
- •Т. М. Карлова building a house как построить дом
- •Contents
- •Vocabulary to memorise:
- •Read Text 1. Indicate the most common building materials and say where and why people use them. Text 1. Building materials in construction
- •Introduction
- •Building materials
- •Text 2 . Materials science: plastics
- •Vocabulary and Grammar Consolidation Exercises
- •Ex.21. Read text “Stone” and translate it sentence by sentence. Underline the adjectives and adverbs and say what comparative forms they are in. Stone
- •Ex. 22. Translate the sentences with more comparisons.
- •1. What is the best test with stone for different people?
- •2. What is the dampness of stone caused by?
- •3. What kind of structure has granite got?
- •5. Is limestone always white?
- •10 Natural Building Materials
- •Scan Text 1 “Buildings and Their Types” and define the functions of the units marked I, II and III.
- •Text-Based Exercises
- •Text 2. Building houses
- •Additional Vocabulary
- •A) Translate the sentences with simple infinitives and for-phrases:
- •Ex. 31. Translate the sentences with modal verbs. Pay special attention to passive Infinitives.
- •Building
- •Buildings serve several needs of society - primarily as shelter from weather and as general living space, to provide privacy, to store belongings and to comfortably live and work.
- •1. What does the construction of a house start with?
- •2. What work is the designer responsible for when building a house?
- •3. What is a lintel and where is it used?
- •4. How are floor boards laid?
- •5. What materials are usually used for covering the roof of the building?
- •6. Who are the elements of internal infrastructure fixed by ?
- •Interior construction
- •Unit 3. Foundation
- •Vocabulary to memorise:
- •Read text 1 ‘foundations in construction’. In the text point out the introductory part, the main part and the conclusion.
- •Text 2. Types of foundations
- •Vocabulary and Grammar Consolidation Exercises
- •Pile foundations
- •Vocaulary notes
- •Text 4. Different types of house foundations
- •1. Which defects are more common, troubles with walls or with foundations?
- •2. What factor is important to consider besides the soil type?
- •3. Can poured concrete foundations be good in cold climates?
- •4. What helps to support frost-protected foundations from frost damage?
- •5. What are the advantages of wood for permanent foundations?
- •6. What types of raised foundations are there?
- •Read text 5. Foundations and Types of Soils
- •Text 5. Foundations and types of soils
- •Discussions
- •Unit 4. Brick and masonry
- •Henri Poincaire
- •Vocabulary to memorise:
- •In the text point out the introductory part and the main part. Text 1. Brick loadbearing walls
- •Text 2. Masonry
- •Bricks are laid flat in rows called courses, exposing either their sides (stretcher) or ends (header).
- •Extreme weather may cause degradation of masonry wall surfaces due to frost damage.
- •Vocabulary and Grammar Consolidation Exercises
- •1. What does lime improve when it is used in the motar?
- •2. What mix proportions ensure workability, adhesion and durability?
- •3. What is the function of liquid plasticizers?
- •4. What is pointing?
- •Read text 5. 10 Good Reasons For Natural Stone
- •Project 2. Brick and Masonry
- •Unit 5. Concrete and cement
- •Vocabulary to memorise
- •4. ______ From construction, demolition and excavation waste are used as partial replacements of natural aggregates
- •5. Decorative stones or crushed glass are added to the surface of concrete for a decorative ______.
- •6. ______ Are added to the concrete to obtain desirable characteristics.
- •7. Chemical admixtures are materials (в виде порошка или жидкостей) that give concrete certain characteristics not obtainable with plain concrete mixes.
- •4. Водно-цементная смесь твердеет и набирает прочность спустя какое-то время.
- •5. Разрешается также примешивать ряд искусственных заполнителей, включая остывший шлак доменной печи и зольный остаток.
- •6. Химические примеси - это материалы в виде порошка или жидкостей, которые добавляются к бетону, чтобы придать ему свойства, которые невозможно получить с простыми бетонными смесями.
- •Text 2. Types of concrete
- •Regular concrete
- •High-strength concrete
- •Reinforced concrete
- •Prestressed concrete
- •Additional Vocabulary
- •Vocabulary and Grammar Consolidation Exercises
- •Text 3. Cement
- •Text 4. Early concrete
- •1. What is “pozzoulana”?
- •2. What technique did the Romans use to construct buildings?
- •3. Was the early cement used throughout Europe?
- •4. Why wasn’t pozzuolan cement used widely in the world?
- •5. Who was the first person to patent Portland cement?
- •Cement Alternatives
- •Discussions
- •Unit 6. Wood and wood-based materials
- •Vocabulary to memorise
- •Text 1. Wood
- •Text 2. Engineered wood
- •Additional Vocabulary
- •Text 4. About wooden houses
- •1. Why has wood become an appealing buildin materal?
