D J- V 17 T / E / T F H / R
D J - V 4 7 T / E / T 1 / T 2
S e r v ic e Ma n u al
C O N T E N T S
S P E C I F I C A T I O N S ( D J - V 1 7 )
G e n e r a l ( D J - V 1 7 ) ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... 2
Tra ns m itt er ( D J - V 1 7 )
R e c ei v er ( D J - V 1 7 ) .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. ..2
G e n e r a l ( D J - V 4 7 ) .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. 3
Trans mit ter ( D J - V 4 7 ) .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. . 3
R e c ei v er ( D J - V 4 7 ) .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. ..3
C I R C U I T D E S C R I P T I O N
1 ) R e c ei v er S y s t e m .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .4
2 ) Tr a nsm itte r S y s t e m .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. . 6
3 ) PLL Sy nt he s ize r C ir c u it .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. . 6 ,7
4 ) C P U & Per iph era l C ir ui ts .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .7 ,8
5 ) M 3 8 2 6 8 M C A - 0 7 7 G P ( X A 1 1 2 1 )
S E M I C O N D U C T O R D A T A
1 ) N M J 2 0 7 0 M T 1 ( X A 0 2 1 0 )
2 ) S 2 4 C S 6 4 A 0 1 - J 8 T 1 G ( X A 1 1 1 7 ) .. .. .. .. .. .. .. .. .. .. .. ..1 1
3 ) M 6 2 4 2 9 F P / C F 0 J ( X A 1 1 1 8 )
4 ) L M 2 9 0 2 P W R ( X A 1 1 0 6 )
5 ) T A 3 1 1 3 6 F N ( E L ) ( X A 0 4 0 4 )
6 ) S 8 0 8 4 5 C L N B - B 6 6 - T 2 G ( X A 1 1 2 0 )
7 ) M B 1 5 E 0 7 S R ( X A 1 1 0 7 )
8 ) X C 6 2 0 2 P 5 0 2 M R ( X A 1 1 1 9 )
9 ) T r a n s i s t o r , D io d e a n d L E D O u t l i n e Draw ing.... .16
10 ) LC D C o n n e c t i o n ( E L 0 0 5 9 )
E X P L O D E D V I E W
1 ) F ro n t V i e w .
2 ) R e a r V i e w .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. . 18
. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. . 17
.. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. . 2
.. . . . . . . . . . . . . . . . . .
.. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. 1 1
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. ..
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
. . . . . . . . . . . . . . . . . . .
.. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. ..
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
.. .. .. .. .. .. .. .. .. .. .. .. .. ..
8 - 1 0
12
12
13
13
14
15
16
P A R T S L I S T
M A IN U n it ( D J - V 1 7 )
M e c ha ni c a l U n it ( D J - V 1 7 )
Pac king U n it ( D J - V 1 7 ) ... ... ... ... ... ... ... ... ... ... ... ... ... ... . 2 5
M A I N U n it ( D J - V 4 7 )
M e c ha ni c a l U n it ( D J - V 4 7 )
Pa ck in g U n it ( D J - V 4 7 ) .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. . 3 2
A D J U S T M E N T
1 ) Required Te s t Equipme nt .. .. .. .. .. .. .. .. .. .. .. .. . 3 3 , 3 4
2 ) P r e p a r a t io n .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. . 3 4
3 ) Adj ustment M od e
4 ) R e -a s s e m b l y ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... ... . 4 2
P C B O A R D V I E W
M A I N S I D E A ( D J - V 1 7 ) ... ... ... ... ... ... ... ... ... ... ... ... ... ... 4 3
M A I N S I D E B ( D J - V 1 7 ) ... ... ... ... ... ... ... ... ... ... ... ... ... ... 4 4
M A I N S I D E A ( D J - V 4 7 ) ... ... ... ... ... ... ... ... ... ... ... ... ... ... 4 5
M A I N S I D E B ( D J - V 4 7 ) ... ... ... ... ... ... ... ... ... ... ... ... ... ... 4 6
S C H E M A T I C D I A G R A M ( D J - V 1 7 )
S C H E M A T I C D I A G R A M ( D J - V 4 7 )
B L O C K D I A G R A M ( D J - V 1 7 )
B L O C K D I A G R A M ( D J - V 4 7 )
.. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. ..
. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .
.. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. ..
. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. 3 2
.. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. .. ..
. . . . . . . . . . . .
. . . . . . . . . . . .
. . . . . . . . . . . . . . . . . . . . . .
. . . . . . . . . . . . . . . . . . . . . .
1 9 - 2 4
2 4 , 2 5
2 6 - 3 2
3 5 - 4 2
4 7
4 8
4 9
5 0
A L I N C O , i n c
S PE CIF ICA TI ONS (D J - V 1 7 )
G e n e r a l
Fr e q u e n c y ran g e : T: T X 1 4 4 ~ 1 4 7 . 9 9 5 M H z
R X 1 3 0 - 1 7 3 . 9 9 5 M H z
E / E U K : T X 1 4 4 ~ 1 4 5 . 9 9 5 M H z
R X 1 4 4 - 1 4 5 . 9 9 5 M H Z
T F H / R : T X 1 3 6 - 1 7 3 . 9 9 5 M H z
R X 1 3 0 - 1 7 3 . 9 9 5 M H z
* G u a r a n te e d ran ge
* 1 4 4 - 1 4 7 . 9 9 5 M H z
* 1 4 4 ~ 1 4 7 . 9 9 5 M H z
* 1 4 4 ~ 1 4 5 . 9 9 5 M H z
* 1 4 4 ~ 1 4 5 . 9 9 5 M H z
* 1 5 0 - 1 7 3 . 9 9 5 M H z
* 1 5 0 - 1 7 3 . 9 9 5 M H z
M o d u l a ti o n :
Fr e q u e n c y s t e p :
M e m o r y cha nne l :
A n t. im pedance:
Fr e q u e n c y s t a b i l i t y :
