Solidworks for beginners - Complete step by step guide

In this lesson I will guide you on how to assign various appearances to parts in SolidWorks using the Appearances Manager. Unlike the default material color, users can customize appearances by choosing from different options such as paint finishes. Users can set appearances as default for new features, or assign them specifically to parts or features. The process for part files and assembly files slightly varies, and users can easily drag and drop appearances onto models to modify their properties, such as colors or textures, emphasizing SolidWorks' flexibility in changing part and assembly appearances.

In this lesson I will show you customise colors in SolidWorks. We will access the color options through the system options in the menu. Demonstrated modifications include changing icon colors to classic, altering the background from light to medium, and implementing an orange color scheme. I will also also unveils settings for using a viewport background, matching the drawing paper color to the selected scheme, and creating a gradient background with custom gradients. Then we will emphasizes the subjectivity of color preferences in SolidWorks usage.

In this lesson I will demonstrate how to creating a new part in SolidWorks and constructing a sketch using lines. Then I will go through various methods exist for initiating a line command, including the command manager, right-click menu, or radial menu. Setting the line's length and direction can be accomplished using numeric inputs, dimension options in the property manager, or snapping to origin planes. Then I will stress the importance of building a base sketch with features referenced to the origin for future iterations. I will also cover techniques for recognizing closed loops and using separate lines to build relationships between endpoints. Additionally, I will show how to switch to arc mode, snap lines to endpoints, and complete shapes using the green check mark in the property manager. After exiting sketch mode now you will see that it allows the extrude command to automatically select the shape and set its height, thereby creating the base shape.

In this lesson I will demonstrate the use of the section view tool in Solidworks. To begin, I will turns off shadows and activates ambient occlusion for improved visibility. Next, I will create a section view by selecting a plane and rotating it to the desired orientation while adjusting settings. Then I will showcases the functionality of working with multiple planes and components, as well as making sections transparent. The sectioned views can be saved for later use, and once completed, it can be turned off to restore the original model appearance.

In this lesson we will highlight the benefits of utilizing SolidWorks for establishing relationships between objects through constraints. During the sketching process, SolidWorks recognizes the intended direction of lines and automatically sets up horizontal, vertical, and tangent constraints. Lines that are about to intersect but lack a constraint are marked with dashes to signify the intersection point. Inference capabilities are not limited to lines alone but also extend to other sketching tools, enabling users to locate points and create connections between objects.

In this topic we will discusses the appearance and function of this tool in SolidWorks when initiating certain commands. The Property Manager enables users to accept or reject commands, access command-specific help, and configure options and settings. Using the Line command as an example, I will demonstrate the use of the Property Manager for orientation, length, and angle settings, highlighting the ability for users to choose between pre-set configurations or input custom dimensions. The Property Manager is utilized in various commands to set the primary options and settings for the command being used.

In this Lesson I will demonstrate different methods of creating arcs with tangency in Solidworks using the line command. By clicking and dragging on a curved object like a circle or an existing arc, Solidworks will create a tangent line. A second line can then be created and an arc with tangency can be made by selecting the "tangent arc" option from the arc drop-down menu. This method establishes the tangencies automatically. Alternatively, a tangent arc can be created by defining a line and using the three-point arc option, but this method does not establish tangencies automatically. In this lesson we will also cover creating a center point arc and the available options for setting coordinates and radius. Overall, the we will demonstrate several effective ways to add tangent arcs to your Solidworks sketches.

In this lesson I will demonstrate different methods for creating circles and ellipses using a centreline. We will go through the distinction between regular circles drawn by specifying the diameter or radius and parameter circles with single centre points. Then we will do some techniques for creating multiple circles and ellipses by picking points along their circumferences. Then we will move on to creating ellipses, emphasizing the options to generate full ellipses or elliptical arcs with varying axes and arc lengths. Then we will conclude using the auto-tangency feature to efficiently generate conic curves by connecting lines or shapes with a smooth transition.

