Mastering the Future: Education of AutoCAD 2024

Education of AutoCAD 2024

Introduction:

Embark on a transformative journey as we delve into the dynamic world of AutoCAD 2024, the pinnacle of design software. This edition is not just an upgrade; it's a revolution, and your mastery of it is the key to unlocking boundless possibilities in the digital age.

Education of Autocad 2024

Section 1: The Evolution of AutoCAD:

AutoCAD has come a long way since its inception. Understanding its evolution is crucial to appreciating the significance of AutoCAD 2024. From the early days of 2D drafting to the present, where it stands as a comprehensive 3D modeling powerhouse, AutoCAD has been a constant companion for architects, engineers, and designers.

The 2024 version, with its host of innovative features, marks a new chapter. The evolution is not merely cosmetic; it's a response to the changing needs of industries. The software has adapted to the demands of modern design, incorporating smarter tools and more intuitive interfaces. AutoCAD 2024 isn't just an upgrade; it's a leap forward.

Evolution of Autocad

Section 2: Key Features of AutoCAD 2024:

AutoCAD 2024 introduces game-changing features that redefine the design experience. Enhanced collaboration tools take teamwork to new heights, allowing seamless integration of ideas from various contributors. The result is a design process that is not only faster but also more cohesive.

The software's streamlined workflows empower designers to bring their visions to life with unprecedented precision. Whether it's the ability to navigate complex 3D models effortlessly or the integration of artificial intelligence for smarter design suggestions, AutoCAD 2024 is designed to make the creative process smoother and more efficient.

Key Features of Autocad 2024

Section 3: Learning Resources and Courses:

To master AutoCAD 2024, you need more than just the software – you need the right education. Fortunately, a plethora of learning resources and courses cater to every skill level. From online tutorials to comprehensive certification programs, these resources ensure that you can harness the full potential of AutoCAD 2024.

Whether you're a novice eager to grasp the basics or a seasoned professional looking to stay current with the latest features, there's a learning path for you. The educational ecosystem surrounding AutoCAD 2024 is as diverse as the design possibilities it offers.

Learning and resources of Autocad 2024

Section 4: Industry Applications and Job Opportunities:

The impact of AutoCAD 2024 extends far beyond the virtual drafting board. Explore the diverse applications of this powerful tool across industries – from architecture and construction to manufacturing and beyond. Its versatility makes it an invaluable asset in various professional settings.

Mastering AutoCAD 2024 isn't just about acquiring a skill; it's about gaining a competitive edge in the job market. The demand for professionals well-versed in the latest design technologies is on the rise, and AutoCAD 2024 proficiency can open doors to exciting career opportunities.

Job opportunities 

Conclusion:

In conclusion, the education of AutoCAD 2024 is not merely an option; it's a necessity in the ever-evolving landscape of design. As you embark on your journey to master this cutting-edge software, remember that staying ahead in your profession requires an investment in skills and continuous learning.

What are your thoughts on AutoCAD 2024? Have you experienced its transformative power in your design projects? Share your insights and join the conversation in the comments below. Let's build a community of AutoCAD enthusiasts committed to pushing the boundaries of design excellence!

Design with Parametric Constraints in AutoCAD 2010

This tutorial consists of four 10-15 minute lessons that will provide you with a basic
understanding of parametric drawing, familiarize you with geometric and dimensional
constraints, and introduce you to controlling a design with formulas and parameters.

Audience: Users new to the Parametric Drawing feature in AutoCAD 2010

Prerequisites: Basic AutoCAD knowledge

Time to complete: 40-50 minutes

Objectives



In this tutorial, you learn the basics of Parametric Drawing including the
following:
■ Work with Geometric Constraints
■ Work with Dimensional Constraints
■ Control a Design Using Parameters and Expressions

Tutorial Files


All necessary files for this tutorial are located at
http://www.autodesk.com/autocad-tutorials.

Recommended: Before starting this tutorial

1 Download the parametric_drawing.zip file from
http://www.autodesk.com/autocad-tutorials.

2 Unzip parametric_drawing.zip to C:\My Documents\Tutorials.
In this Tutorial

■ Lesson 1: Introduction to Parametric Drawing
■ Lesson 2: Work with Geometric Constraints
■ Lesson 3: Work with Dimensional Constraints
■ Lesson 4: Control a Design Using Parameters and Expressions

Lesson 1: Introduction to Parametric Drawing

Learning Objectives
On completing this lesson, you will be able to do the following:

■ Describe the purpose of parametric drawing.