M ic impedance:
Sup pl y vol ta ge:
Cu rr e nt c o n s u m p ti o n :
T e m p e r a t u r e ra n g e :
G ro u n d :
Dim en s io n :
Weight:
D T M F :
S u b au dibl e T o n e ( C T C S S ) :
S u b au dibl e T o n e (C T S ) :
F 3 E ( F M )
5, 10, 1 2 . 5 , 15 , 2 0 , 2 5 , 3 0 k H z st ep
2 0 0 ch ann el s + 1 c a l l ch ann el + 1 R e p e a t e r -A c c e s s f u n ct io n m em ory
5 0 Q unb al anced
± 5 p p m
2 k Q
D C 7 . 0 - 1 6 . 0 V ( E X T D C - I N )
1 .4A (ty pic al ) T ran sm it h i g h a t 5 W
2 5 0 m A (ty p ic a l ) R e c e iv e a t 5 0 0 m W
7 0 m A (ty pic al ) S ta nd by
2 5 m A (ty pic al ) B a tte ry save o n
E xternal DC: - 1 0 ° C ~ + 6 0 ° C ( + 1 4 ° F ~ + 1 4 0 ° F )
Ba tte ry p a c k s : - 1 0 ° C ~ + 4 5 ° C ( + 1 4 ° F ~ + 1 1 3 ° F )
N eg at ive g ro u n d
5 8 ( W ) x 1 1 0 ( H ) x 3 6 . 4 ( D ) m m
( 2 . 2 8 " ( W ) x 4 .3 3 " ( H ) x 1 ,4 3 " (D ))
( w it h E B P - 6 5 )
A p p ro x. 2 8 0 g ( 9 . 9 o z )
( w it h E B P - 6 5 )
16 B u tt o n s Key p a d
e n c o d e r / d e c o d e r in s t a l l e d ( 3 9 ton es )
e n c o d e r / d e c o d e r in s t a l l e d ( 1 0 4 c o d e s )
Tra nsm itter
P o w e r o u t p u t :
M o d u l a ti o n :
Spu rio us e m is s io n :
Ma x. d e v ia ti o n :
M ic . impedance:
R ec ei ver
System:
S e n s it iv i ty :
In te rm ed ia te freque nc y:
Se l e c t iv it y :
A F o u t p u t :
2
A p p ro x. 5 W ( w it h E B P - 6 5 )
A pp rox . 5 W ( w it h D C 1 3 . 8 V )
A pp rox . 0 . 8 W ( L O W o u t p u t )
V ar ia bl e rea c ta nc e
- 6 0 d B or l e s s
± 5 k H z
2 k Q
Dou bl e-con version s up er hete rod yne
- 1 4 . 0 d B / z ( 0 . 2 / z V ) o r l e s s
1 s t IF 2 1 . 7 M H z 2n d IF 4 5 0 k H z
-6dB: 1 2 k H z or mo re
-6 0 dB : 2 6 k H z or l e s s
5 0 0 m W (M A X )
4 0 0 m W (8 Q, 1 0 % d is t o rt io n )
S PE CIF ICA TI ONS (D J - V 4 7 )
G e n e r a l
Fr e q u e n c y ran g e :
T : T X 4 2 0 ~ 4 4 9 . 9 9 5 M H z * 4 2 0 ~ 4 4 9 . 9 9 5 M H z
R X 4 0 0 ~ 4 7 9 . 9 9 5 M H z * 4 2 0 ~ 4 4 9 . 9 9 5 M H z
E : T X 4 3 0 ~ 4 3 9 . 9 9 5 M H z * 4 3 0 ~ 4 3 9 . 9 9 5 M H z
R X 4 3 0 ~ 4 3 9 . 9 9 5 M H z * 4 3 0 ~ 4 3 9 . 9 9 5 M H z
T 1 : T X 4 0 0 ~ 4 5 9 . 9 9 5 M H z * 4 0 0 ~ 4 2 9 . 9 9 5 M H z
R X 4 0 0 ~ 4 5 9 . 9 9 5 M H z * 4 0 0 ~ 4 2 9 . 9 9 5 M H z
T2 : T X 4 4 0 ~ 4 7 9 . 9 9 5 M H z * 4 5 0 ~ 4 6 9 . 9 9 5 M H z
R X 4 4 0 ~ 4 7 9 . 9 9 5 M H z * 4 5 0 ~ 4 6 9 . 9 9 5 M H z
* G u a r a n te e d range
M o d u l a ti o n :
Fr e q u e n c y s t e p :
M e m o r y cha nne l :
A n t. im pedance:
Fr e q u e n c y s t a b i l i t y :
Mic impedance:
S up pl y vol ta ge:
Cu rr e nt c o n s u m p ti o n :
T e m p e r a tu r e ra n g e :
G ro u n d :
Dim en s io n :
Weight:
D T M F :
S u b au dibl e T o n e ( C T C S S ) :
Su b au di bl e T o n e (C T S ) :
F 3 E ( F M )
5, 10, 1 2 . 5 , 15 , 2 0 , 2 5 , 3 0 k H z st ep
2 0 0 ch ann el s + 1 c a l l ch ann el + 1 R e p e a t e r -A c c e s s fu n c t io n m em ory
5 0 Q unb al anced
± 2 . 5 p p m
2 k Q
D C 7 . 0 - 1 6 . 0 V ( E X T D C - I N )
1 ,7A (ty pic al ) T ran sm it h i g h a t 5 W
2 5 0 m A (ty p ic a l ) R e c ei v e a t 5 0 0 m W
8 0 m A (ty pic al ) S ta nd by
2 7 m A (ty pic al ) B a tte ry save o n
E xternal DC: - 1 0 ° C ~ + 6 0 ° C ( + 1 4 ° F ~ + 1 4 0 ° F )
Ba tte ry p a c k s : - 1 0 ° C ~ + 4 5 ° C ( + 1 4 ° F ~ + 1 1 3 ° F )
N e ga tiv e g ro u n d
5 8 ( W ) x 1 1 0 ( H ) x 3 6 . 4 ( D ) m m
( 2 . 2 8 " ( W ) x 4 .3 3 " ( H ) x 1 .4 3 " (D ))
( w it h E B P - 6 5 )
A pp rox . 2 8 0 g ( 9 . 9 o z )
( w it h E B P - 6 5 )
16 B u tt o n s Key p a d
e n c o d e r / d e c o d e r in st a l l e d ( 3 9 tones)
e n c o d e r / d e c o d e r in st a l l e d ( 1 0 4 c od e s)
Tra nsm itter
P o w e r o u t p u t :
M o d u l a ti o n :
Spu rio us e m is s io n :
M a x d e v ia ti o n :
M ic . impedance:
R ec ei ver
Sy stem :
S e n s it iv i ty :
I nte rm edi at e freque nc y:
Se l e ct iv it y:
A F o u t p u t :
A pp rox . 4 . 5 W ( w it h E B P - 6 5 )
A p p ro x. 5 W ( w it h D C 1 3 . 8 V )
A p p ro x. 0 . 8 W ( L O W o u t p u t )
V ari ab l e r eac ta nc e
- 6 0 d B or l e s s
± 5 k H z
2 k Q
Dou bl e-con version s up er he terodyne
- 1 2 .0 d B / i ( 0 . 2 5 / i V ) o r l e s s
1 s t IF 3 8 . 8 5 M H z 2nd IF 4 5 0 k H z
-6dB: 1 2 k H z or more
-6 0 dB : 2 6 k H z or l e s s
5 0 0 m W (M A X )
4 0 0 m W (8 Q , 1 0 % d is t o rt io n )
3
C IR C U IT D E S C R IP T IO N
1 ) R ec ei ver S y s t e m
D J - V 1 7 :The r e cei ver sy stem i s a dou bl e su per he te ro dy ne sy stem w it h a 2 1 . 7 M H z f i r s t IF and a 4 5 0 k H z
sec ond I F .
D J - V 4 7 T h e rece iver system i s a d o ub l e s up erh et er ody ne system w it h a 3 8 . 8 5 M H z f ir s t IF and a 4 5 0 k H z
sec ond I F .
