The SHARK multi-parameter controller is a microprocessor based controller capable of
measuring one of the following parameters, pH, ORP, conductivity or flow.
When shipped from the factory, the SHARK is not set to measure any one parameter.
When the SHARK is powered up for the first time, it will display the meter selection
screen where the meter type must be selected. (refer to section 4.6 Meter Selection)
This meter selection screen will only be displayed when the SHARK is powered up for
the first time.
After the user selects a meter type the SHARK will remain set to that meter type until it
is changed with the meter selection menu function in the Utilities menu.
To return the SHARK to its factory settings, the user must re-select the current meter
type from the meter selection menu function. This will override all set-points and return
all settings back to the factory settings.
The SHARK User’s menu has been divided into five main categories
- Calibration, used to calibrate the SHARK with the selected sensor
- Utilities, Used to manually control or override the outputs.
- Setup, used to configure the SHARKs many options
- Diagnostics, used to troubleshoot any problems with the SHARK
- Outputs, used to configure the SHARK’s outputs.
There are two displays on the SHARK. A bright LED numeric display with bar graph on
the outside front panel, and a 2-line, 16-character LCD display on the inside. The LED
readout on the outside panel can be seen several yards away. The distinctive,colorcoded bar graph will immediately indicate if you are within the process parameters that
you set (green), if the control relays are on (yellow) and if you are in alarm condition
(red). This makes diagnosing pump and alarm malfunctions easy. All configuration and
control functions are performed on the LCD menu on the inside front panel.
A universal mounting kit is included for surface,panel and pipe-mount applications. The
1/4 DIN enclosure makes panel-mount cutouts and engineering simple.
SHARK is packaged in a rugged NEMA 4X polycarbonate enclosure making it ideally
suited for heavy-duty applications such as industrial wastewater neutralization, municipal water and wastewater, pulp and paper, and process control.
Manual-Calibration,Manual Calibration
Temperature DisplayTemperature Display
Dry Calibration
Sample Calibration K factor Input
Not available
300 ft2000 ft
Two Control Relays, 10A / NO, 5A / NC @ 240VAC or 28VDC.
Mode: Process control, Adjustable parameters: process direction,(rising or falling) on-set-point, off set-point,
(0 to 100% of full scale), cycle timer (on / off, 0 to 600 seconds),failsafe (on / off).
One Alarm Relay, 10A / NO, 5A / NC @ 240VAC or 28VDC.
Mode: High / Low Alarm, Adjustable parameters: Low on / Low off set-point (0 to 100% of full scale, low on must be less than
low off), High On / High Off set-point (0 to 100% of full scale,High on must be greater than High off).
4 to 20mA Channel 1
Isolated Output, Range expand 0 - 100% of full scale (min segment 10% of full scale), max. load 800Ω
Isolated Output, Range expand 0 - 100% of full scale (min segment 10% of full scale), max. load 800Ω
Can be set to track temperature if sensor is equipped with a temperature sensor
Enclosure: NEMA 4X, 1/4 DIN, polycarbonate enclosure with four 1/2”conduit holes
Mounting: Universal Mounting kit for surface, pipe and panel mount, is included
Probe: -600 to +600mV Probe:-1999 to +1999mV Cell: 0 to 9999Ω
Temp. Sensor: 0 to 9999ΩTemp. Sensor: 0 to 9999ΩTemp. Sensor: 0 to 9999Ω
Recall data from last calibration, calibration mode,
1st & 2nd accepted buffer value and probe mV output,
calibration temperature, calibration slope, and probe
efficiency
Recall data from last
calibration, calibration buffer
accepted value, and cell Recall store K factor.
resistance, calibration
temperature
Save the shipping carton and packing material in case the instrument needs to be stored or
returned. Inspect the instrument and packing material for shipping damage and report any
problems immediately.
2.2 Location
Locate the controller/analyzer close to the sensor. The list below gives typical maximum distances for various sensors. Refer to the sensor specifications for exact information.
• Aquametrix Differential PH Probe3000 ft (914 meters)
The Shark has four 1/2” conduit holes, 2 on each side of the enclosure as shown on fig. 2.1.
The unit is shipped with these holes plugged with liquid tight conduit seals. These must be left
in unused holes to maintain the NEMA 4X integrity. Use approved conduit hubs to connect the
conduit, connect these to the conduit before connecting to the enclosure.
Wire Specification
: Size and fuse wire accroding to local electrical code. Maximum current not
to exceed 10A when used to power auxillary decvices powered via internal connections.
3.2 A.C. Power Connections
Caution: This instrument uses 120 or 240 50/60 Hz AC power. Opening the enclosure
door exposes you to potentially hazardous line power voltage which might be present on the terminals of plug P3 and P4. Always remove line power before working in
this area. If the relay contacts on P4 are powered from a seperate source from the
line power on P3, be sure to disconnect that power before proceeding. The Shark flip
out door contains only low voltage and is safe to handle.
