Evaluation of soil fertility through cropping systems and different soil and climatic conditions

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Evaluation of soil fertility through cropping systems and different soil and climatic conditions Protocols for ISFM trials in Mali The collaborative research project between l Institut d Economie Rurale (IER) and the African soil information services (AfSIS) proposes to conduct multiple trials to evaluate local effects of the factors limiting the growth and development of sorghum under different soil and climatic conditions. In the long term, this research should lead to the generation of options for integrated soil fertility management (ISFM) for the intensification of agriculture in the Sahelian and Sudano-Sahelian region of Mali and West Africa. The activities selected as part of this research include: Assessing the effect of nutrients on crop growth and development. Determining the potential of nutrients available at different levels of soil fertility. Determination of the relationship between soil chemical properties and crop productivity. Development of techniques for managing soil fertility. To better link the information above to the real context of the farmer, the work will take into account the agricultural practices in use in the agricultural zones; include the provision for micro-doses of fertilizers and cropping systems including monoculture, intercropping and crop rotation. 1. Objectives To assess the effects of factors limiting the growth and development of sorghum under different cropping systems, and differing soil and climatic conditions. 2. Sites In 2010, experimental work will be carried out in two sites. The first is a sentinel site located in Nogossiré in the Kayes region, and the second is a sentinel site located in Koloko in the Segou region (Table 1).

Table 1. Some characteristics of the sentinel sites Site Partner Rainfall (mm) Agroclimatic zone Cropping system Kayes IER & 400-600 Sahelian Sorghum and Nogossire 2 DRA peanuts Village Nogossiré, Kandia Sero, Melo, Diajoumbera (5) Koulikoro Koloko 2 IER & DRA 800 1000 Sudano Sahelian Millet, maize, sorghum and peanuts Koloko, Seyla, Bankoro Bugula Blendio (5) Sotuba IER & AfSIS 850 Sudano Sahelian Millet, maize, sorghum and peanuts Sotuba (office) Selection of field sites At each sentinel site, the work will be conducted in ten fields selected from those farmers who had previously participated in 2009. Of these ten farmers, five will be under monocropping or continuous cropping of sorghum while the other five will employ cropping systems according to the treatments listed below. However, it must be ensured that the two cropping systems are on the same soil type. The test plots will be located in 10 clusters of each sentinel site in order to allow for a wide range of soil conditions so that the responses are correlated with soil analysis. The choice of fields will cover; fields that are under cultivation, fields under temporary fallow, and fields under permanent fallow. Each field site will be geo referenced. 3. Experimental design Trials setup This year (2010), the trials will consist of two cropping systems based on sorghum, which are; 1. Monocropping or continuous cultivation of sorghum, constituting the first group of treatments. 2. Intercropping of sorghum and cowpea, and rotation sorghum and cowpea, constituting the second group of treatments. In each case, the trial will consists of six treatments in five replicates in representative clusters (Table 2). Each replicate will be represented by a farmer in the representative cluster. The experimental plot will measure 50m x 20m. The field trial will measure 50m wide by 120m and will comprise of six plots. Sorghum and cowpea spacing will be 80cm x 50cm. Crop varieties Two improved varieties of sorghum of delayed senescence type (stay green) will be selected for experimentation. For Nogossiré, the variety called Séguifa Malisor 92-1 with a yield

potential of 3 t ha -1 adapted to the Sahelian zone (400-600mm) will be used. In Koloko, the variety called Tiandougou with a potential yield of more than 3t ha -1 and adapted to the Sudano-Sahelian zone (800-1000mm) will be grown. The cowpea variety selected must be a forage variety adapted to the growing area. For Nogossiré, the variety Korobalen (IT89 KD 374, which has proven itself in the region of Kayes) will be planted while for Koloko, a local variety will be used. Treatments Two treatment groups will be selected according to the cropping practices practiced in agricultural zones of Mali. These treatments are; Group1, sorghum monocropping T1: Control treatment, pure culture of sorghum following farmers practice. T2: Mechanical placement of sorghum plus 5 kg/ha of complex fertilizer in a 10 mm diameter hole. : Mechanical placement of sorghum plus 35 kg/ha of complex fertilizer in an 18 mm diameter hole. T4: Farmers practice plus 5 t/ha of organic manure. : Mechanical placement of sorghum plus 5 kg/ha of fertilizer and 5 t/ha or organic manure in a 10 mm diameter hole. : Mechanical placement of sorghum plus 35 kg/ha of fertilizer and 5 t/ha or organic manure in an 18 mm diameter hole. Group 2, sorghum association T1: Control treatment, intercropping of sorghum with cowpea following farmers practice. T2: Mechanical placement of sorghum plus 5 kg/ha of complex fertilizer in a 10 mm diameter hole. Cowpea is then sown next to a sorghum planting hole after the emergence of sorghum. : Mechanical placement of sorghum plus 35 kg/ha of complex fertilizer in an 18 mm diameter hole. Cowpea is then sown next to a sorghum planting hole after the emergence of sorghum. T4: Monocropping of cowpea following farmers practice.

