Tag Archives: agriculture

A noteworthy strength of our observational data is that it reflects actual mask use

The management of this crop by flooding requires more water per unit area than in other irrigation systems.In Brazil, the Federal States that produce rice in greater quantities are Rio Grande do Sul, Santa Catarina, and Tocantins, responsible for, respectively, 73%, 8%, and 11% of national production.In general, the rice crop is produced from irrigation by furrows or flooding.Although the levels of exposure of receptors to hazard may differ among the irrigation methods, the similar approach was adopted in the application of the methodology, as both take into account the flooding of the area.It is also worth noting that the SqMRA methodology must be applied in each project, individually, considering that the exposure levels may vary depending on the local characteristics and operational conditions of irrigation, harvesting, and storage.Thus, this generalized approach, adopted in the present study, is configured only for scientific studies, since the action can lead to a high degree of uncertainty.The data adopted for the application of the SqMRA methodology in rice cultivation in Brazil are presented in Table 8, according to the model previously described its stages and steps.Notes: 1 The SqMRA was applied in two scenarios, in which the first considers the effluent to be disinfected , and the second considers the reality of sewage treatment conditions in Brazil.2 Inhalation is attributed to aerosols,hydroponic gutter generally produced in a sprinkler irrigation system.Although intense winds can also produce these types of micro-droplets in flooded systems, inhalation was not scenarioized in the present paper, for simplification purposes.

However, in cases of application of the methodology in places with the possibility of high winds, it should be adopted for farmers and neighborhoods.The barriers adopted, defined as actions after the harvest, relate only to consumers since the farmer harvests the rice in nature.Given the perspectives and the Brazilian reality, in terms of the quality of treated wastewater, the SqRMA was applied in two different scenarios.In the first one, we chose to adopt Hazard equal to 7, due to the prerogative that a disinfected effluent guarantees more safety to the practice.However, the reality about wastewater treatment in Brazil shows that most of the effluent is treated at a secondary level, without disinfection.Thus, the second scenario relies on the application of the methodology, considering Hazard equal to 9.The complete spreadsheet is available as Supplementary Material.This spreadsheet was developed to facilitate the use of the methodology in other applications and regions, but care must be taken, each case is a case and this methodology represents a real portrait of this case.However, it is important to pay attention to the indiscriminate use of the available spreadsheet, since the user must always apply it with great care, considering the real local characteristics of each irrigation water reuse project.The results presented in Table 6 demonstrate the feasibility of applying water reuse for rice cultivation in Brazil, about aspects of epidemiological risk.As expected, and in accordance with previous observations from other authors, there is an estimate of a higher risk of microbiological contamination for the farmer than for other receptors.Despite the high possibility of contact between the farmer and the RW, the estimated global risk is still in the acceptable level.

In the case of the neighborhood, the risk is greatly reduced because the irrigation method is different from sprinkling and presents a lower possibility of producing micro-droplets that could be inhaled, as already mentioned.But still, it is in the acceptable category.For the consumer, low risk was also expected, due to the processing and cooking of the rice before consumption.However, it should be noted that these risk values may vary depending on the specifics of the configuration of each reuse system, since there may be situations that enhance certain types of contact.For this reason, to calculate the global risk, two procedures were adopted: i) considering the three receptors adopted in the study; and ii) considering only the 2 main receptors involved since the possibility of several receptors, with multiple handling criteria, involved after harvest could change the final value of the global risk.Thus, should be emphasized that for the application of the methodology in a real project, all possible receptors, from irrigation to the final consumer, must be taken into account in conjunction with the food safety procedures needs according to respective regulations, when in place.It should also be noted that when considering all workers involved in the production process of rice irrigated with RW, is possible to minimize risks by introducing capacity building and systematic use of equipment and safety habits.The States of Rio Grande do Sul and Santa Catarina, identified in the present study as responsible for 80% of the Brazilian production of rice, are comprised, almost entirely, in the River Basin of Uruguai andAtl^antico Sul and require, in general, approximately 382 m3 /s of water for irrigation.However, the two RBs present a service rate with domestic wastewater treatment at 30%.

Similarly, the RB Tocantins-Araguaia, which involves practically the entire State of Tocantins, has a demand of approximately 60 m3 /s for irrigation but also has a low rate of wastewater treatment.The relationship between the Brazilian states highlighted in the study and the River Basin Districts also highlighted can be seen in the schematic map in Fig.3.The scenario of high demand for water for irrigation and low production of treated effluent shows the difficulty of structuring water reuse, although the water demand for rice crop production in these regions is high and the risk of contamination of human beings is moderate, as demonstrated by the application of methodology.The RW was defined in two categories to assess the potential for reuse in Brazilian RB, as a function of water quality: Category 1 – RW from wastewater treatment plants that have an organic matter removal higher than 80%; and Category 2 – RW from wastewater treatment plants which, in addition to having an organic matter removal of more than 80%, have disinfection.In this sense, considering the three RB , the potential for supply of reclaimed water in Category 1 is 2.53 m3 /s and in Categories 2 , of 1.12 m3 /s.Since Category 2 , equivalent to Hazard equal to 7 , represents the lowest available water potential for reuse, it was decided to repeat the process of applying the SqRMA methodology, considering hazard equal to 9, which represents Category 1.The results for this reiteration can be seen in Table 10.This reiteration in the application of the methodology presents a very relevant result, in which when offering water corresponding to a secondary effluent , even the estimation of risk for the farmer changing from acceptable to unacceptable, the overall risk remains in the acceptable level, although quite close to the limit of the maximum value.Furthermore, the risk for the farmer can be reduced with equivalent barriers, such as rubber gloves and boots, consequently reducing overall risk.In this sense, it can be highlighted that Uruguai, Atlantico Sul, and Tocantins-Araguaia River Basin have a high potential for the application of water reuse in the irrigation of rice crops by furrows or by flooding, with an acceptable risk of microbiological contamination of human beings involved in the practice.

However, it should be noted that the study deals with a generalized scientific approach and, in the case of a real application, all those involved must be carefully evaluated and the scenarios must be exhaustively studied, also considering the use of additional risk minimization means, such as equipment and safety habits among the workers in each sector, to provide more safety for the practice.It is also noteworthy that in Asia, the largest producer of irrigated rice in the world, the crop represents 40–46% of the irrigated area among all other crops.The water reuse in China has become the main objective of WWTP in the new era of wastewater treatment in the country.In this sense, a good way to solve the problem of water scarcity is to increase water productivity, corroborates the results of the present research.In the case of irrigated rice, it is important to determine the economic and energy implications when considering water reuse options to improve water productivity at the system level.The novel coronavirus has killed millions and shut down entire countries.Yet the danger was not always this clear.In late December 2019, China reported over 40 cases of unusual pneumonia to the World Health Organization.By January 25th, Beijing, Shanghai,u planting gutter and many other provinces had declared public health emergencies, and most cities in Hubei went into lockdown.During this time span, it was unclear whether the virus was a rumor, how deadly it was, or how it spread.In three studies, we investigate how people in China reacted to COVID-19 during this early window of uncertainty.We find evidence that people in some regions reacted more proactively to this ambiguous threat.We test two broad categories of predictors: objective risk factors and subjective cultural factors.Analyses reveal that culture—not simply objective risk—explains meaningful differences in how people responded.At the onset of the COVID-19 pandemic, our research team observed whether people wore masks in public spaces.Day 0 of our observations was January 23rd, 2020, the day Wuhan went into lockdown.We observed people at eight sites across seven Chinese cities for two weeks.We ended our observations when mask use was nearly universal.However, a limitation to the data was the number of researchers we could deploy quickly and safely.Thus, to supplement the data, we surveyed people from a broader range of provinces on when they started wearing masks.Finally, we triangulated the findings against web searches for “masks,” which are less direct but provide more data points and a complete geographic coverage.

In reviewing previous studies on mask use, we identified three limitations.First, most studies relied solely on self-reported data.This could be problematic as people may feel pressured to report that they wore masks even if they did not—meaning self-reports may not reflects actual mask use.In this study, we measure both self-reports and observed behavior, which allowed us to test whether the results converge.Second, few studies have tracked mask use over time.One notable exception is a Hong Kong study, which found that mask use increased from 12% to 67% during the first seven days of the SARS outbreak.Studying response change over time is crucial as early action can save lives.For example, analyses estimated that implementing COVID-19 measures seven days earlier in the United States could have drastically reduced cases.Third, the few observational studies of mask use we found were limited in the locations and lengths of time tracked.For example, a study of mask use during H1N1 only observed two subway stations in Mexico City.Our study expands on this approach by covering multiple, diverse regions.This richer dataset allows us to explore a range of cultural factors beyond basic demographics like age and gender.We move beyond prior research on masks by testing for less obvious cultural differences that might influence mask use.One feature of collectivistic cultures is interdependence—a view that people are, or should be, dependent on each other.Such a worldview could increase mask use because, even if people are unafraid of risking their own health, masks could prevent them from transmitting the virus to others.Even before the COVID-19 outbreak, some cultural observers argued that wearing masks in Japan symbolized an obligation to protect others from the wearer.In contrast, some people argue that mask mandates infringe on individual freedoms in individualistic cultures like the US.One important study found that mask use was higher in more collectivistic nations and US states that scored higher on collectivism measures.Another cultural influence on mask use could be norm tightness.All societies have social norms—ideas about what behaviors are proper and not.Yet some societies have tighter norms than others.Recent research suggests that tightness varies within China.Specifically, norms are tighter in more developed provinces, as well as provinces that farmed rice in the past.Tight norms come with costs and benefits.Tight societies generally have stricter rules— which seems to conflict with out-of-the-box thinking and innovation.For example, tighter societies have fewer patents for inventions.However, tight norms can help societies respond to danger.Tighter societies tend to have more social order , which might facilitate strict mask policies.

A range of development initiatives to support small-holder agriculture exist in India

Of those, the watershed development program has been the most employed strategy since the 1990s and has focused on socio-economic development through modernizing agricultural production in India’s drylands.The annual investments in WDPs were approximately 4 billion USD between 2009 and 2012 , indicating the program’s magnitude.Currently, it is amalgamated into a larger program under the ministry of land resources with a similar scale of funding.WDPs encourage the promotion of intensive production systems , which are perceived as ideal for developing countries.WDPs, therefore, have been identified as key drivers triggering rapid transitions in farming systems.A recent study mapped the transitions in agriculture and farming systems in a region in Telangana.It also analyzed the effect of transitions in farming systems on smallholder livelihoods in the last 20 years.The study region was subject to various development programs, of which WDPs were the predominant one.That study, in line with other literature , indicate that farming systems before 1997 were primarily subsistence-oriented, with mixed crop-livestock production and where livestock had diverse functions.However, the subsistence farming system dwindled between 1997 and 2015, and specialized and market-oriented production systems emerged.The role of livestock became limited to the food production function.This was also accompanied by a significant change in land use, where croplands increased by 45% at the expense of wastelands that decreased by 75%.Increased regional production with land-use change led to groundwater scarcity in the region.In the end, the study also reported that some HH broke the socio-economic and cultural barriers to climb the “livestock ladder” to engage in, e.g., dairy farming.However, other HHs became marginalized and/or dropped out of the agricultural sector.

A plethora of articles have been published in the early 2000s on the agricultural and economic benefits of WDPs.Later articles indicated sub-optimal program outcomes due to various social, technical,4x8ft rolling benches and institutional issues.However, there is little information about the characteristics of the emergent farming systems and their economic and/or environmental performance.As indicated by Kuchimanchi et al., the fact that rapid transitions have occurred in the area, that more intensive forms of agriculture with altered crop-livestock interactions have led to higher input use, production costs, and investments ; or that development usually entail multiple trade-offs and undesired effects , calls for further research.Therefore, the aim of this study is to gain insight into the characteristics of emerging farming systems and their economic performance in a dryland region of Telangana, India, that has undergone rapid transitions in farming systems.This knowledge will help enhance the customization of WDPs and other development programs and ensure that their impact is sustainable.The two study watersheds are in the Rangareddy and Nagarkurnool districts of Telangana, India.For this research, we considered the administrative boundaries of the villages falling within the watershed, given that the secondary data are aligned with administrative boundaries.The first watershed covers four villages inhabited by 1820 HHs, and the second covers three villages inhabited by 1186 HHs.The HHs in the region are primarily agrarian , and 8.5% are engaged in non-agricultural activities due to higher education or acquiring non-farm skill sets.The predominant land category in the study region is cropland.The study region falls within the Deccan Plateau and Eastern Ghat agro-ecological sub-region 7.2.The area is characterized by deep loamy and clayey mixed red and black soils, with medium to very high available water capacity and a growing season duration of 120–150 days.The climate is characterized by hot, moist summers and mild, dry winters, with an aridity index of 0.2 ≤ AI <0.5.It is therefore classified as a semi-arid region.These districts are drought-prone, with an annual rainfall of 500–700 mm.We collected data in a stepwise approach to characterize the farming systems existing within the study region.The first step consisted of conducting a HH survey in both study watersheds in 2015.It involved face-to-face interviews with household heads using a structured questionnaire.