The Shark is available in two power models.
The Shark-240 is designed to operate at 240 VAC.
The Shark-120 is designed to operate at 120 VAC.
To connect power to the Shark, remove the terminal block plug P3 and connect the wiring as
shown below.
Figure 3.1 A.C. Power Connections
Section 3 - Electrical Connections and SetupPage 6
3.3 pH and ORP Differential Probe connections and setup
The drawing shows the connections for the Aquametrix Differential (5 wire) probe. The cable
should be run in a conduit separate from AC power wires, and via a separate conduit hole.
Note: Leave 4” to 6”
slack for all wires
connected to the
terminals of P6.
Slack required so
that wires do not
interfere with opening or closing of the
front door.
If the cable of the
differential probe is
cut, the blue
wire is not used.
CAUTION:
Always remove line
power before
unplugging or
plugging in the P6
connector
Once connected, step through the LCD menus to
select the probe in the order shown. The first two
steps may be skipped if the meter is already configured for pH or ORP and a Differential Probe.
When using a pH probe, it is important to ensure
that the Shark is reading the probe temperature
correctly for accurate temperature compensation.
The ORP probe does not require temperature
compensation, although the Shark can display
process temperature measured by the probe. The
factory temperature calibration is usually accurate
enough that no adjustments are necessary.
Section 3 - Electrical Connections and SetupPage 7
Figure 3.2 Connections for Differential (5 wire) pH or ORP probe
These wires are only
present with 4-wire
combination probe.
JUMPER 2-4 MUST BE
INSTALLED FOR
COMBINATION PROBE
(CUSTOMER SUPPLIED)
COAX SHIELD (4)
COAX CENTER (3)
WHITE (5)
GREEN (4)
P6
8
1
2
3465
7
1091112 13
14 15
17
16
COMBINATION
pH or ORP PROBE
SEC. 5.8
SEC. 5.5
SEC. 5.1
ORP PROBE
SELECT COMBINATION PROBE
SELECT ORP METER
MANUAL CALIBRATE
PH PROBE
MANUAL CALIBRATE
SELECT PH METER
SELECT COMBINATION PROBE
SEC. 4.1
SEC. 4.6
SEC. 4.7
SEC 4.10
MANUAL PROBE
TEMPERATURE SETUP
DISABLE TEMPERATURE
SEC 5.10
DISPLAY
MANUAL CAL PH
METER SELECTION
PROBE SELECT
7.15pH 25.0C
T.COMP OVERRIDE
7.15pH 25.0C
PROBE SELECT
METER SELECTION
MANUAL CAL PH
T.DISP OVERRIDE
RUN MODE
TWO WIRE PROBE WITH NO TEMP SENSORTWO WIRE PROBE WITH NO TEMP SENSOR
RUN MODE
ORPpH
Section 3 - Electrical Connections and Setup
3.4 pH or ORP Combination Probe connections and setup
The drawing shows the connections for the Aquametrix Combination probe. The cable should be run in
a conduit separate from AC power wires, and via a separate conduit hole. The cable length should not
exceed 10 feet (3 meters).
Fig. 3.3 Connections for the 2 and 4 wire Combination Probe
The 2 wire version has no
temperature sensor and is
connected via a coaxial wire.
In a pH meter, the user
should set the
OVERRIDEmenu to ON
(Section 4.11) and adjust the
temperature setting to the
actual probe temperature.
In an ORP meter, the user
should set the
RIDE to ON (Section 5.10) to
blank the temperature reading
on the display.
T COMP
T.DISP OVER-
4 wire version has two
The
additional wires for the probe
internal temperature sensor.
Ensure that the
T COMP
OVERRIDE or T.DISP
OVERRIDE
Note
: Leave 4” to 6” slack for
all wires connected to the terminals of P6. Slack required
is OFF.
so wires do not interfere with
opening/closing of front door.
CAUTION:
Always remove line
power before unplugging
or plugging in the P6
connector
Dwg# N104-35
Once connected, step throught the LCD menus to select the probe in the order
shown. The first two steps may be skipped if the meter is already configured for
a Combination Probe. If a two wire pH probe is used, which has no temperature
sensor, ensure that the Temp. Comp. Override is set to same temperature as
the buffer before calibrating. If a two wire ORP probe is used, you can blank the
Temp display with the T DISP OVERRIDE menu.
Section 3 - Electrical Connections and SetupPage 8
CALIBRATE WITH FACTORY
SPECIFIED CELL CONSTANT
SEC 6.2
Section 3 - Electrical Connections and Setup
3.5 Conductivity Cell (Contacting style) connections and setup
The drawing shows the connections for the Aquametrix Conductivity Cells (Contacting style). The cable
should be run in a conduit seperate from the AC power wires, and via a seperate conduit hole. The cell
cable length should not exceed 300ft. (91 meters).
Note: Leave 4” to 6”
slack for all wires
connected to the
terminals of P6.
