The journal "Biochemical and Molecular Biology Education" (BAMBEd, http://www.bambed.org/ www required) continues to grow and thrive under the editorship of Don and Judy Voet. The May/June issue includes "A new three-dimensional educational model kit for building DNA and RNA molecules: development and evaluation", which describes injection-molded plastic models with attention to pedagogically important detail. The authors are in Brazil and I found no mention of whether their models are available for purchase. The July/August issue contains three articles relevant to MolVis. Tim Herman and others contribute "Tactile teaching, exploring protein structure/function using physical models". They make a compelling case for the impact of physical models in learning. They have led exciting model designing collaborations between educators/students and researchers reporting cutting edge molecular structures. They have initiated impressive model-building challenges for the Science Olympiad competition. A cut-away spacefilled model of the active site of acetylcholinesterase combats the mis-impression (from ball and stick models) that "proteins are made mostly of air". Models can be borrowed by educators from their lending library (http://www.rpc.msoe.edu/cbm/lib/). Angel Herraez contributes "Biomolecules in the computer: Jmol to the rescue", introducing Jmol and arguing effectively for the ability of the Jmol java applet to replace Chime, avoiding many of the problematic issues with Chime. This is a meaty and scholarly article, amply illustrated, and including a short glossary. Finally, I personally enjoyed Howard Dintzis' "The wandering pathway to determining N to C synthesis of proteins - Some recollections concerning protein structure and biosynthesis". As a student, he was taught that the function of DNA is to maintain osmotic balance in the nucleus. His descriptions of rubbing elbows with Max Perutz, John Kendrew, and Francis Crick are fascinating, including early searches for mutant human proteins (culminating in sickle cell hemoglobin). In 1954, they were calculating a Patterson maps for heavy metal derivitives of myoglobin and hemoglobin on the vacuum-tube (valve) EDSAC 1, the most powerful digital computer of the day. Its 1 kilobyte dynamic memory utilized an iron pipe filled with mercury, in which sound waves traveling between a speaker and a microphone encoded the data! -Eric ---- Eric Martz, Professor Emeritus, Dept Microbiology University of Massachusetts, Amherst MA US http://www.umass.edu/molvis/martz