Stembook Sections:
Cellular and nuclear reprogramming »
  • Inducing pluripotency
  • Stem cells in animal models of regeneration
  • Small RNAs – their biogenesis, regulation and function in embryonic stem cells
Ectoderm specification and differentiation »
  • The cranial sensory nervous system: specification of sensory progenitors and placodes
  • Tooth organogenesis and regeneration
  • Melanocyte stem cells
Endoderm specification and differentiation »
  • Pancreatic stem cells
  • Specification and patterning of the respiratory system
  • Liver development
Epigenetics »
  • Epigenetic mechanisms controlling mesodermal specification
  • Imaging chromatin in embryonic stem cells
  • Epigenetic silencing during early lineage commitment
Genomics and proteomics »
  • Proteomic studies of stem cells
  • Genome-wide transcription factor localization and function in stem cells
  • The pluripotent transcriptome
Germ cell and somatic stem cell biology in reproduction »
  • Regulation of spermatogonia
  • piRNA function in germline development
  • The role of microRNAs in germline differentiation
Manufacturing »
  • Regulatory challenges for the manufacture and scale-out of autologous cell therapies
  • From production to patient: challenges and approaches for delivering cell therapies
Mesoderm specification and differentiation »
  • Epigenetic mechanisms controlling mesodermal specification
  • Mouse kidney development
  • Adult mesenchymal stem cells
Niche biology, homing, and migration »
  • Hematopoietic stem cell trafficking
  • The neural stem cell microenvironment
Renewal »
  • Aging and stem cell renewal
  • Quiescent stem cells in the niche
  • Mechanisms regulating stem cell polarity and the specification of asymmetric divisions
Stem cell immunology »
  • Immunologic targeting of the cancer stem cell
  • Immunological considerations for cell therapy using human embryonic stem cell derivatives
  • Mouse models of graft-versus-host disease
Therapeutic prospects »
  • The hematopoietic stem cell niche
  • Medical applications of epidermal stem cells
  • Mesenchymal stromal cells as a drug delivery system
Tissue engineering »
  • Molecular Imaging of Stem Cells **NEW**
  • Combining Stem Cells and Biomaterial Scaffolds for Constructing Tissues and Cell Delivery **NEW**
  • Autologous approaches to tissue engineering

News & Commentaries

Becoming A Nerve Cell: Timing Is Of The Essence

Stembook: Becoming A Nerve Cell: Timing Is Of The Essence

Gent, Belgium – Mitochondria are small organelles that provide the energy critical for each cell in our body, in particular in the high fuel-consuming brain. In this week’s edition of Science, a Belgian team of researchers led by Pierre Vanderhaeghen (VIB-KU Leuven, ULB) finds that mitochondria also regulate a key event during brain development: how neural stem cells become nerve cells. Mitochondria influence this cell fate switch during a precise period that is twice as long in humans compared to mice. The seminal findings highlight an unexpected function for mitochondria that may help explain how humans developed a bigger brain during evolution, and how mitochondrial defects lead to neurodevelopmental diseases. the study was published in Science.

Implanted Neural Stem Cell Grafts Show Functionality in Spinal Cord Injuries

Stembook: Implanted Neural Stem Cell Grafts Show Functionality in Spinal Cord Injuries

San Diego, CA,USA – Using stem cells to restore lost functions due to spinal cord injury (SCI) has long been an ambition of scientists and doctors. Nearly 18,000 people in the United States suffer SCIs each year, with another 294,000 persons living with an SCI, usually involving some degree of permanent paralysis or diminished physical function, such as bladder control or difficulty breathing.

UMSOM Researchers Discover Stem Cells in the Optic Nerve that Enable Preservation of Vision

Stembook: UMSOM Researchers Discover Stem Cells in the Optic Nerve that Enable Preservation of Vision
Finding May Lead to New Therapeutic Strategy for Disorders Causing Blindness

Baltimore, MD, USA – Researchers at the University of Maryland School of Medicine (UMSOM) have for the first time identified stem cells in the region of the optic nerve, which transmits signals from the eye to the brain. The finding, published this week in the journal Proceedings of the National Academy of Sciences (PNAS), presents a new theory on why the most common form of glaucoma may develop and provides potential new ways to treat a leading cause of blindness in American adults.