1 . F r o n t E n d
D J - V 1 7 T h e rec eived si g n a l a t an y f r e qu e nc y i n the 1 3 0 . 0 0 0 - t o 1 7 3 . 9 9 5 - M H z
(E v e rs io n : 1 4 4 . 0 0 0 - t o 1 4 5 . 9 9 5 - M H z ) range i s pa ssed th ro u g h the
l o w-pass fil t er ( L 1 0 1 , L 1 0 2 , L 1 0 3 , L 1 1 3 , C 1 0 8 , C 1 2 0 , C 1 2 1 , C 1 2 4 ,
C 1 2 5 , C 1 2 6 , C 1 2 7 and C 1 7 6 ) and AT T (At tenuator) c i r c u it ( Q 1 2 0 ,
R 1 6 1 , R 1 8 7 and D 1 1 2 ) , and tu n in g c i r c u it ( C 1 9 2 , C 1 9 3 , C 2 1 5 , C 2 1 6 ,
D 1 1 5 , D 1 1 6 , L 1 2 5 and L 1 2 6 ) , then am pl i fied b y the R F ampl ifier
( Q 1 1 4 ) . T h e s i g n a l fr o m Q 1 1 4 i s then pa ssed th ro u g h the tu n in g
c i r c u it ( C 2 0 0 , C 2 0 1 , C 2 1 9 , C 2 2 0 , D 1 1 7 , D 1 1 8 , L 1 2 8 and L 1 2 9 ) and
converted i n t o 2 1 . 7 M H z b y the mix er ( Q 1 1 6 ) . T h e tu n in g c i r c u i t ,
wh ich c o n s is t s o f C 1 9 2 , C 1 9 3 , C 2 1 5 , C 2 1 6 , L 1 2 5 , L 1 2 6 , variab l e
c ap a c it a n c e diod es D 1 1 5 and D 1 1 6 and C 2 0 0 , C 2 0 1 , C 2 1 9 , C 2 2 0 ,
L 1 2 8 , L 1 2 9 , var iab l e c ap a c it a n c e diodes D 1 1 7 and D 1 1 8 , i s
co n tr o l l e d b y the tr a c k in g vol ta ge fr om the C P U s o th a t i t i s op tim ized
fo r the re ce pt ion fr equ enc y. T h e l o c a l si g n a l fr o m th e V C O i s pas sed
thr ou gh the b u f fe r ( Q 1 1 3 ) , an d su p p l i ed to the source o f the mi x er
( Q 1 1 6 ) . T h e r a d io uses the l ower si de o f the s up erh et er ody ne
syst em .
D J - V 4 7 T h e rec eived si g n a l a t a ny fr e qu e nc y i n the co v e ri n g range ( T v e rs io n
: 4 0 0 . 0 0 0 - t o 4 7 9 . 9 9 5 - M H z , E ve rsi o n : 4 3 0 . 0 0 0 - t o 4 3 9 . 9 9 5 - M H z , T 1
ve rs io n : 4 0 0 . 0 0 0 - t o 4 5 9 . 9 9 5 M H z , T 2 v e rs io n : 4 4 0 . 0 0 0 - t o
4 7 9 . 9 9 5 M H z ) i s pa ssed thr ou gh the l ow-pass f il t er ( L 1 0 1 , L1 02 ,
L 1 0 3 , L 1 1 3 , C 1 0 8 , C 1 2 0 , C 1 2 1 , C 1 2 4 , C 1 2 5 , C 1 2 6 , C 1 2 7 an d C 1 7 6 )
and A T T (A ttenuator) c i r c u it ( Q 1 2 0 , R 1 6 1 , R 1 8 7 and D 1 1 2 ) , a n d
tu n in g c i r c u it ( C 1 9 2 , C 1 9 3 , C 2 1 5 , C 2 1 6 , D 1 1 5 , D 1 1 6 , L 1 2 5 and
L 1 2 6 ) , then amp l i fi ed b y th e R F a mpl if ier ( Q 1 1 4 ) . T h e si g n a l f ro m
Q 1 1 4 i s then pa sse d th rou gh the tu n in g c i r c u i t ( C 2 0 0 , C 2 0 1 , C 2 1 9 ,
C 2 2 0 , D 1 1 7 , D 1 1 8 , L 1 2 8 and L 1 2 9 ) and converted i n t o 3 8 . 8 5 M H z
b y the mix er ( Q 1 1 6 ) . T h e tu n in g c i r c u i t , wh ich c o n s is t s o f C 1 9 2 ,
C 1 9 3 , C 2 1 5 , C 2 1 6 , L 1 2 5 , L 1 2 6 , variabl e c ap a c ita n ce diodes D 1 1 5
and D 1 1 6 and C 2 0 0 , C 2 0 1 , C 2 1 9 , C 2 2 0 , L 1 2 8 , L 1 2 9 , variab l e
c ap a c it a n c e diod es D 1 1 7 and D 1 1 8 , i s co n tr o l l e d b y the t ra c k in g
vo l tage fr o m the C P U s o th a t i t i s optimized fo r the re c ep ti o n
fr equ enc y. T h e l o c a l s i g n a l fr o m the V C O i s pa ssed thr ou gh the b u f fe r
( Q 1 1 3 ) , and su p p l i ed t o th e source o f the mix er ( Q 1 1 6 ) . T h e T 1 / T 2
v er sio ns use the l o we r s i d e o f the su per he te ro dy ne system wh il e T I E
v er sio ns sw its h es the l ower and upp er system a t 4 2 0 . 0 0 0 M H z ; the
l ow er side foe the fr e qu e nc y u p t o 4 1 9 . 9 9 5 M H z and uppe r side f o r
4 2 0 . 0 0 0 M H z and u p .
4
2. A T T ( A t t e n u a t o r ) C i r c u i t
3. IF C i r c u i t
DJ -V 1 7 T h e m i x e r ( Q 1 1 6 ) mi xe s th e rec eived s ig n a l w it h th e l o c a l s ig n a l t o
Th is c i r c u i t i s u se d i n c a s e th e rec ei v in g s ig n a l i s d is tu rb ed b y
i n t e rf e ri n g signal (s), at tenuating the rec ei v in g signal (s) t o re du ce the
inter fere nce . C P U ( I C 1 0 9 ) ’ s p i n 1 0 ou tp ut s a D C cu rrent t o d ri v e
Q 1 2 0 , c o n t r o l l i n g D 1 1 2 ’ s resis tan ce t o adjus t the att enuation va l ue .
o b ta in th e su m of an d difference be tw ee n th em . T h e c r y st al f il t er
(F L 1 0 1 , F L 1 0 2 ) s el e ct s 2 1 . 7 M H z fr e qu e nc y fr o m th e r es u l t s and
el i m in at es th e si gna l s of the unwanted freq ue ncie s. T h e f ir s t I F
ampl ifier ( Q 1 19 ) then ampl ifies the s ig n a l o f th e sel ect ed f r eq u en c y.
