Learning Point of the Article:
Learning Point of the Article:
A first metatarsal phalangeal joint arthrodesis can be obtained in the setting of bone loss in a single stage procedure without the use of hardware.
Case Report | Volume 11 | Issue 2 | JOCR February 2021 | Page 63-66 | Peter Adamson, Cory Janney, Jie Chen, Vinod Panchbhavi . DOI: 10.13107/jocr.2021.v11.i02.2028
Authors: Peter Adamson, Cory Janney, Jie Chen, Vinod Panchbhavi
Department of Orthopaedic Surgery and Rehabilitation, The University of Texas Medical Branch, 2.316 Rebecca Sealy, 301 University Blvd Route 0165, Galveston, TX 77555-0165,
Department of Orthopaedic Surgery, Naval Medical Center San Diego, 34800 Bob Wilson Dr, San Diego, CA 92134.
Address of Correspondence:
Dr. Peter Adamson,
Department of Orthopaedic Surgery and Rehabilitation, The University of Texas Medical Branch, 2.316 Rebecca Sealy, 301 University Blvd Route 0165, Galveston, TX 77555-0165.
Introduction: First metatarsal phalangeal joint (MTPJ) arthroplasty has a high failure rate due to aseptic loosening, which leads to bone loss. The salvage procedure is conversion to an arthrodesis, but bone loss can make obtaining screw fixation difficult. Herein, we report a unique case of revision first-metatarsal arthrodesis without the use of hardware after a failed arthroplasty.
Case Report: A 60-year-old women presented to us with first MTPJ pain in the setting of failed arthroplasty. We performed an arthrodesis; however, intraoperatively, hardware fixation could not be obtained due to bone loss. We utilized allograft bone struts to maintain first ray length and to hold the correct hallux position during arthrodesis maturation.
Conclusion: Bone loss is a frequently encountered problem in revision surgery to a first MTPJ arthrodesis. An arthrodesis can be obtained without the use of hardware in scenarios where bone loss precludes screw fixation.
Keywords: Hallux rigidus, revision, bone loss, arthrodesis
Arthritis of the first metatarsal phalangeal joint (MTPJ), also known as hallux rigidus, is the most common arthritic condition of the foot, affecting 2.5% of patients over the age of 50 years . Pain and loss of range of motion, specifically dorsiflexion, can make ambulation difficult. Conservative management should be attempted first and includes nonsteroidal anti-inflammatories, activity modifications, and stiff-soled orthotics to limit first MTPJ dorsiflexion . When conservative treatment fails, operative intervention can be considered. For patients with mild arthritic change, a preserved joint space, and pain with dorsiflexion only, dorsal cheilectomy may be performed with excellent results . For patients with end-stage hallux rigidus, first MTPJ arthrodesis is the gold standard treatment . Some surgeons, in an attempt to maintain motion at the joint, have treated hallux rigidus with a first MTPJ arthroplasty using either a silastic or metal implant . Arthroplasties of this joint have a high rate of loosening, however, and often require a salvage surgery to fuse the joint . Bone loss associated with loosening of the implant can lead to a shortened first ray and make obtaining a fusion challenging . If bone loss is severe, obtaining screw fixation to create a stable construct spanning the joint can be difficult. A staged procedure to establish bone stock and create a fusion is sometimes needed, but obtaining a fusion in a single procedure in the setting of severe bone loss would be ideal. We report a single-stage first MTPJ arthrodesis without the use of hardware after a failed MTPJ arthroplasty.
A 60-year-old female with a medical history of hypertension presented to the orthopedic foot and ankle clinic with progressive pain about her right first MTPJ. She reported having a first MTPJ arthroplasty in 2004 and long-standing pain in her first MTPJ that worsened with walking. She had attempted a Morton’s extension orthotic without pain relief.
On physical examination, there was tenderness to palpation about the first MTPJ, with mild swelling and a well-healed dorsal surgical scar. Range of motion of the joint was painful through the entire arc of motion. There was also tenderness to palpation on the plantar aspect of the second and third MTPJs, with corresponding plantar-based calluses, but normal sensation throughout the foot, with palpable pedal pulses, and brisk capillary refill in all toes. Three-view radiographic evaluation of the right foot showed a prior first MTPJ arthroplasty with perihardware lucency indicative of loosening components (Fig. 1) and a shortened first ray. The patient was diagnosed with failed first MTPJ arthroplasty secondary to loosening of the components, with concomitant second and third transfer metatarsalgia. After discussing treatment options, the patient chose to undergo surgical intervention involving hardware removal and first MTPJ arthrodesis, along with second and third metatarsal head Weil osteotomies to address her metatarsalgia. Her pre-operative metatarsophalangeal-interphalangeal (MTP-IP) score was 39.
