! "
Festuca arundinacea
# $ %& '(
) *
+ , - / 0 1 21
2
+ - 2*
3
1 . -1 '6 7 8 " 9: ; 1
2 . : < =:
> 9: 2 ? 0 @ &
3 . A:
+
$
&B ( B
C "
/ ' 2
" :$ D 1 9:
+ 0 @ &
?
> ! !
) :
6 / 6 / 1391 - :
24 / 11 / 1391 (
=E
) * + , - . / 0
# 0 1234*
5 62 7 4 8/
) (Eucalyptus camaldulensis :8; 2< 8
8;
=8 > ?8 :8@A , 8A
Festuca arundinacea *
A BC D E;
F >
0 G 0 H.
/ 0
# 0 1234*
5
@ A ) 0 H.
+ 1 8 0 58 4 <
? - 5 3 4 - ? - / 0 # I J /
# 0 1234*
5 2 ) 0 .
L A , M $ -
M?
?; 2 # N :
PQ8- :8-
- 5 4 <
? ? - 5 3 4 - PQ- :- 5
/ 0 R3S
# 0 1234*
5 TN 62 7 4 / :/
: U84 V W 2 / F + * # 2%
XY / : 1 Z < [0 \] F T0
? .
;
^ W% _ GE0
` a;
b
` ) B;
:8/ C; A 8TN
62 7 4 8/
8.
:; 2< M?; 5 0 1234*
? = ; 4
`
>
:@A , A Festuca arundinacea .
M $ - L
A , 8 :8 # 28%
+ 1 0 U - GF + :@A > ? , A Festuca arundinacea
? . 0 1234* Z2Q- W b . + 1
L 0
8 , A
# $% 0
M ?;
M? , >
2 .
$
> !F :
0 1234*
/ 62 7 4 :; 2<
; L , A Festuca arundinacea
.
? 2;*
)$30 J2c :
09125622950 Email: atavili@ut.ac.ir
1 . G
? ?1 5 WI ?0 0 1234*
8;2>
` 8 A 8 >
:; 2<
? ; - ) 2[0
:;2>
8- A 8 > , A .
/ 0
# 0 1234*
5 Je 8 I 8E 28 ; ?8
>
A F
? A , F f\
G g242 5 * 8A A 28@
h0 I - 2
423- i2$;
=81 , JY 8I
W N CS
>23<
, b0 f 423- 4 F 8I
G88;*
f 88A fA 88 288 2A J 88 0
88A ,
>
88 A
2@ A , 2
=S % N j=<
a$ 0 G -2 F
c0 1 G - )
B; A MG
h0 A I -
DNA
W k RNA
- ?;
)
Glass, 1974
.(
) F ?8
: b 8 2 f
8 m > 8 WI ?80 8A
8
: S 2 b
f m
0 H.
8 , F A?8 ,
88 S 88 88 88 L 88I ,
>
88A W88 N
? / )
, 2001 Inderjit
.(
:;2<
;
= b - C;
W_
- - f8\
`I ]
>?;
A >
,
? 420 W8n 8 <
8 :8
? * )
Huber, et al.,1996
.(
:;2<
; j* j=8< 8 =
* 6 * S*
: - 3
` , A? F 1
8 1 8 2
=8 88 J 8 ; 28
)
2001 Greipsson,
( W 88 :8/
J F - , 42 f Ii 28 f8oA 8
M , :8 J 8b ;
<
) b0 f 423- 8- ? )
Albeles & Lonsik,
.(1996
< :/ - M? pkC 4
8 5 8-
? D 8E;
) F A?
Cb;
- -
$
? / .
8 # / 0
58 0 * [ 42 4 F i2$; ) < : :/
:;2< , b4 U3S ? / ? 8 A .q ;
r8 1.
