|
APLICACIONES
Aplicación actual del tratamiento con Células Madre:
Diabetes
Enfermedades auto-inmunes
Leucemias agudas
Leucemia aguda bifenotípica
Leucemia linfocítica aguda (LLA)
Leucemia mieloide aguda (LMA)
Leucemia indiferenciada aguda (células madre)
Leucemias crónicas
Leucemia linfocítica crónica (LLC)
Leucemia mieloide crónica (LMC)
Leucemia mieloide crónica juvenil (LMCJ)
Leucemia mielomonocítica juvenil (LMMJ)
Síndromes mielodisplásicos
Amiloidosis
Leucemia mielomonocítica crónica (LMMC)
Anemia refractaria (AR)
Anemia refractaria con exceso de blastos (AREB)
Anemia refractaria con exceso de blastos en transformación
(AREBT)
Anemia refractaria con sideroblastos en anillo
Trastornos de las células
precursoras
Anemia aplásica severa
Citopenia congénita
Disqueratosis congénita
Anemia de Fanconi
Hemoglobinuria paroxística nocturna
Trastornos mieloproliferativos
Mielofibrosis aguda
Metaplasia mieloide acnogénica (mielofibrosis)
Trombocitemia esencial
Policitemia vera
Trastornos linfoproliferativos
Enfermedad de Hodgkin
Linfoma no Hodgkin
Leucemia prolinfocítica
Trastornos de las células
fagocíticas
Síndrome de Chediak-Higashi
Enfermedad granulomatosa crónica
Deficiencia de actina en los neutrófilos
Disgenesia reticular
Trastornos en el almacenamiento
de los lípidos
Adrenoleucodistrofia
Enfermedad de Gaucher
Síndrome de Hunter (MPS II)
Síndrome de Hurler (MPS IH)
Enfermedad de Krabbe (leucodistrofia de células globoides)
Síndrome de Maroteaux-Lamy (MPS VI)
Leucodistrofia metacromática
Síndrome de Morquio (MPS IV)
Mucolipidosis tipo II (enfermedad I-celular)
Mucoliposacaridosis (MPS)
Enfermedad de Niemann-Pick Síndrome de Sanfilippo (MPS III)
Síndrome de Scheie (MPS-IS)
Deficiencia de beta glucuronidasa (Síndrome de Sly, MPS VII)
Enfermedad de Wolman
Trastornos de los histiocitos
Linfohistiocitosis fagocítica familiar
Hemofagocitosis
Histiocitosis X
Histiocitosis de células de Langerhans
Anormalidades eritrocitarias congénitas
Talasemia mayor (Talasemia Beta)
Aplasia eritrocitaria congénita (anemia de Diamond-Blackfan)
Aplasia eritrocitaria pura
Anemia falciforme (anemia drepanocítica)
Trastornos congénitos (heredados)
del sistema inmune
Inmunodeficiencia combinada grave con ausencia
de células T y B
Inmunodeficiencia combinada grave con ausencia
de células T y células B normales
Ataxia-Telengiectasia
Síndrome de linfocito desnudo
Inmunodeficiencia variable común (IVC)
Anomalía de DiGeorge
Síndrome de Kostmann
Deficiencia de la adhesión leucocitaria
Síndrome de Omenn Inmunodeficiencia combinada grave (ICG)
Inmunodeficiencia combinada grave (ICG) con déficit de adenosín-deaminasa
Síndrome de Wiscott-Aldrich
Síndrome linfoproliferativo ligado al cromosoma X
Otras enfermedades congénitas
Síndrome hipoplasia cartílago cabello
Lipofuscinosis ceroidea neuronal hereditaria
Porfiria eritropoiética congénita
Tromboastenia de Glanzmann
Síndrome de Lesch-Nyhan
Osteopetrosis (enfermedad de Albers-Schonberg)
Enfermedad de Tay Sachs
Anormalidades congénitas
de las plaquetas
Trombocitemia congénita / amegacariocitosis congénita
Trastornos de células plasmáticas
Mieloma múltiple
Leucemia de células plasmáticas
Macroglobulinemia de Waldenstrom
Otras enfermedades malignas
Tumores cerebrales
Cáncer de mama
Sarcoma de Swing
Neuroblastoma
Posibles aplicaciones futuras de
las células precursoras
Enfermedad cardiovascular
Enfermedad hepática
Distrofia muscular
Enfermedad de Parkinson
Lesiones en la médula espinal
Accidente cerebro vascular (derrame)
-------------------------------------------------------------------------------------------------------------------------------------------------------
A CONTINUACIÓN PRESENTAMOS UNA SELECCIÓN DE LOS ARTICULOS
PUBLICADOS EN LAS PRINCIPALES REVISTAS CIENTIFICAS DONDE SE ANUNCIAN
LOS DIVERSOS AVANCES Y APLICACIONES ACTUALES DE LAS CELULAS MADRE
DE ADULTO (actualizado 2001).
<CANCER TREATMENTS>
BAIN TUMORS
Combination of high-dose chemotherapy with stem cell transplant
from the patients themselves shows good response in treatment of
brain tumors.
Reference:
1. Dunkel, IJ; "High-dose chemotherapy with autologous stem
cell rescue for malignant brain tumors"; Cancer Invest. 18,
492-493; 2000.
"Patients with recurrent medulloblastoma had a significant
improvement in long-term survival (median: 34 months) as compared
with historical reports; two patients with glioblastoma survive
beyond four years without progression."
Reference:
2. Abrey, LE et al.; "High dose chemotherapy with autologous
stem cell rescue in adults with malignant primary brain tumors";
J. Neurooncol. 44, 147-153; Sept., 1999
"Review of HDCT and stem cell transplant for children with
brain tumors. Studies demonstrating durable disease-free survival
for a proportion of patients with recurrent malignant gliomas and
medulloblastomas/PNET, as well as encouraging data in some of those
patients with newly diagnosed brain tumors."
Reference:
3. Finlay, JL; "The role of high-dose chemotherapy and stem
cell rescue in the treatment of malignant brain tumors: a reappraisal";
Pediatr. Transplant 3 Suppl. 1, 87-95; 1999
RETINOBLASTOMA
A localized retinoblastoma of the left eye in a 7-year-old girl,
was treated by enucleation. She received no additional therapy.
Four months later, metastases of retinoblastoma in the lymph nodes,
bone and bone marrow were diagnosed. Relapse chemotherapy consisting
of three courses of vincristine, cyclophosphamide, etoposide and
carboplatin led to a second complete remission.
Subsequent high-dose chemotherapy with thiotepa, etoposide and
carboplatin and autologous stem cell transplantation with CD34-selected
stem cells were successful, with no adverse effects. No radiotherapy
was given and the girl remains in continuous second remission with
a follow-up of more than 4 years.
