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Advanced Cell Technology
Advanced Cell Technology (ACT) is a biotechnology company that specializes in developing cellular therapies to treat human diseases and was one of the first companies to run an FDA-approved clinical trial based on embryonic stem cells. The corporate offices and principal laboratory for ACT are located in Marlborough, Massachusetts, where the company is headed by Ted Myles (interim president, chief financial officer, and executive vice president of Corporate Development) who began at ACT in June 2013, and Robert Lanza, MD (chief scientific officer), who began working at ACT in 1999. Lanza is also an adjunct professor at the Wake Forest University School of Medicine in the Institute of Regenerative Medicine. ACT owns or licenses over 150 patents, including a broad patent for producing retinal pigment epithelial (RPE) cells for degenerative retinal disease.
ACT began working in animal cloning in the mid-1990s, but shifted its research focus to human cells in 1998, shortly after the first isolation of human embryonic stem cells (hESC). Michael West became ACT’s chief executive in 1998, and in 1999 bought the company. West recruited Robert Lanza to ACT, and the company focused on therapeutic cloning, a method of developing stem cell lines from a patient’s own cell, thus avoiding the potential for rejection of cells created from unrelated embryos.
In 2001, ACT scientists published a paper in the online journal Biomed describing a method for cloning a human embryo. Thereafter, West appeared on the television program Meet the Press to discuss the paper, bringing publicity to the company. However, according to Corie Lok in a 2012 article in Nature, that announcement may have backfired because the ACT scientists’ accomplishments were not considered significant by the scientific community (in part because the embryo they produced stopped dividing far short of what would be required to derive stem cells), but did trigger a public and political reaction that confused hESC research and cloning.
In order to raise funds, ACT merged in 2005 with the Utah-based company Two Moons Kachina and became a publicly traded firm. The company expanded and, in August 2006, Lanza and colleagues announced in Nature that they had developed a method to derive stem cells from a single cell removed from an embryo. This method could potentially allow stem cells to be produced without harming the embryo, but the embryos used in the reported study were destroyed in the process. According to Lok, this distinction was not made clear in the study or in press releases regarding the study and many news outlets reported that the company had developed a method to derive stem cells without destroying an embryo. If this claim had been true, ACT’s process would avoid some of the ethical concerns surrounding stem cell research. When it became clear that ACT did not have a method for deriving stem cells without destroying the embryo, it hurt the company’s reputation and made it difficult to attract investors.
ACT’s current research and development process has four main focuses, two of which are based on hESC. The first hESC-based therapy, RPE therapy, is intended to treat degenerative retinal disease. RPE therapy is currently undergoing Phase I/II clinical trials for adults (over 18 years) in the United States and the European Union as a treatment for Stargardt’s Macular Dystrophy and atrophic (dry) AMD (age-related macular degeneration). This phase of testing is primarily to determine the safety and toleration of the treatment, which involves the transplantation of hESC-derived RPE cells. The second hESC-based therapy in development is the hemangioblast platform for treatment of diseases and disorders of the circulatory and vascular system; this therapy, which is currently in the preclinical phase, is being developed by ACT in partnership with the Korean company CHA Biotech.