The data collected in the survey provided an overview of the population: types of livestock reared and herd sizes; farm sizes and categories of farming HHs ; and caste groups present in the region.The caste system in India is a social hierarchical classification of communities based on occupation, which has evolved since ancient times.Based on the government classification, we considered the four main groups: forward castes , backward castes , scheduled castes , and scheduled tribes.Of the 3006 HHs surveyed, 241 had no cropland or reared livestock, and they were excluded from the study.In the second step, we used the data from the household survey to classify the HHs according to the farming system.Our classification method was adapted from studies by Ser´e and Steinfeld , Kruska et al., Notenbaert et al., Robinson et al., and Alvarez et al..The classification was based on two variables: ownership of cropland and dominant livestock species reared.We identified the following farming systems: crop without livestock , crop with dairy , landless with livestock , crop with small ruminants , and crop with diverse livestock , as described further in the Results section.We conducted five focus group discussions, in the third step, one for each farming system.The participating HHs were randomly selected from the survey list.These discussions were intended to gather information on various qualitative characteristics of each farming system.Within each farming-system category, 30 HHs were randomly selected, and 1–2 members of each household were invited to participate.The gender composition of the focus groups was mixed, with participation varying from 25 to 30 people per group.Measures were taken to ensure proper representation from all farm-size categories and social groups mentioned above.If the representation of one of these categories was lacking, we substituted a randomly selected household from the over-represented group with one from the under-represented group.Each focus group discussion lasted 2–3 h and was conducted in the native language.To ensure that the objective of the discussions would be met, a detailed list of questions was used to guide the discussions.The key questions involved characteristics of current farming systems, including cropping and livestock-holding practices, farm infrastructure and use, off-farm jobs, access to fodder and water resources, livestock markets, and animal healthcare.The presence of different groups in each focus group discussion allowed to contrast potential divergent views between groups ‘in situ’.However, and to avoid domination by the wealthy, elderly, or socially forward groups, and to ensure that sufficient time was allocated for documenting information,each focus group discussion was moderated by an experienced facilitator.

All discussions were documented on charts to maintain transparency and enhance interaction with participants.We ultimately combined the quantitative data from the household survey with qualitative data from the five focus-group discussions to characterize the different farming systems.In the final step, we collected data on the economic performance of various farming systems in the study region.Although five farming systems were identified and characterized, we limited economic data collection to the three systems with consistent income from agriculture , based on the information derived from the focus-group discussions.The HHs to be surveyed were selected according to a two-stage sampling process.In the first stage, we selected the village in each watershed with the highest presence of all farming systems.From the selected village i.e.Thalakondapalle, 75 HHs were randomly selected from the complete household list.The selection for the survey was finalized only after HHs expressed their willingness to participate.Those declining to participate were replaced by new HHs until a sample of 25 HHs per farming system was reached.We compared the distribution of castes and farm size among selected HHs to ensure that they were representative of the total regional population.Data on the economic performance of the 75 HHs were monitored once every fortnight from August 2015 to August 2016 across all agricultural seasons in India: monsoon season , winter , and summer.Each household was provided with a data-collection booklet to record data, which data collectors cross-checked at regular intervals.Herd size was expressed in tropical livestock units.The conversion factors were cattle , buffalo , sheep/goats , and poultry.Labor was analyzed according to family type , assuming two working units for nuclear families and five working units for joint families.For the caste grouping prevalent in India, we considered the four main groups: FC, BC, SC, and ST,flood and drain table based on the Indian government classification.We estimated total revenue, costs of production, and gross margins at the household level as follows.The total revenue earned by a household was calculated based on the total quantity of different crop and livestock products sold multiplied by the market price, as obtained from the survey.The total costs of production were calculated based the total input costs for crop or livestock production, hired labor, and rented farm machinery costs, but excluding capital costs.The total GM was obtained by subtracting total costs of production from total revenue.All economic calculations were performed in Indian rupees and then converted to US dollars at an exchange rate of 71 INR.

The statistical analysis was to determine differences among farming systems and to gain insight into factors determining economic performance of those systems.The statistical analyses were performed using the statistical program GenStat , with a significance level of 0.05.To explore whether land use or herd size of HHs would differ across the farming system and/or between watersheds, we performed some preliminary statistical analysis.That analysis showed relevant differences across farming systems only, but not between watersheds.Hence, we performed an ANOVA with a post hoc Tukey test to identify differences in terms of land use and herd size across farming systems.To explore the economic performance of the three farming systems and gain insight into the factors contributing to it, we undertook a two step approach: ANOVA with post hoc Tukey test to identify differences in economic performance across farming systems, and a general linear model for each farming system to identify factors contributing to the GM.In the GLM model, the dependent variable was GM, with the independent variables of herd size, farm size, caste, and family type , along with all two-way interactions.Caste, labor, and their two-way interactions were not significant in any of the farming systems, and they were therefore removed from the model.Given the skewed distribution indicated by the GLM, we followed the approach described by Kuchimanchi et al.for the statistical analyses, converting the values into their natural logarithms.To ensure that values of 0 would also be transformed, we added one unit to all values.Once the tests were run, the mean values and confidence intervals were then back-transformed and one unit was subtracted from each value.This system accounted for the highest proportion of HHs.Most of these HHs were either marginal or small farmers , with medium farmers constituting 21% and large farmers constituting only 2%.The HHs in this system owned very few bore wells, which were seasonally functional.Cropping was thus predominantly rain-fed, with limited irrigated crop production.Low water availability limited crop farming in this system to one agricultural season per year.Mono-cropping of cash crops was predominant.Farmers reported that cropping practices were intensive and required higher investments, as they grew mainly cash crops, rented farm machinery, and used hybrid seeds and inorganic fertilizers.They added that cash crops were preferred to food crops, given their higher market value.These HHs mainly sold the produce, and the crop residues were either burnt or tilled back into the soil.Participants in the focus groups added that increased drought conditions over the years had led to failed crops, reduced yields, and increasing debts.These HHs owned no livestock due to diminishing common property resources for grazing, less family labor, or limited capacity to hire labor or invest in leasing lands for grazing or bore wells.The limited availability of water resources further inhibited them from taking up dairy production.A lack of livestock resulted in greater use of inorganic inputs in crop farming, as livestock manure was unaffordable.Many HHs therefore opted to take off-farm jobs in order to earn income, although they noted that such jobs were not adequately available.Most of the HHs also depended on the public food-distribution system to meet their food needs, as they cultivated mainly cash crops.The second most prevalent category was the CD system.Most of the HHs in this system were medium and small farmers , with marginal farmers constituting 15% and large farmers constituting 12%.The HHs in this system grew cash crops in combination with food crops and perennial green fodder.

Organic farming methods are also touted to lower greenhouse gas emissions

Furthermore, organic farming encourages on-farm agrobiodiversity, both through the diversity of plant varieties cultivated , and improves farmers economic profitability.Organic farming aims at creating a sustainable agricultural production system, including economic, environmental, and social sustainability.In Ghana, the potential of organic and its suitability as a future solution to some key farming system challenges is still not recognised.Studies on cocoa production in Ghana often focus on one dimension of sustainability.Thus, this study to the best of our knowledge will provide the first holistic sustainability assessment of organic and conventional cocoa farming systems in Ghana.The study seeks to answer the question, does the sustainability performance of organic cocoa farming system in Ghana differ from conventional farming? The Organic Farm System for Africa database made available by Research Institute of Organic Agriculture for analysis.The dataset provided information for over 300 indicators covering 6 themes and 14 sub-themes for the environmental integrity, four themes and 14 sub-themes for economic resilience, six themes and 16 social well-being sub-themes and five themes and 14 sub-themes for good governance.In Atwima Mponua District , a typical cocoa farming system is defined based on the predominance of smallholder cocoa farming households, engaged in either practicing conventional i.e., “business-asusual” or based on initiatives termed environmentally friendly.Cocoa farming systems are characterised by the different crops grown,vertical grow system and the livestock types reared.Cocoa farming systems used both family and hired labour for farming activities.

The organic cocoa farms are certified through Internal Certification System.These criteria guided the selection of 398 cocoa farmers, out of which 71 were organic cocoa farmers, with 327 conventional cocoa farmers.The OFSA covered three months data collection period from December 2016 to February 2017.Sustainability performance in terms of environmental integrity is illustrated in Fig.3.The five sub-themes, waste reduction and disposal, energy use, material use, genetic diversity and species diversity showed the highest sustainability performance between 60% and 80% for both organic and conventional cocoa farming systems.The lowest sustainability performance was shown by soil quality and freedom from stress for both organic and conventional farming systems that fell between the scale of 20% and 40%.Sustainability performance with respect to greenhouse gases fell within the scales 61%–80% and 40%–60% for organic and conventional farming systems, respectively.Sustainability performance of animal health and land degradation fell within the scales 41%–60% and 21%–40% for organic and conventional farming systems, respectively.Mean rank difference between the different farming systems based on the sub-themes of Environmental Integrity is shown in Table 2.Mean rank scores for the organic farming system ranged between126.3 and 260.6.Mean rank scores for conventional farming system ranged between 103.2 and 199.6.The two cocoa farming systems differed significantly for all the sub-themes except for waste reduction and disposal, and freedom from stress, where the pvalues were above p = 0.05.Economic resilience sustainability performance is illustrated in Fig.4.The risk management and profitability sub-themes showed the highest sustainability performance between 61% and 80% for both organic and conventional cocoa farming systems.The seven sub-themes, community investment, long-ranging investment, the stability of production, the stability of the market, product information, liquidity and value creation showed moderate sustainability performance for both organic and conventional farming systems that fell between the scale 41% and 60%.

A lower sustainability performance was shown by internal investment and stability of supply for both organic and conventional farming systems that fell between the scale 21% and 40%.Food safety and local procurement showed the lowest sustainability performance between the scale 0%–20%, for both organic and conventional farming systems.Mean rank difference between the different farming systems based on the sub-themes of Economic resilience is shown in Table 3.Mean rank scores for the organic farming system ranged between 191.2 and 259.2.Mean rank scores for conventional farming system ranged between 186.6 and 202.0.The two cocoa farming systems differed significantly for most sub-themes with the exception of, community investment, long-ranging investment, the stability of production, the stability of supply, risk management, food safety, value creation and local procurement, where the p-values were above p = 0.05.Social well being sustainability performance is illustrated in Fig.5.Workplace safety and health provisions showed the highest sustainability performance between 60% and 80% for both organic and conventional cocoa farming systems.The lowest sustainability performance was shown by seven sub-themes, capacity development, rights of suppliers, forced labour, child labour, freedom of association and bargaining rights, non-discrimination and food sovereignty for both organic and conventional farming systems that fell between the scale 20% and 40%.Sustainability performance of fair access to means of production fell within the scales 21%–40% and 0%–20% for organic and conventional farming systems, respectively.Sustainability performance for gender equality and support to vulnerable people fell within the scales 61%–80% and 41%–60% for organic and conventional farming systems, respectively.The mean rank differences between the two farming systems within the sub-themes of Social well-being are shown in Table 4.Mean rank scores for the organic farming system ranged between 189.2 and 266.2.Mean rank scores for conventional farming system ranged between 185.0 and 201.7.