A ft e r the s ig n a l i s am pl i fied b y the f i r s t IF a mpl if ier ( Q 1 1 9 ) , i t i s in p u t
t o p i n 16 of th e de m od ul at or IC ( I C 1 0 3 ) . T h e secon d l o c a l si g n a l o f
2 1 . 2 5 M H z (sh a re d w it h PL L IC ref e re nc e o s c il l a ti o n ), w h ic h i s
o sc il l a te d b y the int ern al o s c il l a ti o n c i r c u it i n I C 1 0 3 an d c ry s t a l
( X 1 0 1 ) , i s i n p u t th ro u g h p i n 1 of I C 1 0 3 . T h e n t h e s e two sign al s a r e
m ix e d b y th e int ern al mix er i n I C 1 0 3 an d th e re s u l t i s co nverted i n t o
the se cond IF s ig n a l w it h a fr e qu e nc y of 4 5 0 k H z . T h e secon d I F
s ig n a l i s o u tp ut fr o m p i n 3 of I C 1 0 3 tot he c er am ic f il t er ( F L 1 0 3 ) ,
w h e r e th e unwanted freq ue nc y b an d of th a t s ig n a l i s el imina ted, and
the r e s u l t in g s ig n a l i s s en t back t o th e I C 1 0 3 th ro u g h 5 p i n s .
4. D e m o d u l a t o r C i r c u i t
5 . A u d i o C i r c u i t
DJ -V 4 7 T h e m i x e r ( Q 1 1 6 ) m ix es th e rec eived s ig n a l w it h th e l o c a l s ig n a l t o
o b ta in th e su m of an d di fference be tw ee n th em . T h e c r y st al f il t er
( F L 1 0 1 ) sel ects 3 8 . 8 5 M H z fr e qu e nc y fr o m the re s u l t s an d el imi na tes
th e si gnal s of the unwanted freq ue ncie s. T h e f ir s t IF a mpl if ier ( Q 1 1 9 )
then am pl ifies th e s ig n a l o f th e se l e ct ed f req uen cy . A ft er th e s ig n a l i s
am pl i fied b y th e f i r s t IF a mp l ifier ( Q 1 1 9 ) , i t i s i n p u t to p i n 16 of the
de m o du l a to r IC ( I C 1 0 3 ) . T h e sec ond l o c a l s ig n a l o f 3 8 . 4 M H z , w h ic h
i s o sc il l a te d b y th e in te rn a l o s c il l a ti o n c i r c u it i n I C 1 0 3 an d o u tp ut of
tr ipl er c i r c u it ( L 1 2 3 , C 2 0 2 , C 1 9 1 , L 1 2 2 , Q 1 1 5 ) , i s in p u t th ro u g h p i n 1
of I C 1 0 3 . T h e n th e s e tw o si gna l s a r e m ix ed b y th e int er n a l mix er i n
I C 1 0 3 and the res u l t i s converted i n t o the sec ond IF s ig n a l w it h a
freq ue nc y of 4 5 0 k H z . T h e sec ond IF s i g n a l i s o u tp ut fr o m p i n 3 o f
I C 1 0 3 tothe c er am ic fil t er ( F L 1 0 3 ) , w h e r e th e unw an ted freq ue nc y
b an d of th a t si g n a l i s el imina ted , an d the re s u l t in g s ig n a l i s s en t b ac k
t o th e I C 1 0 3 th ro u g h 5 p i n s .
T h e sec ond IF si g n a l in p u t via p i n 5 i s de m od ul at ed b y the in te rn a l
l im it e r ampl ifier and Q u a d r a tu re detection c i r c u it i n I C 1 0 3 , an d o u t p u t
a s an au dio s ig n a l th ro u g h p i n 9 .
T h e audio s i g n a l f ro m p i n 9 o f I C 1 0 3 i s c om pe ns a te d t o the audio
freq ue nc y cha racteristics i n th e d e -e m p h a s i s c i r c u it ( R 2 2 3 , R 2 2 4 ,
C 2 4 1 , C 2 4 2 ) and am pl i fied b y th e A F a mpl if ier ( Q 1 9 6 ) . T h e s ig n a l i s
t he n in p u t to p i n 1 of th e el e c tro ni c vo l u m e ( I C 1 0 7 ) for vo l um e
adjustment, and o u tp ut fr o m p i n 2. T h e ad justed s ig n a l i s s en t t o the
audio powe r a mpl if ier ( I C 1 0 6 ) th ro u g h p i n 2 t o d riv e th e spe aker.
5
6 . S q u e l c h C ir cu it
2 ) T ran sm it ter S y s t e m
1 . M o d u l a t o r C i r c u i t
2 . P o w e r A m p l i f i e r C i r c u i t
3 . A P C C i r c u i t
P a r t o f the audio s ig n a l fr o m p i n 9 of I C 1 0 3 i s amp l i fi ed b y the n o is e
fil t er a mp l ifier and th e int er n a l n o ise a mpl if ier i n I C 1 0 3 . T h e des ired
no is e of the si g n a l i s ou tp ut th ro u g h p i n 1 4 of I C 1 0 3 and i n p u t t o p i n
2 of C P U ( I C 1 0 9 ) .
T h e a udi o si gna l i s co nve rte d to an el e c tri c si gnal i n e it h e r the
i nt e r na l o r e x t e r n a l m ic r o p h o n e, a n d input to t h e m ic r o p h o n e
am pl ifier ( I C 1 0 2 ) .
I C 1 0 2 c o n s is ts o f fo u r operational a m p l i fi er s; 1 s t a mpl if ier ( p in s 1 , 2 ,
and 3 ) i s c om pos ed of high-pass f i l t e r , 2nd a mpl if ier ( p in s 12 , 13 , and
14 ) i s compo sed o f pr e -e m ph as is and I D C c i r c u i t s , 3 rd a mp l ifier ( p in s
8, 9 , and 1 0) i s comp ose d o f a sp l a tt er fil t er and 4t h am pl i fie r ( p in s 7 ,
6, and 5 ) i s compo sed o f a sp l a tt er f i l t e r . T h e maximum freq ue nc y
d ev ia ti o n i s d e te r m in e d t o i t s o p ti m al v al ue b y V R 1 0 4 and in p u t t o the
cat ho de o f the var iab l e c ap a c it a n c e di ode o f th e V C O , t o c h an g e the
el ectric cap a c ity i n the o s c il l a ti o n c i r c u i t .
T h e tr ansmitted s ig n a l i s o sc il l ate d b y th e V C O , am pl i fied b y the pre
d riv e am pl i fie r ( Q 1 0 4 ) and d riv e a mpl if ier ( Q 1 0 3 ) , an d in p u t t o the
pow er a mpl if ier ( Q 1 0 2 ) . T h e s ig n a l i s then am pl i fied b y th e pow er
am pl ifier ( Q 1 0 2 ) and l e d t o th e a n te n n a s w it c h (D 1 0 1 and D 1 0 3 ) and
l ow-p ass fil t er ( L 1 0 4 , L 1 0 3 , L 1 0 2 , L 1 0 1 , C 1 0 7 , C 1 0 8 , C 1 0 9 , C 1 1 0 ,
C 1 1 1 , C 1 2 0 , C 1 2 1 , C 1 2 4 , C 1 2 5 , C 1 2 6 , and C 1 2 7 ) , w h e r e un wanted
h i g h ha rm onic si gna l s a r e reduced a s n e ed e d , and the r e s u l t in g
s ig n a l i s su p p l i ed t o the an te nn a.
