Solid Works Industry Oriented Practice Modules

Practice part modeling using industrial methods to create a raw material block for assembly, then remove material to finish the part, with a focus on design for manufacturing and prototyping.

Explore part modeling in Solid Works through symmetry, sketch constraints, dimensions, extrude cut, and angled planes, building industry-ready skills for engineering careers.

Learn to create a part model in SolidWorks by sketching center lines and circles, creating slots, applying extrude and cut features, and using mirrors and dimensions.

Model a manufacturing-ready part in SolidWorks by creating a 62x44 mm block, extruding to the correct height, and applying center lines and boring operations.

Practice SolidWorks part modeling by sketching circles and radii, applying equal constraints, extruding and cutting features, and using symmetry with center lines for milling-ready parts.

In SolidWorks part modelling practice module 06, sketch a center rectangle of 72 by 146 mm, extrude to 9 mm, then sketch and remove a slot to prepare for manufacture.

Learn SolidWorks part modeling by creating a center line, a centered rectangle and circle of diameter 60, trimming with constraints, and using an extrude cut to remove material.

Practice part modelling in SolidWorks by creating symmetric sketches from centerlines, defining radii and diameters, and applying cut features with concentric relationships to finalize the geometry.

In part modelling practice, this lecture guides building a complex park component using extrusion and a center rectangle with precise millimeter dimensions for design for manufacturing.

Develop SolidWorks part modelling skills through creating and fully constraining sketches, centering circles with precise diameters, and using extrude and extrude cut to form holes.

Model a part by milling a slot, centering features, applying sketch constraints and dimensions (36 mm, 60 mm, 72 mm), and using extrude cut to resolve interference.

Learn SolidWorks part modelling through sketching, extruding, and extrude-cut operations, applying trim, concentric and coordinated constraints to create features from reference sketches.

Practice part modeling in SolidWorks by creating sketches on the top plane, applying constraints such as coincident and concentric, adding circles, trims, symmetry, holes, and fillets.

Create a multi-feature part by sketching a center line, adding circles with defined diameters, and using extrude cut with dimensions to form holes, while considering units and stress concentration.

Create a park model in SolidWorks using cylinder and rectangle sketches, set inches units, apply diameters and radii, and extrude features to complete the part.

Participate in SolidWorks part modelling practice by creating holes and reference circles on front plane, using radii and diameters to define features. Apply circular patterns to replicate the hole layout.

Refine sketches, remove features, and apply color during part modelling. Save the model and review the Ford motor result from video manufacturing, then proceed to assembly practice.

Practice part modeling by designing a cylindrical box, defining diameter and height with limits and tolerances, and creating a base material and inner diameter in a single sketch.

Learn to create a SolidWorks feature using a center line, apply perpendicular constraints, add drafting notes, and set upper and lower limits for concentric diameter features.

Develop part modelling skills in SolidWorks by building a reference center plane, base sketches, holes, threads, and an eight-point circular pattern, applying limits, tolerances, and dimension checks.

Learn to create and constrain a quadcopter assembly in SolidWorks, importing components, applying mates to six propellers, fixing errors, and achieving full constraints for stable takeoff and landing.

Insert components and apply concentric mates to align faces and control assembly motion. Maintain proper gaps to prevent friction, adjust positions, rotate parts, and color the quadcopter for final visualization.

Master drone assembly using SolidWorks by constructing a main body with a camera for surveillance and a forward propeller, then practice assembling components from GrabCAD models.

Practice assembly design in SolidWorks by importing parts, creating sub assemblies, and applying constraints such as concentric and fixed that align missiles for a drone.

Begin with the shaft to assemble a SolidWorks model, importing prototype components with a reference for fit. Suppress or delete sketches and set parts to float, then save after updates.

Assemble these components and apply concentric and coincident constraints to align the bearing and washers, consider lubrication, check for interference, and refine rotation to complete the assembly.

Import and install components in SolidWorks, apply concentric and distance mates, align planes, and troubleshoot constraints to create accurate, fully constrained assemblies.

