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Sustainable Construction 1
SUSTAINABLE CONSTRUCTION
By Name
Course
Instructor
Institution
Location
Date
SUSTAINABLE CONSTRUCTION
By Name
Course
Instructor
Institution
Location
Date
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Sustainable Construction 2
Table of Contents
1.0 CONSTRUCTION AND DEMOLITION WASTE MANAGEMENT...........................3
1.1 Introduction.......................................................................................................................3
1.2 Hierarchy of wastes related to construction......................................................................3
Fig 1: waste management hierarchy....................................................................................4
1.21 Re-use.............................................................................................................................4
1.22 Recycling........................................................................................................................5
1.23 Other Recovery...............................................................................................................5
1.24 Disposal..........................................................................................................................5
1.3 Practices followed in the recycling of building waste......................................................6
1.5 Analysis of the Construction and demolition wastes management in the UK..................7
1.6 Merits................................................................................................................................7
1.61 Reduced demand for landfill spaces...............................................................................7
1.62 Improved resource management.....................................................................................7
1.63 Image improvement........................................................................................................8
1.64 Productivity and quality improvement...........................................................................8
1.7 Demerits............................................................................................................................8
1.8 Opportunities....................................................................................................................9
1.9 Threats..............................................................................................................................9
Conclusion..............................................................................................................................9
2.0 WIND ENERGY............................................................................................................10
2.1 Introduction.....................................................................................................................10
Table of Contents
1.0 CONSTRUCTION AND DEMOLITION WASTE MANAGEMENT...........................3
1.1 Introduction.......................................................................................................................3
1.2 Hierarchy of wastes related to construction......................................................................3
Fig 1: waste management hierarchy....................................................................................4
1.21 Re-use.............................................................................................................................4
1.22 Recycling........................................................................................................................5
1.23 Other Recovery...............................................................................................................5
1.24 Disposal..........................................................................................................................5
1.3 Practices followed in the recycling of building waste......................................................6
1.5 Analysis of the Construction and demolition wastes management in the UK..................7
1.6 Merits................................................................................................................................7
1.61 Reduced demand for landfill spaces...............................................................................7
1.62 Improved resource management.....................................................................................7
1.63 Image improvement........................................................................................................8
1.64 Productivity and quality improvement...........................................................................8
1.7 Demerits............................................................................................................................8
1.8 Opportunities....................................................................................................................9
1.9 Threats..............................................................................................................................9
Conclusion..............................................................................................................................9
2.0 WIND ENERGY............................................................................................................10
2.1 Introduction.....................................................................................................................10
Sustainable Construction 3
2.2 Strengths.........................................................................................................................10
2.3 Weaknesses.....................................................................................................................11
2.4 Opportunities..................................................................................................................12
2.5 Threats............................................................................................................................12
Conclusion............................................................................................................................12
3.0 GREEN BUILDING.......................................................................................................13
3.1 Introduction.....................................................................................................................13
3.2Strength............................................................................................................................14
3.21 Environmental benefits.................................................................................................14
3.22 Economic benefits.........................................................................................................14
3.23 Social benefits...............................................................................................................14
3.3 Weaknesses.....................................................................................................................14
3.4 Opportunities..................................................................................................................15
3.5 Threats............................................................................................................................15
References.............................................................................................................................17
2.2 Strengths.........................................................................................................................10
2.3 Weaknesses.....................................................................................................................11
2.4 Opportunities..................................................................................................................12
2.5 Threats............................................................................................................................12
Conclusion............................................................................................................................12
3.0 GREEN BUILDING.......................................................................................................13
3.1 Introduction.....................................................................................................................13
3.2Strength............................................................................................................................14
3.21 Environmental benefits.................................................................................................14
3.22 Economic benefits.........................................................................................................14
3.23 Social benefits...............................................................................................................14
3.3 Weaknesses.....................................................................................................................14
3.4 Opportunities..................................................................................................................15
3.5 Threats............................................................................................................................15
References.............................................................................................................................17
Sustainable Construction 4
1.0 CONSTRUCTION AND DEMOLITION WASTE MANAGEMENT
1.1 Introduction
Construction and demolition wastes have received a lot of attention in the recent past. Mostly
the construction and demolition wastes are seen as a lens to understanding the potential for
resources efficiency improvement in the construction industry. The workshop, construction,
and demolition activities are the primary sources of wastes in many parts of the world. There
is a need for construction and demolition materials to be recycled, some of the materials,
which can be readily recycled, include, glass, plastic, wood, concrete among others. Many
benefits have been attributed to recycling of construction and demolition wastes as they have
contributed significantly to environmental conservation and preservation of natural resources
(Kubba, 2012, p. 36)
Construction is a globally rising industry. Most investments are being made in this industry.
Rapid construction development is ambulatory, modernising, demolition and construction of
residential building, roads, flyover, dams, etc. Moreover, construction renovation, land
excavation, and demolition waste have become the critical issue. The waste is mainly
composed of inert and solid waste, For instance Sandler et al (2006) state that the
approximately 136 million tons of construction and demolition waste are generated each year
in United States out of which only 20-30% is It was as high as 10-15% in UK construction
industry (Dhir, 2016, p. 205). There are numerous hostile impacts of construction & demolition
waste, including occupying large spaces of land for waste landfilling, damaging the
environments by dangerous contamination and wasting natural resources.
1.2 Hierarchy of wastes related to construction
Waste management research has developed hierarchy method. It has five stages as shown in
the figure below.
1.0 CONSTRUCTION AND DEMOLITION WASTE MANAGEMENT
1.1 Introduction
Construction and demolition wastes have received a lot of attention in the recent past. Mostly
the construction and demolition wastes are seen as a lens to understanding the potential for
resources efficiency improvement in the construction industry. The workshop, construction,
and demolition activities are the primary sources of wastes in many parts of the world. There
is a need for construction and demolition materials to be recycled, some of the materials,
which can be readily recycled, include, glass, plastic, wood, concrete among others. Many
benefits have been attributed to recycling of construction and demolition wastes as they have
contributed significantly to environmental conservation and preservation of natural resources
(Kubba, 2012, p. 36)
Construction is a globally rising industry. Most investments are being made in this industry.
