AI Article Synopsis

  • Dr. Arthur Popper is a biologist with a long career focused on fish inner ear anatomy and the effects of underwater noise on aquatic life.
  • His research has covered at least 19 types of vertebrates, including species from lamprey to humans, significantly shaping the field of fish bioacoustics.
  • The biography outlines his key discoveries in fish hearing and indicates ongoing questions in the biological sciences he aims to address.

Article Abstract

Biologist Dr. Arthur Popper's career spans decades, from his early work on comparative inner ear morphology in fishes to his recent interest in how underwater noise impacts aquatic vertebrates. Along the way Dr. Popper's research subjects span at least 19 vertebrate taxa, from lamprey to lungfish to humans, and he's had a profound influence in the field of fish bioacoustics. This brief biography describes some of Dr. Popper's many contributions to fish hearing research and highlights both some of his major discoveries and some of the biological mysteries he has yet to solve.

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http://dx.doi.org/10.1007/978-3-319-21059-9_1DOI Listing

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Article Synopsis
  • Dr. Arthur Popper is a biologist with a long career focused on fish inner ear anatomy and the effects of underwater noise on aquatic life.
  • His research has covered at least 19 types of vertebrates, including species from lamprey to humans, significantly shaping the field of fish bioacoustics.
  • The biography outlines his key discoveries in fish hearing and indicates ongoing questions in the biological sciences he aims to address.
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Ribbon synapses: anchors away for a fishy tale.

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February 2005

MRC Laboratory of Molecular Biology, Hills Road, Cambridge CB2 2QH, UK.

Genetic screens in flies and worms have long been a powerful way of identifying proteins that regulate synaptic transmission. A recent study of ribbon synapses in the retina of zebrafish is an excellent example of how this approach can now be applied to a vertebrate species.

View Article and Find Full Text PDF

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