This lecture guides assembling a multi-component model in SolidWorks, importing components, and using concentric, coincident, and locked rotation constraints.

Explore assembly design in SolidWorks through practical steps: importing standard components, applying concentric and coincident relations, aligning faces, rotating assemblies, and editing components within the assembly.

Assemble components, align faces, and set concentric and coincident mates. Fix the assembly, import remaining parts, adjust rotation, and verify distance for lubrication and clearance.

Assemble the remaining components using concentric and coincident constraints, insert washers and shaft parts, and align faces to complete a precise SolidWorks assembly.

Construct a SolidWorks assembly by importing components, creating a sub-assembly, and applying coincident constraints to align holes and planes, enabling a practical, constrained practice model.

Master assembly design by building sub-assemblies, selecting mating faces, and applying constraints to achieve a fully constrained model. Learn to import, copy, and align parts in SolidWorks to ensure fit.

Apply assembly design techniques in SolidWorks by constraining, aligning, and centering parts in an assembly, using concentric and symmetric constraints to assemble bottom cylinder, connecting rod, and rocker, checking interferences.

Explore assembly design in SolidWorks by installing and duplicating components, using mates to align faces, and applying concentric and symmetric constraints to create a correct assembly.

Assemble multiple components in a guided SolidWorks workflow, apply concentric and rotational constraints, align faces, and add screws to produce a fully constrained assembly.

Import components, set a base component as reference, and apply mates to constrain the assembly with coincident, distance, angle, and perpendicular relations to finish a fully constrained whole assembly.

Import the D component, apply a concentric constraint to align parts, and set a distance to create a safe gap. Then add rotation constraints to make the assembly fully constrained.

Import the spring component and apply its expanded configuration, then use coincident mates between the spring faces and the parent assembly to fully constrain the part.

Insert components and constrain with planes, concentric and coincident mates, and adjust rotation to fully constrain the assembly. Save and rename assemblies, and compare designs across varying component counts.

Create and manage assembly configurations, including expanded and compressed states, and update the assembly as you adjust component dimensions.

Explore assembly design in SolidWorks by using hide and transparency controls to review component quantities, reveal hidden parts with fill with dependency, and manage visible versus hidden components.

Learn to manage parallel configurations in a SolidWorks assembly, ensuring independence between expanded and compressed states, and create a fully defined bill of materials with SAP numbers and component quantities.

Explore creating exploded views in SolidWorks by adding a separate configuration, expanding and exploding components in isometric view, editing explode steps, and aligning explode lines for clear assembly sequences.

Constrain a bottom bearing assembly using concentric and coincident mates, align inner and outer parts, and use circular patterning to place eight steel balls.

Master SolidWorks assembly design by building a universal coupling and importing components. Apply concentric and coincident mates, fix and constrain parts, and edit dimensions.

Discover sheet metal design in SolidWorks, focusing on body manufacturing processes, thickness criteria, and operations like shearing and bending. Explore aerospace and automotive applications and the difference from solid components.

Learn to create a simple sheet metal part in SolidWorks using sketch constraints, centerlines, equal and symmetric relations, and extruded cut operations while applying practical dimensioning for fabrication.

Explore sheet metal operations in SolidWorks, including bending and cutting, with drafting, isometric views, dimensions, and hole patterns to support precise fabrication.

Practice sheet metal design by building sketches with precise dimensions, applying punching and extrusion, and using flatten and unfold workflows to create slot features and multi-part components.

Master sheet metal design by building a single feature with forward and unfold, then fold and unfold, while sketching, punching, and applying manual reliefs for accurate parts.

Practice basic sheet metal design by creating a component from a metal sheet using base flange, edge flange, and four walls, with dimensions defined as needed.

Create edge flanges and sheet metal relief in SolidWorks, use a center rectangle with center lines for symmetry, and apply a base flange with the same thickness as one.

Explore sheet metal design in SolidWorks by creating slots and holes, adding flanges and reliefs, and applying precise dimensions and constraints to produce centered, finished features.