- •2. Due to what are wooden houses included into the low-energy category?
- •3. Where does wood acacumulate energy from?
- •4. What does rational use of wood imply?
- •5. In what is our responsibility concerning nature?
- •Aqueducts ['ækwidʌkt] - акведук, водопровод; канал, проход, труба
- •Bond - перевязка кирпичной кладки, тип кладки, рисунок на поверхности стены
- •Brick laying – кладка кирпича
- •Cover ['kʌvə] - крышка; охватывать, покрывать
- •Driveways [‘draivwei] - дорога, проезд, путь; подъездная дорожка
- •Header ['hedə] - тычок кирпича, кирпичной кладки; опорная несущая балка
- •Herringbone - шеврон, кладка «в елку»
- •Insert [in’sə:t] - вставлять, вкладывать
- •Install [instɔ:l] – устанавливать, вставлять,
- •Overlap - перекрытие, нахлестка класть кирпичи внахлестку
- •Primarily [prai'merəli] - первоначально; в основном, главным образом
- •Stretcher [’strеtʃə] - ложок кирпича
- •Weight bearing (wall) - несущая (стена)
Text 2. Engineered wood
In today’s sustainably built environment engineered wood products play a major role, both in interior and exterior applications. Engineered wood is sometimes referred to as composite, as it is comprised of wood veneers, lumber, panels, fibers or strands bound together with an adhesive to make the end product. Engineered products are also made with shredded wood which is glued together, and can include other plant materials such as rice stalks.
Engineered wood products are produced all over the world, and can be found in use as flooring, structural supports, cladding, and a number of other components of a structure. They offer a high-performance, dimensionally stable and environmentally responsible option for any building project, however large or small, residential or commercial. And structural engineered wood products offer incredible design versatility for architects.
One advantage to engineered wood is that it is very strong and durable, and can be stronger than regular wood of the same size. This can be an advantage when people want to increase the strength of a structure without making it heavy or bulky.
Plywood is sometimes called the original engineered wood. It is made out of thin wooden sheets which are glued together and compressed to create a block of durable wood. Plywood is produced by assembling veneers (thin sheets of wood of uniform thickness) and bonding them together to form a panel. The veneers are usually assembled with the grain direction in one veneer being at right angles to that in the adjacent veneer. To insure a stable balance construction free of warping tendencies, an odd number of veneers is used (e.g. 3-ply, 5-ply and 7-ply). The grain on the face and back veneer is parallel. The crossing of the grain at right angles tends to equalize the strength in all directions and the uniformity increases with the number of plies used. Glued Laminated Timber, often referred to as Glulam, is an engineered structural wood product, developed in the 1960's. It is produced by bonding together a number of graded, seasoned and mostly finger-jointed laminates with a structural moisture-resistant adhesive to form a solid member. The laminates are bonded together with the grain running essentially parallel. Because the product is made up of many laminates, any strength reducing characteristics (that might affect a piece of solid timber of the same cross section) are not present in a glued laminated product.
Glulam structural members are used as vertical columns or horizontal beams, as well as curved, arched shapes. In fact, glulam is the only engineered wood product that can be produced in curved shapes, offering unlimited design flexibility.
Now, a new development in wood construction called cross-laminated timber (CLT) is making new possibilities available in wood construction.
Cross-laminated timber panels are like massive plywood boards. Instead of shaving a log into a veneer and then gluing it together to make a board, a CLT panel is made from pieces of sawn wood and is several inches thick. Like plywood, alternating layers are laid perpendicular to one another, so that the finished panel is stronger and more dimensionally stable than plain wood would be.
Because the panels are many inches thick, there is an inherent fire resistance to the material. Construction with CLT is also faster and requires fewer workers and lighter equipment, which can make construction more affordable.
Laminated Veneer Lumber (LVL) and Laminated Strand Lumber (LSL) are engineered structural products. They are produced by assembling wood veneers (thin sheets of wood of uniform thickness) or strands and bonding them together with a structural adhesive to form a solid product. The grain direction of each veneer or strand is usually oriented to be parallel with the length of the piece but may be cross-banded for specialty applications. The laminated structure disperses strength and gives LVL and LSL a higher bending strength and stiffness than the equivalent solid timber of the same species.
LVL is typically used in structural applications where the high strength and stiffness, long lengths and large section sizes are advantageous. These applications include floor joists, lintels, purlins, roof truss components, and portal frames.
Some engineered wood products, like oriented strand board (OSB), can use trees from the poplar family, a common but non-structural species. Alternatively, it is also possible to manufacture similar engineered cellulosic products from other lignin-containing materials such as rye straw, wheat straw, rice straw, hemp stalks, or sugar cane residue, in which case they contain no actual wood but rather vegetable fibers.