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The use of bidirectional rapid reductor in minimally invasive treatment of bicondylar tibial plateau fractures: preliminary radiographic and clinical results



Minimally invasive treatment of complex tibial plateau fracture represents one of the most challenging problems in orthopedic surgery. We intended to describe the percutaneous surgery involving an originally designed traction device which might facilitate the closed reduction for bicondylar tibial plateau fractures. Further, to assess the clinical outcomes of this minimally invasive technique.


Between December 2015 and July 2016, Twenty-one patients, mean age 43.71 ± 13.80 years, suffering from a bicondylar tibial plateau fracture (AO/OTA 41-type C) were included. All fractures were firstly reduced by skeletal traction with the aid of bidirectional rapid reductor, and residual depressed fragments were treated with minimally invasive bone tamp reduction. We then evaluated at a minimum follow-up of one year: (1) the rate of complications, (2) the radiographic outcomes (the amount of depression, tibial plateau widening, tibial plateau angle and posterior slope angle) and (3) the clinical outcome (Rasmussen scoring system).


All patients had their fractures healed without secondary displacement. No instrument-related complications occurred during operation. Post-operatively, superficial infection was found in two patients and donor-site morbidity was found in one patient. We observed a < 5 mm step-off in 100% of patients and a < 5 mm plateau widening in 95.5% of patients. Three patients were considered indicative of malalignment with TPA > 90° or PSA > 15°. At last evaluation, the Rasmussen clinical score was excellent in 11 patients (52.3%), good in 9 (42.9%) and fair in 1 (4.8%), and the radiological score was excellent in seven patients (33.3%), good in 14 (66.7%).


The bidirectional rapid reductor facilitates the minimally invasive treatment of bicondylar tibial plateau fracture. The patients exhibited excellent functional recovery. These results should be validated with a larger group of patients and longer period results.

Trial registration


Peer Review reports


Bicondylar tibial plateau fractures (AO/OTA type C) represent 20.4% of all proximal tibial fractures [1, 2]. Because of articular comminution and the frequent occurrence soft-tissue injuries, clinical management still remains challenging for traumatic surgeons [3,4,5]. Traditional open reduction and internal fixation (ORIF) requires extensive soft tissue dissection, which may lead to numerous soft-tissue complications [6,7,8]. The Ilizarov technique allows a better choice of closed reduction and fixation which does not necessitate excessive soft-tissue stripping [9]. Today, this technique is being widely used in open and comminuted tibial plateau fractures. However, the external fixation method has its theoretical risks, including pins infection, neurovascular injury, deep venous thrombosis, scar problems, and limitation of joint movement [9, 10]. Besides, frequent management of the circular frame was inconvenient for both patients and doctors.

Recently, several studies have advocated the use of an indirect reduction technique with the aid of knee arthroscopy in tibial plateau fractures. Short- to medium-term clinical outcomes have shown various advantages over ORIF in terms of minimally invasive procedure, accurate reduction monitoring and precise evaluation of intra-articular pathologies [3, 11, 12]. We found this technique to have several limitations. The evidence-based systematic review showed that the majority of included patients had Schatzker type I to III fractures, which suggested that ARIF might have difficulties in managing complex tibial plateau fractures [13]. Lacking of effective traction instruments, varus or valgus malalignment could be hardly reduced through indirect way, especially when knee joint dislocation existed.

Based on the historical experience, the key factor of minimally invasive treatment for such injuries, we considered, was effective and persistent traction which allowed closed restoration of lower-extremity alignment during operation. The primary goal of the present study was to describe a percutaneous surgery involving an originally designed traction device which might facilitate the closed reduction for high-energy tibial plateau fractures. Further, we evaluated the safety of the surgery and analyzed the clinical satisfaction at a minimum follow-up of 1 year after surgery.


Between December 2015 and July 2016, 78 patients with tibial plateau fractures were admitted to our emergency department. For this study, skeletally mature patients with an acute, closed, bicondylar tibial plateau fractures (AO/OTA type C) were included in this study. The exclusion criteria were: skeletally immature patients, pathological fractures, concomitant ipsilateral distal femoral fractures, significant pre-existing degenerative joint disease, patients requiring intensive care or with severe systemic illness.

