SIDE-POWER 5288 Stabilizer Systems User Guide
- June 13, 2024
- SIDE-POWER
Table of Contents
- SIDE-POWER 5288 Stabilizer Systems
- Product Information
- Product Usage Instructions
- Information and Safety
- Safety
- Use
- Alarms and System Monitoring
- Service and Maintenance
- CONTROL SYSTEM
- Technical Specifications
- Measurements
- Warranty Statement
- DECLARATION OF CONFORMITY
- References
- Read User Manual Online (PDF format)
- Download This Manual (PDF format)
SIDE-POWER 5288 Stabilizer Systems
Product Information
The Side-Power Stabilizer System is a patented product designed to increase comfort on board by stabilizing the rolling motion of a yacht. It consists of two underwater moveable fins that are hydraulically powered and electronically gyro controlled. The fins are located on shaft and actuator assemblies, penetrating through each side of the yacht’s hull. The system utilizes the Side-Power S-link (CanBus) network system for control and can stabilize the yacht’s rolling motion at various speeds and sea conditions, as well as at anchor (optional).
General Safety Precautions
- Read the entire user manual thoroughly before operating the Stabilizer System.
- Ensure necessary knowledge of the product and safety measures.
- Follow all warnings and precautions mentioned in the manual to avoid personal injury or system failure.
Product Usage Instructions
Safety:
- Before activating the stabilizer system, ensure that:
- The stabilizer system is always kept active when running theboat in planning or fast semi-planning mode, as well as when on calm water.
- If the fins are not in the locked position, reverse the boat in minimal speed.
Use:
Front screen:
- Fin status: Indicates the number of fins (2 or 4).
- Roll angle: Displays the current roll angle.
- Speed status: Shows the current speed status.
- Home screen return: Returns to the home screen.
- Panel ON/OFF: Activates or deactivates the panel.
- Panel brightness: Adjusts the brightness of the panel.
- Stabilizers ON/OFF At Anchor (Activation): Activates or deactivates the stabilizers at anchor.
Status screen:
- Green light: Indicates GPS availability, powerpack VFD enabled, and powerpack VFD ready.
- Red light: Indicates that the system is not ready.
Gain screen:
- Possible to adjust the system’s reaction to roll when cruising.
- Possible to adjust the system’s reaction to roll when at anchor.
Fins screen (2 or 4 fin system):
- Shows the status of the fins, whether they are disabled or enabled.
- Fins can be disabled/enabled from this screen.
ACTIVATE Stabilizers:
- From the HOME menu, touch STABILIZER.
Fins are locked and the system in OFF status
Activate Stabilizers to CRUISING mode:
- Touch ON/OFF button to start the system.
Stabilizers are active in CRUISING mode:
- Usually in use from 3/4 knots and up.
Note: The system automatically changes between Cruising and At Anchor modes when both are activated.
Information and Safety
Thank you for selecting a Side-Power Stabilizer System. We hope your
Stabilizer System will meet your expectations and increase your comfort level
on board.
This guide is intended as a quick guide for the operator of the vessel. More
detailed instructions including drawings, schematics, and diagrams are
available in the installation instructions and service manual. Sleipner Motor
AS is not responsible for injury or damage as a result of the use of the
Stabilizer system.
General description
The Side-Power Stabilizer System consists of two underwater moveable fins located on shaft and actuator assemblies penetrating through each side of the yachts hull and hydraulically powered with a Side-Power compact Hydraulic System. The system is electronically gyro-controlled utilizing the Side-Power S-link (CanBus) network system & stabilizes the yacht’s rolling motion in the water at various speeds and sea conditions or at anchor (optional).
General Information, Safety Precautions and Warnings
Prior to operation and use it is important the operator reads this manual
thoroughly to ensure necessary knowledge of the product and safety measures.
WARNING!
Information given or illustrated as a WARNING may cause personal injury if it
is disregarded.
IMPORTANT!
Information given or illustrated as IMPORTANT may cause system and property
failure if it is disre-garded.
NOTE!
Information given or illustrated as a NOTE will facilitate correct operation
and use of the Side-Power system.
Safety
Before activating the stabilizer system, ensure that:
(It is recommended that following notes are included in the boats operator
manual)
WARNING!
- There are no people in the water swimming around the boat
- There are no risk of the fins hitting anything, the dock, dock mooring lines or any other submerged objects close to the boat when they start moving.
- There are no people close to the actuator mechanisms.
IMPORTANT!
- Always ensure that there are no leakages, hydraulic oil level is correct and cooling pump is running. Always check/monitor system temperature and pressure from the panel when system is running.
- You either have one or both main engines running, or an alternative hydraulic power source (like the AC powerpack).
Always keep the stabilizer system active when running the boat in planning or “fast” semi-planning mode – also when on calm water.
- The reason for this is to perform their stabilizing function to the required level, the fins are a large part of the boats directional and heel stability, especially at high speeds when the boats wet surfaces and direct hull forces are reduced. If you leave the fin stabilizer system off so the fins are left in a fixed position, this can make the boat behave differently then expected at high speeds.
- With the stabilizer system active, it will ensure that the boats behaviour is predictable and as comfortable as possible at all times, improving comfort also on calm water.
- If, due to a malfunction or other reason you are unable to run with the stabilizers active, we strongly recommend that you run at a maximum speed where the boat is not planning so that the boats own directional and heel stability is the dominant factor.
Reverse the boat in minimal speed if the fins are not in LOCKED position
The fins should automatically center and lock if you put the boat in reverse, but if this should not happen for some reason (hydraulic failure, reverse sensor malfunction etc.) it is important that you only reverse the boat as slow as possible.
Use
Front screen
Status screen (Touch arrow/triangle on the right) Green light is indicating:
- GPS available
- Powerpack VFD enabled
- Powerpack VFD ready
- Red light is indicating not ready
Gain screen
- Possible to adjust the system’s reaction to roll when cruising
- Possible to adjust the system’s reaction to roll when at anchor
Fins screen (2 or 4 fin system)
- Showing fins status, disabled or enabled.
- Fins can be disabled/enabled from this screen
ACTIVATE Stabilizers
From HOME menu:
Touch STABILIZER
-
Fins are locked and system in OFF status
-
Activate Stabilizers to CRUISING mode:
Touch ON/OFF button – system is starting -
Stabilizers are active in CRUISING mode
Usually in use from 3/4 knots and up.
Note! System change automatically between Cruising/At Anchor when both is activated. -
Activate Stabilizers to AT ANCHOR mode:
Touch ANCHOR button – system is starting and running Usually in use from 0 to 3/4 knots.
To turn At Anchor OFF, touch Anchor again.
