Project Deliverable D50 Report on Best Practices Workshop - Ifremer

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This Reference Model has the objective to take in account a wide range of possible implementations. In real world, we will find more simplified observatories where some of the blocks can be bypassed. The following descriptions apply to figure 7. Standards and protocols are proposed to communicate different main blocks or secondary blocs: Main Blocks: Secondary Blocks Instrument Sensor, ADC, Processing, Calibration, Storage Concentrator Sea Station Controller, Buffer Node or Junction Box Switch, Modem Shore Station Modem, Controller Crystal, CLK Operators Clients Archive Main communication protocols and initiatives to take into account in order to communicate different blocs are: RS232, CAN, RS485, RS422, Ethernet, USB, RF, Acoustic, Satellite and over this physical layers CANopen, TCP/IP, UDP, 1451.0, PUCK, Sensor Web Enable (SWE), Sensor Observation Service(SOS), Sensor Alert Services(SAS), Sensor Planning Services (SPS), ZeroConf, NMEA, PPS; IEEE1588 and NTP. Reference Model brief Description An instrument is composed by theses main blocs: primary sensors, ADC function, Calibration, Processing, storage, and/or Power Supply. a: connection a represents communication between primary sensor to ADC. It will be mainly analog communication even if could be digital if the primary sensor is digital or quasi-digital. Different Instruments can be connected point to point or in a multi-drop network to a concentrator. b: connection b represents this point to point or multi-drop network to a concentrator. Different Concentrators can be connected to a Main Controller (Sea Station) where a buffer memory can be used to assure data storage while communication with shore station is off. c: connection c represents the connection between different concentrator and the Sea Station Controller. Different Sea Station Controllers will communicate with shore station through a Node or Junction Box, composed by a switch and a modem. d: connection d represents the connection between Sea Station Controllers and a communication Switch. <strong>Deliverable</strong> #50 - update October 2010 30
e: connection e represents the connection between the communication Switch and a communication Modem. In some cases, Switch block and Modem block could be a single block. f: connection f represents the connection between marine node or Junction Box and the shore station. It can be wired or wireless. g: connection g represents communication between communication Modem and Main Controller at Shore Station. h: connection h represents communication between the Shore Station Controller and a Memory Buffer. This buffer doesn’t represent a full database or main archive. i: connection i represents how different clients could be accessed Controller Shore Station j: connection j represents how an Operator or various Operators communicate with Shore Station Controller. L. connection L represents how the controller saves data into a full database or Archive. k: connection k represent communication between Clients to main Archive. m&n: connections m and n represents how a timing clock gets the Controllers at Shore or Sea stations Proposed and most common standards or initiatives used per connection Different standards and protocols have been tested with different observatories topologies. Other are well known and commonly used in nowadays observatories. Link Standards, Protocols or initiatives to take into account a Analog b RS232, RS485, RS422, CAN, 1451.X, PUCK, ETH,USB, SWE, ZeroConf c Eth, RS485, RS422, CAN, USB, ZeroConf d Eth, RS232, CAN, USB, RS422, ZeroConf e f Eth, RF, Acoustic, Satellite, IEEE1451.0, SWE,ZeroConf g Eth, RS232,CAN, USB, RS422, ZeroConf h i SWE, SOS, DataTurbine, ZeroConf j SWE, SPS, SAS, ZeroConf k SWE, SOS L SWE, ZeroConf m PPS+NMEA, IEEE1588 PTP n PPS+NMEA, IEEE1588 PTP Other standards that may apply Time synchronization IEEE1588 PTP and NTP over TCP/IP Network NMEA over RS232, RS485 and Eth PPS over TTL, RS232, RS485 <strong>Deliverable</strong> #50 - update October 2010 31
Page 1 and 2: Project contract n
Page 3 and 4: CONTENT 1 Executive summary .......
Page 5 and 6: 1 Executive summary The main goal o
Page 7 and 8: 4 Sessions 4.1 General indications
Page 9 and 10: 4.2.2 Acoustic sensors 4.2.2.1 Intr
Page 11 and 12: In the marine environment a diversi
Page 13 and 14: 4.3.1.3 Debriefing - A document was
Page 15 and 16: defined by ESONET deliverables D11
Page 17 and 18: The generic sensor should be availa
Page 19 and 20: The oxygen sensor in the generic sp
Page 21 and 22: Common topics on time series analys
Page 23 and 24: Ecological communities Author: H. R
Page 25 and 26: Pan & tilt system, to find the righ
Page 27 and 28: References : http://www.listentothe
Page 29: Zaugg, S., van der Schaar, M., Hou
Page 33 and 34: Case Study In order to test the Ref
Page 35 and 36: operate it in a safe and productive
Page 37 and 38: White Paper for the Panel 3-3 - 20
Page 39 and 40: springs for release has shown its p
Page 41 and 42: Cathodic protection, including the
Page 43 and 44: Thursday 8 October Time Topic 09:00
Page 45 and 46: Friday 9 October Time Topic 08:15 S
Page 47 and 48: Generic session scheme Presentation
Page 49 and 50: o Existing or newly developed quali
Page 51 and 52: Working group G3 - Standardisation
Page 53 and 54: Objectives: The first meeting of th
Page 55 and 56: Firstname Lastname Institution Coun
Page 57 and 58: Annex C Slides from Anders Tendberg
Page 59 and 60: Criteria for Observatory Sensors Fi
Page 61 and 62: Possible sensor technology for obse
Page 63 and 64: http://www.act-us.info/ EURO ACT, l
Page 65 and 66: Calibration methods Temp Pr Current
Page 67 and 68: Which problems remain to be solved
Page 69 and 70: Tests : • Fluorescence sensors :
Page 71 and 72: Local Protection by electrochlorina
Page 73 and 74: WG 1 GENERIC INSTRUMENTATION PANEL
Page 75 and 76: Physical and Technological constrai
Page 77 and 78: Annex D EARTH SEA SCIENCE IN KM3Net
Page 79 and 80: I - Manage data from the above. (Sp
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Figure 2: Secondary junction box of
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Docking unit is also the structural
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Infrastructure / Standalone observa
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Infrastructure / Standalone observa
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Annex F1: processing of ELISA data
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Figure 2: currents measured around
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depth (m) Due to inertial currents
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Figure 6: Rebuilt Time series of sa
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ANNEXE F2 - M. FAUZI's presentation
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40 km submarine cable -2475m depth
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CTD ADCP Interdisciplinary Instrume
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Deliverable #50 -
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Shore Station : M. Pacha 40km Elect
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Antares Database and Web site proje
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Deliverables / Pla
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Istituto Nazionale di Geofisica e V
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Just in time data conversion Web GU
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Deliverable #50 -
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Let’s see it live SeaFloor test s
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Ecological Communities •Species c
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Spatio-Temporal Correlations • Ti
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Deliverable #50 -
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E. minutissima Ec. rostrata Density
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10-12 months for the RAD (r = 0.38;
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Total density (TAD) (ind. grab -1 )
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Total density (TA D)(ind. grab -1 )
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El Niño Southern Oscillation, Nort
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Fishery Sciences and Technology Dep
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ANNEX F6 - DEBRIEFING : Del
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Introduction • From the first Bes
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Time-Series Analysis Considerations
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• CTD F, Bio, etc…. Time series
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Deliverable #50 -
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CTD Some examples of time series
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Development of an Automated Protoco
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Data management collaboration with
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Project Deliverable D50 Report on Best Practices Workshop - Ifremer

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