
In this video, we get started with Solid Edge 2026 by exploring its interface and overall workspace. This lesson is designed for beginners who are new to the software and want to build a strong foundation.
We will walk through the main components of the Solid Edge interface, including the ribbon, command bar, graphics area, and navigation tools. Understanding these elements will help you work more efficiently and confidently as you move forward in the course.
By the end of this video, you will be familiar with the layout of Solid Edge and ready to begin creating your first designs.
In this video, you will learn how to create a clean and accurate base sketch using the ordered environment in Solid Edge. The tutorial walks through the complete process of building the profile based on a given sketch and isometric view.
You’ll start by creating a new part file and entering the sketching environment, then use the Line tool to draw the outer profile. The lesson also covers applying fillets to the outer corners and adding an inner circle to complete the sketch.
This video focuses on developing fundamental sketching skills with a clear, step-by-step approach.
In this video, you will learn how to create a complete model starting from a sketch and finishing with an orthographic drawing in Solid Edge using the Synchronous environment.
The tutorial begins with drawing the profile using the Line tool, followed by refining the shape with fillets and adding circles based on the fillet centers. You will then convert the sketch into a 3D model by extruding it and finally generate orthographic drawing views from the model.
This video focuses on building a complete workflow from sketching to 3D modeling and drawing creation.
In this video, you will learn how to create a fully defined sketch, convert it into a 3D model, and generate orthographic drawing views in Solid Edge.
The tutorial begins with drawing the profile using the Line tool, followed by applying precise dimensions using the Smart Dimension tool to fully define the sketch. You will then extrude the profile to create a 3D model and generate orthographic views from the final model.
This video focuses on combining sketching, dimensioning, and basic 3D modeling into a complete workflow.
In this video, you will learn how to create a fully defined and symmetric sketch in Solid Edge using parametric dimensions and geometric relationships.
The tutorial focuses on drawing the profile based on the given model and ensuring that the sketch is symmetric about the origin. You will create the outer loop using the Line tool, apply the necessary relationships and dimensions, and then construct an inner rectangle using the Rectangle tool with proper constraints.
Instead of manually entering values in the Command bar, this lesson emphasizes using parametric dimensions to control and refine the sketch accurately.
This video highlights best practices for building structured, constraint-driven sketches that are essential for precise modeling.
In this video, you will learn how to create a precise and fully defined sketch in Solid Edge using the Ordered Part environment.
The tutorial focuses on building the required profile using the Line and Circle by Center Point tools. You will then apply geometric relationships and parametric dimensions to accurately control the shape and ensure the sketch is fully constrained.
This lesson emphasizes proper sketching techniques and the use of constraints to create clean, well-defined profiles suitable for further modeling.
In this video, you will learn how to create a profile for a revolved model using the Ordered Part environment in Solid Edge.
The tutorial focuses on sketching the required profile using the Line tool and applying parametric dimensions to accurately define the geometry. The sketch is created with precision to ensure it is suitable for generating a revolved feature in later steps.
This lesson emphasizes the use of dimensions to control the shape and structure of profiles used in revolve-based modeling.
In this video, you will learn how to create a fully defined 3D model in Solid Edge using sketching, dimensioning, and extrusion techniques.
The tutorial begins with drawing the outer profile of the model, followed by applying the necessary dimensions and geometric relationships. You will then create inner circles with proper dimensions to complete the sketch. Once the sketch is fully defined, it will be converted into a 3D model using the Extrude feature.
The lesson also demonstrates how to enhance the visual clarity of the model and explore it by rotating in 3D space.
This video focuses on combining sketch accuracy with basic 3D modeling to create clean and well-defined parts.
In this video, you will learn how to take an existing sketch and convert it into a 3D extruded feature in Solid Edge.
The tutorial begins by opening the sketch created in a previous exercise and saving it under a new file name. You will then extrude the sketch to a depth of 30 units using the Extrude tool. The lesson also demonstrates how to rotate the model in 3D space to view it from different angles.
This video focuses on efficiently transforming a 2D sketch into a 3D part while exploring basic 3D model visualization techniques.