P a r t of the tran sm is si on power fr om th e l ow- pass fil t er i s d et ect ed b y
D 1 0 5 , converted t o DC, and then amp l i fie d b y a d if fe re n ti a l ampl ifier
( Q 1 1 1 ) . T h e o u tp ut vol tage c o n t ro l s the b ia s vo l tag e fr om th e g a te of
Q 1 0 2 and Q 1 0 3 to ma intain th e tran sm is si on pow er co n s ta n t.
3 ) P L L Syn thes ize r C ir c u it
1 . C P U c o n t r o l
2 . R e f e r e n c e F re q u e n c y C i r c u i t
D J - V 1 7 T h e ref e re nc e fre q u e n c y ap pr op ri at e fo r th e ch ann el steps i s obtain ed
T h e d iv i d in g r a t io i s obtained b y se nding d a ta fr o m th e C P U ( I C 1 0 9 )
t o p i n 10 , and se nding c l o c k p ul s es t o p i n 9 o f th e PLL IC ( I C 1 0 1 ) .
T h e o sc il l a te d si g n a l fro m the V C O i s am pl i fied b y th e b u f fe r ( Q 1 1 8 ) ,
then in p u t to p i n 8 o f I C 1 0 1 . Ea c h pr ogr am m abl e divider i n IC 101
d ivi des th e fr e qu e nc y o f th e in p u t s ig n a l b y N -v a l u e ac cor din g t o the
fre q u e n c y da ta, t o g e n e r a te a comparison fr e qu e nc y of 5 or 6 . 2 5
kH z.
b y d iv i d in g th e 2 1 . 2 5 M H z ref e re nc e o s c il l a ti o n ( X 1 0 1 ) b y 4 2 5 0 o r
3 4 0 0 , acc or di ng to th e d a t a from t h e C P U ( I C 1 0 9 ) . W h e n th e
re s u l t in g fr e qu e nc y i s 5 kH z, ch ann el steps of 5 , 10 , 15 , 2 0 , and 3 0
k H z a r e us ed . W h e n i t i s 6 . 2 5 k Hz , steps o f 1 2 . 5 , 2 5 , and 5 0 k H z a r e
u s e d .
D J -V 47 :The ref ere nc e freq ue nc y app rop ri at e fo r th e ch annel steps i s obta ined
3. P h a s e C o m p a r a t o r C i r c u i t
4 . P L L L o o p F i t t e r C i r c u i t
5. V C O C i r c u i t
DJ -V 1 7 : A C o l p it ts o s c il l a ti o n c i r c u it dr iv en b y Q 1 0 8 d ire ctl y osc il l ate s t h e
b y d iv id in g the 1 2 . 8 M H z ref e re nc e o s c il l a ti o n ( X 1 0 2 ) b y 2 0 4 8 o r
2 5 6 0 , acc or di ng to th e d a t a from t h e C P U ( I C 1 0 9 ) . W h e n th e
re s u l t in g fr e qu e nc y i s 5 k H z , ch ann el st eps of 5, 10 , 15 , 2 0 , and 3 0
k H z a r e u se d . W h e n i t i s 6 . 2 5 k Hz , steps o f 1 2 . 5 , 2 5 , and 5 0 k H z are
u se d .
T h e P LL ( I C 1 0 1 ) uses the ref ere nc e f req uen cy , 5 or 6 . 2 5 k H z . T h e
p h a se c o m pa ra to r i n th e I C1 01 c o m pa re s th e pha se of th e fre que ncy
fr o m the V C O w it h th a t of the compa rison fr equ enc y, 5 o r 6 . 2 5 kH z,
wh ic h i s obtaine d b y the int ern al divider i n I C 1 0 1 .
I f a phase difference i s f o u n d i n the pha se co mparison be tw ee n t h e
re fe ren ce fre qu e nc y and V C O o u tp ut freq u en c y, the c ha rg e pu mp
o u tp ut ( p in 5 ) of I C 1 0 1 g e n e r a te s a p u l s e s ig n a l , w h ic h i s conv erted
to D C v o l ta g e b y the P LL l o o p fi l t e r an d inpu t t o th e v a r ia b l e
c ap a c ita n ce diod e of the V C O u n it f o r o s c il l a ti o n fre qu e nc y c o n t r o l .
de sire d fre q u en c y. T h e fr e qu e nc y c o n t r o l vol ta ge d e te r m in e d i n t h e
C P U ( I C 1 0 9 ) and PL L c i r c u it i s in p u t to th e var ia bl e c ap a c ita n ce
di ode s ( D 1 0 7 and D 1 0 9 ) . This c h a n g e s the o s c il l a ti o n freq u en c y,
wh ic h i s am pl i fied b y the V C O b u f fe r ( Q 1 1 0) and out put f ro m the V C O
u n i t .
DJ -V 47 : A C o l p it ts o s c il l a ti o n c i r c u it dr iv en b y Q 1 0 8 d ire ctl y osc il l ate s t h e
de sire d fre q u en c y. T h e fre qu e nc y c o n t r o l vol tage d e te r m in e d i n the
C P U ( I C 1 0 9 ) and PL L c i r c u it i s in p u t to the var iab l e cap ac ita n ce
di ode s ( D 1 0 9 and D 1 1 0 ) . This c h a n g e s the o s c il l a ti o n freq u en c y,
wh ic h i s am pl i fied b y th e V C O b u f fe r ( Q 1 1 0) and out put fro m the V C O
u n i t .
4 ) C P U a n d P e r ip h e r a l C ir c u it s
1 . L C D D i s p l a y C i r c u i t
T h e C P U tur ns O N the L C D via s e g m e n t and com mo n te rm in al s w i t h
1 /3 the du ty and 1/3
th e b ia s , a t th e fr a m e freq ue nc y of 1 1 2 . 5 H z .
2 . D i s p l a y L a m p C i r c u i t
W h e n the L A M P k e y i s pressed, " L " i s ou tp ut fr o m p i n 4 2 of C P U
( I C 1 0 9 ) to the ba se s of Q 1 5 2 then tu rn s to O N and " H " i s o u tp ut f ro m
em itt e r of Q 1 5 2 to th e ba s e s of Q 1 4 6 t o l i g h t L E D s ( D 1 3 1 , D 1 3 2 ) .
3. R e s e t a n d B a c k u p C i r c u i t s
T W h e n the O utp ut Vol tage fr o m p i n 3 of I C 1 1 0 d ro p s to 4 . 5 V o r
b e l o w , the o u tp ut s ig n a l fr o m th e r ese t IC ( I C 1 0 4 ) , wh ich has been
in p u t t o p i n 3 3 of the C P U ( I C 1 0 9 ) , c h a n g e s fr o m " H " t o " L " l e v e l . T h e
C P U w i l l then b e i n the backu p sta te .
4 . S ( S i g n a l ) M e t e r C i r c u i t
T h e D C p o t e n t ia l of p i n 1 2 of I C 1 0 3 i s i n p u t t o p i n 1 of the C P U
( I C 1 0 9 ) , converted fr o m a n a nal og to a d ig it a l si gn a l , and d is p l a ye d
a s th e S - m e t e r si gna l o n th e L C D .
