3D graphics, CAD courses

Syllabus

• Description of the screen, division of the work area, working with menus, methods of entering commands, basic functions. Orientation in the work area: zooming in, panning the area, UCS. Working with layers: creating, overlaying, layer properties, layer settings. Drawing commands: line, ray, rectangle.... Modification commands: move, copy, rotate, mirror, scale.... Hatching: setting the hatch pattern, selection method, editing. Dimensioning: dimension types, use, editing. Paper space and model space: examples of use, procedures for drawing technical documentation (independent work). Block: creating and using basic block entities. Inserting and opening formats: PDF, JPEG, PNG... Setting drawing format and scale, printing from model space.
• Specific hardware requirements for the course in case of online training on your own device:
• CPU: Intel I5 / AMD Ryzen 5
• RAM: 8GB
• GPU: 4GB NVIDIA/AMD/QUADRO/FIREPRO

Description of the AutoCAD Environment

• working with the command tab ribbon and in model space working in the drawing template-layout meaning of individual mouse buttons in AutoCAD navigation within the model environment: zoom in, zoom out, move zoom and pan working with files: opening and saving files, opening templates and creating a template

Basic Settings

• customizing the user interface: automatic save period, cursor settings, screen color, etc. setting drawing units

Method of Entering Commands

• entering commands through icons and entering commands through command shortcuts rewriting command shortcuts within a text file

Basic Functions in the Status Bar

• display of point position coordinates auxiliary commands - Snap, Grid, Ortho, Polar tracking, Object snap, Tracking, Dynamic input...

Selecting Objects and Drawing

• selecting objects individually and selection using a selection window adding and removing objects from an existing selection basic drawing commands - Line, Curve, Circle, Arc, Ellipse, Point... entering object dimensions and checking them basics of hatching

Description of the Autodesk AutoCAD Environment

• working with the ribbon of command tabs and in model space working in a drawing template - layout meaning of individual mouse buttons in AutoCAD navigation within the model environment: zoom in, zoom out, move zoom and pan working with files: opening and saving files, opening templates and creating a template

Basic Settings

• customizing the user interface: automatic saving period, cursor settings, screen color, etc. setting drawing units

Method of Entering Commands

• entering commands through icons and entering commands through command shortcuts rewriting command shortcuts within a text file

Basic Functions in the Status Bar

• displaying point position coordinates auxiliary commands - Snap, Grid, Ortho, Polar Tracking, Object Snap, Tracking, Dynamic Input...

Object Selection and Drawing

• selecting objects individually and selecting using a selection window adding and removing objects from an existing selection basic drawing commands - Line, Curve, Circle, Arc, Ellipse, Point... entering object dimensions and checking them basics of hatching

AutoCAD environment

• Working with the command ribbon and model space, working in a drawing template and layout, meaning of individual mouse buttons in AutoCAD, navigation in the model environment: zoom in, zoom out, move, zoom and pan, working with files: opening and saving files, opening templates and creating a template.

Basic settings

• Customizing the user interface: automatic saving interval, cursor settings, screen color and drawing units.

Command input

• Entering commands through icons and command shortcuts, including editing command shortcuts in a text file.

Basic status bar functions

• Displaying point coordinates and using helper commands: Snap, Grid, Ortho, Polar Tracking, Object Snap, Tracking and Dynamic Input.

Object selection and drawing

• Selecting objects individually and with a selection window, adding and removing objects from a selection, basic drawing commands such as Line, Polyline, Circle, Arc, Ellipse and Point, entering object dimensions and checking them, basics of hatching.