Note! System change automatically between Cruising/At Anchor when both is activated. -
Turn system OFF:
Touch ON/OFF button – fins are centred, locked and not active
BACKING the yacht
When the yacht/gearbox is put in reverse the fins will automati-cally be centred and locked. BACKING will be indicated on the screen
ALARMS
-
Alarms are indicated in upper left corner of the screen Touch the red alarm bell to view alarm list
-
Alarm list shows current alarms, with alarm description
To acknowledge alarm(s) touch ACKNOWLEDGE ALARMS in the bottom of the screen -
Touch the active alarm for more details and Correct the cause of the alarm
Alarm codes and troubleshooting actions are shown in user man-ual. Alarm actions will also be presented in this screen. Contact Side-Power representative.
Touch close to finish alarm acknowledgement -
All alarms are acknowledged
VIEW HISTORICAL ALARMS
- Go to home page – Scroll to System devices – Touch System devices
- Touch desired device(s)
- Historical Alarms pop(s) up – Touch Historical alarms
- Historical Alarms is shown – Touch Alarm(s) to view more information
- Alarm details are shown – Touch close to return to list.
Alarms and System Monitoring
If an alarm occurs so the stabilizer system is not running, but the fins are centred and locked, you can operate the boat normally, remembering the general warning about high speeds and inactive stabiliz-ers. See Alarm list and boat handling restrictions in table below for more details.
WARNING!
If the fins are NOT centred and locked, do NOT run forward in more than the
minimum necessary steering speed
BOAT HANDLING RESTRICTIONS | L1 | L2 | L3 | L4 |
---|
Remember the general warning about high speed running without active
stabilizers| X| X| X| X
Do not reverse the boat in more than absolute minimal speed| | X| X|
X
Do not run forward in more than the minimum necessary steering speed| |
X| X| X
If you have severely overheating oil – do not operate any hydraulics – run
main engines (if pumps are connected) at less load while giving the oil time
to cool down.| | | X|
If you are running out of oil in your tank – beware that the pumps will be
destroyed if run dry and can then also cause other damage to the power source
driving them. If you have to run engines with pumps directly fitted,
disconnect mechanically the pump first so that it does not pump. If you have
severely overheating oil – do not operate| | | | ****
X
Fault Code | Description | Cause | Action | Boat handling |
---|---|---|---|---|
100.0.0 | System Error – – | Internal Error | -Consult Side-Power dealer | L2 |
201.0.200
| ****
NMEA2000 Transmission parameter – Timeout
| ****
No NMEA2000 (pgn127493)
transmission message received for 2seconds.
| -Check if GW-1 status is ok by checking the GW-1 status LED (See GW-1 user manual).
-Check cabling
| ****
L1
10101.0.11
| ****
Device CPU Temp – Level High
| ****
CPU temperature higher than 85 degrees.
| -Ventilate the room were the ECU is sitting.
-Consult Side-Power dealer
| ****
L1
35000.0.200
| ****
GPS signal lost – Timeout
| ****
No GPS data from GW-1 received for 3 seconds
| -Check if GW-1 status is ok by checking the GW-1 status LED (See GW-1 user manual).
– Check cabling
| ****
L1
40001.0.201
| SCU Sensor board fault 1 –
INIT FAIL
| ****
Sensor board fault.
| ****
-Consult Side-Power dealer
| ****
L2
40001.0.202
| SCU Sensor board fault 1 –
READ FAIL
| ****
Sensor board fault.
| ****
-Consult Side-Power dealer
| ****
L2
40002.0.201
| SCU Sensor board fault 2 –
INIT FAIL
| ****
Sensor board fault.
| ****
-Consult Side-Power dealer
| ****
L2
40002.0.202
| SCU Sensor board fault 2 –
READ FAIL
| ****
Sensor board fault.
| ****
-Consult Side-Power dealer
| ****
L2
40003.0.201
| SCU Sensor board fault 3 –
INIT FAIL
| ****
Sensor board fault.
| ****
-Consult Side-Power dealer
| ****
L2
40003.0.202
| SCU Sensor board fault 3 –
READ FAIL
| ****
Sensor board fault.
| ****
-Consult Side-Power dealer
| ****
L2
40004.0.24
| ****
PHC-3 – Fault
| ****
Detected fault on PHC-3
| -Check PHC-3 faults for more
information
| ****
L2
40004.0.100
| ****
PHC-3 – No Communication
| ****
PHC-3 Communication lost for more than 500ms
| -Check if PHC-3 is powered and is working
-Check S-Link cabling
| ****
L2
40004.0.200
| ****
PHC-3 – Timeout
| ****
PHC-3 startup timed out. Trigger when startup takes longer than 60 seconds
| -Check if PHC-3 is able to build up the pressure.
-Check PHC-3 faults for more
information.
| ****
L2
40004.0.210
| ****
PHC-3 – DEVICE IN MANUAL MODE
| Trigger when the SCU try to startup PHC 3 and the PHC-3 is running in manual
mode.
| ****
-Stop running the PHC-3 in manual mode
| ****
L2
40006.0.24
| SCU Sensor board fault 4 –
Fault
| ****
Sensor board fault.
| ****
-Consult Side-Power dealer
| ****
L2
40006.0.150
| SCU Sensor board fault 4 –
ID Fault
| ****
Sensor board fault.
| ****
-Consult Side-Power dealer
| ****
L2
40006.0.151
| SCU Sensor board fault 4 –
Self-Test Fault
| ****
Sensor board fault.
| ****
-Consult Side-Power dealer
| ****
L2
40006.0.203
| SCU Sensor board fault 4 –
Not Calibrated
| ****
Sensor board fault.
| ****
-Consult Side-Power dealer
| ****
L2
40007.0.100
| SCU Sensor board fault 5 –
No Communication
| ****
Sensor board fault.
| ****
-Consult Side-Power dealer
| ****
L2
40007.0.150
| SCU Sensor board fault 5 –
ID Fault
| ****
Sensor board fault.
| ****
-Consult Side-Power dealer
| ****
L2
40008.0.24
| SCU Sensor board fault 6 –
Fault
| ****
Sensor board fault.
| ****
-Consult Side-Power dealer
| ****
L2
40009.0.150
| SCU Sensor board fault 7 –
ID Fault
| ****
Sensor board fault.
| ****
-Consult Side-Power dealer
| ****
L2
40009.0.151
| SCU Sensor board fault 7 –
Self-Test Fault
| ****
Sensor board fault.
| ****
-Consult Side-Power dealer
| ****
L2
40010.0.150
| SCU Sensor board fault 8 –
ID Fault
| ****
Sensor board fault.
| ****
-Consult Side-Power dealer
| ****
L2
40011.0.150
| SCU Sensor board fault 11 –
ID Fault
| ****
Sensor board fault.
| ****
-Consult Side-Power dealer
| ****
L2
40012.100.51
| ****
FCU Current Fin bow port Current High
| ****
Current to the FCU is too high. Trigger at 10A.
| ****
-Check cabling between SCU and FCU for short circuit.
| ****
L2
40012.101.51
| ****
FCU Current Fin bow starboard Current High
| ****
Current to the FCU is too high. Trigger at 10A.