7
5 . T o n e En co d er
6 . D C S E n c o d e r
7 . C T C S S , D C S D e c o d e r
8 . C l o c k S h i f t
T h e C P U ( I C 1 0 9 ) i s equip ped w it h an in te r n a l tone encoder. T h e tone
s ig n a l ( 6 7 . 0 t o 2 5 0 . 3 H z ) i s ou tp ut fr om p i n 9 o f the C P U t o the
v ar ia b l e c a p a c i ta n c e di od e of th e V C O and 2 1 . 2 5 M H z r e fe re nc e
o s c il l a ti o n ( X 1 0 1 ) o f th e PLL IC ( I C 1 0 1 ) fo r mo du l a ti o n .
D J - V 1 7 :The C P U ( I C 1 0 9 ) i s equ ipp ed w it h an int ern al D C S cod e en co der .
T h e D C S cod e ( 0 2 3 to 7 5 4 ) i s o u tp ut fro m p i n 7 o f th e C P U to 2 1 . 2 5
M H z r e f e r e n c e os cil l at io n ( X 1 0 1 ) o f t h e P LL I C ( I C 1 0 1 ) for
m o d u l a ti o n .
D J - V 4 7 :The C P U ( I C 1 0 9 ) i s equ ippe d w it h an int ern al D C S cod e en co der .
T h e D C S co de ( 0 2 3 to 7 5 4 ) i s out put fr o m p i n 7 o f th e C P U t o 1 2 .8
M H z r e f e r e n c e os cil l at io n ( X 1 0 2 ) o f t h e P LL I C ( I C 1 0 1 ) for
m o d u l a ti o n .
T h e A F s ig n a l fro m the p i n 9 o f I C 1 0 3 i s fil t er ed b y an active f il t er
( I C 1 0 8 ) t o el im in a te the vo ic e ra nge o f the si g n a l then ampl ified a n d
i n p u t t o th e p i n 4 of the C P U ( I C 1 0 9 ) . T h e si g n a l i s co m pa re d i n the
C P U w it h the pre -s el e ct ed C T C S S and D C S v al u es and th e sq u e l c h
op en s i n c a s e the v al ue matche s.
I n c a s e the sel e ct ed fr e qu e nc y i s d is tu rb ed b y a C P U cl ock -n oi se , i t
may be el iminated b y changi ng th e C P U c l o c k freq u en c y. W h e n the
cl o c k - s h if t i s se t, the p i n 3 1 o f the C P U ( I C 1 0 9 ) b e co m e s Lo w tu rn in g
O N the Q 1 2 4 . W h e n Q 1 2 4 b e co m e s O N , X 1 0 4 ’ s o s c il l a ti o n fr e qu e nc y
s h if t s ap pro xim at el y b y 2 0 0 p p m .
5 ) M 38 26 8M C A- 07 7G P ( X A 1 1 2 1 )
C P U
T ermi nal Co nnection
( T O P V I E W )
S E G a — 1 8 0
S E G z - « — [ 8 1
S E G 6
-- -- --
S E G s — [ W
S E G 4 — 1 8 4
S E G 3 — [ j j j F
S E G 2 — 1 8 6
S E G i — [ 8 7
S E G o — 1 8 8
V c c [ 8 9
V R E F
- - - -
A V s s — ► - [9 T
C O M 3 — [9 2
C O M i — [9 4
1 82
► - [ 9 0
3 5 ~ 1
- - - -
► - X C O U T
3 4 ]
- -- --
X c iN
3 3 ] — R E S E T
32] — P7o /I NT o
8
N o . Term ina l Signa l I/ O
De sc rip ti o n
1 P 6 7 / A N 7 S M T I S - m e t e r i n p u t
2
P 6 6 / A N 6
3 P 6 5 / A N 5
4 P 6 4 / A N 4 T I N I
5 P 6 3 / S C L K 2 2 / A N 3
P 6 2 / S C L K 2 1 / A N 2 B P 2 I Ban d p l a n 2
6
7 P 6 1 / S O U T 2 / A N 1 D C S W
8 P 6 0 / S I N 2 / A N 0
P 5 7 / A D T / D A 2 C T O U T
9
1 0
P56 /D A1 D T O U T
1 1 P 5 5 / C N T R 1 S C L
1 2
1 3
1 4
P 5 4 / C N T R 0
P 5 3 / R T P 1 B P 4 I Ban d p l a n 4
P 5 2 / R T P 0
1 5 P 5 1 / P W M 3
S Q L I
No is e l e v e l in p u t fo r sq u e l c h
B A T I Lo w ba tte ry detec tion i n p u t
C T C S S tone in p u t / D C S cod e i n p u t
B P 1 I Ban d p l a n 1
O D C S si g n a l mu te
F K E Y I F u n c ti o n / Monitor K ey in p u t
O C T C S S tone o u tp ut / D C S tone o u t p u t
O D T M F o u t p u t
S er ia l c l o c k fo r E E P R O M
O
T B S T
M U T E
CL K
I / O Ton e b u r s t o u tp ut
I / O Mic rophone mu te / B an k c ha n g e i n p u t wh il e t ru n k in g
S er ia l c l o c k o u tp ut fo r PLL , and t r u n ki n g b o a rd
0
S er ia l d a ta out put fo r PL L , C T C S S / PLL u n l o c k s ig n a l in p u t /
1 6 P 5 0 / P W M 0
D A T A
I/O
E V R c o n t r o l o u t p u t
T ru n k in g b o ar d detec tion ( w he n th e u n it i s turned O N ) /
1 7 P 4 7 / S R O Y 1 T R S T
1 8
1 9
2 0
2 1
P 4 6 / S C L K 1 S T B P
P 4 5 / T X D U T X
P 4 4 / R X D U R X I U A R T d a ta re ce pt ion i n p u t
P 4 3 / < D T O U T
B E E P
2 2 P 4 2 / I N T 2 R E 2 I
2 3
P 4 1 / I N T 1 R E 1 I
I/O
S tro be s ig n a l t o t r u n ki n g b o a rd
0 St ro be fo r PLL IC
U A R T d a ta tran sm is si on o u t p u t
0
I / O B e e p to ne /B a nd p l a n 3 ( w he n the u n i t i s turne d o n )
Ro ta r y e n c o d e r i n p u t
2 4 P 4 0 C L O 0 C L O N E O N / O F F o u tp ut
2 5
2 6 P 7 6 C H G
P 7 7 P T T K I
P T T i n p u t
I Ba tte ry c h a r g e O N / O F F o u tp ut
2 7 P 7 5 P 5 C 0 PLL po w er O N / O F F o u t p u t
