SHARP LQ9D161

‘REPARED
BY:
,PPROVED
BY:
DATE
SPEC No.
FILE
SHARF’
DATE
LIQUID
SHARP
CRYSTAL
DISPLAY
GROUP
CORPORATION
f
DEVICE
SPECIFICATION
Jun. 29. 1995
17 Rages
:
APPLICABLE
Liquid
GROUP
Crystal
Display
Group
SPECIFICATION
I
No.
ISSUE:
PACE
LD7620
FOR
TFT-LCDmodule
I
0
MODEL No.
I
LQ9D161
CUSTOMER’S APPROVAL
DATE
BY
H. FUKIJOKA’
Department
Engineering
General
Manager
Department
2
TFf‘LCD Developmeyt Center
LIQUID
CRYSTAL DISPLAY
SHARP CORPORATION
”
GROUP
RECORDS
OF
REVISION
--.
1. Application
This specification
appl ies to a color
_--
TFT-LCD module. LQ9D161.
2. Overview
This module is a color active matrix LCD module incorporating
amorphous silicon TFTs
(Thin Film Transistors).
This module is composed of a low-reflection-type
color TFT-LCD
power supply circuit and a backlight unit. Graphics
panel, driver ICs. control circuit.
and texts can be displayed on a 640x3~480 dots panel with 4,096 colors by supplying 12
bit data signals(4bit/color).
four timing signals. t3.3V DC supply voltage for TFT-LCD
panel driving and supply voltage for backlight.
But, a DC/AC inverter
for backlight-driving
is NOT built
Optimum viewing
direction
in this module.
is 6 o’clock.
[Features]
@ Low driving voltage and low power consumption.
@I Gall footprint
and thin shape.
@I Light weight.
@I Low surface reflection.
It
3. Mechanical Specifications
Parameter
Display size
Active area
Pixel format
Pixel pitch
Pixel arrangement
Display mode
Unit outline dimensions
Mass
Surface treatment
Specifications
21 (8. 4”) Diagonal
170. 9(H) y 129. 6(V)
640(H) .u;480(V)
(1 pixel=R+C+B
dots)
0.267(H) x 0.270(V)
R. G. B vertical
stripe
Normally white
*l 216.O(W)x152.4(H)x7.3(D)
3302 10
Anti-glare.
hard-coating(2H)
low-reflection(%5%)
Haze value
25+5
tl Note: excluding backlight cables and mounting tabs.
The outline.dimensions
is shown in Fig.1
Unit
cm
mm
pixels
mm
mm
g
and
.I
36
-
4.
Input Terainals
4-1. TFT-LCD panel driving
The module-side connector:DFSBA-31P-1V (Hirose Electric Co.. Ltd. >
The user-side connector
:DFSZ-31S-1V (
n 1, c is blank. A or B.
CNl
Function
1 Remark ’
Pin No.1 Symbolj
1 RED data signal (LSB)
1 IRO
I
GiJD
2
RED data signal
3
Rl
Vsync Vertical synchronous signal
4
(Note11
RED data signal
5
R2
Hsync Horizontal synchronous signal
(Note11
6
1
7 1 R3 1 RED data signal MB)
I
I
CND
8
GND
9
Clock signal for sampling each data signal
10
CK
GREENdata signal (LSB)
-11
GO
GND
12
GREENdata signal
13
Gl
This should be electrically
opened during operatinr
14
TST
GND
15
TST ) This should be electrically
opened during operatio?
16
17
G2 / GREENdata signal
/
opened during ope.ratio{
18 ) TST / This should be electrically
1GREENdata signal (NSB)
19 t G3
1 20 1 CPID 1
I
I
1 21 1 GI’JD i
22 1 vcc ( -+3.3V power supply
23 I BO / BLUE data signal (LSBI
24 -vcc 1 +nv
poll& supply
25
Bl
BLUE data signal
TST
This should be electrically
opened during operatior
26
GND
27
ENAB Signal to settle the horizontal
display position
28
[Note21
BLUE data signal
29
B2
30 ( GND 1
.,
) BLUE data signal !KB)
31 lB3
34iThe shielding case is connected with GND in the module.
.
[Note 11 One of 480-. 400- and 350-line
mnde is selected depending on
the polari tg combination of the
both synchronous signals.
(Note21 The horizontal
display start timing is settled in accord&e
with a rising edge of
ENAB signal. Jn case ENAB is fixed “Low”, the horizontal
display start timing is
‘determined as described in 7-2. Do not
keep ENAB “High” during operation.