= , 8 28 [ 28 \ I
:8;2<
8;
+A 8/
8
:;2<
; 2\s :@A >
A 28 \ b 8- 8[3 N
, + GF
# ?V
= +A /
# I
8 ; 8 /
: D B A 8/
8 . :8;2<
8;
8- 8 0 80 H.
r 1
; G 8-
RNA
) c0 81 DNA
8-
)
et al., 2003 Barsa
.(
, BCA t1 u G>
M /
?;
:/
0 0 H.
r 1
?%
:; 2<
; 28\s , A =8 v 8w
U -*
M?
+ GF ?
)
et al., 2007 Horii
.(
I
88 288 5 3 88 4 - :883 <
? 88- :88
`884G
J2[42 4 B 8- , A 8.
?8 8 283Q , =8>
M 888 > u 888 >
888;
? )
et al., 2008 Krantev
.(
A >
U / 0 : :/ m3 0 42 F , A
`4G 58
W ? 0 , f\ J2[42 y- 1
:8 M > , A + 80
, 8A
- M? : I Q )
et al., 2000 Senaratna
.(
5 3 88 4 -
? 88- U 88- 588 42 F ?88 420 88
288
5 42 F 2
423- : ?A ; 5 2 N
W N 2 F ? /
> 8 C C ; ;
2 )
Burguieres et al., 2007
.(
5 42 F A : 2
+b; A > 0 i
;*
; ? / ?8;
U 8- :8
) I ?; D J [
* , A
? 420 8-20 M?
?8 F
2 8- ? / 8
?;28 )
Burguieres et al., 2007
.(
5 3 4 - :/ - M? . ? -
: 28 8 ,
E0 ;2 C;
2 +A 8/ A > - , A
88
?88A )
et al., 2008 Krantev
( U 88- +A 88/
88.
, A =88>
+ 880 + G88F M 88Q , 88A
2 2A , A f R 0
? / ?8
:83 <
) 8 / 8A
88- ) /2 88A 88 288 )
et al., 2000 Senaratna
.(
88 b + G88F :88;2>
, 88A
Bromus inermis
Agropyron elongatum
# 88 / 0 88 + 880 88
)88C * 588 0 1234*
A288/
? 88- 588 4 < 88-20
u G> f - 1 # ; ? - 5 3 4 - 8- M?8
)
Saberi et al., 2011
( . # 4 Q D E;
M?
pkC
4 - 88- M?88 88
3 5 88-
? 288 \ U88<2 88I
+ 0 , A S M?;
8 > + 0 Wn
>
:8@A , 8A
J I )
et al., 1998
(Dat
> 8- # 8 I 8A
v883 k )
& Saltveit, 2002
(Kang
# G883F + 880
B - )
>
:@A , A 28<
)
et al., 2003 Metwally
(
8- M?
. G8 ; 8B +A t81 ) ?8 ] +8b; :8
: A > y- 1 W ? 0 ? - 5 3 4 - + 0
, 8A
S - M? M M?;
)
Naser-alavi et al., 2008
.(
)88 +A t881 88- ^ 88 ; B; 88
, A =88> .
? 88- 5 3 88 4 - 288 \ , 88 ? 88- 588 4 <
:$4q , A :; 2<
M > ;
Festuca arundinacea
0
34* # / 0 + 0 5 0 12
62 7 4 8/
8- . z?8A
- +A t1 ) .H0
5 3 8 4 - v83 k Z2Q8-
< ? - :; 2< # $% 2 \ ? - 5 4
M 8 > 8;
Festuca arundinacea
b + GF w
# . TN ?;
5 0 1234*
62 7 4 / -
.
2 . H 7
? D ?;
, A 2A 62 7 4 /
`bQ
M 88]
88V :88 ; 88- \
W88 88\
1390
a1 5CI
j -* ?
?;?
. : 5 D 8>
21 : - M? * 100 3 : ? :F w j* 4
#?
24 V [ M B - , N - F >
. a7-
#? : g2 $ ; - M B - 15
:8b V 3
G8A
? M V : TN
- M? * F 8% =S /
) 0
(watman)
? M?; => 5 .
R3S , 8A
25 50 75 100
?%
M?8 g2 $ ; - J23
: \0 ?8 . , A =8 `8;2>
Festuca arundinacea
) +A t1
? . W V , <
+ 8 * ?8
A = : `3 - J23
27 A 3/
f ?8- 5 ?8%
:8
#?
