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Hard numbers are tricky to pin down, but between that first transplant in 1988 and 2015, an estimated 35,000 umbilical cord blood transplants had been performed globally. That number includes people treated for leukemia and other types of cancer, blood disorders and immune diseases. And the utility of umbilical cord cells may stretch well beyond the disorders that the cells are currently being used for. “If you read the literature, it’s pretty exciting,” says pediatrician and immunologist William Shearer of Baylor College of Medicine and Texas Children’s Hospital.
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.
You’ve just visited the doctor and the good news is that you’re going to have a baby and everything looks good. Thirty years ago, your doctor may have given you a baby book and information about products that sponsors want you to buy for your new addition. Today, along with pretty much the same materials, you’ll be asked to consider saving the blood of your newborn that’s left over in the umbilical cord and placenta after the delivery. Another big decision, and possibly a costly one.
The cord blood cell recovery data reported by CBR and others is consistently higher than the published, available data of other processing methods including PrepaCyte® and Hespan, when combined with CPD.
I had some information about the very basics of umbilical cord blood banking, but I did not have the answers to most of the second couple’s questions. The first couple had some of the answers, but based on the limited knowledge I had, I felt that the information that the first couple shared was simply the information that the cord blood bank had supplied. I suspected that the cord blood bank had only shared information that was in its best interest to gain another customer. Therefore, my suspicions put me on a path to learn more about umbilical cord blood and, thus, cord blood banking and cord blood transplants.
Stem cells in the umbilical cord blood were first discovered in 1978. The stem cells found in cord blood give rise to all the other blood cells and are the foundation of our bodies’ immune system. More recently, scientists discovered a rich supply of a different type of stem cell in the cord tissue. These stem cells give rise to the tissues that comprise our nervous system, sensory organs, circulatory tissues, skin, bone, cartilage and more.
All cord blood is screened and tested. Whether you use a public or private bank, you’ll still need to be tested for various infections (such as hepatitis and HIV). If tests come back positive for disease or infection, you will not be able to store your cord blood.
After injections with their own umbilical cord blood, 63 children with cerebral palsy improved on motor skills, on average. And a clinical trial to see whether cord blood transplants improve symptoms of children with autism spectrum disorder should wrap up in the summer of 2018, says pediatric researcher and clinician Joanne Kurtzberg of Duke University, who helped establish a not-for-profit umbilical cord bank in North Carolina. (A small but optimistic pilot study has already been completed.)
When researching cord blood banks, make sure they’re registered with the Food and Drug Administration (FDA), and comply with FDA regulations including current good tissue practice regulations, donor screening and testing for infectious diseases. Check for accreditations with American Association of Blood Banks or the Foundation for the Accreditation of Cellular Therapy. Other factors to consider are the bank’s shipping and delivery methods, clinical experience, processing options, payments and costs.
We chose the site of our lab for one reason in particular: safety. As one of the safest cities in the US, Tucson ensures our families’ samples will be protected from natural disaster. Natural disasters, such as hurricanes, tornadoes, and earthquakes, could interrupt consistent long-term storage of stem cells.
Umbilical cord blood stem cells are different from embryonic stem cells. Umbilical cord blood stem cells are collected by your ob-gyn or a nurse from the umbilical cord after you give birth (but before your placenta is delivered). Embryonic stem cells are collected when a human embryo is destroyed.
For transplants, the primary advantage of cord blood stem cells over stem cells from adults is that they cause much less graft versus host disease (GvHD). In order to safely transplant adult stem cells, the patient and donor must match over at least 10 of 12 tissue types called Human Leukocyte Antigens (HLA), or 83% HLA match. By comparison, medical outcomes are just as good with cord blood that has a 4 out of 6 or 67% HLA match.
Prior to transplanting any type of tissue, a “matching” process must occur to increase the success of the transplant and decrease the likelihood that the transplant will be rejected. The rejection of a transplanted tissue is called “graft versus host disease.” The matching process dates back to the late 1950s when the human leukocyte antigens were discovered. There are two classes of human leukocyte antigens. The first class is located on the surface of almost all of the cells with a nucleus within the body of the cell. The second class of human leukocyte antigens is located on the surface of immune cells. Each of the two classes of antigens has three subgroups, creating six antigens for which matching can occur. Thus, a “6 of 6” matching of the antigens represents a “perfect” match. Beyond the matching process, other factors contribute to the success or failure of a stem cell transplant. These factors include, but are not limited to, the age of both the donor and the patient, the type of disease being treated, and the number of stem cells being transplanted (Moise, 2005).
