Basler racer Manual
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CAMERA LINK INFORMATION FOR FRAME
GRABBER DESIGNERS
Document Number: AW001187
Version: 02
Language: 000 (English)
Release Date: 1 February 2013
Applies to prototype cameras only.
All content is subject to change.
DRAFT
For customers in the U.S.A.
This equipment has been tested and found to comply with the limits for a Class A digital device,
pursuant to Part 15 of the FCC Rules. These limits are designed to provide reasonable protection
against harmful interference when the equipment is operated in a commercial environment. This
equipment generates, uses, and can radiate radio frequency energy and, if not installed and used
in accordance with the instruction manual, may cause harmful interference to radio
communications. Operation of this equipment in a residential area is likely to cause harmful
interference in which case the user will be required to correct the interference at his own expense.
You are cautioned that any changes or modifications not expressly approved in this manual could
void your authority to operate this equipment.
The shielded interface cable recommended in this manual must be used with this equipment in
order to comply with the limits for a computing device pursuant to Subpart J of Part 15 of FCC Rules.
For customers in Canada
This apparatus complies with the Class A limits for radio noise emissions set out in Radio
Interference Regulations.
Pour utilisateurs au Canada
Cet appareil est conforme aux normes Classe A pour bruits radioélectriques, spécifiées dans le
Règlement sur le brouillage radioélectrique.
Life Support Applications
These products are not designed for use in life support appliances, devices, or systems where
malfunction of these products can reasonably be expected to result in personal injury. Basler
customers using or selling these products for use in such applications do so at their own risk and
agree to fully indemnify Basler for any damages resulting from such improper use or sale.
Warranty Note
Do not open the housing of the camera. The warranty becomes void if the housing is opened.
All material in this publication is subject to change without notice and is copyright
Basler AG.
Contacting Basler Support Worldwide
Europe:
Basler AG
An der Strusbek 60 - 62
22926 Ahrensburg
Germany
Tel.: +49-4102-463-515
Fax.: +49-4102-463-599
[email protected]
Americas:
Basler, Inc.
855 Springdale Drive, Suite 203
Exton, PA 19341
U.S.A.
Tel.: +1-610-280-0171
Fax.: +1-610-280-7608
[email protected]
Asia:
Basler Asia Pte. Ltd.
8 Boon Lay Way
# 03 - 03 Tradehub 21
Singapore 609964
Tel.: +65-6425-0472
Fax.: +65-6425-0473
[email protected]
www.baslerweb.com
Table of Contents
Basler racer Camera Link
i
Table of Contents
1
Camera Link Implementation. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . .1
1.1
Overview. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 1
1.2
SDR Connector Pin Assignments and Numbering . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 2
1.3
Electrical Implementation . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 5
1.4
Camera Link Input Signals . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 11
1.4.1
Serial to Camera . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 11
1.4.2
External Line Start Trigger (ExLSTrig) . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 11
1.5
Camera Link Output Signals. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 12
1.5.1
Serial to Frame Grabber . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 12
1.5.2
Pixel Clock . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 12
1.5.3
Line Valid Bit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 12
1.5.4
Data Valid Bit . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 13
1.5.5
CL Spare Bit. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 13
1.5.6
Pixel Data Bits . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 13
1.5.6.1
1X Tap Geometry – 8, 10, or 12 Bit Pixel Depth . . . . . . . . . . . . . 14
1.5.6.2
1X2 Tap Geometry – 8, 10, or 12 Bit Pixel Depth . . . . . . . . . . . . 15
1.5.6.3
1X4 Tap Geometry – 8, 10, or 12 Bit Pixel Depth . . . . . . . . . . . . 16
1.5.6.4
1X8 Tap Geometry – 8 or 10 Bit Pixel Depth. . . . . . . . . . . . . . . . 18
1.5.6.5
1X10 Tap Geometry – 8 Bit Pixel Depth . . . . . . . . . . . . . . . . . . . 21
2
Pixel Data Output . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 25
2.1
Data Depth . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 25
2.2
Pixel Clock Speed. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 25
2.3
Camera Link Tap Geometries. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 26
2.3.1
Factors Influencing the Timing of Pixel Data Transmission . . . . . . . . . . . . . . 26
2.3.1.1
Camera Link Pixel Clock . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 26
2.3.1.2
Delays . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 26
2.3.2
1X Tap Geometry. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 28
2.3.3
1X2 Tap Geometry. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 30
2.3.4
1X4 Tap Geometry. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 32
2.3.5
1X8 Tap Geometry. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 34
2.3.6
1X10 Tap Geometry. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 36
Revision History. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 39
Camera Link Implementation
Basler racer Camera Link
1
1 Camera Link Implementation
1.1
Overview
The Basler racer Camera Link camera transmits Camera Link data in a fashion similar to devices
that use National Semiconductor DS90CR287 transmitters. For Camera Link receivers on your
frame grabber, we recommend that you use the National Semiconductor DS90CR288A or an
equivalent.
The camera receives the RS-644 camera control input signals and the serial communication input
signal defined in the Camera Link specification in a fashion similar to devices that use National
Semiconductor DS90LV048A differential line receivers. The serial communication output signal
defined in the specification is transmitted in a fashion similar to devices that use a DS90LV047A
differential line transmitter.
Detailed data sheets for the National Semiconductor components are available at the National
Semiconductor web site (www.national.com). The data sheets contain all of the information,
including application notes, that you need to implement Camera Link.
All camera models have two 26-pin SDR connectors with 0.03" pin spacing as specified in the
Camera Link standard.
Table 2 on page 3 and Table 3 on page 4 show the pin assignments for the SDR connectors.
The "SDR" (Shrunk Delta Ribbon) designation is the naming used by the 3M
company. Other companies use different names for this type of connector. For
example, Honda uses "HDR" as the connector name.
6-pin
Receptacle
(Power)
LED Indicator with
Green and Red LED
Fig. 1: Camera Connections of Basler racer Camera Link Cameras
26-pin
SDR Connector
(Base Camera Link
Connection;
Power and Data)
26-pin
SDR Connector
(Medium/Full Camera
Link Connection;
Data
Functional Earth
Connection
Camera Link Implementation
AW00118702000
2
Basler racer Camera Link
All camera models implement the "base", "medium", and "full" configurations as defined in the
Camera Link standard. Individual differential line transmitter circuits support the respective Camera
Link configurations: Transmitter X supports the base configuration, transmitter Y partly supports the
medium configuration and partly the full configuration, and transmitter Z supports full configuration.
The determination of whether a camera will operate in the base, medium, or full configuration
depends on the camera’s current tap geometry setting as shown Table 1.
1.2
SDR Connector Pin Assignments and
Numbering
Two 26-pin, 0.03” pin spacing, Shrunk Delta Ribbon (SDR) female connectors are used on the
camera. The pin assignments and pin numbering for the base connector are as shown in Table 2
and for the medium/full connector are as shown in Table 3 on page 4.
Camera Link
Tap Geometry
Setting
Available Pixel Bit
Depths for Mono
Cameras
Camera Link
Configuration
Camera Link Connectors
Used to Transmit Data
Camera Link
Transmitters
Used to Transmit
Data
1X
8 bit, 10 bit, 12 bit
Base
Base Only
X
1X2
8 bit, 10 bit, 12 bit
Base
Base Only
X
1X4
8 bit, 10 bit, 12 bit
Medium
Base and Medium/Full
X and Y
1X8
8 bit, 10 bit
Full (Octo)
Base and Medium/Full
X, Y, and Z
1X10
8 bit
Full (Deca)
Base and Medium/Full
X, Y, and Z
Table 1: Camera Link Details at Various Tap Geometry Settings
Camera Link Implementation
Basler racer Camera Link
3
Pin Number
Signal Name
Direction
Level
Function
1, 26 *
Cam Pow.
In
+12 VDC
Camera power, +12 VDC nominal, < 1% ripple. For
more details about PoCL power requirements see
the Camera Link specifications v. 2.0 and above.
13, 14 **
Power Ret.
Return
Camera power return (Gnd)
2
X0-
Output
Camera Link
LVDS
Data from transmitter circuit X
15
X0+
3
X1-
Output
Camera Link
LVDS
Data from transmitter circuit X
16
X1+
4
X2-
Output
Camera Link
LVDS
Data from transmitter circuit X
17
X2+
6
X3-
Output
Camera Link
LVDS
Data from transmitter circuit X
19
X3+
5
XClk-
Output
Camera Link
LVDS
Pixel clock from transmitter circuit X
18
XClk+
7
SerTC+
Input
RS-644
LVDS
Serial communication data receive
(SerTC = "serial to camera")
20
SerTC-
8
SerTFG-
Output
RS-644
LVDS
Serial communication data transmit
(SerTFG = "serial to frame grabber")
21
SerTFG+
9
CC1-
Input
RS-644
LVDS
Configurable
22
CC1+
10
CC2+
Input
RS-644
LVDS
Configurable
23
CC2-
11
CC3-
Input
RS-644
LVDS
Configurable
24
CC3+
12
CC4+
Input
RS-644
LVDS
Configurable
25
CC4-
* Pins 1 and 26 are tied together in the camera.
** Pins 13 and 14 are tied together in the camera.
Table 2: Pin Assignments and Numbering for the Base Configuration 26-pin SDR Connector
1
26
14
13
Camera Link Implementation
AW00118702000
4
Basler racer Camera Link
Pin Number
Signal Name
Direction
Level
Function
1, 26 *
Cam Pow.
