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"Christopher P. Ames"

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"Christopher P. Ames"

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Outcomes of Surgical Treatment for Patients With Mild Scoliosis and Age-Appropriate Sagittal Alignment With Minimum 2-Year Follow-up
Neurospine. 2023;20(3):837-848.   Published online September 30, 2023
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Outcomes of Surgical Treatment for Patients With Mild Scoliosis and Age-Appropriate Sagittal Alignment With Minimum 2-Year Follow-up
Neurospine. 2023;20(3):837-848.   Published online September 30, 2023
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Objective
The goal of this study was to determine if patients with mild scoliosis and age-appropriate sagittal alignment have favorable outcomes following surgical correction.
Methods
Retrospective review of a prospective, multicenter adult spinal deformity database. Inclusion criteria: operative patients age ≥18 years, and preoperative pelvic tilt, mismatch between pelvic incidence and lumbar lordosis (PI–LL), and C7 sagittal vertical axis all within established age-adjusted thresholds with minimum 2-year follow-up. Health-related quality of life (HRQoL) scores: Oswestry Disability Index (ODI), 36-item Short Form health survey (SF-36), Scoliosis Research Society-22R (SRS22R), back/leg pain Numerical Rating Scale and minimum clinically important difference (MCID)/substantial clinical benefit (SCB). Two-year and preoperative HRQoL radiographic data were compared. Patients with mild scoliosis (Mild Scoli, Max coronal Cobb 10°–30°) were compared to those with larger curves (Scoli).
Results
One hundred fifty-one patients included from 667 operative patients (82.8% women; average age, 56.4 ± 16.2 years). Forty-two patients (27.8%) included in Mild Scoli group. Mild Scoli group had significantly worse baseline leg pain, ODI, and physical composite scores (p < 0.02). Mean 2-year maximum coronal Cobb angle was significantly improved compared to baseline (p < 0.001). All 2-year HRQoL measures were significantly improved compared to (p < 0.001) except mental composite score, SRS activity and SRS mental for the Mild Scoli group (p > 0.05). From the mild Scoli group, 36%–74% met either MCID or SCB for the HRQoL measures. Sixty-four point three percent had minimum 1 complication, 28.6% had a major complication, 35.7% had reoperation.
Conclusion
Mild scoliosis patients with age-appropriate sagittal alignment benefit from surgical correction, decompression, and stabilization at 2 years postoperative despite having a high complication rate.

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  • Subject‐Specific Musculoskeletal Modeling: The Future of Predicting and Preventing Proximal Junctional Failure in Adult Spinal Deformity
    Nima Ashjaee, Alexa Semonche, Anthony L. Mikula, Laszlo Kiss, Dennis E. Anderson, Dominika Ignasiak, Stephen H. M. Brown, John Street, Sidney Fels, Samuel R. Ward, Christopher Ames, Thomas R. Oxland
    JOR SPINE.2025;[Epub]     CrossRef
  • 5,412 View
  • 158 Download
  • 3 Web of Science
  • 1 Crossref

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Incidence of Chronic Periscapular Pain After Adult Thoracolumbar Deformity Correction and Impact on Outcomes
Neurospine. 2021;18(3):515-523.   Published online September 30, 2021
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Incidence of Chronic Periscapular Pain After Adult Thoracolumbar Deformity Correction and Impact on Outcomes
Neurospine. 2021;18(3):515-523.   Published online September 30, 2021
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Objective
Extension of the posterior upper-most instrumented vertebra (UIV) into the upper thoracic (UT) spine allows for greater deformity correction and reduced incidence of proximal junction kyphosis (PJK) in adult spinal deformity (ASD) patients. However, it may be associated with chronic postoperative scapular pain (POSP). The goal of this study was to assess the relationship between UT UIV and persistent POSP, describe the pain, and assess its impact on patient disability.
Methods
ASD patients who underwent multilevel posterior fusion were retrospectively identified then administered a survey regarding scapular pain and the Oswestry Disability Index (ODI), by telephone. Univariate and multivariate analysis were utilized.
Results
A total of 74 ASD patients were included in the study: 37 patients with chronic POSP and 37 without scapular pain. The mean age was 70.5 years, and 63.9% were women. There were no significant differences in clinical characteristics, including mechanical complications (PJK, pseudarthrosis, and rod fracture) or reoperation between groups. Patients with persistent POSP were more likely to have a UT than a lower thoracic UIV (p = 0.018). UT UIV was independently associated with chronic POSP on multivariate analysis (p = 0.022). ODI score was significantly higher in patients with scapular pain (p = 0.001). Chronic POSP (p = 0.001) and prior spine surgery (p = 0.037) were independently associated with ODI on multivariate analysis.
Conclusion
A UT UIV is independently associated with increased odds of chronic POSP, and this pain is associated with significant increases in patient disability. It is a significant clinical problem despite solid radiographic fusion and the absence of PJK.
  • 8,194 View
  • 110 Download

