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ViaCord collaborates with leading research and medical centers across the country to help advance medical treatments using cord blood, discover treatments using cord tissue, and connect families to relevant clinical trials.
Targeted efforts should be made to recruit underserved minorities (black, Hispanic, American Indian/Alaska Native individuals) in public cord blood–banking programs to extend to them potential treatments afforded other segments of society.
For families that choose to bank cord blood, the American Academy of Pediatrics (AAP) recommends public cord blood banking. Estimates vary, but the chances of a child having a stem cell transplant, with either bone marrow or cord blood, are 1 in 217 over a lifetime. Although the AAP states cord blood has been used to treat certain diseases successfully, there isn’t strong evidence to support cord blood banking. If a family does decide on cord blood banking, the AAP recommends public cord blood banking (instead of private) to cut down on costs. If you donate cord blood and your child eventually needs it, you can get it back as long as it hasn’t been discarded or used.
Cord blood is the fastest growing source of stem cells in pediatric transplants, and ongoing research indicates that we’ve only just begun to harness the healing power of these amazing cells.3, 15 By collaborating with some of the country’s leading hospitals and research centers, ViaCord is helping to advance critical research in cord blood stem cell therapy and to unlock the promise of cord tissue stem cells.
Cryo-Cell, Viacord, and Cord Blood Registry are three of the oldest and largest private cord blood banks in the United States. They’ve been storing cord blood since the early ’90s, and they’re all accredited by the AABB. Cryo-Cell is located in Oldsmar, Florida; Viacord in Cambridge, Massachusetts; and Cord Blood Registry in San Bruno, California. Each of these banks has its own private labs that test for syphilis, HIV, hepatitis, cytomegalovirus, and human T-cell lymphotrophic virus (considered a precursor to leukemia); the testing is included in their registration fee.
Physicians or other professionals who recruit pregnant women and their families for for-profit placental cord blood stem cell banking should disclose any financial interest or other potential conflict of interest they have in the procedure to their patients.
In order to preserve more types and quantity of umbilical cord stem cells and to maximize possible future health options, Cryo-Cell’s umbilical cord tissue service provides expectant families with the opportunity to cryogenically store their newborn’s umbilical cord tissue cells contained within substantially intact cord tissue. Should umbilical cord tissue cells be considered for potential utilization in a future therapeutic application, further laboratory processing may be necessary. Regarding umbilical cord tissue, all private blood banks’ activities for New York State residents are limited to collection, processing, and long-term storage of umbilical cord tissue stem cells. The possession of a New York State license for such collection, processing and long-term storage does not indicate approval or endorsement of possible future uses or future suitability of these cells.
Because of their ability to regenerate, umbilical cord stem cells may provide the answers to conditions such as various forms of heart disease and diabetes. Medical researchers studying umbilical cord blood stem cells have recorded several positive observations in animal studies, including instances where cord blood stem cells have improved vascular functions in injured tissue, as well as blood flow and improved overall heart function.
After a baby is born, the umbilical cord and placenta are no longer needed and are usually discarded. However, the blood remaining in the umbilical cord and placenta is rich with blood-forming cells. (These cells are not embryonic stem cells.) By collecting and freezing this blood, the healthy blood-forming cells can be stored and may later be used by a patient who needs them.
3. Heart disease. It’s the leading cause of death in the United States, and stem cells may provide some relief. Research is underway to see if injecting the cells into the heart could help regenerate heart muscle damaged by, for example, a heart attack. Again, researchers have reported success in rodents.
Banking a baby’s blood and stem cells in a cord blood bank is a type of insurance. Ideally, you would not need to access your baby’s stem cells in order to address a medical concern. However, using a cord blood bank can provide peace of mind in knowing that you have a valuable resource if you need it.