Rapid construction development is ambulatory, modernising, demolition and construction of
residential building, roads, flyover, dams, etc. Moreover, construction renovation, land
excavation, and demolition waste have become the critical issue. The waste is mainly
composed of inert and solid waste, For instance Sandler et al (2006) state that the
approximately 136 million tons of construction and demolition waste are generated each year
in United States out of which only 20-30% is It was as high as 10-15% in UK construction
industry (Dhir, 2016, p. 205). There are numerous hostile impacts of construction & demolition
waste, including occupying large spaces of land for waste landfilling, damaging the
environments by dangerous contamination and wasting natural resources.
1.2 Hierarchy of wastes related to construction
Waste management research has developed hierarchy method. It has five stages as shown in
the figure below.
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Sustainable Construction 5
Fig 1: waste management hierarchy
1.21 Re-use
All the materials in the construction should be targeted for re-use and disposing becomes the
only ultimate method that has to be embraced at the end of the day. Materials needed for re-
use in most cases established after carrying out of the innovation and demolition activities at
the site.Apart from that, formwork is also established through the whole process. They are in
most cases generated from concrete, and one can repeatedly make use of them before their
disposal is done. The aggregate and concrete activities are too obtained from the hacking
activities. One can make use of them in embarking the soft soil around the construction site
(Settlements, 2013, p. 182).
Figure2: Sustainable Waste Management Hierarchy
Fig 1: waste management hierarchy
1.21 Re-use
All the materials in the construction should be targeted for re-use and disposing becomes the
only ultimate method that has to be embraced at the end of the day. Materials needed for re-
use in most cases established after carrying out of the innovation and demolition activities at
the site.Apart from that, formwork is also established through the whole process. They are in
most cases generated from concrete, and one can repeatedly make use of them before their
disposal is done. The aggregate and concrete activities are too obtained from the hacking
activities. One can make use of them in embarking the soft soil around the construction site
(Settlements, 2013, p. 182).
Figure2: Sustainable Waste Management Hierarchy
Sustainable Construction 6
1.22 Recycling
The method primarily applies to material that could not be reused, the elements are, therefore,
used in the production of new products that help in facilitating various other functions at the
construction site. The major processes involved include the collection of the used materials.
The materials are after that, taken through a process of reprocessing and climaxing the whole
process through remanufacturing (Kibert, 2011, p. 183). It greatly helps in the reduction of space
required for landfill. Apart from that, most energy and natural resources are saved through the
process in addition to the provision of useful products that help in improving the levels of
construction
1.23 Other Recovery
The stage mainly involves the exclusion of the waste materials from the recycling stage by
making use of different other methods such as anaerobic digestion and incineration leading to
energy rediscovery. The process leads to the production of energy in different forms such as
heat, fuel, and power in addition to backfilling (Yudelson, 2017, p. 349).
1.24 Disposal
The method is mainly applied to material that cannot be taken through the process of reusing
and recycling. Hence, forms the ultimate solution that can be sort after in the management of
the waste processes in a construction site. Different approved parties are in charge of the
operation of legal dumping sites. The wastes considered to be hazardous are managed with
high levels of care, and the actions in dealing with them are subject to the Environment
Quality Act.
1.3 Practices followed in the recycling of building a waste
Builders, teams of construction, as well as design practitioners have the ability to divert
construction as well as demolition materials from disposal though buying used as well as
recycled products. Practicing source minimization, preserving the existing structures, and
1.22 Recycling
The method primarily applies to material that could not be reused, the elements are, therefore,
used in the production of new products that help in facilitating various other functions at the
construction site. The major processes involved include the collection of the used materials.
The materials are after that, taken through a process of reprocessing and climaxing the whole
process through remanufacturing (Kibert, 2011, p. 183). It greatly helps in the reduction of space
required for landfill. Apart from that, most energy and natural resources are saved through the
process in addition to the provision of useful products that help in improving the levels of
construction
1.23 Other Recovery
The stage mainly involves the exclusion of the waste materials from the recycling stage by
making use of different other methods such as anaerobic digestion and incineration leading to
energy rediscovery. The process leads to the production of energy in different forms such as
heat, fuel, and power in addition to backfilling (Yudelson, 2017, p. 349).
1.24 Disposal
The method is mainly applied to material that cannot be taken through the process of reusing
and recycling. Hence, forms the ultimate solution that can be sort after in the management of
the waste processes in a construction site. Different approved parties are in charge of the
operation of legal dumping sites. The wastes considered to be hazardous are managed with
high levels of care, and the actions in dealing with them are subject to the Environment
Quality Act.
1.3 Practices followed in the recycling of building a waste
Builders, teams of construction, as well as design practitioners have the ability to divert
construction as well as demolition materials from disposal though buying used as well as
recycled products. Practicing source minimization, preserving the existing structures, and
Sustainable Construction 7
salvaging the existing materials are also included in it. Proper designing of the building in
order to support adoption of the used materials, reuse, as well as disassembly can minimize
waste that is to be experienced at the construction sites.
According to government guidance, the site waste management plan should be developed
before site starts in order to control site waste management system. And the plan should be
issued to the subcontractors so that they can develop waste identification models.
Figure3: an example of waste identification model
The strategies for using the designing adaptability, disassembly, as well as reuse, consist of
the following things.
salvaging the existing materials are also included in it. Proper designing of the building in
order to support adoption of the used materials, reuse, as well as disassembly can minimize
waste that is to be experienced at the construction sites.
According to government guidance, the site waste management plan should be developed
before site starts in order to control site waste management system. And the plan should be
issued to the subcontractors so that they can develop waste identification models.
