The NMFS Commercial Fishing & Seafood Industry Input/Output Model
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Commercial Fishing Seasons in Alaska
Cook Inlet Yakutat SALMON JAN FEB MAR APR MAY JUNE JULY AUG SEPT OCT NOV DEC SALMON JAN FEB MAR APR MAY JUNE JULY AUG SEPT OCT NOV DEC Upper Cook Inlet coho Set Gillnet Commercial Fishing Chinook Gillnet sockeye Set Gillnet coho Gillnet SHELLFISH JAN FEB MAR APR MAY JUNE JULY AUG SEPT OCT NOV DEC pink Gillnet red/blue king crab Pot Seasons in Alaska Gillnet sockeye shrimp Pot/Trawl Pot/Trawl chum Gillnet scallop Dredge Dredge Lower Cook Inlet JAN FEB MAR APR MAY JUNE JULY AUG SEPT OCT NOV DEC pink Gillnet/Seine GROUNDFISH Alaska Department of Fish and Game sockeye Gillnet/Seine Pacific cod Longline/Jig/Pot Division of Commercial Fisheries chum Gillnet/Seine rockfish Jig P.O. Box 115526 HERRING JAN FEB MAR APR MAY JUNE JULY AUG SEPT OCT NOV DEC lingcod Jig Juneau, AK 99811-5526 sac roe and food/bait Gillnet (907) 465-4210 SHELLFISH JAN FEB MAR APR MAY JUNE JULY AUG SEPT OCT NOV DEC Southeast Alaska https://www.adfg.alaska.gov razor clam Shovel SALMON JAN FEB MAR APR MAY JUNE JULY AUG SEPT OCT NOV DEC hardshell clam Rake Chinook Winter Troll Spring Troll Summer Troll Winter Troll scallop Dredge This summary is intended as a general guide only and is non-bind- coho Seine/Gillnet/Troll GROUNDFISH JAN FEB MAR APR MAY JUNE JULY AUG SEPT OCT NOV DEC ing. For detailed regulatory information refer to local area offices. pink Seine/Gillnet Pacific cod Parallel State waters (Pot/Jig) Parallel sockeye Seine/Gillnet Season lengths indicated in this summary are subject to closure rockfish Bycatch only (mand. -
Fish and Fishery Products Hazards and Controls Guidance Fourth Edition – APRIL 2011
SGR 129 Fish and Fishery Products Hazards and Controls Guidance Fourth Edition – APRIL 2011 DEPARTMENT OF HEALTH AND HUMAN SERVICES PUBLIC HEALTH SERVICE FOOD AND DRUG ADMINISTRATION CENTER FOR FOOD SAFETY AND APPLIED NUTRITION OFFICE OF FOOD SAFETY Fish and Fishery Products Hazards and Controls Guidance Fourth Edition – April 2011 Additional copies may be purchased from: Florida Sea Grant IFAS - Extension Bookstore University of Florida P.O. Box 110011 Gainesville, FL 32611-0011 (800) 226-1764 Or www.ifasbooks.com Or you may download a copy from: http://www.fda.gov/FoodGuidances You may submit electronic or written comments regarding this guidance at any time. Submit electronic comments to http://www.regulations. gov. Submit written comments to the Division of Dockets Management (HFA-305), Food and Drug Administration, 5630 Fishers Lane, Rm. 1061, Rockville, MD 20852. All comments should be identified with the docket number listed in the notice of availability that publishes in the Federal Register. U.S. Department of Health and Human Services Food and Drug Administration Center for Food Safety and Applied Nutrition (240) 402-2300 April 2011 Table of Contents: Fish and Fishery Products Hazards and Controls Guidance • Guidance for the Industry: Fish and Fishery Products Hazards and Controls Guidance ................................ 1 • CHAPTER 1: General Information .......................................................................................................19 • CHAPTER 2: Conducting a Hazard Analysis and Developing a HACCP Plan -
Oyster Aquaculture Production Systems
UNIVERSITY OF MARYLAND EXTENSION //////////// extension.umd.edu ///////////////////////////////////////////////////////////////////////////////////////////////////////////// EM- 7 | November 2019 //////////// Oyster Aquaculture Production Systems Growers have cultured oysters for thousands of years and used Many Factors will Influence the System You many methods to raise them. The methods are based on the Choose to Raise Oysters technology, materials, species, environmental conditions, labor and other parameters available in the area where oysters are Before making a choice, investigate as many different systems raised. as you can, keeping in mind the location of your farm, Some growers will let you visit their operation or you may be “You don’ t make money familiar with local farms already in production. Oyster farmers raising oysters; you make are often comfortable showing methods and equipment they money by selling them. ” use because they know that expanding production benefits the entire industry. As a longtime grower once said, “What makes While there