Learn hands-on sheet metal design in solidworks using base flange, sketching, dimensions, centerline references, mirroring features, and fillets to create and refine a sheet metal part.

Learn how sheet metal reliefs prevent buckling by accommodating expansion under load. Explore sketching and extrusion of relief features and vents.

Create a sketch on a face to design six concentric circles for a vent in the sheet metal component, set dimensions, add central reference lines, and trim lines for cutting.

Develop practical sheet metal design in SolidWorks by creating fully constrained sketches, applying dimensions, and finalizing components using industry-standard modeling methods.

Explore SolidWorks drafting fundamentals, including angular projection types (forced angle projection and third angle projection), minimal views, templates, and model-based or manual dimensions for irregular and cylindrical components.

learn to draft milling features and create slots, manage dimensions and instances, and ensure sufficient, non-conflicting dimensions for clear manufacturing of the component.

Learn to create and fill a SolidWorks title block with automatic fields, annotations, tolerances, finishes, and sheet formats, including drafting a cylindrical component detail.

Learn to draft this component by naming features according to manufacturing methods, understand feature types, apply degree specifications, and emphasize detailing accuracy since detailing will be sent to the manufacturer.

Begin drafting by applying NC standards for a three-sheet drawing, import the part, start from the left, create views and a section, adjust visibility and sizes, then rebuild and save.

Hide unnecessary base views, place and align annotations and lines for the view, then create an isometric view to clearly communicate the final product to the manufacturer and save layout.

Explore drafting practice in SolidWorks by adding and aligning views, creating a cylindrical part with specified diameters, and using intersection view and model items to set base features and dimensions.

Practice drafting in SolidWorks by creating section views, setting center lines, detailing holes with specific diameters and dimensions, and assembling a clean, complete model.

Apply drafting practice in SolidWorks by using smart dimensions, reference dimensions for 45 degrees, centering features, hiding unnecessary items, and saving with manufacturer notes.

Learn practical drafting in Solid Works, including managing model items, annotations, details, and display options; apply smart dimensions, hide extension line, hide dimensions, and spacing evenly for accurate drawings.

Explore SolidWorks drafting practice by detailing features, centering geometry, applying symbols, and using display options and annotations to complete the model.

Learn SolidWorks drafting practices by editing features, adjusting and finalizing dimensions, creating and managing views, and detailing parts for manufacturing, with manual dimensioning and exporting in common formats.

Develop drafting practice in SolidWorks by detailing dimensions, hole positions, diameters, depths, and angles; perform quality checks and create color-coded, complete drawings ready for manufacturing.

Explore drafting practice in SolidWorks with step-by-step review, updating features, opening solid models, and performing quality checks on diameters, holes, and tolerances.

Create datum features a, b, and c, apply flatness and perpendicularity tolerances with a control frame, and keep a basic dimension separate to avoid manufacturing confusion.

Learn to draft in SolidWorks by creating isometric and section views, setting up layout, and projecting and aligning important dimensions with center lines, break lines, and tolerances.

Draft and detail a cylindrical spark plug insulator, create accurate section views, set scale and dimensions, and align features using the center line for precise manufacturing and 3d printing.

Practice drafting practice module focuses on applying radius and diameter dimensions, handling cases where a dimension cannot be given, removing unwanted dimensions, and refining sketch details with leaders and profiles.

Practice drafting by detailing a circular component in SolidWorks, transferring key dimensions such as diameter with decimal precision, annotating features, and placing ISO views to aid fabrication.

Create assembly drawings in solidworks using section views, place and customize bill of materials, add annotations and balloons, and explore basic PDM/PLM workflows for industry.

Learn to create a manufacturing line assembly with multiple views, including isometric and diametric views, and develop exploded and custom views for clear drafting.

Learn to create exploded views in SolidWorks, place balloon numbering, and add materials from the assembly to generate a bill of materials. Practice detailing assemblies and send files for review.

This lecture on drafting practice covers solid and surface models, saving in neutral formats like step, and exporting for use in other software.