The preceding volumes of Cell and Muscle Motility have focused on various aspects of motile systems in both muscle and non muscle cells. These essays have been critical reviews on topics of current interest and, hopefully, have provided a base from which future investigations may develop. During the past decade, however, much attention in the fields of biochemistry and cell biology has focused on motile systems in non muscle cells. Our current under- standing of the three-dimensional organization of the cytoplasm involve three major fibrous proteins which are collectively known as the cytoskeletal system. These polymorphic cytoskeletal proteins are microtubules (25-nm diameter), microfilaments (6-nm diameter), and intermediate filaments (lO-nm diame- ter). Microtubules consist of tubulin and several well-characterized micro- tubule associated proteins (MAPs) including MAP , MAP , tau, and others. l 2 Microfilaments consist of actin and associate with actin-binding proteins in- cluding a-actinin, filamin, myosin, tropomyosin, vinculin, and others. Inter- mediate filaments (lO-nm filaments) consist of at least five different tissue- specific classes, including desmin or skeletin (muscle), prekeratin (epithelial), vimentin (mesenchymal), neurofilament (nerve), and glial acidic fibrillary protein (astrocytes). These major fibrous proteins apparently interact with each other as well as other cytoplasmic components and appear to be inti- mately associated with such biological processes as cell shape changes, growth, motility, secretion, cell division, and uptake of materials from the exterior of the cell.

Genetics of Prion Disease, by S. Lloyd, S. Mead and J. Collinge. Atypical Prion Diseases in Humans and Animals, by M. A. Tranulis, S. L. Benestad, T. Baron and H. Kretzschmar. Chronic Wasting Disease, by S. Gilch, N. Chitoor, Y. Taguchi, M. Stuart, J. E. Jewell and H. M. Schatzl. Transgenic Mouse Models and Prion Strains, by G. C. Telling. Neuroprotective and Neurotoxic Signaling by the Prion Protein, by U. K. Resenberger, K. F. Winklhofer and J. Tatzelt. Prion Seeded Conversion and Amplification Assays, by C. D. Orru and B. Caughey. Prion Protein and Its Conformational Conversion: A Structural Perspective, by W. K. Surewicz and M. I. Apostol. Molecular Dynamics as an Approach to Study Prion Protein Misfolding and the Effect of Pathogenic Mutations, by M.W. van der Kamp and V. Daggett. Chemical Biology of Prion Protein: Tools to Bridge the In Vitro/Vivo Interface, by R. Seidel and M. Engelhard. The PrP-Like Proteins Shadoo and Doppel, by D. Westaway, N. Daude, S. Wohlgemuth and P. Harrison. Fungal Prions: Structure, Function and Propagation, by M. F. Tuite, R. Marchante and V. Kushnirov."

The Fifth Chinese Peptide Symposium, hosted by Lanzhou University, was held at Lanzhou, China July 14-17, 1998, with 156 participants, including 30 scientists from abroad, representing nine countries. The four-day conference was both intense and spiritually rewarding. Our goal for CPS-98 was to provide a forum for the exchange of knowledge, cooperation and friendship between the international and Chinese scientific communities, and we believe this goal was met. The symposium consisted of 8 sessions with 42 oral and 90 poster presentations, including synthetic methods, molecular diversity and peptide libraries, structure and conformation of peptides and proteins, bioactive peptides, peptide immunology, De Novo design and synthesis of proteins and peptides, ligand-receptor interactions, the chemistry-biology-interface and challenging problems in peptides. The enthusiastic cooperation and excellent contributions were gratifying and the active response of the invited speakers contributed to the success of the symposium. The presentations were of excellent caliber and represented the most current and significant aspects of peptide science. Dr. Kit Lam of the University of Arizona and Dr. Yun-Hua Ye of Peking University were the recipients of "The Cathay Award" sponsored by the H. H. Liu Education Foundation, offered for their seminal contribution in peptide science and the Chinese Peptide Symposium. Four outstanding young scientists were selected by the organizing committee to receive awards sponsored by Haikou Nanhai Pharmaceutical Industry Co. Ltd. (Zhong He Group).