In
not used
13, 14 **
Power Ret.
Return
Camera power return (Gnd)
2
Y0-
Output
Camera Link
LVDS
Data from transmitter circuit Y
15
Y0+
3
Y1-
Output
Camera Link
LVDS
Data from transmitter circuit Y
16
Y1+
4
Y2-
Output
Camera Link
LVDS
Data from transmitter circuit Y
17
Y2+
6
Y3-
Output
Camera Link
LVDS
Data from transmitter circuit Y
19
Y3+
5
YClk-
Output
Camera Link
LVDS
Pixel clock from transmitter circuit Y
18
YClk+
7
T+
Connected to T- with 100R; not used
20
T-
Connected to T+ with 100R; not used
8
Z0-
Output
Camera Link
LVDS
Data from transmitter circuit Z
21
Z0+
9
Z1-
Output
Camera Link
LVDS
Data from transmitter circuit Z
22
Z1+
10
Z2-
Output
Camera Link
LVDS
Data from transmitter circuit Z
23
Z2+
12
Z3-
Output
Camera Link
LVDS
Data from transmitter circuit Z
25
Z3+
11
ZClk-
Output
Camera Link
LVDS
Pixel clock from transmitter circuit Z
24
ZClk+
* Pins 1 and 26 are tied together in the camera.
** Pins 13 and 14 are tied together in the camera.
Table 3: Pin Assignments and Numbering for the Medium/Full Configuration 26-pin SDR Connector
1
26
14
13
Camera Link Implementation
Basler racer Camera Link
5
1.3
Electrical Implementation
The schematics in Fig. 2 through Fig. 6 on the following pages illustrate the basics of the racer
Camera Link electrical implementation. The basic difference between the schematics is the number
of transmitters used and the port assignments for each transmitter.
Fig. 2 on page 6 illustrates the implementation when a camera is set for the 1X or 1X2 tap geometry,
which will cause it to operate in the base Camera Link configuration. In this situation, only the X
transmitter is used.
Fig. 3 on page 7 illustrates the implementation when a camera is set for the 1X4 tap geometry,
which will cause it to operate in the medium Camera Link configuration. In this situation, the X and
Y transmitters are used.
Fig. 4 on page 8 illustrates the implementation when a camera is set for the 1X8 geometry, which
will cause it to operate in the full Camera Link configuration. In this situation, the X, Y, and Z
transmitters are used. This configuration is commonly referred to as an "octo" configuration
because eight sets of Camera Link ports are mapped to the transmitters.
Fig. 5 on page 9 illustrates the implementation when a camera is set for the 1X10 geometry, which
will cause it to operate in the full Camera Link configuration. In this situation, the X, Y, and Z
transmitters are used. This configuration is commonly referred to as a "deca" configuration because
ten sets of Camera Link ports are mapped to the transmitters.
Camera Link Implementation
AW00118702000
6
Basler racer Camera Link
Fig. 2: Electrical Implementation - Base Configuration
Transmitter Circuit X
racer
Xclk+
Xclk-
18
5
12
25
24
11
10
23
22
9
Input
Input
Input
7
20
21
8
SerTC
SerTFG
1
26
14
13
18
5
12
25
24
11
10
23
22
9
7
20
21
8
1
26
14
13
SDR Cable
DS90CR288A - Receiver X
Frame Grabber
Xclk+
Xclk-
9
22
CC4+
CC4-
CC3+
CC3-
CC2+
CC2-
CC1+
CC1-
15
2
3
16
17
4
5
18
Output
Output
Output
Output
SerTC+
SerTC-
SerTFG+
SerTFG-
20
7
6
19
SerTC
SerTFG
1
26
14
13
9
22
15
2
3
16
17
4
5
18
20
7
6
19
1
26
14
13
26-pin Female
SDR Connector
Pair 4+
Pair 4-
Pair 11+
Pair 11-
Pair 10+
Pair 10-
Pair 9+
Pair 9-
Pair 8+
Pair 8-
Pair 6+
Pair 6-
Pair 7+
Pair 7-
26-pin Male
SDR Connector
RxCLKOut
DS90LV047A Tmtr.
DS90LV011A Tmtr.
DS90LV012A Rcvr.
CC3+
CC3-
CC2+
CC2-
CC1+
CC1-
SerTC+
SerTC-
SerTFG+
SerTFG-
Port A0
Port A1
Port A2
Port A3
Port A4
Port A5
Port B0
Port B1
Port B2
Port B3
Port B4
Port B5
Port C0
Port C1
Port C2
Port C3
Port C4
Port C5
LVAL
FVAL
DVAL
Port A6
Port A7
Port B6
Port B7
Port C6
Port C7
CL Spare
Strobe
(PClk)
Tx0
Tx1
Tx2
Tx3
Tx4
Tx6
Tx7
Tx8
Tx9
Tx12
Tx13
Tx14
Tx15
Tx18
Tx19
Tx20
Tx21
Tx22
Tx24
Tx25
Tx26
Tx27
Tx5
Tx10
Tx11
Tx16
Tx17
Tx23
TxCLKIn
19
6
19
6
X3+
X3-
X3+
X3-
8
21
8
21
Pair 5+
Pair 5-
17
4
17
4
X2+
X2-
X2+
X2-
10
23
10
23
Pair 3+
Pair 3-
16
3
16
3
X1+
X1-
X1+
X1-
11
24
11
24
Pair 2+
Pair 2-
X0+
X0-
15
2
12
25
Pair 1+
Pair 1-
15
2
X0+
X0-
12
25
Port A0
Port A1
Port A2
Port A3
Port A4
Port A5
Port B0
Port B1
Port B2
Port B3
Port B4
Port B5
Port C0
Port C1
Port C2
Port C3
Port C4
Port C5
LVAL
FVAL
DVAL
Port A6
Port A7
Port B6
Port B7
Port C6
Port C7
CL Spare
Rx0
Rx1
Rx2
Rx3
Rx4
Rx6
Rx7
Rx8
Rx9
Rx12
Rx13
Rx14
Rx15
Rx18
Rx19
Rx20
Rx21
Rx22
Rx24
Rx25
Rx26
Rx27
Rx5
Rx10
Rx11
Rx16
Rx17
Rx23
Strobe
(PClk)
Gnd
+12 VDC
PoCL In
Gnd
+12 VDC
PoCL Out
Input
CC4+
CC4-
6-pin
Receptacle
Alternative
Power
In
1
2
3
4
5
6
Not Connected
Not Connected
Gnd
+12 VDC In
FPGA
Camera Link Implementation
Basler racer Camera Link
7
Fig. 3: Electrical Implementation - Medium Configuration
Transmitter Circuit X
racer
Xclk+
Xclk-
18
5
12
25
24
11
10
23
22
9
Input
Input
Input
7
20
21
8
SerTC
SerTFG
1
26
14
13
18
5
12
25
24
11
10
23
22
9
7
20
21
8
1
26
14
13
SDR Cable
DS90CR288A - Receiver X
Frame Grabber
Xclk+
Xclk-
9
22
CC4+
CC4-
CC3+
CC3-
CC2+
CC2-
CC1+
CC1-
15
2
3
16
17
4
5
18
Output
Output
Output
Output
SerTC+
SerTC-
SerTFG+
SerTFG-
20
7
6
19
SerTC
SerTFG
1
26
14
13
9
22
15
2
3
16
17
4
5
18
20
7
6
19
1
26
14
13
26-pin Female
SDR Connector
Pair 4+
Pair 4-
Pair 11+
Pair 11-
Pair 10+
Pair 10-
Pair 9+
Pair 9-
Pair 8+
Pair 8-
Pair 6+
Pair 6-
Pair 7+
Pair 7-
26-pin Male
SDR Connector
RxCLKOut
DS90LV047A Tmtr.
DS90LV011A Tmtr.
DS90LV012A Rcvr.