| ****
-Check cabling between SCU and FCU for short circuit.
| ****
L2
40012.102.51
| ****
FCU Current Fin stern port Current High
| ****
Current to the FCU is too high. Trigger at 10A.
| ****
-Check cabling between SCU and FCU for short circuit.
| ****
L2
40012.103.51
| ****
FCU Current Fin stern starboard Current High
| ****
Current to the FCU is too high. Trigger at 10A.
| ****
-Check cabling between SCU and FCU for short circuit.
| ****
L2
45000.100.21
| ****
FCU Tuning Fin bow port Failed
| ****
Tuning sequence has failed. Trigger if fin movement is less than 50 degrees.
| -Run bleeding to get rid of air in the hydraulic system
-Check encoder belt and
pulleys.
| ****
L2
---|---|---|---|---
45000.101.21
| ****
FCU Tuning Fin bow starboard Failed
| ****
Tuning sequence has failed. Trigger if fin movement is less than 50 degrees.
| -Run bleeding to get rid of air in the hydraulic system
-Check encoder belt and
pulleys.
| ****
L2
45000.102.21
| ****
FCU Tuning Fin stern port Failed
| ****
Tuning sequence has failed. Trigger if fin movement is less than 50 degrees.
| -Run bleeding to get rid of air in the hydraulic system
-Check encoder belt and
pulleys.
| ****
L2
45000.103.21
| ****
FCU Tuning Fin stern starboard Failed
| ****
Tuning sequence has failed. Trigger if fin movement is less than 50 degrees.
| -Run bleeding to get rid of air in the hydraulic system
-Check encoder belt and
pulleys.
| ****
L2
45001.100.21
| ****
FCU Encoder Fin bow port Failed
| ****
Encoder fault
| -Run bleeding to get rid of air in the hydraulic system
-Check encoder belt and pulleys.
-Check if something is blocking the actuators
-Check if all the hydraulics mounted correctly to the actuators.
-Check if a PHC-3 fault is
present.
| ****
L2
45001.100.22
| ****
FCU Encoder Fin bow port Out off position
| ****
Encoder position is outside the end stop position.
| -Run the detect end stop sequence.
-Check encoder belt and pulleys.
-Consult Side-Power dealer
| ****
L2
45001.101.21
| ****
FCU Encoder Fin bow starboard Failed
| ****
Encoder fault
| -Run bleeding to get rid of air in the hydraulic system
-Check encoder belt and pulleys.
-Check if something is blocking the actuators
-Check if all the hydraulics mounted correctly to the actuators.
-Check if a PHC-3 fault is
present.
| ****
L2
45001.101.22
| ****
FCU Encoder Fin bow starboard Out off position
| ****
Encoder position is outside the end stop position.
| -Run the detect end stop sequence.
-Check encoder belt and pulleys.
-Consult Side-Power dealer
| ****
L2
45001.102.21
| ****
FCU Encoder Fin stern port Failed
| ****
Encoder fault
| -Run bleeding to get rid of air in the hydraulic system
-Check encoder belt and pulleys.
-Check if something is blocking the actuators
-Check if all the hydraulics mounted correctly to the actuators.
-Check if a PHC-3 fault is
present.
| ****
L2
45001.102.22
| ****
FCU Encoder Fin stern port Out off position
| ****
Encoder position is outside the end stop position.
| -Run the detect end stop sequence.
-Check encoder belt and pulleys.
-Consult Side-Power dealer
| ****
L2
45001.103.21
| ****
FCU Encoder Fin stern starboard Failed
| ****
Encoder fault
| -Run bleeding to get rid of air in the hydraulic system
-Check encoder belt and pulleys.
-Check if something is blocking the actuators
-Check if all the hydraulics mounted correctly to the actuators.
-Check if a PHC-3 fault is
present.
| ****
L2
45001.103.22
| ****
FCU Encoder Fin stern starboard Out off position
| ****
Encoder position is outside the end stop position.
| -Run the detect end stop sequence.
-Check encoder belt and pulleys.
-Consult Side-Power dealer
| ****
L2
---|---|---|---|---
45003.100.22
| ****
FCU Communication Fin bow port Out off position
| FCU communication lost. Trigger if no FCU is detected for 25 seconds at startup or after 1.5 seconds with no communication during normal operation.
.
| ****
-Check cabling between SCU and FCU
| ****
L2
45003.101.22
| ****
FCU Communication Fin bow starboard Out off position
| FCU communication lost. Trigger if no FCU is detected for 25 seconds at startup or after 1.5 seconds with no communication during normal operation.
.
| ****
-Check cabling between SCU and FCU
| ****
L2
45003.102.22
| ****
FCU Communication Fin stern port Out off position
| FCU communication lost. Trigger if no FCU is detected for 25 seconds at startup or after 1.5 seconds with no communication during normal operation.
.
| ****
-Check cabling between SCU and FCU
| ****
L2
45003.103.22
| ****
FCU Communication Fin stern starboard Out off position
| FCU communication lost. Trigger if no FCU is detected for 25 seconds at startup or after 1.5 seconds with no communication during normal operation.
.
| ****
-Check cabling between SCU and FCU
| ****
L2
45006.100.13
| FCU Proportional Valve 1 Fin
bow port Open Circuit
| No current detected through the valve
when the valve is turned on.
| ****
-Check for open circuit
| ****
L2
45006.100.51
| FCU Proportional Valve 1 Fin
bow port Current High
| Current through valve is too high.
Trigger at 3.75A
| ****
-check for short circuit
| ****
L2
45006.101.13
| ****
FCU Proportional Valve 1 Fin bow starboard Open Circuit
| ****
No current detected through the valve when the valve is turned on.
| ****
-Check for open circuit
| ****
L2
45006.101.51
| ****
FCU Proportional Valve 1 Fin bow starboard Current High
| ****
Current through valve is too high. Trigger at 3.75A
| ****
-check for short circuit
| ****
L2
45006.102.13
| FCU Proportional Valve 1 Fin
stern port Open Circuit
| No current detected through the valve
when the valve is turned on.
| ****
-Check for open circuit
| ****
L2
45006.102.51
| FCU Proportional Valve 1 Fin
stern port Current High
| Current through valve is too high.
Trigger at 3.75A
| ****
-check for short circuit
| ****
L2
45006.103.13
| ****
FCU Proportional Valve 1 Fin stern starboard Open Circuit
| ****
No current detected through the valve when the valve is turned on.
| ****
-Check for open circuit
| ****
L2
45006.103.51
| ****
FCU Proportional Valve 1 Fin stern starboard Current High
| ****
Current through valve is too high. Trigger at 3.75A
| ****
-check for short circuit
| ****
L2
45007.100.13
| FCU Proportional Valve 2 Fin
bow port Open Circuit
| No current detected through the valve
when the valve is turned on.
| ****
-Check for open circuit
| ****
L2
45007.100.51
| FCU Proportional Valve 2 Fin
bow port Current High
| Current through valve is too high.
