Catia V5 Practice Projects - From Beginner to Expert Designs

Design a simple gear wheel in Catia V5, focusing on creating a customizable cog with symmetric tooth patterns using sketches, pads, chamfers, fillets, and circular pattern.

Design a thread in Catia V5 by building an external profile on a solid with a helix, adjusting pitch and height, and refining with chamfer or groove techniques.

Design a suspension spring for a downhill bike in Catia v5 using generative shape design and a helix, with 160 mm length, 45 mm diameter, 18 mm pitch, flat ends.

Design a helmet-mounted camera extension arm in Catia v5 by building a solid body, adding holes and pockets, and applying symmetric constraints and patterns for a precise, parametric part.

Design two versions of a cutting disc for a shredding machine in Catia v5, including a squared-hole rotation and a complex tangent-circle sketch.

Design shaft a and shaft b in CATIA V5 using laminated profiles with fillets and a 40 mm disk, then duplicate to shaft b and adjust cutout to 90 degrees.

Design a bearing wall in Catia v5 by sketching a rectangle, extruding to 25 mm thickness, and adding two bearing holes mirrored about vertical axis, then pocketing to opposite plane.

Design the shredder's grill wall as a single sheet metal part, copy it to the opposite side, and use sketches, pads, chamfers, and a pattern to fit welding clearance.

Assemble the shredder in Catia V5 by importing walls, discs, and shafts, aligning bearings, and placing gears using smart move, snap, and coincidence to ensure proper fit.

design the shredding box legs by creating a profile leg with a 35 by 25 rectangle, 3 mm corners, and a 2 mm thick pad of 600 length for assembly.

Design the motor support by creating a connection beam in a 25 by 40 sketch with 2 mm thickness, then copy into the assembly and align surfaces for welding.

Finish assembling a Catia V5 model by integrating standard sprockets, chain, and motor, aligning surfaces and centers, and preparing the assembly for DMU kinematics to analyze rotating sprockets.

Explore DMU kinematics in Catia V5 by building a moving assembly with shafts, disks, gears, and sprockets. Define a fixed base, joints, and a simulation replay for smooth animation.

Model and animate a classic steam engine in Catia V5. Learn the essential features to make the parts move using the Dmu kinematics workbench, even if you can't save.

Design a centrifugal pump impeller in Catia v5 by building a highly constrained sketch with circular patterns and tangencies, then extrude a pad and add pockets and fillets.

Design the column in catia v5 using revolve, pockets, and edge fillets, align sketches on planes, and apply precise dimensions for centered holes.

model a centrifugal pump wheel by revolving a profile into a shaft, applying constraints and dimensions, then add a dent, pockets, six holes, chamfers, and fillets via circular pattern.

Design a red beam part in CATIA V5 by sketching circles and lines, applying tangency, symmetry, and constraints, then extruding and mirroring features to create pockets and holes.

Create a centrifugal pump cover by stacking circular pads and simple sketches, adding six equally spaced holes with chamfers and a central countersunk hole.

Design the centrifugal pump housing by sketching a 95 mm circle, adding tangency and symmetry constraints, creating a pocket of 18 mm depth, and drilling 6 mm holes with mirror symmetry.

Design a compact turbine wheel for a pulley assembly by sketching, revolving, pocketing features, adding a 10 mm diameter hole, a 1 mm chamfer at 45 degrees, and symmetry constraints.

Design the centrifugal pump shaft and bearing using CAD, including a shaft with a groove and chamfers, plus a bearing modeled to complete the assembly.

Catia V5 practice project: design a bearing holder by sketching a symmetrical profile, applying constraints, extruding a pad, and adding mirrored pocket and holes with chamfers and radii.

Design a blue shaft and an eccentric hub inside bearings, then model a crankshaft rod in Catia V5 using sketches, pockets, holes, and a slotted offset plane with chamfers.

Design a Catia V5 base by sketching a centered 32 by 32 square, extruding to 95, and adding holes, pockets, countersunk and counterbore features, plus chamfers.

Design a transparent cylinder in Catia v5 by creating sketches on multiple planes, extruding pads, adding pockets and holes, mirroring features, and finishing with a chamfer.

Design the eccentric strap, rod, and head in Catia V5 by sketching centered circles, applying constraints, creating pads and pockets, and adding fillets and chamfers.

Design a crankshaft rocker with a bolt and nut in Catia V5 by creating simple sketches, applying tangency and diameter constraints, and adding holes, pockets, and a chamfer.

Design the connecting rod head and link in Catia V5 with sketches, circles, tangency and symmetry constraints, pads and pockets, and reuse parts by copying and renaming to save time.

Design the piston and piston rod by sketching head and rod on planes, adding pads, holes, fillets, chamfers, and grooves, and using mirror and concentricity features.

Model a valve inside the cylinder and its rod in Catia V5 by sketching the shaft, forming a symmetric cutout, and applying chamfers, fillets, and a mirrored 20 mm pad.

Design valve linkage rockers in Catia V5 practice by sketching circles and profiles, applying tangencies, trimming, adding a through hole and edge fillet, and duplicating to create a second rocker.

Design a cylinder head and inlet by sketching circles, applying dimensions, mirroring and trimming features, then extruding pads and pockets with chamfers and concentricity in CATIA V5.

Design the piston support beam and rod by sketching concentric circles with diameters 4 and 9 on a plane, then apply constraints, extrude pads, and add chamfers and fillets.

Design the valve linkage and beam linkage parts using sketches, symmetry, and elongated holes with dimensions, then mirror, chamfer, color, and save to prepare the assembly for the next video.

Assemble the steam engine project in Catia V5 by gathering parts in one folder, inserting them, and using compass, snap, and offset or xy constraints to position components.

Align parts in a Catia V5 assembly by applying fixed component constraints, coincidence and offset constraints, and use updates to bring components into proper alignment for DMU kinematics.

Explores Catia V5 kinematics by building a moving steam engine assembly using EMU kinematics, adding about 34 joints, fixed parts, and simulating motion with DMU animation and replay.

Perform assembly analysis by aligning cutouts with keys on shaft and wheel, installing bearings, pins, and security nuts, and selecting standard fixings and a belt drive to complete the project.