Biology, Management, and Experimental Protocols, by Kenji Murata

Medaka
Biology, Management, and Experimental Protocols

Volume 2

Edited by

Chief Editors

Kenji Murata

University of California, Davis, CA, USA

 

Masato Kinoshita

Kyoto University, Sakyo-ku, Kyoto, Japan

 

Kiyoshi Naruse

National Institute for Basic Biology, Okazaki, Aichi, Japan

 

Editors

Minoru Tanaka

Nagoya University, Nagoya, Aichi, Japan

 

Yasuhiro Kamei

National Institute for Basic Biology, Okazaki, Aichi, Japan

 

Wiley Logo

List of Contributors

  • Satoshi Ansai
  • Laboratory of Bioresources,
  • National Institute for Basic Biology,
  • Japan

 

  • Doris W.T. Au
  • State Key Laboratory of Marine Pollution, Department of Chemistry,
  • City University of Hong Kong,
  • Hong Kong

 

  • Napo K.M. Cheung
  • State Key Laboratory of Marine Pollution, Department of Chemistry,
  • City University of Hong Kong,
  • Hong Kong

 

  • Michael W.L. Chiang
  • State Key Laboratory of Marine Pollution, Department of Chemistry, City University of Hong Kong,
  • Hong Kong

 

  • Shin‐ich Chisada
  • Department of Preventive Medicine and Public Health,
  • Kyorin University, School of Medicine,
  • Japan

 

  • Tomonori Deguchi
  • Biomedical Research Institute, National Institute of Advanced Industrial Science and Technology,
  • Japan

 

  • Misato Fujita
  • Department of Biological Sciences,
  • Faculty of Science, Kanagawa University,
  • Japan

 

  • Shoji Fukamachi
  • Laboratory of Evolutionary Genetics,
  • Department of Chemical and Biological Sciences, Japan Women’s University,
  • Japan

 

  • Hisashi Hashimoto
  • Bioscience and Biotechnology Center, Nagoya University,
  • Japan

 

  • Narisato Hirai
  • National Research Institute of Fisheries and Environment of Inland Sea, Japan Fisheries Research and Education Agency,
  • Japan

 

  • Taisen Iguchi
  • Nanobioscience, Yokohama City University,
  • Japan

 

  • Masayuki Iigo
  • Department of Applied Biological Chemistry, Faculty of Agriculture,
  • Utsunomiya University,
  • Japan

 

  • Keiji Inohaya
  • School of Life Science and Technology, Tokyo Institute of Technology,
  • Japan

 

  • Yuji Ishikawa
  • Neurobiology Lab,
  • Japan

 

  • Yasuko Isoe
  • Graduate School of Natural Science and Technology,
  • Okayama University,
  • Japan

 

  • Ichiro Iuchi
  • Department of Materials and Life Sciences, Faculty of Science and Technology,
  • Sophia University,
  • Japan

 

  • Norimasa Iwanami
  • Department of Regenerative Medicine, National Center for Geriatrics and Gerontology,
  • Japan

 

  • Eri Iwata
  • Laboratory of Veterinary Ethology,
  • Faculty of Veterinary Medicine, Okayama University of Science,
  • Japan

 

  • Yasuhiro Kamei
  • Spectrography and Bioimaging Facility, NIBB Core Facilities,
  • National Institute for Basic Biology,
  • Japan

 

  • Sakurako Kamide
  • Laboratory of Aquatic Biology,
  • Department of Natural Sciences,
  • International Christian University,
  • Japan

 

  • Takashi Kawasaki
  • Medical and Biological Engineering Research Group,
  • Biomedical Research Institute, National Institute of Advanced Industrial Science and Technology (AIST),
  • Japan

 

  • Fumi Kezuka
  • Department of Aquatic Biosciences,
  • Tokyo University of Marine Science and Technology,
  • Japan

 

  • Masato Kinoshita
  • Department of Applied Biosciences, Graduate School of Agriculture,
  • Kyoto University,
  • Japan

 

  • Shin‐ichi Kitamura
  • Centre for Marine Environmental Studies,
  • Ehime University,
  • Japan

 

  • Daisuke Kobayashi
  • Department of Anatomy and Developmental Biology,
  • Kyoto Prefecture University of Medicine,
  • Japan