A key experiment in biomedical research is monitoring the expression of different proteins in order to detect changes that occur in biological systems under different experimental conditions. The method that is most widely used is the Western blot analysis. While Western blot is a workhorse in laboratories studying protein expression and has several advantages, it also has a number of significant limitations. In particular, the method is semi-quantitative with limited dynamic range. Western blot focuses on a single protein per sample with only a small number of representative samples analyzed in an experiment. New quantitative tools have been needed for some time to at least supplement, & possibly replace, the Western blot. Mass spectrometric methods have begun to compete with Western blot for routine quantitative analyses of proteins. One of these methods is based on the tandem mass spectrometry technique of selected reaction monitoring (SRM), which is also called multiple reaction monitoring (MRM). Selected reaction monitoring is actually an older tandem mass spectrometry technique, first described in the late 70s, that is widely utilized in the quantitative analysis of small molecules like drugs & metabolites. The use of selected reaction monitoring for the quantitative analysis of proteins has a number of advantages. Most importantly, it is fundamentally quantitative with a wide dynamic range. The output of the analysis is a numerical result that can range over several orders of magnitude. Other advantages include sufficient specificity & sensitivity to detect low abundance proteins in complex mixtures. Finally, selected reaction monitoring can be multiplexed to allow the quantitative analysis of relatively large numbers of proteins in a single sample in a single experiment. This Brief will explain both the theoretical & experimental details of the selected reaction monitoring experiment as it is applied to proteins.

Within the past two decades, extraordinary new functions for the nucleolus have begun to appear, giving the field a new vitality and generating renewed excitement and interest. These new discoveries include both newly-discovered functions and aspects of its conventional role. The Nucleolus is divided into three parts: nucleolar structure and organization, the role of the nucleolus in ribosome biogenesis, and novel functions of the nucleolus.

The phrase "Life, stress and death" connects three terms, but is there a biological basis for that? Are there molecules that are essential to/or mediate these phenomena? This contributory volume "Mortalin Biology: Life, Stress and Death" is a remarkable compilation of the research outcomes on the stress protein mortalin, a member of heat shock 70 family of proteins. The book is unique as it describes mortalin playing essential role in life, stress response and death either from cancer, when it becomes hyperactive or from neuro-degeneration, when it becomes hypoactive. The book provides up-to-date knowledge on mortalin with respect to its discovery, structure, evolutionary conservation, function and signal transduction in different organisms in a simple, but most comprehensive way, that besides offering an enjoyable and in-depth reading, prompts the reader to ask further questions to explore this protein with new ideas, approaches and experiments. Twenty-one chapters by the world leaders on the specific areas of mortalin research throw light on its multi-functionality, potentials for biotechnology, diagnostics and therapeutic values. Avenues of mortalin biology, yet unexplored, hold immense promises for future, and reading this volume provides an easy, enthusiastic and energetic head-on start.

Regulated turnover of extracellular matrix (ECM) is an important component of tissue homeostasis. In recent years, the enzymes that participate in, and control ECM turnover have been the focus of research that touches on development, tissue remodeling, inflammation and disease. This volume in the "Biology of Extracellular Matrix" series provides a review of the known classes of proteases that degrade ECM both outside and inside the cell. The specific EMC proteases that are discussed include cathepsins, bacterial collagenases, matrix metalloproteinases, meprins, serine proteases, and elastases. The volume also discusses the domains responsible for specific biochemical characteristics of the proteases and the physical interactions that occur when the protease interacts with substrate. The topics covered in this volume provide an important context for understanding the role that matrix-degrading proteases play in normal tissue remodeling and in diseases such as cancer and lung disease.