In the operating room, an incision was made through her prior dorsal surgical incision. Dissection was carried down to the first MTPJ arthroplasty. The components were grossly loose and were removed without difficulty. Curettes and a drill bit were used to debride the intramedullary portion of the distal first metatarsal and the proximal aspect of the proximal phalanx (Fig. 2). A 2-cm bone gap was identified, and inadequate bone stock remained in the proximal phalanx to allow for hardware fixation. A decision was made to proceed with arthrodesis without the use of hardware. Ten cc of bone marrow was aspirated from the proximal tibia and mixed with a bone substitute (NovoGro®, Osteonovus, Toledo, Ohio) for later use. Fibular strut allograft with adequate length to fill the bone void was measured under fluoroscopy and cut to appropriate size to hold the toe out to length. Traction was applied to the toe, and the strut grafts were placed across the joint and within the medullary canal of the first metatarsal and then the proximal phalanx (Fig. 3). The strut graft provided stability to the joint through its tensile effect. The bone graft substitute was packed into the proximal phalanx, first metatarsal head, and remaining first MTPJ space (Fig. 4). Weil osteotomies were performed on the second and third metatarsal heads through separate dorsal incisions to restore a normal cascade. The patient was placed in a posterior, short-leg splint postoperatively and made non-weight bearing. At her 2-week follow-up, she was transitioned to a short-leg cast and continued her weight bearing restrictions. Radiographs at 1 month showed callus formation and graft consolidation at the first MTPJ (Fig. 5). The patient was transitioned to a fracture boot at 6 weeks, but was kept non-weight bearing until 3 months postoperatively. At her 3-month follow-up, the patient was transitioned to a forefoot rocker sole shoe with carbon plate insert and allowed to weight bear as tolerated. She reported no pain in her great toe. A computed tomography scan was obtained at 4 months postoperatively, which showed continued consolidation of the fusion. At 5 months postoperatively, the patient was back to wearing her normal shoes and reported no activity limitations, including jogging. At 2 years postoperatively, she reported no pain in the toe and was completely satisfied with the procedure. Her final MTP-IP score was 83.
Primary first MTPJ arthrodesis is the gold standard procedure to address the advanced stages of hallux rigidus. Reported satisfaction rates are between 81% and 100% . Techniques to prepare the joint surfaces for fusion include conical reaming and flat cuts . These methods rely on adequate bone stock to maintain the length of the first ray and for implant fixation during the maturation of the arthrodesis. In revision scenarios, a shortened first ray can become problematic, and, if the joint is fused in situ, can lead to transfer metatarsalgia . The dowel technique, described by Malagelada et al., utilizes a dorsal plate and iliac crest autograft shaped into a dowel to conform and press-fit into the intramedullary canal of the metatarsal and proximal phalanx to maintain the length and alignment of the first ray . They had a 100% fusion rate, with a 13% rate of symptomatic hardware requiring removal of the dorsal plate. A separate dowel technique, described by Tauro and Muirhead, used an iliac crest autograft dowel to obtain a first MTPJ arthrodesis during primary treatment of hallux rigidus . In their technique, a dowel shaped piece of bone was removed across the joint in a dorsal-to-plantar direction while the great toe was held in ten degrees of dorsiflexion. A matching autograft dowel was then placed across the joint. They had a 92% fusion rate, and 72% of patients were satisfied. Our decision to proceed without hardware was made intraoperatively purely due to inadequate bone stock for screw fixation. However, there are advantages to not using hardware, the foremost being cost savings. While implant prices vary widely depending on vendor-hospital contracts, Hyer et al. found that a dorsal plate construct for first MTPJ arthrodesis cost $603 on average . Second, rates of symptomatic hardware requiring implant removal after first MTPJ fusion have been reported to be as high as 17% ; this complication is eliminated if no hardware is used. We used allograft bone to create our construct. Prior techniques have used iliac crest autograft. Using allograft, we eliminated the risk of donor-site morbidity for the patient. Finally, by foregoing a metallic implant, a potential nidus for infection is eliminated, as infection rates after foot and ankle surgery can range from 1% to 5.3% . There are also drawbacks to this technique. First, while the dowels, combined with maintained collateral ligaments, provided sufficient stability in our patient for a fusion to mature, they do not provide as much stability as a dorsal plate construct. The compression achieved across the joint with dowels is presumably less than that achieved by a lag screw or compression plate, and this may lead to an increased risk of non-union. This necessitated a prolonged period of immobilization and non-weight bearing for our patient to allow for a solid arthrodesis to develop. Arthrodesis in a revision scenario has delayed union and non-union rates of 42% and 17%, respectively . Second, setting and maintaining the position of the great toe are more difficult without an implant to hold the correct position. With an implant, the recommended fusion angles of ten to 20 degrees of hallux dorsiflexion and valgus  can be set and maintained by the hardware. In our case, the bone dowels were contoured and the bone graft packed in a manner to set the position of the toe, but there is an increased risk that the toe could drift to an improper position.
