Showing posts with label ICT Previous Year Question (May 2018). Show all posts
Showing posts with label ICT Previous Year Question (May 2018). Show all posts

Saturday, May 4, 2019

Section-B | ICT Previous Year Solved Question Paper (Nov-2018) | ICT

Section-B

Q2. Write the key success factors for ICT application in agribusiness.
Answer:

Some of the success factors for ICT application in agribusiness are:



  1. Helping Farmers Raise Their Incomes
  2. Making Agricultural Marketing More Efficient
  3. Lowering the Costs of Information
  4. Reducing Transportation Costs
  5. A Platform for Service Delivery and Innovation

Q3. Discuss the challenges related to mobile phones and agriculture livelihoods.

Answer:
• Illiteracy/ low level of literacy of farmers

• Digital illiteracy : Inability of farmers to use mobile phones

• Poverty

• Lack of technological infrastructure such as internet connectivity

• Cost of technology

• Non ownership of computers, tablets and other digital devices

• Not enough time to spend on technology

• Lack of training

• Lack of awareness of farmers


Q4. State the trends and issues for making ICTs Affordable in Rural Areas.
Answer:
Trends :
  1. Helping Farmers Raise Their Incomes
  2. Making Agricultural Marketing More Efficient
  3. Lowering the Costs of Information
  4. Reducing Transportation Costs
  5. A Platform for Service Delivery and Innovation

Major challenges for making ICTs affordable are:
• Illiteracy/ low level of literacy of farmers

• Digital illiteracy : Inability of farmers to use ICT

• Poverty

• Lack of technological infrastructure such as internet connectivity

• Cost of technology

• Non ownership of computers, tablets and other digital devices

• Not enough time to spend on technology

• Lack of training

• Lack of awareness of farmers

• Do not understand the value of ICT

• Lack of satisfaction with use of ICTs

• Several farming related issues unaddressed by ICTs

Q5. How ICT have been able to prevent yield losses? Explain.
Answer:
  • ICT can help to prevent and reduce losses in crops through well-planned investments and disaster warnings or time sensitive alerts.
  •  Water management and disease or pest prevention are crucial to increased productivity.
  • Advances in ICT—such as GPS, GIS, mediation software, mobile phones, and satellite imagery—have improved smallholders’ ability to adjust farm strategies and reduce risk. 
  • At the same time, these advances allow governments and development partners to better monitor farm productivity, make more accurate projections, and plan better for the future.
  • Water is a primary topic in this thematic note. Although water is scarce and is becoming more so due to climate change,many water resources in developing countries are simply not exploited. In fact, the vulnerability facing agriculturalists in most of Africa is not the result of more variable rainfall but of failure to access the water that is available. Only 2–3 percent of Africa’s water is used (Woodhouse 2009). Despite current efforts to tap water resources and adapt to climate change, competition for water for household and industrial use will steer water away from agriculture over the next few years in almost 60 percent of the world’s most vulnerable countries (Ruttan 2002). Weather data, along with improved irrigation management and system engineering, are more important than ever.
  • This note also discusses disease and pest control. Pests and pathogens continually evolve, making it particularly difficult for small-scale farmers to increase productivity. Without inputs like pesticides and the knowledge to use them correctly, pests and diseases reduce global harvests by upward of 30 percent for maize, rice, and potatoes (Oerke 2006). ICT devices like mobile phones and radio frequency identification technology are making it easier for farmers to know which diseases or pests to watch for and how to handle them if they are found. Pest eradication takes national and collective efforts. With ICT, governments find it easier to reduce crop losses from flies or rodents and livestock losses from disease like bovine spongiform encephalopathy (less formally known as “mad-cow disease”).