In this video, you will learn how to convert an existing sketch into a revolved 3D feature using the Revolve tool in Solid Edge.
The tutorial starts by opening the sketch from a previous tutorial and saving it under a new file name. You will then create a revolved feature from the sketch and rotate the model in 3D space to inspect it from different angles.
This lesson focuses on transforming a 2D profile into a 3D revolved part and exploring the model in a 3D workspace.
In this video, you will learn how to create a complex 3D model in Solid Edge by combining multiple extruded features and cutouts.
The tutorial focuses on planning the feature sequence before modeling and then building the part step by step. You will begin by creating the base feature on the YZ plane, followed by additional extruded features on selected faces and a reference plane offset from the model. The lesson also covers creating multiple cutouts using the Cut tool to complete the design.
This video highlights the use of reference planes, feature sequencing, and proper modeling strategies to efficiently build multi-feature parts.
In this video, you will learn how to create a multi-feature 3D model in the Ordered Part environment of Solid Edge.
The tutorial guides you through creating the base feature on the top plane, followed by a second extruded feature. You will then use projected edges from the base feature to create a sketch for additional features. The lesson also demonstrates creating a cutout and an additional extruded feature to complete the model.
This video emphasizes combining multiple features, using reference geometry, and effectively planning sketches to build a complete 3D model.
In this video, you will learn how to create a 3D model in Solid Edge that combines multiple extruded features using reference planes.
The tutorial begins with creating the base feature on the XY plane, including two holes. You will then define a new reference plane at a 45-degree angle to the base and use it to sketch and extrude the second feature. Finally, a cutting profile is created on the same angled plane and extruded up to the next surface to complete the model.
This lesson emphasizes planning feature sequences, using angled reference planes, and combining multiple extrusions to build a complex 3D part.
In this video, you will learn how to create a 3D model using advanced modeling tools in the Synchronous Part environment of Solid Edge.
The tutorial starts by creating a revolved base feature on the front plane and revolving it through 360 degrees. You will then add a second feature, create a counterbore hole, and apply a circular pattern to replicate the feature and hole around the model.
This lesson demonstrates how to combine revolved features, holes, and patterns to efficiently create complex, symmetrical parts.
In this video, you will learn how to create a Guide Bracket model in Solid Edge using extrusions, reference planes, and mirror features.
The tutorial begins with creating the base feature on the top plane and extruding it symmetrically. You will then define a reference plane offset from the XY plane to create a second protrusion feature, which is mirrored about the top plane. Next, a fourth feature is created on the front plane and extruded symmetrically. Finally, simple holes are added to complete the model.
This lesson emphasizes using reference planes, mirroring features, and combining multiple extrusions to build a precise mechanical part.
In this video, you will learn how to create a complex 3D model in Solid Edge using multiple features, patterns, and fillets.
The tutorial begins with creating the base feature on the front plane—a square with filleted corners. You will then add a circular protrusion on the front face, followed by two rectangular join features on the cylinder. Next, a rectangular cut is made on one of the joins, and simple holes are added to the rectangular features. A counterbore hole is created on the front face and replicated using a rectangular pattern. Finally, a fillet is applied to the circular protrusion to complete the model.
This lesson emphasizes combining multiple extrusions, cuts, holes, patterns, and fillets to build a precise, fully-featured mechanical part.
In this video, you will learn how to create a 3D model in the Synchronous Part environment of Solid Edge, including adding a taper feature.
The tutorial begins with creating the base sketch on the front plane and generating the base feature with an extrusion depth of 50 mm. You will then create a second feature, align it with the front face of the base feature, and center it. The lesson also demonstrates adding a hole feature and applying a 45-degree taper at the base to complete the model.
This video emphasizes combining multiple features, aligning and centering components, and using taper tools to create precise and complex parts.
In this video, you will learn how to create a 3D model in the Ordered Part environment of Solid Edge and modify it with counterbore and countersink holes.
