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. 2020 Apr 8;6(2):278–282. doi: 10.1016/j.artd.2020.03.003

Gout After Total Knee Arthroplasty

Daniel J Chernoff a,, Jordan P Barker a,1, Scott A Wingerter a, Thomas L Shriwise a
PMCID: PMC7303497  PMID: 32577478

Abstract

Crystalline arthropathies are well-known pathologies in a native knee; however, the literature is scarce with regards to crystalline arthropathies in a total knee arthroplasty (TKA). The presentation of crystalline arthropathy in a TKA can be similar to a periprosthetic joint infection (PJI), making it difficult to distinguish between the 2 diagnoses. We present 1 case highlighting the similarity between crystalline arthropathy and PJI. A 71-year-old man with a history of bilateral TKAs presented with bilateral painful knee effusions and was initially presumed to have PJIs; however, he was later diagnosed with gout and successfully treated medically. A complete review of the literature demonstrates that crystalline arthropathies after TKA are infrequently reported and can be difficult to decipher from PJIs, and there is a lack of standardized treatment.

Keywords: Gout, Pseudogout, Crystalline arthropathy, TKA, Periprosthetic joint infection

Introduction

Crystalline arthropathies are characterized by deposition of crystals within a synovial membrane or joint cavity. The most common crystalline arthropathies are gout and pseudogout, caused by deposition of monosodium urate and calcium pyrophosphate crystals, respectively. The typical presentation of gout and pseudogout is nearly identical, manifesting warmth, swelling, erythema, and pain within a joint [1]. Studies have reported the overall prevalence of gout to be 0.94% [2], whereas pseudogout is more prevalent, affecting up to 8.1% of people in the United States [3].

The symptoms of an acute flare of crystalline arthropathy can very closely mimic those of septic arthritis. This is of particular importance in discerning infection after total knee arthroplasty (TKA). The prevalence of periprosthetic joint infection (PJI) after primary TKA is 1%-2% [4]; however, the prevalence of crystalline arthropathy after TKA is not well documented. To our knowledge, there are only 17 cases of gout and 12 cases of pseudogout in the setting of TKA reported in the literature over the past 26 years [[5], [6], [7], [8], [9], [10], [11], [12], [13], [14], [15], [16], [17], [18], [19], [20], [21], [22]]. The following is a case report of an acute gouty flare after primary TKA and a review of the existing literature on crystalline arthropathy in the setting of TKA.

Case history

A 71-year-old man, who provided informed consent to this case report, presented to an outside hospital with fever, malaise, and bilateral knee pain of a few days' duration. He had undergone right and left TKA 13 and 14 years earlier, respectively. His medical history was significant for chronic kidney disease, diabetes mellitus type 2, congestive heart failure, spinal stenosis, and chronic obstructive pulmonary disease. He had no known history of gout and denied using alcohol, tobacco, or illicit drugs. He denied history of significant knee pain after placement of his TKA until his current symptoms.

He received 4 days of intravenous vancomycin and ciprofloxacin for presumed health care–associated pneumonia, as he had an infiltrate on a chest radiograph. The presence of pneumonia was later questioned as advanced imaging did not show the infiltrate. Aspirations of both knees were performed 1 day after his last dose of antibiotics, revealing a leukocyte count of 10,694/mm³ in the right knee and 1138/mm³ in the left knee. Gram stains and cultures remained negative; however, the fluid was not analyzed for crystals at that time. Because of his systemic symptoms and bilateral knee pain, swelling, and erythema, there was concern for bilateral periprosthetic knee infection, and the patient was transferred to our facility, a tertiary care hospital, for further management.

On examination, after transfer to the current hospital, he required admission to the ICU owing to frequent desaturations and altered mental status. He required supplemental oxygen and continuous positive airway pressure to maintain his oxygenation. His bilateral knees were erythematous, diffusely tender to palpation, and warm to touch. His TKA incisions were well healed bilaterally. There were effusions present bilaterally. Repeat joint aspirates (now 4 days after the last dose of antibiotics) yielded approximately 15 cc of yellow turbid fluid from each knee. The cell count was 22,594/mm³ (84% polymorphonuclear leukocytes) in the right knee and 36,016/mm³ (92% polymorphonuclear leukocytes) in the left knee. Both fluid samples were positive for monosodium urate crystals, and again cultures did not show any growth. Aerobic, anaerobic, acid-fast bacilus, and fungal cultures were incubated for a total of 4 days, 4 days, 6 weeks, and 4 weeks, respectively. The patient's erythrocyte sedimentation rate was 96 mm/h and his C-reactive protein (CRP) was >270 mg/L. He had a normal serum white blood cell (WBC) count of 8.02 × 10⁹/L. Blood and urine cultures were also drawn at the time of presentation to the hospital, and both were negative. Radiographs, seen in Figure 1, Figure 2, demonstrated well-aligned bilateral TKAs without any sign of osteolysis or loosening. There are eccentric gaps seen in the anteroposterior radiographs, which could indicate possible polyethylene wear.

