How to Link Notes to Dimensions in SolidWorks Drawing

Linking notes to dimensions in SolidWorks drawings is a crucial step to ensure accuracy and clarity in technical documentation. By establishing a direct connection between notes and dimensions, you eliminate the risk of inconsistencies and misunderstandings that can arise from manual annotation. This article will guide you through the process of linking notes to dimensions in SolidWorks drawings, empowering you to create precise and well-organized drawings that effectively communicate design intent.

The ability to link notes to dimensions in SolidWorks drawings offers several advantages. First, it ensures that the note’s content remains up-to-date whenever the dimension changes. This eliminates the need for manual updates, reducing the risk of errors and inconsistencies. Second, linking notes to dimensions enables you to create dynamic drawings that respond automatically to design changes. When a dimension is modified, the linked note adjusts accordingly, ensuring that the drawing remains current and accurate. Finally, linking notes to dimensions improves the overall readability and organization of your drawings. By associating notes with specific dimensions, you provide clear and concise information without cluttering the drawing with excessive annotations.

The process of linking notes to dimensions in SolidWorks drawings is straightforward and intuitive. By following the steps outlined in this article, you can quickly establish a direct connection between notes and dimensions, ensuring the accuracy and clarity of your technical documentation. Whether you’re a seasoned SolidWorks user or just starting out, the ability to link notes to dimensions will empower you to create professional-quality drawings that meet the highest standards of accuracy and organization.

Linking Notes to Dimensions Step-by-Step

1. Selecting a Dimension

To begin linking notes to dimensions, you must first select the desired dimension. This can be achieved in several ways:

a) Direct Selection

Click directly on the dimension markup on the drawing sheet to select it.

b) FeatureManager Design Tree

Expand the “Dimensions” branch in the FeatureManager Design Tree and select the specific dimension from the list.

c) Dimension PropertyManager

Open the “Dimension PropertyManager” by double-clicking on the dimension markup or by right-clicking and selecting “Edit Dimension”. Within the PropertyManager, you can select the dimension from the drop-down list.

d) Selection Manager

The “Selection Manager” (Ctrl + Shift + F) provides a comprehensive list of all entities in the drawing. Locate the dimension in the list and select it.

e) Using a Keyboard Shortcut

Press the “D” key to activate the “Dimension” command. This allows you to tab between dimensions and select the desired one.

2. Inserting a Note

Once you have selected the dimension, you can insert a note linked to it. To insert a note:

a) Using the “Insert Note” Tool

Click on the “Insert Note” icon in the toolbar or use the keyboard shortcut “Ctrl + N”. A new note will appear on the drawing sheet.

b) Right-Click Context Menu

Right-click on the dimension markup and select “Insert Note” from the context menu.

c) Create Balloon

If using the “Insert Balloon” command, you can link a note to a dimension by hovering over the dimension and clicking on the balloon icon that appears.

3. Linking the Note to the Dimension

To establish the link between the note and the dimension:

a) Drag and Drop

Drag the note onto the dimension markup. A small target circle will appear when the note is in proximity to the dimension.

b) Using the “Link Note” Command

Right-click on the note and select “Link Note”. In the “Link Note” dialog box, select the desired dimension from the list.

c) Using the “Note Link” Property

Open the “Note PropertyManager” by double-clicking on the note or right-clicking and selecting “Edit Note”. In the PropertyManager, under the “General” section, locate the “Note Link” property and select the desired dimension.

d) Using the Keyboard Shortcut

Press the “L” key while hovering over the note to link it to the nearest dimension.

Once the note is linked to the dimension, it will move and scale with the dimension when changes are made.

4. Editing the Note Content

To edit the content of the linked note:

a) Double-Clicking

Double-click on the note to open the “Note Editor”.

b) Right-Click Context Menu

Right-click on the note and select “Edit Note” from the context menu.

c) Using the “Note Editor”

Click on the “Note Editor” icon in the toolbar to access the “Note Editor”.

Within the “Note Editor”, you can modify the text, formatting, and other properties of the note.

5. Removing the Link

To remove the link between a note and a dimension:

a) Using the “Unlink Note” Command

Right-click on the linked note and select “Unlink Note” from the context menu.

b) Using the “Note Link” Property

c) Using the Keyboard Shortcut

Press the “U” key while hovering over the linked note to unlink it.

Once the link is removed, the note will no longer move or scale with the dimension.

Creating and Using Note Balloons

Note balloons are used to associate notes with specific dimensions, geometry, or other features in a drawing. They provide a convenient way to add additional information or instructions to the drawing without cluttering up the main view.

To create a note balloon, simply click on the “Note” tool in the “Annotations” toolbar. Then, click on the location in the drawing where you want to place the balloon. A small balloon will appear, and you can begin typing your note.

Customizing Note Balloons

There are several ways to customize the appearance of note balloons. To change the shape of the balloon, simply click on the “Shape” drop-down menu in the “Note Properties” dialog box. You can choose from a variety of shapes, including circles, squares, and triangles.

You can also change the fill color and border color of the balloon. To do this, simply click on the “Fill” and “Border” drop-down menus in the “Note Properties” dialog box. You can choose from a variety of colors, including solid colors, gradients, and patterns.

In addition to changing the appearance of the balloon, you can also change the text formatting of the note. To do this, simply click on the “Text” tab in the “Note Properties” dialog box. You can change the font, size, and color of the text. You can also add bold, italic, and underline formatting.

Linking Note Balloons to Dimensions

Once you have created a note balloon, you can link it to a specific dimension by clicking on the “Dimension” tool in the “Annotations” toolbar. Then, click on the dimension that you want to link the balloon to. The balloon will automatically attach itself to the dimension.

You can also link a note balloon to multiple dimensions. To do this, simply hold down the Ctrl key while clicking on the dimensions that you want to link the balloon to. The balloon will automatically attach itself to all of the selected dimensions.

Linking note balloons to dimensions is a great way to provide additional information or instructions about specific features of the drawing. It can also help to improve the overall clarity and organization of the drawing.

Using Note Balloons to Create Tables

Note balloons can also be used to create tables. To do this, simply click on the “Table” tool in the “Annotations” toolbar. Then, click and drag to create a table. You can add rows and columns to the table by clicking on the “Insert” menu. You can also merge and split cells by clicking on the “Table” menu.

Once you have created a table, you can add text, dimensions, and other annotations to the cells. You can also format the table by changing the font, size, and color of the text. You can also add borders and shading to the table.

Using note balloons to create tables is a great way to organize and present data in a drawing. It can also help to improve the overall clarity and professionalism of the drawing.

Here is a table summarizing the main steps for creating and using note balloons:

Step	Description
1	Click on the “Note” tool in the “Annotations” toolbar.
2	Click on the location in the drawing where you want to place the balloon.
3	Type your note into the balloon.
4	Click on the “Dimension” tool in the “Annotations” toolbar.
5	Click on the dimension that you want to link the balloon to.
6	The balloon will automatically attach itself to the dimension.

Dimensioning Tools in SolidWorks Drawing

SolidWorks Drawing, a powerful drafting and annotation tool, provides a comprehensive set of dimensioning tools that allow users to create accurate and detailed technical drawings. These tools enable engineers and designers to communicate product specifications and requirements clearly and effectively.

Types of Dimensions

SolidWorks Drawing supports various dimension types, including:

Linear Dimensions: Measure the distance between two points.
Radial Dimensions: Measure the distance from a point to a circular edge.
Angular Dimensions: Measure the angle between two lines or surfaces.
Diameter Dimensions: Measure the diameter of a circular feature.
Chamfer Dimensions: Measure the angle and distance of a chamfer.

Dimension Creation

Creating dimensions in SolidWorks Drawing involves selecting the appropriate dimension type, setting dimension properties, and placing the dimension on the drawing sheet.

Dimension Properties

Dimension properties control the appearance and behavior of dimensions. They include:

Dimension Value: The numerical value of the dimension.
Dimension Units: The unit of measure for the dimension.
Dimension Style: The visual style of the dimension, including font, color, and line type.
Dimension Tolerance: The allowable variation in the dimension value.
Dimension Precision: The number of decimal places to display for the dimension value.

Dimension Placement

Dimensions should be placed on the drawing to clearly convey product specifications. SolidWorks Drawing provides tools for precise dimension placement, including:

Dimension Alignment: Aligns dimensions horizontally or vertically with the selected geometry.
Dimension Spacing: Controls the spacing between multiple dimensions.
Dimension Constraints: Restricts the movement of dimensions to prevent overcrowding or misalignment.

Advanced Dimensioning Techniques

SolidWorks Drawing offers advanced dimensioning techniques for complex scenarios, such as:

Geometric Dimensioning and Tolerancing (GD&T): A standardized language for specifying tolerances and other geometric requirements.
Custom Dimension Schemes: User-defined dimension sets with specific properties and settings.
Dimension Driven Sketches: Dimensions that can be used to drive sketch geometry, enabling parametric design.

Tips for Effective Dimensioning

To create effective dimensions in SolidWorks Drawing, consider the following tips:

Tip	Benefit
Use clear and concise dimension labels.	Improves readability and reduces ambiguity.
Locate dimensions in logical positions.	Ensures easy interpretation and prevents overcrowding.
Apply appropriate tolerances and precision.	Communicates the acceptable range of variation.
Utilize advanced dimensioning techniques for complex scenarios.	Provides more precise and comprehensive specifications.

Using Dimensions in Note Balloons

The third method for linking notes to dimensions is to use dimensions within the note balloons themselves. This is achieved by typing the dimension name directly into the note text. The dimension name is enclosed in angle brackets (< and >). When the note is placed on the drawing, the dimension will appear inside the note balloon.

For example, if you have a dimension named “Length” and you want to insert it into a note, you would type the following into the note text:

“`
<Length>
“`

When the note is placed on the drawing, the dimension “Length” will appear inside the note balloon.

