| Exhibit E-1: | Potential World POF Market ($ millions) |
| Exhibit E-2: | Potential World POF Market by Application ($ millions) |
| Exhibit E-3: | Global Shipment Forecast of OTT-capable Equipment (in Billions of Units) |
| Exhibit E-4: | Attenuation of Different POF Materials |
| Exhibit E-5: | Index Profiles of POF and Bandwidth |
| Exhibit E-6: | Data of POF Systems Using Standard Step Index (SI) and Graded Index (GI) PMMA Fibers |
| Exhibit E-7: | PF GI-POF Transmission Records |
| Exhibit E-8: | Potential POF Applications |
| Exhibit E-9: | Evolving Needs for High-Speed Interconnect Cabling |
| Exhibit E-10: | Plenum Opportunity for POF AOC |
| Exhibit 2.1: | Advantages of POF |
| Exhibit 2.2: | Summary Table of 1 MM SI PMMA POF |
| Exhibit 3.1: | Advantages of POF vs. GOF vs. Copper |
| Exhibit 3.2: | Desktop Connections |
| Exhibit 3.3: | Desktop Cabling Media |
| Exhibit 3.4: | Desktop Media Cabling |
| Exhibit 3.5: | Test Issues |
| Exhibit 4.1: | History of Plastic Optical Fiber Developments for Data Communications |
| Exhibit 4.2: | Progress in Reducing Transmission Loss of PMMA Core POF |
| Exhibit 4.3: | Japanese POF Consortium Members |
| Exhibit 4.4: | HSPN Team Organization |
| Exhibit 5.1: | Basic Components of a Fiber-optic Communications System |
| Exhibit 5.1.1: | Advantages of POF |
| Exhibit 5.2: | Basic Optical Fiber Structure |
| Exhibit 5.3: | Different Types of Optical Fibers |
| Exhibit 5.4: | Typical Technical Characteristics of Different Types of Glass Fibers |
| Exhibit 5.5: | Different Fiber Types |
| Exhibit 5.5.1: | Large Diameter Fiber Overview |
| Exhibit 5.6: | Basic Materials Used for Plastic Optical Fiber |
| Exhibit 5.7: | PMMA Polymer Optical Fibers, Properties and Suppliers |
| Exhibit 5.8: | Typical Spectrum of PMMA Fiber |
| Exhibit 5.9: | Optical Properties of Different Fibers |
| Exhibit 5.10: | Spectral Attenuation for Perfluorinated GI-POF |
| Exhibit 5.11: | Bandwidth vs. Numerical Aperture |
| Exhibit 5.12: | Attenuation and Dispersion Limits for POF |
| Exhibit 5.13: | Data Rate vs. Distance for Various Media |
| Exhibit 5.14: | Loss of Optical Fibers |
| Exhibit 5.15: | Summary of Recent up-to-date PF GI-POF Laboratory Tests Results |
| Exhibit 5.16: | Characteristics of Partially Chlorinated GI-POF |
| Exhibit 5.16.1: | Characteristics of the New GI PTCEMA Fiber |
| Exhibit 5.17: | Materials Used for High-temperature POF |
| Exhibit 5.18: | Attenuation Trends of Different POF Materials |
| Exhibit 5.19: | Index Profiles of POF and Bandwidth |
| Exhibit 5.20: | Bandwidth of Systems Using Different Types of POF |
| Exhibit 5-21: | POF Compliance with Fire and Low Smoke Zero Halogen (LSZH) Standards |
| Exhibit 5.22: | Batch Extrusion for POF Manufacturing |
| Exhibit 5.23: | Continuous PF-GI-POF Fabrication |
| Exhibit 5.24: | Continuous Polymerization Process |
| Exhibit 5.25: | Mixture of Monomer and M2 Dopant |
| Exhibit 5.26: | How the GIO preform was obtained |
| Exhibit 5.27: | Attenuation Spectrum of Various POF made from PMMA or PC |