The two cocoa farming systems differed significantly for some subthemes with the exception of, quality of life, capacity development, fair access to means of production, responsible buyers, rights of suppliers, employment relations, forced labour, workplace safety and health provision, public health and food sovereignty, where the p-values were above p = 0.05.In a review of farming systems by Seufert & Ramankutty , they also concluded that overall farm sizes of organic production are smaller.The current study is consistent with a study by Seufert & Ramankutty who found that organic farming is labour intensive in terms of weeding.Overall, the organic cocoa farming system spends more labour hours per season on various cultural activities compared to conventional.The organic farming system requires more labour than conventional systems , especially for labour-intensive commodities, fruits, and tree crops.As suggested in the literature, organic can have positive effects on environmental outcomes.In the case study, a limited to good performance was found in the two cocoa farming systems, not only for the organic farming system.Indeed, the studied conventionally managed cocoa farms are characterised by low-input operations with low use of synthetic fertilisers and pesticides.The organic farms, on the other hand, use low or no organic inputs explaining the greenhouse gases scales of 61%–80% and 40%–60% for organic and conventional farming systems.Akrofi-Atitianti et al.also found low input use in Atwima Mponua District.Similarly, in Ethiopia, Winter et al.found a moderate to good environmental performance for conventional and certified coffee systems and attributed it to the low use of external inputs.Our analysis showed that the organic farming system is better in greenhouse gases emission reduction and in terms of improvement in air quality.According to Akrofi-Atitianti et al., a major driving force for an improved performance for organic in terms of greenhouse gases is the low or no use of inputs.Similar studies in Ecuador by Bonisoli et al.for banana cropping system is consistent with the findings.The finding is also verified by Fess and Benedito that organic farming promotes carbon sequestration and reduce greenhouse gas emissions.

Organic farming systems showed better water management practices, such as the treatment of waste water in terms of disposal or reuse, water storage capacity and the use of rainwater compared to the conventional farming system.Studies conducted by Bonisoli et al., Berbe´c et al.and De Olde et al.found a statistical difference between organic and conventional in Poland, Denmark, and Ecuador, respectively.We observed measures that reduce land degradation in organic farming system to be significantly higher compared to the conventional farming system.Other studies show that organic farming contributes to soil building and soil structure by improving the cation exchange capacity of soil biotic and physical properties.In our case study,mobile grow system organic farming systems are more diverse in terms of ecosystems, species and genetics compared to conventional.Those findings are consistent with Bandanaa et al.who found high flora diversity in organic cocoa farming system compared to conventional in the same geographic context.In terms of material use, energy use and waste reduction, the current study found the organic farming system to be significantly better in performance compared to conventional.The literature says organic farms tend to be more energy-efficient than conventional.Our results showed that in most sub-themes, the sustainability performance ranged from unacceptable to good performance for both organic and conventional cocoa farming systems.In many sub-themes such as, community investment, long-ranging investment, the stability of production, the stability of the market, product information, liquidity and value creation, the performance is moderate for both organic and conventional farming systems.Moderate performance exposes farmers of both cocoa farming systems to market shocks in terms of cocoa prices.In the case study, the organic market is not well established.Some farmers sell most of their organic beans as rain forest beans or conventional.This is because the premium obtained by selling organic beans is often delayed.Winter et al.also made similar observations for coffee farming systems in Ethiopia, as farmers sell their coffee to private buyers as conventional produce.

The mean difference between organic and conventional farming systems explained that six of the sub themes in organic were significantly different from conventional.Other empirical studies showed that organic farming is economically better than conventional in terms of investment.The organic farming system is more profitable than the conventional system due to price premiums, most especially so when the crops are grown for exports.The current study found in many sub-themes, such as “Internal Investment,” “Profitability,” and “Liquidity,” that organic farming system is significantly better than conventional.Though both cocoa farming systems are exposed to market shocks, organic cocoa farmers will always receive a premium on the cocoa beans either sold as organic or RA.Also, the organic farming system enhances food quality and product information compared to the conventional due to improved traceability.The social well being sustainability performance ranges from limited to good performance.The lowest sustainability performance of most sub-themes was labour related.In the case study, mostly family labour or hired labour is used in farm operations.Berlan verifies the finding on the use of family labour in cocoa production in Ghana but adds that, it is unacceptable if children are being involved in hazardous activities.Other studies in Nigeria confirms the use of family or hired labour in cocoa production and suggests sharecropping as a dominant labour option due to dishonesty and dedication of family/hired labour.Capacity development, forced labour, child labour, freedom of association and bargaining rights were among the lowest for both organic and conventional farming systems.Especially for child labour, there was no difference between the farming systems because children within the case study were not engaged in hazardous works.According to a U.S.Embassy-Accra, January 2020 report, there is low incidence of child labour in the cocoa sector due to the enforcement of child labor laws and the “conduct of national dialogue on Child Labor Free Zones in the cocoa industry”.The organic and conventional farming system mean rank scores for social well being showed significant differences for mostly labour related sub themes.The results for ‘Freedom of association’ and ‘right to bargaining’ suggest that organic farmers have access to more external labour and the workers bargaining rights.This finding is consistent with Giovannucci et al.study of certified coffee farming system in Kenya, Peru, Costa Rica, Honduras, and Nicaragua.With regards to gender equality, child labour, and support to vulnerable people, there is a significant trend in favour of organic farming system.Studies in Asante Bekwai, Atwima Mponua Districts and India have suggested that organic cocoa farming is a welfare and livelihood enhancer, and promotes gender equality in the workplace and encourages full participation for vulnerable in vibrant rural communities.The organic farming system performed significantly better compared to conventional in terms of indigenous knowledge since traditional and cultural knowledge used by farmers is protected.This is consistent with findings by Ssebunya et al.on coffee farming systems in Uganda and Schader et al.in Africa and Europe.The performance of both farming systems mostly ranges between the scale unacceptable and best performance for this dimension.The lowest sustainability performance was shown by the sub-themes’ mission statement’ and ‘legitimacy’ for both organic and conventional farming systems.Employment conditions on farms are not stable, explaining the low performance in legitimacy.Organic farmers are verbally committed to sustainability topics more than conventional, hence better performance in full cost accounting and mission statement.Similarly, Winter et al.found mission statements to score low among coffee farming systems in Ethiopia.This was explained as Ethiopian coffee farmers partial commitment to sustainability topics and their lack of evidence to show for specific planned improvements.

Dairying is a very labour intensive enterprise but the cost paid by the farmers was not attractive for farm workers

The present study found that, lack of improved dairy genotypes was reported as the fourth important challenge of dairy production.The low production and reproductive performance of local dairy cows was mainly due to their low genetic potential.Lack of access to artificial insemination services, high prices of improved cows and heifers, and lack of capital were mentioned as the main limiting factors for the lack of improved dairy cows.Therefore, breeding programs which enable dairy farmers to crossbreed their indigenous cows with improved dairy breeds either through natural or AI services should be provided by the government and non-governmental organization.Alternatively, the government or NGO should supply farmers with crossbred genotypes with affordable prices to increase productivity together with improved feeding technologies.Lack of access to credit services was ranked as the 5th most serious problem to dairy production.It was reported that, lack of credit to allow farmers for investing in technological changes is a major constraint to intensification among smallholder dairy farmers.Use of formal credit was a major constraint due to lack of securities as most of the dairy farmers are resource poor.Generally, investment in improved inputs was found to be very low, except farmers who kept crossbred dairy animals.The locally available financial institutions such as state owned commercial banks, micro-finance institutes, and private banks provide credits to commercial businesses, and smallholder farmers lack access to credit services from these financial institutions due to lack of collateral security.Moreover, the farmers feared the high interest rate and short repayment period to borrow from bank.This discouraged farmers to borrow money from banks.Therefore, there is a need from the government to encourage financial institutions to provide access to affordable credit services and long-term repayment to help farmers invest in improved dairying inputs to improve productivity of their dairy animals and household nutrition and food security.

Another major constraint identified by respondents was low productivity of dairy cows.This was associated with lack of improved dairy breeds, which was again attributed to their high prices,hydroponic nft lack of or inefficient AI services and shortage of quality feeds, among others.Non-remunerative prices of milk and lack of preservative facilities especially during the long Orthodox Christians fasting periods and higher milk yields in the rainy season were reported as the main constraints for low milk prices.This result supports that of Debrah and Birhan , who reported the low milk prices and demand of milk was attributed to the long fasting season, whereby the Ethiopian Orthodox followers abstain from consuming milk for more than 150 days/year.Respondents reported that they are unhappy with the prices they were getting for milk during long fasting periods.Therefore, to overcome the low demand and fluctuations of milk prices, especially during the long fasting periods, value addition to milk in form of butter and cheese could make a better market for milk after fasting periods or for home consumption.Moreover, the farmers should be encouraged to establish dairy cooperative or milk collection center in order to have access to formal marketing and strong bargaining power in setting fair prices for their products, as well as to obtain improved inputs such as supplementary feeds, AI, credit, veterinary services and drugs at affordable prices through their cooperative.Shortage of water in the dry season was another constraint identified by farmers in the study area.Support from government and nongovernmental organization for water development such as well water and improving municipality water supply are suggested to mitigate shortage of cattle drinking water in the dry season.According to the respondents, the major causes of feed shortage were lack of land, shrinkage of communal grazing lands, severe scarcity of feed in the dry season, expansion of towns encroaching nearby grazing lands, high prices and unavailability of commercial feeds, lack of forage production, inadequate knowledge on how best use locally available feed resources, and lack of access to credit and capital problems.Hence, there is a need for introduction of alternative feeding system, such as efficient use of locally available feed resources, feed conservation, treatment of crop residues, adoption of Urea Molasses-Mineral-Blocks, concentrate supplementation to lactating cows when affordable, and on farm feed formulation from local feeds as substitute to costly commercial concentrates are suggested to alleviate the causes feed scarcity and ensure all year round feed availability, especially for lactating cows.

As indicated in Table 9, farmers’ revealed that high prevalence of endemic infectious and parasitic diseases, lack of routine vaccination, inadequate veterinary services, lack of proper disease prevention skills, transmission of diseases during communal grazing and high cost of treatment as factors associated with animal health problems.Therefore, training farmers’ and provision of adequate health care extension services on diseases control and best health practices, adequate veterinary services and drug supply, routine vaccination for the most common infectious diseases are suggested.The results presented in Table 9 revealed that lack and/or inefficient AI services, low conception to AI, high cost and unavailability of crossbred cows, more vulnerability of improved breeds to diseases, high management and feed scarcity were reported to be the critical factors for non-adoption of crossbred/improved cows.The study suggests improved access to AI, access to long term and low interest rate credit services for purchasing improved animals, and improving the efficiency of AI technicians to reduce the problem of low conception rate are areas that need to be highlighted for alleviation of the problem.The results of the current study indicated that lack of specific financial systems and policy support in relation to credit services, unavailability of rules for dairy animals to be used as collateral security for borrowing from financial institutes, and fear of the short-term repayment and high interest rate that discourage farmers from borrowing are the main influencing factors for access to credit services.For majority of the respondents it was impossible to buy crossbred cows due to critical limitation of capital.Thus, the government should encourage the local government controlled micro-finance institutes to provide long term and low interest rate credit services that fits the dairy farmers to acquire improved inputs and technologies that improve milk production and their income.Low milk price was also considered another challenge to dairy production.The possible influences reported by farmers were poor genetic merit of local cows, lack of crossbred animals, feed scarcity and lack of supplementation, diseases , and poor management practices.Therefore appropriate measure need to be taken to improve access to efficient AI services for crossbreeding the local breed along with improved husbandry practices in order to increase milk production and farmers income.As indicated in Table 9, the low prices of milk was reported to be associated with seasonal fluctuations in demand especially during the long fasting periods of Orthodox Christians, lack of milk collection center and dairy cooperative, and unavailability of appropriate milk processing technologies to add values to milk to increase its shelf-life during fasting periods, and lack of milk price policy based on the cost of production.

In Ethiopia, Orthodox Christians fast for more than 150 days per year.The long fasting periods are 55 days before Easter and 30 days before Christmas.Farmers sell their milk at farm gate to individual consumers or retailers with low and price fluctuations, due to lack of milk collection center and dairy cooperative, which have major influence on dairy farmer profitability.Therefore, dairy farmers should be encouraged to form dairy cooperative to develop formal milk value chain which function ethically and improve their bargaining power in terms of deciding fair prices and reduce price flactuations and income loss to them and off course for the benefits of milk users.At Agaro town, the existing dairy cooperative was not active and need to be strengthened by providing necessary technical and institutional support.The results of the current study further revealed that the labour shortage as constraint was reported to be associated with high cost of labour and its unavailability.Due to this most respondents relied on family labour for dairy management activities.The result showed that dry season hydroponic channel, shortage of municipality water supply during the dry season and labour shortage for feed and water collection for zero-grazed crossbred animals were reported to be the main associated factors for water shortage during the dry season.In this study, surveyed farmers practiced different coping strategies in response to the challenges they faced aimed at reducing the effects of these constraints to optimize productivity and sustainability of dairy production.Generally, farmers’ perceived effect of the identified challenges on dairy animals was poor productive and reproductive performance, whereas the impacts on farmers were reduced income, food insecurity, and increasing the vulnerability in their livelihoods.Respondents’ suggested supports needed from dairy development stakeholders and government to overcome the identified constraints for sustainability of their dairy farming is presented in Table 9.Generally, the supports needed by the respondents to alleviate the identified constraints to dairy production included breeding, economic, feed and nutrition, genetics, health, and marketing interventions.

