Penn Foster’s Carpenter Apprentice program Fosters... · 2020. 10. 5. · Design of Steel...
Transcript of Penn Foster’s Carpenter Apprentice program Fosters... · 2020. 10. 5. · Design of Steel...
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Penn Foster’s Carpenter Apprentice program
Course PF Course Course Title Number Price Duration
Year 1:
Basic Industrial Math Block X31 $450.00 30 hours
Addition and Subtraction 186303 ($75.00) (5 hours)
Multiplication and Division 186304 ($75.00) (5 hours)
Fractions, Percents, Proportions, and Angles 186305 ($75.00) (5 hours)
Metric System 186306 ($75.00) (5 hours)
Formulas 186307 ($75.00) (5 hours)
Introduction to Algebra 186308 ($75.00) (5 hours)
Practical Measurements Block X32 $375.00 25 hours
Linear and Distance Measurement 186125 ($75.00) (5 hours)
Bulk Measurement 186126 ($75.00) (5 hours)
Temperature Measurement 186127 ($75.00) (5 hours)
Energy, Force, and Power 186128 ($75.00) (5 hours)
Fluid Measurement 186129 ($75.00) (5 hours)
Trades Safety: Getting Started 186104 $75.00 5 hours
Working Safely with Chemicals 186105 $75.00 5 hours
Fire Safety 186106 $75.00 5 hours
Working Safely with Electricity 186108 $75.00 5 hours
Material Handling Safety 186109 $75.00 5 hours
Jobs, Companies, and the Economy: Basic Concepts
for Employees 186191 $75.00 5 hours Quality Concepts: Tools and Applications 186036 $75.00 5 hours
Hand and Power Tools Block X34 $900.00 70 hours
Common Hand Tools, Part 1 186164 ($75.00) (5 hours)
Common Hand Tools, Part 2 186165 ($75.00) (5 hours)
Precision Measuring Instruments, Part 1 186188 ($75.00) (10 hours)
Electric Drilling and Grinding Tools 186166 ($75.00) (5 hours)
Power Cutting Tools 186167 ($75.00) (5 hours)
Pneumatic Hand Tools 186056 ($75.00) (5 hours)
Plumbing and Pipefitting Tools 286113 ($75.00) (5 hours)
Electricians' Tools 006026 ($75.00) (10 hours)
Tool Grinding and Sharpening 186057 ($75.00) (5 hours)
Woodworking Hand Tools 186169 ($75.00) (5 hours)
Woodworking Power Tools 186170 ($75.00) (5 hours)
Lifting Equipment 186168 ($75.00) (5 hours)
Year 2:
Preventive Maintenance 286085 $75.00 5 hours
Preventive Maintenance Techniques 286086 $75.00 5 hours
Lifting Equipment 186168 ($75.00) (5 hours)
Reading Prints and Schematics Block X45 $900.00 96 hours
Introduction to Print Reading 186325 ($75.00) (8 hours)
Print Reading Symbols and Abbreviations 186326 ($75.00) (8 hours)
Dimensioning and Tolerancing 186327 ($75.00) (8 hours)
Print Reading Applications 186328 ($75.00) (8 hours)
Building Drawings 186181 ($75.00) (8 hours)
Electrical Drawings and Circuits 186044 ($75.00) (8 hours)
Electronic Drawings 186045 ($75.00) (8 hours)
Hydraulic and Pneumatic Drawings 186046 ($75.00) (8 hours)
Piping: Drawings, Materials, and Parts 186047 ($75.00) (8 hours)
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Welding Symbols 186048 ($75.00) (8 hours)
Sheet Metal Basics 186182 ($75.00) (8 hours)
Sketching 186050 ($75.00) (8 hours)
Reading Architects' Blueprints 1842A-C $225.00 30 hours
Nonmetallic Materials 186091 $75.00 3 hours
Plastics, Elastomers, and Composite Materials 186092 $75.00 3 hours
Wood Products 186093 $75.00 3 hours
Paints and Adhesives 186094 $75.00 3 hours
Properties of Materials 686005 $75.00 10 hours
Year 3:
Specification Writing 2175A $150.00 30 hours
Woodworking Hand Tools 186169 $75.00 10 hours
Woodworking Power Tools 186170 $75.00 10 hours
Carpentry 986M01 $1,150.00 90 hours
Applied Geometry 186085 $75.00 6 hours
Year 4:
Practical Trigonometry 186086 $75.00 6 hours
Principles of Mechanics, Part 1 286007 $75.00 10 hours
Principles of Mechanics, Part 2 286008 $75.00 10 hours
The Steel Square 1066A-B $150.00 20 hours
Operations Preliminary to Building 2190 $75.00 10 hours
Concrete Construction 4512A-B $150.00 20 hours
Plastering 2019 $75.00 10 hours
Millwork 2179 $75.00 10 hours
Sheet Metal Work 2176 $75.00 10 hours
Builders' Hardware 6421A-B $150.00 20 hours
Design of Steel Building Frames 5440A-C $225.00 30 hours
Estimated Total Curriculum Duration: 625 hours
Number of Exams: 84
Optional courses:
Masonry 986M02 $225.00 40 hours
Pipefitting Math 286M07 $325.00 20 hours
NFPA 13 – Installation of Sprinkler Systems 986M05 $575.00 100 hours
Introduction to Fire Protection Systems 987M07 $225.00 40 hours
Fire Alarm Systems 986M08 $400.00 25 hours
Introduction to Green Technology 986M09 $225.00 25 hours
Construction Materials and Methods 986M10 $275.00 20 hours
Statics/Strengths of Construction Materials 986M11 $225.00 20 hours
Building Systems 986M12 $225.00 25 hours
Codes and Specifications 986M13 $225.00 25 hours
Construction Estimates 986M14 $275.00 30 hours
Construction Planning and Control 986M15 $225.00 25 hours
Basic Surveying and Mapping 986M16 $325.00 45 hours
Insulate and Weatherize 986M17 $150.00 10 hours
Green Building Practices 986M18 $175.00 20 hours
Photovoltaic Systems 986M19 $225.00 20 hours
Reading Architectural Drawings 686E02 $325.00 30 hours
AutoCAD Applications for Construction 686E05 $375.00 35 hours
Plate Girders for Steel Buildings 5481 $75.00 10 hours
Erection of Steel Building Frames 5261 $75.00 10 hours
Steel Roof Trusses 5587A-C $225.00 10 hours
Structural Steel Drawing 5470A-C $225.00 75 hours
Reading Steel Structural Drawings 5471A-B $150.00 20 hours
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***SEE FULL COURSE DESCRIPTIONS BELOW
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Block X31 Basic Industrial Math
Duration: 30 hours (includes 6 tests)
What Students Learn: This module of six study units offers the trainee arithmetic and
basic mathematics, metric measurement, and calculator
fundamentals. The Metric System is an introductory unit
which includes metric conversions. Problem exercises and
examples in this module are presented in on-the-job scenarios
with applications drawn from the industrial context.
Special Notes: This updated course replaces lessons contained within
Practical Math and Measurements, Block X01. Each study
unit contains a progress examination.
Components: Addition and Subtraction (186303)
Multiplication and Division (186304)
Fractions, Percents, Proportions, and Angles (186305)
Metric System (186306)
Formulas (186307)
Introduction to Algebra (186308)
186303 Addition and Subtraction
Objectives: • Define the terms: whole number, numeral, digit,
decimal, place value, addend, sum, minuend,
subtrahend, and difference.
• Explain the significance of the digit zero in a number.
• Differentiate between concrete and abstract numbers.
• Properly prepare numbers for addition and subtraction.
• Perform addition and subtraction on numbers.
• How to check your answers to both addition and
subtraction problems.
• How to use a calculator to add and subtract numbers.
186304 Multiplication and Division
Objectives: • Define the terms: factor, multiplicand, multiplier, partial
product, dividend, divisor, quotient, and remainder.
• Recognize the various signs used for multiplication and
division.
• Properly prepare numbers for multiplication and
division.
• Perform multiplication and division on whole numbers
and decimals.
• How to check your answers to both multiplication and
division problems.
• How to find the average of a group of numbers.
• How to use a calculator to multiply and divide numbers.
186305 Fractions, Percents, Proportions, and Angles
Objectives: • Define the terms: fraction, proper fraction, improper
fraction, lowest common denominator, percent, ratio,
and proportion.
• How to add, subtract, multiply, and divide fractions and
decimals.
• How to change fractions to decimals and decimals to
fractions.
• Solve problems involving percent.
• How to use a protractor to measure angles.
• Lay out templates for checking angles.
• How to use a calculator to solve percent problems and
to convert fractions to decimals.
186306 Metric System
Objectives: • Name the base units most commonly used in the metric
system.
• Identify metric prefixes and their values.
• Apply conversion factors to increase or decrease metric
base units.
• Estimate lengths in metric units.
• Express temperature in degrees Celsius.
• Define the terms: mass, density, force, torque, and
pressure. Identify the metric units used to measure each
one.
• How to use a calculator to convert one metric unit to
another.
186307 Formulas
Objectives: • Explain the use of letters in formulas.
• Prepare and use formulas to solve problems.
• The use of formulas to calculate the perimeter of a
triangle and rectangle, distance, area of a triangle,
rectangle, and circle, volume of a pyramid, current in a
circuit, and volume of a sphere.
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• How to use a calculator to find square root and solve
formulas.
• Transform and solve an equation.
• Perform basic arithmetic operations with signed terms.
• Substitute given numerical values for letters in a
formula and find the unknown quantity.
186308 Introduction to Algebra
Objectives: • Define the terms: term, constant, coefficient, exponent,
monomial, trinomial, and polynomial.
• Identify and combine like terms in an expression.
• Multiply and divide terms containing exponents.
• Remove parentheses from an expression and simplify
the expression.
• Perform basic arithmetic operations with signed terms.
Block X32 Practical Measurements
Duration: 25 hours (includes 5 tests)
What Students Learn: The five lessons in this block present the trainee with a broad
overview of measurements found in an industrial setting. In
addition to the basic measurements of length, temperature,
energy, force, and power, the trainee will learn how materials
are measured and handled in bulk quantities. Fluid
measurements include the measuring of fluid flow, fluid
pressure, and fluid level. All lessons include the metric
conversions in addition to the English units.
Special Notes: This updated course replaces the X0105 to X0109 lessons
found in Practical Math and Measurements, Block X01. Each
study unit contains a progress examination.
Components: Linear and Distance Measurement (186125)
Bulk Measurement (186126)
Temperature Measurement (186127)
Energy, Force, and Power (186128)
Fluid Measurement (186129)
186125 Linear and Distance Measurement
Objectives: • Recognize the difference between English and metric
units of length.
• Find the perimeter of rectangular, square, or triangular
areas or objects, such as rooms or machine bases, after
measuring the sides.
• Calculate the circumference of circular objects like
pipes of tanks after measuring the diameter.
• Measure lengths with the aid of rigid and flexible rules,
thickness gauges and screw pitch gauges.
• Read a typical vernier scale and micrometer to take
precise measurements.
186126 Bulk Measurement
Objectives: • Measure an angle by degrees.
• Find the areas of rectangles, triangles, and circles.
• Find the volumes of prisms, cylinders, and cones.
• Find the weight of material stored in a container.
• Determine the amount of material that can be stored or
handled.
• Discuss the types and uses of conveyors and weighing
systems.
186127 Temperature Measurement
Objectives: • Change temperature units from one system to another.
• Discuss the use of the various types of thermometers.
• Select the type of thermometer to be used at certain
temperatures.
186128 Energy, Force, and Power
Objectives: • Distinguish between the concepts of energy, force, and
power.
• Explain what the term "work" means, and how it is
measured.
• Know by sight the basic machines, lever, inclined plane,
wedge, wheel and axle, and screw.
• Solve simple problems that involve levers, mechanical
advantage, and machine efficiency.
• List the forms of energy that have important industrial
applications, and the instruments used for measuring
energy.
186129 Fluid Measurement
Objectives:
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• Understand the properties of fluids.
• Determine the density, specific gravity, and viscosity of
fluids.
• Express pressure in three different units.
