
Explore interface essentials in 3D Coat, focusing on voxel-based sculpting, layer-like organization, and material selection for flexible object modification, with keyboard shortcuts guiding the workflow.
Pose a standard mannequin with a layer structure, using move and rotate transforms to adjust posture, compare the pose to a car seating ergonomics chart, and set up a passenger.
Optimize mannequin geometry by converting the top layer to a surface, reducing triangles from millions to about 60k, and managing layers and mesh geometry in 3D Coat.
Create the top support beam with the sphere tool, add attachment points with a circle, increase density, smooth artifacts, and cut holes for rotational parts by switching modes.
Create a housing for the shock absorber, sculpt a cylinder with the blob tool, and form a coil spring with the primitive, adjusting symmetry and holes.
Model a disk and breaking pads in 3D Coat, applying symmetry, voxel techniques, and uniform space to build a precise braking assembly.
Master radial symmetry in 3D Coat by crafting a disc with holes, adjusting the axis, and replicating the structure while managing hidden geometry to refine the radial pattern.
Align and combine model parts, scale down, and mold the vehicle in 3D Coat, balancing the model for solid fundamentals. Preview detailing the suspension in the next step.
Design a wheel disc in 3D Coat by refining hidden geometry, activating radial symmetry, and iterating with the oxide tool to craft creative, dense disk designs.
Apply real symmetry to prepare the tyre for detalization, adjusting the bounding box and geometry while managing resampling and fixes.
Showcases tyre vox hide design in 3D Coat by shaping, unhide steps, and symmetry to craft a rubber-like wheel wrap for a functional vehicle design.
Apply symmetry copy in 3D Coat to fix the tyre back part, mirror it, and compare with the original while the tool remembers affected mesh areas for easy undo.
Block out a seat using voxel modeling in 3d coat, focusing on ergonomic fit, symmetry, volume, and shell creation.
Create a seat polygon model by sculpting in 3d coat, using symmetry, adjusting points and faces, applying cuts, smoothing, and refining surface to add seat belt holes.
Explains a steering mechanism where a gear on the rack pushes the rod in both directions with positive transmission, and notes extending the rubber hose for a better schematic.
Build a car frame in 3D Coat with the sphere tool to anchor structures, adjust scale, and form a crisscross frame, comparing unibody and welded frame approaches.
Create a car body volume, cut away unneeded parts with a rectangular tool, adjust density, and shape the frame using shader and move tools for structural design.
Assign a wallum shade to the body, snap the sphere tool to the attachment, and build the frame around the body's points, while hiding the volume for easier inner construction.
Learn to use the car frame curve tool on the body to create curved lines, add points, lift into beams, switch to corner, and build lattice frames using snap.
Finish car frame for a 3D Coat project by refining structural elements, adding a cosmetic bump and roll bar, while aiming for a lightweight look with a carbon fiber frame.
Explore assigning and adjusting materials and colors across a vehicle model in 3D Coat, using instanced shaders for frame, tires, metal parts, lights, seats, and brakes.
Add color to the front block using the existing volume and adjust visibility, while omitting the engine and dashboard; then reveal inner details and prepare panels for later.
Master panel retopo in 3D Coat by building panels from polygons in the top room, isolating geometry, converting to work source, and refining cuts and boundaries in sculpt mode.
Design a clamp in 3D Coat to attach lights and a cell mirrorless, using symmetry and circular shapes for sharp edges and proper proportions, and optimize to 15k–30k triangles.
Master functional vehicle design workflows in 3D Coat through practical modeling techniques showcased in lecture 11.
Download and set up two scripts to name and organize your 3D Coat files, then search for the suffix and apply materials such as metal, plastic, or rubber.
Set up cables in 3D Coat by dragging with the middle mouse, apply presets, and route a cable from the walkie talkie to the computer.
Create a heavy, double-sided mesh in 3D Coat by using stencils with a tasseled tool, adjusting thickness and symmetry, and applying a differentiator for a dense vehicle design.
Export objects from 3D Coat as OBJ, navigate the expert scene, and decide on decimation before importing into KeyShot; note the export window is not intuitive and polygon counts matter.
Import your vehicle to KeyShot and keep parts' positions relative to the origin, then step to the ground to avoid gaps. Switch to performance mode to speed previews.
Apply materials in keyshot by suffix prefixes, quickly linking parts to metal or plastic libraries, then drag, drop, and adjust roughness and color for each part.
Explore assigning labels in KeyShot for a vehicle, using a 50x50 diffused texture to blend colors into diverse abstract logos via planar, camera, and cylinder projections.
Apply a gradient map to a model, adjusting placement with translate and rotate to cover whole object. Blend colors like black, white, blue, and red for a fading texture.
Explore how tri-planar wheel labels use multiple projections, bump and diffuse textures, and Photoshop-based prep to create grooves and stripes on the wheel surface.
Learn how to extract a tire pattern from a cylinder in 3D Coat, unwrap the UVs, and bake a rectangular shell to project tire texture onto a plane.
Drag and drop an environment into the scene, adjust light colors toward white or monochrome, add cameras, and render in 4K with alpha transparency via the process queue.
Experiment with rapid render iterations of a functional vehicle, testing backgrounds, patterns, colors, and label materials. Adjust camera positions, lighting, and views across overnight renders to reveal design evolution.
Discover how voxel modeling in 3D Coat enables functional vehicle design beyond polygon limits, embracing creative ideas and practical workflows for lifelong use.
In this comprehensive tutorial, you will delve into the intricacies of constructing a realistic and visually compelling vehicle using the diverse array of modeling and sculpting tools offered by 3D Coat. Designed for intermediate to advanced users, this tutorial serves as a hands-on guide to enhance your proficiency in vehicle design within the 3D Coat environment.
If you are relatively new to 3D Coat, it is recommended that you first explore the "Designing Massive Mech" tutorial, the predecessor to this course. This foundational tutorial will equip you with the essential skills and knowledge needed to seamlessly transition into the complexities of vehicle construction.
One of the standout features of 3D Coat is its unparalleled ability to facilitate rapid iteration on your designs, empowering you to refine and elevate your skills as a designer. The toolset within 3D Coat allows for dynamic experimentation, fostering a creative environment where your ideas can evolve and improve iteratively.
Throughout the tutorial, you will be guided through the step-by-step process of crafting the vehicle's main frame. Additionally, you will learn to create a myriad of intricate details, including but not limited to tires, radios, motors, suspension systems, antennas, and more. This holistic approach ensures that you gain a comprehensive understanding of the entire vehicle design process, from the foundational structure to the intricate components that bring it to life.
By the end of this tutorial, you will not only have a fully realized and believable 3D model of a vehicle but also a heightened proficiency in utilizing the advanced features of 3D Coat. Whether you aspire to enhance your portfolio, pursue a career in 3D modeling and design, or simply want to expand your skill set, this tutorial offers an immersive and valuable learning experience for those seeking to master the art of crafting realistic 3D vehicles.