Exam 3 Flashcards
WHICH ORGANIZATIONS DEVELOP AND MAINTAINS THE MASTERFORMAT SPECIFICATION SYSTEM?
Construction Specifications Canada (CSC) and
the Construction Specifications Institute (CSI) in the U.S
DESCRIBE THE DIFFERENT BUT COMPLIMENTARY FUNCTIONS OF THE DRAWINGS AND THE SPECIFICATIONS?
Drawings:
- illustrate extent, location, and quantity.
- graphic or pictorial descriptions of the form and shape of the building
Specifications:
- complement and permit simplification of the drawings
- limit the role of the drawings to address form, shape, dimensions, and location.
- describe the requirements for quality and workmanship which the drawings may not be able to address.
- address compatibility of materials.
NAME 4 TYPES OF SPECIFICATIONS
- outline or preliminary specifications
- master specifications
- model specifications
- project specifications
NAME 3 METHODS FOR PREPARING CONSTRUCTION SPECIFICATIONS.
- Proprietary - describes specific products and systems
- Prescriptive - describes the exact means and methods for achieving the desired result
- Performance - outlines criteria of a desired result, giving the contractor freedom in choice of materials and methods
EXPLAIN THE LINKS BETWEEN
THE MASTERFORMAT AND THE NATIONAL MASTER SPECIFICATION (NMS).
- MasterFormat is a system of numbers and titles for organizing construction information into a regular standard order or sequence. it is organized in the ‘49 Division’ specification format, using a six-digit section numbering system. Each section, in turn, is organized according to a three-part format:
General, Products, and Executions. - MF provides a flexible system within a standard framework.
- the NMS could be termed a “deletion” master. It allows for
fast deletion of in portions.
DESCRIBE THE THREE PARTS OF A TYPICAL MASTERFORMAT SPECIFICATION SECTION.
Part 1, General
- relate to the work in general
- general description of the system
- references to standards
- admin. and technical standards
Part 2, Products
- defines acceptable equipment, materials, fixtures, mixes, and fabrications, that is, “product” items, to be incorporated into the work.
Part 3, Execution
- describes the manner in which items covered by Part 2 are to be incorporated into the work.
NAME THE MASTERFORMAT DIVISIONS:
A. DIV. 00
B. DIV. 01
C. DIV. 02
A. Div. 00 - Procurement and Contracting Requirements
B. Div. 01 - General Requirements
C. Div. 02 - Existing Conditions
NAME THE MASTERFORMAT DIVISIONS:
A. DIV. 03
B. DIV. 04
C. DIV. 05
D. DIV. 06
A. Div. 03 - Concrete
B. Div. 04 - Masonry
C. Div. 05 - Metals
D. Div. 06 - Wood, Plastics, Composites
NAME THE MASTERFORMAT DIVISIONS:
A. DIV. 07
B. DIV. 08
C. DIV. 09
A. Div. 07 - Thermal and Moisture Protection
(incl. damp proofing and water proofing, thermal protection, roofing, flashing ans sheet metal, and joint protection)
B. Div. 08 - Openings
C. Div. 09 - Finishes
(incl. gypsum, tiles, flooring, acoustic treatment, painting)
NAME THE MASTERFORMAT DIVISIONS:
A. DIV. 10
B. DIV. 11
C. DIV. 12
D. DIV. 13
E. DIV. 14
A. Div. 10 - Specialties
B. Div. 11 - Equipment
C. Div. 12 - Furnishings
D. Div. 13 - Special Construction
E. Div. 14 - Conveying Equipment
NAME THE MASTERFORMAT DIVISIONS:
A. DIV. 21
B. DIV. 22
C. DIV. 23
D. DIV. 25
A. Div. 21 - Fire Suppression
B. Div. 22 - Plumbing
C. Div. 23 - HVAC
D. Div. 25 - Integrated Automation
NAME THE MASTERFORMAT DIVISIONS:
A. DIV. 26
B. DIV. 27
C. DIV. 28
A. Div. 26 - Electrical
B. Div. 27 - Communications
C. Div. 28 - Electronic Safety and Security
WHAT MASTERFORMAT DIVISION?
A. FLASHING AND SHEET METAL
B. DEMOLITION
C. WASTE MANAGEMENT
A. Div. 07 - Thermal and Moisture Protection
B. Div. 02 - Existing Conditions
C. Div. 01 - General Requirements
WHAT MASTERFORMAT DIVISION?
A. FINISH CARPENTRY
B. GYPSUM WALL BOARD
C. JOINT SEALANTS
A. Div. 06 - Wood, Plastics, Composites
B. Div. 09 - Finishes
C. Div. 07 - Thermal and Moisture Protection
WHAT MASTERFORMAT DIVISION?