-
4-2. Backlight driving
The module-side connector :BHR-03Wl(JST)
:SM02(8. O>B-BIIS(JS-0
The user-side connector
CN2
function
Pin no. symbol 1
1
V11IGII Power supply for lamp (High voltage side)
V C.~K Power supply for
3
lamp (Low voltage
side)
5. Absolute Maximum Ratings
(Note11 CK. ROzR3.GOG3,80~83. Hsync. Vsync, ENAB
(Note‘21 Humidity : 95%RHMax. at Tas4O’C.
Maximum wet-bulb temperature at 39’c or less at Ta>40%.
No condensation.
6. Electrical
6-l.
I
Characteristics
TFT-LCD panel driving
Parameter
/vcc
-:iz;22z Permissive input ripple
1 Input voltage (Low)
Input voltage (High)
Input current (low)
Input
current
(High)
voltage
Symbol( hlin.
vcc +3.0
ICC
v RP
Vr,.
V ,,,
IO,.
IO,,, /
1 TYP.
) +3.3
105
-
0. 7vcc
-
1
-
Ta = 25°C
1 Max.. 1 Unit 1 Remark
+3.6
V ) [Notell
m A ’ (Note21
350
mVp-p Vcc
100
0.3vcc
v
[Note31
v
1. 0
v,=ov
fl A
[Note31
/ 1.0
/ ,u A 1 ;;F=;;,
I-? AI” .
vcc
vcc
[Note11
On-off condition
for supply voltage
O<tlSlOmsec
0<t25 1Omsec
O( t3Slsec
t4ZlOmsec
data
vcc
Vcc-dip conditions
s’ zz
-7 &
oi s 1
1) 2.4v S vcc < 2.8V
td 5 1Omsec
2) vcc < 2.4v
Vcc-dip conditions
td
43
shoud also follow
the Vcc-turn-on
conditions
(Note21 The typical value of ICC is measured in the following condition.
Black pat tern.
All of the timing parameters are typical value (480 line mode).
vcc=t3.3v
(Note31 CK.RO-R3. GOG3, BO-B3. Hsync. Vsync. ENAB
(Note41 CK. RO-R3.GO-G3 BO>B3.Hsync. Vsync
(Note51 ENAB
6-2. Bach1 igh t driving
‘.
The backlight system is an edge-lighting
type with single
Fluorescent Tube). The characteristics
of the lamp installed
in the following
table.
-
-
Lamp life time
LI.
1oooc
tl: Luminance of white YL= 70cd/m’(Typ.)
*2: Luminance of white Y,.=140cdimz(Typ.)
(Note11 Lamp current is measured with a current
below.
CCFT (Gold Cathode
in the module are shown
1000 Vrms Ta=OC
hour (Note41
.I
meter for high frequency
*3pin is VI.W
as shown
LD7620-5
(Note21 ralcutated value ior reference. (IL:<~I.>
(Note31 Lamp frequency may produce interference with horizontal synchronous frequency,
and this may cause beat on the display. Therefore lamp frequency shall be
detached as much as possible from the horizontal synchronous frequency and from
the harmonics of horizontal synchronous to avoid interference.
[Noted] Lamp life time(Ll.) is defined as the time when either 0 or Q) occurs in the
continuous operation under the condition of Ta=25’Cand 11.=5.SmArms.
Q Brightness becomes 50% of the original value.
@I Kick-off voltage at Ta=O’C exceeds maximumvalue. 1000 Vrms.
Note) The performance of the backlight. for example life time or brightness, is much
influenced by the characteristics
of the DC-ACinverter for the lamp. lhen you
design or order the inverter. please make sure that a poor lighting caused by the
mismatch of the backlight and the inverter (miss-lighting,
flicker, etc.) never
occur. Whenyou confirm it, the module should be operated in the same condition as
it is installed in your instrument.
7. Timing Characteristics
of input signals
The timing diagrams of the input signals are shown in Fig.2-Q-0,.
7-l. Timing characteristics
Note) In case of lower frequency, the deterioration
etc., may be occurred.
of the display. quality,
flicker
LD7620-6
7-2. Horizontal display position
The horizontal display position is determined by ENABsignal and the input data
corresponding to the rising edge of ENAB signal is displayed at the left end of the
active area.
Parameter
ENAB signal
Setup time
Pulse width
Hsync-ENAB signal
phase difference
Note)
Remark
Symbol! Mode) Min. ) Typ. 1 Max. 1 Unit
Tes 1 all 1 s j Tc-10
ns
640
clock
Tw ) * 1 2 1 640
Tile
‘I
44
clock
164
Yhen ENAB is fixed “‘Low”. the display starts from the data of ClO4(clock) as shown
in Fig. 2-Q-Q.
Be careful that the module do noJ work when ENABis fixed “High’.
7-3. Vertical display position
The vertical display position is automatically centered in the active area at each
mode of VGA. 480-, 400- and 350-line mode. Each mode is selected depending on the
polarity of the synchronous signals described in 4-l (Notel).
