The Beed syndrome

Outline of Beed district, Maharashtra: 11 talukas, 1,368 villages and population of 2.585 million in 2011.

Wandering through the rural districts of Maharashtra as a teenager I can recall well how villages were laid out, as collections of homes and in also in relation to the fields and natural features nearby. These early impressions were strengthened by travels over the years, in neighbouring states (Gujarat, Karnataka, Madhya Pradesh, Andhra Pradesh) and a window seat in a state transport bus was the best vantage point to have to watch how the landscape unfolded and how it was being attended to.

Outside the ‘circle’ of dwellings and small institutional buildings (school, public health centre, panchayat block, mandir) – ‘circle’ is not the typical shape, which is irregular and in our motorised time follows more the alignment of a panchayat road than the dictates of topography and planning – is the land to be looked after by the village, the ‘grama’, and which provides it sustenance of every kind.

There is the land allocated to grow crops and these provide food and are also what used to be called cash crops, there is land to be shared by those who keep cattle, buffaloes, goats and sheep so that these animals can graze, plots in which fodder is grown, there is land for orchards (such as mango, amla, guava) and land for the organised cultivation of vegetables.

There is also the land in which grow densely and undisturbed a variety of local trees and bushes, and which may be called forested or wooded. These tracts are just as important to the grama as are the cultivated fields and grazing grounds, for they contain the wild relatives of much that grows in the precincts of the grama and offer to the husbanded animals varieties of grasses and plants that the ruminants seek at certain times. The forested area may or may not include a sacred grove (guarded by snakes that are well respected).

There are the waterforms – ponds and tanks, natural channels for monsoon streams and a few shallow-cut and narrow canals from which water is shared, several low check dams used to impound water at the start of a growing season, and dug wells, some of which are indeed old and lined with stone from earlier eras. (The pumpset and borewell have dramatically disturbed and altered the grama’s relation with water and the meanings of its waterforms, and what I saw in the late 1970s has mostly vanished.)

How these different uses of a grama’s land are decided upon by its cultivator households determines its swarajya nature – that is, its capacity to be largely independent and self-sufficient in most material needs. Whether from a bus window at a halt or when on foot, I could make out a distribution of land use that was designed to serve the ‘grama’ as wisely as possible.

Comparing land allocated to major crop groups in Beed, 2010-11 and 1995-96, in hectares.

Ratios could perhaps have been calculated even then in the 1970s (they were done, much earlier, as large-scale and very authoritative planning guidelines in some of the princely states such as Gwalior, Mysore and Patiala). With today’s remote sensing, doing so has become very much easier while at the same time being theoretical only, the advent of ‘market forces’ having weakened the commune-like ‘grama’ social and economic structure through an appeal to the individual.

The ratios – one could see even then, 40 years ago – would vary because of the influence of three factors: the watershed or the manner in which water became manifest in the ‘grama’ precincts, the manner in which plant species dominated and were distributed together with how they were shaped by climate (‘agro-ecology’ in today’s parlance), and the soil characteristics together with the underlying shallow geological features.

How would and how did a grama respond? At the time, being observant but unschooled in such matters, I took no notes. Today, the only sources of such information are old administrative records (such as the district gazetteers of the British colonial era) and more recently the data collected by the periodic agricultural census.

Using the agricultural census data, I set out to examine if and how the land use of a district (Beed, in central Maharashtra) had changed, and in what way. Records at the level of grama cannot be found other than locally (if they have not been consumed by termites or become mouldy compost). But in the databases of the agricultural census one gets a clue of how much is changing and in what direction.

The available time-span for comparison is a small one, 1995-96 and 2010-11, these being two different agricultural census series. For Beed district, the difference in cultivated land (including that land that was fallow at the time the census was taken) was 100,000 hectares with the increase being from 903,672 hectares in 1995-96 to 1,004,006 hectares in 2010-11. This is a very large increase over so short a period and we shall see why.

The agricultural census records the distribution of land to various kinds of crops which is called a cropping pattern. Examining the cropping pattern for Beed district in 1995-96 and in 2010-11 I found several major changes. First, about 100,000 hectares had been brought under cultivation. From where? The census does not tell us. We would have to look at other records. It is likely that these new cultivation areas were earlier what are called ‘waste land’ (this is a British-era term invented to disparage grazing grounds and their importance to our desi cow).

The most striking change is the reduction, in 2010-11, by a whopping 196,879 hectares, in land used to cultivate cereals. The next big change is the addition in 2010-11 of 143,659 hectares of land given to the cultivation of fibre crops (that is, cotton). Third, is the increase by 50,365 hectares (from 15,240 in 1995-96) of land for sugarcane. And fourth are the increases by 45,617 hectares of land for pulses and by an almost similar area – 44,993 hectares – for oilseeds.

My worksheet for the ‘Beed syndrome’

Without any other kind of information that could be used to better explain these changes, I might infer: (a) that the change in the land allocated to cereals has happened because the kisans of Beed’s gramas decided that having a surplus of cereals is not as lucrative as having a surplus of cash crops, (b) that cotton as a cash crop is the district’s most valuable ‘export’ of cultivated biomass, (c) that the more than four-fold increase in land under sugarcane means that more water has been made available for the district (as sugarcane needs more water than most crops), (d) that the central government’s programmes to increase the cultivation of pulses and of oilseeds are working well in Beed.