Advantages of Using Dimensions in Note Balloons

Clear and concise: This method provides a clear and concise way to link notes to dimensions, making it easy for users to identify the specific dimensions being referenced.
Automatic updates: When the dimension is updated, the note will automatically update to reflect the new value.
No need for additional annotations: This method eliminates the need for additional annotations or symbols to link notes to dimensions.

Disadvantages of Using Dimensions in Note Balloons

Limited space: The space within note balloons is limited, which may not be suitable for long or complex dimensions.
Potential for error: If the dimension name is mistyped, the note may not link to the correct dimension.

Best Practices for Using Dimensions in Note Balloons

Use short and meaningful dimension names: This will help keep the note balloons concise and easy to read.
Double-check the dimension name before inserting into the note: This will minimize the risk of errors.
Use a consistent format for dimension names: This will help ensure that all dimensions are linked in a consistent manner.

Example of Using Dimensions in Note Balloons

In the following example, a note has been placed on a drawing, linking it to the dimension “Length”:

“`
Note: The length of the part is <Length>.
“`

When the note is placed on the drawing, the dimension “Length” appears inside the note balloon, as shown below:

This method provides a clear and concise way to link notes to dimensions, making it easy for users to identify the specific dimensions being referenced.

Understanding Dimension Types and Settings

SolidWorks offers a wide range of dimension types and settings that allow you to customize the appearance and functionality of your dimensions. Understanding these options will help you create clear and accurate drawings that meet your specific requirements.

1. Dimension Types

There are several types of dimensions available in SolidWorks, each with its own unique purpose and characteristics. The most commonly used dimension types include:

Dimension Type	Description
Linear	Measures the distance between two points.
Angular	Measures the angle between two lines or planes.
Radial	Measures the distance from a point to a circle or arc.
Diametric	Measures the diameter of a circle or arc.
Aligned	Measures the distance between two parallel lines or planes.
Ordinate	Measures the distance from a point to a reference axis.
GeometricMeasures the geometric properties of a feature, such as radius, area, or volume.

2. Dimension Settings

In addition to the dimension type, you can also control various settings that affect the appearance and behavior of dimensions. These settings include:

Setting	Description
Text Size	Adjusts the size of the dimension text.
Text Style	Controls the font and style of the dimension text.
Color	Sets the color of the dimension text and leader lines.
Location	Specifies the location of the dimension relative to the geometry.
Precision	Controls the number of decimal places displayed in the dimension value.
Tolerance	Adds tolerance values to the dimension value.
Alternate Text	Displays additional information in a pop-up note associated with the dimension.
Layer	Assigns the dimension to a specific layer for organization and visibility control.

10. Linking Dimensions to Notes

Linking dimensions to notes in SolidWorks allows you to create a direct connection between the dimension value and a specific note. This can be useful for providing additional information about the dimension, such as its purpose or any additional calculations used to arrive at the value.

To link a dimension to a note, follow these steps:

Select the dimension you want to link.
Click on the “Note” tab in the Dimension PropertyManager.
In the “Link to Note” section, select the note that you want to link the dimension to.
Click “OK” to apply the changes.

Once the dimension is linked to the note, any changes made to the dimension value will be automatically reflected in the note. This can help you keep your drawings accurate and up-to-date.

Associating Dimensions with Notes

Linking notes to dimensions in SolidWorks Drawing allows you to add explanatory text or callouts to specific features on your drawing. This helps to clarify the design intent and communicate critical information to the reader. Here’s a detailed guide to associate dimensions with notes:

1. Select the Dimension

To begin, select the dimension you want to associate a note with. Dimensions can be linear, angular, radial, or diametric.

2. Right-click and Select “Add Note”

Right-click on the selected dimension and select “Add Note” from the context menu. This will open the Note PropertyManager.

3. Enter the Note Text

In the Note PropertyManager, enter the text you want to display in the “Note Text” field. This text can include a description, explanation, or callout.

4. Customize the Note Appearance

Use the options in the Note PropertyManager to customize the appearance of the note. You can change the font, size, color, and alignment of the text.

5. Set the Note Location

Select the “Location” tab in the Note PropertyManager to specify where the note should be placed relative to the dimension. You can choose from various options, such as “Above,” “Below,” “Left,” “Right,” or a custom offset.

6. Control the Note Leader

The “Leader” tab in the Note PropertyManager allows you to modify the leader line connecting the note to the dimension. You can change the style (straight, curved, or freehand), color, and length of the leader.

7. Preview the Note

Click on the “Preview” button in the Note PropertyManager to see a live preview of how the note will appear in the drawing.

8. Save and Exit

Once you’re satisfied with the note, click “Save and Close” to save the changes. The note will now be associated with the dimension.

9. Edit or Remove the Note

To edit the note later, simply double-click on it in the drawing. To remove the note, right-click on it and select “Delete.”

10. Associating Multiple Notes with Dimensions

You can associate multiple notes with a single dimension. To do this, select the dimension and click on the “Add Note” button multiple times. Each note will be placed in a separate location around the dimension.

11. Linking Notes to Dimensions Using the “Table Note” Feature

SolidWorks 2019 and above offer an advanced feature called “Table Note” that allows you to create a table of notes associated with multiple dimensions. Here’s how to use it:

1. Select a set of dimensions you want to create a table for.
2. Click on the “Table Note” button in the “Notes” toolbar.
3. In the Table Note PropertyManager, set the desired options for the table, including the number of columns, rows, and header text.
4. Click on the “Insert” button to place the table in the drawing.
5. Double-click on the table cells to edit the associated notes.
6. Click “Save and Close” to save the changes.

The Table Note feature provides a convenient way to organize and display multiple notes related to dimensions in a tabular format, making it easier to read and interpret the associated information.

Dimensions	Notes
10mm	Length of the base plate
5mm	Width of the base plate
20mm	Height of the base plate
10mm	Diameter of the hole
50mm	Center distance between holes

Applying Note Balloons to Dimensions

12. Creating Note Balloons

To create a note balloon, follow these steps:

Select the dimension you want to add a note to.
Click the “Note Balloon” button on the “Annotations” toolbar.
A note balloon will appear next to the dimension.
Enter the text you want to add to the note balloon.
Click anywhere outside the note balloon to close it.

Formatting Note Balloons

You can format the text in a note balloon by using the “Text Format” toolbar. This toolbar provides you with options for changing the font, size, color, and alignment of the text.

Positioning Note Balloons

You can position a note balloon by dragging it to the desired location. You can also use the “Position” dialog box to specify the exact location of the note balloon.

Using Note Balloons to Link Notes to Dimensions

Note balloons can be used to link notes to dimensions. This allows you to associate additional information with a dimension, such as a tolerance or a specification.

To link a note to a dimension, follow these steps:

Create a note balloon for the dimension.
Select the note balloon.
Click the “Link to Dimension” button on the “Note Balloon” toolbar.
The note balloon will be linked to the dimension.

Using Note Balloons to Create Detail Views

Note balloons can also be used to create detail views. A detail view is a magnified view of a specific area of the drawing. To create a detail view, follow these steps:

Create a note balloon for the area of the drawing you want to magnify.
Select the note balloon.
Click the “Create Detail View” button on the “Note Balloon” toolbar.
A detail view will be created and linked to the note balloon.

Using Note Balloons to Create Callouts

Note balloons can also be used to create callouts. A callout is a leader line that points to a specific area of the drawing. To create a callout, follow these steps:

Create a note balloon for the area of the drawing you want to point to.
Select the note balloon.
Click the “Create Callout” button on the “Note Balloon” toolbar.
A callout will be created and linked to the note balloon.

Controlling Note Position and Visibility

Notes in SolidWorks drawings can be linked to dimensions to ensure the note moves with the dimension or other related geometry. This can be useful for maintaining clarity and organization in your drawings.

Linking Notes to Dimensions

To link a note to a dimension, follow these steps:

Select the dimension.
Right-click and select "Note."
Select the type of note you want to create (e.g., Geometric, General).
Enter the note text.

Controlling Note Position

The position of a linked note can be controlled using the "Note Attachment Settings" dialog box. To access this dialog box, right-click on the note and select "Note Attachment Settings."

The "Note Attachment Settings" dialog box allows you to specify:

Attachment Type: Specifies how the note is attached to the dimension.
Attachment Point: Specifies the point on the dimension to which the note is attached.
Offset X and Offset Y: Specifies the offset of the note from the attachment point.
Alignment: Specifies the alignment of the note relative to the attachment point.
Flip Text: Flips the text of the note horizontally or vertically.
Anchor Point: Specifies a point on the note that is used as the reference for offset and alignment settings.

Controlling Note Visibility

The visibility of a linked note can be controlled using the "Note Visibility Settings" dialog box. To access this dialog box, right-click on the note and select "Note Visibility Settings."

The "Note Visibility Settings" dialog box allows you to specify:

Visibility Condition: Specifies the condition under which the note is visible (e.g., When dimension is displayed).
Visibility State: Specifies the visibility state of the note (e.g., Visible, Hidden).
Display Priority: Specifies the display priority of the note relative to other notes.

Advanced Note Control

In addition to the basic settings described above, SolidWorks drawings provide a number of advanced options for controlling notes:

Break Lines: Break lines can be added to notes to prevent them from overlapping with other drawing elements.
Note Text Formatting: The text of notes can be formatted using standard font, size, and color settings.
Note Groups: Notes can be grouped together to facilitate organization and management.
Custom Note Symbols: Custom note symbols can be created and used in drawings.
Note Balloons: Note balloons can be used to highlight and identify notes.
Note Tables: Note tables can be used to organize and present data in a tabular format.