Syllabus

• Polyline: more detailed use Quick snap modes, filtering Quick selection, advantages of use Import, export, exchange formats DXF... Raster images and OLE object. Areas and regions, their drawing procedures Customizing the user interface: automatic saving period, settings, editing tool palettes in AutoCAD. Table settings: creation, editing, export, import.. Dynamic blocks, attributes, data link, external references, text field. Editing blocks, creating special ones.
• Specific hardware requirements for the course in the case of online training on your own device:
• CPU: Intel I5 / AMD Ryzen 5
• RAM: 8GB
• GPU: 4GB NVIDIA/AMD/QUADRO/FIREPRO

SKETCHUP I. - Basics of Modeling

• Introduction to SketchUp Basic description of SketchUp Familiarization with the SketchUp working environment Description of the tool palette, main menu and working windows 3D graphics and modeling Basics of modeling in SketchUp Principle of working with components and groups Import export of components Assigning colors and materials to individual objects and surfaces Creating custom materials Working with and inserting components from the basic Warehouse library Export to PDF, JPEG formats

SKETCHUP II. - Advanced Modeling

• Advanced modeling Setting materials and external textures Sun and shadows Import and export of 3DSmax, CAD models Measurement and analysis Simple animation Basics of creating documentation LayOut External programs plugin Preparation for Vray-render Analysis and optimization of models Rendering using AI Basics of rendering Physically correct rendering Global illumination and shadows Rendering in practice using artificial intelligence Interactive previews and quick testing RAW Optimization for different scenes Practical examples and experience Individual projects and creative work Data export import

Rendering with the Help of AI

Generating Visualizations

• Scene preparation in a 3D model Exporting source materials from the model Creating a visualization using artificial intelligence Editing outputs for presentation Optimization for different scenes

Practical Examples and Experience

Syllabus

• 3D AutoCAD environment, interface description Division of entities: solid and surface, mesh Basic entities: cube, cuboid, cone, sphere, Modeling commands: loft, extrude, revolve, patch, offset... General commands: 3D rotation, 3D move Boolean operations: union, subtraction, intersection Visual display styles: wireframe, 3D hide, realistic, conceptual Model space: examples of use, procedures for drawing technical documentation (independent work). Import export of dwg, dxf objects Creating views, sections and details Division and interface settings for printing
• Specific hardware requirements for the course in the case of online training on your own device:
• CPU: Intel I7 / AMD Ryzen 7
• RAM: 8GB
• GPU: 4GB NVIDIA/AMD/QUADRO/FIREPRO

SKETCHUP I. Beginner

• Introduction to SketchUp Basic description of SketchUp Familiarization with the SketchUp working environment Description of the tool palette, main menu and working windows 3D graphics and modeling Basics of modeling in SketchUp Principle of working with components and groups Import export of components Assigning colors and materials to individual objects and surfaces Creating custom materials Working with and inserting components from the basic Warehouse library Export to PDF, JPEG formats

SKETCHUP II. Advanced

• Advanced modeling Setting materials and external textures Sun and shadows Import and export of 3DSmax, CAD models Measurement and analysis Simple animation Basics of creating documentation LayOut External programs plugin Preparation for Vray-render Analysis and optimization of models

Specific Hardware Requirements for the Course in Case of Online Training on Your Own Device:

• SketchUp basics of modeling I.
• CPU: Intel I5 / AMD Ryzen 5
• RAM: 8GB
• GPU: 4GB NVIDIA/AMD/QUADRO/FIREPRO
• SketchUp advanced modeling II.
• CPU: Intel I5 / AMD Ryzen 5
• RAM: 8GB
• GPU: 4GB NVIDIA/AMD/QUADRO/FIREPRO
• SketchUp VRAY
• CPU: Intel I7 / AMD Ryzen 7
• RAM: 16GB
• GPU: 4GB NVIDIA/AMD/QUADRO/FIREPRO

Syllabus

• Introduction to SketchUp Basic description of SketchUp Getting familiar with the SketchUp working environment Description of the tool palette, main menu and working windows 3D graphics and modeling Basics of modeling in SketchUp Principle of working with components and groups Import export of components Assigning colors and materials to individual objects and surfaces Creating custom materials Working with and inserting components from the basic Warehouse library Export to PDF, JPEG formats
• Hardware requirements for the course in the case of online participation on your own device:
• CPU: Intel I5 / AMD Ryzen 5
• RAM: 8GB
• GPU: 4GB NVIDIA/AMD/QUADRO/FIREPRO

