NEC MultiSync LCD8205-P User Manual

External Control

for LCD8205

Revision Date History
Ver. 1.0

Dec.9.2008 The first edition.

1



1. Application

- This document defines the communications method for control of the LCD8205
monitor.

2. Connectors and Writing

Connector : D-Sub 9-pin
Cable : Cross (reversed) cable or null modem cable
(please refer to LCD 8205 User’s Manual )

3. Communication Parameter

Item Setting

Baud Rate
Data Bit
Stop Bit
Parity Bit
Stream Control

9600bps
8bit
1bit
None
None

3.1. Communication timing

- The controller should wait for a packet interval before next command is sent.
The packet interval needs to be longer than 600msec for the LCD monitor

2



4. Command List

4.1. Basic Command List

4.1.1. VCP Command

Command Page Communication Format

Picture Mode p.12-p.16
Brightness p.12-p.16
Contrast p.12-p.16
Color p.12-p.16
Tint p.12-p.16
Sharpness p.12-p.16
Color Temp (R/G/B) p.12-p.16
Size p.12-p.16
Auto in progress p.12-p.16
Volume p.12-p.16
Balance p.12-p.16
Language p.12-p.16
OSD Tone p.12-p.16
BG Gray p.12-p.16
Fan Control p.12-p.16
Input p.12-p.16
Mute p.12-p.16
Cooling Fan Status p.12-p.16
Read Out Temperature p.12-p.16
Hours Running On Time p.12-p.16
Display Device On Time p.12-p.16

Basic (p.5)

4.1.2. Power Command

Command Page Communication Format

Power Mode p.17
POWER On/Off p.18

Basic (p.5)

3



4.2. Optional Command List

Command Page Communication Format

LANGUAGE
CURRENTSOURCE
PC_PICTUREMODE
COLORTEMP
CONTRAST
BRIGHTNESS
SHARPNESS
RF_PICTUREMODE
RF_COLORTONE
RF_CONTRAST
RF_BRIGHTNESS
RF_COLOR
NTSC_TINT
RF_SHARPNESS
SCALEMODE
USERRED
USERGREEN
USERBLUE
MUTE
SOUNDSTD
AUTOVOLUME
VOLUME
BALANCE
Equalizer
ONHOUR
ONMINUTE
ONTIMEONOFF
ONTIMEVOL
OFFHOUR
OFFMINUTE
OFFTIMEONOFF
HALFTONE
BLUESCREEN
PIXELSHIFT_EN
WIPER_EN
BGGRAY
POWER(read only)
CURHOUR
CURMINUTE
MAX_ILLUMINANCE
MIN_ILLUMINANCE
AUTO_DIM
CURTEMP_MAIN
CURTEMP_AUX
TEMP_THRESHOLD
TEMP_HYSTERESIS
FAN_CONTROL
SETX
SETY
SETXMAX
SETYMAX
SETXGAP
SETYGAP

p.24
p.25
p.26
p.27
p.28
p.29
p.30
p.31
p.32
p.33
p.34
p.35
p.36
p.37
p.38
p.39
p.40
p.41
p.42
p.43
p.44
p.45
p.46
p.47
p.48
p.49
p.50
p.51
p.52
p.53
p.54
p.55
p.56
p.57
p.58
p.59
p.60
p.61
p.62
p.64
p.65
p.66
p.68
p.68
p.69
p.70
p.71
p.74
p.75
p.76
p.77
p.78
p.79

Optional (p.20)

4





Message











Get Parameter Reply



Message



Set Parameter









Set Parameter

Reply



Message











Get Parameter Reply

you want to change.

5. Basic Commands

5.1. Communication Format (for Basic Commands)

The command packet consists of four parts, Header, Message, Check code and

Delimiter.

Sequence of a typical procedure to control a monitor is as follows,

[A controller and a monitor, two-way communication composition figure]



5.1.1. Header block format (fixed length)



H e a d er M e s s age C h e c k Code D e l i miter

MonitorController

Get Parameter

CheckCodeDelimiter

Header

CheckCodeDelimiter

Header

Get Parameter

CheckCodeDelimiter

Header

Message

Message

Message

Header

CheckCode

Header

CheckCode

Header

CheckCode

Header

Delimiter

Delimiter

Delimiter

Message Check code Delimiter

The controller sends command to
get a value from the monitor that

The monitor replies a current
value of the requested item.

The controller sends commands to
set an adjusted value.

The monitor replies to the
controller for confirmation.

The controller sends command to
get a value for confirmation.

The monitor replies an adjusted
value.



SOH Reserved '0' Destination

1st 2nd 3rd 4th 5th 6th -7th

1stbyte)SOH:StartofHeader

ASCIISOH(01h)

2ndbyte) Reserved: Reserved for future extensions.
On this monitor, it must be ASCII '0'(30h).

3rdbyte) Destination: Destination equipment ID. (Receiver)

Source Message Type Message Length

Specify a commands receiver’s address.
This value must match the “Monitor ID No.” set in the OSD.

5



“Monitor ID” to “Destination Address” conversion table is as follows,

Monitor ID Destination

Address
(ASCII)

Monitor ID Destination

Address

(ASCII)
1 ‘A’(41h) 14 ‘N’(4Eh)
2 ‘B’(42h) 15 ‘O’(4Fh)
3 ‘C’(43h) 16 ‘P’(50h)
4 ‘D’(44h) 17 ‘Q’(51h)
5 ‘E’(45h) 18 ‘R’(52h)
6 ‘F’(46h) 19 ‘S’(53h)
7 ‘G’(47h) 20 ‘T’(54h)
8 ‘H’(48h) 21 ‘U’(55h)
9 ‘I’(49h) 22 ‘V’(56h)
10 ‘J’(4Ah) 23 ‘W’(57h)
11 ‘K’(4Bh) 24 ‘X’(58h)
12 ‘L’(4Ch) 25 ‘Y’(59h)
13 ‘M’(4Dh) 26 ‘Z’(5Ah)
ALL ‘*’(2Ah)

Ex.) If you want to control a monitor that has the "ID No." as '1', specify a

destination address 'A'(41h). If you want to control all of the monitors which

are connected by a daisy chain, specify a destination address ‘＊’(2Ah).

4thbyte) Source: Source equipment ID. (Sender)

Specify a sender address.
The controller must be ‘0’ (30h).

5thbyte) Message Type: (Case sensitive.)

Refer to section 5.1.2. “Message block format” for more details.
ASCII 'A' (41h): Command.
ASCII 'B' (42h): Command reply.
ASCII 'C' (43h): Get current parameter from a monitor.

ASCII 'D' (44h): "Get parameter" reply.
ASCII 'E' (45h): Set parameter.

ASCII 'F' (46h): "Set parameter" reply.

6th -7th bytes) Message Length:

Specify the length of the message (that follows the header) from STX to ETX.

This length includes STX and ETX.

The byte data must be encoded to ASCII characters.

Ex.) The byte data 3Ah must be encoded to ASCII characters '3' and 'A' (33h and 41h).

 The byte data 0Bh must be encoded to ASCII characters '0' and 'B' (30h and 42h).

5.1.2. Message block format

“Message block format” is allied to the “Message Type” in the “Header”.

Refer to the section 5.2. “Message type” for more detail.

1

）

Get currentparameter

The controller sends this message when you want to get the status of the monitor.
For the status that you want to get, specify the “OP code page” and “OP code”,
refer to 5.3.1. “VCP (OP code page/OP code) List”.

“Message type” of the “Get current



STX



<< Refer to section 5.2.1. “Get current parameter from a monitor.” for more details.>>

Header



parameter” is as follows,

OP code page OP code
Hi Lo Hi Lo

Message

Check code Delimiter

ETX

6



2）Get Parameter reply

OP code

Hi Lo Hi Lo Hi Lo Hi Lo

Hi Lo Hi Lo Hi Lo Hi Lo

The monitor will reply with the status of the requested item specified by the
controller
in the “Get parameter message”.