| Exhibit 5.28: | PF GI-POF Extrusion Process |
| Exhibit 6.1: | Light Sources and Current Development |
| Exhibit 6.2: | Emission Property of a Conventional LED |
| Exhibit 6.3: | Schematic of Ring Light Emitting Diode |
| Exhibit 6.4: | LEDs with molded plastic lens: (a) Ring LED and (b) Conventional LED |
| Exhibit 6.5: | Typical Far Field Radiation Pattern of a Ring LED |
| Exhibit 6.6: | Available LEDs |
| Exhibit 6.7: | Typical RC-LEDs Operating Parameter |
| Exhibit 6.8: | Perspective of 650nm AlGaInP MQW LD structure and cross-section of GaAs/AlGalnP PIN PD |
| Exhibit 6.9: | Small signal frequency response of the 650nm AlGalnP MQW LD measured with the GaAs/AlGalnP PIN PD |
| Exhibit 6.10: | Cross Section of GaAs/AlGaInP Pin PD |
| Exhibit 6.11: | Outlook for POF Sources |
| Exhibit 8.1: | Diagram of POF Fiber with Embedded Mirrors |
| Exhibit 8.2: | Polymeric Optical Switch with GRIN Lenses |
| Exhibit 9.1: | Types of POF Cables |
| Exhibit 9.2: | POF Ribbon Systems |
| Exhibit 11.1: | Structure of Acceptance Component in the Transceiver |
| Exhibit 13.1: | Signal gain vs. launched pump power for RB-doped GI POFA Fig. 1 |
| Exhibit 13.2: | Signal gain vs. launched pump power for RB-doped GI POFA Fig. 2 |
| Exhibit 13.3: | Signal gain vs. gain wavelength for RB-doped GI POFA |
| Exhibit 14.1: | Special Requirements for an OTDR Working on POF |
| Exhibit 14.2: | Hand Held Devices |
| Exhibit 14.3: | Available OTDRs |
| Exhibit 15.1: | Volition Ethernet Networks |
| Exhibit 17.1: | POF Applications by Distance |
| Exhibit 17.2: | Actual and Potential Applications of POF |
| Exhibit 17.3: | Universal Premises Network Applications |
| Exhibit 17.4: | Technical Specifications of Consumer Data Links |
| Exhibit 17.5: | DAI (Digital Audio Interface) Optical Fiber Datalinks |
| Exhibit 17.6: | Expansion of Optical Fiber Links for Digital Audio Applications |
| Exhibit 17.7: | Fly-By-Light Subsystems and Associated Optical Hardware Under Development (McDonald Douglas, now Boeing) |
| Exhibit 17.8: | Fiber-optic LANs on the Boeing 777 |
| Exhibit 17.9: | POF for In-flight Entertainment Systems |
| Exhibit 17.10: | Growth of Circuits in Wire Harness in Japan |
| Exhibit 17.11: | Trends in Conventional Wiring Harness and Cable Spending per Automobile |
| Exhibit 17.12: | Automobile Networks |
| Exhibit 17.13: | MOST Partners and Associate Partners |
| Exhibit 17.14: | MOST Nodes on the Road |
| Exhibit 17.15: | 1394 Automotive Architecture Model |
| Exhibit 17.16: | The Status of the IDB-1394 Specification |
| Exhibit 17.17: | 1394 AUG Bus Stayed Closely Tied to AMI-C |
| Exhibit 17.18: | IDB-1394 Market Projection |
| Exhibit 17.19: | FIBERSTAR Network Fig. 1 |
| Exhibit 17.20: | FIBERSTAR Network Fig. 2 |
| Exhibit 17.21: | FIBERSTAR Network Fig. 3 |
| Exhibit 17.22: | POF vs. Glass |
| Exhibit 17.23: | Pricing of Announced Products |
| Exhibit 17.24: | Optical MiniMAP Specifications |
| Exhibit 17.25: | Optical Ethernet Specifications |
| Exhibit 17.26: | The Interconnection of Consumer and Office Equipment |