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- Adipose: Cell Types Composing the Tissue
- Adipose: Current Research on Isolation or Production of Therapeutic Cells
- Adipose: Development and Regeneration Potential
- Adipose: Existing or Potential Regenerative Medicine Strategies
- Adipose: Major Pathologies
- Adipose: Stem and Progenitor Cells in Adults
- Adipose: Tissue Function
- Adult Stem Cells: Overview
- Bladder: Cell Types Composing the Tissue
- Bladder: Current Research on Isolation or Production of Therapeutic Cells
- Bladder: Development and Regeneration Potential
- Bladder: Existing or Potential Regenerative Medicine Strategies
- Bladder: Major Pathologies
- Bladder: Stem and Progenitor Cells in Adults
- Blood Adult Stem Cell: Current Research on Isolation or Production of Therapeutic Cells
- Blood Adult Stem Cell: Development and Regeneration Potential
- Blood Adult Stem Cell: Existing or Potential Regenerative Medicine Strategies
- Blood Adult Stem Cell: Major Pathologies
- Blood Adult Stem Cell: Stem and Progenitor Cells in Adults
- Bone: Cell Types Composing the Tissue
- Bone: Current Research on Isolation or Production of Therapeutic Cells
- Bone: Development and Regeneration Potential
- Bone: Existing or Potential Regenerative Medicine Strategies
- Bone: Major Pathologies
- Bone: Stem and Progenitor Cells in Adults
- Breast: Cell Types Composing the Tissue
- Breast: Current Research on Isolation or Production of Therapeutic Cells
- Breast: Development and Regeneration Potential
- Breast: Existing or Potential Regenerative Medicine Strategies
- Breast: Major Pathologies
- Breast: Stem and Progenitor Cells in Adults
- Cartilage, Tendons, and Ligaments: Cell Types Composing the Tissue
- Cartilage, Tendons, and Ligaments: Current Research on Isolation or Production of Therapeutic Cells
- Cartilage, Tendons, and Ligaments: Development and Regeneration Potential
- Cartilage, Tendons, and Ligaments: Existing or Potential Regenerative Medicine Strategies
- Cartilage, Tendons, and Ligaments: Major Pathologies
- Cartilage, Tendons, and Ligaments: Stem and Progenitor Cells in Adults
- Dental: Current Research on Isolation or Production of Therapeutic Cells
- Dental: Development and Regeneration Potential
- Dental: Existing or Potential Regenerative Medicine Strategies
- Dental: Major Pathologies
- Dental: Stem and Progenitor Cells in Adults
- Eyes: Cell Types Composing the Tissue
- Eyes: Current Research on Isolation or Production of Therapeutic Cells
- Eyes: Development and Regeneration Potential
- Eyes: Existing or Potential Regenerative Medicine Strategies
- Eyes: Major Pathologies
- Eyes: Stem and Progenitor Cells in Adults
- Eyes: Tissue Function
- Gonads, Female: Cell Types Composing the Tissue
- Gonads, Female: Current Research on Isolation or Production of Therapeutic Cells
- Gonads, Female: Development and Regeneration Potential
- Gonads, Female: Major Pathologies
- Gonads, Female: Stem and Progenitor Cells in Adults
- Gonads, Male: Cell Types Composing the Tissue
- Gonads, Male: Current Research on Isolation or Production of Therapeutic Cells
- Gonads, Male: Development and Regeneration Potential
- Gonads, Male: Existing or Potential Regenerative Medicine Strategies
- Gonads, Male: Major Pathologies
- Gonads, Male: Stem and Progenitor Cells in Adults
- Graft Failure: Graft-Versus-Host Disease
- Gut: Current Research on Isolation or Production of Therapeutic Cells
- Gut: Development and Regeneration Potential
- Gut: Existing or Potential Regenerative Medicine Strategies
- Gut: Major Pathologies
- Gut: Stem and Progenitor Cells in Adults
- Heart: Cell Types Composing the Tissue
- Heart: Current Research on Isolation or Production of Therapeutic Cells
- Heart: Development and Regeneration Potential
- Heart: Existing or Potential Regenerative Medicine Strategies
- Heart: Major Pathologies
- Heart: Stem and Progenitor Cells in Adults
- Heart: Tissue Function
- Kidney: Cell Types Composing the Tissue
- Kidney: Current Research on Isolation or Production of Therapeutic Cells
- Kidney: Development and Regeneration Potential
- Kidney: Existing or Potential Regenerative Medicine Strategies
- Kidney: Major Pathologies
- Kidney: Stem and Progenitor Cells in Adults
- Liver: Cell Types Composing the Tissue
- Liver: Current Research on Isolation or Production of Therapeutic Cells
- Liver: Development and Regeneration Potential
- Liver: Existing or Potential Regenerative Medicine Strategies
- Liver: Major Pathologies
- Liver: Stem and Progenitor Cells in Adults
- Liver: Tissue Function
- Lung: Cell Types Composing the Tissue
