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辐鳍鱼类是脊椎动物中最大的类群,其形态、种类和生活习性均表现出极高的多样性。脑是鱼体内重要的神经内分泌中枢、感觉神经中枢和运动中枢,调控着鱼类各项复杂的生理功能和行为,研究鱼脑的结构分区可为鱼脑的功能区域化研究提供理论依据。辐鳍鱼脑沿袭了脊椎动物保守的发育模式:脑起源于神经管前端的3个突起,即前脑、中脑、后脑,进而分化为各脑区。在此过程中,神经管内不同的信号中心表达特定的形态因子诱导了脑区的定向分化,这些因子可作为鉴定脑区的重要分子学证据。但辐鳍鱼脑并非是四足动物脑的简单版本,在与四足动物祖先进化分离后数亿年的过程中,辐鳍鱼脑既保留了保守的发生方式和神经连接,也衍化出了独特的形态构造和多样化的生理功能。目前,辐鳍鱼类端脑和间脑脑区的同源性仍存争议,筛选和定位脑区标志性的形态因子仍然是研究辐鳍鱼脑分区的主要手段。在此基础之上,未来还需要进一步丰富研究的技术手段,从多领域、多角度深化辐鳍鱼脑的研究,探索脑区结构与生理功能之间的联系。
Abstract：Ray-finned fish species, the largest group of vertebrates, exhibit a tremendous diversity in shape, species and ways of life. The brains of ray-fined fish species are the nerve center of neuroendocrine, somatic sensation and motor coordination, which regulate kinds of complex physiological functions and behaviors. The study of brain regions can provide a theoretical basis for function division. Brains of ray-finned fish species are built according to the conservative developmental pattern of the vertebrate brains. The brain originates from three swellings at the front end of the neural tube, which eventually develops into the prosencephalon, mesencephalon and rhombencephalon, respectively. Finally, they divide into all brain regions. In this process, different signaling centers of the neural tube express specific morphogens, inducing the orientated differentiation of brain regions. These morphogens can be used as a significant molecular evidence of brain region identification. However, the brain of ray-finned fish is not just a simple version of that of mammal. Though the brains of ray-finned fish species follow the conservative patterns of organization and neural connections. Their brains contain some unique morphology structures and diversified physiological functions after they split from primitive tetrapods. The homology of telencephalon and diencephalon of ray-finned fish is still debatable so far, and it is still a main method to sift and identify specific transcription factors of brain regions. On this basis, more techniques will be required for further studies of brain of ray-finned fish in various areas and multiple perspectives to explore the correlation between brain region structures and physiological functions.
[1] Betancur R R,Wiley E O,Arratia G,et al.Phylogenetic classification of bony fishes[J].BMC Evolutionary Biology,2017,17(1):162.
[2] Nelson J S,Grande T C,Wilson M V.Fishes of the World[M].Toronto:John Wiley & Sons,2016.
[3] Takezaki N.Global rate variation in bony vertebrates[J].Genome Biology and Evolution,2018,10(7):1803-1815.
[4] Watanabe S,Hofman M A,Shimizu T.Evolution of the Brain,Cognition,and Emotion in Vertebrates[M].Berlin:Springer,2017.
[5] Peter R E,Gill V E.A stereotaxic atlas and technique for forebrain nuclei of the goldfish,Carassius auratus[J].Journal of Comparative Neurology,1975,159(1):69-101.
[6] Peter R E,Macey M J,Gill V E.A stereotaxic atlas and technique for forebrain nuclei of the killifish,Fundulus heteroclitus[J].Journal of Comparative Neurology,1975,159(1):103-127.
[7] Kah O,Dubourg P,Onteniente B,et al.The dopaminergic innervation of the goldfish pituitary[J].Cell and Tissue Research,1986,244(3):577-582.
[8] Kah O,Chambolle P.Serotonin in the brain of the goldfish,Carassius auratus[J].Cell and Tissue Research,1983,234(2):319-333.
[9] Anglade I,Zandbergen T,Kah O.Origin of the pituitary innervation in the goldfish[J].Cell and Tissue Research,1993,273(2):345-355.
[10] Echevarria D,Vieira C,Gimeno L,et al.Neuroepithelial secondary organizers and cell fate specification in the developing brain[J].Brain Research Reviews,2003,43(2):179-191.
[11] Vieira C,Pombero A,Garcia-Lopez R,et al.Molecular mechanisms controlling brain development:An overview of neuroepithelial secondary organizers[J].International Journal of Developmental Biology,2009,54(1):7-20.
[12] Cavodeassi F,Houart C.Brain regionalization:Of signaling centers and boundaries[J].Developmental Neurobiology,2012,72(3):218-233.