We identified 21 patients meeting the inclusion/exclusion criteria (Fig. 1a, b). Of the 21 patients included, there were 15 men and 6 women, with 3 left knee injuries and 18 right knee injuries. The average age in this series was 43.7 ± 13.8 years (range 21–67). Most injuries were the results of high-energy trauma including a fall from a height (eight patients), an electric bicycle collision (three patients), an automobile collision (nine patients) and a crushing accident (one patient). 6 patients were associated with other skeletal injuries, and none of which occurred around the injured knee. Basic information, including sex, age, mechanism of injury, and injured side, were gathered from all patients and concluded in Table 1.

Fig. 1
figure 1

A 34-year-old male sustained a closed complex tibial plateau fracture after automobile collision. Preoperative X-ray images (a), preoperative CT images (b) and preoperative radiological measurement of articular depression (25.0 mm) and plateau widening(12.12 mm) (c)

Table 1 Patient demographics and outcomes, N = 21
Table 2 X-ray measurement of the 21 tibial plateau fractures

During the hospitalization, all patients were treated with transcalcaneus traction for primary alignment maintaining and pain alleviation. Definite treatment was delayed until the soft tissue conditions had improved. Full approval from local Ethics Committee (KE 2016–001-2) was received for this study and all subjects enrolled were confirmed to provide informed consent.

Surgical protocol


Patients were in supine position on the radiolucent operating table with a tourniquet placed around the proximal thigh. The tourniquet was inflated to 300 mmHg once the closed traction was complete. Disinfectant preparation covered from proximal 2/3 femoral until to the distal end of lower extremity of injured side. Meanwhile, the anterior superior iliac spine (ASIS) and its surrounding area were also under preparation for the purpose of autogenous bone grafts acquirement. A rolled sheet was placed under the affected knee joint to maintain knee flexion at 30 degrees.

Closed reduction in bidirectional rapid reductor

The bidirectional rapid reductor is composed of a folding scaffold, connecting rods made of carbon fiber, two traction bows and Kirschner wires (Fig. 2a). All components were able to be packed up into a customized instrument box and were convenient to be sterilized. Two 2.5 mm Kirschner wires were firstly inserted through distal tibia and superior femoral condyle, then, each Kirschner wire was attached to a traction bow (Fig. 3a, b). The carbon fiber rod connected the proximal traction bow to the scaffold which straddled the lower leg and distal traction bow was attached to the rotary handle located on the scaffold (Fig. 3c, d). The scaffold maintained a traction position during the operation. The length of the connection rod could be adjusted to accommodate different patients. Bidirectional rapid reductor was finished assembling all in the sterile field.

Fig. 2
figure 2

The general view of the bidirectional rapid reductor (a) and slot-designed compression bolt (b). The compression bolts consist of nuts and slot-designed area (arrow)

Fig. 3
figure 3

Two 2.5 mm Kirschner wires were firstly inserted through distal tibia and superior femoral condyle (a), each Kirschner wire was attached to a traction bow (b), The carbon fiber rod connected the proximal traction bow to the scaffold which straddled the lower leg (c), the distal traction bow was attached to the rotary handle located on the scaffold (d)

After confirming that all parts of the reductor were securely joined, a closed-loop traction system was formed by connecting the distal femur, knee joint and distal tibia to the reductor (Fig. 4a). Rotate the handle in a clockwise direction and, as a result, the whole extension force will fall on the distal end of tibia. In the mean time, a counterforce came into being above the knee joint due to the obstruction caused by connecting rod and scaffold. Through ligamentotaxis and skeletal traction, the tibial plateau’s widening, tibial length as well as varus or valgus angulation could be primarily corrected under fluoroscopic guidance. After achieving satisfactory reduction, as revealed by C-arm examination both on anteroposterior (AP) and lateral views, the reductor could sustain the lower extremity in a reduction position. The whole traction process was achieved on the operating table and no special positioning of patient was needed, which largely facilitated the placement of fluoroscopy monitors.

