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Abstract The impact of energy consumption and carbon emission in the UK poses a grave challenge. Creative Commons Attribution License (CC BY) which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited. It has come to our attention that our paper “Challenges in Improving Energy Efficiency in a niversity Campus through the Application of ersuasive Technology and Smart Sensors” [1] ontains some minor errors. Today’s green buildings go beyond environmentally friendly products and practices, taking human health into consideration as well. The concept of HBI focuses on the two-way interaction between buildings and occupants – not only the way that buildings impact occupants, but the ways in which occupants impact buildings in terms of energy use and other factors. Understanding how tenants and occupants interact with buildings and the equipment inside can help facilities managers establish new energy-efficiency strategies, architects design better spaces, and occupants themselves realize how they positively (or negatively) impact their indoor environment. By looking at why and how people relate to a building and its systems the way they do, we can discover several things: occupant habits that need to change or be accommodated for, potential problems with a building system, or aspects of the building that negatively influence productivity or comfort.
Until you take time to understand why the blinds are being closed, it will be hard to determine what’s really happening and find a way to fix it. Human-building interaction may come down to designing a building for usability and sustainability. Making certain building functions or responses “intuitive” or automatic is another component of HBI. To learn more about human-building interaction, and the research being done to support it, read about the Center for Energy and Environment’s HBI initiatives. Are you focused on how your building impacts occupants, or how occupants impact your building? A blog that’s both educative and interesting, and without a doubt, you have hit the nail on the head.
REDUCING ENERGY WASTE AND IMPROVING ENERGY EFFICIENCY Flow of commercial energy through the U.S.
Net Energy Efficiency: Honest Accounting Comparison of net energy efficiency for two types of space heating. WAYS TO IMPROVE ENERGY EFFICIENCY Industry can save energy and money by producing both heat and electricity from one energy source and by using more energy- efficient electric motors and lighting.


WAYS TO IMPROVE ENERGY EFFICIENCY Inflation adjusted price of gasoline (in 2006 dollars) in the U.S. WAYS TO IMPROVE ENERGY EFFICIENCY General features of a car powered by a hybrid-electric engine. Hybrid Vehicles, Sustainable Wind Power, and Oil imports Hybrid gasoline-electric engines with an extra plug-in battery could be powered mostly by electricity produced by wind and get twice the mileage of current hybrid cars. Fuel-Cell Vehicles Fuel-efficient vehicles powered by a fuel cell that runs on hydrogen gas are being developed. WAYS TO IMPROVE ENERGY EFFICIENCY We can save energy in building by getting heat from the sun, superinsulating them, and using plant covered green roofs.
Strawbale House Strawbale is a superinsulator that is made from bales of low-cost straw covered with plaster or adobe. USING RENEWABLE SOLAR ENERGY TO PROVIDE HEAT AND ELECTRICITY A variety of renewable-energy resources are available but their use has been hindered by a lack of government support compared to nonrenewable fossil fuels and nuclear power. USING RENEWABLE SOLAR ENERGY TO PROVIDE HEAT AND ELECTRICITY The European Union aims to get 22% of its electricity from renewable energy by 2010. USING RENEWABLE SOLAR ENERGY TO PROVIDE HEAT AND ELECTRICITY Denmark now gets 20% of its electricity from wind and plans to increase this to 50% by 2030. Heating Buildings and Water with Solar Energy We can heat buildings by orienting them toward the sun or by pumping a liquid such as water through rooftop collectors.
Passive Solar Heating Passive solar heating system absorbs and stores heat from the sun directly within a structure without the need for pumps to distribute the heat. This challenge is particularly high amongst residents of university campuses, where usage of electricity and carbon emission remain invisible to the students. Challenges in Improving Energy Efficiency in a University Campus Through the Application of Persuasive Technology and Smart Sensors. Instead of a building’s primary goal to be as water- and energy-efficient as possible, for example, incorporating the human-building interaction component would also take into account human needs, capabilities, habits, and behavior – then design a space to accommodate those things in an environmentally friendly, energy-efficient, sustainable way. Instead of someone having to remember to shut off the lights, turn on the air-conditioner, or unplug a printer, the building and its systems “read” the surrounding environment and know when to perform certain activities. The problem is an issue that few folks are speaking intelligently about improving energy efficiency through human building interaction .


Low-priced fossil fuels and few government tax breaks or other financial incentives for saving energy promote energy waste.
In student residential accommodation, personal choices and social influences affect electricity consumption and ultimately the resultant reduction in carbon emissions.
We can save energy in existing buildings by insulating them, plugging leaks, and using energy-efficient heating and cooling systems, appliances, and lighting. These roofs are built from a blend of light- weight compost, mulch and sponge- like materials that hold water.
Therefore, innovative solutions are required to change students’ energy consumption behavior, and one promising part of the solution is to present real-time electricity consumption data to students in real-time via a dedicated web platform, while, at the same time, appointing an energy delegate in each hall to induce motivation among the students.
The results of some interventions show that immediate energy feedback from smart meters or display devices can provide savings of 5%–15%.
Nuclear power plant: 92% of energy is wasted through nuclear fuel and energy needed for waste management. However, the situation is different; with the complexity in behavior of our target groups “the students who are living in the halls of residence”, there are economical and environmental aspects to be addressed in these issues, in the campus halls of residence. Therefore, we propose a system to address this issue, by applying smart sensors (real-time electricity data capture), integration of dedicated visual web interface (real-time electricity feedback display) and an appointed energy delegate in each hall (a motivator). We can save energy in transportation by increasing fuel efficiency and making vehicles from lighter and stronger materials.
In 2004, California got about 12% of its electricity from wind and plans to increase this to 50% by 2030.
It is expected that this will motivate students living in the halls of residence to reduce their electricity wastage and, therefore, control the energy cost and also reduce the carbon emissions released into the environment. In the present research, we focus on the University of Kent, Canterbury campus to study energy conservation and carbon emission reduction strategies.



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