Experiment code 18.5.3.20
Experiment Title Evaluation of Solar PV system for boiling of corn by roadside vendors
Research Type Departmental Research
Experiment Background “Street foods are ready-to-eat foods and beverages prepared and/or sold by vendors and hawkers especially in streets and other similar public places” (Street foods. A summary of FAO studies and other activities relating to street foods. Rome: FAO; 1989.). Street vended foods are not only appreciated for their unique flavours, convenience and the role which they play in the cultural and social heritage of societies, they have also become important and essential for maintaining the nutritional status of the populations (Ekanem EO, 1998; Street foods. Rome: FAO; 1997). Besides offering business opportunities for developing entrepreneurs, the sale of street foods can make a sizeable contribution to the economies of developing countries. In India, the National Policy for Urban Street Vendors/Hawkers stated that street vendors constitute approximately 2% of the population of a metropolis (Bhowmik SK, 2005). Bhutta (Indian name for corn) or Street Style Corn-On-The-Cob is one of the favourite snacks in many parts India.To boil the corn primary need is energy in the form of heat. The heat for boiling the corn can be used either directly by burning biomass, kerosene, fossil fuelor by using electricity to generate heat. Majority of corn vendors at present use biomass, kerosene or other fossil fuelsfor boiling/cooking corns. An alarming consequence of cooking with biomass in most of the developing world, is the emission of carbon particles or harmful gases (Anenberg et al., 2013; Jetter et al., 2009). So far as global warming is concerned, emission from cooking is still a significant source (WHO. 2018,) and any reduction in emission from cooking can make a difference. The challenges faced by biomass cooking are virtually absent when people use gas or electricity for cooking. For roadside vendors where grid electricity is not approachable, biomass-based cooking dominates due to the difficulty in maintaining a supply of gas cylinders or other forms of fossil fuels and to keep the cooking cost within the affordable range. In recent years, the reduced cost of solar photovoltaic (SPV) has greatly increased the rate of penetration of PV-based electricity supply in remote and off-grid areas, Whenever the issue of cooking using solar PV system in the remote areas/roadside is raised, the main concern is whether the amount of power or energy needed for boiling/cooking can be supplied by solar PV system at an acceptable cost. The feasibility of solar PV system for boiling the corn by roadside vendors can be viewed from three different angles: first is the technical feasibility and the second is the economic viability. Technically, availability of required power is the key criterion when sizing the SPV system. In case of SPV based system, reliability is an associated issue, because sunshine is available during the day time only and varies with the weather conditions. So, access to energy storage, such as a battery, can enhance the system. On the other hand, economic feasibility also needs to be observed. A third issue, as a result, is also the convenience of use. Considering all the above issues a SPV system will be evaluated for boiling of corn by roadside vendors.
Experiment Group Agricultural Engineering
Unit Type (02)EDUCATION UNIT
Unit (27)COLLEGE OF AGRICULTURAL ENGINEERING NARMADA (DEDIAPADA)
Department (320)Renewable Energy Engineering
BudgetHead (344/12984/00)344/06/REG/02034
Objective
  1. To quantify the energy required for corn boiling
  2. Evaluation of performance of SPV system for corn boiling
  3. To compare the performance with traditional method

 

Season Not season specific
Location Unit Type (02)EDUCATION UNIT
Location Unit (27)COLLEGE OF AGRICULTURAL ENGINEERING NARMADA (DEDIAPADA)
Location Department (320)Renewable Energy Engineering
Plot No Not applicable
PI Name (NAU-EMP-2010-000100)ALOK SINGH
PI Email salok@nau.in
PI Mobile 9978365362
Year of Approval 2022
Commencement Year 2023
Completion Year 2026
Design of Experiment (Other)

Not applicable

Crop Spacing (cm x cm)

Not applicable

Gross Plot (m x m) Not applicable
Net Plot (m x m) Not applicable
Total Experiment Area (m2) Not applicable
Plot History Last Three Year

Not applicable

Initial Soil Sample Analysis Report

Not applicable

Initial Soil Sample Analysis Report Attachment Attachment Not Available!
Layout Plan

Not applicable

Layout Plan Attachment Attachment Not Available!
Treatment

Not applicable

Treatment Attachment Attachment Not Available!
(NAU-EMP-2010-000100) ALOK SINGH salok@nau.in 9978365362 04-02-2023
Active
(NAU-EMP-2014-000103) TILAKKUMAR VITHALBHAI CHAVDA tilakchavda@nau.in 9824830898 01/04/2022
Active
(NAU-EMP-2013-000099) SANDIP HANUMANSING SENGAR shsengar@nau.in 9408226320 01/04/2022
Active
(NAU-EMP-2014-000096) RAJESH GOPICHAND BURBADE rajeshburbade@nau.in 9712998128 01/04/2022
Active
Solar PV Solar PV cooker