Introduction of New Large Tow Carbon Fiber Products and PCM* Technology. * Prepreg Compression Molding



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Introduction of New Large Tow Carbon Fiber Products and PCM* Technology * Prepreg Compression Molding

Mitsubishi Rayon Carbon Fiber Business for Industrial applications

MCHC Group Organization

Chemical Industries Global Ranking ng 75.5billion 1.00= 106 56.6billion 37.7billion 29.9billion 18.9billion

MRC Company Profile Foundation Year 1933 Capital 502 Million Employee 8,203 Consolidated Sales Amount 4.51 Billion ( 1.00= 106) Main Business 1. Specialty Resin and Chemicals 2. Acrylic Fiber, AN 3. Carbon Fibers, Composites 4. Synthetic Fibers, Membrane

MRC Sales Breakdown Membrane etc. 14% Synthetic Fibers 9% Carbon Fibers, Sales Amount Composites 6% 4.51 Billion Specialty Resins and Polymers Acrylic Fiber, AN 64% 7% The 3rd Largest Carbon Fiber Manufacturer As of Mar 2011

Features of MRC carbon fiber business Vertical integration CFRP Intermediate materials Pre-forming technologies Application technologies Composite material technologies CFRP design technologies Matrics resin technologies Carbon Fiber Carbon fiber technologies Precursor Acrylic fiber technologies Acrylonitrile Monomer&Polymer technologies

MRC Carbon Fiber Production Capacity (MT) 12,000 Mitsubishi Rayon Capacity 10,000 8,000 6,000 Japan US EU 4,000 2,000 0 2005 2006 2007 2008 2009 2010 2011

Mitsubishi Rayon Premium Carbon Fiber for Industrial applications

New product concept Product required for growing industrial applications - Good process-ability, high performance (small tow like) - Tightly controlled quality (small tow like) - Large tow for high productivity at sites - Good avaliability and affodability Our new product will change conventional Large-tow perception in Market Larger Filament Count, but performs as small tow or even better

Property chart 5,500 Pyrofil TRH50 18K 5,000 Pyrofil TR50S 12/15K New P330 60K Grafil 34-700 Tensile Strength, MPa 4,500 4,000 Grafil 34-600 New WCF 50K 3,500 3,000 200 210 220 230 240 250 260 270 Tensile Modulus, GPa

Products Name Filament Count MUL (mg/m) Density (g/cm3) Tensile Modulus Tensile Strength GPa MPa P330 60K 60K 3,200 1.81 250 4,900 WCF 50K 50K 3,750 1.81 240 4,100 Spool length: 2,500m (WCF and P330) Sizing: Epoxy based sizing P330 series P330 series performs as our standard small tow (i.e. High strength fiber TR50S/TRH50), however the filament count is larger (50-60k). Comparing with standard small tow fibers (less than 24K), P330 series has better process ability for large composites and performs like standard small tow. We believe that this product will push the technical envelop in carbon fiber market. This new plant will not only be the first plant to produce high performance large tow in earnest over the world, but also it will be the largest carbon fiber plant (2,700t/Y) in capacity in history.

New products from Mitsubishi Rayon

Evaluation Data (Prepreg) P 330 60K TR 50S 15K Tensile S trength M P a 4,906 4,871 Tensile M odulus G P a 249 244 0 Tensile S trength * M P a 3,019 2,681 0 Tensile M odulus * G P a 147 136 0 C om pression S trength * M P a 1,488 1,315 0 C om pression M odulus * G P a 131 123 90 FlexualS trength M P a 153 136 ILS S M P a 93 94 Strand T est R esin:m R C #350 * V f 6 0 % b a s is culculation Good process-ability and less fuzz WCF 50K data to be available, initial result shows slightly higher compression properties comparing with P330 60K

Evaluation Data (Filament Winding) P330 60K has similar properties to the ones of TRH50 18K which has been selected/applied for various projects (mainly pressure vessels from small to large) P330 60K helps improve productivity at customer's site (e.g. the number of spools can be minimized) MRC internal evaluation result: - Consistent resin pick-up - Good tow spredability - Less fuzz (comparing with conventional large tow)

Evaluation Data (UD Fabric) Evaluation at MRC Weaving pattern: UD fabric Weaving Machine: Tsudakoma Rapier Target FAW: 600g/m2 Warp Yarn (CF): 4.5 ends/inch Fill Yarn (GF): 8 ends/inch Warp Yarn Tension: 17kg Fabric Width: 300mm Result -No Fuzz - Good spredability

Evaluation Data (BIAXIAL +/-45 45º CF FABRIC) Non-crimped Biaxial Fabric based on 60K. 2 layers of carbon fibre fabric stitched with polyester Carbon fibre orientation is +45/-45 degree. TRH50 60M exhibits good spread-ability, required for light weight fabric Material Fiber Type Fiber Orientation Nominal Weight (g/m²) Carbon Fiber TRH50 60M +45 150 Carbon Fiber TRH50 60M -45 150 Polyester knitting yarns - 4 Total - 304

PREMIUM LARGE TOW CARBON FIBRE FOR INDUSTRIAL APPLICATIONS LARGE FILAMENT COUNT WITH PROCESSABILITY AND PROPERTIES OF REGULAR TOW PRODUCT CONCEPT: Excellent Processability and High Performance Consistent Quality High Productivity in Producing Large Components Commercial Availability and Affordability TARGET MARKETS: Filament Winding for Pressure Vessels Multi-axial Fabric for Automotive Applications UD and Multi-Axial Fabrics for Wind Energy Applications Large Scale Components Parts where Property to Price Ratio is Critical