Reference:
4. Hertzberg H et al.; "Recurrent disseminated retinoblastoma
in a 7-year-old girl treated successfully by high-dose chemotherapy
and CD34-selected autologous peripheral blood stem cell transplantation";
Bone Marrow Transplant 27(6), 653-655; March 2001
Patients with metastatic retinoblastoma have a poor prognosis with
conventional treatments. This study used intensive conventional
chemotherapy, high-dose chemotherapy, with autologous stem cell
rescue, and radiation therapy. The treatment strategy was effective
for all four patients with metastatic retinoblatoma that does not
involve the central nervous system, surviving event free from 46-80
months after diagnosis.
Reference:
5. Dunkel IJ et al.; "Successful treatment of metastatic retinoblastoma";
Cancer 89, 2117-2121; Nov
15 2000.Updated June 25, 2001 Cancer Treatments with Adult Stem
Cells David A. Prentice 2
OVARIAN CANCER
Report studying whether patients benefit more from autologous stem
cell transplantation. "Some patients with ovarian cancer seem
to have good outcomes after autotransplantation".
Reference:
6. Stiff PJ et al.; "High-dose chemotherapy and autologous
stem-cell transplantation for ovarian cancer: An autologous blood
and marrow transplant registry report"; Ann. Intern. Med. 133,
504-515; Oct. 3, 2000
"Developing data suggest that this approach in both of these
settings merit further evaluation for the treatment of epithelial
ovarian carcinoma." Used autologous, purified peripheral blood
stem cells
Reference:
7. Schilder, RJ and Shea, TC; "Multiple cycles of high-dose
chemotherapy for ovarian cancer"; Semin. Oncol. 25, 349-355;
June 1998
SOLID TUMORS
**Merkel cell carcinoma is a rare cutaneous tumor with neuroendocrine
differentiation; there is no standard protocol for treatment of
the metastatic disease. This study used high-dose chemotherapy and
autologous peripheral blood stem cell transplantation to achieve
complete remission that lasted for 6 months.
Reference:
8. Waldmann V et al.; "Transient complete remission of metastasized
merkel cell carcinoma by high-dose polychemotherapy and autologous
peripheral blood stem cell transplantation"; Br. J. Dermatol.
143, 837-839; Oct 2000
**Patients with metastatic or locally advanced, unresectable soft
tissue sarcoma are seldom curable, with 5-year survival rates of
less than 10%. Used high-dose chemotherapy with autologous hematopoietic
stem cell transplant; "a high survival rate was observed in
HDCT-treated patients who were in complete remission after conventional
chemotherapy."
Reference:
9. Blay JY et al.; "High-dose chemotherapy with autologous
hematopoietic stem-cell transplantation for advanced soft tissue
sarcoma in adults"; J. Clin. Oncol. 18, 3643-3650; Nov 1 2000
"The prognosis of metastatic malignant mesenchymal tumors
(MMT) remains poor." Used high-dose chemotherapy with bone
marrow or peripheral blood stem cell transplant. "A response
exceeding 50% was observed in 6/18 patients (response rate 33%)."
Reference:
10. Lafay-Cousin L et al.; "High-dose thiotepa and hematopoietic
stem cell transplantation in pediatric malignant mesenchymal tumors:
a phase II study"; Bone Marrow Transplant 26, 627-632; Sept.
2000
High-dose chemotherapy followed by autologous haematopoietic rescue
is widely used in the treatment of patients with paediatric malignancies.
It is now well established as a major component for the treatment
of children with metastatic neuroblastoma over the age of one at
diagnosis. Its place for other tumours, such as metastatic Ewing
and rhabdomyosarcoma, needs to be better established."
Reference:
11. Michon, J and Schleiermacher, G. "Autologous haematopoietic
stem cell transplantation for paediatric solid tumors", Baillieres
Best Practice Research in Clinical Haematology 12, 247-259, March-June,
1999..Updated June 25, 2001 Cancer Treatments with Adult Stem Cells
David A. Prentice 3
Used for malignant solid tumors. Overall response rate 96%, complete
clinical response rate 67%. Treatment described as safe, feasible,
and active.
Reference:
12. Schilder, RJ et al.; "Phase I trial of multiple cycles
of high-dose chemotherapy supported by autologous peripheral-blood
stem cells"; J. Clin. Oncol. 17, 2198-2207; July 1999
TESTICULAR CANCER
"Thirty-seven (57%) of the 65 patients are continuously disease-free.
Three additional patients are disease-free with subsequent surgery.
High-dose chemotherapy was associated with significant morbidity
but no treatment-related mortality. High-dose chemotherapy as initial
salvage chemotherapy achieved impressive long-term survival with
acceptable toxicity in patients with relapsed testicular cancer."
Reference:
13. Bhatia S et al.; "High-dose chemotherapy as initial salvage
chemotherapy in patients with relapsed testicular cancer";
J. Clin. Oncol. 18, 3346-3351; Oct. 19, 2000
"High-dose chemotherapy with the transplantation of peripheral
blood stem cells (PBSC) has been performed for the treatment of
advanced testicular cancer patients." "After mobilization
of peripheral blood stem cells with G-CSF alone, sufficient amounts
of MNC were obtained from testicular cancer patients who had undergone
chemotherapy several times."
Reference:
14. Hanazawa, K et al.; "Collection of peripheral blood stem
cells with granulocyte-colony-stimulating factor alone in testicular
cancer patients"; Int. J. Urol. 7, 77-82; March 2000.
<MULTIPLE MYELOMA, LEUKEMIAS>
UMBILICAL CORD BLOOD EFFECTIVE
AT TREATING ADULT BLOOD DISORDERS
A new report shows that umbilical cord blood can provide effective
treatment of various blood disorders in adults. It had previously
been assumed that there were too few stem cells in cord blood to
treat adults, and only children were treated. The results of this
study show that cord blood stem cells can proliferate extensively
and provide sufficient numbers of cells for adult treatments.
Reference:
15. Laughlin MJ et al.; "Hematopoietic engraftment and survival
in adult recipients of umbilical-cord blood from unrelated donors",
New England Journal of Medicine 344, 1815-1822; June 14, 2001
This retrospective study included 21 children with acute lymphoblastic
leukaemia, 15 with acute myelogenous leukaemia and one each with
chronic myelogenous leukaemia, refractory anaemia with myelodysplastic
syndrome (MDS) and juvenile myelomonocytic leukaemia (JMML). These
data confirm that HLA-mismatched, unrelated CBT is a feasible procedure
to cure a significant proportion of children with leukaemia, especially
if conducted in a favourable phase of the disease.
