The rationale for cementless revision total hip replacement with contemporary technology

Long-term success of cemented hip replacements remains uncertain due to poor bone quality and cement-related complications. Current survival statistics suggest a growing need for revision surgeries. While cementing techniques have improved, their long-term effectiveness is limited. Cortical deficiencies and endosteal sclerosis further reduce cemented implant stability. In elderly patients, PMMA may offer a simpler short-term solution. However, cement-related complications persist. Bone grafting is considered a viable alternative, aiming for biological ingrowth into porous surfaces. Short-term clinical outcomes are generally favorable. The shift in focus from cement disease to polyethylene disease is emerging in the field.

This review examines the rationale for using uncemented techniques in revision total hip replacement. The goal is to assess whether cementless approaches can improve long-term implant stability and clinical success. The study explores how poor bone quality and cement-related complications limit cemented revisions. It evaluates the role of biological ingrowth and bone grafting in achieving implant stability. The focus is on whether uncemented components can avoid stress shielding and improve survival. The paper also considers how contemporary technology might shift the focus from cement disease to polyethylene disease. The aim is to provide evidence supporting the use of uncemented techniques in revision settings. The study does not focus on primary arthroplasty but on revision-specific outcomes.

The authors synthesize evidence from the literature on cemented and uncemented revision hip arthroplasty. They compare clinical outcomes of cemented and uncemented techniques. The analysis includes factors like bone quality, implant stability, and biological fixation. Bone grafting and porous-coated implants are discussed as alternatives to cement. The study reviews short- and mid-term clinical performance data. It evaluates whether biological ingrowth can replace cement in achieving stability. The paper also considers the role of proximal canal fill in stress shielding prevention. The focus is on how contemporary uncemented components may improve long-term success in revision surgeries.

At least 90% of cases using uncemented techniques showed good or excellent clinical outcomes in the short to mid-term. Cemented revisions face challenges due to poor bone quality and endosteal sclerosis. Biological ingrowth into porous surfaces is a promising alternative to cement fixation. Bone grafting can help reconstitute cortical bone in revision settings. However, ingrowth via allograft bone into porous-coated surfaces is unlikely. Proximal canal fill and biologic ingrowth may avoid femoral stress shielding. The shift in focus from cement disease to polyethylene disease is supported by recent literature. The study highlights the potential for uncemented components to improve long-term implant survival.

The authors suggest that uncemented techniques may offer better long-term stability than cemented revisions. They propose that biological ingrowth and proximal canal fill can avoid stress shielding and improve implant survival. The focus is on how contemporary uncemented components can address limitations of cemented approaches. They suggest that bone grafting may be a viable option for achieving implant stability. The study does not claim that uncemented techniques are superior in all cases. The authors propose that cement disease may be replaced by polyethylene disease in future discussions. They suggest that current evidence supports the use of uncemented components in revision hip arthroplasty. The paper concludes that contemporary technology may improve clinical success in revision settings.