Phrontier Technologies PHANTA-S1F4 User manual

PHANTA-V1.4
Camera Link Splitter/Repeater
Base/Dual Base/Medium/Full/Extended Full
PHANTATM
User Manual V1.4
PHANTA-S1F4
PHANTA-D2B4
PHANTA-S1B8

PHANTA User Manual V1.4
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TABLE OF CONTENTS
1. Introduction ............................................................................................................................. 3
2. Available models..................................................................................................................... 3
3. Packing List............................................................................................................................. 3
4. Model Functionality ................................................................................................................ 4
4.1 PHANTA-S1F4 ............................................................................................................ 4
4.2 PHANTA-D2B4............................................................. Error! Bookmark not defined.
4.3 PHANTA-S1B8............................................................. Error! Bookmark not defined.
5. DC Input Power Connection and Options............................................................................... 6
5.1 PWR1 port................................................................................................................... 7
5.2 PWR2 port................................................................................................................... 7
5.2.1 PWR2 for DC input ............................................................................................... 7
5.2.2 PWR2 for DC output (consult technical support before using this configuration)... 7
6. Setting Signal Routing............................................................................................................. 8
6.1 DIP Switches ............................................................................................................... 8
6.1.1 Image DIP switch.................................................................................................. 8
6.1.2 CC1~CC4 and SerCom DIP switches................................................................... 8
6.2 RS232 port .................................................................................................................. 9
6.2.1 Pin assignment..................................................................................................... 9
6.2.2 Shift register settings ............................................................................................ 9
6.2.3 Programming Commands....................................................................................11
6.2.4 Hyper Terminal Setup..........................................................................................11
6.2.5 Programming Examples Using Hyper Terminal....................................................13
7. LED Indicators ...................................................................................................................... 14
8. Specifications......................................................................................................................... 15
8.1 General Specification..................................................................................................15
8.2 Camera Link Interface.................................................................................................15
8.3 Mechanical Dimensions (mm).....................................................................................15
9. Contact Us ............................................................................................................................. 16
TABLES
Table 1. CC1~CC4 and SerCom DIP switch settings................................................................. 9
Table 2. Relationship between the hex command numbers and shift register settings..............11
Table 3. Commands for setting the shift registers .....................................................................11
Table 4. Definition of the 1x3 LED indicator ..............................................................................14
FIGURES
Figure 1. Block Diagram of PHANTA-S1F4................................................................................ 4
Figure 2. Block Diagram of PHANTA-D2B4 ............................................................................... 5
Figure 3. Block Diagram of PHANTA-S1B8................................................................................ 6
Figure 4. Simplified DC input circuit diagram (not for PWR2 as an output)................................. 6
Figure 5. Jumper settings for PWR2 .......................................................................................... 8
Figure 6. RS232 Port Pin Assignment (DB9 Female)................................................................. 9
Figure 7. Settings of the COM port property for the Hyper Terminal..........................................12
Figure 8. ASCII Settings for Hyper Terminal. ............................................................................13
Figure 9. Starting message when RS232 communication is successfully established...............13

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1. Introduction
The PHANTA product family is designed to distribute image data from a high speed Camera
Link camera to multiple frame grabbers for applications that require intensive or parallel image
processing. Three models are available for different system setup. Key features include:
Fully supports Camera Link cameras and frame grabbers up to 85MHz pixel clock for
full/medium/base and 10 taps x 8 bits configurations
Independently controlled image data path, control signal path and serial communication path
for maximum signal routing flexibility
Allow users to select any of the connected frame grabbers to control and configure cameras
Signal routing can be controlled via DIP switch or RS232 port
Output ports can be shut off independently when not in use to avoid signal glitch to frame
grabbers
Reconditioned and synchronized output effectively double the connection distance
Standard 1U 19” chassis for easy mounting
An array of LED indicators clearly display operation status
Accept wide range 10V~24V DC power supply
Locking power supply connector for secure connection in industrial environment
Alternative input power terminal for easy custom power supply connection
Provides optional DC output power for cameras to save additional power supply
Can be seamlessly used with our PHOX, PHIRE and PHAST fiber extenders for extended
distance
2. Available models
PHNATA-S1F4 Connects 1 full/medium/base camera to 4 frame grabbers
PHNATA-D2B4 Connects 2 base cameras to 2 groups of 4 frame grabbers
PHNATA-S1B8 Connects 1 base camera to 8 frame grabbers
The available models are different in hardware circuitry and FPGA program which cannot be
changed in the field. Users need to specify the model for their applications at the time of
purchase.
3. Packing List
Standard package include the following items:
Items/Description Qty
PHANTA in 19” chassis with mounting bracket 1
International AC/DC adapter (12V DC out) with
Switchcraft 760BK locking plug 1
DB9 6 ft. male to female straight RS232 cable 1
User Manual 1

