This brochure summarizes the capabilities of Altair OptiStruct software. It can generate innovative concept designs using topology optimization and considers manufacturing requirements to create practical designs. It allows engineers to reduce weight and development time. Key capabilities include design optimization, multi-disciplinary structural optimization, system-level design optimization, and fatigue-based concept design and optimization. It integrates tightly with HyperWorks for easy model setup, post-processing, and automation.
Riccardo Bianco
Topology optimization - Altair suite
tecnologia, scenari e scelte strategiche per la transizione digitale dell'industria manifatturiera
Development of new products is extremely essential for the success and smooth running of every industry. Companies have to constantly inject innovations and design efforts to make the design processes easy and to attract consumers in a constantly in a evolving and highly competitive market with best quality . Keeping ahead of the competition by bringing new and exciting products to market fast, and at the necessary level of quality, presents a major engineering challenge. A new casting bracket in place of old stamping brackets in snowmobile chassis development process is described, which introduces advanced FEM and Optimization technology into the concept development phase. Detailed predictions of interacting parts in a mechanism assembly are made possible through use of value engineering based process and material selection and advanced simulation technology. Design optimization is then employed using the modeling as a virtual testing ground for design variants. The approach provides clear design direction and helps to improve performance and reduce the unnecessary welding efforts of bracket manufacturing. Design is an intelligent activity that begins with design requirements and ends with a product description. Using Altair Optistruct was able to significantly reduce design time by sub modeling with structural optimization. The resultant casting bracket design showed superior performance characteristics. And finely the manufacturer had to put less efforts in stamping and part welding , which reduced the manufacturing time and cost also.
Riccardo Bianco
Topology optimization - Altair suite
tecnologia, scenari e scelte strategiche per la transizione digitale dell'industria manifatturiera
Development of new products is extremely essential for the success and smooth running of every industry. Companies have to constantly inject innovations and design efforts to make the design processes easy and to attract consumers in a constantly in a evolving and highly competitive market with best quality . Keeping ahead of the competition by bringing new and exciting products to market fast, and at the necessary level of quality, presents a major engineering challenge. A new casting bracket in place of old stamping brackets in snowmobile chassis development process is described, which introduces advanced FEM and Optimization technology into the concept development phase. Detailed predictions of interacting parts in a mechanism assembly are made possible through use of value engineering based process and material selection and advanced simulation technology. Design optimization is then employed using the modeling as a virtual testing ground for design variants. The approach provides clear design direction and helps to improve performance and reduce the unnecessary welding efforts of bracket manufacturing. Design is an intelligent activity that begins with design requirements and ends with a product description. Using Altair Optistruct was able to significantly reduce design time by sub modeling with structural optimization. The resultant casting bracket design showed superior performance characteristics. And finely the manufacturer had to put less efforts in stamping and part welding , which reduced the manufacturing time and cost also.
Topology Optimization
Topology optimization is concerned with material distribution and how the members within a structure are connected. It treats the “equivalent density” of each element as a design variable.
The solver calculates an equivalent density for each element, where 1 is equivalent to 100% material, while 0 is equivalent to no material in the element. The solver then seeks to assign elements that have a low stress value a lower equivalent density before analyzing the effect on the remaining structure. In this way extraneous elements tend towards a density of 0, with the optimum design tending towards 1. As a designer, you will need to exercise your judgment. For example, you may decide that you will omit material from all (finite) elements whose density is less than 0.3 (or 30%). Using an iso-plot of element densities helps to visualize the “remaining” structure as elements with a density below this threshold can be masked leaving behind the optimum design. Then you will need to take this geometry back to your CAD modeler, smooth it out (that is, use geometrically regular edges or surfaces, etc.) and re-evaluate the design for stresses, displacements, frequencies etc..
Model-Based User Interface Optimization: Part IV: ADVANCED TOPICS - At SICSA ...Aalto University
Tutorial on Model-Based User Interface Optimization. Part IV: ADVANCED TOPICS.
Presented by Antti Oulasvirta (Aalto University) at SICSA Summer School on Computational Interaction in 2015 in Glasgow. Note: This one-day lecture is divided into multiple parts.
