To create a CAD model datum:
Before modeling, you need to create some basic geometry shapes, such
as planes, circles, rectangles, etc., as a reference and aid for
subsequent modeling.
Choose how you want to model:
According to the design requirements, select the appropriate
modeling method. Common CAD modeling methods include:
Solid modeling: for objects with well-defined geometries.
Curve modeling: It is suitable for the modeling of complex curves.
Patch modeling: Suitable for objects with a large amount of surface
detail
Perform CAD assembly and motion analysis:
If the product consists of multiple parts, the assembly function of
the CAD software can be used to place the parts in the correct
position and assemble them. At the same time, motion analysis can be
performed to simulate the deformation, stress, and collision of the
product during movement.
CAD Drawing and Documentation:
Once the modeling is complete, 2D drawings and sections are created
using the drawing capabilities of the CAD software, and the modeling
process is documented
Step three:Set the appropriate size for the gears
Gear meshing requires the same modulus (Modur), tangent of the
indexing circles, and the diameter of the indexing circle
(Pidchidiamet) equal to the number of teeth (Tithnonber) multiplied by
the modulus
Step four:Insert the motor by inserting the manufacturer part
In Fusion 360, you can use the McMester-Carr parts library to find and
insert various mechanical components, including motors and steering
gears. Please follow the following steps:
1. **Click "Insert" > "Insert McMaster-Carr
parts." ** (You can see this option in your screenshot).
2. In the pop-up McMaster-Carr browser window, search for the type of
motor or steering gear you need. For example, you can search for
"DC motor", "servo motor", "gear motor"
and so on. The search function of McMaster-Carr is very powerful. You
can filter according to various parameters, such as size, voltage,
speed, torque, etc.
3. Choose the right model. Browse the search results and find the
motor or steering gear model that meets your needs.
4. Configuration model parameters (optional). Some models allow you to
configure some parameters, such as the length of the shaft, the
location of the installation hole, etc.
5. Click "Insert". This will insert the selected motor or
steering gear model into your Fusion 360 design.
Step five:Add dynamic motion to modeling, simulate the movement of the
machine, and record video
The product consists of multiple parts, which can be placed in the
correct position and assembled using the assembly function of CAD
software. At the same time, motion analysis can be performed to
simulate the deformation, stress, and collision of the product during
movement
Practice for Automated Modeling
Automated Modeling quickly generates design alternatives for
connecting existing geometries in your design. Adding one of the
alternatives to your design, creates a parametric, solid body that is
editable using the Timeline.
Using Automated Modeling speeds up the modeling process by suggesting
different geometrical shapes that you can use to complete your design,
or that you can use as inspiration for a final design.
To access Automated Modeling, click Design workspace > Solid >
Automate > Automated Modeling
If the selected inputs are symmetrical, a symmetry plane is
automatically created. This means that the new solid body will also be
symmetrical about this plane.
Automated Modeling generates two types of design alternatives:
-
Smooth Connections - the solid body that is connected to the
selected faces using rounded connections (see 1).
-
Sharp Connections - the solid body that is connected to the
selected faces using sharper, edge-like connections (see 2)
Engineering Drawing
1.Select a file to convert to a project drawing.
2.Select parts and export them horizontally and Create a local view.
Select key objects to view.
3.Select the visible edge style and the appropriate zoom ratio.
4.Build a projection view and select main view, top view, left view,
and overall view。
4.Use the dimensioning to select the size to be marked.
C4D, or Cinema 4D, is a powerful 3D modeling, animation, and rendering
software developed by Maxon Computer in Germany.
Features:
Multiple modeling tools: C4D offers a wide range of modeling tools,
including polygon modeling, NURBS modeling, sculpting, and volume
modeling, enabling users to create complex 3D models.
Powerful animation features: Keyframe animation, character animation,
physics simulation, dynamics, and more are supported to easily create
natural and smooth animation effects.
Advanced Rendering Engine: Produces photorealistic renderings with
support for effects such as physical rendering, global illumination,
ambient occlusion, and global reflections.
Rich material and texture libraries: Users can use preset materials or
create custom materials to enhance the look of their models.
Simulation and Dynamic Simulation: Support a variety of simulations,
such as cloth simulation, liquid simulation, smoke simulation, and
fragmentation simulation, to add realism and dynamics to the scene.
Particle and Effect Systems: Supports the creation and control of
particle systems, simulates effects such as fire, explosions,
raindrops, and more, and provides a variety of special effect tools.
Plug-in and scripting interfaces: It has an open plug-in and scripting
interface, allowing users to extend the functionality of the software
by installing plug-ins or writing custom scripts.
Technical Background:
Formerly known as FastRay software released in 1989, C4D was
originally released on the Amiga platform, later renamed CINEMA 4D,
and continues to be updated and enhanced in multiple versions.
With the continuous development of technology, C4D has become the
software of choice for many excellent artists and film companies, and
is widely used in advertising, film, industrial design and other
fields.
Version Updates:
C4D 2024, for example, brings modeling improvements, powerful
enhancements to the new unified simulation system, significant
additions to the node editor, and the Redshift renderer as the default
renderer, significantly improving the performance and efficiency of
the software.
Application Cases:
C4D is prominent in all kinds of movies depicted and is valued by more
and more film companies. At the same time, its application is also
widely involved in advertising, industrial design and other fields,
providing strong technical support for creators.