Survey
* Your assessment is very important for improving the work of artificial intelligence, which forms the content of this project
* Your assessment is very important for improving the work of artificial intelligence, which forms the content of this project
Science, innovation and power: an NGO perspective on agricultural development in sub-Saharan Africa Dr Steve Jennings Oxfam GB Overview Agriculture in sub-Saharan Africa How change and innovation happen A change that needs to happen ... shared but differentiated responsibilities between academia and NGOs? African agriculture: a failure ... African agriculture: a failure ... 5000 4000 3500 3000 2500 2000 1500 1000 500 2008 2006 2004 2002 2000 1998 1996 1994 1992 1990 1988 1986 1984 1982 1980 1978 1976 1974 1972 1970 1968 1966 1964 1962 0 1960 Cereal yield (kg per hectare) 4500 Year Sub-Saharan Africa (all income levels) East Asia & Pacific (all income levels) Latin America & Caribbean (all income levels) South Asia Source: FAO African agriculture: a failure ... or a success? African agriculture: a failure ... or a success? Maize production in Malawi 4000 3000 2500 2000 1500 1000 500 Year 2009 2007 2005 2003 2001 1999 1997 1995 1993 1991 1989 1987 1985 1983 1981 1979 1977 1975 1973 1971 1969 1967 1965 1963 0 1961 Production (1000MT) 3500 Source: FAO African agriculture: challenges now Agriculture accounts for 65% of full-time employment in Africa, and 25–30% of GDP (The Future of Food and Farming, 2011). 96% of agricultural area in sub-Saharan Africa is rainfed (World Bank 2008) Low profitability and high risks discourage farmers from investing in land and water management – mixed livelihoods strategies are the norm A 1% increase in agricultural yield translates into a 0.6-1.2 decrease in absolute poor (Thirtle et al., 2001) African agriculture: challenges ahead Scarcity of resources Volatility New dynamics Feeding the 9bn ... Implies massive and sustained change in African agriculture And we already know what to do ... Or do we ... Foresight. The Future of Food and Farming (2011). Final Project Report. The Government Office for Science, London. Can policy makers reduce food waste? Some policy instruments: – Incentives to not waste and disincentives to waste – Investments in infrastructure and markets Some areas that policy won’t change readily: – Personal and cultural attitudes and beliefs to food – The vested interests in selling more – The reasons why investment hasn’t already been made in infrastructure and markets Much of this change involves shifting power over resources and decisions How change happens: the abolition of slavery 1780 - Half a million African slaves work on the sugar plantations of British colonies 1807 - British Parliament bans the slave trade 1838 - slavery banned altogether: 800,000 slaves of the British Empire win their freedom How was the change brought about? Waves of slave rebellion in America and Caribbean; Haiti becomes first independent black republic in 1804 Individuals and unlikely coalitions: the Anglican preacher Thomas Clarkson, MP William Wilberforce, Olaudah Equiano (ex slave), the Quakers, some prominent industrialists Dynamics of change Cumulative and Sequential Chaotic Events, tipping points and lightbulb moments Path dependence Demonstration effects Accumulation of forces Components of change Institutions - culture, ethnicity, religion, attitudes and beliefs. Civil service, judiciary, electoral democracy, essential services, Agents - social movements, elites, leaders, private sector, media Context - technology, environment, demographics, globalization Events - wars, disasters, confrontations How painful is the change for different groups? Drivers v blockers (opposed to change) v shifters (could go either way) So what does this tell us about reducing waste? In rich countries (waste end loaded), it may well need – a huge shock to make actors receptive? – unexpected alliance of interests challenging the current food system? – popular campaigns to change underlying attitudes and beliefs? – institutions (policy), technology to translate a movement into a new system? In developing countries (waste front loaded), it may well need – popular demand for democracy and openness (after Sen)? – leveraged investment (alliances aggregate power?) – aggregation of farmers or farms (producers able to challenge power)? Characteristics