The essential question that fractal dimensions attempt to answer is about the scales in Nature. For a system as non-idealistic and complex as a protein, studying scale-invariance becomes particularly important.

"Fractal Symmetry of Protein Interior" investigates the diverse facets of the various scales at which we describe protein biophysical and biochemical phenomena. Following a thorough introduction to fractal dimensions, fractal-dimension-based approaches, that have been employed to study protein interior biophysical properties, are described. The focus is on the question which scales are scale-invariant? Investigations related to scaling of biophysical and biochemical behaviors may one day help us to formulate a fundamental theory about protein biophysics; which, in turn, may help us to understand fundamental principles of proteins."

This Brief provides a concise review of chaperonopathies, i.e., diseases in which molecular chaperones play an etiologic-pathogenic role. Introductory chapters deal with the chaperoning system and chaperoning teams and networks, HSP-chaperone subpopulations, the locations and functions of chaperones, and chaperone genes in humans. Other chapters present the chaperonopathies in general, including their molecular features and mechanistic classification into by defect, excess, or mistake. Subsequent chapters discuss the chaperonopathies in more detail, focusing on their distinctive characteristics: primary or secondary; quantitative and/or qualitative; structural and hereditary or acquired; genetic polymorphisms; gene dysregulation; age-related; associated with cancer, chronic inflammatory conditions, and autoimmune diseases. The interconnections between the chaperoning and the immune systems in cancer development, chronic inflammation, autoimmunity, and ageing are outlined, which leads to a discussion on the future prospects of chaperonotherapy. The latter may consist of chaperone gene and protein replacement/supplementation in cases of deficiency and of gene or protein blocking when the chaperone actively promotes disease. The last chapter presents the extracellular chaperones and details on how the chaperone Hsp60 is secreted into the extracellular space and, thus, appears in the blood of cancer patients with potential to participate in carcinogenesis and chronic inflammation and autoimmunity. Chaperones as clinically useful biomarkers are mentioned when pertinent. Likewise, guidelines for clinical evaluation of chaperonopathies and for their histopathological and molecular identification are provided throughout. The book also provides extensive bibliography organized by chapter and topic with comments. "

The essential question that fractal dimensions attempt to answer is about the scales in Nature. For a system as non-idealistic and complex as a protein, studying scale-invariance becomes particularly important.

"Fractal Symmetry of Protein Exterior" investigates the diverse facets of the various scales at which we describe protein biophysical and biochemical phenomena. Although these ideas are entirely mathematical, mathematical expositions have been avoided, unless the use of some expressions becomes absolutely obligatory. A first chapter introduce into fractal dimensions, protein exteriors and to methods to study the roughness of surfaces. The main topics covered in the following chapters include: protein-protein interaction interfaces; protein surface-roughness and local shape as well as adhesion on protein and other rough biomolecular surfaces.

The pleasant community of Limone suI Garda provided outstanding hospitality for a second NATO ARW dealing with apolipoprotein variants, which are natures clues for the discovery of the physiological roles of apolipoproteins in lipoprotein metabolism in normal subjects and patients with specific dyslipoproteinemias. Limone, the site of discovery of the first human apolipoprotein mutant, apoA-I-Milano, provided a brilliant sunny spring venue for more than 50 participants from both sides of the ocean. The attendance at the colorful opening ceremony of the ARW was one of the largest on record. Two members of the Italian government, the Secretaries of Health and the Navy, gave the welcoming addresses. Six television networks, two with national audiences, covered the international workshop. The Limone oracles provided a montage of insights gleamed from the eyes of the clinican, the biochemist, and the molecular biologist. The cumulative information on the molecular defects in lipoprotein metabolism reviewed by this diverse group of investigators provided an ever expanding horizon of new knowledge in this fast moving and some times perplexing field. Clinical vignettes were presented on patients from throughout the world including Canada (Connelly), Turkey (Schmitz), and France (Infante) detailing the clinical sequelae of a defect in a specific apolipoprotein. The clinical importance of Lp(a), a lipoprotein relegated almost to obscurity for many years, has now taken v center stage.

