It is known that the body can efficiently repair hard tissue bone) micro fractures by suturing the defect through the deposition of minerals resulting in an area that is stronger post-injury. Larger defects, however, generally cause more trouble since the body is incapable of repairing them. Bone defects can occur as a result of congenital abnormalities, trauma, or disease. Traditional methods for addressing these defects have involved the use of acellular cadaverous bone or autologous bone. Both contain innate problems associated with themï¼› the former method can result in disease transmission, as well as very low integration with the host due to the lack of viable cells while the latter is associated with two surgical sites and morbidity at the donor site. Alternative methods have been developed, but no method has yet provided a satisfactory solution. As a result, researchers and the medical community are turning toward the promising fields of biomaterial development and tissue engineering to develop new materials and methods of bone regeneration. In this work, a design of experiments DOE) approach was performed to render commercially available biodegradable polymers Polycaprolactone)-diol/triol) photocrosslinkable and resultantly manufacturable using stereolithography SL), a rapid prototyping technology. To perform the investigations, a commercial SL system Viper HA, 3D Systems, Valencia, CA) equipped with a solid state laser system 355 nm wavelength) was used to manufacture synthesized polycaprolactone) trifumarate PCLtF) 3D porous constructs. Results of the work conducted produced constructs which provided promising chemical and biological results for the intended application.