| Exhibit 17.27: | Example Features of 1394 |
| Exhibit 17.28: | The 1394b Long-Distance Specifications for a Range of Transmission Media |
| Exhibit 17.29: | Networking in a Cluster & Room-to-room |
| Exhibit 17.30: | Comparison of Existing Proposed Home Networks |
| Exhibit 17.31: | Comparison of Different Protocols with 1394b |
| Exhibit 17.32: | Cost Estimates for 1394 Connectors and Cables |
| Exhibit 17.33: | Tollbooth Application |
| Exhibit 17.34: | New York Thruway’s Costs for Electronic Toll Collection |
| Exhibit 17.35: | Factory Automation |
| Exhibit 17.36: | NMR Diagnostic Devices |
| Exhibit 17.37: | Medical Diagnostics |
| Exhibit 17.38: | CEBus Topology |
| Exhibit 17.38.1: | Global Shipment Forecast of OTT-capable Equipment (in Billions of Units) |
| Exhibit 17.38.2: | Capillary of Light Home Network |
| Exhibit 17.39: | Fiber Optics Connecting Two HPIB (IEEE-488) Data Buses |
| Exhibit 17.40: | POF as Sensors In Power Networks Fig. 1 |
| Exhibit 17.41: | POF as Sensors In Power Networks Fig. 2 |
| Exhibit 17.42: | Fiber Used In Tempest Applications |
| Exhibit 17.43: | Bohlinger Inc. Fibri-Lite System |
| Exhibit 17.44: | Monitor System for 100 Series Train |
| Exhibit 17.45: | Connecting Point-Of-Sale Terminals |
| Exhibit 17.46: | Fiber Connects A Robot Controller With A Cell Controller And The Robot |
| Exhibit 17.47: | Programmable Controllers (PLC) |
| Exhibit 17.48: | Security System For Local And Wide Areas |
| Exhibit 17.48.1: | Evolving Needs for High-Speed Interconnect Cabling |
| Exhibit 18.1: | Myths of Fiber vs. Copper |
| Exhibit 18.2: | Today’s Reality of Fiber vs. Copper |
| Exhibit 18.3: | Cost Comparisons of Fiber and Copper for Premises Network Point-to-point Link |
| Exhibit 18.4: | ATM Cost Comparison |
| Exhibit 18.5: | Connector Cost Trade-offs |
| Exhibit 19.1: | Existing or Proposed Standards or Organizations That Are Either Developing POF Standards or Are Candidates |
| Exhibit 19.2: | Standards by Industry |
| Exhibit 19.3: | National and International Standards Organizations |
| Exhibit 19.4: | Profibus Network |
| Exhibit 19.5: | SERCOS Network |
| Exhibit 19.6: | Interbus Network |
| Exhibit 19.7: | Active Optical Cable Assembly |
| Exhibit 19.8: | POF AOC and Backplane Solutions |
| Exhibit 19.9: | Plenum Opportunity for POF AOC |
| Exhibit 20.1: | JIS & IEC Generic Specification of Optical Fibers |
| Exhibit 20.2: | JIS & IEC Test Methods for Mechanical Properties of POF (Fibers) |
| Exhibit 20.2.1: | Fiber Standard 60793-2-40 |
| Exhibit 20.3: | Public Available Specifications for T&M Methods of Manufacturers and Test Labs |
| Exhibit 21.1: | POF Data-grade Fiber Manufacturers |
| Exhibit 21.2: | Comparison of ESKAMEGA and ESKAMIU |
| Exhibit 21.3: | Various Types Of Fibers Available From Mitsubishi |
| Exhibit 21.4: | Typical Transmission Loss Spectra of POF ESKA |
| Exhibit 21.5: | Mitsubishi Rayon POF Concept |
| Exhibit 21.6: | Transmission Distance Vs. Data Rate for ESKA Fibers |
| Exhibit 21.7: | Structure of Single-core and Multicore POF |