How tenable are these inferences? The first, about cereals, needs to be seen through the region’s cereal preferences. In Beed, like in many districts of Maharashtra and the dryland areas of the north Deccan plateau, it is jowar and bajra that are grown and eaten. By weight, jowar and bajra together account for 80% of the cereals Beed grows (about 50% jowar and 30% bajra). These are not surplus cereals but staple foods. Second, it is possible that Beed’s kisans decided that the income from their two cash crops, sugarcane and cotton, could be partly used to purchase staple cereals grown elsewhere and so balance their diet.

This needs more investigation, although my guess is that they were incorrect in their choices as sugarcane not only takes scarce water away from other needs, the political control of local sugar economies makes income from the crop volatile and unreliable. Likewise cotton, which is controlled by traders and the big players in mechanised looms – with the seeds and inputs being controlled by the biotech industry if Beed’s kisans were persuaded to choose bt cotton over desi varieties. The one bright spot is the last inference, for even today, nearly every cultivating district is deficit in pulses and every addition is a welcome one. It is the same for oilseeds (the intention being to reduce India’s import of palm oil) provided the oilseeds suit the agro-ecology and are processed and used locally.

The final aspect of this change in how Beed has allocated its cultivable land has to do with the amount of food the district’s population (that means the 11 talukas with their 1,368 gramas and eight urban centres) needs. In 1995-96 the district had 713,196 hectares of land under food crops and by 2010-11 that area had reduced to 562,029 hectares. In the other direction, in 1995-96 the district had 190,335 hectares under non-food crops and by 2010-11 that area had increased to 429,352 hectares.

Aside from calculations about yield and income, I treated this as an indicator of hectares of food growing capability per unit of population. In 1991 the district population was 1.822 million and in 2011 it was 2.585 million. The indicator I have designed is a quite simple one: food-growing hectare/consumer unit. (A consumer unit is a head of population weighted by quantity of food typically consumed, adapted from the National Sample Survey method.)

Using this indicator, the difference between 1995-96 and 2010-11 is large and stark. The 713,196 food hectares in Beed in 1995-96 provided a cultivable base of 0.47 hectare per population consumer unit. But 15 years later in 2010-11 the food hectares available was 562,029 and those provided a cultivable base of 0.26 hectare per population consumer unit.

What led to such a precipitous reduction? There could be a combination of many factors. Based on what I learned while working on a central government programme, swarajya or self-sufficiency whether for a grama or a district is never part of the intention that guides a ministry of agriculture scheme. Nor is swadeshi – that what is entirely local and indigenous as much as for a material input as for a practice.

Where Beed is concerned, with its 11 talukas there is the possibility that one or more large and more populated talukas (like Georai, Beed, Ashti) are skewing the district’s overall indicator. I will shortly, time permitting, post an update which examines the talukas (Patoda, Shirur and Manjlegaon are entirely rural) and how they contribute to (or not) the ‘Beed syndrome’.

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Secrets of the record vegetables harvest

The Ministry of Agriculture’s third advance estimates for the production of horticultural crops in India during 2016-17 has record figures for vegetables and fruit, 176.17 million tons and 93.7 million tons respectively.

The horticultural division counts 22 vegetable classes and a 23rd which includes all others. Likewise 26 classes of fruit and a 27th which includes all other fruit. Unfortunately, the horticultural division does not name these ‘other’ vegetables – which I surmise will include a number of leafy greens, tubers and beans – and which are estimated by the division to have amounted for the year to 23.62 million tons (mt).

In this chart for vegetables the ‘other’ unnamed vegetables are clubbed together with those vegetables whose harvests are individually sizeable (0.2 to 0.7 mt) but under 1 mt: elephant foot yam, mushroom, capsicum and parwal.

What stands out in this record harvest of vegetables is how the total tonnage is distributed. Potato, tomato, onion and brinjal together account for 101.82 mt which is 57% of the total vegetables tonnage. This is an extraordinary concentration. Worse, potato alone is 48.24 mt which is just over 23% of the vegetables total.

This is a hopelessly skewed distribution by weight which I think describes how very far the writ of the snack food manufacturers runs, by governing crop cultivation choices made in the field. Most snacks available today are industrially produced mixtures of vegetable ingredients, with flavours, colourings and food scents chemically added.

So-called contract farming in India began with PepsiCo’s foods division directing the cultivation of potato for its chips. Onions and tomato followed – for the last five years some 2 to 2.5 mt of onions are exported, and tomato makes its way into numerous ketchups and sauces. Both are ‘popular’ snack flavours by themselves. Hence the top three vegetable classes account for nearly 90 million tons together. Compare this quantity with India’s wheat harvest for 2016-17 of 98.38 mt!

To put the total annual quantities of onions (21.72 mt) and tomatoes (19.54) in perspective, 22.95 mt of pulses were grown during 2016-17 and this being not enough to provide our households, a further 6.6 mt was imported during 2016-17 (at a cost of Rs 28,523 crore). This is what irrational crop cultivation choices results in: kisans’ plots are dedicated to the cultivation of a few vegetable staples that serve as raw material for a snack foods industry whose products are nutritionally harmful, whereas those plots could grow pulses and save the country money, besides contributing to balanced diets.

Yet the count of vegetables by the horticulture division of the Ministry of Agriculture does not enumerate even the better-known vegetables that arrive at the mandis, and whose mandi prices are listed by the same ministry.