Fig. 4
figure 4

Intraoperative process of the newly proposed treatment. Demonstration of the interaction forces acting on the distal tibia and superior femoral condyle (a, arrow), percutaneous reduction of the depressed fragments (b), the insertion of autogenous bone graft to support the articular surface (c), After reduction and internal fixation under fluoroscopic visualization, arthroscopy revealed a nearly anatomic reduction of lateral articular (d), Seven minimal incisions after the operation, four for percutaneous insertion of plates, one for indirect reduction of depressed fragments and two for arthroscopic inspection (e)

Elevation of depressed articular fragments

For patients with articular depression, care must be taken to locate the orientation of depressed fragments based on preoperative x-rays and CT scan. A 2.5 mm K-wire was chosen as a guide for creation of a tunnel. The ideal entry point was 2 cm below the centre of tibia tubercle, slightly medial or lateral to the long axis of tibia which depends on the location of depressed fragments. Mostly, the medial approach was used for the management of lateral plateau depression. A longitudinal 3 cm skin incision was made on the medial aspect of the tibia around the K-wire. Then, a cortex portal was made, and the depressed fragments was elevated with a customized bone tamp via the inferior transosseous tunnel created by step drills. The whole reduction process is performed with gentle tapping of the bone tamp under the inspection of AP and lateral views of fluoroscopy (Fig. 4b). Percutaneous reduction was optimized until intraoperative fluoroscopy suggested satisfactory articular reconstruction without a remaining articular depression. Subsequently, the Autogenous bone graft harvested from the iliac crest was then inserted into the bone tunnel to support the subchondral bone and articular surface (Fig. 4c).

Internal fixation

Once the reduction was obtained, minimally invasive percutaneous plate osteosynthesis (MIPPO) was performed using pre-contoured locking compression plate (LCP) designed for proximal tibia (WEGO, Wei Hai city, PR China). In all cases, dual plate fixation was used medially and laterally, and no additional plate was needed. Subsequently, one or two compression bolts designed with special slot (WEGO, Wei Hai city, PR China) would be inserted through the most proximal holes of two plates (Fig. 2b), which permitted further restoration of the tibial plateaus’ width. Once the nut passed through the slot, the bolt’s tail could be easily broken off at this constricted area with appropriate size left. Care was taken to ensure the alignment was not changed on the AP views when tightening the left screws.

Arthroscopic evaluation

Following the optimal fixation, the bidirectional reductor was disassembled and arthroscopic examination was then performed using gravity inflow and without incision sutured. The heamarthrosis was drained and any osteochondral fragments were removed. Previous reconstruction of the articular surface and soft tissue injury was then evaluated (Fig. 4d, e).

Postoperative management

Immediate non-weight bearing joint motion was encouraged as the pain subsided. Based on general condition and post-operative X-ray examinations, progress weight-bearing usually started with crutches at 8 weeks. Peri- and post-operative complications such as wound infection, thrombosis, compartment syndrome, donor site pain and joint stiffness were recorded. Independent knee assessments were carried out post-operatively using the Rasmussen’s clinical and radiologic scores after a mean duration of follow up of 16.5 months (range, 12 to 20 months). The amount of fragment depression, plateau widening, TPA (tibial plateau angle) and PSA (posterior slope angle) were measured on the preoperative, postoperative radiographs and at the time of the latest follow-up on the basis of X-ray measurement (Fig. 5a, b).

Fig. 5
figure 5

The postoperative measurements of step-off (3.29 mm), plateau widening (3.73 mm), TPA (87°) and PSA (8°) (a). At the last follow-up, the radiological measurements the step-off (3.97 mm), plateau widening (3.94 mm), TPA (85°) and PSA (10°) (b)

Statistical methods

Statistical analysis was performed using IBM SPSS Statistics 21 (SPSS Inc., Chicago, IL). Data are presented as mean values ± SD for continuous variables. The normality of the distribution of the parameters was tested using the Kolmogoroff-Smirnoff test. Continuous variables with non-normal distribution were analyzed using the Mann-Whitney U test (preoperative/postoperative/follow-up radiological outcomes). All tests were 2-sided and a P value of < 0.05 was considered significant.