Slack required so
that wires do not
interfere with opening or closing of the
front door.
CAUTION:
Always remove line
power before
unplugging or
plugging in the P6
connector
Figure 3.4 Connections for Conductivity Cells
Once connnected, step
through the LCD menus to
select the cell in the order
shown. The TEMP COMP
CURVE setup default is
1.8%/deg C. This is acceptable for most process applications. If your process is
significantly different from
this, change the setting in
the TEMP COMP CURVE
menu.
Section 3 - Electrical Connections and SetupPage 9
CLOSING THE FLOW SWITCH INPUT
TO GROUND WILL ZERO THE FLOW DISPLAY
DRY
OPEN
OR
9ma
+12V O.C.
FLOW SENSOR
EXTERNAL POWERED
FLOW SENSOR
SELF POWERED
16
171514
1312119108
7
5643
2
1
SIGNAL - (15)
SIGNAL + (14)
SHIELD
SHIELD
SHIELD (15)
SETUP OF UNITS
OF VOLUME
SETUP OF UNITS
CALIBRATION FACTOR
ENTER FLOW SENSOR
SELECT FLOW METER
SEC. 7.6
OF TIME
SEC 7.5
SEC. 7.4
SEC. 7.1
TOTAL 0
TOTALIZER RESET
UNITS OF TIME
UNITS OF VOLUME
K FACTOR
METER SELECTION
RESET TOTALIZER
RUN MODE
TO ZERO
SEC 7.0
Section 3 - Electrical Connections and Setup
3.6 Paddle Wheel Flow Sensor connections and setup
The drawing shows the connnections for a typical paddle wheel flow sensor. The cable to the sensor
should not exceed 2000’ (600 meters).
The Shark controller also supports the use of an external “flow switch”. When the flow switch input is
grounded, either through a dry contact or solid state input, the flow display will be held at zero. This is
useful to ensure the flow reading remains locked at zero when conditions require it. The flow will start
reading again when the input is opened. If the flow switch function is not desired, simply leave it disconnected and the flow meter will read as normal.
Figure 3.5 Connections for Flow Sensor
Dwg# N104-37
Note: Leave 4” to 6” slack for all wires connected to the terminals of P6. Slack required so that wires do not interfere
with opening or closing of the front door.
Once connected, step through the LCD menus to select the
sensor in the order shown. The Sensor K factor (pulses per
U.S. Gallon) is usually printed on the side of the sensor or
on a label attached to the sensor cable.
Section 3 - Electrical Connections and SetupPage 10
CAUTION:
Always remove line power before unplugging or
plugging in the P6 connector
The Shark controller has three internal relays. Relays A and B are for control, the Alarm Relay
can be configured for alarm functions or as an additional control relay.
The connections to the relays are shown in the drawing.
Note that the AC power is internally connected to the
relay terminal plug P4. This is used to provide 120V or
240V AC power for the relay contacts.
Wire Specification
: Size and fuse wire accroding to local
electrical code. Wire size not to exceed 14 AWG.
Figure 3.6 Connections for Relay A, B and Alarm
DISCONNECT POWER FROM
CONTROLLER AND LOADS WHILE
CONNECTING TO THE RELAY
OUTPUT
WARNING
TERMINAL PLUG.
The contacts are rated at 10 amp N.O. and 5 amp N.C. Do
not exceed this rating.When switching larger currents, use an
auxillary relay switched by the controller relay to extend the
controller relay life. If the relays are controlling an inductive
Dwg# N104-38
load, use appropriate transient suppression at the load.
Section 3 - Electrical Connections and SetupPage 11
Relay A & Relay B on the SHARK are SPDT dry
contact relays.They are configurable to operate in
response to rising or falling process values. Each
relay has independently adjustable on and off setpoints, cycle times, and fail-safe options.
The operator would use the control relays if the
device to be controlled is a simple on/off device.
For example a pump, solenoid valve, fan, or an
indicating light.
The control relays have 6 user configurable settings:
DIRECTION
a rising or falling process. If for example the relay
is set to control a falling process, the ON set-point
must be set lower than the OFF set-point. If the
relay is set to control a falling process the SHARK
will not allow the RELAY OFF set point to be set
lower than the RELAY ON set-point. This rule will
also apply to a rising process.
Y ON set-point: This is the process value at
RELA
which the relay will energize.This value can be set
anywhere between 0-100% of the range.
Y OFF set-point: This is the process value at
RELA
which the relay will de-energize.Depending on the
direction for which the relay is configured, the
RELAY OFF set-point will only be setable in a limited range.
CYCLE ON time
trol, and limit over-shoot, the control relay can be
set with the cycling feature. This feature, if
enabled, will cause the control relay to cycle when
the process is between the RELAY ON set-point
and RELAY OFF set-point. The cycle on time is the
amount of time in seconds that the relay will be
energized. It can be set between 0 and 600 seconds.
