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Agriculture – Empowering the Indian Farmer
Kapil Thirani
Pratheek Hegde
Saurabh Jain
Sidharth Gupta
Vikas Pavankumar
Team Ignite
Indian School of
Business
2
Executive Summary
Impact of the solution
Technology-enabled eco-system expected to substantially increase profits (80-85%) for farmers due to:
– ~30% cost saving due to access to information on optimal input resource utilization and financing
– Precision farming and knowledge sharing on best farming practices through mobile platform resulting in
~50% increased yields
– Scientific grading and e-commerce platform aiding farmers to realize ~3% increase in overall price
realization
Leverage the power of technology and community to build smart agriculture eco-system in India:
– Integrated mobile platform solution aggregating data at farm-level to maintain region-wise price-to-
consumer data and reconcile with district-level supply and demand
– Use of precision farming and remote sensing to evaluate soil condition
– Enable information flow on optimal use of agri-inputs, weather conditions, load shedding, market pricing
and demand
– Community-level financing and insurance services at subsidized costs
– Mobile trading platform to purchase inputs and sell graded output to processors on a real-time basis
Proposed solution
India stands at a much lower yield (~3000 Kg/hectare) than other nations due to significant challenges
present in the current agriculture value-chain:
– Increased costs due to sub-optimal use of agricultural inputs (e.g., nutrients, pesticides, low yield seeds)
– Lack of availability of finance leading to inability to purchase high quality seeds and other inputs
– Limited access to crop insurance; Low realization due to limited real-time price information flow
– Lack of knowledge and information flow on optimal usage of agri-inputs and load shedding
– Ad-hoc grading practices limiting farmer realizations
– Inadequate timely availability of transportation and lack of data on storage availability and cost
Problem statement
3
Sales and marketingPost-harvestingProduction
Current scenario – Problems in Indian agriculture sector
India stands at a much lower yield (~3000 Kg/hec) vis-à-vis other nationsdue to significant challenges present in the current agriculture value-chain
Cereal yield (kg per hectare)1
2008-2011; in 1000 Kg per hectare
0
2
4
6
8
2008 2009 2010 2011
1 Refer to Appendix for key data trends and sources
Pre-production
Indonesia
India
China
U.S.
Lower productivity of Agriculture sector in India– Agriculture constitutes ~15% of India’s GDP despite
employing over 50% of the population– The key challenge lies in sub-optimal productivity and
lower efficiency of the sector in India– India stands at a yield of ~2888 Kg/hectare, way below
when compared to other developing nations and developed nations
– Key challenges are highlighted below at various nodes of the value-chain (farm-to-fork)
Increased cost due to excessive use of fertilizers
Low yields due to use of low quality seeds and sub-optimal use of input resources
Inadequate real time information availability on load shedding
Lack of access to finance and crop insurance
Lack of knowledge of optimal usage of pesticides, weedicides and herbicides
Increased costs due to ad-hoc application of nutrients leading to sub-optimal yields
Low realization to farmers due to lack of availability of real time fair market prices
Ad-hoc method of grading practices limits farmer realizations
Inadequate timely availability of transportation
Lack of data on storage availability and cost
Lack of consistent supply information to food processors to better plan production run
Lack of consistent availability of quality graded output
Key problems associated with current farm-to-fork value chain
Key problems
Value-chain
4
Technology-enabled smart eco
system
Working on individual pieces of the puzzle (Discreteview)
Putting all the pieces together (Holistic view)
Our philosophy
Instead of PRODUCT; Instead of PRICE; Instead of COST; Instead of PROMOTION Focus on SOLUTION; Focus on ACCESS; Focus on VALUE; Focus on EDUCATION
Physical product flows
Financial flowsInformation flows
Gaps that technology can remove:
Step1: Disintegrating value-chain to identify key areas of gaps and opportunities and leveraging technology to improve each step
Step2: Leveraging the power of technology and community to build smart eco-system
21
Sales and marketing
Post-harvesting
ProductionPre-production
Nutrient Wastage
Seed Density and Quality
Water Budgeting
Electricity Requirement
Financing & Insurance
Pesticide Over-Usage
Sub-optimal Micronutrient Usage
Grading
Real Time Pricing
Unorganized by-product market