“Message type” of the “Get parameter reply” is as follows,

STX

3）Set parameter

The controller sends this message to change a setting of the monitor.

4）Set Parameter reply

The monitor replies with this message for a confirmation of the “Set parameter

message”.

STX

5）Command

“Command message” format depends on each command.
Usually, this “command message” is used for some non-slider controls and some
special operations, such as “power control”, etc. Refer to section 5. 4 .
“Commands message” for more details.

6）Command reply

The monitor replies to a query from the controller.
“Command reply message” format depends on each command.
Refer to section 5.4. “Commands message” for more details.

Result

<< Refer to section 5.2.2. “Get parameter reply” for more details. >>

Message type of the “Set parameter” is as follows,

<< Refer to section 5.2.3. “Set parameter” for more details.>>

Message type of the “Set parameter reply” is as follows,

Result

<< Refer to section 5.2.4. “Set parameter reply” for more details. >>

page

STX

OP
code
page

OP code

OP code

page

Hi Lo Hi Lo MSB

OP

code

Type Max value Current Value

MSB

OP
code

Type Max value

Set Value

MSB

LSB MSB

ETX

LSB

Requested

setting Value

LSB MSB LSB

ETX

LSB

ETX

7



7

6

5

4

3

2

1

0

n+1

Source

Message

OP code

Check

01

5.1.3. Check code

Header Message

Check code is the Block Check Code (BCC) between the Header and the End of Message except SOH.

2

2

2
SOH D0
Reserved D1
Destination D2
Source D3
Type D4
Length D5
D6
STX D7
Data D8
| |
| |
ETX Dn
Check code D

D

= D1 XOR D2 XOR D3 XOR ,,, D

n+1

P P P P P P P P

n

XOR: Exclusive OR

Following is an example of a Check code (BCC) calculation.

Header Message

Destina

SOH Reserved

30 41 30 45 30 41 02 30 30 31 30 30 30 36 34 03 77

D

D1 D2 D3 D4 D5 D6 D7 D

0

tion

Address

Address

type

Message length STX

Check code

2

2

page

8

Delimiter

2

2

2

OP code Set Value ETX

D

D

D

D

D

9

10

11

12

D

13

14

D

D

15

Check code (BCC) D17 = D1 xor D2 xor D3 xor … xor D14 xor D15 xor D16
= 30h xor 41h xor 30h xor 45h xor 30h xor 41h
xor 02h xor 30h xor 30h xor 31h xor 30h xor 30h
xor 30h xor 36h xor 34h xor 03h
= 77h

5.1.4. Delimiter

Header Message Check code

Delimiter

Packet delimiter code; ASCII CR(0Dh).

16

code

(BCC)

D

17

Delimiter

0D

D18

8







HiLo











5.2.

Message type

5.2.1. Get current Parameter from a monitor.

Send this message when you want to get the status of a monitor.

For the status that you want to get, specify the “OP code page” the “OP code”, refer to
“VCP (OP code page/OP code) List”.

1

2

4th–5thbytes) OP code: Operation code

th

6

STX

1st 2nd-3rd 4th–5th 6th

st

byte) STX: Start of Message

ASCII STX (02h)

nd-3rd

bytes) OP code page: Operation code page.

Specify the “OP code page” for the control which you want to get the status.

Refer to 5.3.1. “VCP (OP code page/OP code) List” for each item.
OP code page data must be encoded to ASCII characters.
Ex.) The byte data 02h must be encoded to ASCII characters '0' and '2' (30h
OP code page 02h -> OP code page (Hi) = ASCII '0' (30h)
OP code page (Lo) = ASCII '2' (32h)

Refer to 5.3.1. “VCP (OP code page/OP code) List”.

Refer to 5.3.1. “VCP (OP code page/OP code) List” for each item.

OP code data must be encoded to ASCII characters.
Ex.) The byte data 3Ah must be encoded to ASCII characters '3' and 'A' (33h and 41h).
OP code 3Ah -> OP code (Hi) = ASCII '3' (33h)
OP code (Lo) = ASCII 'A' (41h)

Refer to 5.3.1. “VCP (OP code page/OP code) List”.

byte) ETX: End of Message

ASCII ETX (03h)

5.2.2. "Get parameter" reply

Result OPcodepageOPcode

OPcodepage OPcode

ETX

Hi Lo Hi Lo

and 32h).

Type Maxvalue CurrentValue

STX

Hi Lo Hi LoHi LoMSB

LSBMSB

LSB



5.3.1.

ETX

1st 2nd-3rd 4th–5th 6th–7th 8th-9th 10th-13th 14th-17th 18th

The monitor replies with a current value and the status of the requested item (operation code).

st

1

byte) STX: Start of Message

ASCII STX (02h)

nd-3rd

2

bytes) Result code.

These bytes indicate a result of the requested commands as follows,

00h: No Error.
01h: Unsupported operation with this monitor or unsupported operation under current
condition.

This result code from the monitor is encoded to ASCII characters.

Ex.) The byte data 01h is encoded to ASCII character '0' and '1' (30h and 31h).

th–5th

4

bytes) OP code page: Operation code page.

These bytes indicate a replying item's OP code page.

This returned value from the monitor is encoded to ASCII characters.
Ex.) The byte data 02h is encoded to ASCII character '0' and '2' (30h and 32h).
Refer to 5.3.1. “VCP (OP code page/OP code) List”.

6th –7thbytes) OP code: Operation code

These bytes indicate a replying item's OP code.

This returned value from the monitor is encoded to ASCII characters.
Refer to 5.3.1. “VCP (OP code page/OP code) List”.
Ex.) The byte data 1Ah is encoded to ASCII character '1' and 'A' (31h and 41h).

9













HiLo









th

8

-9thbytes) Type: Operation type code
00h: Set parameter
01h: Momentary
Like the Auto Setup function which automatically changes the parameter.

This returned value from the monitor is encoded to ASCII characters.
Ex.) The byte data 01h is encoded to ASCII character '0' and '1' (30h and 31h).

th

10

-13thbytes) Max. value: Maximum value which monitor can accept. (16bits)
This returned value from the monitor is encoded to ASCII characters.
Ex.) '0','1','2' and '3' means 0123h (291)

th

14

-17thbytes) Current Value: (16bits)
This returned value from the monitor is encoded to ASCII characters.
Ex.) '0','1','2' and '3' means 0123h (291)

th

18

byte) ETX: End of Message

ASCII ETX (03h)

5.2.3. Set parameter

STX

1

OPcodepageOPcode SetValue

Hi Lo Hi Lo MSB

st

2nd-3rd 4th-5th 6th-9th 10

LSB

ETX

th

Send this message to change monitor’s adjustment and so on.
The controller requests a monitor to change value.

st

1

byte) STX: Start of Message

ASCII STX (02h)

nd-3rd

2

bytes) OP code page: Operation code page
This OP code page data must be encoded to ASCII characters.
Ex.) The byte data 02h must be encoded to ASCII '0' and '2' (30h and 32h).
Refer to 5.3.1. “VCP (OP code page/OP code) List”.

th-5th

4

bytes) OP code: Operation code
This OP code data must be encoded to ASCII characters.
Ex.) OP code 1Ah -> OP code (Hi) = ASCII '1' (31h)
OP code (Lo) = ASCII 'A' (41h)
Refer to 5.3.1. “VCP (OP code page/OP code) List”.

th-9th

6

bytes) Set value
This data must be encoded to ASCII characters.
Ex.) 0123h -> 1

2
3
4

th

10

byte) ETX: End of Message

: (

16bit)

st

(MSB) = ASCII '0' (30h)

nd

= ASCII '1' (31h)

rd

= ASCII '2' (32h)

th

(LSB) = ASCII '3' (33h)

