) -(
! "
! " #
$% & '
$% (
)
)*+, -. / 0 . #
1 2 3 4 5 6
(
#$
7 89 :; 1:< =8 + > ?@A -
B *C D E -< . F& $#
72*; 2 G .
Hyalomma anatolicum anatolicum
9 Boophilus microplus
728 C*+ H
-I H J $ *
.
K L :' 0 M9 H 7 89 H : N+ '9 + > N;O9
)
4 P4 P
PP Q QP
KDa (
2 R7 H
H. anatolicum anatolicum -
7 S 7 89 : F& &: !K $TB78 F
B. microplus
-I H J $ * 1 ;& - 0 H9@ + .
.
S 7 89 ;8 < N. #
D E F < 7 H. anatolicum
anatolicum 9
B. microplus -A ?)<
U,
=V &
/
$&
,
=V &
/
- * W < $&
.
*R. 0 0 J&, @
:; *< FJ X. Y*7
7 89 D E # Z
2 - [ 7T* &
.
Protein bands of the cuticle of Hyalomma anatolicum anatolicum and Boophilus
microplus using electrophoresis technique
L.Y. Khalil
Department of Microbiology, College of Veterinary Medicine, University of Mosul, Mosul, Iraq
Abstract
In this study by using SDS-PAGE electrophoresis different bands of cuticular proteins of engorged female ticks,
Hyalomma anatolicum anatolicum and Boophilus microplus, was clarified six different bands of proteins with molecular
weights (182, 68, 67, 66, 57, 56 KDa) of H.anatolicum anatolicum while any band of proteins in Boophilus microplus was not
separated because it dissolved quickly in electrophoresis solution. The cuticular protein determinants of H.anatolicum
anatolicum and B. microplus were 4.7 mg/ml, 1.3 mg/ml, respectively. It may be concluded that protein bands of cuticle could be used as one of taxonomic parameters of ticks.
Available online at http://www.vetmedmosul.org/ijvs
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)
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)
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.(
) -(
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G . -< . F H B 7T*
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p
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=2 &9 [ b. 5 E& C*+ H =R q ;& 1 5 W < ! I N;89
=R -; E*
Stereoscopic dissection
microscope
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ﺧ
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. (Tris-HCl
buffer pH 6.8 containing 5% SDS. 30 mµ EDTA, 25%
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(
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( ) (
.
,
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D E
G . H "I _9 ^& d 0 H H !@ 9
7 H.anatolicum anatolicum H S 72*;
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)
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%
0 M9 $/ 8 > R ' W < >
0 * J H L :
.
x C*R& S 7 89 H 1:< " T F& 0 # F - D E
G . B.microplus
H 72*;
72* ?@A + H
.
) -(
;8 =8 # : # 8
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-!>
x C*R& - D> ; D E
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9 $&
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.
/ &
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x C*R& D E
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0 * #
(
= F -
7 - S 7 89 ?@A $T 0 J& H FJ
.
microplus B
$ * 728 - & C*R $ ; - . H9@
-I H J
0 A r _ - " R 0 # H>9
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2 5 D E 7 - B. microplus
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I> $ ; - 0 H9@ +
) .(
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T C*R& - S 7 89 $T
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Ixodes ricinus
Q 9
- * W < 0 * #
) .(
x C*R S 7 89 L :' 0 M9 !K > ] < 0 #
D E 7 fH * ! B.microplus
?@A 0 H9_ W a:
2H + X D> 6 N 8 # I> $ ; - S 7 89
_
W < 0 J8 W R8 S 7 89 H F& B w& " d
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-+ + F 89 7&9
20-hydroxyecdysone
: !@ 9
2 5 1 TB. < f& 5 BTH X. J8
D E
F< 2
1)ﺧ D
2 l)R. <
W R8 H
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O 9
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) .(
F 8
0 0 e + > ?@A
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W $
A9 - I _ 5 !_9 ^& V
& 8 XH E&
XB%9
) (
X*+ > -
S T C*R 0 F&
D E 7
Ixodes holocyclus
9 H 72*; G . ;89
0 M9 H
L :'
P
& d 0 H N. # 0 * #
- I _9 ^
.
F& D *B - 2 R' 0 M9 iBC78
P W S < +
0 9
?@A =R 0 M9 - 5
D J $ - :
- 89>_ W $T* 2 G . - i y *. F&
[ e W < F& 5 2+ H fH
) (
S 728 C*+ H9
728 $/& B *C& ; R S ;R
L :
lecular
surface films
; ( 6 H =R 9
infra-red
spectroscopy .
2
- E 2 0 H y *7*+ =8
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+ > YI *.9
)
U
(
7 2
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D E
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*H $+)+ W rJB*8 & 7< q2 I _ W 1 ;*8 D V%
*+ D *& S J+9
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Q
.(
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S _ 0 J8 XH % ﺧ - D # D I
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.
0 -&
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