Biointerphases
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Biointerphases is a peer-reviewed open access journal published under the brand SpringerOpen. It is an interdisciplinary journal which explores all aspects of quantitative soft matter interfaces: chemistry, physics, engineering, theory and modeling. Topics covered include interface spectroscopy, in vivo and in vitro mechanisms, interface modeling, adhesion phenomena, protein-surface interactions, biomembranes on a chip, cell-surface interactions, biosensors/biodiagnostics, bio-surface modification, the nano-bio interface, biotribology/biorheology, molecular recognition, cell patterning for function, polyelectrolyte surfaces, and ambient diagnostic methods. In addition to regular submissions, the journal includes the In Focus section of features, examining specific topics and edited by experts in the field.

Related Subjects: Biomaterials - Biomedical Engineering - Biophysics & Biological Physics - Condensed Matter Physics - Physical Chemistry

Abstracted/Indexed in: Science Citation Index Expanded (SciSearch), PubMed/Medline, SCOPUS, EMBASE, Google Scholar, Biochemistry and Biophysics Citation Index, Biological Abstracts, BIOSIS, CSA Environmental Sciences, INIS Atomindex, Materials Science Citation Index, OCLC, Polymer Library, Summon by Serial Solutions

Announcements

Biointerphases Announces New Publishing Partnership with Springer Verlag
Biointerphases is now published through SpringerOpen, Springer Verlag's suite of open access journals. We and Springer are committed to fostering and growing the open access model. For more information, visit our submission site.

Research Highlights
  Using a Vacuum to Study Collagen Matrices? Carry On: Commonly used high vacuum techniques do not significantly affect the protein scaffolding on which tissue cells grow

For the cells that comprise our tissue, the extracellular matrix (ECM) - a collection of fibers made of the protein collagen, each about 150-200 micrometers thick and lying together like spaghetti on a plate - is more than a home. This collagen matrix acts as a scaffold on which cells grow and thrive, but it also tells them how to live.
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New Technique Allows Fluorescence Monitoring of Biochemical Interactions without Analyte Tagging

IA major mechanism by which a cell interacts with its environment is the binding of a substance, known as a ligand, to a receptor protein within the cell membrane. The ligand can be a small molecule, a protein or even a structure as large as a virus or bacterium. This binding alters the conformation of the receptor and triggers some type of change. . Read more

Mutability and the Edible Urchin: Sea Urchin Ligaments Provide Fare for Tissue Regeneration Studies

Its slimy orange-brown ovaries have been called "the liver of the sea" and are a popular food in sushi bars and Mediterranean countries. But Paracentrotus lividus, the common purple sea urchin, has more to offer than its ovaries as a culinary delicacy. As a member of the echinoderm group, this sea urchin is an ideal animal model for a "peculiar and important biological phenomenon" called mutability. Read more
Medicine On Demand: Stimuli Responsive 'Smart Systems' Promise More Control Over Treatment and Diagnosis

Chemical compounds that target wounds to be healed, or tumors to be eradicated, could give doctors more control over the treatment of a range of conditions, such as cancer, degenerative diseases, and HIV. Chemists and biologists are currently working to make these compounds, or "smart systems," a clinical reality with stimuli-responsive (SR) polymers. What is so exciting about these SR polymers is that they can promote specific activities "on demand.....Read more

Patterned After Nature: A Conversation with Peter Fratzl on New Frontiers in Materials Science, and the Quest to Understand—and Mimic—Nature's Unusual Engineering Solutions

Grass, bones, and sea shells may appear to have little in common. But to scientists like Peter Fratzl, they share the promise of providing information that could revolutionize engineering and medicine. Fratzl, director at the Max Planck Institute of Colloids and Interfaces in Potsdam, Germany, studies the relationship between structure and mechanical behavior of biological materials. We asked Dr. Fratzl a few questions about his work and the field of what he calls "biological materials science," the subject of his plenary lecture at the International Conference on Metallurgical Coatings and Thin Films (ICMCTF) this month in San Diego, Calif.
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  Hanging Tight: Researchers Test How Much Force is Required to Wash Away Unwanted Films of Marine Bacteria

Seawater teems with bacteria that readily latch on to submerged surfaces.  Thick, slimy mats of bacteria can cover the undersides of ships and gum up the works of ocean sensors and other underwater equipment. The bacteria often pave the way for other unwanted colonizers such as barnacles, algae, and tubeworms. On just one class of U.S. Navy destroyer, biological build-up, called biofouling, is estimated to cost more than $50 million a year, mostly in extra fuel, according to a 2010 study performed by researchers from the U.S. Naval Academy and Naval Surface Warfare Center in Maryland.
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Meeting Announcements
  • FEBS Workshop: Biological Surfaces and Interfaces
    June 30-July 5, 2013
    Sant Feliu de Guixols, Catalonia, Spain
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  • 19th International Vacuum Congress (IVC) 
    September 9-13, 2013
    Paris, France
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Recent Meeting Highlights

Announcing the Biointerphase Poster Prize Winner from the AVS 59th International Symposium & Exhibition:

Prize Winner: Mart Cooperstein, University of New Mexico

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Announcing the Biointerphase Poster
Prize Winners from Gelsympo 2012
October 9-12, 2012
Tsukuba, Japan


First Prize:
Pua Min Ley, University of Tsukuba: Development of Novel Injectable Nitroxide Radical-containing Hydrogel for Treatments of Carrageenan-induced Local Inflammation

Second Prize: Wataru Kawai, Tokyo University of Science: Adhesive strength of adhered biodegradable hydrogels by alternating electric field