 

  • Makito Kobayashi
  • Laboratory of Aquatic Biology,
  • Department of Natural Sciences,
  • International Christian University,
  • Japan

 

  • Akira Kudo
  • International Frontier, Tokyo Institute of Technology,
  • Japan

 

  • Seth W. Kullman
  • Department of Biological Sciences,
  • North Carolina State University,
  • USA

 

  • Rie Kusakabe
  • Laboratory for Evolutionary Morphology,
  • RIKEN Center for Biosystems Dynamics Research,
  • Japan

 

  • Sungki Lee
  • Biological and Genetic Resources Assessment Division,
  • National Institute of Biological Resources,
  • South Korea

 

  • Kouichi Maruyama
  • National Institute of Radiological Sciences, National Institutes for Quantum and Radiological Science and Technology,
  • Japan

 

  • Shinichi Miyagawa
  • Department of Biological Science and Technology,
  • Faculty of Industrial Science and Technology, Tokyo University of Science,
  • Japan

 

  • Helen O.L. Mok
  • State Key Laboratory of Marine Pollution, Department of Biomedical Science,
  • City University of Hong Kong,
  • Hong Kong

 

  • Yu Murakami
  • Department of Applied Biosciences, Graduate School of Agriculture,
  • Kyoto University,
  • Japan

 

  • Kenji Murata
  • Center for Health and the Environment,
  • University of California Davis,
  • USA

 

  • Yuki Nakatani
  • Department of Biological Sciences,
  • Tokyo Institute of Technology,
  • Japan

 

  • Kiyoshi Naruse
  • Laboratory of Bioresources,
  • National Institute for Basic Biology,
  • Japan

 

  • Yukiko Ogino
  • Centre for Promotion of International Education and Research, Faculty of Agriculture,
  • Kyushu University,
  • Japan

 

  • Kataaki Okubo
  • Department of Aquatic Bioscience,
  • Graduate School of Agricultural and Life Sciences, University of Tokyo,
  • Japan

 

  • Drew R. Reterson
  • State Key Laboratory of Marine Pollution,
  • Department of Chemistry,
  • City University of Hong Kong,
  • Hong Kong

 

  • Daisuke Saito
  • Research Center for Systems Immunology,
  • Kyushu University,
  • Japan

 

  • Anthony Sèbillot
  • Département Adaptations du vivant,
  • "Évolution des régulations endocriniennes", Muséum National d’Histoire Naturelle,
  • France

 

  • Shinsuke Seki
  • Bioscience Education and Research Support Center,
  • Akita University,
  • Japan

 

  • Eriko Shimada
  • Laboratory of Cell Biology,
  • Cellevolt,
  • Japan

 

  • Ai Shinomiya
  • Division of Seasonal Biology,
  • National Institute for Basic Biology,
  • Japan

 

  • Ian T. Stancil
  • Department of Biological Sciences,
  • North Carolina State University,
  • USA

 

  • Yoshiro Takano
  • Department of Cell Biology and Neuroscience,
  • Juntendo University School of Medicine,
  • Japan

 

  • Yusuke Takehana
  • Department of Animal Bioscience,
  • Nagahama Institute of Bio‐Science and Technology,
  • Japan

 

  • Minoru Tanaka
  • Division of Biological Science,
  • Nagoya University,
  • Japan

 

  • Yoshihito Taniguchi
  • Department of Preventive Medicine and Public Health,
  • School of Medicine, Kyorin University,
  • Japan

 

  • Norihisa Tatarazako
  • Graduate School of Agriculture, Department of Science and Technology for Biological Resources and Environment,
  • Ehime University,
  • Japan

 

  • Yuko Wakamatsu
  • Physiological Chemistry I, Biocenter,
  • University of Würzburg,
  • Germany

 

  • AtLee T.D. Watson
  • Department of Biological Sciences,
  • North Carolina State University,
  • USA

 

  • Joachim Wittbrodt
  • COS Heidelberg, Heidelberg University,
  • Germany

 

  • Rudolf S.S. Wu
  • Department of Science and Environmental Studies,
  • Education University of Hong Kong,
  • Hong Kong

 