In this lesson we will highlights the ease of creating rectangular shapes in Solidworks through its constraint inference feature. Yet, they also emphasize the advantage of using the rectangle command, which enables users to create rectangles of varying sizes, orientations, and angles swiftly and effectively. Then I will provide a demonstration of drawing rectangles using the rectangle command, showcasing its efficiency and intelligent functionality.

In this lesson we will showcase how to use to add slots to a 3D model. I will start by creating a new feature and selecting a top face as the sketch plane for the slot. Using the centre point as a reference, Then I will define the width and uses the extrude command to finish the feature, creating the first slot. Then repeating the process to create a second slot, this time using an arc. I will also emphasizes the time-saving advantages of using slots instead of manually creating shapes.

In this lesson I will showcase SolidWorks' measuring and analysing tools, which allow users to gather essential information about their models. Using a tape measure icon, users can measure distances between points, displaying xyz coordinates. I will toggle off point-to-point measurement to measure the lengths of lines and the radii of arcs. The software also enables measuring faces and their areas and perimeters. Users can access previously measured information via the measurement history option. Then I will conclude by demonstrating how the tool works within a sketch, emphasizing its versatility in model design, analysis, and documentation.

In this lesson I will guides you through utilizing the "Section Properties" feature in SolidWorks' "Evaluate Command Manager" Icon.  Users can select an existing face or sketch and make modifications to measurement units and accuracy settings. The tool computes essential properties like centroid, coordinates, and moments of inertia for the chosen region. A notable advantage is the ability to recalculate these properties for multiple profiles simultaneously. I will also show how to modify the model to analyse different sections.

In this lesson we will discusses how SolidWorks applies relationships during design automatically but also allows manual application through the "Add Relations" feature. When creating lines, SolidWorks assumes a horizontal relationship, but this can be prevented with the control key. Manually adding a relationship involves selecting an object with no current relations, such as a line, and applying a desired relation, like vertical or tangent. Arcs can only have existing relationships "fixed." To establish relations between objects, the user selects one object, then the other and chooses the preferred relation. The Add Relations tool suggests suitable relationships, streamlining the process. Remove a relation by right-clicking on the relation icon and selecting "delete."

Geometric Relations to a Sketch" demonstrates how SolidWorks automatically infers and applies geometric relationships between sketch objects. SolidWorks automatically applies relevant relationships such as tangency and horizontal alignment when creating geometric shapes. Users can delete these relationships through the graphics window or property manager if needed. Manual application of relationships like tangency or perpendicularity can be done using the heads-up toolbar or property manager. It's essential to recognize that applying relationships does not automatically establish constraints between objects, and users must manually apply constraints to ensure motion between interdependent objects. The video highlights the convenience and efficiency of using SolidWorks to infer and apply geometric relationships within a sketch.

Adding Geometric Relations to a Sketch" demonstrates how SolidWorks automatically infers and applies geometric relationships between sketch objects. SolidWorks automatically applies relevant relationships such as tangency and horizontal alignment when creating geometric shapes. Users can delete these relationships through the graphics window or property manager if needed. Manual application of relationships like tangency or perpendicularity can be done using the heads-up toolbar or property manager. It's essential to recognize that applying relationships does not automatically establish constraints between objects, and users must manually apply constraints to ensure motion between interdependent objects. The lesson also highlights the convenience and efficiency of using SolidWorks to infer and apply geometric relationships within a sketch.

In this lesson  we will go though the use of linear dimensions in a sketching tool. By enabling numeric input, a line can be drawn and a value set to create a dimension. I will cover deleting unwanted constraints and dimension relationships, and suggests measuring vertical distances between two objects with horizontal lines. Dimension values can be manually inputted or adjusted using a roller or scroll function. The tool supports both inches and millimetres as units and allows for calculations within it. Then we will emphasizes the significance of employing linear dimensions to accurately establish the dimensions and shape of a sketch.

In this lesson I will explain how to edit dimensions in a design effectively. Users can adjust positions and values by clicking and dragging the text or dimension. For more accurate modifications, double-clicking on a dimension opens a dialog box enabling users to enter new values and adjust units. An alternative method is using the property manager for dimension value changes.