CBR’s quality control team performs over 5 million sample checks per year which includes 3 million temperature checks, 20,000 environmental sterility tests, and 95 control checks on each sample to ensure processes are working correctly so that your family’s stem cells are kept protected. At CBR we take the safe storage of your stem cells seriously.
Cord blood is extracted from a newborn’s umbilical cord immediately after birth. It contains stem cells, which can be used to treat hemotopoietic and genetic disorders, like certain blood or immune diseases.
AlphaCord has a 100% success rate of viable specimens upon thaw. It has been in business for over a decade and is FDA-approved. The company aims to provide a low-cost means of collecting and processing cord blood for customers.
In recent years, umbilical cord blood, which contains a rich source of hematopoietic stem and progenitor cells, has been used successfully as an alternative allogeneic donor source to treat a variety of pediatric genetic, hematologic, immunologic, and oncologic disorders. Because there is diminished risk of graft-versus-host disease after transplantation of cord stem cells using matched related donors, the use of less-than-completely matched HLA cord blood stem cells may incur less risk of graft-versus-host disease than mismatched cells from either a related or unrelated “walking” donor, although this remains to be proven. Gene-therapy research involving modification of autologous cord blood stem cells for the treatment of childhood genetic disorders, although experimental at the present time, may prove to be of value. These scientific advances have resulted in the establishment of not-for-profit and for-profit cord blood–banking programs for allogeneic and autologous cord blood transplantation. Many issues confront institutions that wish to establish or participate in such programs. Parents often seek information from their physicians about this new biotechnology option. This document is intended to provide information to guide physicians in responding to parents’ questions about cord blood donation and banking and the types and quality of cord blood banks. Provided also are recommendations about appropriate ethical and operational standards, including informed consent policies, financial disclosures, and conflict-of-interest policies for physicians, institutions, and organizations that operate or have a relationship with cord blood–banking programs.
The information on our website is general in nature and is not intended as a substitute for competent legal advice. ConsumerAffairs.com makes no representation as to the accuracy of the information herein provided and assumes no liability for any damages or loss arising from the use thereof.
There are several cord blood banks that are accredited by the American Association of Blood Banks. Most offer information on cord blood banking and provide private cord blood banking services. With a little research, you should be able to locate a credible cord blood bank online.
ViaCord’s Sibling Connection Program, a dedicated transplant program for siblings, was designed to help families in need of a stem cell transplant. This program provides ViaCord’s cord blood banking services at no cost to expecting parents. A family with a child with an established diagnosis of a disease that is currently treatable with sibling cord blood may be eligible.
Umbilical cord blood transplants are now used to treat numerous types of immune- and blood-related disorders and genetic diseases. Cord blood (CB) banks play an important role in these transplants by processing and storing CB units. In addition to their therapeutic potential, these banks raise ethical and regulatory questions, especially in emerging markets in the Arab world. In this article, the authors review CB banking in five countries in the region, Jordan, Saudi Arabia, Egypt, Qatar, and the United Arab Emirates, selected for their different CB banking policies and initiatives. In assessing these case studies, the authors present regional trends and issues, including religious perspectives, policies, and demographic risk factors. This research suggests strong incentives for increasing the number of CB units that are collected from and available to Arab populations. In addition, the deficit in knowledge concerning public opinion and awareness in the region should be addressed to ensure educated decision-making.
The term “Cord Blood harvesting” has a slightly morbid sound, but in reality, it is a very worthwhile and potentially lifesaving field of medical science. Umbilical Cord blood is blood that remains in the umbilical cord after birth. This umbilical cord blood is full of stem cells, and these powerful cells can be harvested for use in medical testing, or for transplantation into another host. A transplantation of harvested umbilical cord blood can have a profound effect on the recovery of patients with a host of medical conditions such as leukemia, cancers, thalassemia, Diabetes and some other diseases.