The impact of climate change and climate variability on agricultural livelihoods in resource-dependent societies has led to numerous national and international initiatives that aim to improve decision-making through the application of weather/climate information services.This reflects the urgency of adapting to global climate change as highlighted by the Intergovernmental Panel on Climate Change report: Global warming at 1.5 degrees and the need for concerted and aggressive measures to ensure weather information services work at all levels of society.WIS involves the generation, provision, and contextualisation of information and knowledge about the condition of the atmosphere at a given place for up to about 14 days for decision-making at all levels of society, thus making it a sub-type of climate information service.Climate information service is a means through which vulnerability to climate change and climate variability might be reduced and improve the resilience of livelihoods.Although most studies indicate that the use of, and interest in, weather/climate information services have increased over the last decade, every empirical research continues to show that information is not used to its full potential.Overall, the empirical literature on weather and climate information services has revealed usability gaps influenced by many factors.Consequently, the World Meteorological Organization launched the Global Framework for Climate Services in 2012 to provide and facilitate access to weather and climate information services.Hence, the forecast information meets users’ varied requirements through observations and monitoring, research, modelling, prediction, capacity building, and the creation of user interface platforms.The information usability gap, a function of both how weather/climate information services are produced and how they are needed and applied by users in different decision-making contexts, is also narrowed.These, indeed, have resulted in an explosion in research on the use of WIS across regions in different sectors, including farming.In Ghana, climate change through global warming causes consequent variability in weather conditions in the form of increasing dry spell length and frequency, early or late rainfall onsets, and reduction in rainfall amount.The effects of climate change have a negative toll on agricultural production, the mainstay of most of the population.Since food crop production is primarily rainfed, the sector is vulnerable to the adverse effects of climate change.In this context, weather/climate information services support farmers’ adaptive decision-making under uncertain conditions.In Ghana, the weather/climate information service was provided only by the Ghana Meteorological Agency, the sole public organisation responsible for producing and disseminating forecast information.In recent times, business organisation and international NGOs are also providing forecast information.The provision of forecast information for farming includes seasonal onset, weekly and daily rainfall, and temperature conditions.The information is delivered mainly through radios, mobile text messages, workshops, TV, mobile phone, information centre, newspaper, community leaders, and social media.Yet, in most farming communities, the radio is the key medium for receiving weather/climate information because it is relatively cheaper and used without electricity supply.Smallholder farmers also often depend on their local knowledge by using various indicators like the appearance of a flowering plant to determine the pattern of rainfall.Farmers apply the information for land preparations, crop variety selection, changing cropping patterns, applying fertilizer, planning planting time, and managing crop risks.Even so, the uptake of forecast information for decision-making in farming is affected by multiple social-economic and cultural barriers.These include inadequate information on seasonal forecast, high levels of illiteracy, the lack of communication of information in the local language, and non-integration of farmers’ local knowledge into the production of forecast information.

Pollination is critically important for sustaining the world’s terrestrial biota

Geomembranes are generally welded in the field.The seam is considered a critical point for possible injuries and future leaks in the barrier system.Rollin et al.reported that the total number of faults in geomembranes occurred in landfills, ponds and basins, and 55% of them were found at the seams.Stark et al.evaluated seams made by industry and in the field of a polyolefin geomembrane for a water reservoir project.According to the authors, the seams made by industry can minimize dirt and moisture in the seam, ambient temperature changes and wind.After good statistical data work, the results of this research showed that the seams made by industry were 9% stronger than field seams for peel strength and 10% stronger for shear strength.Moreover, seams according to industry data showed less variability.Lavoie et al.evaluated two different HDPE geomembrane samples exhumed from a municipal landfill leachate pond and a sewage treatment aeration pond.The authors conducted thermal, physical and mechanical analyses.The thermogravimetric analyses showed an altered decomposition behavior for the landfill leachate pond sample, probably caused by the interaction with the leachate.The sewage pond sample presented low stress cracking resistance and low tensile elongation at break, compatible with the dynamic mechanic analysis , which showed an increase in the stiffness.Ewais and Rowe studied an HDPE geomembrane with 1.0 mm of the thickness of about five years immersed in synthetic leachate at different temperatures and in air and water at 55 ◦C.The authors observed changes in the sample’s stress crack resistance values before chemical degradation and before antioxidant depletion for temperatures lower than 70 ◦C.The major SCR value decrease was noted for the sample immersed in leachate at 55 ◦C, reaching 26% of the SCR value of the virgin sample.

This behavior was attributed to morphological changes during aging that affected the interlamellar connections due to the annealing that increased the strength of the inter-lamellar connections and the proposed chain disentanglement mechanism.HDPE geomembranes are often utilized as a flow barrier in landfills, mining facilities, canals, waste liquid ponds,mobile vertical farm and farm ponds.This research evaluated three exhumed high-density polyethylene geomembrane samples from two different shrimp farming ponds after 8.25 years of field exposure for the first pond and 3.0 years of field exposure for the second pond.Thermoanalytical and physical analyses were used to understand the final conditions of the HDPE geomembrane samples.Analyses such as thickness, density, carbon black content, melt flow index , tensile properties, stress crack resistance, oxidative-induction time , thermogravimetry,differential scanning calorimetry,and dynamic mechanical analysis were performed.Using an HDPE geomembrane as a liner of a shrimp farming pond is limited to some places globally, such as the northeast region of Brazil.This work aims to provide new data on the HDPE geomembrane performance in shrimp farming pond applications.This work evaluated three high-density polyethylene geomembrane samples exhumed from two different shrimp farming ponds in the northeast of Brazil with 0.8 mm of nominal thicknesses.The samples called “CAM” and “CAM1′′ represent the same geomembrane installed in a shrimp farming pond and were collected after 8.25 years of field exposure.The CAM sample was exhumed from the bottom liner and had been in contact with the salinized water.The CAM1 sample was exhumed from the same pond as the CAM sample, but it was taken from the slope liner and had been in contact for 8.25 years with environmental conditions.The third sample was exhumed from another shrimp farming pond after 3.0 years of service.This pond has the particularity of being covered with an agricultural plastic film.Figs.1 and 2 show, respectively, the shrimp farming pond representing the CAM and CAM1 samples and the shrimp farming pond representing the CAM2 sample.Table 1 presents the salinized water parameters used for shrimp cultivation.

However, nesting habitats and foraging resources for pollinating insects have decreased severely due to intensification in agricultural landscapes.Developing effective mitigation tools to counteract pollinator losses is essential for satisfactory pollinator diversity and sustainable agriculture.In Europe, agri-environment schemes are among the most valuable instruments to reduce the pressure of agriculture on the environment.The new Common Agricultural Policy of the EU also aims at increasing their share by targeting one-fourth of the direct payments to subsidise eco-schemes.AES offer two main tool types to support biodiversity and thus pollination, i.e.productive and non-productive schemes.Organic farming is one of the most favoured productive management systems where farming intensity is reduced with a preference for mechanical methods over agrochemicals.In their meta-analysis, Tuck et al.found that organic farming increased overall species richness by 30 %, with plants benefiting the most.Pollinator insects also profit from organic farming.Flower strips are flower-rich non-crop landscape features created at arable field edges.The annual or perennial strips are formed to enhance invertebrate pest control and pollination by providing forage, shelter, and nesting places.As AES schemes differ in concept, they should be evaluated against each other to prioritise them for benefits to biodiversity.Functional trait-based assessments offer an effective tool for studying community functionality, redundancy and stability in agroecosystems.Different management types can support various arthropod taxa by maintaining specific plant functional traits and high functional trait diversity.Plant traits associated with visibility, quantity, and quality of floral resources are the most important traits shaping pollinator communities.For example, plants with large, conspicuous inflorescences attract pollinators efficiently , while floral patterns resulting from UV reflection are also important signals to several major pollinator groups.Nectar is the primary reward for pollination; therefore, spatial and temporal variation in nectar volume influences pollinator behaviour and survival.As land-use significantly affects pollination-related flower traits , their diversity can indicate the quality and quantity of floral resources and can be used to evaluate AES schemes for pollinators.Different field parts with different management regimes can support biodiversity and pollination to varying degrees.The interior of arable fields covers the largest area of agricultural landscapes; therefore, its ecological condition may be decisive for biodiversity at the landscape scale.Intensive management within field interiors favours plants with ruderal strategies , and selects for species with early flowering and selfing.Crop edges are also shown to be keystone transitional zones for pollinators and support increased plant diversity compared to field interiors as they are expected to contain both typical arable weeds and species originating from grassy margins.

Linear non-crop landscape elements such as grassy margins along field edges are less intensively managed than field interiors and also provide important shelter and forage resources for various taxa in agricultural landscapes.The overall performance of AES schemes on pollination should be quantified by assessing all characteristic parts of the agricultural fields.Landscape-scale factors should also be considered beside local factors when studying the effects of AES schemes on pollinators and their services.The effectiveness of AES varies by landscape heterogeneity that has two main components.Compositional heterogeneity describes the relative amount of habitats in the landscape, whereas configurational heterogeneity refers to their spatial arrangement.Most studies assessed the effect of landscape composition on pollinator communities and found that pollinator abundance and richness were higher in landscapes comprising more high-quality habitats.The role of landscape configuration is less studied, though it may also be very important as landscapes with smaller fields have higher structural connectivity and more edges providing more floral resources for pollinators.Given this research gap, here we focus on the role of the less studied configurational heterogeneity by assessing landscape-scale mean arable field size.Our study presents a trait-based approach to estimate the potential of two agri-environmental schemes to support pollinators based on floristic composition.For this, we studied plant traits associated with pollinator attraction and reward accessibility.We calculated community-weighted trait means and functional trait diversity in organic and conventional winter wheat fields complemented with sown flower strips and compared them to conventional fields along a gradient of landscape configurational heterogeneity.We tested whether management intensity and landscape heterogeneity select for specific pollination-related plant traits, and result in differing trait diversity by using literature data on species traits.Our specific hypotheses were the following: Pollination-related plant trait diversity is reduced with increasing mean field size within the landscape.Flower strips and organic farming maintain functionally more diverse plant trait composition than control conventional fields.Pollination-related plant trait diversity decreases from grassy margins to field interiors in both conventional and organic fields.We considered only insect-pollinated plant species that may attract pollinators and provide nectar resources.We assessed the following traits: flower size, flower colour, UV pattern in the flower,vertical farming racks reward quantity, and flowering duration.Trait values were collected from the BiolFlor database and identification books.Flower size was expressed as flower diameter.For zygomorphic flowers, the mean of the longest and shortest diameter was calculated.In the case of compact inflorescences that can be regarded as one functional pollination unit, we used the size of the whole inflorescence.We expressed flower colours on a continuous wavelength scale.White-flowered species got the mean value of the visible light spectrum.The presence of UV pattern in the flower was treated as a binary variable.In the case of reward quantity, we considered only nectar resources because of no available information about pollen resources for the majority of the species.Nectar quantity was provided on an ordinal scale with four categories.