5 :b V ;28$N ?8w a78-
) ?8 ] 8
8
M $ - j*
Qb 2
?;?
)
Saberi et al.,
.(2011
= #? : A 10
? 8- 5 3 4 - N -
100 200 300 3 8 4 D >
24 8 N 8-
? - 5 4 <
125 250 500 D 1 1
Tavili)
et al., 2010
( , 88 25 `88<
; 88- 88>
+ 1 fA ?;? 0 Qb j*
: ?A 2 N
?88 M $ 8- .
8 1 a881 88 0 ?; 88 I
a1 ?;? : Qb j* A = 58CI
?8
+ , 1 A
QV `; A 9
; - , 8
F 88% =88S / )88 0
(Watman)
88 588 , 88
V 8R3S 8 + 80 { 8 ) F >
v83 k , 8A
TN 62 7 4 8/
?8 F > 8V .
+ 8 * :8
# 28%
W 2 / F 7
× 5 XY / Z U4 V F T0
4 [0
) 25 8[0 8A = ?N (
8R3S v83 k , 8A
M 88TN ) 0 5 25 50 75
?88%
( 20 88 g
, 25 `<
; -
>
? D E;
. 58 8
10 :; 2< , A = A M J2 :/ M
:8C 8]
`
* C A 2
3 u 2 ?
)
Kaya et
al, 2006
( :; 2< ?%
:; 2< N - ; J28 ;
:C :V - :]
pI :@A > :]
`
* = 8A
M ?;
?8 , >
. :8; 2< ?8%
8;
)
Camberato &
Mccarty, 1999
( :8; 2< N 8- 8;
)
Maguirw,
(1962
6 -
?;? : - .
)
1 ( :; 2< ?%
G ;
GP=
∑
N ×100
=GP
:; 2< ?%
;
=G
= ? 0 :; 2<
M
=N
= W/ ? 0
) 2 ( :; 2< N -
;
n i i i
GR S
= D
=
∑
1
Si
=
= ? 0 :; 2< , A
u A M
Di
= u 0 ? 0 D n
=n
u # F
) 3 ( pI
= `
i %Gr MSH
V = ×
100
Vi
= pI
`
=
=MSH
> 42 ) B;
@A : ) :C :]
+ :V - :8]
(
U _ 3
=Gr
:; 2< ?%
;
) 4 ( :V - J2 :]
+ :C J2 :]
> J2 = :@A
M , A : - M $ - M? * D ;
G8F
MSTAT-
?;? W 3 0 : GE0C
` b ) B; 8 28 * 8 8A
? ] : F > D E; )[; , .
3 . I/
W88% _ ^ 88 ; 88 GE0
` a; 88 ) J ?88<
1 ( 88C;
L :/ ?A
, A
R3S v3 k , A
M TN . ) @ A
L W b
8 , 8A
R3S 5 0 1234* M TN v3 k , A 62 7 4 8/
80 H .
, 3/
` : 4 Q # $%
M?8 8;2>
`
Festuca
arundinacea
PQ- 5 , * ?%
.
1.3 . '1 , "
)8 W8% _ ^ ; +A t81
8C;
8R3S , 8A
8TN v3 k 58 0 1234*
7 4 8/
62 U 8- +A 8/
:888; 2< ?888%
888;2> , A =888 888;
`
Festuca
arundinacea
?A 8 8 0 ) 8 zY 8I :8/ ?
88R3S 88 M 88TN v883 k , 88A 288
. 88/
L , A U -
:8; 2< ?8% + GF 8;
, A =
Festuca arundinacea
?A 0 : ;
?;?
. : , 2 :8; 2< ?8% ) 0e :/
8;
8 8.
? ) W[
1 .(
. L 8 W b 8 , 8A
8R3S , 8A
88TN v883 k 588 0 1234*
N 88- 88 62 7 4 88/
:; 2<
, A =8 8;
Festuca arundinacea
8
2 . :; 2< N - :/ C; ^ ; :8/ A = ;
R3S { A
8TN v3 k , 8V 58 0 1234*
88 , 88 *
? 88 , .