Trigger at 3.75A
| ****
-check for short circuit
| ****
L2
45007.101.13
| ****
FCU Proportional Valve 2 Fin bow starboard Open Circuit
| ****
No current detected through the valve when the valve is turned on.
| ****
-Check for open circuit
| ****
L2
45007.101.51
| ****
FCU Proportional Valve 2 Fin bow starboard Current High
| ****
Current through valve is too high. Trigger at 3.75A
| ****
-check for short circuit
| ****
L2
45007.102.13
| FCU Proportional Valve 2 Fin
stern port Open Circuit
| No current detected through the valve
when the valve is turned on.
| ****
-Check for open circuit
| ****
L2
45007.102.51
| FCU Proportional Valve 2 Fin
stern port Current High
| Current through valve is too high.
Trigger at 3.75A
| ****
-check for short circuit
| ****
L2
45007.103.13
| ****
FCU Proportional Valve 2 Fin stern starboard Open Circuit
| ****
No current detected through the valve when the valve is turned on.
| ****
-Check for open circuit
| ****
L2
45007.103.51
| ****
FCU Proportional Valve 2 Fin stern starboard Current High
| ****
Current through valve is too high. Trigger at 3.75A
| ****
-check for short circuit
| ****
L2
45010.100.200
| ****
FCU Centering normal Fin bow port Timeout
| ****
FCU did not manage to center the fin within 10seconds.
| -Check if a PHC-3 fault is present.
-Check encoder belt and
pulleys.
| ****
L2
45010.101.200
| ****
FCU Centering normal Fin bow starboard Timeout
| ****
FCU did not manage to center the fin within 10seconds.
| -Check if a PHC-3 fault is present.
-Check encoder belt and
pulleys.
| ****
L2
45010.102.200
| ****
FCU Centering normal Fin stern port Timeout
| ****
FCU did not manage to center the fin within 10seconds.
| -Check if a PHC-3 fault is present.
-Check encoder belt and
pulleys.
| ****
L2
---|---|---|---|---
45010.103.200
| ****
FCU Centering normal Fin stern starboard Timeout
| ****
FCU did not manage to center the fin within 10seconds.
| -Check if a PHC-3 fault is present.
-Check encoder belt and
pulleys.
| ****
L2
45011.100.200
| ****
FCU Centering fast Fin bow port Timeout
| ****
FCU did not manage to center the fin within 10seconds.
| -Check if a PHC-3 fault is present.
-Check encoder belt and
pulleys.
| ****
L2
45011.101.200
| ****
FCU Centering fast Fin bow starboard Timeout
| ****
FCU did not manage to center the fin within 10seconds.
| -Check if a PHC-3 fault is present.
-Check encoder belt and
pulleys.
| ****
L2
45011.102.200
| ****
FCU Centering fast Fin stern port Timeout
| ****
FCU did not manage to center the fin within 10seconds.
| -Check if a PHC-3 fault is present.
-Check encoder belt and
pulleys.
| ****
L2
45011.103.200
| ****
FCU Centering fast Fin stern starboard Timeout
| ****
FCU did not manage to center the fin within 10seconds.
| -Check if a PHC-3 fault is present.
-Check encoder belt and
pulleys.
| ****
L2
45012.100.200
| ****
FCU FW upgrade Fin bow port Timeout
| ****
SCU failed to upgrade the FCU FW.
| -Check cabling between SCU and FCU
-Consult Side-Power dealer
| ****
L2
45012.101.200
| ****
FCU FW upgrade Fin bow starboard Timeout
| ****
SCU failed to upgrade the FCU FW.
| -Check cabling between SCU and FCU
-Consult Side-Power dealer
| ****
L2
45012.102.200
| ****
FCU FW upgrade Fin stern port Timeout
| ****
SCU failed to upgrade the FCU FW.
| -Check cabling between SCU and FCU
-Consult Side-Power dealer
| ****
L2
45012.103.200
| ****
FCU FW upgrade Fin stern starboard Timeout
| ****
SCU failed to upgrade the FCU FW.
| -Check cabling between SCU and FCU
-Consult Side-Power dealer
| ****
L2
45013.100.13
| FCU Float valve Fin bow port
Open Circuit
| No current detected through the valve
when the valve is turned on.
| ****
-Check for open circuit
| ****
L2
45013.100.16
| FCU Float valve Fin bow port
Short Circuit
| Current through valve is too high.
Trigger at 1.5A
| ****
-check for short circuit
| ****
L2
45013.101.13
| FCU Float valve Fin bow
starboard Open Circuit
| No current detected through the valve
when the valve is turned on.
| ****
-Check for open circuit
| ****
L2
45013.101.16
| FCU Float valve Fin bow
starboard Short Circuit
| Current through valve is too high.
Trigger at 1.5A
| ****
-check for short circuit
| ****
L2
45013.102.13
| FCU Float valve Fin stern
port Open Circuit
| No current detected through the valve
when the valve is turned on.
| ****
-Check for open circuit
| ****
L2
45013.102.16
| FCU Float valve Fin stern
port Short Circuit
| Current through valve is too high.
Trigger at 1.5A
| ****
-check for short circuit
| ****
L2
45013.103.13
| FCU Float valve Fin stern
starboard Open Circuit
| No current detected through the valve
when the valve is turned on.
| ****
-Check for open circuit
| ****
L2
45013.103.16
| FCU Float valve Fin stern
starboard Short Circuit
| Current through valve is too high.
Trigger at 1.5A
| ****
-check for short circuit
| ****
L2
45014.100.13
| FCU Lock valve Fin bow port
Open Circuit
| No current detected through the valve
when the valve is turned on.
| ****
-Check for open circuit
| ****
L2
45014.100.16
| FCU Lock valve Fin bow port
Short Circuit
| Current through valve is too high.
Trigger at 1.5A
| ****
-check for short circuit
| ****
L2
45014.101.13
| FCU Lock valve Fin bow
starboard Open Circuit
| No current detected through the valve
when the valve is turned on.
| ****
-Check for open circuit
| ****
L2
45014.101.16
| FCU Lock valve Fin bow
starboard Short Circuit
| Current through valve is too high.
Trigger at 1.5A
| ****
-check for short circuit
| ****
L2
45014.102.13
| FCU Lock valve Fin stern
port Open Circuit
| No current detected through the valve
when the valve is turned on.
| ****
-Check for open circuit
| ****
L2
45014.102.16
| FCU Lock valve Fin stern
port Short Circuit
| Current through valve is too high.
Trigger at 1.5A
| ****
-check for short circuit
| ****
L2
45014.103.13
| FCU Lock valve Fin stern
starboard Open Circuit
| No current detected through the valve
when the valve is turned on.
| ****
-Check for open circuit
| ****
L2
45014.103.16
| FCU Lock valve Fin stern
starboard Short Circuit
| Current through valve is too high.
