Academic English Rapport
Academic English Rapport
Academic English Rapport
Architecture department
Academic English
First stage
2023-2024
Prepared by: yasr jamal Mohamad Amin Supervised by: Dr. Ali al-
wakeel
Date of making: 9-16 December 2023
Table of contents:
1
Abstract
……………………………………………………………………………………
……. 2
2
Introduction………………………………………………………………………
……………. 3-6
[2.4] development
3
Development of construction
materials…………………………………………..7-14
4
The History of Construction and materials………………………….
…………….15-20
5
The most innovative construction
materials……………………………………… 20-26
6
Conclusion………………………………………………………………………
……………. 27
1
7
Reference………...
………………………………………………………………………..28-30
1
Abstract:
Architecture has a very old history, since ancient times there has been
architecture and the history of architecture and construction as old as the history
of humanity The first place where brick was used as a building material was in
Mesopotamia. Therefore, the development of materials began in ancient times
The creation of new materials and combinations of materials both in the past
and in the future is one of the most interesting developments in the construction
industry.
Over time, modernized building materials began to gain popularity. They are
currently most commonly used in construction.
Many of the materials that were used in the past are now useless due to the
development of building materials.
Imagine what buildings would be like today if it were not for the development
of building materials. How far would we progress? For example, in the old
days, the roofs of houses were made of mud. During rain, people were in danger
because of water entering the houses. Of course, this is a simple example, but
2
we have thousands of other examples It enabled scientists and experts to
continue to develop building materials
3
2
Introduction :
Construction is an ancient human activity that dates as far back as 400
BC. It started from using constructed materials to produce shelters for
regulating the effect of climates on humans. Soon, the advent of
agriculture paved the way for various construction materials such as
timber and animal skin. In Egypt and the Middle East, timbers were used
to construct dwellings for humans and as storage facilities for plants.
Other construction materials, including tree bark, wattle and daub, and
clay, were mostly used in Polynesia, the Middle East, Indonesia, and
some parts of Europe.
4
2. Economic aspects of the building/structure in terms of original
investment and annual cost of maintenance.
6. Transportation costs.
5
demolition, dismantling or decommissioning. The construction industry
contributes significantly to many countries' gross domestic products (GDP).
[2.4] development:
The word ‘development’ is widely used to refer to a specified state of
advancement or growth. It could also be used to describe a new and
6
advanced idea or product; or an event that constitutes a new stage under
changing circumstances. Generally, the term development [5] describes good
change. But how do you tell which change is good?
In this regard, researchers explain three ways that the term ‘development’
is used:
Development as a vision:
Here, the term is used to describe how desirable a society or a region is,
possibly with regard to what it can become Development as a historical
process:
This refers to social change that occurs over extended periods of time
due to inevitable processes. For instance, it Is widely believed that both
communism and capitalism are an inevitable outcome of progress.
Development as action:
This refers to deliberate action to change things for the better, as with
providing aid to alleviate hunger
3
Development of construction materials :
Development of construction materials – From idea to market
The first building worthy of this name was the Home Insurance Building,
built in Chicago in 1885 and designed by William Le Baron Jenney.
Standing 55 meters tall, it is considered to be the first modern skyscraper.
Before long, the world marveled at the Eiffel Tower, which was built in
1889 out of 18,000 pieces of iron and some five million bolts.
-We need new ways of thinking in the house building industry and we need new
ways of developing designs based on material development and machine
technology. This can only be done if the production, design, and machine
builder work closely together. Or even better, within the same organization.
8
Making new materials and mixing materials both existing and coming is one of
the more interesting future developments in the building industry. One of the
most interesting developments is the sheeting of ceiling, floor, and walls.
Think of the following: we could get sheets of the size of a wall, ceiling, or
floor. This would not only give less handling, less fastening, less filling, less
grinding, it would also provide a better mechanical structure and a stronger box
both in terms of delivery, storms, and earthquakes. In addition (on the contrary
to what many believe) logistics, transportation costs and quality could be much
better than it is today, with standard sized sheets. In order to make the next
generation [8] house manufacturer, it will require a change in choice of material.
We need solid innovation and rethinking of the supply chain. We need
entrepreneurs from the material supply side that have an understanding of this
new way of thinking. We need to find smart methods on how to produce the
new materials and not least sustainable material choices and transports. For
example, small factories producing raw material, located just beside the main
house factory.
Steel, solid wood, light steel studs, CLT, GLT and other material in a new mix
would probably be a part of the future solution. In addition we probably will
find some new, not jet invented, materials around the corner. New inventions are
exciting and of great interest but we should not neglect what we already have.
