Publication | Closed Access
Compact distributed RLC interconnect models. IV. Unified models for time delay, crosstalk, and repeater insertion
100
Citations
22
References
2003
Year
EngineeringComputer ArchitectureInterconnection Network ArchitecturePower ElectronicsInterconnect (Integrated Circuits)Electromagnetic CompatibilityInterconnect ModelingPhysical Design (Electronics)Advanced Packaging (Semiconductors)Modeling And SimulationComputational ElectromagneticsElectronic PackagingUltra-low LatencyElectrical EngineeringComputer EngineeringInterconnection NetworkTime DelayMicroelectronicsRepeater InsertionRlc Interconnect ModelsVlsi ArchitectureCrosstalk ConstraintsTransmission LineNew ModelsPeak Crosstalk
The models define a design space illustrating the tradeoff between repeater count and wire cross‑section under specified delay and crosstalk constraints. The study derives compact expressions for time delay, peak crosstalk, optimal repeater number and size, and delay of repeater‑inserted RC and RLC lines using a new physical model of transient response. For pt.
For pt. III see ibid., vol. 50, p. 1081-93 (2003). Using a new physical model for the transient response of a distributed resistance-inductance-capacitance (RLC) interconnect with a capacitive load, novel compact expressions have been derived for the 1) time delay, 2) peak crosstalk for coupled lines, 3) optimum number and size of repeaters, and 4) time delay for repeater-inserted distributed resistance-capacitance (RC) and RLC lines. These new models are used to define a design space that illustrates the tradeoff between the number of repeaters and wire cross-section for specified delay and crosstalk constraints.
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