Their market names are: Alsandikai, Amaranthus, Ashgourd, Balekai, Banana Green, Beetroot, Chapparad Avare, Cluster beans, Colacasia, Coriander, Cowpea, Drumstick, Field Pea, French Beans, Galgal, Ginger, Gram Raw/Chholia, Green Avare, Groundnut pods, Guar, Indian Beans/Seam, Kartali/Kantola, Knool Khol, Little gourd/Kundru, Long Melon/Kakri, Lotus Sticks, Mango Raw, Methi, Mint/Pudina, Ridgeguard/Tori, Round gourd, Season Leaves, Seemebadnekai, Snakegourd, Spinach, Sponge gourd, Squash/Kaddoo, Surat Beans/Papadi, Suvarna Gadde, Thondekai, Tinda, Turnip, and White Pumpkin.

These 43 classes (there are likely more based on seasons and agro-ecological regions) of commonly consumed vegetables, grown all over India, amount to about 22 mt, using the numbers from the third advance estimates for 2016-17. But it is upon the diversity of these lesser, ‘other’ classes of vegetables that the dietary balance of millions of households depends. Yes, the annual vegetables balance sheet for 2016-17 boasts an impressive bottom-line, but the numbers therein don’t add up.

The weekly intelligencer

Indices, prices, data series, readings and jottings of note over the last week, fortnight and month, compiled for the week beginning 6 August 2017.

Quick Estimates of Index of Industrial Production (IIP) with base 2011-12 for the month of May 2017, released by the Ministry of Statistics and Programme Implementation, Central Statistics Office. The General Index for the month of May 2017 stands at 124.3, which is 1.7% higher as compared to the level in the month of May 2016.

India Meteorological Department, Hydromet Division. Until 2 August 2017, 67% of the districts have recorded cumulative rainfall of normal, excess or large excess and 33% of the districts have recorded cumulative rainfall of deficient or large deficient. This compares with 69% and 31% respectively at the same time last year.

Ministry Of Commerce and Industry, Office Of The Economic Adviser. The official Wholesale Price Index for All Commodities (Base: 2011-12=100) for the month of June 2017 declined by 0.1% to 112.7 (provisional) from 112.8 (provisional) for the previous month.

Ministry of Water Resources, Central Water Commission. As on 3 August 2017 the total live storage capacity of the 91 major reservoirs is 157.799 billion cubic metres (BCM) which is about 62% of the total estimated live storage capacity of 253.388 BCM. As per reservoir storage bulletin dated 03 August 2017, live storage available in these reservoirs is 67.683 BCM, which is 43% of total water storage capacity of these reservoirs. Last year the live storage in these reservoirs for the corresponding period was 65.109 BCM and the average of last 10 years was 69.510 BCM.

Reserve Bank Of India Bulletin, Weekly Statistical Supplement. 4 August 2017. Aggregate deposits Rs 106,254 billion. Bank credit Rs 76.888 billion. Money stock: Rs 14,689 billion currency with the public, Rs 101,600 billion time deposits with banks.

Ministry of Agriculture. The total sown area as on 4 August 2017 stands at 878.23 lakh hectare as compared to 855.85 lakh hectare at this time last year. Rice has been sown/transplanted in 280.03 lakh hectare, pulses in 121.28 lakh hectare, coarse cereals in 156.95 lakh hectare, oilseeds in 148.88 lakh hectare, sugarcane in 49.71 lakh hectare and cotton in 114.34 lakh hectare.

Ministry of Consumer Affairs, Food and Public Distribution, Price Monitoring Cell in the Department of Consumer Affairs. Maximum prices recorded (per kilo and per litre) amongst the set of 100 cities monitored during the week of 23-29 July: Rice 52, Wheat 45, Atta (Wheat) 50, Gram Dal 132, Tur/ Arhar Dal 132, Urad Dal 150, Moong Dal 140, Masoor Dal 110, Sugar 52, Milk 65, Groundnut Oil 180, Mustard Oil 170, Vanaspati 120, Soya Oil 110, Sunflower Oil 130, Palm Oil 110, Gur 68, Tea Loose 360, Salt Pack (Iodised) 22, Potato 35, Onion 45, Tomato 100.

Eating out, or India’s exorbitant world food bill

(This article was published by Vijayvaani in June 2017.)

In the Konkan, small electrically operated oil presses that ingest limited amounts of dried copra to expel oil for households to cook with are common. These can press enough in a day (electricity supply permitting) to fill several dozen glass bottles with coconut oil. As such a filled bottle of freshly pressed coconut oil usually sells for Rs 130 to Rs 160, the price per litre may be estimated at about Rs 180. This price compares quite well with the price range of Rs 190 to Rs 220 that is paid by the household buyer for a litre of branded coconut oil.

But it compares not at all with the trade price of an imported shipment of sunflower-seed or safflower oil which in 2016 was imported into India at an average price of just under Rs 60 per kilogram. India imported 1.53 million tons of sunflower-seed or safflower oil last year, and the Rs 9,080 crore spent on it pushed the total amount spent on imported ‘edible’ oils to beyond the Rs 70,000 crore mark. [The cultivation of oilseeds, like the cultivation of all ‘commercial’ crops that are not food staples, is a matter of crop choice, for which see ‘Why our kisans must make sustainable crop choices’.]