A. CERAMIC TILING
B. GLAZING
C. TRAFFIC CONTRO
A. Div. 09 - Finishes
B. Div. 08 - Openings
C. Div. 01 - General Requirements
DESCRIBE SOME PRINCIPLES OF SUSTAINABLE DEVELOPMENT.
International council for research and innovation in building construc-tion: Reduce resource consumption; reuse resources; recycle resources for reuse; protect nature; eliminate toxins; apply life cycle costing; focus on quality.
RAIC : the overall objective of sustainable site design are: to reduce and minimize the impacts as a result of site selection; to reduce and minimize negative site impacts as a result of the site development and its buildings.
WHAT DOES LEED STAND FOR?
Leadership in Energy and Environmental Design
WHAT IS THE PRINCIPLE OF PASSIVHAUS?
To produce low energy buildings by combining excellent thermal per-formance and airtightness with a heat recovery ventilation system that supplies fresh air for indoor environmental air quality.
LIST SOME HEAT ISLAND REDUCTION SITE STRATEGIES
- shade
- minimize footprint
- reflective surfaces
- underground parking instead of above ground
WHAT ARE THE TWO MAIN CLASSIFICATIONS FOR SOILS?DESCRIBE EACH.
- Course grained soils: relatively large particles; gravels and sands; good drainage; little to no susceptibility to frost action; and higher bearing capacity. More stable as foundation material. Relatively shal-low angle of repose/ low shear resistance.
- Fine grain soils: small particles; silts and clays; poor drainage; more susceptible to frost action; and lower bearing capacity. Tend to be unstable because they shrink and swell considerably. Higher angle of repose/ good shear resistance when confined.
(CHING 1.12)
WHAT IS FROST ACTION?
The phenomenon that occurs when water in soil is subjected to freez-ing which, because of the water/ice phase change or ice lens growth, results in a total volume increase or the build-up of expansive forces under confined conditions or both, and the subsequent thawing that leads to loss of soil strength and increased compressibility.
WHAT IS THE NAME FOR THE LEVEL BENEATH WHICH THE SOIL IS SATURATED WITH GROUNDWATER.
WHY IS THIS LEVEL IMPORTANT?
Water table.
any groundwater must be drained away from the foundation system to avoid reducing the bearing capacity of the soils and to minimize the possibility of water leaking into the basement.
WHAT IS A ‘SUBSURFACE INVESTIGATION’ AND WHAT INFORMATION DOES IT PROVIDE?
- The analysis and testing of soil disclosed by excavation of a test pit 10’ deep or deeper test borings.
- Provide the following information: structure of soil, shear resistance, compressive strength, water content and permeability, and the expected extent and rare of consolidation under loading. From this information, the geotechnical engineer is able to gauge the anticipated total and differential settlement under loading by a proposed foundation system.
WHAT IS ‘ALLOWABLE BEARING CAPACITY’?
The maximum unit pressure a foundation is permitted to impose verti-cally or laterally on the soil mass.
Consult geotechnical engineer and building code.
A. GROUND SLOPES OVER ___% ARE SUBJECT TO EROSION AND
ARE DIFFICULT TO BUILD ON.
B. GROUND SLOPES UP TO ___% ARE USABLE FOR MOST OUT-DOOR ACTIVITIES AND RELATIVELY EASY TO BUILD ON.
A. 25%
B. 5%
5%-10% slopes are suitable for informal outdoor activities and can be built on without too much difficulty.
NAME THE TWO MAIN CATEGORIES OF SITE DRAINAGE AND DESCRIBE EACH.
- Subsurface drainage: Underground networks of piping conveying groundwater to a point of disposal. ex:
- Surface drainage: Grading and surfacing of a site in order to divert rain and other surface water into natural drainage patterns or a municipal sewer system.
WHAT IS THE DIFFERENCE BETWEEN A SWALE, A CATCH BASIN, AND A CULVERT?
- Swale: shallow depressions formed by the intersection of two ground slopes, designed to direct or divert the runoff of surface water.
- Catch basin: receptacles for the runoff of surface water. They have a basin or sump that retains heavy sediment before it can pass into an underground drainpipe.
- Culvert: drains or channels passing under a road or walkway.
NAME THE THREE WAYS IN WHICH PASSIVE SOLAR HEATING CAN BE ACCOMPLISHED.
DESCRIBE AND GIVE EXAMPLES.
- Direct gain: Collects heat directly within an interior space using a ‘storage mass” like a floor or wall. This storage mass should be 50-60% the total surface area of the space.
