A Self-Oscillating boosting amplifier with adaptive soft switching control for piezoelectric transducers

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    Abstract

    This paper describes the design of a high-voltage amplifier for a piezoelectric transducer used in underwater communication applications, which incorporates boosting and signal generation within a single boost converter stage improving the total efficiency of the system. The proposed architecture combines hysteretic ripple current-mode control with an adaptive soft switching technique to achieve improved power efficiency over the full output power range. This is achieved by dynamically controlling the inductor current ripple to keep the converter running in soft switching. The feedback control and the soft switching regulation are implemented in a 0:25 μm 60V TSMC process with an external power stage. The system achieves a peak efficiency of 85% at 20W of output power up to 30kHz signal frequency.
    Original languageEnglish
    Pages (from-to)253-265
    Number of pages13
    JournalIEEE journal of solid-state circuits
    Volume54
    Issue number1
    DOIs
    Publication statusPublished - 1 Jan 2019

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    Piezoelectric transducers
    Feedback control
    Communication
    Electric potential

    Cite this

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    title = "A Self-Oscillating boosting amplifier with adaptive soft switching control for piezoelectric transducers",
    abstract = "This paper describes the design of a high-voltage amplifier for a piezoelectric transducer used in underwater communication applications, which incorporates boosting and signal generation within a single boost converter stage improving the total efficiency of the system. The proposed architecture combines hysteretic ripple current-mode control with an adaptive soft switching technique to achieve improved power efficiency over the full output power range. This is achieved by dynamically controlling the inductor current ripple to keep the converter running in soft switching. The feedback control and the soft switching regulation are implemented in a 0:25 μm 60V TSMC process with an external power stage. The system achieves a peak efficiency of 85{\%} at 20W of output power up to 30kHz signal frequency.",
    author = "S. Amir and {van der Zee}, {Ronan A.R.} and Bram Nauta",
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    A Self-Oscillating boosting amplifier with adaptive soft switching control for piezoelectric transducers. / Amir, S.; van der Zee, Ronan A.R.; Nauta, Bram .

    In: IEEE journal of solid-state circuits, Vol. 54, No. 1, 01.01.2019, p. 253-265.

    Research output: Contribution to journalArticleAcademicpeer-review

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    AB - This paper describes the design of a high-voltage amplifier for a piezoelectric transducer used in underwater communication applications, which incorporates boosting and signal generation within a single boost converter stage improving the total efficiency of the system. The proposed architecture combines hysteretic ripple current-mode control with an adaptive soft switching technique to achieve improved power efficiency over the full output power range. This is achieved by dynamically controlling the inductor current ripple to keep the converter running in soft switching. The feedback control and the soft switching regulation are implemented in a 0:25 μm 60V TSMC process with an external power stage. The system achieves a peak efficiency of 85% at 20W of output power up to 30kHz signal frequency.

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