Editorial

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Commentary on Vertebral Body Sliding Osteotomy for Cervical Myelopathy With Rigid Kyphosis: A Technical Note
Neurospine. 2020;17(3):650-651.   Published online September 30, 2020
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Commentary on Vertebral Body Sliding Osteotomy for Cervical Myelopathy With Rigid Kyphosis: A Technical Note
Neurospine. 2020;17(3):650-651.   Published online September 30, 2020
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Citations

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  • An Algorithmic Roadmap for the Surgical Management of Degenerative Cervical Myelopathy: A Narrative Review
    Dong-Ho Lee, Hyung Rae Lee, Kiehyun Daniel Riew
    Asian Spine Journal.2024; 18(2): 274.     CrossRef
  • Fusion and subsidence rates of vertebral body sliding osteotomy: Comparison of 3 reconstructive techniques for multilevel cervical myelopathy
    Dong-Ho Lee, Sehan Park, Chul Gie Hong, Kun-Bo Park, Jae Hwan Cho, Chang Ju Hwang, Jae Jun Yang, Choon Sung Lee
    The Spine Journal.2021; 21(7): 1089.     CrossRef
  • 6,517 View
  • 97 Download
  • 2 Web of Science
  • 2 Crossref

Review Articles

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Three-Column Osteotomy for the Treatment of Rigid Cervical Deformity
Neurospine. 2020;17(3):525-533.   Published online September 30, 2020
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Three-Column Osteotomy for the Treatment of Rigid Cervical Deformity
Neurospine. 2020;17(3):525-533.   Published online September 30, 2020
Close
Adult cervical deformity (ACD) has been shown to have a substantial impact on quality of life and overall health, with moderate to severe deformities resulting in significant disability and dysfunction. Fortunately, surgical management and correction of cervical sagittal imbalance can offer significant benefits and improvement in pain and disability. ACD is a heterogenous disease and specific surgical correction strategies should reflect deformity type (driver of deformity) and patient-related factors. Spinal rigidity is one of the most important considerations as soft tissue releases and osteotomies play a crucial role in cervical deformity correction. For ankylosed, fixed, and severe deformity, 3-column osteotomy (3CO) is often warranted. A 3CO can be done through combined anteriorposterior (vertebral body resection) and posterior-only approaches (open or closed wedge pedicle subtraction osteotomies [PSOs]). This article reviews the literature for currently published studies that report results on the use of 3CO for ACD, with a special concentration on posterior based 3CO (open and closed wedge PSO). More specifically, this review discusses the indications, radiographic corrective ability, and associated complications.