CC3+
CC3-
CC2+
CC2-
CC1+
CC1-
SerTC+
SerTC-
SerTFG+
SerTFG-
Port A0
Port A1
Port A2
Port A3
Port A4
Port A5
Port B0
Port B1
Port B2
Port B3
Port B4
Port B5
Port C0
Port C1
Port C2
Port C3
Port C4
Port C5
LVAL
FVAL
DVAL
Port A6
Port A7
Port B6
Port B7
Port C6
Port C7
CL Spare
Strobe
(PClk)
Tx0
Tx1
Tx2
Tx3
Tx4
Tx6
Tx7
Tx8
Tx9
Tx12
Tx13
Tx14
Tx15
Tx18
Tx19
Tx20
Tx21
Tx22
Tx24
Tx25
Tx26
Tx27
Tx5
Tx10
Tx11
Tx16
Tx17
Tx23
TxCLKIn
19
6
19
6
X3+
X3-
X3+
X3-
8
21
8
21
Pair 5+
Pair 5-
17
4
17
4
X2+
X2-
X2+
X2-
10
23
10
23
Pair 3+
Pair 3-
16
3
16
3
X1+
X1-
X1+
X1-
11
24
11
24
Pair 2+
Pair 2-
X0+
X0-
15
2
12
25
Pair 1+
Pair 1-
15
2
X0+
X0-
12
25
Port A0
Port A1
Port A2
Port A3
Port A4
Port A5
Port B0
Port B1
Port B2
Port B3
Port B4
Port B5
Port C0
Port C1
Port C2
Port C3
Port C4
Port C5
LVAL
FVAL
DVAL
Port A6
Port A7
Port B6
Port B7
Port C6
Port C7
CL Spare
Rx0
Rx1
Rx2
Rx3
Rx4
Rx6
Rx7
Rx8
Rx9
Rx12
Rx13
Rx14
Rx15
Rx18
Rx19
Rx20
Rx21
Rx22
Rx24
Rx25
Rx26
Rx27
Rx5
Rx10
Rx11
Rx16
Rx17
Rx23
Strobe
(PClk)
Transmitter Circuit Y
Yclk+
Yclk-
SDR Cable
DS90CR288A - Receiver Y
Yclk+
Yclk-
RxCLKOut
Port D0
Port D1
Port D2
Port D3
Port D4
Port D5
Port E0
Port E1
Port E2
Port E3
Port E4
Port E5
Port F0
Port F1
Port F2
Port F3
Port F4
Port F5
LVAL
FVAL
DVAL
Port D6
Port D7
Port E6
Port E7
Port F6
Port F7
Not Used
Strobe
(PClk)
Tx0
Tx1
Tx2
Tx3
Tx4
Tx6
Tx7
Tx8
Tx9
Tx12
Tx13
Tx14
Tx15
Tx18
Tx19
Tx20
Tx21
Tx22
Tx24
Tx25
Tx26
Tx27
Tx5
Tx10
Tx11
Tx16
Tx17
Tx23
TxCLKIn
Y3+
Y3-
Y3+
Y3-
Y2+
Y2-
Y2+
Y2-
Y1+
Y1-
Y1+
Y1-
Y0+
Y0-
Y0+
Y0-
Port D0
Port D1
Port D2
Port D3
Port D4
Port D5
Port E0
Port E1
Port E2
Port E3
Port E4
Port E5
Port F0
Port F1
Port F2
Port F3
Port F4
Port F5
LVAL
FVAL
DVAL
Port D6
Port D7
Port E6
Port E7
Port F6
Port F7
Not Used
Rx0
Rx1
Rx2
Rx3
Rx4
Rx6
Rx7
Rx8
Rx9
Rx12
Rx13
Rx14
Rx15
Rx18
Rx19
Rx20
Rx21
Rx22
Rx24
Rx25
Rx26
Rx27
Rx5
Rx10
Rx11
Rx16
Rx17
Rx23
Strobe
(PClk)
18
5
19
6
17
4
16
3
15
2
18
5
9
22
19
6
8
21
Pair 5+
Pair 5-
17
4
10
23
Pair 3+
Pair 3-
16
3
11
24
Pair 2+
Pair 2-
12
25
Pair 1+
Pair 1-
15
2
10
23
11
24
12
25
9
22
8
21
Input
CC4+
CC4-
6-pin
Receptacle
Alternative
Power
In
1
2
3
4
5
6
Not Connected
Not Connected
Gnd
+12 VDC In
FPGA
Gnd
+12 VDC
PoCL In
Gnd
+12 VDC
PoCL Out
Camera Link Implementation
AW00118702000
8
Basler racer Camera Link
Fig. 4: Electrical Implementation - Full Configuration (Octo) for 8 bit Pixel Formats
Camera Link Implementation
Basler racer Camera Link
9
Fig. 5: Electrical Implementation - Full Configuration (Octo) for 10 bit Pixel Formats
Camera Link Implementation
AW00118702000
10
Basler racer Camera Link
Fig. 6: Electrical Implementation - Full Configuration (Deca)
Camera Link Implementation
Basler racer Camera Link
11
1.4
Camera Link Input Signals
The input signals that the camera can accept via the Camera Link interface include a Serial to
Camera signal and an External Line Start Trigger signal as described below.
1.4.1
Serial to Camera
The Serial To Camera (SerTC) input signal is an RS-644 LVDS signal as specified in the Camera
Link standard. The signal is input to the camera on pins 7 and 20 of the base SDR connector as
specified in the standard and as shown in Fig. 2 on page 6. The camera is equipped for RS-644
serial communication via a serial port integrated into the frame grabber as specified in the Camera
Link standard.
The RS-644 serial connection in the Camera Link interface is used to issue commands to the
camera that change parameter values. The serial link can also be used to query the camera about
its current setup.
1.4.2
External Line Start Trigger (ExLSTrig)
The camera can be set to accept an External Line Start Trigger (ExLSTrig) input signal to control
exposure and readout of the camera’s sensor. When the ExLSTrig signal is applied to the camera
via the Camera Link interface, it is an LVDS signal as specified for RS-644. By default, the camera
will accept an ExLSTrig signal on the CC1 input in the Camera Link interface (pins 9 and 22 of the
MDR connector) as specified in the Camera Link standard. The camera can also be configured to
accept the ExLSTrig signal on CC2, CC3 or CC4.
When the camera is under the control of an ExLSTrig signal, it can be set to function in two
exposure time control modes: timed or trigger width. ExLSTrig can be a periodic or non-periodic
function. The frequency of the ExLSTrig signal determines the camera’s line rate in these modes.
Note that ExLSTrig is edge sensitive and therefore must toggle. The minimum high time for the
ExLSTrig signal is 1 µs and the minimum low time is also 1 µs.
The ExLSTrig signal is typically supplied to the camera by the frame grabber board.
For details about using a line start trigger with racer cameras, refer to the Basler racer Camera Link
User’s Manual (001185xx000).
Camera Link Implementation
AW00118702000
12
Basler racer Camera Link
1.5
Camera Link Output Signals
1.5.1
Serial to Frame Grabber
The Serial To Camera (SerTFG) input signal is an RS-644 LVDS signal as specified in the Camera
Link standard. The signal is output from the camera on pins 8 and 21 of the base SDR connector
as specified in the standard and as shown in Fig. 2 on page 6. The camera is equipped for RS-644
serial communication via a serial port integrated into the frame grabber as specified in the Camera
Link standard.
The RS-644 serial connection in the Camera Link interface is used to issue commands to the
camera that change parameter values. The serial link can also be used to query the camera about
its current setup.
1.5.2
Pixel Clock
The pixel clock is used to time the sampling and transmission of pixel data. The frequency of the
pixel clock (pixel clock speed) is selectable.
For more detailed information about the pixel clock speed, see Section 2 on page 25.
The pixel clock is assigned as defined in the Camera Link standard to the strobe ports (TxClk pins)
of the following transmitter circuits:
transmitter circuit X as shown in Table 2 and in Fig. 2, Fig. 3, Fig. 4, Fig. 5, and Fig. 6.
transmitter circuit Y as shown in Table 3 and in Fig. 3, Fig. 4, Fig. 5, and Fig. 6.
transmitter circuit Z as shown in Table 3 and in Fig. 4, Fig. 5, and Fig. 6.
1.5.3
Line Valid Bit
As shown for example in Fig. 10 on page 31, the line valid bit indicates that a valid line is being
transmitted. Pixel data is only valid when the line valid bit and the data valid bit are both high.
(In those cases where the data valid bit is not available (see Section 1.5.4 on page 13), pixel data
is valid when the line valid bit is high.)
The line valid bit is assigned as defined in the Camera Link standard to the line valid ports of the
following transmitter circuits:
transmitter circuit X as shown in Fig. 2, Fig. 3, Fig. 4, Fig. 5, and Fig. 6.
transmitter circuit Y as shown in Fig. 3, Fig. 4, Fig. 5, and Fig. 6.
transmitter circuit Z as shown in Fig. 4, Fig. 5, and Fig. 6.
Camera Link Implementation
Basler racer Camera Link
13
1.5.4
Data Valid Bit
As shown for example in Fig. 10 on page 31, the data valid bit indicates that valid pixel data is being
transmitted. Pixel data is only valid when the line valid bit and the data valid bit are both high.
(In those cases where the data valid bit is not available (see below), data is valid when the line valid
bit is high.)
The data valid bit is assigned as defined in the Camera Link standard to the data valid ports of the
following transmitter circuits:
transmitter circuit X as shown in Fig. 2, Fig. 3, and Fig. 4.
transmitter circuit Y as shown in Fig. 3 and Fig. 4.
transmitter circuit Z as shown in Fig. 4.
1.5.5
CL Spare Bit
As shown in Fig. 2 on page 6 and in the tables in Section 1.5.6 on page 13, the Camera Link
standard defines a CL spare bit. The camera can be configured to apply one of the following output
signals to the CL Spare bit:
Line Trigger Wait
Exposure Active
1.5.6
Pixel Data Bits
Pixel data bits are transmitted via output ports on transmitter circuits X, Y, and Z. The assignment
of pixel data bits to output ports varies depending on the camera’s current Camera Link Tap
Geometry setting and also on the bit depth of the pixels being transmitted (bit depth is determined
by the current Pixel Format setting).
The bit to port assignments for each available combination of tap geometry and pixel format settings
are shown in the tables on the following pages.
The data valid bit will not be available:
If the camera is set to operate in the 1X8 tap geometry at 10 bit pixel depth.
If the camera is set to operate in the 1X10 tap geometry.
The CL Spare bit will not be available
If the camera is set to operate with 1X8 tap geometry at 10 bit pixel depth.