Syllabus

• Advanced modeling Setting materials and external textures Sun and shadows Import and export of 3DSmax, CAD models Measurement and analysis Simple animation Basics of creating documentation LayOut External programs plugin Preparation for V-Ray render Analysis and optimization of models
• Hardware requirements for the course in the case of online participation on your own device:
• CPU: Intel I5 / AMD Ryzen 5
• RAM: 8GB
• GPU: 4GB NVIDIA/AMD/QUADRO/FIREPRO

Generating Visualizations

• Scene preparation in a 3D model
• Exporting source materials from the model
• Creating a visualization using artificial intelligence
• Editing outputs for presentation

Optimization for Different Scenes

Practical Examples and Experience

Individual Projects and Creative Work

Data Export and Import

Syllabus

• Introduction to V-Ray Basics of rendering in V-Ray Physically correct rendering Global lighting and shadows Rendering in practice Interactive previews and quick RAW testing Advanced V-Ray functions V-Ray optimization for different scenes Practical examples and experience Individual projects and creative work Export import of data
• Hardware requirements for the course in the case of online participation on your own device:
• CPU: Intel I7 / AMD Ryzen 7
• RAM: 16GB
• GPU: 4GB NVIDIA/AMD/QUADRO/FIREPRO

Introduction

• Explanation of the concept of parametric modeling Explanation of the concept of digital prototyping Introduction to Inventor and explanation of the file types used for part, assembly and drawing Explanation of basic elements (model coordinate system, sketch, elements for creating surfaces and volumes), creating a part and checking unit settings. Creating a sketch, basic sketch elements (lines, arcs, axes and construction elements) Degrees of freedom, automatically created constraints during drawing and sketch diagnostics Explanation of what a reference is (link to another element), problems associated with using the function of projecting model elements into a sketch, mainly from the point of view of future model edits.

Introduction

• Explanation of the concept of parametric modeling Explanation of the concept of digital prototyping Introduction to Inventor and explanation of the file types used for part, assembly and drawing Explanation of basic elements (model coordinate system, sketch, elements for creating surfaces and volumes), creating a part and checking unit settings. Creating a sketch, basic sketch elements (lines, arcs, axes and construction elements) Degrees of freedom, automatically created constraints during drawing and sketch diagnostics Explanation of what a reference is (link to another element), problems associated with using the function of projecting model elements into a sketch, mainly from the point of view of future model edits. Example no. 1. - simple volumetric "standard" part + drawing creation Example no. 2. - Simple sheet metal part + drawing creation including flat pattern Example no. 3. - simple assembly - demonstration of the standardized parts library, creating a simple bill of materials and positioning parts in a drawing. Creating 3D drawings

Conclusion

• Sharing documentation using STEP files, 2D PDF and 3D PDF. Added value from the point of view of speeding up work when creating standards, templates and using PDM and PLM systems for documentation management.

Introduction

• Benefits of standardizing model structure and different approaches to standardization Explanation of the essence of chain references (elements are in sequence one after another and editing options are thereby limited). Benefit of creating elements using parallel structures. Use of auxiliary planes, auxiliary axes, other coordinate systems Shared sketches in parts and assemblies Creating 3D sketches iFeatures - libraries of frequently used model parts Introduction to models and assemblies with a "skeleton" - model skeleton Example no. 1. - creating an assembly using user parameters and forms Example no. 2 - creating a simple assembly with a model skeleton Example no. 3. - creating a more complex assembly with a model skeleton Direct edit function for models imported from a STEP file Advantages of the "combine" function in the tree structure of the model Introduction to table-driven models - configured parts and assemblies iPart and iAssembly Use of configured parts in an assembly