Best Practices for Linking Notes to Dimensions

When linking notes to dimensions, it is important to follow these best practices:

Keep notes concise: Notes should be brief and to the point, providing only the essential information.
Use appropriate alignment: Align notes with the related geometry to improve readability.
Control visibility: Use visibility settings to ensure notes are visible when needed and hidden when not.
Group notes logically: Group related notes together to improve organization.
Use custom note symbols: Create custom note symbols to enhance clarity and consistency.

By following these best practices, you can create drawings with well-organized and informative notes that enhance understanding and communication.

Dimensioning Techniques for Accurate Drawings

123. How To Link Notes To Dimensions In Solidworks Drawing

1. Introduction

Linking notes to dimensions in SolidWorks drawing allows you to associate additional information, such as tolerances, surface finishes, or other relevant data, with specific dimensions. This practice enhances drawing clarity, ensures accuracy, and simplifies communication within the design team.

2. Prerequisites

Before linking notes to dimensions, ensure that the SolidWorks drawing and the associated model are open and synchronized. You will also need to create the necessary dimensions and notes.

3. Creating Notes

To create a note, click “Insert” > “Annotations” > “Note.” Type the desired text in the note box and format it as required.

4. Linking Notes to Dimensions

To link a note to a dimension, select the note and then click the dimension. A small arrow will appear, indicating the link between the note and the dimension.

5. Editing Linked Notes

To edit a linked note, double-click the note or right-click and select “Edit Note.” Make the necessary changes and click “OK” to save.

6. Deleting Linked Notes

To delete a linked note, select the note and press the “Delete” key. Alternatively, right-click and select “Delete” from the context menu.

7. Dimensioning Techniques for Accurate Drawings

Employing appropriate dimensioning techniques is crucial for ensuring accurate drawings. Here are some guidelines:

8. Dimensioning from Model Edges

Whenever possible, dimension from model edges rather than faces or vertices. This practice minimizes the impact of geometric deviations on dimension accuracy.

9. Using Consistent Units

Maintain consistency in the units used throughout the drawing. This eliminates confusion and ensures that measurements are easily interpretable.

10. Applying Tolerances

Indicate tolerances on critical dimensions to specify acceptable variations. Tolerances can be applied directly to dimensions or through the use of notes.

11. Using Datum Features

Establish datum features to define the reference point for dimensioning. This helps prevent cumulative errors and ensures that dimensions are correctly interpreted.

12. Avoiding Redundant Dimensions

Do not create redundant dimensions. Each dimension should provide unique information and not repeat data already present in other dimensions.

13. Considering GD&T

Incorporate geometric dimensioning and tolerancing (GD&T) symbols to specify additional geometric requirements beyond basic dimensions.

14. Ensuring Readability

Position dimensions and notes clearly and legibly. Avoid placing dimensions or notes in areas of the drawing that are difficult to read or may be obscured by other features.

15. Using Section Views

Create section views to reveal internal details and dimension features that cannot be fully seen in a standard view.

16. Using Notes for Clarification

Add notes to provide additional information or instructions that cannot be conveyed through dimensions alone. Notes can also be used to clarify complex geometric relationships.

17. Detailed Example: Linking a Note to a Dimension

Consider the following step-by-step example:

Step	Action
1	Open a SolidWorks drawing and insert a model.
2	Create a dimension between two model edges.
3	Insert a note and type “Surface finish: 16Ra”
4	Select the note and click the dimension to link them.
5	The note is now linked to the dimension and will automatically update if the dimension is modified.

Managing Dimension Properties and Annotations

In SolidWorks, dimensions are not just graphical representations of measurements. They also carry critical information that can be used for downstream processes like manufacturing and assembly. Therefore, it’s essential to manage dimension properties and annotations effectively to ensure accuracy and clarity in drawings.

SolidWorks provides a comprehensive set of tools to customize dimension properties, including units, tolerances, and precision. You can also add annotations to dimensions, such as notes, symbols, and geometric tolerances, to convey additional information.

Editing Dimension Properties

Select the dimension you want to edit.
Right-click and select “Edit Dimension.”
In the “Dimension Properties” dialog box, make the necessary changes to units, tolerances, precision, and other settings.
Click “OK” to save the changes.

Adding and Editing Annotations

Select the dimension you want to annotate.
Right-click and select “Add Annotation.”
Select the type of annotation you want to add, such as a note, symbol, or geometric tolerance.
Enter the necessary information in the “Annotation Properties” dialog box.
Click “OK” to save the annotation.

18. Controlling Dimension Display

In addition to managing dimension properties and annotations, SolidWorks also allows you to control how dimensions are displayed in drawings. This includes setting the dimension style, dimension text format, and dimension tolerance display.

To control dimension display, go to “Tools” > “Options” > “Document Properties” > “Dimensions.” Here, you can:

Set the dimension style: Choose from various predefined dimension styles or create your custom style.
Set the dimension text format: Specify the font, size, and color of dimension text.
Set the dimension tolerance display: Control how tolerances are displayed, including the format, symbols, and placement.
Hide dimensions: Exclude specific dimensions from being displayed in the drawing.
Lock dimensions: Prevent dimensions from being edited or moved.

Best Practices for Dimensioning

To ensure clarity and accuracy in your drawings, follow these best practices for dimensioning:

Best Practice	Description
Use the appropriate dimension style	Select a dimension style that is suitable for the specific drawing and intended audience.
Set clear dimension text	Use a readable font, size, and color for dimension text.
Display necessary tolerances	Include appropriate tolerances to ensure accuracy in manufacturing and assembly.
Avoid unnecessary dimensions	Only include dimensions that are critical to understanding the design.
Use annotations sparingly	Limit the use of annotations to convey essential information that cannot be expressed through dimensions alone.

Linking Multiple Notes to a Single Dimension

SolidWorks allows you to link multiple notes to a single dimension, which can be useful for providing additional information or context to the dimension. To link multiple notes to a dimension:

Select the dimension you want to link notes to.
Right-click and select “Edit Note”.
In the “Note” dialog box, click the “Link Notes” button.
Select the notes you want to link to the dimension.
Click “OK” to close the “Link Notes” dialog box.
Click “OK” to close the “Note” dialog box.

The notes will now be linked to the dimension, and will move with the dimension if it is moved or resized. To edit the linked notes, simply right-click on the dimension and select “Edit Note”.

Here is an example of how to use linked notes to provide additional information about a dimension:

Dimension	Linked Notes
Length	This dimension represents the length of the part. It is important to note that this dimension does not include the length of the chamfers.

By linking notes to dimensions, you can provide additional information that can help to clarify the meaning of the dimension or to provide additional context.

Additionally, you can use the “Link Notes” command to link notes to multiple dimensions. This can be useful for providing additional information about a group of dimensions or for creating a table of dimensions and notes.

To link notes to multiple dimensions:

Select the dimensions you want to link notes to.
Right-click and select “Link Notes”.
Select the notes you want to link to the dimensions.
Click “OK” to close the “Link Notes” dialog box.

The notes will now be linked to the dimensions, and will move with the dimensions if they are moved or resized. To edit the linked notes, simply right-click on one of the dimensions and select “Edit Note”.

By linking notes to dimensions, you can provide additional information that can help to clarify the meaning of the dimensions or to provide additional context. This can be a useful tool for creating clear and concise drawings.

Editing Linked Notes Simultaneously

Editing linked notes simultaneously allows you to make changes to multiple notes at once, ensuring consistency and efficiency in your drawings. To edit linked notes simultaneously:

Select the notes you want to link.
Right-click and select “Link Notes.”
In the “Linked Notes” dialog box, enable the “Link Notes” option.
Specify the type of formatting you want to apply to the linked notes:
– **Independent:** Each note will have its own formatting.
– **Identical:** All notes will have the same formatting.
– **Leader:** The notes will be linked to a leader.
Optionally, you can choose to “Lock Link” to prevent further changes to the link between the notes.

Click “OK” to apply the changes.

The linked notes will now be automatically updated whenever you make changes to any of the linked notes. This saves time and ensures that all notes in the drawing remain consistent.

Additional Tips for Editing Linked Notes Simultaneously

You can also link notes to dimensions in your drawing.
Linked notes can be formatted using the Note Properties dialog box or the Format Painter.
If you want to remove a link between notes, right-click on the note and select “Unlink Notes.”
Linked notes can be a convenient way to keep track of changes in your drawing.
You can use linked notes to create custom tables or charts in your drawings.
Linked notes can be used to create interactive user interfaces in your drawings.
Linked notes can be a valuable tool for collaboration, as they allow multiple users to work on the same notes simultaneously.

Formatting Type	Description
Independent	Each note will have its own formatting.
Identical	All notes will have the same formatting.
Leader	The notes will be linked to a leader.

Dimensioning Best Practices for Clarity and Accuracy

1. Utilize Clear and Concise Dimensions

Dimensions should be easy to read and comprehend. Avoid using abbreviations or jargon that may not be familiar to the reader. Use clear and concise language to convey the necessary information.

2. Position Dimensions Properly

Dimensions should be placed near the associated feature or area they describe. The dimension line should extend beyond the object being dimensioned to provide clear visual separation. Avoid placing dimensions on or over other drawing elements.

3. Specify Dimension Tolerances

If dimensional accuracy is critical, specify tolerances using symbols such as ±, <, and >. These symbols indicate the allowable variation in the dimension from the nominal value provided.

4. Use Consistent Units

Maintain consistency in the units used throughout the drawing. All dimensions should be expressed in the same unit, such as inches, millimeters, or centimeters.

5. Avoid Ambiguous Dimensioning

Dimensions should be unambiguous and leave no room for interpretation. Avoid using dimensions that could be misinterpreted or confused with other dimensions.

6. Use Ordinate Dimensions

Ordinate dimensions are used to locate points or features in relation to a specific origin or datum. Use ordinate dimensions when precision is required or when it is necessary to locate multiple features relative to each other.

7. Apply Dimension Standards

Follow industry or company standards for dimensioning practices. This ensures consistency and clarity in drawing communication.