■ Recognize geometric constraints, dimensional constraints, and the
constraint cursor icon.

■ Identify the objects that are constrained and what constraints apply to
each object.

■ Turn on and off the display of geometric and dimensional constraints, and
control the precision and unit style of dimensional constraints.

File Name: PD_Deck1.dwg

Command: CONSTRAINTBAR, DYNCONSTRAINTDISPLAY


Parametric drawing is a method for designing with constraints. Constraints are
rules that are applied to 2D geometry. By applying constraints, you can control
the location, size, distance, angle, and other parameters of objects in a drawing.
As a result, you can identify and maintain specifications in a project.

There are two types of constraints:


■ Geometric constraints control the relationships of objects with respect to
each other.

■ Dimensional constraints control the distance, length, angle, and radial values
of objects.


Let’s explore these constraints by taking a tour of a constrained drawing of a
backyard deck plan.

To view a constrained drawing

You take a tour of a constrained drawing of a simple backyard deck.

1 Start AutoCAD and then on the ribbon, click the Parametric tab.

2 On the Dimensional panel, click Show Dynamic Constraints to make
sure that they are turned off. On the Command line, you should see the
following:

Enter new value for DYNCONSTRAINTDISPLAY <1>: 0

3 Open the drawing file, PD_Deck1.dwg. It should be located in the C:\My
Documents\Tutorials folder.

This is the plan view of the deck. However, this drawing could represent
a mechanical part or a section of a wide gutter instead, depending on
your discipline.

4 Move your cursor over the objects in the drawing. Notice the small, blue
cursor icon. It indicates that each object has one or more constraints
applied to it.

To view geometric constraints

The display of all constraints has been turned off. Let’s turn on the display of

geometric constraints to see what they look like.

1 On the Geometric panel, click Show All.

2 Click and drag the constraint icons to relocate them as shown.

All the geometric constraints are now displayed. Later, you will learn how
to create and delete them.

3 Move your cursor over each constraint icon and notice the tooltip that
describes it.

4 Continue moving your cursor over each constraint icon and notice that
the associated objects are highlighted so you can determine which objects
are constrained.

The two vertical lines are constrained to be parallel and equal in length.
The left vertical line is constrained to be perpendicular to the horizontal
line.

5 Move your cursor over each object and notice that the geometric
constraints associated with it are highlighted.

6 Move your cursor over each blue square on the corners of the deck to
display the Coincident constraint icon.

constrain the endpoints of the lines and the arc to remain in contact.

7 On the Geometric panel, click Hide All to turn off the display of the
geometric constraints.

To view dynamic constraints

Let’s turn on the dimensional constraints to see what they look like.


1 On the Dimensional panel, click Show Dynamic Constraints.

Dynamic constraints are the most common type of dimensional constraints
used. The other type, called annotational constraints, are used for plotting
and you will learn about them later.

This deck was constructed using metric units (centimeters).

Dynamic constraints look like dimensions, but behave in the opposite
way. Dimensions are driven by objects—they report the lengths, angles,
and radial sizes of objects. In contrast, dynamic constraints drive
objects—they determine the lengths, angles, and radial sizes of objects.

The default format of dynamic constraints includes a name such as d1
or rad1, and a lock icon. Later, you will learn how to change the values
of these constraints to control the size and shape of a design.


2 Zoom in and out of the drawing. Notice that the dynamic constraints
always remain the same size.

You can change the numeric display style of dynamic constraints by
changing the units or the display precision.

3 At the Command prompt, enter units.

4 In the Drawing Units dialog box, under Length, change the linear
precision from 0.00 to 0 and click Ok.

5 If you use architectural units, open the drawing file, PD_deck1_imperial.dwg.
Then use the UNITS command to change the unit style to Architectural
with a precision of 0'-0".

To view the effects of constrained objects

1 Click Show All to turn on the display of geometric constraints.

2 Start the Move command and select the horizontal line. Move it to a
different location.
Because the deck is fully constrained, all the objects are dependent on each
other, and the shape and size of the deck does not change.

3 Close the drawing without saving it.

Summary



Parametric drawing has many applications for disciplines that require applying
and maintaining design specifications. Geometric and dimensional constraints
work together to include the design intent and requirements within a drawing.
In the following lessons, you learn how to apply and work with constraints.