These are diseases for which transplants of blood-forming stem cells (Hematopoietic Stem Cell Transplants, HSCT) are a standard treatment. For some diseases they are the only therapy, and in other diseases they are only employed when front-line therapies have failed or the disease is very aggressive. The lists below include ALL therapies that use blood-forming stem cells, without distinction as to whether the stem cells were extracted from bone marrow, peripheral blood, or cord blood.
Quite simply, cord blood is the remaining blood from your baby’s umbilical cord and placenta after birth. Cord blood is loaded with our “stem cells” which are origins of the body’s immune and blood system and maybe the origin of other organs and important systems in the body. Stem cells are important because they have the ability to regenerate into other types of cells in the body.
Four main types of physical conditions are treated with stem cell transplants: cancers, blood disorders, congenital metabolic disorders, and immunodeficiencies (see Table 1). Examples of cancers that are treated with stem cells are both lymphoma and leukemia. Nonmalignant hemologic disorders also account for a fair share of the recipients of stem cells. Examples of these blood disorders are various types of anemias, such as sickle-cell anemia and Fanconi’s anemia (the first disorder treated with umbilical cord blood stem cells). Stem cells have also been used to treat various metabolic disorders, such as adrenoleukodystrophy. The fourth major category of uses for stem cells is in treating immunodeficiencies, such as Duncan’s disease or adenosine deaminase deficiency (Drew, 2005; Moise, 2005).
Information in this guide is general in nature and is intended for informational purposes only; it is not legal, health, investment or tax advice. ConsumerAffairs.com makes no representation as to the accuracy of the information provided and assumes no liability for any damages or loss arising from its use.
When parents donate cord blood to a public bank, they are supporting patients around the world who are searching for an unrelated Allogeneic donor. When parents save cord blood in a family bank, they are reserving the options that the baby can use its own stem cells for an Autologous treatment, or an immediate relative (sibling or parents) can use the stem cells for an Allogeneic treatment.
Despite the benefits of using umbilical cord blood stem cells for transplant, the process also has some disadvantages (see Table 3). For stem cell transplants to be successful, measurable signs of engraftment must occur. Engraftment is the opposite of rejection and indicates that the stem cell transplant is “working.” Two measurable signs of engraftment are the recovery of both neutrophil (a type of white blood cell) and platelet (a clotting factor) production. These two clinical signs of recovery take longer to occur in umbilical cord blood stem cell transplants than in bone marrow stem cell transplants. In other words, the lab values for white blood cell production and platelet production take longer to increase after umbilical cord blood stem cell transplants than after bone marrow stem cell transplants (Hess, 1997; Moise, 2005).
Eapen M, Horowitz MM, Klein JP, et al. Higher mortality after allogeneic peripheral-blood transplantation compared with bone marrow in children and adolescents: the Histocompatibility and Alternate Stem Cell Source Working Committee of the International Bone Marrow Transplant Registry. J Clin Oncol.2004;22 :4872– 4780
Bunin N, Aplenc R, Leahey A, et al. Outcomes of transplantation with partial T-cell depletion of matched or mismatched unrelated or partially matched related donor bone marrow in children and adolescents with leukemias. Bone Marrow Transplant.2005;35 :151– 158
Another advantage of using umbilical cord blood stem cells is the decreased risk of the transmission of infectious disease. This particular advantage is partly because umbilical cord blood is almost never contaminated by Epstein-Barr virus or cytomegalovirus (Drew, 2005; Gonzalez-Ryan et al., 2000). Additionally, the processing of cord blood includes collecting data on the history of infection during the mother’s pregnancy. For example, if the pregnant woman has a history of group B streptococcus, active genital herpes, or prolonged rupture of membranes and chorioamnionitis, umbilical cord blood is not saved. Generally, samples of the mother’s blood are also drawn to test for infectious diseases, such as hepatitis, human immunodeficiency virus, and syphilis (Moise, 2005). Furthermore, after the cord blood units are collected, they are screened for disease, and any units that are deemed contaminated or infected are thrown away (Gunning, 2007).