Optimization Computing Platform for the Construction IndustryKostas Dimitriou
Optimization is now the disruptive driving force poised to address today's complex engineering challenges. Reducing Cost and Increasing Safety are two of the most important pillars in modern architectural, engineering and construction industries.
ACE OCP fills the gap for practical optimization tools to meet the massive challenges of the professional civil/architectural engineer in the construction industry.
For the first time a tool can add real engineering value in all three dimensions of the value proposition, increase revenues, decrease costs, and decrease risk.
Design for 6θ by Valcon - an introduction to the process and methodsmartinebro
6Theta has proven to be a powerful and successful process for obtaining robust designs that perform consistently at high quality. This presentation gives an introduction to what the process contains and provides simple case examples of how it is used.
Today's fast paced product market has shorter lifecycles and tighter budgetary concerns. Tolerance analysis software provides an ideal solution to reduce the number of crucial steps needed to optimize a product at the design step itself. 3DCS Variation Analyst is the world's most used tolerance analysis software that is fully integrated into NX/ CATIA V5/ Creo and CAD Neutral Multi-CAD. 3DCS Variation Analyst is designed to use a consistent format and set of mathematical formulae that create reliable results, enabling engineers to gain a complete insight into their design. The software empowers design engineers to control variation and optimize their designs to account for inherent process and part variation, which in turn reduces non-conformance, scrap, rework and other associated costs.
3DCS Variation Analyst
Used by the world’s leading manufacturing OEM’s to reduce the cost of quality, 3DCS Variation Analyst comes in two flavours:
1) 3DCS Variation Analyst (NX / CAA V5 or Creo Based) is an integrated solution for NX / CATIA V5 or Creo. Since it is an integrated solution, users can not only activate 3DCS workbenches from within the modelling solution, they can use many of its inbuilt functionality to support their modelling.
3DCS Variation Analyst provides three analysis methods:
Monte Carlo Analysis
High-Low-Mean (Sensitivity Analysis) and
Geofactor Analysis (Relationship)
The current work focuses on simulation based optimization of a complex, safety critical component where it is prohibitively expensive to carry out finite element analysis (FEA) simulations for all possible sample realizations and therefore requires statistical or machine learning techniques for a timely yet accurate solution. The applicability of machine learning further brings the opportunity of performing in-service monitoring using sensor data and thereby performing predictive maintenance.
Software Product Engineering Services | Digital TransformationSkizzle Technolabs
Skizzle is a global software product engineering company and a community of passionate, purpose-led individuals. We think disruptively to deliver technology to address our clients’ toughest challenge, all while seeking to revolutionize the IT industry and create positive social change.
Topology Optimization
Topology optimization is concerned with material distribution and how the members within a structure are connected. It treats the “equivalent density” of each element as a design variable.
The solver calculates an equivalent density for each element, where 1 is equivalent to 100% material, while 0 is equivalent to no material in the element. The solver then seeks to assign elements that have a low stress value a lower equivalent density before analyzing the effect on the remaining structure. In this way extraneous elements tend towards a density of 0, with the optimum design tending towards 1. As a designer, you will need to exercise your judgment. For example, you may decide that you will omit material from all (finite) elements whose density is less than 0.3 (or 30%). Using an iso-plot of element densities helps to visualize the “remaining” structure as elements with a density below this threshold can be masked leaving behind the optimum design. Then you will need to take this geometry back to your CAD modeler, smooth it out (that is, use geometrically regular edges or surfaces, etc.) and re-evaluate the design for stresses, displacements, frequencies etc..
Model-Based User Interface Optimization: Part IV: ADVANCED TOPICS - At SICSA ...Aalto University
Tutorial on Model-Based User Interface Optimization. Part IV: ADVANCED TOPICS.
Presented by Antti Oulasvirta (Aalto University) at SICSA Summer School on Computational Interaction in 2015 in Glasgow. Note: This one-day lecture is divided into multiple parts.
Optimization Computing Platform for the Construction IndustryKostas Dimitriou
Optimization is now the disruptive driving force poised to address today's complex engineering challenges. Reducing Cost and Increasing Safety are two of the most important pillars in modern architectural, engineering and construction industries.
ACE OCP fills the gap for practical optimization tools to meet the massive challenges of the professional civil/architectural engineer in the construction industry.
For the first time a tool can add real engineering value in all three dimensions of the value proposition, increase revenues, decrease costs, and decrease risk.