88TN 588 0 1234*
U 88-
:8; 2< N 8- +A 8/
:8;2> , A =8 8;
Festuca
arundinacea
? . L 8 W b 8 , 8A
0H :; 2< N - n . ;
8 ? : , 28 :8/
3/ /
` L 8 + G8F U8<2 8 , 8A
:; 2< N - ?A 0 : ; ;
? ) W[
2 .(
9 ,*
1 . :;$
<
' / 3 = >? @(
, ()5 <
Festuca arundinacea
h0 + 1 0 0 1234* 0 1234** + 1 0 QI
:; 2<
;
df 6 4 24 105
ss 7510 50147/1 4182/8 4600
ms 1251/6 12376/7 174/2 43/8
F 28/5** 286/1** 3/9** -
N - :; 2<
;
df 6 4 24 105
ss 2/8 19/4 1/4 2/8
ms 0/4 4/8 0/05 0/02
F 17/3** 180** 2/1** -
J2 :C :]
df 6 4 24 105
ss 36/2 175/5 23/4 7/8
ms 6/04 43/8 0/9 0/07
F 81/1** 259/2** 13/1** -
J2 :V - :]
df 6 4 24 105
ss 23/6 239/4 34/8 34/5
ms 3/9 59/8 1/4 0/3
F 11/9** 181/9** 4/4** -
:@A > J2
df 6 4 24 105
ss 117/1 822/6 89 59
ms 19/5 205/6 3/7 0/56
F 34/7** 365/6** 6/5** -
`
=
df 6 4 24 105
ss 487593/6 5455273/4 411955/5 205001
ms 51265/6 1363818/3 17164/8 1952/3
F 41/6** 698/5** 8/7** -
# $0 2<**
PQ- A 0 ) 5
?%
ab ab ab cd ab a cde
def cde cd cde cde bc efg
efg ghij def efg fgh efg kl
hijk jk def kl ghi ghij l
m
lm
kl
lm
ijk hijk
lm 0
10 20 30 40 50 60 70 80 90
mg mg mgmg llll
100 / 200mgmg llllmgmg/ 300mgmgmgmg llll/ 125ppmppmppmppm 250ppmppmppmppm 500ppmppmppmppm
, % - . / % , % - / * ,E
(%)( '()*
025%
50%75%
100%
IJ 1 . 4 0.!1 K )( I L!
M N E O.P
E N 0.!1 QR - $ S)./T U)!V / W
,?
'( )*
(
ab abc ab bcd bc a def
efg cde cde efgh bc ab efgh
ghij ghij lmno efgh fghi efgh lmno
ijkl jklm ijkl klmn hijk efgh lmno
o lmno lmno no klmn ijkl mno
0 0.2 0.4 0.6 0.8 1 1.2 1.4 1.6
mgmg mgmg llll
100 / 200mgmgmgmg llll/ 300mgmg llllmgmg/ 125ppmppmppmppm 250ppmppmppmppm 500ppmppmppmppm
, % - . / % , % - / * ,E
( /X)( '()*R%
025%
50%75%
100%
IJ 2 . 4 0.!1 K )( I L!
M N E O.P
E N 0.!1 QR U)!V / W - $ S)./T R %
'( )*
(
2.3 . :/ J 0 K 2 E
L7 ! E
L W b .
, A
R3S v83 k , A
TN 5 0 1234*
62 7 4 / :C J2
:]
8
2 . /
? - 5 4 <
- U :C J2 2 \ :]
+ 0 TN
58 0 1234*
62 7 4 8/
8
? .
:C J2 + GF ) C 8R3S / :]
ppm
250 ? - 5 4 <
: ? * - )
W[
3 .(
L 8 W b . 8 , 8A
8R3S , 8A v3 k
TN 5 0 1234*
62 7 4 / :V - J2
:8]
G ; 2
. e :V - J2 ) 0
+ 0 :]
+ 0 S ?8 * 8-? ? 8- 5 4 < / .