Six patients suffered from OTA/AO 41-C1, 5 from 41-C2 and 10 from 41-C3 fractures. With the help of rapid reductor, all 21 cases of bicondylar tibial plateau fractures were reduced in a closed fashion, and none converted to open reduction. The average operation time was 100 min (excluding the time of arthroscopic examination, range 50 to 150 min, SD 29.4). The average blood loss was 135 mL (range 80 to 300 min, SD 58.1). Through arthroscopy, an intra-articular diffusion of cancellous bone debris was observed in three patients. The fragments were all removed using nucleus pulposus clamps and were not registered as a complication. Two cases with high energy fractures developed superficial infections, which delayed the wound healing, and were managed with a course of oral antibiotics for a week. There were no episodes of wound dehiscence, deep venous thrombosis or compartment syndrome at the time of hospital discharge. No patient subsequently developed deep infection, osteomyelitis or joint stiffness at follow-ups. One patients who received autogenous bone grafts sustained donor-site morbidities. However, this patient did not require further intervention for pain relieve because of their well tolerance of the pain. No other adverse outcomes were occurred during follow-up.

In 16 of 21 fractures, autogeneous bone grafts were implanted to provide mechanical support for the reduced fragments. Associated soft tissue injuries were common, occurring in 9 (42.9%) patients. Arthroscopy revealed tears of the lateral meniscus alone (n = 5), the medial meniscus alone (n = 1), or a combination of both meniscus (n = 2). There were three lateral meniscal repairs and five partial meniscectomy performed. One partial meniscal tears required conservative treatment. There was one partial ACL (anterior cruciate ligament) ruptures, one partial PCL (posterior cruciate ligament) ruptures, and one avulsion fracture of PCL. Considering the displacement was minimal, the eminence avulsion and other incomplete ligament injuries were all treated with the immediate cast-brace fixation. Using the distal tip of probe (length = 3 mm) as reference, arthroscopy showed a persistent > 3 mm fracture depression in three patients and a > 3 mm fracture gap in one patient. However, in these cases, all the displacement was less than 6 mm (twice the length of probe tip) and without further intervention.

All 21 patients were followed up at a mean of 16.5 ± 2.5 months (range, 12 to 20 months) postoperatively. At last follow-up, all patients had healed their fractures with no loss of reduction. The mean depressed step-off of the lateral joint decreased from 8.42 ± 8.43 mm (0–26.60 mm) pre-operatively to 1.35 ± 1.59 mm (0–4.49 mm) post-operatively (p < 0.01). The mean lateral plateau widening decreased from 8.06 ± 6.57 mm (0–29.35 mm) pre-operatively to 1.88 ± 1.92 mm (0–5.4 mm) post-operatively (p < 0.01). The mean TPA and PSA were 87.86 ± 2.57° and 9.76 ± 3.70°, respectively. We observed a ≤ 2 mm step-off in 68.2% (15/22) of patients and a > 2–5 mm step-off in 100% of patients. We also observed a < 5 mm plateau widening in 95.5% of patients with only one patient having a widening > 5 mm (5.4 mm). 3 cases (14.3%) of malalignment of proximal tibia were identified in this group, two of which involved in coronal plane (TPA: 92°; 94°) and one in sagittal plane (PSA: 16°). These radiological results were stable until the last follow up after surgery. We found a mean lateral step-off of 1.65 ± 1.92 mm (p = 0.55), plateau widening of 2.05 ± 2.05 mm (p = 0.79), TPA of 87.76 ± 2.98° (p = 0.91) and PSA of 10.29 ± 3.41° (p = 0.64) (Table 2). Finally, the mean radiographic Rasmussen score was 15.71 ± 1.93 (12–18), with seven patients (33.3%) rated as excellent and 14 patients (66.7%) rated as good.