Figure3: an example of waste identification model
The strategies for using the designing adaptability, disassembly, as well as reuse, consist of
the following things.
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Sustainable Construction 8
Fig 4: strategies for using the designing adaptability
1.5 Analysis of the Construction and demolition wastes management in the UK
In order to evaluate the current status of Construction & demolition in the UK, SWOT
analysis is a practical approach to use. The SWOT Analysis can be described as strength,
weakness, opportunity, and threat. SWOT analysis enables us to understand the current
situation which will help to develop suitable strategies for Construction and Demolition
Waste management.
1.6 strengths
According to hierarchy model, the primary importance is given to the prevention of waste
generation. According to UK Environmental department, in terms of construction, Site waste
management process required to add during the design process, so that waste can be designed
out as far as possible. Some of the benefits of managing construction and construction wastes
include:
1.61 Reduced demand for landfill spaces
Reducing the volume of waste directed to landfills for disposal can result to a smaller extent
of demand for landfill and decrease of adverse environmental impacts such as impacts of the
landfill as well as residues and emission from incinerators (Hendriks, 2011, p. 456).
Fig 4: strategies for using the designing adaptability
1.5 Analysis of the Construction and demolition wastes management in the UK
In order to evaluate the current status of Construction & demolition in the UK, SWOT
analysis is a practical approach to use. The SWOT Analysis can be described as strength,
weakness, opportunity, and threat. SWOT analysis enables us to understand the current
situation which will help to develop suitable strategies for Construction and Demolition
Waste management.
1.6 strengths
According to hierarchy model, the primary importance is given to the prevention of waste
generation. According to UK Environmental department, in terms of construction, Site waste
management process required to add during the design process, so that waste can be designed
out as far as possible. Some of the benefits of managing construction and construction wastes
include:
1.61 Reduced demand for landfill spaces
Reducing the volume of waste directed to landfills for disposal can result to a smaller extent
of demand for landfill and decrease of adverse environmental impacts such as impacts of the
landfill as well as residues and emission from incinerators (Hendriks, 2011, p. 456).
Sustainable Construction 9
1.62 Improved resource management
Management of construction and demolition involves control and planning of resources
dedicated to projects in order to regulate the quantity of waste produced. Thus, improved
control of resources may be realized with a decrease in waste as well as enhancement of
whole resource management performance.
1.63 Image improvement
Employing waste management as a company strategy may let companies improve their
public images as "environmental-friendly companies" improving their brand on clients.
1.64 Productivity and quality improvement
Production can be enhanced by evading delays initiated by repurchasing and reordering of
materials that have been misused once. By choosing the material of excellent durability and
quality, the substantial quantity of waste generation triggered by replacement of poor quality
material during the life cycle of facilities can be evaded. As reviewed earlier, there are many
benefits of applying waste management. By exploring how different project characteristics
affect these benefits allows the construction industry to understand the connotation between
them (Khatib, 2014, p. 416)
1.7 Weakness
From the perspective of a project manager, the success requirement of construction and
demolition waste management is each member of the project team has to involve in waste
management Process, but According to Swiss psychiatrist, Carl Jung's theory states that each
individual has a different personality, therefore interpersonal conflicts evident in projects.
Because each member has their own perspective. When one party perceives that its interests
are being opposed or negatively affected by another party. Additionally, various opinions,
values, and beliefs in between them cause poor relationships. Interpersonal conflicts consider
as higher job stressor and significantly reduce the performance of TQM. Furthermore, most
1.62 Improved resource management
Management of construction and demolition involves control and planning of resources
dedicated to projects in order to regulate the quantity of waste produced. Thus, improved
control of resources may be realized with a decrease in waste as well as enhancement of
whole resource management performance.
1.63 Image improvement
Employing waste management as a company strategy may let companies improve their
public images as "environmental-friendly companies" improving their brand on clients.
1.64 Productivity and quality improvement
Production can be enhanced by evading delays initiated by repurchasing and reordering of
materials that have been misused once. By choosing the material of excellent durability and
quality, the substantial quantity of waste generation triggered by replacement of poor quality
material during the life cycle of facilities can be evaded. As reviewed earlier, there are many
benefits of applying waste management. By exploring how different project characteristics
affect these benefits allows the construction industry to understand the connotation between
them (Khatib, 2014, p. 416)
1.7 Weakness
From the perspective of a project manager, the success requirement of construction and
demolition waste management is each member of the project team has to involve in waste
management Process, but According to Swiss psychiatrist, Carl Jung's theory states that each
individual has a different personality, therefore interpersonal conflicts evident in projects.
Because each member has their own perspective. When one party perceives that its interests
are being opposed or negatively affected by another party. Additionally, various opinions,
values, and beliefs in between them cause poor relationships. Interpersonal conflicts consider
as higher job stressor and significantly reduce the performance of TQM. Furthermore, most
Sustainable Construction 10
of Labour and supervisors are unaware of deconstruction and hierarchy process of waste
management. Therefore incorporation is obvious. And sometimes site size has been minimal.
Therefore setup of on-site recycling plant would be impossible.
An analysis of construction and demolition studies shown for the Clean Washington Centre
and the Vermont Agency of Natural Resources indicates that, due to inadequate or non-
existent definitions of "construction and demolition debris," an overwhelming amount of
incomplete data exists. Because most waste characterization studies label all C&D
constituents as "inert," it is no wonder there are conflicting reports. Without specific and
standardized categories, everyone "sees" waste differently. If we do not identify the
material."
Moreover, there are no inspections to check whether the contractor is practicing waste
management on site or not. In my previous job were building residential flats, the client was
city council, the inspector was coming and checking just the quality of structure, but in my
experience from the start till the end of the project, there was zero inspection about waste
management. Which is a significant weakness of waste management system?
1.8 Opportunities
Construction and demolition waste management Plan will help in reducing environmental
pollution. By continuous practicing, it will be possible to reduce a significant amount of land
to filling with waste. Moreover, it will encourage innovations and opportunities for resource
efficiency, reuse and high-quality recycling. It will also save the cost of material by using
recycled and deconstructed material.