Knowledge of the extracellular matrix (ECM) is essential to understand cellular differentiation, tissue development, and tissue remodeling. This volume of the series "Biology of Extracellular Matrix" provides a timely overview of the structure, regulation, and function of the major macromolecules that make up the extracellular matrix. It covers topics such as collagen types and assembly of collagen-containing suprastructures, basement membrane, fibronectin and other cell-adhesive glycoproteins, proteoglycans, microfibrils, elastin, fibulins and matricellular proteins, such as thrombospondin. It also explores the concept that ECM components together with their cell surface receptors can be viewed as intricate nano-devices that allow cells to physically organize their 3-D-environment. Further, the role of the ECM in human disease and pathogenesis is discussed as well as the use of model organisms in elucidating ECM function.

This is a timely collection of important biomedical applications for a set of separation/characterization techniques that are rapidly gaining popularity due to their wide dynamic range, high resolution, and ability to function in most commonly used solvent systems. Importantly, the field-flow fractionation (FFF) technique has recently emerged as a prominent complement to size exclusion chromatography for protein pharmaceuticals. Fractionation with FFF is gentle and preserves protein structural integrity better than existing alternatives. In the present text, different chapters are written by experts in their respective field of application, who offer comparisons between the FFF techniques and other methods for characterizing their special focus material. Practical guide-lines for successful implementation, such as choice of operating conditions, are offered in conjunction with each application. In addition to new instrumentation and approaches that address important current topics, readers are provided with an overall sense of prior (but timeless) major developments that may be overlooked in literature searches.

The motivation for us to conceive this series of volumes on regulation was mainly our belief that it would be fun, and at the same time productive, to approach the subject in a way that differs from that of other treatises. We thought it might be interesting and instructive for both author and reader-to examine a particular area of investigation in a framework of many different problems. Cutting across the traditional boundaries that have separated the subjects in past volumes on regulation is not an easy thing to do-not because it is difficult to think of what interesting topics should replace the old ones, but because it is difficult to find authors who are willing to write about areas outside those pursued in their own laboratories. Anyone who takes on the task of reviewing a broad area of interest must weave together its various parts by picking up the threads from many different laboratories, and attempt to produce a fabric with a meaningful design. Finding persons who are likely to succeed in such a task was the most difficult part of our job. In the first volume of this treatise, most of the chapters dealt with the mechanisms of The second volume involved a somewhat regulation of gene expression in microorganisms. broader area, spanning the prokaryotic-eukaryotic border. Topics ranged from phage mor phogenesis to the role of gradients in development. The last volume-Volume 3A-con cerned hormones, as does this volume-Volume 3B.

This work presents a snapshot of the state of the art of modern biomolecular crystallography, from crystallisation through structure determination and even interactive presentation on the web. Methods driving the latest automated structure determination pipelines are explained, as well as how to deal with problems such as crystal pathologies that still demand expert analysis. These methods are illustrated through their application to problems of great biological interest, such as the molecular machinery underlying the complement pathway, the mechanism of action of monoamine oxidase inhibitors, and the structure of the eukaryotic ribosome. Complementary approaches, such as neutron diffraction, small angle X-ray scattering, coherent diffraction and computational modelling, are also explored.

