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While donating cord blood is honorable, there is a lot people do not know about the public option. Most public cord blood banks have a limited number of collection sites, and they only retain a small number of collections because of volume and other criteria that must be met. Once cord blood is donated, it is highly unlikely that the donation can ever be attained by the donor or his or her family if the need arises. In addition, it may be hard to find another viable match from what is publically available. While donating is free, retreiving a cord blood sample from a public cord blood bank is not and pales in comparison to the overall cost of privately banking cord blood. These are just some of the reasons why privately banking cord blood may be a better option for some families.
Genes: Segments of DNA that contain instructions for the development of a person’s physical traits and control of the processes in the body. They are the basic units of heredity and can be passed down from parent to offspring.
If you’re looking to attain cord blood from a public bank, be aware that matched cord blood, as with bone marrow, can be difficult to obtain through a public cord blood bank. Once a match is ascertained, it may take valuable weeks, even months, to retrieve the match, and the cost of acquiring the cord blood from a public bank can be upwards of $40,000. When the newborn’s umbilical cord blood is banked privately, they can be retrieved quickly, and since the parents own the cord blood, banks can perform the retrieval free of charge. Learn more about public versus private cord blood banking here.
This is only the beginning. Newborn stem cell research is advancing, and may yield discoveries that could have important benefits for families. CBR’s mission is to support the advancement of newborn stem cell research, with the hope that the investment you are making now will be valuable to your family in the future. CBR offers a high quality newborn stem cell preservation system to protect these precious resources for future possible benefits for your family.
We will notify both your doctor and the hospital that you have registered to donate your baby’s cord blood to our program. However, we recommend that you remind the Labor and Delivery staff when you go for your delivery that you want to donate cord blood.
Cord blood banking means preserving the newborn stem cells found in the blood of the umbilical cord and the placenta. After a baby is born, and even after delayed cord clamping, there is blood remaining in the umbilical cord and placenta that holds valuable newborn stem cells. Parents have a choice between donating cord blood to a public bank for free, or paying to store it for their family in a private bank. Cord blood banking includes the whole process from collection through storage of newborn stem cells for future medical purposes.
Private or family banks store cord blood for autologous use or directed donation for a family member. Private banks charge a yearly fee for storage. Blood stored in a private bank must meet the same standards as blood stored in a public bank. If you have a family member with a disorder that may potentially be treated with stem cells, some private banks will store the cord blood free of charge.
With public cord blood banks, there’s a greater chance that your cord blood will be put to use because it could be given to any child or adult in need, says William T. Shearer, M.D., Ph.D., professor of Pediatrics and Immunology at Baylor College of Medicine in Houston. Cord blood is donated and is put on a national registry, to be made available for any transplant patient. So if your child should need the cord blood later in life, there’s no guarantee you would be able to get it back.
A major potential application of stem cells in medicine is for “tissue engineering,” in which the ultimate goal is to provide off-the-shelf tissues and organs. UCM cells demonstrate excellent cell growth properties on bioabsorbable polymer constructs (75). UCM cells were used to seed blood vessel conduits fashioned from rapidly bioabsorbable polymers and grown in vitro in a pulse duplicator bioreactor (76). Recently, living patches engineered from UCMS cells and cord-derived endothelial precursor cells have been described for potential use in human pediatric cardiovascular tissue engineering (77,78).
CORD:USE is directed by leading doctors in cord blood transplantation. Public donations collected by CORD:USE are sent to the Carolinas Cord Blood Bank, a FACT-accredited laboratory under the direction of Dr. Joanne Kurtzberg.
Since most banks require mothers to sign up for donation between the 28th and 34th week of pregnancy, families must decide to donate ahead of time. If you are considering a public bank for your child’s cord blood, contact the bank and make sure you still have time.
Only 25-50% of donations to public cord blood banks end up being stored.4 Typically, public cord blood banks only store donations that meet the size threshold for transplant use. That means most public cord blood banks will only keep cord blood collections that are at least 3 ounces.2
Banking cord blood is a new type of medical protection, and there are a lot of questions that parents may want to ask. The Parent’s Guide to Cord Blood organization even has questions it believes all parents should ask their cord blood banks. We have answers to these and other frequently asked cord blood questions in our FAQs. If you can’t find the answer for which you are looking, please feel free to engage one of our cord blood educators through the website’s chat interface.
All content here, including advice from doctors and other health professionals, should be considered as opinion only. Always seek the direct advice of your own doctor in connection with any questions or issues you may have regarding your own health or the health of others.
Yes, if you have any sick children who could benefit from umbilical cord blood. Public banks such as Carolinas Cord Bank at Duke University and private banks such as FamilyCord in Los Angeles offer programs in which the bank will assist with cord blood processing and storage if your baby has a biological sibling with certain diseases. FamilyCord will provide free cord blood storage for one year. See a list of banks with these programs at parentsguidecordblood.org/help.php.
^ Roura S, Pujal JM, Gálvez-Montón C, Bayes-Genis A (2015). “Impact of umbilical cord blood-derived mesenchymal stem cells on cardiovascular research”. BioMed Research International. 2015: 975302. doi:10.1155/2015/975302. PMC 4377460 . PMID 25861654.
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).
Today, many conditions may be treatable with cord blood as part of a stem cell transplant, including various cancers and blood, immune, and metabolic disorders. Preserving these cells now may provide your family potential treatment options in the future.
Any and all uses of stem cells must be at the direction of a treating physician, who will determine if they are applicable and suitable, for treatment of the condition. Additionally, CariCord makes no guarantee that any treatments being used in research, clinical trials, or any experimental procedures or treatments, for cellular therapy or regenerative medicine, will be available or approved in the future.
