11 nutrição na piscicultura de água doce, com ênfase em tilápia albert tacon

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Fenacam: Foretalza, November 12, 2014 Nutrição na Piscicultura de Água Doce, com Ênfase em Tilápias Freshwater farmed fish nutrition, with emphasis on tilapia Albert G. Tacon & Daniel Lemos Aquatic Farms Ltd, HI 96744 USA & Instituto Oceanográfico, Universidade de São Paulo, São Paulo, Brasil


FARMED FISH PRODUCTION IN 2012 (values given in million metric tonnes; FAO, 2014)

Freshwater Fish

84.7% 37.4 Mt

Tilapia 4.5 Mt

D 10.3% M 4.9%

Chinese carps 12.5 Mt 54.2%

Catfish 3.9 Mt Misc 2.1 Mt

Total farmed fish production 44.15 Million tonnes

Major freshwater fed fish 23.02 Million tonnes


FARMED FISH PRODUCTION IN 2012 (values given in million metric tonnes; FAO, 2014)

APR 2000 to 2012 - % per year Freshwater Fish 6.5% 84.7% 37.4 Mt

11.7% 6.0% D 10.3% M 4.9% 6.9%

Tilapia 4.5 Mt Chinese carps 12.5 Mt 54.2% 5.2%

Catfish 3.9 Mt Misc 2.1 Mt 18.3%

Total farmed fish production 44.15 Million tonnes

Major freshwater fed fish 23.02 Million tonnes

18.1%


TOP FED FISH & CRUSTACEAN SPECIES GROUPS - 2012 Top fed species

20.38 7.66 19.43 6.15 11.26 9.44 6.38 10.48 1.71 3.79 1.37

Top fed species 35,719,025 8.3 % Calculated from FISHSTAT – FAO (2014)

98.06

2 3 4 5 6

7 8 9 10 11

12,473,313 4,506,877 4,327,520 3,909,218 2,294,419 2,181,032 2,135,804 1,827,313 943,259 878,985 241,285

APR (95-12) US $ billion 5.6 % 11.5 % 9.5 % 15.3 % 8.9% 8.5 % 19.3% 18.4 % 5.7 % 4.9 % 1.5 %

1

Chinese carp Tilapia Shrimp Catfishes Salmon Marine fish Misc FW & D fish FW crustaceans Milkfish Trout Eel

Tonnes


Tilapia

1000 METRIC TONNES

Global Aquaculture Production REAL PRICE Source: Kevin Fitzsimmons, 2014

(USD/KG)

6000

8

7

5000

6 4000

5

3000

4

3

2000

2 1000

1

Sources: 1990-2009: FAO and Kevin Fitzsimmons; 2010-2012: Average of Helga Josupeit and Kevin Fitzsimmons estimates; 2013: Kevin Fitzsimmons; Prices US import frozen tilapia Jan- Jun: NMFS

2015F

2014F

2013E

2012

2011

2010

2009

2008

2007

2006

2005

2004

2003

2002

2001

2000

1999

1998

1997

1996

1995

1994

1993

1992

1991

0

1990

0

5


World Tilapia Production of 4,850,000 mt in 2014 1,800,000

Source: Kevin Fitzsimmons, 2014 1,600,000 1,400,000 1,200,000 1,000,000 800,000 600,000 400,000 200,000 0


Source: FAO (2014); Industry partners

250-300,000 mt

Tilapia

2013 150-170,000 mt Cachamas


Dietary nutrient requirements of farmed freshwater species Over 136 farmed freshwater fish species 18 LIVESTOCK species

354 Fish sp - 136 FW sp

8 FW sp


Essential dietary nutrient requirements (NRC,2011) Gross energy - E

Arg

His

18:2n-6

Iso

18:3n-3

Ca

Mg

A

D

Crude protein - CP

Lys

Leu 20:4n-6

P

K

E

20:5n-3 Na

K

B12

Met

Fo

Phe

I

B2

Ch

Thr

Fe B6

In

Val

Try

Sterols

22:6n-3

Cu

B1

Water – H20

Phospholipids

Se

Mn

Pa

Ni

C

Dietary requirement for over 40 + essential nutrients

Zn Bi o


National Research Council – Dietary Nutrient Requirements of Fish & Shrimp

NRC, 2011






(% as is) % dry matter

Arginine Histidine Isoleucine Leucine Lysine Methionine Met + Cys Phenylalanine Phe + Tyr Threonine Tryptophan Valine (Furuya, 2010)

1.2 1.0 1.0 1.9 1.6 0.7 1.0 1.1 1.6 1.1 0.3 1.5 (NRC, 2011)