1.9 Threats
From the perspective of a project manager: negligence in respect of asbestos, creosote,
gasoline and mercury among onsite causes serious health issues to workers. Disposal of
of Labour and supervisors are unaware of deconstruction and hierarchy process of waste
management. Therefore incorporation is obvious. And sometimes site size has been minimal.
Therefore setup of on-site recycling plant would be impossible.
An analysis of construction and demolition studies shown for the Clean Washington Centre
and the Vermont Agency of Natural Resources indicates that, due to inadequate or non-
existent definitions of "construction and demolition debris," an overwhelming amount of
incomplete data exists. Because most waste characterization studies label all C&D
constituents as "inert," it is no wonder there are conflicting reports. Without specific and
standardized categories, everyone "sees" waste differently. If we do not identify the
material."
Moreover, there are no inspections to check whether the contractor is practicing waste
management on site or not. In my previous job were building residential flats, the client was
city council, the inspector was coming and checking just the quality of structure, but in my
experience from the start till the end of the project, there was zero inspection about waste
management. Which is a significant weakness of waste management system?
1.8 Opportunities
Construction and demolition waste management Plan will help in reducing environmental
pollution. By continuous practicing, it will be possible to reduce a significant amount of land
to filling with waste. Moreover, it will encourage innovations and opportunities for resource
efficiency, reuse and high-quality recycling. It will also save the cost of material by using
recycled and deconstructed material.
1.9 Threats
From the perspective of a project manager: negligence in respect of asbestos, creosote,
gasoline and mercury among onsite causes serious health issues to workers. Disposal of
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Sustainable Construction 11
contaminated soil and waste sometimes causes the threats to nearby residents and businesses
with groundwater contamination.
And reduced air quality by landfills. Moreover, UK landfill assets are rapidly diminishing
which applies even higher pressure on the construction industry to better manage and reduce
the waste it generates.
Conclusion
The strict implementation of construction and demolition waste management will
revolutionise the construction industry. It will help to mitigate the material cost of a project
and also will help to protect the environment. Additionally, according to Project manager,
Flashman, (2017) overestimation is a second big Problem in construction works. For
example, if the concrete quantity is sure cubic meter but the supervisors are always ordered
additional half of cubic meter in case of reduction. After that, the excessive concrete they put
in a waste skip. By the implementation of construction and demolition waste management
"Training" Principle, the overestimation can be reduced. In The nutshell, training the
cooperation is very crucial in the construction and demolition waste management process.
2.0 WIND ENERGY
2.1 Introduction
The use of wind energy is becoming one of the most established areas of alternate energy.
Incorporating wind energy systems into building design is a growing trend, and high rises
with their elevated wind speeds seem mainly suitable to the technology. Designs that
integrate wind turbines are progressively being seen on the drawing boards for high-rise
building across the world. Primary the development of this fledgling field, wind engineers
have assessed the potential for wind turbine integrated buildings in United Kingdom.
contaminated soil and waste sometimes causes the threats to nearby residents and businesses
with groundwater contamination.
And reduced air quality by landfills. Moreover, UK landfill assets are rapidly diminishing
which applies even higher pressure on the construction industry to better manage and reduce
the waste it generates.
Conclusion
The strict implementation of construction and demolition waste management will
revolutionise the construction industry. It will help to mitigate the material cost of a project
and also will help to protect the environment. Additionally, according to Project manager,
Flashman, (2017) overestimation is a second big Problem in construction works. For
example, if the concrete quantity is sure cubic meter but the supervisors are always ordered
additional half of cubic meter in case of reduction. After that, the excessive concrete they put
in a waste skip. By the implementation of construction and demolition waste management
"Training" Principle, the overestimation can be reduced. In The nutshell, training the
cooperation is very crucial in the construction and demolition waste management process.
2.0 WIND ENERGY
2.1 Introduction
The use of wind energy is becoming one of the most established areas of alternate energy.
Incorporating wind energy systems into building design is a growing trend, and high rises
with their elevated wind speeds seem mainly suitable to the technology. Designs that
integrate wind turbines are progressively being seen on the drawing boards for high-rise
building across the world. Primary the development of this fledgling field, wind engineers
have assessed the potential for wind turbine integrated buildings in United Kingdom.