are many methods used to raise oysters, not all are my company profitable doesn’t show up in photos – it’s the profitable for Maryland growers. Profitable operation is the most management of the business that makes it successful.” important part of a successful aquaculture business. As a grower, you should make decisions based on sound business practices. Information, advice and training are available through Your target markets will also determine the best methods of University of Maryland Extension specialists. Workshops and oyster production. Oysters produced specifically for the seminars are held throughout the year on such topics as half-shell or raw bar trade are often cultchless. They are production systems, business management and seafood produced by setting larvae on small shell pieces rather than technology to provide the training necessary for industry growth multiple animals on a single shell as is done for bottom leases. -
Thailand's Shrimp Culture Growing
Foreign Fishery Developments BURMA ':.. VIET ,' . .' NAM LAOS .............. Thailand's Shrimp ...... Culture Growing THAI LAND ,... ~samut Sangkhram :. ~amut Sakorn Pond cultivation ofblacktigerprawns, khlaarea. Songkhla's National Institute '. \ \ Bangkok........· Penaeus monodon, has brought sweep ofCoastal Aquaculture (NICA) has pro , ••~ Samut prokan ing economic change over the last2 years vided the technological foundation for the to the coastal areas of Songkhla and establishment of shrimp culture in this Nakhon Si Thammarat on the Malaysian area. Since 1982, NICA has operated a Peninsula (Fig. 1). Large, vertically inte large shrimp hatchery where wild brood grated aquaculture companies and small stock are reared on high-quality feeds in .... Gulf of () VIET scale rice farmers alike have invested optimum water temperature and salinity NAM heavily in the transformation of paddy conditions. The initial buyers ofNICA' s Thailand fields into semi-intensive ponds for shrimp postlarvae (pI) were small-scale Nakhon Si Thammarat shrimp raising. Theyhave alsodeveloped shrimp farmers surrounding Songkhla • Hua Sai Songkhla an impressive infrastructure ofelectrical Lake. .. Hot Yai and water supplies, feeder roads, shrimp Andaman hatcheries, shrimp nurseries, feed mills, Background Sea cold storage, and processing plants. Thailand's shrimp culture industry is Located within an hour's drive ofSong the fastest growing in Southeast Asia. In khla's new deep-waterport, the burgeon only 5 years, Thailand has outstripped its Figure 1.-Thailand and its major shrimp ing shrimp industry will have direct competitors to become the region's num culture area. access to international markets. Despite ber one producer. Thai shrimp harvests a price slump since May 1989, expansion in 1988 reached 55,000 metric tons (t), onall fronts-production, processingand a 320 percent increase over the 13,000 t marketing-continues at a feverish pace. -
Fishery Basics – Seafood Markets Types of Fishery Products
Fishery Basics – Seafood Markets Types of Fishery Products Fish products are highly traded and valuable commodities around the world. Seafood products are high in unsaturated fats and contain many proteins and other compounds that enhance good health. Fisheries products can be sold as live, fresh, frozen, preserved, or processed. There are a variety of methods to preserve fishery products, such as fermenting (e.g., fish pastes), drying, smoking (e.g., smoked Salmon), salting, or pickling (e.g., pickled Herring) to name a few. Fish for human consumption can be sold in its entirety or in parts, like filets found in grocery stores. The vast majority of fishery products produced in the world are intended for human consumption. During 2008, 115 million t (253 billion lbs) of the world fish production was marketed and sold for human consumption. The remaining 27 million t (59 billion lbs) of fishery production from 2008 was utilized for non-food purposes. For example, 20.8 million t (45 billion lbs) was used for reduction purposes, creating fishmeal and fish oil to feed livestock or to be used as feed in aquaculture operations. The remainder was used for ornamental and cultural purposes as well as live bait and pharmaceutical uses. Similar to the advancement of fishing gear and navigation technology (See Fishing Gear), there have been many advances in the seafood-processing sector over the years. Prior to these developments, most seafood was only available in areas close to coastal towns. The modern canning process originated in France in the early 1800s. Cold storage and freezing plants, to store excess harvests of seafood, were created as early as 1892. -