Nutrient requirements different for different stages of fish life cycle

Source: Ng & Romano, 2013



TILAPIA NUTRITION & FEEDING A SELECTED ANNOTATED BIBLIOGRAPY 1971 - 2014

compiled by

Albert G.J. Tacon, Thiago Raggi & Daniel Lemos Laboratório de Aquicultura Instituto Oceanográfico Universidade de São Paulo São Paulo, Brasil

for

The CNPq Research Project Feeding Tomorrow's Fish: Environmental and Economically Sustainable Aquafeeds and Feeding Regimes

2014

1128p (pdf available)


THE PROBLEM TO DATE: Most nutrient requirement & dietary feeding studies have been performed under temperature controlled clear water conditions: However, the data cannot be directly applied to practical farming conditions depending upon life stage & culture system

Typical Indoor Clear Water Diet Testing Laboratory





Jabotocobal





PANAMA:(September 2002) 1-1.2 Zhou Enhua of ASA/China feeds a soy-based aquafeed to tilapia in a cage feeding trial in southern China.




System


Most reputable feed companies have their own R & D facilities to conduct their own dietary nutrient studies so as to optimise their feeds, reduce fish production costs & maintain profitability & competitiveness



BRASIL



Natural food items - fresh

Samoa



Supplementary feed items

Panama



Complete feeds


TOTAL COMMERICAL AQUAFEED PRODUCTION Estimated at 39.62 million tonnes (Mt) in 2012, and expected to rise to 49.74 Mt by 2015, 65.40 Mt by 2020, and 87.14 Mt by 2025

2012 estimated feed production

Freshwater crustaceans 4,5% Fed carp 27,8% Shrimp 15,6%

Tilapia 16,8%

Marine fish 7,5%

Eels 0,9% Milkfish 2,2% Trout Salmon 2,9% 7,5%

Catfish 10,8%

Misc freshwater fishes 3,3%

Chinese carp Tilapia Shrimp Catfish Marine fish Salmon FW crustaceans Oth FW & D fish Trout Milkfish Eels

11.03 Mt 6.67 Mt 6.18 Mt 4.27 Mt 2.98 Mt 2.98 Mt 1.80 Mt 1.31 Mt 1.14 Mt 0.89 Mt 0.37 Mt

Total

39.62 Mt Tacon et al. 2014


Estimated global fed species & aquafeed production (x ,000 tonnes) Fed finfish & crustacean production APR 8.3% 1995-2012 Finfish & crustacean aquafeed production APR 10.3% 1995-2012 100.000

87,136

APR fish & crustacean production 5.4%/year 2012-2025 APR aquafeed production 6.2%/year 2012-2025

90.000 80.000

65,401

70.000

60.000

49,736

50.000

39,617

40.000

30.000 20.000 10.000

0 1995

2000

2005 Fed fish production

2010

2015

Aquafeed production

2020

2025


Global demand for feed ingredients by aquaculture in 2012: 40 Mt Species demand depends on species feeding habit & culture system

1. Herbivorous/omnivorous finfish species: carps, tilapia, catfish - total feed 24 Mt; most flexible in feed ingredient choices 2. Crustacean species: shrimp, crabs, crayfish - total feed 8 Mt; less flexible, but depends upon culture system 3. Carnivorous finfish species: salmonids, marine fish & other fish - total feed 8 Mt; least flexible, most reliant marine ingredients


Fishmeal is more than just protein …is a complete feed for many carnivorous finfish & crustaceans – High protein content (60-70%) – Well balanced amino acid profile (Lys, Met, Tau)

– Good source of nucleotides – Rich source of marine lipids and energy – Good source of omega-3 fatty acids (EPA, DHA) – Good source of phospholipids & sterols – Good source of minerals – Ca, P, Mg, K, Se, I, Zn Fish & shrimp have a – Absence of anti-nutritional factors dietary requirement for – Good palatability

– Contains many bioactive micro-nutrients

… and as such is a highly sought after ingredient for use in aquafeeds

nutrients not ingredients Replacing fishmeal is not just about balancing EAA: other nutrients also needed - Mins, EFA, etc


Fish oil is more than just oil ‌rich source of highly digestible energy & essential fat sol nutrients for carnivorous finfish & crustaceans - Richest source of LC-PU EFA belonging to the linolenic or n-3 series, namely EPA (20:5n-3) & DHA (22:6n-3). - Rich source of PUFA & highly digestible energy - Rich source of phospholipids - Rich source of sterols, including cholesterol - Rich source fat sol vitamins A, D & tocopherols, choline & inositol (depending upon species) - Crustacean oils rich source of carotenoids - Good palatability

