Fisheries for the Future Foreword Table of Contents
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SUSTAINABLE FISHERIES and RESPONSIBLE AQUACULTURE: a Guide for USAID Staff and Partners
SUSTAINABLE FISHERIES AND RESPONSIBLE AQUACULTURE: A Guide for USAID Staff and Partners June 2013 ABOUT THIS GUIDE GOAL This guide provides basic information on how to design programs to reform capture fisheries (also referred to as “wild” fisheries) and aquaculture sectors to ensure sound and effective development, environmental sustainability, economic profitability, and social responsibility. To achieve these objectives, this document focuses on ways to reduce the threats to biodiversity and ecosystem productivity through improved governance and more integrated planning and management practices. In the face of food insecurity, global climate change, and increasing population pressures, it is imperative that development programs help to maintain ecosystem resilience and the multiple goods and services that ecosystems provide. Conserving biodiversity and ecosystem functions are central to maintaining ecosystem integrity, health, and productivity. The intent of the guide is not to suggest that fisheries and aquaculture are interchangeable: these sectors are unique although linked. The world cannot afford to neglect global fisheries and expect aquaculture to fill that void. Global food security will not be achievable without reversing the decline of fisheries, restoring fisheries productivity, and moving towards more environmentally friendly and responsible aquaculture. There is a need for reform in both fisheries and aquaculture to reduce their environmental and social impacts. USAID’s experience has shown that well-designed programs can reform capture fisheries management, reducing threats to biodiversity while leading to increased productivity, incomes, and livelihoods. Agency programs have focused on an ecosystem-based approach to management in conjunction with improved governance, secure tenure and access to resources, and the application of modern management practices. -
A COMPARATIVE ACCOUNT of the SMALL PELAGIC FISHERIES in the APFIC REGION by M
A COMPARATIVE ACCOUNT OF THE SMALL PELAGIC FISHERIES IN THE APFIC REGION by M. Devaraj and E. Vivekanandan Central Marine Fisheries Research Institute Cocbin-682014, India Abstract The production of the small pe/agics in the APFIC region was 1.2 mt/sq. km during 1995. Among the four areas in the region, the small pe/agics have registered (i) the maximum annual fluctuations in the western Indian Ocean; (ii) the highest increase duri'}i the past two decades along the west coast of Thailand in the eastern Indian Ocean; and (iii) the consistent decline in the landings during the past one decade along the Japanese coast in the northwest Pacific Ocean. The short rnackerels emerged as the largest fishery in the APFlC region, fom'ing 19.5% of the landings of the small pelagics in 1995. The group consisting afthe sardines and the anchovies has shown clear signs of decline during the past one decade in almost the entire region. Most of the small pelagics have unique biological characteristics such as fast growth, short longevity, late maturity, high nalllral mortality, shoaling behaviour, high fecundity and severe recruitment fluctuations. As many species of the small pelagics undertake migration, collaborative research programmes and close coordination are required among the APFle countries for the stock assessment of all the major species. The management measures under implementation in these countries have been reviewed, with suggestions for regional cooperation for the management of the stocks of the small pelagics. INTRODUCTION The Asia-Pacific Fishery Commission covers four oceanic areas, which have been classified by the FAO as the western Indian Ocean (FAO Statistical Area 51), eastern Indian Ocean (Area 57) , northwest Pacific Ocean (Area 61) and western central Pacific Ocean (Area 71). -
Emerging Risks from Marine Heat Waves
COMMENT DOI: 10.1038/s41467-018-03163-6 OPEN Emerging risks from marine heat waves Thomas L. Frölicher1,2 & Charlotte Laufkötter 1,2 Recent marine heat waves have caused devastating impacts on marine ecosystems. Sub- stantial progress in understanding past and future changes in marine heat waves and their risks for marine ecosystems is needed to predict how marine systems, and the goods and 1234567890():,; services they provide, will evolve in the future. Extreme climate and weather events shape the structure of terrestrial biological systems and affect the biogeochemical functions and services they provide for society in a fundamental manner1. There is overwhelming evidence that atmospheric heat waves over land are changing under global warming, increasing the risk of severe, pervasive and in some cases irreversible impacts on natural and socio-economic systems2. In contrast, we know little how extreme events in the ocean, especially those associated with warming will change under global warming, and how they will impact marine organisms. This knowledge gap is of particular concern as some of the recent observed marine heat waves (MHWs) demonstrated the high vulnerability of marine organisms and ecosystems services to such extreme climate events. Definition, observations, and key processes A marine heat wave is usually defined as a coherent area of extreme warm sea surface tem- perature (SST) that persists for days to months3. MHWs have been observed in all major ocean basins over the recent decade, but only a few MHWs have been documented and analyzed extensively (Fig. 1). One of the first MHW that has been characterized in the literature occurred in 2003 in the northwestern Mediterranean Sea with SSTs reaching 3–5 °C above the 1982–2016 reference period4. -