Vocational Education and Fisheries S, N. Dwivedi & V. Ravindranathan
Vocational education and fisheries Item Type article Authors Dwivedi, S.N.; Ravindranathan, V. Download date 24/09/2021 18:45:18 Link to Item http://hdl.handle.net/1834/31676 Journal of the Indian Fisheries Association 8+9, 1978-79, 65-70 VOCATIONAL EDUCATION AND FISHERIES S, N. DWIVEDI & V. RAVINDRANATHAN Central Institute of Fisheries Education Versova, Bombay-400 067. ABSTRACT The knowledge and skill of the poople are important tools for the development of natural resources and for the prosperty of any country. The quality of education is judged not only from the inquistiveness and knowiedge it can impart but also from it's usefulees in meeting the urgent economic problems of the country. Vocational Courses in fisheries are offered in four states. The technologies in fisheries developed offer good scope for Vocational training for self employment. There is an urgent need to have radical revision of the course content to make the students vocationaliy competent. FISHERIES EDUCATION — STATE OF ART : Recognising the need to study, assess and develop the fishery resources of the country, Govt. of India established the Central Marine Fisheries Research Institute (CMFRI) Cochin; Central Inland Fisheries Risearch Institute (CIFRI) Barrackpore, Central Institute of Fisheries Technology (CIFI) Cochin and Deep Sea Fishing Station, Bombay soon after the Independence. Since then, the fish production trend in the country has been encouraing. The annual fish production has increased from 0.5 million tons in 1950, to 2.6 million tons in 1983. Although the rate of increase has been fairly good, the per capita consumption of fish, even now, is less than 5 kg/yr. -
Spawning and Rearing Bivalve Molluscs—Spawning1 R
FA174 Teach Aquaculture Curriculum: Spawning and Rearing Bivalve Molluscs—Spawning1 R. Leroy Creswell, Cortney L. Ohs, Craig S. Kasper, Elisa J. Livengood, Amber L. Garr, Brian E. Myers, Carlos V. Martinez, and Frank A. Chapman2 This is Activity 12 in a series of 25 in the Teach Aquaculture Grade Level Curriculum.The introduction to this series is available at 9–12 http://edis.ifas.ufl.edu/FA177. Abstract Subject Area Biology, Aquaculture In this activity students will learn methods for spawning bivalve molluscs like clams or oysters using temperature manipulation. Students will use an ocular micrometer to Time measure the diameter of bivalve eggs and the length of Preparation: Spawning—indeterminant; daily exchange 10 bivalve larvae. The following lesson plan will have students minutes monitor the density of larvae in their culture system and Activity: Spawning—indeterminant; daily exchange 20 understand production protocols used in bivalve hatcheries. minutes Clean-up: 10 minutes Objectives Students will be able to: Student Performance Standards (Sunshine State Standards) 1. Describe the reproductive biology and spawning of bivalve molluscs. 06.03 Illustrate correct terminologies for animal species and conditions (e.g., sex, age, etc.) within those species 2. Apply techniques used for spawning molluscs. (LA.910.1.6.1, 2, 3, 4, 5; SC.912.L.14. 19, 31, 33). 3. Describe the conditions used in hatcheries for commer- cial production of bivalve molluscs. 1. This document is FA174, one of a series of the School of Forest Resources and Conservation, Program in Fisheries and Aquatic Sciences, UF/IFAS Extension. Original publication date May 2010. -
An Overview of the Cuban Commercial Fishing Industry and Implications to the Florida Seafood Industry of Renewed Trade1 Chuck Adams2