Amyloid-forming proteins are implicated in over 30 human diseases. The proteins involved in each disease have unrelated sequences and dissimilar native structures, but they all undergo conformational alterations to form fibrillar polymers. The fibrillar assemblies accumulate progressively into disease-specific lesions in vivo. Substantial evidence suggests these lesions are the end state of aberrant protein folding whereas the actual disease-causing culprits likely are soluble, non-fibrillar assemblies preceding the aggregates. The non-fibrillar protein assemblies range from small, low-order oligomers to spherical, annular, and protofibrillar species. Oligomeric species are believed to mediate various pathogenic mechanisms that lead to cellular dysfunction, cytotoxicity, and cell loss, eventuating in disease-specific degeneration and systemic morbidity. The particular pathologies thus are determined by the afflicted cell types, organs, systems, and the proteins involved. Evidence suggests that the oligomeric species may share structural features and possibly common mechanisms of action. In many cases, the structure function interrelationships amongst the various protein assemblies described in vitro are still elusive. Deciphering these intricate structure function correlations will help understanding a complex array of pathogenic mechanisms, some of which may be common across different diseases albeit affecting different cell types and systems."

It was the year of 1969 when this monograph was originally published in Japanese by Professor TADASHI KAWAI, titled as "The Plasma Proteins, Their Fundamental and Clinical Aspects." After I read through the Japanese edition, I was impressed by its rather complete coverage of the subjects and their detailed descriptions. I have felt that this excellent monograph should be distributed not only among our Japanese scien tists but also among many other colleagues throughout the world. I am happy, the refore, to know that the English edition of his monograph, partly revised, is ready to be published at this time. Professor KAWAI received his postgraduate medical training in U.S.A. for seven years, and was certified by the American Board of Pathology in both Anatomical and Clinical Pathology in Fall, 1962. Thus, I believe, he is the most suitable fellow for publishing the English edition of this kind.