- Lung: Current Research on Isolation or Production of Therapeutic Cells
- Lung: Development and Regeneration Potential
- Lung: Existing or Potential Regenerative Medicine Strategies
- Lung: Major Pathologies
- Lung: Stem and Progenitor Cells in Adults
- Lung: Tissue Function
- Mesenchymal: Cell Types Composing the Tissue
- Mesenchymal: Current Research on Isolation or Production of Therapeutic Cells
- Mesenchymal: Development and Regeneration Potential
- Mesenchymal: Existing or Potential Regenerative Medicine Strategies
- Mesenchymal: Major Pathologies
- Mesenchymal: Stem and Progenitor Cells in Adults
- Muscle: Cell Types Composing the Tissue
- Muscle: Current Research on Isolation or Production of Therapeutic Cells
- Muscle: Development and Regeneration Potential
- Muscle: Existing or Potential Regenerative Medicine Strategies
- Muscle: Major Pathologies
- Muscle: Stem and Progenitor Cells in Adults
- Neural: Cell Types Composing the Tissue
- Neural: Current Research on Isolation or Production of Therapeutic Cells
- Neural: Development and Regeneration Potential
- Neural: Existing or Potential Regenerative Medicine Strategies
- Neural: Major Pathologies
- Neural: Stem and Progenitor Cells in Adults
- Pancreas: Cell Types Composing the Tissue
- Pancreas: Current Research on Isolation or Production of Therapeutic Cells
- Pancreas: Development and Regeneration Potential
- Pancreas: Existing or Potential Regenerative Medicine Strategies
- Pancreas: Major Pathologies
- Pancreas: Stem and Progenitor Cells in Adults
- Pancreas: Tissue Function
- Skin: Cell Types Composing the Tissue
- Skin: Current Research on Isolation or Production of Therapeutic Cells
- Skin: Development and Regeneration Potential
- Skin: Existing or Potential Regenerative Medicine Strategies
- Skin: Major Pathologies
- Skin: Stem and Progenitor Cells in Adults
- Skin: Tissue Function
- Sweat Gland: Cell Types Composing the Tissue
- Sweat Gland: Current Research on Isolation or Production of Therapeutic Cells
- Sweat Gland: Development and Regeneration Potential
- Sweat Gland: Existing or Potential Regenerative Medicine Strategies
- Sweat Gland: Major Pathologies
- Sweat Gland: Stem and Progenitor Cells in Adults
- Vascular Stem Cell
- C. elegans Models to Study Stem Cells
- Drosophila Models to Study Stem Cells
- Mouse Models to Study Stem Cells
- Rat Models to Study Stem Cells
- Xenopus Models to Study Stem Cells
- Zebrafish Models to Study Stem Cells
- Brain Cancer
- Breast Cancer
- Cancer Stem Cells: Overview
- Colon Cancer
- Head and Neck Cancer
- Leukemia and Lymphoma Cancer Stem Cells
- Liver Cancer
- Lung Cancer
- Melanoma: Stem Cells
- Pancreatic Cancer
- Skin Cancer
- Clinical Trials, U.S.: AIDS-Related Conditions
- Clinical Trials, U.S.: Amyotrophic Lateral Sclerosis
- Clinical Trials, U.S.: Batten Disease
- Clinical Trials, U.S.: Blood Deficiencies
- Clinical Trials, U.S.: Crohn’s Disease
- Clinical Trials, U.S.: Diabetes
- Clinical Trials, U.S.: Eye Conditions
- Clinical Trials, U.S.: Graft Failure, Graft-Versus-Host Disease
- Clinical Trials, U.S.: Heart Disease
- Clinical Trials, U.S.: Hematological Cancers
- Clinical Trials, U.S.: Immunologic/Histiocytic Disorders
- Clinical Trials, U.S.: Kidney Disease
- Clinical Trials, U.S.: Multiple Sclerosis
- Clinical Trials, U.S.: Parkinson’s Disease
- Clinical Trials, U.S.: Peripheral Vascular Disease
- Clinical Trials, U.S.: Skin Transplants
- Clinical Trials, U.S.: Solid Tumors
- Clinical Trials, U.S.: Spinal Cord Injury
- Clinical Trials, U.S.: Stroke
- Clinical Trials, U.S.: Traumatic Brain Injury
- Clinical Trials Outside the United States
- Clinical Trials Outside the United States: Amyotrophic Lateral Sclerosis
- Clinical Trials Outside the United States: Cerebral Palsy
- Clinical Trials Outside the United States: Spinal Cord Injury
- Clinical Trials Outside the United States: Stroke
- Animal Cloning
- Reproductive and Therapeutic Cloning
- Australia
- Belgium
- Brazil
- China
- Denmark
- France
- Germany
- India
- Iran
- Italy
- Japan
- Korea
- Netherlands
- Norway
- Saudi Arabia
- Singapore
- Spain
- Sweden
- Switzerland
- Taiwan
- United Kingdom
- United States
- Chimera Formation, Ethics of
- Clinical Trials, Ethics of
- Clinical Trials (Adult Cells), Ethics of
- Cloning, Ethics of
- Egg Donation, Ethics of
- Genome Sequencing, Ethics of
- Germ Cell Modifications (Gene Therapy), Ethics of
- In Vitro Production of Germ Cells, Ethics of
- Moral Status of Embryos
- Unapproved Therapy, Ethics of
- Tissue Engineering (Scaffold)
- Tissue Printing
- Aastrom Biosciences, Inc.
