Showing posts with label Manufacturing Industry. Show all posts
Showing posts with label Manufacturing Industry. Show all posts

Monday, 13 July 2020

CONTROL THE ACTION OF YOUR ASSEMBLY

Do you want to control the action of your assembly to show different position?
Look no further.

Mate Controller will help you manipulate specific mates that control degrees of freedom for a design. You can edit the positions, save and recall saved positions and mate values. You can also create animations based on the saved positions.
The allowable movement between components should be defined by adding mates to your assembly.
Supported mate types:
Angle
Distance
LimitAngle
LimitDistance
PathMate (Distance Along Path, Percent Along Path)
Slot (Distance Along Slot, Percent Along Slot)
Width (Dimension, Percent)
Your assembly should include at least one supported mate type.

1. Begin by adding supported manually or use collect all supported mates automatically

2. Define the position by entering the mate values or using the slider and lock the values and add the position using.
3. Add multiple position by specifying the different value for mates.


4. Note that, at any time you can edit the value of the mates in different positions and update.
5. You can also save the positions as a new configuration.

6. View the working of the assembly by using the animation option and specify the time for each action.

7. Save the animation as a video.

With the help of this, you can easily and quickly create and show the working of your assembly to show different positions and actions.
You can communicate precisely how your product should move—and show off how your product works in general with the aid of Mate Controller.

THANK YOU FOR READING!










Saturday, 16 May 2020

WHAT WE NEED MORE THAN THIS? - SOLIDWORKS VISUALIZE


What’s the picture tells about? Any guess? Is that Magic Show? Dancing Program? Of course, yes. It is a singing performance.

What’s the thing we shall focus here is “The Lightings”. In discipline, there are several different stage lightings are used. They have experienced light technicians as well as the designers to pull over the audience attention.

Interesting chapter. Isn’t? We are in the connected part with this one to the SolidWorks Visualize. Yes. The Lightings. As we all know SolidWorks Visualize Professional has the core capability of Lighting Tools.

The users now are more enjoyable to have a great tool which is introduced in 2020, “IMPORTING IES LIGHT PROFILES” into SolidWorks Visualize Professional. Keep improving one step ahead. Let see how the workflow is.

Go to Windows-> SolidWorks Visualize-> Model-> Open.
Go to Scenes-> Click + icon to add new Light or simply right click Scenes view port-> add new Light. Then Pick Target/ Pick Position to place where you require.

Then, General Tab-> Click the drop down in Type-> Choose IES Profiles.
It asks for browse location. Click and choose the profiles.

Note: If, in default there is no IES Light Profiles. Please click the following link and free download it. Link: https://leomoon.com/store/shaders/ies-lights-pack/

Once the Profile is browsed, simply choose the Transformation tools and adjust the Light to the position suits to your creativity.
Here are the few samples that IES Profiles achieve in SolidWorks Visualize.
Hope everyone enjoyed. Thank you for your valuable time. Have a try on the tool and get a great exposure and become a light technician/ designer with the help of SolidWorks Visualize. Thank you.

 





Wednesday, 15 April 2020

Design for Manufacturability using SolidWorks Tools

Design & Manufacturing Process Overview

The design stage is considered the most crucial component in the product lifecycle
process - the platform for the conception and development of new products.
Approximately 80 percent or more of the lifecycle costs of a product are determined
during the design stage. Companies are constantly fight the battle and pay the price
of miscommunication between design and manufacturing departments. Finding
errors and fixing defects during the design stage is the optimal way to achieve high
quality and cost-effective products.

Iterative Design Process

In the iterative approach to the design process, the designer needs to receive early
feedback from the manufacturing department to address any manufacturability
concerns before the design is frozen. This methodology is ideal however it is
generally only feasible in an environment where the manufacturing & design
departments are co-located. With the “Design anywhere - Make anywhere” practice
common throughout the world today, implementing iterative design is even more of
a challenge. In addition, because the iterative process involves manual reviews and
can be very time consuming, it is very difficult to catch and fix every concern in
complex part models.

Design for Manufacturability

Design for manufacturability (DFM) is a systematic approach for designers that
provides upstream manufacturability validation and identification of arear of a design
that is difficult, expensive, or impossible to machine by conventional methods.