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4. Model Functionality
4.1 PHANTA-S1F4
This model distributes image data from one camera to four frame grabbers. It supports base,
medium, full and extended full (10 taps x 8 bits) camera configurations. User can select any of
the frame grabbers to send camera control signals (CC1 ~ CC4) to the camera or to establish
serial communication with the camera. Since the signal paths are independently controlled, the
control signals and serial communication signals can be sent from different frame grabbers.
Selection can be done manually by DIP switches on the front panel or electronically through the
RS232 port on the back panel. The image data to each output port can be individually switched
on/off manually by the DIP switch or electronically through the RS232 port. The block diagram
of this model is shown in Figure 1.
Figure 1. Block Diagram of PHANTA-S1F4
4.2 PHANTA-D2B4
This model distributes image data from two independent base configuration cameras to four
frame grabbers for each camera. The model can be considered as two 1-to-4 image splitters
integrated in the same chassis. Camera input 1 sends images to output ports 1, 2, 3, and 4.
Camera input 2 sends images to outputs 5, 6, 7 and 8. User can select any of the four frame
grabbers in the group to send camera control signals (CC1 ~ CC4) to the camera or to establish
serial communication with the camera. Because the signal paths are independently controlled,
the control signals and serial communication signals can be sent from different frame grabbers
in the group. Selection can be done manually by the DIP switches on the front panel or
electronically through the RS232 port on the back panel. The image data to each output port
can be individually switched off manually by DIP switch or electronically through RS232 port.
The block diagram of this model is shown in Figure 2.
CM Base
(Input Port 1)
Image Port
A, B, C
Image Port
D,E,F,G,H
CC1~CC4
CM Medium/Full
(Input Port 2)
PHANTA-S1F4
SerTFG
SerTC
Selector
SW2
SW4
SW6
SW8
SW1
SW3
SW5
SW7
Selector
FG Port 2
FG Port 3
FG Port 5
FG Port 6
FG Port 7
FG Port 8
FG Port 4
FG Port 1

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Figure 2. Block Diagram of PHANTA-D2B4
4.3 PHANTA-S1B8
This model distributes image data from one single base configuration camera to eight frame
grabbers. Input port 2 is disabled and not used. Users can select any of the frame grabbers to
send camera control signals (CC1 ~ CC4) to the camera or to establish serial communication
with the camera. Because the signal paths are independently controlled, the control signals and
serial communication signals can be sent from different frame grabbers. Selection can be done
manually by the DIP switches on the front panel or electronically through the RS232 port on the
back panel. The image data to each output port can be individually switched off manually by the
DIP switch or electronically through the RS232 port. The block diagram of this model is shown
in Figure 3.
PHANTA-D2B4
CM Base
(Input Port 1)
Image Port
A, B, C
CC1~CC4
SerTFG
SerTC
Selector
SW1
SW2
SW3
SW4
Selector
FG Port
1
FG Port
2
FG Port
3
FG Port
4
CM Base
(Input Port 2)
Image Port
A, B, C
CC1~CC4
SerTFG
SerTC
Selector
SW5
SW6
SW7
SW8
Selector
FG Port
5
FG Port
6
FG Port
7
FG Port
8