Conclusion

• Minor edits of the content center

Introduction

• Explanation of the specifics of different levels of parametrization (focus on levels 1 and 2) Explanation of import, move, rotate tools in the sketch editing environment Example no. 1 - non-parametric part - import of shape from DWG and placement in sketch - parametric part - extrusion of profile area and adding the parameter "length" adding other parametric construction elements (cutouts and holes) Explanation of differences between creating mirrors and pattern-type elements in the sketch environment and in the model environment (model tree). Editing a pattern element in a sketch. Working with the model tree - moving tree elements, suppressing elements, visibility, moving the end of the model structure. Operations used to change the model structure. Sections in model space and in the sketch environment. Use when drawing hollow parts. Use of the parameter manager when editing a model. Advantages of using the "hole" object compared with "extrude" and "revolve" objects. Working with STEP files (import, conversion of assembly to part, "direct edits" object) Example no. 2 - demonstration of a specific type of partially parametrized model when a DWG file is connected to the model. (example no. 1 is without linking these files) Example no. 3 - demonstration of a specific type of partially parametrized model where a STEP file is partially used to create the final part shape.

Conclusion

• Models created from a STEP file and use in assemblies.

Introduction

• Explanation of the concept of parametric modeling Explanation of the concept of digital prototyping Introduction to Inventor and explanation of the file types used for part, assembly and drawing Explanation of basic elements (model coordinate system, sketch, elements for creating surfaces and volumes), creating a part and checking unit settings. Creating a sketch, basic sketch elements (lines, arcs, axes and construction elements) Degrees of freedom, automatically created constraints during drawing and sketch diagnostics Explanation of what a reference is (link to another element), problems associated with using the function of projecting model elements into a sketch, mainly from the point of view of future model edits. Example no. 1. - simple volumetric "standard" part + drawing creation Example no. 2. - Simple sheet metal part + drawing creation including flat pattern Example no. 3. - simple assembly - demonstration of the standardized parts library, creating a simple bill of materials and positioning parts in a drawing. Creating 3D drawings

Conclusion

• Sharing documentation using STEP files, 2D PDF and 3D PDF. Added value from the point of view of speeding up work when creating standards, templates and using PDM and PLM systems for documentation management. Autodesk Inventor - 2

Introduction

• Explanation of the specifics of different levels of parametrization (focus on levels 1 and 2) Explanation of import, move, rotate tools in the sketch editing environment Example no. 1 - non-parametric part - import of shape from DWG and placement in sketch - parametric part - extrusion of profile area and adding the parameter "length" adding other parametric construction elements (cutouts and holes) Explanation of differences between creating mirrors and pattern-type elements in the sketch environment and in the model environment (model tree). Editing a pattern element in a sketch. Working with the model tree - moving tree elements, suppressing elements, visibility, moving the end of the model structure. Operations used to change the model structure. Sections in model space and in the sketch environment. Use when drawing hollow parts. Use of the parameter manager when editing a model. Advantages of using the "hole" object compared with "extrude" and "revolve" objects. Working with STEP files (import, conversion of assembly to part, "direct edits" object) Example no. 2 - demonstration of a specific type of partially parametrized model when a DWG file is connected to the model. (example no. 1 is without linking these files) Example no. 3 - demonstration of a specific type of partially parametrized model where a STEP file is partially used to create the final part shape.

Conclusion

• Models created from a STEP file and use in assemblies.

Inventor 1. - Introduction

• Explanation of the concept of parametric modeling Explanation of the concept of digital prototyping Introduction to Inventor and explanation of the file types used for a part, assembly and drawing Explanation of basic elements (model coordinate system, sketch, elements for creating surfaces and solids), creating a part and checking unit settings. Creating a sketch, basic sketch elements (lines, arcs, axes and construction elements) Degrees of freedom, automatically created constraints during drawing and sketch diagnostics Explanation of what a reference is (link to another element), problems associated with using the function of projecting model elements into a sketch, mainly in terms of future model modifications. Example No. 1. - simple solid "standard" part + creating a drawing Example No. 2. - Simple sheet metal part + creating a drawing including the flat pattern Example No. 3. - simple assembly - demonstration of a library of standardized parts, creation of a simple bill of materials and positioning parts in the drawing. Creating 3D drawings

Conclusion

• Sharing documentation using STEP files, 2D PDF and 3D PDF. Added value in terms of speeding up work when creating standards, templates and using PDM and PLM systems for documentation management.