Reference:
16. Ohnuma K et al.; "Cord blood transplantation from HLA-mismatched
unrelated donors as a treatment for children with haematological
malignancies"; Br J Haematol 112(4), 981-987; March 2001.Updated
June 25, 2001 David A. Prentice 4
a lymphoproliferative disorder with abnormalities characteristic
of malignant T cell lymphoma (angioimmunoblastic T cell lymphoma
-- -year old male patient with unusually aggressive AILD, At relapse,
treatment with high dose chemotherapy shown to be successful. The
patient is alive and disease-after APSCT. Considering the poor prognosis
of the majority of patients with AILD, intensive
Reference:
17. Lindahl J ; "High-hemolysing AILD"; Leuk Res 25(3),
267- 1 Patients given high-blood stem cells rather than bone marrow
results in higher rates of overall and disease-and restores blood
counts faster. Patients in whom the benefit of peripheral blood
cells was most apparent were those with advanced hematologic cancer.
Other studies have also shown that the use -blood cells is associated
with fewer days of hospitalization and lower overall costs.
Reference:
. Bensinger WI ; "Transplantation of bone marrow as compared
with peripheral-from HLA-Medicine
344, 175-ng stem cell transplantation. The authors note that "Stem
cell transplantation has been successfully used to treat a wide
variety of hematologic malignancies. Newul inovercoming tumor resistance."
Reference:
Margolis J et al.Semin. Oncol. 27, 524-apeutic approach in patients
with acute myelocytic leukemia over 60 years of age."
Reference:
Gorin NC et al. acut myelocytic leukaemia in patients over 60 years
of age: importance of the source of stem -893; Sept 2000
"Infants with acute leukemia have a poor prognosis when treated
with conventional chemotherapy." -year overall survival 64%.
"SCT is a valid option in the treatment of inf may overcome
the high risk of relapse with conventional chemotherapy showing
very reduced toxicity."
Reference:
Marco F et al. -Dose -C -3261; Sept. 15 2000.Updated June 25, 2001
Cancer Treatments with Adult Stem Cells David A. Prentice 5
"Actuarial survival and disease-free survival at 34 months
are 56% and 50% respectively, with 95% confidence interval (25-78%).These
results suggest that nonmyeloablative conditioning significantly
reduces transplant-related toxicity, thus making a second transplant
feasible."
Reference:
22. Nagler A et al.; "Second allogeneic stem cell transplantation
using nonmyeloablative conditioning for patients who relapsed or
developed secondary malignancies following autologous transplantation";
Exp. Hematol. 28, 1096-1104, Sept. 1, 2000
Review of autologous stem cell treatment strategies. "Controlled
clinical trials have demonstrated a long-term disease-free survival
of 40%-50% for patients treated with at least two courses of HIDAC.
Other studies have demonstrated that postremission autologous bone
marrow transplantation results in a disease-free survival equal
to or better than conventional chemotherapy. However, autotransplantation
with mobilized peripheral blood stem cells (PBSC) would now be preferred
instead of autologous bone marrow, due to the shorter hematopoietic
reconstitution period."
Reference:
23. Bruserud O et al.; "New strategies in the treatment of
acute myelogenous leukemia: mobilization and transplantation of
autologous peripheral blood stem cells in adult patients";
Stem Cells 18, 343-351; 2000
Study to evaluate high-dose melphalan followed by autologous stem-cell
transplantation in patients with refractory multiple myeloma. High-dose
therapy with melphalan 200 mg/m(2) is feasible with high response
rates (58% overall) and an OS of 19 months in patients with refractory
multiple myeloma."
Reference:
24. Vesole, DH et al.; "High-Dose Melphalan With Autotransplantation
for Refractory Multiple Myeloma: Results of a Southwest Oncology
Group Phase II Trial"; J Clin Oncol 17, 2173-2179; July 1999.
BREAST CANCER
**The "data suggest that high-dose chemotherapy with hematopoietic
stem cell rescue is safe and can be beneficial to patients with
high-risk primary breast cancer and for those with metastatic breast
cancer achieving complete response/no evidence of disease."
Reference:
25. Damon LE et al.; "High-dose chemotherapy and hematopoietic
stem cell rescue for breast cancer:
experience in California"; Biol. Blood Marrow Transplant 6,
496-505; 2000 Stem cells in circulating blood can be isolated, expanded
in number in culture, and provide better clinical results.
Reference:
26. Paquette, RL et al., "Ex vivo expanded unselected peripheral
blood: progenitor cells reduce posttransplantation neutropenia,
thrombocytopenia, and anemia in patients with breast cancer",
Blood 96, 2385-2390; October, 2000..Updated June 25, 2001 Cancer
Treatments with Adult Stem Cells David A. Prentice 6
"The collection of small aliquots of bone marrow (BM), followed
by ex vivo expansion for autologous transplantation may be less
morbid, and more cost-effective, than typical BM or blood stem cell
harvesting. Passive elimination of contaminating tumor cells during
expansion could reduce reinoculation risks." "It is feasible
to perform autotransplants solely with BM cells grown ex vivo in
perfusion bioreactors from a small aliquot." this procedure
could reduce the risk of tumor cell reinoculation with autotransplants
and may be valuable in settings in which small stem cell doses are
available, eg, cord blood transplants."
Reference:
27. Stiff P et al.; "Autologous transplantation of ex vivo
expanded bone marrow cells grown from small aliquots after high-dose
chemotherapy for breast cancer"; Blood 95, 2169-2174; March
15, 2000
"This report is the first describing infusion of autologous
MSCs with therapeutic intent. We found that autologous MSC infusion
at the time of PBPC transplantation is feasible and safe. The observed
rapid hematopoietic recovery suggests that MSC infusion after myeloablative
therapy may have a positive impact on hematopoiesis and should be
tested in randomized trials."
Reference:
28. Koc, ON et al.; "Rapid Hematopoietic Recovery After Coinfusion
of Autologous-Blood Stem Cells and Culture-Expanded Marrow Mesenchymal
Stem Cells in Advanced Breast Cancer Patients Receiving High-Dose
Chemotherapy"; J Clin Oncol 18, 307-316; January 2000
NEUROBLASTOMA
"According to initial reports, stage 4 neuroblastoma patients
with amplification of the MYCN proto-oncogene developed progressive
disease within 8 months. The prognosis for such patients, however,
should now be reevaluated in light of recent results achieved with
up-to-date combination chemotherapy. Not all patients with advanced
neuroblastoma who have more than 10 copies of MYCN will die. The
requisites for survival in such patients seem to be intensive induction
chemotherapy, effective surgery, irradiation, and the use of SCT"
(stem cell transplant).
