Fraunhofer AutoMOBILE Production Alliance. Innovative Production Technologies for new car concepts Dipl.-Ing. F.-J.

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Fraunhofer AutoMOBILE Production Alliance Innovative Production Technologies for new car concepts Dipl.-Ing. F.-J. Woestmann, IFAM www.automobil.fraunhofer.de

Agenda Fraunhofer Allianz Automobilproduction & Fraunhofer IFAM at a glance Casting Technology Component Development Our Offer

Fraunhofer AutoMOBILE Production Alliance» Members «COMPETENCE BY NETWORKING The Fraunhofer Alliance pools the expertise of 19 Fraunhofer-Institutes, who collectively provide the automotive industry with a competent single-source partner for its research and development needs. Due to the complementary topics of research focus of the individual institutes, innovations can be implemented in a rapid, integrated and sustainable way along the entire process chain of automobile manufacturing from the planning stage right through to the finished vehicle. The head office of the Fraunhofer automobileproduction Alliance is situated at the Fraunhofer Institute for Machine Tools and Forming Technology IWU in Chemnitz, Germany. The spokesman Prof. Dr.-Ing. Welf-Guntram Drossel is the leader of the alliance. www.automobil.fraunhofer.de

Fraunhofer AutoMOBILE Production Alliance» Primary Goals «Sustainable increase of efficiency and conserving resources Development of technologies and methods ready for series production in the automotive industry Creating production networks Developing optimal utilization concepts Alliance offers competence along the entire process chain and is the ideal partner for single topics up to integrative and comprehensive tasks www.automobil.fraunhofer.de

Fraunhofer AutoMOBILE Production Alliance» Business Portfolio «Members of the alliance work together in following business units: Planning, Control and Logistics Powertrain Interior Car Body Vehicle Assembly Production Research for Electric Mobility www.automobil.fraunhofer.de

Fraunhofer AutoMOBILE Production Alliance» Typical Services in all fields of action «Conceptions Process chain planning Simulations Prototyps Feasibility studies Detailed research and development Realization of series production Light weight concepts Resource efficiency www.automobil.fraunhofer.dec

Fraunhofer IFAM Core Competencies SURFACE TECHNOLOGY ADHESIVE BONDING FIBER REINFORCED MATERIALS CASTING TECHNOLOGY ELECTRICAL COMPONENTS AND SYSTEMS POWDER TECHNOLOGY SINTERING PROCESSES

The department of Casting Technology and Component Development casting technology castings with complex geometries function integrated castings (Embedded sensors / RFID transponder) material and process development (especially for die casting, lost foam-technology, investment casting) numerical simulation, component analytics component development full electric drive train / wheel hub motors development of ECUs / power electronics functional safety productions technologies for electrical machines, casting production of coils and housings using vehicle concepts, especially for electric mobility

Agenda Fraunhofer Allinz Automobilproduction & Fraunhofer IFAM at a glance Casting Technology Component Development Our Offer

Department Casting Technology & Component Development Focus areas / topics of research Castings with complex geometries Diecasting Lost Foam Technology Investment casting Lost cores (Non-permanent cores) Casting Technology development Material- und process development Numerical Simulation Component analysis F Function-integrated Castings Sensors and Aktuators RFID-Component markting Electricmobility Vehicle concepts Wheel hub motor Component development

Current research subjects in casting technologies CFRP-aluminium hybrid casting embedding of sensors for condition monitoring embedding of RFID transponder for part identification new cast parts for electric mobility applications

Department Casting Technology & Component Development Examples for the topic complex cast parts Lost Foam cast part with cooling channel: Stator for wheel hub motor Pressure die casting part: passenger car center stack, joint for control units Lost Foam part: coil for large electric machines procuced by Lost Foam 90 mm Investment casting part: Coil for electric motors produced by casting 400 mm 260 mm

CFRP-aluminium hybrid casting motivation and objectives trend in modern lightweight materials is increasingly towards multi-material design realization of lean, heavy duty and reliable transition structures for CFRP-Al-mixed connections in integral design (e.g. cast nodes)

CFRP-aluminium hybrid casting advantages lightweight construction / small space design corrosion-resistant join patch fibre adjusted design wire concept fibre concept CFRP