- Indirect gain: Controls heat gain at the exterior skin of a building using a concrete or masonry Trombe wall; a drumwall of water-filled barrels or tubes; a sunspace; or roof pond. The absorbed solar energy moves through the wall by conduction and then to the space by radiation or convection.
- Isolated gain: Collects and stores solar radiation (in air or water) away from the space to be heated. A natural convection loop brings warm air or water to the space and expels the cool.
WHAT ARE THE TWO GENERAL CATEGORIES FOR THE STRUCTURAL SYSTEM OF A BUILDING?
Substructure: the vertical extension of a building above foundations.
Superstructure: the underlying structure forming the foundations of a building.
WHAT PARTS IN THE NATIONAL BUILDING CODE APPLY TO:
A. STRUCTURAL DESIGN
B. HVAC
C. PLUMBING
A. NBC Part 4 - Structural Design
B. NBC Part 6 - HVAC
C. NBC Part 7 - Plumbing
WHAT DO THE FOLLOWING ACRONYMS STAND FOR:
A. CSA
B. ASHRAE
C. ASTM
A. CSA - Canadian Standards Association
B. ASHRAE - American Society of Heating, Refrigerating, and Air Conditioning Engineers
C. ASTM - American Society for Testing and Materials
DEFINE AND PROVIDE EXAMPLES OF DYNAMIC LOADS
Dynamic loads are applied suddenly to a structure, often with a rapid change in magnitude and point of application.
- wind loads
- earthquake load
DEFINE AND PROVIDE EXAMPLES OF STATIC LOADS
Static loads are applied slowly to a structure without rapid fluctuations in magnitude or position.
- dead loads
- live loads
- occupancy loads
- snow loads, rain loads
- settlement loads
- ground pressure, water pressure
- thermal stresses
- impact loads
(CHING 2.10)
NAME 3 FORCES THAT MAY ACT ON A BUILDING DURING WIND EVENTS
Sliding, uplift, and overturning
SIMILARITIES AND DIFFERENCES BETWEEN LIVE LOADS AND DEAD LOADS.
Both are examples of static loads.
Live load: comprise any moving or movable loads on a structure result-ing from occupancy, collected snow and water, or equipment. A live load typically acts vertically downward but may act horizontally as well to reflect the dynamic nature of a moving load.
Dead load: static loads acting vertically downward on a structure, comprising the weight of the structure and the weight if building ele-ments, fixtures, and equipment permanently attached to it.
THE FOUR BASIC AND MOST COMMON STRUCTURAL ELEMENTS OF A BUILDING.
Columns, beams, bearing walls, slabs
WHAT IS THE APPLIED FORCE CALLED FOR IN THE FOLLOWING DIAGRAM:
–> [_____] <–
Compression
WHAT IS THE APPLIED FORCE CALLED FOR IN THE FOLLOWING DIAGRAM:
/\ [______]\/
Shear
WHAT IS THE APPLIED FORCE CALLED FOR IN THE FOLLOWING DIAGRAM:
(> [______]<)
A:
Bending moment
Draw a simply supported beam with a point load diagram and forces diagram
Diagram should be a triangle
Forces diagram
/\ [___\/____]/\
Draw the moment diagram for a simply supported beam with an overhand
arc up and crossing be then curbing back up to beam end point
COLUMNS ARE SUBJECT TO WHAT TWO STRESSES?
Buckling and crushing.
Long, slender columns are subject to failure by buckling. Short, thick columns are subject to failure by crushing.
BEAMS ARE SUBJECT TO WHAT THREE STRESSES?
Bending, deflection, and shear.
WHAT ARE THE 3 BASIC STRUCTURAL ELEMENTS FOR CREATING LATERAL STABILITY IN A BUILDING?
Shear wall: A wood, concrete, or masonry wall capable of resisting changes in shape and transferring lateral loads to the ground foundation.
Rigid frame: a steel or reinforced concrete frame with rigid joints capable of resisting changes in angular relationships.
Braced frame: a timber or steel frame braced with diagonal members (including knee bracing, cross bracing, k-brace)
WHAT IS DESTRUCTIVE RESONANCE AND HOW IS IT MITIGATED?
Desctructive resonance is the destruction of a building or component by induced vibrations at a system’s resonance frequency, which causes it to oscillate. Caused by wind or earthquake forces.
Mitigated with the use of damping mechanisms.
Damping mechanisms are viscoelastic devices that are installed at structural joints to absorb oscillations and vibrations.
Examples: tuned mass damper (attached in the upper portion of a tall building to prevent movement), base isolation (isolated the base of the building with dampers
WHICH OF THE FOLLOWING ARE NOT DEAD LOADS:
1. HYDROSTATIC LOAD
2. UNIFORM LOAD
3. LIVE LOAD
4. CONCENTRATED LOAD
A:
Hydrostatic loads and live loads are not dead loads.
