Principles for Management of Periprosthetic Acetabular Fractures after Hip Arthroplasty

Article information

J Musculoskelet Trauma. 2019;32(3):148-156
Publication date (electronic) : 2019 January 10
doi : https://doi.org/10.12671/jkfs.2019.32.3.148
Department of Orthopedic Surgery, Samsung Medical Center, Seoul, Department of Orthopedic Surgery, Inje University Ilsan Paik Hospital*, Goyang, Department of Orthopedic Surgery, Gangnam Severance Hospital, Seoul, Korea
Correspondence to: Seung-Jae Lim, M.D. Department of Orthopedic Surgery, Samsung Medical Center, 81 Irwon-ro, Gangnam-gu, Seoul 06351, Korea Tel: +82-2-3410-1226 Fax: +82-2-3410-0061 E-mail: limsj70@gmail.com
Received 2019 May 08; Revised 2019 May 15; Accepted 2019 May 15.

Abstract

Abstract

Periprosthetic acetabular fracture (PAF) is an uncommon complication following hip arthroplasty. However, as the number of people needing hip prostheses continues to rise, the absolute number of PAF is expected to increase as well. These fractures may occur either intraoperatively or postoperatively. Postoperative fractures can be caused by traumatic events or by pathologic conditions related to periacetabular osteolysis. The management of PAF usually depends on the degree of displacement and the stability of the acetabular component. While most of non-displaced fractures can be managed non-operatively by protected weight bearing, displaced fractures with unstable implants require surgical intervention, which is often technically challenging. This review summarized the latest findings on the epidemiology, the diagnosis, the classification, and the treatment of PAF.

Fig. 1.

(A) A 55-year-old female underwent total hip arthroplasty due to rheumatoid arthritis on her left hip. (B) Fractures on the superior and inferior ramus were found after the patient suffered a minor trauma at 8 months postoperatively. Arrows indicate pubic rami fractures. (C) The fractures were healed after 6 months with conservative management. The acetabular component was stable without pain.

Fig. 2.

(A) Postoperative radiograph of a 52-year-old female with developmental dysplasia of the hip. (B) Non-displaced fracture of the posterior column was observed in the Lowenstein lateral radiograph at 2 months postoperatively. An arrow indicates posterior column fracture. (C) The fracture was healed with callus formation after 4 months of protected weight-bearing.

Fig. 3.

(A) A 55-year-old female with secondary osteoarthritis due to tuberculosis sequelae underwent total hip arthroplasty. (B) Eighteen-year postoperative radiograph showed severe osteolytic lesions around the acetabular cup and proximal stem. A minor traumatic event caused periprosthetic acetabular and greater trochanteric fractures. (C-E) The corresponding computed tomography scan indicated pelvic discontinuity caused by a transverse acetabular fracture. Arrows indicate fracture lines causing pelvic discontinuity. (F, G) Massive impaction bone grafting was performed, followed by acetabular revision using a 64-mm jumbo cup with multiple screw holes.

Fig. 4.

(A, B) The acetabular prosthesis became unstable due to a traumatic periprosthetic acetabular fracture. (C, D) The three-dimensional reconstruction images showed a displaced acetabular fracture involving both columns and the iliac wing. (E, F) After removing the previous prosthesis, the fracture was treated by open reduction and internal fixation with two reconstruction plates. The acetabular component was revised with the help of tantalum metal block and additional screws. Three-month postoperative radiographs showed stable implant fixations.

Fig. 5.

(A, B) Preoperative radiographs showing a displaced acetabular fracture with the protrusion of the bipolar cup into the pelvic cavity. (C, D) Computed tomography images showed comminuted fracture of the medial wall of the acetabulum. (E) The displaced quadrilateral surface was visualized through the modified Stoppa approach. (F-H) After open reduction of depressed articular surface of the acetabulum, buttress plating was performed using reconstruction plates and screws. (I, J) Five-month postoperative radiographs showed the stable bipolar component in the congruent hip joint.

Classification of Periprosthetic Acetabular Fractures by David son et al.1

Classification of Periprosthetic Acetabular Fractures by Pas-carella et al.29

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Article information Continued

Fig. 1.

(A) A 55-year-old female underwent total hip arthroplasty due to rheumatoid arthritis on her left hip. (B) Fractures on the superior and inferior ramus were found after the patient suffered a minor trauma at 8 months postoperatively. Arrows indicate pubic rami fractures. (C) The fractures were healed after 6 months with conservative management. The acetabular component was stable without pain.

Fig. 2.

(A) Postoperative radiograph of a 52-year-old female with developmental dysplasia of the hip. (B) Non-displaced fracture of the posterior column was observed in the Lowenstein lateral radiograph at 2 months postoperatively. An arrow indicates posterior column fracture. (C) The fracture was healed with callus formation after 4 months of protected weight-bearing.

Fig. 3.

(A) A 55-year-old female with secondary osteoarthritis due to tuberculosis sequelae underwent total hip arthroplasty. (B) Eighteen-year postoperative radiograph showed severe osteolytic lesions around the acetabular cup and proximal stem. A minor traumatic event caused periprosthetic acetabular and greater trochanteric fractures. (C-E) The corresponding computed tomography scan indicated pelvic discontinuity caused by a transverse acetabular fracture. Arrows indicate fracture lines causing pelvic discontinuity. (F, G) Massive impaction bone grafting was performed, followed by acetabular revision using a 64-mm jumbo cup with multiple screw holes.

Fig. 4.

(A, B) The acetabular prosthesis became unstable due to a traumatic periprosthetic acetabular fracture. (C, D) The three-dimensional reconstruction images showed a displaced acetabular fracture involving both columns and the iliac wing. (E, F) After removing the previous prosthesis, the fracture was treated by open reduction and internal fixation with two reconstruction plates. The acetabular component was revised with the help of tantalum metal block and additional screws. Three-month postoperative radiographs showed stable implant fixations.

Fig. 5.

(A, B) Preoperative radiographs showing a displaced acetabular fracture with the protrusion of the bipolar cup into the pelvic cavity. (C, D) Computed tomography images showed comminuted fracture of the medial wall of the acetabulum. (E) The displaced quadrilateral surface was visualized through the modified Stoppa approach. (F-H) After open reduction of depressed articular surface of the acetabulum, buttress plating was performed using reconstruction plates and screws. (I, J) Five-month postoperative radiographs showed the stable bipolar component in the congruent hip joint.

Table 1.

Classification of Periprosthetic Acetabular Fractures by David son et al.1

Type I Nondisplaced fracture not compromising the stability of the implant
Type II Nondisplaced fracture that may compromise the stability of the implant
Type III Displaced fracture

Table 2.

Classification of Periprosthetic Acetabular Fractures by Pas-carella et al.29

Timing Implant stability
1. Intraoperative a. Implant stable
fractures b. Implant unstable
2. Postoperative/ traumatic fractures a. Implant stable
b. Implant unstable, mobilized simultaneously with trauma
  c. Implant unstable, mobilized before trauma (osteolysis/bone loss)