Sustainable Construction 12
2.2 Strengths
Wind energy is a very crucial part of the sustainable construction. As UK government is
trying to control climate change, by promoting green building in order to mitigate carbon
emission. However, from point of view of project manager, the wind turbine can be added in
green building system in windy areas. It can produce free electricity with less maintenance. It
is a one-time investment. Moreover, by calculating life-cycle economic cost with fossil fuel,
the wind turbine is cheaper (Yudelson, 2011, p. 236). Fossil fuel based power plants serving
approximately 70% of required energy. These plants are polluting the environment by
emitting co2 and carbon monoxide dangerous gases. In contrast, wind, energy-based plants
does not release harmful gases at all. And it does not produce dangerous waste. In 2009,
Statoil-hydro and Siemens Company have installed floating offshore wind turbine at riverside
of Karmoy, near the Bergen Norway. Floating turbine structure have significant flexibility of
construction procedure. But designing is very complicated because there are plenty of forces
acting on turbine structure in sea like wave forces. Official website of UK states that wind
energy is environment-friendly. Wind turbine helps to mitigate greenhouse gases effect to a
much appreciable level. For instance if an country can exploited 10% of wind potential
effectively, then the sum of greenhouse gases can be mitigated 33%. Despite wind is
unpredictable, but wind energy like electricity can be stored in grid systems. Wind turbine
producing more energy than the requirement of residential and commercial usage. And extra
can be stored to utilise in shortfall time. The example building which I am going to talk about
is from my previous college Dundalk Institute of Technology (Ireland). The turbine height is
86metres in height, the turbine will be the tallest of any structure or building in the northeast,
consisting of 60m base and three 26m blades. The wind turbine is producing 100% of
required electricity for Dkit and with very less maintenance. According to Dr. Amma Oji,
Dkit building is environmentally friendly and with the help of wind turbine, they are reducing
2.2 Strengths
Wind energy is a very crucial part of the sustainable construction. As UK government is
trying to control climate change, by promoting green building in order to mitigate carbon
emission. However, from point of view of project manager, the wind turbine can be added in
green building system in windy areas. It can produce free electricity with less maintenance. It
is a one-time investment. Moreover, by calculating life-cycle economic cost with fossil fuel,
the wind turbine is cheaper (Yudelson, 2011, p. 236). Fossil fuel based power plants serving
approximately 70% of required energy. These plants are polluting the environment by
emitting co2 and carbon monoxide dangerous gases. In contrast, wind, energy-based plants
does not release harmful gases at all. And it does not produce dangerous waste. In 2009,
Statoil-hydro and Siemens Company have installed floating offshore wind turbine at riverside
of Karmoy, near the Bergen Norway. Floating turbine structure have significant flexibility of
construction procedure. But designing is very complicated because there are plenty of forces
acting on turbine structure in sea like wave forces. Official website of UK states that wind
energy is environment-friendly. Wind turbine helps to mitigate greenhouse gases effect to a
much appreciable level. For instance if an country can exploited 10% of wind potential
effectively, then the sum of greenhouse gases can be mitigated 33%. Despite wind is
unpredictable, but wind energy like electricity can be stored in grid systems. Wind turbine
producing more energy than the requirement of residential and commercial usage. And extra
can be stored to utilise in shortfall time. The example building which I am going to talk about
is from my previous college Dundalk Institute of Technology (Ireland). The turbine height is
86metres in height, the turbine will be the tallest of any structure or building in the northeast,
consisting of 60m base and three 26m blades. The wind turbine is producing 100% of
required electricity for Dkit and with very less maintenance. According to Dr. Amma Oji,
Dkit building is environmentally friendly and with the help of wind turbine, they are reducing
Sustainable Construction 13
one thousand tonnes of greenhouse gases annually. Moreover, the extra electricity they are
selling to ESB Ireland (Electricity supply board)
The benefits of wind energy include:
The wind is an unlimited energy source and environment offers it for free.
Wind energy is a technically mature, economically cheap and environment-friendly
energy choice.
It defends the Earth, as every kilowatt-hour produced by the wind substitutes a
kilowatt-hour generated by conventional producing plants, which contaminates the
atmosphere with greenhouse gases.
It does not solve a problem the local environment with hazardous gas emissions, such
as carbon monoxide, sulfur dioxide, cancer-causing microscopic particles, etc. as
conventional electricity generating plants do.
It improves energy freedom and security which is especially crucial for Greece and
Europe in general.
It contributes to the decentralization of the energy system, reducing energy
transmission losses.
2.3 Weaknesses
The project manager has to consider each and every critical aspect of a project. In terms of
windmills and wind turbine, there is very heavy vibration in the structure. Therefore, load
calculations needed for, dynamic forces acting on the structure. Determine correct wind
speed at different angles and calculate the correct dynamic and static forces acting on the
structure is a critical activity. Unique skills are needed to design structure for windmills, not
all structural engineers can design it (Kubba, 2012, p. 193). Moreover, selection of a site for a
wind turbine is a most difficult thing for a Project manager, because the site should be windy
to operate turbine on enough speed to produce mechanical energy and ground should have
one thousand tonnes of greenhouse gases annually. Moreover, the extra electricity they are
selling to ESB Ireland (Electricity supply board)
The benefits of wind energy include:
The wind is an unlimited energy source and environment offers it for free.
Wind energy is a technically mature, economically cheap and environment-friendly
energy choice.
It defends the Earth, as every kilowatt-hour produced by the wind substitutes a
kilowatt-hour generated by conventional producing plants, which contaminates the
atmosphere with greenhouse gases.
It does not solve a problem the local environment with hazardous gas emissions, such
as carbon monoxide, sulfur dioxide, cancer-causing microscopic particles, etc. as
conventional electricity generating plants do.
It improves energy freedom and security which is especially crucial for Greece and
Europe in general.
It contributes to the decentralization of the energy system, reducing energy
transmission losses.
2.3 Weaknesses
The project manager has to consider each and every critical aspect of a project. In terms of
windmills and wind turbine, there is very heavy vibration in the structure. Therefore, load
calculations needed for, dynamic forces acting on the structure. Determine correct wind
speed at different angles and calculate the correct dynamic and static forces acting on the
structure is a critical activity. Unique skills are needed to design structure for windmills, not
all structural engineers can design it (Kubba, 2012, p. 193). Moreover, selection of a site for a
wind turbine is a most difficult thing for a Project manager, because the site should be windy
to operate turbine on enough speed to produce mechanical energy and ground should have
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Sustainable Construction 14
the appropriate bearing capacity, to resist all the destabilizing force. In other words, the
ground should be firm enough against all the forces coming down on the ground. Windy
places are mostly found in countryside areas. Therefore this is the prominent problem of
wind energy in terms of application in sustainable construction. Additionally, the issues such
as noise emission and aesthetic (visualisation) impacts on the field need to be tackled. And
another issue has arrived that flying species like birds, bats, etc. can collide with the turbine.
2.4 Opportunities
Wind energy is most swift increasing energy source in the world. It has maintained this
position sequentially from last five years. Owing to the commitment of British government to
mitigate Greenhouse gases emission and deliver sufficient energy to growing world. Several
countries have already made policies to supplement required energy from renewable energy
to confirm that renewable energy plays a vital role in future. For instance, all European
countries including the UK have accepted national renewable energy action plan. Their
requirements to get 20% final energy consumption from renewable sources by 2020.