  • Kazunori Yamahira
  • Tropical Biosphere Research Center,
  • University of the Ryukyus,
  • Japan

 

  • Shigeki Yasumasu
  • Department of Materials and Life Sciences, Faculity of Science and Technology,
  • Sophia University,
  • Japan

 

  • Ryohei Yatsu
  • Department of Integrative Biology,
  • University of Texas,
  • USA

 

  • Roy R. Ye
  • State Key Laboratory of Marine Pollution, Department of Chemistry,
  • City University of Hong Kong,
  • Hong Kong

 

  • Bill W.P. Yip
  • State Key Laboratory of Marine Pollution, Department of Chemistry,
  • City University of Hong Kong,
  • Hong Kong

 

  • Hiroki Yoda
  • Developmental Biology Unit,
  • European Molecular Biology Laboratory,
  • Germany

 

  • Hirofumi Yokota
  • Department of Biosphere Sciences,
  • School of Human Sciences, Kobe College,
  • Japan

 

  • Goro Yoshizaki
  • Department of Aquatic Biosciences,
  • Tokyo University of Marine Science and Technology,
  • Japan

Preface

Ten years after publishing our first book (Volume 1) in 2009, this second book (Volume 2) of Medaka: Biology, Management, and Experimental Protocols presents significant progress in technological innovation and development in the fields of biological and medical science. The purpose of Volume 2 is to familiarize scientists worldwide with the advantages of using medaka in experimental designs, to facilitate research using medaka, and address the value to science of adopting medaka as a model animal.

In Volume 2, the authors provide additional information and current protocols that have been recently developed, or modified, to successfully raise medaka under stable laboratory culture conditions and how to use medaka as a model animal. This Volume 2 describes new technologies developed after 2009, using the fish as a molecular tool in the fields of life science, evolution, ecology, and toxicology. It provides an informational bridge that spans the varied research disciplines and abilities ranging from undergraduate education through senior researchers.

Contributing authors were chosen because of their expertise and demonstrated ability to conduct experiments involving medaka, and because they are recognized pioneers in the use of medaka as a model animal in their scientific fields. The authors were also asked to describe their experimental protocols in detail, and explain their rationale for the chosen protocols in achieving their conceptual goals. The editors also recommend that users read the procedures described in the first edition that describe the maintenance of medaka, and use that information to create or modify the current fish maintenance systems.

Chapter 1: Dr. Chisada and colleagues describe contemporary procedures used to maintain medaka in culture facilities.

Chapter 2: This chapter covers the current phylogenetic relationship of medaka and other Oryzias species, and the geographical distributions of each species. In this chapter, Dr. Naruse and colleagues also describe and update the present status of medaka resources available through the National Bio‐Resource Project Medaka (NBRP Medaka) that has been supported by the Japanese government since 2002.

Chapters 3 and 4 introduce the reader to the medaka fish: Chapter 3 covers general information about adult medaka, including secondary sexual characters, body color, and internal organs. Section 3.2, “Anatomy and Histology,” provides details of the nervous system, endocrine system, kidneys, and gonads. Chapter 4 covers the characteristics of the developing embryos. It includes brief outlines of the development of the fish's organs and tissues, with an emphasis on histology rather than developmental mechanisms. Chapter 4 also discusses the basic procedures for preparing and mounting embryos, and performing in situ hybridization. These similar chapters appear as Chapter 5 and 6 in Volume1; however, the authors retained the material in Chapter 3 and 4 of volume2, because of the importance of the information.

To address medaka reproduction, two groups of researchers were chosen to describe procedures and applications for the preservation of genetic resources of the fish, and for the fish's reproductive ecology.

Chapter 5: Dr. Kobayashi and colleagues, experts on wild medaka fish, address sexual behavior and reproduction of wild populations of medaka. The chapter's focus is on wild populations as opposed to laboratory‐maintained fish.

Chapter 6: Dr. Kezuka and colleagues introduce methods of cryopreservation of whole fish testes, the preparation of testicular cell suspension, and testicular cell transplantation into recipient fish. This method will potentially contribute not only to saving and recovering populations of endangered species, but also to increasing the numbers of commercially important, high‐quality food fishes.

