Positive Energy Savings: The Role of LED Lights in Sustainable Power Consumption

This article discusses the concept of positive energy savings and how LED lights can help reduce electricity bills and promote sustainability. The article highlights the benefits of using LED lights, including their energy efficiency, longevity, and environmental friendliness. The article also discusses the importance of the adaptive control system in achieving positive energy savings. The article concludes with a discussion of the presentation of the project, including the cost chart and the various LED options available.

Positive Energy savings:
In the field of electronics we deal with several impacts. For the generation of power (electricity),
we built power plant and huge amount of fuels and natural resources has been utilized for this
purpose. We adapt the technique of smart power savings. A great question arises among so many
people that, “Whether saving the power means utilizing the resources only when required”? The
accurate way to understand this deeply is to save the power with the sufficient resources used.
Our concept deals with the positive energy savings. We use indoor lights, but we don’t pay much
of our attention towards the cost of the lights and their energy consumption. We don’t afford
much of our cost in buying the bulbs and tube lights (Kubiszewski, Cleveland & Endres, 2010).
Perhaps, there could be replacement cost with the heavy power consumption that has to be
necessarily considered. Since these factors tend to increase the consumption of electricity with
the high level of replacement, we tend to adapt the LED lights that could be a great choice.
The energy consumption percentage reduces to the factor of 80 to 90 upon the usage of LED
lights. Hence this could save the electricity bill than our regular conventional lights. Moreover
the LED’s are said to be highly environment friendly than the fluorescent and the incandescent
lights. The upfront cost of the LED’s are very high on comparison, but their efficiency and
durability could compensate these factors. Return of investment for the LED is so fast due to
their longevity and power of emission of light. Depending on the brand and the quality, the cost
of the LEDs could vary, but that could last so long that do not require any replacement often thus
proving the factor of sustainability.
Our primary application deals with the saving of energy that could be done with the help of
LEDs. A thorough knowledge is necessarily gained regarding the energy saving and the use of
electrical consuming appliances. Then this should be compared with the other low energy
consuming devices and try to replace them. Then sufficient methodology should be adapted to
make them smart. Generally complex system could be improved for our positive energy saving
with the help of the Adaptive control system (Radzi, Abu, & Mohamad, 2009). Through this we
could improve the quality of life with the sustainable process. To proceed with this process, it is
necessary to increase the process with the high automation and continuous that should
sufficiently adapt to the environment. Our project is regarding the smart light system for the
positive energy saving that could be highly achieved with the adaptive behavior rules. This
could be evaluated with the help of the simulator that co-ordinates with the wireless sensor
network. This could result in saving of energy up to 35 percent when the system builds the
adaptive nature with the predefined behavior (Qiao, 2009).
In terms of electrical we could draw the substations, grid schematics of the power transmission
and wiring diagrams as well as the ladder circuits of PLC. They have specific features for
wirings and attributes drawing. CAD has separate library function for drawing the circuits of
electrical components. It has been widely used by several manufactures. Based on the standards
the user could create their own library with the symbols used. In our positive energy savings, we

break the problem in the following manner: 1) Regular need of maintenance should be made for
the ordinary power lamps (IEA 2012a). 2) Consumption of electricity is very high 3) It has some
starting trouble. The alternate way to reduce this could be the usage of LEDs. The wiring and the
implementation of these LEDs is necessarily analyzed and evaluated.
Certain scenarios could be highlighted while doing presentation. Certain situation with the case
study should be highlighted at this presentation (Chamorro, Mondéjar, Ramos, Segovia, Martín,
& Villamañán, 2012). Moreover the cost chart should be necessarily shown to the viewers. It is
sufficient to provide general situation that leads to the higher power consumption. Then our new
idea of implementing the LEDs should be highlighted (BP 2012). The various LED with their
cost and their life duration should be tabulated and shown. Moreover an important note is that
our innovation should be said briefly (Christidis, Koch, Pottel & Tsatsaronis, 2012). The
adaptive control system based LEDs could be the highlighted. A LED is said to be an electronic
component that is made up of semiconductors, which does not lose energy in the form of heat. It
could use 75% of less amount of energy when compared to the ordinary traditional lamps
(Deane, Gallachóir & McKeogh, 2010). The key differences that make the variation are as
follows:
 Extended Lifetime- LED can work for 50,000 hours.
 Rugged – It has no filament or bulb since it is made up of solid state lightning.
 Warm-up period – There is no delay i.e., while switching on the bulb instantly glows
 Excellent colour rendering: It could be very perfect for retail purposes since it does not
mislay it’s colour like the other fluorescent lamps.
 Environmentally friendly in nature: Absence of mercury and other hazardous substances.

Sustainability
Complex systems
Problem-solving
Engineering drawing
Professional responsibility
Critical thinking
Information literacy and the research process
Academic literacy
Professional communication skills: written, visual and verbal
presentations
Teamwork, time and project management
Systems approach
Innovation
0 2 4 6 8 10 12
week
week
Reference:
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(2012). World geothermal power production status: Energy, environmental and economic study
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Christidis, A., Koch, C., Pottel, L., & Tsatsaronis, G. (2012). The contribution of heat storage to
the profitable operation of combined heat and power plants in liberalized electricity markets.
Energy, 41(1), 75-82.
Deane, J P., Ó Gallachóir, B., & McKeogh, E. (2010). Techno-economic review of existing and
new pumped hydro energy storage plant. Renewable and Sustainable Energy Reviews, 14(4),
1293-1302.
IEA. (2012a). Energy Technology Perspectives 2012: OECD Publishing.
Qiao, C. (2009). Science Education and Fostering of Critical Thinking in China. In Second
International Conference on Education Technology and Training, 2009. ETT ’09 (pp. 114–117).

Presented at the Second International Conference on Education Technology and Training, 2009.
ETT ’09. DOI: 10.1109/ETT.2009.25
Radzi, N. M., Abu, M. S., & Mohamad, S. (2009). Math-oriented critical thinking skills in
engineering. In 2009 International Conference on Engineering Education (ICEED), (pp. 212–
218). Presented at the 2009 International Conference on Engineering Education (ICEED).
DOI: 10.1109/ICEED.2009.5490579