A Household-based analysis of domestic energy consumption for lighting in Jaipur City


  • Nand Kumar Department of Architecture and Planning, Malviya National Institute of Technology, Jaipur
  • V Devadas Department of Architecture and Planning, Indian Institute of Technology Roorkee




India being the third largest economy of the world, more than two third of the total population lives in villages and started to consuming more quantity of energy in the recent years. Though the electricity consumption in the domestic sector has increased up to 22 per cent of the total electricity consumption, electricity consumption in villages is very less, since good number of villages in the rural system are not even electrified. In urban areas almost 90 percent of the household use electricity for lighting and just 10 percent use kerosene for the said purpose, whereas in the rural areas still more number of households use kerosene for lighting purposes. In this paper an attempt is made to analyze the domestic energy consumption for lighting in Jaipur city. Good amount of literature collected pertaining to domestic energy consumption for lighting purposes across the globe, analyzed thoroughly and presented. Further, a household survey was conducted among 684 households in Jaipur city by employing pre-tested schedule. The schedule has few variables including identification particulars, economic conditions, demographic pattern, domestic lighting appliances at the household level; and the energy consumption pattern. Further the collected data are analyzed and a multiple regression model was developed by considering the total electricity consumption as dependent variable ‘Y’ and the electrical appliances for lighting purposes, such as the number of incandescent bulbs, tube lights, CFL, and LED are considered as ‘X’ variables; and this study conclude with plausible findings and recommendations.


Alam M, Barnes D. (1998). Urban household energy use in India: efficiency and policy implications. Energy Policy, 26(11): LBNL-43942.

Anjali SM, Gadgil AJ. (1996) Bombay efficient lighting large-scale experiment (Belle): Blueprint for improving energy efficiency and reducing peak electric demand in a developing country. Atmospheric Environment, 30(5): 803–808.

Balachandra P, Reddy BS. (2007) Technology portfolio analysis for residential lighting, Indira Gandhi Institute of Development Research, Mumbai May 2007, WP-2007-007.

Balachandra P, Shekar GL. (2001). Energy technology portfolio analysis: an example of lighting for residential sector. Energy Conversion and Management, 42(7): 813–832.

Brounen D, Kok N, Quigley JM. (2012). Residential energy use and conservation: Economics and demographics. European Economic Review, 56(5): 931–945.

Bukarica V, Tomsic Z. (2007) Energy efficiency in Croatian residential and service sector-analysis of potentials, barriers and policy instruments. Wseas Transactions on Advances in Engineering Education, 12(4):259-264.

Can Stephane de la Rue du , Letschert V, Mcneil M, Zhou Nan, Sathaye J.(2009). Residential and transport energy use in India: Past rend and future outlook. Ernest Orlando Lawrence Berkley National Laboratory, Jan 2009.

Garbacz C. (1983). A model of residential demand for electricity using a national household sample. Energy Economics, 5(2): 124-128.

Garg V, Bansal NK. (2000). Smart occupancy sensors to reduce energy consumption. Energy and Buildings, 32: 81-87.

Gupta S, Ravindranath NH. (1997). Financial analysis of cooking energy options for India. Energy Conversion and Management ,38(18): 1869–1876.

Haas R. (1997). Energy efficiency indicators in the residential sector. Energy Policy, 25(7-9):789–802.

Heltberg R. (2003). Household fuel and energy - A Multicounty study. Oil and Gas Policy Division, The World Bank 2003;1–86.

Holtedahl P, Joutz FL. (2004). Residential electricity demand in Taiwan. Energy Economics 2004; 26: 201–224.

Jain G. (2010). Energy security issues at household level in India. Energy Policy, 38: 2835-2845.

Johnson OO, Odekoya AJ, Umeh OL. (2012). Factors influencing the usage of compact fluorescent lamps in existing residential buildings in Lagos, Nigeria. International Journal of Energy Economics and Policy, 2(2): 63–70.

Kaya D. (2003). Energy conservation opportunities in lighting systems, Energy Engineering, 100(4): 37–57.

Kumar A, Jain SK, Bansal NK. (2003). Disseminating energy efficient technologies: a case of compact fluorescent lamps (CFLs) in India. Energy Policy, 31: 259-272

Larsen BM, Nesbakken R. (2004). Household electricity end-use consumption: results from econometric and engineering models. Energy Economics, 26(2): 179–200.

Link CF, Axinn WG, Ghimire DJ. (2012). Household energy consumption : Community context and the fuelwood transition. Social Science Research, 41: 598–611.

Mahlia TMI, Said MFM, Masjuki HH, Tamjis MR. (2005). Cost-benefit analysis and emission reduction of lighting retrofits in residential sector. Energy and Buildings, 37: 573–578.

Martinot E, Borg N. (1999). Energy-efficient lighting programs Experience and lessons from eight countries. Energy Policy, 26(14): 1071–1081.

Mu T, Xia Q, Kang C. (2010). Input-output table of electricity demand and its application. Energy, 35: 326–331.

Rao MN, Reddy BS. (2007). Variations in energy use by Indian households : An analysis of micro level data. Energy, 32: 143–153.

Reddy BS, Salk H, Nathan K. Energy in the development strategy of Indian households – The missing half. Indira Gandhi Institute of Development Research, Mumbai January 2012, WP-2012-003. http://www.igidr.ac.in/pdf/publication/WP-2012-003.pdf

Reddy BS. Economic and social dimensions of household energy use: a case study of India. Proceedings of IV Biennial International Workshop “Advances in Energy Studies”. Unicamp, Campinas, SP, Brazil June 16-19, 2004; 469–477.




How to Cite

Kumar, N., & Devadas, V. (2016). A Household-based analysis of domestic energy consumption for lighting in Jaipur City. International Journal of Built Environment and Sustainability, 3(2). https://doi.org/10.11113/ijbes.v3.n2.129