This document summarizes a study on the social and economic impacts of agroecological practices. The study used a sustainable livelihoods framework to analyze 37 papers measuring indicators like yield, profitability, labor productivity for practices including crop diversification, nutrient management and water harvesting. Results showed agroecological practices increased yields in 59% of cases and increased both yields and profitability without trade-offs in most cases. However, more research is still needed, as few studies addressed indicators like income stability. In conclusion, evidence suggests agroecology can improve financial capital and human capital for farmers, though more data is needed to reduce uncertainties in the results.
Comparative characterization of organic and low-input (conventional) beef cattle farms in dehesas. Strcuture, Management, Economics, among other aspects.
Climate change can significantly influence forage production and quality. Forages form the basis part of animal nutrition and economic benefit in livestock systems; the influence of climate change on forages may ultimately impact animal nutrition and economic benefits within livestock systems While promising forage accessions of forage species have been identified, little research has been conducted on determining their potential under climate change. There is a need to identify forage accessions and species that can stand climate change impacts and reduce risks on livestock systems.
Understanding adoption, synergies and tradeoffs at farmand household level
CGIAR Research Program on Climate Change, Agriculture and Food Security
FAO CSA metrics workshop, March 14th2019
Using agroecology to measure sustainability in agriculture TAPE – the Tool fo...Francois Stepman
Presentation by Anne Mottet - FAO Livestock Development Officer, Animal Production and Health Division - "Using agroecology to measure sustainability in agriculture TAPE – the Tool for Agroecology Performance Evaluation"
02/07 WEBINAR: The effects of agroecology. Why are metrics needed?
The multilevel CSA monitoring set of standard core uptake and outcome indicators + expanded indicators linked to a rapid and reliable ICT based data collection instrument to systematically
assess and monitor:
- CSA Adoption/ Access to CIS
- CSA effects on food security and livelihoods household level)
- CSA effects on farm performance
Comparative characterization of organic and low-input (conventional) beef cattle farms in dehesas. Strcuture, Management, Economics, among other aspects.
Climate change can significantly influence forage production and quality. Forages form the basis part of animal nutrition and economic benefit in livestock systems; the influence of climate change on forages may ultimately impact animal nutrition and economic benefits within livestock systems While promising forage accessions of forage species have been identified, little research has been conducted on determining their potential under climate change. There is a need to identify forage accessions and species that can stand climate change impacts and reduce risks on livestock systems.
Understanding adoption, synergies and tradeoffs at farmand household level
CGIAR Research Program on Climate Change, Agriculture and Food Security
FAO CSA metrics workshop, March 14th2019
Using agroecology to measure sustainability in agriculture TAPE – the Tool fo...Francois Stepman
Presentation by Anne Mottet - FAO Livestock Development Officer, Animal Production and Health Division - "Using agroecology to measure sustainability in agriculture TAPE – the Tool for Agroecology Performance Evaluation"
02/07 WEBINAR: The effects of agroecology. Why are metrics needed?
The multilevel CSA monitoring set of standard core uptake and outcome indicators + expanded indicators linked to a rapid and reliable ICT based data collection instrument to systematically
assess and monitor:
- CSA Adoption/ Access to CIS
- CSA effects on food security and livelihoods household level)
- CSA effects on farm performance
Development of holistic metrics of agricultural and food system performanceFrancois Stepman
Presentation by Fergus Sinclair - Chief Scientist CIFOR-ICRAF, Center for International Forest Research - World Agroforestry, Co-convener of the TPP, the Transformative Partnership Platform on Agroecology - "Development of holistic metrics of agricultural and food system performance"
Solution space for sustainable intensification in Bougouniafrica-rising
Poster prepared by Mary Ollenburger, Katrien Descheemaeker, Todd Crane and Ken Giller for the AfrIca RISING West Africa Review and Planning Meeting, Accra, 30 March–1 April 2016
Taking Forward the Implementation of the Agriculture Priority Actions in NCCAP (2013–2017) Kenyan Experience
A presentation from CCAFS East Africa Regional Program.
