Micropropagation is a reliable technology applied commercially worldwide for large-scale plant multiplication, germplasm conservation, pathogen elimination, genetic manipulations and supply of selected plants.
Considerable advances have taken place since the initial isolation and characterization of human embryonic stem (HES) cells; however, significant challenges remain before their potential for restoration and regeneration processes in patients can be realized.
As regenerative medicine involves replacing diseased cells, tissues or organs, or repairing tissues in vivo, the manipulation of stem cells underlie its goals.
Embryonic stem cells (ESCs) offer an unlimited self-renewing capacity, as opposed to the limits of adult stem cells; therefore, ESCs represent an almost bottomless resource for regenerative medicine and tissue engineering approaches.
In the dramatic and rapidly developing field of neural transplantation for CNS repair, the most powerful contributor has been the vital research focusing on stem cells.
Before the therapeutic potential of cell replacement therapy or the development of therapeutic drugs for stimulating the body's own regenerative ability to repair cells damaged by disease and injury can be fully realized, control of stem cell fate, immuno-rejection, and limited cell sources must be overcome.
In recent years, there have been major advances in the concepts and methodologies used in the study of retinal development at both cellular and molecular levels.
Almost daily, new technologies are being presented that move the field of human pluripotent stem cell research towards a future that may yield highly-effective, personalized medical treatments.
Due to its efficacy in animal models, cellular therapy using human hepatocytes is being evaluated worldwide as an alternative to organ transplantation in patients with liver-based metabolic disease and acute liver failure.
The migration of stem cells has been found to be critical during early development for the organization of the embryonic body as well as during adult life with tissue homeostasis and regeneration of organ function.
Stem Cell Nanotechnology: Methods and Protocols gathers several representative protocols related to the emerging interest in nanotechnology as it relates to stem cell biology.
Over time, it has become clear that changes in stem cells do occur during aging, not only in their number but also in their relationship to their microenvironment and their functionality as reflected in changes to their metabolome.
The discovery of stem and progenitor cells in the adult mammalian CNS challenged the long standing "e;no new neuron"e; doctrine and opened the door to the potential for cell replacement therapy.
Although embryonic stem cells currently enjoy the public limelight and show great pr- ise for cell based medical therapies, it is the adult stem cells which are responsible for the body's natural ability to fght disease, heal and recover, or fail and succumb to various maladies.
Interest in a specialized microenvironment or "e;niche"e; regulating hemopoietic stem cell function has been steadily growing since the idea was first proposed by Ray Schofield over three decades ago.
In Epiblast Stem Cells: Methods and Protocols, expect researchers in the field provide a detailed collection of techniques and protocols useful to the study of the biology of the pluripotent epiblast.
During the last decade, an increased interest in somatic stem cells has led to a flurry of research on one of the most accessible tissues of the body: skin.
This volume looks at the latest technologies and methods--combined with new genetic tools available in animal models--used in this constantly evolving field.
Micropropagation is a reliable technology applied commercially worldwide for large-scale plant multiplication, germplasm conservation, pathogen elimination, genetic manipulations and supply of selected plants.
Radiation Oncology and Radiotherapy, Part B, Volume 174 in the Methods in Cell Biology series, highlights advances in the field, with this new volume presenting interesting chapters on timely topics including CT-assisted focal irradiation of tumors in mice, Methods to preserve correct dosimetry in small animal irradiators, Monitoring TGFbeta signaling in irradiated tumors, Cytofluorometric characterization of the lymphoid compartment of irradiated tumors, Cytofluorometric characterization of the myeloid compartment of irradiated tumors, Mass cytometry to characterize the immune infiltrate of irradiated tumors, Characterization of the immune infiltrate in irradiated mouse tumor by multiplex immunofluorescence, and much more.
This is an introductory textbook for the study of human evolution, and covers all major topics of human origins taught under paleoanthropology, anthropology, archaeology, and evolutionary biology courses.
The book provides a comprehensive overview of classic and modern approaches of centrosome research, including new aspects of centrosome functions focusing on primary cilia and their implications in numerous diseases.
The Immunological Synapse, Part A, Volume 173 in the Methods in Cell Biology series provides state-of-the-art methods for the study of the immunological synapse.
This volume presents the latest techniques used to study germ cell tumors (GCTs), including histopathology; in vitro and in vivo techniques for investigating GCT biology; novel methods for detecting minimal residual diseases; and sequencing considerations as they apply to GCTs.
In the 1960s, Sydney Brenner proposed to use the nematode worm Caenorhabditis elegans to discover the control mechanisms of animal development and to reveal how a small number of neurons generate different behaviours, giving birth to a vibrant community that uses this animal model for their studies.
In the 1960s, Sydney Brenner proposed to use the nematode worm Caenorhabditis elegans to discover the control mechanisms of animal development and to reveal how a small number of neurons generate different behaviours, giving birth to a vibrant community that uses this animal model for their studies.
Charles Darwin desempeñó un papel crucial a la hora de convertir la herencia en una cuestión científica y, sin embargo, fracasó estrepitosamente a la hora de responderla.
Cilia: From Mechanisms to Disease, Part A, Volume 175 in the Methods in Cell Biology series, offers a range of techniques and protocols that can be used to study aspects of this interesting cellular organelle both in vitro and in vivo.