Mitsubishi Rayon Development of PCM* technology * Prepreg Compression Molding

CFRP Molding Process Mechanical Properties High Autoclave Small Volume Remark Thermoset Oven RTM VaRTM Mid Volume Advanced RTM PCM High Volume CF SMC CFRP Mass Production GMT LFT-D LFP Thermoplastic Injection Low Mass Production Low Low Moldability Productivity High High

High cycle CFRP molding process PCM has a potential for CFRP mass production. PCM (Prepreg Compression Molding) Newly developed fast curing prepreg is preformed, and then cured in heated steel tool. Short mold cycle times. Laminate Heat Preform Charge Compression Demold Advanced RTM Dry fabric is charged in heated tool, then resin is injected into the mold. Cycle time can be shortened with fast curing resin system Fabric Heat Preform Charge Resin Injection Demold

Prepreg for PCM Resin type Gel time @ 140 C Minimum cure time @140 C min. min. CF reinforcement 1) UD Fabric 2) UD Fabric 2) FAW g/m 2 250 or 125 200 250 or 125 200 Resin Content wt% 30 40 30 40 CF Vf vol% 59 49 59 49 Specific Gravity 1.54 1.47 1.54 1.47 Other advantage Properties R 02 Bisphenol A type Epoxy resin Developed prepreg 1) TR50S carbon fiber from Mitsubishi Rayon Co., Ltd. is used for all prepregs Tensile strength; 4900 MPa, Modulus; 240 GPa, Elongation; 2.0% 2) Plain, twill and Satin fabric can be used. R 03 Bisphenol A type Epoxy resin 2.0 1.3 5.0 3.0 Typical grade Good Surface Typical grade High Tg

Fast curing formulation Resin formulation has been optimized for fast curing Optimized combination of resins and curing agents Curing behavior are evaluated by Curelastometer Curelastometer can measure/monitor resin behavior under conditions similar to actual molding. torque (kgf cm) 70 60 50 40 30 20 10 0 0 1 2 3 4 5 6 time (min.) R 03 R 02 Curelastometer test Resin sample Press Heated Dice (140 C) Apply Torsion Detect Torque

Viscosity control Resin viscosity at elevated temperature was optimized for compression molding. Low viscosity of conventional materials at elevated temperature results in excessive resin flow Viscosity at elevated temperature Lowest viscosity 0 50 100 150 Temp( ) Problem caused by low resin viscosity Bleed out of cavity Inconsistent mechanical results Fiber distortion Poor thickness uniformity Poor cosmetics Demolding issue Conventional prepreg R 02

0 degree Flexural strength/modulus Strength (MPa) 2000 1500 1000 500 0 Control R02 R 03 160 140 120 100 80 60 40 20 0 Modulus (GPa) Strength Modulus

Thermal Analysis E Tg of R 03 is over 160 C R 03 can be used for high temperature applications 1.E+10 DMA 1.E+01 200 150 G' 1.E+09 1.E+08 1.E+00 1.E-01 1.E-02 tan delta Tg (C) 100 50 0 Control R 02 R 03 Temperature (C) 1.E+07 1.E-03 0 50 100 150 200 250 Temperature (C) R 03 G' R 02 G' R 03 tan_delta R 02 tan_delta G'-Tg tanδ Prepreg Control R 02 R 03 G'-Tg ( ) 127 125 165 tanδ( ) 148 154 186 Molding Condition; 140 C 5min 8MPa Control prepreg is cured by autoclave

Engine hood model part development A quarter part of engine hood was developed to demonstrate feasibility of PCM body panels. PCM outer and CF-SMC inner panels were bonded to produce a body panel structure consisting of two parts. CFRP engine hood is 63% lighter than steel hood. Outer Panel PCM SUBURU Impreza Steel hood; 14.5 kg CFRP hood; 5.3 kg (Whole hood) Part size; 600X600X1.1mm Inner Panel CF-SMC Part size; 600X600X1.5mm

Surface Quality of PCM parts R 02 UD Prepreg can achieve Class A surface. Wave scan index of parts molded by PCM is similar to that of typical class A SMC parts. 70 60 Wave Scan Index 50 40 30 20 10 0 W1 W2 Mode W3 W4 UD prepreg PCM Class A GF-SMC Fabric prepreg PCM Wave scan index was measured by Wave Scan-T from BYK-Chemie

PCM Molding Process PCM UD and/or Fabric Prepreg Charge Press De-mold Hybrid Molding UD and/or Fabric Prepreg + SMC 100% mold coverage, preform recomended Molds complex shape with SMC SMC

Structural model parts development Structural floor model parts was developed by PCM Hybrid molding of Prepreg and CF-SMC SMC Prepreg Compression molding PCM/SMC Hybrid Part Tool Structural floor model Size; 500X500mm Prepreg CF-SMC 2.0mm 0.5mm

Vertical integration for Automotive applications PREMIUM LARGE TOW CARBON FIBRE FOR AUTOMOTIVE APPLICATIONS - High Performance and Consistent Quality (unlike conventional large tow) - High Productivity in intermediates material production - Commercial Availability and Affordability PCM Prepreg Compression Molding RTM Multi-Axial Fabric utilizing our large tow carbon fiber optimized for RTM process - Light weight Non-crimped Biaxial Fabric - Good quality in appearance and performance Fast Cure Prepreg for Compression Molding - 3 minutes cure at 140 C - Controlled viscosity at molding temperature - Suitable tack at room temperature PCM (Prepreg Compression Molding Technology) - Suited for high volume automotive parts production - Wide Range of applications can be produced by PCM technology - Class A finish for outer body painted panels - Cosmetically enhanced for superior carbon fabric appearance - Structural parts by PCM/CF-SMC Hybrid molding

Danke schön.