Archival copy: for current recommendations see http://edis.ifas.ufl.edu or your local extension office. An Overview of the Cuban Commercial Fishing Industry and Implications to the Florida Seafood Industry of Renewed Trade1 Chuck Adams2 Abstract Introduction The Cuban seafood industry has long been an The commercial fishing industry of Cuba is an important supplier of certain high-valued seafood important source of fisheries products originating products for the world market. In addition, the from the Gulf of Mexico and Caribbean region. Cuba industry has historically played an important role in historically fielded a large distant-water fleet that was providing seafood products for domestic markets in engaged in the harvest of subtropical and temperate Cuba. Assistance from the Soviet Union led to the fisheries stocks. Cuba has more recently played an development of a large distant-water fleet, which increasingly important role in the world market for produced large volumes of low-valued seafood seafood products, particularly for high-valued finfish products. The nearshore fleets continue to produce and shellfish. However, given the evolution in the high-valued species for export markets. The loss of global political environment of the early 1990s, Soviet assistance, following the break up of the Cuba's commercial fishing industry has changed Soviet Union, has dramatically affected the manner dramatically. As a result, production emphasis has in which the Cuban fishing industry is conducted. shifted from high-volume, low-valued pelagic stocks More recently, management of nearshore fleets, to high-valued nearshore fisheries, aquaculture, and associated service industries, and processing facilities shrimp culture. -
Microencapsulated Diets to Improve Bivalve Shellfish Aquaculture For
Global Food Security 23 (2019) 64–73 Contents lists available at ScienceDirect Global Food Security journal homepage: www.elsevier.com/locate/gfs Microencapsulated diets to improve bivalve shellfish aquaculture for global food security T ∗ David F. Willer , David C. Aldridge Department of Zoology, The David Attenborough Building, University of Cambridge, Pembroke Street, Cambridge, CB2 3QY, United Kingdom ARTICLE INFO ABSTRACT Keywords: There is a global need to sustainably increase aquaculture production to meet the needs of a growing population. Microencapsulated diet Bivalve shellfish aquaculture is highly attractive from a human nutrition, economic, environmental and eco- Bivalve shellfish system standpoint. However, bivalve industry growth is falling behind fish aquaculture due to critical problems Food security in the production process. Feed defects, disease, and quality issues are limiting production. New advances in Aquaculture microencapsulation technology have great potential to tackle these problems. Microencapsulated diets could Sustainable efficiently deliver high-quality nutrients, disease control agents, and quality enhancers to bivalves. Microencapsulation has the potential to drive improvements in bivalve production, reduce production costs, enhance human nutrition and minimise impacts on the environment. 1. The global importance of bivalve shellfish aquaculture fastest growing food sector (FAO, 2017; Jacquet et al., 2017; Tacon and Metian, 2013; Troell et al., 2014). However, like terrestrial meat pro- 1.1. Bivalves a strategic food source to sustainably feed a growing global duction aquaculture is currently expanding in an unsustainable way population (Godfray et al., 2010; Jacquet et al., 2017). Production quantity of carnivorous species such as salmon, catfish, and shrimp has ballooned, Over 800 million people worldwide are hungry, one billion have growing 84% over the last decade, and today salmon is the largest inadequate protein intake, and an even greater number suffer from single commodity in aquaculture (FAO, 2017, 2016). -
Fisheries Series Part II: Commercial Policy & Management for Commercial Fishing
SAILFISHVERSION 14 TEENS TAKE ON BILLFISH CONSERVATION FISHERIES SERIES Part II: Commercial POLICY & MANAGEMENT for Commercial Fishing All About AQUACULTURE RECAPTURE MAPS Jr. Angler Profile SALES DE LA BARRE Cutler Bay Academy Welcomes The Billfish Foundation & Carey Chen CONTENTS Inside this issue of Sailfish FFEATURESEATURES 3 Fisheries Series Part II: Commercial Fishing 5 Aquaculture 7 Policy & Management of Commercial Fisheries 8 Commercial Fishing Review Questions 9 Cutler Bay Academy Students Enjoy Visit from TBF & Carey Chen 10 Billfish Advocacy at South Broward High ALSO INSIDE Get Involved: Track your school’s climate impact Recapture Maps Jr Angler Profile – Sales de La Barre We would like to extend our gratitude to the Fleming Family Foundation and the William H. and Mattie Wattis Harris Foundation for their belief in education as an important conservation tool. The Billfish Founation, educators, students, parents, the ocean and the fish are grateful for our sponsors generous donation that made this issue of Sailfish