If the camera is set to operate with 1X10 tap geometry.
Camera Link Implementation
AW00118702000
14
Basler racer Camera Link
1.5.6.1
1X Tap Geometry – 8, 10, or 12 Bit Pixel Depth
Base SDR Connector, Transmitter Circuit X
Port
Camera
Frame
Grabber
Bit Assignments
1X - 8 Bits
1X - 10 Bits
1X - 12 Bits
Port A0
TxIn0
RxOut0
D0 Bit 0
D0 Bit 0
D0 Bit 0
Port A1
TxIn1
RxOut1
D0 Bit 1
D0 Bit 1
D0 Bit 1
Port A2
TxIn2
RxOut2
D0 Bit 2
D0 Bit 2
D0 Bit 2
Port A3
TxIn3
RxOut3
D0 Bit 3
D0 Bit 3
D0 Bit 3
Port A4
TxIn4
RxOut4
D0 Bit 4
D0 Bit 4
D0 Bit 4
Port A5
TxIn6
RxOut6
D0 Bit 5
D0 Bit 5
D0 Bit 5
Port A6
TxIn27
RxOut27
D0 Bit 6
D0 Bit 6
D0 Bit 6
Port A7
TxIn5
RxOut5
D0 Bit 7 (MSB)
D0 Bit 7
D0 Bit 7
Port B0
TxIn7
RxOut7
Not Used
D0 Bit 8
D0 Bit 8
Port B1
TxIn8
RxOut8
Not Used
D0 Bit 9 (MSB)
D0 Bit 9
Port B2
TxIn9
RxOut9
Not Used
Not Used
D0 Bit 10
Port B3
TxIn12
RxOut12
Not Used
Not Used
D0 Bit 11 (MSB)
Port B4
TxIn13
RxOut13
Not Used
Not Used
Not Used
Port B5
TxIn14
RxOut14
Not Used
Not Used
Not Used
Port B6
TxIn10
RxOut10
Not Used
Not Used
Not Used
Port B7
TxIn11
RxOut11
Not Used
Not Used
Not Used
Port C0
TxIn15
RxOut15
Not Used
Not Used
Not Used
Port C1
TxIn18
RxOut18
Not Used
Not Used
Not Used
Port C2
TxIn19
RxOut19
Not Used
Not Used
Not Used
Port C3
TxIn20
RxOut20
Not Used
Not Used
Not Used
Port C4
TxIn21
RxOut21
Not Used
Not Used
Not Used
Port C5
TxIn22
RxOut22
Not Used
Not Used
Not Used
Port C6
TxIn16
RxOut16
Not Used
Not Used
Not Used
Port C7
TxIn17
RxOut17
Not Used
Not Used
Not Used
LVAL
TxIn24
RxOut24
Line Valid
Line Valid
Line Valid
FVAL
TxIn25
RxOut25
Not Used
Not Used
Not Used
DVAL
TxIn26
RxOut26
Data Valid
Data Valid
Data Valid
CL Spare
TxIn23
RxOut23
As assigned by user
As assigned by user
As assigned by user
Strobe
TxCLKIn
RxCLKOut
Pixel Clock
Pixel Clock
Pixel Clock
Table 4: Bit Assignments for 1X Tap Geometry – 8, 10, or 12 Bit Pixel Depth (Transmitter Circuit X)
Camera Link Implementation
Basler racer Camera Link
15
1.5.6.2
1X2 Tap Geometry – 8, 10, or 12 Bit Pixel Depth
Base SDR Connector, Transmitter Circuit X
Port
Camera
Frame
Grabber
Bit Assignments
1X2- 8 Bits
1X2 - 10 Bits
1X2 - 12 Bits
Port A0
TxIn0
RxOut0
D0 Bit 0
D0 Bit 0
D0 Bit 0
Port A1
TxIn1
RxOut1
D0 Bit 1
D0 Bit 1
D0 Bit 1
Port A2
TxIn2
RxOut2
D0 Bit 2
D0 Bit 2
D0 Bit 2
Port A3
TxIn3
RxOut3
D0 Bit 3
D0 Bit 3
D0 Bit 3
Port A4
TxIn4
RxOut4
D0 Bit 4
D0 Bit 4
D0 Bit 4
Port A5
TxIn6
RxOut6
D0 Bit 5
D0 Bit 5
D0 Bit 5
Port A6
TxIn27
RxOut27
D0 Bit 6
D0 Bit 6
D0 Bit 6
Port A7
TxIn5
RxOut5
D0 Bit 7 (MSB)
D0 Bit 7
D0 Bit 7
Port B0
TxIn7
RxOut7
D1 Bit 0
D0 Bit 8
D0 Bit 8
Port B1
TxIn8
RxOut8
D1 Bit 1
D0 Bit 9 (MSB)
D0 Bit 9
Port B2
TxIn9
RxOut9
D1 Bit 2
Not Used
D0 Bit 10
Port B3
TxIn12
RxOut12
D1 Bit 3
Not Used
D0 Bit 11 (MSB)
Port B4
TxIn13
RxOut13
D1 Bit 4
D1 Bit 8
D1 Bit 8
Port B5
TxIn14
RxOut14
D1 Bit 5
D1 Bit 9 (MSB)
D1 Bit 9
Port B6
TxIn10
RxOut10
D1 Bit 6
Not Used
D1 Bit 10
Port B7
TxIn11
RxOut11
D1 Bit 7 (MSB)
Not Used
D1 Bit 11 (MSB)
Port C0
TxIn15
RxOut15
Not Used
D1 Bit 0
D1 Bit 0
Port C1
TxIn18
RxOut18
Not Used
D1 Bit 1
D1 Bit 1
Port C2
TxIn19
RxOut19
Not Used
D1 Bit 2
D1 Bit 2
Port C3
TxIn20
RxOut20
Not Used
D1 Bit 3
D1 Bit 3
Port C4
TxIn21
RxOut21
Not Used
D1 Bit 4
D1 Bit 4
Port C5
TxIn22
RxOut22
Not Used
D1 Bit 5
D1 Bit 5
Port C6
TxIn16
RxOut16
Not Used
D1 Bit 6
D1 Bit 6
Port C7
TxIn17
RxOut17
Not Used
D1 Bit 7
D1 Bit 7
LVAL
TxIn24
RxOut24
Line Valid
Line Valid
Line Valid
FVAL
TxIn25
RxOut25
Not Used
Not Used
Not Used
DVAL
TxIn26
RxOut26
Data Valid
Data Valid
Data Valid
CL Spare
TxIn23
RxOut23
As assigned by user
As assigned by user
As assigned by user
Strobe
TxCLKIn
RxCLKOut
Pixel Clock
Pixel Clock
Pixel Clock
Table 5: Bit Assignments for 1X2 Tap Geometry – 8, 10, or 12 Bit Pixel Depth (Transmitter Circuit X)
Camera Link Implementation
AW00118702000
16
Basler racer Camera Link
1.5.6.3
1X4 Tap Geometry – 8, 10, or 12 Bit Pixel Depth
Base SDR Connector, Transmitter Circuit X
Port
Camera
Frame
Grabber
Bit Assignments
1X4 - 8 Bits
1X4 - 10 Bits
1X4 - 12 Bits
Port A0
TxIn0
RxOut0
D0 Bit 0
D0 Bit 0
D0 Bit 0
Port A1
TxIn1
RxOut1
D0 Bit 1
D0 Bit 1
D0 Bit 1
Port A2
TxIn2
RxOut2
D0 Bit 2
D0 Bit 2
D0 Bit 2
Port A3
TxIn3
RxOut3
D0 Bit 3
D0 Bit 3
D0 Bit 3
Port A4
TxIn4
RxOut4
D0 Bit 4
D0 Bit 4
D0 Bit 4
Port A5
TxIn6
RxOut6
D0 Bit 5
D0 Bit 5
D0 Bit 5
Port A6
TxIn27
RxOut27
D0 Bit 6
D0 Bit 6
D0 Bit 6
Port A7
TxIn5
RxOut5
D0 Bit 7 (MSB)
D0 Bit 7
D0 Bit 7
Port B0
TxIn7
RxOut7
D1 Bit 0
D0 Bit 8
D0 Bit 8
Port B1
TxIn8
RxOut8
D1 Bit 1
D0 Bit 9 (MSB)
D0 Bit 9
Port B2
TxIn9
RxOut9
D1 Bit 2
Not Used
D0 Bit 10
Port B3
TxIn12
RxOut12
D1 Bit 3
Not Used
D0 Bit 11 (MSB)
Port B4
TxIn13
RxOut13
D1 Bit 4
D1 Bit 8
D1 Bit 8
Port B5
TxIn14
RxOut14
D1 Bit 5
D1 Bit 9 (MSB)
D1 Bit 9