The mean Rasmussen clinical score was 27.05 ± 2.84 (19–30). Eleven patients (52.3%) were classified as excellent, nine (42.9%) were classified as grade good, one (4.8%) were classified as fair. The patient who was rated as fair had residual depression of 4.5 mm of the lateral tibial plateau, with mild valgus deformity (TPA: 94°). This patient complained of intense, constant pain around the lateral compartment after activity. The range of motion at last follow-up was mean flexion 129.29 ± 8.70° (115–140°) and mean extension 1.95 ± 3.47 (0–11°) (Fig. 6).

Fig. 6
figure 6

Pictures of the knee function of the case demonstrated in Figs. 1, 4 and 5 at the final review 13 months after the accident


In the present study, we treated 21 bicondylar tibial plateau fractures with bidirectional traction device and slot-designed compression bolts in a minimally invasive manner. The rapid reductor could not only efficiently reduce the fracture but also maintained it in an anatomical position. Anatomic or nearly anatomic reduction of the articular surface, tibial plateau width, TPA and PSA was achieved in most cases. This minimally invasive procedure offered advantages of low soft-tissue related complications and less operation time. The technique itself was safe without any instrument-related adverse case. All fractures healed well and satisfactory functional recovery was identified in the majority of the patients.

Given the soft tissue damage and comminuted fracture pattern of OTA/AO type C tibial plateau fractures, surgical treatment has been associated with a high complication rate, specifically postoperative deep wound infection [5, 14]. Previous studies have shown that long-term outcome depended more on the stability of the knee and that less extensive operations might lead to satisfactory results [15, 16]. Unfortunately, alignment and stability were not easily controlled in the treatment of complex fractures of the tibial plateau, particularly when minimally invasive surgery was required. Some surgeons preferred to use a fracture table or other skin traction device to treat tibial plateau fractures in a closed way. However, its function on managing articular depression was limited [17, 18]. Ilizarov fixation allowed distraction, which aided reduction of the peri-articular fragments when applied along the lower limb. Clinical studies showed good long-term functional results in high-energy tibial plateau fractures [9, 19]. However, frequent pin-site infections and potential risk of later limitation of movement have been notified even in experienced hands [9, 20, 21]. The overall incidence of pin-site infection was reported to be 23.9 to 53.3% [9, 10, 22, 23]. Besides, postoperative adjustment of the external fixation required additional workload both for patients and doctors.

Different from skin traction, the bidirectional traction device could generate enormous longitudinal force applied on the distal end of tibia. Meanwhile, an equivalent counterforce came into being because of the obstruction by the connection rod. This is what so called “bidrectional traction” [24]. The closed-loop traction system could able to maintain the lower limb in a traction condition from the beginning to the end of surgery. Through skeletal traction, ligamentotaxis and soft-tissue (capsule, ligaments and muscles) compression, the widening displacement and malalignment could be partially reduced in a closed way. Compared with manual traction or distractor, the traction force generated by the rapid reductor was much more effective, sustained and symmetrical. Instead of arthrotomy, traction-based reduction was easier to perform which resulted in shorter operative time and less blood loss. In the present study, the average operative time and blood loss were 100 min and 135 ml, respectively. By the method, all 21 AO/OTA type C fractures gained satisfactory reduction initially.

We elevated any depressed segments with a customized bone tamp under the guidance of fluoroscopy. The methods mentioned above was similar to the “Medial Approach” technique which was firstly adopted by Levy et al. [25]. Benefit from the compression of tensive soft-tissue, the tibial plateau remained stable and was unlikely to be wider when depressed fragment was elevated to its anatomic position. With the application of intraoperative arthroscopy, we were able to demonstrate that fracture reduction was successful in 82% patients leaving a fracture depression or gap < 3 mm, Finally, our radiological outcomes are promising as we obtained a ≤ 2 mm step-off in 68.2% (15/22) of patients and a > 2–5 mm step-off in 100% of patients.

As another study putted, we also acknowledged that the depressed fragments could not always be anatomically restored especially when the articular was severely damaged [3]. This could be handled with meticulous pre-operative preparation and careful manipulation maybe with frequent X-ray exposure at first. Therefore, surgeons should take notice of the necessity of radiation protection. Krause et al. recommended arthroscopy should be indicated in comminuted tibial plateau fractures [4]. In this study, the articular reconstruction visualized by arthroscopy was consistent with fluoroscopic results. Although a residual step-off or fracture gap was existed in four cases, we decided no further management at the sacrifice of further soft-tissue stripping and longer operation time.