8. Use Logical Dimensioning Schemes

Dimensions should be arranged in a logical and readable manner. Avoid overcrowding or overlapping dimensions. Use a consistent dimensioning scheme throughout the drawing.

9. Incorporate Geometric Dimensioning and Tolerancing (GD&T)

GD&T is a standardized system for specifying tolerances and geometric characteristics. GD&T symbols and annotations provide precise control over the shape, size, and location of features.

10. Use Notes to Clarify Dimensions

When necessary, add notes to dimensions to provide additional information or clarifications. Notes can explain dimension tolerances, material properties, or other relevant details.

11. Employ a Dimensioning Feature Manager

Utilizing a dimensioning feature manager can streamline the dimensioning process and enhance accuracy. Feature managers allow for quick and easy dimension placement and control.

12. Review and Validate Dimensions

Carefully review and validate all dimensions before finalizing the drawing. Check for errors, inconsistencies, and omissions. Validate dimensions against the actual part or model to ensure accuracy.

13. Use Extension and Center Lines

Extension and center lines help define the dimension line and clarify the direction of measurement. Use extension lines to extend beyond the dimensioned feature and center lines to locate the center of circles or arcs.

14. Avoid Redundant Dimensions

Avoid adding multiple dimensions that provide the same information. Redundant dimensions can lead to confusion and increase the likelihood of errors.

15. Use Witness Lines

Witness lines connect a dimension line to the feature being dimensioned. They provide a clear visual indication of what the dimension is referencing.

16. Check for Interferences

Ensure that dimension lines and annotations do not interfere with other drawing elements, such as symbols, notes, or views.

17. Use Arrowheads

Arrowheads indicate the extent of the dimension line and prevent confusion about the direction of measurement. Use arrowheads that are clear and well-defined.

18. Align Dimensions with the Page

Dimensions should be aligned with the page or other drawing elements for better readability. Avoid placing dimensions at odd angles or off-center.

19. Use Symbols and Abbreviations Sparingly

While symbols and abbreviations can be useful, overuse can lead to confusion. Use them only when necessary and provide a key or legend if needed.

20. Consider the Scale of the Drawing

Adjust the size and spacing of dimensions to match the scale of the drawing. Larger drawings may require larger dimensions, while smaller drawings may benefit from smaller dimensions.

21. Dimensioning Strategies for Complex Shapes and Assemblies

a. Use Reference Dimensions

Reference dimensions are not critical for manufacturing but provide additional information or clarify relationships between features. Label reference dimensions with the letter “R” to distinguish them from critical dimensions.

b. Break Down Complex Shapes

Complex shapes can be broken down into simpler shapes for easier dimensioning. Dimension each component separately and provide overall dimensions for the entire shape.

c. Use Angular Dimensions

Angular dimensions specify the angle between two reference lines or surfaces. Use angular dimensions for angles that are critical for part mating or assembly.

d. Use Geometric Tolerances

Geometric tolerances control the shape and orientation of features. Use geometric tolerances to ensure precision and functionality in complex assemblies.

e. Employ Dimensioning Schemes

Dimensioning schemes provide a consistent approach to dimensioning complex assemblies. Coordinate dimensión between components to ensure alignment and proper fit.

Creating Parametric Notes Based on Dimensions

Parametric notes are notes that are linked to dimensions, so that when the dimension changes, the note updates automatically. This can be a great way to ensure that your notes are always accurate, and that they reflect the latest changes to your design.

To create a parametric note, first select the dimension that you want to link to the note. Then, click the “Note” tool on the “Annotations” toolbar. In the “Note” dialog box, enter the text that you want to appear in the note. Then, click the “Options” button and select the “Parametric” checkbox. This will link the note to the dimension that you selected.

You can also create parametric notes by using the “Equation Editor”. To do this, click the “Equation Editor” button on the “Annotations” toolbar. In the “Equation Editor” dialog box, enter the equation that you want to use to create the note. Then, click the “OK” button. The equation will be inserted into a note that is linked to the dimension that you selected.

Parametric notes can be a great way to ensure that your notes are always accurate, and that they reflect the latest changes to your design. They are also a great way to save time, as you don’t need to manually update your notes every time you change a dimension.

Editing Parametric Notes

To edit a parametric note, simply double-click on the note. This will open the “Note” dialog box, where you can make changes to the text or the equation that is used to create the note. You can also change the options for the note, such as the font, the size, and the color.

Deleting Parametric Notes

To delete a parametric note, simply select the note and press the “Delete” key. This will remove the note from the drawing.

Creating Parametric Notes in a Table

You can also create parametric notes in a table. To do this, first create a table in your drawing. Then, select the cells in the table that you want to contain parametric notes. Finally, click the “Note” tool on the “Annotations” toolbar and enter the text that you want to appear in the notes. The notes will be linked to the cells that you selected, and they will update automatically when the values in the cells change.

Parametric notes can be a great way to keep your drawings organized and up-to-date. They are also a great way to save time, as you don’t need to manually update your notes every time you change a dimension or a value in a table.

Tips for Using Parametric Notes

Here are a few tips for using parametric notes:

Use parametric notes to ensure that your notes are always accurate, and that they reflect the latest changes to your design.
Use parametric notes to save time, as you don’t need to manually update your notes every time you change a dimension or a value in a table.
Use parametric notes to keep your drawings organized and up-to-date.
Use the “Equation Editor” to create complex equations for your parametric notes.
Use the “Options” button to customize the appearance of your parametric notes.

Example of a Parametric Note

The following is an example of a parametric note that is linked to a dimension:

“`
[Note: The length of the line is {d1}]
“`

This note will update automatically when the value of the dimension “d1” changes.

Table of Parametric Notes

The following table shows a list of parametric notes that are commonly used in SolidWorks drawings:

Note	Description
[Note: The length of the line is {d1}]	Links the note to the dimension “d1”
[Note: The area of the circle is {d2}]	Links the note to the dimension “d2”
[Note: The volume of the sphere is {d3}]	Links the note to the dimension “d3”

Dimensioning Strategies for Complex Geometries

When dealing with complex geometries in SolidWorks drawings, it becomes imperative to adopt effective dimensioning strategies to ensure accuracy and clarity. Here are some guidelines to assist you in this endeavor:

1. Utilize Datum Planes and Axes

Establishing datum planes and axes provides a consistent reference framework for dimensioning complex geometries. This approach helps avoid ambiguities and ensures that dimensions are consistently referenced from the same starting points.

2. Chain Dimensioning

Chain dimensioning involves chaining dimensions together, eliminating the need for redundant dimensions. It is particularly useful for linear dimensioning of multiple features.

3. Radial and Diameter Dimensioning

For circular features, radial and diameter dimensions are often used. Radial dimensions measure the distance from a center point, while diameter dimensions indicate the length across the circle.

4. Angular Dimensioning

Angular dimensions specify the angle between two lines or planes. They are crucial for dimensioning features with sloped or angled surfaces.

5. Hole Center Dimensioning

For holes or other circular features, it is essential to use hole center dimensioning. This method provides the location of the hole center relative to other features.

6. Coordinate Dimensioning

Coordinate dimensioning assigns X, Y, and Z coordinates to specific points on the geometry. It is particularly useful for complex assemblies with intricate relationships between components.

7. Geometric Dimensioning and Tolerancing (GD&T)

GD&T is a system of dimensioning and tolerancing that provides precise and unambiguous specifications for complex geometries. It is commonly used for critical dimensions in manufacturing and engineering.

8. Full Dimensioning

Full dimensioning ensures that all necessary dimensions are included on the drawing to fully define the geometry. It is crucial to avoid under-dimensioning, which can lead to inaccuracies.

9. Dimension Placement

Dimension placement plays a significant role in the readability of a drawing. Dimensions should be placed close to the features they describe and oriented in a manner that makes their interpretation clear.

10. Smart Dimensions

SolidWorks offers “smart” dimensions, which automatically update when the geometry changes. This feature saves time and reduces the risk of errors during editing and revision.

11. Tolerance Stack-ups

When multiple tolerances accumulate, it becomes necessary to consider tolerance stack-ups. This analysis ensures that the overall tolerance of the assembly meets the required specifications.

12. Dimension Filters

Dimension filters allow you to selectively display or hide dimensions based on specific criteria. This feature enhances the clarity of drawings by focusing on relevant dimensions.

13. Balloons and Notes

Balloons and notes provide additional information to supplement dimensions. Balloons can be used to identify specific features, while notes can clarify dimensioning intent or provide other important instructions.

14. Dimensioning Standards

Adhering to standardized dimensioning practices ensures consistency and clarity across multiple drawings. ASME Y14.5 is a widely used standard for mechanical dimensioning and tolerancing.

15. Dimensioning Variables

Dimension variables can be used to represent dimensions that are not fixed or change dynamically. This feature allows for the creation of parametric drawings that can adapt to different conditions.

16. Alignment and Distribution

Proper alignment and distribution of dimensions enhance the readability and aesthetics of a drawing. Using the “Align Dimensions” and “Distribute Dimensions” tools helps achieve a consistent layout.

17. Custom Properties

Custom properties can be used to store additional information about dimensions, such as the tolerance value or the source of the dimension. This data can be extracted for use in reports or downstream processes.

18. Associative Dimensions

Associative dimensions are linked to the geometry and update automatically when the geometry changes. This feature ensures that dimensions remain accurate even after design modifications.

19. Notes for Dimensions

Adding notes to dimensions provides additional clarification or instructions to users. These notes can explain the purpose of the dimension, specify a tolerance, or provide other relevant information.

20. Dimension Display Options

SolidWorks offers various display options for dimensions, such as the ability to change the font, size, and color. These options can be customized to suit specific drawing requirements and preferences.