Figure 1.

Figure 1

(a) anteroposterior and (b) lateral radiographs of the left knee at the time of presentation.

Figure 2.

Figure 2

(a) anteroposterior and (b) lateral radiographs of the right knee at the time of presentation.

Based on these results, he was felt to have bilateral knee gouty arthritis with or without infection. He was started on colchicine, but after 3 doses, he had a 1.3-point increase in his creatinine and was subsequently switched to prednisone 40 mg daily for a total of 10 days. After 1 day of treatment, he also was transferred out of the ICU to the floor as his respiratory status improved. He was later diagnosed with an acute COPD exacerbation. By the fourth day of gout treatment, he stated that his bilateral knee pain was mostly resolved and he was ambulating with physical therapy. Two weeks after his treatment concluded, he reported no knee pain bilaterally, thereby favoring a diagnosis of aseptic gout. This was reconfirmed at 15 months when he reported no pain at his right or left knee. He was able to ambulate with a walker for up to 1 block but would have to rest due to back pain and leg weakness.

Discussion

There are 17 reported cases of gout and 12 reported cases of pseudogout after TKA in the literature, totaling 28 patients. Thirteen patients were male and 15 were female. The average patient age was 68 years (range, 39 to 88 years), and the interval time between TKA and presenting symptoms of crystalline arthropathy flare varied widely, ranging from 3 days to 20 years. Twenty patients had a documented history of the presence or absence of crystalline arthropathy: 11 reporting a prior history and 9 no prior history of crystalline arthropathy. There were 4 cases of newly diagnosed crystalline arthropathy that also had a coincident PJI in the same knee. These patients had varying presentations, with a wide spectrum of mild to severe illness on presentation. Eleven patients were treated surgically with a debridement and polyethylene exchange, including all 4 with coexisting septic arthritis. The remaining 17 patients were treated medically without surgery. All 24 patients without coexisting septic arthritis had resolution of their symptoms, with 1 patient experiencing occasional flares while off his gout medication. The mean follow-up was 54 weeks, ranging from 2 days to 8 years [[5], [6], [7], [8], [9], [10], [11], [12], [13], [14], [15], [16], [17], [18], [19], [20], [21], [22]]. See Table 1.

Table 1.

Characteristics and treatment in all reported patients with crystalline arthropathy in TKA.

Author Age (yr) Sex Time after TKA Affected side History of gout/pseudogout Diagnosis Associated infection Surgical treatment? Medical treatment Final follow-up Successful outcome?a
Williamson et al. [5] 86 F 10 y Left N/a Gout No Y Colchicine, allopurinol 1 y Y
Blyth et al. [6] 58 M 4 y Right Y Gout Staphylococcus aureus Y Antibiotics N/a N
52 M 3 d Right Y Gout No N NSAIDs, colchicine, allopurinol 1 y Y
Archibeck et al. [7] 66 M 10 and 12 y Bilateral N Gout No Y Colchicine, allopurinol 5 mo Y
88 F 9 y Left Y Gout No Y Colchicine 4 mo Y
Crawford et al. [8] 59 F 3 mo Left N Gout No N NSAIDs, allopurinol 1 y Y
Salin et al. [9] 50s F 4 and 4 y Bilateral N Gout No Y Allopurinol, steroids 1 mo Y
80s F 11 y Left Y Gout Escherichia coli Y Antibiotics, NSAIDs N/a Y
Berger et al. [10] 39 M 4 y Right Y Gout No Y NSAIDs, colchicine N/a Y
Fokter et al. [11] 68 M 11 mo Left N/a Gout No N NSAIDs, allopurinol 1 wk Y
Freehill et al. [12] 77 F 10 y Right Y Gout Escherichia coli Y Antibiotics 8 wk Y
Partridge et al. [15] 66 F 8 y Right Y Gout No Y Antibiotics, steroids 1 y Y
Chen et al. [14] 43 M 7 y Left Y Gout No N Colchicine, allopurinol, steroids 1 y Y
72 M 10 y Right Y Gout No N Steroids 5 mo Y
Yahia et al. [19] 72 F 31 d Left N/a Gout No N Colchicine N/a N/a
Zadaka et al. [13] 58 F 7 y Right N Gout No N Steroids, allopurinol 2 d Y
77 M 13 and 20 y Bilateral N Gout/Pseudogout No N Anitibiotics "several days" Y
Levi et al. [16] 70 F 8 y Bilateral N/a Pseudogout No Y Antibiotics, steroids 16 mo Y
Koyama et al. [17] 64 F 13 d Right N Pseudogout No N NSAIDs 1 y Y
81 M 2 wk Left N Pseudogout No N NSAIDs 1 y Y
Harato et al. [18] 85 M 15 d Right Y Pseudogout No N NSAIDs 1 y Y
Yahia et al. [19] 79 M 7 d Right N/a Pseudogout No N Colchicine N/a N/a
73 F 3 y Right N/a Pseudogout No N NSAIDs N/a N/a
67 M 9 y Right N/a Pseudogout No N Steroids, colchicine N/a N/a
77 F 15 d Right N/a Pseudogout Campylobacter fetus N Antibiotics N/a N/a
Holt et al. [20] 72 M 2 y Left N Pseudogout No Y NSAIDs 1 wk Y
Hirose et al. [21] 59 F 7 d Right Y Pseudogout No N NSAIDs 1 y Y
Sonsale et al. [22] 69 F 10 y Right N Pseudogout No N NSAIDs 8 y Y

