Moog Tritech Super SeaKing 700 V7 Series Product Manual

Moog Tritech Super SeaKing 700 V7 Series Product Manual

Bathymetric sensor

Advertisement

Super SeaKing 700 V7
Bathymetric Sensor
Product Manual
Document No-0688-SOM-00001
Rev2
A Moog Inc. Company
Outstanding Performance in Underwater Technology

Advertisement

Table of Contents
loading
Need help?

Need help?

Do you have a question about the Tritech Super SeaKing 700 V7 Series and is the answer not in the manual?

Questions and answers

Subscribe to Our Youtube Channel

Summary of Contents for Moog Tritech Super SeaKing 700 V7 Series

  • Page 1 Super SeaKing 700 V7 Bathymetric Sensor Product Manual Document No-0688-SOM-00001 Rev2 A Moog Inc. Company Outstanding Performance in Underwater Technology...
  • Page 2 This page has deliberately been left blank.
  • Page 3 This manual may not detail every aspect of operation and for the latest revision of the manual please refer to www.moog.com/tritech Tritech International Ltd can only undertake to provide software support of systems loaded with the software in accordance with the instructions given in this manual.
  • Page 4 Warning Symbols Throughout this manual the following symbols may be used where applicable to denote any particular hazards or areas which should be given special attention: Note This symbol highlights anything which would be of particular interest to the reader or provides extra information outside of the current topic. Important When this is shown there is potential to cause harm to the device due to static discharge.
  • Page 5: Table Of Contents

    Table of Contents Introduction Appendix A Overview ..................1 ARCNET Termination ............22 Technical Specifications ............ 2 Appendix B Installations Depth Derivation ...............23 Hardware Installation ............4 Default Depth Equation ..........23 Powering the Bathy ............. 5 Gravity Formula ..............23 Electrical Connections ............5 Alternative Depth Equation ..........23 Connecting an Altimeter ..........
  • Page 6 This page has deliberately been left blank.
  • Page 7: Introduction

    1. Introduction Overview The Super Seaking V7 series is built on a new platform, introducing an improved front end design, Ethernet connectivity and software power isolation for AUX port output. We have incorporated state of the art sensors to gather precision Sound Velocity and Density profiles for accurate depth and height data.
  • Page 8: Technical Specifications

    Technical Specifications Super Seaking 701 Super Seaking 704 ø43 ø47 Dimensions in millimetres. System Physicals Super Seaking 701 Series SSK704 Series Weight in air (kg) 3.74 4.19 Weight in Water (kg) 1.44 1.69 Housing Material Anodised Aluminium Alloy Depth Ratings 700m, 1400m, 2000m, 4000m 0688-SOM-00001, Rev: 02 ©...
  • Page 9 Electrical and Communication Main 20-70VDC @ 8w Power Requirement Voltage set to 24VDC Main Ethernet & Serial RS232/RS485 SXXXXX nn ETH Serial RS232/RS485 Communications Main SXXXXX nn ARC ARCNET & Serial RS232/RS485 Depth Sensor Repeatability 0.01% FSD (Full Scale Depth) Hysteresis 0.015% FSD Drift...
  • Page 10: Installations

    2. Installations Hardware Installation Mount the Seaking 700 using 3mm insulating rubber, and jubilee clamps to firmly secure to the vehicle. For accurate pressure measurement, the Seaking 700 Bathymetric sensor can be orientated in a port up or port down configuration with calibrated offsets provided by the factory. It’s recommended, during installation, that the bathy and altimeter be positioned so they receive good water flow while avoiding prop-wash from thrusters.
  • Page 11: Powering The Bathy

    Powering the Bathy The SeaKing 700 Series units are designed to work from a smoothed DC power supply. If using a rectified transformer PSU, the output of the PSU must have a filter capacitor of not less than 470μF, for each unit being powered.
  • Page 12: Communications Configurations