Q6. Summarize the improvements of logistics through ICT in agriculture marketing.
Answer:
The issue of food wastage is central to India’s efforts in combating hunger and improving food security. While focus has been on improving production, reducing food supply chain losses remains a relatively uuaddressed problem till very recently.
It is hard to put a figure to how much food is lost and wasted in India today due to lack of adequate infrastructure, however, a 2011 report by a UN body, FAO, puts wastage in fruits and vegetables as high as 45% of produce (post-harvest to distribution) for developing Asian countries like India.
Major challenges :


  • Inefficient price signals: The government has been buying almost one-third of all rice and wheat produced in India through the PDS system, but in other kinds of grains, fruits and vegetables (both being highly perishable), the role of the government is limited. This leads to MSPs being ineffective as both price signals and as insulators from the perspective of the larger agricultural population. 
  • Limited reach of mandis: Also, this procurement system has failed to cover the entire country evenly (back of the envelope calculation suggests that on an average, a farmer needs to travel 12 kms to reach the nearest mandi and more than 50 kms in NE India) while according to the recommendations by National Farmers Commission, availability of markets should be within a 5 km radius. 
  • Too many intermediaries, information asymmetry: The above mentioned problems have led to formation of long marketing channels, with multiple intermediaries, adding to the woes of the producers of perishable agri goods. These intermediaries have led to a cost inflation of ~250% (over the cost of production) and have exacerbated the existing information asymmetries in agriculture, especially for non-MSP crops.  
  • Inadequate infrastructure for storage: The Planning Commission has recently estimated the gap between agri-warehousing supply and demand at 35 mn MT. Currently, public sector agencies like the FCI, Central Warehousing Corporations (CWC) and the various State Warehousing Corporations (SWC) have a storage capacity of 71 mn MT, while the private sector has close to 25 mn MT. To put the scarcity in perspective, food grain stocks held only by the government was 80 mn MT last year (peak) according to the FCI annual report. 
  • Skewed distribution of capacity: Skewed distribution of this capacity is another issue, with North India having access to 60% of the total storage infrastructure. The Planning Commission has recently estimated the gap between agri-warehousing supply and demand at 35 mn MT. 
  • Lack of cold storage infrastructure: India’s current cold storage capacity at 25 MT is barely sufficient for 10% of fruit and vegetables produced in the country. 
  • Lack of collateral management options: Collateral management refers to financing of agricultural goods stored at warehouses, and is estimated to be a ~Rs 3,500 cr opportunity by industry sources.


  • Improvements:
    • Comprehensive agriculture logistics solutions: Private players like Star Agri that provide integrated post harvest management solutions have entered the space to fill these gaps. Apart from providing warehousing services, Star Agri, which recently raised funding from IDFC PE, provides collateral management and other value added services (quality testing, agri insurance, bulk procurement and rural retailing) to its clients. 
    • Integrated cold chain solutions: ColdStar Logistics provides customized solutions for cold storage and refrigerated transportation across India for fresh and frozen commodities. Promoted by Tuscan Ventures, a logistics focused investment firm, their services include specialized refrigerated storage¸ warehousing¸ transportation¸ distribution and logistics. 
    • LEAF, which raised funding from Aspada recently, is another player which works with small holder vegetable farmers in South India. LEAF provides integrated cold chain logistics comprising post harvest transport, cold storage, processing, and supply through refri-trucks to the distribution center and retail store. Apart from this, LEAF is also involved in contract farming and agro processing, working on improving income realizations for small farmers through yield improvements, productivity increases, and consistent produce pricing.
    • Alternate marketplaces: A young innovative company, eFarm, is providing a way to bypass the long chain of intermediaries by directly connecting buyers and sellers of agricultural produce and allied services, via a web and mobile based information exchange platform. This is a B2B (Business to business) model and aims to connect all stake holders in the supply chain: from farmers, to buyers, to suppliers of services like labor and transportation. The portal currently has over 5,000 kinds of produce listed..
    • Reducing the information asymmetry: Riding on the high mobile penetration in rural India, Reuters Market Light and Fasal Intuit are working on the problem of information asymmetry for agricultural producers, by making personalized agricultural market information available to the farmers at minimal costs, through a mobile based service. Since its inception in 2009, Fasal claims to have helped close to a million people and created additional value for farmers of over Rs 135 crs. According to a 2009 study by ICRIER, RML has lead to an increase in incomes by 5-25% for users.  
    • TCS’ mKRISHI platform offers personalized advisory services to farmers, via mobile phones (SMS and IVR), enabling them to access important information on pesticides, fertilizers, soil and water conservation, and improving access to markets for them.
    • Innovative ICT tools for supply chain management: Logistimo is a hosted web service for supply chain management, which can be accessed via basic mobile phones and web browsers, which makes it uniquely suitable for in rural markets. It is a configurable service which offers customers the ability to capture and share data in a simple, low-cost way, empowering them to make better logistics decisions.