Next Step - CarGuss Idea: local carbon-fibre reinforced aluminium high and low pressure die casting parts Solution: 3D carbonfibre-wire hybrid textile to stabilize the carbon fibres during casting process Advantages: economic, series-production high increase of stiffness und strength combination of research perceptions > 10 years (transfer of knowlegde) Wire: (stabilization for the casting) C-Faser: (stiffness of the cast) In cooperation with

material characteristics - objective Material characteristics AlSi9Cu3 Al-CF-combound (25 % fibre volume) Tensile strength [MPa] 240 increase ca. 70 % Stiffness [GPa] 75 increase ca. 50 100 % Strain to rupture [%] > 1 < 1 Density [g/cm 3 ] 2,76 ca. 2,7 [Bal13] Quelle [Bal13]: H. Ballmes, Aluminiummatrix-Faserverbundwerkstoffe im Druckgießprozess Verfahrensgrundlagen und Produkteigenschaften, Dissertation, Friedrich-Alexander- Universität Erlangen-Nürnberg, Erlangen, 2013

Agenda Fraunhofer-Gesellschaft & Fraunhofer IFAM at a glance Casting Technology Component Development Our Offer

Department Component Development FROM THE DEVELOPMENT TO THE SAVE APPLICATION IN VEHICLE DEVELOPMENT PRODUCTION TESTING APPLICATION electromagnetic design / simulation of electric machines vehicle control, inverter, software development, controller construction of electric drive recent vehicle concepts of electro mobility casting production of coils manufacturing of complex components for electric machines using casting technology assembly of prototypical electric drive component manufacturing drive chain / chassis functional safety of control units performance test of electric machines fault tolerance of electric drive testing of complete vehicle vehicle integration of components configuration of test bench and demonstrator vehicle Major structuring of further education electro mobility

DEVELOPMENT Fraunhofer Wheel Hub Drive - Drive Concept permanent magnet synchronous machine with outer rotor power electronics (IGBTs) with dc-link capacitor and control unit placed inside the stator case case integrated fluid cooling for stator windings and power electronics increased fault tolerance by changes in the converter-drive topology CAN-Bus connection to vehicle control unit Fig.: sectional view of the wheel hub motor

PRODUCTION Design and construction of complex casting parts Production of complex casting parts for electrical machines using Lost Foam casting (e.g. integrated fluid cooling system) Great freedom of design (e.g. undercuts, wide range of variants) Cost-efficient production of models due to low tool wear Milling of EPS-models for rapid production of functioning prototypes Inherent flexibility due to segmentation of the model CAD-model EPS-model Raw part Machined part

TESTING Fraunhofer Wheel Hub Drive Specifications and Efficiency Map Description Value Rated Power 50 kw Peak Power 72 kw Rated Torque 700 Nm Peak Torque 900 Nm Max. Speed 1500 rpm Rated DC-Voltage 400 V Max. Efficiency 93.4 % Mass (incl. Bearings) 42 kg Outer diameter 364 mm Length 105 mm Measured efficiency map

APPLICATION Vehicle integration and testing - Demonstrator vehicle Integration of two wheel hub drives at the rear axle of an electric concept car 400 V Lithium-ion battery system with 37.6 kwh Complete control over vehicle control unit, independent adjustment of torque distribution possible Retention of the original disc brake system at the inner side of wheel carrier Reconstructed suspension system Top: Concept car»frecc0 2.0«with wheel hub drives Bot.: Wheel carrier with inner-side disc brake and mounted wheel hub drive

PRODUCTION Casting of coils for electric machines Idea: Coils are produced using a casting process Exact reproduction of design geometry Possibility to vary the cross-sectional geometry along the entire length of the conductor Flat conductor alignment with variable width and height Slot filling factor up to 90% Minimised skin effect Positive model of the coil is stretched to allow the casting process and insulation Compression of the coil after the casting process Casted coils (copper / aluminium) Sectional view of different conductor types: circular (left), rectangular (right) and casted (middle)

Agenda Fraunhofer-Gesellschaft & Fraunhofer IFAM at a glance Casting Technology Component Development Our Offer

Contact Dipl.-Ing. F.-J. Wöstmann, IFAM Head of Department for Castinc technology and Component development Fraunhofer Institute for Manufacturing Technology and Advanced Materials Wiener Straße 12 D-28359 Bremen Tel.: +49 421 2246 225 Fax.: +49 421 2246 77 225 Prof. Drossel, IWU Spokesmann of the Alliance Automobile and Head of Fraunhofer IWU General Manager Dr.-Ing. H. Bräunlich Tel.: +49 371 5397 1210 Fax: +49 371 5397 1123 email: braeunlich@iwu.fraunhofe www.automobil.fraunhofer.de email: woe@ifam.fhg.de www.ifam.fhg.de