Are there sustainable protein sources for non-ruminant livestock? School of Agriculture, Food & Rural Development Newcastle University, England Ilias Kyriazakis.

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Presentation transcript:

Are there sustainable protein sources for non-ruminant livestock? School of Agriculture, Food & Rural Development Newcastle University, England Ilias Kyriazakis and Ilkka Leinonen

Presentation context There are increased concerns about the reliance of EU livestock systems on imported soya This is on both food security and environmental sustainability grounds In addition there is scarcity of supply of non- GM soya bean meal The question is: are there sustainable EU- grown protein sources that could replace soya?

Image from: articles/01/04/2013/ /sainsbury39s- to-fund-broiler-feed- research.htm articles/01/04/2013/ /sainsbury39s- to-fund-broiler-feed- research.htm

Alterative protein sources: Some criteria to assess sustainability The alternative protein source must fulfil (at least) the following criteria: 1.Maintenance of animal health, welfare and productivity 2.Maintenance - if not reduction - of a systems environmental impact 3.Cost-effectiveness 4.(Social acceptability)

Some potentially sustainable EU- grown protein sources

Performance of grower pigs on pulse- based diets DietLW Gain (g/d) Intake (g/d) Gain: IntakeKO % Soyabean meal (14%) Faba beans 1 (30%) Peas 2 (30%) s.e.m var Prophet 2 var Fuego (Smith et al, 2013 )

Performance of broilers on field bean-based diets (25% inclusion)

Interim Conclusions 1.A number of EU-grown protein sources can be included in the diets of pigs and poultry at high levels, without any detriment to their health and performance. 2.In some instances (e.g. pigs) their level of inclusion can obliterate entirely the need to include any soya bean meal in diets. 3.What are the environmental impact consequences of using home-gown protein sources?

LCA: a tool to estimate the environmental impact of commodities Boundary at farm gate

Categories and main sources of environmental impacts Primary energy use – diesel (e.g. feed production and transport) – electricity (e.g. ventilation) – gas (e.g. heating) Global warming potential (GWP 100 ) – CO 2 from fossil fuel (crop production, transport, animal housing) – Nitrous Oxide (and Methane) from animal housing and crop production – CO 2 from land use changes Eutrophication potential Acidification potential

Categories and main sources of environmental impacts Primary energy use – diesel (e.g. feed production and transport) – electricity (e.g. ventilation) – gas (e.g. heating) Global warming potential (GWP 100 ) – CO 2 from fossil fuel (crop production, transport, animal housing) – Nitrous Oxide (and Methane) from animal housing and crop production – CO 2 from land use changes (loss of soil and C biomass) Eutrophication potential Acidification potential

Global Warming Potential (per 1000 kg of edible broiler carcass), kg CO 2 equivalent

Methods to account for land use changes – soya as an example 1.All soya used in broiler diets comes from mature agricultural land (sustainable) 2.All soya used in broiler diets comes from newly established agricultural land (worst case) 3.The soya used in broiler diets comes from a mixture of mature and newly established agricultural land (best estimate, PAS 2050) 4.All crops used in broiler diets have indirect land use change effects (top-down)

Methods to account for land use changes – soya as an example 1.All soya used in broiler diets comes from mature agricultural land (sustainable) 2.All soya used in broiler diets comes from newly established agricultural land (worst case) 3.The soya used in broiler diets comes from a mixture of mature and newly established agricultural land (best estimate, PAS 2050) 4.All crops used in broiler diets have indirect land use change effects (top-down)

Why do we need to account for Land Use changes? A paradox Conventional soya Organic soya

Some potentially sustainable EU- grown protein sources

Total amount of ingredients consumed over the growing period (kg per broiler)

The Global Warming Potential of soya and field bean-based diets fed to broilers

Total amount of ingredients consumed over the growing period (kg per broiler)

The Global Warming Potential of soya and pea-based diets fed to broilers

The Global Warming Potential of pig diets based on EU-grown feedstuffs Meul et al, 2012

Why arent home grown protein sources more effective? There are GWP reductions due to reduced transport emissions and emissions from land use changes. These reductions are relatively small In addition the removal of soya requires the addition of pure amino acids and vegetable oil; the GWP of these ingredients per unit of ingredient is relatively high

Interim Conclusions 1.Home-grown protein crops maybe able to replace soya beans in non ruminant diets 2.Whether there are reductions in greenhouse gas emissions as a result of this substitution will depend on the LUC accounting method 3.Even when direct land use changes related to soya production are included, the reduction of GWP does not exceed 15%

Can Processed Animal Protein (PAP) be a sustainable protein source? Currently, inclusion of PAP in animal diets is not allowed in the EU; the situation may change In the UK ~ 85k tn of Category 3 PAP is produced annually. In theory ~ 20k tn of this is porcine PAP and can be fed to chickens Currently all UK PAP produced is fed to pets What are the environmental consequences of feeding porcine PAP to chickens at either 5 or 10% inclusion levels?

Global Warming Potential of broiler feed with different inclusion rates of PAP

A more realistic estimation of the consequences of PAP feeding to livestock In the EU ca 2.3m tn of PAP are produced annually; ~ 60% of this is used for pet food and 40% as fertiliser The amount of PAP currently used as fertiliser can in theory be fed to livestock This can reduce the environmental impact of EU non-ruminant livestock systems after the current credits from using PAP as fertiliser are accounted for These estimated are currently work in progress

Is there a trade-off between diet cost and its environmental impact? Diet Cost Environmental Impact

Costs of feed and environmental impact (GWP) per tonne of broiler meat Least Cost Formulation Least GWP Formulation Jan 2012Sept 2012 £ Jan N/A593 £ Aug 12 N/A GWP (kg CO 2 eq)

The relationship between feed cost and GWP of broiler feeds

Some food for thought – in place of conclusions There are EU-grown protein sources that seem to meet the criteria of sustainability The environmental impact consequences of using them are not dramatic, because all consequences of their use need to be taken into account For the same reason the consequences of using PAP (and other co-products) would not be as spectacular as previously suggested There are trade-offs between least cost formulation and environmental impact; the question is would anyone be willing to pay for the latter?

Thank you !!!

Categories and main sources of environmental impacts (2) Eutrophication potential – Nitrate (NO 3 ) leaching to water – Phosphate (PO 4 ) leaching to water – Ammonia (NH 3 ) emissions to air Acidification potential – Ammonia (NH 3 ) emissions to air – Sulphur dioxide (SO 2 ) from fossil fuels