M. Sasaki, M. Shiozaki, A. Mori, A. Iwata, H. Ikeda
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引用次数: 3
摘要
提出了一种电感负载驻波时钟振荡器。通过将振荡器耦合到网状结构中,可以在整个芯片上分布多个10ghz的均匀相位/振幅全局时钟。在网格结构中,可以采用比传统驻波技术更精细的网格,使得时钟树的深度很浅。我们设计并制造了一个17.2GHz的振荡器,采用0.18 μ m 6金属CMOS技术。在400mum传输线上实现了时钟周期小于0.2%的低抖动,比传统传输线低1/10。在1.8V供电电压下,功耗为13mW
17GHz Fine Grid Clock Distribution with Uniform-Amplitude Standing-Wave Oscillator
This paper presents an inductive-loaded standing-wave clock oscillator. By coupling the oscillators into mesh structure, multi-ten GHz uniform-phase/amplitude global clocks can be distributed over a whole chip. In the mesh structure, finer grid can be employed than the conventional standing-wave technique, and it makes the depth of clock tree very shallow. We designed and fabricated a 17.2GHz oscillator in a 0.18mum 6 metal CMOS technology. Low jitter less than 0.2% of the clock period has been achieved with 400mum transmission line that was less than 1/10 of the conventional one. The power consumption was 13mW at 1.8V supply voltage