    Communications Configurations The V7 is a direct replacement for a V6 sonar with the exception of customers requiring Ethernet capability. This will require either a proprietary Tritech ‘V7 connector’ or a compatible connector and cable harness. Arcnet and Serial comms protocols are supported.. Seaking 700 Bathymetric sensors can be configured as Ethernet with Serial RS232/485 or as ARCNET and Serial RS232/485 communication protocols.
  • Page 13: Wiring Diagrams

    Wiring Diagrams The below wiring diagrams refer to the standard Tritech connector, other connector options are available upon request. Please contact our sales team for full details. WARNING Application of reverse supply voltage to the unit or supply voltage across any of the communication connections may lead to equipment damage not covered under the warranty conditions.
  • Page 14: Wiring Pin-Outs

    Wiring Pin-outs V7 Cable Pin-Out Pin-Out Cable Contact V7 Conn. Conductor Conductor ARCNET RS232 RS485 Conductor ID Ethernet Colour V6 Colour V7 TX_P Yellow Blue UTP #1: 0.22mm² / ~24 AWG TX_N Blue White UTP #1: 0.22mm² / ~24 AWG +VDC 0.5mm²...
  • Page 15: Seanet Pro

    CD-ROM or a USB memory stick. Updates and latest versions of software can also be downloaded from the Tritech website www.moog.com/tritech Once installed, you can launch the application from the desktop icon or from the Start menu in windows.
  • Page 16: Windows Setup

    Windows Setup Ethernet Protocol Settings The Ethernet adapter needs to be setup on the host PC to be in the same IP address range as the sensor being attached. Using network comms allows multiple sensors to be integrated using standard networking equipment. A minimum 100BASE−TX link is recommended.
  • Page 17: Seanet Pro Setup

    SeaNet Pro Setup Setup window Having installed the hardware it is now time to setup communications within SeaNet Pro. To do this go to the Applications in menu at the top of the screen and select Setup. This brings up the Node list where the sensors will appear.
  • Page 18: Device Configuration Window

    4. Device Configuration Window The device Configuration window is accessed from the node list by clicking on the drop-down (under the action column) and selecting setup. Below is an overview of the Configuration window. Head Info/Coeffs Tab- Information relating to Aux Altimeter Enabled- This setting notifies the the instrument build.
  • Page 19: Seanet Pro Operation

    Seanet Pro Operation The Following section covers basic operation within SeaNet Pro. The SeaKing 700 series can be operated alongside other devices in a multi-window application. For this example we will focus on the Single Bathy Application. Main Screen In the Applications menu at the top of the window, select “Single Bathy” to bring up the main Bathy interface screen.
  • Page 20: Seanet Pro Tools

    SeaNet Pro Tools Bathy Application Menu The Bathy application menu can be accessed either by clicking the menu icon in the top left of the top toolbar or by right clicking the mouse in the Bathy application window. Here you can access all settings and information screens for the bathy. Setup Set Auto or Manual values for Local VOS, Density, and Barometric.
  • Page 21 Bathy Diagnostics Time - Time (in ms), synchronized to the PC clock. DQSN - Serial number of the Digiquartz unit DQ N and DQ F - not relevant to the V7 systems. CALC - Internally calculated DQ temperature (°C) and pressure (psi Calculated Sensor Values- Depth - The calculated depth value.
  • Page 22: System Configuration

    System Configuration. Offsets The sensor head vertical offset (DQ Offset) and altimeter vertical offset (Alt Offset) will be required if a datum reference point is to be used on the vehicle above or below the SeaKing 700 series sensor head and/or the altimeter.
  • Page 23: Optimising The Sk700 V7

    5. Optimising the SK700 V7 System Check The SeaKing 700 series heads should be checked for serviceability on the bench prior to undertaking any testing underwater. Before applying power to the unit ensure that it is in good physical condition with no damage to the sensors or housing.
  • Page 24: Recommended Pre-Dive Checklist