Inventor - 2 Introduction

• Explanation of the specifics of different levels of parameterization (focus on levels 1 and 2) Explanation of the import, move, rotate tools in the sketch editing environment Example No. 1 - non-parametric part - importing a shape from DWG and placing it in a sketch - parametric part - extruding the profile area and adding the "length" parameter adding other parametric construction elements (cutouts and holes) Explanation of the differences between creating mirrors and "pattern" type elements in the sketch environment and in the model environment (model tree). Editing a pattern element in a sketch. Working with the model tree - moving tree elements, suppressing elements, visibility, moving the end of the model structure. Operations used to change the structure of the model. Sections in model space and in the sketch environment. Use when drawing hollow parts. Using the parameter manager when editing a model. Advantages of using the "hole" object over "extrude" and "revolve" objects. Working with STEP files (import, converting an assembly to a part, "direct edits" object) Example No. 2 - demonstration of a specific type of partially parameterized model when a DWG file is connected to the model. (example No. 1 is without linking these files) Example No. 3 - demonstration of a specific type of partially parameterized model where a STEP file is partially used to create the final shape of the part.

Conclusion

• Models created from a STEP file and use in assemblies.

Inventor 3 - Introduction

• Benefits of standardizing the structure of models and different approaches to standardization Explanation of the essence of chain references (elements are in series one after another and the possibilities of modifications are therefore limited). Benefit of creating elements using parallel structures. Use of work planes, work axes, additional coordinate systems Shared sketches in parts and assemblies Creating 3D sketches iFeatures - libraries of frequently used parts of the model Introduction to models and assemblies with a "skeleton" - model skeleton Example No. 1. - creating an assembly using user parameters and forms Example No. 2 - creating a simple assembly with a model skeleton Example No. 3. - creating a more complex assembly with a model skeleton Direct edits function for models imported from a STEP file Advantages of the "combine" function in the tree structure of the model Introduction to table-driven models - configured parts and assemblies iPart and iAssembly Using configured parts in an assembly

Autodesk Fusion Basics

• Explanation of terms and abbreviations that we encounter when working with similar tools, such as: CAD, CAM, PDM, FEM and similar Explanation of basic parts or modules of Autodesk Fusion and the principle of cooperation on projects through the cloud Document settings, creating a volumetric part, creating sketches and basic volumetric elements Sequence of elements on the timeline and simple changes in the model structure Creating a drawing Introduction to sheet metal and creating a flat pattern Explanation of the concept of parametric modeling and controlling models with parameters

Orientation in the Environment

• Explanation of basic parts or modules of Autodesk Fusion Introduction to basic tools in the CAM environment

Practical Modeling

• Modeling a simple part

CAM Environment Setup

• Selection of tools from the library and possible creation of new ones Coordinate system, basic planes in the CAM environment

Preparation for Machining

• Setting the stock and first steps in preparation for roughing a part Different functions and available strategies for roughing a part

Specialized Operations

• Drilling holes and thread production Functions for finishing parts, entering finishing allowances during roughing Edge editing

Course Syllabus

• Efficient work with layers
• Advanced object properties
• Blocks - creation and management
• External references (XREF)
• Working with scales
• Model Space vs. Layout
• Viewports - creation and settings
• Different views in Layout
• Basics of 3D modeling
• 3D views and visual styles
• Sections and views - manual procedures
• Texts and tables
• Printing and export to PDF
• Tips for faster work
• Most common mistakes and their solutions

Course Syllabus

• description of the screen, working with the menu, method of entering commands, working with files, importing and exporting files, customizing the user interface: automatic saving period, cursor settings, screen color, etc., selecting objects, entering coordinates and exact dimensions, auxiliary functions for precise metric drawing - snap, grid, ortho, polar, object snap, object tracking, lineweight, model/paper... drawing commands: point, line segment, curve, ellipse, donut, polygon, ... modification commands: extend, trim, zoom, chamfer, fillet, move, rotate..., working with layers, working with blocks, external references, text: inserting text, writing, text properties, creating tables, hatching, dimensioning and dimension settings, preparing drawings for printing, practical exercises for creating 2D drawings.