Port B6
TxIn10
RxOut10
D1 Bit 6
Not Used
D1 Bit 10
Port B7
TxIn11
RxOut11
D1 Bit 7 (MSB)
Not Used
D1 Bit 11 (MSB)
Port C0
TxIn15
RxOut15
D2 Bit 0
D1 Bit 0
D1 Bit 0
Port C1
TxIn18
RxOut18
D2 Bit 1
D1 Bit 1
D1 Bit 1
Port C2
TxIn19
RxOut19
D2 Bit 2
D1 Bit 2
D1 Bit 2
Port C3
TxIn20
RxOut20
D2 Bit 3
D1 Bit 3
D1 Bit 3
Port C4
TxIn21
RxOut21
D2 Bit 4
D1 Bit 4
D1 Bit 4
Port C5
TxIn22
RxOut22
D2 Bit 5
D1 Bit 5
D1 Bit 5
Port C6
TxIn16
RxOut16
D2 Bit 6
D1 Bit 6
D1 Bit 6
Port C7
TxIn17
RxOut17
D2 Bit 7 (MSB)
D1 Bit 7
D1 Bit 7
LVAL
TxIn24
RxOut24
Line Valid
Line Valid
Line Valid
FVAL
TxIn25
RxOut25
Not Used
Not Used
Not Used
DVAL
TxIn26
RxOut26
Data Valid
Data Valid
Data Valid
CL Spare
TxIn23
RxOut23
As assigned by user
As assigned by user
As assigned by user
Strobe
TxInCLK
RxOutClk
Pixel Clock
Pixel Clock
Pixel Clock
Table 6: Bit Assignments for 1X4 Tap Geometry - 8, 10, or 12 Bit Pixel Depth (Transmitter Circuit X)
Camera Link Implementation
Basler racer Camera Link
17
Medium/Full SDR Connector, Transmitter Circuit Y
Port
Camera
Frame
Grabber
Bit Assignments
1X4 - 8 Bits
1X4 - 10 Bits
1X4 - 12 Bits
Port D0
TxIn0
RxOut0
D3 Bit 0
D3 Bit 0
D3 Bit 0
Port D1
TxIn1
RxOut1
D3 Bit 1
D3 Bit 1
D3 Bit 1
Port D2
TxIn2
RxOut2
D3 Bit 2
D3 Bit 2
D3 Bit 2
Port D3
TxIn3
RxOut3
D3 Bit 3
D3 Bit 3
D3 Bit 3
Port D4
TxIn4
RxOut4
D3 Bit 4
D3 Bit 4
D3 Bit 4
Port D5
TxIn6
RxOut6
D3 Bit 5
D3 Bit 5
D3 Bit 5
Port D6
TxIn27
RxOut27
D3 Bit 6
D3 Bit 6
D3 Bit 6
Port D7
TxIn5
RxOut5
D3 Bit 7 (MSB)
D3 Bit 7
D3 Bit 7
Port E0
TxIn7
RxOut7
Not Used
D2 Bit 0
D2 Bit 0
Port E1
TxIn8
RxOut8
Not Used
D2 Bit 1
D2 Bit 1
Port E2
TxIn9
RxOut9
Not Used
D2 Bit 2
D2 Bit 2
Port E3
TxIn12
RxOut12
Not Used
D2 Bit 3
D2 Bit 3
Port E4
TxIn13
RxOut13
Not Used
D2 Bit 4
D2 Bit 4
Port E5
TxIn14
RxOut14
Not Used
D2 Bit 5
D2 Bit 5
Port E6
TxIn10
RxOut10
Not Used
D2 Bit 6
D2 Bit 6
Port E7
TxIn11
RxOut11
Not Used
D2 Bit 7
D2 Bit 7
Port F0
TxIn15
RxOut15
Not Used
D2 Bit 8
D2 Bit 8
Port F1
TxIn18
RxOut18
Not Used
D2 Bit 9 (MSB)
D2 Bit 9
Port F2
TxIn19
RxOut19
Not Used
Not Used
D2 Bit 10
Port F3
TxIn20
RxOut20
Not Used
Not Used
D2 Bit 11 (MSB)
Port F4
TxIn21
RxOut21
Not Used
D3 Bit 8
D3 Bit 8
Port F5
TxIn22
RxOut22
Not Used
D3 Bit 9 (MSB)
D3 Bit 9
Port F6
TxIn16
RxOut16
Not Used
Not Used
D3 Bit 10
Port F7
TxIn17
RxOut17
Not Used
Not Used
D3 Bit 11 (MSB)
LVAL
TxIn24
RxOut24
Line Valid
Line Valid
Line Valid
FVAL
TxIn25
RxOut25
Not Used
Not Used
Not Used
DVAL
TxIn26
RxOut26
Data Valid
Data Valid
Data Valid
Not Used
TxIn23
RxOut23
Not Used
Not Used
Not Used
Strobe
TxInCLK
RxOutClk
Pixel Clock
Pixel Clock
Pixel Clock
Table 7: Bit Assignments for 1X4 Tap Geometry - 8, 10, or 12 Bit Pixel Depth (Transmitter Circuit Y)
Camera Link Implementation
AW00118702000
18
Basler racer Camera Link
1.5.6.4
1X8 Tap Geometry – 8 or 10 Bit Pixel Depth
* In 1X8 8 bit mode, this port is DVAL.
In 1X8 10 bit mode, DVAL is not present. Instead, this port is I0 and D0 Bit 0 is assigned to it.
Base SDR Conn, Transmitter Circuit X
Port
Camera
Frame
Grabber
Bit Assignments
1X8 - 8 Bits
1X8 - 10 Bits
Port A0
TxIn0
RxOut0
D0 Bit 0
D0 Bit 2
Port A1
TxIn1
RxOut1
D0 Bit 1
D0 Bit 3
Port A2
TxIn2
RxOut2
D0 Bit 2
D0 Bit 4
Port A3
TxIn3
RxOut3
D0 Bit 3
D0 Bit 5
Port A4
TxIn4
RxOut4
D0 Bit 4
D0 Bit 6
Port A5
TxIn6
RxOut6
D0 Bit 5
D0 Bit 7
Port A6
TxIn27
RxOut27
D0 Bit 6
D0 Bit 8
Port A7
TxIn5
RxOut5
D0 Bit 7 (MSB)
D0 Bit 9 (MSB)
Port B0
TxIn7
RxOut7
D1 Bit 0
D1 Bit 2
Port B1
TxIn8
RxOut8
D1 Bit 1
D1 Bit 3
Port B2
TxIn9
RxOut9
D1 Bit 2
D1 Bit 4
Port B3
TxIn12
RxOut12
D1 Bit 3
D1 Bit 5
Port B4
TxIn13
RxOut13
D1 Bit 4
D1 Bit 6
Port B5
TxIn14
RxOut14
D1 Bit 5
D1 Bit 7
Port B6
TxIn10
RxOut10
D1 Bit 6
D1 Bit 8
Port B7
TxIn11
RxOut11
D1 Bit 7 (MSB)
D1 Bit 9 (MSB)
Port C0
TxIn15
RxOut15
D2 Bit 0
D2 Bit 2
Port C1
TxIn18
RxOut18
D2 Bit 1
D2 Bit 3
Port C2
TxIn19
RxOut19
D2 Bit 2
D2 Bit 4
Port C3
TxIn20
RxOut20
D2 Bit 3
D2 Bit 5
Port C4
TxIn21
RxOut21
D2 Bit 4
D2 Bit 6
Port C5
TxIn22
RxOut22
D2 Bit 5
D2 Bit 7
Port C6
TxIn16
RxOut16
D2 Bit 6
D2 Bit 8
Port C7
TxIn17
RxOut17
D2 Bit 7 (MSB)
D2 Bit 9 (MSB)
LVAL
TxIn24
RxOut24
Line Valid
Line Valid
FVAL
TxIn25
RxOut25
Not Used
Not Used
DVAL or
Port I0 *
TxIn26
RxOut26
Not used
D0 Bit 0
Port I1
TxIn23
RxOut23
Not Used
D0 Bit 1
Strobe
TxInCLK
RxOutClk
Pixel Clock
Pixel Clock
Table 8: Bit Assignments for 1X8 Tap Geometry – 8 or 10 Bit Pixel Depth (Transmitter Circuit X)
Camera Link Implementation
Basler racer Camera Link
19
* In 1X8 8 bit mode, this port is FVAL and is not used.
In 1X8 10 bit mode, FVAL is not present. Instead, this port is I2 and D1 Bit 0 is assigned to it.
** In 1X8 8 bit mode, this port is DVAL.
In 1X8 10 bit mode, DVAL is not present. Instead, this port is I3 and D1 Bit 1 is assigned to it.
