Fully active and highly reliable combined ring voltage controlled CMOS oscillator

Ilghar Rezaei , Ava Salmanpour , Ali Soldoozy , Toktam Aghaee
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Abstract

Leveraging two types of enhanced delay stages to form an oscillation loop, results in a highly reliable CMOS ring oscillator versus external interventions. The idea is investigated via symbolic delay calculations and the HSPICE circuit simulator while 0.18 μm CMOS is exploited. Based on two described inverters, three-ring oscillators are presented. The two ones use only one type of delay stage while the third is combined using two basic inverters and a single current-starved inverter. The basic type inverter is the fastest while is sensitive to power supply and temperature variations. On the other hand, the sensitivity of the current starved inverter is acceptable but this delay stage shows a large delay time, reducing oscillation frequency. This work tries to address this tradeoff between speed and sensitivity by proposing an oscillation loop. The delay times analysis and simulation results verify the robust performance of the proposed oscillator.

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全主动、高可靠性组合式环形压控 CMOS 振荡器
利用两种类型的增强型延迟级形成一个振荡回路,从而产生了一种相对于外部干预的高可靠性 CMOS 环形振荡器。我们通过符号延迟计算和 HSPICE 电路模拟器对这一想法进行了研究,同时采用了 0.18 μm CMOS。在两个所述逆变器的基础上,提出了三环振荡器。其中两种只使用一种延迟级,而第三种则结合使用了两个基本型逆变器和一个单电流限制型逆变器。基本型逆变器速度最快,但对电源和温度变化比较敏感。另一方面,电流饥渴型逆变器的灵敏度可以接受,但这种延迟级的延迟时间较长,从而降低了振荡频率。这项工作试图通过提出一个振荡回路来解决速度和灵敏度之间的权衡问题。延迟时间分析和仿真结果验证了所提振荡器的稳健性能。
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