2 8 P 7 4 T 5 C 0 T X power O N / O F F o u t p u t
2 9 P 7 3 R 5 C 0
3 0
P 7 2 A F P
R X pow er O N / O F F o u t p u t
A F A M P pow er O N / O F F o u t p u t
0
3 1 P 7 1 C L S F T 0 C L O C K f r e qu e nc y s h i f t
32 P 7 0 / I N T O B U I Back up s ig n a l detec tion in p u t
3 3 R E S E T R E S E T I R e s e t i n p u t
3 4 Xc in
3 5 X co u t
3 6 Xin X I N
3 7 X o u t X O U T
3 8 V ss G N D
- -
- -
-
M ain c l o c k i n p u t
-
M ain c l o c k o u tp ut
-
C P U G N D
3 9 P 2 7 P S W I Po w er s w it c h i n p u t
4 0 P 2 6 S D A 0 S er ia l da ta fo r E E P R O M
4 1 P 2 5 C 5 C 0 C 5 V power O N / O F F o u tp ut
4 2 P 2 4 L A M P 0 Lam p O N / O F F
4 3 P 2 3 KI0 I
4 4 P 2 2 K I 1 I
4 5 P 2 1 KI2 I
K ey matrix i n p u t
4 6 P 2 0 KI3 I
4 7 P 1 7 K 0 3 0
4 8 P 1 6 K 0 2 0
4 9 P 1 5 / S E G 3 9 K O I 0
K ey matrix o u tp ut
5 0 P 1 4 / S E G 3 8 K O O 0
5 1 P 1 3 / S E G 3 7 DA3 0 DA con ve rte r fo r T x out put powe r
52 P 1 2 / S E G 3 6 DA2 0 DA con ve rte r fo r T x out put powe r
5 3 P 1 1 / S E G 3 5 D A 1 0 DA con ve rte r fo r T x out put powe r
5 4 P 1 0 / S E G 3 4 A F C / D A 0 0 DA con ve rte r fo r T x out put powe r
T ru n k in g T X D T c o n t r o l / V oice S c r a m b l e r B o ar d det ec ti on
5 5 P 0 7 / S E G 3 3 E X P I/ O
(wh e n the u n it i s turned o n )
5 6 P 0 6 / S E G 3 2 S D / P O 0 Signal detec tion out put / T x pow er Hight or Lo w
9
N o . T erm in al Sig n al I/ O
5 7
P 0 5 / S E G 3 1 S E G 3 1 0
De sc rip ti o n
5 8 P 0 4 / S E G 3 0 S E G 3 0 0
5 9 P 0 3 / S E G 2 9 S E G 2 9 0
60 P 0 2 / S E G 2 8 S E G 2 8 0
6 1
62
P 0 1 / S E G 2 7 S E G 2 7
P 0 0 / S E G 2 6 S E G 2 6 0
0
6 3 P 3 7 / S E G 2 5 S E G 2 5 0
6 4 P 3 6 / S E G 2 4 S E G 2 4
0
6 5 P 3 5 / S E G 2 3 S E G 2 3 0
6 6
6 7 P 3 3 / S E G 2 1 S E G 2 1
P 3 4 / S E G 2 2 S E G 2 2
0
0
6 8 P 3 2 / S E G 2 0 S E G 2 0 0
69 P 3 1 / S E G 1 9 S E G 1 9 0
7 0 P 3 0 / S E G 1 8 S E G 1 8 0
7 1 S E G 1 7 S E G 1 7
72
S E G 1 6 S E G 1 6 0
7 3 S E G 1 5 S E G 1 5 0
7 4 S E G 1 4 S E G 1 4
0
LC D s e g m e n t s i g n a l
0
7 5 S E G 1 3 S E G 1 3 0
76
77
S E G 1 2 S E G 1 2
S E G 1 1 S E G 1 1 0
0
7 8 S E G 1 0 S E G 1 0 0
7 9 S E G 9 S E G 9 0
80 S E G 8 S E G 8 0
8 1
82
S E G 7 S E G 7
S E G 6 S E G 6 0
0
8 3 S E G 5 S E G 5 0
8 4 S E G 4 S E G 4
0
8 5 S E G 3 S E G 3 0
8 6
8 7
S E G 2 S E G 2
S E G 1 S E G 1 0
0
8 8 SEGO SE GO 0
89 V c c
V D D
9 0 V r e f V r e f
9 1 A v s s A v s s
92
9 3
C O M 3 C O M 3 0 L C D C O M 3 ou tp ut
C O M 2 C O M 2
9 4 CO M 1 CO M 1
-
C P U powe r terminal
-
A D c on ver te r pow er sup p l y
-
A D c on ver te r G N D
LC D C O M 2 o u tp ut
0
LC D C O M 1 o u tp ut
0
9 5 COMO COMO 0 L C D CO MO ou tp ut
96 V L 3 V L 3
97 V L 2 V L 2
9 8
C 2 C 2
9 9 C 1 C 1
-
LC D powe r sup p l y
-
- -
- -
100 V L 1 V L 1 I L C D po w er s u p p l y
1 0
S EM IC ON DU CT OR D A T A
1 ) N M J 2 0 7 0 M T 1 ( X A 02 10 )
L o w V o l t a g e P o w e r A m p l i f i e r
E q u i v a l e n t C i r c u i t
Param et er Co nd it io n Sy m bo l M i n . T y p .
S u p p l y v o l ta g e
Idl e c u r r e n t RL=
O u t p u t v o l ta g e Vo
In p u t b i a s c u r r e n t I B
O u t p u t p o w e r
D i s to r ti o n
V o l ta g e ga in
In p u t i m p e d a n c e
E q u iv a le n t in p u t no is e
v o l ta g e
P ow er s u p p l y v o l ta g e
re je c t io n ra ti o
P ow er g a in b a n d w id t h
( — 3d B)
T H D = 1 0 % , f = 1 k H z
T H D = 1 0 % , f = 1 k H z
Po=0 .4W , R L = 4 , f = 1 k H z
f = 1 k H z
f = 1 k H z
R s = 1 0 k
f = 10 0H z, C x = 1 0 0 / < F S V R 2 4 30
R L = 8 , P o = 2 5 0 m W P . B
V + = 6 V , RL =4
V+ =4 .5 V, RL =4
V+=3 V, RL =4
V+=2 V, RL =4
V + = 6 V , RL =4
V+ =4 .5 V, RL =4
A c u rv e
B = 2 2 H z t o 2 2 k H z V n 2
v +
I Q
P o
T H D -
Av
Z lN
V n 1
1. 8
-
2 . 7
-
200
-
0 . 5 0 . 6
0 . 3 2
-
1 2 0
-
-
5 0 0
-
2 5 0
-
0 . 2 5
4 1 4 4
10 0
-
2 . 5
-
20 0
-
30
M a x .
-
4
-
3
1 5
7
-
-
-
-
-
-
-
-
- %
4 7
-
-
-
-
-
U n it
V
m A
V
nA
W
W
m W
m W
m W
m W
dB
k
M V
M V
dB
kH z
2 ) S24 CS 64A01- J8T1 G ( XA1 11 7 )
1 6 K b i t s C M O S S e r i a l E E P R O M
P in
AO Œ
A 1 Œ
A 2 Œ
G N D Œ
1 o
8
2 7
3 6
4 5
Z D V C C
Z D W P
= □ S C L
Z D S D A
N u m b e r
R e m a r k S e e D i m e n s i o n s fo r d e t a i l s o f t h e p a c k a g e d r a w i n g s .