SolidWorks DFMXpress: What is it?

DFMXpress combines practical process functionality with accuracy and ease of use. It
is perfect for the designer who needs to do manufacturability analysis but is not
necessarily a manufacturing expert and also permits designers to easily gain insight
into the cost-effective manufacturability of their designs by doing things properly the
first time.





Drill Rules

▪ Hole Depth to Diameter Ratio                                                 
▪ Hole Entry and Exit Surfaces
▪ Hole Intersecting Cavities
▪ Minimum % of Hole Area Inside Part

Mill Rules

▪ Fillets on Outside Edges
▪ Sharp Internal Corners
▪ Inaccessible Features
▪ Mill Tool Depth to Diameter Ratio

Turn Rules

▪ Minimum Corner Radius
▪ Minimum % Bore Relief

Sheet Metal

▪ Hole-Diameter-to-Thickness Ratio
▪ Simple Hole Spacing to Thickness Ratio
▪ Recommended Bend Radius

Injection Molding

▪ Minimum Wall Thickness – Maximum Wall
Thickness

Standard Hole Sizes 

▪ Standard Hole Sizes – Non-Standard Hole Sizes


Mold & Cast Part Check Tools:

 
Draft check

Undercut check
                                                                          

▪ You can use Undercut Analysis to find trapped areas in a model that cannot be
ejected from the mold.
▪ Set analysis parameters and color settings to identify and visualize areas with
insufficient draft on molded parts.

Thickness Analysis:

Thickness Analysis is used to identify the various thicknesses at each point on the
model, which helps to identify problematic areas that might be too thin or too thin in
any specific regions. This will be helpful when using thin-walled plastic parts.
Use Thickness Analysis to:
▪ Find out thick and thin regions of a part
▪ Determine portions of a part that are equal in thickness


Other DFM Tools Available in SOLIDWORKS for Part:

Geometry Analysis:

Geometry Analysis identifies model entities in a part that could create a problem in
other applications. These applications include finite element modelling or computer￾aided machining.
Geometry Analysis identifies the following entities:
▪ Sliver faces
▪ Small faces
▪ Short edges
▪ Knife (sharp) edges and vertices
▪ Discontinuous edges and faces
The results can be graphically analyzed with the Geometry Analysis Property
Manager that appears after the analysis is complete.



Other DFM Tools Available in SOLIDWORKS for Assembly:

Interference Detection:

One of the key evaluation tools in an assembly is Interference Detection. This shows
any possible interference between selected components so that we can modify the
parts and prevent issues in manufacturing.



Clearance Verification:

When working in an assembly that requires specific clearances, you can estimate and
verify the gap between selected components using the SOLIDWORKS Clearance
Verification Tool




Hole Alignment:

Ensuring hole alignment between various components in your assembly designs, prior
release to manufacturing, it reduce the product development process and make your
design ready for manufacturing in the first time.


Benefits of Design for Manufacturability Tools in SolidWorks:

• DFM tools help Engineers and Designers design less costly and better quality
products, faster
• Helps catch and fix problems related to manufacturability early in the design,
where it is much cheaper and faster to implement corrective action
• DFM tools dramatically improve communication between design and
manufacturing
• DFM Tools help capture design and manufacturing best practices and allow both
designers and manufacturers to become better at their jobs.

Conclusion:

Design flaws are often “easy to identify” but “difficult to solve” during 
downstream stages like manufacturing via simple rules-based checks, DFM allows
designers to optimize the entire design through manufacturing process by predicting
manufacturing issues during the design stage. In addition to saving countless back
and forth design review steps, DFM assists in creating a product design that is
compatible with the desired manufacturing process, in accordance with desired quality
standards, and cost-effective to manufacture.
Stay safe and productive everyone!

For more info, Visit: www.egsindia.com | www.egs.co.in


 







Friday, 3 April 2020

What is Pores Medium & How to Simulate it in SOLIDWORKS Flow Simulation?

