The First International Conference on Electrophoresis, Supercomputing and the Human Genome
The Table of Contents for the book is as follows:
Director's Statement
Preface
The Human Genome Project in the USSR
Some Computational Challenges in the Human Genome Program
The Human Genome Project: Opportunities and Obstacles
The Interaction of High-Resolution Electrophoresis and Computational Analysis in Genome Mapping
Direct Simulation of DNA Electrophoresis
Sequencing by Oligonucleotide Hybridization: A Promising Framework in Decoding of the Genome Program?
Partial Sequencing by Oligo-Hybridization: Concept and Applications in Genome Analysis
Monte Carlo Modelling of Gel Electrophoresis
A Desktop Video Image Recording and Processing System for Quantitative Gel Electrophoresis
Abstract Graphic Images of Long DNA Sequences Suitable for Communications over Computer Networks
Predicting Structures of DNA and Carcinogen-Modified DNA by Build-Up Techniques
Informational-Computer Support of the Soviet National Human Genome Project and Problem of Intellectualization
Mobility Models and Experimental Data for Lambda Phage Concatamers During Field Inversion Gel Electrophoresis
DNA Sequencing by Oligonucleotide Hybridization
Pattern Recognition in DNA Sequences: The Intron-Exon Junction Problem
Electrophoretic Orientation of DNA
Differential Cloning of Mammalian Genomic DNA by In-Gel Competitive Reassociation
Genetical Research on Vitiligo
Study of the Genetics of Peutz-Jegher's Syndrome in One Rare Big Family
Molecular Strategies for Physical Mapping and Fine Structure Analysis of Flow-Sorted Human Chromosome 21
Computer Analysis of Protein Interactions
Overcoming the Limitations of Gel Electrophoresis: Fractionation of 0.05–0.29 Mb Open Circular DNA
Supercomputer Simulation of Chromosomes
Orientation of the Agarose Matrix in Electric Fields
Computational Methods for Physical Mapping of Chromosomes
Length Regularities of Genetic Texts
Theoretical Model of Trapping Electrophoresis
Brownian Dynamics Simulation of Rotational Correlation Functions for a Three-Body Macromolecular Model on an ETA10 Supercomputer