ASCII ETX (03h)

5.2.4. "Set parameter" reply

ResultOPcodepageOPcodeType Maxvalue RequestedsettingValue

Hi Lo HiLo HiLoMSB

st

1

2nd-3

rd

4th-5th 6th-7th 8th-9th 10th-13th 14th-17th 18th

LSBMSB  LSB

<< The Monitor echoes back the parameter and status of the requested operation code.>>

byte) STX: Start of Message

ASCII STX (02h)

1

STX

st

ETX

10



nd-3rd

2

bytes) Result code

ASCII '0''0' (30h, 30h): No Error.
ASCII '0''1' (30h, 31h): Unsupported operation with this monitor or unsupported operation under
current condition.

th-5th

4

bytes) OP code page: Echoes back the Operation code page for confirmation.
Reply data from the monitor is encoded to ASCII characters.
Ex.) OP code page 02h -> OP code page = ASCII '0' and '2' (30h and 32h)
Refer to 5.3.1. “VCP (OP code page/OP code) List”.

th-7th

6

bytes) OP code: Echoes back the Operation code for confirmation.
Reply data from the monitor is encoded to ASCII characters.
Ex.) OP code 1Ah -> OP code (Hi) = ASCII '1' (31h)
OP code (Lo) = ASCII 'A' (41h)
Refer to 5.3.1. “VCP (OP code page/OP code) List”.

th-9th

8

bytes) Type: Operation type code

ASCII '0''0' (30h, 30h): Set parameter
ASCII '0''1' (30h, 31h): Momentary
Like Auto Setup function, that automatically changes the parameter.

th

10

-13thbytes) Max. value: Maximum value that monitor can accept. (16bits)

Reply data from the monitor is encoded to ASCII characters.
Ex.) '0''1''2''3' means 0123h (291)

th

14

-17thbytes) Requested setting Value: Echoes back the parameter for confirmation. (16bits)

Reply data from the monitor is encoded to ASCII characters.
Ex.) '0''1''2''3' means 0123h (291)

th

18

byte) ETX: End of Message
ASCII ETX (03h)

11



5.3. VCP Command

5.3.1. VCP (OP code page/OP code) List

Picture Mode 02h 1Ah

Item

Brightness 00h 10h

Contrast 00h 12h

Color 02h 1Fh

Tint 00h 90h

Sharpness 00h 8Ch/87h

PICTURE

Color Temp NA NA

R 00h 16h

Size 02h 70h

Auto in progress 00h 1Eh 1: Execute Only PC mode

G 00h 18h

B 00h 1Ah

OP code

page

OP code Parameter Remarks

0: User
1: Dynamic
2: Standard
3: Movie
4: Mild
0: dark
|
100: bright
0: low
|
100: high

0: pale
|
100: deep
0:
|
100:
0: dull
|
100: sharp
User
Normal
Cool1
Cool2
Warm1
Warm2
0
|
100

0
|
100
0
|
100
1: Normal
2: Full
3: Wide
4: Zoom

User only

User only

User only

User only

User only

NA

User only

User only

User only

?

0: whisper

Volume 00h 62h

SOUND

B ala n c e 0 0h 93h

Lan g uag e 00h 6 8 h

SET UP

|
100: loud

O : L e f t
|
5 0:( C e n t er)
|
1 00: R i g ht
0: N OP
1: E ngl i sh
2: G erm a n
3: F ren c h
4: S pan i sh
12: Por t ugu e se

OSD Lan g uag e

12



OSD Tone 02h B8h

Fan control not used the

BG Gray 02h DFh

Fan Control 02h 7Dh

Input 00h 60h

0: None
1: Off(Opaque)
2: ON

0: black
/
Max:white

0: None
1: Auto
2: Always On

0: NOP
1: PC
3: DVI
4: HDMI
5: AV1
6: AV2
7: S-VIDEO
12: Component

‘off’ command.

Mute 00h 8Dh

0,2: UNMUTE
1: MUTE

ETC

Cooling Fan Status 02h 7Bh

Read Out Temparature 02h 79h Get only

Hours Running On Time 00h FAh Only read 1 count/30 minute
Dis p lay Dev i ce On T ime 0 0 h FF O n ly r ea d 1 c o unt / 30 m in u te

0:off
1:on

Get only

Get current temperature
of main sensor.(only get)

13



5.3.2. How to change the “Brightness” setting.

The following is a sample of procedures to control the monitor, these are examples of "Get

parameter", "Set parameter" and "Save current settings".

Step 1. The controller requests the Monitor to reply with the current brightness setting and

capability to support this operation. (Get parameter)

Header Message Check code Delimiter
SOH-'0'-Monitor ID-'0'-'C'-'0'­'6'

Header

SOH (01h): Start Of Header
'0' (30h): Reserved
Monitor ID: Specify the Monitor ID from which you want to get a value.

Ex.) If Monitor ID is '1', specify 'A'.
'0' (30h): Message sender is the controller.
'C' (43h): Message type is "Get parameter command".
'0'-'6' (30h, 36h): Message length is 6 bytes.

Message

STX (02h): Start of Message
'0'-'0' (30h, 30h): Operation code page number is 0.
'1'-'0' (31h, 30h): Operation code is 10h (in the OP code page 0).
ETX (03h): End of Message

Check code

BCC: Block Check Code
R efe r to th e se c tio n 5 . 1.3 . “C heck co d e” f or a BCC calculation.

Delimiter

CR (0Dh): End of packet

Step 2. The monitor replies with current Brightness setting and capability to support this

operation.

Header Message Check code

SOH-'0'-'0'-Monitor ID-'D'-'1'-'2' STX-'0'-'0'-'0'-'0'-'1'-'0'-'0'-'0'

Header

SOH (01h): Start Of Header
'0' (30h): Reserved
'0' (30h): Message receiver is the controller.

Monitor ID: Indicate a replying Monitor ID.

Ex.) When this byte is set to 'A', the replying Monitor ID is '1'.
'D' (44h): Message Type is "Get parameter reply".
'1'-'2' (31h, 32h): Message length is 18 bytes.

Message

STX (02h): Start of Message

'0'-'0' (30h, 30h): Result code. No error.
'0'-'0' (30h, 30h): Operation code page number is 0.
'1'-'0' (31h, 30h): Operation code is 10h (in the page 0).
'0'-'0' (30h, 30h): This operation is "Set parameter" type.
'0'-'0'-'6'-'4' (30h, 30h, 36h, 34h): Brightness max value is 100(0064h).
'0'-'0'-'3'-'2' (30h, 30h, 33h, 32h): Current Brightness setting is 50(0032h) .
ETX (03h): End of Message

Check code

BCC: Block Check Code
R efe r to th e se c tio n 5 . 1.3 . “C heck co d e” f or a BCC calculation.

Delimiter

CR (0Dh): End of packet

STX-'0'-'0'-'1'-'0'-ETX BCC CR

Delimiter

BCC CR

-'0'-'0'-'6'-'4'-'0'-'0'-'3'-'2'-

ETX

14



Step 3. The controller request the monitor to change the Brightness setting

Header Message

SOH-'0'-Monitor ID-'0'-'E'-'0'­'A'

Header

SOH (01h): Start Of Header
'0' (30h): Reserved
Monitor ID: Specify the Monitor ID of which you want to change a setting.

Ex.) If Monitor ID is '1', specify 'A'.
'0' (30h): Message sender is the controller .
'E' (45h): Message Type is "Set parameter command".
'0'-'A' (30h, 41h): Message length is 10 bytes.

Message

STX (02h): Start of Message

'0'-'0' (30h, 30h): Operation code page number is 0.
'1'-'0' (31h, 30h): Operation code is 10h (in the page 0).
'0'-'0'-'5'-'0' (30h, 30h, 35h, 30h): Set Brightness setting 80(0050h).

