Bioadhesion is often defined as the state in which two materials, at least one of which is biological in nature, are held together for extended periods of time by interfacial forces. It is an area of active multidisciplinary research, where engineers, scientists—including chemists, physicists, biologists, and medical experts—materials’ producers, and manufacturers combine their knowledge. From the practical point of view, bioadhesive systems have been used for several years for medical applications such as dentistry and orthopedics and are now entering new fields, for example, tissue sealing and directed drug delivery systems. Understanding bioadhesion mechanisms is of prime importance while exploring desired adhesion for bioadhesion applications such as sealants as well as successful prevention of undesired adhesion of biomolecules, cells, or organisms. Controlling the occurrence of bioadhesion events is also an important problem in the design and use of medical devices, biosensors, membranes, ships, and oil rigs.
This book provides a comprehensive view of bioadhesion and highlights different aspects of this phenomenon. The first section of the book presents fundamentals aspects of bioadhesion. It also summarizes various direct and indirect methods used to investigate and characterize bioadhesion. The second section describes studies of natural adhesives. These include "wet" adhesives that are produced and secreted by sessile marine organisms such as mussels and sand tubes and "dry" adhesives such as the one characterizing the gecko foot. The third section focuses on biomimetic adhesives. These man-made materials are fabricated on the basis of the lessons learned from nature emphasizing the correlation between nature understanding and biomimetics. Finally, the last section reviews medical applications of adhesive materials, which include surgical sealants, mucoadhesive drug delivery vehicles, and prevention of adhesion on medical devices.
Table of Contents
Principles of Bioadhesion; Professor John D Smart, University of Brighton, UK
Characterization of Bioadhesion; Thakur Raghu Raj Singh, David S. Jones, Gavin P. Andrews, Ravi Sheshala
Mussel adhesives; Hongbo Zeng, Qingye Lu, Bin Yan, Jun Huang, Lin Li, Zhi Liao
Gecko adhesion; Joseph C. Cremaldi, Kejia Jin and Noshir S. Pesika
From Sand Tube to Test-Tube: The Adhesive Secretion from Sabellariid TubeWo;;rms Hennebert E., Maldonado B., Van De Weerdt C., Demeuldre M., Richter K., Rischka K., Flammang P.
Section III: Biomimetic Adhesives
Chapter Six: Adhesives and Coatings Inspired by Mussel Adhesive Proteins
Hao Meng, Yuan Liu, Morgan M. Cencer, Bruce P. Lee
Chapter Seven: Algae mimetics
Ronit Bitton, Ben Guriun University, Israel
Chapter Eight: Bio-inspired surfaces with directional adhesion
Section IV: Medical Applications
Chapter Nine: Surgical sealants
Leslie John Ray Foster
Chapter Ten: Bioadhesive systems for drug delivery
Ryan F. Donnelly and A. David Woolfson
Chapter Eleven: Preventing adhesion on medical devices
Pilar Teixeira and Fernanda Gomes
Havazelet Bianco-Peled is an expert in the area of biomedical polymers and has received several awards for her professional accomplishments. She is the founder, CSO, and BOD member of SEAlantis Ltd., Israel, a company that develops, manufactures, and commercializes novel biomimetic tissue adhesives based on a technology invented in her lab. Prof. Bianco-Peled has authored more than 60 research publications and submitted 10 patent applications.
Maya Davidovich-Pinhas is a biochemical engineer who specializes in the development and analysis of mucoadhesive biomaterials. She received her PhD in chemical engineering from the Technion—Israel Institute of Technology, Israel. Dr. Davidovich-Pinhas has pioneered the use of acrylated polymers as a way to promote mucoadhesion in physiological environment. Such systems offer a novel approach for bioadhesion in order to control drug release and target drug delivery, which potentially improves its bioavailability.