possible. Copyright 2014 • The Billfish Foundation • Editor: Peter Chaibongsai • Associate Editor: Elizabeth Black • Graphic Designer: Jackie Marsolais Sister Publications: Billfish and Spearfish magazines • Published by The Billfish Foundation • For subscription information contact: [email protected] by Jorie Heilman COMMERCIAL FISHING by Jorie Heilman What provides nutrition to 3 billion people gear advanced, humans could pursue food Top left: Aquacage snapper farm. Top right: Korean fishing boat. Below top to bottom: worldwide and is relied upon by 500 sources that were farther off the coast. Fishing boat in India. Commercial longline boat. Fishermen in the Seychelles. Commercial million people for their livelihoods? The Fish traps and nets were among the fishermen on a dock fixing a net. -
Innovation Management in Seafood Industry Sector
Development of Innovation Capabilities in the New Zealand Seafood Industry Sector Andrew Jeffs Principal Scientist, National Institute of Water & Atmospheric Research, P.O. Box 109-695, Auckland, New Zealand Email: [email protected] Shantha Liyanage Associate Professor, Business School, The University of Auckland, Private Bag 92019, Auckland, New Zealand Email: [email protected] Abstract: Most seafood industries around the world are founded on wild capture fisheries which have been facing a static or declining resource base due to over exploitation. Achieving growth with this restraint is a challenge that seafood enterprises have struggled with globally for more than 20 years. Innovation efforts in this industry have focused on developing new sources of raw material, increasing financial returns through value-adding, increased efficiency of production and management integration. An early change in the management regime for wild fish stocks is identified as the key factor in encouraging innovation in the New Zealand seafood industry. The greater certainty in raw material supply provided by the management regime has enabled seafood enterprises to shift their attention from competing to secure sufficient raw material toward increasing their returns from the raw materials they know will be available to them. This paper examines the dynamics of innovation capability building and provides management directions for enhancing innovation capability in this industry. Overall, it is hoped that this study may help to act as an exemplar for encouraging innovation in other national or regional seafood industries, and for other industries based on renewable natural resources. Keywords: seafood; innovation; Quota Management System; innovation capability, New Zealand; aquaculture; biotechnology; national innovation system. -
Resources for Fish Feed in Future Mariculture
Vol. 1: 187–200, 2011 AQUACULTURE ENVIRONMENT INTERACTIONS Published online March 10 doi: 10.3354/aei00019 Aquacult Environ Interact OPENPEN ACCESSCCESS AS I SEE IT Resources for fish feed in future mariculture Yngvar Olsen* Trondhjem Biological Station, Department of Biology, Norwegian University of Science and Technology, 7491 Trondheim, Norway ABSTRACT: There is a growing concern about the ability to produce enough nutritious food to feed the global human population in this century. Environmental conflicts and a limited freshwater supply constrain further developments in agriculture; global fisheries have levelled off, and aquaculture may have to play a more prominent role in supplying human food. Freshwater is important, but it is also a major challenge to cultivate the oceans in an environmentally, economically and energy- friendly way. To support this, a long-term vision must be to derive new sources of feed, primarily taken from outside the human food chain, and to move carnivore production to a lower trophic level. The main aim of this paper is to speculate on how feed supplies can be produced for an expanding aquaculture industry by and beyond 2050 and to establish a roadmap of the actions needed to achieve this. Resources from agriculture, fish meal and fish oil are the major components of pellet fish feeds. All cultured animals take advantage of a certain fraction of fish meal in the feed, and marine carnivores depend on a supply of marine lipids containing highly unsaturated fatty acids (HUFA, with ≥3 double bonds and ≥20 carbon chain length) in the feed. The availability of HUFA is likely the main constraint for developing carnivore aquaculture in the next decades.