.
88R3S v883 k , 88A 88TN
588 0 1234*
62 7 4 88/
:V - J2 +A / U<2 :8@A > :]
, 8A
Festuca
arundinacea
? . L 8 W b 8 , 8A
:V - J2 + GF U<2
+ 0 :]
TN
5 0 1234*
62 7 4 / ?
+ GF ) :/
5 PQ-
?%
- ) W[
4 .(
L W b 8 , A
8R3S v83 k , 8A
TN 58 0 1234*
62 7 4 8/
G8 ; :8@A > J28 8
- ) W[
5 ( : , 2 + G8F 8 :/
8R3S
TN 0 1234*
5 8 : - / :@A > J2 28
.
L 8 W b J28 + G8F U8<2 8 , 8A
88 + 880 88 :88@A >
88TN 588 0 1234*
62 7 4 / ?
) W[8 5 .(
:8@A > J28 ) 0e 8
+ 0 S + 0 R3S / .
, 8A 250
500 ppm
? - 5 4 <
:
? * - . 3.3
.
& MN B O
P
b
` ) B;
8 8C; 8A W8 b 8. :8/ ?8A
L 8 , A 8R3S
8TN v83 k , 8A
5 0 1234*
pI 62 7 4 /
` 8 G8 ; =
- . M 8TN 8R3S + G8F :/ C; ^ ;
pI
` :8 8 ; +A / ) :/ ? : - / =
?A 2
. W b L
, A
`
:;2> : + GF = 8 + G8F ) 8C :/ ,
R3S /
250 500 ppm
8 ? 8- 58 4 <
:
? * - )
W[
6 .(
ef fghi efg fgh a b c
ef hi fgh fgh b de cd
ij klm lmn ghi fg ef ef
jkl opq mno jk j no o
s r qr opq mno pqr op
0 1 2 3 4 5 6
mg mg mg mg llll
100 / 200mgmgmgmg llll/ 300mgmgmgmg llll/ 125ppmppmppmppm 250ppmppmppmppm 500ppmppmppmppm
, % - . / % , % - / * ,E
(cm)'Y 'Z 9)
025%
50%75%
100%
IJ 3 . 4 0.!1 K )( I L!
M N E O.P
E N 0.!1 QR U)!V / W - $ S)./T 9)
'Z 'Y
efg fgh cdefg bcde b a bc
efgh fghi defg cdef b bcde bcd
hij ijk jklm hij fghi jkl defg
fghi klmn jklm mn ghij klmn lmn
o no no no klmn mn n
0 1 2 3 4 5 6 7
mg mgmg mg llll
100 / 200mgmgmgmg llll/ 300mgmg llllmgmg/ 125ppmppmppmppm 250ppmppmppmppm 500ppmppmppmppm
, % - . / % , % - / * ,E
(cm )'Y '[% 9)
025%
50%75%
100%
IJ 4 . 4 I L!
0.!1 K )(
M N E O.P
E N 0.!1 QR U)!V / W - $ S)./T 9)
'[ % 'Y
efg ghi efg def a a bc
fg ghi efg efg b cde cd
ij jk kl hij fgh hi efg
hij lmno kl klm hij lmn lmno
q p op nop klmn nop mnop
0 2 4 6 8 10 12
mgmg mgmg llll
100 / 200mgmgmgmg llll/ 300mgmgmgmg llll/ 125ppmppmppmppm 250ppmppmppmppm 500ppmppmppmppm
, % - . / % , % - / * ,E
(cm)'\E5 9)
025%
50%
75%100%
IJ 5 . 4 0.!1 K )( I L!
M N E O.P
E N 0.!1 QR U)!V / W - $ S)./T '\E 5 9)
cd
a
b
def
c
cde
cd gh
cc
fgh
efg
hh lm
iji
ij
ijkl
lm
ijk nomn
ijkl
no
jkl
no
kl nonomn
no
no
no
o0
100 200 300 400 500 600 700 800 900
mgmg mgmg llll
100 / 200mgmg llllmgmg/ 300mgmgmgmg llll/ 125ppmppmppmppm 250ppmppmppmppm 500ppmppmppmppm
, % - . / % , % - / * ,E
X ' ]^
025%
50%75%
100%
IJ 6 . 4 0.!1 K )( I L!