                

    Monday, April 29, 2019

    Section-A | ICT Previous Year Solved Question Paper (Nov-2018) | ICT

    Section A

    1) a) How ICT can be used in education system?
    Answer:
    Schools use a diverse set of ICT tools to communicate, create, disseminate, store, and manage information.

    Some common educational applications of ICT include:


      • One laptop per child: Less expensive laptops have been designed for use in school on a 1:1 basis with features like lower power consumption, a low cost operating system, and special re-programming and mesh network functions. Despite efforts to reduce costs, however, providing one laptop per child may be too costly for some developing countries.
      • Tablets: Tablets are small personal computers with a touch screen, allowing input without a keyboard or mouse. Inexpensive learning software (“apps”) can be downloaded onto tablets, making them a versatile tool for learning. The most effective apps develop higher order thinking skills and provide creative and individualized options for students to express their understandings.
      • Interactive White Boards or Smart Boards: Interactive white boards allow projected computer images to be displayed, manipulated, dragged, clicked, or copied.Simultaneously, handwritten notes can be taken on the board and saved for later use. Interactive white boards are associated with whole-class instruction rather than student-centred activities. Student engagement is generally higher when ICT is available for student use throughout the classroom.
      • E-readers: E-readers are electronic devices that can hold hundreds of books in digital form, and they are increasingly utilized in the delivery of reading material.(19) Students—both skilled readers and reluctant readers—have had positive responses to the use of e-readers for independent reading.) Features of e-readers that can contribute to positive use include their portability and long battery life, response to text, and the ability to define unknown words. Additionally, many classic book titles are available for free in e-book form.
      • Flipped Classrooms: The flipped classroom model, involving lecture and practice at home via computer-guided instruction and interactive learning activities in class, can allow for an expanded curriculum. There is little investigation on the student learning outcomes of flipped classrooms. Student perceptions about flipped classrooms are mixed, but generally positive, as they prefer the cooperative learning activities in class over lecture.

              b) List the ICT tools used in Agriculture.
              Answer:
              • Wireless technology: Wireless technologies have numerous applications in agriculture. One major usage is the simplification of closed-circuit television camera systems; the use of wireless communications eliminates the need for the installation of coaxial cables.
              • Global Positioning System (GPS): In agriculture, the use of the Global Positioning System provides benefits in geo-fencing, map-making and surveying. GPS receivers dropped in price over the years, making it more popular for civilian use. With the use of GPS, civilians can produce simple yet highly accurate digitized map without the help of a professional cartographer.
              • Geographic information systems:  Geographic information systems, or GIS, are extensively used in agriculture, especially in precision farming. Land is mapped digitally, and pertinent geodetic data such as topography and contours are combined with other statistical data for easier analysis of the soil. GIS is used in decision making such as what to plant and where to plant using historical data and sampling.
              • Automated Systems: Automatic milking systems are computer controlled stand alone systems that milk the dairy cattle without human labor. The complete automation of the milking process is controlled by an agricultural robot, a complex herd management software, and specialized computers.
              • Mobile Phones: Several smartphone apps are available for agriculture, horticulture, animal husbandry and farm machinery.