Trigger at 1.5A
| ****
-check for short circuit
| ****
L2
Fault Code | Description | Cause | Action |
---|
10500.0.10
|
PHC Oil Level – Level Low
|
Hydraulic oil level is low
| -Limit use of thruster
-Inspect hydraulic oil level
-Check system for leaks and refill hydraulic oil
10500.0.13
|
PHC Oil Level – Open Circuit
|
Analog oil level sensor open circuit
| -Sensor not connected or wire break.
-Verify sensor type in parameter 0201
-Disconnect sensor and measure that sensor resistance value is in range 0-180ohm.
10501.0.11
|
PHC Oil Temp – Level High
|
Oil temperature higher than 75°C (167°F)
| -Limit use of thruster to prevent temperature to rise.
-Check if cooling pump is running and there is cooling water flow.
-Inspect seawater filter
-Verify that cooling pump is enabled in parameter 0301
10501.0.13
|
PHC Oil Temp – Open Circuit
|
Analog oil temp sensor open circuit
| -Sensor not connected or wire break.
– Disconnect sensor and measure that sensor resistance value is in range 104ohm-147Kohm
-Wrong sensor is defined in parameter 0201
10501.0.16
|
PHC Oil Temp – Short Circuit
|
Analog oil temp input short circuit
| -Input shorted to GND, check wiring/sensor
-Disconnect sensor and measure that sensor resistance value is in range 104ohm-147Kohm
10502.0.13
|
PHC Stablizier Pressure – Open Circuit
|
Stabilizer pressure sensor open circuit
| -Sensor not connected or wire break.
-System incorrectly configured with stabilizer, parameter 1001
-Replace sensor
10502.0.16
|
PHC Stablizier Pressure – Short Circuit
|
Stabilizer pressure sensor short circuit
| -Wires shorted or sensor defective, check wiring/sensor
-Replace sensor
10502.0.19
|
PHC Stablizier Pressure – Under Limit
|
Stabilizer pressure has dropped below 20bar.
| -Check accumulator charge pressure
-Check PTO pressure (if PTO powered)
-Check system for oil leaks
10502.0.20
|
PHC Stablizier Pressure – Over Limit
| Stabilizer pressure is higher than: set point + 30bar running from PTO
or set point + 15bar running from AC motor
|
-Check PTO pressure setting
-Check accumulator charge pressure
10502.0.26
|
PHC Stablizier Pressure – VALUE MAX
|
Stabilizer pressure reached sensor max value.
|
-Check that correct sensor is fitted
-Check that sensor range parameter 1010 match the sensor
-Check PTO pressure setting
10502.0.200
|
PHC Stablizier Pressure – Timeout
|
Stabilizer pressure has not reached 50% of set point parameter 1003 after 30sec.
| -Check pump feed shutoff valve.
-Check PTO pressure (if PTO powered)
-Check system for oil leaks
10503.0.13
|
PHC System Pressure – Open Circuit
|
System pressure sensor open circuit
| -Sensor not connected or wire break.
-Verify system pressure, parameter 0104
10503.0.16
|
PHC System Pressure – Short Circuit
|
System pressure sensor short circuit
| -Wires shorted or sensor defective, check wiring/sensor
-Replace sensor
10504.0.13| PHC AI 1 – Open Circuit| Analog Input 1 (4-20mA) sensor open circuit| -Sensor not connected or wire break.
10504.0.16
|
PHC AI 1 – Short Circuit
|
Analog Input 1 (4-20mA) sensor short circuit
| -Wires shorted or sensor defective, check wiring/sensor
-Replace sensor
10505.0.13| PHC AI 2 – Open Circuit| Analog Input 2 (4-20mA) sensor open circuit| -Sensor not connected or wire break.
10505.0.16
|
PHC AI 2 – Short Circuit
|
Analog Input 2 (4-20mA) sensor short circuit
| -Wires shorted or sensor defective, check wiring/sensor
-Replace sensor
10508.0.13
|
PHC DOUT AC PUMP UNLOAD – Open Circuit
|
AC Pump Unload valve open circuit
| -Check for open circuit, power consumption < 5.0 Watt
-System incorrectly configured with stabilizer, parameter 1001
10508.0.51| PHC DOUT AC PUMP UNLOAD – Current High| AC Pump Unload valve current higher than 4.0A| -Check wires and connections for short circuit
10509.0.13
|
PHC DOUT ACCUMULATOR DUMP – Open Circuit
|
Accumulator Dump valve open circuit
| -Check for open circuit, power < 5.0 Watt
-System incorrectly configured with stabilizer, parameter 1001
10509.0.51| PHC DOUT ACCUMULATOR DUMP – Current High| Accumulator Dump valve current higher than 4.0A| -Check wires and connections for short circuit
10510.0.13
|
PHC DOUT STABILIZER – Open Circuit
|
Stabilizer valve open circuit
| -Check for open circuit, power consumption < 5.0 Watt
-System incorrectly configured with stabilizer, parameter 1001
10510.0.51| PHC DOUT STABILIZER – Current High| Stabilizer valve current higher than 4.0A| -Check wires and connections for short circuit
10511.0.13
|
PHC DOUT COOLING PUMP HYDRAULIC – Open Circuit
|
Hydraulic Cooling Pump valve open circuit
| -Check for open circuit, power consumption < 5.0 Watt
-Wrong cooling pump configured, parameter 0301
10511.0.51| PHC DOUT COOLING PUMP HYDRAULIC – Current High| Hydraulic Cooling Pump valve current higher than 4.0A| -Check wires and connections for short circuit
10512.0.13
|
PHC DOUT LS DUMP – Open Circuit
|
LS-Dump valve open circuit
| -Check for open circuit, power consumption < 5.0 Watt
-System wrong configured with thrusters, parameter 2001 or 2101
10512.0.51| PHC DOUT LS DUMP – Current High| LS-Dump valve current higher than
4.0A| -Check wires and connections for short circuit
10513.0.51| PHC DOUT PUMP #2 – Current High| Pump #2 valve current higher than
4.0A| -Check wires and connections for short circuit
10514.0.13
|
PHC DOUT 5 – Open Circuit
| Digital Output 5 is configured as crossover and output is open
circuit
| -Check for open circuit, power consumption < 5.0 Watt
-Output configured wrong, parameter 0505
10514.0.51| PHC DOUT 5 – Current High| Digital Output 5 current higher than 4.0A| -Check wires and connections for short circuit
10515.0.13
|
PHC DOUT 6 – Open Circuit
| Digital Output 6 is configured as crossover and output is open
circuit
| -Check for open circuit, power consumption < 5.0 Watt
-Output configured wrong, parameter 0506
10515.0.51| PHC DOUT 6 – Current High| Digital Output 6 current higher than 4.0A| -Check wires and connections for short circuit
10516.0.13
|
PHC DOUT 3 – Open Circuit
| Digital Output 3 is configured as crossover and output is open
circuit
| -Check for open circuit, power consumption < 5.0 Watt
-Output configured wrong, parameter 0503
10516.0.51| PHC DOUT 3 – Current High| Digital Output 3 current higher than 4.0A| -Check wires and connections for short circuit