M N E O.P
E N 1 0.!
QR U)!V / W - $ S)./T ]^
<
X
4 . R(
+ ! A
z?A D E;
+A t1 w _ 28 : w F ) + *
:/
+ 1 0 58 4 < ? - 5 3 4 - , -
? - ?; 20 : 8. 8 b0 8 W8 / 2 ?8;
588 0 1234* # 8 / 0 62 7 4 88/
, 8 q
:88$4 , 88A
<
:; 2 M > = ;
Festuca arundinacea
+A /
?A . ) +A t1 5 3 8 4 - v83 k Z2Q- .
+ G88F 88 ? 88- 588 4 < ? 88- :88; 2<
88;
q :88$4 M 88 > ?88 , 88A
Festuca arundinacea
? . u G>
A ‚2TI M $ 8-
L 8 , 8A
? - 5 4 < ? - 5 3 4 - # 8 ;
:; 2< 2 \ f - 1 8 + 80 8 ? ;
# / 0
* 5 0 1234 A2/ )C *
28<
)
et al.,
2011 (Saberi
.
;
^ : - M? * +A t1 , 8A
&
Saltveit
)Kang
( 2000 et al. Tasgin
) ( 2003
; 8 G
B;
* 8- L ? - 5 3 4 - :/ -
, :8; 2<
8;
=8 ?8 :8@A >
8- . 8/
5 3 88 4 -
? 88- 288 \ 88 :88; 2<
m88 88;
88n I 88/
J 88[
J 88 F t 88 / 88 * , 88A
u G>
- M?
)
& Sung, 1997
(Hus
. + 1 8 0
=88 , 88- U 88-
+ G88F 88 ;*
?88 ; ; ? 88 /
0 023>
= # 2[-* 2 ) :/ 2
f G;*
8A
? 7 4 2 - ? / 1 4 F 83_
` :8; 2<
8;
+A 8/
8 ?88 A :8E ;
U 88- ?88% + G8F
:; 2<
8;
8 ?;28 )
et al., 1999 Baalbaki
( . )8
-
? : 2 ,
8 J b ; 2 8 E0 8
2 8A ,
-
>
A 8 +A 8/
?8A )
López et al.,
(.1999
) @ A U -* F
8 2 0 ? 8 / , 8A
:; 2<
4 I ; )
1962 Maguirw,
(.
8 M Y8N
0H . , 4 - :/
3 5 -
? GF + > ?8 8A
; + 0
^ +A t1 A w _ 8
)
/ 0 U 3 F 3_
`
? : 4 8 :8\< 2 D B A
; + 0 5 0 1234* # / 0
62 7 4 /
; G C;
. M TN R3S + GF U -
:8; 2< +A 8/
8;
:@A > ? , A
Festuca arundinacea
? . +A /
:; 2<
; ?; 20 :
>?; . 3N /234*
J [ A
<
4 )
? .
@ A ) :; 2< vV20
; )8[
h0 : - 8
4 F 8 G8;*
f 8A :8/
, J 8b ;
/ 0
# Ii M , :; 2<
; . 8 ; =>
28 M )
Glass, 1974
.(
80 H I 28 L 8 0 8
M Ii , F ,?
Xe2 :/
: :; 2< N - ;
88 ƒ 88$0 =88 88 ?88 F
288 / :88 88E ?88; 20
F
* M
$ 0 , A 2
28 / :8 E \;
J 8[ /234* { :/ , = ATP
8A
?88 88E 588 42 ,g 88; , 88A
88 \;
:; 2< +A / :@A > ? ;
A 2 )
Cirac et
al., 2004
.(
;
^ +A t1 C;
A
? :/
< 8/
4 8 5
? - : 2 ,
:; 2<
?8 ; :8@A >
, 8A
Festuca arundinacea
S + 0 + 0
588 0 1234* # 88 / 0 88 62 7 4 88/
G88F + .