The tutorial begins by creating the base feature on the front plane. You will then create a simple hole in the cylindrical feature and modify it into a counterbore hole with a 36 mm counterbore diameter, 24 mm hole diameter, and 10 mm depth. Next, the holes on the top planar face are changed into countersink holes with a diameter of 14 mm, a hole diameter of 8 mm, and an 82-degree countersink angle. Finally, a rectangular pattern is applied to replicate the holes along the shorter side.
This lesson emphasizes creating and modifying advanced hole features and using patterns to efficiently replicate them on a model.
In this video, you will learn how to create a 3D model in Solid Edge and efficiently add multiple holes using the Hole tool along with copy and paste techniques.
The tutorial begins by creating the base feature on the top plane, followed by adding extruded and round features. You will create a simple hole on one face of the model and then copy and paste it to other faces. Finally, the profiles of the copied holes are edited to make them concentric with the arcs on the faces of the model.
This lesson emphasizes creating precise holes, reusing features with copy-paste, and aligning holes concentrically to ensure accurate and efficient modeling.
In this video, you will learn how to create a multi-feature model in the Ordered Part environment of Solid Edge and then convert all features to synchronous for further editing.
The tutorial begins by creating the base feature on the front plane, followed by extruded features on the top and back faces of the model. Two hole features are added to complete the geometry. You will then convert all ordered features into synchronous features and modify them using synchronous editing tools. Finally, the color of the model is changed to copper to enhance visual clarity.
This lesson emphasizes combining ordered and synchronous workflows, editing features efficiently, and applying visual enhancements to a 3D model.
In this video, you will learn how to create a 3D model in Solid Edge using advanced modeling tools, including protrusions, holes, and rib features.
The tutorial begins by creating the base feature on the top plane, followed by adding the remaining protrusion features. Holes are added to the model as required. Finally, the model is switched to the Ordered Part environment to create a rib feature, completing the part.
This lesson emphasizes combining multiple features and using rib tools to enhance the structural design of a 3D model.
In this video, you will learn how to create an ice tray model in Solid Edge using advanced modeling tools, including drafts, thin walls, web networks, and rounds.
The tutorial begins by creating the base feature on the top plane and adding a draft to it. You will then switch to the Ordered Part environment to add a thin wall feature and create a web network. Sharp edges are rounded, and an additional thin wall feature is added to complete the model. Fillet radii of 0.5 mm and 1 mm are applied as specified.
This lesson emphasizes combining thin walls, web networks, drafts, and rounds to create a functional and precise part.
In this video, you will learn how to create a cover model in Solid Edge using advanced modeling tools, including drafts, thin walls, rounds, and mounting bosses.
The tutorial begins by creating the base feature on the front (XZ) plane and adding a 1-degree draft. Sharp edges are rounded, and a thin wall feature is applied to the model. You will also add mounting bosses with precise dimensions, including diameter, hole depth, stiffening ribs, rib taper, and rib extent, to complete the part.
This lesson emphasizes combining multiple design features—drafts, thin walls, rounds, and ribs—to create a detailed and functional mechanical component.
In this video, you will learn how to create a detailed 3D model in Solid Edge using advanced modeling tools, including cutouts, cylindrical features, holes, threads, and chamfers.
The tutorial begins by creating the base feature on the right (YZ) plane. You will then add a cutout feature and create a cylindrical feature on the left face of the base. Hole features are added, threads are applied to the cylindrical feature, and the front end is chamfered to complete the model.
This lesson emphasizes combining multiple advanced features to build a precise and fully functional mechanical component.
In this video, you will learn how to create the Upper Housing of a Motor Blower assembly in Solid Edge using advanced modeling tools.
The tutorial begins by creating the base feature on the front plane, extruded symmetrically. You will then add a swept protrusion and apply a 0.45-inch round to it. A thin wall feature is added, followed by cut features on the base. Next, a protrusion feature is created and mirrored to the left side of the model. Finally, a hole feature is added and patterned to complete the assembly component.
This lesson emphasizes using swept protrusions, thin walls, mirrors, and patterned features to create a detailed mechanical part.
In this video, you will learn how to create a complex 3D model in Solid Edge using loft, revolved, helical, and patterned features.