Cancerremainstobeoneofthemostdevastatingdiseasesworldwidesincelong ago. Thepoorprognosisofcancerislargelyduetometastasis. Metastasisisoften depictedasamultistageprocessinwhichmalignantcellsspreadfromtheprimary locustodistantorgansviacirculation. Whereasgeneticalterationsweresuggested tobeessentialfortransformationofprimarytumorcellsintometastaticphenotype, epigeneticeventsareequallyimportant,whichmaybetriggeredbymetastaticf- torswhereverintheprimarytumorlocus,bloodcirculationandthesecondaryloci. Signaltransductionsinitiatedbythemetastaticfactorsareresponsibleformediating themolecularandcellularprocessesleadingtometastasis. Blockadeoftherelevant molecularpathwaysisoneofthemosteffectivestrategiesforpreventionoftumor metastasis. Clinicaltrialsareunderwaywithpromisingoutcome. Inthisbook, wetakecomprehensive review inregard withthisexciting eld ofcancerresearch. Chapter1takesabriefoverviewofrecentlyidenti edsignal mechanismsforeachstepoftumormetastasisincludingtheinitiationstage,intra- sation,anti-anoikisinbloodcirculation,homing,extravasationand nalsurvivalin themetastaticsite. Chapter2makesacompletedreviewforthemolecularandcel- lareventsinvolvedininitiationofmetastasis. Especially,thesignalingmechanisms formediatingtumorprogressioninducedbysomeimportantmetastaticfactorsare described. InChapters3and4,thecentralrolesofMAPKanditsdownstreameff- torsMAPKAPKplayineachstepoftumormetastasisarewelldelineated. Chapter5 furtherdescribesdetailedlyabouthowGrb2andotheradaptorproteins,upstreamof MAPK cascade, contribute tometastasis. InChapter 6, therole ofreactive o- genspecies(ROS)intumorprogressionarehighlighted. Moreover,thepotential contribution of ROS to cross talk between major signaling cascades that lead to sustainedMAPKactivationareproposedinChapter7. Chapter8takesaninsight intothesignalingmechanismsfordynamictraf ckingandturnoveroffocalad- sionproteinsinregulationoftractionandretractionforces,whichareneededfor celllocomotionandinvasion. Chapter9describestheinvolvementofNotchsign- ingpathwaywhichisnotonlyessentialforembryonicdevelopmentbutalsoplays importantroleintumorprogression. Chapter10reviewedtherecentlyidenti ed cancer- and metastasis-initiating cells involved in tumor progression. Especially, signal pathways that are frequently deregulated in cancer stem/progenitor cells v vi Preface duringcancerprogressionarehighlighted. Chapter11describestheroleoflipid rafts, a special component within membrane lipid domain, in signal transd- tion triggered by growth factor receptors leading to tumor metastasis. Finally, Chapters12,Chapters13,andChapters14presentthesignalingpathwaysresp- sibleformetastaticprogressionofspeci ctumorsincludingovariancancer,uveal melanomaandhepatoma,respectively. WethankallthecontributorsofeveryChapterinthebookincludingJia-RuWu, Chi-TanHu,LaureVoisin,StephanieDuhamel,SylvainMeloche,AlexeyShiryaev, MarijkeVanGhelue,UgoMoens,AlessioGiubellino,PraveenR. Arany,Moulay A. Alaoui-Jamali, Krikor Bijian, Panagiota Toliopoulos, Pingyu Zhang, Patrick A. Zweidler-McKay,MurielleMimeault,SurinderK. Batra,SamirKumarPatra, LydiaW. T. Cheung,CarmanK. M. Ip,AliceS. T. Wong,CecileLaurent,Jerome Couturier,XavierSastre-Garau,LaurenceDesjardins,EmmanuelBarillot,Sophie Piperno-Neumann,SimonSauleandRajagopalN. Aravalli. Wehopethisbookmightstimulatemorecancerbiologiststoemphasizethis eld whichbene tsdevisingmoreeffectivemoleculartargetingstrategiesforprevention ofcancermetastasis. Hualien,Taiwan Wen-ShengWu Chi-TanHu Contents 1 Overview of Signal Transduction in Tumor Metastasis...1 Wen-ShengWuandJia-RuWu 2 Microenvironment Triggers EMT, Migration and Invasion of Primary Tumor via Multiple Signal Pathways ...9 Wen-ShengWuandChi-TanHu 3 The ERK1/2 MAP Kinase Signaling Pathway in Tumor Progression and Metastasis ...25 LaureVoisin,StephanieDuhamel,andSylvainMeloche 4 Mitogen-Activated Protein Kinase-Activated Protein Kinases and Metastasis...41 AlexeyShiryaev,MarijkeVanGhelue,andUgoMoens 5 Grb2 and Other Adaptor Proteins in Tumor Metastasis ...77 AlessioGiubellinoandPraveenR. Arany 6 The Role of ROS Signaling in Tumor Progression...103 Wen-ShengWuandJia-RuWu 7 Signal Cross Talks for Sustained MAPK Activation and Cell Migration Mediated by Reactive Oxygen Species: The Involvement in Tumor Progression...

The Proceedings of the Fourth International Metallothionein Meeting (MT-97) feature the latest research on metallothionein. The book covers a broad range of topics which provide important information for both basic and clinical investigators. The selected 94 articles in this book are written by the leading scientists in the field around the world. This is an increasingly important, multi-disciplinary area of study that has benefitted from recent advances in concepts and methodologies from other fields.

Electrochemical Analysis of Proteins and Cells presents the remarkable progress made over the years in the electrochemical analysis of proteins and cells, due to the rapid development of protein electrochemistry together with related technologies such as surface modification, molecular recognition, molecular assembly, and nanotechnology. As an interdisciplinary field combining electrochemistry, analytical chemistry, biochemistry, biophysics, biomedicine and material science, the electrochemical analysis of proteins and cells has attracted broad and extensive research interest. The main emphasis of this book is on the principles of electrochemical strategies and the practical utility of related detection systems, which is of great importance in all biological sciences, such as cell biology and molecular biology, as well as in biomedical fields like cancer research. This brief offers an up-to-date, easy-to-follow presentation of recent advances on the subject and can serve as a supplement for graduate-level courses in analytical chemistry, biochemistry, biophysics, biotechnology, biomedical engineering, etc. It may also help young scientists get an overview of this topic.

