Methodology for Monitoring Marine Litter on the Sea Surface



Similar documents
NOAA Marine Debris Shoreline Survey Field Guide

Marine Litter Technical Recommendations for the Implementation of MSFD Requirements. MSFD GES Technical Subgroup on Marine Litter

PREVENTION OF MARINE LITTER POLLUTION

Prevention Pollution by Garbage from Ships in China. E Hailiang Deputy Director Maritime Safety Administration People s s Republic of China

South Africa - International Coastal Cleanup North, West and East Cape Provinces

Is a Storm Drain a Trashcan?

A Proven Barrier System Tested and Installed Worldwide

UNEP/IOC Guidelines on Survey and Monitoring of Marine Litter

ROOD BOVEN GROEN GARBAGE RECORD BOOK FOR ALL NAUTICAL AFFAIRS CONSULTING TRAINING SHIPMANAGEMENT. Name of ship: Distinctive number or letters:

AIS (Automatic Identification System)

Observing and Monitoring the Visitor Use in Marine Protected Areas 1

Sink or Float. Sandy Shores

Taking Out the Trash: A Source Reduction Pilot Project. Report on Phase 1- Monitoring Results

SECTION 3.2 CLIMATE AND PRECIPITATION

Geography affects climate.

How To Secure To A Boat

Which month has larger and smaller day time?

Report of Accident or Other Occurrence

UNITED NATIONS ENVIRONMENT PROGRAMME MEDITERRANEAN ACTION PLAN MED POL GUIDELINES ON MANAGEMENT OF COASTAL LITTER FOR THE MEDITERRANEAN REGION

METIER Course No. 6: Remote Sensing & Hydrosphere Helsinki 6 November 2008 Kati Tahvonen Finnish Environment Institute

Residential. San Leandro. Recycling Guide

Estuary monitoring by communities

London Array. Operations and Maintenance

Community Recycling Trailer Policy

A Guide to Flood Resilient Repairs

ENVIRONMENTAL & SOCIAL IMPACT ASSESSMENT (ESIA) FOR PRINOS OFFSHORE DEVELOPMENT PROJECT ANNEX 15: TRAFFIC MANAGEMENT PLAN

Real-time Risk Assessment for Aids to Navigation Using Fuzzy-FSA on Three-Dimensional Simulation System

Seasonal & Daily Temperatures. Seasons & Sun's Distance. Solstice & Equinox. Seasons & Solar Intensity

Indicator fact sheet Fishing fleet trends

WATERWAYS in Finland

Annex IV of MARPOL 73/78. Regulations for the Prevention of Pollution by Sewage from Ships

Norconsult AS Trekanten, Vestre Rosten 81, NO-7075 Tiller Memo no.: 1 Tel: Fax:

Hurricanes and Storm Surge

CHAPTER 7 DEAD RECKONING

Senior Phase Grade 8 Today Planning Pack TECHNOLOGY


Jacksonville Port Authority: Fire and Rescue Marine Fire Station #40, Jacksonville, Florida

NYSDEC Environmental Education

THE FISHERIES REQUIREMENTS FOR AREA IN RELATION TO SEISMIC ACTIVITIES THE FISHERIES

HOUSEHOLD FLOOD PLAN

Heat Transfer. Energy from the Sun. Introduction

TENNESSEE GAS PIPELINE COMPANY, L.L.C.

MONITORING TOOLS AND METHODS. Michelle Buzalsky Rangeland Management Technician Shoshone National Forest

Code of conduct Safe on-water conduct on the Brisbane River

IMO. MSC/Circ October Ref. T1/2.04 GUIDANCE TO THE MASTER FOR AVOIDING DANGEROUS SITUATIONS IN FOLLOWING AND QUARTERING SEAS

Chapter 2 Stormwater Pollution Prevention Plan (SWPPP) for Park Operations

Oil Spill Cleanup. Activity at a glance. Objectives. Materials. Background Information. GRADES 6-8 Time: 10 mins for prep; 1-2 hrs.