Design for 6θ by Valcon - an introduction to the process and methodsmartinebro
6Theta has proven to be a powerful and successful process for obtaining robust designs that perform consistently at high quality. This presentation gives an introduction to what the process contains and provides simple case examples of how it is used.
Today's fast paced product market has shorter lifecycles and tighter budgetary concerns. Tolerance analysis software provides an ideal solution to reduce the number of crucial steps needed to optimize a product at the design step itself. 3DCS Variation Analyst is the world's most used tolerance analysis software that is fully integrated into NX/ CATIA V5/ Creo and CAD Neutral Multi-CAD. 3DCS Variation Analyst is designed to use a consistent format and set of mathematical formulae that create reliable results, enabling engineers to gain a complete insight into their design. The software empowers design engineers to control variation and optimize their designs to account for inherent process and part variation, which in turn reduces non-conformance, scrap, rework and other associated costs.
3DCS Variation Analyst
Used by the world’s leading manufacturing OEM’s to reduce the cost of quality, 3DCS Variation Analyst comes in two flavours:
1) 3DCS Variation Analyst (NX / CAA V5 or Creo Based) is an integrated solution for NX / CATIA V5 or Creo. Since it is an integrated solution, users can not only activate 3DCS workbenches from within the modelling solution, they can use many of its inbuilt functionality to support their modelling.
3DCS Variation Analyst provides three analysis methods:
Monte Carlo Analysis
High-Low-Mean (Sensitivity Analysis) and
Geofactor Analysis (Relationship)
The current work focuses on simulation based optimization of a complex, safety critical component where it is prohibitively expensive to carry out finite element analysis (FEA) simulations for all possible sample realizations and therefore requires statistical or machine learning techniques for a timely yet accurate solution. The applicability of machine learning further brings the opportunity of performing in-service monitoring using sensor data and thereby performing predictive maintenance.
Software Product Engineering Services | Digital TransformationSkizzle Technolabs
Skizzle is a global software product engineering company and a community of passionate, purpose-led individuals. We think disruptively to deliver technology to address our clients’ toughest challenge, all while seeking to revolutionize the IT industry and create positive social change.
Inrichting e-fulfilment processen voor logistieke dienstverlening
Brochure optistruct
1. Brochure
Altair® OptiStruct®
Altair OptiStruct
® ®
Meet Today's Complex Product Development Challenges with
Award-Winning Concept Design and Optimization Technology
HyperWorks is a division of
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Holland Engineering Consultants bv www.hecbv.nl T: 31 (0) 30 600 60 60
Krijtwal 25, 3432 ZT NIEUWEGEIN info@hecbv.nl F: 31 (0) 30 600 60 61
2. Altair OptiStruct
® ®
Meet Today's Complex Product Development Challenges
with Award-Winning Concept Design and Optimization Technology
Altair® OptiStruct® is an award-winning, finite-element-based software for concept
design and optimization. OptiStruct assists engineers and designers in developing
lightweight, structurally efficient designs in a timely manner. Using OptiStruct, they
can deliver dramatic improvements in design performance and achieve product
and business objectives faster.
Benefits Capabilities
Design Design
• Cuts development time and costs by OptiStruct's award-winning design-synthesis
providing clear design direction early in technology uses the topology optimization
the design cycle approach to generate innovative concept-
• Employs powerful optimization techniques design proposals. In the initial phase of the
to achieve significant weight reduction development process, the user enters the
• Creates unique, high-performance designs package space information, design targets
that satisfy performance requirements and manufacturing process parameters.
• Generates competing design themes OptiStruct then generates a manufacturable
design proposal that is optimized for the
Optimization given design targets. The manufacturing
• Increases competitiveness through process parameters are important in
product innovation. achieving interpretable, feasible designs.
• Provides an easy-to-use graphical user
interface and tight application integration In sheet metal parts, beads are often used
that cut training time and maximize to reinforce structures. For given allowable
end-user efficiency. bead dimensions, OptiStruct's topography
• Leads the industry with the ability to optimization technology will generate an
solve the largest, most complex innovative design proposal for the ideal
optimization problems. bead pattern of reinforcement.
