Efficient Blender workflow - You will learn to navigate Blender comfortably, customize panels, shortcuts, and viewports, so you can work faster on everyday tasks and keep your workspace well organized.
Confident object editing - You will master selection, grouping, object hierarchy, and both Object Mode and Edit Mode, so you can organize scenes cleanly and adjust every part of a model with confidence.
Hands-on 3D modeling - You will practice core tools and modifiers such as Extrude, Bevel, Mirror, and Boolean, so you can build clean forms, control mesh density, and model symmetrical objects effectively.
Stronger model topology - You will learn how to guide edge loops, avoid problematic triangles and n-gons, and transfer sculpted detail onto lighter meshes that are easier to texture, animate, or export.
UVs and materials that work - You will create UV maps, place seams with purpose, and build PBR materials, so you can apply textures correctly and achieve believable surfaces for a wide range of object types.
Realistic scenes and renders - You will understand how to light objects with lamps, emissive surfaces, and HDR images, and how to set up Cycles and Eevee to produce reliable previews and polished final renders.
Camera and scene animation - You will learn to place cameras, animate movement with keyframes and paths, and use Timeline, Dope Sheet, and Graph Editor, so you can create clear and engaging shot sequences.
Models ready for output - You will gain the skills to prepare models for presentation, export, and 3D printing, verify topology, and save your work in practical formats such as STL or OBJ when needed.
Blender’s interface and workspace configuration set the foundation for efficient work in 3D. This section covers panels, windows, and workspaces, along with preferences for input devices, shortcuts, system settings, and add-ons, then moves to viewport navigation, camera positioning, and display options.
Managing a 3D scene begins with confident handling of objects and their structure. Participants work with selection, creation, deletion, grouping, and hierarchy, while distinguishing object mode from edit mode and using vertices, edges, and faces as the basic elements of further modeling tasks.
Core modeling operations in Blender are introduced through direct work on object components and mesh structure. The section covers transforms, tools such as Extrude, Inset, Bevel, Loop Cut, and Knife, plus key modifiers, symmetry, edge loop control, quad-based topology, and mesh density management.
Working on complete forms requires combining topology discipline with methods suited to different model types. Participants practice organic and hard surface approaches, connect shapes with different cross-sections, support modeling with sculpting tools, and transfer sculpted detail onto simplified geometry.
PBR materials rely on a consistent set of texture channels that describe how a surface should be rendered. The section introduces the role and practical use of Color, Roughness, Normal, AO, bump, and displacement maps, with short exercises focused on physically based material structure.
Before textures can be applied effectively, the mesh needs a UV layout that is technically sound and easy to manage. This section covers seam planning, creating single- and multi-part UV maps, optimizing their arrangement, merging smaller islands, and aligning outer borders for cleaner texture placement.
Principled BRDF provides the base for building materials that react convincingly to light. Work here includes reflections, roughness behavior, anisotropy, transparency, subsurface scattering, normal and displacement maps, and the construction of common surface types, including textures derived from photographs.
Light defines form, depth, and mood, which is why the training moves from building a virtual studio to controlling illumination at object and group level. It includes lamps, emissive planes, HDR images, reflected light parameters, light falloff, and light linking for more selective scene control.
Rendering combines scene preparation with engine-specific decisions that affect speed and image quality. The section explains preview versus final renders, CPU and GPU workflows, render camera settings, layer-based output, and the practical differences between Cycles and Eevee in production work.
Final output must match its intended use, so this part concentrates on exporting the finished image with the right format and technical parameters. The focus is on choosing settings that preserve image quality while meeting delivery requirements for further use or publication.
Animating a scene starts with deliberate camera work and a clear understanding of keyframes. Participants set camera parameters, build motion along paths, use target constraints, and work in Timeline, Dope Sheet, and Graph Editor, then add DOF, shake effects, basic particle animation, object animation, and core rigging concepts.
Addons extend Blender in areas tied to modeling, material setup, texturing, and scene lighting, so the section focuses on the tools most useful in daily work. It also covers preparing meshes for 3D printing, checking topology, optimizing vertices, and exporting print-ready STL or OBJ files.
Computer basics - You should be comfortable using a computer, keyboard, and mouse, managing files, and installing software, because the course assumes smooth work inside a desktop application.
Basic file handling - You should know how to create folders, save projects, and locate files on your drive, so you can work smoothly with assets, textures, renders, and exported model files.
Spatial awareness - You should understand basic spatial concepts such as rotation, scale, perspective, and object position, as this will help you model, place cameras, and work in a 3D scene.
Graphics fundamentals - It is helpful if you know basic concepts related to digital images, light, and materials, so you can more easily understand texturing, lighting, and render preparation.