ETX (03h): End of Message

Check code

BCC: Block Check Code
R efe r to th e se c tio n 5 . 1.3 . “C heck co d e” f or a BCC calculation.

Delimiter

CR (0Dh): End of packet

Step 4. The monitor replies with a message for confirmation.

Header Message

SOH-'0'-'0'- Monitor ID -'F'-'1'­'2'

Header

SOH (01h): Start Of Header
'0' (30h): Reserved
'0' (30h): Message receiver is the controller.
Monitor ID: Indicate a replying Monitor ID.

Ex.) When this byte is set to 'A', the replying Monitor ID is '1'.

'F' (46h): Message Type is "Set parameter reply".

'1'-'2' (31h, 32h): Message length is 18 bytes.

Message

STX (02h): Start of Message

'0'-'0' (30h, 30h): Result code. No error.
'0'-'0' (30h, 30h): Operation code page number is 0.
'1'-'0' (31h, 30h): Operation code is 10h (in the page 0).
'0'-'0' (30h, 30h): This operation is "Set parameter" type.
'0'-'0'-'6'-'4' (30h, 30h, 36h, 34h): Brightness max value is 100(0064h).
'0'-'0'-'5'-'0' (30h, 30h, 35h, 30h): Received a Brightness setting was 80(0050h) .
ETX (03h): End of Message

Check code

BCC: Block Check Code
R e fe r to the sec tio n 5. 1 .3. “C h eck cod e” f or a BCC calculation.

Delimiter

CR (0Dh): End of packet



Repeat Step 1 and Step 2, if you need to check the Brightness setting. (Recommended)

Step 5. Request the monitor to store the Brightness setting. (Save Current Settings Command)

Header Message Check

SOH-'0'-Monitor ID-'0'-'A'-'0'-'4' STX-'0-'C'-ETX BCC CR

Header

STX-'0'-'0'-'1'-'0'-'0'-'0'-'5'-'0'­ETX

STX-'0'-'0'-'0'-'0'-'1'-'0'—'0'-'0'­'0'-'0'-'6'-'4'-'0'-'0'-'5'-'0'-ETX

Delimiter

code

Check

code

BCC CR

Check

code

BCC CR

Delimiter

Delimiter

15



SOH (01h): Start Of Header
'0' (30h): Reserved
Monitor ID: Specify the Monitor ID which you want to store the setting.

Ex.) If Monitor ID is '1', specify 'A'.
'0' (30h): Message sender is the controller.
'A' (41h): Message type is "Command".
'0'-'4' (30h, 34h): Message length is 4 bytes.

Message

STX (02h): Start of Message
'0'-'C' (30h, 43h): Command code is 0Ch as "Save current settings".
ETX (03h): End of Message

Check code

BCC: Block Check Code
R efe r to th e se c tio n 5 . 1.3 . “C heck co d e” f or a BCC calculation.

Delimiter

CR (0Dh): End of packet

16



Power control

5.4. Commands message

5.4.1. Power Command

Power Mode

Power status read )

(

POWER On/Off

procedure

(

Power control )

01h D6h

C2h,03h D6h

1: ON
2: Standby
4: OFF

1: ON
4: OFF

5.4.2. Power status read

1)Thecontrollerrequeststhemonitortoreplyacurrentpowerstatus.

Header Message Check code Delimiter

SOH-'0'-Monitor ID-'0'-'A'-'0'-'6' STX-'0'-'1'-'D'-'6'-ETX BCC CR

Header

SOH (01h): Start Of Header
'0' (30h): Reserved
Monitor ID: Specify the Monitor ID from which you want to get status.

Ex.) If Monitor ID is '1', specify 'A'.
'0' (30h): Message sender is the controller.
'A' (41h): Message Type is "Command".
'0'-'6' (30h, 36h): Message length is 6 bytes.

Message

STX (02h): Start of Message

'0'-'1'-'D'-'6': Get power status command.
ETX (03h): End of Message

Check code

BCC: Block Check Code

Refer to the section 5.1.3. “Check code” for a BCC calculation.

Delimiter

CR (0Dh): End of packet

2)Themonitorreturnswiththecurrentpower status.

Get only

Set only

Header Message

SOH-'0'-'0'-Monitor ID-'B'-'1'-'2' STX-'0'-'2'-'0'-'0'-'D'-'6'-'0'-'0'-

'0'-'0'-'0'-'4'-'0'-'0'-'0'-'1'-ETX



Header

SOH (01h): Start Of Header
'0' (30h): Reserved
'0' (30h): Message receiver is the controller.
Monitor ID: Indicate a replying Monitor ID.

Ex.)



When this byte is set to 'A', the replying Monitor ID is '1'.
'B' (42h): Message Type is "Command reply".
'1'-'2' (31h, 32h): Message length is 18 bytes.

Message

STX(02h):Start of Message
'0'-'2' (30h, 32h): Reserved data
'0'-'0' (30h, 30h): Result code

00: No Error.

01: Unsupported.
'D'-'6'(44h, 36h): Display power mode code
'0'-'0' (30h, 30h): Parameter type code is "Set parameter".

Check

code

BCC CR

Delimiter

17



'0'-'0'-'0'-'4' (30h, 30h, 30h, 34h): Power mode is 4 types.
'0'-'0'-'0'-'1' (30h, 30h, 30h, 31h): Current power mode

<Status>

0001: ON
0002: Stand-by (power save)
0003: Suspend (power save)
0004: OFF (same as IR power off)

ETX (03h): End of Message

Check code

BCC: Block Check Code
R efe r to th e se c tio n 5 . 1.3 . “C heck co d e” f or a BCC calculation.

Delimiter

CR (0Dh): End of packet

5.4.3. Power control

1)Thecontrollerrequeststhemonitortoc ontrolmonitorpower.

Header Message

SOH-'0'-Monitor ID-'0'-'A'-'0'-'C' STX-'C'-'2'-'0'-'3'-'D'-'6'-

'0'-'0'-'0'-'1'-ETX

Header

SOH (01h): Start Of Header
'0' (30h): Reserved
Monitor ID: Specify the Monitor ID which you want to change a setting.

Ex.) If Monitor ID is '1', specify 'A'.
'0' (30h): Message sender is the controller.
'A' (41h): Message type is "Command".
'0'-'C (30h, 43h): Message length is 12 bytes.

Message

STX (02h): Start of Message
'C'-'2'-'0'-'3'-'D'-'6' (43h, 32h, 30h, 33h, 44h, 36h): power control command
'0'-'0'-'0'-'1' (30h, 30h, 30h, 31h): Power mode

0001: ON
0002, 0003: Do not set.
0004: OFF (same as the power off by IR)

ETX (03h): End of Message

Check code

BCC: Block Check Code
R efe r to th e se c tio n 5 . 1.3 . “C heck co d e” f or a BCC calculation.

Delimiter

CR (0Dh): End of packet

Check

code

BCC CR



Delimiter





2)Themonitorrepliesadataforconfirmatio n.

Header Message

SOH-'0'-'0'-Monitor ID-'B'­'0'-'E'

STX-'0'-'0'-'C'-'2'-'0'-'3'-'D'-'6'­'0'-'0'-'0'-'1'-ETX

Check

ode

BCC CR

Delimiter



Header

SOH (01h): Start Of Header

'0' (30h): Reserved

'0' (30h): Message receiver is the controller.

Monitor ID: Indicate a replying Monitor ID.

Ex.)



When this byte is set to 'A', the replying Monitor ID is '1'.
'B' (42h): Message type is "Command reply".
'N'-'N': Message length

18



Note.) The maximum data length that can be written to the monitor at a time is
32bytes.
Ex.) The byte data 20h is encoded as ASCII characters '2' and '0' (32h and 30h).

