LAMPEDUSA C B TRIPOLI

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Transcription:

ITALY SRR LAMPEDUSA 0 60 120 KILOMETERS MALTA SRR NATO MARITIME SURVEILLANCE AREA AS OF MARCH 23, 2011 D C B NATO MARITIME SURVEILLANCE AREA AS OF APRIL 8, 2011 A LIBYA SRR E TRIPOLI EXCERPT FROM: REPORT ON THE LEFT-TO-DIE BOAT FORENSIC OCEANOGRAPHY: CHARLES HELLER, LORENZO PEZZANI, AND SITU STUDIO PART OF THE EUROPEAN RESEARCH COUNCIL PROJECT FORENSIC ARCHITECTURE, CENTRE FOR RESEARCH ARCHITECTURE, GOLDSMITHS, UNIVERSITY OF LONDON DRIFT MODELLING: RICHARD LIMEBURNER, WOODS HOLE OCEANOGRAPHIC INSTITUTION ZLITAN

PAGE 1: KEY EVENTS The following is a summary of key events: the migrants vessel left the Port of Tripoli between 00:00 and 02:00 GMT on 27 March 2011 with 72 migrants on board. The vessel was probably sighted by a French aircraft which transmitted its coordinates to Rome MRCC. After proceeding in the direction of Lampedusa for 15-18 hours, the migrants placed a distress call by satellite phone to an Eritrean priest based in Italy. The priest, in turn, called the MRCC in Rome to alert them to the fact that there was a vessel in distress. Shortly following this call, the MRCC in Rome published an Enhanced Group Call message and alerted both Malta MRCC and NATO HQ allied command in Naples that a vessel was in distress. It also provided them with the vessel s geographic coordinates in latitude and longitude at 16:52 GMT. Following the broadcast of the vessel s position, a helicopter arrived, observed the boat and left. After this visit by the helicopter, the position of the boat was determined a second time as 9 nautical miles NNW of the earlier position. The migrants then waited 4-5 hours in the same area, where their requests for help from some fishermen went unheeded. Still in the same position, the vessel was visited for a second time by a military helicopter that dropped biscuits and water before leaving. The vessel then continued NNW towards Lampedusa for 5 8 hours before running out of fuel at approximately 07:00 GMT on 28 March, at which time the boat began to drift. The boat drifted SSW for 7-8 days before it encountered a military ship. On 10 April, the boat landed southeast of Tripoli at Zlitan. Upon landing, 11 migrants were still alive. 2 died shortly thereafter. FIGURE Departure point at Port of Tripoli between 00:00 and 02:00 UTC on 27 March. Boat first spotted by a French aircraft at 14:55 GMT on 27 March at position LAT 33 40 N, - LON 13 05 E (A). GPS location of vessel (B) at 16:52 GMT on 27 March 2011 at position LAT 33 58.2 N LON 12 55.8 E as determined by the MRCC based on locations established by the satellite phone provider Thuraya. The GPS position of the boat was determined a second time (C) at 19:08 GMT on 27 March at position LAT 34 07.11 N LON 12 53.24 E, again based on information provided by Thuraya. The vessel began to drift (D) within a 4.3 nm radius of position 34 24.792 N 12 48.576 E at approximately 07:00 GMT on 28 March. Between 3 and 5 April the migrants encounter a military ship (E). On 10 April the boat lands back at Zlitan.

13.7 km 18.3 km 21.6 km 3-28-2011 3-29-2011 3-30-2011 3-31-2011 39.5 km 4-01-2011 35.0 km 4-02-2011 32.8 km 11.4 km 9.2 km 4-03-2011 4-04-2011 4-05-2011 28.7 km 4-06-2011 41.4 km 4-07-2011 31.2 km 4-08-2011 31.5 km 4-09-2011 0 25 50 100 Kilometers 0 12.5 25 50 Nautical Miles EXCERPT FROM: REPORT ON THE LEFT-TO-DIE BOAT FORENSIC OCEANOGRAPHY: CHARLES HELLER, LORENZO PEZZANI, AND SITU STUDIO PART OF THE EUROPEAN RESEARCH COUNCIL PROJECT FORENSIC ARCHITECTURE, CENTRE FOR RESEARCH ARCHITECTURE, GOLDSMITHS, UNIVERSITY OF LONDON DRIFT MODELLING: RICHARD LIMEBURNER, WOODS HOLE OCEANOGRAPHIC INSTITUTION 32.5 km 29.0 km 4-10-2011 4-11-2011

PAGE 3: DRIFT MODEL TIMELINE The model provides hourly positions of the vessel from 28 March at 00:00 GMT until 10 April at 00:00 GMT. FIGURE Hourly positions of the drifting vessel were calculated using daily Nucleus for European Modelling of the Ocean (NEMO) surface current data and hourly Lampedusa airport wind data. Sea surface currents were modeled by Istituto Nazionale di Geofisica e Vulcanologia (INGV) and the meteological data was provided by Euroweather.