Reference:
29. Kawa, K et al.; "Long-Term Survivors of Advanced Neuroblastoma
With MYCN Amplification: A Report of 19 Patients Surviving Disease-Free
for More Than 66 Months"; J Clin Oncol 17:3216-3220; October
1999
NON-HODGKINS LYMPHOMA
"To determine differences in prognosis between primary progressive
Hodgkin's disease (HD) and aggressive non-Hodgkin's lymphoma (NHL),
we retrospectively analyzed patients with progressive lymphoma who
were treated with different salvage chemotherapy regimens including
high-dose chemotherapy (HDCT) followed by autologous stem-cell support
(ASCT). There are striking differences in the prognosis of patients
with progressive HD and aggressive NHL. The prognosis of progressive
NHL patients is dismal. Most patients have rapidly progressive disease
after salvage treatment and are, therefore, excluded from HDCT programs.
In contrast, progressive HD patients can achieve long-term survival
after HDCT."
Reference:
30. Josting, A; "Treatment of Primary Progressive Hodgkins
and Aggressive Non-Hodgkins Lymphoma: Is There a Chance for
Cure?"; J Clin Oncol 18, 332-339; 2000
"Patient achieved complete remission and has survived in continuous
complete remission for more than 72 months to date. Marrow-ablative
chemotherapy facilitated by PBSCT is thought to be useful as part
of the primary therapy for patients with NHL who have poorer prognoses."
Reference:.Updated June 25, 2001 Cancer Treatments with Adult Stem
Cells David A. Prentice7
31. Kirita T et al.; "Primary non-Hodgkins lymphoma
of the mandible treated with radiotherapy, chemotherapy, and autologous
peripheral blood stem cell transplantation"; Oral Surg Oral
Med Oral Pathol Oral Radiol Endod. 90, 450-455; Oct. 2000
"These results suggest first that ex vivo expansion of hematopoietic
stem cells in patients with non-Hodgkin's lymphoma is feasible without
incurring the parallel risk of amplifying tumor cells; second, that
Flt3-L did not stimulate the growth of tumor cells while it clearly
favored the growth of normal progenitors."
Reference:
32. Yao M et al.; "Ex vivo expansion of CD34-positive peripheral
blood progenitor cells from patients with non-Hodgkins lymphoma:
no evidence of concomitant expansion of contaminating bcl2/JH-positive
lymphoma cells"; Bone Marrow Transplant 26, 497-503; Sept.
2000
RENAL CELL CARCINOMA
"Nonmyeloablative allogeneic stem-cell transplantation can
induce sustained regression of metastatic renal-cell carcinoma in
patients who have had no response to conventional immunotherapy."
Reference:
33. Childs R et al., "Regression of Metastatic Renal-Cell
Carcinoma after Nonmyeloablative Allogeneic Peripheral-Blood Stem-Cell
Transplantation", New England Journal of Medicine 343, 750-758;
Sept. 14, 2000
"The complete regression of metastatic disease, which has
now been maintained for more than 1 year, is compatible with a graft-versus-tumor
effect."
Reference:
34. Childs, RW; "Successful Treatment of Metastatic Renal
Cell Carcinoma With a Nonmyeloablative Allogeneic Peripheral-Blood
Progenitor-Cell Transplant: Evidence for a Graft-Versus-Tumor Effect:;
J Clin Oncol 17, 2044-2049; July 1999.Updated June 25, 2001 Autoimmune
Disease Treatments with Adult Stem Cells David A. Prentice 8
<Autoimmune diseases>
multiple sclerosis, systemic lupus
erythematosus, juvenile rheumatoid arthritis, rheumatoid arthritis
High-dose chemotherapy followed by autologous HSCT is feasible
and safe, and can result in long-term improvement of disease activity
in patients whose condition previously did not respond to conventional
antirheumatic drugs or TNF blocking agents. The persistence of active
disease in some patients may reflect the heterogeneity of the underlying
disease process.
Reference:
35. Verburg RJ et al.; "High-dose chemotherapy and autologous
hematopoietic stem cell transplantation in patients with rheumatoid
arthritis: results of an open study to assess feasibility, safety,
and efficacy"; Arthritis Rheum 44(4), 754-760; April 2001
Reference:
36. Wulffraat NM et al.; "Prolonged remission without treatment
after autologous stem cell transplantation for refractory childhood
systemic lupus erythematosus"; Arthritis Rheum 44(3), 728-731;
March 2001
** "Autoimmune diseases that are resistant to conventional
treatment cause severe morbidity and even mortality. In the present
study we demonstrate that complete remissions can be achieved in
refractory polychondritis and systemic lupus erythematosus (SLE),
even at advanced stage, with the use of autologous stem-cell transplantation
(SCT). Remissions persisted after reconstitution of the immune system.
In the treatment of advanced systemic sclerosis (SSc), stable disease
may be achieved with autologous SCT."
Reference:
37. Rosen O et al.; "Autologous stem-cell transplantation
in refractory autoimmune diseases after in vivo immunoablation and
ex vivo depletion of mononuclear cells"; Arthritis res. 2,
327-336; 2000
Nineteen patients (14 female, 5 male) with severe autoimmune diseases
were treated. Nine had a rheumatologic disorder (5 juvenile chronic
arthritis, 1 rheumatoid arthritis, 1 systemic vasculitis, 1 Sjogren's
syndrome, 1 Behct's disease), 4 a neurologic disorder (3 multiple
sclerosis, 1 myasthenia), 3 a haematologic disease (2 pure red cell
aplasia, 1 autoimmune thrombocytopenia), 2 had a gastrointestinal
disease (1 Crohn's disease, 1 autoimmune enteropathy) and 1 had
a multiple autoimmune disorder. There was no regimen-related toxicity
and no opportunistic infections occurred. Ninety percent of the
patients improved and/or had a complete remission after the procedure.
Fifty percent of the subjects went into complete or partial remission
after a median follow-up of 15 months. A non-myeloablative conditioning
regimen was able to induce persistent remission in some patients
with severe autoimmune diseases. There was no mortality or morbidity
related to the procedure. The extent of remission remains to be
established.
Reference:
38. Rabusin M et al.; "Immunoablation followed by autologous
hematopoietic stem cell infusion for the treatment of severe autoimmune
disease"; Haematologica 85(11 Suppl), 81-85; Nov. 2000.Updated
June 25, 2001 Autoimmune Disease Treatments with Adult Stem Cells
David A. Prentice 9
**Study that supports the concept that patients with autoimmune
cytopenias with severe resistant disease might be appropriate candidates
for autologous stem cell transplantation.
