Advances in Bone Joint Imaging-Metal Artifact Reduction
Abstract
:1. Introduction
2. Materials and Methods
3. Metal Artifact Reduction Strategies
3.1. Digital Tomosynthesis
3.2. Computed Tomography
3.3. Magnetic Resonance Imaging
4. Future Perspectives and Conclusions
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Conflicts of Interest
Abbreviations
References
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Compared Modalities | Subject | Results | |
---|---|---|---|
Tang et al. [21] | Radiography, DT with TMAR, CT | 4 cadaveric femurs Femoral stem | Sensitivity Radiography 20.5% DT with TMAR 63.3% CT 50.2% Specificity Radiography 92.5% DT with TMAR 87.5% CT 82.5% |
Ottenin et al. [18] | Radiography, DT CT | 100 patients with acute wrist trauma Carpal bones | Sensitivity Radiography 61–80% DT 77–87% CT 93–95% Specificity Radiography 65–83% DT 76–82% CT 86–95% |
Tang et al. [1] | Radiography, DT with TMAR, CT | 48 patients with cementless THA (Femoral stem and acetabular cup) | Diagnostic accuracy Femoral stem Radiography 84.5% DT with TMAR 82.6% CT 44.6% Acetabular cup Radiography 39.6% DT with TMAR 67.3% CT 74.6% |
Guo et al. [22] | Radiography, DT with TMAR, CT | 24 patients with cementless THA 13 femoral stems and 14 acetabular components were evaluated. | Sensitivity Femoral side Radiography 50.4% DT with TMAR 73.8% CT 36.4% Acetabular side Radiography 45.9% DT with TMAR 60.2% CT 45.1% Specificity Femoral side Radiography 87.8% DT with TMAR 94.3% CT 90.9% Acetabular side Radiography 66.4% DT with TMAR 86.4% CT 73.5% |
Gillet et al. [23] | Radiography DT CT + MAR | 49 patients with painful hip prostheses. Evaluated prosthestic loosening. | Sensitivity Radiography 33.3–51.5% DT 39.9–45.4% CT + MAR 84.5% Specificity Radiography 96.9–100% DT 98.5–100% CT + MAR 95.4–96.9% |
Toyooka et al. [24] | DT CT | Bone integration of 27 patients who underwent ACL reconstruction was evaluated | DT was equivalent to CT for the evaluation of bone plug integration within a 15% diagnostic error. Sensitivity 79–96% Specificity 64–100% Diagnostic accuracy 81–96% |
Ishibashi et al. [25] | DT | Open Wedge High Tibial osteotomy Gap filling value (GFV) and modified van Hemert’s score (MVHS) | GFV had strong correlation with MVHS (r = 0.630, p < 0.001) ICC value for intraobserver reliability GFV 0.958 MVHS 0.978 ICC value for interobserver reliability GFV 0.975 MVHS 0.950 |
Mataki et al. [27] | DT | Pedicle screw (PS) displacement angle Loosening group vs. group without PS loosening | The displacement angle was significantly greater in loosening group (5.7° vs. 0.6°) Sensitivity 100% Specificity 93% AUC = 0.98 |
Compared Modalities | Subjects | Results | |
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Lee et al. [55] | Conventional CT VMI (70 and 150 kV) | 40 patients with metallic implants | VMI at high kV reduced metal artifacts, increased SNR, and improved image quality. |
Donders et al. [56] | VMI Low (70) kV versus high (130–150) kV | 41 patients with a clinical suspected non-union with hardware in place. Likert scores were used. | Image quality 1.83 (high kV) > 0.88 (low kV) Number of false-negative non-unions; 5% reduced by high kV. Diagnostic confidence 2.37 (high kV) > 1.43 (low kV) |
Barreto et al. [44] | Conventional CT, MAR, VMI | Cadavers with hip bipolar hemiarthroplasty, TKA, and an implant for anterior cervical disc fusion. | Rank of the original 5 points scale Hip; MAR > CT > VMI TKA; MAR > CT > VMI Spine; VMI > MAR > CT |
Neuhaus et al. [42] | Conventional CT, MAR, VMI, VMI + MAR | 24 patients after THA | VMI + MAR reduced artifacts the most. VMI + MAR improved the assessment of adjacent structures the most. |
Andersson et al. [57] | Conventional CT, MAR, VMI, VMI + MAR | Bilateral hip prosthesis phantom | Artifact reduction rate MAR 52–75% VMI 12–52% (in a certain region artifact increased up to 32%) VMI + MAR 75–77% |