2 2A A ,
>
A
< Wn 4
5 -
? 8 +8b;
\ F
? :8; 2<
8;
?8 8$
8 ?8 /
)
Saberi & Tavili, 2010
(.
< 888I J 888-
<
4 5 -
? , = ?8; 20 ) 8 [ U 8-
= j 2I
> b - :@A
28 )
Dunand, 1992
.(
L n . W e [ ?8 ; 8 , 8A
? ? - 5 4 <
4
` :8@A >
, 8A
Festuca
arundinacea
; ? - J 0 : „2 …e _
M?8; 2 +A / = ;2 2A ?8 ; ?8
? 88- 5 G 88 *
(ABA)
88- . ) 4 88 <
G 88- 88A
f G;*
:/ [ 4 ? A , A e
` 8V ; 28c4*
+ GF ?;
?8 A . f G8;*
, 8A G 8- :8 M?8
J 88b ; D 788- ?;
88
?88 U 88- 88 GE0
` , =88S
M Ii :8; 2< , D e ,g ; ) H0 , ?8 8;
?;2 )
Cirac et al., 2004
.(
: 2 3/
:8/ C; ^ ; + 81
8 0 , 8-
=
\ M 58 4 < ? 8- 5 3 8 4 - , 8 >
? 88- U 88- # $88% 288 \ :88; 2<
M 88 > ?88 88;
Festuca arundinacea
# 8 / 0 8 + 0
5 0 1234*
62 7 4 8/
8 28 . 8R3S 250
ppm
500 ?8 0 , 8 ? - 5 4 <
W 8.
8$ , =8>
88TN 588 0 1234*
62 7 4 88/
M 88 > 88
Festuca
arundinacea
\ C 1 2
. ) 280
, <
Mg 1 , A _Y%
8 = 1 = + 1
? 88- 588 4 < W88 V 88- 288 88/
+ 1
, - 0
8/
u ) ?8 80 U 8-
+ G8F
?%
:; 2<
;
\ b - :@A >
,?8 420 , 8A
? .
REFERENCES
1. Albeles, F.B., and Lonsilk, J. 1996. Stimulation of lettuce seed germination by ethylene. Plant Physiology 44, 277-280.
2. Baalbaki, R.Z., Zurayk, R.A. Blelk, M.M. and Tahouk, S.N., 1999. Germination and seedling development of drought tolerant and susceptible wheat under moisture stress. Seed Sciences and Technology 27, 291-302.
3. Barsa, S. M. A., Pannu, I. A. and Afzal, I., 2003.
Evaluation of seedling vigor of hydro and matriprimed wheat (Triticum aestivum L.) seeds.
International Journal of Agriculture and Biology 5(2),121–123.
4. Burguieres, E., McCu, P., Kwon, Y.I., Shetty, K., 2007. Effect of vitamin C and folic acid on seed vigour respondent phenolic-linked antioxidant activity. Bioresource Technology 98 (7), 1393-1404.
5. Camberato, J. and Mccarty, B., 1999. Irrigation water quality: part I. Salinity. South CarolinaTurfgrass Foundation News 6, 68 pp.
6. Cirac, C., Ayan, A.K. and Kevseroglu, K., 2004.
The effects of light and some presoaking treatments on germination rate of Worth seeds.
Pakistan Journal of Biological Sciences 7, 182- 186.
7. Dat, J.F., Foyer, C.H., and Scott, I.M., 1998.
Changes in salicylic acid and antioxidants during induced thermotolerance in mustard seedlings. Plant Physiology 118, 1455-1461.
8. Dunand, R. T., 1992. Enhancement of seedling vigor in rice (Oryza sativa L.) by seed treatment with gibberellic acid. In Progress in plant growth regulation. (eds. C.M. Karssen, L.C. van Loon and D. Vreugdenhil). pp 835-841, Kluwer Academic Publishers, London.
