There are around 20 companies in the United States offering public cord blood banking and 34 companies offering private (or family) cord blood banking. Public cord blood banking is completely free (collecting, testing, processing, and storing), but private cord blood banking costs between $1,400 and $2,300 for collecting, testing, and registering, plus between $95 and $125 per year for storing. Both public and private cord blood banks require moms to be tested for various infections (like hepatitis and HIV).
There are no hard numbers on a child’s risk of needing a stem-cell transplant: It’s anywhere between one in 1,000 and one in 200,000, according to studies cited by ACOG and the AAP. But private banks’ marketing materials often place the odds at one in 2,700 and note that these numbers don’t factor in its potential future use for diabetes, Alzheimer’s, Parkinson’s disease, and spinal-cord injuries in adults. “Researchers are constantly discovering new treatments using stem cells,” says Gerald Maass, executive vice president of corporate development for Cryo-Cell, a private bank in Clearwater, Florida. Another major bank’s Web site claims incredible odds: “Should cord blood prove successful in treating heart disease, the lifetime probability of being diagnosed with a disease treatable by cord blood will increase from one in 100 to one in two.”
Currently, ViaCord has released the most cord blood units for medical transplant and has the highest cord blood transplant survival rate among companies who have disclosed complete transplant data. The one-year survival rate of patients who were treated with ViaCord cord blood units is 88%, and the long-term patient survival rate is 82%.1
We are genetically closest to our siblings. That’s because we inherit half of our DNA from our mother and half from our father, so the genes we inherit are based on a chance combination of our parents’. Our siblings are the only other people inheriting the same DNA.
Cord blood is also being studied as a substitute for normal blood transfusions in the developing world. More research is necessary prior to the generalized utilization of cord blood transfusion.
The syringe or bag should be pre-labeled with a unique number that identifies your baby. Cord blood may only be collected during the first 15 minutes following the birth and should be processed by the laboratory within 48 hours of collection.
Cord blood stem cells are classified as adult (or non-embryonic) stem cells. Embryonic stem cells (ESC) are believed to be more advantageous for the treatment of disease or injury due to their pluripotent nature; that is, they have the ability to differentiate into all the cells present in the human body derived from the three germ layers (endoderm, mesoderm, and ectoderm). Adult stem cells are multipotent, implying that they can only differentiate into a limited number of cells typically within the same “family” (e.g., hematopoietic stem cells give rise to red blood cells, white blood cells, and platelets).
Excitement about cord tissue’s potential to help conditions affecting cartilage, muscle and nerve cells continues to grow.19 Researchers are focusing on a wide range of potential treatment areas, including Parkinson’s disease, Alzheimer’s, liver fibrosis, lung cancer, and sports injuries. Since 2007 there have been 150 clinical trials using cord tissue stem cells.
Gift of Life is a non-profit charity that seeks to help Jewish patients find a transplant match. They recruit both bone marrow donors and cord blood donations from the Jewish community. Gift of Life operates their own accredited cord blood laboratory that participates in the national NMDP network.
Public cord blood donation will increase the number and diversity of cord blood units available for patients. Widespread donations by minorities will expand the available pool of minority cord blood units in the public system and make it easier for the following groups to find matches:
Throughout pregnancy your baby’s umbilical nurtures life. It carries oxygen-rich cells and nutrients from your placenta to your baby and then allows your baby to pump deoxygenated and nutrient-depleted blood back to your placenta. This constant exchange is protected by a special type of tissue that acts like a cushion, preventing twisting and compression to ensure that the cord blood flow remains steady and constant.
After a baby is born, cord blood is left in the umbilical cord and placenta. It is relatively easy to collect, with no risk to the mother or baby. It contains haematopoietic (blood) stem cells: rare cells normally found in the bone marrow.
Private cord blood banks allow families to store cord blood stem cells for themselves and their loved ones. They are privately funded, and typically charge a first-year processing fee that ranges from about $1,400 to $2,300, plus annual storage costs of about $115 to $175. (Americord offers cord blood banking for a one-time fee of $3,499, which includes 20 years of storage). The pros and cons of private cord blood banking are listed below.