A Study of Hydrodynamic and Coastal Geomorphic Processes in Küdema Bay, the Baltic Sea
Coastal Engineering 187 A study of hydrodynamic and coastal geomorphic processes in Küdema Bay, the Baltic Sea Ü. Suursaar1, H. Tõnisson2, T. Kullas1, K. Orviku3, A. Kont2, R. Rivis2 & M. Otsmann1 1Estonian Marine Institute, University of Tartu, Estonia 2Instititute of Ecology, Tallinn Pedagogical University, Estonia 3Merin Ltd., Estonia Abstract The aim of the paper is to analyze relationships between hydrodynamic and geomorphic processes in a small bay in the West-Estonian Archipelago. The area consists of a Silurian limestone cliff exposed to storm activity, and a dependent accumulative distal spit consisting of gravel and pebble. Changes in shoreline position have been investigated on the basis of large-scale maps, aerial photographs, topographic surveys and field measurements using GPS. Waves and currents were investigated using a Recording Doppler Current Profiler RDCP-600 deployed into Küdema Bay in June 2004 and the rough hydrodynamic situation was simulated using hydrodynamic and wave models. The main hydrodynamic patterns were revealed and their dependences on different meteorological scenarios were analyzed. It was found that due to exposure to prevailing winds (and waves induced by the longest possible fetch for the location), the spit elongates with an average rate of 14 m/year. Major changes take place during storms. Vitalization of shore processes is anticipated due to ongoing changes in the regional wind climate above the Baltic Sea. Keywords: shoreline changes, currents, waves, sea level, hydrodynamic models. 1 Introduction Estonia has a relatively long and strongly indented shoreline (3794 km; Fig. 1), therefore the knowledge of coastal processes is of large importance for WIT Transactions on The Built Environment, Vol 78, © 2005 WIT Press www.witpress.com, ISSN 1743-3509 (on-line) 188 Coastal Engineering sustainable development and management of the coastal zone. -
Geology of Hawaii Reefs
11 Geology of Hawaii Reefs Charles H. Fletcher, Chris Bochicchio, Chris L. Conger, Mary S. Engels, Eden J. Feirstein, Neil Frazer, Craig R. Glenn, Richard W. Grigg, Eric E. Grossman, Jodi N. Harney, Ebitari Isoun, Colin V. Murray-Wallace, John J. Rooney, Ken H. Rubin, Clark E. Sherman, and Sean Vitousek 11.1 Geologic Framework The eight main islands in the state: Hawaii, Maui, Kahoolawe , Lanai , Molokai , Oahu , Kauai , of the Hawaii Islands and Niihau , make up 99% of the land area of the Hawaii Archipelago. The remainder comprises 11.1.1 Introduction 124 small volcanic and carbonate islets offshore The Hawaii hot spot lies in the mantle under, or of the main islands, and to the northwest. Each just to the south of, the Big Island of Hawaii. Two main island is the top of one or more massive active subaerial volcanoes and one active submarine shield volcanoes (named after their long low pro- volcano reveal its productivity. Centrally located on file like a warriors shield) extending thousands of the Pacific Plate, the hot spot is the source of the meters to the seafloor below. Mauna Kea , on the Hawaii Island Archipelago and its northern arm, the island of Hawaii, stands 4,200 m above sea level Emperor Seamount Chain (Fig. 11.1). and 9,450 m from seafloor to summit, taller than This system of high volcanic islands and asso- any other mountain on Earth from base to peak. ciated reefs, banks, atolls, sandy shoals, and Mauna Loa , the “long” mountain, is the most seamounts spans over 30° of latitude across the massive single topographic feature on the planet. -
Coastal Dunes
BIOLOGICAL RESOURCES OF THE DEL MONTE FOREST COASTAL DUNES DEL MONTE FOREST PRESERVATION AND DEVELOPMENT PLAN Prepared for: Pebble Beach Company Post Office Box 1767 Pebble Beach, California 93953-1767 Contact: Mark Stilwell (831) 625-8497 Prepared by: Zander Associates 150 Ford Way, Suite 101 Novato, California 94945 Contact: Michael Zander July 2001 Zander Associates TABLE OF CONTENTS List of Figures and Plates 1.0 Introduction .................................................................................................................1 2.0 Overview of Dunes within the DMF Planning Area...................................................2 2.1 Remnant Dunes .......................................................................................................2 2.2 Rehabilitation Area..................................................................................................4 2.3 ESHA Boundary......................................................................................................6 3.0 Relationship to the DMF Plan .....................................................................................8 3.1 Preserve Areas (Area L and Signal Hill Dune) .......................................................8 3.2 Development Areas (New Golf Course and Facilities—Areas M & N).................8 3.2.1 General Design Considerations .......................................................................8 3.2.2 Golf Course Specific Design...........................................................................9 3.2.3 Golf -