Palm oil

Both by weight and by the total amount paid for it, palm oil is the most visible imported food commodity in India today, and has been for the last five years. In 2016 India imported 8.25 million tons of palm oil (the supplying countries being Malaysia and Indonesia) for which the importing agencies paid Rs 38,900 crore. This immense annual flood of a sort of oil that ought never to have touched our shores let alone ooze into our home kitchens and canteens came at less than Rs 48 per kilogram last year. For this reason – the absurdly low price per landed ton of Malaysian and Indonesian palm oil, a low price that hides from the Indian consumer the deforestation devastation and species extinction in those countries, new cooking oil blends are being shoved into the foods market every other month by the edible oils industry.

Biomedical research which is independent and not either funded by or influenced by the oil palm industry and edible oil traders (which means the world’s largest commodity trading firms) indicates that palm oil, which is high in saturated fat and low in polyunsaturated fat, leads to heart disease. It is considered less harmful than partially hydrogenated vegetable oil, but that is no redemption, for palm oil can under no circumstance be compared to our traditional cooking oils, coconut included.

The colonisation of the Indian kitchen and of the processed foods industry by palm oil has taken place only on the basis of landed price per ton, and that is why this oleaginous menace is now found in many everyday products such as biscuits and crackers and cookies (which school children develop addictions for), snack chips, shampoos, skin care and beauty products, and even pet food. [For a longer discussion on this problem see ‘Let them eat biscuits’ and ‘Cornflakes and oats invasion, 10 rupees at a time’.]

Soya oil

The next largest oily invasion is that of soyabean oil, of which 3.89 million tons (mt) was imported by India in 2016 (3.5 mt in 2015, 2.1 mt in 2014). Most of this was of Argentinian origin, just over 3 mt, and because more than 98% of the soya that is grown in Argentina is genetically modified (GM) the millions of tons of soyabean oil India has imported from that country has been used, blended, fractionated, caked and consumed by humans and animals with no indication about its GM origin and with no tests whatsoever for its effects on human and animal health. In terms of rupees per landed kilogram of soyabean oil, at about Rs 53 it is between palm oil and sunflower-seed or safflower oil. These landed prices show dramatically the effect exporting countries’ subsidies for a commodity category have on the related industry (edible oils) in an importing country.

Just as the vast palm oil plantations in Malaysia and Indonesia have waxed luxuriant in place of the old growth tropical rainforests that were cut down, turning the wildlife of these forests into hapless refugees, swelling the lucrative and thoroughly illegal forest timber trade, so too have the vast soya plantations in Argentina immiserated that country’s rural population and caused hunger because of the soya monocrop that has replaced their food biodiversity and whose need for fertiliser grew (as it did with Bt cotton in India) instead of shrinking. Both these long-drawn out eco-social catastrophes have been prolonged because of the inability or unwillingness of Indian consumers and regulatory agencies to acknowledge the faraway effects of our considerable ‘demand’ for palm oil and soyabean oil.

Pulses

Second to palm oil by weight amongst food commodities imported by India is pulses, of which 6.18 mt were imported in 2016 for a price of Rs 27,700 crore. The annual import pattern of a decade of 4 mt to more than 6 mt of imported pulses last year are a large fraction again of the average 18.7 mt of pulses a year grown in India for the last five years (until 2016-17).

Between 2003-04 and 2009-10 the quantity of pulses (tur or arhar, gram, moong, urad, other kharif and rabi pulses) harvested scarcely changed, averaging 14.2 mt over this period. There was a jump in 2010-11 to 18.2 mt and then another plateau followed until 2015-16, with the average for those six years being 17.7 mt. With the 22.7 mt estimated total pulses harvest in 2016-17, we can hope that another plateau is being scaled, and indeed this pattern of a plateau of several years followed by a modest increase does tend to indicate the following of a more agro-ecological cultivation of pulses (these being in rainfed farms) than intensive cultivation dependent on fertiliser, pesticide and commercial seed. [This does have much to do with cultivation practices in different regions, for which read ‘Seeing the growers of our food and where they are’.]

Sugar

What is a new concern is an item that by weight is fourth on the list of food commodity items imported, and that is sucrose: India imported 2.11 mt in 2016, in 2015 it was 1.6 mt, in 2014 it was 1.37 mt. The country with the greatest consumption of sugar, estimated by the Ministry of Agriculture and the Department of Food and Public Distribution to be around 25 mt per year and growing disproportionately above the natural growth in the number of households, the processed and packaged food sector is the destination for the 2.11 mt of sucrose imported in 2016. A ready consumer for the sucrose is the commercial fruit juice sector, which bases its produce on a small amount of fruit pulp (vegetable extract is often added for bulk), water, chemical preservatives, food-like colours, artificial flavours and sweeteners.

The giant bulk of our sugarcane harvests distract from the ratios calculated – that a ton of raw sugar is obtained from 13 or 14 tons of cane. (This is usually net of jaggery / gur / khandsari and also net of molasses, which is used by distilleries and animal feed.) The mountains of bagasse – the crushed residue from which the sugar has been extracted – which remain are used in the paper and pulp industry, are an ingredient in cattle feed, and are used as biofuel. [Commercial crop or food crop is the question every cultivating household faces. See one district’s example in ‘Masses of cotton but mere scraps of vegetables’.]