Where wind energy plays indispensable rule to generate electricity. Moreover, the
installation of a minor wind turbine on the roof of the sustainable buildings will be the future
target to generate the electricity (Khatib, 2014, p. 471).
2.5 Threats
Installation and maintenance of wind energy call for highly skilled individuals who have a
better understanding of the operation of windmills. However, the limited knowledge capacity
serves as a threat to continuous better wind energy being displayed in the society. The
government regulations significantly help in establishing order in the society (Bragança, 2012, p.
173). They will direct on the kind of wind energy to be embraced. Apart from that, they can
always come in to offer support in the cases where individuals are intending to carry out the
the appropriate bearing capacity, to resist all the destabilizing force. In other words, the
ground should be firm enough against all the forces coming down on the ground. Windy
places are mostly found in countryside areas. Therefore this is the prominent problem of
wind energy in terms of application in sustainable construction. Additionally, the issues such
as noise emission and aesthetic (visualisation) impacts on the field need to be tackled. And
another issue has arrived that flying species like birds, bats, etc. can collide with the turbine.
2.4 Opportunities
Wind energy is most swift increasing energy source in the world. It has maintained this
position sequentially from last five years. Owing to the commitment of British government to
mitigate Greenhouse gases emission and deliver sufficient energy to growing world. Several
countries have already made policies to supplement required energy from renewable energy
to confirm that renewable energy plays a vital role in future. For instance, all European
countries including the UK have accepted national renewable energy action plan. Their
requirements to get 20% final energy consumption from renewable sources by 2020.
Where wind energy plays indispensable rule to generate electricity. Moreover, the
installation of a minor wind turbine on the roof of the sustainable buildings will be the future
target to generate the electricity (Khatib, 2014, p. 471).
2.5 Threats
Installation and maintenance of wind energy call for highly skilled individuals who have a
better understanding of the operation of windmills. However, the limited knowledge capacity
serves as a threat to continuous better wind energy being displayed in the society. The
government regulations significantly help in establishing order in the society (Bragança, 2012, p.
173). They will direct on the kind of wind energy to be embraced. Apart from that, they can
always come in to offer support in the cases where individuals are intending to carry out the
Sustainable Construction 15
activity but lack sufficient finances and skill. However, such regulations and incentives have
not been there in the present society.
Conclusion
In conclusion, wind energy has fewer disadvantages than advantages. According to Johnson,
(2006), the electricity generated by renewable sources is cheap than the electricity generated
by the fossil fuel, Furthermore, by adding minor wind turbines on the roof of high rise
buildings and with this sustainability process/system, the climate change can be controlled.
Because the emission of greenhouse gases will be less by utilisation of renewable energy
sources. The promotion and awareness regarding the importance of renewable energy and
effects of CO2 and co gases are very crucial in this era (Hendriks, 2011, p. 47).
3.0 GREEN BUILDING
3.1 Introduction
In the modern era, there has been a significant increment in construction. The increasing
buildings have adversary effect on the environment and human health such as excess carbon
dioxide causes the greenhouse effect. Therefore more heat trapped by the atmosphere,
causing the planet becomes warmer than the normal condition. Its continuously affecting the
climate because of that climate is getting warmer every year (BBC, 2014). Additionally, high
amount of atmospheric CO2 can produce hypercapnia, or excessive CO2 can get in the blood
which ordinarily outcome as acidosis and a fatal condition characterised in people by a
headache, eyesight disturbance and nausea (Halliday, 2017, p. 285).
The building is consuming a considerable portion of energy. According to Hawng (2010),
buildings are consuming 30-40% energy and these values are rising gradually. Buildings and
construction work in all over the UK are producing 47% Co2 (CIOB, 2010) (charted institute
of the building). , According to ICE (Institute of civil engineering), there are various modes
of carbon dioxide emission in construction and buildings such as: In the portable pneumatic
activity but lack sufficient finances and skill. However, such regulations and incentives have
not been there in the present society.
Conclusion
In conclusion, wind energy has fewer disadvantages than advantages. According to Johnson,
(2006), the electricity generated by renewable sources is cheap than the electricity generated
by the fossil fuel, Furthermore, by adding minor wind turbines on the roof of high rise
buildings and with this sustainability process/system, the climate change can be controlled.
Because the emission of greenhouse gases will be less by utilisation of renewable energy
sources. The promotion and awareness regarding the importance of renewable energy and
effects of CO2 and co gases are very crucial in this era (Hendriks, 2011, p. 47).
3.0 GREEN BUILDING
3.1 Introduction
In the modern era, there has been a significant increment in construction. The increasing
buildings have adversary effect on the environment and human health such as excess carbon
dioxide causes the greenhouse effect. Therefore more heat trapped by the atmosphere,
causing the planet becomes warmer than the normal condition. Its continuously affecting the
climate because of that climate is getting warmer every year (BBC, 2014). Additionally, high
amount of atmospheric CO2 can produce hypercapnia, or excessive CO2 can get in the blood
which ordinarily outcome as acidosis and a fatal condition characterised in people by a
headache, eyesight disturbance and nausea (Halliday, 2017, p. 285).
The building is consuming a considerable portion of energy. According to Hawng (2010),
buildings are consuming 30-40% energy and these values are rising gradually. Buildings and
construction work in all over the UK are producing 47% Co2 (CIOB, 2010) (charted institute
of the building). , According to ICE (Institute of civil engineering), there are various modes
of carbon dioxide emission in construction and buildings such as: In the portable pneumatic
Sustainable Construction 16
system, the co2 is being used as a compressed gasses widely. The Co2 can protect the weld
puddle from the surrounding air .to achieve the excellent weld, craftsmen are also mixing co2
with argon. Furthermore, co2 is also being used for removing paint from the surface, with
creating dry ice pellets to substitute sandblasting. In heating, lighting, extraction, disposal
and human exhale are also a source of Co2 emission.