• Measure the pressure of fluids using manometers and
Bourdon tubs pressure gages.
• Measure the flow rate of fluids using different types of
flowmeters.
186001 Trades Safety: Getting Started
Duration: 5 hours (includes 1 test)
What Students Learn: Preview
A thorough knowledge of safe practices is an important part of
working in any industrial setting. Every industrial worker
should be familiar with accident prevention techniques, fire
safety mehods, and the use of personal protective equipment.
Injuries in the workplace cost many millions of dollars in
medical costs, lost wages, and production losses each year.
Many injuries can be prevented by understanding how
accidents and injuries can occur. This study unit is designed
to help trainees understand why safety is so important, and to
present students with information about safety that goes
beyond common sense.
Objectives
When a student completes this study unit, he and she will be
able to:
• Name the agencies that make and enforce safety
regulations and explain an employee’s responsibilities
under those regulations.
• List the physical hazards associated with chemicals and
describe how to avoid those hazards.
• Name several electrical shock hazards and the
techniques used to prevent shocks.
• List the steps in a lock-out / tag-out procedure.
• Explain the importance of machine guarding and name
several types of machine guards.
• Name the four classes of fire and how to extinguish
each of them.
• Describe the proper technique used to lift a heavy load.
• Explain how to avoid hand injuries when using hand
and power tools.
• List some of the hazards involved in welding and hot
cutting operations and how to prevent them.
• Explain how job analysis and the science of ergonomics
are used to improve the workplace.
• Explain the importance of personal protective
equipment and name several types of PPE.
Contents
Introduction; Safety Regulations; Key safety Issues;
Protecting Yourself and Your Co-workers.
186002 Working Safely with Chemicals
Duration: 5 hours (includes 1 test)
What Students Learn: Preview
This study unit deals with the safe use of chemicals in the
workplace. The two primary causes of chemical accidents are
the misuse of chemicals and the improper disposal of chemical
wastes. Understanding the hazards that chemicals can create
is the first step in protecting people from harm.
The main goal of this study unit is to provide students with
sound, practical knowledge about chemical use and disposal,
both in the workplace and at home. You will learn how to
recognize common chemical hazards and how to deal with
them. Trainees will learn how to perform a job analysis to
look for potential chemical dangers in your daily taks. Finally,
people will learn how to take precautions to avoid chemical
accidents and make all jobs as safe as possible.
Objectives
When a student completes this study unit, he and she will be
able to:
• Recognize the six different ways in which a chemical
can cause physical injury.
• Name the routes or paths of entry by which chemicals
can enter the body.
• Describe the types of injuries caused by chemicals.
• Identify potential chemical dangers in your workplace.
• Describe how to identify, store and label hazardous
chemicals.
• List several methods used to prevent chemical
accidents.
• Explain why proper training is important to chemical
handling.
• Describe the types of personal protective equipment
used and worn when handling chemicals.
• Explain the role of governmental agencies in enforcing
chemical regulations.
Contents
Introduction: Living with Chemicals; Chemical Injuries;
Accident Prevention; Handling Hazardous Wastes.
186003 Fire Safety
Duration: 5 hours (includes 1 test)
What Students Learn: Preview
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Fires are the most destructive and expensive of all accidents.
However, fires can be effectvely prevented through the
combined use of technology and common sense. By
understanding how fires get started and how to extinguish
them, students will have much of the knowledge needed to
protect people from fire. This study unit will introduce
trainees to the information you need to practice fire safety and
prevention in the workplace.
Objectives
When a student completes this study unit, he and she will be
able to:
• Describe the types of property losses and injuries
associated with fires.
• Explain how fires are ignited.
• Identify the four classes of fire.
• Describe the primary fire hazards found in the
workplace.
• Explain the various ways in which fires can be
prevented.
• Describe the operation of several different fixed fire
protection systems.
• Identify the proper type of portable fire extinguisher to
use on a fire.
• Describe the operation of several different types of fire
extinguishers.
• Explain how to defend yourself and others in a fire
situation.
• Describe how to safely evacuate a burning building.
Contents
Introduction to Fire; Fire Hazards in the Workplace;
Preventing Fires; Fixed Fire Protection Equipment;
Portable Fire Extinguishers; Fire Protection Techniques.
186006 Material Handling Safety
Duration: 5 hours (includes 1 test)
What Students Learn: Preview
This study unit introduces the safe techniques and work
practices commonly used when handling manufacturing and
industrial materials. Trainees will learn the procedures
necessary to avoid physical injury to yourself and those
working with you, for both manual handling methods and
mechanical handling methods. You will also learn procedures
that minimize damage to the materials being moved and to
facility property. Knowing the proper procedures will also
give you the insight to decide when mechanical handling is
necessary, or preferred, over traditional physical handling.
Objectives
When a student completes this study unit, he and she will be
able to:
• Recognize the hazards associated with handling
materials.
• Know the types of injuries that can be caused by these
hazards.
• Understand how to effectively use safe material
handling practices.
• Know how to avoid physical injury when handling
loads.
• Know and follow the rules for safe operation of
powered industrial material handling equipment.
• Understand and respect the limits and restrictions placed
on powered material handling mechanisms.
Contents
Introduction to Material Handling; Housekeeping and
Storage; Material Handling Equipment; Hoists and
Cranes.
186005 Electrical Safety for the Trades
Duration: 5 hours (includes 1 test)
What Students Learn: Preview
This study unit will introduce students to many workplace
situations that require you to work safely with electricity. You
will learn how and why electricity can be dangerous. Trainees
will also learn about various methods used for protection.
Safety begins with the careful installation of electrical
components by means of approved wiring methods. You
should use safety procedures and practices that insulate you
from electricity's power anytime you work with, or near,
electrical equipment and components.
Objectives
When a student completes this study unit, he and she will be
able to:
• Explain how electricity can harm you and your
property.
• Discuss the importance of properly using quality
electrical components.
• Follow the basic methods of protection when wiring
electrical installations.
• Tell why it is important to ground electrical equipment
and systems.
• Select the type of electrical equipment to use in a
hazardous location.
• List the safety practices required in an electrical work
area.
• Talk about the importance of a clear working space
around electrical equipment.
• Educate your own level of safety training to be sure it
matches the electrical work you are performing.
Contents
Introduction to Electrical Safety; Using Proper Materials
and Components; Equipment Grounding; Hazardous
Locations; Safe Working Clearances; Safety Practices.
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186034 Jobs, Companies, and the Economy: Basic Concepts for Employees
Duration: 5 hours (includes 1 test)
What Students Learn: • Recognition of how the economy affects the actions of
companies, employees, consumers, and investors.
• The concept of capitalism and the principles of supply
and demand.
• How government policies affect the amounts of saving,
spending, and investing by companies and individuals.
• Understand economic measuring tools such as the
inflation rate, the unemployment rate and Gross
Domestic Product (GDP).
• How labor is divided into three employment sectors and
how wages are set, including the influence of labor
unions and the benefits of a multi-functional workforce.
• Recognition of how both the employee and the company
must compete in an increasingly international
marketplace.
Special Notes: This updated course replaces How Our Economic System Works, study unit 6606, and Economics Today, study unit
186034.
186036 Quality Concepts: Tools and Applications
Duration: 5 hours (includes 1 test)
What Students Learn: • Describe how job roles change as a company evolves in
its quality consciousness.
• Explain several ways in which you can support TQM.
• Identify approaches, practices and skills associated with
positive organizational change.
• Differentiate between the "change process" at the
company level and the manufacturing processes that
require improvement.
• Describe major causes of process variation and give
examples of how they may affect you in your job.
• Explain why and how the reduction of variability is a
key factor in process improvement.
• Describe why and how quality and process
improvement depend on data-driven decision making.
• Identify seven quality tools and explain their uses.
Block X34 Hand and Power Tools
Duration: 70 hours (includes 12 tests)
Course Prerequisites: Electrical Wiring Practices (086E02)
Basic Industrial Math (Block X31)
Practical Measurements (Block X32)
Trades Safety: Getting Started (186001)
What Students Learn: In all industrial trades, a trainee will often have to several and
various tools to get the task done properly. This block
introduces commonly used hand and power tools. Safety is
stressed while the maintenance worker is learning what tools
to use, what tasks the tool can effectively accomplish, and
how to use the tools correctly.
Special Notes: This course replaces Hand and Power Tools, Block X24.
Each study unit contains a progress exam.
Components: Common Hand Tools, Part 1 (18164)
Common Hand Tools, Part 2 (186165)
Precision Measuring Instruments, Part 1 (186188)
Electric Drilling and Grinding Tools (186166)
Power Cutting Tools (186167) Pneumatic Hand Tools (186056)
Plumbing and Pipefitting Tools (286113)
Electricians' Tools (006026)
Tool Grinding and Sharpening (186057)
Woodworking Hand Tools (186169)
Woodworking Power Tools(186170)
Lifting Equipment (186168)
186164 Common Hand Tools, Part 1
Objectives: Preview
In the first part of a students introduction to hand tools, you'll
learn about various types of tools as well as how to use them
safely. You'll also learn how workpieces are held in place, the
manner in which workpieces are marked prior to actually
starting a given job, and how to make the most of a
workbench's many useful features.
Next, students will be introduced to a group of hand tools
which most technicians use on a daily basis -- wrenches,
pliers, screwdrivers, and hammers. Again, you'll learn the
correct ways to safely use and take care of these tools.
Equally important, students will learn how not to use these
tools and the results of their improper use.
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Objectives
When a student completes this study unit, he and she will be
able to:
• Identify common hand tools and their function.
• Explain how to safely use common hand tools.
• Maintain most types of hand tools.
• Describe the benefits of several special features
available for some hand tools.
Contents
Working with Hand Tools; Wrenches; Pliers;
Screwdrivers; Striking Tools; Tool Storage and
Benchwork.
186165 Common Hand Tools, Part 2
Objectives: Preview
In this study unit, we'll continue the discussion of hand tools
commonly used by technicians. While a broad range of
technicians use many of the tools discussed here, such as
chisels and punches, many others are more specialized and are
commonly used by maintenance and machine trades
technicians.
Students will learn how to choose the correct chisel or punch
for the job, how to care for it, and use it safely.
Next, you'll learn about the variety of different cutting tools
such as snips, knives, and hacksaws. Another important group
of tools is shaping tools, such as files. Students will learn the
different types of files, and again, how to care for them, and
use them safely.
Also discussed in this unit are various specialized maintenance
tools. These are tools used for specific types of maintenance
jobs such as pulling or prying objects from machines, safely
inspecting machines, and retrieving objects in areas that aren't
easily accessible to the technician.
Objectives
When a student completes this study unit, he and she will be
able to:
• Identify and use various chisels and punches safely.
• Use and care for cutting tools.
• Understand the need for specialized maintenance tools.
• Correctly use threading and other precision tools.
Contents
Struck Tools; Cutting Tools; Sheet Metal Tools; Shaping
Hand Tools; Hand Tools for Threading and other
Precision Work; Specialized Maintenance Hand Tools.
186188
Precision Measuring Instruments, Part 1
Objectives: Purpose and Language of Measurement; Scale Instruments
and Accessories; Vernier Caliper; Micrometers, Gages, and
Protractors.
186166 Electric Drilling and Grinding Tools
Objectives: Preview
The electric drill is one of the most widely used power tools.
It has many uses and is simple to operate. Electric drills can
be found in a variety of shapes and sizes, from a light
household duty to the heavy-duty industrial grade hand drill
and drill press. One variation of the electric drill is the
hammer drill or rotary hammer. The hammer drill is a tool
used for making holes in concrete and masonry.
Grinders are commonly used for shaping and finishing metal
and other materials. Hand grinders are available in sizes
ranging from those designed to do the intricate work of the die
grinder to that of the 7-inch heavy-duty disc grinder. Bench
grinders are standard equipment in most shops, ranging from a 6-inch bench model to the heavy-duty 12-inch pedestal
grinder.
Objectives
When a student completes this study unit, he and she will be
able to:
• Safely set up and operate a portable electric drill,
electric drill press, and electric hammer.
• Choose the proper drill bit for many drilling
applications.
• Set up and use a variety of hand and bench grinders.
• Safely use the proper grinder for various jobs.