Generalized stem cell lineage concept. The lineage is characterized by a self-maintaining “parent” true stem cell population that resides within a specialized niche microenvironment, which aids the regulation of stem cell division or quiescence (nondividing). Derivative cells (called progeny or daughter cells) are of two types: symmetric division produces two identical daughter cells to expand or maintain the stem cell population; asymmetric division produces an identical daughter and a specialized cell (a differentiated cell). The differentiated cell is an intermediate type of precursor cell, termed the transient dividing population. The number of divisions of the intermediate precursor is fairly tightly regulated by microenvironment and inborn regulation factors. The intermediate precursors are thought to have a limited proliferative capacity. Further tissue-specific specialization continues form the intermediate precursors, producing specialized populations with a commitment to a progressively more specialized (differentiated) fate. The end points are fully differentiated cells that are nondividing and that live for various, tissue-specific periods prior to senescence or damage that leads to cell death. In some tissues, the naturally occurring cell loss produces various feedback signals that trigger normal cell replacement via amplification/differentiation of either stem cells or the intermediate precursors.
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
The majority of programs that accept cord blood donations require the mother to sign up in advance. In the united States, the current requirement is to sign up by the 34th week of pregnancy. This cannot be over-stressed; time and time again, mothers who want to donate are turned away because they did not inquire about donation until it was too late.
Make sure you meet a few basic guidelines for public banking. Your doctor will give you an advanced blood test after giving birth, but there are a few basic requirements you have to meet before signing up. The requirements are different for each bank, but you can see our basic list of public banking requirements here.
Taking time to consider helping another person when you are already busy planning for the birth of your child is greatly appreciated. A gift of cord blood may someday give someone a second chance at life.
Cord blood is currently approved by the FDA for the treatment for nearly 80 diseases, and cord blood treatments have been performed more than 35,000 times around the globe to treat cancers (including lymphoma and leukemia), anemias, inherited metabolic disorders and some solid tumors and orthopedic repair. Researchers are also exploring how cord blood has the ability to cross the blood–brain barrier and differentiate into neurons and other brain cells, which may be instrumental in treating conditions that have been untreatable up to this point. The most exciting of these are autism, cerebral palsy and Alzheimer’s.
While the transplantation of cord blood has its advantages, its main disadvantage is the limited amount of blood contained within a single umbilical cord. Because of this, cord blood is most often transplanted in children. Physicians are currently trying to determine ways that cord blood can be used in larger patients, such as transferring two cord blood units or increasing the number of cells in vitro before transplanting to the patient. It also takes longer for cord blood cells to engraft. This lengthier period means that the patient is at a higher risk for infection until the transplanted cells engraft. Patients also cannot get additional donations from the same donor if the cells do not engraft or if the patient relapses. If this is the case, an additional cord blood unit or an adult donor may be used. While cord blood is screened for a variety of common genetic diseases, rare genetic diseases that manifest after birth may be passed on. The National Cord Blood Program estimates that the risk of transmitting a rare genetic disorder is approximately 1 in 10,000.
The therapeutic potential of stem cells from the umbilical cord is vast. Cord blood is already being used in the treatment of nearly 80 life-threatening diseases,2 and researchers continue to explore it’s potential. Duke University Medical Center is currently using cord blood stem cells in a Phase II clinical trial to see if it benefits kids with Autism. The number of clinical trials using cord tissue stem cells in human patients has increased to approximately 150 since the first clinical trial in 2007. Cord tissue stem cells are also being studied for the potential use in kids with Autism – a Phase I Clinical Trial is underway.
In the rare event of a processed sample not adhering to quality standards, CBR’s certified genetic counselors will work with potential clients to help them understand their options. Under this scenario, clients will have the option to discontinue storage and receive a refund.
Current applications for newborn stem cells include treatments for certain cancers and blood, metabolic and immune disorders. Additionally, newborn stem cell preservation has a great potential to benefit the newborn’s immediate family members with stem cell samples preserved in their most pristine state.
MSCs are reported to have immune-suppressive effects. To comment human fetal and adult MSCs are not inherently immunostimulatory in vitro and fail to induce proliferation of allogeneic lymphocytes (37–39; for review, see ref. 40). In one human case, fully mismatched allogeneic fetal liver-derived MSCs were transplanted into an immunocompetent fetus with osteogenesis imperfecta in the third trimester of gestation (41). No immunoreactivity was observed when patient lymphocytes were re-exposed to the graft in vitro, indicating that MSCs can be tolerated when transplanted across MHC barriers in humans. Similarly, after intrauterine transplantation of human MSCs into sheep, the cells persisted long-term and differentiated along multiple mesenchymal lineages (42). Instead, the cells are immunosuppressive and reduce lymphocyte proliferation and the formation of cytotoxic T-cells and natural killer cells when present in mixed lymphocyte cultures. The mechanism whereby MSCs suppress lymphocyte proliferation is still largely unknown but appears to, at least in part, be mediated by a soluble factor. Several factors, including MSC-produced prostaglandin E2, indoleamine 2,3-dioxygenase-mediated tryptophan depletion, transforming growth factor-β1, and hepatocyte growth factor have been proposed to mediate the suppression, but the data remain controversial.
The unpredictability of stem cell transportation led CBR to create a crush-resistant, temperature-protected, and electronically tracked collection kit that is designed to preserve the integrity and to help ensure the safe delivery of the blood and/or tissue. CBR’s CellAdvantage® Collection Kit contains everything the healthcare provider needs to easily and safely collect the maximum amount of a newborn’s cord blood following birth.
^ a b c d e f Juric, MK; et al. (9 November 2016). “Milestones of Hematopoietic Stem Cell Transplantation – From First Human Studies to Current Developments”. Frontiers in Immunology. 7: 470. doi:10.3389/fimmu.2016.00470. PMC 5101209 . PMID 27881982.