Transportation
Lack of Availability of Storage
Uncertainty among Food Processors
Farms
Forks
National Data Center head
Area Ombudsman
City Storage-level Officer
District-level Aggregator
Aggregates data from farmers (inputs, resources)
Maintains real-time data (harvest, storage capacity)
Maintains supply and demand data of processing plants
Maintains region-wise price-to-consumer data
Approach and Framework
Step by Step analysis of value chain from farm-to-fork to identify gaps
and opportunities and build a technology-enabled ‘smart ecosystem’
5
Soil Nutrient Wastage
Excess application of artificial fertilizers due to lack of awareness of existing soil characteristics
Value-chain Problems Role of technology
Seed Density and Quality
Inadequate quality/low yield seeds Unequal distribution of seeds
Water Budgeting
Sub-optimal use of water resources
Electricity Requirement
Intermittent supply of electricity
Accurate estimation of current levels of soil micro-nutrients using remote sensing
Delivery of certified seeds Remote sensing map of seed density
Usage of precision farming to deliver information on frequency and quantity use of water
Real time information on load shedding
Solution
Pesticide Over usage
Improper concentration and quantity of pesticides/weedicide/insecticide application
Sub-optimal use of Micronutrients
Ad-hoc application of nutrient leading to sub-optimal yields and increased costs
Precision farming techniques to accurately identify isolate and treat affected areas
Delivery of micronutrients Use of Remote sensing map for optimal use
of micronutrients at the field level
Pre-production
Role of Community
Financing and Insurance
Lack of access to finance Limited access to crop insurance
Access to community based financing and insurance service
Production
1
High Low
Identify key gaps and opportunities in the value-chain
Leveraging technology to reduce gaps related to physical product
flow, information flow and financial flow in the farm-to-fork chain (page 1/2)
6
Grading Ad-hoc method of grading practices limits
farmer realizations
Real Time Pricing Information
Due to lack of real time pricing information farmers are at a disadvantage due to reliance on middlemen
Unorganized by-product market
Unorganized by-product market limiting market access for sale of by-products for farmers
Transportation Lack of timely availability of
transportation
Access to community level scientific grading mechanism resulting in higher realization
By linking farmers to primary processors farmers will have access to fair market prices
Additional revenue stream by aggregating by-products to command a higher realization at a community level
Door to door transportation service to market areas/community centers
Uncertainty among food processors
Lack of consistent supply information to food processors to better plan their production run
Access to data on estimated and real time district level production data to help better plan production and purchasing price
Post-Harvest, Storage and Transportation
Lack of Availability of Storage
Lack of data on storage availability and cost
Real time data on location, capacity and cost of storage
Sales and Marketing
Value-chain Problems Role of technology
Solution Role of Community
High Low
Identify key gaps and opportunities in the value-chain
Leveraging technology to reduce gaps related to physical product
flow, information flow and financial flow in the farm-to-fork chain (page 2/2)
1
7
Empower community with technology - smart ecosystem
Aggregating data at farm-level to maintain region-wise price-to-
consumer data and reconciling with district-level supply and demand
2
Technology-enabled smart eco-system (Indian agriculture)1
National Data Centerhead
Maintains region-wise price-to-consumer data and reconciles with district-level supply and demand to maintain control over food prices and inflation
District-level Aggregator
Maintains data of supply and demand of processing plants. Accordingly channels flow of produce from city-level
City Storage-level Officer
Maintains real-time data of available harvest and storage capacity in warehouse
Communicates with his area ombudsmen and neighboring city officers to channel farm produce to the right place based on supply and demand
Area Ombudsman
Aggregates data from farmers (input requirements, harvest & by-product info, produce grades) at area-level; uploads to central serverFacilitates exchange/sharing of resources between farmers in his neighboring areasVisits farmers for collecting data if required (e.g., Grading)
Farmer
Send and receive information through their mobile phone –SMS/2G – weather forecasts, load shedding info, inputs delivery dates, etc.