• Follow the necessary steps for proper tool maintenance.
• Purchase the proper drilling tool for your application.
Contents
Electric Drills; Drill Presses; Drill Bits; Hammer Drills
and Rotary Hammers; Electric Grinders; Abrasives.
186167 Power Cutting Tools
Objectives: Preview
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Power cutting tools fall into two categories: portable and
stationary. Portable and stationary cutting tools perform many
similar operations, but portable tools, carried easily by hand,
are used most often at the job site. Stationary tools are used in
workshops and on plant tools. Stationary saws range in size
from small shop jigsaws to huge band saws used in paper mills
to saw large trees into lumber. This unit introduces students to
the most common portable power saws used in construction
and repair work, namely circular, saber, jig-, and reciprocating
saws, and the stationary cutting tools found in most
maintenance and fabrication shops.
Objectives
When a student completes this study unit, he and she will be
able to:
• Identify the most common portable and stationary
power saws.
• Identify the various parts of a saw and explain how
they work.
• Discuss the types of cuts made by each type of saw.
• Choose the most appropriate saw and blade for the type
of work being done.
• Recognize a portable circular saw, name its parts, and
(with practice) operate it safely.
• Select and (with practice) use the proper saw; saber
saw, portable band saw, reciprocating saw, cut-out saw,
cut-off saw, for a given application.
• Operate (with practice) the stationary circular, radial,
band and scroll saws safely.
• Observe the various safety precautions when using
power saws and stationary power tools.
Contents
Power Saw Safety; Portable Power Saws; Stationary
Circular Power Saws; Other Stationary Power Saws.
186056 Pneumatic Hand Tools
Objectives: Preview
Pneumatic tools are used in many areas of maintenance,
construction, and production work. These tools harness the
power of compressed air and convert this power to useful
work. Compressed air can be a very powerful energy source.
However, due to this power, you must be extremely careful
when using these tools.
Pneumatic tools are normally made much heavier than
standard-duty hand and power tools. You will notice this fact
as soon as you lift an impact wrench or framing nailer. The
cases of the tools are made intentionally heavy to contain the
stresses of the impact hammers or piston and to absorb the
normal day-to-day abuse that the tool takes. You have
probably seen someone remove a tire's lug nuts with a
pneumatic impact wrench. The operator picks up the wrench
and blasts off four or five bolts. Next, the wrench is dropped
the six inches or so to the floor while the operator's hands
move to quickly grab the wheel and rim. Come back to this
same shop a year later, and you will probably see the same
wrench being used after thousands of tires have come and
gone. The tool's case may be nicked and grooved, but if
properly cleaned and lubricated, the tool could last for many
thousand more tires.
This text discusses the selection, use and safe practices of
using different types of pneumatic tools.
Objectives
When a student completes this study unit, he and she will be
able to:
• Describe the various pneumatic tools used for plant
maintenance.
• Identify and describe the safe use of impact, cutting,
and grinding tools.
• Explain how pneumatic hammers, nailers, and staplers
are selected and used in a safe manner.
• Describe the use of pneumatic assembly tools such as
grinders, sanders, screwdrivers, and drills and how other
types of production tools are selected and used.
• Identify the proper procedures for pneumatic tool and
system care.
• Identify safe tool use procedures and how vibration and
excess noise can cause bodily injury.
Contents
Pneumatic Tools for Maintenance; Pneumatic Tools for
Construction; Pneumatic Tools for Production and
Assemble; Pneumatic Tool Care; Using Pneumatic
Tools Safely.
286113 Plumbing and Pipefitting Tools
Objectives: • Identify the various tools available for various tasks by
appearance.
• Demonstrate your knowledge of job safety and tool
safety.
• Identify the tools required to join and assemble pipes of
different material composition.
• Determine when and how to use pipe-joint assembly
tools.
• Identify the tools required to perform layout, cutting,
and boring tasks.
• Identify the tools needed for testing and maintaining
piping systems.
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• Determine when and how to use finishing, testing, and
maintenance tools for piping systems.
006026 Electricians' Tools
Objectives: Electricians' Equipment: Basic Hand Tools; Wire-Working
Tools; Conduit-Working Tools; Power Tools; Knowledge as a
Tool with Basic Introduction to the Metric System; Units of
Electricity; Static Electricity; Electric Current, Measuring
Instruments, and the Symbols and Terminology Used by
Electricians.
186057 Tool Grinding and Sharpening
Objectives: Preview
Trades people must keep their hand tools in good working
condition. They must follow a regular maintenance schedule
for servicing them. Tools with cutting edges must have the
edges sharpened. Other tools must be trued and shaped for
their special uses. Screwdrivers, chisels, punches, snips, and
twist drills are shaped or sharpened on a grinding machine.
Objectives
When a student completes this study unit, he and she will be
able to:
• Use a grinding machine, following all safety
procedures.
• Hone or whet tools with an oilstone.
• Explain the procedures for grinding metal stock.
• Compare the methods used in grinding screwdrivers,
snips, chisels, plane irons, and twist drills.
Contents
Tool Sharpening Equipment; Grinding and Sharpening
Procedures.
186169 Woodworking Hand Tools
Objectives: Preview
A person who does not really know the workings of industry
might think that hand tools are not used that much any more.
That is not so; in a maintenance job, trades people will use
hand tools to do many different tasks. Hand tools are
necessary for superior craftsmanship, and ideal for many
maintenance operations. With hand tools, you supply the
power and guide the tool.
This study unit focuses on the basic hand tools used when
working with wood. Which woodworking hand tool you use
will depend on the work you are doing. Often the same job
can be done equally well with different tools.
Objectives
When a student completes this study unit, he and she will be
able to:
• Distinguish between the types of hand saws and use
them correctly.
• Bore and drill holes in wood.
• Explain the differences between planes and use planes
effectively.
• Use abrasive tools correctly.
Contents
Layout Tools, Saws, and Hammers; Wood Boring and
Removal Tools.
186170 Woodworking Power Tools
Objectives: Preview
The correct use of routers, power planers, and sanders will be
important to trades people in your maintenance job. You will
cut contours and irregular shapes on both edges and surfaces
with the portable router; or you will plane doors, lumber, and
assembled work accurately with the portable power planer.
Trades people will also finish wood, metal, and plastic, and
prepare surfaces for painting with power sanders.
Objectives
When a student completes this study unit, he and she will be
able to:
• Operate (with practice) the portable router.
• Outline the procedures for using a portable power
planer.
• Recognize by sight the common stationary power
sanders and compare their operation.
• Choose the right portable sander for a given job, and
operate (with practice) the portable belt sander.
Contents
Routers; The Portable Power Planner; Power Sanders and
Sanding Operations.
186168 Lifting Equipment
Objectives: Preview
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12
Maintenance work involves hoisting or lifting and moving
machines, and other heavy loads. A new machine may have to
be moved in, and installed on its foundation; a broken machine
may have to be hoisted and taken to the maintenance area for
repair. For such work, trades people will need hoisting
equipment, plus certain accessories, such as rope and chain
slings. Therefore, it is important for trainees to be familiar
with the common types of hoisting equipment and slings.
In maintenance work, you will often have to remove parts,
such as gears and bearings, from an assembly. Pullers are
very useful tools for such purposes. The commonly used
pullers are of the jaw and push types.
Objectives
When a student completes this study unit, he and she will be
able to:
• Identify the many forms of jacks and hoists.
• Safely operate jacks and hoists.
• Understand the construction details of fiber ropes, wire
ropes, and chains.
• Properly use and maintain fiber-rope, wire-rope, and
chain slings.
• Properly use jaw and push pullers.
Contents
Jacks; Hoists; Fiber Ropes; Wire Ropes; Hoisting Chains;
Pullers.
286085 Preventive Maintenance
Duration: 5 hours (includes 1 test)
Course Prerequisites: Basic Industrial Math (Block X21)
Practical Measurements (Block X22)
Trades Safety: Getting Started (186001)
What Students Learn: Preview
The purpose of a preventive maintenance program is to locate
possible machine or equipment faults before the machine fails.
Objectives
When a student completes this study unit, he and she will be
able to:
• Describe the function of inspection and scheduled
maintenance as the basis of preventive maintenance.
• Explain why preventive maintenance is performed and
how it's scheduled.
• Identify those within industry who should be part of
preventive maintenance planning and execution.
• Discuss the causes, effects, and goals of a successful
preventive maintenance program.
• Explain how a computerized preventive maintenance
program can be developed and implemented.
Contents
Introduction To Preventive Maintenance; Why Perform
Preventive Maintenance?; Scheduling Preventive
Maintenance; PM Program Personnel; PM Program
Goals; Computerized PM Programs.
286086 Preventive Maintenance Techniques
Duration: 5 hours (includes 1 test)
Course Prerequisites: Basic Industrial Math (Block X21)
Practical Measurements (Block X22)
Trades Safety: Getting Started (186001)
What Students Learn: Preview
How to implement a preventive maintenance (PM) program is
just as important as the why and when of such a program. It
doesn't pay to create a well thought out and scheduled PM
program only to have the lubrication, inspection, or repair
tasks performed improperly. The objective of this unit is to
show you how to perform these tasks safely and properly.
This will include showing you typical PM tasks as they are
performed on common industrial equipment.
Objectives
When a student completes this study unit, he and she will be
able to:
• Explain how to inspect and properly maintain a belt,
chain, and gearbox power transmission system.
• Discuss why proper alignment is necessary when
operating a power transmission system.
• List the steps needed to properly maintain an AC or DC
motor.
• Explain how to perform a start-up or bump test of a
motor.
• Describe how to perform PM tasks on pneumatic
systems.
• Describe how to maintain both floor and elevated
conveyor systems.
• Identify the types of elevators and vertical lifts in your
plant and the proper PM procedures for this equipment.
• Explain how to maintain liquid and vacuum pump
systems.
• Describe how to perform a basic alignment of in-line
shafts.
• List the proper PM procedures for electronic controllers
and robot systems.
Contents
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PM Of Power Transmission Systems; PM Of Electric
Motors And Controllers; PM Of Pneumatic Systems;
PM Of Conveyors; PM Of Vertical Lifts; PM Of
Vacuum And Fluid Pumps; PM Of Electronic
Controllers; PM Of Robots.
Block X45 Reading Prints and Schematics
Duration: 96 hours (includes 12 tests)
Course Prerequisites: Basic Industrial Math (Block X31)
What Students Learn: This block introduces the trainee to the various types of prints,
drawings, and schematics used in an industrial environment.
The trainee will learn how to read and interpret the different
types of standard symbols and abbreviations found on these
drawings. This block will benefit trainees entering any
industrial trade. Each study unit contains a progress
examination.
Special Notes: This updated course replaces Reading prints and Schematics,
Block X25. Each study unit contains a progress examination.
Components: Introduction to Print Reading (186325)
Print Reading Symbols and Abbreviations (186326) Dimensioning and Tolerancing (186327)
Print Reading Applications (186328)
Building Drawings (186181)
Electrical Drawings and Circuits (186044)
Electronic Drawings (186045)
Hydraulic and Pneumatic Drawings (186046)
Piping: Drawings, Materials, and Parts (186047)
Welding Symbols (186048)
Sheet Metal Basics (186182)
Sketching (186050)
186325 Introduction to Print Reading What Students Learn: • Describe the basic format for conveying technical information in a drawing • Interpret the various drawing views used in technical drawings • Extract information from notes and title blocks • Recognize and interpret the different line types used in drawings • Understand the concept of drawing scale and how it affects information shown in the drawing • Identify various types of building, electrical, and mechanical drawings
________________________________________________________________________
186326 Print Reading Symbols and Abbreviations Course Prerequisite: Introduction to Print Reading (186325)
What Students Learn: • Recognize, understand, and interpret the most common abbreviations used on a wide range of drawing types used in construction and maintenance trades • Understand and interpret the various symbols and notations used on drawings for electrical, architectural, mechanical, welding, fluid power, and other types of applications • Explain how symbols are used to show standard materials, parts, and assemblies. __________________________________________________________________________
186327 Dimensioning and Tolerancing Course Prerequisite: Introduction to Print Reading (186325) Print Reading Symbols and Abbreviations (186326)
What Students Learn: • Recognize the international standards and conventions that apply to drawings • Explain how different numbering systems were developed and how they are applied to prints • Read and interpret various systems of dimensions and tolerances on drawings • Recognize and interpret common symbols and nomenclature used in geometric dimensioning and tolerancing (GD&T) systems _________________________________________________________________________
186328 Print Reading Applications Course Prerequisite: Introduction to Print Reading (186325) Print Reading Symbols and Abbreviations (186326) Dimensioning and Tolerancing (186327)
What Students Learn: • Work with standard drawing formats to obtain information such as part titles, part numbers, dimensional standards, revisions, and materials • Explain how various components shown on prints are connected or related to each other • Obtain information from a drawing about quantities, materials, assembly processes, or dimensions • Visualize the three-dimensional parts and assemblies represented by two-dimensional drawings • Effectively interpret electrical, architectural, mechanical, fluid power, and other types of prints.