of who will influence the direction of this change: opportunistic, connector, communicator, organiser Another type of change: innovation Innovation – process by which an idea is translated into a new good, service or behaviour (creation, prototyping, going to scale) Works when power isn’t challenged? Innovation in agriculture Idea1: don’t focus on agriculture, focus on the ‘system’ (Calestous Juma 2010). Idea 2: innovation needs hardware (e.g., mobile phones; new crop varieties, new forecasting models), software (knowledge, ways of thinking), and ‘orgware’ (new alliances and social institutions) (Smits 2002). Idea 3: ‘Orgware’ might be the most important of all: because the problems exist in different realms (policy, technical, institutional) and are dynamic, it’s the range and strength of interactions that counts (Hall 2009) One of the 20th Century's top 20 "feed the world" success stories ... Burkina Faso A “line of stones” One of the 20th Century's top 20 "feed the world" success stories ... What changed? Local farmers, with a bit of outside help, began improving, traditional "planting pits" to reclaim severely degraded farmland. Yields went up and farmers started spreading the word. Another improved technique also spread – "lines of stone" (diguettes) - piling stones along the contours on the (very flat) land to harvest rainfall. In villages where one or more of these soil and water conservation techniques has been used, 72-94% of the cultivated land has been rehabilitated. Yields have increased by 40-100%. In total, farmers have rehabilitated up to 300,000 hectares and produce an additional 80,000 tons of food per year - enough to feed half a million people. See http://www.ifpri.org/publication/millions-fed chapter 7 One of the 20th Century's top 20 "feed the world“ success stories ... Lessons People had reached the point where if they didn't change, they could no longer live in the area (necessity). The techniques enable farmers to grow more food almost immediately (instant gratification). Local people as innovators (software). Innovations become mutually reinforcing - a chain reaction of soil, water and vegetation regeneration (path dependency). Spreading the word through networks and charismatic leaders (orgware). And a bit of outside help (hardware) A change for a challenge: the case of seasonal forecasts Human activity and rainfall GDP and Rainfall Variability Coefficient of Variation of monthly rainfall 1.8 1.6 Bubble Size = GDP per capita (Blue = low interannual variability of rainfall) 1.4 1.2 1 0.8 0.6 0.4 0.2 0 0 50 100 150 Mean Annual Rainfall (cm) Brown and Lall (2006). Natural Resources Forum 30; 306–317 200 250 300 Human activity and rainfall - Ethiopia Benefits of seasonal forecasts Seasonal forecasts are probabilistic estimates for 1 (-36) months and suggest the total amount of rainfall in the period but not the distribution Use of seasonal forecasts can increase yields significantly (Patt et al., 2005) Forecasts used to support farmer’s decisions on planting area, crops and varieties, irrigating, harvesting, fertilizing and pesticide application. Constraints on seasonal forecasts for smallholder farmers Reliability Accessibility Application Constraints on seasonal forecasts for smallholder farmers Reliability Accessibility Application Forecasting inequality Met. station density (#/1000km 2) 1 0.9 0.8 EU (± 1 S.E.) 0.7 0.6 0.5 0.4 Countries where Oxfam has programmes 0.3 0.2 0.1 0 0 10,000 20,000 30,000 40,000 GDP per capita at PPP Data sources: (1) Met stations - National Oceanic and Atmospheric Administration - National Weather Service (2) GDP per capita at PPP – IMF (3) Land area - wikipedia What information? Ranking of climate information desired (Lesotho) Information Crops Livestock Distribution of rain through season 1 1 Start of rainy season 2 2 Max. rainfall in one month 3 4 Min. temperatures 4 5 Max. temperatures 5 3 No. Days/months without rain 6 6 Total rainfall in season (seasonal forecast) 7 7 Redrawn from Ziervogel & Calder (2003) Constraints on seasonal forecasts for smallholder farmers Reilability Accessibility Application Who gets the forecasts? Only 39% of respondents (smallholder and commercial farmers, extension and research services) received seasonal forecasts in Free State Province South Africa (Walker et al., 2001) 33% of respondents (almost all