In this lesson we will highlight the advantages of using smart dimensions in SolidWorks for creating various types of dimensions. Smart dimensions enable users to determine the dimension type based on cursor position, providing flexibility beyond horizontal or vertical dimensions. In this lesson we will demonstrate this functionality by selecting a line and observing the type of dimension created based on cursor position. Users can also lock the dimension orientation for accurate placement. Then we will showcase creating dimensions for non-parallel lines, arcs, and angular values using smart dimensions to show how Smart dimensions offer a convenient and versatile solution for creating a wide range of dimension types in SolidWorks.

In this lesson we will showcase the use of the "Auto Insert Dimension" feature in Solidworks to add dimensions to objects with minimal clicks. I will start by explaining how to add a diameter dimension to a circle without prior dimensioning by right-clicking on the circle and selecting "Auto Insert Dimension." The software recognizes the circle and adds the diameter dimension automatically. Then I will demonstrate the feature's application to two non-parallel lines, which prompts Solidworks to ask for the dimension value. Lastly, I will show how the feature works with a single line, resulting in Solidworks adding an align dimension.

In this lesson we will discusses how every dimension in Solidworks is an equation and demonstrates the use of the smart dimension feature to create and manage dimension equations. Users can create formulas or equations by using the equal sign, and Solidworks automatically updates the equation symbol and assigns a name to the dimension. Dimensions can also be related to each other, such as making one dimension equal to another multiplied by a certain value. This functionality allows for easier use of dimensions in downstream features and makes the design process more efficient, showcasing the power of parametric in Solidworks.

In this lesson we will demonstrate the use of the "Display Delete Relations" feature in sketching software to manage and modify connections between entities. This tool enables users to delete unwanted relationships, identify incomplete lines, and temporarily suppress constraints. By utilizing this function, users can maintain the precision and consistency of their sketches by effortlessly managing and adjusting relationships between entities.

In this lesson we will discusses the significance of having a fully defined SolidWorks sketch, where Solidworks recognizes all necessary information. However, unsolvable items or constraints in the sketch can cause problems, such as an over defined sketch where two lines are made collinear. To resolve this, I recommend right-clicking on the conflicting constraint and deleting it using the "Display Delete Relations" feature. This process helps identify and eliminate conflicting constraints, ensuring the sketch's relationships are healthy. I will also emphasize the importance of addressing over defined sketches to prevent potential issues with dimensions.

In this lesson I will demonstrate how to utilize the "Fully Define Sketch" feature in Solidworks to add missing dimensions and relationships to underdefined sketches. The process begins with securing the original object in place by snapping it to the origin point. Subsequently, the "Fully Define Sketch" option is employed, allowing Solidworks to determine and add necessary dimensions based on existing features and relationships. Solidworks automatically adds dimensions, which can be edited or deleted as required. Additionally, the "Fully Define Sketch" function can automatically apply constraints, such as tangent or parallel, to help locate missing dimensions and expedite the sketch completion process.

In this lesson I will start by creating a new part file with origin planes for modelling. Then I will create an extruded boss base by sketching a 500mm by 600mm rectangle on the top plane as the profile for extrusion. After setting the extrusion height to 55mm, I will create the feature.  Later I will modify the sketch by extending its length to 1000mm, resulting in an updated model. Then continue to build up the 3D model by creating additional geometry through sketches, defining profiles, and extruding material.

In this lesson we will be discussing using the extruded cut feature in Solidworks to create a slot in a plate. After defining the slot geometry with the slot tool, I will show you how to set the cut depth to "through all" instead of a specific length. This allows the slot to completely penetrate the plate, regardless of its size or thickness. Then I will highlight the benefit of using "through all" to preserve the accuracy of the slot during plate modifications.

In this lesson we will showcase Solidworks' direct manipulation capabilities, allowing users to interactively modify designs by selecting and manipulating edges or faces. Users have access to various tools to modify features, such as filling or creating new sketches, with real-time interface updates for efficient design adjustments. Additionally, existing features can be edited by accessing the underlying sketch and modifying dimensions. Solidworks' direct manipulation features enable users to touch, edit, and optimize their designs for improved design outcomes.