Date: November 10, 2016
Time: 16:10-17:30
Host: Indonesian Agency for Agricultural Research and Development (IAARD)
Title of the Session: Lessons Learned for Climate Smart Livestock and Food Crop Intensification Systems
Speaker: Lini Wollenberg
Location: Indonesia pavilion at COP22
Intensification of maize-legume based systems in the semi-arid areas of Tanza...africa-rising
Presented by Ganga Rao, NVRP, Kimaro, A., Makumbi, D., Mponda, O., Msangi, R., Rubanza, C.D., Seetha, A., Swai, E. and Okori, P. at the Africa RISING East and Southern Africa annual review and planning meeting, Lilongwe, Malawi, 3-5 September 2013
This presentation was made by Dr. Robert B. Zougmoré, CCAFS Africa Program Leader, at the WASCAL Science Symposium, 19-21 June 2018, Tang Palace Hotel, Accra, Ghana
10 May 2021. Regenerative Agriculture vs. Agroecology: nomenclature hype or principle divergence?
(a) A decade of CSA: what are the achievements, the challenges and the bottlenecks? (b) What practical implications for smallholder farmers, agriculture and the environment?
Presentation by : Ken Giller Professor of Plant Production Systems – Wageningen University & Research.
Regional livestock modeling for climate change adaptation and mitigation in S...ILRI
Presentation by Dolapo Enahoro and Karl M. Rich at the Southern Africa Towards Inclusive Economic Development (SA-TIED) Programme – A Scoping Workshop on Climate Change Pretoria, South Africa, 4 February 2019
Systems approaches for value chain interventions targeting food safety and an...ILRI
Poster by Karl M. Rich, Kanar Dizyee, Nguyen Thi Thu Huyen, Duong Nam Ha, Pham Van Hung, Nguyen Thi Duong Nga, Fred Unger and Lucila A Lapar presented at the North-West Vietnam Research Symposium 2017, Hanoi, Vietnam, 23–24 November 2017.
Development of holistic metrics of agricultural and food system performanceFrancois Stepman
Presentation by Fergus Sinclair - Chief Scientist CIFOR-ICRAF, Center for International Forest Research - World Agroforestry, Co-convener of the TPP, the Transformative Partnership Platform on Agroecology - "Development of holistic metrics of agricultural and food system performance"
Solution space for sustainable intensification in Bougouniafrica-rising
Poster prepared by Mary Ollenburger, Katrien Descheemaeker, Todd Crane and Ken Giller for the AfrIca RISING West Africa Review and Planning Meeting, Accra, 30 March–1 April 2016
Taking Forward the Implementation of the Agriculture Priority Actions in NCCAP (2013–2017) Kenyan Experience
A presentation from CCAFS East Africa Regional Program.
Date: November 10, 2016
Time: 16:10-17:30
Host: Indonesian Agency for Agricultural Research and Development (IAARD)
Title of the Session: Lessons Learned for Climate Smart Livestock and Food Crop Intensification Systems
Speaker: Lini Wollenberg
Location: Indonesia pavilion at COP22
Intensification of maize-legume based systems in the semi-arid areas of Tanza...africa-rising
Presented by Ganga Rao, NVRP, Kimaro, A., Makumbi, D., Mponda, O., Msangi, R., Rubanza, C.D., Seetha, A., Swai, E. and Okori, P. at the Africa RISING East and Southern Africa annual review and planning meeting, Lilongwe, Malawi, 3-5 September 2013
This presentation was made by Dr. Robert B. Zougmoré, CCAFS Africa Program Leader, at the WASCAL Science Symposium, 19-21 June 2018, Tang Palace Hotel, Accra, Ghana
10 May 2021. Regenerative Agriculture vs. Agroecology: nomenclature hype or principle divergence?
(a) A decade of CSA: what are the achievements, the challenges and the bottlenecks? (b) What practical implications for smallholder farmers, agriculture and the environment?
Presentation by : Ken Giller Professor of Plant Production Systems – Wageningen University & Research.
Regional livestock modeling for climate change adaptation and mitigation in S...ILRI
Presentation by Dolapo Enahoro and Karl M. Rich at the Southern Africa Towards Inclusive Economic Development (SA-TIED) Programme – A Scoping Workshop on Climate Change Pretoria, South Africa, 4 February 2019
Systems approaches for value chain interventions targeting food safety and an...ILRI
Poster by Karl M. Rich, Kanar Dizyee, Nguyen Thi Thu Huyen, Duong Nam Ha, Pham Van Hung, Nguyen Thi Duong Nga, Fred Unger and Lucila A Lapar presented at the North-West Vietnam Research Symposium 2017, Hanoi, Vietnam, 23–24 November 2017.
One of the challenges of ecological intensification is to move agricultural research out of a focus on singular focal areas – e.g., improved seed, pest control, water management – to solutions that integrate all components of the farming system. As such, the canon of knowledge supporting ecological intensification is transdisciplinary, focusing on the biological components of farming systems and agroecological practices but extending as well to considerations of policy and farmer
and societal benefits. As the biodiversity benefits of ecological intensification, along with the negative externalities of conventional agriculture are an important motivation for ecological intensification, we have included literature on these topic, as well as references that relate climate change to ecosystem services in agriculture.