To improve environmental health experts come up with an idea called green building. Green
building is a way to make sustainable buildings. These days, Sustainability in buildings
becoming famous. Therefore, the Project manager must obtain mandatory skills in order to
manage sustainable projects successfully, and it is a way to mitigate Co2 emission and effects
(Ghataora, 2011, p. 115)
3.2Strength
The strengths of the green buildings can be categorised as follows.
3.21 Environmental benefits
Protect natural resources
Reduce misuse of
Enhance water and air quality
Safeguard and environment
3.22 Economic benefits
Minimise functioning costs
enhance occupant production
Generate market for green services and product
system, the co2 is being used as a compressed gasses widely. The Co2 can protect the weld
puddle from the surrounding air .to achieve the excellent weld, craftsmen are also mixing co2
with argon. Furthermore, co2 is also being used for removing paint from the surface, with
creating dry ice pellets to substitute sandblasting. In heating, lighting, extraction, disposal
and human exhale are also a source of Co2 emission.
To improve environmental health experts come up with an idea called green building. Green
building is a way to make sustainable buildings. These days, Sustainability in buildings
becoming famous. Therefore, the Project manager must obtain mandatory skills in order to
manage sustainable projects successfully, and it is a way to mitigate Co2 emission and effects
(Ghataora, 2011, p. 115)
3.2Strength
The strengths of the green buildings can be categorised as follows.
3.21 Environmental benefits
Protect natural resources
Reduce misuse of
Enhance water and air quality
Safeguard and environment
3.22 Economic benefits
Minimise functioning costs
enhance occupant production
Generate market for green services and product
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Sustainable Construction 17
3.23 Social benefits
Enhance the quality of life
Reduces strain on local infrastructure
Enhance the occupant health and comfort (Gerrard, 2015, p. 351)
3.3 Weaknesses
The weakness factors are directly related to product or technology Hwang explained that
designs of green buildings are complicated due to different material and technology.
Therefore, the Project manager often faces technical complications in the construction
process. Some structural challenges outlined by Brugermann (2017) that the added soil or
trees are increasing the load on members and for that designer have to design members strong
enough or more significant against these loads.
According to renewable energy requirements, green buildings should be located where sun
exposure, wind or source of hydropower is available. Another Weakness is the maintenance
and implementation cost is higher. Tagaza and Wilion (2004) asserted that green projects 1 –
25% costs higher than conventional building. The increased cost associated with sustainable
material and green technology. For instance, the required renewable energy sources such as
solar panel, wind turbines are adding the cost in construction amount. Moreover it's very hard
to get material in urban area where people not concerning about sustainability. According to
Kaplow (2016) contracts for green buildings are not correctly formed. Which creates problem
for main contractor and subcontractor regarding cost and time if there would be any
incorporated changes in features. Approval process of recycled material and technology can
be lengthy, which can affect the project scheduling. Therefore project manager should
consider these points during scheduling (Delgado, 2014, p. 45)
3.23 Social benefits
Enhance the quality of life
Reduces strain on local infrastructure
Enhance the occupant health and comfort (Gerrard, 2015, p. 351)
3.3 Weaknesses
The weakness factors are directly related to product or technology Hwang explained that
designs of green buildings are complicated due to different material and technology.
Therefore, the Project manager often faces technical complications in the construction
process. Some structural challenges outlined by Brugermann (2017) that the added soil or
trees are increasing the load on members and for that designer have to design members strong
enough or more significant against these loads.
According to renewable energy requirements, green buildings should be located where sun
exposure, wind or source of hydropower is available. Another Weakness is the maintenance
and implementation cost is higher. Tagaza and Wilion (2004) asserted that green projects 1 –
25% costs higher than conventional building. The increased cost associated with sustainable
material and green technology. For instance, the required renewable energy sources such as
solar panel, wind turbines are adding the cost in construction amount. Moreover it's very hard
to get material in urban area where people not concerning about sustainability. According to
Kaplow (2016) contracts for green buildings are not correctly formed. Which creates problem
for main contractor and subcontractor regarding cost and time if there would be any
incorporated changes in features. Approval process of recycled material and technology can
be lengthy, which can affect the project scheduling. Therefore project manager should
consider these points during scheduling (Delgado, 2014, p. 45)
Sustainable Construction 18
3.4 Opportunities
There are many opportunities relating to green building. Firstly it is environment-friendly. It
will help to reduce Co2 emission and it will mitigate to climate getting warmer Green
building will also help to save and recharge groundwater for future generations because in
this system buildings storing , recycling and use rainwater and wastewater. Additionally,
green buildings will help to reduce some health problems and it is right way to spread
awareness among people regarding environmental conditions and pollution effects.
3.5 Threats
Better performance in the society calls for having extra knowledge in handling diverse tasks
while embracing high levels of professionalism. Installation and maintenance of green
buildings call for highly skilled individuals who have a better understanding of the operation
of green building. However, the limited knowledge capacity serves as a threat to continuous
better green buildings being displayed in the society. The government regulations
significantly help in establishing order in the society (Bragança, 2012, p. 173). They will direct on
the kind of green building to be embraced. Apart from that, they can always come in to offer
support in the cases where individuals are intending to carry out the activity but lack
sufficient finances and skill. However, such regulations and incentives have not been there in
the present society hence, acting as a threat to the existence of excellent green buildings in
the nation in the nation, which will push for a better community. The maintenance cost that
increases every other day depending on the changes in climate is too a significant threat.
Many might end up fearing for its installation due to such expenses associated with it (Bauer,
2012, p. 67). Therefor the construction managers have to try much and attain more knowledge
regarding the installation of green buildings. The industry will therefore, be active citing their
ability to handle diverse aspects associated with the industry.
Conclusion
3.4 Opportunities
There are many opportunities relating to green building. Firstly it is environment-friendly. It
will help to reduce Co2 emission and it will mitigate to climate getting warmer Green
building will also help to save and recharge groundwater for future generations because in
this system buildings storing , recycling and use rainwater and wastewater. Additionally,
green buildings will help to reduce some health problems and it is right way to spread
awareness among people regarding environmental conditions and pollution effects.