Review Questions


1 How would you describe the purpose of parametric drawing and
constraints to someone?
2 What is the purpose of the blue icon that appears when you roll over
some objects?
3 How can you tell which geometric constraints are applied to a specific
object?
4 What is the purpose of dimensional constraints?
5 How can you change the precision displayed in dimensional constraints?

Lesson 2: Work with Geometric Constraints

Learning Objectives

On completing this lesson, you will be able to do the following:

■ Create coincident, perpendicular, and parallel constraints.

■ Recognize and use the point glyph when creating constraints.

■ Use the Autoconstrain feature to apply all geometric constraints
automatically.

■ Delete or relax one or all the constraints applied to an object.


File Name: PD_Deck2.dwg

Command: GEOMCONSTRAINT, AUTOCONSTRAIN

Geometric constraints are applied before dimensional constraints to define
and preserve the general shape of the design. For example, geometric
constraints can specify that two endpoints always remain coincident, or that
specified lines always remain perpendicular. AutoCAD 2010 supports 12 types
of geometric constraints.


Let’s apply geometric constraints to a drawing of another simple backyard
deck plan.

To apply coincident constraints

1 Open the drawing file, PD_Deck2.dwg.

                                                                                              


Typically, the first constraints that you apply to a drawing are Coincident
constraints. As the name implies, Coincident constraints provide a way
of making sure that the endpoints of objects always remain joined.
However, the definition is broader. For example, a Coincident constraint
accepts the extension of an object as a valid location. In some cases, a
Coincident constraint is similar to a Nearest object snap.

Let’s create a Coincident constraint between the endpoints of the two
lines.

2 On the Geometric panel, click Coincident.

3 Click near the endpoints of the horizontal and the vertical lines as shown.
This action creates a Coincident constraint that looks like a small blue
square at the corner.

A red point glyph is displayed for each selection. These glyphs work like
object snaps, but are limited to Endpoint, Midpoint, and Center. To create
a Coincident constraint at a T-intersection between two lines, use the
Object option.


4 On the Geometric panel, click Coincident again.

5 At the Command prompt, press Enter to specify the Object option.

6 Select the horizontal line as shown, and then select the vertical line near
the endpoint. Make sure that the endpoint glyph is displayed.

You could continue applying Coincident constraints to the other
intersections manually, but there is a faster way to apply them.

7 On the Geometric panel, click Coincident again.

8 At the Command prompt, enter a to specify the Autoconstrain option.

9 Select all the objects in the deck plan and press Enter.

All the Coincident constraints are applied. We will now add the rest of
the geometric constraints.

To apply perpendicular constraints

1 On the Geometric panel, click Perpendicular.

2 Select the horizontal and vertical lines as shown.

The order in which you select the two lines makes a difference in some
cases. For example, imagine two lines in a V-shape with a Coincident
constraint at their intersection. When you apply a Perpendicular
constraint, the first line that you select is the reference line. The other
line will adjust to the first line. This behavior also applies to several other
types of geometric constraints.


3 On the Geometric panel, click Perpendicular again.

4 Select the horizontal and vertical lines as shown.

Notice that the two lines do not need to intersect at their endpoints to
accept the Perpendicular constraint. In some cases, the lines might not
even touch, but can intersect at an extrapolated intersection.

There are several lines in the deck plan that should always be parallel.
We will add those constraints next.

To apply parallel constraints.



1 On the Geometric panel, click Parallel.
2 Select the two horizontal lines as shown.

Parallel constraints do not constrain the lengths and offset distances of
these lines. They only make sure that the lines remain parallel.

3 Click Parallel again.

4 Select the two vertical lines as shown.

5 Go ahead and apply Parallel constraints to each of the four lines of the
stairs. Use the right-most of the four lines as the reference in each case:
1 and 2, 1 and 3, and 1 and 4. You might need to zoom in to select the
lines.

It is not critical to make all the lines parallel to the reference line, but
this method captures the design intent.

To apply fix constraints to the drawing



A Fix constraint locks a specified point on an object to a fixed WCS location
in the drawing. It can also lock a specified object to a limited range of freedom.
Applying Fix constraints typically is used for one of two purposes:

— Permanently locate an object within a drawing so it cannot be moved or
rotated.

— Temporarily hold an object or a point on an object in place while you
manipulate other, partially constrained objects.

You can apply Fix constraints to several objects or points on objects in a
drawing.


1 On the Geometric panel, click Fix.
2 At the Command prompt, enter o to specify the Object option.
3 Select the horizontal line on the deck plan as shown.