Medium/Full SDR Conn, Transmitter Circuit Y
Port
Camera
Frame
Grabber
Bit Assignments
1X8 - 8 Bits
1X8 - 10 Bits
Port D0
TxIn0
RxOut0
D3 Bit 0
D3 Bit 2
Port D1
TxIn1
RxOut1
D3 Bit 1
D3 Bit 3
Port D2
TxIn2
RxOut2
D3 Bit 2
D3 Bit 4
Port D3
TxIn3
RxOut3
D3 Bit 3
D3 Bit 5
Port D4
TxIn4
RxOut4
D3 Bit 4
D3 Bit 6
Port D5
TxIn6
RxOut6
D3 Bit 5
D3 Bit 7
Port D6
TxIn27
RxOut27
D3 Bit 6
D3 Bit 8
Port D7
TxIn5
RxOut5
D3 Bit 7 (MSB)
D3 Bit 9 (MSB)
Port E0
TxIn7
RxOut7
D4 Bit 0
D4 Bit 2
Port E1
TxIn8
RxOut8
D4 Bit 1
D4 Bit 3
Port E2
TxIn9
RxOut9
D4 Bit 2
D4 Bit 4
Port E3
TxIn12
RxOut12
D4 Bit 3
D4 Bit 5
Port E4
TxIn13
RxOut13
D4 Bit 4
D4 Bit 6
Port E5
TxIn14
RxOut14
D4 Bit 5
D4 Bit 7
Port E6
TxIn10
RxOut10
D4 Bit 6
D4 Bit 8
Port E7
TxIn11
RxOut11
D4 Bit 7 (MSB)
D4 Bit 9 (MSB)
Port F0
TxIn15
RxOut15
D5 Bit 0
D5 Bit 2
Port F1
TxIn18
RxOut18
D5 Bit 1
D5 Bit 3
Port F2
TxIn19
RxOut19
D5 Bit 2
D5 Bit 4
Port F3
TxIn20
RxOut20
D5 Bit 3
D5 Bit 5
Port F4
TxIn21
RxOut21
D5 Bit 4
D3 Bit 6
Port F5
TxIn22
RxOut22
D5 Bit 5
D3 Bit 7
Port F6
TxIn16
RxOut16
D5 Bit 6
D5 Bit 8
Port F7
TxIn17
RxOut17
D5 Bit 7 (MSB)
D5 Bit 9 (MSB)
LVAL
TxIn24
RxOut24
Line Valid
Line Valid
FVAL or
Port I2 *
TxIn25
RxOut25
Not Used
D1 Bit 0
DVAL or
Port I3 **
TxIn26
RxOut26
Not Used
D1 Bit 1
Port I4
TxIn23
RxOut23
Not Used
D2 Bit 0
Strobe
TxInCLK
RxOutClk
Pixel Clock
Pixel Clock
Table 9: Bit Assignments for 1X8 Tap Geometry – 8 or 10 Bit Pixel Depth (Transmitter Circuit Y)
Camera Link Implementation
AW00118702000
20
Basler racer Camera Link
* In 1X8 8 bit mode, this port is FVAL and is not used.
In 1X8 10 bit mode, FVAL is not present. Instead, this port is J5 and D6 Bit 1 is assigned to it.
** In 1X8 8 bit mode, this port is DVAL.
In 1X8 10 bit mode, DVAL is not present. Instead, this port is J6 and D7 Bit 0 is assigned to it.
Medium/Full SDR Conn, Transmitter Circuit Z
Port
Camera
Frame
Grabber
Bit Assignments
1X8 - 8 Bits
1X8 - 10 Bits
Port G0
TxIn0
RxOut0
D6 Bit 0
D6 Bit 2
Port G1
TxIn1
RxOut1
D6 Bit 1
D6 Bit 3
Port G2
TxIn2
RxOut2
D6 Bit 2
D6 Bit 4
Port G3
TxIn3
RxOut3
D6 Bit 3
D6 Bit 5
Port G4
TxIn4
RxOut4
D6 Bit 4
D6 Bit 6
Port G5
TxIn6
RxOut6
D6 Bit 5
D6 Bit 7
Port G6
TxIn27
RxOut27
D6 Bit 6
D6 Bit 8
Port G7
TxIn5
RxOut5
D6 Bit 7 (MSB)
D6 Bit 9 (MSB)
Port H0
TxIn7
RxOut7
D7 Bit 0
D7 Bit 2
Port H1
TxIn8
RxOut8
D7 Bit 1
D7 Bit 3
Port H2
TxIn9
RxOut9
D7 Bit 2
D7 Bit 4
Port H3
TxIn12
RxOut12
D7 Bit 3
D7 Bit 5
Port H4
TxIn13
RxOut13
D7 Bit 4
D7 Bit 6
Port H5
TxIn14
RxOut14
D7 Bit 5
D7 Bit 7
Port H6
TxIn10
RxOut10
D7 Bit 6
D7 Bit 8
Port H7
TxIn11
RxOut11
D7 Bit 7 (MSB)
D7 Bit 9 (MSB)
Port I5
TxIn15
RxOut15
Not Used
D2 Bit 1
Port I6
TxIn18
RxOut18
Not Used
D3 Bit 0
Port I7
TxIn19
RxOut19
Not Used
D3 Bit 1
Port J0
TxIn20
RxOut20
Not Used
D4 Bit 0
Port J1
TxIn21
RxOut21
Not Used
D4 Bit 1
Port J2
TxIn22
RxOut22
Not Used
D5 Bit 0
Port J3
TxIn16
RxOut16
Not Used
D5 Bit 1
Port J4
TxIn17
RxOut17
Not Used
D6 Bit 0
LVAL
TxIn24
RxOut24
Line Valid
Line Valid
FVAL or
Port J5 *
TxIn25
RxOut25
Not Used
D6 Bit 1
DVAL or
Port J6 **
TxIn26
RxOut26
Not Used
D7 Bit 0
Port J7
TxIn23
RxOut23
Not Used
D7 Bit 1
Strobe
TxInCLK
RxOutClk
Pixel Clock
Pixel Clock
Table 10: Bit Assignments for 1X8 Tap Geometry – 8 or 10 Bit Pixel Depth (Transmitter Circuit Z)
Camera Link Implementation
Basler racer Camera Link
21
1.5.6.5
1X10 Tap Geometry – 8 Bit Pixel Depth
Base SDR Connector, Transmitter Circuit X
Port
Camera
Frame
Grabber
Bit Assignments
1X10 - 8 Bits
Port A0
TxIn0
RxOut0
D0 Bit 0
Port A1
TxIn1
RxOut1
D0 Bit 1
Port A2
TxIn2
RxOut2
D0 Bit 2
Port A3
TxIn3
RxOut3
D0 Bit 3
Port A4
TxIn4
RxOut4
D0 Bit 4
Port A5
TxIn5
RxOut5
D0 Bit 5
Port A6
TxIn6
RxOut6
D0 Bit 6
Port A7
TxIn7
RxOut7
D0 Bit 7 (MSB)
Port B0
TxIn8
RxOut8
D1 Bit 0
Port B1
TxIn9
RxOut9
D1 Bit 1
Port B2
TxIn10
RxOut10
D1 Bit 2
Port B3
TxIn11
RxOut11
D1 Bit 3
Port B4
TxIn12
RxOut12
D1 Bit 4
Port B5
TxIn13
RxOut13
D1 Bit 5
Port B6
TxIn14
RxOut14
D1 Bit 6
Port B7
TxIn15
RxOut15
D1 Bit 7 (MSB)
Port C0
TxIn16
RxOut16
D2 Bit 0
Port C1
TxIn17
RxOut17
D2 Bit 1
Port C2
TxIn18
RxOut18
D2 Bit 2
Port C3
TxIn19
RxOut19
D2 Bit 3
Port C4
TxIn20
RxOut20
D2 Bit 4
Port C5
TxIn21
RxOut21
D2 Bit 5
Port C6
TxIn22
RxOut22
D2 Bit 6
Port C7
TxIn23
RxOut23
D2 Bit 7 (MSB)
LVAL
TxIn24
RxOut24
Line Valid
FVAL
TxIn25
RxOut25
Not Used
Port D0
TxIn26
RxOut26
D3 Bit 0
Port D1
TxIn27
RxOut27
D3 Bit 1
Strobe
TxInCLK
RxOutClk
Pixel Clock
Table 11: Bit Assignments for 1X10 Tap Geometry – 8 Pixel Depth (Transmitter Circuit X)
Camera Link Implementation
AW00118702000
22
Basler racer Camera Link
Medium/Full SDR Connector, Transmitter Circuit Y
Port
Camera
Frame
Grabber
Bit Assignments
1X10 - 8 Bits
Port D2
TxIn0
RxOut0
D3 Bit 2
Port D3
TxIn1
RxOut1
D3 Bit 3
Port D4
TxIn2
RxOut2
D3 Bit 4
Port D5
TxIn3
RxOut3
D3 Bit 5
Port D6
TxIn4
RxOut4
D3 Bit 6
Port D7
TxIn5
RxOut5
D3 Bit 7 (MSB)
Port E0
TxIn6
RxOut6
D4 Bit 0
Port E1
TxIn7
RxOut7
D4 Bit 1
Port E2
TxIn8
RxOut8
D4 Bit 2
PortE3
TxIn9
RxOut9
D4 Bit 3
Port E4
TxIn10
RxOut10
D4 Bit 4
Port E5
TxIn11
RxOut11
D4 Bit 5
Port E6
TxIn12
RxOut12
D4 Bit 6
Port E7
TxIn13
RxOut13
D4 Bit 7 (MSB)
Port F0
TxIn14
RxOut14
D5 Bit 0
Port F1
TxIn15
RxOut15
D5 Bit 1
Port F2
TxIn16
RxOut16
D5 Bit 2
Port F3
TxIn17
RxOut17
D5 Bit 3
Port F4
TxIn18
RxOut18
D5 Bit 4
Port F5
TxIn19
RxOut19
D5 Bit 5
Port F6
TxIn20
RxOut20
D5 Bit 6
Port F7
TxIn21
RxOut21
D5 Bit 7 (MSB)
Port G0
TxIn22
RxOut22
D6 Bit 0
Port G1
TxIn23
RxOut23
D6 Bit 1
Port G2
TxIn24
RxOut24
D6 Bit 2
Port G3
TxIn25
RxOut25
D6 Bit 3
Port G4
TxIn26
RxOut26
D6 Bit 4
LVAL
TxIn27
RxOut27
Line Valid
Strobe
TxInCLK
RxOutClk
Pixel Clock
Table 12: Bit Assignments for 1X10 Tap Geometry – 8 Pixel Depth (Transmitter Circuit Y)
Camera Link Implementation
Basler racer Camera Link
23
Medium/Full SDR Connector, Transmitter Circuit Z
Port
Camera
Frame
Grabber
Bit Assignments
1X10 - 8 Bits
Port G5
TxIn0
RxOut0
D6 Bit 5
Port G6
TxIn1
RxOut1
D6 Bit 6
Port G7
TxIn2
RxOut2
D6 Bit 7 (MSB)
Port H0
TxIn3
RxOut3
D7 Bit 0
Port H1
TxIn4
RxOut4
D7 Bit 1
Port H2
TxIn5
RxOut5
D7 Bit 2
Port H3
TxIn6
RxOut6
D7 Bit 3
Port H4
TxIn7
RxOut7
D7 Bit 4
Port H5
TxIn8
RxOut8
D7 Bit 5
Port H6
TxIn9
RxOut9
D7 Bit 6
Port H7
TxIn10
RxOut10
D7 Bit 7 (MSB)
Port I0
TxIn11
RxOut11
D8 Bit 0
Port I1
TxIn12
RxOut12
D8 Bit 1
Port I2
TxIn13
RxOut13
D8 Bit 2
Port I3
TxIn14
RxOut14
D8 Bit 3
Port I4
TxIn15
RxOut15
D8 Bit 4
Port I5
TxIn16
RxOut16
D8 Bit 5
Port I6
TxIn17
RxOut17
D8 Bit 6
Port I7
TxIn18
RxOut18
D8 Bit 7 (MSB)
Port J0
TxIn19
RxOut19
D9 Bit 0
Port J1
TxIn20
RxOut20
D9 Bit 1
Port J2
TxIn21
RxOut21
D9 Bit 2
Port J3
TxIn22
RxOut22
D9 Bit 3
Port J4
TxIn23
RxOut23
D9 Bit 4
Port J5
TxIn24
RxOut24