Bongers et al. [58] | Conventional CT, MAR, VMI, VMI + MAR | Hip prosthesis and dental implants. Qualitative and quantitative evaluation. | Artifact reduction rate (Hip, dental implant, respectively) VMI 33%, 8% MAR 56%, 71% VMI + MAR 76%, 76% |
Long et al. [59] | MAR VMI VMI + MAR | 20 patients with instrumented spines. Artifact score (1 to 5) Image quality score (1 to 4) | VMI + MAR showed the best artifact and image quality scores. ICC 0.779 |
Yue et al. [60] | VMI VMI + MAR (80, 100, 120 and 140 kV) | 35 patients with THA. Artifact index (AI) CT number Subjective scores | AI in VMI + MAR at 120 and 140 kV were significantly lower than others. Accuracy of CT numbers for the peroprosthetic region improved with VMI + MAR. VMI + MAR at 120 and 140 kV had higher subjective scores. |
Chae et al. [61] | Conventional CT MAR VMI VMI + MAR | 57 patients with TKA Area of the artifacts Mean attenuation Artifact index (AI) Contrast-to-noise ratio (CNR) | VMI + MAR showed the best performance in artifact reduction and soft tissue depiction. MAR depicted bony structures the best. |
Modalities, Sequences | Subjects | Results | |
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Galley et al. [77] | 1.5 T system STIR-SEMAC | 40 patients with periprosthetic infections after THA Periosteal reaction, capsule edema, and intramuscular edema were evaluated. | Sensitivities 78, 83, 95%, respectively, Specificities 90, 95, 86%, respectively, Accuracies 86, 91, 89%, respectively, Interobserver agreement ICC values 0.88–0.92 |
Takahashi et al. [78] | 1.5 T system T1WI-SEMAC STIR-SEMAC PDW-SEMAC | 47 patients after THA Prosthesis loosening was evaluated. | T1WI-SEMAC Sensitivity 72.7% Specificity 64.3% PPV 44.4%, NPV 85.7% STIR-SEMAC Sensitivity 90.9%, Specificity 46.4%, PPV 40.0%, NPV 92.9% PDW-SEMAC Sensitivity 36.3% Specificity 78.5% PPV 40.0%, NPV 75.8% |
Jungman et al. [71] | 1.5T system Conventional MRI VAT VAT + SEMAC (STIR, T1W, T2W were taken for each group) | 25 malignant bone tumor patients after surgery (metal implants used) with clinical suspicion of tumor recurrence. | VAT + SEMAC reduced artifact diameters and distortions (p < 0.001). VAT + SEMAC improved diagnostic confidence (p < 0.05). Two cases of tumor recurrence were diagnosed. |
Zochowski et al. [79] | 1.5T system Conventional MAVRIC SL Isotropic MAVRIC SL Reduced TR MAVRIC SL | 84 patients after THA | Isotropic MAVRIC SL and reduced TR MAVRIC SL decreased blurring and improved visualization of the synovium and the periprosthetic bone (p < 0.001). Isotropic MAVRIC SL was more effective than reduced-TR MAVRIC SL (p < 0.032). ICC values 0.61–1.00 |
Kim et al. [74] | 3T system MAVRIC SL STIR STIR | A cadaver 5 volunteers | Cadaveric study MAVRIC SL STIR better visualized anatomic structures, less distortion and pile-up. Fat suppression was better with STIR. Interobserver agreement κ = 0.7 Volunteer study MAVRIC SL STIR better visualized anatomic structures, less distortion. Spinal cord was better depicted by STIR. Interobserver agreement κ = 0.89 |
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Kohyama, S.; Yoshii, Y.; Okamoto, Y.; Nakajima, T. Advances in Bone Joint Imaging-Metal Artifact Reduction. Diagnostics 2022, 12, 3079. https://doi.org/10.3390/diagnostics12123079
Kohyama S, Yoshii Y, Okamoto Y, Nakajima T. Advances in Bone Joint Imaging-Metal Artifact Reduction. Diagnostics. 2022; 12(12):3079. https://doi.org/10.3390/diagnostics12123079
Chicago/Turabian StyleKohyama, Sho, Yuichi Yoshii, Yoshikazu Okamoto, and Takahito Nakajima. 2022. "Advances in Bone Joint Imaging-Metal Artifact Reduction" Diagnostics 12, no. 12: 3079. https://doi.org/10.3390/diagnostics12123079
APA StyleKohyama, S., Yoshii, Y., Okamoto, Y., & Nakajima, T. (2022). Advances in Bone Joint Imaging-Metal Artifact Reduction. Diagnostics, 12(12), 3079. https://doi.org/10.3390/diagnostics12123079