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Vol.11, No. 3-4   July 2001


Sponsored by the U.S. Department of Energy Human Genome Program
 
Available in PDF
 
In this issue...

In the News
* Genomes to Life
* OASCR and GTL
* DOE Microbial Cell Project
* Human Genome Draft
* Genome Perspective
* Honor for DeLisi
* New NIH Institute
* Structural Genomics
* Imaging Structures
* Synchrotron Use
* Proteome Organisation
* Breast Cancer Research
* Gene Expressions Used
* Nuclear Medicine
* Nuclear Medicine Labs
* Toxicogenomics Center
* Kettering Prize
* Zeta Phi Beta Conference
* Microbial Genomes
* Sloan-DOE Fellowships
* Ribosomes Illuminated
* In Memoriam: Walter Goad


Comparative Genomics
* Model Organism Studies
* Sushi Delicacy
* Arabidopsis Sequence
* AAAS Prize
* Microbial Conference
*
Flyer; "Microbe Month"
*
VISTA Software
Mouse
* ORNL Mouse Program
*
MicroCAT Scanner Used
*
Draft Sequence Achieved
*
NCBI Mouse Resources
*
Human-Mouse Comparisons
*
MGI Allele Searching

Web, Publications, Resources
* Next-Generation Computing
* HGMIS Resources
* NSF QSB Report
* Structural Biology Basics
*
Minorities and the HGP
*
HGP Educational Kit
*
Testing, Counseling Resources
*
Biotech, ELSI Websites
*
Biotech Encyclopedia
*
ASM Report
*
Nature Yearbook
* Next Wave Publication
* High-School Curriculum
* Education CD-ROMs
* Exploring DNA in the Classroom


Funding
* US Genome Research Funding
*
UK Scholarships, PostDocs

Meeting Calendars & Acronyms
* Genome and Biotechnology Meetings
* Training Courses and Workshops
* Acronyms


* HGN archives and subscriptions
uman Genome Project Information home

Imaging Biological Structures

Because molecular shape often provides clues to function in biological systems, obtaining a detailed knowledge of structure can help elucidate the basic principles of cell and organism function and the role of faulty structures in disease. A broad collection of structural data will provide valuable information beyond that available from individual structures and will have applications in the life sciences, biotechnology, and medicine.

Key advances making structural genomics research possible include the availability of synchrotrons and high-field NMR (nuclear magnetic resonance) instruments; the MAD (multiwavelength anomalous diffraction) method of phase determination; high-throughput cloning and recombinant expression; a flood of information from genome sequencing projects; and bioinformatics methods for protein-fold assignment, model building, and function prediction.