1st Edition

Nanoparticles in the Lung Environmental Exposure and Drug Delivery

Edited By Akira Tsuda, Peter Gehr Copyright 2015
    404 Pages 90 B/W Illustrations
    by CRC Press

    404 Pages 90 B/W Illustrations
    by CRC Press

    Nanoparticles have a physical dimension comparable to the size of molecular structures on the cell surface. Therefore, nanoparticles, compared to larger (e.g., micrometer) particles, are considered to behave differently when they interact with cells.

    Nanoparticles in the Lung: Environmental Exposure and Drug Delivery provides a better understanding of how inhaled nanoparticles behave in the human lungs and body. Featuring contributions from renowned subject-matter experts, this authoritative text describes the sequence of events that nanoparticles encounter in the lungs when moving from the air into the bloodstream. This includes deposition, interactions with the alveolar surface and epithelium, translocation across the air–blood tissue barrier, and accumulation in the body.

    In addition, the book addresses practical considerations for drug delivery to the respiratory tract, drug and gene delivery in the lungs, and bio-nanocapsules. It considers the physicochemical, colloidal, and transport properties of nanoparticles, and presents cutting-edge research on special issues such as dosimetry for in vitro nanotoxicology, nanoparticle deposition in the developing lungs, and the potential for nose-to-brain delivery of drugs.

    Nanoparticles in the Lung: Environmental Exposure and Drug Delivery offers the most updated and comprehensive knowledge of the risks and benefits associated with nanoparticle inhalation—to protect humans from any harmful effects and to explore the utility of nanoparticles as drug delivery carriers.





    Introduction; Akira Tsuda and Peter Gehr

    Section I: Gas Phase

    Deposition; Akira Tsuda and Frank S. Henry

    Section II: Airway/Alveolar Surface

    Interaction with the Lung Surface; Peter Gehr and Akira Tsuda

    Role of the Biomolecule Corona in Nanoparticle Fate and Behavior; Iseult Lynch

    Interaction with Alveolar Lining Fluid; Vincent Castranova, Dale W. Porter, and Robert R. Mercer

    Interaction with Lung Macrophages; Barry Weinberger, Patrick J. Sinko, Jeffrey D. Laskin, and Debra L. Laskin

    Section III: Crossing Epithelial Cells

    Interactions with Alveolar Epithelium; Farnoosh Fazlollahi, Yong Ho Kim, Arnold Sipos, Zea Borok, Kwang-Jin Kim, and Edward D. Crandall

    Mechanistic Aspects of Cellular Uptake; Lennart Treuel, Xiue Jiang, and Gerd Ulrich Nienhaus

    Cellular Uptake and Intracellular Trafficking; Barbara Rothen-Rutishauser, Dagmar A. Kuhn, Dimitri Vanhecke, Fabian Herzog, Alke Petri-Fink, and Martin J.D. Clift

    Section IV: Translocation

    Translocation across the Air–Blood Tissue Barrier; Fabian Blank, Christophe von Garnier, Peter Gehr, and Barbara Rothen-Rutishauser

    The Pulmonary Lymphatic System; Akira Tsuda

    Translocation and Accumulation in the Body; Wolfgang G. Kreyling

    Section V: Drug Delivery to the Respiratory Tract

    Practical Considerations for Drug Delivery to the Respiratory Tract; John S. Patton

    Drug and Gene Delivery in the Lungs; Satoshi Uchida, Keiji Itaka, and Kazunori Kataoka

    Bio-Nanocapsules: Novel Drug Delivery; Shun’ichi Kuroda

    Section VI: Special Issues

    Physicochemical, Colloidal, and Transport Properties; Heinrich Hofmann, Lionel Maurizi, Marie-Gabrielle Beuzelin, Usawadee Sakulkhu, and Vianney Bernau

    Dosimetry for In Vitro Nanotoxicology: Too Complicated to Consider, Too Important to Ignore; Joel M. Cohen and Philip Demokritou

    Potential for Nose-to-Brain Delivery of Drugs; Lisbeth Illum

    The Developing Lungs; Akira Tsuda and Frank S. Henry

    Nanotoxicology; Dominique Balharry, Eva Gubbins, Helinor Johnston, Ali Kermanizadeh, and Vicki Stone

    Summary; Peter Gehr and Akira Tsuda



    Akira Tsuda is a principal research scientist in the Molecular and Integrative Physiological Sciences Program at the Harvard School of Public Health. He is the author of more than 100 peer-reviewed articles and mentor of postdoctors (Harvard School of Public Health and Harvard Medical School). He serves as a reviewer for many international scientific journals, as well as research grants. He was a member of the NIH Respiratory Physiology, Respiratory Integrative Biology, and Translational Research Study Section, and is currently on the editorial board of the Journal of Applied Physiology and Journal of Aerosol Medicine and Pulmonary Drug Delivery.

    Peter Gehr is a professor emeritus at the University of Bern. Previously, he was chair of the Institute of Anatomy. He has served as visiting assistant professor at the Harvard School of Public Health and guest professor at the University of Nairobi. He spent sabbaticals at the University of Western Australia, National Jewish Health in Denver, and Harvard School of Public Health. He is currently the president of the Steering Committee of the National Research Program on Opportunities and Risks of Nanomaterials of the Swiss National Science Foundation, and a member of the Swiss Federal Commission for Air Hygiene.

    "The book presents the state of our current knowledge of the pulmonary-nanoparticle interface in a balanced, extensively researched way… This is a great reference text that I would want on my bookshelf. It also should be on the bookshelves of all students of nanomedicine."
    —Ellis H. Tobin, M.D., Albany Medical College and SUNY College of Nanoscale Science and Engineering, New York, USA

    "This book is an incredibly timely and relevant contribution to the scientific community, as nanotechnology advances at breakneck pace. Emerging medical applications as well as the potential for unwanted or adverse health effects due to nanoparticle exposures are both addressed in detail. This work will serve as an excellent resource for researchers, clinicians, public health professionals, and others who are working to advance the state of the science where nanoparticles and the respiratory track collide."
    –Sara Brenner, MD, MPH, SUNY Polytechnic Institute, Colleges of Nanoscale Science and Engineering, Albany, New York, USA