Most materials and methods are already invented but “purification” of old
material and methods are mostly what leads the industries forward. E.g. Starship
and batteries made by Elon Musk. We need new ways of thinking in the house
building industry and we need new ways of developing designs based on
material development and machine technology. This can only be done if the
production, design, and machine builder work closely together. Or even better,
within the same organization.
9
Making new materials and mixing materials both existing and coming is one of
the more interesting future developments in the building industry. One of the
most interesting developments is the sheeting of ceiling, floor, and walls.
Think of the following: we could get sheets of the size of a wall, ceiling, or
floor. This would not only give less handling, less fastening, less filling, less
grinding, it would also provide a better mechanical structure and a stronger box
both in terms of delivery, storms, and earthquakes. In addition (on the contrary
to what many believe) logistics, transportation costs and quality could be much
better than it is today, with standard sized sheets.
Steel, solid wood, light steel studs, CLT, GLT and other material in a new mix
would probably be a part of the future solution. In addition we probably will
find some new, not jet invented, materials around the corner. New inventions are
exciting and of great interest but we should not neglect what we already have.
Most materials and methods are already invented but “purification” of old
material and methods are mostly what leads the industries forward. E.g. Starship
and batteries made by Elon Musk.
10
As time went by, modernized construction materials began to gain
popularity. This marked the beginning of the distinction between
architecture and building. Wood, concrete, and steel are the materials most
commonly used in construction today.
1-Concrete
Like wood, concrete also comes with some benefits and a few drawbacks. They
serve as support materials to structures, yet they can be very toxic when inhaled.
However, researchers are investigating green methods to make concrete more
friendly for the environment and increase its strength while absorbing carbon iv
oxide.
2-Steel
Steel comes with a lot of benefits for the modern construction industry in
Malaysia. It is lightweight, high in [9] stiffness and strength, non-combustible,
11
termite-proof, and completely recyclable. These unique characteristics make
steel beneficial for both manufacturing and structural purposes.
3. Wood
Many homes in these nations are mainly timber-framed homes. Timber comes
with a lot of benefits and some drawbacks. It is inexpensive and can be carved
into any shape. On the downside, the integrity of the building becomes
compromised when the woods used are exposed to moisture.
Glass and plastic are not left out in the innovative trend. Presently, there are a
lot innovative materials derived from plastic and glass. Some already exist in
Polish markets such as blast [10 ] resistant, impact resistant, bullet resistant, and
fire-resistant glass materials. Some of these finished products have higher
mechanical strength more than three to six times than that of plain glass, high
thermal resistance and resistance to temperature changes.
12
They are better materials due to their ability to shields noise in streets, highways
and support large loads in structural environments such as building facades,
skylights etc.
Studies reveals that plastics of high molecular weight are suitable for building
structures owing to lightness, great chemical resistance, and light transmittance
but have low elasticity coefficient, high rheological defects, low thermal
resistance, low tensile strength and ageing caused by UV radiation. Plastics
reinforced with glass fibers are sustainable and reliable, the plastic strength
increases from (10-80) MPA to (130-600) MPA
1.Green-mix concrete
2.Geometric microstructure
13
formed a steel plate microstructure pattern to buckle and acoustic waves. The
waves redirected carry
14
-The structure, material, and make-up of the basic constituents of building
materials might have changed over the years, but the output remains the same, a
haven. Building a home is not exclusive to humans; certain birds create the most
elaborate and beautiful nests with twigs, leaves, mud, and similar items. In
earlier civilizations and [12] past eras, humans used natural items, like mud, clay,
bamboo, rocks, wood, etc., to make a building.
As revolution and industrialization came into play, the building got more
modernized, and so did the materials used; concrete, bricks, steel, glass, and
even aluminum became the standard modern building material. Modern
building materials are manufactured in factories and engineered to meet specific
performance standards. They are often made from synthetic materials.
Traditional building materials are made from natural materials found in the local
environment, such as wood, stone, mud, and thatch.
4
The History of Construction and materials:
is endless started thirty thousand years ago, where people used to roam from
one place to another, hunting animals and looking for wild plants to eat. As they
were always travelling, they did not build any shelter at the beginning.
Much later on, few thousand years pass by, the early humans began to put up
shelters to protect them from harsh climates made by animal skin, leaves and
branches that were perishable. That's how humankind started finding ways of
building shelters that were larger, stronger and comfortable.
[13]
The history of architecture and construction is as old as human history. So,
let's discuss on few turning points to understand the evolution of architecture.
