HOXB4-Induced Expansion of Adult Hematopoietic Stem Cells Ex Vivo

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HOXB4-Induced Expansion of Adult Hematopoietic Stem Cells Ex Vivo Jennifer Antonchuk, Guy Sauvageau, R.Keith Humphries  Cell  Volume 109, Issue 1, Pages 39-45 (April 2002) DOI: 10.1016/S0092-8674(02)00697-9

Figure 1 Ex Vivo Expansion of Mature Cells and Progenitors (A) Growth of total nucleated cells over 14 days in nontransduced (♦), GFP (■), and HOXB4 (▵) cultures. (B) Proportions of transduced (GFP+) cells in GFP and HOXB4 cultures. The dramatic increase in GFP+ cells in the HOXB4 culture reflects a cell-autonomous growth advantage conferred by HOXB4. (C) Growth of clonogenic progenitors (CFC) in nontransduced (♦), GFP (■), and HOXB4OHoH (▵) cultures over 14 days. (D) GFP+ and GFP− CFC after 14 days of culture. While the proportion of GFP+ CFCs reflects the input transduction efficiency in the GFP culture, the predominance of GFP+ CFCs in the HOXB4 culture reflects a HOXB4-mediated growth advantage. Cell 2002 109, 39-45DOI: (10.1016/S0092-8674(02)00697-9)

Figure 2 Ex Vivo Expansion of HSCs (A) Change in HSC number over 14 days in nontransduced (grey diamond), GFP-transduced (black square), or HOXB4-transduced (open triangle) BM cultures. Shown are the absolute number of CRU (mean ± 95% confidence intervals) in the culture. While the control cultures experienced significant HSC decreases, the HOXB4 cultures achieved a 40-fold net HSC increase. Asterisks indicate a significant difference (p < 0.0001) between HOXB4 and GFP cultures. (B) A second, 10-day experiment confirmed the net changes in HSC number. Values are shown relative to starting numbers (set to 1). (C) The rapid HSC expansion was confirmed in four independent experiments, with HOXB4 cultures (white bars) undergoing an average 6-fold HSC expansion by day 6, in contrast to an average 17-fold reduction seen for GFP cultures (dark bars). Cell 2002 109, 39-45DOI: (10.1016/S0092-8674(02)00697-9)

Figure 3 Lympho-Myeloid Repopulation by Ex Vivo Expanded Stem Cells (A) Representative FACS profiles demonstrating multilineage repopulation by transduced cells. GFP-expressing cells were present in (from left) myeloid (Gr-1+ or Mac-1+) and erythroid (Ter119+) bone marrow cells, B-lymphoid (B220+) splenocytes, and T-lymphoid (CD5+) thymocytes of mice transplanted 9 months previously at limit dilution from 6- to 10-day GFP or HOXB4 cultures. HOXB4 (bottom row) and GFP (top row) mice show equivalent multilineage repopulation, consistent with unimpaired differentiative ability. (B) Representative Southern blots (eight mice per group analyzed, with similar results) demonstrate common proviral insertion sites in reconstituted myeloid and lymphoid tissues. Common proviral bands are present in enriched or purified myeloid, T-lymphoid, and B-lymphoid populations from each mouse, indicating that a common repopulating cell clone repopulated all lineages. Abbreviations: B, bone marrow cells; S, splenocytes; T, thymocytes; BG,M, Gr-1+ or Mac-1+ bone marrow cells; SB220, B220+ splenocytes; and T4,8, CD4+ or CD8+ thymocytes. Cell 2002 109, 39-45DOI: (10.1016/S0092-8674(02)00697-9)

Figure 4 Regeneration of HSCs Following Ex Vivo Expansion (A) Representative FACS profiles of bone marrow from mice transplanted with (from left) 1 GFP HSC, 1 HOXB4 HSC, or 37 HOXB4 HSCs from the 14-day cultures reveals them all to be highly repopulated by transduced (GFP+), donor-derived (Ly5.1+) cells. Ly5.1−GFP+ cells represent transduced cell progeny in the erythroid lineage, which do not express Ly5.1. (B) Calculated HSC (CRU) content in pooled bone marrow from the above groups of mice (n = 2 GFP or 3 HOXB4 primary mice) demonstrated that only the HOXB4 mice had regenerated HSCs to near the normal range (dotted line). Cell 2002 109, 39-45DOI: (10.1016/S0092-8674(02)00697-9)

Figure 5 Clonality of Expanded HSCs The degree of clonality in repopulating cells recovered from the cultures was determined by Southern blot analysis of bone marrow from mice transplanted with HOXB4 or GFP cells from 10- to 14-day cultures. The first number denotes the experiment number (i.e., 1 or 2), and the second number denotes the individual mice. GFP mice 1.1–1.4 received 0.5 transduced HSC (2.5 × 106 cells) on day 10, and GFP mice 2.1–2.4 received 10 transduced HSCs (2 × 107 cells) on day 10. HOXB4 mice 1.1–1.5 received 15 transduced HSCs (2.5 × 105 cells) on day 10, HOXB4 mice 1.6–1.8 received 37 transduced HSCs (1.3 × 106 cells) on day 14, and HOXB4 mice 2.1–2.4 received 47 transduced HSCs (6 × 103 cells) on day 10. GFP mice from each of two experiments have common banding patterns, indicating that few HSC clones survived. However, HOXB4 mice have differing banding patterns, revealing the persistence of multiple transduced repopulating cell clones after the ex vivo expansion. Cell 2002 109, 39-45DOI: (10.1016/S0092-8674(02)00697-9)

Figure 6 Model of HOXB4-Mediated Ex Vivo HSC Expansion The initial culture contained multiple transduced HSC clones. Without HOXB4 overexpression, the majority of the HSC were lost from the culture, due to differentiation or death. A few surviving clones did undergo self-renewal, but the end result was still net HSC decline. With HOXB4 overexpression, more HSC clones were able to survive and expand in the culture and this, along with more expansion per HSC, caused a net HSC expansion. Cell 2002 109, 39-45DOI: (10.1016/S0092-8674(02)00697-9)