Reference:
39. Papadaki HA et al.; "Assessment of bone marrow stem cell
reserve and function and stromal cell function in patients with
autoimmune cytopenias"; Blood 96, 3272-3275; Nov 1 2000
Patients (including several children) with severe lupus were treated
with their own bone marrow stemcells, and had relief of symptoms,
with little or no need for medication after treatment.
References
40. Traynor AE et al.; "Treatment of severe systemic lupus
erythematosus with high-dose chemotherapy and haemopoietic stem-cell
transplantation: a phase I study"; Lancet 356, 701-707; August
26, 2000
Numerous studies showing efficacy of adult stem cell transplants
in the successful treatment of autoimmune diseases.
References:
41. Burt, RK and Traynor, AE; "Hematopoietic Stem Cell Transplantation:
A New Therapy for Autoimmune Disease"; Stem Cells17, 366-372;
1999
Overviewjuvenile rheumatoid arthritis; multiple sclerosis;
rheumatoid arthritis; systemic lupus erythematosus.
42. Burt RK et al.; "Hematopoietic stem cell transplantation
of multiple sclerosis, rheumatoid arthritis, and systemic lupus
erythematosus"; Cancer Treat. Res. 101, 157-184; 1999
43. Traynor A and Burt RK; "Haematopoietic stem cell transplantation
for active systemic lupus erythematosus"; Rheumatology 38,
767-772; August 1999
44. Martini A et al.; "Marked and sustained improvement 2
years after autologous stem cell transplant in a girl with system
sclerosis"; Rheumatology 38, 773; August 1999
45. Hawkey CJ et al.; "Stem cell transplantation for inflammatory
bowel disease: practical and ethical issues"; Gut 46, 869-872;
June 2000
46. Burt, RK et al., "Autologous hematopoietic stem cell transplantation
in refractory rheumatoid arthritis: sustained response in two of
four patients", Arthritis & Rheumatology 42, 2281-2285,
November, 1999.
47. Burt, R.K. et al., "Gene-marked autologous hematopoietic
stem cell transplantation of
autoimmune disease", Journal of Clinical Immunology 20, 1-9;
January 2000..Updated June 25, 2001 Other Clinical Uses of Adult
Stem Cells David A. Prentice 10
Stroke
A cultured stem cell line (originally derived from an adult tumor;
a "teratocarcinoma", sometimes called an "embryonal
carcinoma" because it mimics some of the characteristics of
embryonic cells.)
The cultured and adapted cell line was used in successful treatment
of several stroke patients.
Reference
48. Kondziolka D et al.; "Transplantation of cultured human
neuronal cells for patients with stroke"; Neurology 55, 565-569;
August 2000
<Immunodeficiencies>
Banked unrelated umbilical cord blood was used to reconstitute
the immune system in 2 brothers with X-linked lymphoproliferative
syndrome and 1 boy with X-linked hyperimmunoglobulin-M syndrome.
Two years after transplantation, all 3 patients have normal immune
systems. These reports support the wider use of banked partially
matched cord blood for transplantation in primary immunodeficiencies.
Reference:
49. Ziegner UH et al.; "Unrelated umbilical cord stem cell
transplantation for X-linked immunodeficiencies"; J Pediatr
138(4), 570-573; April 2001
Eight children with severe immunodeficiencies treated by adult
bone marrow stem cell transplants.
Six of 8 showed relatively normal immune systems after 1 year.
Reference
50. Amrolia, P. et al., "Nonmyeloablative stem cell transplantation
for congenital immunodeficiencies", Blood 96, 1239-1246, Aug.
15, 2000.
<Anemias>
Allogeneic peripheral blood stem cell transplantation (PBSCT) is
rarely applied for the treatment of severe aplastic anemia (SAA)
because of questionable durability of engraftment and increased
risk of graft versus host disease (GVHD). We performed allogeneic
PBSCT in 3 SAA patients from their human leukocyte antigen (HLA)-identical
siblings. In 2 cases, no graft failure has been observed, and a
successful and complete hematological recovery was achieved and
maintained for 28 and 25 months, respectively. In conclusion, PBSCT
provides a quick and complete hematological recovery in SAA patients.
Reference:
51. Gurman G et al.; "Allogeneic peripheral blood stem cell
transplantation for severe aplastic anemia"; Ther Apher 5(1),
54-57; Feb. 2001
Results suggest that treatment can reverse progression of vasculopathy.
Bone marrow transplantation may enable stenoses to heal and can
substantially reduce cranial blood velocity, suggesting that allogeneic
bone marrow transplantation may prevent infarction or brain damage.
Reference:
52. Steen RG et al.; "Improved cerebrovascular patency following
therapy in patients with sickle cell disease: initial results in
4 patients who received HLA-identical hematopoietic stem cell allografts";
Ann Neurol 49(2), 222-229; Feb. 2001.Updated June 25, 2001 Other
Clinical Uses of Adult Stem Cells David A. Prentice 11
Able to treat severe anemias using transplants of adult bone marrow
stem cells.
References
53. Gonzalez MI et al.; "Allogeneic peripheral stem cell transplantation
in a case of hereditary sideroblastic anaemia"; British Journal
of Haematology 109, 658-660; 2000
54. Kook H et al.; "Rubella-associated aplastic anemia treated
by syngeneic stem cell transplantations"; Am. J. Hematol. 64,
303-305; August 2000
Possibility of using adult stem cell
transplantation as cure for sickle cell anemia.
Reference
55. Wethers DL; "Sickle cell disease in childhood: Part II.
Diagnosis and treatment of major complications and recent advances
in treatment"; Am. Fam. Physician 62, 1309-1314; Sept. 15,
2000
Successful treatment of a congenital thrombocytopenia using allogeneic
peripheral blood stem cell transplantation.
Reference
56. Yesilipek et al.; "Peripheral stem cell transplantation
in a child with amegakaryocytic thrombocytopenia"; Bone Marrow
Transplant 26, 571-572; Sept. 2000
Chronic Viral Infection With Complications
57. Fujii N et al.; "Allogeneic peripheral blood stem cell
transplantation for the treatment of chronic active epstein-barr
virus infection"; Bone Marrow Transplant 26, 805-808; Oct.
2000
58. Okamura T et al.; "Blood stem-cell transplantation for
chronic active Epstein-Barr virus with lymphoproliferation";
Lancet 356, 223-224; July 2000
<Cartilage and Bone Diseases>
59. Biopsies removed from 57 patients considered for cartilage
transplantation were grown. Explant cultures allowed cell number
expansion. Fifty-four out of 57 biopsies grew cells. Fanning out
of the cells began after 5-15 days in culture. Two passages later,
cell numbers in the 10(7) range were achieved. Explants of articular
chondrocytes cultured in vitro consistently yield monolayer cultures.