Message

STX (02h): Start of Message
'0'-'0' (30h, 30h): Result code. No error.

'C'-'2’,'0'-'3'-'D'-'6' (43h, 32h, 30h, 33h, 44h, 36h): power control reply command



The monitor replies same as power control command to the controller.

'0'-'0'-'0'-'1' (30h, 30h, 30h, 31h): Power mode

0001: ON
0002, 0003: Do not set.
0004: OFF (same as the power off by IR)

ETX (03h): End of Message

Check code

BCC: Block Check Code
R efe r to th e se c tio n 5 . 1.3 . “C heck co d e” f or a BCC calculation.

Delimiter

CR(0Dh):Endofpacket

19



6.1.2

. Setting Parameters to Juno

6.1.

3. Read Param eters from Juno

6. Optional Commands

6.1. Communication Format (for Optional Commands)

6.1.1. Virtual Remote Control

20



6.2. Control Command Packet



6.2.1. System Parameter Direct Settings/Read Packet

CMD Data1 Data2 Data3

Command Target ID CMD Param

0xF5

(Start Set)

0xF4

(Start Get)

0x88(Set)
0x89(Get)

0x00

0xFE

Set /Get

Param.

Data4

0x00
0x01
0x02
0x03
0x04
0x05
0X06
0x07
0x08

0x09
0x0A
0x0B
0x0C
0x0D

0x0E

0x0F

0x10

0x11

0x16

0x17

0x18
0x1A
0x1C
0x1D

0x1E

0x1F

0x20

0x21

0x22

0x23

0x24

0x25

0x26

0x27

0x28
0x2A
0x2B
0x2C
0x2D

0x2E

0x2F

0x30

0x31

Data5 Range
Value

0x00~0xFF

(By Min-Max)

Not Send

in Get Mode

Description

LANGUAGE 0 5
CURRENTSOURCE
PC_PICTUREMODE 0 4
COLORTEMP 0 5
CONTRAST 0 100
BRIGHTNESS 0 100
SHARPNESS 0 100
RF_PICTUREMODE 0 4
RF_COLORTONE 1 5
RF_CONTRAST 0 100
RF_BRIGHTNESS 0 100
RF_COLOR 0 100
NTSC_TINT 0 100
RF_SHARPNESS 0 100
SCALEMODE 0 ­USERRED 0 100
USERGREEN 0 100
USERBLUE 0 100
MUTE 0 1
SOUNDSTD 0 4
AUTOVOLUME 0 1
VOLUME 0 100
BALANCE 0 100
EQ100HZ 0 20
EQ300HZ 0 20
EQ1KHZ 0 20
EQ3KHZ 0 20
EQ10KHZ 0 20
ONHOUR 0 23
ONMINUTE 0 59
ONTIMEONOFF 0 1
ONTIMEVOL 0 100
OFFHOUR 0 23
OFFMINUTE 0 59
OFFTIMEONOFF 0 1
HALFTONE 0 1
BLUESCREEN 0 1
PIXELSHIFT_EN 0 1
WIPER_EN 0 1
BGGRAY 0 7
POWER(read only) 0 1
CURHOUR 0 23
CURMINUTE 0 59

Min Max

(1)

0 10

21



Notice

(1) CURSOURCE Setting Value
AV1:0, AV2:1, AV3:2, COMP1:6, DVI:9, DS UB:10

(2) MAX_ILLUMINANCE Settings
Setting Value = Ambient Level (by LUX) / 100
Ex) Desired Ambient is 10000 Lux, Setting is 100 (= 10000 / 100)

(3) MIN_ILLUMINACE Settings
Setting Value = Ambient Level (by LUX) / 10
Ex) Desired Ambient is 200 Lux, Setting is 20 (= 200 / 10)

(4) TEMP_THRESHOLD Settings
Setting Value = Desired temperture(by Celsius) x 2 + 60

Ex) Desired temperature is 60℃, Setting is 180 (= 60 x 2 + 60)

(5) TEMP_HYSTERESIS Settings
Setting Value = Desired Hysteresis(by Celsius) x 2

Ex) Desired Hysteresis is 2℃, Setting is 4 (= 2 x 2)

0x33

0x34

0x35

0x37

0x38

0x39
0x3A
0x3B
0x3C
0x3D

0x3E

0x3F

0x40

0x41

0x42

MAX_ILLUMINANCE
MIN_ILLUMINANCE

(2)

0 200

(3)

0 200
AUTO_DIM 0 1
CURTEMP_MAIN 0 ­CURTEMP_AUX 0 ­TEMP_THRESHOLD
TEMP_HYSTERESIS

(4)

60 200

(5)

2 20
FAN_CONTROL 1 2
FAN_ACTIVE(only read)

0 1
SETX 0 2
SETY 0 2
SETXMAX 1 3
SETYMAX 1 3
SETXGAP 0 200

SETYGAP 0 200

22



6.3. Control Examples at Master PC

6.3.1. Set Input Source to RGB Input

6.3.2. Read Power State

23



7. Typical procedure example

The following is a sample of procedures to control the monitor, these are examples of “ Set parameter” , “ Get
parameter”.

7.1. “ Language ” Control procedure

7.1.1. Language Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x00) : ‘Language’ parameter
Value : Data value
0 : English
1 : Spanish
2 : Portuges
3 : German
4 : French

7.1.2. Language state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x00) : ‘Language’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current Language getting value

1 : Spanish
2 : Portuges
3 : German
4 : French

Target

(0x88)

Target

(0x89)

Value

0 : English

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x00)

Parameter

Value

24



7.2. “CURRENTSOURCE” Co n trol procedure

7.2.1. Current Source Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x01) : ‘ Current Sourc e ’ parameter
Value : Data value
0 : AV1
1 : AV2
2 : AV3
6 : COMPONENT
9 : DVI
10 : DSUB

7.2.2. Current Source state read

CMD Data1 D ata2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x01) : ‘Current Source’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current Source getting value

1 : AV2
2 : AV3
6 : COMPONENT
9 : DVI
10 : DSUB

Target

(0x88)

Target

(0x89)

Value

0 : AV1

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x01)

Parameter

(0x01)

Value

25



7.3. “PC_PICTUREMODE” Control procedure

7.3.1. Picture Control (PC, Digital video mode)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x02) : ‘ PC_PICTUREMODE ’ parameter
Value : Data value
0 : User
1 : dynamic
2 : standard
3 : movie
4 : mild

7.3.2. Current Picture state read (PC, Digital video mode)

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x02) : ‘PC_PICTUREMODE’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current PC mode PICTURE getting value

1 : dynamic
2 : standard
3 : movie
4 : mild

Target

(0x88)

Target

(0x89)

Value

0 : User

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x02)

Parameter

(0x02)

Value

26



7.4. “COLORTEMP” Control procedure

7.4.1. color temperature Control (PC, Digital video mode)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x03) : ‘ COLORTEMP ’ parameter
Value : Data value
0 : User
1 : cool2
2 : cool1
3 : normal
4 : warm1
5 : warm2

7.4.2. Current Color temperature state read (PC, Digital video mode)

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x03) : ‘COLORTEMP’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current color temperature getting value

1 : cool2
2 : cool1
3 : normal
4 : warm1
5 : warm2

Target

(0x88)

Target

(0x89)

Value

0 : User

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x03)

Parameter

(0x03)

Value

27



7.5. “CONTRAST” Control procedure

7.5.1. Contrast Control (PC, Digital video mode)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x04) : ‘ CONTRAST ’ parameter
Value: 0 ~ 100 (range)

7.5.2. Current Contrast state read(PC, Digital video mode)

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x04) : ‘ CONTRAST ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current CONTRAST getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 100 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x04)

Parameter

(0x04)