The book is devoted to expanding current views on the phenomena of protein functionality in food systems. Protein functionalities in foods have been the object ofextensive research over the last thirty to forty years and significant progress has been made in understanding the mechanism and factors influencing the functionality of proteins. The functionality of proteins is one of the fastest developing fields in the studies of protein utilization in foods. Currently, a broad spectrum of data related to protein functionality in food systems has been collected, however, much more needs to be known. In this volume, the most important functional properties offood proteins are presented: Protein solubility, water holding capacity and fat binding, emulsifying, foaming, and gelling properties as affected by protein source, environmental factors (pH, temperature, ionic strength) and protein concentration; Relationships between protein conformation, physicochemical properties, and functional properties; Protein functional properties as influenced by various food processing conditions, particularly heat treatment, dehydration, freezing and storage when frozen, extraction and other processes; Effects ofprotein modification on the enhancementofprotein functionality; Utilization ofvarious proteins in improving functional properties in food systems. Those aspects of protein functionality are presented which the author believes to be interesting and most important for protein utilization in food systems. The book is recommended to students and food scientists engaged in food protein research and food industry research, and development scientists. Table ofContents Introduction 1 References 5 Chapter 1 Solubility ofProteins. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 1. 1 Introduction. . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . 6 1. 1. 1 Factors Affecting Solubility ofProteins. . . . . . . . . . . . . . . . . . . . . . . .

Research in the pharmaceutical industry today is in many respects quite different from what it used to be only fifteen years ago. There have been dramatic changes in approaches for identifying new chemical entities with a desired biological activity. While chemical modification of existing leads was the most important approach in the 1970s and 1980s, high-throughput screening and structure-based design are now major players among a multitude of methods used in drug discov ery. Quite often, companies favor one of these relatively new approaches over the other, e.g., screening over rational design, or vice versa, but we believe that an intelligent and concerted use of several or all methods currently available to drug discovery will be more successful in the medium term. What has changed most significantly in the past few years is the time available for identifying new chemical entities. Because of the high costs of drug discovery projects, pressure for maximum success in the shortest possible time is higher than ever. In addition, the multidisciplinary character of the field is much more pronounced today than it used to be. As a consequence, researchers and project managers in the pharmaceutical industry should have a solid knowledge of the more important methods available to drug discovery, because it is the rapidly and intelligently combined use of these which will determine the success or failure of preclinical projects.

-Lignin Structure, Properties, and Applications By H. Hatakeyama, T. Hatakeyama -Tensile Mechanics of -Helical Coil Springs By A. Ikai -Bioactive Polymer/Hydroxyapatite (Nano)composites for Bone Tissue Regeneration By K. Pielichowska, S. Blazewicz"

The book addresses the most recent developments in structural and functional proteomics underlying the recent contributions given in these areas by our laboratory to the instrumentations, the methods and the procedures as mutuated from the nanoscale sciences and technologies. These developments introduced in the last few years make now possible protein massive identification (mass spectrometry and biomolecular arrays down to nanoamounts) and protein structural characterization in solution and in crystals down to the atomic scale to an extent and to a degree so far unmatched. Emphasis is placed in the growth by nanobiofilm template of protein crystals of any type and size from millimeter to micron, leading in combination with microfocus synchrotron technology and atomic force microscopy to the definition of a new field called nanocrystallography. The few useful examples being shown, concerning yet structurally unsolved proteins, point this very promising approach nanotechnology-based in structural proteomics using highly focused X-rays. This has not to be confused with the important study of nanocrystals, both organic and inorganic, and novel diamond like nanocomposite materials and devices having 3D protein crystals as matrices to be equilibrated with nanoparticles/gold/silver to be utilized in the most diversified electronic applications here also summarized. vii Acknowledgments We are particularly grateful to Giuseppe Zanotti at the University of Padova for his fundamental collaboration during all the crystallographic studies.