composide | case study
TRANSCRIPT
Converting Metallic Structures to Composites
& Laminate Optimization
© 2014-2015 CompoSIDE Ltd – All Rights Reserved
Jonathan Evans - Application EngineerLorenzo Bossi - Sales & Marketing Manager
CompoSIDE | Case Study
C re a t i n g t h e B u s i n e s s C a s e
2© 2014-2016 CompoSIDE Ltd – All Rights Reserved
How much lighter my structure is going to be?
How much stiffer / stronger?
How much is it going to cost? Cost
StrengthWeight
T h e w a l l
© 2014-2016 CompoSIDE Ltd – All Rights Reserved 3
Which material should I use?
Where can I get the properties?
How should I orient my fibres / plies?
How can I design the right laminate?
Should I change / optimize the structure?
How can I compare total material costs?
O b j e c t i ve s
© 2014-2016 CompoSIDE Ltd – All Rights Reserved 4
Initial assessment of metallic structures
Evaluation of composites potential
Optimization of composites structures
Direct comparison:
¤ Costs
¤ Weights
¤ Structural performance
C a s e S p e c i f i c s
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Baseline Metallic Structure¤ Aluminium Alloy
¤ Weight = 8057.05kg
¤ Requirement to reduce weight for fuel efficiency and increase lifespan
Assumptions¤ Frame is load bearing element for
helicopter loadcase
¤ Helicopter is 3000kg landing at 2.5g acceleration
C o m p o S I D E Wo r k f l o w
7
Outputs
Select Materials
Create 2D Sections
Create 3D Model using sections and analyse
Baseline Design
Analysis
© 2014-2016 CompoSIDE Ltd – All Rights Reserved
C o m p o S I D E Wo r k f l o w
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Outputs
Select Materials
Create 2D Sections
Create 3D Model using sections and analyse
Baseline Design
Analysis
Replace Material in 2D section with composite
Replace Section and analyse
with composite
CompositeAnalysis
Select Materials
© 2014-2016 CompoSIDE Ltd – All Rights Reserved
B u s i n e s s C a s e C o m p a r i s o n S u m m a r yF i rs t A n a l y s i s
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Weight Comparison
¤ Weight Saving of 43%!
Cost Comparison
Lets look at optimising the laminate.
Material Weight
Aluminium 8057.05 kg
Carbon Fibre - Quadriaxial 4614.95 kg
Material Cost
Aluminium 11,763.30 €
Carbon Fibre - Quadriaxial 59,325.21 €
C o m p o S I D E Wo r k f l o w
10
Outputs
Select Materials
Create 2D Sections
Create 3D Model using sections and analyse
Baseline Design
Analysis
Replace Material in 2D section with composite
Replace Section and analyse
with composite
CompositeAnalysis
Select Materials
Replace Material in 2D section with composite
Replace Section and analyse
with composite
CompositeAnalysis
Select Materials
Optimise Laminate
s
© 2014-2016 CompoSIDE Ltd – All Rights Reserved
B u s i n e s s C a s e C o m p a r i s o n S u m m a r yF i n a l A n a l y s i s
© 2014-2016 CompoSIDE Ltd – All Rights Reserved 11
Weight Comparison
¤ Weight Saving of 60%!
Cost Comparison
The structure can be further optimised from here.
Material Weight
Aluminium 8057.05 kg
Carbon Fibre - Quadriaxial 4614.95 kg
Carbon Fibre - UD 2519.03 kg
Material Cost
Aluminium 11,763.30 €
Carbon Fibre - Quadriaxial 59,325.21 €
Carbon Fibre 32,162.19 €
T h e w a l l
© 2014-2016 CompoSIDE Ltd – All Rights Reserved 14
Which material should I use?
¤ CMDB can help in the selection of the materials
Where can I get the properties?
¤ CMDB Addon provides 1,200+ Materials Data
How should I orient my fibres / plies?
¤ Quick optimization loops within CompoSIDE
How can I compare total material costs?
¤ BoMGen automatically provides costs and weights
G e t s t a r t e d !
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Sign up for 30 days free trial!!
¤ CU-1000 Ideal for small design offices
¤ CU-8000 Ideal for composite engineering teams
© 2014 -2015 CompoSIDE Ltd – All Rights Reserved
S u p p o r t & Tra i n i n g
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