The cells appear to revert to dedifferentiated chondrocytes, expressing
a mesenchymal stem cell protein profile. Simultaneously, these cells
regained their capacity to proliferate.
Reference:
60. Robinson D et al.; "Characteristics of cartilage biopsies
used for autologous chondrocytes transplantation"; Cell Transplant
10(2), 203-208; 2001 Mar-Apr
61. Horwitz, EM et al.; "Transplantability and therapeutic
effects of bone marrow-derived mesenchymal cells in children with
osteogenesis imperfecta"; Nat. Med. 5, 309-313; March 1999..Updated
June 25, 2001 Other Clinical Uses of Adult Stem Cells David A. Prentice
12
<Corneal scarring>
Fifteen of 16 eyes (93.7%) achieved epithelialization with a mean
time to epithelial healing of 15.2 days. The only eye that failed
to heal was subsequently diagnosed with total limbal stem cell deficiency.
Visual acuity improved in five of nine (44%) sighted eyes. No patient
experienced any major surgical or medical complication after the
procedure. Amniotic membrane transplantation represents a safe and
effective method to restore a stable corneal epithelium in eyes
after primary surgical removal of band keratopathy arising from
ocular causes.
Reference:
62. Adnerson DF et al.; "Amniotic Membrane Transplantation
After the Primary Surgical Management of Band Keratopathy";
Cornea 20(4), 354-361; May 2001
Amniotic membrane transplantation appears to be a safe and effective
method of restoring a stable corneal epithelium for cases of partial
limbal stem cell deficiency and can be considered as an alternative
to limbal autograft or allograft. 17 eyes of 15 patients; All eyes
exhibited a stable, intact corneal epithelial surface after a mean
follow up period of 25.8 months with no eyes developing recurrent
erosion or persistent epithelial defect. The mean time to re-epithelialisation
was 22.8 days.
Overall improvement in visual acuity was observed in 92.9% of 14
eyes with visual potential.
Reference:
63. Anderson DF et al.; "Amniotic membrane transplantation
for partial limbal stem cell deficiency"; Br J Ophthalmol 85(5),
567-575; May 2001
An objective long term benefit from the procedure (improved Snellen
acuity, reduced frequency of epithelial defects, reduced vascularisation,
and scarring) was recorded for four out of five patients.
Some subjective benefit was also reported. However, in no instances
were donor cells recovered from the ocular surface at 3-5 years
post-graft. Initial experiments to examine sensitivity indicated
that any surviving donor cells must have constituted less than 2.5%
of cells sampled. Limbal stem cell allotransplantation can provide
long term benefits, as measured by objective criteria. However,
such benefits do not necessarily correlate with survival of measurable
numbers of donor cells on the ocular surface.
Reference:
64. Henderson TR et al.; "The long term outcome of limbal
allografts: the search for surviving cells"; Br J Ophthalmol
85(5), 604-609; May 2001
**Adult stem cells from relatives used to restore vision Nine living
related donors, 8 recipients (10 eyes, various conditions). Restoration
of corneal epithelium, opacification reduced, visual improvement;
2 initial failures.
Reference:
65. Daya SM, Ilari FA; "Living related conjuctival limbal
allograft for the treatment of stem cell
deficiency"; Opthalmology 180, 126-133; January 2001.Updated
June 25, 2001 Other Clinical Uses of Adult Stem Cells David A. Prentice13
Adult Stem Cells Used to Grow New Corneas Researchers in the United
States and Taiwan have used corneal adult stem cells to grow new
corneas for patients with previously untreatable eye damage. Adult
stem cells were taken from the patients themselves in 16 cases,
or a family member for 4 other patients. The cells were then grown
in culture before transplantation onto the damaged eyes. Sixteen
of the 20 patients had improved vision. Dr. Ivan Schwab, professor
of ophthalmology at the University of California at Davis Medical
School,leader of the U.S. team, said "We think this is the
beginning of a very exciting change in terms of how we manage surface
disease of many kinds, not just in the eye."
References
66. Schwab IR et al.; "Successful transplantation of bioengineered
tissue replacements in patients with ocular surface disease";
Cornea 19, 421-426; July 2000.
67. Tsai et al.; "Reconstruction of damaged corneas by transplantation
of autologous limbal epithelial cells."; New England Journal
of Medicine 343, 86-93, 2000.
68. Tsubota K et al.; "Treatment of severe ocular-surface
disorders with corneal epithelial stem-celltransplantation";
New England Journal of Medicine 340, 1697-1703; June 3, 1999
<Blood and Liver Disease>
**4-month-old girl received stem cell transplant after receiving
living-related liver transplant from same donor (mother). Four months
after stem cell transplant the patient was disease-free, complete
donor chimerism in bone marrow and stable hepatic function without
any immunosuppressive therapy.
Reference
69. Matthes-Martin S et al.; "Successful stem cell transplantation
following orthotopic liver transplantation from the same haploidentical
family donor in a girl with hemophagocytic lymphohistiocytosis";
Blood 96, 3997-3999; Dec 1, 2000
**Primary amyloidosis is a plasma cell disorder in which deposits
of amyloid protein cause progressive organ failure; most common
target is the kidney, although heart, liver, and nervous tissue
effects are also seen. Compared to standard treatments, high-dose
chemotherapy with autologous peripheral blood stem cell transplantation
is shown to be much more effective in the clinical condition of
patients.
Reference:
70. Sezer O et al.; "Novel approaches to the treatment of
primary amyloidosis"; Exper Opin. Investig. Drugs 9, 2343-2350;
Oct 2000
<Gene Therapy>
*First successful trial of human therapy, re-injecting the infants
own bone marrow stem cells containing a normal copy of the gene
that they lacked.
Reference:
71. Cavazzana-Calvo M et al.; "Gene therapy of human severe
combined immunodeficiency (SCID)-X1 disease"; Science 288,
669-672; April 28, 2000.Updated June 25, 2001 Other Clinical Uses
of Adult Stem Cells David A. Prentice 14
<Heart Damage>
First successful human stem cell treatment for heart disease uses
adult stem cells
The first reports of successful treatment for heart disease using
the patients own adult muscle stem cells are encouraging news
regarding therapy after heart attack. French physicians implanted
skeletal muscle stem cells back into the patient; the encouraging
result after eight months follow-up underlines the potential
of this new approach using adult stem cells. Further clinical trials
are now underway in Europe and the U.S. for other patients with
heart disease. No embryonic stem cells have ever been reported to
be used in human trials.
A review of potential heart treatments notes that cell transplantation
is a potential therapeutic approach for patients with chronic heart
failure. Experimental transplantation of muscle cells showed that
the grafted cells can functionally integrate with and augment the
function of the recipient heart.