21. Model Items Dimensioning

Model items dimensioning allows you to dimension components or features directly from the 3D model. This approach simplifies the dimensioning process and ensures that dimensions are accurate.

22. Section Views Dimensioning

For complex geometries, section views can be used to provide additional dimensioning information. Dimensions can be added to section views to clarify relationships between features.

23. Assembly Level Dimensioning

Dimensioning at the assembly level provides an overall perspective of the assembly. Dimensions can be used to specify the spacing, alignment, and relationships between components.

24. Custom Dimension Schemes

SolidWorks allows the creation of custom dimension schemes that can be applied to multiple drawings. These schemes define the appearance, placement, and behavior of dimensions, ensuring consistency across different drawings.

25. Advanced Dimensioning Techniques

SolidWorks offers advanced dimensioning techniques that cater to specific requirements. These techniques include:

Technique	Description
Equal Distances	Dimensions multiple features equally spaced from a common reference point.
Linear Path	Dimensions the length of a path along a curve or surface.
Radial Path	Dimensions the length of a path along a radial arc.
Projected Dimensions	Dimensions the projection of a feature onto a reference plane.
Slope Dimensions	Dimensions the slope of lines or surfaces.

Handling Special Cases in Dimensioning

SolidWorks provides various tools and techniques to handle special cases in dimensioning, ensuring accurate and clear drawing representations.

Arc Dimensions

Arcs can be dimensioned using various methods:

Arc Length: Measures the distance along the arc.
Arc Radius: Measures the distance from the arc center to the arc midpoint.
Arc Angle: Specifies the angle subtended by the arc.

Fillet and Chamfer Dimensions

Fillet and chamfer dimensions can be handled using:

Leader Dimension: A manual dimension added to indicate the fillet or chamfer size.
Note: A text note added to the drawing to specify the fillet or chamfer size.
Model Item Dimension: An automatic dimension that references the fillet or chamfer feature’s value from the model.

Slot Dimensions

Slots can be dimensioned using:

Overall Slot Length: Measures the total length of the slot.
Slot Width: Measures the width of the slot.
Distance to Slot: Measures the distance from a reference point to the slot.

Hole Callouts

Hole callouts provide detailed information about drilled holes:

Hole Diameter: Specifies the diameter of the hole.
Hole Depth: Specifies the depth of the hole.
Hole Type: Indicates the type of hole feature (blind, through, countersink, etc.).
Hole Quantity: Specifies the number of holes of the same size and type.

Contour Dimensions

Contours can be dimensioned using:

Chain Dimension: A series of connected dimensions that follow the contour’s shape.
Parallel Dimension: A set of parallel dimensions that measure the distance between specific points on the contour.
Radial Dimension: A set of radial dimensions that measure the distance from a central point to different points on the contour.

Surface Dimensions

Surface dimensions can be handled using:

Leader Dimension: A manual dimension added to indicate the surface area or volume.
Note: A text note added to the drawing to specify the surface area or volume.
Model Item Dimension: An automatic dimension that references the surface feature’s value from the model.

Dynamic Dimensions

Dynamic dimensions update automatically when dimensional parameters:

Modify in the sketch: Dimensions that reference sketch dimensions will update when the sketch is changed.
Modify in the feature: Dimensions that reference feature parameters will update when the feature is modified.
Automatic dimension: Dimensions that are generated automatically from model geometry will update when the geometry changes.

Table Dimensions

Dimensions can be organized into tables for improved clarity and readability:

Column	Description
Name	Name of the dimension
Value	Numerical value of the dimension
Units	Units of measurement for the dimension
Notes	Additional comments or explanations about the dimension

Other Special Cases

Other special cases include:

Reference Dimensions: Dimensions that are added for reference purposes and do not affect the model.
Cosmetic Dimensions: Dimensions that are added to enhance the drawing’s appearance but do not represent actual dimensions.
Locational Dimensions: Dimensions that specify the position of features relative to a reference point or coordinate system.

1. Create a Note

Begin by creating a note in the drawing. To do this, click on the “Note” tool in the “Annotations” toolbar. Then, click on the drawing area to place the note. You can then enter the text of the note in the “Note Text” box.

2. Select the Note

Once you have created a note, you need to select it. To do this, click on the note with the mouse. The note will be highlighted when it is selected.

3. Link the Note to a Dimension

To link the note to a dimension, click on the “Link Note to Dimension” tool in the “Annotations” toolbar. Then, click on the dimension that you want to link the note to. The note will be linked to the dimension and will move with the dimension when it is moved.

Dimensioning Holes and Patterns

4. Dimensioning Holes

To dimension holes, you can use the “Hole Callout” tool in the “Dimensions” toolbar. This tool allows you to create a dimension that includes the diameter of the hole and the center-to-center distance between the holes.

5. Dimensioning Patterns

To dimension patterns, you can use the “Pattern Dimension” tool in the “Dimensions” toolbar. This tool allows you to create a dimension that includes the number of holes in the pattern and the spacing between the holes.

6. Creating a Table of Dimensions

You can also create a table of dimensions in the drawing. To do this, click on the “Table” tool in the “Tables” toolbar. Then, click on the drawing area to place the table. You can then enter the dimensions in the table cells.

7. Editing Dimensions

You can edit the dimensions in the drawing by double-clicking on the dimension. This will open the “Dimension Properties” dialog box, where you can change the value of the dimension.

8. Deleting Dimensions

You can delete dimensions by selecting them and pressing the “Delete” key. You can also delete dimensions by right-clicking on them and selecting “Delete” from the context menu.

9. Changing the Appearance of Dimensions

You can change the appearance of dimensions by right-clicking on them and selecting “Properties” from the context menu. This will open the “Dimension Properties” dialog box, where you can change the font, size, and color of the dimension.

10. Using Global Variables

You can use global variables to store the values of dimensions. This can be useful if you want to use the same value in multiple dimensions. To create a global variable, click on the “Global Variables” tool in the “Utilities” toolbar. Then, enter the name of the variable and the value of the variable.

11. Using Equations

You can use equations to create dimensions that are based on other dimensions. To create an equation, click on the “Equation” tool in the “Dimensions” toolbar. Then, enter the equation in the “Equation” box.

12. Using Custom Properties

You can use custom properties to store information about the drawing. This information can be used to create dimensions, tables, and other annotations. To create a custom property, click on the “Custom Properties” tool in the “Utilities” toolbar. Then, enter the name of the property and the value of the property.

Property	Description
Hole Diameter	The diameter of the hole.
Hole Center-to-Center Distance	The center-to-center distance between the holes.
Pattern Number of Holes	The number of holes in the pattern.
Pattern Hole Spacing	The spacing between the holes in the pattern.

Dimensioning for Manufacturing and Production

31. Dimensioning for Machining and Fabrication

When dimensioning for machining and fabrication, it is important to consider the following factors:

The type of machining or fabrication process that will be used
The tolerances that are required
The materials that will be used
The surface finish that is required

The type of machining or fabrication process that will be used will determine the types of dimensions that are required. For example, CNC machining typically requires more precise dimensions than manual machining. The tolerances that are required will also affect the dimensions that are used. Tighter tolerances will require more precise dimensions.

The materials that will be used will also affect the dimensions that are used. Different materials have different properties, such as strength, hardness, and ductility. These properties will affect the way that the material can be machined or fabricated, and the dimensions that are used will need to be adjusted accordingly.

The surface finish that is required will also affect the dimensions that are used. A smoother surface finish will require more precise dimensions than a rougher surface finish.

In addition to the factors listed above, there are a number of other factors that can affect the dimensions that are used for machining and fabrication. These factors include the following:

The size of the part
The complexity of the part
The cost of the materials
The time that is available to complete the project

By considering all of these factors, it is possible to develop a dimensioning scheme that will ensure that the part is manufactured or fabricated to the required specifications.

Table of Common Dimensioning Standards for Machining and Fabrication

Standard	Description
ANSI Y14.5M	Dimensioning and Tolerancing for Engineering Drawings
ISO 2768	General Tolerances for Linear and Angular Dimensions
DIN 7168	Tolerances for Geometrical Product Specifications (GPS)
BS 3738	Tolerances for Linear and Angular Dimensions
JIS B0401	General Tolerances for Drawing Dimensions

Dimensioning Tolerances and Deviations

Tolerances and deviations are crucial aspects of dimensioning, as they specify the permissible range of variation in a dimension. Understanding and applying them correctly ensures accurate and effective communication of design intent and requirements.

Tolerances

Tolerances represent the allowable limits or variations in a dimension. They define the acceptable deviation from the nominal dimension and are expressed in specific units, such as millimeters or inches. Tolerances are typically specified with either unilateral or bilateral limits.

Unilateral Tolerance

A unilateral tolerance permits deviation in only one direction from the nominal dimension. It is indicated by a single value, either positive or negative. For example, a tolerance of +0.5mm means the dimension can vary from the nominal by up to +0.5mm.

Bilateral Tolerance

A bilateral tolerance allows deviation in both directions from the nominal dimension. It is indicated by two values, one positive and one negative. For example, a tolerance of ±0.5mm means the dimension can vary from the nominal by up to +0.5mm or -0.5mm.

Deviations

Deviations refer to the actual variation in a dimension from its nominal value. They are typically expressed as the difference between the measured dimension and the nominal dimension. Deviations can be either positive or negative.

Positive Deviation

A positive deviation occurs when the measured dimension is greater than the nominal dimension. It is indicated by a “+” sign.

Negative Deviation

A negative deviation occurs when the measured dimension is less than the nominal dimension. It is indicated by a “-” sign.

Tolerance Zones

Tolerance zones are graphical representations of the allowable variations in a dimension. They are shown as shaded areas on either side of the nominal dimension line. The width of the tolerance zone represents the total tolerance.

Symmetrical Tolerance Zone

A symmetrical tolerance zone has equal positive and negative deviations. It is indicated by a single value, such as ±0.5mm.