In this lesson I will show you how to create thin extruded features in SolidWorks software. I will start by sketching two lines and using the boss extrude command to create a bracket, adding thickness to the feature. Then adjust the length, thickness, and direction of the extrusion. I will also demonstrate creating a thin feature from a closed loop sketch, initially appearing as a filled solid box, but can be changed to a thin feature with a specified thickness. Then cap the ends of the open box feature to create a floor in the model.

In this lesson I will show you how to edit an existing feature by modifying its sketch. There are several methods to access the sketch for editing, such as right-clicking on the feature in the feature tree or selecting a face of the feature. Once in the sketch environment, I will show you various modifications like changing lengths or adding fillets. After accepting the changes, they are automatically applied to the model. Additionally, I will highlight SolidWorks' capability to identify and rectify issues with open contours in the sketch.

In this lesson I will guides you through modelling a shaft using SolidWorks' revolve feature. Ideal for cylindrical or conical shapes, the process begins by creating one half of the shaft using rectangles. I stress the significance of adding a centre line to the sketch for defining the axis of revolution. After revolving the profiles, I will demonstrate editing the feature to make adjustments, such as adding a taper or cutting a groove. I also emphasize the importance of including a centre line when performing a revolve cut. This lesson covers the fundamentals of using the revolve feature to add and remove material in SolidWorks.

In this lesson I will guide you on how to utilize rib features in SolidWorks to enhance component strength. To initiate a rib, the user begins by defining a sketching plane and creating geometry, such as a line. Following the rib command, the user can customize the rib's direction and thickness. Then I will showcase editing the thickness and adding a taper to the rib. The process is repeated to create a rib feature on an external face, with SolidWorks automatically recognizing the intended direction and generating a thin extrusion.

In this lesson we will be using the wrap feature in SolidWorks as a versatile sketching tool for cutting or adding material based on a sketch's profile. By creating a rectangle sketch and constraining it to the middle of a part, the we will apply the wrap feature by selecting the deboss option to cut into the part following the sketch's profile. Additionally, the inscribed option is shown to split faces instead of adding or removing material. I will also highlight the wrap feature's utility for cutting non-planar, curved surfaces that cannot be achieved with the extrude command.

In this lesson I will demonstrate how to efficiently work with equations in Solidworks to control dimensions and make modifications to a model.

Highlights:

• Smartly naming dimensions for easier modifications ?

• Linking dimensions together using equations ?

• Utilizing global variables and comments for better organization ?

• Automatic updates with the “automatic rebuild” option ?

• Creating, modifying, and managing equations in the software ?️

• Utilizing global variables for consistent changes across the model ?

• Controlling the model effectively through the equations editor ?

  
  

Key Insights:

Efficiently utilizing equations can streamline the process of modifying dimensions and parameters in Solidworks, saving time and effort. ⏱️

Smart naming conventions for dimensions can significantly enhance the ease of making changes to the model in the future.

Global variables and comments serve as valuable tools for maintaining consistency and providing clarity in the model design process.

The option for automatic updates ensures that changes made through equations are immediately reflected in the model, enhancing workflow efficiency.

The equations editor provides a powerful platform for creating, modifying, and managing equations to control various aspects of the model design.

Utilizing global variables allows for easy and consistent adjustments across different features of the model, enhancing overall design control.

Effectively managing equations in the software empowers users to have precise control over the model and make modifications with ease.

Summary:

In this lesson we will discuss reusing sketches in Solidworks to create complex shapes by breaking them down into multiple operations.

Highlights:

• Sketch with closed loop profiles is created for a part

• Initial shape is extruded 15mm (✂️)

• Sketch is reused for additional features by turning it

• Cut operation is used to create required shape (✂️)

• Sketch is reused again for boss base extrusion

• Tapered feature is added with 10-degree angle

• Sketch updates are reflected in all instances of its use

Key Insights

• Reusing sketches in Solidworks can streamline the process by allowing for the creation of complex shapes with multiple operations. This approach helps in breaking down intricate designs into manageable steps, enhancing efficiency and accuracy in the modelling process. (⚙️)

• By reusing sketches and features, designers can maintain consistency in their models and ensure that any changes made to the original sketch are automatically reflected in all instances where it is used. This not only saves time but also reduces the risk of errors or inconsistencies in the final design.