The annotated bibliography presented here is compiled on this basis, to identify the literature relevant to ecological intensification, with respect to the following categories:
1. Ecosystem services
2. Agroecology and agroecological practices
3. Farmer and societal benefits from enhancing ecosystem services
4. Biodiversity benefits of ecological intensification
5. Agriculture-induced impacts
6. Climate change
7. Policy
Within the category of ecosystem services, it has been noted in the keywords if the relevant study addresses one or several of the key ecosystem services underpinning ecological intensification in agriculture: pollination, pest regulation or soil nutrients/cycling. (Bommarco et al. 2013)
The Brussels Development Briefing n. 59 on “Agroecology for Sustainable Food Systems” organised by CTA, the European Commission/EuropeAid, the ACP Secretariat, CONCORD and IPES-FOOD was held on Wednesday 15 January 2020 (9h00-13h00) at the ACP Secretariat, Avenue Georges Henri 451, 1200 Brussels.
The briefing brought various perspectives and experiences on agroecological systems to support agricultural transformation. Experts presented trends and prospects for agroecological approaches and what it implies for the future of the food systems. Successes and innovative models in agroecology in different parts of the world and the lessons learned for upscaling them were also discussed.
A meta-regression analysis of frontier efficiency estimates from AfricaKeuler Hissa
by Kolawole OGUNDARI
Selected Paper prepared for presentation at the Agricultural & Applied Economics Association’s 2014 AAEA Annual Meeting, Minneapolis, Minnesota, 27-29 June 2014
article 3 o i i r j . o r g- 3 An Analysis of Socio.pdfEducational
Online International Interdisciplinary Research Journal, {Bi-Monthly}, ISSN 2249-9598, Volume-08, Issue-04, July-Aug 2018 Issue
w w w . o i i r j . o r g I S S N 2 2 4 9 - 9 5 9 8 Page 358
An Analysis of Socio Economic Background of Organic Farmers: A Study with
Special References to Mandya District
aUma .K,
Article 3 An Analysis of Socio Economic Background of Organic Farmers A Study...Dr UMA K
Reference: Dr. Uma. K (2018) “An Analysis of Socio-Economic Background of Organic Farmers: A Study with Special References to Mandya District”, Online International Interdisciplinary Research Journal, (OIIRJ), {Bi-Monthly}, ISSN 2249-9598, Volume-08, Issue-04, Page No 358-368.
A Meta-Analysis of the Impacts of Genetically Modified CropsKiran Shaw
This study brings out the meta-analysis of the agronomic and economic impacts of GM crops. The Study has been carried out by Wilhelm Klu¨ mper, Matin Qaim, Department of Agricultural Economics and Rural Development, Georg-August-University of Goettingen, Goettingen, Germany
2010, Vol 11, o1 69 A comparison of the economic and e.docxgertrudebellgrove
2010, Vol 11, �o1 69
A comparison of the economic and environmental
performances of conventional and organic farming:
evidence from financial statements
Josep Mª. Argilés and �éstor Duch Brown
∗
Abstract
While conventional farming systems face serious problems of sustainability, organic
agriculture is seen as a more environmentally friendly system since it favours renew-
able resources, recycles nutrients, uses the environment’s own systems for controlling
pests and diseases, sustains ecosystems, protects soils, and reduces pollution. At the
same time organic farming promotes animal welfare, the use of natural foodstuffs,
product diversity and the avoidance of waste, among other practices. However, the fu-
ture of organic agriculture will depend on its economic viability and on the determina-
tion shown by governments to protect these practices. This paper performs panel re-
gressions with a sample of Catalan farms (Spain) to test the influence of organic farm-
ing on farm output, costs and incomes. It analyses the cost structures of both types of
farming and comments on their social and environmental performance.
Keywords: organic farming, conventional farming, social/environmental/financial
performance, social and environmental accounting
JEL Classification: Q01, Q12, Q51, M41
Introduction
Over the last few decades world agriculture has introduced increasing levels of mod-
ernization and productivity. Key factors in this evolution of modern, or conventional,
farming have been intensive capital endowments, farming specialization, the wide-scale
application of chemical fertilizers and nutrients and the selection of high-yield crops and
livestock, including genetically modified organisms in some countries.