Value

28



7.6. “BRIGHTNESS” Control procedure

7.6.1. Brightness Control (PC, Digital video mode)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x05) : ‘ BRIGH TNESS ’ parameter
Value: Data value

1 : dynamic
2 : standard
3 : movie
4 : mild

7.6.2. Current Brightness state read(PC, Digital video mode)

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x05) : ‘ BRIGHTNESS ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current BRIGHTNESS getting value

1 : dynamic
2 : standard
3 : movie
4 : mild

Target

(0x88)

0 : User

Target

(0x89)

Value

0 : User

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x05)

Parameter

(0x05)

Value

29



7.7. “SHARPNESS” Control procedure

7.7.1. Sharpness Control (PC, Digital video mode)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x06) : ‘ SHARPNESS ’ parameter
Value: 0 ~ 100 / step 5 (range)

7.7.2. Current Sharpness state read (PC, Digital video mode)

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x06) : ‘SHARPNESS ’ param eter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current SHARPNESS getting value

0 ~ 100 / step5 (range)

Target

(0x88)

Target

(0x89)

Value

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x06)

Parameter

(0x06)

Value

30



7.8. “RF_PICTUREMODE” Control procedure

7.8.1. Picture Control (AV , S-video , Component mode)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x07) : ‘ PICTUREMODE ’ parameter
Value : Data value
0 : User
1 : dynamic
2 : standard
3 : movie
4 : mild

7.8.2. Current Picture state read (AV , S-video , Component mode)

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x07) : ‘RF_PICTURE ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current Picture g etting value

1 : dynamic
2 : standard
3 : movie
4 : mild

Target

(0x88)

Target

(0x89)

Value

0 : User

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x07)

Parameter

(0x07)

Value

31



7.9. “ RF_COLORTONE ” Control procedure

7.9.1. Color temper ature Control (AV , S-video , Component mode)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x08) : ‘ RF_COLORTONE ’ parameter
Value : Data value

2 : cool1
3 : normal
4 : warm1
5 : warm2

7.9.2. Current RF_COL ORTONE state read (AV , S-video , Component mode)

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x08) : ‘ RF_COLORTONE ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current RF_COLORTONE getting value

2 : cool1
3 : normal
4 : warm1
5 : warm2

Target

(0x88)

1 : cool2

Target

(0x89)

Value

1 : cool2

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x08)

Parameter

(0x08)

Value

32



7.10. “ RF_CONTRAST ” Control procedure

7.10.1. Contrast Control (AV , S-video , C omponent mode)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x09) : ‘ RF_CONTRAST ’ parameter
Value: 0 ~ 100 (range)

7.10.2. Current Contrast state read(AV , S-v ideo , Component mode)

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x09) : ‘ RF_CONTRAST ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current RF_CONTRAST getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 100 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x09)

Parameter

(0x09)

Value

33



7.11. “ RF_BRIGHTNESS ” Control procedure

7.11.1. Brightness Control (AV , S-video , Component mode)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x0A) : ‘ RF_BRIGHTNESS ’ parameter
Value: 0 ~ 100 (range)

7.11.2. Current Brightness state read(AV , S-video , Component mode)

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x0A) : ‘ RF_BRIGHTNESS ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current RF_BRIGHTNESS getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 100 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x0A)

Parameter

(0x0A)

Value

34



7.12. “ RF_COLOR ” Control procedure

7.12.1. Color Control (AV , S-video , Component mode)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x0B) : ‘ RF_COLO R ’ parameter
Value: 0 ~ 100 (range)

7.12.2. Current Color state read(AV , S-video , Component mode)

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x0B) : ‘ RF_COLOR ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current RF_COLOR getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 100 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x0B)

Parameter

(0x0B)

Value

35



7.13. “ NTSC_TINT ” Control procedure

7.13.1. TINT Control (AV , S-video , Component mode)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x0C) : ‘ NTSC_TINT ’ parameter
Value: 0 ~ 100 (range)

7.13.2. Current TINT state read(AV , S-video , Component mode)

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x0C) : ‘ N TSC_TINT ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current NTSC_TINT getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 100 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x0C)

Parameter

(0x0C)

Value

36



7.14. “ RF_SHARPNESS ” Control procedure

7.14.1. Sharpness Control (AV , S-video , Component mode)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x0D) : ‘ RF_SHARP NESS ’ parameter
Value: 0 ~ 100 (range)

7.14.2. Current Sharpness state read(AV , S-video , Component mode)

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x0D) : ‘RF_SHARPNESS ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current RF_SHARPNESS getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 100 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x0D)

Parameter

(0x0D)

Value

37



AV , S

-

video , Component mode





AV , S

-

video , Component mode





7.15. “SCALEMODE” Control procedure

7.15.1. Current Scale mode Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Target

(0x88)

Monitor ID

(0x00)

CMD

(0xFE)

Parameter

(0x0E)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x0E) : ‘ SCALEMODE ’ parameter
Value : Data value
1 : Full Scn
2 : Panorama
3 : Zoom1
4 : Zoom2
5 : 4:3
6 : 14:9
7 : 4:3
8 : Full Scn

PC, Digital video mode

9 : 1:1

7.15.2. Current Scale mode state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Target

(0x89)

Monitor ID

(0x00)

CMD

(0xFE)

Parameter

(0x0E)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x0E) : ‘SCALEMODE’ parameter

CMD Data1

Command

(0xF1)

Value

Command (0xF1) : Start send bit
Value : Current Source getting value
1 : Full Scn
2 : Panorama
3 : Zoom1
4 : Zoom2
5 : 4:3
6 : 14:9
7 : 4:3
8 : Full Scn

PC, Digital video mode

9 : 1:1

Value

38



7.16. “ USERRED ” Control procedure

7.16.1. USERRED Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x0F) : ‘ USERRED ’ parameter
Value: 0 ~ 100 (range)

7.16.2. Current USERRED state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x0F) : ‘USERRED ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current USERRED getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 100 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x0F)

Parameter

(0x0F)

Value

39



7.17. “ USERGREEN ” Control procedure

7.17.1. USERGREEN Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x10) : ‘ USERGREEN ’ parameter
Value: 0 ~ 100 (range)

7.17.2. Current USERGREEN state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x10) : ‘USERGREEN’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current USERGREEN getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 100 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x10)

Parameter

(0x10)

Value

40



7.18. “ USERBLUE ” Control procedure

7.18.1. USERBLUE Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x11) : ‘ USERBLUE ’ parameter
Value: 0 ~ 100 (range)

7.18.2. Current USERGREEN state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x11) : ‘USERBLUE’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current USERBLUE getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 100 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x11)

Parameter

(0x11)

Value

41



7.19. “MUTE” Control procedure

7.19.1. Mute Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x16) : ‘ MUTE ’ parameter
Value: Data value

1 : Mute On

7.19.2. Current Mute state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x16) : ‘ MUTE ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current MUTE getting value

1 : Mute On

Target

(0x88)

0 : Mute Off

Target

(0x89)

Value

0 : Mute Off

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x16)

Parameter

(0x16)

Value

42



7.20. “SOUNDSTD” Control procedure

7.20.1. Sound STD Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x17) : ‘ SOUN DSTD ’ parameter
Value: Data value

1 : Standard
2 : Music

3 : Movie

4 : Speech

7.20.2. Current SOUNDSTD state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x17) : ‘ SO UNDSTD ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current SOUNDSTD getting value

1 : Standard
2 : Music

3 : Movie

4 : Speech

Target

(0x88)

0 : User

Target

(0x89)

Value

0 : User

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x17)

Parameter

(0x17)

Value

43



7.21. “ AUTOVOLUME ” Control procedure

7.21.1. Auto Volume Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x18) : ‘ AUTOVOLUME ’ parameter
Value: Data value