• The use of cut and extrude operations in combination with reused sketches demonstrates the versatility and flexibility of Solidworks software in creating intricate shapes and features. Designers can easily manipulate and modify sketches to achieve the desired dimensions and geometries, enabling them to bring their design ideas to life effectively.

In this lesson we will explain the importance of reordering features in Solidworks software to achieve desired results.

Highlights:

Reordering features impacts the outcome of Solidworks design operations. ?

The order of features in the browser dictates the order of operations. ?

Features like shell and fillet must be placed strategically for desired results. ⚙️

Dragging and dropping features in the feature manager allows for reordering. ?️

Proper order ensures that features like fillet and shell interact correctly. ✅

Some features have restrictions on their placement due to dependencies. ⛓️

Understanding feature order is crucial for efficient Solidworks design. ?

Key Insights:

This lesson the significance of feature order in Solidworks software, illustrating how it affects the final design outcome. ?

By demonstrating specific examples like adding thickness and fillet, viewers learn the practical implications of reordering features. ?

The concept of feature dependencies is highlighted, showing how certain features cannot be reordered beyond specific points due to their interconnections. ?

Through the explanation of common issues like sharp corners after filleting, viewers grasp the importance of proper feature sequencing for desired design results. ?

In this lesson we will learn how to make changes to your Solidworks part by rolling back features and adding new ones with ease.

Highlights:

Ability to suppress features for temporary removal ?

Easy un-suppression to bring back features when needed ?

Rolling back to make changes before re-adding features ?

Using extrude cuts for creating new features ✂️

Rolling back to recalculate and recompute features ?

Dealing with errors that may arise from changes ⚠️

Reverting back to current time after making changes ⏮️

Key Insights

Rolling back features in Solidworks allows for easy editing and modification of parts without starting from scratch. This feature is useful for experimenting with different design options and making adjustments as needed. ?

Suppressing features temporarily is a convenient way to test different configurations without permanently deleting components. This flexibility enhances the design process by allowing for quick modifications and reversions. ?️

The ability to roll back to a previous state before certain features were added enables users to make changes in the correct order and sequence. This ensures that new features integrate seamlessly with existing ones, maintaining design integrity. ?

Utilizing extrude cuts for creating cut outs and modifications offers a precise and efficient method for altering part geometry. This feature provides control over the depth and direction of cuts, resulting in accurate modifications to the design. ✂️

Recalculating and recomputing features after rolling back ensures that the part remains functional and error-free. Solidworks automatically adjusts to accommodate changes, helping users avoid inconsistencies and maintain design accuracy. ?

Addressing errors that may arise from modifications is a crucial aspect of the design process. By understanding and resolving these issues, users can refine their designs and improve the overall quality of the final product. ⚠️

Reverting back to the current time after making changes allows users to review and assess the updated design before finalizing it. This step ensures that modifications are satisfactory and align with project requirements, promoting efficient and effective design decisions. ⏮️

In this lesson we will demonstrate how to create reference planes in a pin component to facilitate cutting slots and emboss features with specific angles and offsets.

Highlights:

Reference planes aid in creating precise cuts and emboss features ?️

Tangent and parallel planes can be defined using curved surfaces and planar faces ?

Offset distances and angle specifications enhance design flexibility ?

Reference planes are infinitely long and can be edited to adjust features ?

Bisecting planes between two faces provide accurate positioning ?

Offset options allow for the creation of planes at specified distances from faces ?

Work planes are associative and adjust with geometry changes ?

Key Insights:

Reference planes are essential for defining precise locations in designing components ?

Tangent and parallel planes ensure accurate alignment of features for optimal functionality ?

Offset distances and angle specifications offer customization options for design requirements ?

Editing reference planes allows for real-time adjustments to features, enhancing design efficiency ?

Bisecting planes between faces provide a balanced and symmetrical design approach ?

Utilizing offset options for plane creation helps in achieving specific design parameters ?

The associative nature of work planes ensures adaptability to geometry modifications, maintaining design integrity ?