Weight Optimization

Weight optimization is a technique used mostly in the automobile industry to get the optimum weight or less weight of the desired part or product. Here parametric optimization also comes in handy to get the right design parameters to build the final product that is the concept design. The main objective of weight optimization is to build a concept design with less weight as compared to other designs.

DEP (Detroit Engineered Products) has been one of the prevailing companies to give desired results to the customers in India and USA. Both countries have good amount of reputed automobile industries, hence weight optimization becomes an important practice to get designs which have less weight, use less material for manufacturing and ultimately reduction in cost of the design. Weight optimization is mainly linked to get the right material i.e. metals, which have superior qualities compared to other metals. The weight optimization method includes four stages, reference model then simplifying the reference model. Click here

Comments

Post a Comment

Popular posts from this blog

Advanced Meshing

Image
Advance meshing, an essential operation for the calculation of design for manufacturability; separates the design elements infinite number of elements to refine the calculation results. Generating a quality mesh is an essential part of the analysis process but it can be a time consuming affair.  DEP (Detroit Engineered Products)  advanced meshing software allows users in USA and India to create typical design solutions quick and easily. For tough simulation problems across industries including aerospace and defense, automotive, construction equipments and even medical devices, our meshing solution has the tools for generating quality meshes that give better results. Advanced meshing tools are capable of allowing you to generate rapidly a finite element model for surface or solid complex parts. In other words, it will allow you to generate associative  meshing  even from the complex parts along with advanced controls over mesh specifications. The advanced meshing tools help in a
Read more

Weight Optimization

Image
Weight optimization is a technique used mostly in the automobile industry to get the optimum weight or less weight of the desired part or product. Here parametric optimization also comes in handy to get the right design parameters to build the final product that is the concept design. The main objective of weight optimization is to build a concept design with less weight as compared to other designs. DEP (Detroit Engineered Products) has been one of the prevailing companies to give desired results to the customers in India and USA. Both countries have good amount of reputed automobile industries, hence weight optimization becomes an important practice to get designs which have less weight, use less material for manufacturing and ultimately reduction in cost of the design. Weight optimization is mainly linked to get the right material i.e. metals, which have superior qualities compared to other metals. The weight optimization method includes four stages, reference model then sim
Read more

CAD Morphing

Image
Usually in the design cycle, the simulations and the FE modeling are carried out once the concept CAD has been generated. Due to the necessity of reducing the concept design iteration, it will be significantly critical if the concept changes are made in the FE modeling itself causing the time required for CAD generation off cycle. Morphing, as the name would suggest, is an adaptation of giving shape to a new form. During major concept design changes, a source of major time consumption is the time taken between the CAE teams and the design department. CAD Morphing can significantly reduce the CAD data generation time since the data can be fed from available existing donor CAD Data, and the Optimized Finite Element and CFD data can be communicated to the design department directly as morphed CAD data. DEP (Detroit Engineered Products) CAD Morphing solutions allow companies to make critical die adjustments by manipulating complex surfaces while maintaining the critical product c
Read more