[13] Pani A M,Mullarkey E E,Aronowicz J,et al.Ancient deuterostome origins of vertebrate brain signalling centres[J].Nature,2012,483(7389):289-294.
[14] 陈微.斑马鱼脑组织结构特性研究[D].南京：南京农业大学，2015.Chen W.Study on Structural Characteristics of Zebrafish Brain[D].Nanjing:Nanjing Agricultural University,2015.
[15] Bally Cuif L,Vernier P.Organization and physiology of the zebrafish nervous system[J].Fish Physiology,2010,29:25-80.
[16] Harrington M J,Hong E,Brewster R.Comparative analysis of neurulation:First impressions do not count[J].Molecular Reproduction and Development,2009,76(10):954-965.
[17] Puelles L,Rubenstein J L R.A new scenario of hypothalamic organization:Rationale of new hypotheses introduced in the updated prosomeric model[J].Frontiers in Neuroanatomy,2015,9:27.
[18] Yamamoto K,Bloch S,Vernier P.New perspective on the regionalization of the anterior forebrain in Osteichthyes[J].Development,Growth & Differentiation,2017,59(4):175-187.
[19] Moreno N,González A.The non-evaginated secondary prosencephalon of vertebrates[J].Frontiers in Neuroanatomy,2011,5:12.
[20] Wullimann M,Mueller T,Distel M,et al.The long adventurous journey of rhombic lip cells in jawed vertebrates:A comparative developmental analysis[J].Frontiers in Neuroanatomy,2011,5:27.
[21] Bloch S,Thomas M,Colin I,et al.Mesencephalic origin of the inferior lobe in zebrafish[J].BMC Biology,2019,17(1):22.
[22] Bourne G.The Structure and Function of Nervous Tissue V2:Structure I[M].Amsterdam:Elsevier,2012.
[23] Lowery L A,Sive H.Totally tubular:The mystery behind function and origin of the brain ventricular system[J].BioEssays,2009,31(4):446-458.
[24] Penisson M,Ladewig J,Belvindrah R,et al.Genes and mechanisms involved in the generation and amplification of basal radial glial cells[J].Frontiers in Cellular Neuroscience,2019,13:381.
[25] Ringers C,Olstad E W,Jurisch Yaksi N.The role of motile cilia in the development and physiology of the nervous system[J].Philosophical Transactions of the Royal Society B:Biological Sciences,2020,375(1792):20190156.
[26] Xavier A L,Fontaine R,Bloch S,et al.Comparative analysis of monoaminergic cerebrospinal fluid-contacting cells in Osteichthyes (bony vertebrates)[J].Journal of Comparative Neurology,2017,525(9):2265-2283.
[27] Korzh V.Development of brain ventricular system[J].Cellular and Molecular Life Sciences,2018,75(3):375-383.
[28] Turner M H,Ullmann J F P,Kay A R.A method for detecting molecular transport within the cerebral ventricles of live zebrafish (Danio rerio) larvae[J].The Journal of Physiology,2012,590(10):2233-2240.
[29] Osakada F,Hirami Y,Takahashi M.Stem cell biology and cell transplantation therapy in the retina[J].Biotechnology and Genetic Engineering Reviews,2009,26(1):297-334.
[30] Briscoe S D,Ragsdale C W.Evolution of the chordate telencephalon[J].Current Biology,2019,29(13):647-662.
[31] Bernier N J,Van Der Kraak G,Farrell A P,et al.Fish Physiology:Fish Neuroendocrinology[M].New York:Academic Press,2009.
[32] Mueller T.What is the thalamus in zebrafish?[J].Frontiers in Neuroscience,2012,6:64.
[33] Yamamoto N,Ishikawa Y,Yoshimoto M,et al.A new interpretation on the homology of the teleostean telencephalon based on hodology and a new eversion model[J].Brain,Behavior and Evolution,2007,69(2):96-104.
[34] Northcutt R G.Forebrain evolution in bony fishes[J].Brain Research Bulletin,2008,75(2):191-205.
[35] Rodriguez F,López J C,Vargas J P,et al.Conservation of spatial memory function in the pallial forebrain of reptiles and ray-finned fishes[J].Journal of Neuroscience,2002,22(7):2894-2903.
[36] Portavella M,Torres B,Salas C.Avoidance response in goldfish:Emotional and temporal involvement of medial and lateral telencephalic pallium[J].Journal of Neuroscience,2004,24(9):2335-2342.
[37] Ito H,Yamamoto N.Non-laminar cerebral cortex in teleost fishes?[J].Biology Letters,2008,5:117-121.
