Trade-offs in the integration of high performance devices with trench capacitor DRAM
S. Crowder, S. R. Stiffler, Paul Parries, G. B. Bronner, L. A. Nesbit, W. Wille, M. W. Powell, Ashok K Ray, B. Chen, Bijan Davari
Abstract
S. Crowder, S. R. Stiffler, Paul Parries, G. B. Bronner, L. A. Nesbit, W. Wille, M. W. Powell, Ashok K Ray, B. Chen, Bijan Davari
Abstract
This paper demonstrates it is possible to enhance the device performance of a standard DRAM process by 35% with only a moderate reduction in retention time. We have also merged high-performance logic devices and working DRAM at the cost of an appreciable degradation in retention behavior and a slightly larger cell. The device performance is 1.82/spl times/ the base process. This demonstrates that embedding DRAM in a high-performance technology is feasible although the optimum trade-off between performance, density, retention time, cost, and power depends on the application.
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This paper demonstrates it is possible to enhance the device performance of a standard DRAM process by 35% with only a moderate reduction in retention time. We have also merged high-performance logic devices and working DRAM at the cost of an appreciable degradation in retention behavior and a slightly larger cell. The device performance is 1.82/spl times/ the base process. This demonstrates that embedding DRAM in a high-performance technology is feasible although the optimum trade-off between performance, density, retention time, cost, and power depends on the application.
Key concepts: Dram, Data retention, Trench, Static random-access memory, Computer science, Performance improvement, Capacitor, Process (computing)