resilient, water- and energy-efficient forage and feed...
TRANSCRIPT
Paolo Annicchiarico
Resilient, water- and energy-efficient forage and feed crops for
Mediterranean agricultural systems (REFORMA)
CRA - Research Centre for Fodder Crops and Dairy Productions, Lodi, Italy
Research Centres
and Units,
Council for Agricultural
Research and Economics
(CRA)
Research Centre for Fodder Crops and Dairy
Productions (CRA-FLC) - Main station of Lodi
Sustain to:
- animal product chains with high added value
(with economic and social implications)
- organic product chains (high feed self-production)
- GM-free production chains (legumes)
Socio-economic importance of crop-livestock systems in the northern regions
Greater farmers’ economic stability, by:
- buffering against economic shocks and crop failures
(through animal sale)
- spreading labour
Meet the increasing demand for animal products
and highly nutritious food
Socio-economic importance of crop-livestock systems in the southern regions
Protein Share of total protein
(g / person /day) from livestock (%)
Country 1995 2005 1995 2005
France 116 115 55 52
Italy 107 113 46 46
Spain 106 108 49 50
Mean 110 112 50 50
Algeria 82 87 22 23
Morocco 80 88 15 16
Tunisia 84 91 19 22
Mean 82 89 19 20
FAO, 2009
Average increase per year, 2000-2011 (%)
Country Algeria Morocco Tunisia
Meat, national production a 1.8 5.2 0.9
Meat, import a 31.6 42.4 13.6
Eggs + dairy national prod. a 6.2 1.1 1.1
Dairy, import a 2.5 4.0 1.1
Soybean (cake + grain), import b 29.5 19.2 17.1
a FAO Statistical Yearbook 2014; b FAO Stat
Soybean import in Southern Europe 2000-2011 (FAO Stat)
Soybean cake price 2000-2015 (Chicago Futures)
Intensive animal production:
based on imported feed
Extensive animal production:
based on waste land and crop residues
- efficient cycling of nutrients, crop residues, sub-products
- reduced greenhouse gas emissions and energy use
(by legume N-fixation and reduced feed transport)
- improved soil fertility, structure, water holding capacity (perennials and legumes)
- lower soil erosion and hydrogeological risk (perennials)
- reduction of cereal monoculture
Ecological services of forage/feed crops and crop-livestock systems
Urea price 2000-2015 (Chicago Futures)
Challenges for Mediterranean crop-livestock systems
Overgrazing and desertification
Source: UNEP, 1997
Overgrazed pastures in Morocco
Increasing drought due to lack of irrigation water and climate change
FAO, 2012
Lucerne grown in an oasis
Temperature difference (°C) 1964-2014
based on linear trends
(http://www.columbia.edu/~mhs119/Temperature/)
Predicted precipitation change (%)
in 2020 and 2050 (Parry, 2005)
-50 -30 -20 -10 0 10 20 30 50
2020
2050
Saline soil, and saline irrigation water
Algerian soils affected by salinization
Resilient, water- and energy-efficient forage and feed crops
for Mediterranean agricultural systems (REFORMA)
General objective
Strengthening the economic and environmental sustainability of Mediterranean
crop-livestock and feed systems, by enhancing their self-sufficiency for feed
proteins and their ability to adapt to and to mitigate climate change
This is pursued by developing more resilient and more water- and energy-efficient
systems based on genetically-improved forage and feed legumes
First ArimNet project call: 86 submitted projects, 10 selected
Partner institutions
1) CRA-FLC, Centro di Ricerca per le Produzioni Foraggere e Lattiero-Casearie, Lodi
2) CNR-ISPAAM, Ist. per il Sistema Produzione Animale in Ambiente Mediterraneo, Sassari
3) INRA-URP3F, U.R. Pluridisciplinaire Prairies et Plantes Fourragères, Lusignan
4) INRA-UMRLEG, U.M.R. en Agroécologie, Dijon
5) INRAA, Institut National de la Recherche Agronomique d’Algérie, Alger
6) ENSA, École Nationale Supérieure Agronomique, Alger
7) INRA, Institut Nationale de la Recherche Agronomique, Centres de Marrakesh et Rabat
8) IRA, Institut des Régions Arides, Médenine
9) The Samuel Roberts Noble Foundation, Ardmore, Oklahoma
Target legume species for breeding work
Lucerne [Alfalfa]
(Medicago sativa)
Pea (Pisum sativum)
Ideal species:
1) widely adapted to soil, climatic, management conditions of Mediterranean areas
2) wide flexibility of utilization
3) drought tolerance and water use efficiency (intrinsically, and by winter-spring cycle)
4) already known by farmers
5) not targeted by ICARDA
6) promising on grounds of available germplasm, prior knowledge, genomic resources
Specific objectivesSpecific objectives
Development of new germplasm:
- lucerne varieties with tolerance to severe drought, salinity, heat and grazing
- pea varieties with drought tolerance, for grain and forage production
Development of innovative selection methods for lucerne and pea:
- cost-efficient marker-assisted and genomic selection procedures
- ecologically-based breeding strategies
Development of innovative lucerne- and pea-based forage crops
(taking account of legume plant types, associated grass or cereal species, drought
stress level of the site, acceptability by farmers, forage quality, target utilization)
Genetic improvement of
forage and feed legumes
WP 1: Ecological breeding
strategies and variety
selection
WP 2: Genomics and definition
of marker-assisted selection
procedures
WP 3: Assessment and
optimization of innovative
legume-based crops
Resilient and productive
lucerne-grass and pea-cereal
forage crops
Ruminant feeding
(cattle, sheep, etc.)