Nuts

At 730,000 tons imported in 2016 and under the international trade category of ‘edible fruit and nuts’ is cashew nuts and Brazil nuts, on which Rs 8,345 crore was spent. A second important sub-category is ‘dates, figs, pineapples, avocados, guavas, mangoes and mangosteens, fresh or dried’ and 350,000 tons were imported in 2016 (for Rs 6,204 crore), while 280,000 tons of apples, pears and quinces, 182,000 tons of ‘other nuts, fresh or dried’ were also imported.

Under 23 main categories food commodities, which include 167 sub-categories and more than 400 subsidiary categories, the bill for imported foods (including dairy and beverages) and food products that we purchased from all over the world in 2016 was USD 22,041 million (USD 22.04 billion), or at the average rupee-dollar exchange rate for 2016, Rs 152,088 crore! In 2015 this bill was USD 20,877 million which at the average annual rupee-dollar exchange rate for 2015 was Rs 137,794 crore. In 2014 this bill was USD 19,372 million which at the average annual rupee-dollar exchange rate for 2014 was Rs 123,015 crore.

Globalisation

These amounts are astronomical and underline the strength of globalisation’s thrall by which we are gripped, exerted upon us not only by the World Trade Organisation but also by the agreements that India has signed (or intends to, and demonstrates intent by importing) with regional trade blocs of the European Union, the OECD and ASEAN. The financial allocations to some of the largest central government programmes, and the budgetary sums of some of the biggest successes in the last three years shrink in comparison to the size of these purchases: the spectrum auction in 2015 brought in Rs 110,000 crore, the 2016-17 central government pensions budget of Rs 128,166 crore, the Rs 47,410 crore transferred so far as subsidy directly into accounts under the Direct Benefit Transfer for LPG consumer scheme, the expenditure of Rs 51,902 crore in 2016-17 on MGNREGA (the highest since its inception).

Bringing about stability in farmers’ incomes (let alone an increase), encouraging rural and peri-urban entrepreneurship based on traditional foods cultivated by agro-ecological methods, ensuring that consumers can find [read about the link with inflation in ‘The relative speeds of urban inflation’] and are assured by the quality of food staples which are free of GM ingredients, chemicals and additives, and the saving of enormous sums of money can all be had if we but reduce and then cut out entirely the wanton import of food and beverages, and processed and packaged food products.

Masses of cotton but mere scraps of vegetables

The sizes of the coloured crop rectangles are relative to each other based on thousand hectare measures. The four pie charts describe the distribution of the main crops amongst the main farm sizes.

For a cultivating household, do the profits – if there are any – from the sale of a commercial crop both enable the household to buy food to fit a well-balanced vegetarian diet, and have enough left over to bear the costs of its commercial crop, apart from saving? Is this possible for smallholder and marginal kisans? Are there districts and talukas in which crop cultivation choices are made by first considering household, panchayat and taluka food needs?

Considering the district of Yavatmal, in the cotton-growing region of Maharashtra, helps point to the answers for some of these questions. Yavatmal has 838,000 hectares of cultivated land distributed over 378,000 holdings and of this total cultivable area, the 2010-11 Agriculture Census showed that 787,000 hectares were sown with crops.

Small holdings, between 1 and 2 hectares, account for the largest number of farm holdings and this category also has the most cultivated area: 260,000 hectares. Next is farms of 2 to 3 hectares which occupy 178,000 hectares, followed by those of 3 to 4 hectares which occupy 92,000 hectares.

The district’s kisans allocate their cultivable land to food and non-food crops both, with cereals and pulses being the most common food crops, and cotton (fibre crop) and oilseeds being the non-food (or commercial) crops.

How do they make their crop choices? From the agriculture census data, a few matters immediately stand out, which are illustrated by the graphic provided. First, a unit of land is sown 1.5 times in the district or, put another way, is sown with one-and-a-half crops. This means crop rotation during the agricultural year (July to June) is practiced but – with Yavatmal being in the hot semi-arid agri-ecoregion of the Deccan plateau with moderately deep black soil – water is scarce and drought-like conditions constrain rotation.

Second, land given to the cultivation of non-food crops is 1.6 times the area of land given to the cultivation of food crops (including the crop rotation factor), a ratio that is made abundantly clear by the graphic. This tells us that the food required by the district’s households (about 647,000 of which about 516,000 are rural) cannot be supplied by Yavatmal’s own kisans.

The vegetables required by the populations of Yavatmal’s 16 talukas (Ner, Babulgaon, Kalamb, Yavatmal, Darwha, Digras, Pusad, Umarkhed, Mahagaon, Arni, Ghatanji, Kelapur, Ralegaon, Maregaon, Zari-Jamani, Wani) can in no way be supplied by the surprisingly tiny acreage of land allocated to their cultivation. Nor do they fare better for fruit, which has even less land (although this is a more complex calculation for fruit trees, less so for vine fruits).

Third, 125,000 hectares to wheat and 71,000 hectares to jowar makes up almost the entire cereals cultivation. Likewise 126,000 hectares to tur (or arhar) and 94,000 hectares to gram accounts for most of the land allocated to pulses. Thus while Yavatmal’s talukas are well supplied with wheat, jowar, gram and tur dal, its households must depend on neighbouring (or not so neighbouring) districts for vegetables, as a minimum of 280,000 tons per year is to be supplied to meet each household’s recommended dietary needs.

