The RAPID 2013 Conference & Exposition Directory - Society of ...
The RAPID 2013 Conference & Exposition Directory - Society of ...
The RAPID 2013 Conference & Exposition Directory - Society of ...
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ConferenCe Details<br />
Tuesday, June 11<br />
Applications for Transportation<br />
including Aerospace and Aircraft<br />
10 am–Noon<br />
<strong>The</strong> session will combine applications using additive<br />
manufacturing for parts and models used in motor vehicles,<br />
commercial and military aircraft, and aerospace.<br />
10–10:25 am<br />
Design Study on an Additively Manufactured<br />
Compressor Casing Containing Auxetic Structures<br />
David Rockel, Dipl.-Ing., Research Associate,<br />
Institute for Flight Propulsion - TU Muenchen<br />
This session will present a new potential application <strong>of</strong> additive<br />
manufacturing technologies in future aero engine design,<br />
and focus on the practical implementation <strong>of</strong> the new design<br />
freedom using the example <strong>of</strong> a compressor casing. <strong>The</strong> results<br />
show a clear improvement <strong>of</strong> the tip clearance behavior <strong>of</strong> the<br />
casing. Design elements are developed in order to adapt the<br />
casing expansion to the rotor throughout an entire load cycle <strong>of</strong><br />
an aero engine.<br />
11–11:25 am<br />
New Machine X Line 1000R & Case Studies<br />
<strong>of</strong> Metal Additive Manufactured Parts Implemented<br />
in Aerospace Industry<br />
Andreas Tulaj, Dipl.-Ing., Regional Sales Manager, Concept Laser<br />
GmbH<br />
C. Malcolm Ward-Close, Pr<strong>of</strong>essor, Imperial College London<br />
Additive manufacturing with metals is becoming increasingly<br />
important in many areas <strong>of</strong> industry. Time and cost reductions<br />
in production are making this generative technology more<br />
and more attractive even for medium-sized quantities and<br />
larger components.<br />
With this in mind, Concept Laser, together with the Fraunh<strong>of</strong>er<br />
Institute for Laser Technology (ILT) and the automotive partner<br />
from industry Daimler AG developed a new high-performance<br />
machine named X line 1000R whose build chamber size<br />
surpasses anything that was previously known. By using<br />
a 1 kW fibre laser system, the layer thicknesses and track<br />
widths can be increased by several factors, which means that<br />
productivity can be increased more than ten-fold compared with<br />
conventional systems.<br />
10:30–10:55 am<br />
Development <strong>of</strong> a Lightweight Hydraulic Valve<br />
Manifold by Selective Laser Melting Technology<br />
Gerhard Hummel, Dipl.-Ing., MSC, Hydraulics System Engineer/<br />
Designated Certification Specialist, Airbus Operations GmbH<br />
Frank Schubert, Dipl.-Ing., Scientific Staff Member,<br />
Chemnitz University <strong>of</strong> Technology<br />
Alexander Altmann, Dipl.-Ing. (FH), R&T Project Manager,<br />
Liebherr-Aerospace Lindenberg GmbH<br />
This session will show the development process <strong>of</strong> a SLM valve<br />
manifold based on Airbus A380 equipment. In consideration<br />
<strong>of</strong> functional hydraulic schematics, installation and interface<br />
requirements, the rearrangement <strong>of</strong> sub-components and<br />
connector system was performed. Additionally SLM design<br />
directives, including strategies for supporting structure and postprocessing<br />
reduction, were developed and applied.<br />
11:30–11:55 am<br />
Selective Laser Sintering (SLS) <strong>of</strong> Next Gen<br />
Unmanned Air Vehicles (UAVs)<br />
April Cooke, Mechanical Engineer, Paramount Industries<br />
3D Systems delivered an innovative design process and<br />
manufacturing solution for the next generation <strong>of</strong> Small<br />
Unmanned Air Vehicles (SUAVs). This work presents a<br />
trade study between traditional manufacturing techniques<br />
and Selective Laser Sintering for the fabrication <strong>of</strong> SUAVs.<br />
<strong>The</strong> original SUAV design was an aircraft fabricated from<br />
traditional carbon fiber composite material. This design was<br />
adapted for rapid manufacturing and flight test comparison.<br />
Composite materials (comprised <strong>of</strong> carbon fiber, Kevlar, and/or<br />
fiberglass fabric and epoxy resins) were the baseline structural<br />
technology for comparison. <strong>The</strong> design methods for SLS will be<br />
discussed focusing on the implementation <strong>of</strong> conformal lattice<br />
structures (CLS). Although the original air vehicle design was<br />
well established, an equivalent rapid manufactured (RM) SLS<br />
structure was qualified. <strong>The</strong> same control mechanisms were<br />
34 sme.org/rapid