Water use throughout the
 livestock value chain

               FAO-IFAD
Karen Frenken, Marisha Shibuya,
Rudolph Cleveringa, Melvyn Kay
 IFAD, IADG Meeting, Livestock Week, May 3rd, 2010
Overview of WLVC
• Background: WWDR and awareness
  raising
• Rationale for WLVC: Coverage of
  livestock, Water scarcity and GHG (CO2,
  NOx, CH4)
• Model of Quadrants
• Open questions for research
Background
• WWDR: Risks and Uncertainties
• Drivers: population change, urban/rural
  distribution, lifestyle choices, climate
  change
• Awareness: when to do what, where and
  how for whom
Regional meat consumption
Where are the poor livestock raisers
            (Thornton et al, 2002)
Rationale
• WWDR III, Comprehensive Assessment
  and Long Shadow: open issues
• New FAO study: GHG from the Dairy
  Sector
• New US Dairy Study (forthcoming)

 Integral life cycle view emerging
 Water community still dispersed by sectors
(From: Ceres, 2009)
Water-related risk and uncertainty
                                                                           Water along the livestock value chain




                                                                                                                                      Risks & Uncertainties from Livestock Value Chain
Risks & Uncertainties to Livestock Value Chain




                                                 Drivers of Change
                                                 Climate, economics,
                                                 demographics, etc.


                                                                                  Recycling        Production
                                                                                                                       Impact
                                                   •Water Quantity                                                   Acidification,
                                                   (scarcity, floods)                                               eutrophication,
                                                   •Water Quality                                                   water-use, etc.
                                                                                Consumption        Transformation
                                                   •Allocation Conflicts




                                                                                     Water Use/Consumption
                                                                                               .
Water use in production
      Global net evapotranspiration for agriculture 7,137 km3



             Blue water 22%            Irrigated pasture/feed 17%


                                                                    Irrigated crops 83%


                              Rainfed crops 47%




Green water 78%                                      Rainfed pasture 53%
Water Consumption at the
                      Slaughterhouse
 Data from Danish & Norwegian slaughterhouses

                Water                                                 COD           Nitrogen      Phosphorus Suspended
Per tonne of consumption          Wastewater BOD emission           emission        emission       emission    solids
carcase           (l)                 (l)        (kg)                 (kg)             (g)            (g)     emission
                                                                                                                 (g)

Cattle           1623-9000        1623-9000           1.8-28           4-40        172-1840        24.8-260       11.2-15.9
Pig              1600-8300        1600-6000          2.14-10         3.22-10       180-2100         20-233        0.12-5.1
Sheep            5556-8333        5556-8333            8.89                           1556            500
Poultry         5070-67400       5070-67400          2.43-43           4-41        560-4652        26.2-700        48-700

 Source: European Commission (May 2005), Integrated Pollution Prevention and Control: Reference Document on Best Available
 Techniques in the Slaughterhouses and Animal By-products Industries, viewed 30 April 2010 at
 ftp://ftp.jrc.es/pub/eippcb/doc/sa_bref_0505.pdf
UK Food Waste at the
       Consumer Stage
8.3 million tonnes per year of food and drink waste in UK households
                     (2/3 avoidable, edible foods)




                              Source: WRAP (2009) Household Food and Drink Waste in the UK, p.6
Water for livestock
Water along the livestock value chain



           Recycling    Production



          Consumption   Transformation
Feedback required
• What are the main gaps in the “model”?
• Where are the data by context, timeline
  and quadrants?
• Where are the linkages in research with
  consumer organizations, environment and
  private sector?
• R.cleveringa@ifad.org
  karen.frenken@fao.org
Thank you




Karen Frenken, Marisha Shibuya, Rudolph Cleveringa, Melvyn Kay

Water in the livestock value chain

  • 1.
    Water use throughoutthe livestock value chain FAO-IFAD Karen Frenken, Marisha Shibuya, Rudolph Cleveringa, Melvyn Kay IFAD, IADG Meeting, Livestock Week, May 3rd, 2010
  • 2.
    Overview of WLVC •Background: WWDR and awareness raising • Rationale for WLVC: Coverage of livestock, Water scarcity and GHG (CO2, NOx, CH4) • Model of Quadrants • Open questions for research
  • 3.
    Background • WWDR: Risksand Uncertainties • Drivers: population change, urban/rural distribution, lifestyle choices, climate change • Awareness: when to do what, where and how for whom
  • 4.
  • 5.
    Where are thepoor livestock raisers (Thornton et al, 2002)
  • 6.
    Rationale • WWDR III,Comprehensive Assessment and Long Shadow: open issues • New FAO study: GHG from the Dairy Sector • New US Dairy Study (forthcoming) Integral life cycle view emerging Water community still dispersed by sectors
  • 7.
  • 8.
    Water-related risk anduncertainty Water along the livestock value chain Risks & Uncertainties from Livestock Value Chain Risks & Uncertainties to Livestock Value Chain Drivers of Change Climate, economics, demographics, etc. Recycling Production Impact •Water Quantity Acidification, (scarcity, floods) eutrophication, •Water Quality water-use, etc. Consumption Transformation •Allocation Conflicts Water Use/Consumption .
  • 9.
    Water use inproduction Global net evapotranspiration for agriculture 7,137 km3 Blue water 22% Irrigated pasture/feed 17% Irrigated crops 83% Rainfed crops 47% Green water 78% Rainfed pasture 53%
  • 10.
    Water Consumption atthe Slaughterhouse Data from Danish & Norwegian slaughterhouses Water COD Nitrogen Phosphorus Suspended Per tonne of consumption Wastewater BOD emission emission emission emission solids carcase (l) (l) (kg) (kg) (g) (g) emission (g) Cattle 1623-9000 1623-9000 1.8-28 4-40 172-1840 24.8-260 11.2-15.9 Pig 1600-8300 1600-6000 2.14-10 3.22-10 180-2100 20-233 0.12-5.1 Sheep 5556-8333 5556-8333 8.89 1556 500 Poultry 5070-67400 5070-67400 2.43-43 4-41 560-4652 26.2-700 48-700 Source: European Commission (May 2005), Integrated Pollution Prevention and Control: Reference Document on Best Available Techniques in the Slaughterhouses and Animal By-products Industries, viewed 30 April 2010 at ftp://ftp.jrc.es/pub/eippcb/doc/sa_bref_0505.pdf
  • 11.
    UK Food Wasteat the Consumer Stage 8.3 million tonnes per year of food and drink waste in UK households (2/3 avoidable, edible foods) Source: WRAP (2009) Household Food and Drink Waste in the UK, p.6
  • 12.
    Water for livestock Wateralong the livestock value chain Recycling Production Consumption Transformation
  • 13.
    Feedback required • Whatare the main gaps in the “model”? • Where are the data by context, timeline and quadrants? • Where are the linkages in research with consumer organizations, environment and private sector? • R.cleveringa@ifad.org karen.frenken@fao.org
  • 14.
    Thank you Karen Frenken,Marisha Shibuya, Rudolph Cleveringa, Melvyn Kay