15
Stone Age Construction
• Neolithic, also known as the Old Stone Age period, from 9000 BC to 5000
BC.
• It was the last period of age before the use of woodwork in buildings.
• The tools used were from natural materials, including bone, stone, antler, hide
(animal skin), wood, grasses and animal fiber.
• Bones such as mammoth ribs, hide, stone, metal, bark, clay, lime plaster and
more are used as building materials.
• The first mud bricks made with hands belong to the late Stone Age period
were found in Jericho.
16
The Romans took things a step further, introducing an essential new building
material – concrete – that made major architectural advances possible.
[14]
Alongside the introduction of concrete, the Romans put bricks at the center
of the art of masonry; stone was used no longer as an out-and-out building
material, but as cladding. Bricks underwent their own evolution over the
centuries, from first century BC raw bricks to the widespread use of baked
bricks under Tiberius’ reign. Timber was still used, particularly as the main
material for building the upper floors of insulae, buildings that stood four or five
stores high.
As we know, in the Middle Ages stone once again became the main construction
material for the most important buildings, churches and castles. This period also
saw the introduction of glass, a new material that, from then on, would be of
key importance to buildings. The uptake of glass was accelerated by the
expanding Republic of Venice.
The Renaissance heralded another change, as brick returned to oust stone. Brick
remained the undisputed construction material for many centuries to come,
leading to unique and truly ingenious works such as Florence Cathedral’s dome.
During the Renaissance, plaster became widely used, both as an architectural
element with a protective, bonding purpose, and as an aesthetic decoration for
buildings.
17
• The seventeenth-century structures relied strongly on experience, rules of
thumb and the use of scale methods.
[15]
• Manufacturing of glass took place in this period, with the first cast plate
glass being developed in France.
• Most buildings had stone ashlar surfaces covering rubber cores bind together
with lime mortar.
• Many tools were made like line gauge, plum-line, the carpenter's square, the
spirit level, and the drafting compass are still in regular use
-Traditional Concrete:
Basic concrete, composed of cement, water, and aggregates, has been a key
material. However, it has sustainability concerns and can contribute to carbon
emissions during production.
18
Innovative and Sustainable Materials:
-Nano-Enhanced Materials:
-Smart Materials:
[17]
Smart Sensors: Integration of sensors into construction materials for real-
time monitoring of structural health and performance.
-Biodegradable Materials:
19
created materials that supported the plain steel and concrete structures and
provided them with more strength, grace, and durability.
Quest for better life forced man to create safer and better living conditions that
[19]
Acceptability of innovative construction materials should be based on
satisfying some of these requirements
cellulose, and super plasticizers. There is also a success story in the area of
turning waste to wealth by replacing sand and cement with pond ash/fly ash in
concrete production . This results in cost decrease
20
5
The most innovative construction materials:
1. Transparent Wood
2. Carbon Fiber
3. Sensi Tiles
4. Self-healing concrete
5. Liquid granite
6. Transparent Aluminum
7. Rich lite
8. LAMINATED WOOD
9. HYDROCERAMICs (PASSIVE COOLING)
10. FLEXICOMB
11. BIO-COAL LINING
12. AEROGEL
13. HYDROCERAMICs (PASSIVE COOLING)
1.Transparent Wood
Transparent wood is at least 5 times stronger and lighter than glass, as well as
being more thermally efficient.
2. Carbon Fiber
Carbon fiber, is truly a material of the future – albeit one that has long been
used in different sports! However, this innovative material has been more and
more frequently used in construction, an industry that often demands a
combination of strength and lightness. Carbon fiber is 75% lighter than iron and
30% lighter than aluminum. It is used to reinforce traditional building materials
to improve their strength — bricks, reinforced concrete blocks, wooden
structures — as well as to reduce the thickness of panels and, accordingly, lower
their weight. Carbon fiber reinforcement for concrete also provides excellent
thermal insulation.
3.SensiTiles
A new type of finishing building material is a sensitive tile with acrylic fiber
which reacts to your movements, touch, or light sources. The optical fiber
transmits light and reacts: the tile can twinkle, light up, catch and scatter
neighboring colors on its surface
4.Self-healing concrete
22
The term “self-healing concrete” sounds more than a little fantastical. Back in
2015, inventor Henk Jonkers from Delft University of Technology showed an
innovative method to repair cracks in concrete using bacteria. The principle of
the technology is simple: capsules containing specific bacteria and nutrients for
them were added to the concrete: the bacteria were activated as soon as water
hit. Cracked concrete was rebuilt with moisture, filled with limestone produced
by the bacteria.