In each mode, the data of TVn is displayed at the top line of the active area. And
the display position will be centered on the screen like the following figure when the
period of vertical synchronous signal. TV. is typical value.
In 400- and 350-line mode. the data in the vertical data invalid period is also
displayed. So, inputting all data “0” is recommendedduring vertical data invalid
period.
ENAB signal has no relation to the vertical display position.
mode V-data start(TVs)
480
34
400
34
350
61
V-data period(TVd)!/ V-display start(TVn) Unit 1 Remark
480
,I
34
line
400
443-TV
line
350
i
445-TV
. line
data invalid
period
:
631 ines
k
da ra period
data period
JODlines
f
I
data invalid
NO-line
period
node (TV4491
350lines
Miines
c
4 data invalid
3X-line
period
mode (TV-449
Glines
+
t
7-4. Input
Data Signals and Display
Display pnsition
Position
on the screen
of input data (W-line
(H-V)
mode)
UP
lDl.DH3t
Dl. DIN30
I
DMO. DW
1,
Data signal
(PD-RX co-CJ. lwU3)
Borizoatal
sync. signal
(Bsync)
Vertical
sgnc. signal
Usync)
llorizontal
invalid
*IMy .bca EWIIICIrr~illsl
Data enable signal
(ENAU)
Data signal
(PO-IKI. CD-C3. uD-u:i)
Clock signal
(CL)
Eorizoatal
sync. signal
tllsrIx9
data period
Fig.2~(iJ Input signal waveforms (480-line
Tell
mode)
3.
Huawr of I Juru
Verrical
invalid
data period
(Rll-RX
Data
signal
Glwx.
signal
(Vsync)
signal
(ENAB)
enable
CD-C3.
signal
(a)
Horizontal
sync.
signal
(llsync)
Vertical
Data
(PO-iti.
Data
Clock
sync.
Borironral
au-sa,
. .
signal
BD-BJ)
!
il. vcc
Uorizontal
e
Vertical
invalid
jbvalid
Tip
$
data
data
period
period
Tile
m
Fig. 2-Q
y
I
Dl
Input
DL!
ic
signal
'
IL1
TM
Il. 3bcc
U.7)CC
DIP
DH3
__ . . . . _
I
Dfi (I
mode)
.____.__._.--_
.._._..-_....._
TVd
DKI!)
waveforms (400-line
DUI
TV
I
%
d
Porizontal
,I
Jr,
11
Ferrical
invalld
ddtrl
invalid
periad
ddt;~
I
period
u lbcr
b
-4
0
1‘3
0
I
CD
(R(I-Ii:{.
Dara
sync.
signal
CO-C;I.
signal
(Bsync)
signal
(Vsync)
signal
BD-B3,
. -
signal
MI-US)
(ENAB)
enable
GO-CJ.
signal
ICC)
Uorizonral
sync.
signal
(Usync)
Vertical
Dara
(PB-P3.
Data
Cl03
sync.
liorizontal
!
Norizonral
TVh
, Il. 3Ycr
<
k
invalld
TVP
:-Vertical
t-
data
period
inralid
%
Tile
?vCC
period
Tes
_
Fig. 2-o
dara
t,
Input
signal
waverorms (350-line
TV
Tw
H
DfW
B
mode)
. . . . ..-v-m..-..
. .._.._______.-
06
DHA4!I
Horizontal
DIU~D
invalid
Verrlcal
data
period
invalid
dara
perrod
u. 3VCC
8. Input Signals.
Basic Display Colors and Gray Scale of Each Color
Color & Gray
scale(GS)
Black
Blue
Green
Light blue
Red
Purple
Brighter
0
I
GS
-
RO Rl
0 0
0 0
0000
0 0
-
111110
1 1 1
GS13
GS14
Data signal
R2 R3 GO Cl G2 G3
0 0
0 0 0 0
0 0
0 0 0 0
1111
0 O/l
111
1
0
0
0
0
1
1 IO
0
0
0
0
0
0
BO Bl I32 83
0 0 0 0
1 1 1 1
0 0 0 0
1 1 1 1
0
0
0
0
0
0
011
0 0
11
0
0
0
0
0
0
0
1
1
0
0: Low level
voltage
1: High leve
voltage
0
1
1:e 1
1 1
Blue
GSl5 0 0 0 0
0 0 0 0
1 1 1 1
basic color can be displayed in 16 gray scales from 4 bit data signals.
According to the combination of total 12 bit data signals, the 4.096-colors
display
*
can be achieved on the screen.
P
9. Optical Characteristics
Ta=25T.Vcc=+3.3V
late) The measurement shall be executed 30 minutes after lighting at rating.
The optical characteristics
shall be measured in a dark room or equivalent state with
the method shown in Fig. 3.
