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Man With the "Golden Arm" Has Saved Lives of 2 Million Babies

schwit1 writes: James Harrison, known as "The Man with the Golden Arm," has donated blood plasma from his right arm nearly every week for the past 60 years. Soon after Harrison became a donor, doctors called him in. His blood, they said, could be the answer to a deadly problem. Harrison was discovered to have an unusual antibody in his blood and in the 1960s he worked with doctors to use the antibodies to develop an injection called Anti-D. It prevents women with rhesus-negative blood from developing RhD antibodies during pregnancy. "In Australia, up until about 1967, there were literally thousands of babies dying each year, doctors didn't know why, and it was awful," explains Jemma Falkenmire, of the Australian Red Cross Blood Service. "Women were having numerous miscarriages and babies were being born with brain damage." It was the result of rhesus disease — a condition where a pregnant woman's blood actually starts attacking her unborn baby's blood cells. In the worst cases it can result in brain damage, or death, for the babies. Australia was one of the first countries to discover a blood donor with this antibody, so it was quite revolutionary at the time. Last year we ran a story about another person with "golden blood" named Thomas.

2 of 97 comments (clear)

  1. Re:Hmmm ... by Sqweegee · · Score: 4, Informative

    They don't have to at all.

    I worked for one of the company that produced WinRho SDF and we collected donations locally and a location in the US. There's probably a few hundred potential donors in the average sized city. There's a half dozen different name brands for the stuff.

    http://en.wikipedia.org/wiki/R...

  2. SURE they can. by Ungrounded+Lightning · · Score: 4, Informative

    They can isolate and concentrate it, maybe stimulate production, but full synthesis? I don't see that happening yet.

    Huh?

    Human monoclonal antibodies have been grown by culturing gene-engineered mouse cells since at least 1988. They're already in use treating a number of diseases and more are in the approval pipeline.

    From Wikipedia:

    Building on the work of many others, in 1975, Georges KÃhler and César Milstein succeeded in making fusions of myeloma cell lines with B cells to produce hybridomas that made antibodies to known antigens and that were immortalized.[2] They shared the Nobel Prize in Physiology or Medicine in 1984 for the discovery.[2]

    In 1988, Greg Winter and his team pioneered the techniques to humanize monoclonal antibodies,[3] removing the reactions that many monoclonal antibodies caused in some patients.

    Monoclonal antibodies have been generated and approved to treat cancer, cardiovascular disease, inflammatory diseases, macular degeneration, transplant rejection, multiple sclerosis, and viral infection (see monoclonal antibody therapy).

    In August 2006 the Pharmaceutical Research and Manufacturers of America reported that U.S. companies had 160 different monoclonal antibodies in clinical trials or awaiting approval by the Food and Drug Administration.

    This disease process looks like suitable candidate for this approach, as well.

    A few antibody PRODUCING cells, harvested from the same donor(s) as the antibodies, would be an ideal starting point: The antibodies have already been proven to cure the disease, so only a production mechanism is needed. Once a suitable cell line has been constructed, tested, and its product approved, the donor can retire, secure in the knowledge that his genetic material will continue to save mothers' and babies' lives, even long after his death.

    --
    Bantam Dominique roosters crow a four-note song. Once you've heard it as "Happy BIRTHday" you can't NOT hear it that way