being
Real st
r in (dom f1) /\ (].(x0 - g),x0.[ \/ ].x0,(x0 + g).[) holds
lim f1,
x0 < f1 . r ) ) holds
(
f2 * f1 is_convergent_in x0 &
lim (f2 * f1),
x0 = lim_right f2,
(lim f1,x0) )
theorem :: LIMFUNC4:76
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theorem :: LIMFUNC4:77
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for
x0 being
Real for
f1,
f2 being
PartFunc of
REAL ,
REAL st
f1 is_convergent_in x0 &
f2 is_convergent_in lim f1,
x0 & ( for
r1,
r2 being
Real st
r1 < x0 &
x0 < r2 holds
ex
g1,
g2 being
Real st
(
r1 < g1 &
g1 < x0 &
g1 in dom (f2 * f1) &
g2 < r2 &
x0 < g2 &
g2 in dom (f2 * f1) ) ) & ex
g being
Real st
( 0
< g & ( for
r being
Real st
r in (dom f1) /\ (].(x0 - g),x0.[ \/ ].x0,(x0 + g).[) holds
f1 . r <> lim f1,
x0 ) ) holds
(
f2 * f1 is_convergent_in x0 &
lim (f2 * f1),
x0 = lim f2,
(lim f1,x0) )