Asymmetrical Tolerance Zone

An asymmetrical tolerance zone has unequal positive and negative deviations. It is indicated by two values, such as +0.3mm/-0.2mm.

GD&T Symbols for Tolerances and Deviations

Geometric Dimensioning and Tolerancing (GD&T) symbols are used to specify tolerances and deviations in engineering drawings. These symbols provide a concise and standardized way of communicating design requirements.

Symbol	Description
	± Bilateral tolerance
	+ Unilateral tolerance (positive)
	– Unilateral tolerance (negative)

Nominal Dimensions and Tolerance Limits

Nominal dimensions represent the theoretical or target values for dimensions. Tolerance limits define the upper and lower bounds of the acceptable range of deviation from the nominal dimension. The tolerance limits are calculated by adding and subtracting half of the tolerance value from the nominal dimension.

For example, if a dimension has a nominal value of 10mm and a tolerance of ±0.5mm, the tolerance limits would be 10.5mm (upper limit) and 9.5mm (lower limit).

Specifying Tolerances in SolidWorks Drawings

In SolidWorks drawings, tolerances can be specified using the “Dimensions” tab in the “PropertyManager” dialog box. The tolerance value can be entered in the “Tolerance” field. Unilateral or bilateral tolerances can be selected using the drop-down menu.

Tolerance Stack-ups

Tolerance stack-ups are cumulative effects of tolerances in a series of dimensions. They can lead to significant deviations from the intended nominal dimensions.

When calculating tolerance stack-ups, the worst-case scenario is considered, where all deviations occur in the same direction. This can result in larger actual deviations than the individual tolerances would suggest.

Using Note Balloons for Geometric Tolerances

Note balloons allow you to attach geometric tolerances to specific dimensions on your drawing. This helps to ensure that the correct tolerances are applied to the correct dimensions, and it also makes it easier to read and understand the drawing.

To add a note balloon to a dimension:

1. Select the dimension.
2. Click the Note Balloons tool on the Sketch toolbar.
3. Move the cursor to the desired location for the note balloon and click to place it.
4. Enter the desired text into the note balloon.

You can also use note balloons to add other information to your drawing, such as:

* Notes about the design or manufacturing process
* References to other drawings or documents
* Warnings or cautions

Note balloons are a valuable tool for communicating information about your design. Use them to help ensure that your drawings are accurate, clear, and easy to understand.

Customizing Note Balloons

You can customize note balloons to change their appearance and behavior. To do this:

1. Right-click on the note balloon and select Properties.
2. In the Properties dialog box, make the desired changes to the following settings:

Setting	Description
Size	The size of the note balloon.
Style	The shape of the note balloon.
Color	The color of the note balloon.
Font	The font used for the text in the note balloon.
Opacity	The transparency of the note balloon.

3. Click OK to save your changes.

Attaching Note Balloons to Dimensions

To attach a note balloon to a dimension, simply click on the dimension and then click on the note balloon tool. The note balloon will be attached to the dimension and will move with it if you move the dimension.

You can also use the Note Balloons tool to attach note balloons to other objects in your drawing, such as lines, arcs, and circles.

Using Note Balloons to Create Geometric Tolerances

Note balloons can also be used to create geometric tolerances. Geometric tolerances are used to specify the allowable variation in the size, shape, or orientation of a feature. To create a geometric tolerance using a note balloon:

1. Select the dimension that you want to apply the geometric tolerance to.
2. Click the Note Balloons tool on the Sketch toolbar.
3. Move the cursor to the desired location for the note balloon and click to place it.
4. Enter the desired geometric tolerance into the note balloon.

The geometric tolerance will be attached to the dimension and will move with it if you move the dimension.

Editing Geometric Tolerances

To edit a geometric tolerance, simply double-click on the note balloon. The Geometric Tolerance dialog box will open, where you can make the desired changes.

You can also use the Geometric Tolerance dialog box to create new geometric tolerances.

Using Note Balloons to Communicate Design Intent

Note balloons are a powerful tool for communicating design intent. Use them to help ensure that your drawings are accurate, clear, and easy to understand.

By following these tips, you can use note balloons to effectively communicate your design intent and create drawings that are accurate, clear, and easy to understand.

Dimensioning Sheet Metal Parts

35. Angled Dimensions

Understanding Angled Dimensions

Angled dimensions are used to measure the angle between two lines or surfaces.
In SolidWorks, angled dimensions are created using the Linear Dimension tool and selecting the "Angle" option.

Creating Angled Dimensions

Select the Linear Dimension tool from the Dimension toolbar or the Dimensions menu.
Hover over the first line or surface you want to measure.
Click to set the first point of the dimension.
Move the cursor along the second line or surface until the desired angle is reached.
Click to set the second point of the dimension.
A tooltip will appear displaying the measured angle.
Click to place the dimension in the drawing.

Options for Angled Dimensions

Dimension Style: Choose the desired dimension style from the PropertyManager.
Angle Datum: Specify the reference surface or edge from which the angle is measured.
Tolerance: Define the tolerance for the angle.
Decimal Places: Set the number of decimal places to display in the dimension.
Text Height: Control the size of the dimension text.
Arrow Style: Select the arrow style for the dimension lines.

Additional Considerations for Angled Dimensions

When dimensioning angles, a reference plane or datum must be established to define the zero degree.
Angled dimensions can be created between any two linear or circular entities.
It is important to ensure that the dimension is placed in a clear and legible location on the drawing.

Property	Description	Example
Dimension Style	Standard, ISO, ASME, etc.	ISO-25
Angle Datum	Surface or edge to measure the angle from	Front Plane
Tolerance	Permissible deviation from the specified angle	±0.5°
Decimal Places	Number of decimal places to display	2
Text Height	Size of the dimension text	0.125″
Arrow Style	Open, filled, or custom	Filled

Best Practices for Angled Dimensions

Use angled dimensions to accurately measure angles in sheet metal parts.
Establish a clear reference plane or datum for the angle measurement.
Place angled dimensions in a visible and understandable location on the drawing.
Use appropriate dimension styles, tolerances, and decimal places for the project requirements.

Dimensioning Weldments and Fabricated Components

Automatic Dimensioning of Weldments and Fabricated Components

SolidWorks provides automated dimensioning capabilities specifically designed for weldments and fabricated components. These tools help streamline the dimensioning process, ensuring consistency and accuracy in your drawings.

Benefits of Automatic Dimensioning

* Reduced Time and Effort: Automating the dimensioning process significantly reduces the time and effort required to create accurate drawings.
* Increased Accuracy: Automated tools eliminate the risk of human error, ensuring that dimensions are precise and consistent throughout the drawing.
* Enhanced Drawing Readability: Clear and concise dimensions improve the readability and clarity of your drawings, making them easier to interpret and understand.

Customizing Automatic Dimensions

While SolidWorks offers predefined dimension styles, you can also customize the appearance of your dimensions to suit your specific requirements. You can modify the font, size, color, and other properties of your dimensions to create a professional-looking drawing that meets your standards.

Step-by-Step Instructions for Automatic Dimensioning

1. Select the Weldment or Fabricated Component: In your SolidWorks model, select the weldment or fabricated component that you want to dimension.

2. Activate the Dimension Tool: Click on the “Dimension” tool from the “Annotations” toolbar or use the keyboard shortcut “D.”

3. Choose the Dimension Style: Select the appropriate dimension style from the “Dimension Style” drop-down menu. SolidWorks offers specific dimension styles optimized for weldments and fabricated components.

4. Apply Dimensions: Click on the weldment or fabricated component to apply dimensions. SolidWorks automatically generates dimensions based on the selected style.

5. Modify Dimensions (Optional): If necessary, you can modify the dimensions by dragging the dimension lines or entering specific values in the dimension properties dialog box.

6. Complete the Drawing: Continue adding dimensions to fully describe the weldment or fabricated component. You can also add other annotations, such as notes and symbols, as needed.

Advanced Dimensioning Techniques

In addition to automatic dimensioning, SolidWorks offers advanced dimensioning techniques that provide greater control over the appearance and behavior of dimensions.

1. Dimension Chains: Dimension chains allow you to create a series of interconnected dimensions, ensuring that they are consistent and properly spaced.

2. Geometric Tolerancing: SolidWorks supports the application of Geometric Dimensioning and Tolerancing (GD&T) symbols to your drawings, enhancing the accuracy and clarity of your specifications.

3. Parametric Dimensions: Parametric dimensions allow you to dynamically update dimensions based on changes made to the geometry of your model.

4. Equations and Expressions: You can use equations and expressions to define complex dimensions and relationships between different features in your model.

5. Tables and Lists: SolidWorks enables you to create tables and lists to display dimensions, notes, and other information in a structured format, making your drawings more organized and easy to navigate.

By mastering these advanced techniques, you can create professional-quality drawings that fully capture the design intent and specifications of your weldments and fabricated components.

Dimensioning Electrical and Electronic Schematics

37. Dimensioning Components on a Schematic

When dimensioning components on a schematic, it’s crucial to ensure accuracy and clarity for easy interpretation and fabrication. Here are the steps to effectively dimension components:

1. **Identify the Critical Dimensions:** Determine which dimensions are essential for accurately manufacturing or assembling the component. These may include the overall length, width, height, hole diameters, and component spacing.

2. **Establish a Dimensioning Baseline:** Choose a reference point or baseline from which all dimensions will be measured. This helps maintain consistency and avoids ambiguity.

3. **Use Dimensioning Tools:** Utilize SolidWorks’ dimensioning tools such as linear dimensions, angular dimensions, and ordinate dimensions to accurately capture the dimensions. Set appropriate tolerance values based on the required precision.

4. **Consider Component Orientation:** Pay attention to the orientation of the component while dimensioning. Ensure that the dimensions are measured in a way that aligns with the intended mounting or placement of the component.