NSAIDs, nonsteroidal anti-inflammatory drugs.

a

Successfwl outcome defined as no recurrence of presenting symptoms.

Distinguishing between crystalline arthropathy and PJI in a patient who presents with a warm, painful, erythematous prosthetic knee can be challenging. They share many clinical features, including clinical presentation, serum laboratory values, and synovial fluid characteristics.

Routinely obtaining microscopic crystal analysis from knee joint aspiration is a simple measure to diagnose crystalline arthropathy in a TKA. Upon review of previously published cases, 4 of 4 patients who did not undergo preoperative crystal analysis were taken to the operating room for a debridement, though all 4 patients demonstrated crystals on intraoperative tissue analysis and were ultimately thought to be aseptic. Another potential problem in not identifying crystals, when actually present, is that of disease recurrence, which may confuse the diagnostician at the time of representation, raising suspicion for recurrence of infection. Rothenbacher et al. [23] demonstrated that 37% of patients who had a gout flare in a native joint had at least one episode of recurrence. As 1 case report highlights, recurrent flares are also possible in TKA [14].

Parvizi and colleagues recently published validated, evidence-based criteria for the diagnosis of PJI. They outline major and minor criteria to diagnose PJI. The major criteria include the presence of a sinus tract communicating with the prosthesis, and a pathogen isolated by culture from 2 separate samples from the affected joint. The minor criteria incorporate serum markers such as erythrocyte sedimentation rate, D-dimer, and CRP. It also includes synovial markers such as WBC, leukocyte esterase, alpha-defensin, polymorphonuclear leukocyte percentage, and CRP. The minor criteria each have a point value assigned to them, and a combined score of ≥6 means infected, 2-5 is possibly infected and requires further investigation, and <2 is not infected. However, the authors reported likely inaccuracy in the presence of crystalline arthropathy, and the focus was on chronic infections, defined as infections occurring greater than 3 months after index arthroplasty, with symptoms lasting longer than 6 weeks [24]. Acute hematogenous PJIs, as what was suspected in the current case, have also been studied, often demonstrating synovial WBC levels >10,000 (in contrast to the 3000 cutoff in chronic PJI) [25], although validated diagnostic criteria are not yet available.

The current patient was initially presumed to have an acute PJI and transferred to a tertiary care facility for treatment. His knee aspiration cultures remained negative, although multiple authors have described negative cultures in the presence of other clear markers of infection, such as intraoperative purulence, a sinus tract, or acute inflammation on histopathologic analysis of periprosthetic tissue samples [[26], [27], [28], [29], [30], [31]]. Shanmugasundaram et al. [28] reported a false negative rate of 46% of preoperative aspiration cultures relative to intraoperative cultures in periprosthetic knee infections. It has been recommended that antibiotics be stopped for a minimum of 2 weeks before obtaining culture in the workup of PJI [4]. In the current case, antibiotics had been given 1 day before his first knee aspiration, potentially confounding the negative result. Trampuz et al. [32] found that culture sensitivities decreased to 47.8% in patients who received antibiotics within 2 weeks of culture acquisition.