9. Glass, A. D. M., 1974. Influence of phenolic acids on ion uptake. III. Inhibition of potassium absorption. Journal of Expert in Botany 25, 1104-1113.
10. Greipsson, S., 2001. Effects of stratification and GA3 on seed germination of a sand stabilising grass Leymus arenarius used in reclamation.
Seed Science and Technology 29, 1-10.
11. Horii, A., McCue, P. and Shetty, K., 2007.
Enhancement of seed vigour following insecticide and phenolic elicitor treatment.
Bioresource Technology 98, 623–632.
12. Huber, H., Stuefer, J.F. and Willems, J.H., 1996.
Environmentally induced carry-over effects on
seed production, germination and seed performance in Bunium bulbocastanum. Flora 191, 353-361.
13. Hus, J.L. and Sung, J.M., 1997. Antioxidant role of glutatnione associated with accelerated agina and hydration of triploid Warermelon seeds.
Physiologa Plantarum 100, 967-974.
14. Inderjit, W, J., 2001. Allelopathy symposium:
Soil Environment effects on allelochemicals activity. Agronomy Journal 93,79-84.
15. Kang, H.M. and Saltveit, M.E., 2002. Chilling tolerance of maize, cucumber and rice seedlings leaves and roots are differently affected by salicylic acid. Physiologa Plantarum 115, 571- 576.
16. Kaya, M. D., Okcu, G., Atak, M., Cıkılı, Y. and Kolsarıcı, O., 2006. Seed treatments to overcome salt and drought stress during germination in sunflower (Helianthus annuus L.).European Journal of Agronomy 24, 291–
295.
17. Krantev, A., Yordanova, R., Janda, T., Szalai, G. and Popova, L. 2008. Treatment with salicylic acid decreases the effect of cadmium on photosynthesis in maize plants. Journal of Plant Physiology 165(9), 920-931.
18. López, M., Humara, J. M., Casares, A. and Majada, J., 1999. The effect of temperature and water stress on laboratory germination of Eucalyptus globulus Labill. seeds of different sizes. INRA, EDP Sciences 57: 245-250.
19. Maguirw, I. D., 1962. Speed of germination aid in selection and evaluation for seedling emergence and vigour. Crop Science 2, 176-177.
20. Metwally, A., Finkmemeier, I., Georgi, M. and Dietz, K.J., 2003. Salicylic acid alleviates the cadmium toxicity in barley seedlings. Plant Physiology 132, 272-281.
21. Naser-alavi, S.M., Safari, G.h. and Govahi, M., 2008. The effect of salicylic acid on germination in Brassica napus L. under drought stress. The First National Iranian Seed Science and Technology Report. 210 pp.
22. Saberi, M. and Tavili, A., 2010. Evaluation different priming treatments influences on Puccinella distans germination characteristics.
Iranian Journal of Range and Desert Research17(1),60-73.
23. Saberi, M., Shahriari, A.R., Tarnian, F., Jafari, M. and Safari, H., 2011. Influence of seed
species under allelopathic components. Frontiers of Agriculture in China, 5 (3), 310-321.
24. Senaratna, T., Touchel, D., Bumm, E. and Dixon, K., 2000. Acetyl salicylic acid induces multiple stress tolerance in bean and tomato plants. Plant Growth Regulation 30, 157-161.
25. Sharikova, F., Sakhabutdinova, A., Bezrukova, M., Fatkhutdinova, R. and Fatkhudinova, D., 2003. Changes in the hormonal status of wheat seedling induced by salicylic acid and salinity.
Plant Science 164, 317-322.
Effect of salicylic acid on freezing tolerance in winter wheat leaves. Plant Growth Regulation 41, 231-236.
27. Tavili, A., Saberi, M. and Shahriari. A. R. 2010.
Effects of different treatments on improving seed germination and initial growth properties in Zygophyllum eurypterum Boiss. & Buhse and Zygophyllum eichwaldii C.A.M. Watershed Management Research Journal (Pajouhesh &
Sazandegi) 86, 64-69.