5.Liquid granite
6.Transparent Aluminum
7.Richlite
Rich lite is a durable paper composite material. It is made of waste paper which
is pressed into hard, smooth panels that can be processed. Properly-sourced
paper is far more environmentally friendly than many of the most common
materials used in construction, and this is one of Richie’s main advantages.
23
However, technology turns it into an amazing raw material which is so
necessary for eco-construction.
8. LAMINATED WOOD
This is an innovative material that uses wood in all its elements. The wood is
pressed into panels and laminated, making it into a solid block which is much
stronger than ordinary wood.
Within this category you’ll find sub-types such as cross-laminated timber and
laminated wood. Laminated wood consists of several pieces of lumber glued
together which are used to create strong beams. Cross-laminated timber is made
of pieces of wood laid in alternating directions to create large panels that can
withstand heavy loads. Both types of wood are extremely fire-resistant. The
outer layers, when burning, create charring which helps to insulate the rest of
the wood. During fire resistance tests, they demonstrated the ability to maintain
their structural integrity. Using solid wood facilitates carbon capture while the
trees are growing and while the wood is in use in the buildings. According to
one study published in the Journal of Sustainable Forestry, if sustainable
forestry is used, 14 to 31% of global emissions can be prevented by replacing
materials used in buildings and bridges with wood.
24
This is a composite facade material made of clay and hydrogel which is capable
of cooling the interiors of buildings by up to 6 °C. Hydro ceramics use the
hydrogel’s ability to absorb 500 times more water than its own weight to create
a building system that “becomes a living being as part of nature, not beyond it.”
The technology was developed by [20] Spanish students at the Institute for
Advanced Architecture of Catalonia back in 2014. Since that time, this
innovative material that enables self-cooling systems are in great demand in the
construction industry and among architects. It is especially popular for eco-
construction as it can save up to 28% of the total energy consumption of
traditional cooling devices.
10.FLEXICOMB
Flex comb is inspired by nature – as you might guess from the name, the
structure of this material is inspired by honeycombs. This very simple idea has
turned out to be amazingly flexible and functional. The idea first appeared at
Yale University where researchers studied the honeycomb structure. By
combining drinking straws into one array, it is easy to create a structure
resembling a honeycomb. It also offers the opportunity to recycle or upcycle a
common plastic nuisance – the drinking straw.
11.BIO-COAL LINING
The recycled material consists of 90% carbon and is able to absorb CO2 from
the atmosphere, and is itself a carbon-negative material.
25
12. AEROGEL
The hardest and the lightest material in the world is made of 99.8% air!
This synthetic porous ultralight material is derived from a gel in which the
liquid component of the gel is replaced by a gas. The result is a very solid body
with extremely low density and low thermal conductivity. To the touch, it
resembles brittle polystyrene foam. Aerogels can be made of a variety of
chemical compounds. It was first produced in 1931 as the brainchild of Samuel
Stephens Kistler. He argued that he could replace liquid with gas without
shrinking the structure. The first aerogels were made of silica gels. Kistler’s
later work concerned aerogels based on aluminum oxide, chromium oxide and
tin dioxide. Carbon aerogels were first developed in the late 1980s. A special
feature of aerogels is that they can have a lower thermal conductivity than that
of the gas they contain. This material is an excellent thermal insulator, so it is
widely used for environmentally friendly and efficient thermal insulation on an
industrial scale. Due to the high and fine porosity of the structure, aerogels can
be used as a collecting matrix for the smallest dust particles
This is a composite facade material made of clay and hydrogel which is capable
of cooling the interiors of buildings by up to 6 °C. Hydro ceramics use the
hydrogel’s ability to absorb 500 times more water than its own weight to create
a building system that “becomes a living being as part of nature, not beyond it.”
The technology was developed by Spanish students at the Institute for
Advanced Architecture of Catalonia back in 2014. Since that time, this
innovative material that enables self-cooling systems are in great demand in the
construction industry and among architects. It is especially popular for eco-
26
construction as it can save up to 28% of the total energy consumption of
traditional cooling devices.
6
Conclusion:
So building materials have been developing since ancient times and will
continue to develop in the future to improve the structure of buildings and make
people's lives better, but not all materials are necessarily in development. Some
materials become useless because of the development of materials
From traditional materials like wood and stone to the widespread use of steel
and the advent of advanced materials like high-performance concrete, the
construction industry continues to explore new frontiers. Additionally,
advancements in nanotechnology, 3D printing, and smart materials are
reshaping the landscape of construction, offering improved efficiency,
durability, and environmental
27
7
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30