What the graphic helps us ask is the size of the costs associated with crop cultivation choices in Yavatmal. The cultivation of hybrid cotton in India’s major cotton growing regions (several districts each in Maharashtra, Andhra Pradesh and Gujarat) is associated with heavy chemical fertiliser and pesticides use. Whether the soil on which cotton has grown can be sown again with a food crop is not clear from the available data but if so such a crop would be saturated with a vicious mix of chemicals that include nitrates and phosphates.

The health of the soil in Yavatmal’s 16 talukas is probably amongst the most fragile in Deccan Maharashtra, and after years of coaxing a false ‘productivity’ out of the ground for cotton, it would be best for the district’s 516,000 rural households to take a cotton ‘holiday’ for three to four years and revert to the mixed and integrated cropping of their forefathers (small millets). But the grip of the financiers and the textiles intermediaries is strong.

A winning kharif season for Bharat

A rural road being repaired in the Konkan.

With only just over a week remaining of the usual June to September monsoon season, the first estimates of crop production for the year 2016-17 have brought welcome news to Bharat.

The estimates are the first in the normal series of four which are released through the crop year 2016-17 by the Ministry of Agriculture ad Farmers’ Welfare. What they show is important for two reasons.

First, they come against doubts that have been raised in various quarters since the last week of August about the adequacy of the 2016 summer monsoon. Second, they show that the effects of the drought and drought-like conditions that gripped a number of districts of Bharat from March to May have not affected crop production. These are important messages both.

Coming to the numbers released, the production of kharif rice is on target: 93.88 million tons (mt) against the target of 93 mt. The production of ‘coarse cereals’ (which includes jowar, bajra, maize, ragi, small millets and barley) is on target: 32.46 mt against the target of 32.50 mt. The production of pulses (which includes tur or arhar, gram, urad, moong, and other kharif pulses) above target: 8.7 mt against the target of 7.25 mt.

The overall outlook then for kharif season production is foodgrains of about 135 mt (final amounts will be subject to revision as states confirm their data).

How our kisans bested drought to give 252.2 mt

Bharat has maintained a level of foodgrains production that is above 250 million tons for the year 2015-16. This is the most important signal from the Fourth Advance Estimates of agricultural production, which have just been released by the Ministry of Agriculture. The ‘advance estimates’, four in the agricultural year, mark the progression from target production for the year to actual output.

For this rapid overview I have compared the 2015-16 fourth estimates, which will with minor adjustments become the final tally, with two other kinds of production figures. One is the five-year average until 2014-15 and the second is the ten-year average until 2014-15. While a yearwise comparison is often used to show the variation in produced crops (which are affected by price changes, policies, adequacy of the monsoon and climatic conditions), it is important to compare a current year’s nearly final crop production estimate with longer term averages. Doing so allows us to dampen the effects of variations in individual years and so gauge the performance in the current year against a wider recent historical pattern.

In this way we see that for all foodgrains (rice, wheat, coarse cereals and pulses) the production for 2015-16 is about three million tons below the five-year average but about 13.5 million tons above the ten-year average. These two comparisons need to be considered against the growing conditions our kisans dealt with during 2015 and 2014, both of which were drought years. They also need to be viewed against economic and demographic conditions, which have led to migration of agriculturalists and cultivators from villages into urban settlements (hence less available hands in the field), and the incremental degradation of agro-ecological growing regions (because of both urban settlements that grow and because of increased industrialisation, and therefore industrial pollution and the contamination of soil and water).

That the total quantity of foodgrains is adequate however has been due to the production of rice and wheat (चावल, गेंहूँ) both being above the five and ten year averages. There is undoubtedly regional variation in production (the February to May months in 2016 were marked by exceedingly hot weather in several growing regions, with difficult conditions made worse by water shortages). There is likewise the effects of more transparent procurement policies and stronger commitments being followed by state governments to adhere to or better the recommendations on minimum support prices. The host of contributing factors require inquiry and study.

What requires more urgent attention are the production figures for coarse cereals and pulses. Coarse cereals (which includes jowar, bajra, maize, ragi, small millets and barley – ज्वार, बाजरा, मक्का, रागी, छोटे अनाज, जौ) at just under 40 million tons is 4.4 million tons under the five-year average and 1.4 million tons under the ten-year average. Likewise pulses (which includes tur or arhar, gram, urad, moong, other kharif and other rabi pulses – अरहर, चना, उरद, मूँग, अन्य खरीफ दालें, अन्य रबी दालें) is 1.6 million tons under the five-year average and only 0.3 million tons above the ten-year average. The low total production of these crop types, coarse cereals and pulses, have continued to be a challenge for over a generation. The surprisingly good outputs of wheat (9.3 mt above the ten-year average) and rice (5.5 mt above the ten-year average) should not be allowed to obscure the persistent problems signalled by the outputs of coarse cereals and pulses.

Regions of wheat, lands of rice

The return of budgetary focus towards agriculture and the economies of rural India will help deepen our understanding about where crops are grown and for whom. These are still more often described in national aggregate terms of annual estimates, than by season, state and the growing appetites of urban agglomerations.