Air and Weather FOSS kit

INFORMATION FOR TOURISTS ABOUT FISHING AND SAFETY AT SEA IN NORWAY

ENVIRONMENTAL IMPACT ASSESSMENT PROCESS PROPOSED PHASE 2 EXPANSION OF THE TRANSNET IRON ORE HANDLING FACILITY, SALDANHA

Accident risk of Norwegian-operated cargo ships in Norwegian waters

OPTIMIST WORLD SAILING CHAMPIONSHIP 2014

PORT INFORMATION GUIDE PRIMORSK JUNE 2010

Makah Tribe January 28, 2010

Pre and post-visit activities - Navigating by the stars

STATUS REPORT FOR THE SUBMERGED REEF BALL TM ARTIFICIAL REEF SUBMERGED BREAKWATER BEACH STABILIZATION PROJECT FOR THE GRAND CAYMAN MARRIOTT HOTEL

Family Emergency Plan Template (For families with pets and/or livestock)

TRESBP ENVIRONMENTAL MONITORING SUMMARY MAY 2015

1. In the diagram below, the direct rays of the Sun are striking the Earth's surface at 23 º N. What is the date shown in the diagram?

Paper 2. Year 9 mathematics test. Calculator allowed. Remember: First name. Last name. Class. Date

Ultracapacitors Double Operational Life Of Wave Measurement Buoys

Operation Oil Spill Cleanup

SANTA TERESA RESEARCH CENTRE

Storm tide is the water level rise during a storm due to the combination of storm surge and the astronomical tide.

Preliminary Damage Assessment. Wheatland Tornado Incident June

wheeled bin recycling service

Law of Ukraine on the exclusive (marine) economic zone of 16 May 1995

Keep Your Head Above Water

Full credit for this chapter to Prof. Leonard Bachman of the University of Houston

Report of Investigation. into the Crew Fatality Caused. by a Deck Lifter Onboard. M.V. Dyvi Adriatic

UNIVERSITÀ DEGLI STUDI DI CAGLIARI ITALIAN LANGUAGE COURSES AT CAGLIARI

Coaching. Bags. Pro Kit Bag Made from heavy duty lined denier for extra durability. Vast

7. PRINCIPAL STEPS 8. POTENTIAL HAZARDS 9. RECOMMENDED CONTROLS

Storm tide is the water level rise during a storm due to the combination of storm surge and the astronomical tide.

Integration of mobile automated monitoring systems with decision support tools for smart HAB management. VITO Jaap van Nes Göteborg, May 2015

Storm Drain Inlet Protection

ALLEGANY WIND POWER PROJECT CONSTRUCTION SPILL PREVENTION PLAN

Straits of Mackinac Contaminant Release Scenarios: Flow Visualization and Tracer Simulations

Contents. 1. PROFILE p2. 2. SERVICES 2.1 Offshore Support Services p 4 Offshore support p 6 ROV operations p 8

Incidental Harassment Authorization

STATISTICS OF FATAL AND INJURY ROAD ACCIDENTS IN LITHUANIA,

Operation Oil Spill Clean Up Independent Investigation

2 nd Black Sea Stakeholders Conference Sofia, 24th March 2015 Background paper

C ampus Building Recycling Guide

DETERMINING SOLAR ALTITUDE USING THE GNOMON. How does the altitude change during the day or from day to day?

Transcription:

The Adriatic Coast and Sea Litter Free Methodology for Monitoring Marine Litter on the Sea Surface Visual observation Gavin Parsons / www.gavinparsons.co.uk / Marine Photobank Prepared by: Thomais Vlachogianni (MIO ECSDE, DeFishGear WPL) With contributions from: Francesca Ronchi, Tiziana Chieruzzi & Tomaso Fortibuoni (ISPRA), Vicky Paraskevopoulou & Vaggelis Kalampokis (MIO ECSDE), Sabina Cepuš & Uros Robic & Andreja Palatinus (IWRS)