farmers/livestock keepers) from Burkina Faso, Mali, Niger and Nigeria were aware of seasonal forecasts (Tarhule & Lamb, 2003) Women (majority of food producers) would prefer ‘teach ins’ to radio dissemination of forecasts (Archer 2003) Constraints on seasonal forecasts for smallholder farmers Reliability Accessibility Application Can the information be used? Patt, Suarez & Gwata 2005 Overcoming the constraints: some suggestions What needs to change? Reliability: Forecast reliability; Type of forecast information Accessibility: Forecast communicated to users Application: Users have understanding, assets & services to use forecasts Obstacles / opportunities Lack of Met stations and services, model skill/ ‘UNFCCC’; Advances in seasonal forecasts Poorly functioning communications, culture of comms./ Digital technology; NGO grassroots leverage Non-intuitive interpretation; lack of assets &government services/ Win-win market relations Innovation approaches Change goal ‘Hardware’: invest in better met data and modelling ‘Orgware’: and ‘Software’ pilot new dynamic relationships between forecasters and users ‘Hardware’: invest in assets and service and ‘Orgware’: producer organisations, new markets ‘Poor farmers in subSaharan Africa use seasonal forecasts to increase their yield’ Roles of academics and NGOs What needs to change? Reliability: Accessibility: Application: Innovation approaches ‘Hardware’: invest in better met data and modelling ‘Orgware’: and ‘Software’ pilot new dynamic relationships between forecasters and users ‘Hardware’: invest in assets and service and ‘Orgware’: producer organisations, new markets Who? Change goal Scientists Scientists & NGO collaboration NGOs ‘Poor farmers in subSaharan Africa use seasonal forecasts to increase their yield’ Roles of academics and NGOs: a final thought “the most effective way to conduct pro-poor adaptation research may well be to take – from the outset – a holistic view that is informed by engagement and partnership with potential beneficiaries” Challinor, 2008 Conclusions Development of agriculture in sub-Saharan Africa is a must – for poverty reduction now and to secure food for the future Some of the changes will be ‘large and deep’ (and possibly chaotic) with at best a supporting role from science, new technology, development practitioners and campaigners Significant change is still possible closer to the realm of innovation – where power is not challenged A particular area of congruence between science and NGOs could be ‘orgware’ – creating new alliances and ‘institutions’ with farmers Thank you! How does change happen? A huge and sustained change is needed ... Innovation is necessary A case study of innovation in sub-Saharan African agriculture How else can we analyse and influence change? Why are resources not directed towards climate science in Africa? Data Scientists (only 2% of lead authors in the Journal of Climate were affiliated to African institutions) Washington et al., 2006 Advantages planting, irrigating, harvesting, fertilizing and pesticide application As far as societies are concerned. Climate change and climate variability are not Change and progress often stem from both the experience of individual extreme events and the material knowledge available to rationally respond to these circumstances. Friedman (1993) provides the example of the October 1921 storm in Scandinavia in his account of the birth of modern meteorology. There is a consistent gap in productivity between male and female small farmers (of around 20%) due to women systematically having lower access to key production resources, notably inputs and labour as well as equipment. Addressing this gap would enable women to increase their overall output by 10-20% leading to increases in overall agricultural productivity of up to 6%. Increasing the productivity of women farmers will also improve household food security outcomes. (State of Food and Agriculture “The poorest developing countries will be hit earliest and hardest by climate change, even though they have contributed little to causing the problem.” The Stern Review: The Economics of Climate Change. HM Treasury http://www.hm-treasury.gov.uk/ “no substantial famine has ever occurred in any independent and democratic country with a relatively free press” Amartya Sen, ”Democracy as a Universal Value” Journal of Democracy 0.3 (1999) 317