<code id='44FE57A8AB'></code><style id='44FE57A8AB'></style>
    • <acronym id='44FE57A8AB'></acronym>
      <center id='44FE57A8AB'><center id='44FE57A8AB'><tfoot id='44FE57A8AB'></tfoot></center><abbr id='44FE57A8AB'><dir id='44FE57A8AB'><tfoot id='44FE57A8AB'></tfoot><noframes id='44FE57A8AB'>

    • <optgroup id='44FE57A8AB'><strike id='44FE57A8AB'><sup id='44FE57A8AB'></sup></strike><code id='44FE57A8AB'></code></optgroup>
        1. <b id='44FE57A8AB'><label id='44FE57A8AB'><select id='44FE57A8AB'><dt id='44FE57A8AB'><span id='44FE57A8AB'></span></dt></select></label></b><u id='44FE57A8AB'></u>
          <i id='44FE57A8AB'><strike id='44FE57A8AB'><tt id='44FE57A8AB'><pre id='44FE57A8AB'></pre></tt></strike></i>

          
          WSS
          A gene-edited Yucatan minipig. -- health coverage from STAT
          A gene-edited Yucatan minipig created by eGenesis. Courtesy Liz Linder/eGenesis

          For three days in December, an ICU room at the Hospital of the University of Pennsylvania bore witness to the first-ever merging of two powerful new technologies poised to change the future of transplant medicine.

          On a gurney, a brain-dead patient lay connected to a whirring Rube Goldberg-esque machine: a tangle of tubes and siphons on wheels. From a cannula on one end, blood from the patient entered, was pumped full of oxygen and other nutrients, then pushed into a cozy, temperature-controlled chamber containing a liver — one that until very recently had belonged to a CRISPR-edited pig — before being returned to the patient.

          advertisement

          The experiment, designed to test whether a genetically engineered porcine liver kept alive in a box could support the circulatory system of a human, was a resounding success, the research team said Thursday.

          Get unlimited access to award-winning journalism and exclusive events.

          Subscribe Log In

          Leave your comment

          Please enter your name
          Please enter your comment

          fashion