
Design an aluminum casting mold in SolidWorks by creating a simple port and exploring several mold creation methods, including extrusion, shell, and draft.
Create a mold from a part using surface methods in SolidWorks by selecting tangent inserts, offsetting zero, and forming multiple surfaces into bodies to make one or three mold sections.
Learn to create a mold with the Indent command in SolidWorks by building and combining bodies, sketching, extruding, moving faces, and applying cuts and tolerances for a clean core.
Learn how to create a mold using the combine method in SolidWorks by duplicating bodies, sketching, extruding, and selecting tangent faces to manage pour ports.
Master thickness analysis for aluminum casting in SolidWorks by evaluating port thickness, draft, and shrinkage to guide mold design from start to finish, with costing checks and chamfer considerations.
Analyze and adjust draft angles in solidworks for aluminum casting, setting parting lines, managing wall thickness and material, and using move/copy and delete tools to refine the mold geometry.
Learn the rules and basic knowledge of the aluminum cavity casting process, including mold design, pouring speed around 0.5 m/s, avoiding turbulence and bubbles, and top/middle/bottom filling.
Design the filling system, gate, and feeder for aluminum casting in SolidWorks, including placement, turbulence control, and simulation to evaluate top versus bottom filling and shrinkage.
Design and optimize the filling system and feeder in SolidWorks for aluminum casting, adjusting distances, drafting, extruding, chamfering, and simulating shrinkage and thickness.
Explore basic information on aluminum simulation for cavity casting in SolidWorks, including running simulations, diagnosing incomplete fills, and adjusting gauge and temperature to improve filling and solidification results.
Open first simulation in Inspire Cast for aluminum casting and mold design in SolidWorks, adjusting face angles, gauges, and mold temperatures to study filling, air escape, and potential shrinkage.
Explore aluminum casting and mold design with Inspire Cast and SolidWorks, adjusting gates, gauges, and filling speed to study solidification and shrinkage.
Analyze the filling results of floating aluminum by adjusting temperature and speed to minimize turbulence, manage pressure, and align aluminum and mold temperatures for proper casting.
Analyze solidification results from liquid to solid, observe temperature changes, shrinkage in pins and ribs, and identify porosity and micropora to guide mold temperature control.
Design a mold in SolidWorks by creating cores, extruding features, applying fillets, and inserting injector pins and bolt holes for aluminum casting.
Explore placement of injection pins and ejector pins in aluminum mold design using SolidWorks, considering inactive and back pins, core drafts, and sketch-based extrude cuts.
Create back pins, linear and injector plates in SolidWorks for a two-plate aluminum mold, ensuring bolt clearance and accurate machine connection through mirrored sketches and extrudes.
Finish the mold project by selecting materials, completing injector and back pins, sizing and centering pins, adding orientation and presentation plates, and detailing bolts, threads, and mold assembly in SolidWorks.
Design orientation pins for mold setup in SolidWorks, create guide pins and opening holes, apply extrude cut and drilling operations, and verify center of mass for safe mold lifting.
Plan SolidWorks mold with gauge placement, feeder, and runner system, include a filter to prevent porosity, and use simulations to check draft and fill before machining and drilling oil ports.
Design aluminum casting and mold in SolidWorks, sketch and size parts, calculate shrinkage, rotate orientations, and plan gating, filters, and flow to control material distribution.
Design the aluminum casting filling system, gate, and feeder in SolidWorks, incorporating sketch, filter, draft, and runner geometry, and evaluate mold fill via simulation.
Compare aluminum flow results with minor port changes, filter usage, and feeder adjustments to optimize fill and reduce air entrapment across SolidWorks simulations.
Create a two-body aluminum mold in SolidWorks by detailing filters, feeders, and draft angles, using sketches, extrudes, and the indent command, then verify with draft analysis.
Design injector, back, and orientation pins for a mold in SolidWorks. Optimize pin placement and dimensions to ensure correct mold setup and operation.
Design and validate pins, a linear system, and an injector plate in SolidWorks, using sketches, extrudes, and mirrors to ensure proper mold fit.
Inspect the mold and motion setup for aluminum casting in SolidWorks, focusing on orientation pins for the mold and injector plate, back pins, and interference checks to ensure proper push-out.
Explore the third project in aluminum casting and mold design using SolidWorks, covering core selection, sand core use, gating ports, filters, and drafting for split lines and two-part molds.
Explore designing the filling system, gate and feeder for aluminum casting using SolidWorks, including sand core integration, patterning, extrude cut, venting strategies, and simulations for fill, float, and shrinkage.
Create sand molds in SolidWorks by extruding and cutting features, selecting aluminium or plastic materials, and optimizing radii and orientation for open/close mold and 3D printing options.
Create a sand core mold in SolidWorks by sketching, extruding merged bodies, and adding machinable radii. Learn safe saving, error avoidance, and designing pins, gates, and gas outlets for casting.
We explore the best approach for casting project number four, deciding between casting and machining, and plan core, draft, and mold halves with a boss plate for the part.
Explain how to design a mold and filling system in SolidWorks, including gates, feeders, ejector pins, cores, and injector pins, and assess with simulation for shrinkage and proper fill.
Learn how to design an aluminum mold for this part, including the runner system, gauges, push-out pins, core, injector plate, and piston and linear interaction to ensure fill and ejection.
In this course, students will learn how to complete a project from start to finish, including:
1. Product analysis, can the cavity casting product be realized?
2. Basic knowledge in aluminum casting, where we will realize several different projects
3. Mold design with Solidworks software using several different methods.
4. The simulation and analysis of aluminum appears to be done in the Inspire Cast software, you will have basic knowledge of this Inspire Cast software module
After completing this course, students will be able to carry out various projects in this type of industry and mold crime in the plastic industry, they will also learn a lot from this course to design for their personal needs.
Students will have a different concept to realize a project after completing this course.
In this course we will realize projects that cannot be realized with core only, we will realize with sand core when it is necessary in the part, we will also prepare the shingle mold for the project that needs to be realized.
The aluminum casting industry is complicated, if you do not understand the basics it is very difficult to create a mold, in this industry it is more important to build the mold properly, other parameters during the process can be adjusted.