
Learn industrial machine design by creating your own machine, applying ideas based on weaknesses of similar designs, and ensuring ergonomic, removable, and pallet-size compatible builds with 2D to 3D conversion.
The introduction explains choosing a nailing table and upgrading a pallet-production machine, aided by Photoshop and Catia v5, emphasizing an ergonomic, disassemblable, time-saving design compatible with many standard pallets.
Explore the stages of design, examining existing parts like UCP, UCFL, SHF, SMD, and a pneumatic cylinder. Create a 2D mechanism and convert it into 3D.
Explore downloading and preparing UCP 207 and UCFL 205 bearings from a free site, import into Catia V5, adjust colors and materials, and verify diameters before saving to folders.
Design the base mechanism by creating a new part design named mechanism and sketching on the yz plane with a 50 cm offset; place 3.5 cm circles as workbench axes.
Design a fixed base from sketches and features, including centered rectangles, pads, an elongated cylindrical hole, symmetry with the H axis, and pocketing, culminating in steel material application.
Design a base mobile by building centered rectangles and circles, applying extrusions, mirroring and pocket features, then assign steel material and refine color to reduce reflections and save.
Design a short pillar by sketching two centered rectangles, adding circles, mirroring features, translating positions, extruding, and finishing with a 6 cm pocket in steel.
Design a long pillar by creating centered rectangles and circles, extruding features with precise dimensions, mirroring and translating geometry, applying a steel material, and adjusting color for a natural look.
Learn to locate and model a shaft support block SHF and a linear bearing SMD in CATIA via STEP/IGES downloads, verify radii, and adjust steel material color.
Design a pneumatic cylinder by selecting GrabCAD STEP/IGES files, evaluating options in Catia, and building the rod end, axe, and flange attachment in steel.
Add the transport mechanism and determine the pneumatic cylinder length in rest state, then sketch the transporter with three bars and simulate its motion.
Design bearer bars by sketching centered rectangles and circles, applying mirrors and extrusions, projecting 3d elements, and finalizing with steel material.
Design five bearer bar supports, determine the mechanism’s perimeter rotation, select a square tube 40, and sketch precise locations and lengths to position the supports.
Explore the design of bearer bars through step-by-step sketches, symmetry, mirror operations, and pad and pocket features, culminating in right and left bearer bars.
Model the mechanism of rotation in 3d by creating a 40 cm link with symmetry and a 1 cm hole, and save the design in rotation folder with steel material.
Create a workbench design by building middle and R/L parts with sketches, mirrors, pockets, and hexagon sockets, then assign steel material.
Design and model standard and modified tubes for a workbench using sketches on yz and xy planes, symmetry, and pocket operations in steel.
Design a transporter in a 3d cad workflow by building sketches, planes, 4 cm square tubes, and a 2.5 cm circle, then apply fillets, symmetry, steel, and save.
Design the base of a pneumatic cylinder by creating a part named base of p.c, sketching centered rectangles with symmetry, applying precise dimensions, and adding pockets, pads, and steel material.
Finish the base of the pneumatic cylinder by completing sketches, projections and circles, applying v and h axis symmetry, and using pad and pocket operations for final precise dimensions.
Design a translation mechanism by creating a part and sketching components with precise measurements. Apply symmetry and constraints, run a motion simulation, and animate pallet sizes across standard configurations.
Design a fixation right bracket by creating sketches, profiles, circles, symmetry, and pockets in a solid modeling workflow, then apply steel material and save the part.
Design the support for a pneumatic cylinder by creating a new part, sketching a centered rectangle and circles with exact dimensions, applying steel, and pocketing 4 cm depth.
Design a 20-27 cm link by sketching an elongated hole, adding 1 cm circles, applying a 1 cm pad, and steel material, then save in the mechanism translation folder.
Design a 'support for link 35' in mechanism software, creating sketches, symmetry, pads and pockets, defining diameters and depths, applying steel material, and saving the modified tube 2 for adjustments.
Design a pallet fixative in a CAD workflow, sketching rectangles and circles, applying pockets and symmetry, forming a square tube, and assigning steel material.
Designs the Link 25 cm open t mechanism, creates elongated hole (radius 1 cm, length 25 cm), circles, a central rectangle, mirrors, pads to 1 cm, and applies steel.
Create an assembly folder, add components like long pillar + UCP and bearer of bars with UCFL and SHF, apply contact and offset constraints, update measurements, and save.
Follow along as the instructor assembles the workbench parts, guiding you step by step through the assembly with an uninterrupted video.
Follow the step-by-step assembly of the workbench R and L plus SMD, with the video guiding each move without disturbance.
Follow along as the instructor demonstrates the assembly of 'Product' guiding you through the step-by-step process without interruption.
assemble the mechanism of rotation by following the step-by-step instructions shown in this video. enjoy watching a disturbance-free walkthrough of the assembly.
Follow the next steps of assembling the product and enjoy watching the assembly without disturbance.
Follow the assembly steps for Product I, check measurements, and apply corrections to ensure accurate final assembly in this hands-on overview.
Create an integrated bolt and nut design, detailing screws, bolts, and nuts, following a step-by-step guide, and organize your project in a folder named screws and nuts.
Design the remaining bolts, nuts, and screws to complete the designs in machine design mastery from fundamentals to advanced.
Follow along as the video demonstrates assembling a component by adding bolts, nuts, and screws, with step-by-step guidance to complete the process smoothly.
Follow along as the video demonstrates assembling bolts, nuts, and screws part 2, guiding you through each step without disturbance.
Follow a step-by-step screws assembly, covering bolts, nuts, and screws in part 3, with an uninterrupted demonstration of the assembly process.
Follow along as this part 4 video guides the assembly of bolts, nuts, and screws, showing step-by-step parts alignment with minimal disturbance for clear learning.
Create fixative parts in a CAD workflow, including bottom deck board, top deck board, and clamping part, using sketches, pads, pockets, symmetry along the H axis, and steel material.
Follow the next steps of fixative parts assembly without disturbance as you watch the video and learn practical assembly practices.
Test the finished design and mechanism now to advance in machine design mastery for success.
Test standard size pallets on the nailing table and watch two videos to validate practical design performance.
Advance in machine design mastery from fundamentals to advanced, guided by test 3 and video 2.
Explore how the design enhances performance by making the product ergonomic, smooth, and easy to operate, turning 2D mechanisms into 3D ones and creating a dismountable, pallet-adaptable product.
To follow this course, you don’t have to be an engineer nor even greatly proficient in the mechanical field. All you really need is to have basic knowledge of designing on CATIA V5 and be fond of mechanical designs.
I chose catia for my designs because it is, as you no doubt know, one of the most used 3D programs by great companies like: Boeing, Bombardier Aéronautique, Michelin, Renault, LG, Thales, nokia and so many others.
I wanted to create a series of courses entitled: IMD, first to fulfill a dream I’ve always had about designing mechanical machines and second, and no less important, I wanted to share with you my know-how, and the experiences I’ve gained along quite a few years.
The first course of the series is going to be: how to design a nailing table?
This particular product is of course already on the market.
However, the object is to work on the weaknesses of the existing products and make our product:
-comfortable to use
-easy and quick to disassemble
-capable of moving the pallets
I’ll also show you how to integrate ready-designed parts found on the net you’ll be needing into your own design
In addition, this course will teach you how to turn a 2D mechanism into a 3D one certainly a very important steps in your design.
OK Enough talking and let’s get down to business.