Slot-designed compression bolt was another key instrument which had dual functions of both reduction and fixation. We once applied the same technique in managing calcaneal fractures and received satisfactory outcomes [26,27,28]. In fact, the laterally displaced fragments were difficult to reduce simply by traction. The compression bolt which played as the bridge of lateral and medial plate could provide efficient compression force to further restore the width of tibial plateau. When the nut was tightened, the compression force did not act on the bone facet directly, but on the dual plates and then transmitted to tibial plateau. The mechanical transmission avoided stress concentration and hardware-related complications including osteoclasia and osteolysis. The unique slotted design facilitated the removal of the distal part of screw without a residual tail left, which decreased the risk of hardware irritation beneath skin. Meanwhile, the compression force generated by the bolts lasted for a long time until the fracture was healed which was crucial for preventing further displacement when early mobilization and weight bearing carried on. The radiological results in the present study were stable until the last follow up without any case of loss of reduction or alignment.

Using the Rasmussen criteria for radiographic assessment, excellent to good outcome was achieved in all our cases, which is comparable to the similar series treated with Ilizarov technique (90 to 100%) [22, 29]. When applying the Rasmussen clinical rating system, the average score in our study was 27.1 and excellent to good outcome was achieved in 95% patients. According to the same rating system, Barbary et al. reported a similar functional result of 93% good to excellent satisfaction after the Ilizarov treatment [29]. In a series of 59 complex plateau fractures, Catagni et al. reported a result of 96.6% good to excellent satisfaction after Ilizarov fixation [10]. Based on these evidences, we suggested that the percutaneous treatment, according to our technique of rapid reductor, could achieve similar clinical results compared with Ilizarov technique. Complications in the current series were minimal because of the obviation of traditional arthrotomy and easier manipulation. No case of joint stiffness, pin tract infection, deep infection or other severe event happened.

Some limitations to this study should be acknowledged. First, this study reports a small series of patients with bicondylar tibial plateau fractures. Besides, there was no control group with which to compare our results. However, the goal of our study was to describe and evaluate a novel technique which was originally developed in our department. Second, the inclusion criteria for this study were, however, focusing on bicondylar tibial fracture (AO/OTA type C). Actually, with the aid of bidirectional rapid reductor, this percutaneous technique could be applied for all types of tibial plateau fractures (Schatzker type I to VI). Another limitation was that the duration of follow-up in our protocol was short with the mean time of 16.5 months. We were not able to provide data concerning mid-term or long-term complication such as the traumatic arthritis related to this technique.


Our observations suggest that the bidirectional rapid reductor facilitates the minimally invasive treatment for bicondylar tibial plateau fractures. This novel technique required limited soft-tissue exposure which was typically suitable for high-energy related fractures. The patients exhibited excellent functional recovery. However further comparatives studies with a higher number of patients and longer follow-up are needed to confirm our short-term data.



Anterior cruciate ligament


Locking compression plate


Minimally invasive percutaneous plate osteosynthesis


Open reduction and internal fixation


Posterior cruciate ligament


Posterior slope angle


Tibial plateau angle


  1. Zhang YZ. Fractures of the tibia/fibula. In: Zhang YZ, ed. Clinical Epidemiology of Orthopaedic Trauma. New York: Thieme Medical Publishers; 2016. p. 253–255.

  2. Marsh JL, Slongo TF, Agel J, et al. Fracture and dislocation classification compendium - 2007: Orthopaedic trauma association classification, database and outcomes committee. J Orthop Trauma. 2007;21:S1–133.

  3. Chan YS, Yuan LJ, Hung SS, Wang CJ, Yu SW, Chen CY, Chao EK, Lee MS. Arthroscopic-assisted reduction with bilateral buttress plate fixation of complex tibial plateau fractures. Arthroscopy. 2003;19(9):974–84.