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Figure 3. Block Diagram of PHANTA-S1B8
5. DC Input Power Connection and Options
PHANTA product family requires an external DC power input within the range of 10V~24V. Two
power ports, PWR1 and PWR2, on the front panel provide users with options for power
connection. A rocker switch provides the switching function between these two ports as well as
the power ON/OFF function for the system. A simplified input circuit is shown in Figure 4.
Note: When re-booting the system, please allow at least 5 seconds interval before switch
on again. This will allow the internal capacitors to be fully discharged.
Figure 4. Simplified DC input circuit diagram (not for PWR2 as an output).
CM Base
(Input Port 1)
Image Port
A, B, C
CC1~CC4
Input Port 2
(not in use)
PHANTA-S1B8
SerTFG
SerTC
Selector
SW1
SW2
SW3
SW4
SW5
SW6
SW7
SW8
Selector
FG port 1
FG port 2
FG port 3
FG port 4
FG port 5
FG port 6
FG port 7
FG port 8
VIN +
VIN -
Fuse
PWR1
PWR2
Rocker Switch

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5.1 PWR1 port
PWR1 port features a 2.5mm locking socket and is used by default as the primary DC input
port. A matching locking plug is provided in the package with the AC/DC adapter. Plugging in
the power plug and turning it clockwise will lock the plug to prevent the power cable from
disconnection. When detaching the power cable, hold the metal ring of the power plug and turn
counter-clockwise to release the locking mechanism. Pin assignment is shown below.
5.2 PWR2 port
PWR2 is a 3-pin terminal block which serves as an alternative DC input connection when direct
wire connection is desired. This port can also be configured to bypass the DC input from PWR1
and serves as a DC output port for supplying camera power.
5.2.1 PWR2 for DC input
By default this port is used as an alternative DC input and allows wire connection to user’s own
power supply. Only one, either PWR1 or PWR2, should be connected to the power supply at
one time but not both at the same time. Pin assignment is shown below.
Warning: When external power supply has separate case ground and return power
line, VIN- must be connected to the return power and NOT the external case ground.
Failure to do so will result in improper grounding and could cause permanent damage to
the system.
5.2.2 PWR2 for DC output (consult technical support before using this
configuration)
PWR2 can be configured to connect to the DC input from PWR1 to serve as a DC output port.
This circuit connection bypasses all internal PHANTA circuitry including the rocker switch and
requires opening box and resetting the jumper (J34) behind the power socket to the correct
positions. Figure 5 shows the corresponding jumper position for different functions. When
PWR2 is set to output power, the LED indicator “power out” will light up and PWR2 will stay
connected to PWR1 regardless the position of the rocker switch.
VIN +
VIN
-
VIN -
VIN +
Case GND
Lock

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Important notes: The bypassed DC output does not have fuse protection. Circuit
protection should be provided by the external device itself. Total power consumption
(PHANTA + external device) should not exceed the limits of the primary power supply
connected to PWR1.
Warning : When PWR2 is set to output power, it must be connected to an electrical
load not a power source. Failure to do so can damage either power source connected to
PWR1 or PWR2.
Figure 5. Jumper settings for PWR2
6. Setting Signal Routing
Signal routing can be set manually via three DIP switches on the front panel or through the
RS232 port on the back panel. Details are provided in the following sections. Every time when
the unit is powered on, the unit will be reset to the manual control.
6.1 DIP Switches
Three DIP switches denoted on the front panel as image (8 positions), CC1~CC4 (4 positions)
and SerCom (4 positions) are used to set the signal routing for image data, camera control and
serial communication respectively.
6.1.1 Image DIP switch
The 8 positions of image DIP switch serves as an ON/OFF switch for individual image output
ports. The numbers on the DIP switch correspond to the numbers of the output ports. When the
image data is active on the output port, the corresponding LED will light up.
6.1.2 CC1~CC4 and SerCom DIP switches
The two 4-position DIP switches, CC1~CC4 and SerCom, are used to select corresponding
frame grabbers for camera control and serial communication. In principle, each position
represents a binary number representation of the available frame grabbers. A complete table of
DIP switch settings is shown in Table 1 for each model. Users need to select the correct
By default, PWR2 as DC input
PWR2 as DC output