: The relay can be set to control either
: To obtain a tighter process con-
CYCLE OFF time: The CYCLE OFF time is the
amount of time in seconds that the relay will be deenergized, it can be set between 0 and 600 seconds. To disable the cycling feature set the cycle
off time to 0.
VERFEED TIMER: The overfeed timer is
O
designed to help safeguard against a process or
instrumentation error causing one of the control
relays to remain energized for extended periods of
time.
When enabled, the overfeed timer will time out if
the control RELAY OFF set point is not reached
inside the overfeed time out. The control relays will
de-energize, the alarm relay will energize and an
LED will flash at the front.
AILSAFE: The FAILSAFE feature is designed to
F
reverse the normal action of the control relay.
When the relay is set to FAILSAFE OFF the relay
will operate as a normal relay. When the relay is
de-energized the NO contacts are open and the
NC contacts are closed. Thus the device connected via the NO contacts will be off. When the relay
becomes energized the device will be on.
When the relay is set to FAILSAFE ON, the normal
action of the relay is reversed. Thus the NO contacts act as the NC contact and the NC act as the
NO. The device connected to the NC contacts will
be energized when the RELAY ON set-point is
reached. The relay will be de-energized but
because it is acting in reverse the device will be
energized. When the RELAY OFF set-point is
reached the relay will energize and the device
connected to the NC contact will de-energize.
The purpose of the Fail Safe option is to have the
device turned on in the event of a power interruption.
The factory default for FAILSAFE is OFF.
Section 3 - Electrical Connections and SetupPage 12
The third relay (Relay C) is used as an alarm relay.
The alarm relay on the SHARK is a SPDT dry contact relay.
This relay will respond to both a rising and falling
process. The alarm relay will act as a low alarm
(falling process) and a high alarm (rising process).
Both relays will have independently adjustable on
and off set-points. The ALARM ON set-points will
always be set before the ALARM OFF set-points.
The shark will not let the user input a value below
the ALARM ON set-point. The same rule holds
true for the high alarm.
The control relays have 5 user configurable settings:
ALARM LO
value that will cause the relay to energize. This
value can be set anywhere between 0-100% of the
range.
ALARM LO
the process must reach in order to de-energize the
alarm relay after it has dropped below the ALARM
LOW ON set-point.This value must be higher than
the ALARM LOW ON set-point.
ALARM HIGH ON set-point
value that will cause the relay to energize. This
value can be set anywhere between 0-100% of the
range.
ALARM HIGH OFF set-point
the process must reach in order to de-energize the
alarm relay after it has increased over the ALARM
HIGH ON set-point. This value must be lower than
the ALARM HIGH ON set-point.
W ON set-point:This is the low process
W OFF set-point: This is the value that
: This is the process
: This is the value that
ALARM SET
-POINT ERROR: If the ALARM LOW
ON set-point is set higher than the factory default
ALARM LOW OFF set-point, when the user
advances from the ALARM LOW ON set-point to
the ALARM LOW OFF set-point the shark will
adjust the ALARM LOW OFF set-point to be equal
to the ALARM LOW ON set-point. If the user then
tries to decrease the ALARM LOW OFF set-point
the Shark will display the ALARM LOW ALARM
setup error screen.
This screen will be displayed for 10 seconds, then
return back to the setup screen that was previously displayed. If the user presses the down key
again the error message will be displayed again
for 10 seconds. The user must accept the LOW
OFF set-point, equal to, or greater than the LOW
ON set-point.
The same conditions apply to the ALARM HIGH
set-points. Except the ALARM HIGH OFF setpoint must be lower than the ALARM HIGH ON
set-point. If the user tries to increase the ALARM
HIGH OFF set-point higher than the ALARM HIGH
ON set-point the High Alarm setup error screen
will be displayed.
ALARM RELA
Y DISABLE: If the user sets the
ALARM LOW ON set-point and the ALARM LOW
OFF set-point equal to 0% of the range. It will disable the low alarm relay.
If the user sets the ALARM HIGH ON set-point
and the ALARM HIGH OFF set-point equal to
100% of the range. It will disable the high alarm
relay.
AILSAFE: This option can be turned on or off. It
F
reverses the normal action of the relay. (see
description under control relay)
Section 3 - Electrical Connections and SetupPage 13
Once the relays are configured, the setup can be
tested using Manual Test Mode to simulate process
changes.
MANUAL TEST MODE is used to simulate a process
reading in order to verify the correct response of the
outputs. When in the MANUAL TEST MODE, the
relays and outputs are no longer placed on hold as
they are when in the rest of the menu. The relays and
outputs will react to the simulated change in process
as if the Shark was in RUN MODE.
Note that when the user exits the MANUAL TEST
MODE, the relays and outputs will remain in the
MANUAL TEST MODE state until the user enters
RUN MODE.
Relay Override is used to manually override the state
of the relays. The user is able to set the operating
mode of the relay as AUTO/ON/OFF (the default and
RUN MODE states are AUTO).