10517.0.13
|
PHC DOUT 2 – Open Circuit
| Digital Output 2 is configured as crossover and output is open
circuit
| -Check for open circuit, power consumption < 5.0 Watt
-Output configured wrong, parameter 0502
10517.0.51| PHC DOUT 2 – Current High| Digital Output 2 current higher than 4.0A| -Check wires and connections for short circuit
10518.0.13
|
PHC DOUT 1 – Open Circuit
| Digital Output 1 is configured as crossover and output is open
circuit
| -Check for open circuit, power consumption < 5.0 Watt
-Output configured wrong, parameter 0501
10518.0.51| PHC DOUT 1 – Current High| Digital Output 1 current higher than 4.0A| -Check wires and connections for short circuit
10519.0.13
|
PHC DOUT 4 – Open Circuit
| Digital Output 4 is configured as crossover and output is open
circuit
| -Check for open circuit, power consumption < 5.0 Watt
-Output configured wrong, parameter 0504
10519.0.51| PHC DOUT 4 – Current High| Digital Output 4 current higher than 4.0A| -Check wires and connections for short circuit
10520.0.51
|
PHC DOUT COOLING ELECTRIC POWER – Current High
|
ECI cooling pump power current higher than 8.0A
| -Check pump cable for damage and short circuits
-Replace cooling pump
10521.0.51| PHC Bow Thruster Power – Current High| Bow thruster PVG feed
current higher than 3.0A| -Check PVG wires and connections for short circuit
10522.0.51| PHC Stern Thruster Power – Current High| Stern thruster PVG feed
current higher than 3.0A| -Check PVG wires and connections for short circuit
10523.0.51| PHC Thruster Power – Current High| Bow or Stern PVG feed current
higher than 3.3A| Check all bow and stern PVG signal wires for short circuits
10524.0.51
|
PHC ECI Cooling Pump – Current High
|
ECI cooling pump current higher than 13.0A
|
-Check ECI cooling pump cable for damage and short circuits
-Replace ECI cooling pump
10524.0.53
|
PHC ECI Cooling Pump – Overvoltage
|
ECI cooling pump overvoltage, voltage higher than 33.0V
| -Check PHC-3 input voltage is below 33.0V
-Replace ECI cooling pump
10524.0.54
|
PHC ECI Cooling Pump – Undervoltage
|
ECI cooling pump under voltage, voltage is lower than 18.0V
| -Check PHC-3 input voltage is higher than 18.0V
-Replace ECI cooling pump
10524.0.55
|
PHC ECI Cooling Pump – Overtemp
|
ECI cooling pump temperature higher than 100°C (212°F)
| -Check ECI cooling pump for damages
-Replace ECI cooling pump
10524.0.100
|
PHC ECI Cooling Pump – No Communication
|
No communication with ECI cooling pump
| -Check if ECI pump is connected
-Check wires to ECI pump for open circuits
-Wrong cooling pump configured, parameter 0301
10524.0.205| PHC ECI Cooling Pump – HW FAULT| ECI cooling pump hardware fault| -Replace ECI cooling pump
10526.0.0
|
PHC ECI Cooling Pump Blocked – –
|
ECI cooling pump is blocked
| -Reset fault and if fault reappears, cooling pump need service or replacement.
-Check pump inlet for obstacles
10527.1.0| PHC VFD Not Ready Instance 1 –| VFD not ready| -VFD external run enable/power available signal is lost.
10528.1.10
|
PHC VFD ABB Parameter Instance 1 Level Low
| ABB ACS550 parameter values 2001 or 2002 cannot be a
negative value.
|
-Check ABB ACS550 parameter 2001 and 2002.
10529.0.19
|
PHC ECI Cooling Pump Speed – Under Limit
|
ECI pump motor speed under limit, below 100rpm
| -Check hose for dirt
-Check pump inlet for obstacles
36000.1.24| ABB ACS550 Instance 1 Fault| ABB ACS550 fault| Se ABB ACS550 drive
for more details
36002.1.24| VACON Instance 1 Fault| VACON VFD Fault| Se VACON drive for more
details
36100.1.100
|
VFD Instance 1 No Communication
|
Lost communication with VFD
|
-VFD not powered up
-VFD communication cable not connected or incorrectly wired
36103.1.0| VFD IN LOCAL Instance 1 –| VFD in local mode| -Switch VFD to remote mode
Service and Maintenance
FIN ACTUATOR UNITS
The stabilizer system is in general a low-maintenance product, but as all
moving parts some degree of preventive maintenance will increase the lifetime
and reliability of the system.
A chart for recommended check and service points is thereby offered at the end
of this section.
For all new installations, or after a major parts change, a basic check should
be done after the first 100 hours of operation or after the first week of
proper use:
- Check that all hydraulic fittings are tight.
- Check all hoses for chaffing, and ensure they are not in contact with any moving parts.
- Inspect hydraulic cylinder rods and gland seals for damage, leaking, or scratches.
- Inspect the dirt indicator on the return oil filter.
- “Shake” the fins from the outside to feel if there is any play in any connection.
- Open the fins manual decouple valve (at the acuator point ot allow movement) and manually move the fin fully to both sides to feel that there is not specific tough spot in the bearings.
Every time the boat is out of the water for service or other reason, we recommend that you take this opportunity to more thorougly check some points that is not possible when the boat is in the water. A proper cleaning and check of the fins anodes (if fitted, can also be bonded to boats large anode system) is also appropriate during a haul out.
- Axial and radial play in the shaft can also be checked at this time; see the table below that details play allowances. A dial indicator is recommended for this procedure.
- Radial play should be checked with the indicator/micrometer positioned just below the seal housing between the top of the fin and the underside of the hull.
- Axial play should be checked by measuring the relative distance between the top of the axle shaft and hull plate. By using a crow bar on the twin yoke, moving and feeling the tighteness of the bearings inside the boat while measur ing from a fixed point with a micrometer.
Shaft Radial Play (mm)
Maximum
| Shaft Axial Play (mm)
Maximum
---|---
SPS 65/66/67| 0.10| 0.20
SPS 55/90/91/92/93/94| 0.15| 0.30
NOTE!
Because of the big variation in different vessels actual use and operation,
system specifications and maintenance, it is not possible to accurately
predict the anticipated service life of the main shaft bearings. Thereby,
Sleipner recommends that the bearing clearances be checked periodically when
possible so to avoid extra halout between normal service need.