D9 Bit 5
Port J6
TxIn25
RxOut25
D9 Bit 6
Port J7
TxIn26
RxOut26
D9 Bit 7 (MSB)
LVAL
TxIn27
RxOut27
Line Valid
Strobe
TxInCLK
RxOutClk
Pixel Clock
Table 13: Bit Assignments for 1X10 Tap Geometry – 8 Pixel Depth (Transmitter Circuit Z)
Pixel Data Output
Basler racer Camera Link
25
2 Pixel Data Output
2.1
Data Depth
The camera’s Pixel Format parameter setting determines the data depth of the pixels transmitted
from the camera. On mono cameras, the pixel format can be set to Mono 8 (8 bit depth), Mono 10
(10 bit depth), or Mono 12 (12 bit depth).
When a camera is set for an 8 bit format, 8 bits of image data are transmitted for each pixel. When
a camera is set for a 10 bit format, 10 bits of image data are transmitted for each pixel. When a
camera is set for a 12 bit format, 12 bits of image data are transmitted for each pixel.
2.2
Pixel Clock Speed
The Camera Link pixel clock speed on all racer Camera Link camera models is selectable. The
available pixel clock speeds are listed in Table 14.
Camera Link Pixel Clock Speed
Camera Link Pixel Clock Period
(pclk Period)
32.5 MHz
30.769 ns
48 MHz
20.833 ns
65 MHz
15.385 ns
83.5 MHz
11.976 ns
Table 14: Pixel Clock Speeds and Periods
Pixel Data Output
AW00118702000
26
Basler racer Camera Link
2.3
Camera Link Tap Geometries
All racer Camera Link cameras have a settable Camera Link Tap Geometry parameter. The Camera
Link tap geometry setting determines how pixel data will be transmitted via the Camera Link
interface.
The available Camera Link tap geometries are:
1X
1X2
1X4
1X8
1X10
The sections 2.3.3 through 2.3.6 include descriptions of all available tap geometries.
2.3.1
Factors Influencing the Timing of Pixel Data
Transmission
2.3.1.1
Camera Link Pixel Clock
The Camera Link pixel clock is used to time pixel data transmission. The camera transmits data on
each rising edge of the pixel clock as shown, for example, for the 1X2 tap geometry in Fig. 10 on
page 31. The pixel clock frequency depends on the current setting of the camera’s Camera Link
Clock Speed parameter. See Table 14 for the available Camera Link pixel clock speeds and the
related pixel clock (pclk) periods.
2.3.1.2
Delays
In addition to the Camera Link pixel clock, the three delays A, B, and C are involved in timing pixel
data transmission. The delays can be calculated using the formulas 1, 2, and 3 given below. See
also Fig. 10, Fig. 12, Fig. 14, and Fig. 16):
Delay A takes account, among others, of the time needed for sensor readout and is subject to
the Offset X setting for the image AOI.
Delay B takes account of the Width setting for the image AOI and of the number of taps used
for pixel data transmission (e.g. two taps in 1X2 tap geometry).
Delay C takes a minimum (Cmin) of seven pixel clock periods and increases as the line
acquisition rate is decreased. Delay C varies somewhat due to jitter.
Pixel Data Output
Basler racer Camera Link
27
Formula 1:
Formula 2:
Formula 3:
Example:
Assume that the camera is set to 1X2 tap geometry and a pixel clock speed of 65 MHz. Assume
also that the Offset X parameter for the image AOI is set to 16 pixels, and that the Width parameter
for the image AOI is set to 24 pixels. In this case, the delays would be:
Formula 1:
Formula 2:
Formula 3:
A
22.3 µs
Image AOI Offset X
8
---------------------------------------------------- x 0.0095 µs
+
B
Image AOI Width
Number of Taps
--------------------------------------------- x pclk Period
Cmin
7 x pclk Period
=
A
22.3 µs
16
8
-------- x 0.0095 µs
+
A
22.319 µs
B
24
2
-------- x 0.015385 µs
B
0.18462 µs
Cmin
7 x 0.015385 µs
=
Cmin
0.107695 µs
=
Pixel Data Output
AW00118702000
28
Basler racer Camera Link
2.3.2
1X Tap Geometry
The characteristics of the 1X tap geometry are:
On each cycle of the Camera Link pixel clock, the data for one pixel are transmitted via the
Camera Link interface. This is commonly referred to as a "one tap" Camera Link configuration.
The camera will begin transmitting data from the sensor line. It will transmit the data for the first
pixel in the line on the first Camera Link pixel clock cycle, the next pixel in the line on the
second pixel clock cycle, the next pixel in the line on the third clock cycle, and so on until the
line is complete.
When transmission for the line is complete, transmission for the next line acquisition will begin
after a time interval (see Fig. 8 on page 29) and will proceed in a similar fashion. Data
transmission will continue line after line until line acquisition is stopped.
When the camera is set for the 1X tap geometry, it uses the base Camera Link configuration.
When the camera is set for the 1X tap geometry, the image AOI Width parameter must be set to a
number divisible by 8.
Transmission according to the 1X tap geometry is shown graphically in Fig. 7 and the timing of pixel
data transmission in Fig. 8.
Fig. 7: 1X Tap Geometry
Tap 1
Step X = 1
X1
X2
XW-1
XW
Pixel Data Output
Basler racer Camera Link
29
Fig. 8: Timing of Pixel Data Transmission for the 1X Tap Configuration
End of
Exposure
Pixel
Clock
D0
Pixel Data
(12, 10, or 8 bits)
W-1
W
1
2
1
2
Data
Valid
W-1
W
A
Line
Valid
Line Acquisition N
Line Acquisition N+1
C
B
TIMING DIAGRAMS ARE NOT DRAWN TO SCALE.
W = width = the last pixel according to the current image AOI (e.g., the 2048th pixel of the image AOI
when the image AOI width is set to 2048).
Pixel Data Output
AW00118702000
30
Basler racer Camera Link
2.3.3
1X2 Tap Geometry
The characteristics of the 1X2 tap geometry are:
On each cycle of the Camera Link pixel clock, the data for two pixels are transmitted via the
Camera Link interface. This is commonly referred to as a "two tap" Camera Link configuration.
The camera will begin transmitting data from the sensor line. It will transmit the data for the first
two pixels in the line on the first Camera Link pixel clock cycle, the next two pixels in the line on
the second pixel clock cycle, the next two pixels in the line on the third clock cycle, and so on
until the line is complete.
When transmission for the line is complete, transmission for the next line acquisition will begin
after a time interval (see Fig. 10 on page 31) and will proceed in a similar fashion. Data
transmission will continue line after line until line acquisition is stopped.
When the camera is set for the 1X2 tap geometry, it uses the base Camera Link configuration.
When the camera is set for the 1X2 tap geometry, the image AOI Width parameter must be set to
a number divisible by 8.
Transmission according to the 1X2 tap geometry is shown graphically in Fig. 9 and the timing of
pixel data transmission in Fig. 10.