National Data Repository
District demand-
supply aggregator
Mandi/ City
Storage
Mandi/City
Storage
Mandi/City
Storage
Area 1
Area 2
Area 3
FarmsForks
1 Refer to Appendix for details
8
Proposed improvements in agriculture value chain from farm-to-fork
Sales and marketingPost-harvestingProductionPre-production
Information Flow
Financing Flow
Physical Resources Flow
Determination of ideal seed mix based on soil-type and irrigation details at a regional level
Plan use of implements based on load shedding info
Treatment of areas affected by overuse of pesticides as identified by remote-sensing
Plan use of micronutrients based on remote-sensing
Area-level scientific grading mechanism (higher revenue)
Real time pricing info Real-time data on storage
capacity availability –shared across areas
Access of area-wise production data to processors, helping plan production and price to consumer
Higher negotiation power with financial institutions for community financing/insurance
New revenue stream for farmers by aggregating and selling by-products
Delivery of required seed mix as decided by community, to area ombudsman, who then allocates to farmers
Door-to-door delivery of inputs from area-level to farmer, reducing individual logistics costs incurred
Delivery of required micronutrients mix as decided by the community to area ombudsman, who in turn allocates to farmers
Door-to-door transport of produce from farmer to market/storage, reducing individual cost incurred
Help sell produce from farmers to processors
E-commerce portal with details of produce by grade and price –available for processors to buy
ForkFarm
Farmers’ profits expected to substantially increase (80-85%) due to cost savings (~30%), improved yield (~50%), and higher price realization (~3%)
Empower community with technology - smart ecosystem
Proposed ICT-enabled agriculture value chain (farm-to-fork) addresses
information, financing, and physical resource flow gaps
2
9
840
451
359
Revenue Cost Profits
12951045
250
Revenue Costs Profits
15%
37%
4%
37%
7%
Managing People
Managing projects
Research
Decision-making.
Trainings
34%
26%1%
23%
7%9%
HardwareSoftwareConnectivityOnline servicesTraining materialsService contracts.
Total Financial Costs = $ 30000 annualTotal Human Resources Costs = $430,000 annual
Current Remuneration (USD per hectare)1 Expected Remuneration (USD per hectare)
Human Resources Cost (%) Total One-time Infrastructure Cost (%)
Financial analysis and Impact
With the venture expected to make USD 1000 per hectare, breakeven
can be achieved by serving 1200 hectares of land
The venture will be a hybrid of self equity and funding from government bodies such as NABARD and other PSU Bank Loans– The venture is expected to cover operational costs if an area of c.1200 hectare is covered (assuming a 20% profit differential sharing
agreement with farmers is employed)
1 Source: FAO
10
Challenges and mitigation plan
Despite the tremendous potential of ICT in agriculture, the below
challenges may limit its potential, however, there are mitigation plans
Sales and marketingPost-harvestingProductionPre-production
Social,Economic and Politicalchallenges
ForkFarm
All transactions done virtually without any physical interaction
Issue of trust and authenticity of products
Input distribution cost Govt. subsidy structure
needs to be augmented to the solution
Advice given by experts without filed visits
Issue of credibility Monetizing services like
crop advice, etc. is difficult
Access to Govt. survey maps for providing services
Honoring contracts at predetermined prices
Logistical costs due to poor infrastructure
Issues like minimum support price & grading of output
Farmer are illiterate and can be misled
Transparency in purchase prices and farmer value realization
Transacting through mobile banking
Equitable distribution of profits among all stakeholders
Difficulty in adoption of technology
High yield and disease resistant crop varieties may introduce ecological imbalance
Poor internet connectivity and irregular supply of electricity
Regulatory framework may hinder crop insurance
Current regulation on storing and transporting cereals is a hindrance
Success of the project may encourage deforestation
High Contractual and enforcement costs
Delivery of real time prices to customer
Poor storage infrastructure
Consistency in grading and sizing
Seasonality of production
Tax structure in the value chain is unclear
Incentive to maximize profits in short term
Ownership of output during storage and in transit
Clout of middlemen
Mitigation plan
Samples of input materials to be distributed free of cost to gain trust and establish credibility among farmers Pilot projects to be initiated on a regional level and use the participating farmers to popularize the concept Deliver the Govt. subsidy directly to farmers without any middle men by including it in the solution platform Test suitability of new varieties of crops before introduction