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__________________________________________________________________________
186181 Building Drawings Course Prerequisite: Introduction to Print Reading (186325) Print Reading Symbols and Abbreviations (186326) Dimensioning and Tolerancing (186327)
What Students Learn: • Work with standard drawing formats to obtain information such as part titles, part numbers, dimensional standards, revisions, and materials • Explain how various components shown on prints are connected or related to each other • Obtain information from a drawing about quantities, materials, assembly processes, or dimensions • Visualize the three-dimensional parts and assemblies represented by two-dimensional drawings • Effectively interpret electrical, architectural, mechanical, fluid power, and other types of prints.
186044 Electrical Drawings and Circuits
Objectives: • Identify electrical construction drawings, schematics,
and wiring diagrams.
• Interpret various electrical symbols.
• Read standard abbreviations used in electrical diagrams.
• Tell if a diagram is a block diagram, a schematic
diagram, or a wiring diagram.
• Compare closed circuits, open circuits, grounded
circuits, and short circuits.
186045 Electronic Drawings
Objectives: • Identify and interpret the various electronics symbols
used on drawings.
• Identify and interpret the various types of drawings used
in the electronics field.
186046 Hydraulic and Pneumatic Drawings
Objectives: • Graphic symbols for lines, flows, and reservoirs.
• Pump and valve symbols.
• Fluid circuit and air circuit components.
• Graphical, circuit, cutaway, pictorial, and combined
diagrams.
186047 Piping: Drawings, Materials, and Parts
Objectives: • Define the term "piping drawings."
• Recognize plans, elevations, and sectional views.
• Identify a view by its placement on a drawing.
• List what working drawings include.
• Evaluate whether or not a freehand sketch serves its
intended purpose.
• Interpret the standard symbols and abbreviations and
"read" the color coding on piping in industrial and
power plants.
• Interpret dimensions marked on piping drawings.
186048 Welding Symbols
Objectives: • Identify by name the welding processes commonly used
in plant maintenance work.
• Name the best welding processes for a given welding
job.
• Identify by sight, the basic joint and groove designs
used in welding.
• Identify by sight the basic types of welds and describe
their uses.
• Interpret the weld symbols most often found in the
drawings used in plant maintenance work.
186182 Sheet Metal Basics
Objectives: • Identify sheet metal of known material and thickness by
page and weight.
• Figure allowances for bends, circumferences, seams,
locks, and edges.
• Know when and where to cut relief radi.
• Catalog and identify by sight the various seams, locks,
and edges.
• Name and describe the major tools and machines used
in sheet metal working.
• Explain how large fittings can be constructed.
• List the characteristics of PVC and PVF sheet and
laminates.
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15
186050 Sketching
Objectives: • Use the right techniques for sketching straight and
curved lines, and circles and arcs.
• Draw, with practice, multiview sketches of simple
objects that accurately show all the details of the
objects.
• Draw dimension sketches of simple machine parts with
enough detail that parts can be made.
• Draw, with practice, realistic sketches of objects that
have simple rectangular and circular shapes.
1842A-C Reading Architects' Blueprints
Duration: 30 hours (includes 3 tests)
What Students Learn: This text explains the use of drawings in representing
buildings and the relation between drawings, blueprints, and
specifications.
PART 1 (1842A). Blueprints; Drawings and Specifications;
Scale Detail; Use of the Scale; Indications of Materials; Parts
of Buildings; Steel Framing Plans; Drawings for Reinforced
Concrete; Frame Buildings; Doors and Windows.
PART 2 (1842B). Interior Woodwork; Stairs; Plumbing;
Heating; Drawing for a Residence.
PART 3 (1842C). Plans, Elevations, and Details; Drawings of
an Apartment Building.
Special Notes: Includes 5 blueprints.
186091 Nonmetallic Materials
Duration: 3 hours
Course Prerequisites: Basic Industrial Math (Block X21)
Practical Measurements (Block X22)
What Students Learn:
• Tell how temperature and pressure can change the
volume of a gas.
• Handle acids and alkalies safely.
• Discuss the uses of industrial chemicals and
gases.
• Select solders and lubricants.
• Recognize carbon in its various forms.
186092 Plastics, Elastomers, and Composite Materials
Duration: 3 hours
Course Prerequisites: Basic Industrial Math (Block X21)
Practical Measurements (Block X22)
What Students Learn:
• Understand the differences between thermoset
and thermoplastic polymers.
• Differentiate between plastic components.
• Identify elastomers and their special properties.
• Classify composite structures and recognize their
strengths and limitations.
• Understand how to cut, shape, and join plastics
and composites.
• Maximize the lifespan of polymer and composite
structures with proper maintenance
practices.
186093 Wood Products
Duration: 3 hours
Course Prerequisites: Basic Industrial Math (Block X21)
Practical Measurements (Block X22)
What Students Learn:
• Explain how wood and lumber are classified or
graded.
• Select a wood, by comparing ease of working or
forming.
• Describe the methods used in making
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composition board and plywood.
• Select the best type of wood fastener for a
specific use.
186094 Paints and Adhesives
Duration: 3 hours
Course Prerequisites: Basic Industrial Math (Block X21)
Practical Measurements (Block X22)
What Students Learn:
• •Understand the role that each type of ingredient
plays in determining the properties of a
specific paint and powder coating.
• Properly prepare surfaces for painting to
maximize the life and level of protection.
• Identify and use paintbrushes, rollers, spray, and
powder-coating equipment.
• Explain the differences between adhesive types
and select the best adhesive for a specific
task.
• Identify the hazards associated with the
application of coatings and adhesives.
685005 Properties of Materials
Duration: 10 hours (includes 1 test)
Course Prerequisites: Formulas (186012)
Practical Measurements (Block X22)
What Students Learn: Effects of Forces on Materials; Stress and Deformation;
Elastic Failure; Cohesive Properties of Solids; Heat and Cold
Treatment; Modulus of Elasticity; Temperature Stresses;
Structural Members; Tension Members; Shear; Connection of
Steel Members; Members Subjected to Compound Stress;
Beams; Columns; Shafts; Rope Drives; Properties of Metals,
Nonferrous Metal, and Alloys.
Special Notes: This updated course replaces course 5887.
2175A Specification Writing
Duration: 30 hours (includes 1 tests)
What Students Learn: Specifications and Other Contract Documents; Knowledge
Required for Writing Specifications; Specification Language;
Outline Specifications; Preliminary Writing Procedures;
Specifying Materials.
Special Notes: Includes drawings.
186169 Woodworking Hand Tools
Objectives: Preview
A person who does not really know the workings of industry
might think that hand tools are not used that much any more.
That is not so; in a maintenance job, trades people will use
hand tools to do many different tasks. Hand tools are
necessary for superior craftsmanship, and ideal for many
maintenance operations. With hand tools, you supply the
power and guide the tool.
This study unit focuses on the basic hand tools used when
working with wood. Which woodworking hand tool you use
will depend on the work you are doing. Often the same job can be done equally well with different tools.
Objectives
When a student completes this study unit, he and she will be
able to:
• Distinguish between the types of hand saws and use
them correctly.
• Bore and drill holes in wood.
• Explain the differences between planes and use planes
effectively.
• Use abrasive tools correctly.
Contents
Layout Tools, Saws, and Hammers; Wood Boring and
Removal Tools.
186170 Woodworking Power Tools
Objectives: Preview
©Sep-20 Education Direct, All Rights Reserved.
17
The correct use of routers, power planers, and sanders will be
important to trades people in your maintenance job. You will
cut contours and irregular shapes on both edges and surfaces
with the portable router; or you will plane doors, lumber, and
assembled work accurately with the portable power planer.
Trades people will also finish wood, metal, and plastic, and
prepare surfaces for painting with power sanders.
Objectives
When a student completes this study unit, he and she will be
able to:
• Operate (with practice) the portable router.
• Outline the procedures for using a portable power
planer.
• Recognize by sight the common stationary power
sanders and compare their operation.
• Choose the right portable sander for a given job, and
operate (with practice) the portable belt sander.
Contents
Routers; The Portable Power Planner; Power Sanders and
Sanding Operations.
__________________________________________________
________________________
986M01
Carpentry
Duration: 90 hours (includes 18 tests)
Course Prerequisites: Basic Industrial Math (Block X21)
Practical Measurements (Block X22)
What Students Learn: Part 1 (986M01A) General Carpentry, Part 1:
Lesson 1: Understanding Construction Drawings
Interpret Pictorial and Orthographic Drawings; Interpret
Schedules and Specifications on Building Drawings; Use an
Architect’s Scale; Understand Common Abbreviations and
Symbols on Building Drawings; Elevations, Plot and
Foundation Plans; Sections and Detail Drawings of Framing,
Footings, and Other Features.
Lesson 2: Building Codes and Building Layout
Reason for Zoning and Building Codes; Lay Out Level Points
for a Structure Using a Water Level; Using a Transit; Laser
Levels; Locating and Laying Out Foundations.
Lesson 3: Lumber, Building Materials, and Fasteners
Uses for Hardwoods and Softwoods; Moisture Content and
Lumber Defects; Sizing and Grading Lumber; Engineered
Wood Panels and Structural Members; Fasters and Adhesives.
Lesson 4: Carpentry Practical Exercise
Practical Problems and Examination Related to Interpreting a
Set of Working Drawings.
Part 2 (986M01B). General Carpentry, Part 2:
Lesson 5: Hand and Power Tools
Layout and Measurement Tools; Hand and Power Drills;
Cutting, Dismantling, and Fastening Tools; Power Tool
Safety; Routers and Sanders; Pneumatic Tools; Table and
Radial-Arm Saws; Miter Saws.
Lesson 6: Foundations and Concrete Work
Components of Concrete; How Concrete Cures; Building
Forms for Footings, Slabs, Sidewalks, and Driveways;
Concrete Wall Forms; Properly Pouring Concrete in Wall and
Other Forms.
Lesson 7: Carpentry Practical Exercise
Practical Problems and Examination Related to Woodworking
Tools and Concrete Work.
Part 3 (986M01C). Framing and Roofing:
Lesson 8: Floor Framing
Wall and Floor Framing Techniques and Styles; Girders and
Beams; Framing a Floor Opening; Installing Bridging;
Subfloors.
Lesson 9: Wall and Stair Framing
Sizing Interior and Exterior Wall Framing Members; Framing
Interior and Exterior Walls; Sheathing Exterior Walls; Light
Steel Framing Systems; Scaffolds, Jacks, and Brackets; Stair
Layout and Construction.
Lesson 10: Roof Styles, Framing, and Finishing
Roof Designs; Roof Framing Members; Laying Out a Gable,
Hip, Shed, and Intersecting Roof; Roof Sheathing; Cornices;
Estimating and Applying Roof-Finishing Materials.
Lesson 11: Carpentry Practical Exercise
Practical Problems and Examination Related to Framing and
Roofing.
Part 4 (986M01D). Exterior Work:
Lesson 12: Windows, Doors, and Insulation
Window Components, Selection, and Installation; Exterior
Door Components and Installation; Insulation Rating,
Selection, and Installation; Vapor Barriers; Ventilation in
Insulated Structures.