Poultry and
monogastric feeding
High energy and water efficiency of crops; mitigation of climate
change; limitation of overgrazing; diversification and flexibility of farming
systems; improved feeding quality; greater feed security
Resilient and productive
pea grain crops
Research Work Packages (WP)
Pea grain cropsPea-cereal
forage crops
Lucerne-grass
forage crops
Target livestock systems for the improved forage and feed crops
Participation to WP and relationships of Partners
Lucerne phenotyping (WP 1):
CRA-FLC, INRA-MOR, INRAA,
ENSA, IRA, INRA-URP3F
Future genetically-
improved lucerne and
pea varieties
Agronomic and feeding optimization of lucerne- and
pea-based crops (WP 3): CNR-ISPAAM, INRA-MOR,
INRAA, INRA-URP3F
Pea phenotyping (WP 1):
CRA-FLC, INRA-MOR, ENSA
Lucerne genotyping (WP 1):
SNRF, INRA-URP3F,
CRA-FLC
Pea genotyping (WP 1):
INRA-UMRLEG
Lucerne selection (WP 1):
CRA-FLC, INRA-MOR, INRAA,
ENSA, IRA,
Pea selection (WP 1):
CRA-FLC, INRA-MOR, ENSA
Novel strategies for lucerne
breeding (WP 1 e WP 2):
CRA-FLC, SNRF, INRA-URP3F
Novel strategies for pea
breeding (WP 1 e WP 2):
CRA-FLC, INRA-UMRLEG
More productive,
efficient and resilient
forage and feed crops
INRA-UMRLEG CRA-FLC,
Lucerne
Selection, and marker-assisted selection, for adaptation to:
- severe drought (CRA-FLC; INRAA; ENSA; INRA-MOR; Noble F.) (1)
- saline soil and irrigation water (IRA; Noble F.; CRA-FLC) (1)
- moisture-favourable conditions (CRA-FLC; Noble F.) (1)
- continuous grazing (CRA-FLC; INRA-URP3F)* (2)
- mixed cropping with grasses (INRA-URP3F)* (3)
and forage quality (CRA-FLC; Noble F.)* (1)
* Partly funded by other projects (RGV-FAO; EXPOLEG; QUAL&MEDICA)
(1) Genomic selection for parent breeding value (based on half-sib progenies), by SNPs
from Genotyping-by-Sequencing (GBS)
(2) Genotypes for two F1 mapping populations by SSR and SNP or DArT markers;
validation on two independent populations
(3) Genotypes of three connected mapping populations; SSR and SNP or DArT markers
Genetic variation for, and modelling of, response to high temperatures (INRA-URP3F)
Lucerne
Ecological breeding aspects
1) Usefulness of selection in managed drought-stress environments for
geographically-distant target environments
2) Lucerne. Adaptation strategies for stress Mediterranean regions: breeding for wide
or specific adaptation to severe drought, saline and moisture-favourable conditions
drought tolerance
of lucerne
Lucerne drought tolerance evaluation in managed environments
Pea
Selection, and marker-assisted selection, for tolerance to severe drought
(CRA-FLC; ENSA; INRA-MOR; INRA-UMRLEG)*
* Genotyping partly funded by another project (PNSB2)
- Genomic selection by SNPs from GBS (CRA-FLC), and genome-wide association by
SNPs from Infinium Array (INRA-UMRLEG), using 315 lines from 3 connected crosses
- Bulk segregant analysis based on SNP allele frequency comparison of lines selected for
drought tolerance vs. single-seed descent (i.e. non-selected) lines. Stratified mass
selection (from F2 to F4) under controlled severe stress (for each of 3 crosses)
Gene-
ration
Water
Sep-May
(mm)
Mean
yield
(t/ha)
Selected
fraction
F2 250 2.08 30%
F3 200 1.41 20%
F4 180 1.58 10%
In blue: 15 strata of block 1 for cross 1 (30
strata overall); 10 sown plants per stratum
Pea
Ecological breeding aspects
1) Usefulness of evolutionary bulk selection (using stratified mass selection) under
severe drought stress vs. single-seed descent selection, for stress environments
2) Usefulness of selection in managed drought-stress environments for