Course Syllabus

• getting familiar with the user environment customizing the user interface: automatic saving period, cursor settings, screen color, etc., working with files, import and export, selecting objects, entering coordinates, auxiliary functions in the status bar - Snap, Grid, Ortho, Polar, ESnap, ETrack..., modification commands: extend, trim, zoom, chamfer, fillet, move, rotate..., working with layers, working with blocks, external references, text: inserting text, writing, text properties, hatching, dimensioning and dimension settings, preparing drawings for printing, practical exercises for creating 2D drawings.

AutoCAD Mechanical

• What AutoCAD MECHANICAL is Comparison of AutoCAD Mechanical and AutoCAD LT Comparison of versions Usability of CAD programs

Program Working Environment

• Customizing the working environment Changing environment colors Saving the working interface Units and standardization

Introduction to Drawing

• Drawing lines Control points and changing their position Drawing dimensions and angles Drawing with the help of a coordinate grid Selecting entities and objects Navigation in the drawing Setting point snapping OSNAP and tracking Explanation of working with the command line

Drawing Tools Panel

• Basic principles of drawing Using Line, Circle, Spline, Rectangle commands Using Arc, Ellipse, Construction Line commands Using Revision Cloud commands

Modification Tools Panel

• Selecting objects for editing Using Erase, Copy, Move, Rotate, Offset, Mirror, Scale, Join, Explode commands

Working with Lights

• basic - omni light, target, free, skylight, mental ray Area Light and Area Spot setting light intensity, shadow types (soft and hard shadow) and their use according to type in practice setting light color and implementing a bitmap on the projector - light parabola

Working with Photometric Lights

• Target/Free Point, Target/Free Linear, Target/Free Area

Implementation of Photometric Lights

• IES Sun and IES Sky into exterior visualization of a family house with land. Setting intensities of additional lights to achieve a photorealistic image

Application of Post-Production Effects

• Video Post (Glow, Lens Flare, Highlight)

Creating Object Grass

• setting values for grass and hair, color, gloss, physics - collisions editing - combing and cutting in real time to required values for grass and hair placing grass in required places in the scene and its additional modification

3ds Max Modeling 1

• getting familiar with the user interface basics of topology creating and modifying simple objects modeling own low poly objects and low poly objects according to a design UV mapping and basic texturing and materials exporting objects

3ds Max Modeling 2

• creating more complex objects and creation from multiple objects maintaining the most correct topology possible UVW mapping and unwrap for texturing texture creation and creating a normal map getting familiar with external tools for creating 3D objects

Basics of Creating 3D Animation

• creating animation through a geometric shape in 3D Studio Max. setting animation keys to achieve looping animation

Basics of Working in the Curve Editor

• application of new keys motion dynamics

Linear and Nonlinear Interpolation

• changing interpolation and its use in practice according to type

Creating a Skeleton for a Character

• editing bones (length, width, separate extrusion of handles for more effective work)

Applying Inverse Kinematics

• character skeleton and setting kinematics angles

Introduction to 3ds Max

• Overview of the software and its use, familiarization with the interface, workspace setup and basic navigation in 3D space.

Modeling Basics

• Working with different types of objects, creating and editing basic shapes, introduction to polygon modeling and object manipulation.

Advanced Modeling Techniques

• Modeling complex objects, using modifiers, creating organic shapes and optimizing models.

Texturing and Materials

• Working with the material editor, applying textures, using UVW mapping and creating different types of surfaces.

Light and Scene Lighting

• Types of lights, setting lighting for a realistic effect, working with shadows and techniques for lighting interiors and exteriors.