The average flowering duration was coded as a continuous variable.For each transect, we calculated the total number and average percentage cover of insect-pollinated plant species.We quantified transect-level community-weighted means for each trait by averaging trait values weighted by species abundance.We tested the effects of management type , transect position , mean field size on the species richness and cover of insect-pollinated plant species, Rao’s quadratic entropy and the CWM and FD values for each trait by using linear mixed-effects models.We used generalized mixed-effects models for species richness with Poisson error distribution and log link function.For each response variable, we started with a model with all two-way interactions of the fixed effects and then selected the minimum adequate model from all possible nested models with the minimum Akaike Information Criterion value.The effect of years was not assessed per se but was treated as a random effect in the analyses.The field, farmer, and landscape identities were also used as random effects nested within each other and crossed with year.We used log transformation for cover values and square root transformation for CWM and FD values if necessary to fulfil test assumptions.We restricted our assessment on those 151 transects that harboured at least one insect-pollinated plant species for flower colour analyses to have meaningful results.We derived marginal and conditional coefficients of determination of the models to estimate the variance explained by the fixed effects and the entire model including both fixed and random effects using the MuMIn.We conducted multiple GLMM tests, therefore, we controlled for the false discovery rate.Post hoc pairwise comparisons were made with the em means package , and were presented in the figures.All analyses were conducted in the R environment.We found that flower strips and organic farming outperformed conventionally farmed fields, as they had the highest insect pollinated plant species richness and supported higher trait diversity favourable for pollinators.Flower strips were superior with the highest cover of insect-pollinated plants and the highest ratio of flowers showing UV patterns.Although annual flower strips doubled the insect-pollinated plant species richness in the grassy margins, the benefits of flower strips completely diminished in neighbouring field interiors.In contrast, organic field interiors could be considered the most favourable pollinator habitat among the studied field interiors based on plant pollination traits.Thus organic farming can enhance pollinators at a larger spatial scale with more environmentally friendly crop production on the whole area of the arable land.We did not find any effect of configurational heterogeneity expressed as mean arable field size.We showed that organic farming outperformed conventional farming practices regarding insect-pollinated species richness, flower attractiveness, and food resources provided for pollinators.This is primarily due to lower overall farming intensity in organic fields.Even organic field interiors offer abundant and diverse flower resources to pollinators compared to conventional farms.Thus, we can consider organic farming the most beneficial method based on pollinators’ resources.In contrast, intensively managed conventional fields supported the lowest richness of insect-pollinated plant species showing that only a few plant species could establish here randomly.Annual flower strips sustained the most favourable vegetation for pollinators, considering the quantity and quality of flower resources.They had six times higher cover of insect-pollinated plants than the edges of the other two farming methods.

Features that focus on pigs vary from features of live pigs to features of meat

We assessed that the first 50 publications contain sufficient information for answering the research questions and thus were used as exclusion criteria. The primary studies with their authors and publication year are included in the appendix . To get insight into the relevance of the topic for this SLR, the results of the broad and narrow search results are grouped by year of publication and presented in Fig. 1 and Fig. 2, respectively. When looking at the number of primary studies published for the broad search query, it seems that there are downward trends in 2010 and between 2014 and 2018. This is however due to the high number of publications that were found and the exclusion criteria that affected publication in those years disproportionately. Many publications were excluded because they were outside of the 50 most relevant publications. However, there is a consistent and sharp increase in the number of publications since 2018 both for the narrow and broad search queries. To get insight into the focus of the primary studies, we have categorized the studies by topic . The categories clearly indicate that majority of the studies were on pig health. Most studies focussed on the presence, spread, or outbreak of diseases, and few studies focussed on the causes and prevention of boar taint. In the selected primary studies, pig health and the performance of pig production were researched often. The production performance was investigated by analysing various parameters, such as the DNA of pigs,rolling bench fat composition of pig meat, meat quality, and muscle thickness. This shows that the production performance of pig farming was mostly measured using the attributes of the meat measured after the animals are slaughtered. Besides pig health and pig production results, other topics were researched.

Several feeding strategies have been developed and evaluated. Further, research was done to test if the origin of meat could be traced and on-farm environmental influencers, such as disease spread in manure and temperature effects on pigs. The narrow search query focused more on the application of ML and the topics of research are summarised in Table 7. According to the search results, most of the research focussed on performance related issues, such as pig performance, feeding strategy, and genetics. Pig health is the second most researched area, focusing mainly on diseases. The trend of using ML for disease detection through image and video analysis is reflected in the number of primary studies found on this topic. Pig detection and behaviour analysis were also performed using ML. Feeding strategy was analysed using basic statistical analysis and using ML. There were also primary studies that focus on detecting the origin of meat, detecting stress in pigs. A detailed description of the topics of research per primary study is shown in Appendix B. As can be seen in Table 8, a variety of data were used for research in the pork industry. Data were largely collected from body and tissue . The rest of the data reported refers largely to measurements of the external characteristics of the animals and their living environment or feed . There were also primary studies that used data on manure and micro-arrays. The type of data used per primary study is shown in Appendix E. The results of the analysis of data from the second search query focused on the application of ML to pig farming are shown in Table 9. The table shows the widely used features used in research. The features used can be grouped into features on pigs and features on climatic conditions.Pork meat information, images and recordings, growth, occupancy and reproduction, genetics, and pig movement have been used to build and validate models. The features on climatic data consist of data about indoor or outdoor climatic conditions, or both. Data used in those primary studies consist of outside temperature, indoor temperature, and relative humidity. The features used per primary study are shown in Appendix H.

The location of data gathering provides insight into the main sources of research data. We have categorized the locations where data are gathered into groups , which shows that most of the data is gathered at farms and slaughterhouses. The farms were sometimes conventional farms where a specific group of animals was monitored closely; other times, they were experimental farms used for precisely monitoring growing conditions and pig behaviour. Slaughterhouses serve as one of the main data gathering locations. The quality and composition of meat are important indicators of production performance; therefore, data from slaughterhouses where these indicators are routinely measured, are important sources of data. Other locations of data gathering for research include laboratories , externally collected data, previous research, or large database where data are shared. Further, data was collected at distribution centres, urban abattoirs, and there was a case of data from a virtual simulation. The data gathering location per primary study is shown in Appendix C. To get an overview of data analysis methods used in the primary studies, the algorithms or principles used were calculated as shown in Table 11. Least squares regression was used most often, followed by logistic regression. The primary studies found by the broad search query did not often use complex algorithms; instead, they applied variations of the linear regression model. All data analysis methods used are shown in Appendix F. All primary studies found by the second search query used ML algorithms. Random forest algorithm was used most, followed by neural networks and support vector machine, as is shown in Table 12. Compared to the primary studies found by the broad search query, those found by the narrow search query used more complex analysis models.

The algorithms used per publication are shown in Appendix G. Eight studies using models based on random forest and/or neural networks recorded an R-squared accuracy scoring higher than 0.7. The challenges stated include difficulty in scaling into large-scale farms due to differences in the environment between the experimental setup and large scale farm, and other features that influence the performance. Table 13 shows what has been studied, and if the research subjects were pigs, it shows the size of the group of pigs studied. A total of 26 primary studies considered live pigs, from which measurements were made. The number of pigs used for research varies significantly, from 5 to 908,582 pigs. Three primary studies considered farms as a whole, focusing on the growing environment of the pigs. Further, data on meat quality and faecal samples were used by some studies. There were also studies that used externally collected data, virtual experimental data, RNA pools, and liver pasts. Appendix D shows the research group types and sizes per primary study. Much research has been using data on genetics, pig breeds, meat quality after processing, disease recognition, and factors influencing diseases. Research that focused on the prevention of negative aspects of the final product is, for example, research done on boar taint and the attempt to reduce it. Boar taint in meat results in a lower price for the carcass. A variety of challenges have been stated in the studies regarding ML. The largest challenge is making the algorithms perform consistently high for all situations. Many studies reported that it was feasible to define a well performing model for the specific research setup and condition the model is trained and tested on but it was in general not possible to guarantee the same level of performance in practice. Mostly, more data and more features are required in order to improve the overall performance of the models developed.The original aim of this study was to review the literature on the use of advanced data analytics techniques in real-life business scenarios. We tried diverse search strings in order to find studies that are not based on experimental set-up be based on the use of data sources from real-life production chains. But the number of results we obtained was low.

We were unable to find any study that fused data from the whole production chain except one by Ma et al. . Ma et al. developed an intelligent feeding equipment and network service platform,roll bench using sensors, software, and monitoring units. This system helped in optimizing feeding methods and improving pig management. We considered, therefore, two search strings, a broad and a narrow search string: the former focussing on general data analytics and the second on machine learning. In both cases, we used more generic terms and relied on exclusion criteria to select the relevant studies. We consulted five scientific databases in this SLR, namely: Science Direct, Scopus, Web of Science, Springer Link, and Wiley. We did not consult Google Scholar initially which returned 16,300 publications, a vast majority of which were irrelevant, and thus filtering out the relevant publications was infeasible. The exclusion criteria we selected ensured that only publications that are accessible and of high quality were considered. The exclusion criterion on year of publication was based on our initial test search results. While research performed 20 years back is likely outdated, the set year allowed us to get a clear view of the trend in the studies published. This made it clear, for instance, that the number of primary studies increased substantially from 2018 onwards, particularly on the application of machine learning in the pork sector. When analysing the results of the SLR, we grouped the attributes such as features, data types, or algorithms we found. Grouping the results allowed us to derive clear conclusions. The detailed results are however included as appendices to this study. As can be seen in the increasing number of primary studies since 2018, the application of ML will be important in the pork sector in the future. When looking at the algorithms used in this context, studies that used features and data on images and recordings often used neural networks, specifically convolutional neural networks algorithm. For example, Cowton et al. , Mukherjee et al. , and Fernandes et al. focused on pig recognition and deviations in behaviour. Studies that used pork meat information often had random forest as best performing algorithm. The focus of the research using pork meat information was to investigate growth performance or the state of health .

What is striking in our review is that most of the research conducted use only groups of pigs selected for an experiment. Most of the studies are conducted in large pig farms; however, the numbers of animals studied within the farms were often small, indicating the studies were conducted on an experimental basis and not on the entire herd. While the focus on a selected group of pigs helps to accurately track and monitor pigs, it does not reflect the real-life situation. Therefore, it remains unclear whether the solutions found in research could be applied in real-life business cases. Out of the 41 primary studies we considered through the broad search query, only 10 involve more than 500 pigs, and of which only two, performed by Naatjes et al. and Haraldsen et al. , used real-time data from farm management systems. Research based on real-life data is scarce and most studies focussed mainly on isolated and one-off problems. We suggest that future research should consider the complexity encountered in real-life circumstances and the integration of data analytics within the management systems so that the analytical results can be used within routine business processes. The Republic of Botswana has an installed capacity of 550 MW with an estimated population of 2.3 million of inhabitants. It is reported that the country has one of the highest national electrification rates in Africa determined as 60 % with 77 % of the population connected to electricity in urban areas and 37 % connected in the rural areas. According to Statistics Botswana, it is stipulated that the Government has set national electricity access target of 82% by 2016 and 100 % by 2030. With an average energy demand of more than 400 MW, Botswana relies mainly on fossil fuels energy sources such as coal, fuel wood, and petroleum and an imported power from South Africa to meet needs of the population. Additionally, the country is also known for its particularity in renewable energy sources such solar, wind and various forms of bio-energy such as bio-fuels and biomass wastes.

Organic fertiliser application was slightly increased in KE-C and GH-NC while it was reduced in KE-NC2

In the non-certified case studies, rather small percentages of farms fully followed the rules of OA. In KE-NC1, the case study with the most promising approach, up to 42% of farmers worked organically, without any certification, while in GHNC and KE-NC2 only 16% and 28% did, respectively. Remarkably, in four case studies, the share of smallholder farmers in the control group that did not use conventional inputs was below or around 10%. In KE-NC1, the rate was about 21% . This is contrary to literature, where organic-by-default is often indicated to be common among smallholder farmers in SSA . This indicates the increasing availability and usage of conventional inputs as found by De Bon et al. and Andersson and Isgren . Especially pesticide use among smallholders is far more widespread than commonly assumed . Getting accustomed to conventional input use may lead to a decreased willingness of smallholder farmers to convert to an entirely organic system and agroecological principles . However, input use in SSA varies substantially between countries , therefore these results cannot be extrapolated to other countries. Farmers replacing conventional inputs with either preventive or curative agroecological practices can address nutrient and pest management issues under organic management. These practices include, among others, applications of botanical pesticides, such as neem; preventive practices can involve a more diverse rotation, agroforestry or intercropping systems.We specifically analysed whether the interventions led to an increased uptake of a) practices substituting conventional inputs for pest, disease and weed management, b) practices for substituting mineral fertilisers, and c) further agroecological practices.