The service timing indicated in the chart is based calculations and
experience, but please note that because of the variations in use and load,
both due to different operation and for example different fin sizes allowed on
the same actuator size, the life of bearings and seals can be both longer and
shorter than indicated by the maintenance chart.
FINS
It is recommended that a thorough inspection of the fins be performed when the
vessel is lifted out of water for maintenance. Dam-ages on the fin surface
must be repaired with vinylester/epoxy done by professionals
HYDRAULICS
The pressure filters require periodic element changes as per the maintenance
schedule. The valves and manifolds are to be inspected regularly for external
damage. To avoid corrosion and deterioration, a water inhibitor such as WD-40
or similar should be applied to the valves and fittings immediately after
wash-down of the equipment.
Filter replacement:
We recommend to replace pressure and return line filter elements after the
initial start up and test period, and latest at 50 operating hours. Thereafter
every 2000 operating hours or every 2nd year.
Both pressure filter and return filter have pressure drop indicators. Check
indicators every 6th month. The check have to be done with oil temperature
above 40˚C, and the most flow demanding consumer active. Filter element
replacement are required if indica-tors are in the red area.
Hydraulic oil replacement:
Every 4000 operating hours or every 3rd year. For heavy duty applications and
commercial use, we recommend oil sample analyses every year.
Check oil color every 6th month. White or grey oil indicates water ingress or
heavy condensation. This will require filter replace-ment, oil replacement and
flushing of the system. See schedule and Hydraulic system manual.
CONTROL SYSTEM
With the exception of keeping the electrical parts and wiring clean, dry and
damage-free, no maintenance is required for these parts. In general, all
electrical equipment should be periodically checked to ensure that there are
no mechanical damage or water build-up.
POWER UNIT
- The power unit and its associated components require maintenance and have a lifetime so will in the future require replacement which can be done preventively as indicated within the charts here, to avoid potential follow damage to other parts.
- The hydraulic oil integrity must be checked as per the schedule by extracting a sample from the system for analyzis to ensure it is with-ing the standards of its spesifications.
- The hydraulic power unit motor should not stay unused for longer periods, and either manually rotated every 3 months or started to ensure proper lubrication of the shafts and bearings on its shaft and bearings.
PREVENTATIVE MAINTENANCE SCHEDULE
- The maintenance schedules in this section indicate the recommended preventative maintenance intervals for equipment supplied by Side-Power. Components utilized in Side-Power Stabilizer Systems but not supplied by Side-Power are not included in the maintenance schedule or under any Side-Power warranty.
- The maintenance intervals are listed in hours of operation and time where relevant. Maintenance is to be performed according to this schedule utilizing time or hour intervals, whichever comes first. . The maintenance schedule incorporates the minimum required main-tenance to ensure correct operation of the system. Should these guidelines not be followed, the warranty for those items will be void.
- To perform maintenance, replacement parts may need to be purchased. Refer to the recommended spares list and/or drawings for associated part numbers.
Contact a Authorized Side-Power technician.
- If analysis of the scheduled oil sample indicates an elevated level of brass particles in the hydraulic system, the pumps should be replaced or overhauled as soon as possible. Delay in component removal and system flushing will lead to contamination problems throughout the hydraulic system. Erratic component operation may be a symptom of hydraulic fluid contamination.
- 2000 operating hours or annually, whichever occurs first.
- Fins should be inspected annually by diver if possible
- The data in the table below is provided to assist the vessel in scheduling the appropriate service staff and coordination of vessel docking (haul out) for maintenance procedures.
Level | Description |
---|---|
1 | Onboard maintenance possible at sea No shore support required |
2 | Shore supported maintenance and corrective measures |
3 | Trained personnel required – Side-Power personnel or equivalent |
D | Dry – Vessel must be out of water to perform task |
W | Wet – Vessel can be in water to perform task |
HULL UNIT
Maintenance schedule
| | Service level| ****
250h
| ****
500h
| ****
2000h
| ****
4000h
| ****
8000h
| ****
12000h
| When out of water| When required| Months/ Year
---|---|---|---|---|---|---|---|---|---|---|---
1. Change oil in bearing assembly (| 1 D| | | | ü| | | | | 36/3rd
2. Inspect spherical bearings, and Main Cylinders for external leakage| 1
W| | | ü| | | | | |
3. Inspect Stabilizer Manifolds| 1 W| | | ü| | | | | |
4. Inspect Stabilizer Manifolds Electrical Connections| 1 W| | | ü| | |
| | |
5. Inspect Fin Angle Sensor Belts| 1 W| | | ü| | | | | |
6. Inspect Twin Yoke Area| 1 W| | | ü| | | | | |
7. Inspect Hydraulic Hoses| 1 W| | | ü| | | | | |
8. Check Shaft Clearances| (| 3 D| | | | | | | ü| |
9. Replace Lower Shaft Seals (| 3 D| | | | | | | | ü|
10. Replace Main Shaft Bearings (| 3 D| | | | | | | | ü|
11. Inspect and replace Spherical Bear- ings and Cylinder Pins if necessary.
(NOT relevant for SPS55)(| 2 W| | | | ü| | | | ü|
12. Rebuild/Replace Cylinders (| 3 W| | | | ü| | | | ü|
13.Replace the Fin Angle Belt| 1 W| | | | ü| | | | ü|
14. Replace hydraulic actuator hoses| 3 W| | | | ü| | | | ü| 36/3rd
FINS
Maintenance schedule
| Service level| ****
250h
| ****
500h
| ****
2000h
| ****
4000h
| ****
8000h
| ****
12000h
| When out of water| When required
---|---|---|---|---|---|---|---|---|---
1. Inspect Fin Surfaces| 1 D ****| | | ü ****| | | | ü|
HYDRAULIC POWER UNIT
Maintenance schedule
| Ser- vice level| ****
250h
| ****
500h
| ****
2000h
| ****
4000h
| ****
8000h
| ****
12000h
| When out of water| When required| Months/ Year
---|---|---|---|---|---|---|---|---|---|---
1. Inspect the Dirt Indicator of the return
filter, replace when required
| 1 W| | ü| | | | | | | 6/0.5
2. Inspect Flexible Hoses| 1 W| | ü| | | | | | |
3. Inspect Suction Hoses| 1 W| | ü| | | | | | |
4. Inspect Electrical Connections| 1 W| | | ü| | | | | |
5. Inspect Cooling Pump| 1 W| | ü| | | | | | |
6. Inspect Oil Cooler Tubes| 1 W| | | | | | ü| | |
7. Inspect Pump Drive Coupling| 1 W| | | | ü| | | | |
8. Inspect Motor and Frame Mounts| 1 W| | | ü| | | | | |
9. Test Hydraulic Oil Quality by means of taking sample| 2 W| | | ü|
| | | | ü| 12/1st
10. Replace Return Filter Element| 1 W*| | | ü| | | | | ü| 24/2nd
11. Replace Pressure Filter Element| 1 W| | | ü| | | | | ü| 24/2nd
12. Change Oil. Refill with mineral
based hydraulic oil ISO – VG46
| 1 W| | | | ü| | | | ü| 36/3rd
13. Replace Drive Coupling Element| 3 W| | | | | ü| | | |
14. Rebuild/Replace Cooling Pump| 3 W| | | | | | | | ü|
15. Replace Hydraulic Hoses| 3 W| | | | | | | | ü|
16. Replace Oil Cooler| 3 W| | | | | | | | ü|
17. Replace Hydraulic Pumps*| 3 W| | | | | | | | ü|
CONTROL SYSTEM
Maintenance schedule
| Ser- vice level| ****
250h
| ****
500h
| ****
2000h
| ****
4000h
| ****
8000h
| ****
12000h
| When out of water| When required
---|---|---|---|---|---|---|---|---|---
1. Clean the Cooling Fan of the VFD
| 1/3 W| | | ü| | | | |
2. Test the Emergency Stop Button| 1/3 W| | | | ü| | | |
Technical Specifications
Stabilizer Panel: TP-43A
Input voltage| 8-31VDC
Power consumption| <3.5W
Operating temperature| -10 to 70 degrees C
Storage temperature| -30 to 80 degrees C
IP rating front| IP67
IP rating rear| IP66
Humidity| max 95% RH
Weight| 310g
Measurements
Warranty Statement
-
The equipment manufactured by Sleipner Motor AS (The “Warrantor”) is warranted to be free from defects in workmanship and materials under normal use and service.