              C) What contribution the mobile applications can make to agriculture and rural development?
              Answer:
              Mobile phones help in increasing income, improving the efficiency of markets, reducing transaction costs, and offer a great opportunity for innovative interventions, especially in service delivery.
              Some of the ICT contributions are:
              • market information
              • weather forecasting
              • input supplies
              • credit availability
              • early warning about disease/ pest problems
              • Entertainmant 
              • Education
              • Government services at door steps

              d) Do you think ICT can improve productivity? How?
              Answer:
              Yes, ICT help in increasing productivity. It had already helped various sectors, including agriculture by providing:
              - Timely information
              - Increasing income
              - Better management of resources
              - Providing new opportunities of income and employment
              - Increasing the standard of living by providing more new and efficient resources

              e) How ICT Strengthening the agriculture marketing in developing countries?
              Answer:
              ICT is strengthening the agricultural marketing in developing countries by providing:
              - Access to new potential markets
              - Better techniques of soil, water and pest management techniques
              - New tools for accessing pre and post harvesting resources
              - More accurate weather condition and other risks in advance
              - New innovative ways of learning
              - More efficient way of dealing with problem and implementing their solution

              f) To what extend have rural development enhance the quality of information and communication technology in rural area ?
              Answer: 
              Rural development definitely enhances the quality of ICT in rural area, by:
              - Improving the basic infrastructure
              - Educating local masses
              - Improving the usage quality of ICT

              g)What are the consequences for farmers not using ICT?
              Answer:
              • Loss of competitiveness

              • Loss of production and management efficiency

              • Loss of contact with innovations

              • Loss of contact with timely information

              • Problems in the future

              h) How does the M-pesa work?

              Answer:

              Working of M-Pesa 


              M-Pesa is a virtual banking system that provides transaction services through a SIM card. Once the SIM has been inserted into the card slot of the mobile device, users can make payments and transfer money to vendors and family members using SMS messages. Users with no bank accounts can access the numerous M-Pesa outlets favorably distributed across the country. The money that needs to be stored is given to the kiosk attendant, who transfers the amount in digital form to the user’s M-Pesa’s account. For example, a farmer who has no bank account and wants to deposit his commodity sale proceeds of 1,000 shillings would head to an M-Pesa outlet and deposit the money with the kiosk agent or attendant. The agent would, in turn, use her phone to access the client’s account with the client’s registered phone number and credit the account for 1,000 shillings. The farmer gets an SMS notification on his cellphone within seconds of the deposit confirming how much was deposited and what his current account balance holds.
              The farmer can also easily withdraw cash from his account by using the M-Pesa attendant's or agent's number provided at the outlet and a personal PIN.
              Cash collected from M-Pesa depositors are deposited in bank accounts held by Safaricom. The bank accounts serve as regular checking accounts and are insured up to a maximum of 100,000 shillings (or $1000) by the Deposit Protection Fund.
              M-Pesa provides receipts as proof of a transaction. For a transaction to take place, both parties have to exchange each other’s phone numbers because the phone numbers act as account numbers. After settlement, both parties would receive an SMS notification with the full name of the counterparty and the amount of funds deposited to or withdrawn from the user’s account. The mobile receipt, which is received within seconds, helps to promote transparency for all individuals involved in a transaction.
              i) Write any two achievements in area of ICT for agriculture and rural development.
              Answer:
              Achievements of ICT in

              • Agriculture Dveleopment
              - Improved farming practices
              - Provided more and much needed timely information

              • Rural Development
              - Improved health services
              - Improved learning and education system

              j) Use of ICT in india.
              Answer:
              - Forecast
              - Increasing productivity
              - Fair transparent market
              - Disseminating information
              - Disaster management


                         

              Wednesday, April 17, 2019

              ICT Previous Year Question (May 2018) | Section-C | Guru@Gndec

              Section-C

              7 ) What do you mean by globalization of e-agriculture ? Explain evolution of e-agriculture and global ICT trends.
              Answer:

              • Globalization refers to increases in the movement of finance, inputs, output, information, and science across vast geographic areas. The gains from globalization increase net income in many places and facilitate decreases in levels of poverty and may thereby increase levels of food security.
              • E-Agriculture is an emerging field focusing on the enhancement of agricultural and rural development through improved information and communication processes. More specifically, e-Agriculture involves the conceptualization, design, development, evaluation and application of innovative ways to use information and communication technologies (IT) in the rural domain, with a primary focus on agriculture. 
              • Indian Agriculture contributes to 18.6 per cent of India’s GDP, and approximately 59 per cent Indians derive their livelihood from the agricultural sector. Private sector initiatives like contract farming have commercialized the Indian agricultural sector.
              • The main phases of the agriculture industry include crop cultivation, water management, fertilizer application pest management, harvesting, transfer of foods, safety, quality management and marketing management, Any system applied for getting information and knowledge for making decisions in any industry should deliver accurate, complete, concise information in time or on time. The information provided by the system must be in user-friendly form, easy to access, cost-effective and well protected from unauthorized accesses.
              • e-Agriculture Community is made up of over 12,000 members from 170 countries and territories, members are information and communication specialists, researchers, farmers, students, policy makers, business people, development practitioners, and others. e-Agriculture is all about knowledge exchange between UN agencies, governments, universities, research organizations, NGOs, farmers' organizations, private sector, and the wider community.
              • Real costs of information transfer and shipment of goods have declined rapidly, while perishability and bulk have been drastically reduced. Concurrently, increases in per capita income in many regions, and in the total size of the market, have allowed scale economies to be achieved for myriad new products, most of which involve value added processes that themselves require investment and improved technology. These rapid changes have allowed a great increase in specialization in agriculture, and consequently lower costs and rapid growth in trade.
              • Globalization can greatly enhance the role of agriculture as an engine of growth in low-income countries by making it possible for agriculture to grow considerably faster than domestic consumption. It also increases the potential for agriculture to increase food security through enlarged multipliers to the massive, employment-intensive, non-tradable rural non-farm sector. With such potential benefits, it is important to understand what is required for participation and to ensure that the poor and hungry are lifted out of poverty and hunger by these processes.
              • Modern globalization has brought about fundamental changes in world agricultural trade: an unprecedented growth of agricultural trade-value in real terms and a dramatic change in its composition which is increasingly moving away from bulk commodities towards high-value, processed consumer-ready agricultural goods. These changes have been boosted by the improvements in transport and communication technologies and the progressive trade liberalization. 
              Evolution of e- agriculture:

              • The e-Agriculture Community (and the term "e-agriculture") came into being after the World Summit on the Information Society(WSIS) in 2003 and 2005.
              • The Food and Agriculture Organization (FAO) of the United Nations, in collaboration with the International Telecommunication Union, has come up with the e-agriculture strategy to help countries use information and communication technology to drive rural development.
              • It was clear to the WSIS global participants that when addressing the challenges that face the digital divide, especially in a rural livelihoods context, problems go beyond just technology. It is a multifaceted problem of ineffective knowledge exchange and management of information content, as well as the lack of human resources, institutional capacity, and sensitivity to gender and the diverse needs of different groups.
              • With WSIS participants identifying and naming "e-agriculture" as a key action line to address the Millennium Development Goals, the Food and Agriculture Organization of the United Nations (FAO) was assigned to lead the development and subsequent facilitation activities that would truly engage stakeholders at all levels. Bringing together a group of Founding Partners in 2006, the e-Agriculture Community officially launched in 2007. Today, the e-Agriculture Community of Practice is still growing and supporting its members and the communities with which they work daily.
              Global ICT Trends

              In recent years, technology in agriculture, also known as AgTech has rapidly changed the industry. In 2015, the industry’s investment in technologyreached a whopping $4.6 billion—and that was three years ago! However, our population is continuing to grow, which has the potential to affect resource availability going forward. In recent studies, it was found that the industry’s output must increase by 60% by 2030.

              IoT and Sensors in the Field

              Sensors placed strategically around fields along with image recognition technologies are allowing farmers to view their crops from anywhere in the world. These sensors send farmers up to date information in real-time, so changes can be made accordingly to their crops. I don’t have much of a green thumb, but if I had an app that would tell me when the plants in my backyard needed water or some other type of nourishment, I think I would be able to keep them alive longer. IoT sensors in the field are doing the same thing for farmers, but obviously on a larger scale resulting in higher food production with less waste—exactly what this industry needs.