This feature can be used to energize or de-energize
the relays to manually correct the process, or to shut
down an ancillary device to perform maintenance.
When in the RELAY OVERRIDE mode, the relays are
no longer placed on hold as they are when in the
other menus.
Note that if the RELAY AUTO RETURN is set to
"ON", the controller will place all the relay settings
back to AUTO 10 minutes after the Shark returns to
the run mode..
Section 3 - Electrical Connections and SetupPage 14
The Shark Controller has two 4 to
20mA outputs, electrically isolated
from each other and ground. Either
output can source current into a
maximum of 800 ohms.
Channel 1 (the primary output) is
located on the flip out door, terminal
plug P6. Channel 1 is dedicated to
track the process and has fully independent and fully adjustable 4 & 20
mA output setpoints.This will enable
the operator to span the output over
the desired range.
Channel 2 (the secondary output) is
located in the enclosure terminal
plug P1. Channel 2 can be selected
to track the process value or temperature and has fully independent
and adjustable 4 & 20 mA output
setpoints.
Both Channel 1 and 2 can be precisely trimmed through the LCD
menu for precision applications.
The drawing shows the connections
for both outputs.
Figure 3.7 Connections for the 4-20mA outputs
Dwg# N104-39
Note: Leave 4” to 6” slack for all
wires connected to the terminals of
P6. Slack required so that wires do
not interfere with opening or closing
of the front door.
Wire Specification
insulation 0.010”
Section 3 - Electrical Connections and SetupPage 15
LED WILL BE ILLUMINATED WHEN
SHARK IS IN THE RUN MODE.
WILL BE OFF WHEN SHARK IS IN
THE MENU MODE.
4 DIGIT, 7 SEGMENT LED DISPLAY
DISPLAYS PROCESS VALUE IN RUN MODE.
DISPLAYS CALIBRATION DATA IN
CALIBRATION MODE.
RELAY C (ALARM RELAY)
STATUS LED's (RED)
BOTTOM LED WILL ILLUMINATE
WHEN ALARM RELAY IS
ENERGIZED BECAUSE OF LOW
ALARM CONDITION.
TOP LED WILL ILLUMINATE WHEN
ALARM RELAY IS ENERGIZED
BECAUSE OF HIGH ALARM
CONDITION.
BAR GRAPH LED's (GREEN)
LINEAR INDICATOR OF PROCESS
VALUE.
(REFER TO SECTION 4.13)
1/4" TURN SCREWS
RELAY A STATUS LED (YELLOW)
LED WILL BE ILLUMINATED WHEN
RELAY A IS ENERGIZED.
REMOVABLE TERMINAL BLOCK
CONNECTORS
"SNAP-ON" CONNECTORS FOR EASY
WIRING OF YOUR pH SENSOR AND
PRIMARY 4-20mA OUTPUT.
(REFER TO SECTIONS 3.3, 3.4 & 3.12)
SIMPLE THREE-BUTTON INTERFACE
FOR FAST & EASY SETUP
(REFER TO SECTIONS 4.0 TO 4.21)
RELAY B STATUS LED (YELLOW)
LED WILL BE ILLUMINATED WHEN
RELAY B IS ENERGIZED.
UNIT LABEL
LABEL TO INDICATE UNIT OF
MEASURE SHARK IS
CONFIGURED FOR.
AUXILLARY LED's
NOT USED IN pH MODE.
OVERFEED LED (RED)
LED WILL FLASH WHEN THE
OVERFEED TIMER IS ACTIVATED.
CALIBRATION FROM THE
FRONT PANEL
4 PUSH BUTTONS USED TO
CALIBRATE THE SHARK FROM THE
FRONT PANEL.
(REFER TO SECTIONS 4.22 & 4.23)
2 LINE, 16 CHARACTER
LCD DISPLAY
MAIN MENU INTERFACE
SCREEN
TEMPERATURE DISPLAY
WHEN THE 'UP' AND 'DOWN' ARROW
KEYS ARE PRESSED
SIMULTANEOUSLY, THE LED WILL
DISPLAY THE CURRENT PROCESS
TEMPERATURE FOR 5 SECONDS.
THIS FEATURE WILL BE DISABLED IF
THE 'TEMPERATURE COMPENSATION
OVERRIDE' IS TURNED ON IN THE
SETUP MENU.
IN THIS CASE THE LED WILL DISPLAY
---- IN PLACE OF THE
TEMPERATURE.