geographically-distant target environments
Evaluation of 315 pea lines for drought
tolerance in managed environments
WP 3 multi-site experiment
Rainfed pure stands, binary mixtures and complex mixtures of:
- lucerne (erect or semi-erect), with cocksfoot or tall fescue
- pea (tall or semi-dwarf), common vetch or Narbon vetch, with triticale or oat
for forage yield and quality over 3 years and farmer participatory evaluation,
with crops in rotations with wheat (allowing assessment of soil fertility aspect)
Testing sites: 1) Merchouch (Morocco); 2) Sassari (Sardinia); 3) Sétif (Algeria)
Objectives:
a) Optimizing annual and perennial forage crops as a function of:
- the agro-climatic Mediterranean region
- the legume plant type (for lucerne and pea) and species
- the associated grass or cereal species
- the level of mixture complexity
- the usefulness in animal diets
- the acceptability by farmers
b) Comparing best annual vs. perennial crops
c) Defining the agricultural contexts in which each crop may be preferred
Example of one block in one year of WP 3 experiments
Example of Block 1 in the 2 nd year
L1 = Lucerne erect (Mamuntanas)
L2 = Lucerne semi -prostrate
C = Cocksfoot (Jana)
F = Tall fescue (Flecha)
Durum wheat
(N-fertilized, except for one plot)
P1 = Pea semi-dwarf
P2 = Pea tall
N = Narbon vetch
V = Common vetch
O = Oat
T = Triticale
WM 0
L1
C
L2
C
L1
F
L2
C F
L1L2
F
C
L2
F
L1
WMN
= N -fertilized wheat
monoculture
WM0
= No N wheat monoculture
P1
O
V
T
V
O
N
T O
P2
VNV
OT
P2
O
NP1
V
P1
T
N
O
P1P2
OT
P2
TWM 0
WM N
Here annuals, the following year
Here durum, the following year
Grasses (rainfed)
Lucerne (rainfed)
Lucerne (irrigated with summer water withholding)
Lucerne (continuous irrigation)
Sulla (rainfed)
Sulla (irrigated with summer water withholding)
Grasses (rainfed)
Lucerne (rainfed)
Lucerne (irrigated with summer water withholding)
Lucerne (continuous irrigation)
Sulla (rainfed)
Sulla (irrigated with summer water withholding)
Prior knowledge generated by the EU-funded project PERMED
Modelled 3-year forage yield of rainfed cocksfoot cultivars as a function of
spring-summer stress (as Potential EvapoTranspiration – Rainfall)
Project PERMED - Annicchiarico et al., 2011, Env. Exp. Bot. 74: 82-89
7
8
9
10
11
12
13
14
15
16
17
450 500 550 600 650 700 750 800 850
Spring-summer drought stress (mm)
No
min
al yie
ld (
t/h
a)
Kasbah
Delta 1Jana
CurrieOttavaMedly
Porto
Montpellier(south France)
Elvas (centralPortugal)
Alger (coastalAlgeria)
Sétif (inlandAlgeria)
Merchouch(central
Morocco)Sassari
(Sardinia)
subsp. hispanica(complete dormancy)
Mediterranean subsp. glomerata(facultative dormancy)
Continental subsp. Glomerata (non-dormant)
Modelled 3-year forage yield (left) and final persistence (right) of rainfed tall fescue
cultivars as a function of spring-summer or annual stress (as PET – Rainfall)
Project PERMED - Pecetti et al., 2011, J. Agron. Crop Sci. 197: 12–20
Training and dissemination activities
- Project web page: http://reforma.entecra.it/
- Workshops (current one; others on crop use for animal feeding and MAS strategies)
- Free electronic handbook “Guidelines for cultivation and use in animal feeding of
lucerne- and pea-based forage and pea grain crops” (3 languages)
- Scientific articles; participation to scientific meetings; theses and student training
- Field days; demonstration plots; contacts with various stake-holders
Thank you Thank you Thank you Thank you
for your attention !for your attention !for your attention !for your attention !