This constraint keeps the selected line segment collinear with an
imaginary infinite line, but it does not lock the locations of its endpoints.
Let’s apply a Fix Point constraint to an endpoint of the same line.

4 On the Geometric panel, click Fix.

5 Click the line near the left end.

The second lock icon confirms that the line is now fixed in place. It
cannot move or rotate.

To remove constraints



There are several method you can use to remove constraints.
1 Right-click the Fix constraint that you just added and click Delete.
Alternatively, you can move your cursor over a constraint icon and press
the Delete key. This action removes a single constraint.



2 On the Manage panel, click Delete Constraints.

3 Select one of the lines.

All the constraints applied to that line are removed. Alternatively, if you
are working within a command and one or more constraints prevent you
from making a change, press and release the Ctrl key to relax the
constraints on the selected objects. After completing the command, the
constraints will be reapplied, if possible.

4 On the Manage panel, click Delete Constraints.

5 Select all the lines using a Window or Crossing selection.
This action removes all the constraints from the deck plan.

To constrain selected objects automatically



The Autoconstrain feature adds a complete set of geometric constraints to
selected objects automatically. Let’s try it on the deck plan.



1 On the Geometric panel, click Auto Constrain.

2 Select all the lines using a Window or Crossing selection.
All the objects are geometrically constrained to each other. You can now
make adjustments, deleting the constraints that you do not want to use
and applying others.

Notice from the drawing that Autoconstrain assumed that the bottom
horizontal line should always remain horizontal, and that the top step
should always be parallel to the right edge of the deck. These and other
assumptions are not always going to be correct for your designs. You
should always plan to make some adjustments after using Autoconstrain.

3 Close the drawing without saving it.

Summary



You have learned how to apply several types of geometric constraints to capture
the intent and requirements of the design. However, geometric constraints
do not fully constrain the size and shape of the objects in a drawing. To fully
constrain a drawing, you need to apply dimensional constraints, which is the
subject of the next lesson.


Review Questions


1 What is the purpose of a coincident constraint?


2 What is the significance of the first object selected when you apply some
types of constraints?


3 What are Fix constraints?


4 What is a fast way to remove all the constraints from a selected object?


5 When is it recommended to use Autoconstrain?

Lesson 3: Work with Dimensional Constraints

Learning Objectives
On completing this lesson, you will be able to do the following


■ Describe dimensional constraints.

■ Create aligned and angular constraints.

■ Change a design by changing the values of the dimensional constraints.

■ Plot dimensional constraints for design reviews, and understand the
differences between dynamic and annotational constraints.

Command: DIMCONSTRAINT


Dynamic dimensional constraints control the lengths, radial sizes, and angles
of objects. They also control the distances between objects or points on objects.
For example, in addition to controlling the lengths of selected objects, you
might want to keep the distance between lines constant, such as the tread
length of stairs.

Let’s apply dynamic constraints to the drawing of the deck plan.

To create dynamic constraints


1 Open the drawing file, PD_Deck3.dwg.

This drawing is the deck plan with all the geometric constraints applied
Let’s verify that the geometric constraints are applied.

2 On the Geometric panel, click Show All to display all geometric
constraints.

3 On the Geometric panel, click Hide All.

4 On the Dimensional panel, click Aligned.


5 At the Command prompt, press Enter to specify the Object option.

6 Select the horizontal line as shown and then click a location for the
dynamic constraint.

7 Press Enter or click anywhere outside the box to accept the current length
of the line.

This step provides the opportunity for you to change the length of the
line.

8 Click Aligned again.

9 Create an aligned constraint for the bottom horizontal line as shown.
You will need the extra space later.

10 Create two more Aligned constraints on the vertical lines as shown.

You might wonder why we did not apply Horizontal and Vertical
constraints instead of the Aligned constraints. For this design, we want
to control the lengths of the lines. The Horizontal and Vertical constraints
control only the horizontal and vertical distances.
 This distinction is important when you work with diagonal lines or later need to rotate a
drawing.


11 Zoom into the area of the stairs.
We will apply constraints on the tread length for each step.

12 On theDimensional panel, click Aligned.

13 Click the vertical line as shown, making sure that you see the endpoint
glyph.

14 Click the endpoint of the vertical line to the left, and click a location for
the constraint.

15 Press Enter or click anywhere outside the box to accept the value of 45.

16 Create an Aligned constraint between the next pair of lines as shown.

17 Repeat the process for the last pair of lines as shown.

Each of the endpoints of these lines will now maintain a distance of 45
cm from each other, and the parallel geometric constraints will keep the
lines parallel.