Citations

Citations to this article as recorded by  Crossref logo
  • Multi-Level Uncinatectomies and Posterior Column Osteotomies to Correct a Cervical Kyphotic Deformity: Case Instruction With Intraoperative Picture and Video
    Harsh Jain, Hani Chanbour, Tyler Zeoli, Aaron M. Yengo-Kahn, Scott L. Zuckerman
    Neurosurgery Practice.2026;[Epub]     CrossRef
  • Comparison of pedicle subtraction osteotomy and vertebral column resection in adolescent congenital kyphoscoliosis and the influencing factors on intraoperative hemorrhage: a retrospective study
    Baina Shi
    American Journal of Translational Research.2025; 17(1): 622.     CrossRef
  • Clinical Outcomes Following Cervical Deformity Correction
    Alexa Semonche, Anthony L. Mikula, Justin K. Scheer, Vedat Deviren, Christopher P. Ames
    Clinical Spine Surgery.2025; 38(9): 466.     CrossRef
  • Multilevel Pedicle Subtraction Osteotomy for Correction of Thoracolumbar Kyphosis in Ankylosing Spondylitis: Clinical Effect and Biomechanical Evaluation
    Xin Lv, Yelidana Nuertai, Qiwei Wang, Di Zhang, Xumin Hu, Jiabao Liu, Ziliang Zeng, Renyuan Huang, Zhihao Huang, Qiancheng Zhao, Wenpeng Li, Zhilei Zhang, Liangbin Gao
    Neurospine.2024; 21(1): 231.     CrossRef
  • Contemporary utilization of three-column osteotomy techniques in a prospective complex spinal deformity multicenter database: implications on full-body alignment and perioperative course
    Tyler K. Williamson, Jamshaid M. Mir, Justin S. Smith, Virginie Lafage, Renaud Lafage, Breton Line, Bassel G. Diebo, Alan H. Daniels, Jeffrey L. Gum, D. Kojo Hamilton, Justin K. Scheer, Robert Eastlack, Andreas K. Demetriades, Khaled M. Kebaish, Stephen L
    Spine Deformity.2024; 12(6): 1793.     CrossRef
  • Commentary: Case Report of Angular Post-Tuberculotic Kyphosis Corrected Through Pedicle Subtraction Osteotomy Above C7
    Whitney E. Muhlestein, Sravanthi Koduri, Yamaan S. Saadeh, Michael J. Strong, Timothy J. Yee, Paul Park
    Operative Neurosurgery.2022; 22(2): e113.     CrossRef
  • Classification(s) of Cervical Deformity
    Austin C. Kaidi, Han Jo Kim
    Neurospine.2022; 19(4): 862.     CrossRef
  • Defining Cervical Sagittal Plane Deformity – When Are Sagittal Realignment Procedures Necessary in Patients Presenting Primarily With Radiculopathy or Myelopathy?
    Venu M. Nemani, Philip K. Louie, Caroline E. Drolet, John M. Rhee
    Neurospine.2022; 19(4): 876.     CrossRef
  • Factors Affecting Postoperative Complications and Outcomes of Cervical Spondylotic Myelopathy with Cerebral Palsy : A Retrospective Analysis
    Hyung Cheol Kim, Hyeongseok Jeon, Yeong Ha Jeong, Sangman Park, Seong Bae An, Jeong Hyun Heo, Dong Ah Shin, Seong Yi, Keung Nyun Kim, Yoon Ha, Sung-Rae Cho
    Journal of Korean Neurosurgical Society.2021; 64(5): 808.     CrossRef
  • 8,388 View
  • 188 Download
  • 10 Web of Science
  • 9 Crossref

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Artificial Intelligence for Adult Spinal Deformity
Neurospine. 2019;16(4):686-694.   Published online December 31, 2019
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Artificial Intelligence for Adult Spinal Deformity
Neurospine. 2019;16(4):686-694.   Published online December 31, 2019
Close
Adult spinal deformity (ASD) is a complex disease that significantly affects the lives of many patients. Surgical correction has proven to be effective in achieving improvement of spinopelvic parameters as well as improving quality of life (QoL) for these patients. However, given the relatively high complication risk associated with ASD correction, it is of paramount importance to develop robust prognostic tools for predicting risk profile and outcomes. Historically, statistical models such as linear and logistic regression models were used to identify preoperative factors associated with postoperative outcomes. While these tools were useful for looking at simple associations, they represent generalizations across large populations, with little applicability to individual patients. More recently, predictive analytics utilizing artificial intelligence (AI) through machine learning for comprehensive processing of large amounts of data have become available for surgeons to implement. The use of these computational techniques has given surgeons the ability to leverage far more accurate and individualized predictive tools to better inform individual patients regarding predicted outcomes after ASD correction surgery. Applications range from predicting QoL measures to predicting the risk of major complications, hospital readmission, and reoperation rates. In addition, AI has been used to create a novel classification system for ASD patients, which will help surgeons identify distinct patient subpopulations with unique risk-benefit profiles. Overall, these tools will help surgeons tailor their clinical practice to address patients’ individual needs and create an opportunity for personalized medicine within spine surgery.

