Figure 1
Figure 1. Combining ex vivo gene therapy and vascular network bioengineering: schematic diagram. (A) ECFCs and MSCs are obtained from the patient's own blood and BM, respectively. A gene encoding for hEPO is inserted into culture-expanded ECFCs, and the transfected cells (epoECFCs) are then selected out from the nontransfected ones. Culture-expanded epoECFCs and MSCs are combined in a collagen/fibrin–based gel and prepared for subcutaneous injection into the patient. (B) After injection, the transplanted cells engraft, forming a network of functional blood vessels that are connected to the patient's vasculature. The EPO-producing cells, epoECFCs, line the lumens of these bioengineered vessels. Consequently, EPO is readily secreted into the bloodstream of the patient and distributed systemically.

Combining ex vivo gene therapy and vascular network bioengineering: schematic diagram. (A) ECFCs and MSCs are obtained from the patient's own blood and BM, respectively. A gene encoding for hEPO is inserted into culture-expanded ECFCs, and the transfected cells (epoECFCs) are then selected out from the nontransfected ones. Culture-expanded epoECFCs and MSCs are combined in a collagen/fibrin–based gel and prepared for subcutaneous injection into the patient. (B) After injection, the transplanted cells engraft, forming a network of functional blood vessels that are connected to the patient's vasculature. The EPO-producing cells, epoECFCs, line the lumens of these bioengineered vessels. Consequently, EPO is readily secreted into the bloodstream of the patient and distributed systemically.

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