DESCRIBE THE DIFFERENCE BETWEEN A POINT, LINE, AND SURFACE CONNECTION IN THEIR ABILITY TO REACT TO ROTATIONAL FORCES. INCLUDE AN EXAMPLE OF EACH.
Linear and surface connections resist rotation. Point connections do not resist rotation unless a series of them are distributed across a large area.
Point connection: bolt
Line connection: weld
Surface connection: glue
NAME THE THREE MAIN STRUCTURAL ELEMENTS OF FOUNDATIONS.
- Bearing walls
- Columns
- Piers
DESCRIBE THE ROLE OF THE FOUNDATIONS IN A STRUCTURAL SYSTEM.
- Carry the live loads and dead loads acting vertically on the superstructure.
- Anchor the superstructure against wind induced sliding, overturning, and uplift.
- Withstand sudden ground movement (as during earthquakes).
- Resist pressure imposed by surrounding soil mass and groundwater on basement walls.
WHAT IS DIFFERENTIAL SETTLEMENT?
Differential settlement is the relative movement of different parts of the structure caused by uneven consolidation of the foundation soil.
NAME FIVE FACTORS TO CONSIDER WHEN CHOOSING AND DESIGNING A FOUNDATION SYSTEM.
- Building loads (pattern and magnitude)
- Subsurface and groundwater conditions, bearing capacity of soil
- Topography of the site
- Impact on adjacent properties
- Building code requirements
- Construction method and risks
WHAT ARE SPREAD FOOTINGS?
NAME AND DESCRIBE THE TWO MOST COMMON TYPES.
Spread footings: The lowest part of a shallow foundation. They are extended laterally to distribute there load over an area of soil wide enough that the allowable bearing capacity of the soil is not exceeded. Two most common types are:
Strip footings - continuous footings along foundation walls.
Isolated footings - isolated footings at the base of columns or pier.
WHAT IS THE FROST LINE?
Frost line: the average depth at which soil is frozen or frost penetrates the ground.
DESCRIBE THE ROLE OF THE FOUNDATION WALLS.
- provide support for the superstructure above
- enclose basement or crawl space
- resist active earth pressure and anchor the superstructure against wind and seismic forces.
WHAT MAIN COMPONENTS FORM PART OF THE SUBSOIL OR FOUNDATION DRAINAGE SYSTEM?
- Dampproofing and/or waterproofing on the foundation walls.
- Drainage mat or gravel backfill to direct water to footing drains.
- Footing drains (perforated pipe or drain tile)
- Filler or sealants used at expansion joints between foundation walls and slab.
WHAT TYPE OF METAL FASTENERS SHOULD BE USED FOR WOOD FOUNDATION SYSTEMS?
WHAT TYPE OF WOOD?
Stainless steel or hot-dipped zinc coated steel. Pressure treated wood.
WHAT TYPE OF JOINT PROVIDES SPACE FOR MOVEMENT TO OCCUR BETWEEN A CONCRETE SLAB AND ADJOINING COLUMNS AND WALLS?
Expansion joints/isolation joints
WHAT TYPE OF JOINT CREATES LINES OF WEAKNESS SO THAT THE CRACKING THAT MAY RESULT FROM TENSILE STRESSES OCCURS ALONG PREDETERMINED LINES?
Control joints.
NAME TWO TYPES OF DEEP FOUNDATIONS
AND IN WHAT CONDITIONS MIGHT THEY BE USED?
- Pile foundations
- Caisson foundations
May be used when building on unsuitable or unstable soil
MASONRY ELEMENTS THAT ARE BONDED TOGETHER WITH MORTAR ARE STRONGER IN _______ THAN WOOD.
Compression
A. WHAT ARE THE KEY LOADS ACTING ON FLOOR SYSTEMS?
B. WHAT ARE THE TWO BASIC STRUCTURAL SYSTEMS GENERALLY USED FOR FLOORS?
A. Live loads - people, furnishings, and movable equipment
Dead loads - the weight of the floor construction itself
B. Beams and joists overlaid with sheathing or decking (wood, steel, or concrete)
Slab (concrete
A. WHAT ARE THE KEY LOADS ACTING ON WALL SYSTEMS?
B. WHAT ARE THE THREE BASIC STRUCTURAL SYSTEMS GENERALLY USED FOR WALLS?
A. Vertical dead and live loads
Horizontal wind loads and seismic loads
B. Structural frames (concrete, timber, steel) Concrete or masonry bearing walls Metal and wood stud walls