Derelict Fishing Gear management system in the Adriatic Region www.defishgear.net The DeFishGear project aims to facilitate efforts for integrated planning to reduce the environmental impacts of litter generating activities and ensure the sustainable management of the marine and coastal environment of the Adriatic Sea. The DeFishGear activities are implemented by a multidisciplinary team comprising academia, research institutes, national and local authorities and NGOs from all seven countries of the Adriatic Sea, reinforcing and strengthening cooperation and fostering joint and harmonized actions towards a litter free Adriatic. This publication has been prepared by the DeFishGear Work Package Leader Mediterranean Information Office for Environment, Culture and Sustainable Development (MIO ECSDE), with contributions from the DeFishGear partners: Italian National Institute for Environmental Protection and Research (Rome, Italy), Institute for water of the Republic of Slovenia (Ljubljana, Slovenia). This publication has been produced with the financial assistance of the IPA Adriatic Cross Border Cooperation Programme. The contents of this publication are the sole responsibility of project partners and can under no circumstances be regarded as reflecting the position of the IPA Adriatic Cross Border Cooperation Programme Authorities. 2 P age

Methodology for Visual Monitoring of Floating Litter 1. Introduction The following methodology has been prepared based on the EU MSFD TG10 Guidance on Monitoring of Marine Litter in European Seas (2013) and the NOOA Marine Debris Monitoring and Assessment: Recommendations for Monitoring Debris Trends in the Marine Environment (2013), taking into consideration the draft UNEP/MAP MEDPOL Monitoring Guidance Document on Ecological Objective 10: Marine Litter (2014). 2. Site selection The monitoring of floating marine litter by human observers is a methodology indicated for short transects in selected areas. In the Adriatic Sea, a region with very little information about floating marine litter abundance, it is advisable to start by surveys in different areas in order to understand the variability of litter distribution. The selected areas should include: Low density areas (e.g. open sea); High density areas (e.g. close to ports); Other selected areas (e.g. in estuaries), in the vicinity of cities, in local areas of touristic or commercial traffic. Incoming currents from neighboring areas or outgoing currents should be considered. 3. Survey area The survey area is defined by the transect width and length. The transect width to be used is that of 10m, however depending on the observation level of the surveyor for the predefined ship speed of 2knots (3.7km/h) of the DeFishGear floating litter monitoring activities the following transect widths might be used: Table 1. Observation width from different observation levels above the sea for a ship speed of 2knots. Observation level of the surveyor above the sea 1m 3m 6m 10m Observation width (ship speed=2knots) 6m 8m 10m 15m The transect length will be determined from latitude and longitude of transect start and end points obtained by GPS. The same areas should be monitored for all surveys. 4. Frequency and timing of surveys At least two surveys in autumn and spring should be carried out within the scope of the DeFishGear project (Sep 2014 Jul 2015). The proposed surveys periods are: Autumn 2014: mid September mid October Spring 2015: April 3 P age

Bearing in mind that the observation of floating debris is much depended on the observation conditions, in particular on the sea state and wind speed, partners should be flexible enough to take this into account and to re schedule the monitoring activity in order to meet appropriate conditions. Ideally the visual observation protocol should be applied after a minimum duration of calm sea, so that there is no bias by litter objects which have been mixed into the water column by recent storms or heavy sea. In addition, the wind speed should be less than 2 Beaufort. 5. Visual observation considerations The observation from boats should ensure the detection of litter items in the size range of 2.5cm to 50cm, therefore along with the observation transect width of 10m, the speed of the boat should not be higher than 3knots. The observation, quantification and identification of floating litter items must be made by a dedicated observer who does not have other duties at the same time. The transect length should correspond approximately to 1h of observation for each survey. The ideal location for observation is often the bow area of the boat. The observation direction must be perpendicular to the boat track (see figure below). The surveyor should conduct the survey from the The total time of floating litter monitoring (for the 2 surveys) should correspond to a total of 10 16hrs at least. glare free side of the vessel and to avoid the hours of the day when the sun is low on the horizon (sunrise and sunset), since visibility is not good enough due to glare and/or reflection. Transect width Observer Boat direction Transect width 4 P age