^ a b Thornley, I; et al. (March 2009). “Private cord blood banking: experiences and views of pediatric hematopoietic cell transplantation physicians”. Pediatrics. 123 (3): 1011–7. doi:10.1542/peds.2008-0436. PMC 3120215 . PMID 19255033.
At present, the odds of undergoing any stem cell transplant by age 70 stands at one in 217, but with the continued advancement of cord blood and related stem and immune cell research, the likelihood of utilizing the preserved cord blood for disease treatment will continue to grow. Read more about cord blood as a regenerative medicine here.
“This reanalysis supports several previously expressed opinions that autologous [to use one’s OWN cells] banking of cord blood privately as a biological insurance for the treatment of life-threatening diseases in children and young adults is not clinically justified because the chances of ever using it are remote. The absence of published peer-reviewed evidence raises the serious ethical concern of a failure to inform prospective parents about the lack of future benefit for autologous cord banking … Attempts to justify this [commercial cord blood banking] are based on the success of unrelated public domain cord banking and allogeneic [using someone ELSE’S cells] cord blood transplantation, and not on the use of autologous [the person’s OWN cells] cord transplantation, the efficacy of which remains unproven”.
Of course, this means that expectant parents will have one more choice to make about their child’s health and future. “I certainly don’t think parents should feel guilty if they don’t privately bank their child’s blood,” Dr. Kurtzberg says. The best choice is the one that works for your family.
Your free donation will be part of a program that is saving lives and supporting research to discover new uses for cord blood stem cells. Units that meet criteria for storage are made available to anyone, anywhere in the world, who needs a stem cell transplant.
Life Line Stem Cell asks mothers arriving for delivery to donate all perinatal tissue: cord blood, cord tissue, and the placenta. Cord blood donations that are eligible for transplant are sent to a public cord blood bank; the tissue collections go towards research programs.
There is no significant opposition in the medical community to the public banking of cord blood. The donation of cord blood to public banks has generally been encouraged by the medical profession. The American Academy of Pediatrics encourages the public donation of cord blood with appropriate genetic and infectious disease testing, although they caution that parents should be notified that they will receive the results of this testing. They also recommend that parents be informed that publicly banked cord blood may not be available for future private use.
Until now, however, it hasn’t always been easy for couples to donate their baby’s cord blood to a public bank. The 28 public banks currently in operation work with only about 100 hospitals in the U.S. (find the list at parentsguidetocordblood.com). If you don’t deliver at one of these hospitals, you can contact either Cryobanks International or LifebankUSA, commercial organizations that store both private and public units. These banks pick up the tab for your donation (minus the physician’s collection fee).
Generally speaking, public cord blood banks collect, process and store your donated cord blood for free. The cord blood you donate to a public bank may be used for transplants or for research purposes, so you may not be able to access your own cord blood. View a list of public cord blood banks in North America.
AutoXpress™ Platform (AXP) cord blood processing results in a red-cell reduced stem cell product. Each sample is stored in a cryobag consisting of two compartments (one major and one minor) and two integrally attached segments used for unit testing.
 American Academy of Pediatrics Section on Hematology/Oncology, American Academy of Pediatrics Section on Allergy/Immunology, Bertram H. Lubin, and William T. Shearer, “Cord Blood Banking for Potential Future Transplantation,” Pediatrics 119 (2007): 165-170.
Lack of awareness is the #1 reason why cord blood is most often thrown away. For most pregnant mothers, their doctor does not even mention the topic. If a parent wants to save cord blood, they must be pro-active.
A limitation of cord blood is that it contains fewer HSCs than a bone marrow donation does, meaning adult patients often require two volumes of cord blood for treatments. Researchers are studying ways to expand the number of HSCs from cord blood in labs so that a single cord blood donation could supply enough cells for one or more HSC transplants.
Current research aims to answer these questions in order to establish whether safe and effective treatments for non-blood diseases could be developed in the future using cord blood. An early clinical trial investigating cord blood treatment of childhood type 1 diabetes was unsuccessful. Other very early stage clinical trials are now exploring the use of cord blood transplants to treat children with brain disorders such as cerebral palsy or traumatic brain injury. However, such trials have not yet shown any positive effects and most scientists believe much more laboratory research is needed to understand how cord blood cells behave and whether they may be useful in these kinds of treatments