Sustainable Seafood Campaign
Sustainable Seafood Campaign Overfishing and destructive fishing are among the most significant threats facing our oceans. The UN reports that three-quarters of global fish stocks are either fully exploited or overexploited. Scientists estimate that 90% of top marine predators such as tuna and sharks are already gone. Pirate fishing, estimated to account for up to a third of the global catch, is notorious for targeting at-risk populations and using highly destructive methods. Destructive fishing indiscriminately kills “non-target” species, including marine mammals and seabirds, and destroys habitats that marine species depend on for survival. In addition to the direct and cascading effects on marine ecosystems, overfishing and destructive fishing make our ocean ecosystems more vulnerable to global warming. If current trends continue, scientists predict global fisheries will collapse in forty years. U.S. consumers buy half their seafood at supermarkets, to the tune of $16 billion every year. As consumer interest in sustainable products has grown, so have retailer efforts to promote their eco-friendly initiatives. Yet, few supermarkets have made significant efforts to improve their seafood sustainability. Greenpeace is calling on supermarkets to sell only sustainable seafood and to support positive reforms in fisheries management. By doing so, supermarkets will do their part to help avert the crisis facing our oceans while ensuring their customers quality fish from sustainable fisheries for years to come. Supermarkets have enormous purchasing power, and are well positioned to influence the way the fishing industry operates. What You Can Do! Greenpeace needs your help monitoring supermarket seafood policies and practices. The information you gather will be used to update our supermarket scorecard. -
Why Study Bycatch? an Introduction to the Theme Section on Fisheries Bycatch
Vol. 5: 91–102, 2008 ENDANGERED SPECIES RESEARCH Printed December 2008 doi: 10.3354/esr00175 Endang Species Res Published online December xx, 2008 Contribution to the Theme Section ‘Fisheries bycatch problems and solutions’ OPENPEN ACCESSCCESS Why study bycatch? An introduction to the Theme Section on fisheries bycatch Candan U. Soykan1,*, Jeffrey E. Moore2, Ramunas ¯ 5ydelis2, Larry B. Crowder2, Carl Safina3, Rebecca L. Lewison1 1Biology Department, San Diego State University, 5500 Campanile Dr., San Diego, California 92182-4614, USA 2Center for Marine Conservation, Nicholas School of the Environment, Duke University Marine Laboratory, 135 Duke Marine Lab Road, Beaufort,North Carolina 28516, USA 3Blue Ocean Institute, PO Box 250, East Norwich, New York 11732, USA ABSTRACT: Several high-profile examples of fisheries bycatch involving marine megafauna (e.g. dolphins in tuna purse-seines, albatrosses in pelagic longlines, sea turtles in shrimp trawls) have drawn attention to the unintentional capture of non-target species during fishing operations, and have resulted in a dramatic increase in bycatch research over the past 2 decades. Although a number of successful mitigation measures have been developed, the scope of the bycatch problem far exceeds our current capacity to deal with it. Specifically, we lack a comprehensive understanding of bycatch rates across species, fisheries, and ocean basins, and, with few exceptions, we lack data on demographic responses to bycatch or the in situ effectiveness of existing mitigation measures. As an introduction to this theme section of Endangered Species Research ‘Fisheries bycatch: problems and solutions’, we focus on 5 bycatch-related questions that require research attention, building on exam- ples from the current literature and the contributions to this Theme Section. -
Pebble Beach Company, Mo
STATE OF CALIFORNIA—NATURAL RESOURCES AGENCY EDMUND G. BROWN JR., GOVERNOR CALIFORNIA COASTAL COMMISSION CENTRAL COAST AND NORTH CENTRAL COAST DISTRICT OFFICES 725 FRONT STREET, SUITE 300 SANTA CRUZ,F12 CA 95060 PHONE: (831) 427-4863 FAX: (831) 427-4877 WEB: WWW.COASTAL.CA.GOV F12b Filed: 11/29/2012 Action Deadline: 5/28/2013 90-Day Extension: 8/26/2013 Staff: J.Manna - SF Staff Report: 5/23/2013 Hearing Date: 6/14/2013 STAFF REPORT: CDP HEARING Application Number: 3-12-030 Applicant: Pebble Beach Company Project Location: Two bluff locations adjacent to the Pebble Beach Golf Links 18th Hole: one along the 18th Fairway and a second fronting the Stillwater Cove Shoreline Overlook (at the Sloat Building). Both locations on the bluffs seaward of The Lodge at Pebble Beach complex off of 17-Mile Drive in the Pebble Beach portion of the unincorporated Del Monte Forest area of Monterey County. Project Description: Remove approximately 150 linear feet of existing armoring (vertical seawall, rip-rap, concrete grouted rip-rap, and concrete) and construct approximately 350 linear feet of new armoring (contoured semi-vertical seawalls), including 200 linear feet at the 18th Fairway and 150 linear feet at the Stillwater Cove Shoreline Overlook. Staff Recommendation: Approval with Conditions. SUMMARY OF STAFF RECOMMENDATION The Pebble Beach Company proposes to remove existing coastal armoring and to construct new armoring seaward of the Stillwater Cove Shoreline Overlook (at the Sloat Building) and seaward 3-12-030 (Pebble Beach Company Seawalls) of the 18th Fairway within the Pebble Beach Lodge complex located near the intersection of Cypress Drive and 17-Mile Drive, in the Pebble Beach area of the Del Monte Forest, Monterey County. -