18 On the Dimensional panel, click Angular.

19 Click the two lines in the corner of the deck as shown.

20 Click a location for the constraint, and press Enter or click anywhere
outside the box to accept the value of 90 degrees.
Later, you will see why we chose to use an Angular constraint for this
corner.

21 Zoom out until you can see the entire deck plan as shown.

Now that we have fully constrained this deck design, let’s change some
of the parameters. There are several ways to do this.


To change dimensional constraints

As mentioned previously, before you modify a constrained design, it’s often
a good idea to apply one or more Fix constraints first. This keeps those objects
from shifting or rotating. You can always delete the Fix constraints later.

1 Turn on the display all Geometric constraints and verify that the two Fix
constraints are applied. Then turn off the display of all Geometric
constraints.

2 Double-click the d1 dynamic constraint as shown.

3 Click within the edit box and enter 1000 as the new value.
The entire deck was shortened slightly. Next, we will try to make the deck
plan a little less boring.

4 Double-click the ang1 dynamic constraint as shown.

5 Click in the edit box and enter 120 as the new value.

This design is more interesting, but still too timid. Let’s make the angle
larger.

6 Change the value of the ang1 dynamic constraint to 140.

This design is much more interesting. You might want to experiment
with other values.


7 Close the drawing without saving it.

To plot dimensional constraints
Dynamic constraints do not have the same purpose as the dimensions in a
construction document or a manufacturing drawing, nor do they maintain
typical dimensioning standards. Thus, dynamic constraints are not plotted
with the rest of the drawing. However, you might want to plot them for design
reviews. In those circumstances, you can change dynamic constraints into
annotational constraints.

Annotational constraints are plotted, have a static size, and use the current
dimension style.


1 Open the Properties palette.

2 Select a dynamic constraint.

3 In the Properties palette, under Constraint, select Annotational from the
Constraint Form drop-down list.

The resulting annotational constraint uses the current dimension style.

4 Close the Properties palette.

5 (Optional) Plot your drawing to a plotter or a printer.

Summary



You have learned how to apply dimensional constraints and how they work
with geometric constraints to control a design. You also learned how to change
designs by changing the values of dimensional constraints. Finally, you learned
how to change dynamic constraints into annotational constraints for plots
to be used in design reviews. Next, you will learn how to add formulas and
expressions to a design.


Review Questions


1 What is the most commonly used dynamic dimensional constraint that
controls the lengths of objects or the distances between them?


2 How can you change the value of a dimensional constraint?


3 What is the purpose of a Fix constraint?


4 What must you do to create a plot that displays dimensional constraints
for a design review?

Lesson 4: Control a Design Using Parameters and Expressions

Learning Objectives

On completing this lesson, you will be able to do the following::


■ Incorporate formulas and expressions, and manage them with the
Parameters Manager.

■ Create and name user variables.

File Name: PD_Deck4.dwg, PD_Areas.dwg

Command: PARAMETERS, -PARAMETERS


You can modify dimensional constraints and user variables either directly or
with the Parameters Manager

To rename dimensional constraints

Let’s change some dynamic constraints to use more descriptive names.

1 Open the drawing file, PD_Deck4.dwg.


2 Double-click the dynamic constraint, d1, and change the d1 to Length
as the new name.

3 Press Enter or click outside the edit box to accept the change.

Another way to change the name of a dynamic constraint is to use the
Parameters Manager.

4 On the Parametric tab, Manage panel, click Parameters Manager.

5 In the Name column, double-click d2 and enter Width.

6 Press Enter or click outside the edit box to accept the change.

To define a user variable


Often, it is convenient to make a single change that affects multiple dynamic
constraints. For example, you might want to experiment with several tread
widths for the steps in the deck plan.

1 Double-click an empty row in the Parameters Manager.

2 Change the name of the new user variable from user1 to Tread.


3 Press Enter or click outside the Parameters Manager palette to accept the
new name.

4 Change the value in the Expression column from 1 to 45.


5 Press Enter or click outside the Parameters Manager to accept the new
value.

6 In the Expression column of d5, d6, and d7, enter Tread.

These changes associate the value of each of these distances with the user
variable, Tread. Let’s test your control over the tread widths


7 In the Expression column of the user variable, Tread, change the value
from 45 to 60. Then change it to 40.

The changes are updated automatically in the deck plan.