| Exhibit 21.8: | Comparison of Different Kinds of POFs and Structure Parameters and Transmission Loss |
| Exhibit 21.9: | Transmission Loss Spectrum of NC-1000 |
| Exhibit 21.10: | Relationship Between Fiber Length And Optical Power At Incidence From LD |
| Exhibit 21.11: | Structure of Toray Optical Fiber |
| Exhibit 21.12: | Diagram of Light Transmission |
| Exhibit 21.13: | Lucina Fiber Loss Spectrum Compared To PMMA SI POF and Glass |
| Exhibit 21.14: | Typical Wiring of Buildings Using Lucina Fiber |
| Exhibit 21.15: | Chromis Platform Fiber Technologies |
| Exhibit 21.16: | Chromis PMMA Cables |
| Exhibit 21.17: | Main Characteristics of PCP GI POF and PFP GI POF |
| Exhibit 22.1: | Basic Gigabit/Fast Ethernet Transceiver |
| Exhibit 22.2: | Gigabit/Fast Ethernet Bridge with Two POF Ports and One System Port |
| Exhibit 22.3: | Gigabit/Fast Ethernet Bridge with Three POF Ports |
| Exhibit 22.4: | Bridged Home Network Based On POF |
| Exhibit 22.5: | New Physical Layer For Speed And Coverage Improvements On MOST Systems |
| Exhibit 22.6: | Light Emitting Diodes (LEDs) Manufacturers |
| Exhibit 22.6.1: | SMI POF Connector |
| Exhibit 22.6.2: | ST and SC Connectors |
| Exhibit 22.6.3: | F05 and F07 Connectors (PN) |
| Exhibit 22.6.4: | The DNP Connector System |
| Exhibit 22.6.5: | FSMA Connector System |
| Exhibit 22.6.6: | V-pin-crimp Connectors |
| Exhibit 22.6.7: | The SC-RJ System (RDM) |
| Exhibit 22.6.8: | MOST POF Connector |
| Exhibit 22.6.9: | The D2B Connector |
| Exhibit 22.6.10: | LC Connector and Cutter from FiberFin |
| Exhibit 22.6.11: | Light-Seal Connector from FiberFin |
| Exhibit 22.6.12: | FiberFin’s New LC Connector Line of Products for POF |
| Exhibit 22.6.13: | Kingfisher’s KI TK054 Series of POF Tester |
| Exhibit 22.7: | Companies with POF Equipment ForIPTV |
| Exhibit 23.1: | Volume Trend Curve |
| Exhibit 23.2: | Step-Index POF Fiber Pricing Trend (Cents/Meter) |
| Exhibit 23.3: | Single 1000μm Jacketed Fiber for Data Communication Applications (GK Type) |
| Exhibit 23.4: | POF Cable Pricing Trends ($ per meter) |
| Exhibit 23.5: | Hewlett Packard 125MBaud Transmitters and Receivers Volume Pricing |
| Exhibit 25.1: | Potential Worldwide Forecast of POF Nodes in Automobiles (millions) |
| Exhibit 25.2: | Potential Estimated Automotive POF Market ($ millions) |
| Exhibit 25.3: | Potential Consumer POF Market ($ millions) |
| Exhibit 25.4: | Potential Industrial Controls and IoT POF Market ($ millions) |
| Exhibit 25.5: | Potential Worldwide Networked Homes (millions) |
| Exhibit 25.6: | Potential Home Networking POF Markets ($millions) |
| Exhibit 25.7: | POF for Optical MDU and Home Network |
| Exhibit 25.8: | The Interconnect Market |
| Exhibit 25.9: | Potential Interconnect POF Market ($ Millions) |
| Exhibit 25.10: | Potential Medical POF Market ($ Millions) |
| Exhibit 25.11: | Potential Avionics POF Market ($ Millions) |
| Exhibit 25.12: | Potential Worldwide POF Market ($ millions) |
| Exhibit 25.13: | Potential World POF Market by Application ($ millions) |