‌ and as such is a highly sought after ingredient for use in marine fish and crustacean aquafeeds

Fish & shrimp have a dietary requirement for nutrients not ingredients Replacing fish oil is not just about balancing EFA: other nutrients such as cholesterol, vitamins A & D, phospholipids, choline, inositol, other sterols & steroids


Ingredients commonly used in feeds for HERBIVOROUS/OMNIVOROUS FISH

Aquatic protein meals & oils

0-5%

Fishmeals & oil: wild & farmed

0-5

Squid meal, krill meal

1-5

Seaweed meals & products

1-5

Cultured microbial biomass

0-5

Terrestrial animal proteins & oils

5-15%

Poultry by-products

5-15

Porcine by-products

5-10

Ruminant by-products

5-10

Terrestrial invertebrates

1-5

Terrestrial plant proteins & oils

15-30%

Oilseed protein by-products

10-35

Cereal protein by-products

5-15

Pulse protein by-products

5-15

Other plant proteins

5-15

Other plant meals & fillers

25-50%

Minerals, trace elements, salt

Cereal meals & by-products

25-50

Amino acids, nucleotides, feeding attractants

Root meals & extracts

5-15

Gut modifiers, prebiotics, probiotics, acidifiers

Fruit meals & by-products

1-5

Immune enhancers, anti-fungal, anti-viral, anti-parasitical

Forage & leaf meals

1-5

Binders, growth promoters, hormones, antibiotics

Feed additives

0-5%

Vitamins, antioxidants & pigments


Final feed ingredient choice considerations: Nutritional profile          

Proximate composition Amino acid profile Fatty acid profile Energy content Mineral profile Vitamin profile Nutrient digestibility Anti-nutritional factors Contaminants Physical characteristics

Economic & market factors

 Price  Market availability  Feed related market acceptability & sustainability issues      

Use of rendered products Use of GM & nGM ingredients Feed, Food or Fuel use Fishmeal & fish oil use Environmental footprint Greenhouse gases


Feed additives & health promoting compounds: -

Gut flora modifiers, Prebiotics, Probiotics Immune enhancers, Nucleotides, Yeast extracts Antibacterial, Antiviral, Anti-paratsitic compounds Acidifiers, Enzymes, Botanicals, Pigments, Amino acids


Improving feed grade sources Use of renewable nutrient sources EXOGENOUS ENZYMES • Releasing nutrient trapped in complex biopolymers • Breakdown of anti-nutrients • Reducing residues from farming operations (environment) • Assisting in gut health • Improving feed consistency Phytase Xylanase

β – glucanase Cellulase

Amylase Protease

Lipase Micotoxinase

Mannanase α - galactosidase


EXOGENOUS ENZYMES – aquatic species

Enzyme

Application

Benefit

Release of phytate-bound phosphorus and other nutrients

Improved mineral digestibility, weight gain and feed efficiency

Access to potential energy and nutrient sources in plant ingredients

Improved nutrient digestibility, weight gain

- Starch degrading

Access to potential energy related to starch nature, particle and cooking

Improved nutrient digestibility, weight gain

Proteases

Inactivating proteinaceous anti-nutrientes, assisnting endogenous digestion

Improved nutrient digestibility, feed efficiency

Micotoxin degrading enzymes

Feed safety

Phytases

Carbohydrases - Fiber degrading

Micotoxinases


Positive effects of dietary phytase supplementation upon digestibility tilapia (Lemos & Tacon, in prep.). Species

Diet composition

Phytase source/ application method

Inclusion level (FTU/kg)

Digestibility improvement

Reference

A. niger/ NS

1000

Phosphorus (>100%)

Silva et al. (2005)

Maize, sorghum, rice, A. niger/ added to 1000, 2000 wheat, soybean, sunflower ingr. mix & cottonseed (at 60% of reference diet)

Manganese, copper, zinc, magnesium (20 to >100%) at 1000 & sometimes 2000 FTU/kg

Gonรงalves et al. (2005)

Mayze, sorghum, rice, A. niger/ added to 1000, 2000 wheat, soybean,sunflower ingr. mix and ottonseed ingredients (at 60% upon eference diet)

Phosphorus, 1000 FTU/kg Gonรงalves (sunflower & extruded soybean et al. meal: 23-27%), 2000 FTU/kg (corn, (2007) sorghum, rice & soybean meal: >100%)