7.21.2. Current AUTOVOLUME state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x18) : ‘ AUTOVOLUME ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current AUTOVOLUME getting val ue

Target

(0x88)

0 : Off
1 : On

Target

(0x89)

Value

0 : Off
1 : On

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x18)

Parameter

(0x18)

Value

44



7.22. “ VOLUME ” Control procedure

7.22.1. VOLUME Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x1A) : ‘ VOLUME ’ parameter
Value: 0 ~ 100 (range)

7.22.2. Current VOLUME state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x1A) : ‘VOLUME’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current VOLUME getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 100 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x1A)

Parameter

(0x1A)

Value

45



7.23. “ BALANCE ” Control procedure

7.23.1. BALANCE Control (sound L+R balance)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x1C) : ‘ BALANCE ’ parameter
Value: 0 ~ 100 (range)

7.23.2. Current BALANCE state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x1C) : ‘ BALANCE ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current BALANCE getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 100 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x1C)

Parameter

(0x1C)

Value

46



7.24. “ Equalizer ” Control procedure

7.24.1. Equalizer Control

CMD Data1 D ata2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter

0x1D : EQ 100Hz
0x1E : EQ 300Hz
0x1F : EQ 1KHz
0x20 : EQ 3KHz
0x21 : EQ 10KHz

Value: 0 ~ 20 (range)

7.24.2. Current BALANCE state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter

0x1D : EQ 100Hz
0x1E : EQ 300Hz
0x1F : EQ 1KHz
0x20 : EQ 3KHz
0x21 : EQ 10KHz

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current Equalizer getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 20 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

Parameter

Value

47



7.25. “ ONHOUR ” Control procedure

7.25.1. ONHOUR Control (Power on time)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x22) : ‘ ONHOUR ’ parameter
Value: 0 ~ 23 (range)

7.25.2. Current ONHOUR state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x22) : ‘ ONHOUR ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current ONHOUR getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 23 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x22)

Parameter

(0x22)

Value

48



7.26. “ ONMINUTE ” Control procedure

7.26.1. ONMINUTE Control (Power on time)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x23) : ‘ ONMINUTE ’ parameter
Value: 0 ~ 59 (range)

7.26.2. Current ONMINUTE state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x23) : ‘ ONMINUTE ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current ONMINUTE getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 59 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x23)

Parameter

(0x23)

Value

49



7.27. “ ONTIMEONOFF ” Control procedure

7.27.1. ONTIMEONOFF Control ( Power ON time control )

CMD Data1 D ata2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x24) : ‘ ONTIMEONOFF ’ parameter
Value: Data value

7.27.2. Current ONTIMEONOFF state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x24) : ‘ ONTIMEONOFF ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current ONTIMEONOFF getting value

Target

(0x88)

0 : Disable
1 : Enable

Target

(0x89)

Value

0 : Disable
1 : Enable

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x24)

Parameter

(0x24)

Value

50



7.28. “ ONTIMEVOL ” Control procedure

7.28.1. ONTIMEVOL Control (Power ON Volume)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x25) : ‘ ONTIMEVOL ’ parameter
Value: 0 ~ 100 (range)

7.28.2. Current ONTIMEVOL state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x25) : ‘ ONTIMEVOL ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current ONTIMEVOL getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 100 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x25)

Parameter

(0x25)

Value

51



7.29. “ OFFHOUR ” Control procedure

7.29.1. OFFHOUR Control (Power OFF time)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x26) : ‘ OFFHOUR ’ parameter
Value: 0 ~ 23 (range)

7.29.2. Current OFFHOUR state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x26) : ‘ OFFHOUR ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current OFFHOUR getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 23 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x26)

Parameter

(0x26)

Value

52



7.30. “ OFFMINUTE ” Control procedure

7.30.1. OFFMINUTE Control (Power OFF time)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x27) : ‘ OFFMINUTE ’ parameter
Value: 0 ~ 59 (range)

7.30.2. Current OFFMINUTE state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x27) : ‘ OFFMINUTE ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current OFFMINUTE getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 59 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x27)

Parameter

(0x27)

Value

53



7.31. “ OFFTIMEONOFF ” Control procedure

7.31.1. OFFTIMEONOFF Control ( Power OFF time control )

CMD Data1 D ata2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x28) : ‘ OFFTIMEONOFF ’ parameter
Value: Data value

7.31.2. Current OFFTIMEONOFF state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x26) : ‘ OFFTIMEONOFF ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current OFFTIMEONOFF getting value

Target

(0x88)

0 : Disable
1 : Enable

Target

(0x89)

Value

0 : Disable
1 : Enable

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x28)

Parameter

(0x26)

Value

54



7.32. “ HALFTONE ” Control procedure

7.32.1. HALFTONE Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x2A) : ‘ HALFTONE ’ parameter
Value: Data value

7.32.2. Current HALFTONE state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x2A) : ‘HALFTONE ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current HALFTONE getting value

Target

(0x88)

0 : Disable
1 : Enable

Target

(0x89)

Value

0 : Disable
1 : Enable

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x2A)

Parameter

(0x2A)

Value

55



7.33. “ BLUESCREEN ” Control procedure

7.33.1. BLUESCREEN Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x2B) : ‘ BLUESCREEN ’ parameter
Value: Data value

7.33.2. Current BLUESCREEN state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x2B) : ‘ BLUESCREEN ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current BLUESCREEN getting value

Target

(0x88)

0 : Disable
1 : Enable

Target

(0x89)

Value

0 : Disable
1 : Enable

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x2B)

Parameter

(0x2B)

Value

56



7.34. “ PIXELSHIFT_EN ” Control procedure

7.34.1. PIXELSHIFT_EN Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x2C) : ‘ PIXELSHIF_EN ’ parameter
Value: Data value

7.34.2. Current PIXELSHIFT_EN state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x2C) : ‘ PIXELSHIFT ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current PIXELSHIFT getting value

Target

(0x88)

0 : Disable
1 : Enable

Target

(0x89)

Value

0 : Disable
1 : Enable

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x2C)

Parameter

(0x2C)

Value

57



7.35. “ WIPER_EN ” Control procedure

7.35.1. WIPER Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x2D) : ‘ WIPER ’ parameter
Value: Data value

7.35.2. Current WIPER state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x2D) : ‘WIPER ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current WIPER getting value

Target

(0x88)

0 : Disable
1 : Enable

Target

(0x89)

Value

0 : Disable
1 : Enable

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x2D)

Parameter

(0x2D)

Value

58



7.36. “ BGGRAY ” Control procedure

7.36.1. BGGRAY Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x2E) : ‘ BGGRAY ’ parameter
Value: 0~7 (range)

7.36.2. Current BGGRAY state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x2A) : ‘BGGRAY ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current BGGRAY getting value

Target

(0x88)

Target

(0x89)

Value

0~7 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x2E)

Parameter

(0x2E)

Value

59



7.37. “ POWER ”(read only) Control procedure

7.37.1. Current Power state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x2F) : ‘POWER ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current Power state getting value

Target

(0x89)

Value

0 : Power off
1 : Power on

Monitor ID

(0x00)

CMD

(0xFE)

Parameter

(0x2F)

60



7.38. “ CURHOUR ” Control procedure

7.38.1. CURHOUR Control (Current time)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x30) : ‘ CURHOUR ’ parameter
Value: 0 ~ 23 (range)

7.28.2. Current CURHOUR state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x30) : ‘ CURH OUR ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current HOUR getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 23 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x30)

Parameter

(0x30)

Value

61



7.39. “ CURMINUTE ” Control procedure

7.39.1. CURMINUTE Control (Current time)

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x31) : ‘ CURMINUTE ’ parameter
Value: 0 ~ 59 (range)

7.39.2. Current CURMINUTE state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x31) : ‘ CUR MINUTE ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current MINUTE getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 59 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x31)