Legal, Technological and Environmental challenges
11
Appendix
Data trends: Cereal yield (Page 1 of 11)
1 Source: World Bank Indicators
Cereal yield (kg per hectare)1
2008-2011; in 1000 Kg per hectare
0
1
2
3
4
5
6
7
8
2008 2009 2010 2011
United States
China
Indonesia
India
12
Appendix
Data trends: Agriculture land (Page 2 of 11)
1 Source: World Bank Indicators
Agriculture land (% of total land)1
2008-2011; Percentage
45 45 45 45
55 55 56 56
29 30 30 30
60 61 60 60
0
10
20
30
40
50
60
70
2008 2009 2010 2011
United States
China
Indonesia
India
13
Appendix
Data trends: Crop Production Index (Page 3 of 11)
1 Source: World Bank Indicators
Crop Production Index (2004-2006 = 100)1
2008-2011
0
20
40
60
80
100
120
140
160
2008 2009 2010 2011
United States
China
Indonesia
India
14
Appendix
Data trends: Agriculture value added as % of GDP (Page 4 of 11)
1 Source: World Bank Indicators
Agriculture value added (% of GDP)1
2008-2011; Percentage
1 1 1 1
11 10 10 10
14 15 15 15
18 18 18 18
0
2
4
6
8
10
12
14
16
18
20
2008 2009 2010 2011
United States
China
Indonesia
India
15
Appendix
Data trends: Employment in Agriculture (Page 5 of 11)
1 Source: World Bank Indicators
Employment in agriculture (% of total employment)1
2008-2010; Percentage
0
10
20
30
40
50
60
2008 2009 2010
United States
China
Indonesia
India
16
Appendix
Data trends: Mobile Cellular Density (Page 6 of 11)
1 Source: World Bank; EIU
Mobile Cellular Density (per 100 people)1
2008-2011; Number
0
20
40
60
80
100
120
2008 2009 2010 2011
United States
China
Indonesia
India
17
Appendix
Data trends: Internet users (Page 7 of 11)
1 Source: World Bank; EIU
Internet User Density (per 100 people)1
2008-2011; Number
0
10
20
30
40
50
60
70
80
90
2008 2009 2010 2011
United States
China
Indonesia
India
18
Appendix
Data trends: Penetration of Mobile Internet in India (Page 8 of 11)
1 Source: Telecommunication report, India
Claimed and active mobile users in India 1
2012; in million
21
5
3 3 2
1
17
4 2 2 1
1
0
5
10
15
20
25
Top 8 Metros Small Metros Non-metros Small Towns Towns (1-2 Lakhs) Towns (Less than 1 Lakh)
Claimed
Active
19
Appendix
Data trends: Telephone density in India (Page 9 of 11)
1 Source: Telecommunication report, India
Telephone density in India (per 100 population) 1
2012; Number
62
82
118
135
152
5
1522
3238
0
20
40
60
80
100
120
140
160
2008 2009 2010 2011 2012
Urban Rural
20
Appendix
Financial Analysis: Break-even Analysis to cover the Annual Operating Cost (Page 10 of 11)
1 Source: How to cost and fund ICT- Published by NCVO; FAO
Parameters Units Amount Units
Costs USD 430,000 Per year
Current Profit per hectare USD 1045 Per hectare
Previous Profit per hectare USD 451 Per hectare
Change in Profits USD 594 Per Month Per Hectare
with 3 months season USD 1,782 Per year
Profit percentage 20% of change USD 356 Per year
Number of hectares 1,207 Hectares
211 Source: Narula,2009;Empowering farmers through ICT enabled food supply chains
0%
10%
20%
30%
40%
50%
60%
70%
80%
90%
100%
Extremely imp Important Less imp Very less imp Not imp at all
Appendix
Data trends: Importance of information to Indian Farmers (Page 11 of 11)
Importance of information to Indian farmers (survey result)1
2009; Number
22
Appendix
Information flow under the proposed value chain
Farmer From the farmer: Requirement of inputs – seeds, fertilizers, pesticides, etc. (to the Area Ombudsman for consolidated
purchasing activity)
For the farmer: Water supply and/or Load-shedding schedules, weather forecast, input delivery and harvest collection
dates, etc. (for planning farming activities accordingly), information and knowledge flow from ombudsman on use of agri-
inputs to improve farm yield
Area-level From the area ombudsman: Expected harvest by crop and grade (to the city-level storage and district-level processors so
as to plan their capacities, sales and transport arrangements accordingly), etc.
For the Area Ombudsman: Demand and inventory from the city warehouses/mandis and district-level processing
units, real-time market prices, etc.
Peer-to-peer Area Ombudsman network: Share/exchange inputs within or across areas (seeds, fertilizers, land), share
transport services, fulfill output demands of their respective warehouses by planning crops accordingly
Mandi/City
Warehouse-level
From the warehouse manager: Expected requirement by crop (to the Area Ombudsmen), Expected supplies to the District-
level, Pricing data etc., real-time data on the current stocks by crop
For the warehouse manager: Expected supplies by crop (from their respective Area Ombudsmen), Pricing at the district-
level, etc.
District and national
level
From the District-level and National-level Aggregator: Expected requirement by crop (to the District
Ombudsmen), Expected supplies at the District-level, Pricing data etc., real-time data on the current stocks by crop
For the District-level and National-level Aggregator: Expected supplies by crop (at District and National level), Pricing at
the district-level and national level, etc.