Fig. 9: 1X2 Tap Geometry
Tap 1
Tap 2
Step X = 2
X1
X2
XW-1
XW
W = width
Pixel Data Output
Basler racer Camera Link
31
Fig. 10: Timing of Pixel Data Transmission for the 1X2 Tap Configuration
Pixel
Clock
D0
Pixel Data
(12, 10, or 8 bits)
W-3
W-1
1
3
1
D1
Pixel Data
(12, 10, or 8 bits)
W-2
W
2
4
2
3
4
Data
Valid
W-3
W-1
W-2
W
Line
Valid
Line N
Line N+1
C
B
B
End of
Exposure
of Line N+1
A
End of
Exposure
of Line N+2
TIMING DIAGRAMS ARE NOT DRAWN TO SCALE.
W = width = the last pixel according to the current image AOI (e.g., the 2048th pixel of the image AOI
when the image AOI width is set to 2048).
Pixel Data Output
AW00118702000
32
Basler racer Camera Link
2.3.4
1X4 Tap Geometry
The characteristics of the 1X4 tap geometry are:
On each cycle of the Camera Link pixel clock, the data for four pixels are transmitted via the
Camera Link interface. This is commonly referred to as a "four tap" Camera Link configuration.
The camera will begin transmitting data from the sensor line. It will transmit the data for the first
four pixels in the line on the first Camera Link pixel clock cycle, the next four pixels in the line
on the second pixel clock cycle, the next four pixels in the line on the third clock cycle, and so
on until the line is complete.
When transmission for the line is complete, transmission for the next line acquisition will begin
after a time interval (see Fig. 12 on page 33) and will proceed in a similar fashion. Data
transmission will continue line after line until line acquisition is stopped.
When the camera is set for the 1X4 tap geometry, it uses the medium Camera Link
configuration.
When the camera is set for the 1X4 tap geometry, the image AOI Width parameter must be set to
a number divisible by 8.
Transmission according to the 1X4 tap geometry is shown graphically in Fig. 11 and the timing of
pixel data transmission in Fig. 12.
Fig. 11: 1X4 Tap Geometry
Tap 1
Tap 2
Step X = 4
X1
X2
XW-1
XW
W = width
Tap 3
Tap 4
Pixel Data Output
Basler racer Camera Link
33
Fig. 12: Timing of Pixel Data Transmission for the 1X4 Tap Configuration
Line
Valid
Line N
Line N+1
Pixel
Clock
D0
Pixel Data
(12, 10, or 8 bits)
W-7
W-3
1
5
1
D1
Pixel Data
(12, 10, or 8 bits)
W-6
W-2
2
6
2
5
6
Data
Valid
W-7
W-3
W-6
D2
Pixel Data
(12, 10, or 8 bits)
W-5
W-1
3
7
3
7
W-5
D3
Pixel Data
(12, 10, or 8 bits)
W-4
W
4
8
4
8
W-4
W-2
W-1
W
C
B
B
A
End of
Exposure
of Line N+1
End of
Exposure
of Line N+2
TIMING DIAGRAMS ARE NOT DRAWN TO SCALE.
W = width = the last pixel according to the current image AOI (e.g., the 2048th pixel of the image AOI
when the image AOI width is set to 2048).
Pixel Data Output
AW00118702000
34
Basler racer Camera Link
2.3.5
1X8 Tap Geometry
The characteristics of the 1X8 tap geometry are:
On each cycle of the Camera Link pixel clock, the data for eight pixels are transmitted via the
Camera Link interface. This is commonly referred to as an "eight tap" Camera Link
configuration (or sometimes "octo tap").
The camera will begin transmitting data from the sensor line. It will transmit the data for the first
eight pixels in the line on the first Camera Link pixel clock cycle, the next eight pixels in the line
on the second pixel clock cycle, the next eight pixels in the line on the third clock cycle, and so
on until the line is complete.
When transmission for the line is complete, transmission for the next line acquisition will begin
after a time interval (see Fig. 14 on page 35) and will proceed in a similar fashion. Data
transmission will continue line after line until line acquisition is stopped.
When the camera is set for the 1X8 tap geometry, it uses the full Camera Link configuration.
When the camera is set for the 1X8 tap geometry, the image AOI Width parameter must be set to
a number divisible by 8.
Transmission according to the 1X8 tap geometry is shown graphically in Fig. 13 and the timing of
pixel data transmission in Fig. 14.
Fig. 13: 1X8 Tap Geometry
Tap 1
Tap 2
Step X = 8
X1
X2
XW-1
XW
W = width
Tap 3
Tap 4
Tap 5
Tap 6
Tap 7
Tap 8
Pixel Data Output
Basler racer Camera Link
35
Fig. 14: Timing of Pixel Data Transmission for the 1X8 Tap Configuration
Line
Valid
Line N
Line N+1
C
B
Pixel
Clock
D0
Pixel Data
(10 or 8 bits)
W-15
W-7
1
9
D1
Pixel Data
(10 or 8 bits)
W-14
W-6
2
10
Data
Valid
D2
Pixel Data
(10 or 8 bits)
W-13
W-5
3
11
D3
Pixel Data
(10 or 8 bits)
W-12
W-4
4
12
D4
Pixel Data
(10 or 8 bits)
W-11
W-3
5
13
D5
Pixel Data
(10 or 8 bits)
W-10
W-2
6
14
D6
Pixel Data
(10 or 8 bits)
W-9
W-1
7
15
D7
Pixel Data
(10 or 8 bits)
W-8
W
8
16
*
W-15
W-7
1
9
W-14
W-6
2
10
W-13
W-5
3
11
W-12
W-4
4
12
W-11
W-3
5
13
W-10
W-2
6
14
W-9
W-1
7
15
W-8
W
8
16
B
A
End of
Exposure
of Line N+1
End of
Exposure
of Line N+2
* In 1X8 configuration, data valid is only available when the camera is set for an 8 bit pixel format.
TIMING DIAGRAMS ARE NOT DRAWN TO SCALE.
W = width = the last pixel according to the current image AOI (e.g., the 2048th pixel of the image AOI
when the image AOI width is set to 2048).
Pixel Data Output
AW00118702000
36
Basler racer Camera Link
2.3.6
1X10 Tap Geometry
The characteristics of the 1X10 tap geometry are:
On each cycle of the Camera Link pixel clock, the data for ten pixels are transmitted via the
Camera Link interface. This is commonly referred to as a "ten tap" Camera Link configuration
(or sometimes "deca tap").
The camera will begin transmitting data from the sensor line. It will transmit the data for the first
ten pixels in the line on the first Camera Link pixel clock cycle, the next ten pixels in the line on
the second pixel clock cycle, the next ten pixels in the line on the third clock cycle, and so on
until the line is complete.
When transmission for the line is complete, transmission for the next line acquisition will begin
after a time interval (see Fig. 15 on page 36) and will proceed in a similar fashion. Data
transmission will continue line after line until line acquisition is stopped.
When the camera is set for the 1X10 tap geometry, it uses the full Camera Link configuration.
When the camera is set for the 1X10 tap geometry, the image AOI Width parameter must be set to
a number divisible by 40.
Transmission according to the 1X10 tap geometry is shown graphically in Fig. 15 and the timing of
pixel data transmission in Fig. 16.
Fig. 15: 1X10 Tap Geometry
Tap 1
Tap 2
Step X = 10
X1
X2
XW-1
XW
W = width
Tap 3
Tap 4
Tap 5
Tap 6
Tap 7
Tap 8
Tap 9
Tap 10
Pixel Data Output
Basler racer Camera Link
37
Fig. 16: Timing of Pixel Data Transmission for the 1X10 Tap Configuration
Line
Valid
Line N
Line N+1
Pixel
Clock
D0
Pixel Data
(8 bits)
W-19
1
11
D1
Pixel Data
(8 bits)
W-18
2
12
D2
Pixel Data
(8 bits)
W-17
3
13
D3
Pixel Data
(8 bits)
W-16
4
D4
Pixel Data
(8 bits)
W-15
5
15
D5
Pixel Data
(8 bits)
W-14
6
16
D6
Pixel Data
(8 bits)
W-13
W-3
7
17
D7
Pixel Data
(8 bits)
W-12
W-2
8
18
D8
Pixel Data
(8 bits)
W-11
W-1
9
19
D9
Pixel Data
(8 bits)
W-10
W
10
20
14
W-9
W-8
W-7
W-6
W-5
W-4
W-19
1
11
W-18
2
12
W-17
3
13
W-16
4
W-15
5
15
W-14
6
16
W-13
W-3
7
17
W-12
W-2
8
18
W-11
W-1
9
19
W-10
W
10
20
14
W-9
W-8
W-7
W-6
W-5
W-4
C
B
B
A
End of
Exposure
of Line N+1
End of
Exposure
of Line N+2
TIMING DIAGRAMS ARE NOT DRAWN TO SCALE.
W = width = the last pixel according to the current image AOI (e.g., the 2040th pixel of the image AOI
when the image AOI width is set to 2040).
Note: Data Valid is not available in 1X10 configuration.
Basler racer Camera Link
39
Revision History
Doc. ID Number
Date
Changes
AW00118701000
17 Sep 2012
Initial release of this document. Applies to prototype cameras only.
AW00118702000
1 Feb 2013
Initial release of this document applying to series-production status.
Updated the e-mail addresses for Basler technical support.
Added descriptions of the 1X tap geometry throughout the document.
Updated the camera’s back view in Fig. 1 on page 1.
Modified the specification for camera power in Table 2.
Corrected the AOI width increments in Section 2.3 on page 26.