There are newer tests that are potential solutions in helping to discern between PJI and crystalline arthropathy. Next-generation sequencing and polymerase chain reaction can identify specific or broad ranges of pathogens in culture-negative PJIs [33,34]. Other recently described diagnostic tools for PJI include alpha-defensin and leukocyte esterase; however, these tests may not clearly distinguish between crystalline arthropathy and PJI, as they are proteins secreted by neutrophils, which are present in both conditions [[35], [36], [37]]. This is highlighted by Partridge et al. [15], who reported a case of gout after TKA, found to have positive alpha-defensin on workup, but no evidence of infection. There is also increasing utilization of other biomarkers in diagnosing PJIs, such as interleukin-6 and tumor necrosis factor-α [38]. We are hopeful that newer tests, such as next-generation sequencing, polymerase chain reaction, and other biomarkers, may prove effective and become more widespread to distinguish PJI and crystalline arthropathy.

If a diagnosis of crystalline arthropathy is suspected in a knee that has previously undergone TKA, there is no published consensus regarding the best method of treatment. The current patient was treated initially with colchicine; however, this likely led to acute kidney injury, necessitating a change in therapy to prednisone, days after which his symptoms resolved. The existing literature demonstrates multiple cases of crystalline arthropathy after TKA that have been successfully treated medically with colchicine, allopurinol, nonsteroidal anti-inflammatory drugs, or corticosteroids [[5], [6], [7], [8], [9], [10], [11], [12], [13], [14], [15], [16], [17], [18], [19], [20], [21], [22]]. As the reported cases of crystalline arthropathy in TKA are so infrequent, especially when compared to periprosthetic knee infections, the authors would recommend caution before excluding the diagnosis of infection. Patients with TKA and crystalline arthropathy should be monitored closely during treatment to ensure their symptoms resolve.

Given the known sequelae of PJI, the astute orthopaedic surgeon might ask if distinguishing between PJI and crystalline arthropathy is futile, favoring a low threshold to surgically treat any red, painful, and warm prosthetic knee. Is there harm in treating all potential crystalline arthropathies after TKA as if they were infected? Potential risks of unnecessary operative intervention include increased cost [39], exposure to anesthetic, particularly if comorbidities are present [40], the psychosocial burden to the patient [41], and the risk of introducing infection into an aseptic knee, as revision surgery has been shown to carry increased infection risk [42,43]. On the contrary, delaying operative debridement of PJI may result in a missed window of opportunity for retention of nonmodular components, resulting in a more invasive 1- or 2-stage exchange.

The limitations of this study include the small series of reported cases. With small series of patients, all from case reports, it is difficult to draw significant conclusions in regards to diagnosis and treatment. We also acknowledge the limitation in regards to timing of antibiotics in relation to the cultures obtained in our case report. This could potentially confound the results of the culture and lead to a false-negative result.

Summary

Crystalline arthropathy in TKA is infrequently reported in the literature, and it can present in a very similar manner to a PJI. We present 1 case where a patient was originally presumed to have a knee PJI; however, on further workup, he was diagnosed with bilateral gouty arthropathy in his TKA and treated medically with success. There is a need for additional research and creation of guidelines in the diagnosis and treatment of periprosthetic crystalline arthropathy. In patients presenting with a warm, painful, erythematous prosthetic knee, we recommend routine analysis of knee joint aspiration for crystals, and if positive, treating medically under close observation until complete resolution of symptoms. To avoid missing a coexisting PJI, as these far outnumber the reported cases of crystalline arthropathies in TKA, cultures should be obtained before antibiotic therapy and monitored closely for at least 2 weeks [4]. Clinicians should have a high index of suspicion for a PJI, but if there is an absence of infection, the patient can be treated medically with good results.

Conflict of interest

The authors declare there are no conflicts of interest.

Appendix A. Supplementary data

Conflict of Interest Statement for Chernoff
mmc1.pdf (32.5KB, pdf)
Conflict of Interest Statement for Shriwise
mmc2.pdf (31KB, pdf)
Conflict of Interest Statement for Wingerter
mmc3.pdf (31.8KB, pdf)
Conflict of Interest Statement for Barker
mmc4.pdf (98.6KB, pdf)

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Associated Data

This section collects any data citations, data availability statements, or supplementary materials included in this article.

Supplementary Materials

Conflict of Interest Statement for Chernoff
mmc1.pdf (32.5KB, pdf)
Conflict of Interest Statement for Shriwise
mmc2.pdf (31KB, pdf)
Conflict of Interest Statement for Wingerter
mmc3.pdf (31.8KB, pdf)
Conflict of Interest Statement for Barker
mmc4.pdf (98.6KB, pdf)

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