- Advanced Cell Technology
- Athersys
- Beike Biotechnology
- California Stem Cell, Inc.
- Cellerant Therapeutics
- Cryo-Cell International
- Cryo-Save
- Cytori Therapeutics, Inc.
- ES Cell International
- Fate Therapeutics
- Geron Corporation
- International Stem Cell Corporation
- Lentigen Corporation
- NeoStem, Inc.
- Neuralstem, Inc.
- New Biotech: Overview
- Parcell Laboratories
- Pathfinder Cell Therapy
- Stem Cell Companies: Overview
- Stemagen
- Stematix
- TiGenix/Cellerix
- ViaCyte, Inc.
- Albert Einstein College of Medicine
- Autonomous University of Barcelona
- Autonomous University of Madrid
- Baylor University
- Boston Children’s Hospital
- California Institute for Regenerative Medicine
- Case Western Reserve University/Cleveland Clinic
- Columbia University
- Coriell Institute for Medical Research
- Duke University
- Genetics Policy Institute
- Harvard University
- Hebrew University of Jerusalem
- Howard Hughes Medical Institute
- Indiana University
- Johns Hopkins University
- Karolinska Institute
- Kyoto University
- Massachusetts General Hospital
- Massachusetts Institute of Technology
- Max Planck Society
- Mayo Clinic
- McMaster University
- Mount Sinai School of Medicine
- National Academy of Sciences
- Northwestern University
- Oregon Health & Science University
- Ottawa Hospital Research Institute
- Pasteur Institute
- Peking University
- Princeton University
- Reeve-Irvine Research Center
- Robarts Research Institute
- Rockefeller University
- Rutgers University
- Sanford-Burnham Medical Research Institute
- Scripps Research Institute
- Sloan Kettering Institute
- Stanford University
- Stowers Institute for Medical Research
- University of Bonn
- University of British Columbia
- University of California, Berkeley
- University of California, Davis
- University of California, Los Angeles
- University of California, San Diego
- University of California, San Francisco
- University of Cambridge
- University of Connecticut
- University of Heidelberg
- University of Melbourne
- University of Miami
- University of Michigan
- University of Milan
- University of Minnesota
- University of North Carolina at Chapel Hill
- University of Oxford
- University of Pittsburgh
- University of Southern California
- University of Strasbourg
- University of Texas Health Science Center at Houston
- University of Tokyo
- University of Toronto
- University of Washington/Fred Hutchinson Cancer Research Center
- University of Wisconsin–Madison
- University Pierre et Marie Curie, Paris
- Vanderbilt of University
- Wake Forest University
- Weill Cornell Medical College
- Weizmann Institute of Science
- Whitehead Institute for Biomedical Research
- Yale University
- Bioreactors
- Xenotransplantation
- Gene Patents
- International Society for Stem Cell Research Guidelines
- Pluripotent Stem Cell Patents
- Bone Marrow Transplants
- Direct Reprogramming of Adult Cells Into Other Cell Types
- Endothelial Cell Isolation
- Fluorescence-Activated Cell Sorting
- Genome Sequencing
- Human ES Cell Isolation
- In Vitro Fertilization
- In Vitro Stem Cell Study Assays
- In Vivo Stem Cell Study Assays
- Lineage Tracing
- Mouse ES Cell Isolation
- MRI Tracking
- Non-Human Primate Embryonic Stem Cells
- Nuclear Transfer, Altered
- Nuclear Transfer, Somatic Cell
- Parthogenesis
- Preimplantation Genetic Diagnosis
- Profiling Study Methods
- Stem Cell Epigenetic: Chromatin Modification