Since publication of the first Volume, new technologies using medaka have been developed and these advances contribute to the identification and function of genes and their products in the body. Two useful technologies are addressed as follows:

Chapter 7: In this chapter, Dr. Ansai and colleagues describe recent developments and progress in the amazing application of molecular biology used in gene editing using medaka. They address the basic theory and applications used to create and apply the establishment of transgenic, gene knock‐out medaka, and conditional knock‐out medaka.

Chapter 8: In this chapter, Drs. Isoe and Kamei describe newly developed technology using medaka and the infrared laser‐evoked gene operator (IR‐LEGO) system. They explain how to use the system not only for research using medaka, but also with cultured cells and plants. The authors also address how to analyze the function of genes in vivo, in developmental biology and related fields, and the development of a new microscopic technology used to control the expression of genes using the combination of the heat shock promoter system and an infrared laser, by focusing on the targeted cells.

Chapters 9–12 introduce the use of medaka in the fields of toxicology and medicine; and address recently developed methodologies and new technologies.

Chapter 9: Dr. Iguchi and colleagues describe several test guidelines used by the Organization of Economic Cooperation and Development (OECD) employing medaka in standardized testing methods to screen and/or access potential endocrine‐disrupting chemicals, and how the fish is used to identify adverse effects of toxic chemicals. They also describe how toxicologists are using medaka to assess hazardous chemicals in both drinking water and sewage effluent, and to identify endocrine disruptors in natural waters. The authors address endocrine disruptors, not only restricted to chemicals with estrogenic activities but also those with androgenic activities. Dr. Ogino and colleagues also describe the use of medaka to detect androgenic and antiandrogenic chemicals.

Chapter 10: This chapter introduces the basic biology of the marine medaka, Oryzias melastigma (McClelland), and how its use has been applied to research in marine ecotoxicology. Dr. Peterson and colleagues describe the fish's biological characterization, how to maintain the species in the laboratory, and how to use it in research on marine ecotoxicology.

Chapter 11: Dr. Au and colleagues, experts in telomere biology using medaka, introduce their SOPs and procedures, which have great potential for research in the fields of toxicology, senescence, and aging. They address medaka as a unique, alternative vertebrate model for studying telomere and telomerase function in a cross‐disciplinary range from environmental toxicology to biomedical research on aging, as well as for cancer and tissue regeneration research.

Chapter 12: Dr. Watson and colleagues describe the application of medaka in research on human skeletal biology and toxicity and as a human disease model.

The format of Volume 2 is designed to capture the thoughts and methods of researchers that use medaka as a model animal and to make this expertise accessible to students, beginning researchers, and senior researchers who might become intrigued with using medaka as the model animal in their own work. To accomplish this, and following a reading of Volume 1, the reader is given step‐by step specifics for each protocol that allows application of the fish in their own work. The information includes specific information to facilitate ease of adoption, including details such as reagents used, instrumentation, and other essential requirements. It is anticipated that this highly practical format will encourage the reader to use medaka as a model animal and permit the reader to bring new concepts into personal practice in a more efficient manner.

The use of medaka fish as a model animal requires experimental insight and practical troubleshooting of experimental designs. Of equal importance is an overall appreciation of both the power and limits of using medaka as a model animal. To assist in visualizing and understanding medaka and the research protocols used, the editors strongly suggest that readers refer to Volume 1 of Medaka: Biology, Management, and Experimental Protocols (2009) (ebook: http://onlinelibrary.wiley.com/book/10.1002/9780813818849) as a reference. All figures and videos in both Volumes are shown at https://medaka‐book.org/.

As a final note, the preparation of this book would not have been possible without the dedication of the excellent array of contributing authors. We also thank the staff of Wiley‐Blackwell Publishers, specifically Justin Jeffryes, Shelby Hayes, Rebecca Ralf, Antony Sami, Holly Regan‐Jones and Vivek Jagadeesan as they have demonstrated great patience with our efforts and provided excellent guidance and assistance. Finally, we also express our thanks to Ms. Robin Lee Kingsley (Deceased) and Dr. Fred S. Conte (University of California Davis) for their assistance in editing each chapter.

Kenji Murata, Masato Kinoshita (Chief Editors)

Yasuhiro Kamei, Minoru Tanaka, Kiyoshi Naruse (Editors)