P6
843
2
1
7
65
11109
1514
1312
17
16
FRONT PANEL
INSIDE PANEL
NOTE
WHEN THE SHARK IS TAKEN INTO
MENU MODE VIA THE INSIDE LCD
SCREEN, THE FRONT 7-SEGMENT LED
WILL DISPLAY
----. THE STATUS &
BAR GRAPH LED's WILL BE TURNED
OFF. THE 4 PUSH BUTTONS ON THE
If an errors occurs, the controller will indicate a
"BUFFER ERROR" alarm. This could be caused by
- using a defective buffer
- incorrect probe wiring
- defective probe
Press to return to the Auto cal menu, try to
correct the problem and calibrate again, or go to the
diagnotics menus to test the probe
see Section 4.17
If an errors occurs, the controller will indicate a
"BUFFER ERROR" alarm. This could be caused by
- using the same buffer twice
- using a defective buffer
- incorrect probe wiring
- defective probe
Press to return to the Auto cal menu, try to
correct the problem and calibrate again, or go to the
diagnotics menus to test the probe
If the calibration did not appear to
be correct, press the key
which will return back to the Auto cal
menu.
UP
NOTE
PRESS THE AND KEYS
TOGETHER TO GO IMMEDIATELY BACK TO
RUN MODE
DOWN
This will store the calibration
data and return back to the
Auto cal setup so the user
can select another function.
If the calibration is OK, use the key to
move the cursor over the Y text and press the
down key.
After 5 seconds, the controller will
compute the slope of the calibration, the
estimated probe efficiency and the probe
temperature.
When complete, the controller will report the
measured value
When complete, the controller will report
the measured value
Press the key to move to Buffer 2
Please wait for the controller to complete
the measurement
The controller will read the pH value,
averaging a number of results to get a
stable calibration value.
Place the probe in the second buffer
solution.Be sure to clean and rinse the
Probe first with D.I. water and then insert
it in the 4.00 buffer.
Press the key
Please wait for the controller to complete
the measurement
The controller will read the pH value,
averaging a number of results to get a
stable calibration value.
Place the probe in the first buffer solution,
be sure to clean and rinse the Probe first
with D.I. water and then insert it in the 7.00
buffer.
Press
RUN MODE
AUTO CAL PH
STORE? Y NSTORE? Y N
AUTO CAL PH
AUTO CAL PH
EFF 95% 24.8C
SLOPE 61.22MV/PH
BUFFER2 4.00 >
AUTO CAL PH
AUTO CAL PH
BUFFER ERROR
CONTINUE >
RUNNING AUTO CAL
BUFFER2 WAIT...
BUFFER1 7.00 >
PRESS 'DOWN'
IF BUFFER2 READY
BUFFER ERROR
CONTINUE >
PRESS 'DOWN'
IF BUFFER1 READY
RUNNING AUTO CAL
BUFFER1 WAIT...
CALIBRATION
7.15pH 25.0C
MANUAL CAL PH
This example shows an AUTO
calibration with buffers of 7pH & 4pH.
When performing an auto calibration,
any two standard buffers of 4.00, 7.00
or 10.00 pH can be used. The buffers
will be automatically recognized if the
probe measures them within +/- 1 pH
of their nominal value.
If the Temperature Compensation Override is set to ON
(see section 4.12), the Shark cannot calibrate the
temperature sensor. This display will appear to alert the
user to the condition.
If the calibration did not appear to
be correct, press the key
which will return back to the Temp
Calibration menu.
UP
NOTE
PRESS THE AND KEYS
TOGETHER TO GO IMMEDIATELY BACK TO
RUN MODE
DOWN
This will store the calibration data
and return back to the Temp
Calibration setup so the user can
select another function.
Use the and to adjust
the reading until it agrees with the
known temperature of the probe
Press the key to accept the
reading and move to the store function
"T FACTOR SHIFTED" will be
displayed for 5 seconds to indicate that
the temperature sensor has been
calibrated.
The Shark will then move to the store
function.
The controller displays the current probe
temperature.
If this incorrect, the controller can be
adjusted to compensate.
Press the key once
which will move the cursor
back to the RH side of
temperature display.
Press the key once which will move
the cursor over the least sign. digit of the
temperature display.
RUN MODE
AUTO CAL PH
STORE? Y N
TEMP CALIBRATION
STORE? Y N
TEMP CALIBRATION
TEMP CALIBRATION
25.0C >
T FACTOR SHIFTED
25. 0 C >
TEMP CALIBRATION
TEMP CALIBRATION
TEMP CALIBRATION
TEMP CALIBRATION
22. 4 C >
22.4C >
TEMP CALIBRATION
TEMP O/R ON >
7.15pH 25.0C
CALIBRATIONMANUAL CAL PH
pH - Calibration Menu - Temperature Calibration 4.3
pH - Calibration Menu - Temperature Calibration 4.3Page 21
S H A R K
DOWN
DOWN
DOWN
UPDOWN
DOWN
UP
DOWN
Manual Test Mode is used to simulate a process reading
in order to verify the correct response of the outputs.
When in the Manual Test Mode, the outputs are no
longer placed on hold as they are when in the rest of the
menu.
NOTE:
When the user exits the Manual Test Mode, the relays
and 4-20mA outputs will remain in the Test Mode state
until the operator enters the run mode. The relays and
outputs will then revert back to the previous On-line state.