Material which contain Pores are called Porous material, the weight of the porous material is less when compared to the solid material. The porosity of the material is defined by the Porous size the is formed in the material, there are different techniques for manufacturing these type of material depending on the size of the porous void that to be formed.
There are wide range of applications like catalysis, chemical separations, tissue engineering and exhaust manifold. In the exhaust manifold the harm full chemicals are removed by using porous material.
There are different types of Porous material according to direction of flow

1. Isotropic
2. Non Isotropic(Unidirectional, Axisymmetric, Orthotropic)
There will be change in the pressure, velocity and direction of flow changes according to the porous medium, by using Solidworks flow simulation can simulate the flow.

Steps for creating the Porous medium in Flow study:


1. Create the wizard by defining the Flow type, units, types of Fluid.

2. If the porous is not showing in the tree then Right click on project(1) options appear as shown in the Fig:1, click customize tree

3. The options appear as shown in Fig:2, click on the Porous Medium to get activated.


Fig 1
Fig 2
  

4. An exhaust manifold with porous medium and the inlet and out let manifolds as shown below:


5. Defining the porous material to individual domains, one part as unidirectional are shown below:


6. Defining  isotropic for the other domain as shown below:


7. The Fig:3 shows how the porous medium is defined in the study 

Fig 3


By running the simulation we can obtain the inlet and outlet velocity, pressure drop, due to porous medium, depending on the size of the porous and the type of the porous there will be change in the velocity, pressure
drop, these can be captured prier using SolidWorks Flow simulation.


 






Tuesday, 5 March 2019

How to Collaboratively Design Electrical Overhead Traveling Crane through SOLIDWORKS

          The overhead crane, commonly called bridge crane, is a type of equipment most commonly found in all industries used for handling heavy machinery and structures. Here we designed Electrical overhead traveling crane embedded with a lot of safety features and more ergonomic to ensure the worker's safety, as well as material they handle and this model, is designed by using solid Works collaborative environment which handles both mechanical and electrical design seamlessly without any repeated chores.

          This EOT Crane is driven by 3 Electrical Synchronous Brake Motors and one specialized Electric Motor with advanced features. In addition to that, it is loaded with a lot of sensors for efficient working with real-time feedback which makes the machine more consistent & precise and capable of carrying heavy loads. For a like, limit switch used to interrupt motor power to prevent hook over travel and hazardous condition such as chain kink. This whole crane is controlled by both wireless radio remote and pendant depends on the working environment.

SOLIDWORKS Mechanical 3D Design:

          SOLIDWORKS 3D CAD allows you to create models based on parametric and features. Which reduces design cycle time and improving quality with a rich graphical representation.
  • Automate your design process makes manual works eliminated and design more precise and reliable.
  • Easily incorporate late design changes.
  • Test and evaluate  your designs to reduce costs from quality problems.
  • Automatic Bills of Materials.
  • More effective internal design reviews.
  • Create marketing content in parallel with design development using PhotoView 360.

       We designed crane control and power circuit by using SOLIDWORKS Electrical Schematics. Schematic software is quite powerful while coming to electrical system design and the schematic user interface is more colourful, enables users to easily access to tools. Schematic is loaded with more than 500000 manufactured parts with an electrical content portal which makes the design process quick and detailed. We can manipulate previous design data by employing macros to save the project process time.
Benefits:
  • Reducing Development Costs
  • Improving Quality and Increasing Innovation
  • Automated terminal drawing creation
  • Automated contact cross-referencing
  • Avoid time-to-market delays
  • Bill of Material and report creation delivers a comprehensive detail.
SOLIDWORKS Electrical 3D:

          Electrical 3D software enables users to convert 2D electrical system to 3D electrical system it includes Enclosure design, general arrangement, connectors, wires, and cable routing and wire harness. It has a capability of connecting bi-directional link between Mechanical CAD & Electrical CAD which makes software more powerful and unique from other CAD software in the market. Therefore, both mechanical engineer and electrical engineer will work collaboratively without any interruption. While coming to cabinet design, it employs drag and drop manufacture 3D part to the software without downloading the part file from their website. Routing wires and cables are one of the major features in electrical 3D, So that we can visualize the whole routing system moreover this would reflect in precise wiring and workmanship on end of the product.

Benefits:
  • Easy and correct placement of components
  • Wire and Cable length calculation
  • Auto Route functionality
  • Create a 3D general arrangement drawings based on the electrical schematic
  • Harness development