Looking at the effect of the interventions on the uptake of AOM practices, our data shows no widespread systematic adoption in any of the case studies.Among the agroecological practices,hydroponic barley fodder system only the diversity of crop rotations was affected positively in GH-NC and KE-NC1 while it was even less diverse in KE-C and KE-NC2. For the remaining components of AOM, we did not find consistent differences between the intervention and control groups. While at least one of the interventions led farmers to adopt POM, AOM was not adopted widely in any of the case studies, despite that all of the interventions aimed at such an adoption. This shows the importance of considering innovation dynamics and transition time frames when introducing organic agriculture to smallholder farmers, as their decision-making is dynamic, multi-dimensional and contextual . Transferring information and skills to famers via group trainings is an important component of capacity development, but needs to be embedded in a long-term process and governance structure, which allows a group of smallholder farmers to learn and explore practices on their own farms and identify ways of combining practices that fit into their specific production system. Compared to applying mineral fertilisers, herbicides and pesticides, agroecological practices are usually knowledge-intensive and require understanding of complex ecological principles . In order to understand the low uptake rates of organic farming practices by farmers in the organic intervention groups, we analysed a) motivations to convert to organic agriculture and b) the implementation challenges as perceived by the farmers. In the two certified organic case studies , high potential economic returns motivated farmers to practice organic farming , while non-financial reasons were less apparent. In the non-certified case studies, the primary motivation to practice organic farming was non-financial with the exception of GH-NC, where 54% of the responding farmers had primarily financial reasons. The differences in motivations and expectations are partly driven by the implementation approach of the intervention. For instance, in KE-NC1, much time was prior invested to make farmers aware of the non-financial benefits of organic farming such as human and environmental health.

While in most case studies, little difference between the responses of adopters and non-adopters could be observed, farmers adopting organic management practices in KE-NC2 and GH-NC had a higher share of financial motivations . The most prominent challenges that the organic intervention farmers faced were: pest and disease damage during crop cultivation and post harvest stages , lack of stable markets , inadequate training and extension services , unavailability of inputs and additional labour required due to weeding . The importance of the challenges was perceived differently in the various case studies. Generally, the Ghanaian farmers perceived the agronomic challenges as more important than the Kenyan ones. Furthermore, our assessment of uptake of farmers is reflected in severity of the challenges, as farmers in KE-C and KE-NC1 who were exposed to these interventions perceive the challenges as overall less severe . While there is only little empirical evidence reported in literature about motivations and challenges of organic farmers in SSA , the technical challenges, such as weed infestation and damage by pests and diseases, are similar to those found in Switzerland by Home et al. although the Swiss farmers in their study reported that these barriers were less severe than they had estimated before conversion to organic. Following the analysis of the effects of the interventions on the adoption of practices, we analysed how OA, as a production system, performed. For this, we compared all farms in each case study, those who worked organically with those who did not, regardless of whether they were part of the intervention group or not . We analysed the differences in yields, inputs, labour and gross margins of the four most widely grown crops in each of the five case studies, using an entropy balancing approach for estimating a sound counterfactual . Among the total of 20 crops analysed from the five case studies, we found four organically managed crops with significantly higher and four crops with significantly lower yields . Input cost was significantly higher for three crops each, while inputs were significantly lower for eight crops and labour was lower for six crops . This resulted in higher gross margins for four organically managed crops, while only one crop had significantly lower gross margins under organic management . Comparing the two certified case studies, farmers practicing OA performed very differently in their productivity and profitability.

Except for reduced cocoa input costs , no significant differences in yields and gross margins between organically and conventionally grown crops could be observed in GH-C. Contrary, we observed higher yields for the economically most relevant crops , while banana yields were lower in KE-C. Input cost was reduced or stayed similar, while labour cost was increased for coffee and macadamia nut in KE-C. Despite labour cost was higher, the gross margins of coffee and macadamia nut increased by 336% and 185%, respectively. Less pronounced differences were found in the non-certified case studies: in GH-NC, yields of organic farms were similar to conventional farms for the four crops, almost no purchased inputs were used and labour was reduced for maize , groundnuts and millet . Gross margins of organically managed crops were at similar levels to their conventional counterparts, except in the case of maize . In KE-NC1, however, organically managed brassica and maize yields were lower than for conventional farmers but other crops were not significantly affected. Maize input cost was significantly lower while labour costs were lower for beans, maize and roots. Overall, no significant differences in gross margins were observed in KE-NC1. On the other hand, in KE-NC2, pea yields were higher, while the other crops remained unaffected by organic management. In this case study, organic farmers significantly reduced input cost for mango while labour cost for peas was higher. In terms of gross margins, there were no significant differences, except for peas . Except for macadamia nut in KE-C,livestock fodder system the organically grown crops in our case studies were not sold with/did not generate a price premium. To assess the importance of local and international markets for organic produce, we therefore tested the impacts of a general 20% price premium for the organic farmers for sensitivity analysis . Assuming an organic price premium, POM gross margins would be higher than the conventional counterpart for bananas in GH-C, coffee in KE-C, beans and maize in GH-NC, roots in KE-NC1, and beans and peas in the case of KE-NC2. The high variability of organic yields and gross margins through organic farming is mostly consistent with findings of meta-studies that are mainly based on data from high-income countries . The methodological difficulties of comparing organic smallholder producers in low-income countries and the resulting uncertainty resulting from the definition of a sound counterfactual led even to a higher uncertainty of impacts of organic agriculture on smallholder yield and profits. Some authors identify strong yield increases due to organic agriculture , while others criticise methodological flaws.

We observed positive effects of organic farming practices at farm level productivity in one of the five case studies . Higher farm level gross margins could neither be achieved in the other certified case study nor in the three non-certified case studies . As, at least in GH-C, organic price premiums were originally supposed to be realised, the farm-level gross margins were analysed under the assumption that at least 20% of price premium could be realised due to the organic management. For the pooled sample over all five case studies, OA had significantly positive impacts on gross margins . Under such an assumption, the organic farmers in four of the five case studies would have realised higher gross margins than the farmers who managed their farms conventionally. Besides KE-C, GH-C , GH-NC and KE-NC1 would also have performed better, while for KE-NC1, there was no significant difference observed. For the pooled sample, OA had significantly positive impacts on gross margins . Our results show that there is no one silver bullet for increasing profitability among smallholder farmers . Profitability increasing effects observed over all the five case studies can be associated with labour input in general and specifically with the number of hours spent on pruning as one of the key specific good agricultural practices for the perennial crops such as macadamia nut, mango and cocoa. When used, the application of organic fertilisers had significantly positive impacts, while conventional fertilisers and pesticides affected the revenues rather negatively. Organic insecticides did not have significant yield effects while copper did. Contrary to findings from field trials , further organic and agroecological management practices resulted mostly in no remarkable economic benefits assessed for the farmers in our study . This could signify that the levels of inputs and practices applied by farmers in our study were still low and not optimal as supported by on-station long-term trial findings in Kenya . Contrary to results from field studies and meta-studies, which report the productivity of organic agriculture crop-specifically , our study shows that contextual factors such as the governance and capacities of smallholder cooperatives are important factors determining the agronomic and economic performance of OA, too.

Many authors suggest that capacity development measures, which are implemented alongside organic projects, are responsible for a large share of the revenue increases that were observed in other studies . In our study, we therefore, controlled for the number of training events from both government and non-governmental organisers. Overall, organic farms had similar numbers of training events and extension visits by NGO and government agents in all case studies, except in KE-C, where the number of governmental and total trainings was even lower than for conventional farms . Government trainings were generally rated lower by organic farmers than by conventional farmers in KE-NC1 and KE-C. On average, NGO trainings were rated better in terms of effectiveness compared to the governmental-based trainings. This indicates a potential for improvement and strengthening of trainings and extension services offered by governmental agents. This further indicates that there are large differences in the perceived quality of NGO training provided to the farmers. There is a great diversity of smallholder farmers in Africa. Much of the on-going controversial discussion about OA is due to a lack of a clear classification and the very heterogeneous characteristics and performances that one can realise on farms that may all be called “organic” on a superficial level . Therefore, based on the results from our study, we propose a terminology for organic farms that can bring more transparency in the debate and can be used to assess the current situation and design tailored public and private policy interventions. Fig. 4 distinguishes organic farming systems according to a) the degree they follow the principles of OA  and b) the intention to work organically .

Scenarios are widely used in research to simulate decision-making environments

Their study found a significant number of behavioural bio-security policies in seven European countries, many of which appeared to match theoretical behavioural change frameworks. However, the most frequent strategies relied on the most basic interventions , and there was little evidence of the systematic use of methods from the behavioural sciences to develop these policies. If this suggests there remains some way to travel before the social sciences are integrated within bio-security policy making, other research continues to highlight the potential value of these approaches. For example, research on the role of information cues reveals that bio-security behaviours can be improved when messages are shown graphically, rather than linguistically or numerically.Drawing on Kahneman and Tversky’s ‘prospect theory’ in which avoiding losses are preferable to accruing gains, Hansson and Lagerkvist show how farmers’ disease management decisions reflect farmers individual assessments of risk. However, when farmers are faced with managing an ongoing disease outbreak, decisions reflect a preference of avoiding losses; gains are only preferred when they seek to prevent future disease outbreaks. Other research has sought to examine how social information and the behaviour of other farmers can influence farmers’ bio-security decisions. Using an experimental simulation, Merrill et al. for instance show that willingness to invest in bio-security decreases when information on environmental disease prevalence is uncertain,stacking pots reflecting an optimism bias that farmers’ herds will not become infected.

Alternatively, when more information is provided about bio-security practices on neighbouring farms, bio-security investment decreases. This work is interesting in that it suggests that social norms of what constitutes ‘bio-security citizenship’ , appropriate conduct or what has been referred to as ‘good farming’ may not be influential in bio-security decision making. Burton suggests that ‘good farming’ refers not only to economic forms of capital, but symbolic cultural capital: the visible demonstration of practical knowledge such as good stockman ship, symbols of appropriate farm maintenance such as clean farmyards and tidy hedgerows, and attributes such as hard work. These symbols are encoded and disseminated within discursive scripts, reinforcing their cultural legitimacy . In this way, good farming acts as a heuristic to provide a strategy to guide, interpret and make decisions in conditions of uncertainty. Other strategies of decision-making are available to farmers, however, and the selection of good farming to guide decisions represents what Sunstein and Ullmann-Margalit refer to as a second-order decision. For Burton and Paragahawewa , the value of the good farmer approach lies in recognising and utilising cultural capital to create more culturally salient agricultural policy. Rather than simply rely on financial payments, they instead recommend the development and incorporation of measures of cultural capital into agricultural policy, and/or restructuring agricultural policy to directly encourage the generation of cultural capital. This may include directly measuring farmers’ ‘skills’ in order to allow them to publicly demonstrate what is valued by the farming community. Whilst Burton and Paragahawewa note that some cultural values might be hard to measure , objectifying cattle purchasing skills may provide a relatively easy way of incorporating the cultural capital of good farming into animal disease management policy. For example, recent research has established a link between farmers’ understandings of good farming and bio-security practices .

In particular, cattle purchasing is likely to be connected to and reflect good farming in a number of ways. Firstly, purchasing cattle risks the introduction and transmission of new diseases to animals within the herd and, for some diseases that can be subsequently transmitted within the local environment, to animals on neighbouring farms. For those farms that need to replace stock, however, different forms of institutional capital – such as certification and ranking schemes – can help provide assurance to the purchaser that they are buying from a good farmer and are running the risk of being labelled a bad farmer by introducing disease into their herd or area. For example, Enticott et al. describe how the number of years a farm has been free from disease effectively establishes a good farming rating that may incentivise improved bio-security when it is required to be displayed at the point of sale. The extent to which these forms of information are a reliable guide to whether the farmer is a ‘good farmer’ may, however, be compromised by farmers’ own spatial understanding of disease transmission and by blaming disease outbreaks on perceived government failings, rather than ‘bad farming’ . Secondly, the avoidance of disease through careful cattle purchasing should allow farmers to display other forms of symbolic cultural capital. An outbreak of bTB, for instance, would lead to a farm’s business being subject to a range of trading restrictions, denying the opportunity to farm with autonomy, which is highly valued by farmers in the farming script of ‘being my own boss’ which symbolises farmers’ success at running their own farm well rather than being told how to farm by government. Indeed, an outbreak of bTB would mean that many farming decisions would be subject to bureaucratic procedures and determined by government officials: farmers would be unable to attend market to sell their cattle. As a result, farms may become over-stocked, and cattle suffer poor welfare. Failing to avoid disease through responsible cattle purchasing therefore compromises farmers’ abilities to display the embodied and practical skills of the good farmer symbolised by good-looking cattle either on show at markets or at pasture. Similarly, participation at livestock markets reflects the significance of the autonomous farmer consistent with good farming. Providing measures of good farming in relation to animal disease may therefore help cattle purchasers identify good farmers, and help them avoid becoming a bad farmer as a consequence of poor cattle purchases. The extent to which such measures can successfully symbolise the good farmer and influence cattle purchasing is explored in the remainder of this paper.