5. **Annotate Dimensions Clearly:** Label and annotate dimensions with clear and concise text. Use abbreviations and symbols if necessary, but ensure they are defined in the drawing for clarity.

6. **Use Tables for Dimension Lists:** If there are multiple instances of the same component with different dimensions, consider creating a dimension table to list the dimensions efficiently and avoid cluttering the drawing.

7. **Verify Dimensions:** Carefully review the dimensions and ensure they match the actual specifications or design intent. Use dimensioning review tools within SolidWorks to check for errors and inconsistencies.

8. **Consider Fabrication and Assembly Tolerances:** Take into account the tolerances and allowances for fabrication and assembly. Ensure that the dimensions specified allow for proper fit and function during manufacturing.

9. **Use Dimensioning Standards:** Adhere to relevant dimensioning standards such as ASME Y14.5 or ISO 129 to ensure consistent and industry-accepted dimensioning practices.

10. **Maintain Dimensioning Hierarchy:** Organize dimensions in a logical hierarchy, with primary dimensions being more prominent and secondary or auxiliary dimensions supporting the primary ones.

Dimension Layers and Visibility

Creating Dimension Layers

To create a new dimension layer, right-click on the “Dimensions” folder in the Feature Manager Tree and select “New Layer”. Enter a name for the new layer and click “OK”.

Managing Dimension Layers

To manage dimension layers, right-click on the “Dimensions” folder in the Feature Manager Tree and select “Manage Layers”. This will open the “Layer Properties” dialog box.

In the “Layer Properties” dialog box, you can:

* Rename layers
* Change the color and line width of dimensions on each layer
* Control the visibility of dimensions on each layer
* Associate dimensions with specific configurations

Associating Dimensions with Configurations

To associate a dimension with a specific configuration, right-click on the dimension and select “Configure Dimension”. In the “Configuration Properties” dialog box, select the configuration(s) that you want the dimension to be associated with.

Controlling Dimension Visibility

To control the visibility of dimensions, right-click on the “Dimensions” folder in the Feature Manager Tree and select “Visibility”. This will open the “Dimension Visibility” dialog box.

In the “Dimension Visibility” dialog box, you can:

* Hide or show all dimensions
* Hide or show dimensions on specific layers
* Hide or show dimensions that are associated with specific configurations

Linking Notes to Dimensions

To link a note to a dimension, right-click on the dimension and select “Add Note”. In the “Note Properties” dialog box, enter the text of the note and click “OK”.

The note will be attached to the dimension and will move with it when the dimension is moved or resized.

Formatting Notes

To format a note, right-click on the note and select “Format Note”. In the “Note Properties” dialog box, you can:

* Change the font, size, and color of the text
* Add a border or background to the note
* Align the text in the note

Associating Notes with Configurations

To associate a note with a specific configuration, right-click on the note and select “Configure Note”. In the “Configuration Properties” dialog box, select the configuration(s) that you want the note to be associated with.

Managing Notes

To manage notes, right-click on the “Notes” folder in the Feature Manager Tree and select “Manage Notes”. This will open the “Note Properties” dialog box.

In the “Note Properties” dialog box, you can:

* Rename notes
* Change the text of notes
* Format notes
* Associate notes with specific configurations
* Delete notes

Organizing Notes and Dimensions

To organize notes and dimensions, you can use the “Dimensions” and “Notes” folders in the Feature Manager Tree. You can also create subfolders within these folders to further organize your notes and dimensions.

Tips for Linking Notes to Dimensions

* Use notes to provide additional information about dimensions, such as tolerances or surface finish requirements.
* Associate notes with specific configurations to ensure that the notes are only displayed when the corresponding configuration is active.
* Format notes to make them easy to read and understand.
* Organize notes and dimensions into folders to keep your drawings well-organized.

Troubleshooting

If you are having trouble linking notes to dimensions, try the following:

* Make sure that the dimension is visible.
* Make sure that the note is not associated with a different configuration than the dimension.
* Make sure that the note is not hidden by another object in the drawing.

Using Dimension Inspectors for Verification

Dimension inspectors are a powerful tool for verifying the accuracy of your dimensions. They can be used to check the following:

The type of dimension (linear, angular, or radial)
The value of the dimension
The tolerance of the dimension
The units of the dimension
The text associated with the dimension
The location of the dimension
The color of the dimension
The layer of the dimension
The visibility of the dimension
The locked status of the dimension

To use a dimension inspector, simply select the dimension you want to check and then click the “Inspect” button on the Dimension toolbar. The inspector will then open and display all of the information about the dimension.

Dimension inspectors can be used to quickly and easily verify the accuracy of your dimensions. They can also be used to troubleshoot problems with your dimensions.

Types of Dimension Inspectors

There are three types of dimension inspectors in SolidWorks:

Linear dimension inspector: This inspector is used to check linear dimensions.
Angular dimension inspector: This inspector is used to check angular dimensions.
Radial dimension inspector: This inspector is used to check radial dimensions.

Each type of inspector has its own unique set of features. For example, the linear dimension inspector can be used to check the length of a line, while the angular dimension inspector can be used to check the angle between two lines.

Using the Dimension Inspector

The dimension inspector can be used to check the following:

The type of dimension (linear, angular, or radial)
The value of the dimension
The tolerance of the dimension
The units of the dimension
The text associated with the dimension
The location of the dimension
The color of the dimension
The layer of the dimension
The visibility of the dimension
The locked status of the dimension

The dimension inspector can be used to quickly and easily verify the accuracy of your dimensions. It can also be used to troubleshoot problems with your dimensions.

Tips for Using the Dimension Inspector

Use the dimension inspector to check the accuracy of your dimensions before you create them.
Use the dimension inspector to troubleshoot problems with your dimensions.
Use the dimension inspector to learn more about the different types of dimensions in SolidWorks.

Dimension Type	Inspector
Linear	Linear dimension inspector
Angular	Angular dimension inspector
Radial	Radial dimension inspector

Utilizing Smart Dimensions for Efficiency

SolidWorks provides a range of options to streamline the dimensioning process, enabling users to create efficient and accurate drawings. Smart Dimensions are one such feature that offers significant benefits by automating the placement and formatting of dimensions.

Associating Dimensions with Annotations

Smart Dimensions allow you to link dimension values directly to annotations, such as notes and comments. This ensures that the dimensions are always up-to-date with any changes made to the geometry. To associate a dimension with an annotation:

Select the dimension you want to link.
Right-click and select “Go To Note”.
In the “Note” dialog box, insert the desired text or comment.
Click “OK” to save the changes.

Creating Smart Dimensions with Boxes

Smart Dimensions can be created using boxes, which automatically determine the best placement for the dimension. To create a Smart Dimension using a box:

Select the geometry you want to dimension.
Click the “Smart Dimension” tool (located on the “Dimensions/Relations” toolbar).
Drag a box around the geometry to define the dimension placement.
The dimension will automatically appear inside the box.

Customizing Smart Dimension Appearance

Smart Dimensions provide various options to customize their appearance. You can adjust the text size, color, and font, as well as add tolerances and alternate dimensions. To customize the appearance of a Smart Dimension:

Select the Smart Dimension you want to modify.
Right-click and select “Properties”.
In the “Dimension Properties” dialog box, make the desired changes to the text, color, tolerances, and other settings.
Click “OK” to save the changes.

Formatting Multiple Smart Dimensions

To quickly format multiple Smart Dimensions simultaneously:

Select all the Smart Dimensions you want to format.
Right-click and select “Format”.
In the “Dimension Style” dialog box, make the desired format changes.
Click “OK” to apply the changes.

Using Smart Dimensions for 3D Views

Smart Dimensions can also be used to dimension 3D models. This allows you to create dimensions that are projected onto a specific view of the model. To use Smart Dimensions for 3D views:

Select the 3D view you want to dimension.
Click the “Smart Dimension” tool (located on the “Dimensions/Relations” toolbar).
Select the geometry you want to dimension.
The Smart Dimension will be created and projected onto the selected view.

Creating Dynamic Annotations with Smart Dimensions

Smart Dimensions can be used to create dynamic annotations that automatically update when the model geometry changes. This eliminates the need to manually update dimensions when making design changes.

Step	Action
1	Select the geometry you want to dimension.
2	Click the “Smart Dimension” tool (located on the “Dimensions/Relations” toolbar).
3	Drag the box around the geometry to define the dimension placement.
4	Right-click the dimension and select “Create Note”.
5	In the “Note” dialog box, select “Linked to Dimension”.
6	Click “OK” to save the note.

The note will now automatically update its text to reflect any changes made to the dimension value.

Benefits of Using Smart Dimensions

Utilizing Smart Dimensions offers numerous benefits, including:

Improved efficiency by eliminating the need for manual dimension placement.
Increased accuracy by ensuring that dimensions are always up-to-date with geometry changes.
Enhanced readability and clarity by providing well-formatted and organized dimensions.
Reduced errors by automatically updating dimensions and annotations, reducing the risk of misinterpretations.
Improved collaboration by enabling seamless sharing of accurate and dynamic dimension data.

Overall, implementing Smart Dimensions in SolidWorks Drawings can significantly streamline the dimensioning process, enhance drawing accuracy, and facilitate efficient collaboration.

Dimensioning for Sustainability and Environmental Impact

In recent years, there has been a growing emphasis on sustainability and environmental impact in all aspects of design and manufacturing. This includes the way that drawings are dimensioned. By following a few simple guidelines, engineers can create drawings that are more sustainable and have a lower environmental impact.

Choose the right dimensioning system

The first step in creating sustainable drawings is to choose the right dimensioning system. There are two main dimensioning systems used in SolidWorks: the inch system and the metric system. The inch system is based on inches, feet, and yards, while the metric system is based on meters, centimeters, and millimeters. The metric system is more widely used around the world, and it is also the preferred system for sustainability.