In spite of these recent advances, intensive farming systems face a number of serious
problems: the declining effectiveness of land, pesticides and chemical fertilizers, the
ongoing loss of biodiversity, environmental and health risks, economic and social costs,
as well as various kinds of unpredictable future risks (Matson et al. 1997; Altieri 1998;
Boschma et al. 2001; Tilman 1998; Drinkwater et al. 1998). In particular, Dupraz
(1997), Mishra et al. (1999), Hornbaker et al. (1989), Kurosaki (1997), Popp and Rud-
strom (2000) and Omamo (1998) have highlighted the economic problems that arise
from specialization and monoculture. More specifically, Melfou and Papanagioutou
∗
Josep Mª. Argilés: University of Barcelona (Department of Accounting)
Néstor Duch Brown: University of Barcelona (Dep. Econometria, Estadística i Economia Espanyola)
and IEB
70 AGRICULTURAL ECO�OMICS REVIEW
(2003) measured the effect of nitrate pollution on the growth rate of total factor produc-
tivity in Greek agriculture, while Pretty et al. (2000, 2001) assessed a wide array of ex-
ternalities of modern agriculture in the UK, USA.
2010, Vol 11, o1 69 A comparison of the economic and e.docx
Agroecology_Poster_Cornell
1. Social and economic
performance of
Agroecology
Introduction
Numerous recent reviews have emphasized that future
needs for food and nutrition security will have to be
addressed by transitioning to regenerative systems of
food production based on an effective and enhanced use
of ecosystem services that minimize negative impacts
while improving or at least stabilizing yields (The Royal
Society 2009; Foley et al. 2011). The International
Symposium on Agroecology for Food Security and
Nutrition, held at FAO headquarters in September 2014
underlined that agroecological approaches may offer
such an alternate path to agricultural development as
they integrate ecological principles as well as social
and economic concerns into agricultural production
and the wider food system (FAO, 2015).
Although broad reviews of Agroecology already exist
(Wezel et al. 2009), a systematic overview of the
effects of agroecological practices on socio-economic
indicators reflecting impacts on farmers’ sustainable
livelihoods is currently lacking.
Methodology
This study has been developed using the Sustainable
Livelihood (SL) framework, allowing for an improved
understanding of social and economic relations at the
farmer level. The SL framework uses five kinds of assets
(human, natural, financial, physical and social) to
structure the analysis of the sustainability of livelihoods.
The agroecological systems selected for inclusion in
this study represented a spectrum of agroecological
approaches and included a range of practices that are
suited to the management of large- as well as small-
scale agriculture (see Table 1).
Agroecological practices
Quantitative
data
Qualitative
data
Minimal tillage X
Direct seeding X
Crop diversification X
Integrated nutrient management X
Water harvesting X
Water use efficiency X
Use of compost or organic matter X
Integrated aquaculture X
Permanent soil cover X
Biological N fixation X
Optimal plant spacing X
Small scale irrigation X
Community governance/
Participation in forest
management
X
Raffaele D’Annolfo1
, Barbara Gemmill-Herren1
, Benjamin E. Graeub1
, Lucas A. Garibaldi2
1
Food and Agriculture Organization of the United Nations (FAO), Rome, Italy
2
Sede Andina, Universidad Nacional de Río Negro, San Carlos de Bariloche, Argentina
GEF/UNEP/FAO
Global Pollination Project2nd
International Conference on Global Food Security www.globalfoodsecurityconference.com
Selected social and economic indicators
Ten indicators of social and economic impact were
selected to measure the effects of the agroecological
practices with respect to the SL framework. Note that
Natural Capital and Physical Capital were not considered
in this study though widely studied otherwise with
respect to Agroecology.
The selected scientific literature examined for this
study includes articles identified within the Scopus
database using a defined set of keywords. 84 papers
were made available by the authors and reviewed, out
of 99 identified within Scopus.
Data/information was extracted from 37 of these papers
that met the following criteria:
• Theabstractreferstoatleastoneoftheagroecological
practices listed above;
• The study provides meaningful information on the
socio-economic indicators selected for this exercise.
A vote count technique was used to analyse the available
quantitative data. The number of positive studies (showing
benefit) were compared with the number of negative
studies (showing harm or costs); allowing the absolute,
relative and cumulative frequency to be computed to
compare and integrate the results of multiple studies and
to see the general trends between adopting agroecological
practices and socio-economic indicators.
Results
The studies provided 154 comparisons among the socio-
economic indicators selected, most of them concerning
farm profitability and crop yield (Figure 2). Generally,
adopting agroecological practices increases farm
profitability and crop yield compared to conventional
practices (Figure 2).
The number of comparisons for the other socio-economic
indicators was too low to create solid conclusions,
showing an important knowledge gap.Focusing on
those studies that measured both farm profitability
and crop yield, we found that agroecological practices
increased the two indicators simultaneously for 59
percent of the comparisons (win-win scenario, upper
right corner of Figure 3).