3.5 Threats
Better performance in the society calls for having extra knowledge in handling diverse tasks
while embracing high levels of professionalism. Installation and maintenance of green
buildings call for highly skilled individuals who have a better understanding of the operation
of green building. However, the limited knowledge capacity serves as a threat to continuous
better green buildings being displayed in the society. The government regulations
significantly help in establishing order in the society (Bragança, 2012, p. 173). They will direct on
the kind of green building to be embraced. Apart from that, they can always come in to offer
support in the cases where individuals are intending to carry out the activity but lack
sufficient finances and skill. However, such regulations and incentives have not been there in
the present society hence, acting as a threat to the existence of excellent green buildings in
the nation in the nation, which will push for a better community. The maintenance cost that
increases every other day depending on the changes in climate is too a significant threat.
Many might end up fearing for its installation due to such expenses associated with it (Bauer,
2012, p. 67). Therefor the construction managers have to try much and attain more knowledge
regarding the installation of green buildings. The industry will therefore, be active citing their
ability to handle diverse aspects associated with the industry.
Conclusion
Sustainable Construction 19
In conclusion, the manager should gather the data and translate into communicable by which
it will be easy to talk and gain resources and support from professionals. In other words,
training is very crucial. In order to develop expertise in sustainable concept and to handle
complications in sustainable technology and contract documentation which are affecting
Project cost and schedule. Moreover, green building is an excellent concept to save
environment and energy based Problems naturally.
In conclusion, the manager should gather the data and translate into communicable by which
it will be easy to talk and gain resources and support from professionals. In other words,
training is very crucial. In order to develop expertise in sustainable concept and to handle
complications in sustainable technology and contract documentation which are affecting
Project cost and schedule. Moreover, green building is an excellent concept to save
environment and energy based Problems naturally.
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Sustainable Construction 20
References
Bauer, M., 2012. Green Building: Guidebook for Sustainable Architecture. 5th ed. Berlin:
Springer Science & Business Media.
Bragança, L., 2012. Sustainable Construction, Materials, and Practices: Challenge of the
Industry for the New Millennium, Parts 1-2. 1st ed. Madrid: IOS Press.
Delgado, J. M., 2014. Sustainable Construction: Building Performance Simulation and Asset
and Maintenance Management. 4th ed. London: Springer.
Gerrard, M., 2015. The Law of Green Buildings: Regulatory and Legal Issues in Design,
Construction, Operations, and Financing. 6th ed. Chicago: American Bar Association.
Ghataora, G. S., 2011. Sustainable Building - Design Manual: sustainable building design
practices. 3rd ed. Paris: The Energy and Resources Institute (TERI).
Halliday, S., 2017. Sustainable Construction. 2nd ed. London: Routledge.
Hendriks, C., 2011. Sustainable Construction. 4th ed. Texas: Uitgeverij Æneas BV,
Khatib, J., 2014. Sustainability of Construction Materials. 2nd ed. Chicago: Elsevier.
Kubba, S., 2012. Handbook of Green Building Design and Construction: LEED, BREEAM,
and Green Globes. 1st ed. Chicago: Butterworth-Heinemann.
OBE, R. K. D., 2016. Sustainable Construction Materials: Sewage Sludge Ash. 1st ed.
Chicago: Elsevier Science.
Settlements, U. N. C. f. H., 2013. Promoting Sustainable Construction Industry Activities:
Issue Paper II. 4th ed. Texas: United Nations Industrial Development Organization.
Sons, J. W. &., 2011. Sustainable Construction: Green Building Design and Delivery. 3rd ed.
London: Charles J. Kibert.
Yudelson, J., 2011. The Green Building Revolution. 2nd ed. London: Island Press.
References
Bauer, M., 2012. Green Building: Guidebook for Sustainable Architecture. 5th ed. Berlin:
Springer Science & Business Media.
Bragança, L., 2012. Sustainable Construction, Materials, and Practices: Challenge of the
Industry for the New Millennium, Parts 1-2. 1st ed. Madrid: IOS Press.
Delgado, J. M., 2014. Sustainable Construction: Building Performance Simulation and Asset
and Maintenance Management. 4th ed. London: Springer.
Gerrard, M., 2015. The Law of Green Buildings: Regulatory and Legal Issues in Design,
Construction, Operations, and Financing. 6th ed. Chicago: American Bar Association.
Ghataora, G. S., 2011. Sustainable Building - Design Manual: sustainable building design
practices. 3rd ed. Paris: The Energy and Resources Institute (TERI).
Halliday, S., 2017. Sustainable Construction. 2nd ed. London: Routledge.
Hendriks, C., 2011. Sustainable Construction. 4th ed. Texas: Uitgeverij Æneas BV,
Khatib, J., 2014. Sustainability of Construction Materials. 2nd ed. Chicago: Elsevier.
Kubba, S., 2012. Handbook of Green Building Design and Construction: LEED, BREEAM,
and Green Globes. 1st ed. Chicago: Butterworth-Heinemann.
OBE, R. K. D., 2016. Sustainable Construction Materials: Sewage Sludge Ash. 1st ed.
Chicago: Elsevier Science.
Settlements, U. N. C. f. H., 2013. Promoting Sustainable Construction Industry Activities:
Issue Paper II. 4th ed. Texas: United Nations Industrial Development Organization.
Sons, J. W. &., 2011. Sustainable Construction: Green Building Design and Delivery. 3rd ed.
London: Charles J. Kibert.
Yudelson, J., 2011. The Green Building Revolution. 2nd ed. London: Island Press.
Sustainable Construction 21
Yudelson, J., 2017. Green Building A to Z: Understanding the Language of Green Building.
2nd ed. Auckland: New Society Publishers.
Yudelson, J., 2017. Green Building A to Z: Understanding the Language of Green Building.
2nd ed. Auckland: New Society Publishers.
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