Lesson 13: Siding, Porches, and Decks
Siding for Residential Construction; Estimate and Install
Wood and Vinyl Siding; Installing Decks, Porches, Fences,
and Rail Systems.
Lesson 14: Carpentry Practical Exercise
Practical Problems and Examination Related to Exterior Finish
Work.
Part 5 (986M01E). Interior Finish Work:
Lesson 15: Drywall Techniques
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18
Types and Sizes of Drywall Panels; Applications for Various
Types; Estimating Material Requirements; Fasteners and
Compound; Cutting and Installing Drywall; Taping and
Finishing Joints; Sanding.
Lesson 16: Interior Finish
Interior Doors and Frames; Hanging Doors and Installing
Locksets; Interior Trim Installation Including Molding,
Casings, and Baseboards; Stair Finishing; Building Codes
Related to Finished Staircases.
Lesson 17: Finish Floors and Ceilings
Suspended Ceiling Options; Material Estimate and Layout for
Suspended Ceilings; Hardwood Flooring Selection and
Installation; Strip, Plank, and Parquet Flooring Installation;
Estimating Floor Materials; Installing Underlayment.
Lesson 18: Carpentry Practical Exercise
Practical Problems and Examination Related to Drywall and
Interior Finishing Materials and Techniques.
Special Notes:
• This course consists of three textbooks and five
supplemental study guides. If targeted training needs dictate
that only a portion of this course be studied, study guides
(Parts 2 through 5) can be purchased with or without the
textbook. The Part 1 study guide can only be purchased with a
textbook. Call Customer Support or your Training Consultant
for pricing and stock numbers if you wish to order study
guides with or without textbooks.
• This updated course replaces Carpentry (5602A-F).
186085 Applied Geometry
Duration: 6 hours
Course Prerequisites: Basic Industrial Math (Block X21)
Practical Measurements (Block X22)
What Students Learn: • Recognize characteristics of angles and closed plane
figures.
• Distinguish between common geometric solids.
• Apply the Pythagorean theorem.
• Calculate perimeters and areas of a polygon, circle, and
ellipse.
• Apply the formula for area and volume of geometric
solids.
186086 Practical Trigonometry
Duration:
6 hours
Course Prerequisites: Basic Industrial Math (Block X21)
Practical Measurements (Block X22)
What Students Learn: • Define trigonometric functions.
• Use trigonometric tables and apply interpolation.
• Solve right triangles.
• Apply the laws of sines and cosines in solving oblique
triangles.
286007 Principles of Mechanics, Part 1
Duration: 10 hours (includes 1 test)
Course Prerequisites: Basic Industrial Math (Block X21)
Practical Measurements (Block X22)
Practical Geometry and Trigonometry (5567)
What Students Learn: Matter and Energy; Scope of Mechanics; Forms of Matter;
Forms of Energy; Physical Properties of Bodies; Motion of
Bodies; Velocity; Acceleration and Retardation; Weight and
Mass; Work and Energy; Coordinate Systems; Precision in
Computations; Newton's Laws of Motion; Uniform Motion;
Variable Motion.
Special Notes: • This updated course replaces course 6426A.
• The entire course consists of study units 286007-
286008.
286008 Principles of Mechanics, Part 2
Duration: 10 hours (includes 1 test)
Course Prerequisites: Basic Industrial Math (Block X21)
Practical Measurements (Block X22)
Practical Geometry and Trigonometry (5567)
What Students Learn: Friction; Nature of Friction; Sliding Friction; Rolling Friction;
Machine Elements; Levers; Inclined Plane; Wedges and Screw
Threads; Wheel and Axle; Tackle; Pulleys; Gearing; Belts and
Chains; Simple Harmonic Motion Centrifugal Force.
Special Notes: • This updated course replaces course 6426B.
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19
• The entire course consists of study units 286007-
286008.
1066A-B The Steel Square
Duration: 20 hours (includes 2 tests)
What Students Learn: PART 1 (1066A). Description of the Square; Theory and
Application; Polygons, Circles, and Ellipses; The Gable Roof;
The Hip Roof.
PART 2 (1066B). The Equal-Pitch Intersecting Roof; The
Unequal-Pitch Intersecting Roof; Framing Tables;
Miscellaneous Applications.
2190 Operations Preliminary to Building
Duration: 10 hours (includes 1 test)
What Students Learn: The Earth's Materials; Examination of Soils; Soil Examination
by Seismic Analysis; Soil Density and Compaction; Treatment
of Soils; Bearing Capacity of Foundation Beds; Tests for
Bearing Capacity; Surveying and Clearing the Site; Staking
Out Excavations Without a Transit; Use of the Level and
Transit; Staking Out Excavations with a Transit.
4512A-B Concrete Construction
Duration: 20 hours (includes 2 tests)
What Students Learn: PART 1 (4512A). Materials; Proportions of Ingredients;
Forms of Concrete; Mixing and Conveying Concrete; Placing
and Finishing Concrete; Curing.
PART 2 (4512B). Concreting in Hot and Cold Weather;
Concrete Floors; Finishes for Formed Concrete; Special
Concretes; Tilt-Up Construction; Prestressed Concrete;
Testing Concrete; Concrete Problems.
2019 Plastering
Duration: 10 hours (includes 1 test)
What Students Learn: Composition, Use, and Characteristics of Plaster; Plaster
Bases; Furring and Lathing; Preparations for Plastering;
Application; Plaster Problems; Stucco.
2179 Millwork
Duration: 10 hours (includes 1 test)
What Students Learn: Scope and Materials; Glued Construction; Doors; Windows;
Cabinetwork; High-Pressure Laminates.
2176 Sheet Metal Work
Duration: 10 hours (includes 1 test)
Course Prerequisites: Basic Machining Skills (Block X08)
What Students Learn: Sheet Metal Fundamentals; Sheet Metal Types and
Applications; Construction Techniques; Soldering and
Painting; Publications.
6421A-B Builders' Hardware
Duration: 20 hours (includes 2 tests)
What Students Learn: PART 1 (6421A). Rough Hardware; Hinges; Locks; Other
Door Hardware.
PART 2 (6421B). Window and Transom Hardware; Cabinet
Hardware; Miscellaneous Hardware; Selecting and Specifying
Hardware.
5440A-C Design of Steel Building Frames
Duration: 30 hours (includes 3 tests)
Course Prerequisites: Plane Trigonometry (2309A-B)
Logarithms (5254)
What Students Learn:
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20
PART 1 (5440A). Materials Used in Building Frames; Classes
of Steel Used for Rolled Shapes; Conventional Symbols for
Connecting Devices; Investigation and Design of Tension
Members; Eccentric Loads on Connections; Investigation and
Design of Riveted or Bolted Connections; Investigation and
Design of Welded Connections.
PART 2 (5440B). Properties of Standard Rolled Shapes;
Kinds of Possible Failures of Steel Beams; Allowable Stresses
in Beams; Actual Stresses and Deflections in Beams;
Investigation and Design of Beams; Design of Framed
Connections; Design of Stiffened or Unstiffened Seated
Connections; Design of Riveted or Bolted Semirigid
Connections; Design of Welded Semirigid Connections.
PART 3 (5440C). Design of Composite Construction with
Steel Beams and Concrete Slabs; Factors Affecting the
Strength of Columns; Design of Axially Loaded or
Eccentrically Loaded Columns; Use of AISC Tables for
Column Design; Design of Riveted or Bolted Column Splices;
Design of Welded Column Splices; Shop-Welded and Field-
Bolted Column Splices.
OPTIONAL COURSES:
986M02
Masonry
Duration: 40 hours (includes 8 tests)
Course Prerequisites:
Basic Industrial Math (Block X21)
Practical Measurements (Block X22)
What Students Learn:
Lesson 1 – Safety Practices, Equipment, and Basic
Tool SkillsSelect and use proper clothing and
PPE; Safe lifting; Safely use masonry tools and
power equipment; Read and interpret mason’s scale;
Cut and lay brick; Use lasers.Lesson 2 –
Development & Manufacture of Brick & Concrete
Block Processes and kilns used to make bricks;
Aggregate options in concrete block; Identify shape,
size and types of common concrete block and
brick.Lesson 3 – Mortar, Bricklaying, and
BondingCalculate mortar ingredients for specific
mixes; Install corner poles and set trig blocks; Lay
bricks to a line with proper spacing; Make inside
and outside corners; Water and lime content in
mortar; Preventing efflorescence; Brick positions
and their applications.Lesson 4 – Brick and Block
Practices, Part 1Make head joints and bed joints
for concrete block; Cut concrete block with a brick
set and hammer; Describe protection of block walls
from weather; Install wire reinforcement in bed
joints; Apply rules for bonding brick and block;
Estimate brick, masonry cement, and sand for small
and average-sized jobs.Lesson 5 – Brick and
Block Practices, Part 2Describe the different
methods of bonding walls with brick headers and
metal wall ties; Recognize different techniques in
building a cavity wall; Understand how lintels are
installed in masonry; Construct a pier or pilaster;
Discuss various factors that cause cracks in a
masonry wall; Demonstrate how expansion joints
are installed; Set an anchor bolt to receive a wood
plate or steel beam; List the principal types of glass
block and demonstrate installation.Lesson 6 –
Scaffolding and Cleaning MasonryErect a section
of tubular sectional scaffold; Discuss the advantages
of adjustable and mast platform; Explain how and
when to use suspended scaffolding; Demonstrate
how a steel sectional scaffold is built; List methods
and materials used to clean and maintain concrete
block; Select the proper treatment for removing
specific stains.Lesson 7 – Chimneys, Fireplaces,
and ArchesDescribe the various components of a
chimney; List the steps involved in the installation
of a woodburning stove; Differentiate between
Franklin and Rumford fireplace designs; Determine
which flue size should be used for a fireplace;
Recognize the different types of multiple- opening
fireplaces; Describe the major types of masonry
arches used today; Construct a wooden arch form
for semicircular arch; Name and install the two
types of jack arches.Lesson 8 – Concrete Work,
Construction DrawingsSize and plan for the
installation of a footing; Describe the process for
pouring and curing a footing; Understand how
concrete is made and how the curing process works;
Explain how to build forms for simple footings and
flatwork; Prepare a sight for footing and flatwork;
Describe how to finish concrete flatwork; Interpret
drawings that relate to masonry work.
Special Note:
©Sep-20 Education Direct, All Rights Reserved.
21
• This course consists of three textbooks and five
supplemental study guides. If targeted training
needs dictate that only a portion of this course be
studied, study guides (Parts 2 through 5) can be
purchased with or without the textbook. The Part 1
study guide can only be purchased with a textbook.
Call Customer Support or your Training Consultant
for pricing and stock numbers if you wish to order
study guides with or without textbooks.
• This course consists of a textbook and
supplemental study guide.
_________________________________________
286M07
Pipefitting Math
Duration: 20 hours (includes 3 tests)
Course Prerequisites:
Basic Industrial Math (Block X21)
Practical Measurements (Block X22)
What Students Learn:
Lesson 1 – Pipe-Length Calculations, Part 1Make
accurate linear and angular measurements;
Formulas for solving plumbing problems; Solve for
pipe length, weight, clearances, and fitting
allowances; Work with offsets, diagonal, rise, and
run dimensions; Calculate lengths when 45-degree
fittings are used.Lesson 2 – Pipe-Length
Calculations, Part 2Combine angular fittings to
produce the desired result; Make pipe- bending
calculations; Determine offset, rise, and run given
the length of a diagonal; Layout waste-and-vent
loops; Work with jumper offset patterns, parallel
offsets, and flanged fittings; Make accurate miter
cuts. Lesson 3 – Plumbing Math for Heating
ApplicationsLayout sheet metal pans; Find
volume; Calculate pipe-carrying capacities; Unit-
flow method of sizing pipes; Determining required
radiator size; Estimating heat loss..
Special Note:
• This course consists of a textbook and
supplemental study guide.