Studies of behavioural influences in disease management reveal two distinct methodological approaches. On the one hand, agricultural economists, drawing on methodologies from behavioural psychology, have conducted experiments to simulate the effects of information provision and financial incentives upon bio-security behaviours. On the other hand, sociological research has sought to conceptualise and describe in-depth farmers’ responses to disease events and policy interventions. Each has their problems. Despite the promise of the experimental approach, research participants are often students responding to hypothetical situations wholly divorced from the practical skills and situational awareness that farmers use to respond to real-life context-dependent situations . By contrast, qualitative analyses of good farming and bio-security, whilst focused on real-world policies and disease incursions, are retrospective and subject to recall and social desirability biases. Rather than adopting one or the other, we seek to develop an innovative mixed-methods approach that allows us to quantitatively and qualitatively assess the value of symbolising good farming to influence farmers’ cattle purchasing decisions to prevent bTB. The following sections firstly provide information on the importance of bTB and the relevance of cattle purchasing before providing a detailed account of our methodological approach. In the United Kingdom, bTB is the UK’s most challenging endemic disease, resulting in the premature death of approximately 35,000 cattle and costing the taxpayer in excess of £100 m every year . Managed by the government, the disease has a complex epidemiology involving transmission by legally protected wildlife, the culling of which for disease control purposes has raised political, social and economic challenges . 2007. Cattle movements have become recognised as an important part of the epidemiology of bTB. Studies have shown how the movement of cattle is one of the most important risk factors in infected herds, whilst movements also translocate disease from areas of high to low prevalence . Whilst infected farms are restricted by law from buying or moving cattle on or off farms, all other farms are free to act as they please. Nevertheless, the limitations of diagnostic tests and their frequency mean that these movements still pose a risk to other farmers.

Indeed, other countries with successful bTB eradication schemes, have governed the movement of all cattle between areas of different epidemiological risk using statutory and/or voluntary policies of ‘risk based trading’ and in doing so identify and provide cultural capital to good farmers. Whilst no such scheme currently exists in the UK for bTB, policy makers view cattle purchasing as an important practice on which to apply the behavioural sciences in order to govern cattle movements through behavioural nudges rather than regulation. To understand the impact of different ways of objectifying good farming,sawtooth greenhouse we devised a novel mixed-methods approach. Avoiding experimental approaches involving non-farmers, our approach involved simulating cattle purchasing with farmers who buy and sell cattle. Many studies within the behavioural sciences involve randomised controlled trials, but this approach was not available and not suitable: we were not able to alter the information provided at the point of sale.The diversity of cattle, buyers and sellers also makes controlling for the effect of a single intervention a significant methodological challenge. Instead, our approach sought to simulate cattle purchasing, whilst also allowing farmers to reflectively deliberate on the reasons for their purchases and the value of different behavioural insights. To do this, we developed cattle purchasing game in Mural – a web-based interactive whiteboard – in which participants moved around a Monopoly-style board . Players progressed around the board by rolling one die. All games were played online via Zoom due to Covid 19 lockdown restrictions. Game play was organised using a “branch and bottleneck” structure. Branches reflect different contextual influences that participants land on at random throughout the game. This allowed us to introduce an element of competitiveness between players: points were awarded for landing on squares that reflected ‘positive’ contexts. No points were awarded for landing on negative blue squares. Red squares were a bTB test: if players landed on these, they were required to roll an even number to pass the bTB test,otherwise they would miss a go. Bottlenecks were cattle purchasing events that all players had to complete at the same time and were located in each corner square of the game board. Once one player reached a corner square, all other players also moved there.

Players were then read a cattle purchasing scenario and asked to make a choice between four adverts.They provide opportunities to elicit attitudes and beliefs about complex and potentially sensitive situations and to examine how people may respond to future events . Scenarios work best when they are based on plausible and familiar situations . Scenarios were therefore developed based on a prior research project on cattle purchasing involving farmers and vets. To ensure the scenarios reflected real-world cattle purchasing opportunities, specific versions were developed for three sectors: dairy, store cattle, and calf-rearing. For each scenario, adverts contained information to symbolise good farming in order to influence purchase choices. Firstly, farmers could use pictures of the animals to derive good farming information. For scenarios 1 and 2, pictures were of cattle in a livestock market, but for scenarios 3 and 4 animals were pictured on farm. Secondly, adverts featured two different conceptual measures of good farming. All adverts contained a logo stating how many years free the herd had been from bTB and the geographical average years free for the area in which the farm was located. Values were set randomly. In this method, good farming is symbolised by longer periods of disease freedom; ‘bad farmers’ would avoid purchasing from farms who had recently had an outbreak for fear of introducing disease. Scenarios 2 and 4 also contained a ‘Good Farmer Rating’ to graphically indicate the percentage of satisfied previous customers for each vendor. The aim of this logo was to convey levels of trust and reputation of the seller, which had seen to be important considerations when purchasing cattle from our previous research, and found in other research by Hidano et al. . Presented as a star rating, the logo was similar to review ratings found on internet shopping sites. Two ratings were set at 95% and two at 70% satisfaction. In addition to these measures of good farming, scenarios 1 and 3 explored the effect of different compensation regimes upon purchase decisions. Two different schemes were presented: two sales adverts stated that the purchaser would receive 50% compensation if the animal ever tested positive for bTB in future.

Especially system functions in arable systems were perceived to be moderately to strongly affected

Enabling conditions in the social domain were e.g. related to rural demographics and/or availability of labor and more horizontal and vertical cooperation and social self-organization . Specifically, in BGArable and RO-Mixed emphasis was put on enabling conditions in the institutional and social domain. In all case studies, interacting thresholds across level and/or domain were observed . More details on the interacting thresholds are presented in the Supplementary Materials 3. Common interactions between critical thresholds occur between field environmental and field-economic, from field-economic to farm economic, from farm-economic to farm-social, from farm-social to farming system-social, and from farming system-social to farm-social . Generally, an environmental issue at field level, for instance, decreasing soil quality , pest diseases , wildlife attacks , or drought is so much of a shock or stress that it leads to yields that are too low to sustain an adequate level of farm income . In a majority of the farming systems, high input prices and decreasing output prices and sales further diminish the farm income. Too low incomes at farm level were in all case studies resulting in reduced attractiveness of farming, farmers quitting or the lack of finding a successor for the farm. In UK-Arable, also reduced farmer happiness due to lack of recognition was mentioned as a reason for quitting a farm. Farmers quitting their farm without having a successor was in multiple farming systems also considered to contribute to a smaller rural population at farming system level . Interestingly,hydroponic nft although socially oriented function indicators and resilience attributes were less often formally included in the discussions, they eventually appeared when explaining how challenges impact the farming system. Having less farms in the farming system was also associated with a lower maintenance of natural resources and a less attractive countryside.

Interactions with critical thresholds in the environmental domain at farm and farming system level were mentioned in a few other case studies. In NL-Arable, at farm level in the environmental domain a narrow rotation in which starch potato is grown every second year was expected to lead to increased pressure of plant parasitic nematodes . In UK-Arable, low income at farm level was expected to lead to declining soil health at field level . In IT-Hazelnut and SE-Poultry, environmental regulations were expected to improve the maintenance of natural resources at farming system level, but also to push farm income levels below a threshold through increased costs . Overall we observed that environmental thresholds certainly feature, but differ in the level at which they play a role and in what direction they evolve. In farming systems for which access to land is an issue , quitting of farmers may also be an opportunity, provided land becomes available on the market for sale or to be leased. In ES-Sheep, quitting of farmers was experienced as a serious issue. In IT-Hazelnut, the retention of young people on the farms was specifically mentioned as something that could support the rural life and vice versa . Both low economic viability at farm level and low attractiveness of farming and a smaller rural population were considered to reduce the access to labor at farm level in BG-Arable, SE-Poultry, PLHorticulture, DE-Arable&Mixed, RO-Mixed, and ES-Sheep. Access to labor in BG-Arable, PL-Horticulture and RO-Mixed was important for the continuation of activities on farms, as lack of labor was expected to push yields below acceptable levels . In BG-Arable lack of labor could be overcome by implementing new technologies, but this would require a labor force with higher levels of education and qualification which is even harder to find. Lack of labor was also expected to push production costs beyond critical thresholds in SE-Poultry and RO-Mixed. Hence, in multiple systems, low economic viability, attractiveness of farming, rural depopulation and low level of services at farming system level, and low access to labor seem to be part of a vicious cycle. Following from Fig. 1, it can be made plausible that after exceeding critical thresholds of challenges, a decline in performance of system’s main function indicators and resilience attributes was expected by workshop participants in most case studies . Across farming systems, the functions “Food production”, “Economic viability”, and the “Natural resources” were in most cases expected to decline moderately or strongly .In ES-Sheep, ongoing decline of function performance was expected to be aggravated.

When discussed in case studies, “Biodiversity & habitat” and “Animal health & welfare” were on average expected to be less impacted compared to other functions. When exceeding critical thresholds of challenges, also a decline in resilience attributes was expected in most case studies, mainly because of a decline in profitability, production being less coupled with local and natural capital, a declining support of rural life and lower levels of self organization . By contrast, participants in BG-Arable and SE-Poultry generally expected improvements in resilience attributes after critical thresholds are exceeded . For instance, infrastructure for innovation was expected to develop positively in BG-Arable and SE-Poultry, while it was expected to develop negatively in other case studies . In the case of BG-Arable, participants expected increased collaboration, leading to innovation, in case the system would collapse. In the case of ES-Sheep, participants expected that the current low profitability of farmers will not allow investment in new infrastructures for innovation. All studied farming systems were perceived to be “close” or “at or beyond” at least one critical threshold for challenges, function indicators or resilience attributes . The actual state of the system may be more or less close to a threshold than the participant’s perception. Obviously, for case studies that are perceived to be “at or beyond” critical thresholds while still continuing business as usual, the actual state must be at a different position than perceived. Still, perceived closeness can be seen as a clear stress signal, indicating that change is needed, expected or even already experienced. An example refers to the ban of crop protection products before alternatives are available. This stress signal could instigate a study about a reasonable time to phase in/ out regulations regarding the use of crop protection products before actually implementing them. Perceptions of being close to or at critical thresholds also indicate that, from the perspective of farming system actors, immediate action is needed to preserve the farming system or guide it in its transition, thus avoiding a situation where sustainability is even lower. Looking at multiple challenges puts individual challenges into perspective.

To give an example, climate change may be a problem causing regime shifts in many socio-ecological systems , but for the studied farming systems this is not the only challenge and often also not perceived to be the most urgent, except for some arable systems . This supports the notion that climate change should be studied in the context of other drivers . At a global level, reducing anthropogenically induced climate change is, of course, urgent and agricultural systems’ contribution to it must be reduced. Some challenges experienced by FS actors, especially farmers, may also be implicitly caused by climate change; for instance changing legislation and high input costs. For most of the farming systems in our study, climate awareness of some stakeholders, such as conventional farmers, is however not likely triggered due to the impact of climate change on their system per se. When deliberated in an appropriate manner with those stakeholders, new legislation in the context of fighting climate change may however have considerably more effect regarding changing stakeholder perceptions. Function indicators for food production and economic viability were often perceived to be close to critical thresholds. This confirms the need to closely monitor economic indicators as is done in the CMEF of the CAP . When discussed, social function indicators were generally perceived to be “not close” or “somewhat close” to a critical threshold, except for ES-sheep where participants experienced that a critical threshold was exceeded . Environmental function indicators were in most cases perceived to be “not close” or “somewhat close” to critical thresholds . Only in arable systems,hydroponic channel environmental functions were experienced “close” or “at or beyond” critical thresholds. This was mainly related to the capacity of soils to deal with an excess or lack of water, often due to climate change. Participants in workshops of arable systems indicated that a lot of effort was already required to maintain rather than to improve the current soil quality. Arable systems, in need for soil improvement to avoid critical thresholds, would benefit from enabling conditions at national and EU level that foster the maintenance of natural resources.