The CH1 4-20 mA output will
track the change in process
When a relay is energized, the
characters a,b,c will change to
upper case A,B,C
RUN MODE
UP
NOTE
PRESS THE AND KEYS
TOGETHER TO GO IMMEDIATELY BACK TO
RUN MODE
DOWN
As the value is changed, the state of the relays
will change depending on their settings in the
OUTPUTS menu.
a/A - state of Relay A
b/B - state of Relay B
c/C - state of Alarm relay
Press the key once to
move the cursor to the RH side
of the display
As well, Channel 1 4-20 ma output will also
follow the process value change. The actual
change will depend on how the CH1 output
was scaled in the OUTPUTS menus.
(See Section 4.21)
Press the key to return to the
MANUAL TEST MODE menu
Use the and keys to change
the simulated process value.
Press the key once which will
move the cursor over the least digit of the
simulated process value.
Use the or key to
change the Override state from
AUTO - controlled by process
settings
ON - relay forced on
OFF- relay forced off
The relay will react
immediately.
Relay Override is used to manually override the state of the relays, the user
is able to set the operating mode of the relay as AUTO/ON/OFF (the default
and run mode state are AUTO).
This feature can be used to turn the relays ON or OFF to manually correct
the process, or to shut down an ancillary device to perform maintenance.
When in the Relay Override mode, the outputs are no longer placed on hold
as they are when in the other menus.
If you wish to Override Relay
B, Press the key once
which will move the cursor over
to the AUTO/ON/OFF text
If you wish to Override Relay
A, Press the key once
which will move the cursor over
to the AUTO/ON/OFF text
If you do not wish to
Override Relay B, then
use the key to
the Alarm Relay
If you do not wish to
Override Relay A, then
use the key to
move to Relay B
RUN MODE
UP
NOTE
PRESS THE AND KEYS
TOGETHER TO GO IMMEDIATELY BACK TO
RUN MODE
DOWN
If you wish to accept the
Override setting,
Press the key once
to move the cursor to the
RH of the display
Then use the key
to move to the Override
setting for Relay B
CAUTION:
Note that if the Relay Auto Return Menu is set to
"ON", the controller will place all these settings
back to AUTO 10 minutes after the Shark returns to
the run mode.
If you wish to accept the
Override setting,
Press the key once
to move the cursor to the
RH of the display
To use the Relay Override
function, press the key
Then use the key
to move to the Override
setting for Relay A
UPDOWN
Use the or key to
change the Override state from
AUTO - controlled by process
settings
ON - relay forced on
OFF- relay forced off
The relay will react
immediately.
RELAY OVERRIDE
RELAY B A UTO >
RELAY OVERRIDE
RELAY B O N >
RELAY OVERRIDE
RELAY B O FF >
RELAY A O FF >
RELAY OVERRIDE
RELAY A O N >
RELAY OVERRIDE
RELAY OVERRIDE
RELAY A A UTO >
RELAY OVERRIDE
MANUAL TEST MODE
RELAY OVERRIDE
RELAY B AUTO >
RELAY A AUTO >
RELAY OVERRIDE
CALIBRATION
7.15pH 25.0C
UTILITIES
RELAY B ON >
RELAY B AUTO >
RELAY B OFF >
RELAY OVERRIDE
RELAY OVERRIDE
RELAY OVERRIDE
RELAY A ON >
RELAY A AUTO >
RELAY A OFF >
RELAY OVERRIDE
RELAY OVERRIDE
RELAY OVERRIDE
pH - Utilities Menu - Relay Override 4.5
pH - Utilities Menu - Relay Override 4.5Page 23
S H A R K
DOWN
DOWN
DOWN
DOWN
DOWN
DOWN
UPDOWN
DOWN
DOWNUP
UP
DOWN
DOWN
DOWN
DOWN
UPDOWN
Use the or key to
change the Override state from
AUTO - controlled by process
settings
ON - relay forced on
OFF- relay forced off
The relay will react
immediately.
If you do not wish to
Override Relay C, then
use the key to
the Store function
With "N" highlighted, pressing the
key will NOT store the Override states of
the relays, but they will revert to the
state they were in before the menu was
entered. Note that, if any of the relays
were in a specific Override state before
the menu was entered (i.e. not in
AUTO), they will revert to that state
again unless the changes are STORED.
