Abstract
The plainfin midshipman fish (Porichthys notatus) is a well-studied model to understand the neural and endocrine mechanisms underlying vocal-acoustic communication across vertebrates. It is well established that steroid hormones such as estrogen drive seasonal peripheral auditory plasticity in female Porichthys in order to better encode the male’s advertisement call. However, little is known of the neural substrates that underlie the motivation and coordinated behavioral response to auditory social signals. Catecholamines, which include dopamine and noradrenaline, are good candidates for this function, as they are thought to modulate the salience of and reinforce appropriate behavior to socially relevant stimuli. This chapter summarizes our recent studies which aimed to characterize catecholamine innervation in the central and peripheral auditory system of Porichthys as well as test the hypotheses that innervation of the auditory system is seasonally plastic and catecholaminergic neurons are activated in response to conspecific vocalizations. Of particular significance is the discovery of direct dopaminergic innervation of the saccule, the main hearing end organ, by neurons in the diencephalon, which also robustly innervate the cholinergic auditory efferent nucleus in the hindbrain. Seasonal changes in dopamine innervation in both these areas appear dependent on reproductive state in females and may ultimately function to modulate the sensitivity of the peripheral auditory system as an adaptation to the seasonally changing soundscape. Diencephalic dopaminergic neurons are indeed active in response to exposure to midshipman vocalizations and are in a perfect position to integrate the detection and appropriate motor response to conspecific acoustic signals for successful reproduction.
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Acknowledgements
In terms of producing numerous foundational studies of fish auditory end organs at the morphological and functional level, Art Popper is truly a pioneer and set the groundwork for many of us interested in fish hearing. Work from Art’s lab is inspirational in terms of scope and diversity of species that have been studied. PMF had the pleasure of getting to know Dick Fay personally during a summer spent at the Marine Biological Laboratory in Woods Hole, MA while collaborating with him and JAS. Dick’s insights and contributions into the physiology, anatomy and behavior of hearing in fishes cannot be overstated. It was an honor to work with and learn from him on a daily basis as Dick is exemplary in his patience, kindness, and generosity on a scientific and personal level.
Although JAS never had the opportunity to work with Art Popper, JAS has been greatly influenced by Art’s research and career, and recently JAS has had to pleasure of co-organizing a major conference on the effects of noise on fish and aquatic life which has been a great experience. Art has been a great mentor and very generous with his time as he truly cares for the next generation of fish bioacoustic scientists. Dick Fay has always been a “gentlemen” scientist and JAS has been the fortunate recipient of his mentorship during a critical period of JAS’s pre-tenure career. JAS is truly grateful for his friendship, advice, and great many discussions of fish hearing and auditory physiology.
We thank the numerous students from both the Forlano and Sisneros lab that contributed to studies described here, Midge Marchaterre for assistance with animal collections and Jonathan Perelmuter for help with figure 7. We also thank Carol Vines, Gary Cherr, Kitty Brown, and staff at the Bodega Marine Laboratory and Rob Dickie of AREAC, Brooklyn College for logistical support. This work was supported by NIH SC2DA034996 to PMF, National Science Foundation IOS-0642214 to JAS, PSC-CUNY Awards 64519-00 42 and 65650-00 43 jointly funded by The Professional Staff Congress and The City University of New York to PMF, Leonard and Claire Tow Travel Award to PMF and Brooklyn College and CUNY Research Foundation. Work conducted at the Marine Biological Laboratory, Woods Hole, MA was partially supported by MBL Faculty Research Fellowships to PMF and JAS.
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Forlano, P.M., Sisneros, J.A. (2016). Neuroanatomical Evidence for Catecholamines as Modulators of Audition and Acoustic Behavior in a Vocal Teleost. In: Sisneros, J. (eds) Fish Hearing and Bioacoustics. Advances in Experimental Medicine and Biology, vol 877. Springer, Cham. https://doi.org/10.1007/978-3-319-21059-9_19
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