The tutorial begins by creating the base feature on the right plane, followed by an undercut revolved feature. A helical cutout is added to the base, and a protrusion feature is created on the end face. A slot is cut into the cylindrical feature and patterned. Next, a revolved protrusion and an additional protrusion on its end face are created. Finally, a lofted protrusion is generated using three sections to complete the model.
This lesson emphasizes combining lofts, revolved features, helical cuts, and patterns to build a precise and intricate mechanical part.
In this video, you will learn how to create a detailed carburetor cover model in Solid Edge using advanced features such as swept cutouts, lofted cutouts, thin walls, mounting bosses, and rounds.
The tutorial begins by creating the base feature on the top plane. You will then add a swept cutout on the base and a lofted cutout on the bottom face, followed by creating a mirrored copy of the lofted cutout. Rounds are applied to edges, a thin wall feature is added, and mounting bosses are created on the bottom face. Finally, rounds are added to the vertical edges of the mounting bosses to complete the model.
This lesson emphasizes combining complex cutouts, thin walls, and precise edge treatments to create a fully functional mechanical component.
In this video, you will learn how to create all the components of the Stock Bracket assembly and assemble them in Solid Edge.
The tutorial begins by creating individual parts for each component using the ANSI inch part template, including the Stock Support Base, Thrust Bearing, Adjusting Screw Nut, Support Adjusting Screw, Support Roller Bracket, Stock Support Roller, and Adjusting Nut Handle. After creating and saving all components, you will start a new assembly, ground the base component, and apply the appropriate assembly relationships to assemble the remaining parts. Patterning techniques are used to replicate the Adjusting Nut Handle, and final adjustments complete the assembly.
This lesson emphasizes building components individually, applying assembly constraints, and using patterns to efficiently assemble a complete mechanical system.
In this video, you will learn how to create all the components of a Pipe Vice assembly and assemble them in Solid Edge.
The tutorial begins by creating individual parts for each component, including the Base, Screw, Moveable Jaw, Handle, and Handle Screw. After saving all components, you will start a new assembly, ground the base, and apply the necessary assembly relationships to connect the remaining parts. Additional instances of the Handle Screw are added using the same relationships to complete the assembly.
This lesson emphasizes part creation, assembly constraints, and systematic assembly of a mechanical device for functional accuracy.
This course contains the use of artificial intelligence. Learn Solid Edge 2026 from scratch and become a job-ready CAD designer with this complete, practical, and industry-focused course.
This course is designed for students, mechanical engineers, and professionals who want to master 3D modeling, assembly design, sheet metal, and drafting using Siemens Solid Edge 2026.
You will start with the basics like user interface, sketching, and dimensioning, and gradually move towards advanced modeling techniques, surface design, sheet metal, and real-world assemblies.
This course follows a learn-by-doing approach with step-by-step tutorials, exercises, and real engineering projects—helping you build strong practical skills.
Solid Edge combines Synchronous Technology and Parametric Modeling, making it one of the most powerful and flexible CAD tools in the industry. In this course, you will learn both approaches in depth.
What Makes This Course Unique?
Covers Solid Edge 2026 (Latest Version)
Focus on real-world mechanical design workflows
Learn Synchronous and Ordered Modeling
Includes projects like assemblies and industrial components
Step-by-step beginner-friendly explanations
Ideal for jobs, internships, and career growth
By the End of This Course, You Will Be Able To:
Create professional 3D CAD models using Solid Edge
Master sketching, constraints, and dimensioning
Build complex parts using extrude, revolve, sweep, and loft
Work with assemblies and apply relationships
Generate 2D engineering drawings and documentation
Design sheet metal components and flat patterns
Understand surface modeling and advanced tools
Apply design intent and parametric modeling techniques
Keywords
Solid Edge 2026, Solid Edge tutorial, CAD course, 3D modeling, mechanical design, Siemens Solid Edge, CAD for beginners, parametric modeling, synchronous technology, assembly design, engineering drawing, sheet metal design, surface modeling, CAD training, product design