- Stem Cell Epigenetic: DNA Methylation
- Stem Cell Epigenetic: DNA Replication
- Stem Cell Expression Profiling
- Stem Cell Genetic Modification Study Method
- Stem Cell Markers
- Stem Cell Purification
- Tissue Culture Study Methods
- Viral Vectors: Adeonvirus
- Viral Vectors: Lentivirus
- Amniotic Fluid Cells
- Cord Blood Stem Cells
- Fetal Stem Cells
- Mesenchymal Stem Cells
- American Association for the Advancement of Science
- California Institute for Regenerative Medicine
- Canada: Stem Cell Network
- Christopher & Dana Reeve Foundation, The
- Danish Stem Cell Research
- EuroStemCell
- Howard Hughes Medical Institute
- International Society for Stem Cell Research
- International Stem Cell Forum
- Japan Human Cell Society
- Lasker Foundation
- Medical Research Council (UK)
- Michael J. Fox Foundation
- National Institutes of Health
- National Science Foundation
- National Stem Cell Bank
- New York Stem Cell Foundation
- Parkinson’s Disease Foundation
- Scotland: Stem Cell Research and Regenerative Medicine
- Stem Cell Genome Anatomy Projects
- Stem Cell Network North Rhine Westphalia
- Swiss Stem Cells Network
- UK National Stem Cell Network
- WiCell
- Alvarez-Buylla, Arturo
- Anversa, Piero
- Charo, Alta
- Frenette, Paul
- Fuchs, Elaine
- Goldman, Steven A.
- Hochedlinger, Konrad
- Langer, Robert
- Losordo, Douglas
- Martino, Gianvito
- McCulloch, Ernest
- Orkin, Stuart
- Pera, Martin
- Rafii, Shahin
- Rao, Mahendra
- Reynolds, Brent A., and Samuel Weiss
- Scadden, David
- Snyder, Evan
- Steindler, Dennis
- Studer, Lorenz
- Thomson, James
- Till, James
- van der Kooy, Derek
- Vescovi, Angelo
- Weissman, Irving
- Yamanaka, Shinya
- Embryonic Stem Cells, Methods to Produce
- iPS, Methods to Produce
- iPS Tissue Sources
- iPSC From Animal Cells
- Pluripotency Network
- Pluripotent Stem Cells, Embryonic
- Pluripotent Stem Cells, Epi
- Pluripotent Stem Cells, Germ
- Pluripotent Stem Cells, Teratoma
- Advocacy
- Congress: Votes and Amendments
- Do No Harm: The Coalition of Americans for Research Ethics
- National Right to Life Committee
- President’s Council on Bioethics
- Special Interest/Lobby Groups
- Stem Cells: Bush Ruling
- Buddhism
- Catholicism
- Christianity
- Judaism
- Muslim
- Alzheimer’s Disease
- Animal Cloning
- Autism
- Cord Blood Banking
- Cosmetic Surgery
- Drug Testing and Drug Development in Cell Culture
- Endothelial Blood Vessels
- ESC and iPSC Banking
- Fertility Treatment Creation of Germ Cells From Adult Cells
- Food From Stem Cells
- Gene Therapy: Hemoglobinopathies
- Graft Failure: Graft-Versus-Host Disease
- Hearing Disease
- Heart Disease
- Hematopoietic Transplantation: Cancer
- Hematopoietic Transplantation: Gene Therapy
- Immune Disorders
- In Utero Treatment
- Kidney Disease
- Lung Disease
- Pancreatic Islet Transplant
- Parkinson’s Disease
- Radiation Injury Treatment
- Retinal Stem Cells
- Schizophrenia
- Skin Graft
- Spinal Cord Injury
- Stem Cell Banking
- Transfusion Product: NK Cells
- Transfusion Product: Platelets
- Transfusion Product: Red Blood Cells
- Wound Repair
- Self-Renewal and Differentiation
- Stem Cell Aging
- Stem Cell Differentiation/Self-Organization
- Stem Cell DNA Repair
- Stem Cell Ground State
- Stem Cell Histocompatibility
- Stem Cell Niche
- Stem Cell Plasticity
- Stem Cell Potency
- Tissue Regeneration: Animals and Plants
- Tissue Regeneration: Humans
- Transit Amplifying Cells
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