    Recommended Pre-Dive checklist The following is a suggestion list of items to be checked during a Pre-Dive procedure when using SeaKing 700 units. • The communications protocol for the Bathy is known and the topside control unit has been setup appropriately •...
  • Page 25: Factors That Affect Measurement

    Factors that affect measurement Water Density A bathymetric sensor measures seawater pressure. In order to calculate depth it must know the density throughout the water column from the surface to the operating depth. This value will change as the sensor moves through the water column, because varying temperatures and salinity will affect the overall density.
  • Page 26 Relative Measurements For relative measurements there is no requirement to zero the unit on deck because any error at the surface will represent a constant offset (gravity effects are also negligible). The important parameters are variations in atmospheric pressure, water column mean density and tidal corrections for the duration of the measurements.
  • Page 27: Care And Maintenance

    6. Care and Maintenance Warning Opening of the unit will void the warranty. This unit is not designed to be field serviceable. Calibration and pressure certification will also become invalid should the unit be opened. After using the Super Seaking 700 We recommend that the unit be rinsed down with fresh water after each dive, especially if the unit is not intended to be used for an extended period.
  • Page 28: Arcnet Termination

    Appendix A A.1. ARCNET Termination Depending on the cable length the ARCNET communication link requires a termination resistor to be installed at each end of the umbilical cable. Normally this is supplied fitted within the ARCNET cable DA-15 or within the SCU/SeaHub at the surface and is left for the user to fit at the sub-sea end in a convenient junction box or by use of a special waterblock.
  • Page 29: Depth Derivation

    Appendix B B.1. Depth Derivation The Bathy V7 uses its ARM processor to carry out the various calculations required to derive depth, salinity, density, VOS, and altitude. This allows the V7 system to operate in a completely standalone mode, as opposed to the V3 system that requires the use of Seanet/Desktop PC to derive the above outputs.
  • Page 30: Salinity Equation

    B.5. Salinity Equation ������������ ���� ���� ���� ���� ���� ( ������������ ) = ���� + ���� ���� ���� = 0.008 − 0.1692���� + 25.3851���� + 14.0941���� − 7.0262���� + 2.7081���� ���� ���� ���� ���� ���� ���� = (0.0005 − 0.0056���� −...
  • Page 31: Chen & Millero Equation

    Appendix C Free Running mode can be customised to use the following formulae to calculate sound velocity based on Bathymetric Data. C.1. Chen & Millero Equation Velocity of Sound (VoS) Algorithms Chen and Millero Source: NPL Technical Guides – Speed of Sound in Sea-water Validity: T = 0 to 40oC, S = 0 to 40psu, P = 0 to 100 bar (Wong and Zhu, 1995) Table of Coefficients Table of Coefficients...
  • Page 32: Delgrosso Equation

    0.1560592 0.2449993E-4 -0.8833959E-8 C.2. DelGrosso Equation -0.1275936E-1 0.6353509E-2 Source: NPL Technical Guides – Speed of Sound in Sea-water 0.2656174E-7 Validity: T = 0 to 30oC, S = 30 to 40ppt, P = 0 to 1000 kg/cm2 (Wong and Zhu, 1995) T2P2 -0.1593895E-5 0.5222483E-9...
  • Page 33: Wilson Equation

    C.5. Wilson Equation Source: The Hydrographic Society Special Publication No. 34 Validity: T = -4 to 30oC, S = 25 to 37ppt, P = 0 to 1000 kg/cm2 (Wilson W D., 1960) ���� = ����������������. �������� + ���� + ���� + ����...
  • Page 34: Medwin Equation

    C.7. Medwin Equation Source: NPL Technical Guides – Speed of Sound in Sea-water ������������ = 1449.2 + 4.6���� − 0.055���� + 0.00029���� + ( 1.34 − 0.010���� )( ���� − 35 ) + 0.016���� Validity: T = 0 to 35oC, S = 0 to 45ppt, D = 0 to 1000 meters (Medwin H., 1975) ����...
  • Page 35 This page has deliberately been left blank.

Table of Contents