The scientists note that skeletal stem cells are abundant and can
be grafted successfully into the animals own heart even after
genetic manipulation in vitro.
References:
72. Menasché P et al. "Myoblast transplantation for
heart failure." Lancet 357, 279-280; Jan 27, 2001
73. Menasché P et al. ["Autologous skeletal myoblast
transplantation for cardiac insufficiency. First clinical case."]
[article in French] Arch Mal Coeur Vaiss 94(3), 180-182; March 2001
74. "Doctor Puts Arm Muscle Cells Into Patient's Heart",
Associated Press, May 30, 2001
75. "First Percutaneous Endovascular Case of Heart Muscle
Regeneration Completed with Bioheart's MyoCell(TM) Product",
PRNewswire, May 30, 2001.
76. El Oakley RM et al.; "Myocyte transplantation for cardiac
repair: A few good cells can mend abroken heart"; Annals of
Thoracic Surgery 71, 1724 1733; 2001.Updated June 25, 2001
Other Clinical Uses of Adult Stem Cells David A. Prentice15
General References Related to Clinical
Uses of Adult Stem
Cells
Recent studies have revealed that much of this remarkable developmental
potential of embryonic stem cells is retained by small populations
of cells within most tissues in the adult. Intercellular signals
that control the proliferation, differentiation and survival of
stem cells are being identified and include a diverse array of growth
factors, cytokines and cell adhesion molecules. Intracellular mechanisms
that regulate stem cell fate are also emerging and include established
second messenger pathways, novel transcription factors and telomerase.
The possibility that a decline in the numbers or plasticity of stem
cell populations contributes to aging and age-related disease is
suggested by recent findings.
The remarkable plasticity of stem cells suggests that endogenous
or transplanted stem cells can be 'tweaked' in ways that will allow
them to replace lost or dysfunctional cell populations in diseases
ranging from neurodegenerative and hematopoietic disorders to diabetes
and cardiovascular disease.
Reference:
77. Rao MS and Mattson MP; "Stem cells and aging: expanding
the possibilities"; Mech Ageing Dev 122(7), 713-734; May 31,
2001
Mesenchymal stem cells (MSCs) are the first non-hematopoietic progenitors
to be isolated from the bone marrow and extensively characterized.
In addition to their ability to support hematopoiesis, MSCs can
differentiate into osteocytes, chondrocytes, tenocytes, adipocytes
and smooth muscle cells. This article will review our current understanding
of bone marrow stroma and MSCs and their potential therapeutic role
in the setting of hematopoietic stem cell transplantation.
Reference:
78. Koc ON and Lazarus HM; "Mesenchymal stem cells: heading
into the clinic"; Bone Marrow Transplant 27(3), 235-239; Feb.
2001 It appears that basal haematopoiesis is maintained throughout
life, yet, the capacity to cope with haematological stress is decreased
in advanced age. In principle, stem cells derived from aged donors
can be used for autologous transplantation, when needed to recover
basic haematopoiesis. Current methods for expansion and maintenance
of stem cells in vitro enable examination of stem cell potential
for long-term expansion and function. Understanding of the mechanisms
underlying these processes will enable the fidelity of stem cell
expansion and maintenance of their potential for long-term function.
Reference:
79. Globerson A; "Haematopoietic stem cell ageing"; Novartis
Found Symp 235, 85-96; discussion 96-100, 101-4; 2001
This study examined whether cryopreservation following expansion
has a detrimental effect on the ability of cells to engraft, using
the NOD-SCID mouse model. Cord blood (CB) CD34(+) cells were incubated
for 7 days with stem cell factor (SCF), flt-3 ligand (FL), and megakaryocyte
growth and development factor (MGDF). Expanded CD34(+) cells were
transplanted into NOD-SCID mice either fresh or following cryopreservation
and thawing. Thawed expanded CD34(+) cells had significantly higher
SCID Engrafting.Updated June 25, 2001 Other Clinical Uses of Adult
Stem Cells David A. Prentice 16
Potential (SEP) than freshly expanded CD34(+) cells. Results suggest
that priorcryopreservation does not prevent expanded cells engrafting
in NOD-SCID mice.
Reference:
80. Rice AM et al.; "Prior cryopreservation of ex vivo-expanded
cord blood cells is notdetrimental to engraftment as measured in
the nod-scid mouse model"; J Hematother Stem Cell Res 0(1),
157-165; Feb. 2001.Updated June 25, 2001 Other Clinical Uses of
Adult Stem Cells David A. Prentice 17
Represents the first case of successful transplantation of PBSC,
cryopreserved twice and purged after cryopreservation. Indicates
that purging procedures can successfully be carried out with cryopreserved
cell material and that purified CD34+ cells can be cryopreserved
a second time before transplantation, without affecting their hematopoietic
capacity.
Reference:
81. Humpe A et al.; "Successful transplantation and engraftment
of peripheral blood stem cells after cryopreservation, positive
and negative purging procedures, and a second cryopreservation cycle";
Ann Hematol 80(2), 109-112; Feb. 2001
General review of growth factors using in hematopoietic stem cell
transplants. Recently, EPO has been shown to significantly accelerate
hematopoietic reconstitution after peripheral blood stem cell transplantation
(PBSCT) resulting in reduced infection rates.
Both, G-CSF and GM-CSF have been shown, in numerous trials, to
shorten the period of chemotherapy-induced neutropenia, with reduction
in attendant morbidity and to mobilize PBSC. In addition, administration
of both cytokines after PBSCT significantly reduced the use of antibiotics
and duration of hospitalization suggesting an economic benefit.
Reference:
82. Dempke W et al.; "Human hematopoietic growth factors:
old lessons and new perspectives"; Anticancer Res 20(6D), 5155-5164;
2000 Nov-Dec Review of increasing use of umbilical cord blood for
transplants; banking of cells, etc.
Reference:
83. Surbek DV and Holzgreve W; "Fetal cells from cord blood
as stem cell source: current status and possible implications in
gynaecologic oncology"; Eur J Gynaecol Oncol 22(1), 6-12; 2001
Mobilized peripheral blood progenitor cells (PBSC) are increasingly
being used instead of bone marrow for allogeneic transplantation.
This article gives a concise and clinically oriented overview on
current results and perspectives of allogeneic peripheral blood
stem cell transplantation, with particular focus on reconstitution
of hematopoiesis and the immune system, graft-versus-host disease,
graft-versus-leukemia effects, intensity-reduced conditioning, and
graft engineering.
Reference:
84. Dreger P and Schmitz N; "Allogeneic transplantation of
blood stem cells: coming of age?"; Ann Hematol 80(3), 127-136;
March 2001
**Previously reported human stem cell frequencies and their in
vivo self-renewal activity have been markedly underestimated.