P in
N a m e
1
2 A1
3 A 2 S l a v e a d d r e s s in p u t
4 G N D G r o u d d
5
6 S C L S e r i a l c l o c k in p u t
7 W P
8
A 0 S l a v e a d d r e s s in p u t
S l a v e a d d r e s s In p u t
S D A S e r i a l d a t a i n p u t / o u t p u t
W r i t e p ro t e c t i o n i n p u t
C o n n e c t e d to V c c : P r o t e c t i o n v a l id
C o n n e c t e d to G N D : P r o t e c t i o n inv al id
V C C
P o w e r s u p p l y
F u n c t i o n
1 1
3 ) M 62 4 2 9 F P /C F 0 J ( XA11 18 )
E l e c t r o n i c V o l u m e
V i n 1 [ T 3
V o u t I [ 2
GN D[ 3
D A T A [ 4
0 >
r o
I V
( 0
3
T 1
" 0
I T ] V i n 2
7 ] V o u t 2
1 ] V c c 1
5 ] C L O C K
V in 2 V o l t t 2 V c c
C L O C K
— ® ------
L O G I C
C O N T R O L
4 ) L M 290 2P W R ( XA1106 )
Q u a d O p e r a t i o n a l A m p l i f i e r s
1 4 1 3 1 2 1 1 1 0 9 8
L 2 9 0 2
* * *
* * * *
O
1 2 3 4 5 6 7
D A T A
1 . Ou tpu t A
2 . In v e rt in g In p u t A
3. No n-i nve rt ing In p u t A
4 . V c c
5. No n-i nve rt ing In p u t B
5. In v e rt in g In p u t B
7. Ou tpu t B
8. Ou tpu t C
9. In v e rt in g In p u t C
10 . Non -inve rting In p u t C
1 1 . G N D
12 . Non -inve rting In p u t D
13 . I n v e rt in g In p u t D
14 . Ou tput D
1 2
5 ) T A 31 1 36 FN (E L ) ( XA0404 )
L o w Pow er FM I C
1 6 1 5 1 4 1 3 1 2 1 1 1 0 9
3 1 1 3 6
* * *
o
1 2 3 4 5 6 7 8
1 . 0 S C I N
2. O S C O U T
3 . M I X O U T
4 . V c c
5. IF I N
6. D E C
7. FI L O U T
8. F I L I N
9 . A F O U T
10 . Q U A D
11 . IF O U T
12 . R S S I
13 . N - D E T
14 . N - R E C
1 5 . G N D
16 . M I C IN
6 ) S8 084 5CL NB -B 66- T2G ( X A 11 20 )
C - M O S Vo l tage Dete cto r
4 3
e
_ _
1 2
a
P i n N o .
1 O U T V o l t a g e d e t e c t i o n o u t p u t pi n
2 V D D
3 N C * 1
4 V S S G N D pi n
*1 . T h e N C p i n i s e l e c t r i c a l l y o p e n .
T h e N C p i n c a n b e c o n n e c t e d t o V DD o r V S S .
P i n n a m e
P i n d e s c r i p t i o n
V o l t a g e i n p u t pi n
N o c o n n e c t i o n
1 3
7 ) MB 15 E0 7S R ( XA11 07 )
P L L Synt hes izer
O S C IN
P S
LE
D a t a
C l o c k
1 6 1 5 1 4 1 3 1 2 1 1 1 0 9
E 0 7 S R
* * * *
* * *
o
1 2 3 4 5 6 7 8
R e f e r e n c e
Os ci l l at o r
In te rm itt en t
m o d e cont rol
( p o w e r s a v e )
1-b it
con trol l atch
r e f e r e n c e c o u nt e r
B in ar y 14 - b it
1 4 - b l t l atch
19 - b it sh ift r e gi st er
7 - b i t l atch 1 4 - b i t l atch
B l n a l y 7- bl t
sw al l ow
c o u nt e r
1 . 0 S C IN
2. N . C .
3. V p
4 . V c c
5. D o
6. G N D
7. X fi n
8. f i n
S W
F C L D S C S
4- b i t l atch
B l n a l y 1 1 - b l t
p r o g r a m m a b l e
c ou nt e r
9. C L O C K
10 . D a ta
1 1 . L E
12 . P S
13 . N . C .
14 . L D / f o u t
15 . N . C .
16 . N . C .
P h a s e
c o m p a ra to r
Lock
d e t e c t o r
L D /fr /fp
s e l e c t o r
C h a r g e pu m p
L D /f o u t
V p
Xf in
f i n
V C C
G N D
P r e s c a l e r
3 2 / 3 3
6 4 / 6 5
S W
P a r a m e t e r S y m b o l C o n d i t i o n M i n . T y p . M a x . U n i t
P o w e r s u p p l y v o l t a g e V c c
P o w e r s u p p l y c u r r e n t
L P F s u p p l y v o l t a g e
I c c
V p
L o c a l o s c i l l a t o r i n p u t l ev el V f i n
L o c a l o s c i l l a t o r i n p u t f r e q u e n c y
fi n -
2 5 0 0 M H z
V c c = V p = 3 . 7 5 V
1 0 0 M H z to 3 0 0 M H z
3 0 0 M H z to 2 5 0 0 M H z
X i n i n p u t l ev el V x i n -
X i n i n p u t f r e q u e n c y F xi n
Do
( V c c = 2 . 7 to 5 . 0 V , T a = - 4 0 ° C t o + 8 5 o C )
-
-
-
2 . 7
3 . 7 5 5 . 0
8 . 0
V c c
- 6
- 1 5
-
5 . 5
+ 2
+ 2
1 0 0 2 5 0 0
0 . 5
V c c
3 4 0
V
m A
V
d B m
M H z
V p - p
M H z
14
8 ) XC6 202P502MR ( X A 11 19 )
Vo l tage Regul ator
Pin No .
1
2 V I N S u p p l y V o l t a g e I n p u t
3
Pin n am e
V O U T R e g u l a t e d V o l t a g e O u t p u t
V S S G r o u n d
1 2
A b s o l u t e M a x i m u m R a t i n g s
Pa r a m e t e r S y m b o l Rat in g U n its
I n p u t V o l t a g e V I N 2 2 V
O u t p u t C u r r e n t
O u t p u t V o l t a g e
P o w e r D i s s i p a t i o n P d
O p e r a t i n g A m b i e n t T e m p e r a t u r e T o p r - 4 0 ~ + 8 5 ° C
S t o r a g e T e m p e r a t u r e T s t g - 5 5 - + 1 2 5 ° C
I O U T
V O U T
5 0 0 m A
V S S - 0 . 3 - V I N + 0 . 3
1 5 0
F u n ct io n
V
m W
1 5
9 ) T r a n s i s t o r , D io d e a n d L E D o u tl i n e D r a w i n g s
T o p V i e w
1 0 ) L C D C o n n ec ti o n ( E L 0 0 5 9 )
i s i i i i i i i i i i s s s s s s s s s s s s s L
i w w w w w w c o w c o w c o w c o w c o w w o t w w c o w c o w c o w w w m w w
S E G M E N T C O M M O N
1 6
_ _ _ _ _ _ _ _