    Article  Google Scholar 

  4. Krause M, Preiss A, Meenen NM, Madert J, Frosch KH. "Fracturoscopy" is superior to fluoroscopy in the articular reconstruction of complex Tibial plateau fractures-an arthroscopy assisted fracture reduction technique. J Orthop Trauma. 2016;30(8):437.

    Article  Google Scholar 

  5. Moore TM, Patzakis MJ, Harvey JP. Tibial plateau fractures: definition, demographics, treatment rationale, and long-term results of closed traction management or operative reduction. J Orthop Trauma. 1987;1(2):97.

    Article  CAS  Google Scholar 

  6. Chiu CH, Cheng CY, Tsai MC, Chang SS, Chen AC, Chen YJ, Chan YS. Arthroscopy-assisted reduction of posteromedial tibial plateau fractures with buttress plate and cannulated screw construct. Arthroscopy. 2013;29(8):1346–54.

    Article  Google Scholar 

  7. Stokel EA, Sadasivan KK. Tibial plateau fractures: standardized evaluation of operative results. Orthopedics. 1991;14(3):263–70.

    CAS  PubMed  Google Scholar 

  8. Young MJ, Barrack RL. Complications of internal fixation of tibial plateau fractures. Orthop Rev. 1994;23(2):149.

    CAS  PubMed  Google Scholar 

  9. Keightley AJ, Nawaz SZ, Jacob JT, Unnithan A, Elliott DS, Khaleel A. Ilizarov management of Schatzker IV to VI fractures of the tibial plateau: 105 fractures at a mean follow-up of 7.8 years. Bone Joint J. 2015;97-B:1693.

    Article  CAS  Google Scholar 

  10. Catagni MA, Ottaviani G, Maggioni M. Treatment strategies for complex fractures of the tibial plateau with external circular fixation and limited internal fixation. J Trauma Acute Care Surg. 2007;63:1043–53.

    Article  Google Scholar 

  11. Ohdera T, Tokunaga M, Hiroshima S, Yoshimoto E, Tokunaga J, Kobayashi A. Arthroscopic management of tibial plateau fractures--comparison with open reduction method. Arch Orthop Trauma Surg. 2003;123(9):489–93.

    Article  CAS  Google Scholar 

  12. Rossi R, Bonasia DE, Blonna D, Assom M, Castoldi F. Prospective follow-up of a simple arthroscopic-assisted technique for lateral tibial plateau fractures: results at 5 years. Knee. 2008;15(5):378–83.

    Article  Google Scholar 

  13. Chen XZ, Liu CG, Chen Y, Wang LQ, Zhu QZ, Lin P. Arthroscopy-assisted surgery for tibial plateau fractures. Arthroscopy. 2015;31(1):143–53.

    Article  Google Scholar 

  14. Barei DP, Nork SE, Mills WJ, Coles CP, Henley MB, Benirschke SK. Functional outcomes of severe bicondylar tibial plateau fractures treated with dual incisions and medial and lateral plates. J Bone Joint Surg (Am Vol). 2006;88(8):1713–21.

    Article  Google Scholar 

  15. Marsh JL, Smith ST, Do TT. External fixation and limited internal fixation for complex fractures of the tibial plateau. J Bone Joint Surg (Am Vol). 1995;77(5):661.

    Article  CAS  Google Scholar 

  16. Watson JT, Coufal C. Treatment of complex lateral plateau fractures using Ilizarov techniques. Clin Orthop Relat Res. 1998;353(353):97–106.

    Article  Google Scholar 

  17. Duwelius PJ, Connolly JF. Closed reduction of tibial plateau fractures. A comparison of functional and roentgenographic end results. Clin Orthop Relat Res. 1988;230(230):116.

    Google Scholar 

  18. Koval KJ, Sanders R, Borrelli J, Helfet D, Dipasquale T, Mast JW. Indirect reduction and percutaneous screw fixation of displaced tibial plateau fractures. J Orthop Trauma. 1992;6(3):340–6.

    Article  CAS  Google Scholar 

  19. Morgan SJ, Jeray KJ, Saliman LH, Miller HJ, Williams AE, Tanner SL, Smith WR, Broderick JS. Open reduction and internal fixation compared with circular fixator application for bicondylar tibial plateau fractures. Results of a multicenter, prospective, randomized clinical trial. J Bone Joint Surg Am. 2006;88:2613–23.

