2. Introduction
Energy Performance In
Existing Buildings Thermal
Conductivity of Wall &
Retrofitting of Wall Materials
Characteristics of Insulating
Materials. Determination of
Optimum value thermal
conductivity of wall.
3. Research Aims
Renewable And Low Carbon
Energy
Reduce Cost Effectiveness
Reduce Energy Demand
Be More Energy Efficient
Sustainable building design
Ecological Friendly Building
Global Concern Human Comfort
Making Use Local Resources
& Effectiveness Retrofitting
4. # Record identified
through database
# Record identified
through database searching source
# Record after
duplicates removed
# Records screened
for relevance
# Records excluded
# Studied included in
quantitative synthesis
# Studied included in
quantitative synthesis (meta
-
analysis)
Full text articles
with reason for
exclusion
Methodology
Select What Types Of Wall
Inspect And Measure The
Thickness Of Wall
Determine The R,U,K-value Of
Previously Installed Wall .
Wall Surface Plastering Insulated
Wall
Insulating Materials EPS add
Air Gap
Surface Finishing
6. Result & Discussion:
Thermal Conductivity is
Change to Temperature
Thermal Conductivity is
Change to Wall
Thickness
Thermal Conductivity
Change to Wall Panel
Number
7. Thermal Conductivity
Characteristics Experienced
in Different Season in typical
Section and Changing Value
of Thermal Transmittance(u-
value)
Energy Conservation Change
Experienced
due to Temperature
Demand of Energy Curve
Change With Season
9. Demand Energy at High Per
Yearly
Electricity Consumption
Increased With Growth
Population
Carrying Capacity Is a Measure
of The Environment’s ability To
Support a Given Population
Early Populations Grow Quickly,
Unimpeded by Resource
Constraints.
11. Conclusions & Future Recommendations
Improving The U-value Expectation
Wall Insulation Solutions Added
EPS Insulating Solutions due to U-
optimum Value
Future Control to Co2 Emissions
Energy Save & Demand Fulfilled
Excess Growth Population