Revision MTPJ fusions present many challenges to foot and ankle surgeons. Most daunting among these challenges is the variable degree of bone loss. Within this case, we have shown that a successful arthrodesis can be obtained in the setting of bone loss without hardware.
Bone loss after a failed first MTPJ arthroplasty presents a clinical challenge. Within this report, we demonstrated that an arthrodesis can be obtained in the setting of bone loss, and the patient can have a successful outcome, without the use of hardware.
1. Ho B, Baumhauer J. Hallux rigidus. EFORT Open Rev 2017;2:13-20.
2. Caravelli S, Mosca M, Massimi S, Pungetti C, Russo A, Fuiano M, et al. A comprehensive and narrative review of historical aspects and management of low-grade hallux rigidus: Conservative and surgical possibilities. Musculoskelet Surg 2018;102:201-11.
3. Sidon E, Rogero R, Bell T, McDonald E, Shakked RJ, Fuchs D, et al. Long-term follow-up of cheilectomy for treatment of hallux rigidus. Foot Ankle Int 2019;40:1114-21.
4. Rothermel SD, King JL, Tupinio M, Walley KC, Juliano PJ, Aynardi MC. Cost comparison of synthetic hydrogel implant and first metatarsophalangeal joint arthrodesis. Foot Ankle Spec 2019;13:281-5.
5. Stone OD, Ray R, Thomson CE, Gibson JN. Long-term follow-up of arthrodesis vs total joint arthroplasty for hallux rigidus. Foot Ankle Int 2017;38:375-80.
6. Dawson-Bowling S, Adimonye A, Cohen A, Cottam H, Ritchie J, Fordyce M. MOJE ceramic metatarsophalangeal arthroplasty: Disappointing clinical results at two to eight years. Foot Ankle Int 2012;33:560-4.
7. Gross CE, Hsu AR, Lin J, Holmes GB, Lee S. Revision MTP arthrodesis for failed MTP arthroplasty. Foot Ankle Spec 2013;6:471-8.
8. Deland JT, Williams BR. Surgical management of hallux rigidus. J Am Acad Orthop Surg 2012;20:347-58.
9. Singh B, Draeger R, Del Gaizo DJ, Parekh SG. Changes in length of the first ray with two different first MTP fusion techniques: A cadaveric study. Foot Ankle Int 2008;29:722-5.
10. Myerson MS, Schon LC, McGuigan FX, Oznur A. Result of arthrodesis of the hallux metatarsophalangeal joint using bone graft for restoration of length. Foot Ankle Int 2000;21:297-306.
11. Malagelada F, Welck MJ, Clark C. The dowel technique for first metatarso-phalangeal joint arthrodesis in revision surgery with bone loss. Foot Ankle Surg 2018;24:224-8.
12. Tauro B, Muirhead A. Dowel technique for metatarsophalangeal joint arthrodesis in hallux rigidus. Foot 2000;10:75-7.
13. Hyer CF, Glover JP, Berlet GC, Lee TH. Cost comparison of crossed screws versus dorsal plate construct for first metatarsophalangeal joint arthrodesis. J Foot Ankle Surg 2008;47:13-8.
14. Gaudin G, Coillard JY, Augoyard M, Tourné Y, Meusnier T, Beaudet P, et al. Incidence and outcomes of revision surgery after first metatarsophalangeal joint arthrodesis: Multicenter study of 158 cases. Orthop Traumatol Surg Res 2018;104:1221-6.
15. Feilmeier M, Dayton P, Sedberry S, Reimer RA. Incidence of surgical site infection in the foot and ankle with early exposure and showering of surgical sites: A prospective observation. J Foot Ankle Surg 2014;53:173-5.
|Dr. Peter Adamson||Dr. Cory Janney||Dr. Jie Chen
||Dr. Vinod Panchbhavi|
|How to Cite This Article: Adamson P, Janney C, Chen J, Panchbhavi V. First Metatarsal Phalangeal Joint Arthrodesis without the Use of Hardware after Failed Arthroplasty: A Case Report. Journal of Orthopaedic Case Reports 2021 February;11(2): 63-66.|
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