-
This Warranty is in effect for of two years (Leisure Use) or one year (Commercial use) from the date of purchase by the user. Proof of purchase must be included, to establish that it is inside the warranty period.
-
This Warranty is transferable and covers the product for the specified time period.
-
In case any part of the equipment proves to be defective, other than those parts excluded in paragraph 5 below, the owner should do the following:
-
Prepare a detailed written statement of the nature and circumstances of the defect, to the best of the Owner’s knowledge, including the date of purchase, the place of purchase, the name and address of the installer, and the Purchaser’s name, address and telephone number;
-
The Owner should return the defective part or unit along with the statement referenced in the preceding paragraph to the warrantor,
Sleipner Motor AS or an authorized Service Centre, postage/shipping prepaid and at the expense of the Purchaser; -
If upon the Warrantor’s or Authorized Service Centre’s examination, the defect is determined to result from defective material or workmanship, the equipment will be repaired or replaced at the Warrantor’s option without charge, and returned to the Purchaser at the Warrantor’s expense;
(d) no refund of the purchase price will be granted to the Purchaser, unless the Warrantor is unable to remedy the defect after having a reasonable number of opportunities to do so. Prior to refund of the purchase price, Purchaser must submit a statement in writing from a professional boating equipment supplier that the installation instructions of the Installation and Operation Manual have been complied with and that the defect remains;
(e) warranty service shall be performed only by the Warrantor, or an authorized Service Centre, and any attempt to remedy the defect by anyone else shall render this warranty void. -
There shall be no warranty for defects or damages caused by faulty installation or hook-up, abuse or misuse of the equipment including exposure to excessive heat, salt or fresh water spray, or water immersion except for equipment specifically designed as waterproof.
-
No other express warranty is hereby given and there are no warranties which extend beyond those described in section 4 above. This Warranty is expressly in lieu of any other expressed or implied warranties, including any implied warranty of merchantability, fitness for the ordinary purposes for which such goods are used, or fitness for a particular purpose, and any other obligations on the part of the Warrantor or its employees and representatives.
-
There shall be no responsibility or liability whatsoever on the part of the Warrantor or its employees and representatives for injury to any person or persons, or damage to property, loss of income or profit, or any other consequential or resulting damage or cost which may be claimed to have been incurred through the use or sale of the equipment, including any possible failure or malfunction of the equipment, or part thereof.
-
The Warrantor assumes no liability for incidental or consequential damages of any kind including damages arising from collision with other vessels
or objects. -
This warranty gives you specific legal rights, and you may also have other rights which vary from country to country.
DECLARATION OF CONFORMITY
Sleipner Motor AS P.O. Box 519, Arne Svendsensgt. 6-8 N-1612 Fredrikstad,
Norway
Declare that the following (Stabilizer) products:
SPS55B | Side-Power Stabilizer System | Actuator kit |
---|---|---|
SPS66B | Side-Power Stabilizer System | Actuator kit |
SPS67B | Side-Power Stabilizer System | Actuator kit |
SPS92B | Side-Power Stabilizer System | Actuator kit |
SPS93B | Side-Power Stabilizer System | Actuator kit |
SPS94B | Side-Power Stabilizer System | Actuator kit |
SPS97B | Side-Power Stabilizer System | Actuator kit |
VF600 | Side-Power Stabilizer System | Vector Fin kit |
VF850 | Side-Power Stabilizer System | Vector Fin kit |
VF1050 | Side-Power Stabilizer System | Vector Fin kit |
VF1350 | Side-Power Stabilizer System | Vector Fin kit |
VF1650 | Side-Power Stabilizer System | Vector Fin kit |
VF1950 | Side-Power Stabilizer System | Vector Fin kit |
SCU | Side-Power Stabilizer Control System | Stabilizer Control Unit |
--- | --- | --- |
FCU | Side-Power Stabilizer Control System | Fin Control Unit |
TP-43 Panel | Side-Power Stabilizer Control System | Stabilizer Main operating |
panel
PHC-3| Side-Power Stabilizer Control System| Hydraulic system control unit
GW-1| Side-Power Control System| Gateway unit
Has been designed and manufactured in accordance to the following technical
regulations:
DIRECTIVE 2013/53/EU OF THE EUROPEAN PARLIAMENT AND OF THE COUNCIL of 20
November 2013 on recreational craft and personal watercraft.
DIRECTIVE 2014/30/EU OF THE EUROPEAN PARLIAMENT AND OF THE COUNCIL of 26
February 2014 on the harmonization of the laws of the Member States relating
to electromagnetic compatibility.
DIRECTIVE 2014/35/EU OF THE EUROPEAN PARLIAMENT AND OF THE COUNCIL of 26
February 2014 on the harmonization of the laws of the Member States relating
to the making available on the market of electrical equipment designed for use
within certain voltage limits.
Fredrikstad, 19th of January 2018
Signature
Arne K Skauen
Managing Director, Sleipner Motor AS
www.side-power.com
SLEIPNER MOTOR AS P.O. Box 519 N-1612 Fredrikstad Norway
The information given in the document was correct at the time it was
published. However, Sleipner Motor AS can not accept liability for any
inaccuracies or omissions it may contain. Continuous product improvement may
change the product specifications without notice. Therefore, Sleipner Motor AS
can not accept liability for any pos-sible differences between product and
document.
References
Read User Manual Online (PDF format)
Read User Manual Online (PDF format) >>