              IoT and Sensors in Equipment

              Much like the technology within the field, sensors are being placed on agricultural equipment to track the health of the machine and more. Using the term “precision agriculture” tractors and other farming equipment are being manufactured with navigation systems and a variety of sensors. Some of these sensors are built with the capability to compensate for uneven terrain using GPS. Some are built for yield mapping and harvest documentation, right from the cab of the implement. While others are monitoring when tractors need to be serviced. All together, these sensors are reducing the amount of downtime machines experience.

              Drones and Crop Monitoring

              When you’re working in your garden, you can typically see all of your plants at once, but farmers work in fields that span hundreds of acres meaning the only way they’ve been able to get a bird’s eye view is from a plane. Imagine the return on investment if farmers could visualize their crops using an aerial source—without having to charter a plane. Drones are being used for crop monitoring widely across the U.S. as a means to combat drought and other harmful environmental factors. Drones that produce 3D imaging can be used to predict soil quality through analysis and planning seed planting patterns.
              Drones are also being used to spray chemicals on crops while being careful not to penetrate groundwater. Recent studies have shown that drones can increase the speed of spraying by five times compared to other types of machinery.



              Farming and Robotics



              Much like using robots and artificial intelligence in other industries, robotics within agriculture would improve productivity and would result in higher and faster yields. Such robots like the spraying and weeding robots recently acquired by John Deere can reduce agrochemical use by an incredible 90%.

              Other startup robotics companies are experimenting with laser and camera guidance for identifying and removing weeds without human intervention. These robots can use the guidance to navigate between rows of crops on its own, reducing the manpower behind it. Other companies are creating plant-transplanting robots that add a new level of efficiency to traditional methods and finally, automation is being tested for fruit-picking and nut harvesting, something that has always seemed to be too delicate for robotics in the past.
              RFID Sensors and Tracking
              After crops are harvested, RFID sensors can be used to track food from the field to the store. The end user, or the consumer, will be able to follow a detailed trail about the food they consume from the farm it came to the location where it was purchased. This technology could increase trustworthiness for manufacturers and their responsibility to provide fresh produce and goods.
                      
              8 ) Discuss the impact of digital revolution on rural society in India. In what context it is affecting agriculture livelihoods.
              Answer:
              - The Digital Revolution, also known as the Third Industrial Revolution,is the shift from mechanical and analogue electronic technology to digital electronics. 
              - It began anywhere from the late 1950s to the late 1970s with the adoption and proliferation of digital computers and digital record keeping  That continues to the present day.
              Digital Revolution In India
              - India is primarily an agricultural economy.
              - It is developing at a very fast rate.
              - But Digitial Revolution created a technological divide between the urban areas and rural areas.
              - Many of India’s companies and well-educated  enjoy the benefits of ICTs.
               - But these technologies were not accessible or affordable for the majority of the population.
              Major Factors for Technological Divide
              • Illiteracy/ low level of literacy of farmers
              • Digital illiteracy : Inability of Rural People to use ICT
              • Poverty
              • Lack of technological infrastructure such as internet connectivity
              • Cost of technology
              • Non ownership of computers, tablets and other digital devices
              • Not enough time and resources to spend on technology
              • Lack of awareness among rural people.

              How India is alleviating the country’s digital divide ?