This could change over the next few years, especially as the so-called services sector shrinks both by the number of people it employs and by its importance to the national economy. Services – a peculiarly invented term that was quite unknown and unused when I was a teenager – has come about because of the financialisation of those portions of social activity which were done at small scale, informally and as adjunct activities to the work of the public sector, the manufacturers and factories, and the great numbers of cultivators (and those working on agricultural produce). The many enforced errors of contemporary economics means that this will continue to change – not without pain and confusion – but that social activity that has some economic dimension will return to what it was two generations earlier.

While it does, we find there are differences in the concentration of food staples produced – that is, how much by quantity do certain regions grow our food staples as a significant fraction of national production of that food staple. This is more readily available as state quantities instead of district. I have suggested to the Ministry of Agriculture that this ought to be monitored not only at the level of the district but also by the agro-ecological zone, or region, for we have 120 in India, and they represent varying climatic conditions, soil typologies, river basins and cultivation systems.

At present, what we see then is that for rice and wheat, the top three producing states account for 36.7% (rice) and 62% (wheat) of the country’s production. This distribution – or concentration – should cause a review of the crop choices that our kisans make in the growing districts and agro-ecological zones. For a simple pointer such as this tells us that 37 out of every 100 quintals of rice grown in India are grown in West Bengal, Uttar Pradesh and Andhra Pradesh and that 62 out of every 100 quintals of wheat grown in India are grown in Uttar Pradesh, Punjab and Madhya Pradesh.

The corresponding distribution/concentration with coarse cereals is better than wheat but not better than rice for 45.4% of total coarse cereals are grown in Rajasthan, Karnataka and Andhra Pradesh. Likewise, 48.8% of all pulses are grown in Madhya Pradesh, Rajasthan and Maharashtra. The tale is similar with oilseeds (63.8% in Madhya Pradesh, Rajasthan and Gujarat), with sugarcane (73% in Uttar Pradesh, Maharashtra and Karnataka) and cotton (69.8% in Gujarat, Maharashtra and Andhra Pradesh).

With horticulture – that is, vegetables and fruit – there is less state-level concentration to be seen. India’s kisans grow about 170 million tons of vegetables and about 85 million tons of fruit a year and their concentrations vary – West Bengal and Odisha grow a great deal of brinjal, Maharashtra grows onions, Uttar Pradesh and West Bengal lead in potatoes, Madhya Pradesh and Karnataka grow the most tomatoes, and so on. Overall however, the range of distribution amongst the large states of their produce of vegetables and fruit is not as concentrated as with the food staples. The reasons for this difference can tell us a great deal about the need for district and watershed-level food security, employing as always sound zero budget farming techniques (no external inputs) and local and indigenous knowledge of cultivation techniques.

A cost perspective about India’s pulses imports

Import categories sized according to their average monthly values for 24 months over April 2013 to March 2015.

For the last three years, India has imported between 3.2 and 4 million tons of pulses a year. These imports supplement our own production of pulses, which alas and despite several ‘missions’ and ‘schemes’ we do not grow enough of.

Apart from why we should import pulses at all instead of growing all that we need, the matter of what we spend (that is, the foreign exchange with which importing agencies pay for the pulses) has I think not been placed in perspective, which is the aim of this short inquiry.

For this I have used the Department of Commerce ‘System on Foreign Trade Performance Analysis’ which provides the monthly imports and exports under major heads as compiled by the Directorate General of Commercial Intelligence and Statistics.

Of the 21 major heads, the import of pulses falls under the group ‘agriculture and allied products’. Considering the 24-month period of April 2013 to March 2015, the value of pulses imported has varied between 10% and 21% of the agriculture group imports.

However, the average monthly value of pulses imported over this period Rs 1,171 crore and this average lies between the monthly amount spent on ‘internal combustion engines and parts’ (Rs 1,130 crore) and ‘paper, paperboard and products’ (Rs 1,205 crore).

Hence our questions ought also to be: why is India spending Rs 720 crore a month to import fresh fruit, Rs 898 crore a month to import man-made yarn and made-ups, Rs 1,031 crore a month to import rubber other than footwear, Rs 720 crore a month to import fresh fruit, Rs 2,684 crore a month to import electronics instruments, Rs 2,745 crore a month to import electronics components, Rs 2,928 crore a month to import electric machinery and equipment, and Rs 4,539 crore a month to import vegetable oils?

Why India must rely on local food stocks

The below average June to September monsoon season will lead to lower foodgrains production. What is the likely impact and how can society cope?

Context – For the last four years the numbers that describe India’s essential food security have become a common code: 105 million tons (mt) of rice, 95 mt of wheat, 41 to 43 mt of coarse cereals, 19 to 20 mt of pulses, 165 to 170 mt of vegetables and 80 to 90 mt of fruit.

With these quantities assured, our households feed themselves, army and factory canteens are supplied, the public distribution system is kept stocked and the processed and retail food industry secures its raw material.

Only provided there is such assurance, and that the allowance for plus or minus is as small as possible. Monsoon 2015 has removed that assurance for the agricultural year 2015-16. Our 36 states and union territories – and the 63 cities whose populations are more than a million – must begin to deal with the possible scenarios immediately.

Stock scenarios – In September 2015 the Department of Agriculture, Cooperation and Farmers Welfare, of the Ministry of Agriculture, Government of India, released the first of its usual four ‘advance estimates’ for the 2015-16 agricultural year. Each estimate sets the targets for the year for the foodgrain (and also commercial) crops, and provides with every estimate how likely it is that the annual target will be met.