6. Size limits and classes to be surveyed Litter items in the size range of a 2.5cm (in the longest dimension) to 50cm should be monitored and reported. However, in order to understand the relevance of larger than 50cm items in the statistical evaluation of data, these should be also recorded. Given that visual observation will not permit the correct measuring of object sizes, the following size range classes should be reported for each recorded litter item: A. 2.5cm 5cm B. 5cm 10cm C. 10cm 20cm D. 20cm 30cm E. 30cm 50cm F. >50cm 7. Identification of litter All items observed on the survey area should be entered on the Floating Litter Monitoring Sheet. On the sheet, each type of item is given a unique identification number. Data should be entered on the sheet while being observed. The identification and correct categorization of litter items should be facilitated by the DeFishGear Photo Guide. Unknown litter or items that are not on the survey sheet should be noted in the appropriate other item box. A short description of the item should then be included on the survey sheet. If possible, digital photos should be taken of unknown items so that they can be identified later and, if necessary, be added to the survey sheet. Furthermore, the occurrence of groups of floating litter items should be recorded along with their location as these could provide useful information with regards to accumulation areas. Ideally, each item in the group should be identified and recorded. 8. Quantification of litter The unit in which litter will be assessed on the sea surface will be number of items and it will be expressed as counts of litter items per square kilometer (litter items/km 2 ). In order to compute the exact surveyed area, GPS coordinates must be recorded regularly (every min) to obtain an accurate measurement of the travelled transect. ) A handheld GPS unit might be handy in this respect. 9. Equipment/Consumables The following items are necessary to carry out floating litter surveys: Digital camera; Binoculars; Hand held GPS unit; Extra batteries (ideally rechargeable batteries); Clipboard for the surveyor; Recording sheets (printed on waterproof paper); Pencils; First aid kit (to include sunscreen, bug spray, drinking water). 5 P age

10. References Cheshire AC, Adler E, Barbière J, Cohen Y, Evans S, Jarayabhand S, Jeftic L, Jung RT, Kinsey S, Kusui ET, Lavine I, Manyara P, Oosterbaan L, Pereira MA, Sheavly S, Tkalin A, Varadarajan S, Wenneker B, Westphalen G. UNEP Regional Seas Reports and Studies, No. 186; IOC Technical Series No. 83, 2009. Galgani F, Hanke G, Werner S, de Vrees L, Piha H, Abaza V, Alcaro L, Belchior C, Brooks C, Budziak A, Carroll C, Christiansen T, Dagevos J, Detloff K, Fleet D, Hagebro C, Holdsworth N, Kamizoulis G, Katsanevakis S, Kinsey S, Lopez Lopez L, Maes T, Matiddi M, Meacle M, Morison S, Mouat John, Nilsson P, Oosterbaan L, Palatinus A, Rendell J, Serrano López A, Sheavly SB, Sobral P, Svärd B, Thompson R, van Franeker J, Veiga J, Velikova V, Vlachogianni T, Wenneker B. Marine Litter, Technical Recommendations for the Implementation of MSFD Requirements, MSFD GES Technical Subgroup on Marine Litter. Publications Office of the European Union, 2011. Galgani F, Hanke G, Werner S, Oosterbaan L, Nilsson P, Fleet D, Kinsey S, Thompson RC, van Franeker J, Vlachogianni Th, Scoullos M, Veiga JM, Palatinus A, Matiddi M, Maes T, Korpinen S, Budziak A, Leslie H, Gago J, Liebezeit G. Guidance on Monitoring of Marine Litter in European Seas. Scientific and Technical Research series, Luxembourg: Publications Office of the European Union, 2013. Lippiatt S, Opfer S, Arthur C. Marine Debris Monitoring and Assessment. NOAA Technical Memorandum NOS OR&R 46, 2013. Suaria G, Aliani S. Floating debris in the Mediterranean Sea. Marine Pollution Bulletin, 2014, xxx: xxx xxx. 6 P age

Monitoring Marine Litter (Macro) on the Water Surface Data Sheet Location name DFG location ID Country Surveyor Name e mail address Date of survey VESSEL CHARACTERISTICS Vessel name Type of vessel Vessel length and weight Name of the vessel Type e.g. research, fishing, hired, regular ferry etc. Length of the vessel (metres) Gross weight of the vessel (tonnes) VISUAL SURVEY TRANSECT DETAILS Latitude/longitude start Latitude/longitude end Coordinates system Vessel speed Observation height Distance covered Time start/end Recorded as nnn.nnnnn degrees at the start of the sample unit Recorded as nnn.nnnnn degrees at the end of the sample unit Datum and coordinate system employed Average ship speed in knots Observation elevation above the sea Total distance covered by the transect (m) Time over which the survey took place Surface covered Area covered by the vessel (km 2 ) ENVIRONMENTAL PARAMETERS OBSERVATION DETAILS Wind speed Wind direction Sea surface salinity N E S W Recorded in (Beaufort) Tick more than one boxes e.g. for SE wind Expressed in 0 / 00 when reporting Good/Moderate/Poor ; in the latter Viewing quality two case state cause (e.g. fog) Expressed in accordance with the Sea state Douglas Sea Scale (0 9) NOTES