Ecosystem-Based Fisheries Management Improving the Resilience of Ocean Ecosystems to Support Fish Populations, Coastal Communities
A brief from March 2014 Ecosystem-Based Fisheries Management Improving the resilience of ocean ecosystems to support fish populations, coastal communities The fish on the end of your line, the little forage fish that feed the big fish, the corals that build reef habitats, and the catch of the day in your favorite restaurant are interconnected parts of a vibrant ocean ecosystem. Ensuring the long-term health of important marine species will depend upon our ability to understand and account for the interactions among those species, their environment, and the people who rely upon them for food, commerce, and sport. This comprehensive approach, called ecosystem-based fisheries management, is needed to conserve the healthy ecosystems essential to the sustainability of our fisheries and to deal with the increasingly complex challenges facing our oceans. The United States is a global leader in fisheries management and has made great strides in ending overfishing (the problem of catching fish faster than they can reproduce) and rebuilding vulnerable populations under the Magnuson-Stevens Fishery Conservation and Management Act—the primary law governing U.S. ocean fisheries. In many regions of our nation, this progress has helped reestablish more abundant fish populations and created economic benefits for the fishing industry and coastal communities. Core conservation policies added to the law in 1996 and 2007 are fundamental to improving individual fish populations and returning value to fishermen. We must maintain them as the foundation for sustainable management. But the United States should make the transition from a species-by-species approach to ecosystem-based fisheries management to meet the rising and urgent challenges of damaged ocean environments and dynamic, changing oceans. -
Introduction to Pebble
PEBBLE PROJECT ENVIRONMENTAL BASELINE DOCUMENT 2004 through 2008 CHAPTER 1. INTRODUCTION PREPARED BY: PEBBLE LIMITED PARTNERSHIP INTRODUCTION TABLE OF CONTENTS TABLE OF CONTENTS ............................................................................................................................ 1-i LIST OF TABLES ..................................................................................................................................... 1-ii LIST OF FIGURES ................................................................................................................................... 1-ii ACRONYMS AND ABBREVIATIONS .................................................................................................1-iii 1. INTRODUCTION ............................................................................................................................... 1-1 1.1 Project Location ......................................................................................................................... 1-1 1.2 Place Names .............................................................................................................................. 1-2 1.3 Project History ........................................................................................................................... 1-2 1.4 Pebble Deposit ........................................................................................................................... 1-2 1.5 Project Overview (Basis for Study Design) .............................................................................. -
Towards a Sustainable Fishery: the Price-Cap Approach
Towards a Sustainable Fishery: The Price-Cap Approach Eric M. Singer* Overfishing is the classic tragedy of the commons. So far, governments have pursued a variety of solutions to incentivize sustainable commercial fishing practices, realizing only mixed results. After describing the costs associated with implementing overfishing controls, I propose a new method of regulating commercial fishing: the price cap. This Article explains the theory of how price caps can incentivize sustainable fishing, analyzes the implementation costs associated with price caps, and compares price caps to existing overfishing regulations. Because each fishery is unique, no single method will produce the greatest benefit at the lowest cost in all fisheries. Accordingly, I analyze the factors that might make a fishery a better or worse candidate for the implementation of price caps. I. INTRODUCTION ................................................................................. 254 II. COSTS OF REGULATION .................................................................... 260 A. Transaction Costs ............................................................. 261 B. Enforcement Costs ............................................................ 263 C. Political Costs ................................................................... 265 D. International Cooperation ................................................. 266 E. Substitution Costs ............................................................. 267 F. Skill-Misallocation Costs ................................................