Reference
85. Cashman JD and Eaves CJ; "High marrow seeding efficiency
of human lymphomyeloid repopulating cells in irradiated NOD/SCID
mice"; Blood 96, 3979-3981; Dec. 1 2000.Updated June 25, 2001
Other Clinical Uses of Adult Stem Cells David A. Prentice 18
**Evidence for expansion protocol to
maintain cord blood stem cells for clinical applications.
Reference
86. Kobari L et al.; "In vitro and in vivo evidence for the
long-term multilineage (myeloid, B, NK, and T) reconstitution capacity
of ex vivo expanded human CD34(+) cord blood cells"; Exp Hematol
28, 1470-1480, December 2000.Updated June 25, 2001 Other Clinical
Uses of Adult Stem Cells David A. Prentice 19
**Study notes that disease recurrence is lower after peripheral
blood stem cell transplants than with bone marrow; "The general
opinion is that peripheral blood grafts are indicated for patients
with advanced disease, whereas for patients with early-phase disease
the two sources may give comparable results."
Reference:
87. Bacigalupo A et al.; "Bone marrow or peripheral blood
as a source of stem cells for allogeneic transplants"; Curr.
Opin. Hematol. 7, 343-347; Nov 2000
**Quality of life for 415 adult patients who received hematopoietic
stem cell transplants was measured; typical patients can look forward
to a quality of life after transplantation that is broadly comparable
to that of the normal population.
Reference:
88. Bush NE et al.; "Conditional and unconditional estimation
of multidimensional quality of life after hematopoietic stem cell
transplantation: a longitudinal follow-up of 415 patients";
Biol. Blood Marrow Transplant 6, 576-591; 2000
**Review of techniques to mobilize hematopoietic bone marrow stem
cells into peripheral blood.
Reference:
89. Fu S, Liesveld J; "Mobilization of hematopoietic stem
cells"; Blood Rev 14, 205-218;
Dec 2000
**Technique to expand numbers of human hematopoietic stem cells
in culture. Cells from umbilical cord blood and adult patient peripheral
blood were expanded with 2 factors, flt-3 ligand and thrombopoietin/c-mpl
ligand, and maintained for prolonged periods (up to 16 weeks), and
sufficient numbers were generated for adult transplantation.
Reference:
90. Gilmore GL et al.; "Ex vivo expansion of human umbilical
cord blood and peripheral
blood CD34(+) hematopoietic stem cells"; Exp. Hematol. 28,
1297-1305; Nov 1 2000
**Review of records for cord blood stem cell transplants. Results
showed survival comparable to bone marrow transplants. "This
large registry study confirms the potential benefit of using umbilical
cord blood hematopoietic stem cells for allogeneic transplants."
Reference:
91. Gluckman E; "Current status of umbilical cord blood hematopoietic
stem cell transplantation"; Exp. Hematol. 28, 1197-1205; Nov
1 2000
Review of potentials for stem cell transplantation.
Reference
92. Steward CG; "Stem cell transplantation for non-malignant
disorders"; Baillieres Best Pract. Res. Clin. Haematol. 13,
343-363; Sept. 2000
93. Slavin S; "new strategies for bone marrow transplantation";
Curr. Opin. Immunol. 12,
542-551; Oct. 2000.Updated June 25, 2001 Other Clinical Uses of
Adult Stem Cells David A. Prentice 20
Improved technique to quickly expand numbers of cord blood cells
in culture, allowing adequate numbers for treatment of adult patients.
Reference:
94. McNiece I et al.; "Increased expansion and differentiation
of cord blood products
using a two-step expansion culture"; Exp. Hematol. 28, 1181-1186;
Oct. 2000.Updated June 25, 2001 Other Clinical Uses of Adult Stem
Cells David A. Prentice 21
"Can expand primitive hematopoietic progenitors from Cord
Blood and Peripheral Blood and expanded cells retain the capacity
for myeloid and lymphoid differentiation. These findings emphasize
the importance of assessing multi-lineage differentiation capacity
following ex-vivo expansion.
Reference:
95. Lewis ID, Verfaillie CM; "Multi-lineage expansion potential
of primitive hematopoietic progenitors. Superiority of umbilical
cord blood compared to mobilized peripheral blood"; Exp. Hematol.
28, 1087-1095; Sept. 1, 2000
Generating a high frequency of clonally repopulating stem cells
from blood.
Reference
96. Cho RH, Muller-Sieburg CE; "High frequency of long-term
culture-initiating cells retain in vivo repopulation and self-renewal
capacity"; Exp. Hematol. 28, 1080-1086; Sept. 1, 2000
97. Jacobs P et al.; "Allogeneic stem cell transplantation.
An economic comparison of bone marrow, peripheral blood, and cord
blood technologies"; Int. J. Technol.
Assess Health Care 16, 874-884; Summer 2000
Autologous (same patient) circulating blood stem cell transplants
show faster recovery, less transplant problems, shorter hospital
stay, and reduced cost compared to bone marrow transplants.
Reference
98. "Overview of autologous stem cell transplantation",
Saba, N et al., Critical Reviews of Oncology and Hematology 36,
27-48, October 2000.
Allogeneic peripheral blood stem cell transplants as good or better
than bone marrow
Reference
99. Ringden O et al., "Peripheral blood stem cell transplantation
from unrelated donors: a comparison with marrow transplantation",
Blood 94, 455; July 15, 1999
Reviews of current protocols allowing better methods for collection
of stem cells from peripheral blood.
References
100. Hester J; "Peripheral blood stem cell collection: the
interaction of technology, procedure, and biological factors";
Transfus. Sci. 23, 125-132; Oct. 2000
101. Kessinger A; "Collection of autologous peripheral blood
stem cells in steady state"; Baillieres Best Pract. Res. Clin.
Haematol. 12, 19-26; Mar-Jun, 1999
102. Korbling M; "In vivo expansion of the circulating stem
cell pool"; Stem Cells 16 Suppl 1, 131-138; 1998.
103. Kessinger A, Sharp JG; "Mobilization of blood stem cells";
Stem Cells 16 Suppl 1, 139-143; 1998. Review of cord blood stem
cell transplants
Reference.Updated June 25, 2001 Other Clinical Uses of Adult Stem
Cells David A. Prentice 22
104. Huhn RD; "Umbilical cord blood stem cell transplantation
and banking"; N J Med 97, 53-57; Sept. 2000
105. **"Bibliography. Current world literature. Hematopoietic
stem cell transplantation"; Curr. Opin. Hematol. 7, B171-189;
Nov 2000
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