TO RELAY
OVERRIDE MENU
NOT
STORED
FROM RELAY B
OVERRIDE MENU
Then press the key to store the
Override states of all the relays and
return back to the Override menu
STORED
UP
NOTE
PRESS THE AND KEYS
TOGETHER TO GO IMMEDIATELY BACK TO
RUN MODE
DOWN
If you wish to accept the
Override setting,
Press the key once
to move the cursor to the
RH of the display
If you wish to store the state
of the Relay Overrides,
press the key to
highlight the Y character
If you wish to Override Relay
C, Press the key
once which will move the
Then use the key
to move to the Override
setting for Relay C
If you do not wish to initialize to this
type of meter after all, then press
key to return back to the Meter
Selection menu
To reset the controller back to all
the factory default values, reselect
the current meter type
Then press
The controller will initialize itself for a
specific meter
If you do wish to initialize to this
type of meter, press the
key to highlight the Y character
UP
NOTE
PRESS THE AND KEYS
TOGETHER TO GO IMMEDIATELY BACK TO
RUN MODE
DOWN
Press the key to Exit and
return to the Utilities menu
RUN MODE
Press the key to initialize the
controller as a Flow meter
Press the key to initialize the
controller as a Conductivity meter
The Meter Selection menu is used to select the meter type that the
controller is configured for, either pH, ORP, Conductivity or FLow.
Once selected, the controller will initialize itself for the selected meter's
functionality and move to run mode.
Press the key to initialize the
controller as an ORP meter
Press the key to initialize the
controller as a pH meter.
If you wish to reset the overfeed timer,
then press the key to proceed
and return back to the Utilities menu.
If you do not wish to reset the
overfeed timer after all, press
the key to highlight the N
character and press the
key to return back to the Utilities
menu.
DOWN
UP
NOTE
PRESS THE AND KEYS
TOGETHER TO GO IMMEDIATELY BACK TO
RUN MODE
DOWN
RUN MODE
Press the key to
choose between Y or N.
If the control relay overfeed timer has been enabled, the relay
will “time out” after the specified overfeed time. When the
relay times out, it must be manually reset. The time out will be
signaled by the time out LED flashing on the front panel.
The reset overfeed timer will reset the timers for both relay A
& relay B at the same time.
Y N
MANUAL TEST MODE
7.15pH 25.0C
UTILITIES
CALIBRATION
RELAY OVERRIDE
METER SELECTION
RESET OVERFD TMR
RESET OVERFD TMR
Y N
RESET OVERFD TMR
pH - Utilities Menu - Overfeed Timer Reset 4.7
pH - Utilities Menu - Overfeed Timer Reset 4.7Page 26
Then press the key to store the
selection and return to the PROBE
SELECT Menu.
With "N" selected, pressing the
key will NOT store the selection, but
simply return to the PROBE SELECT
Menu. This function is useful if you
wish to view the current selection
without making any changes.
Not stored
Stored
Or press the key to highlight
the Y character.
Note:
If using the 2 wire Combination Probe (which
doesn't have a temperature sensor), T COMP
OVERRIDE must be set to ON, and the actual
probe temperature set through the T COMP
OVERRIDE menu.
(see sec. 4.12)
PROBE SELECT will allow the user to select
whether the probe is a 2 or 4 wire
combination probe, or a 5 wire differential
probe.
RUN MODE
UP
NOTE
PRESS THE AND KEYS
TOGETHER TO GO IMMEDIATELY BACK TO
RUN MODE
DOWN
Use the or keys to scroll through
the probe types available.
In this case, the user can select
- the 2 or 4 wire combination probe
- the 5 wire differential probe
Press the key to accept the
setting and move to the store function
Press the key once
which will move the cursor
back to the RH side of the
display.
Once the correct probe type is selected,
move to the store function to save the
selection
Press the key once
which will move the cursor
over the first character of the
probe type.
STORE? Y NSTORE? Y N
PROBE SELECTPROBE SELECT
7.15pH 25.0C
UTILITIES
SETUP
CALIBRATION
PROBE SELECT
COMBINATION >
C OMBINATION
PROBE SELECT
D IFFERENTIAL
PROBE SELECT
PROBE SELECTPROBE SELECT
DIFFERENTIAL >
Note: Refer to Appendix A - Probe
Configuration Table
With "N" selected, pressing the
key will NOT store the selection, but
simply return to the TEMP UNIT
Selection Menu. This function is useful if
you wish to view the current selection
without making any changes.
RUN MODE
Or press the key to highlight
UP
NOTE
PRESS THE AND KEYS
TOGETHER TO GO IMMEDIATELY BACK TO
RUN MODE
DOWN
Then press the key to store the
selection and return to the TEMP UNIT
Selection Menu.
Not stored
Stored
the Y character.
Use the or to select C or F
Press the key to accept the
change and move to the store function
Press the key once
which will move the cursor
over the unit type, C or F.
Press the key once
which will move the cursor
back to the RH side of the
display.
TEMP UNIT allows the user to select either
Degrees Centigrade or Fahrenheit units for
display
7.15pH 25.0C
CALIBRATION
UTILITIES
SETUP
TEMP UNIT
PROBE SELECT
STORE? Y N
STORE? Y N
TEMP UNITTEMP UNIT
DEGREE C >
DEGREE F >
TEMP UNIT
DEGREE F >
DEGREE C >
TEMP UNIT
TEMP UNIT
TEMP UNIT
pH - Setup Menu -Temp Unit 4.9
pH - Setup Menu - Temp Unit 4.9Page 28
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