_________________________________________
986M05
NFPA 13 – Installation of Sprinkler Systems
Duration: 100 hours (includes 10 exams)
Course Prerequisites:
Basic Industrial Math (Block X21)Practical
Measurements (Block X22)Introduction to the
Sprinkler Fitter Trade (986132)Introduction to
the Fire Protection Systems (986M07)
What Students Learn:Part 1 (986907) NFPA
13 – Installation of Sprinkler Systems, Part 1
Lesson 1: (986702) Introduction to Automatic
Sprinkler Systems Minimum requirements for the
design and installation of automatic fire sprinkler
systems; Units of measurement and schematic
symbols associated with fire sprinkler systems;
NFPA codebooks deal with fire suppression;
Occupancy hazards and stored commodities
classification as the basis for designing and
installing sprinkler systemsLesson 2: (986703)
System Hardware and General Requirements
Features and restrictions of materials and
components that are approved for use in a sprinkler
system; Interpretation of sprinkler-head
identification markings and color coding in
determining the type of head, discharge rate, and
temperature characteristics; Suitable aboveground
piping for a project and interpretation of the
codebook’s specifications of piping materials;
Welding, soldering, and other approved installation
and joining procedures; System valves, fire
department connections, and alarm
devicesLesson 3: (986704) Installation
Requirements, Part 1Location and positioning
guidelines for sprinkler-system components; how
building construction style effects sprinkler
operation; Using NFPA 13 to determine required
coverage areas within a structure; Sprinkler types
©Sep-20 Education Direct, All Rights Reserved.
22
for specific applications; Position, location, spacing,
and type of sprinkler heads; Sprinkler obstructions
Lesson 4: (986705) Installation Requirements, Part
2Design requirements for systems incorporating
CMSA and ESFR sprinklers; Requirements for in-
rack sprinklers;- Explain how pilot line detectors
operate; Installation of piping, control devices, and
their appurtenances; Supplemental alarm devices
associated with various types of sprinkler systems;
Testing and maintaining sprinkler systems and
interpret standards for the design and installation of
fire-department connectionsLesson 5: (986706)
Supporting Piping and Underground PipingPipe
hangers and associated hardware; Structural issues
related to the installation of fire protection piping
systems; Protection from earthquake damage and
performing seismic bracing calculations; Designing,
building, and testing underground piping
systemsPart 2 (986908) NFPA 13 – Installation
of Sprinkler Systems, Part 2 Lesson 6: (986707)
Basic System Design and Protecting Storage
Facilities Making water supply requirements that
meet expected sprinkler-system discharge volume,
hose stream allowance and water supply duration;
Apply the density/area design approach to
determine sprinkler system water demand; Special
design criteria for the protection all classes and
groups of storage occupancies including stored
plastic and rubber commoditiesLesson 7:
(986708) Specialized Sprinkler System
Applications, Part 1 Protection of Class I through
Class IV commodities stored on racks; Interpret flue
space requirements for storage applications; Using
NFPA 13 to determine depth and height
requirements for rack storage configurations;
Methods for rubber tire stowage and protection of
roll paper storageLesson 8: (986709) Specialized
Sprinkler System Applications, Part 2 Sprinkler
system design techniques for protecting specific
storage arrays, retail stores, baled cotton storage;
Design criteria for sprinkler protection of carton
records and commodities consisting of paper files,
magazines, books, and similar documents;
flammable and combustible liquids, aerosol
products, and compressed gases; Design standards
for incinerators, waste and linen handling systems,
ovens and furnaces, hyperbaric chambers, motion
picture and television production facilities, and
water cooling towers, and other specific
applicationsLesson 9: (986710) Sprinkler System
Calculations AHJ requirements for compliance with
all NFPA 13 conditions; Preliminary and working
Plans, conveying information to the system
installers to ensure correct installation; NFPA 13
procedures to perform hydraulic calculations; Pipe
schedule approach workings and
limitationsLesson 10: (986711) System
Acceptance RequirementsMinimum water supply
requirements for sprinkler systems and critical
maintenance issues; sources of water available and
how to connect them to a sprinkler system; sprinkler
system ancillary devices such as pumps and water
tanks; System testing procedures and the
requirements of total system acceptance; Sprinklers
installed in marine applications.
Special Note:
This course consists of the NFPA 13 code book and
two supplemental study guides.
_________________________________________
_________________________________________
986M08
Fire Alarm Systems–NFPA 72
Duration: 25 hours
Course Prerequisites:
Basic Industrial Math (Block X21)
Practical Measurements (Block X22)
What Students Learn:
The information contained in this codebook will
provide you with a solid foundation in all
authorized and acceptable forms of fire alarm
systems, equipment, installations, and governing
authorities. This course is based on Fire Alarm and
Signaling Code, NFPA 72 published by the
National Fire Protection Association.
©Sep-20 Education Direct, All Rights Reserved.
23
• Identify and classify the initiation devices,
notification appliances, and control-panel
functions that make up all fire-alarm
systems.
• NFPA 72 codebook definition of terms related to
the fire-alarm industry.
• Correct placement and installation methods for
initiation devices and notification
appliances.
• Codebook references related to control panel
functions including those that effect
equipment that’s part of the fire alarm-
system or not.
• Explanation of forms similar to the Record of
Completion included in the codebook.
• Protected-premises and residential fire-alarm
systems.
Special Note: • This course consists of the
NFPA 72 code book and a supplemental study
guide.
________________________________________
986M09
Introduction to Construction Technology
Duration: 25 hours (includes 5 tests)
What Students Learn:
Lesson 1—Heavy Construction, Part 1
Explain how the various parties involved in modern
construction projects interact; Name the
components of soil and describe their
characteristics; Calculate soil volumes and
recognize how those volumes change during the
construction process; Identify the different
machines used in earthmoving and which
equipment is chosen for a particular task; Calculate
the earthmoving capacity of various machines and
explain how soil conditions affect their
productivity; Explain the reasons for soil
compaction and identify the methods and equipment
employed to achieve it.
Lesson 2— Heavy Construction, Part 2• Explain
how drilling, blasting, and ripping techniques are
employed
during the excavation process; Select the best rock-
excavation technique for a given application;
Describe how concrete and asphalt are made and
identify characteristics of specific types based on
industry-established designations; Understand the
paving process and the function served by the
various equipment employed; Plan for and size
water-pumping systems to accommodate the
specific needs of an application; Size the
compressed-air system to meet the needs of a
specific project.
Lesson 3—Foundations and Wooden Structures•
Understand the characteristics of different types of
foundation
systems; Describe how spread footings, piles, and
piers are installed; Explain how to maintain stable
excavation sites and protect workers in and around
them; Develop plans for removing water from
excavation sites; Interpret industry-established
designations to identify the properties of wood
products; Describe conventional and timber frame
construction methods; Recognize the impact of
fasteners, alterations, and other connecting
techniques on the performance of wood frame
structures.
Lesson 4—Construction Methods in Concrete,
Masonry, and Steel• Describe the concrete
construction process and define related terms
such as consolidation, screeding, and dewatering;
Explain the advantages and disadvantages of precast
and cast-in-place concrete construction techniques;
Calculate the minimum coverage of concrete over
reinforcement; Identify reinforcing-bar ratings by
interpreting the stamped labels; Identify the
principal pattern bonds used in masonry walls;
Describe the masonry construction process, and
define related terms such as header, stretcher,
©Sep-20 Education Direct, All Rights Reserved.
24
course, and wythe; Calculate the number of
common bricks required to construct a wall;
Explain the techniques used to test the quality of
welds; Understand terms related to load
classifications, including live, dead, lateral, and
design; Evaluate labeling to determine the grade
and strength of bolts and nuts.
Lesson 5—Construction Management• Identify
different scheduling methods common to the
construction
industry and describe the strengths and weaknesses
of each; Describe the process managers employ to
correctly size a construction workforce; Chart both
early-start and late-start activity networks for a
sample project; Analyze equipment costs; Explain
how equipment is depreciated using the double-
declining depreciation method; Work with simple
construction contract documents; Provide examples
of unsafe work practices that may result in OSHA
fines; Recognize how the worksite environment
affects health and productivity; Describe the role
that computers play in improving productivity.
Special Note:
• This course consists of a textbook, a supplemental
study guide, and a study unit.
________________________________________
986M10
Construction Materials and Methods
Duration: 20 hours (includes 4 tests)
What Students Learn:
Lesson 1—Introduction to Construction Materials
and Methods • Describe the characteristics of a
building material in terms of ductility, malleability,
brittleness, and toughness; Explain the
difference between elasticity and plasticity; Name
the individuals or groups with an interest and role in
a construction project; Chart the flow of production
of mined aggregate from quarry to distribution;
Calculate the quantity (by weight) of an aggregate
needed to fill a given volume; Compare the
properties of compressed aggregates with
uncompressed aggregates; Explain the process of
aggregate gradation.
Lesson 2—Working with Asphalt, Iron, and
Steel• Describe the methods of joining steel
framing members; Compare the physical properties
of iron and steel; Differentiate between hot, warm,
and cold asphalt pavement mixes; Explain the
process of iron production and the roles played by
limestone and coke; Name common uses of cast
iron in construction; Identify the main equipment
used in hot-mix asphalt paving; Describe the
benefits of asphalt paving compared to other forms.
Lesson 3—Portland Cement and Concrete•
Explain the difference between tensile and
compressive strength;
Define the role of aggregates in concrete design;
Name and explain the purpose of each raw material
required to produce Portland cement; Explain the
process of hydration; Calculate the number of cubic
yards of concrete required to fill a form; Predict the
degrading effects of common chemical contact with
concrete; Explain how to investigate the causes for
concrete failure and whether they’re installation or
manufacturing related; Explain the process for
determining the consistency of concrete mixes.
Lesson 4—Working with Wood and Masonry
• Describe and differentiate the manufacturing
processes of bricks and concrete masonry units;
Explain the differences between common and
modular brick; Name the components of mortar;
Explain how efflorescence occurs and how it affects
masonry; Calculate the number of blocks or bricks
required to build a wall with given dimensions;
Define the terms bond, wythe, and course as they
apply to masonry construction.
Special Note:
• This course consists of a textbook, a supplemental
study guide, and a study unit.
©Sep-20 Education Direct, All Rights Reserved.
25
__________________
986M11
Statics/Strengths of Construction Materials
Duration: 20 hours (includes 4 tests)
Course Prerequisites:
Basic Industrial Math (Block X21)
Practical Measurements (Block X22)
What Students Learn:
Lesson 1—Introduction to Statics• Draw free
body diagrams indicating the magnitude and
direction of
forces; Determine the resultant force of concurrent
force systems; Identify types of structural
connections and the types of loads they carry;
Analyze beam reactions.
Lesson 2—Stress and Strain• Evaluate how loads
act on links; Identify different types of trusses
based on the structural function they serve; Analyze
the loads on trusses; Characterize types of stress
including tension, compression, shear, and bending;
Describe the relationship between stress, strain, and
modulus of elasticity.
Lesson 3—Properties of Loads and Cross
Sections• Represent loads, including shear and
moments, on a load diagram;
Define the terms centroid and moment of inertia and
explain why they’re useful; Locate the centroid of
various two-dimensional objects; Calculate the
moment of inertia for various cross sectional
shapes.
Lesson 4—Beams, Columns, and Load Systems•
Evaluate beam loading and cross sections to
determine shear and
bending stress; Determine beam deflection based on
loading and cross-sectional area; Describe and
calculate the lateral deflection in a beam; Analyze
loads and resulting stresses in columns; Analyze
loads and resulting stresses in structural systems.
Special Note:
• This course consists of a textbook, a supplemental
study guide, and a study unit.
________________________________________
986M12
Building Systems
Duration: 25 hours
What Students Learn:
Lesson 1—HVAC Systems, Part 1• Understand
how a building is supplied with the energy;
Required for
mechanical and electrical systems; Describe how
the mechanical and electrical (M/E) systems affect
the design of buildings; Understand the importance
of basic commissioning and the tools for evaluating
options by economics and quality; Explain design
principles for cooling and heating production and
the importance of air handling; Calculate heating
and cooling loads; Describe commonly used
systems for zone control.
Lesson 2— HVAC Systems, Part 2
• Understand refrigeration cycles and how interior
spaces are cooled; Identify the basic principles used
for chilled-water plant design; Explain the various
types of heating systems and related energy sources;
Recognize the importance of operating and safety
controls associated with all heating equipment;
Understand how air-handling systems deliver
heating or cooling to desired spaces; Describe the
general guidelines for duct system design.
