Lung transplantation has become a standard therapy for patients with end-stage lung disease. Within last decades, donor management, organ preservation, immunosuppressive regimens and control of infectious complications have been substantially improved. In addition, the operative techniques of transplantation procedures have been developed to an international standard of high quality. However, despite these refinements, significant reperfusion injury occurs in up to 10-20% of lung transplant recipients as the consequence of unavoidable processes of procurement, preservation and restoring blood flow. This clinical condition, recently termed primary graft dysfunction (PGD), remains an important problem after lung transplantation, and still represents the single biggest cause of early morbidity and mortality for lung recipients. In addition, there is some evidence to suggest a relationship between reperfusion injury, acute rejection, and the subsequent development of chronic graft dysfunction. In post-ischemia reperfusion, restoration of the blood supply (reperfusion) after prolonged tissue ischemia is associated with an inflammatory reaction characterized by massive polymorphonuclear neutrophil infiltration into the reperfused tissue. The infiltrating inflammatory cells can perpetuate the initial inflammatory reaction and induce further injuries. The importance of CXCL8 in lung tissue during the ischemic time and after reperfusion has been clearly demonstrated. The current standard of care in preventing this clinical condition focuses on prevention by way of surgical techniques in the procurement, storage and implantation of graft lungs. The efficacy of repertaxin in preventing polymorphonuclear neutrophil infiltration and tissue damage in rat models of kidney transplantation and lung transplantation, as well as the safety shown in human phase 1 studies, provide the rationale for a clinical study aimed at evaluating the effect of repertaxin in preventing PGD after lung transplantation.