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corresponding frame grabbers to send control signals to camera or establish serial
communication link between camera and frame grabbers. The selected frame grabber ports will
be shown on the LED indicators on the front panel.
PHANTA-S1F4
PHANTA-D2B4
PHANTA-S1B8
Pos 3
Pos 4
Active
Pos1
Pos 2
Active
Pos 3
Pos 4
Active
Pos 2
Pos 3
Pos 4
Active
OFF OFF Port 1
(CH1)
OFF
OFF
Port 5
OFF
OFF
Port 1
OFF
OFF
OFF
Port 1
OFF
ON
Port 6
OFF
ON
Port 2
OFF
OFF
ON
Port 2
OFF ON Port 3
(CH2)
ON
OFF
Port 7
ON
OFF
Port 3
OFF
ON
OFF
Port 3
ON
ON
Port 8
ON
ON
Port 4
OFF
ON
ON
Port 4
ON OFF Port 5
(CH3)
ON
OFF
OFF
Port 5
ON
OFF
ON
Port 6
ON ON Port 7
(CH4)
ON
ON
OFF
Port 7
ON
ON
ON
Port 8
Table 1. CC1~CC4 and SerCom DIP switch settings
6.2 RS232 port
6.2.1 Pin assignment
The RS232 port on the back panel allows users to set signal routing through a computer COM
port. A male-to-female DB9 straight cable is included in our standard package. The pin
assignment of the female DB9 connector on the back panel is shown in Figure 6.
Figure 6. RS232 Port Pin Assignment (DB9 Female)
6.2.2 Shift register settings
Three shift registers (SR) named, <IMG>, <SCC> and <CFG>, are used for system
configuration. Each shift register contains an 8-bit binary data. The binary settings can be
corresponded to the DIP switch settings described in the previous section. The status of each
DIP switch position represents a binary status in the shift register. Tables below show the
contents of the shift registers and the correspondence to the DIP switch positions.
1, 4, 6, 7, 8, 9: NC
2: TxD
3: RxD
5: GND

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<IMG>: Turn the image output on and off. The status of each bit refers to the settings of each
output port.
Output port
number
8 7 6 5 4 3 2 1
DIP SW
position
8 7 6 5 4 3 2 1
Shift register
address
Bit 7 Bit 6 Bit 5 Bit 4 Bit 3 Bit 2 Bit 1 Bit 0
Content
description
Set image output 1=ON, 0= OFF
<SCC>: Set the active ports for serial communication and camera control. All unused bits were
set to 0 by default.
DIP SW
position
1 2 3 4 1 2 3 4
Shift register
address
Bit 7 Bit 6 Bit 5 Bit 4 Bit 3 Bit 2 Bit 1 Bit 0
Content
description
Set SerCom active port number Set CC1~CC4 active port number
PHANTA-S1F4
PHANTA-D2B4
PHANTA-S1B8
Bit 5
Bit 1
Bit 4
Bit 0
Active
Bit 7
Bit 3
Bit 6
Bit 2
Active
Bit 5
Bit 1
Bit 4
Bit 0
Active
Bit 6
Bit 2
Bit 5
Bit 1
Bit 4
Bit 0
Active
0 0 Port 1
(CH1)
0
0
Port 5
0
0
Port 1
0
0
0
Port 1
0
1
Port 6
0
1
Port 2
0
0
1
Port 2
0 1 Port 3
(CH2)
1
0
Port 7
1
0
Port 3
0
1
0
Port 3
1
1
Port 8
1
1
Port 4
0
1
1
Port 4
1 0 Port 5
(CH3)
1
0
0
Port 5
1
0
1
Port 6
1 1 Port 7
(CH4)
1
1
0
Port 7
1
1
1
Port 8
<CFG>: Set the control method either through RS232 or DIP switch.
Name
Bit 0
Bit 1
Bit 2
Bit 3
Bit 4
Bit 5
Bit 6
Bit 7
CFG Reserved and were set to 0 by default
Control options
1 = RS232
0 = DIP switch
While the actual settings are stored as a binary form in the shift register, these binary numbers
need to be converted to hexadecimal numbers when users send the commands. Two
hexadecimal numbers are needed to represent the 8-bit shift register. The value of the first hex
number is equal to the 4 MSB (bit 4 to bit 7). The value of the second hex number is equal to
the 4 LSB (bit 0 to bit 3). For users’ convenience, the relationship between the two hex numbers
and the 8-bit binary settings are shown in Table 2 as well as the conversion between the hex
and binary numbers. Programming examples will be shown in section 6.2.5.