One of the factors that influence engraftment time is cell dose (Gunning, 2007). Cell dose is directly related to the volume of umbilical cord blood collected. Cell dose refers to the amount of useful stem cells in the sample of blood. Because of the limited volume of cells collected from cord blood, the amount of stem cells in cord blood is approximately 10% less than the amount obtained from bone marrow (Moise, 2005). A single unit of umbilical cord blood usually contains 50 to 200 ml of blood (Gonzalez-Ryan et al., 2000). If an amount of cord blood is less than this minimum volume, the unit is discarded as being unsatisfactory because the cell dose of the sample would not be high enough. Collecting an insufficient volume of cord blood occurs in about 50% or more cases of cord blood collection (Drew, 2005). In general, fewer stem cells are needed for cord blood transplantation, and usually a volume of 50 to 100 ml of cord blood will provide enough of a cell dose for a child or small adult. However, should the recipient need additional stem cells, it is impossible to obtain more stem cells from the infant because the cord blood volume is a limited amount (Percer, 2009).
The information on this site is not intended or implied to be a substitute for professional medical advice, diagnosis or treatment. All content, including text, graphics, images, and information, contained on or available through this website is for general information purposes only. The purpose of this is to help with education and create better conversations between patients and their healthcare providers.
Umbilical cord blood stem cells are different from other kinds of cells in a couple of different ways. The first is that umbilical cord blood stem cells are unspecialized cells, which have the ability to renew themselves by cell division, even after significant time has elapsed since they were frozen. The second reason is that in certain situations, and under exacting conditions, the umbilical cord stem cells can become tissue- or organ-specific cells, allowing regeneration of those tissues.
Regulatory agencies (eg, FDA, Federal Trade Commission, and state equivalents of these federal agencies) are encouraged to have an active role in providing oversight of the cord blood program. All cord blood–banking programs should comply with FACT or equivalent accreditation standards.
A cord blood industry report by Parent’s Guide to Cord Blood Foundation found that, among developed nations, cord blood banking cost is only 2% of the annual income of those households likely to bank.
Researchers continue to investigate new applications of stem cells. Ballen (2006) reported on studies examining the use of stem cells for treating autoimmune diseases, such as lupus, systemic sclerosis, and multiple sclerosis. Gunning (2007) reported on stem cell research for regenerative uses for heart attacks, stroke, spinal cord injury, diabetes, liver injury, and even traumatic brain injury. However, Gunning also noted that these regenerative uses for stem cells are purely in the research stage and, so far, no tangible evidence supports any clinical uses beyond the diseases that are currently being treated.
We offer standard and premium cord blood processing options. Our standard service has been used in thousands of successful transplants since 1988 and begins at $1600. For $350 more, our premium service uses a superior new processing method that greatly enhances parents’ return on investment. (Please visit our processing technology page to learn about our cord blood processing methods.) For an additional $950, you can also store your baby’s cord tissue, which has the potential to help heal the body in different ways than cord blood.
Cord blood transplants aren’t entirely new — they’ve been in use for about 20 years. In fact, the outcome of transplants has improved in the last 10 years, says Joanne Kurtzberg, M.D., director of the pediatric bone marrow and stem cell transplant program at Duke University.
Bunin N, Aplenc R, Iannone R, et al. Unrelated donor bone marrow transplantation for children with severe aplastic anemia: minimal GVHD and durable engraftment with partial T cell depletion. Bone Marrow Transplant.2005;35 :369– 373
Families with a history of diseases can greatly benefit from cord blood banking, as an insurance policy against possible future diseases. However, cord blood banking is expensive, can’t be used to treat everything, and your child may not even need it—at private cord blood banks, most is eventually discarded. Lastly, you should be aware that if the child develops certain genetic diseases, the cord blood will have the same genetic flaws.
The collection of your baby’s cord blood happens the day your baby is born. After delivery it’s standard procedure for your doctor or midwife to clamp and cut the umbilical cord. Using ViaCord’s collection kit, they will then insert a needle into the cord to collect the remaining blood. Once the collection is complete, they will seal the bag, attach the pre-printed label with your family’s information, and place it in the collection kit. A medical courier will pick up the kit from your hospital room and transport it to ViaCord’s state-of-the-art lab and storage facility, where lab specialists will process the cord blood in preparation for long-term storage.
In a number of genetic, hematologic, immunologic, metabolic, and oncologic disorders, reconstitution of bone marrow (transplantation) can be a potentially life-saving procedure.1–16 Allogeneic (related or unrelated) or autologous (self) bone marrow or peripheral blood stem cells are the usual sources of hematopoietic progenitor cells to achieve this goal. If autologous stem cells are not available or cannot be used, the best option for successful reconstitution therapy is to secure stem cells from an HLA-matched sibling.1,3,11 Close matching confers a higher probability of successful engraftment and minimizes the risk of potentially fatal graft-versus-host disease. Unfortunately, there is only a 25% chance for identifying a full HLA match in a sibling donor.17,18