<?xml version="1.0" encoding="UTF-8"?><profile href="/Research/research_centersandinstitutes/CVRI/CardiovascularResearchInstitute/LeonardAnderson/index.php">
   <image>
      <img src="/_resources/MSMimages/FacultyDirectoryImages/Medicine/LeonardAndersonRV.jpg" alt="Leonard Anderson, Ph.D."></img>
   </image>
   <name>Leonard Anderson, Ph.D.</name>
   <title>Assistant Professor</title>
   <department>Physiology</department>
   <title2></title2>
   <department2>Cardiovascular Research Institute</department2>
   <email>landerson@msm.edu</email>
   <phone>404-756-8921</phone>
   <location>Research Wing 210</location>
   <education>
      <strong>GRADUATE:</strong>
      <br></br>Northwestern Medical School 
      <br></br>
      <strong>Degree: </strong>Doctor of Philosophy in Molecular Genetics
      <br></br>
      <br></br>
      <br></br>
      <strong>UNDERGRADUATE:</strong>
      <br></br>Southern Illinois University-Carbondale 
      <br></br>
      <strong>Degree:</strong> Bachelor of Science in Microbiology and Chemistry
   </education>
   <research>Vascular diseases involving hyperproliferation of VSMCs, such as atherosclerosis,
      is one of the major causes of mortality in the U.S. and one of the leading causes
      of mortality among African Americans. VSMCs play a critical role in early vasculogenesis
      and blood vessel maintenance. The requirement for VSMC replenishment after vessel
      injury by putative stem cell progenitors suggest unique changes in the cellular transcriptome
      when compared to other cell lineages such as neurons, skeletal muscle, and cardiomyocytes.
      Our lab is currently interested in defining the process by which pluripotent stem
      cells become VSMCs at the transcriptional and, hence, signal transduction level by
      utilizing various innovative genomics technologies (i.e. Agilent OligoArrays, Affymetrix
      GeneChips, and protein arrays) to identify novel genes and proteins that play a crucial
      role in early VSMC fate determination. We are functionally characterizing these genes
      in pluripotent mouse embryonal carcinoma stem cells (P19) and various clonal derivatives
      by utilizing either 'gain of-' or 'loss of-' function methodologies to alter expression
      levels of identified genes. These functional genomics studies will provide insight
      into the mechanism(s) by which specific genes are involved in early cell lineage determination
      within the vasculature. Although the therapeutic potential of ES cell-derived ex vivo
      therapy has been demonstrated in mouse models of atherosclerosis and restenosis after
      balloon angioplasty, the outcome of these studies suggest further understanding of
      the basic molecular mechanisms involved in this process is required. The outcome of
      our genomic studies will allow us to gain insight into these early signaling events
      and potentially generate modified ES cells with a predetermined VSMC, and thus, greater
      therapeutic efficacy in vivo.
   </research>
   <clinicalinterests></clinicalinterests>
   <specialties>
      <!--%echo var="specialties" -->
   </specialties>
   <boardcerts></boardcerts>
   <publications>
      <div class="rprt">
         <div class="rslt">
            <p class="title">
               <strong>Anderson LM,</strong> Gibbons GH. Notch: a mastermind of vascular morphogenesis. 
               <span class="jrnl" title="The Journal of clinical investigation">J Clin Invest</span>. 2007 Feb;117(2):299-302. PMID: 17273550
               <br></br>
               <br></br>Morello F, de Boer RA, Steffensen KR, Gnecchi M, Chisholm JW, Boomsma F, 
               <strong>Anderson LM,</strong> Lawn RM, Gustafsson JA, Lopez-Ilasaca M, Pratt RE, Dzau VJ. Liver X receptors alpha
               and beta regulate renin expression in vivo. 
               <span class="jrnl" title="The Journal of clinical investigation">J Clin Invest</span>. 2005 Jul;115(7):1913-22. PMID: 16007255
               <br></br>
               <br></br>
               <strong>Anderson LM,</strong> Choe SE, Yukhananov RY, Hopfner RL, Church GM, Pratt RE, Dzau VJ. Identification
               of a novel set of genes regulated by a unique liver X receptor-alpha -mediated transcription
               mechanism. 
               <span class="jrnl" title="The Journal of biological chemistry">J Biol Chem</span>. 2003 Apr 25;278(17):15252-60. Epub 2003 Jan 27. PMID: 12551904
               <br></br>
               <br></br>Loguinov AV, 
               <strong>Anderson LM</strong>, Crosby GJ, Yukhananov RY. Gene expression following acute morphine administration. 
               <span class="jrnl" title="Physiological genomics">Physiol Genomics</span>. 2001 Aug 28;6(3):169-81. PMID: 11526201
               <br></br>
               <br></br>Sidiropoulos P, Liu H, Mungre S, 
               <strong>Anderson L,</strong> Thimmapaya B, Pope RM. Efficacy of adenoviral TNF alpha antisense is enhanced by
               a macrophage specific promoter. 
               <span class="jrnl" title="Gene therapy">Gene Ther</span>. 2001 Feb;8(3):223-31. PMID: 11313794 
               <br></br>
               <br></br>
               <strong>Anderson LM,</strong> Krotz S, Weitzman SA, Thimmapaya B. Breast cancer-specific expression of the Candida
               albicans cytosine deaminase gene using a transcriptional targeting approach. 
               <span class="jrnl" title="Cancer gene therapy">Cancer Gene Ther</span>. 2000 Jun;7(6):845-52. PMID: 10880014 
               <br></br>
               <br></br>
               <br></br>Click 
               <a href="http://www.ncbi.nlm.nih.gov/pubmed/?term=Anderson+LM">here</a> to view additional publications.
            </p>
         </div>
      </div>
   </publications>
   <awards></awards>
</profile>