Lesson 3—Plumbing and Fire Protection
Systems• Explain how piping systems convey
heating or cooling; Identify the
©Sep-20 Education Direct, All Rights Reserved.
26
different materials used for fluid piping systems,
their accessories, and pipe-sizing criteria; Describe
the operating principles of water supply and
treatment systems, domestic water distribution
systems, and related load calculations; Interpret the
design of plumbing facilities for buildings and
describe typical fixtures and components;
Identify the classifications of fire and construction
hazards and how they affect planning a fire
protection system; Understand the design of a fire
alarm system, recognize different detection and
signaling devices, and describe various suppression
and sprinkler systems.
Lesson 4—Electrical, Communication, and Security
Systems• Describe the fundamental properties of
electricity and use associated
formulas; Explain the operating principles of
various types of building power distribution
systems; Understand the importance of properly
grounding electrical systems; Distinguish between
various emergency power systems; Describe the
characteristics of telecommunication and other low-
voltage systems, their basic components, and wiring
requirements; List the five basic steps in electrical
system design.
Lesson 5—Lighting Systems• Explain the
physics of light and the basic characteristics of
color;
Identify various electrical light sources and the
factors to consider when selecting lighting
equipment; Work with the forms, charts, and related
calculations that describe the quantity and quality of
illumination; Apply the zonal cavity method and
understand its applications and limitations; Describe
the benefits of using lighting- related computer-
aided design and calculation software.
Lesson 6—Advanced Building Systems•
Interpret a lighting design, judging how it relates to
visual comfort,
architectural needs, color, and interaction with
interior design; Read lighting design documentation
such as construction drawings and specifications;
List the factors to consider in designing lighting for
exterior applications; Identify problem areas in
buildings where acoustical concerns may require
special consideration; Understand how the many
mechanical and electrical systems and equipment in
commercial buildings are integrated through proper
planning and space allocation.
Special Note:
• This course consists of a textbook, a supplemental
study guide, and a study unit.
_________________________________________
986M13
Codes and Specifications
Duration: 25 hours (includes 5 tests)
What Students Learn:
Lesson 1—The International Building Code, Part
1• List some basic facts about the origins and
evolution of building codes; Describe the basic
structure of the International Building Code (IBC),
its intent, and the basics of code interpretation; List
the 10 occupancy groups and explain the
importance of these groups to the structure and
interpretation of the IBC; Summarize the
application of additional code provisions required
for buildings that have special uses.
Lesson 2—The International Building Code, Part
2• Use the IBC to determine the allowable
heights and areas for a given
occupancy classification; Apply exceptions and
modifications to heights and areas as allowed by
use, occupancy, and special provisions; List and
define the five categories of building construction
classifications as defined by the IBC; Classify the
subcategories of the construction classifications
used for fire resistance of building materials and the
application of fire protection systems; Describe the
difference between passive and active fire
protection systems; Describe the structural
components and fire-resistance ratings required in
fire-resistive construction; Characterize the
©Sep-20 Education Direct, All Rights Reserved.
27
importance of the classifications applied to interior
finishes in regard to flame spread and smoke
generation.
Lesson 3—The International Building Code, Part
3• Recognize the differences between various
NFPA sprinkler systems
and use the IBC to determine the proper system for
a given application; Identify the common
classifications of fire extinguishers and describe
their application requirements for buildings with
and without sprinkler systems; Identify the common
types of fire alarms and fire-detection systems, and
use the IBC to determine the proper device based on
building classification; Explain the concept of
means of egress as it applies to building codes and
the related concepts of components such as flow,
alternative paths, protection, and the elements of
exit; Use the IBC to determine egress and exit-
access requirements; Recognize the importance of
consulting federal, state, and local criteria when
reviewing design requirements for accessibility;
Use the IBC in conjunction with ADA Accessibility
Guidelines (ADAAG) and reference standard ICC
117.1 to assure compliance for accessibility;
Recognize the requirements to modify existing
buildings for accessibility during maintenance and
remodeling; Use the IBC to properly address
interior environmental considerations such as
ventilation, lighting, sound, minimum interior
space, and access to unoccupied space.
Lesson 4—The International Building Code, Part
4• Explain the use of companion codes such as
the International Energy
Conservation Code (IECC) and how companion
codes interact with the IBC; List and understand the
various energy compliance calculations of the
IECC; Use the IBC to design and construct
compliant exterior walls having proper structural
integrity and weather/moisture control; Use the IBC
to design and construct compliant roofs and rooftop
structure; List and define terms related to essential
structural design elements to better understand their
application to the IBC; List and describe the four
occupancy categories; Use the IBC to design and
construct compliant structures that compensate for
various combinations of loads.
Lesson 5—The International Building Code, Part 5
•
Identify the requirements for special inspections,
construction elements, and levels of inspection
required; Use the IBC to design and construct
compliant foundation systems; Describe the need
for soil investigation and the construction elements
required to compensate for varying soil stability and
bearing capacity; Explain how structural design
requirements for common building materials are
defined in the IBC; List the building systems that
are dependent on codes other than the IBC and
describe the related IBC requirements for these
systems; Define the various terms applicable to the
design requirements for work performed on existing
structures.
Special Note:
• This course consists of a textbook, a supplemental
study guide, and a study unit.
_________________________________________
986M14
Construction Estimating
Duration: 30 hours (includes 5 tests)
What Students Learn:
Lesson 1—Introduction to Construction Estimating
Using Excel® • Explain how estimating affects the
bottom line of a successful
business; List the tools used during the estimating
process; Describe the four main stages of the
estimating process; Describe the
Building Trades
components included in a bid package, and list the
steps required to complete one; Explain how to
perform basic calculations using the Excel®
software, including managing and testing
worksheets; Describe the importance of estimating
waste; Prepare a basic quantity takeoff; Explain
©Sep-20 Education Direct, All Rights Reserved.
28
how to develop a basic work package; List the basic
methods used to determine the quantities for
counted items.
Lesson 2—The Quantity Takeoff, Construction
Materials, and Systems • Calculate the area of a
roof plane, given the roof plan dimensions and
slope; Estimate the number of 4’ × 8’ sheathing
sheets required for a wall with a gable area;
Calculate the number of 12’ × 12’ sheets of soffit
material, given an overhang dimension; Explain
how product size availability affects waste factors;
Determine the number of hangers, fittings, and
valves required for a given run of piping; Define the
terms bank quantity and loose quantity as they
apply to soil states; Explain the importance of a soil
report; Describe a formula to calculate the weight
amount of asphalt needed for a given square foot
area; Explain how pipe beddings affect backfill
volumes.
Lesson 3—Putting Costs to the Estimate• Define
profit and overhead and explain why it’s an
estimating cost
variable; Explain the purpose of a performance
bond; List five payroll-related labor costs that add
to a base wage; Design a materials quote request for
a supplier; Design a quote request for a
subcontractor; Explain the observed affect of
overtime labor on productivity; Create a pricing
extension from gathered materials and labor
costing.
Lesson 4—Finalizing the Bid and Advanced
Estimating With Excel® • Design a bid checklist;
Draft a basic proposal for submitting an
estimate; Explain the relationships and
documentation involved in subcontracting; Create a
duration schedule based on estimating data; List the
basic provisions in the code of ethics for estimators;
Create an Excel® form based on an existing paper
form; Write a macro in Excel® to automate a data
entry task; Define the Excel® functions that produce
data validation; Plan and sketch a spreadsheet
design from scratch.
Lesson 5—Construction Estimating with Excel®
Project
Special Note:
• This course consists of a textbook and a
supplemental study guide. • This course requires
submittal of a project for grading in addition to
taking four exams.
_________________________________________
986M15
Construction Planning and Control
Duration: 25 hours (includes 4 tests)
What Students Learn:
Lesson 1—Introduction to Scheduling and
Precedence Diagrams• Describe bar charts and
list their advantages and disadvantages for
construction scheduling; Define the critical path
method (CPM) in terms of construction scheduling
and understand its importance as a schedule
modeling technique; Draw and understand the basic
elements of a network diagram; Sketch basic
precedence diagrams and understand the importance
of activity relationships to precedence diagrams;
Manually calculate the basic elements of activity
within a network model; Estimate activity durations
and related quantity take- off; Explain how to adjust
an estimate to accommodate for various scheduling
issues that occur over the duration of a project.
Lesson 2— Project Resources, Monitoring, and
Control• Evaluate the degree of risk associated
with various provisions of a
project’s contractual obligations; Apply concepts of
resource allocation and leveling to the construction
of project networks and schedules; Define cash flow
and understand its meaning in terms of successful
project scheduling; Understand the types of costs
associated with construction management and how
the scheduling process is affected by cost
management;Employ multiple techniques to
monitor and
©Sep-20 Education Direct, All Rights Reserved.
29
control project schedules.Lesson 3—Scheduling
Tools, Processes, and Consequences• List the
advantages and disadvantages of various types of
project-
scheduling software; Evaluate the features of
scheduling software to determine its applicability to
multiple types of contracting businesses and
projects; Explain how the earned-value concept is
useful in making an unbiased assessment of project
status; Understand and apply the available measures
to determine earned value; Analyze the association
between project costs, schedule, and quality; Apply
various principles to maintain schedule integrity
while minimizing adverse effects on productivity;
Understand the value of CPM schedules in dispute
resolution and litigation.
Lesson 4—Types of Schedules• Create short-
interval schedules to match a construction project;
Manage detailed project activities using short-
interval schedules; Define linear scheduling and list
the advantages and disadvantages for various types
of construction projects; Discuss the applicability of
PERT as an evaluation tool for most common
construction projects; Understand the process for
creating arrow diagrams and evaluate their
usefulness compared to other planning and
scheduling techniques.
Special Note:
• This course consists of a textbook and a
supplemental study guide.
• This course requires submittal of a project for
grading in addition to taking three exams.
_________________________________________
986M16
Basic Surveying and Mapping
Duration: 45 hours (includes 4 tests, 1 Project)
Course Prerequisites:
Basic Industrial Math (Block X21)Practical
Measurements (Block X22)Geometry and
Trigonometry (186085 and 086)What
Students Learn:Lesson 1 – Introduction to
Surveying and MeasurementBasic history of
surveying; Types of surveys and review of basic
surveying equipment; Principles of accuracy and
precision; Types and source of measurement error
and compensation; Basic elements of surveying
field notes; Review of manual measurement tools
and the process of taping; Practice in basic
trigonometry; Processes for corrections to distance
measurements.Lesson 2 – Leveling, Angles, and
Calculating Land AreaPrinciples, equipment, and
practices of leveling; Practices of differential
leveling and basics of level-rod usage; Corrections
and adjustments of level circuits; Practices and
principles of precision leveling; Azimuths, bearings,
and adjustments to compass surveys; Traverse
calculations; Total stations – equipment and
operations; Errors and corrections in angular
measurement; Calculating land area using a
traverse; Balancing errors; Applications of
rectangular coordinates; Trapezoidal rule,
Simpson’s one- third rule, and coordinate rule for
irregular areas; Software applications for surveying;
Basics of topographic maps and surveys.Lesson 3
– GPS, GIS, and Construction SurveyingBasic
theory and application of GPS systems; Errors and
corrections using GPS systems; HARN, CORS,
OPUS, and GPS receivers; GPS field applications;
GPS surveying planning and practice;
Understanding and applying GIS data and systems;
Software, hardware and data for GIS; GIS data
analysis; Work practices for construction surveying;
Construction surveying equipment and process;
Surveying for volume earthwork operations;
Borrow pits and cross sections.
Lesson 4 – Land Surveying Curves and Professional
Practices Requirements and applications of land
surveys; Land survey specialists; Resurveys; The
metes and bounds system; The Public Land Survey
System; Surveying for highways and railroads –
horizontal and vertical curve surveying; Roadway
crowns and superelevations; Licensure and
registration for surveyors; Surveying professional
practices and code of ethics.Lesson 5 – Surveying
Applications ProjectPractical applications of
surveying techniques including map development,
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filed note development, software utilization, and
exercises designed to develop careful evaluation
and correction of surveying data.