8 Close the drawing without saving it.

To create dimensional relationships between objects


The Expression column in the Parameters Manager can contain constants,
references to dynamic constraints, references to user variables, arithmetic
operators, and functions. Consider the following example.

1 Open the drawing file, PD_Areas.dwg.


This is a fully constrained drawing of a rectangle with a circle at its center.
The circle always has the same area as the rectangle. Let’s examine the
dynamic constraints in detail.


2 On the Geometric panel, click Show All and then Hide all to confirm
that geometric constraints have been applied.

3 If necessary, open the Parameters Manager

4 In the Parameters Manager, click the Length row.


As long as your cursor is in the Parameters Manager, the Length dynamic
constraint remains highlighted in the drawing. Length is set to the constant
60.

5 Click the Width row and observe the highlighted dynamic constraint.


To center the circle, the d1 and d2 dynamic constraints are defined as
Length/2 and Width/2. The user variable, Area, is defined as the product
of Length and Width, the area of the rectangle.

6 Click the Radius row.


The radius of the circle is defined with the expression containing the area
of the rectangle, the square root function, and the constant, PI. This sets
the radius of the circle to a value that constrains the area of the circle to
be equal to the area of the rectangle.


Notice that you can store expressions in a dimensional constraint or in
a user variable. A full list of available functions is documented in the
AutoCAD User’s Guide Help topic, Constrain a Design with Formulas and
Equations.


7 Experiment by changing the values for the length and width of the
rectangle.


Notice that the Value column displays the current value of the expression
in the Expression column. Are you curious what would happen if you set
the length of the rectangle to 0 or -1?

8 Close the drawing without saving it.

Summary



You have learned how to incorporate mathematical expressions in dimensional
constraints and in user variables with the Parameters Manager. These tools
provide a method for completely controlling the shape, size, and proportions
of a design.


Review Questions


1 What are the two places within a parametric drawing that you can store
a formula?


2 How can you display a list of user variables in a drawing?


3 What is the purpose of the Value column in the Parameters Manager?



For more information about working with the Parametric Drawing feature,
see the AutoCAD User’s Guide. Help topic, Design with Parametric Constraints.

Supported operating systems for the Auto Cad 2010

System Requirements

For 32-bit AutoCAD 2011

• Microsoft® Windows® 7 Enterprise, Ultimate, Professional, or Home Premium (compare Windows 7 versions); Microsoft® Windows Vista® Enterprise, Business, Ultimate, or Home Premium (SP1 or later) (compare Windows Vista versions); or Microsoft® Windows® XP Professional or Home edition (SP2 or later)
• For Windows Vista or Windows 7: Intel® Pentium® 4 or AMD Athlon® dual-core processor, 3.0 GHz or higher with SSE2 technology; for Windows XP: Intel Pentium 4 or AMD Athlon dual-core processor, 1.6 GHz or higher with SSE2 technology
• 2 GB RAM
• 1.8 GB free disk space for installation
• 1,280 x 1,024 true color video display adapter 128 MB or greater, Microsoft® Direct3D®-capable workstation-class graphics card
• 1,024 x 768 display resolution with true color
• Microsoft® Internet Explorer® 7.0 or later 
• Install from download or DVD

For 64-bit AutoCAD 2011

• Microsoft Windows 7 Enterprise, Ultimate, Professional, or Home Premium (compare Windows 7 versions); Microsoft Windows Vista Enterprise, Business, or Ultimate (SP1 or later) (compare Windows Vista versions); or Microsoft Windows XP Professional (SP2 or later)
• AMD Athlon 64 with SSE2 technology, AMD Opteron® processor with SSE2 technology, Intel® Xeon® processor with Intel EM64T support and SSE2 technology, or Intel Pentium 4 with Intel EM64T support and SSE2 technology
• 2 GB RAM
• 2 GB free space for installation
• 1,280 x 1,024 true color video display adapter 128 MB or greater, Microsoft® Direct3D®-capable workstation-class graphics card
• 1,024 x 768 display resolution with true color
• Internet Explorer 7.0 or later 
• Install from download or DVD

Additional Requirements for 3D Modeling (All Configurations)

• Intel Pentium 4 processor or AMD Athlon, 3 GHz or greater; or Intel or AMD dual-core processor, 2 GHz or greater
• 2 GB RAM or more
• 2 GB hard disk space available in addition to free space required for installation
• 1,280 x 1,024 true color video display adapter 128 MB or greater, Pixel Shader 3.0 or greater, Microsoft® Direct3D®-capable workstation-class graphics card