• 19% Mass Reduction
• 75% Reduction in Design Cycle Time • 41% Stress Reduction
Aircraft Door Hinge Design and Optimization Missile Support Structure Design Using Free-Shape Optimization
Using Topology and Shape Optimization
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3. Composite Optimization optimization can be used to reduce rigid bodies simultaneously. This first-
OptiStruct’s new comprehensive composite high-stress concentrations. OptiStruct can in-industry, innovative method, allows for
design and optimization package also use HyperMesh's morphing the optimization of system-level multi-body
streamlines composite structure design technology to update finite-element meshes dynamic models. Additionally ESLM can be
during optimization. As a result, OptiStruct applied to concept design synthesis and
work for both the designer and the analyst.
can easily propose design modifications design fine-tuning.
This ply-based approach simplifies the
without a need for underlying CAD data
interpretation of the concept design results
and with a minimum of user interaction. Fatigue-Based Concept Design
from free-size optimization. OptiStruct also Within the OptiStruct environment, and Optimization
considers manufacturing requirements early optimization parameters can be defined OptiStruct’s fatigue optimization capabilities
in the design process to achieve practical with only a few mouse clicks. allow concept design synthesis (topology,
designs and proposes a lay-up sequence topography, free-size) and design fine-tuning
that meets these requirements. OptiStruct can use responses from many (size, shape, free-shape) based on
different disciplines in the optimization fatigue performance. Damage and life
Multi-Disciplinary Structural Optimization process such as static, buckling, from either stress-life or strain-life fatigue
frequency response, random response,
Analyzing the performance of structures is analysis can be used as design criteria.
thermo-mechanical, heat transfer,
only one of the many steps in the product This capability allows concept design using
acoustic analysis. OptiStruct’s iterative
development process. Based on the analysis fatigue responses and is computationally
solver for static analysis and SPMD
results, product engineers make part efficient compared to fatigue-based
version for multiple-static, linear-buckling
modification proposals in order to meet optimization using third-party applications.
and direct frequency response reduce
stress, weight or stiffness requirements. the CPU time significantly. Surface-to-surface
contact has been introduced. Tied interfaces Easy Model Set-up,
OptiStruct's seamless integration of
for linear analysis can be modeled with Post-Processing and Automation
state-of-the-art, gradient-based optimization
the FREEZE option of a contact. In addition OptiStruct is tightly integrated into the
methods makes multi-disciplinary size and
to these capabilities, OptiStruct has HyperWorks® environment, enabling fast
shape optimization easy.
innovative methods for system-level and easy model set-up in HyperMesh®.
optimization and fatigue optimization. Animations, contour plots and charts can
Size optimization defines ideal component be generated using the post-processing
parameters, such as material values, System-Level Design Optimization tools in HyperView®. Moreover, jobs can
cross-section dimensions and thicknesses. Equivalent Static Load Method (ESLM) be easily automated by using the powerful
Shape optimization is applied on existing is an innovative method implemented for automation and data-management layer
product components. OptiStruct’s free-shape optimization of both flexible bodies and available in HyperWorks.
• 40% Reduction in
Peak PSD Acceleration
Bead Design of Satellite Panel Using Topography Optimization Automobile Knuckle Design Using Manufacturing Constraints
4. WORLD HEADQUARTERS
UNITED STATES
www.altair.com
AUSTRALIA
www.altair-anz.com
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www.altairengineering.com.br
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www.altairengineering.ca
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www.altair.com.cn
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www.altair.de
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www.altair-india.in
ITALY
www.altairengineering.it
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www.altairengineering.com.mx
SWEDEN
www.altair.se
UNITED KINGDOM
www.altairengineering.co.uk
For more information, please contact:
Holland Engineering Consultants bv
sales@hecbv.nl
Altair® HyperWorks®, Altair Data Manager™, Altair Process Manager™, BatchMesher™, HyperCrash™, HyperDieDynamics®, HyperForm®, HyperGraph®, HyperMath™,
HyperMesh®, HyperStudy®, HyperView®, HyperView Player®, HyperXtrude®, MotionSolve®, MotionView®, OptiStruct®, Process Studio®, RADIOSS™, and ScriptView™,
GridWorks™, PBS Professional®, and e-Compute™ are trademarks of Altair Engineering, Inc. All other trademarks or servicemarks are the property of their respective owners.
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