SITE CHARACTERISTICS Nearest river name Nearest river distance Nearest river position Nearest major fishery Nearest major fishery distance Nearest major fishery position Nearest town Nearest town distance Nearest town position Population size of this town Additional features of the town Name of the nearest beach Distance to nearest beach Position of the nearest coast Nearest shipping lane distance Estimated traffic density Vessel type Position of the shipping lane Name of the nearest harbor Distance to nearest harbor Harbor position Type of harbor Size of harbor Nearest discharge of waste water distance Position of nearest discharge point Type of waste water discharge Residential Tourist Residential & tourist Winter Spring Summer Autumn Industrial Municipal Other Name of nearest river Distance to the nearest natural input (river or stream) (kilometers) Position of river mouth in relation to survey area Name of the nearest major fishery (named by type) Distance to the nearest major fishery (kilometers) Position of the nearest major fishery in relation to survey area Name of nearest town Distance to the nearest town (kilometers) Position of the nearest town in relation to survey area No of inhabitants Indicate the main characteristic of the town, residential or touristic town; in case of the later indicate the high season peak Name of the nearest beach Distance to the closest coastline (kilometers) Position of the closest coastline in relation to survey area Distance to the nearest shipping lane (kilometers) Recorded in number of ships/year Indicate the type of vessels that mainly use it e.g. merchant ships, etc. Position of shipping lane in relation to survey area Name of nearest harbor Distance to the closest harbor (kilometers) Position of the nearest harbor in relation to survey area Based on the types of vessels visiting the harbor Record the number of ships that reach the harbor per year Distance to the closest waste water discharge point(kilometers) Position of nearest discharge points in relation to survey area Indicate type of waste water discharged

ARTIFICIAL POLYMER MATERIALS TYPE OF MATERIAL SIZE RUBBER CLOTH/TEXTILE PAPER/ CARDBOARD PROCESSED/ WORKED WOOD METAL CLASSES G2 G6 G18 G38 G39 G45 G48 G51 G57 G58 G63 G67 G74 G79 G80 G82 G83 G94 G123 G124 G125 G126 G127 G128 G134 G135 G141 G142 G143 G145 G148 G149 G154 G158 G160 G162 G168 G169 G173 G175 G182 G191 G192 G197 A. 2.5cm 5cm B. 5cm 10cm C. 10cm 20cm D. 20cm 30cm E. 30cm 50cm F. >50cm Bags Bottles Crates and containers / baskets Cover / packaging Gloves Mussel nets / Oyester nets Synthetic rope Fishing net Fish boxes plastic Fish boxes expanded polystyrene Buoys Sheets, indus. packaging, plastic sheeting Foam packaging/insulation/polyurethane Plastic pieces 2.5cm ><50 cm Plastic pieces >50 cm Polystyrene pieces 2.5cm ><50 cm Polystyrene pieces >50 cm Table cloth Polyurethane granules <5mm Other plastic/polystyrene items (identifiable) Balloons and balloon sticks Balls Rubber boots Tyres and belts Other rubber pieces Clothing (clothes, shoes) Carpet & Furnishing Rope, string and nets Sails, canvas Other textiles (incl. rags) Cardboard (boxes & fragments) Paper packaging Newspapers & magazines Other paper items Pallets Crates Wood boards Beams / Dunnage Other (specify) Cans (beverage) Fishing related (weights, hooks, sinkers, lures Wire, wire mesh, barbed wire Barrels Other (metal)

ADDITIONAL INFO In case of the occurrence of group of items, please record herewith the occurrence, the location (coordinates) and the type of litter items (G1, G2, G3,.) observed