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Storage Technology Futures to 2015: Flash, Disk Drive, Holographic, and New Technology Road Maps and Applications RevealedProduct Type: Market Research ReportPublished by: IDC Published: June 2006 Product Code: R104-26972 Description
This IDC study compares and contrasts several nonvolatile memory technologies likely to be commercialized through 2015. The scope of the study includes magnetic, optical, semiconductor (cross-point array), and other types of future nonvolatile memory technologies. A primer for each nonvolatile memory technology within the scope of the study is provided, as are the pros and cons and obstacles to overcome for further scaling or successful commercialization of each technology. Roadmaps related to the timing for commercialization as well as projections for density and price per gigabyte are given, enabling the reader to compare between each of the storage technologies. The suitability for storage applications is considered as are the risks and benefits related to developing each of the storage technologies into successful commercial products. "To borrow a quote from Mark Twain: 'The reports of the hard disk drive's death have been greatly exaggerated,'" according to John Rydning, IDC's research manager for hard disk drives. "Mapping-out technology and usage roadmaps through 2015 reveal clear strengths for some storage technologies and potential battle grounds between others." Table of Contents
Table of ContentsIDC Opinion In This Study Methodology Executive Summary Situation Overview A Brief History of Digital Storage Technology Nonvolatile Digital Storage Taxonomy Cross-Point Arrays Figure: Cross-Point Array Storage Devices Magnetic Dipole Figure: Magnetic Dipole Storage Devices Optical Figure: Optical Storage Devices Mechanical Figure: Mechanical Storage Devices Digital Storage Technology Enablers: Advancements in Bodies of Science and Manufacturing Process Technologies Figure: Relationship of Technology to Nonvolatile Digital Storage Devices Thin Film Deposition Photolithography Etching Metrology Tribology Magnetics Optics Material Science Nanotechnology and Microelectro Mechanical System Devices Error Correction Digital Storage/Memory Devices Cross-Point Arrays NAND and NOR Flash Cross-Point Array Memory Devices Overview Figure: NOR and NAND Flash Memory Architectures Figure: Semiconductor (Cross-Point Array) Scaling to 2008 Advantages and Disadvantages Figure: Multilevel Cell Voltage Levels in Flash Storage Figure: NAND Flash Capacity: Single-Level Cell Versus Multilevel Cell by Lithography Node Applications Obstacles and Challenges Projected Densities and Prices NROM (SONOS) Cross-Point Array Memory Devices Overview Figure: NROM Writing Compared with NAND Flash Advantages and Disadvantages Applications Obstacles and Challenges Projected Densities and Prices Ferroelectric RAM Cross-Point Array Memory Devices Overview Figure: Diagram of 1-T/1-C FRAM Cell Structure Advantages and Disadvantages Applications Obstacles and Challenges Figure: FRAM 1-T/1-C Circuit Diagram Projected Densities and Prices PFRAM Cross-Point Array Memory Devices Overview Figure: PFRAM Polymeric Memory: Three Levels Advantages and Disadvantages Applications Obstacles to Overcome Projected Densities and Prices Magnetic Tunnel Junction Structures in a Cross-Point Array Memory Device Overview Figure: MRAM 1 T/ 1 MTJ Cell Structure Advantages and Disadvantages Applications Obstacles to Overcome Projected Densities and Prices Table: MRAM Capacity versus Lithography Scaling Figure: Toggle MRAM Magnetic Stack Ovonic (Chalcogenide) Materials in a Memory Device: OVRAM, OUM, PCRAM Overview Figure: Solid State Phase Change (Ovonic) Storage Process Figure: Ovonic Cross-Point Array Memory Device Cell Structure Advantages and Disadvantages Applications Obstacles to Overcome Projected Densities and Price Molecular Cross-Point Array Devices Overview Figure: Molecular Cross-Point Array Memory Device Bistable States Advantages and Disadvantages Obstacles to Overcome Projected Densities and Prices Table: Cross-Point Array Technology Comparison Magnetic Dipole Devices Hard Disk Drives Overview Advantages and Disadvantages Applications Obstacles to Overcome Figure: HDD Minimum Feature Size Requirements Versus Semiconductor Lithography Road Map Projected Densities and Prices Magnetic Tape Overview Figure: Helical Scan Magnetic Tape Drive Advantages and Disadvantages Applications Obstacles to Overcome Projected Densities and Prices Optical Storage Devices Blue Laser Digital Versatile Disc Overview Advantages and Disadvantages Applications Obstacles to Overcome Projected Densities and Prices Magneto Optical Storage Overview Advantages and Disadvantages Applications Obstacles to Overcome Projected Densities and Prices Digital Versatile Discs Using Biological Macromolecule Films Holographic Storage Overview Figure: Holographic Storage Write and Read Advantages and Disadvantages Obstacles to Overcome Applications Projected Densities and Prices A Comment About Near-Field Optical Recording A Comment About Optical Tape Mechanical Storage Devices Probe-Based AFM Storage, or "Millipede" Overview Figure: Probe-Based Storage (Millipede) Thermomechanical Writing and Reading Figure: IBM Millipede Read/Write Results Advantages and Disadvantages Obstacles to Overcome Applications Projected Densities and Prices Carbon Nanotube Storage Devices Overview Figure: Carbon Nanotube Storage Structure Figure: Carbon Nanotube Storage Device Switching Advantages and Disadvantages Obstacles to Overcome Applications Projected Densities and Prices Other Future Nonvolatile Memory Technologies Spintronics Magnetic Race Track Figure: Magnetic Race Track Concept Summary Comparison of NVM Technologies Key Metrics Table: NVM Storage Technology Comparison - Today Minimum Feature Size Figure: Minimum Feature and Cell Density Comparison Figure: Cross-Point Array Device Cell Sizes Compared with HDD Bit Cells with Equivalent Minimum Feature Sizes Areal Density Figure: Areal Density Projections: Nonvolatile Memory Devices Data Rate and Input/Output Transactions per Second Figure: IOPS Dependence on Access Time and Data Rate at 4Kb Input/Output Price per Gigabyte Projection Figure: Nonvolatile Memory Technology Price per Gigabyte Projections Through 2015 Reliability Future Outlook Competing Storage Devices in Applications Table: Storage Technology Applications to 2010 Figure: Classic Storage Hierarchy Figure: New Nonvolatile Storage Technology Application Model Likely Application Battlegrounds Figure: HDD Versus NAND: 10GB ASPs, 2006-2010 Technology Predictions Technology Hurdles Assessing the Cost Figure: Nonvolatile Memory Technology Grid: Hurdles Versus Cost Benefit Analysis Figure: Nonvolatile Memory Technology Grid: Risk Versus Benefit Cross-Point Array Technology Devices Mechanical Technology Devices Magnetic Technology Devices Optical Devices Essential Guidance Technology Readiness and Scalability Figure: Nonvolatile Technology Readiness Time Line and Scalability Compared with Moore's Law Maturation of Current NVM Technologies Refocusing R&D Spending Toward Improving Reliability Developing Hybrid Devices Reducing Power Consumption and Heat Generation Final Thoughts Learn More Glossary of Key Terms Related Research Acknowledgements References Synopsis |
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