              The Digital India programme is a flagship programme of the Government of India with a vision to transform India into a digitally empowered society and knowledge economy. This campaign has been launched by the Government of India to ensure that Government services are made available to citizens electronically by improved online infrastructure and by increasing Internet connectivity or by making the country digitally empowered in the field of technology. It was launched on July 2015 by Prime Minister Narendra Modi. The initiative includes plans to connect rural areas with high-speed internet networks. Digital India consists of three core components, which are as follows:

              1. Digital Infrastructure as Core Utility to Every Citizens
              2. Governance and Services on Demand
              3. Digital Empowerment of Citizens
              • In Education sector, ‘SWAYAM’ scheme has been launched by the government, which provides an opportunity to students to access courses taught in classrooms from ninth standard to post graduation. It can be accessed by anyone, anywhere at any time. This digital scheme not only brings education at the door step of numerous students but also aims to bridge the divide as students who cannot join mainstream or formal education can access this application for their needs.  Other digital platforms for education purpose are ‘ePATHSHALA’, ‘Mid-Day Meal Monitoring App’, ‘Shaala Sidhi’, ‘Shaala Darpan’, ‘OLABS’ and eGranthalya. These digital initiatives are very helpful in bringing education to the underprivileged.
              • In Health services, the various digital initiatives of the Government include ‘Digital AIIMS’, a project that aims to create an effective linkage between UIDAI and AIIMS; the ‘e-Hospitals’, an open source health management system; ‘mRaktkosh’, a web based mechanism that interconnects all blood banks of the state into a single network.
              • Besides health and Education the present Government has also taken various initiatives to digitize governance. For instance the ‘UMANG’ aims to bring one stop solution to all government services; ‘e-panchayat’, ‘eDistricts’ and ‘eOffice’ are also some of the services to digitize governance and administration in the country. The AADHAR scheme and BHIM App are also significant in speeding up the process cashless economy.
              • In agriculture sector, the Government’s Digital India initiative is also proving a number of schemes for the benefit of the farmer. Some of the schemes in the agriculture sector include, ‘mkisan’, ‘farmer portal’, ‘Kisan Suvidha App’, ‘Pusa Krishi’, ‘Soil Health Card App’, ‘eNAM’, ‘Crop Insurance Mobile APP’, ‘Agri Market App’ and ‘Fertilizer Monitoring App’.
              • For women’s safety, government has also launched various applications like ‘Nirbhaya App’ and ‘Himmat App’ that facilitate sending of distress calls. There are also apps for law enforcement agencies, courts and judiciary.

              India is one of the fastest growing economies of world with the largest young population. India has an immense opportunity to change the face of the society, country & economy with digital revolution. It is very beneficial to the grass root level and especially to the less privileged sections of the society.

              Case study:
              • In Dhar district of Madhya Pradesh government has launched Gyandoot (messanger of knowledge) Project. In this project a reliable intranet connects villages throughout the district.
              • Access is through numerous cyber-kiosks run by local entrepreneurs.
              • A wide range of services is offered: mandi [market] information, landholder records, Hindi email, forms and news on employment,matrimonials and health.
              • This project won the prestigious Stockholm Challenge Award for the year 2000.
                     

              9 ) How one can reduce the losses and increase productivity by using ICT in agriculture and allied businesses like diary ? Discuss with detailed example or case study.
              Answer:

              - One can reduce the losses and increase productivity by using ICT by automating current manual systems into automated one by using ICTs, which are more efficient and less time consuming in nature.

              In case of computerization of diary industry:

              - Computer systems have the potential to vastly improve the efficiency, governance, and accountability of farmer organizations.
              - Dairy cooperatives are considered the type of organization most likely to see clear benefits from computerized accounting systems, simply because of their numerous members and large volume of daily transactions. 
              - Even smaller cooperatives benefit from computerizing their accounts,which leads to greater efficiency and transparency. Having financial and membership information always at hand helps management make better decisions, and using software to present financial information in graphical or diagrammatic form can make the information easier to understand.
              - Farmer organizations and cooperatives in the developing world are turning to computerized management systems, despite their cost and the challenges posed by infrastructure, for some or all of the following reasons:
              • Better accounting and management increase efficiency, save time, and reduce mistakes. The more logical approach demanded by computerization means that procedures have to be improved, which leads to better overall administration.
              •  Information for control and management decisions is available instantly. Inventory control improves, and information becomes available in real time.
              • Relations between members and management can be improved. Better services to members flow from more efficient administration. New and improved services to members mean that they are prepared to invest more in the society.
              • The cooperative has more options for communication and information sharing. There may be opportunities to communicate beyond the organization, using email, newsletters, websites, and information networks.
              • Attention is paid to develop a sustainable business model that ensures co-creation and ownership of the services needed by farmers
              • Data are available to guide policy decisions.
              -Computerization has clear potential to make the governance of cooperatives more efficient,transparent, and fair. Even if they do not necessarily understand the technology, cooperative members can see that the new systems work well.
              - In dairy cooperatives, for example, computerized systems facilitate timely payments to farmers for their milk, together with clear records of all transactions (milk supplied and
              inputs bought). Where there is an automated milk collection system, it is operated by personnel of the cooperative, who are generally also farmers and members of the society. Milk is always weighed and tested, with few errors, and the data are displayed clearly on the testing equipment. The operation is quick and transparent. Farmers no longer worry that
              figures might be adjusted by unscrupulous staff.

              - Dairy cooperatives typically have thousands of members. The recording system at the collection point has to cope with the huge volume of members’ daily transactions. Milk is highly perishable, especially in hot climates, and any delay in collection quickly leads to significant waste. Members often buy inputs on credit from the cooperative. These purchases have to be reconciled before members can be paid for their milk. Each member needs a statement at the time of each monthly or twice-monthly payment to show (correctly) how it has been calculated. Payments must be timely and regular, because cooperative members depend on receiving their money on time. In manual accounting systems, a mountain of paperwork is done before issuing each payment. Computer accounting can produce up-to-date payment calculations and member statements at the click of a mouse.

              The most advanced examples of computerization are to be found in the Indian dairy industry, where cooperative societies have a long history. India has more than 10 million dairy farmers, most of whom run small, marginal operations (Sharma and Yadav 2003). Although milk yields had quadrupled in the 40 years ending in 2001, time-consuming manual recording systems had changed little. Producers waited for hours before
              they could deliver their milk, much of which soured in the heat.

              Case Study 1:

              • A significant change occurred in 1996, when a small private company (Akashganga–Shree Kamdhenu Electronics Private Ltd.) developed IT-based tools to automate milk collection at local dairy cooperatives and computerize the accounting system.
              • The company introduced simple technology to weigh milk, check its quality (fat content), and pay producers promptly. The basic model was an electronic weighing system, a milk analyzer, a personal computer, and accounting and management software.
              • The new technology found a ready market, once initial mistrust was dispelled by active marketing by the company, which offered equipment to some cooperatives free of charge. 
              • The free installations showed neighboring cooperatives the utility of automated collection centers. Intensive training was provided,and IT systems were maintained by motorcycle-borne service engineers who could quickly attend to any faults.
              • Only when the cooperative was convinced of the system’s worth did it have to pay. 
              • The application, initially built around a microprocessor but now usually involving computers, took a decade to diffuse on a large scale, but many Indian dairy cooperatives have now adopted computerized systems.
              • Developers of the Akashganga system claim that there is a viable market for companies that can design products suited to the needs of cooperatives in developing countries. 
              • The design of the equipment was carefully considered, not only to ensure that it was easy to use but also to make the weighing equipment sufficiently robust to cope with the heat and dust of rural India. 
              • Price was an issue, as cooperatives have to justify expenditures to members. 
              • The equipment to measure fat content was developed in India for less than one-quarter the cost of European designs.
              Case Study 2: Amul
              • Some dairies are now upgrading to enterprise resource planning (ERP), which encompasses the range of activities from the farmer or collection point to consumer sales (box 8.10).19
              • One of these is the Gujarat Cooperative Milk Marketing Federation Ltd., whose brand name is Amul. The federation collects over 10 million liters of milk every day and is co-owned by some 2.8 million milk producers.
              •  All zonal, regional, and member dairies are connected through very small aperture terminals (VSATs) to make information-sharing easier. 
              • Amul is in the process of Web-enabling the entire supply chain so it can capture key information at the source.