Table 2. Treatments arrangement in 2010 and 2011 No Treatments 1 st Year 2010 2 nd Year 2011 Group 1 Group 2 Group 1 Group 2 Monocropping Association Monocropping Association 1 Absolute control (Farmer practice) 2 Mechanical placement (0.2 g /hole) 3 Mechanical placement (1.42 g /hole) 4 Absolute control (Farmer practice) 5 Mechanical placement (0.2 g /hole) 6 Mechanical placement (1.42 g /hole) Sorghum Sorghum/Cowpea Sorghum Sorghum/Cowpea Sorghum Sorghum/Cowpea Sorghum Sorghum/Cowpea Sorghum Sorghum/Cowpea Sorghum Sorghum/Cowpea Sorghum + OM Cowpea Sorghum + OM Sorghum Sorghum + OM Cowpea (0.2g/hole) Sorghum + OM Sorghum Sorghum + OM Cowpea (0.2g/hole) Sorghum + OM Sorghum 4. Agronomic management The trials will be are run and managed by researchers to ensure consistency of agronomic practices at all sites. Standard agronomic practices are recommended. Field preparation The experimental fields will be plowed to a depth of 0-20 cm. Sowing Sorghum will be sown at the spacing of 80 cm between rows and 50 cm between planting holes. 5 seeds will be sown per hill. These shall be later tinned to two plants per hill ten days (10) after emergence. Application of organic and mineral fertilizers The same quality of organic manure will be used consistently on all trials in one sentinel site. To ensure this, after the collection of organic manure, the pile will be well mixed and five 200g samples will be obtained for analysis in the Sotuba lab. Samples will be labeled by writing the site name, type of manure, replicate number (1 to 5) and the sampling date. The pile of manure will be protected from rain and moisture before field application. Fertilizer for the plot will be weighed, bagged and incorporated during land preparation.

Weeding Weeding will be conducted in all experimental fields. 5. Observations Soil properties at each site Soil samples will be collected at a depth of 0-20 cm in each experimental plot after land preparation and prior to application of fertilizers or other amendments. A composite sample will be obtained from the mixture of four samples collected using a Y frame method. Emergence rate Emergence rate will be determined 10 days after first seedlings emerge by comparing number of emerged plants verses the planting holes. Plant growth measurements Plant height and basal diameter of 8 randomly selected plants per plot will be measured at three growth stages of sorghum as follows; - 30 days after emergence - At 50% flowering (about 50 to 60 days after emergence) Plant tissue sample for nutrient analysis Ten flags leafs per plot will be sampled after heading and placed in well labeled paper bags which will be tightly closed. These samples will be kept cool and sent to the Sotuba lab to be decontaminated with distilled water. The samples will then be oven dried at 60 o for 48 hours and sent to ICRAF - Nairobi, Kenya. Grain and stover yield determination Grain and stover (aboveground non-grain biomass) yields in each plot will be determined from a net plot of 4 rows x 3 m (leaving out 1 row from each end and 1 m from each of the sides). Harvesting will be done after the crop has attained physiological maturity. First, the number of plants in the net plot will be counted and recorded. Before cutting the sorghum stems in the net plot, all heads/panicles shall be cut at the base of the head, counted and the fresh weight determined. Then all the stovers (without heads) in the net-plot will be cut at the soil surface and weighed. Five stovers will be randomly selected and the fresh weights determined. The stovers will be cut into 5 cm strips, well mixed and a sub sample of about 500 g taken. For the panicle heads, 10 representative panicles/heads will be selected and and their total weight and the individual panicle length recorded. For these 10 heads sub-sample, kernels (grains) will be threshed (separated from the heads (husks)) and both fresh grain and husks weight determined.

The three plant parts (grain, husks and stover subsample) will be oven dried (60 ºC for 48 hours) and dry weight measurements taken. In cases where many plants are lost or are not properly filled, the 12 best plants in the plot will be selected and used to determine grain and stover yield. Grain and stover nutrient concentration From a subsample of five plants, a quantity of 50 g of ground biomass will be collected for grain and stover and placed in a plastic bag. These samples will be sent to ICRAF Nairobi for the determination of NPK concentration. The sample bags will be labeled with the name of the site, plot, date and type of the sample. Land use history The land use history of the experimental fields for the last ten years will be determined. This shall include information on: - Cultivation period - Cropping systems - Types of fertilizer used in the last 10 years - Organic fertilizer use in the last 10 years - Crop residue management - Fallow periods Table 3. Observation of working time in 1000m 2 field Treatment Sowing Fertilizer 1 st weeding 2 nd weeding 3 rd weeding application T1 T2 T4 Indicate the time in the cell and the number of people involved in this activity: (ex = 2:30, 3 people) Table 4. Emergence rate recording Treatments Planting hole/ 10m 2 T1 T2 T4 1 2 2 3 4

Treat ments T1 T2 T4 Table 5. Harvesting form Ears harvested Ears (Kg) Stover (Kg) Grain (Kg) Plot 10m 2 Plot 10m 2 Plot 10m 2 Plot 10m 2 1 2 3 4 1 2 3 4 1 2 3 4 1 2 3 4 Treatment T1. T2, T4. Table 6. Field observations Harvested planting holes plot (10 m2) 1 2 3 4 Daily labour wage Detailed rainfall of the planting season (including day, decade, month and year) will also be recorded.