Isolex 300i CD34-selected cells to support multiple cycles of high-dose therapy

被引:7
作者
Prince, HM
Bashford, J
Wall, D
Rischin, D
Parker, N
Toner, GC
Seymour, JF
Blakey, D
Haylock, D
Simmons, P
Francis, P
Wolf, M
Januszewicz, EH
Richardson, G
Scarlett, J
Briggs, P
机构
[1] Peter MacCallum Canc Inst, Div Haematol & Med Oncol, Blood & Marrow Transplant Serv, Melbourne, Vic 8006, Australia
[2] Wesley Clin, Brisbane, Qld, Australia
[3] Monash Med Ctr, Dept Med Oncol & Clin Haematol, Melbourne, Vic, Australia
关键词
high-dose therapy; transplantation; CD34-selection; breast cancer; Isolex;
D O I
10.1080/146532402317381848
中图分类号
Q813 [细胞工程];
学科分类号
摘要
Background We have previously reported that repeated cycles of high-dose therapy (HDT), can be supported by unmanipulated autologous PBPC. Here we investigate whether purified CD34(+) cells, obtained by immunomagnetic separation using the Isolex 300i device, can support such therapy. Methods Twenty-nine consecutive patients with metastatic breast cancer had PBPC mobilized and harvested following chemotherapy and G-CSF (10 mug/kg per day). Patients with > 4.0 X 10(6)/kg CD34(+) cells in the apheresis product underwent CD34-selection using the Isolex 300i (upsilon2.0) device. All cells collected were equally divided into three aliquots and cryopreserved. Patients who did not achieve this threshold had unmanipulated cells collected and stored. Patients subsequently received three cycles of HDT with paclitaxel (175 mg/m(2)), thiotepa (300 mg/m(2)) and either ifosfamide (10 g/m(2)) or cyclophosphamide (4 g/m(2)). It was intended for patients to receive CD34-selected cells to support each of the three cycles of HDT (i.e 1/3 for each cycle) and to compare hemopoietic recovery between patients receiving CD34-selected cells or unmanipulated cells. Results Thirteen of the 29 patients (45%) did not mobilize sufficient CD34(+) cells to undergo CD34-selection. The remaining 16 patients underwent CD34-selection with a median purity of 84.3% (range: 16.3-96.1%) and yield of 34% (range: 1-60%). Fifteen of these patients proceeded to HDT and 42 of the planned 45 cycles were administered. Nine patients had all three HDT cycles supported by CD34-selected cells. The median number of CD34-selected cells (X 10(6)/kg) infused per cycle was 1.5 (range: 0.04-3.01). Three of the 15 patients required infusion of 'back- up' unmanipulated cells because of delayed neutrophil recovery. Of the 13 patients whose PBPCs did not undergo CD34(+) cell selection, 11 proceeded to HDT with a median of 3.2 X 10(6)/kg (range: 2.0-4.4) unselected cells infused per cycle and 31 of 33 planned cycles were delivered. When hemopoietic recovery was compared between cycles of HDT supported by CD34-selected (n = 34) and unmanipulated cells (n = 31), there was a modest slowing in the patients receiving CD34-selected cells; time to ANC > 1.0 X 10(9)/L = 11 days versus 10 days (P = 0.0122) and platelets > 20 X 10(9)/L = 14 days versus 13 days (P = 0.0009). No difference in recovery to 50 3 10(9)/L was observed (P = 0.54). Conclusion We have demonstrated that Isolex 300i CD34-selected cells are capable of supporting multiple cycles of HDT. However, we were unable to acquire sufficient CD34(+) cells to perform this processing in 45% (13/29) of patients and further improvements in yield are required to overcome the modest delay in neutrophil and platelet recovery.
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页码:137 / 145
页数:9
相关论文
共 30 条
[1]   Autologous transplantation of mobilized peripheral blood CD34+ cells selected by immunomagnetic procedures in patients with multiple myeloma [J].
Abonour, R ;
Scott, KM ;
Kunkel, LA ;
Robertson, MJ ;
Hromas, R ;
Graves, V ;
Lazaridis, EN ;
Cripe, L ;
Gharpure, V ;
Traycoff, CM ;
Mills, B ;
Srour, EF ;
Cornetta, K .
BONE MARROW TRANSPLANTATION, 1998, 22 (10) :957-963
[2]   High-dose chemotherapy and stem cell transplantation for patients with stage IV breast cancer without clinically evident disease:: correlation of CD34+ selection to clinical outcome [J].
Ahmed, T ;
Kancherla, R ;
Qureshi, Z ;
Mittelman, A ;
Seiter, K ;
Mannancheril, A ;
Puccio, C ;
Chun, HG ;
Bar, M ;
Lipshutz, M ;
Ali, MF ;
Goldberg, R ;
Preti, R ;
Lake, D ;
Durrani, H ;
Farley, T .
BONE MARROW TRANSPLANTATION, 2000, 25 (10) :1041-1045
[3]   Peripheral blood CD34+ cell count reliably predicts autograft yield [J].
Chapple, P ;
Prince, HM ;
Quinn, M ;
Bertoncello, I ;
Juneja, S ;
Wolf, M ;
Januszewicz, H ;
Brettell, M ;
Gardyn, J ;
Seymour, C ;
Venter, D .
BONE MARROW TRANSPLANTATION, 1998, 22 (02) :125-130
[4]   Comparison of three methods of CD34+ cell enumeration in peripheral blood:: dual-platform ISHAGE protocol versus single-platform, versus microvolume fluorimetry [J].
Chapple, P ;
Prince, HM ;
Wall, D ;
Filshie, R ;
Haylock, D ;
Quinn, M ;
Bretell, M ;
Venter, D .
CYTOTHERAPY, 2000, 2 (05) :371-376
[5]   Rapid engraftment after allogeneic transplantation using CD34-enriched marrow cells [J].
Cornetta, K ;
Gharpure, V ;
Mills, B ;
Hromas, R ;
Abonour, R ;
Broun, ER ;
Traycoff, CM ;
Hanna, M ;
Wyman, N ;
Danielson, C ;
Gonin, R ;
Kunkel, L ;
Oldham, F ;
Srour, EF .
BONE MARROW TRANSPLANTATION, 1998, 21 (01) :65-71
[6]   Large-scale mobilization and isolation of CD34+ cells from normal donors [J].
Croop, JM ;
Cooper, R ;
Seshadri, R ;
Fernandez, C ;
Graves, V ;
Kreissman, S ;
Smith, FO ;
Cornetta, K ;
Williams, DA ;
Abonour, R .
BONE MARROW TRANSPLANTATION, 2000, 26 (12) :1271-1279
[7]   Autografting of highly purified peripheral blood progenitor cells following myeloablative therapy in patients with lymphoma: a prospective study of the long-term effects on tumor eradication, reconstitution of hematopoiesis and immune recovery [J].
Dreger, P ;
Viehmann, K ;
von Neuhoff, N ;
Glaubitz, T ;
Petzoldt, O ;
Glass, B ;
Uharek, L ;
Rautenberg, P ;
Suttorp, M ;
Mills, B ;
Mitsky, P ;
Schmitz, N .
BONE MARROW TRANSPLANTATION, 1999, 24 (02) :153-161
[8]  
Haylock D N, 1994, Immunomethods, V5, P217, DOI 10.1006/immu.1994.1059
[9]  
HAYLOCK DN, 1992, BLOOD, V80, P1405
[10]  
HAYLOCK DN, 1995, HEMATOPOIETIC STEM C, P491