Special Note:
• This course consists of a textbook and
supplemental study guide.
__________________
986M17
Insulate and Weatherize
Duration: 10 hours (includes 2 tests)
What Students Learn:
Lesson 1—Controlling Energy Consumption in
Buildings, Part 1• Understand heat transfer;
Define the thermal boundary; Set priorities
for air sealing; Explain how to weatherstrip doors
and patches; Study ventilation systems; Describe
the process for insulating walls, floors, and attics;
Know when and how to replace windows.
Lesson 2—Controlling Energy Consumption in
Buildings, Part 2 • Describe the operating principles
of heat pumps and electric
resistance systems; Explain cooling basics;
Maintain and upgrade air conditioners; Evaluate
hot-water conservation; Judge the value of tankless
hot-water systems for a specific application; Plan
home renovation as a way to save energy; Build up
walls and roofs for better insulation; Select
appliances and light fixtures to cut energy use.
Special Note:
• This course consists of a textbook and a
supplemental study guide.
__________________
986M18
Green Building Practices
Duration: 20 hours (includes 4 tests) Course Prerequisite:
Industrial Plumbing and Pipefitting (Block D20)
What Students Learn:
Lesson 1—Introduction to Green Building
Practices• Describe what’s meant by the term
“green construction”; List benefits
and drawbacks of choosing green construction;
Understand the type of resources consumed during
and after the construction of a residence; Recognize
where and how energy is consumed and wasted in a
building.
Lesson 2—Structural Topics• Describe
techniques that reduce the amount of concrete used
in
residential foundations; Describe carpentry methods
that use less framing lumber; Identify alternative
materials used to frame a home; Understand the
connections between a building’s framing phase and
its insulation phase; Identify components of
windows and window construction types that
indicate how much heat they’ll lose.
Lesson 3—Green Building Systems
Identify the benefits of each plumbing material type
available; Decide where to locate and how to join
HVAC ductwork; Select heating and cooling
appliances that make the best use of locally
available fuels; Describe how and when solar
energy can help heat interior spaces and the home
water supply; Identify ways to reduce dependence
on electrical power generated by burning fossil
fuels.
Lesson 4—Advanced Green Building Topics•
Describe the level of detail to follow when
installing insulation;
Explain the differences between various foam
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31
insulation types; Identify instances where man-
made materials are greener than wood; Explain why
the materials from which furniture and finishes are
made affect indoor air quality weeks or months after
installation; Describe landscaping practices that
improve a building’s green characteristic.
Special Note:
• This course consists of a textbook and a
supplemental study guide.
__________________
986M19
Photovoltaic Systems
Duration: 20 hours (includes 4 tests)
Course Prerequisite:
Industrial Plumbing and Pipefitting (Block D20)
What Students Learn:
Lesson 1—Introduction to Photovoltaic Systems•
List advantages and disadvantages of various types
of PV systems;
Explain how solar radiation data is used to size and
estimate the performance of a PV system; Describe
the process of evaluating, planning, and installing
PV systems; Use formulas and data to assess
potential locations and determine the suitability of
PV array locations; Identify the purpose and
functions of the major components of PV systems.
Lesson 2—Photovoltaic System Components•
Use formulas to calculate various values of current,
voltage, and
power from given PV device current-voltage curve
characteristics; Identify parts of the current-voltage
characteristic curve and their values; Describe
battery charging and discharging characteristics;
Explain how to connect batteries into banks;
Describe the function and features of charge
controllers; Identify the basic types of inverters
used in PV systems; Identify features and functions
of maximum power point trackers (MPPT).
Lesson 3—Installing Photovoltaic Systems, Part
1• Calculate the PV system energy and power
requirements from a load
analysis; Given parameters, calculate the size and
configuration of a battery bank and an array;
Develop a plan for integrating arrays on buildings;
Identify the types of attachment methods available;
Identify electrical codes, regulations, and practices
applicable to PV systems; Calculate the voltage and
current limit on various circuits of a PV system;
Identify the applicable codes and standards for
utility interconnections and differentiate between
load-side and supply-side interconnections and
requirements.
Lesson 4—Installing Photovoltaic Systems, Part
2• Identify the common requirements for PV
system permit
applications; Describe the labeling requirements for
PV systems and components; List the steps
involved with commissioning a new PV system;
Outline the periodic maintenance requirements for
PV systems; Understand the definitions of life-cycle
cost analysis factors; Discuss the types of financial
incentives available to those who install PV
systems.
Special Note:
• This course consists of a textbook and a
supplemental study guide.
__________________________________________
686E02
Reading Architectural Drawings
Duration: 30 hours (includes 4 tests)
Course Prerequisites:
Formulas (186012)Practical Measurements
(Block X22)
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32
What Students Learn:
Lesson 1—Understanding Construction
Drawings• List the components found in a set of
construction drawings; Perform
basic arithmetic operations using fractions; Identify
common drawing components such as line types,
drawing symbols, and various fill patterns and
define their meanings ; Interpret drawings to
visualize orthographic objects and structures;
Accurately read and interpret dimensions on a print.
Lesson 2—Interpreting Construction Drawings, Part
1• Explain what information is found in
construction project specifications
and how this information is organized; Describe a
variety of materials used in the construction process
and how each is typically employed; Read plot
plans, identifying common features and reading
contour lines; Interpret foundation plans while
identifying the footing support system and
evaluating the placement of reinforcing
components; Read and interpret residential and
commercial framing drawings; Identify drawing
symbols that represent common construction
materials; Identify drawing symbols related to
concrete and steel building components.
Lesson 3— Interpreting Construction Drawings,
Part 2
• Recognize and interpret symbols and
abbreviations specific to building mechanical
systems; Follow the representation of mechanical
systems traveling from location to location;
Interpret specifics about electrical and plumbing
fixtures as noted in a schedule; Define the
relationship and importance of code enforcement
pertaining to mechanical systems; Identify the types
and sizes of common current conductors; Explain
the difference between a pipe and a conduit.
Lesson 4—Working with Construction
Drawings• Interpret residential and commercial
construction drawings to
determine detailed properties of the building’s
foundation, structure, and finish; Evaluate electrical
drawings to determine specific components
required; Interpret mechanical drawings to
determine specific requirements of HVAC and
plumbing components.
Special Notes:
• This new course replaces Reading Architect’s
Blueprints (1842A-C).
• This course requires submittal of a project for
grading in addition to taking three exams.
• This course consists of a textbook and a
supplemental study guide.
_________________________________________
686E05
AutoCAD® Applications for Construction
Duration: 35 hours (includes 5 tests)
Course Prerequisites: Formulas
(186012)Practical Measurements (Block X22)
What Students Learn: Lesson 1—
AutoCAD® Quick Review for Construction
Drawing
• Explain the need for sketching and manual
drawing practices in a digital-content
environment; Perform basic hand-sketching
techniques for floor plans and elevations using one-
point and two-point perspective; Explore the basic
features of the AutoCAD® user interface; Use
AutoCAD® to create the basic elements of a
drawing and modify those elements using the
software’s commands and features; Identify the
basic components of structural drawings and use
AutoCAD® to create those components. Lesson
2—Floor Plans, Sections, Interior/Exterior
Elevations• Generate a floor plan for your
residential project using AutoCAD®; Identify
AutoCAD® commands and methods used in floor
plan drawing; Generate exterior elevations for your
residential drawing; Identify AutoCAD® commands
and methods used to draw elevations; Create a wall
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33
section for your residential project; Generate
interior elevations for your residential drawing.
Lesson 3—Site Plans, Schedules, and
Lineweights• Use AutoCAD® to draw a site plan
based on site conditions from a survey; Draw a
building footprint, driveway, and walkways on a
site plan; Modify your site plan to add contour lines
showing finished grade and drainage; Use the
AutoCAD® Table feature to create schedules;
Explain lineweights and how to apply them to a
drawing; Describe the settings and techniques
required to prepare a drawing for plotting both as
individual sheets and using AutoCAD® Sheet Set
Manager. Lesson 4—Residential Drawing
Submission Lesson 5—Final Project Submission
Special Notes:
This course consists of a textbook and a
supplemental study guide.
This course requires submittal of two projects for
grading in addition to taking three exams.
_________________________________________
5481
Plate Girders for Steel Buildings
Duration: 10 hours (includes 1 test) Course Prerequisite:
Mechanics of Materials (5282A-C)
What Students Learn:
Parts of Plate Girders; Materials for Plates and
Welds; Investigation of Cross Section: Forces and
Stresses; Procedures in Investigation; Design of
Welded Plate Girder; Design of Web Plate; Design
of Flanges; Web Stiffeners; Connecting Welds;
Summary of Design; Box Girders and Hybrid
Girders.
__________________________________________
5261
Erection of Steel Building Frames
Duration: 10 hours (includes 1 test)
Design of Steel Building Frames (5440A-C)
What Students Learn:
Steel Erector; Estimating; Erection Plans; Shipment
of Steel; Unloading and Handling Steel; Ropes,
Slings and Blocks; Gin Poles and Pole Derricks;
Stiff Leg and Guy Derricks; Power Cranes; Erection
of Four Story Office Building; Selection of Hoisting
Equipment; Erection of Steel with Crawler Crane;
Plumbing Steel; Bolting; Riveting; Welding;
Painting; Errors; Steel Joists; Large Erection Jobs;
High Strength Bolts.
_________________________________________
5587A-C
Steel Roof Trusses
Duration: 30 hours (includes 3 tests)
Course Prerequisites:
Design of Steel Building Frames (5440A-C)
Geometrical Drawing (5544A-B)
What Students Learn:
Part 1 (5587A). General Features of Roof Trusses;
Forms of Roof Trusses; Loads on Roof Trusses;
Reactions at Truss Supports; Axial Forces on Truss
Members; Frame Diagrams; Force
Diagrams.Part 2 (5587B). Construction of Main
Members of Trusses; Panel Points; Connections of
Bracing; Connections of Members; Design of Main
Members; Loads; Stresses; Design of
Connections.Part 3 (5587C). Design of Roof
Coverings; Design of Purlins; Design of Truss;
Design of Typical Fink Truss; Design of Typical
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34
Flat Truss.
__________________
5470A-C
Structural Steel Drawings
Duration: 75 hours (includes 3 tests) Course Prerequisite:
Elements of Projection Drawing (5649)
What Students Learn:
Part 1 (5470A). Parts of Steel Building Frames;
Types of Structural- Steel Drawings; Drafting-
Room Organization; Scales and Their Use;
Lettering and Dimension Figures; Kinds of Lines;
Representation of Rolled-Steel Shapes, Rivets,
Bolts, and Welds; Drawing Plate 681, Shapes and
Connections.
Part 2 (5470B). Types of Beam Connections;
Shapes used for Beams; Details of Bolted or
Riveted Connections; Details of Welded Connec-
tions; Conventional Practices for Detailing Rolled
Beams and Welded Girders; Drawing Plate 682,
Details of Beams and Girder.
Part 3 (5470C). Types of Steel Columns; Column
Schedules; Column Splices; Lifting Hitches;
Connections of Beams to Columns; Details of
Columns; Types of Roof Trusses; Bolted, Riveted,
and Welded Connections at Panel Points; Drawing
Plate 683, Details of Roof Truss.
Special Note:
• Includes 3 plates and requires drafting kit.
_________________________________________
5471A-B
Reading Structural Steel
Drawings
Duration: 20 hours (includes 2 tests) Course
Prerequisite:
Practical Measurements (Block X22)
What Students Learn:
Part 1 (5471A). Parts of Steel Building Frames;
Erection Plans; Detail Drawings; Bills of Material;
Conventional Symbols for Rivets, Bolts, and
Welds; Connections with High-Strength Bolts;
Framed Connections; Seated Connections;
Semirigid Connections; Special Beam Connections;
Column Connections; Column Schedules; Opposite
Members or Opposite Parts.
Part 2 (5471B). Anchor-Bolt Plans for Columns;
Base Plates and Leveling Plates; Types of Supports
for Beams; Framing Plans for Multistory Buildings;
Typical Sections on Framing Plans; Detail
Drawings for Beams; Detail Drawings for Columns;
Detail Drawings for Plate Girders.