24% soybean meal, 22% corn, 32% wheat and 11% wheat gluten

GM Hansemula 500 to 1250 polymorpha or GM A. oryzae expressed in Peniphora lycci

Positive dose-response up to 1000 Liebert and FTU/kg:Phosphorus (65%)up to 750 Portz FTU/kg:Protein (4%) Calcium (50%) (2007)

48% broken rice, 42% soybean meal

A. niger/spray

Positive dose-response:protein (2%)up to 500 FTU/kg: phosphorus (6%)

Nile tilapia 35% corn, 30% soybean (juvenile) meal & 10% wheat

250 to 1000

Silva et al. (2007)


Positive effects of ingredient pretreatment or dietary phytase supplementation upon weight gain and feed efficiency in tilapia (Lemos & Tacon, in prep). Species

Ingredient/diet composition

Phytase source/ application method

Inclusion Performance level improvement (FTU/kg)

Reference

Nile tilapia (juvenile)

Soybean meal and corn based Diets

NS/direct inclusion with ingredients

1000

Portz & Liebert (2004)

Soybean meal & corn based diets

A. oryzae 500-1000 Weight gain (750 FTU/kg Liebert & (produced with H. polymorpha & 500 Portz (2005) through FTU/kg with A. oryzae)and Peniophora lycci) feed efficiency (500 and Hansenula FTU/kg with H. polymorpha/NS polymorpha & 1000 FTU/kg with A. oryzae)

Plant based diets A. niger/ sprayed 500 onto pellets

Weight gain & feed Efficiency

Weight gain & feed efficiency

Silva et al. (2007)


Importance of bench marking – look at existing commercial feeds, those at are working better (compared with those that are not), look at existing nutrient profiles (including EAA profiles), look at ingredient digestibility; every batch is different, use of NIRs, in-vitro digestibility methods, in-vivo digestibility

IN VITRO (digestion): determining the potential for enzymatic digestion in a “test- tube�


In vitro protein digestion of ingredients for tilapia feeds

(Yasumaru & Lemos, 2014)


Jabotocobal


Piracicabal

Ubatuba


Ubatuba


Amino acid availability of some ingredients for tilapia (%)

Arginine Cysitine Histidine Isoleucine Leucine Lysine Methionine Phenylalanine Threonine Tryptophane Tyrosine Valine

CGM

FM

CSM

MBM

FeM

PBM

SBM

WG

89 87 90 90 88 88 94 90 89 ND 86 89

92 90 92 91 91 91 94 90 90 ND 91 90

90 88 82 86 81 69 82 70 74 88 84 81

87 93 85 77 82 83 95 84 79 81 76 82

85 82 78 82 80 86 95 78 75 78 68 74

91 97 97 91 88 96 97 95 86 93 91 81

89 86 89 86 87 83 84 86 87 ND 86 84

97 ND 95 92 97 95 97 97 94 ND 96 94

Source: NRC (2011). Apparent availability values for O. niloticus using dietary markers. CGM = corn gluten meal, FM = fish meal (anchoveta), CSM = cottonseed meal, MBM = meat and bone meal, FeM = feather meal, PBM = poultry by-product meal, SBM = soybean meal, WG = wheat gluten. Values refer exclusively to tested ingredients. ND: not determined. Further references on amino acid availability in tilapia: Furuya et al. (2001), Freire et al. (2005), Guimar達es et al. (2008, 2012), Ribeiro et al. (2011).


Million tonnes

Fishmeal production Source: Ababouch (2013

From whole fish El Ni単o





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Food grade


Turn them into food grade by-products for direct human consumption




Indonesia



HYDROPONICS – nutrient recycling


MAIN FACTORS INFLUENCING ON-FARM SHRIMP FEED PERFORMANCE

20/100

20/100 Pond Biota & culture environment

v

Feed formulation & nutrient content Feed processing & physical property

On-farm feed feeding method & staffing

20/100

Feed transportation & storage method

20/100

20/100


Complete feeds


Fines/dust


Estimated production of compound aquafeeds 1995-2010 Production (thousand tonnes)

40.000 35.000

Compound aquafeed production up 284% since 1995 Mean APR 1995 to 2010 – 10.7%/year Total estimated production in 2010 - 35,298,000 tonnes

30.000 25.000 20.000 15.000 10.000

5.000 0 1995 1996 1997 1998 1999 2000 2001 2002 2003 2004 2005 2006 2007 2008 2009 2010

Fed carp Misc Freshwater fishes Milkfish Shrimp

Tilapia Salmon Eels Freshwater crustaceans

Catfishes Trout Marine fish

Source: adapted from Tacon et al. (2011)














The importance of supporting applied research in finding solutions so as to sustain the continued growth & further development of the aquaculture sector


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