A B EXCERPT FROM: REPORT ON THE LEFT-TO-DIE BOAT FORENSIC OCEANOGRAPHY: CHARLES HELLER, LORENZO PEZZANI, AND SITU STUDIO PART OF THE EUROPEAN RESEARCH COUNCIL PROJECT FORENSIC ARCHITECTURE, CENTRE FOR RESEARCH ARCHITECTURE, GOLDSMITHS, UNIVERSITY OF LONDON DRIFT MODELLING: RICHARD LIMEBURNER, WOODS HOLE OCEANOGRAPHIC INSTITUTION

PAGE 5: SAR COVERAGE Moderate to fine resolution satellite resources, such as optical satellite imagery, are not normally collected over the open ocean. However, Synthetic Aperture Radar (SAR) data is routinely collected over the Mediterranean Sea. As part of this report, a survey of available SAR data was taken for all available coverage within the Straight of Sicily for the period of 27 March 10 April. The following SAR providers all have varying amounts and types of coverage over this area during the time frame: iterrasar-x, Palsar, COSMO Sky-Med, Radarsat 1, Radarsat 2 and Envisat-1. For the purposes of this report, Envisat data was acquired for 28 March and 29 March which provides a snapshot of maritime activity in the area. FIGURE Envisat-1 Wide Swath coverage area for 28 March 2011 (A) and 29 March 2011 (B).

A B 0 5 0 2.5 10 5 C B C EXCERPT FROM: REPORT ON THE LEFT-TO-DIE BOAT FORENSIC OCEANOGRAPHY: CHARLES HELLER, LORENZO PEZZANI, AND SITU STUDIO PART OF THE EUROPEAN RESEARCH COUNCIL PROJECT FORENSIC ARCHITECTURE, CENTRE FOR RESEARCH ARCHITECTURE, GOLDSMITHS, UNIVERSITY OF LONDON DRIFT MODELLING: RICHARD LIMEBURNER, WOODS HOLE OCEANOGRAPHIC INSTITUTION SAR ANALYSIS: LAWRENCE FOX III, HUMBOLDT STATE UNIVERSITY EMERITUS PROFESSOR OF REMOTE SENSING 20 Kilometers 10 Nautical Miles

PAGE 7: SAR VESSEL DETECTION The SAR returns appear as bright pixels against the surrounding sea surface (eight times the brightness on average in the data analyzed for this report). In the case of the Envisat data, low variability of the background sea pixels means that even moderately bright returns indicate the presence of vessels. FIGURE Overview of ship detections from 29 March Envisat data (A) with enlargements of (B) and (C). The brightness of (C) is due to an interference pattern that occurs when the geometry of the target aligns for maximum return.

29_9 29_6 29_5 29_0 29_1 29_23 29_2 29_3 29_4 29_13 29_14 29_15 29_8 29_7 29_17 29_16 29_18 29_19 29_21 29_20 29_22 29_10 29_11 0 25 0 10 50 20 100 Kilometers 40 Nautical Miles 29_12 EXCERPT FROM: REPORT ON THE LEFT-TO-DIE BOAT FORENSIC OCEANOGRAPHY: CHARLES HELLER, LORENZO PEZZANI, AND SITU STUDIO PART OF THE EUROPEAN RESEARCH COUNCIL PROJECT FORENSIC ARCHITECTURE, CENTRE FOR RESEARCH ARCHITECTURE, GOLDSMITHS, UNIVERSITY OF LONDON DRIFT MODELLING: RICHARD LIMEBURNER, WOODS HOLE OCEANOGRAPHIC INSTITUTION SAR ANALYSIS: LAWRENCE FOX III, HUMBOLDT STATE UNIVERSITY EMERITUS PROFESSOR OF REMOTE SENSING Id Length Confidence 29_0 29_1 70% 29_2 29_3 29_4 70% 29_5 90% 29_6 225m 29_7 29_8 70% 29_9 29_10 29_11 150m 29_12 150m 29_13 29_14 300m 29_15 150m 29_16 29_17 29_18 300m 29_19 29_20 29_21 70% 29_22 150m 29_23 225m

PAGE 9: SAR ANALYSIS - 29 MARCH For this report, Lawrence Fox III, Humboldt State University Emeritus Professor of Remote Sensing and consultant, provided analysis of the 28 and 29 March Envisat-1 data. Fox s analysis provides estimates of ship length and quantification of confidence for all returns considered probable vessels. Envisat-1 radar returns considered probable vessels for this report appear, on average, eight times the signal strength of the surrounding sea surface. The resolution of the Envisat-1 data allows for high confidence detection of ships 75 meters and longer. On 24 March the U.S. Department of Defense disclosed that 38 NATO ships were being deployed in the frame of the 2011 military intervention in Libya. Return 29_13 was between 20 and 34 NM away from the ship s drift, while return 29_3 was between 25 and 33 NM away and return 29_1 was between 32 and 38 NM away. FIGURE Envisat-1 data vessel detection for 29 March with corresponding table of returns documenting estimated length of vessel and confidence.

CREDITS: Forensic Oceanography: Charles Heller, Lorenzo Pezzani, And Situ Studio Part Of The European Research Council Project Forensic Architecture, Centre For Research Architecture, Goldsmiths, University Of London DRIFT MODELLING: Richard Limeburner, Woods Hole Oceanographic Institution SAR ANALYSIS: Lawrence Fox III, Humboldt State University Emeritus Professor Of Remote Sensing DRIFT MODEL CREDITS: Ocean currents were obtained from the MyOcean website (http://www.myocean.eu.org/index.php/productsservices/catalogue). MyOcean provides data mainly from EuroGOOS Regional alliances which have deeply contributed to structure the European Operational Oceanography community. The ocean currents were actually provided by the Istituto Nazionale di Geofisica e Vulcanologia (INGV) in Italy. INGV uses NEMO (Nucleus for European Modeling of the Ocean), a state-of-the-art modeling framework for oceanographic research, operational oceanography, seasonal forecasts and climate studies. See http://www.nemoocean.eu/. Wind data at the Lampedusa Island airport was obtained from EuroWeather (http://www.eurometeo.com/english/home). Weather data at Libyan meteorological stations was unreliable in early 2011.