The metric system is more sustainable than the inch system because it is based on a decimal system. This makes it easier to convert between different units of measurement, and it also reduces the risk of errors. Additionally, the metric system is more consistent with the International System of Units (SI), which is the global standard for measurement.

Use the correct number of dimensions

It is important to use the correct number of dimensions on a drawing. Too few dimensions can make it difficult to manufacture the part, while too many dimensions can make the drawing cluttered and difficult to read. The goal is to use the minimum number of dimensions necessary to define the part.

One way to reduce the number of dimensions on a drawing is to use geometric tolerances. Geometric tolerances specify the allowable variation in the size, shape, and position of features. By using geometric tolerances, engineers can avoid having to dimension every single feature on the part.

Use the correct tolerance values

The tolerance value is the amount of variation that is allowed in a dimension. It is important to use the correct tolerance values on a drawing. Too tight of a tolerance can make it difficult or impossible to manufacture the part, while too loose of a tolerance can lead to problems with fit and function.

The correct tolerance value depends on the specific application. For example, a part that is used in a critical application may require a tighter tolerance than a part that is used in a non-critical application. Engineers should work with the manufacturing team to determine the appropriate tolerance values for each part.

Use the correct dimensioning location

The dimensioning location is the place where the dimension is placed on the drawing. It is important to use the correct dimensioning location so that the dimension is easy to read and understand. The dimension should be placed close to the feature that it is dimensioning, and it should be oriented in a way that makes it easy to see.

In addition to the guidelines above, there are a number of other ways to create sustainable drawings. These include:

Using recycled paper

Using electronic drawings

Reducing the number of drawings produced

Training employees on sustainable drawing practices

By following these guidelines, engineers can create drawings that are more sustainable and have a lower environmental impact.

Using Geometric Tolerances to Reduce the Number of Dimensions

Geometric tolerances are a powerful tool that can be used to reduce the number of dimensions on a drawing. Geometric tolerances specify the allowable variation in the size, shape, and position of features. By using geometric tolerances, engineers can avoid having to dimension every single feature on the part.

There are 14 different types of geometric tolerances. The most common types of geometric tolerances are:

Flatness

Flatness specifies the allowable variation in the flatness of a surface. A flat surface is a surface that is coplanar with a reference plane.

Straightness

Straightness specifies the allowable variation in the straightness of a line. A straight line is a line that is parallel to a reference line.

Roundness

Roundness specifies the allowable variation in the roundness of a surface. A round surface is a surface that is generated by rotating a circle about an axis.

Cylindricity

Cylindricity specifies the allowable variation in the cylindricity of a surface. A cylindrical surface is a surface that is generated by rotating a straight line about an axis.

Position

Position specifies the allowable variation in the position of a feature. Position is defined by the distance between the feature and a reference point, and by the angle between the feature and a reference line.

Orientation

Orientation specifies the allowable variation in the orientation of a feature. Orientation is defined by the angle between the feature and a reference plane.

Geometric tolerances are a powerful tool that can be used to reduce the number of dimensions on a drawing. By using geometric tolerances, engineers can create drawings that are more concise and easier to understand.

The table below shows the 14 different types of geometric tolerances and their corresponding symbols:

Geometric Tolerance	Symbol
Flatness	F
Straightness	S
Roundness	R
Cylindricity	C
Position	P
Orientation	O
Symmetry	Y
Concentricity	E
Perpendicularity	⊥
Parallelism	∥
Angularity	A
Runout	RO
Profile of a Surface	PFS
Profile of a Line	PFL

Dimensioning for International Standards

When dimensioning drawings for international use, it is important to adhere to the appropriate standards. The International Organization for Standardization (ISO) has established a comprehensive set of standards for dimensioning, which are widely recognized and used around the world.

The following are some key points to consider when dimensioning drawings for international standards:

Use the metric system. The metric system is the most widely used system of measurement in the world, and it is the preferred system for international drawings.
Dimension lines should be drawn with a continuous fine line. The line should be straight and horizontal, and it should extend a short distance beyond the extension lines.
Extension lines should be drawn with a continuous fine line. The lines should be perpendicular to the dimension line, and they should extend a short distance beyond the dimension line.
Dimension numbers should be placed above the dimension line, centered between the extension lines. The numbers should be readable from left to right, and they should be of a uniform size and style.
Use the appropriate units of measurement. The units of measurement should be clearly indicated, and they should be consistent throughout the drawing.
Use the correct symbols for dimensions. The following table shows the most common symbols used for dimensions:

Symbol Meaning

Φ Diameter

R Radius

L Length

W Width

H Height
Dimension hidden features. Hidden features should be dimensioned using dashed lines.
Dimension assemblies. Assemblies should be dimensioned using a combination of individual dimensions and overall dimensions.
Use notes to clarify dimensions. Notes can be used to provide additional information about the dimensions, such as the tolerance or the surface finish.
Check your work. Before submitting a drawing for international use, it is important to check your work carefully to ensure that all dimensions are accurate and that the drawing meets all applicable standards.
36. Check Dimensions

To check dimensions, use the following steps:
1. Click the “Dimensions” tab in the CommandManager.
2. Click the “Check Dimensions” tool in the “Verification” section.
3. Select the dimensions to check.
4. Click “Check”.
37. Show/Hide Dimensions

To show or hide dimensions, use the following steps:
1. Click the “Dimensions” tab in the CommandManager.
2. Click the “Show/Hide Dimensions” tool in the “Display” section.
3. Select the dimensions to show or hide.
4. Click “Show” or “Hide”.
38. Lock Dimensions

To lock dimensions, use the following steps:
1. Click the “Dimensions” tab in the CommandManager.
2. Click the “Lock Dimensions” tool in the “Modify” section.
3. Select the dimensions to lock.
4. Click “Lock”.
39. Unlock Dimensions

To unlock dimensions, use the following steps:
1. Click the “Dimensions” tab in the CommandManager.
2. Click the “Unlock Dimensions” tool in the “Modify” section.
3. Select the dimensions to unlock.
4. Click “Unlock”.
40. Link Dimensions To Features

To link dimensions to features, use the following steps:
1. Click the “Dimensions” tab in the CommandManager.
2. Click the “Link Dimensions To Features” tool in the “Modify” section.
3. Select the dimensions to link.
4. Select the features to link to.
5. Click “Link”.
41. Unlink Dimensions From Features

To unlink dimensions from features, use the following steps:
1. Click the “Dimensions” tab in the CommandManager.
2. Click the “Unlink Dimensions From Features” tool in the “Modify” section.
3. Select the dimensions to unlink.
4. Click “Unlink”.
42. Convert Dimensions

To convert dimensions, use the following steps:
1. Click the “Dimensions” tab in the CommandManager.
2. Click the “Convert Dimensions” tool in the “Modify” section.
3. Select the dimensions to convert.
4. Select the desired units.
5. Click “Convert”.
43. Dimensioning Features

When dimensioning features, use the following guidelines:
- Use the appropriate dimension type for the feature. For example, use a linear dimension to measure the length of a line, and an angular dimension to measure the angle between two lines.
- Place dimensions in a consistent location. For example, always place linear dimensions above the feature, and angular dimensions below the feature.
- Use a consistent dimension style. For example, always use the same font and size for dimensions.
44. Engineering Analysis Dimensions

Engineering analysis dimensions are used to calculate the forces and stresses in a model. These dimensions are typically used in conjunction with finite element analysis (FEA) software.

When creating engineering analysis dimensions, use the following guidelines:
- Use the appropriate engineering analysis dimension type. For example, use a force dimension to measure the force acting on a body, and a moment dimension to measure the moment acting on a body.
- Place engineering analysis dimensions in a consistent location. For example, always place force dimensions on the body that is being acted on, and moment dimensions on the axis of rotation.
- Use a consistent engineering analysis dimension style. For example, always use the same font and size for dimensions.
45. Dimensioning For Detailing

Dimensioning for detailing is used to create drawings that are used to manufacture parts. These drawings typically include a variety of dimensions, including linear dimensions, angular dimensions, and geometric dimensions.

When dimensioning for detailing, use the following guidelines:
- Use the appropriate dimension type for the feature. For example, use a linear dimension to measure the length of a line, and an angular dimension to measure the angle between two lines.
- Place dimensions in a consistent location. For example, always place linear dimensions above the feature, and angular dimensions below the feature.
- Use a consistent dimension style. For example, always use the same font and size for dimensions.
- Include all necessary dimensions. For example, include dimensions for all critical features, such as holes, slots, and chamfers.
46. Dimensioning For Engineering Analysis

Dimensioning for engineering analysis is used to create drawings that are used to analyze the forces and stresses in a model. These drawings typically include a variety of dimensions, including linear dimensions, angular dimensions, and geometric dimensions.

When dimensioning for engineering analysis, use the following

How To Link Notes To Dimensions In Solidworks Drawing

Step 1: Create a note in the drawing by clicking the “Note” button on the “Annotations” toolbar.

Step 2: Click on the dimension that you want to link to the note.

Step 3: Right-click on the dimension and select “Link to Note”.

Step 4: The note will now be linked to the dimension. Any changes to the dimension will be reflected in the note.

People Also Ask About 123 How To Link Notes To Dimensions In Solidworks Drawing

How to add a note to a dimension in SolidWorks drawing?

To add a note to a dimension in a SolidWorks drawing, follow the steps below:

1. Select the dimension you want to add a note to.

2. Click the “Note” button on the “Annotations” toolbar.

3. Type the desired note into the text box.

4. Click “OK” to save the note.

How to link a note to a dimension in SolidWorks drawing?

To link a note to a dimension in a SolidWorks drawing, follow the steps below:

1. Select the note you want to link to the dimension.

2. Right-click on the note and select “Link to Dimension”.

3. Select the dimension that you want to link to the note.

4. Click “OK” to save the link.