    Article  Google Scholar 

  20. Britten S, Ghoz A, Duffield B, Giannoudis PV. Ilizarov fixator pin site care: the role of crusts in the prevention of infection. Injury. 2013;44:1275.

    Article  Google Scholar 

  21. Laible C, Earl-Royal E, Davidovitch R, Walsh M, Egol KA. Infection after spanning external fixation for high-energy tibial plateau fractures: is pin site-plate overlap a problem? J Orthop Trauma. 2012;26:92–7.

    Article  Google Scholar 

  22. Telmo R, Carl E, Eriksson BI, Jon K, Lars N. The Ilizarov external fixator-a useful alternative for the treatment of proximal tibial fractures a prospective observational study of 30 consecutive patients. BMC Musculoskelet Disord. 2013;14:11.

    Article  Google Scholar 

  23. Ferreira N, Marais LC. Bicondylar tibial plateau fractures treated with fine-wire circular external fixation. Strateg Trauma Limb Reconstr. 2014;9(1):25–32.

    Article  CAS  Google Scholar 

  24. Wei C, Tao Z, Wang J, Bo L, Hou Z, Zhang Y. Minimally invasive treatment of displaced femoral shaft fractures with a rapid reductor and intramedullary nail fixation. Int Orthop. 2016;40(1):167–72.

    Article  Google Scholar 

  25. Levy BA, Herrera DA, Macdonald P, Cole PA. The medial approach for arthroscopic-assisted fixation of lateral tibial plateau fractures: patient selection and mid- to long-term results. J Orthop Trauma. 2014;2(3 Suppl):201–5.

    Google Scholar 

  26. Wang Q, Chen W, Su Y, Pan J, Zhang Q, Peng A, Wu X, Wang P, Zhang Y. Minimally invasive treatment of calcaneal fracture by percutaneous leverage, anatomical plate, and compression bolts--the clinical evaluation of cohort of 156 patients. J Trauma. 2010;69(6):1515–22.

    Article  Google Scholar 

  27. Zhang T, Su Y, Chen W, Zhang Q, Wu Z, Zhang Y. Displaced intra-articular calcaneal fractures treated in a minimally invasive fashion: longitudinal approach versus sinus tarsi approach. J Bone Joint Surg (Am Vol). 2014;96(4):302–9.

    Article  Google Scholar 

  28. Wu Z, Su Y, Chen W, Zhang Q, Liu Y, Li M, Wang H, Zhang Y. Functional outcome of displaced intra-articular calcaneal fractures: a comparison between open reduction/internal fixation and a minimally invasive approach featured an anatomical plate and compression bolts. J Trauma Acute Care Surg. 2012;73(3):743–51.

    Article  Google Scholar 

  29. Barbary HE, Ghani HA, Misbah H, Salem K. Complex tibial plateau fractures treated with Ilizarov external fixator with or without minimal internal fixation. Int Orthop. 2005;29:182–5.

    Article  Google Scholar 

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This research did not receive any specific grant from funding agencies in the public, commercial, or not-for-profit sectors.

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The datasets used and/or analysed during the current study are available from the corresponding author on reasonable request.

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Authors and Affiliations



YZZ designed the trial. HRC and YYY contributed to manuscript drafting and interpretation of data. ZLZ and JSS contributed to data collation and statistic analysis. YZZ and ZLZ contributed to the clinical treatment. All authors have read and approved the final manuscript.

Corresponding author

Correspondence to Yingze Zhang.

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Ethics approval and consent to participate

Written informed consent for participation in the study was obtained from participants. Full approval from local Ethics Committee (KE 2016–001-2) of the Third Affiliated Hospital of Hebei Medical University.

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The authors declare that they have no competing interests.

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Chang, H., Zheng, Z., Yu, Y. et al. The use of bidirectional rapid reductor in minimally invasive treatment of bicondylar tibial plateau fractures: preliminary radiographic and clinical results. BMC Musculoskelet Disord 19, 419 (2018).

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