Mitter et al. , based on a mechanistic scenario development approach for EU agriculture, expect improved attention for natural resources only in a scenario following a “sustainability pathway” out of five possible future scenarios. Current conditions and their future development hence do not seem to support a resilient future of arable systems. Overall, perceived closeness to critical economic thresholds could explain the perceived lower importance of social and environmental functions compared to economic and production functions . Defining critical thresholds seemed most difficult for resilience attributes . According to Walker and Salt it is actually impossible to determine critical thresholds for resilience attributes because they all interact. However, function indicators also interact, but were easier to assess for participants. We argue that difficulties in determining critical thresholds are probably more an indication of the perceived redundancy of resilience attributes for system functioning: presence and contribution to resilience was low to moderate according to stakeholders’ perceptions . This could be related to a control rationale , in which keeping a relatively stable environment and improving efficiency is more important than increasing the presence of resilience attributes. It should be noted, however, that participants often could indicate enabling conditions that improve the resilience attributes. This could be an indication that participants are aware of the importance of resilience attributes, but are in need for more concrete, locally adapted indicators that represent the resilience attributes. In any case, suggesting improvements for resilience attributes could be seen as an implicit acknowledgment by participants that building capacities for adaptation or transformation is required. Perceived thresholds may be different than the real threshold. For the systems that are perceived to be “at or beyond” critical thresholds, it is not necessarily too late to adapt in case the real threshold is actually at a different level than the perceived one. The extensive sheep system in Spain was judged to be close to a collapse, but alternative systems and strategies to reach those have been proposed . In IT-Hazelnut, introduction of new machinery in the past has made farming more attractive for the younger generation, thus avoiding depopulation . Further developments in IT-Hazelnut regarding local value chain activities at farming system level rather than farm scale enlargement, are aimed to further stimulate economic viability and the retention of young people in the area . In PL-Horticulture, the case study is relatively close to Poland’s capital where access to land is limited, system actors aim at increasing the economic viability via vertical and horizontal cooperation at farming system level, which keeps re-attracting seasonal laborers from nearby Ukraine, where wages are lower, to the region. The common factor in these examples of adaptation is that resources are needed to implement them. Be it financial, human, social or other forms of resources. The examples above also suggest that coming back to a desired state, even after exceeding a critical threshold, is possible, provided the disturbance causing the exceedance does not last too long , and adaptation strategies are available . The notion of a critical threshold being a combination of magnitude and duration was not discussed much in the workshops but could help to further define critical thresholds. For instance with regard to the number of years the farming system can deal with extreme weather events as was done in NL-Arable. It is worth noting that challenges are perceived to be more often “at or beyond” perceived critical thresholds than function indicators and resilience attributes.

This is not to suggest there is nothing to gain from using some smart farming technologies

Looking more closely at the emergence of smart farming developments, another crucial consideration pertains to the innovation processes that try to generate and integrate new and striking configurations of firms, farmers, and research institutes. New networks of diverse stakeholders are formed; extant networks are re-made, potentially rendering invisible the role of some actors and their interests. In a sense, then, smart farming can resemble the notion of “innovation by withdrawal”,which departs from the view that innovation is “structured around the introduction of a new element, an artefact, a way of operating, a service, and its success is dependent on the number of adopters and the significance of the entities which are articulated with it” . Yet, as demonstrated by the case of no-till farming in France , withdrawal of one element relies on making visible hitherto invisible or overlooked elements , while maintaining problematic practices.To respond, an alternative to focusing on introduction or withdrawal is to recognize that agricultural innovation, like any other practice, is always a topological affair: it is about overseeing and managing configurations of humans and materials and how they flow through a system or across a specific domain, such as a field . Where there are blockages, conduits can be installed to increase flows; where there are leaks, plugs are required. Farmers shift and prod to adjust arrangements of materials or relations with a view to addressing problems, such as falling yields, vulnerabilities to climatic variability, or exposure to viruses. A mechanism of implementing innovations such as those associated with smart farming is to reconfigure topological arrangements. As demonstrated by literature on agricultural biosecurity,farming practice needs to be viewed as occurring against the topological backdrop of an “entangled interplay” , with numerous “contingent intra-actions” occurring across multiple risky “borderlands” .Proximities,distance,nft system connectivities,and modulations of presence/absence figure in the effort to create desired outcomes,with new insertions or removals pursued in efforts to control or steer activities in defined or experimental ways.

Whether the risk is a matter of falling yields or exposure to viruses, it pays to acknowledge the ongoing relationship between farming and innovation through a topological lens; that is, to dwell on farmers as active agents of topological transformation, even if they are rarely acting alone. One way to combine an analytical concern with digital life, corporate interests in establishing a certain type of smart farming, and topological transformations is highlighted by literature on smart farming innovation processes. Consider, for example, how new configurations come into the picture. As highlighted in research on smart farming in Canada, and as referenced by Relf-Eckstein et al.,the Canadian government has recently established innovation ‘superclusters’ to examine and exploit technological opportunities. A recent outcome is an industry-led consortia called Protein Industries Canada, which includes a partnership whereby Lucent BioSciences “will use the hulls of pea and lentil seeds which are a co-product from value-added processing completed by AGT Foods and Ingredients [to create] Soileos: a novel carbon-neutral micro-nutrient fertilizer that uses organic fibre as a carrier to provide micro-nutrients to plants” . As this case suggests, the ‘smart’ in smart farming can involve astute and imaginative arrangements to make new products and chase after profits in novel ways. A similar picture emerges in the Netherlands where a “golden triangle” of agricultural research, industry, and government aims to create “new business ecosystems consisting of focal firms, their suppliers, complementor firms, and customers” . A key feature is the leading role of the Dutch firm Philips, which occupies a prominent position in high-tech urban agriculture , a growing smart farming sector, by “providing the essential technologies, registration of patents, and creation of new business opportunities” . Meanwhile, in the larger and more traditional Dutch agricultural sector, the Food Valley Open Innovation Ecosystem includes “the Wageningen Campus and the planned World Food Centre in Ede” and creates ties between research and development centres run by large firms such as Friesland Campina and Unilever and wider networks of small-to-medium enterprises and startups.

There are 15,000 scientists across Food Valley, with twenty research institutes, 1440 food related, and 70 science related firms . Such configurations of firms, farmers and research institutes will likely create new smart farming products and services and build on Dutch successes in exporting around €9 billion worth of high-tech agrifood innovations, including “energy-efficient greenhouses, precision agricultural systems and new discoveries that make crops more resistant” . Put differently, the topologies of smart farming point toward new forms of “path creation” that involve but also often extend beyond farmers. It is instructive that smart farming today is bound up with efforts to use ‘open innovation’ processes that facilitate co-design or co-innovation between agricultural technology providers, farmers, and others. Such an approach can “blur the boundaries between scientists and agricultural system stakeholders, between agronomists and farmers, and between actors in the agricultural sector and those designing in other sectors” . The virtue of “participatory design processes involving farmers” is that it can yield new tools, such as dashboards , to help farmers understand agro-ecological conditions. There are, however, no guarantees that smart farming developments will yield effective configurations. Indeed, there is significant evidence that smart farming developments are hamstrung not only by the instrumental logics underpinning technology providers but also by ineffective coordination and inadequate arrangements of materials or skills. Consider here the push to develop automated body condition scoring and a soil water outlook tool for Australian dairy farmers. Noting that these versions of smart farming innovation involve “a unique innovation challenge [not least because of] the new knowledge demands for farmers in a highly dynamic, technology-driven environment” , one finding is that the new tools and practices confront limitations in the way agricultural relations are configured with respect to the wider institutional milieu. Making the most of the soil water outlook tool, for example, required but did not receive sufficient input from the Australian Bureau of Meteorology “to help farmers to link the SWO with seasonal climate outlooks” . Then, with regards to automated body condition scoring, the new technology led some farmers to think “maybe we don’t need the [farm] advisor as often,”,with the upshot that “some tools were potentially replacing the skills of advisors”.Yet, because “more remote monitoring of key performance indicator data via online software” can enable farm advisors to make fewer farm visits, smart farming in this context conceivably increases the sense of isolation many farmers already experience .

Elsewhere in Australia, smart farming developments call attention to a different dynamic between farmers and advisors. In some rice farming regions, advisors might be expected to be the “sense makers” who can explain and encourage farmers to adopt new technologies; but in fact one consultant respondent claimed “it’s mainly been the farmers dragging the agronomists along” .At the same time, “insufficient support structures” , for example regarding data compatibility or standards, can hold back adoption and frustrate farmers who are “prepared to use evolving and uncertainty-generating technologies” but find that their knowledge is not effectively tapped. In Canada, ‘broadacre’ smart farming developments occur amid the “critical constraint” of labour shortages and demographic change, but even here “adoption is lower than anticipated” , with one explanation focusing on tensions around what happens to data produced on farms. A problem yet to be overcome is industry self-regulation of data usage and a lack of certainty about the legal ramifications of smart farming. Thus, “[u]ntil clarity is brought to the issue of data, the industry is at risk of losing farmer’s trust and potentially hindering innovation opportunities at the farm level” . Although there are examples from the literature which demonstrate that smart farming innovation involves an ongoing process of trying to reconfigure arrangements of sociotechnical relations, I argue a more accurate and urgent conclusion is to emphasize the ‘mis-configured innovations’ of smart farming. One of the main features of smart farming concerns the limited parameters within which innovations operate. In Canada, for example, an element in smart farming arrangements is models and platforms designed for commodity farmers, not those “farmers working outside of the dominant industrial model” . In effect, “the maps created within those big data platforms developed by industry are made meaningful only if one adheres to a rigid conventional farming strategy of seeding in neat rows separated by areas of soil free of weeds” . A similar result emerges in Australia where observers note that farmers want autosteer technologies, new imagery services, levelling and GPS guidance because “if they’ve got efficient layouts, laser levelled, they’ll make significant water savings and they’ll have reduced labour inputs as well” . Smart farming therefore means that food producers contemplate, “standardizing the environment” in accordance with the commercial imperatives of farmers operating large holdings and using expensive machinery to generate predictable topographies that fit with the new topologies required to make smart farming technologies effective. Built-in biases pervade all algorithmic systems ; the biases in smart farming might only pertain to environments in the first place but they can have broader political-economic effects.

As such, the core problem with the various reconfigurations underpinning smart farming developments is not simply that the absence of one or other action or reform can limit their impact,hydroponic gutter but rather that smart farming innovation processes begin and proceed without adequately conceptualizing the underlying obstacles and limitations confronting food producers today. Technological innovations that reinforce power asymmetries regarding data ownership, for example, or that fail to challenge implicit biases toward certain types of environments, render some interests invisible while reifying specific types of logics, such as narrow measures of economic efficiency. Like any innovation, insertion, or reconfiguration, smart farming entails topological transformation; but problems emerge when the “quieter registers” of smart farming make it possible for “powerful actors to make their presence felt at one remove, to reach into the everyday life of distant others” , for example by dispossessing them of valuable data or establishing algorithmic biases toward standardized farm topographies.It can make sense to use devices or services in new arrangements that create efficiencies or give food producers new access to information that can inform decisions. However, because these developments always by necessity involve reconfiguring arrangements of sociotechnical relations, agricultural innovation processes will continue to introduce new misconfigurations when they pursue discrete solutions to specific problems, rather than integrated developments based on incremental adjustments in information-intensive iterative processes that target systemic or structural change. As insisted upon by scholarship on food sovereignty in critical agrarian studies , the urgent challenge today is to conceptualize a planetary land, agrarian, and food system in which food producers and consumers everywhere are confronted by, but examine ways of overcoming, the same problems of neoliberal capitalism dominated by transnational corporations, authoritarian governance, and climate change. In the shadow of the corporate food regime, producing food in the Netherlands or Canada is bound up with the realities of producing food in India or Kenya. Further, the dynamics of digital life mean smart farming innovations in one place will inform and conceivably move the ‘planetary cognitive ecology’ generally, with unpredictable but connected results playing out elsewhere. The products of smart farming will only reinforce problems if they yield new patents for agricultural technology providers in a place such as Ireland , a widening yield gap between capital- and labour-intensive agrarian systems , or if they increase the likelihood of ‘smart’ food production in one region leading to food dumping in another . Per the vision of a Common Food Policy in the European Union , rather than seeing smart farming developments “reinforcing existing production models, leading to trade-offs between different environmental impacts, or between environmental and social sustainability,” the task is to reorient innovation “towards low-input, diversified agroecological systems” . In the light of these challenges, a sustainable and successful smart farming innovation process requires what we might imagine as the coproduction of ambitious ‘topological repertoires’ that make ongoing assessments of absence, presence, proximity, and reach at the scale of a structure or system and then pursue appropriate technological solutions from the ground up.