Importantly, we found no trade-offs between farm
profitability and crop yield (upper left or lower right
corners of Figure 3), whereas simultaneous decreases in
both indicators (lose-lose scenario, lower left corner of
Figure 3) was found in 18 percent of the comparisons.
Results for yield and farm profitability provided by
vote-counting and an additional linear mixed-effects
models carried out, follow similar patterns but with
some differences. Yields were 16 percent greater for
agroecological practices with respect to conventional
practices. However, results for farm profitability show
that despite the slight increase in farm profitability
when adopting agroecological practices, this is not
statistically significant.
Conclusions
Our research provides evidence of the positive economic
effects of agroecological practices regarding farm
profitability. At the same time, it highlights the need for
additional research in this area, due to a lack of studies
identified regarding a number of key indicators (e.g.
income stability, labour demand, access to markets).
Based on the reviewed papers, evidence suggests that
Agroecology enhances (or at least does not affect
negatively) the financial capital and human capital,
at farm level.
Although the final result for farm profitability is not
statistically significant by using linear mixed effect
model, the confidence interval for farm profitability
covers more positive than negative values. This means
that there is a slight positive effect when adopting
agroecological practices. However, in this regard, we
emphasize that the uncertainty and variability of the
results require further investigation (e.g. review of
additional papers and further collection of data); in
addition, we recognize that other co-variables (e.g.
rainfall levels) need to be considered in any future
development of the analysis.
Literature cited
DFID. 1999. Sustainable Livelihoods Guidance Sheets.
London: DFID. (Available at www.eldis.org/vfile/upload/1/
document/0901/section2.pdf).
FAO, 2015. Final Report of the International Symposium on
Agroecology for Food Security and Nutrition.
Rome: FAO. (Available at: www.fao.org/3/a-i4327e.pdf)
Foley, J.A., Ramankutty, N., Brauman, K.A., Cassidy, E.S.,
Gerber, J. et al. 2011. Solutions for a cultivated planet.
Nature 478 (Available at: dx.doi.org/10.1038/nature10452M3)
Royal Society. 2009. Reaping the benefits: science and the
sustainable intensification of global agriculture.
RS Policy document 11/09. London: Royal Society 86.
Wezel, A., and Soldat, V., 2009. A quantitative and qualitative
historical analysis of the scientific discipline of agroecology,
International Journal of Agricultural Sustainablity 7(1), 2.
Design:studio@bartoleschi.com–header-illustrationsbyguidajoseph
Forms of Capital/Assets
(based on DFID, 1999)
Indicators
Human Capital:
represents the skills,
knowledge, ability to work
and good health that together
enable farmers to pursue
different livelihood strategies
and achieve their livelihood
objectives
1. Labour Productivity
2. Labour Demand
3. Percentage of farmers (gender-
disaggregated), who have
participated in training and decided
to incorporate Agroecology in their
farming practices
Financial Capital:
denotes the financial
resources that farmers use
to achieve their livelihood
objectives
4. Yield
5. Farm Profitability
6. Income Stability
7. Recognition/assessment of
transition costs
social Capital:
in the context of the
sustainable livelihoods
framework, it refers to the
social resources upon
which farmers draw in
pursuit of their livelihood
objectives. These are
developed through:
> networks and
connectedness
> membership of formalized
groups
> relationships of trust and
reciprocity
8. Access to the market developed for
the products of Agroecology
9. Number and quality of registered
groups (gender disaggregated),
in a certain community
10. Influencing decision-making
processes which indicates the
presence of formal procedures/
rules for allowing stakeholders to
influence decision-making
Figure 1. Geographic scope of papers analyzed in this study
This figure shows the worldwide distribution of papers which provided
evidence on social and economic impacts of the agroecological practices
listed. Many of the studies reviewed are related to Asia (74%), many
focusing on India, followed by Americas (6%), Europe and Africa
(3%); and 14% of the studies take a global view.
Table 1: Agroecological practices analyzed
Table 2: Social and Economic Indicators within Forms of Capital
Figure 2. Socio-economic indicators (Relative Frequencies)
100%
25% 75%
66% 23%11%
61% 20%19%
Labour
Productivity (n3)
Labour
Demand (n4)
Farm
Profitability (n73)
Yield (n74)
Americas 6%
Europe 3%
Global 14%
Africa 3%
Asia 74%
Figure 3. Synergies and trade-offs between farm profitability and yield
adopting agroecological practices
>50% of
comparisons
Farm Profitability
YIELD
10 – 50% of
comparisons
<10% of
comparisons
59%
7%
3%
1%
18%
12%