This first advance estimate has issued a direct warning: rice production is estimated at 90.6 mt against a target of 106.1 mt. The wheat target is just under 95 mt but there is no estimate provided as yet. The target for coarse cereals is 43.2 mt whereas the advance estimate is just under 28 mt. The target for pulses is 20mt and the first estimate is 5.5mt.

What are the implications? The responsibility of the Department is to provide a provisional reading of the conditions that affect the production of our staple crops, and to inform and prepare state and central governments of the likelihood of shortfalls in foodgrain. The signal it has given for rice, estimated at 85% of the target, must be taken as a flashing red beacon which demands that our food stocks return to the foreground of the national agenda.

It is likely that the second and third advance estimates will see quantities revised upwards, but our planning must be based on this first estimate so that even the most adverse of natural contingencies can be met with suitable measures.

Using the first advance estimate as the basis, here are the likely annual production quantities, at 90% of the target and at 95% of the target: rice, between 95 and 101 mt; wheat, between 85 and 91 mt; coarse cereals, between 39 and 42 mt; pulses, between 16 and 17 mt; total foodgrains, between 236 and 250 mt of which cereals are between 220 and 232 mt.

Household demand – Will these quantities suffice, as for the last four years total foodgrain targets and production have been in the region of 260-273 mt?

To help answer this question, two sets of deductions must be accounted for. To begin with, for each main category of foodgrain, there are production quantities, imports, stock variations and exports. When these are added or subtracted, a gross domestic supply quantity remains.

It is worth also noting that this gross quantity is still no more than a best assessment that is synthesised from the information provided by state governments. The first set of deductions is by way of feed, seed and waste (foodgrain that is used in animal feed, is harvested to use as seed for sowing, and which is damaged after harvest or rendered unusable because of pests and infection). Allowing for the lowest likely level of deductions, the combined deduction is about 7% for rice, 10.5% for wheat, 17% for coarse cereals, 15% for pulses, 5% for vegetables and 10% for fruits.

The available quantities are now revised further. Under a 95% of target scenario, we will have 93.5 mt of rice, 81 mt of wheat, 34.5 mt of coarse cereals and 14.5 mt of pulses. In the same way, a 95% of target scenario for vegetables is 153.5 mt and for fruits it is 72.5 mt. On the consumption side we have the households – in 2016 we will have 175 million rural and 83 million urban households.

These households will require a baseline minimum of 181 mt of cereals, 136 mt of vegetables, 45 mt of fruits and 41 mt of pulses. Under a 95% of production target scenario therefore, there will be enough cereals, enough vegetables and enough fruits. We have been falling short in pulses for several years.

But this apparent comfort is still without the second set of deductions. And these are: (1) buffer stocks of rice and wheat to be maintained, with 5-8 mt of rice during the year and 10-18 mt of wheat during the year (to fulfil the demands on the public distribution system and to fulfil the allocations for the food-based welfare programmes), and in addition the strategic reserve of 2 mt of rice and 3 mt of wheat to be maintained; (2) the use of foodgrains by the food processing and retail food industry; (3) exports of primary crops (such as rice and in particular basmati) and processed crops (vegetables and fruits); (4) the industrial use of foodgrain (including for biodiesel); (5) the diversion of cereals to alcohol distilleries.

Some amongst the second set of deductions are known – such as the withdrawals for buffer stocks and the food reserves, and the export quantities – but the others are either hidden, concealed or misreported. In a food production scenario that is less than 95% of targets (in the way that rice has already been estimated for 2015-16), the deductions from gross crop production will decrease available foodgrains, vegetables and fruits to levels that will compromise household food security, especially those households in the lower income brackets.

Recommendations – The climate variations that have led the Department of Agriculture to raise a red flag warning are no longer uncommon. The 2015 monsoon was affected by El Nino conditions, which are expected to continue into the first quarter of 2016. These changes in the pattern of the Indian summer monsoon are amplified by land use change in our districts, by deforestation, by rapid urbanisation, by inequitous water use, and by consumption behaviour. Some of these can be addressed through policy, education and incentives over the long term. What is needed immediately however are:

a) A review of the drivers of crop cultivation choice in our watersheds and agro-ecological zones so that, as far as possible, these settlements units begin the transition towards local food security in sustainable ways. This means that the income-led arguments which favour the cultivation of commercial crops for farming households must be critically re-examined – in a situation of primary crop scarcity an income buffer alone will not help these households.

b) The demands placed by export arrangements (including the export of meat, which represents fodder and feed) and by the food processing and retail food industry must be quantified and made public. Especially at the level of district administrations, the need to rationally incentivise land use towards the cultivation of food crop staples that suit agro-ecological conditions has become an urgent one. The decentralisation of planning that can make such an approach possible can take place only when hitherto hidden and concealed foodgrains use becomes public.

c) To reach self-reliance at the level of panchayat or block (tahsil, taluka), cooperative farming must be vigorously encouraged, villages must become self-reliant in the provisioning of their food staples (a consideration that must balance that of the ‘national market’), the bio-physical limits of the major food producing districts (the top 250 by quantity) have already been reached and this necessarily limits the demand urban India can exert upon rural districts, in terms not only of food quantities but also in terms of the population that must be fully engaged in foodgrains cultivation.