[38] Affaticati P,Yamamoto K,Rizzi B,et al.Identification of the optic recess region as a morphogenetic entity in the zebrafish forebrain[J].Scientific Reports,2015,5(1):8738.
[39] Sinn R,Wittbrodt J.An eye on eye development[J].Mechanisms of Development,2013,130(6):347-358.
[40] Ferran J L,Puelles L.Lessons from amphioxus bauplan about origin of cranial nerves of vertebrates that innervates extrinsic eye muscles[J].The Anatomical Record,2019,302(3):452-462.
[41] Golan M,Hollander Cohen L,Levavi Sivan B.Stellate cell networks in the teleost pituitary[J].Scientific Reports,2016,6(1):24426.
[42] 温海深，高玲，李文阁.硬骨鱼类神经内分泌-免疫网络及其调控研究[J].中国海洋大学学报(自然科学版),2006,36(1):60-64.Wen H S,Gao L,Li W G.Studies on the neur-endocrin-immunoregulatory network (N-E-IN) and its regulation/control mechanism in teleosts[J].Periodical of Ocean University of China,2006,36(1):60-64.
[43] Tsuneki K.A systematic survey of the occurrence of the hypothalamic saccus vasculosus in teleost fish[J].Acta Zoologica,1992,73(1):67-77.
[44] Maeda R,Shimo T,Nakane Y,et al.Ontogeny of the saccus vasculosus,a seasonal sensor in fish[J].Endocrinology,2015,156(11):4238-4243.
[45] Nakane Y,Ikegami K,Iigo M,et al.The saccus vasculosus of fish is a sensor of seasonal changes in day length[J].Nature Communications,2013,4(1):2108.
[46] Muto A,Lal P,Ailani D,et al.Activation of the hypothalamic feeding centre upon visual prey detection[J].Nature Communications,2017,8(1):15029.
[47] Yamamoto N,Ito H.Visual,lateral line,and auditory ascending pathways to the dorsal telencephalic area through the rostrolateral region of the lateral preglomerular nucleus in cyprinids[J].Journal of Comparative Neurology,2008,508(4):615-647.
[48] Yang C Y,Xue H G,Yoshimoto M,et al.Fiber connections of the corpus glomerulosum pars rotunda,with special reference to efferent projection pattern to the inferior lobe in a percomorph teleost,tilapia (Oreochromis niloticus)[J].Journal of Comparative Neurology,2007,501(4):582-607.
[49] Rink E,Wullimann M F.Some forebrain connections of the gustatory system in the goldfish Carassius auratus visualized by separate DiI application to the hypothalamic inferior lobe and the torus lateralis[J].Journal of Comparative Neurology,1998,394(2):152-170.
[50] Farrell A P.Encylopedia of Fish Physiology:From Genome to Environment[M].New York:Academic Press,2011.
[51] Kittelberger J M,Bass A H.Vocal-motor and auditory connectivity of the midbrain periaqueductal gray in a teleost fish[J].Journal of Comparative Neurology,2013,521(4):791-812.
[52] Gruol D L,Koibuchi N,Manto M,et al.Essentials of Cerebellum and Cerebellar Disorders[M].Berlin:Springer,2016.
[53] Buckner R L.The cerebellum and cognitive function:25 years of insight from anatomy and neuroimaging[J].Neuron,2013,80(3):807-815.
[54] Hibi M,Shimizu T.Development of the cerebellum and cerebellar neural circuits[J].Developmental Neurobiology,2012,72(3):282-301.
[55] Hibi M,Matsuda K,Takeuchi M,et al.Evolutionary mechanisms that generate morphology and neural-circuit diversity of the cerebellum[J].Development,Growth & Differentiation,2017,59(4):228-243.
[56] Matsui H,Namikawa K,Babaryka A,et al.Functional regionalization of the teleost cerebellum analyzed in vivo[J].Proceedings of the National Academy of Sciences,2014,111(32):11846.
[57] Dohaku R,Yamaguchi M,Yamamoto N,et al.Tracing of afferent connections in the zebrafish cerebellum using recombinant rabies virus[J].Frontiers in Neural Circuits,2019,13:30.
[58] Nieuwenhuys R.The structural,functional,and molecular organization of the brainstem[J].Frontiers in Neuroanatomy,2011,5:33.
[59] Nilsson S.Autonomic Nerve Function in the Vertebrates[M].Berlin:Springer Science & Business Media,2012.
基本信息:
中图分类号:S917.4
引用信息:
[1]温海深,王孝杰.辐鳍鱼脑的发生、分化及生理功能研究综述[J],2021,51(07):1-10.
基金信息:
国家自然科学基金项目(41676216)资助~~