Parameter

(0x31)

Value

62



Dimming Control (7.40 ~ 7.42)
Auto dimming control mode. Refer to diagram of DBLC
On : Dimming varies by light ambient level
Off : Dimming varies by brightness of image settings

MAX_ILLUMINANCE
MIN_ILLUMINANCE
AUTO_DIM

Max dimming ambient level Setting Value = Ambient Level (by LUX) / 100
Min dimming ambient level Setting Value = Ambient Level (by LUX) / 10
Apply auto dimming 0 : off, 1: on

63



7.40. “ MAX_ILLUMINANCE ” Control procedure

7.40.1. MAX_ILLUMINANCE Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x33) : ‘ MAX_ILLUMINANCE ’ parameter
Value: 0 ~ 200 (range)

7.40.2.Current MAX_ILLUMINANCE state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x33) : ‘MAX_ILLUMINANCE ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current MAX_ILLUMINANCE getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 200 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x33)

Parameter

(0x33)

Value

64



7.41. “ MIN_ILLUMINANCE ” Control procedure

7.41.1. MIN_ILLUMINANCE Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x34) : ‘ MIN_ILLUMINANCE ’ parameter
Value: 0 ~ 200 (range)

7.41.2. Current MIN_ILLUMINANCE state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x34) : ‘MIN_ILLUMINANCE ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current MIN_ILL UMINANCE getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 200 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x34)

Parameter

(0x34)

Value

65



7.42. “ AUTO_DIM ” Control procedure

7.42.1. AUTO_DIM Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x35) : ‘ AUTO_DIM ’ parameter
Value: Data value

7.42.2. Current AUTO_DIM state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x35) : ‘AUTO_DIM’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current AUTO_DIM getting value

Target

(0x88)

0 : off
1 : on

Target

(0x89)

Value

0 : off
1 : on

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x35)

Parameter

(0x35)

Value

66



Fan Control (7.43 ~ 7.47)
There are three kind of fan control mode as below; Please refer to diagram of ATC
On : Always activates fan
Auto : Automatic activates/deactivates fans by temperature variation.

CURTEMP_MAIN
CURTEMP_AUX
TEMP_THRESHOLD

TEMP_HYSTERESIS
FAN_CONTROL

Get current temperature of main
sensor
Get current temperature of aux
sensor
Fan activation temperature Setting Value = Desired temperture(by Celsius) x 2 + 60

Fan activation hysteresis
temperature
Set fan control mode 1:on, 2: auto

Reversed equation of TEMP_THRESHOLD to get real
temperature
Reversed equation of TEMP_THRESHOLD to get real
temperature

Setting Value = Desired Hysteresis(by Celsius) x 2

67



7.43. “ CURTEMP_MAIN ” Control procedure

7.43.1. Current main Temperature state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x37) : ‘CURTEMP_MAIN ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current Temperature getting value

Target

(0x89)

Value

Monitor ID

(0x00)

CMD

(0xFE)

7.44. “ CURTEMP_AUX ” Control procedure

7.44.1. Current aux Temperature state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x38) : ‘CURTEMP_AUX ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current Temperature getting value

Target

(0x89)

Value

Monitor ID

(0x00)

CMD

(0xFE)

Parameter

(0x37)

Parameter

(0x38)

68



7.45. “ TEMP_THRESHOLD ” Control procedure

7.45.1. TEMP_THRESHOLD Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x39) : ‘ TEMP_THRESHOLD ’ parameter
Value: 60 ~ 200 (range)

7.45.2. Current TEMP_THRESHOLD st ate read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x39) : ‘TEMP_THRESHOLD ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current TEMP_THRESHO LD g etting value

Target

(0x88)

Target

(0x89)

Value

60 ~ 200 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x39)

Parameter

(0x39)

Value

69



7.46. “ TEMP_HYSTERESIS ” Control procedure

7.46.1. TEMP_ HYSTERESIS Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x3A) : ‘ TEMP_HYSTERESIS ’ parameter
Value: 2 ~ 20 (range)

7.46.2. Current TEMP_ HYSTERESIS state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x3A) : ‘TEMP_ HYSTERESIS ’ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current TEMP_ HYSTERESIS getting value

Target

(0x88)

Target

(0x89)

Value

2 ~ 20 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x3A)

Parameter

(0x3A)

Value

70



7.47. “ FAN_CONTROL ” Control procedure

7.47.1. FAN_CONTROL Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x3B) : ‘ FAN_CONTROL ’ parameter
Value: Data value

7.47.2. Current FAN_CONTROL state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x3B) : ‘FAN_CONTROL ‘ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current FAN_CONTROL getting value

Target

(0x88)

1 : on
2 : auto

Target

(0x89)

Value

1 : on
2 : auto

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x3B)

Parameter

(0x3B)

Value

71



(5.48 ~ 5.53)



72



73



7.48. “ SETX ” Control procedure

7.48.1. SETX Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x3D) : ‘ SETX ’ parameter
Value: 0 ~ 2 (range)

7.48.2. Current SETX state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x3D) : ‘SETX ‘ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current SETX getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 2 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x3D)

Parameter

(0x3D)

Value

74



7.49. “ SETY ” Control procedure

7.49.1. SETY Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x3E) : ‘ SETY ’ parameter
Value: 0 ~ 2 (range)

7.49.2. Current SETY state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x3E) : ‘SETY ‘ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current SETY getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 2 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x3E)

Parameter

(0x3E)

Value

75



7.50. “ SETXMAX ” Control procedure

7.50.1. SETXMAX Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x3F) : ‘ SETXMAX ’ parameter
Value: 1 ~ 3 (range)

7.50.2. Current SETXMAX state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x3F) : ‘SETXMAX ‘ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current SETXMAX getting value

Target

(0x88)

Target

(0x89)

Value

1 ~ 3 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x3F)

Parameter

(0x3F)

Value

76



7.51. “ SETYMAX ” Control procedure

7.51.1. SETYMAX Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x40) : ‘ SETYMAX ’ parameter
Value: 1 ~ 3 (range)

7.51.2.Current SETYMAX state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x40) : ‘SETYMAX ‘ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current SETYM AX getting value

Target

(0x88)

Target

(0x89)

Value

1 ~ 3 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x40)

Parameter

(0x40)

Value

77



7.52. “ SETXGAP ” Control procedure

7.52.1. SETXGAP Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x41) : ‘ SETXGAP ’ parameter
Value: 0 ~ 200 (range)

7.52.2.Current SETXGAP state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x41) : ‘SETXGAP ‘ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current SETXGAP getting value

Target

(0x88)

Target

(0x89)

Value

0 ~ 200 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x41)

Parameter

(0x41)

Value

78



7.53. “ SETYGAP ” Control procedure

7.53.1. SETYGAP Control

CMD Data1 Data2 Data3 Data4 Data5

Command

(0xF5)

Command (0xF5) : Start bit
Tar get (0x88) : Set bit
Monitor ID (0x00) : Default value -> 0x00
CMD (0xFE) : command data
Parameter(0x40) : ‘ SETYGAP ’ parameter
Value: 0 ~ 200 (range)

7.53.2.Current SETYGAP state read

CMD Data1 Data2 Data3 Data4

Command

(0xF4)

Command (0xF4) : Start bit
Tar get (0x89) : Get bit
Monitor ID (0x00) : Default value -> 0x00
CMD(0xFE) : command data
Parameter (0x42) : ‘SETYGAP ‘ parameter

CMD Data1

Command

(0xF1)

Command (0xF1) : Start send bit
Value : Current SETYGAP getting value



Target

(0x88)

Target

(0x89)

Value

0 ~ 200 (range)

Monitor ID

(0x00)

Monitor ID

(0x00)

CMD

(0xFE)

CMD

(0xFE)

Parameter

(0x42)

Parameter

(0x42)

Value

79