Photode tee tor (BM-5A: TOPCON)
*,‘..\
1
-3
1: I
LCD panei i
TFT-LCD module
.
.... .
I
..._............ .. ~ ._._........._.__..__-.....-...........
_....-- ....Center
of
Fig.3 Optical characteristics
.. :::
the
screen
measurement
method
4-
[Notell
Definitions
of
viewing angle range:
Jormal line
a12
9,
--*-...
e’l
e21
J$Jj%y
_a-’
A-
6 o’clock
direction
(Note21 Definition of contrast,ratio:
The contrast ratio is defined as the foliowing.
Luminance (brightness)
‘Ontrast Rat1o (CR) = Luminance (brightness)
of “white”
of “black”
(Note31 Definitions of response time:
The response time is defined as the following figure and shall be measured by
switching the input signal for “black” and "white".
(Note41 This shall be measured at center of the screen.
(Note51 Definition of white uniformity:
White uniformity is defined as
the following by five-point(AsE)
measurements.
Maximum Luminance of five-point
bw =
Minimum Luminance of five-point
10. Display Quality
The display quality
Inspect ion Standard.
data
data
.d
of the color TFT-LCD module shall be in compliance with the Incoming
11. Handling Precautions
a) Laminated film is attached to the module surface to prevent it from being scratched.
Peel the film off slowly. just before the use. with strict attention to electrostatic
changes. Ionized air shall be blowed over during the action. Blow off ‘dust’ on the
polarizer by using an ionized nitrogen gun. etc.
b) Be sure to turn off the power supply and signal when inserting or disconnecting the
cable.
c) Since LCD panel is made of glass. it may break or crack if it’s dropped or bumped.
Handle with care.
d) The thin liquid crystal layer is packed in the LCD panel. This layer may be disturbed
by the external force when the panel surface is pushed strongly and this disturbance
may cause the transient display non-uniformity. So do not push the panel surface so
strongly.
e) Be sure to design the cabinet so that the module can be instalied without any extra
stress such as warp or twist.
f) Since the front polarizer is easily damaged. pay attention not to scratch it.
Long contact with water may cause discoloration
g) lipe off water drop immediately.
or spots.
h) Rhen the panel surface is soiled. wipe it with absorbent cotton or other soft cloth.
i) Since CMOSLSIs are used in this module. take care of static electricity
and ensure the
humanearth when handling.
j,) Observe all other precautionary requirements in handling co?ponents.
12. Packing form
a) Piling number of cartons : MAX. 7
._
b) Package quantity in one carton : MX. 10
c) Carton size : 374(1)xZ54(HJx314!D)mm
d)Total weight of 1 carton filled with full modules : 4900 g
Packing form is shown in Fig. 4.
13. Reliability
test items
: 58%500ffGravi ty : 9. 8m/s2
Sweep time : 11 minutes
Test period : 3 hours
(1 hour for each direction
of X, Y, 2
(non-operating)
Direction : CX.+Y. fZ
once for each direction.
[Evaluation Criteria]
.
There shall be no change which may affect
Display Quality Test conditions.
the practical
-.
use of this display under the
14. Others
1) Lot No. Label:
2) Adjusting volume have been set optimally before shipment, so do not change any
adjusted value. If adjusted value is changed. the data mentioned in this technical
literature may not be satisfied.
.3) Disassembling the module can cause permanent damage and should be strictly
avoided.
4) Please be careful since image retention may occur when a fixed pattern is displayed
for a long time.
51 If any problem occur in relation to the description of this specifjcation.
it shall be resolved through discussion with spirit of cooperation.
electricity
Partition
Fig. 4 Packing form
f
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LAYOUT(6Opins)
CONNECTOR
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CN~:FXB-~OS-SV(HIR~SE)
INTERFACE
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BEZEL
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Figl.OUTLlNE
0
NOTES
DIMENSIONS
II
D
:
]
.^
--_-
.“.,, : &,
_-_-_-_-___
.----_
-.-.
r
R.--..-.--.--..---I j
l-n--
SECT.
A
B
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“ETA,L
DETAIL
!!. .__-’ ,
x N .I &&&,
vi
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4
:
1
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SCALE=Z:’
SCALE=Z:I
SPACE
AROUND
CONNECTOI!
ACTIVE
I
NOTES
~14,:0F9--31P-1~
CIIZ:
BIIR-03VS-1
(HIROSE)
(JST)
1)TOLEAANCE
2)TOLERANCE
3)TULERANCE
4)TOLERANCE
5)OBLIOUITY
X-DIRECTION
X-DIRECTION
Y-DIRECTION
Y-DIRECTION
OF DISPLAY
A:2.
8:2.
C:Z.
D:Z.
AREA
AREA
SlfO.
8
51fO.
E
5fO.
8
SfO.
6
IE-FI<O.
8