Citations

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  • Development and validation of a machine learning model utilizing the ACS-NSQIP database for predicting early postoperative Re-operation in lumbar microdiscectomy
    Mert Marcel Dagli, Jaskeerat Gujral, Connor A. Wathen, Yohannes Ghenbot, John D. Arena, Joshua L. Golubovsky, Hasan S. Ahmad, Elie Massaad, John Shin, Jang W. Yoon, Ali K. Ozturk, William C. Welch
    Brain and Spine.2026; 6: 106108.     CrossRef
  • Artificial intelligence in orthopaedics: Clinical decision support, medical imaging, surgical planning, and outcome prediction
    Anirudh Dwajan, Deepak Ranjan Patro, Amber Agarwal, Mary Lalhmingmawii
    World Journal of Clinical Cases.2026;[Epub]     CrossRef
  • Automated quantification of the anatomic accuracy of muscle paths and its application in an image-based subject-specific modeling workflow for adult spinal deformity
    Birgitt Peeters, Erica Beaucage-Gauvreau, Lieven Moke, Ilse Jonkers, Friedl De Groote, Lennart Scheys
    Gait & Posture.2025; 119: 238.     CrossRef
  • Harnessing machine learning to predict and prevent proximal junctional kyphosis and failure in adult spinal deformity surgery: A systematic review
    Paolo Brigato, Gianluca Vadalà, Sergio De Salvatore, Leonardo Oggiano, Giuseppe Francesco Papalia, Fabrizio Russo, Rocco Papalia, Pier Francesco Costici, Vincenzo Denaro
    Brain and Spine.2025; 5: 104273.     CrossRef
  • Artificial Intelligence in Planning for Spine Surgery
    Iyad S. Ali, Yianni Bakaes, James S. MacLeod, Tony Y. Lee, Sia Cho, Wellington K. Hsu
    Current Reviews in Musculoskeletal Medicine.2025; 18(12): 627.     CrossRef
  • Implementation of artificial intelligence (AI) in ASD treatment
    Kyriakos D. Chatzis, Peter Tretiakov, Peter G. Passias
    North American Spine Society Journal (NASSJ).2025; 24: 100787.     CrossRef
  • From complexity to clarity: A perspective on personalized spine care through genetic, psychosocial, and technological advancements
    Favour Tope Adebusoye, Rohan S. Mane, Liyana Nithya Paaramee Priyankara, Mohammed Ahmed, Shubham Gaikwad, Jovan Ilic, Yash J. Pal, Brandon Lucke-Wold, Julie L. Chan, Daniel J. Hoh, Matthew Decker, Steven G. Roth, Daryl Pinion Fields, Paul R. Krafft
    Journal of Craniovertebral Junction and Spine.2025; 16(4): 379.     CrossRef
  • Artificial Intelligence in Spine Surgery
    Justin K. Scheer, Christopher P. Ames
    Neurosurgery Clinics of North America.2024; 35(2): 253.     CrossRef
  • Automated machine learning-based model for the prediction of pedicle screw loosening after degenerative lumbar fusion surgery
    Feng Jiang, Xinxin Li, Lei Liu, Zhiyang Xie, Xiaotao Wu, Yuntao Wang
    BioScience Trends.2024; 18(1): 83.     CrossRef
  • The value of machine learning technology and artificial intelligence to enhance patient safety in spine surgery: a review
    Fatemeh Arjmandnia, Ehsan Alimohammadi
    Patient Safety in Surgery.2024;[Epub]     CrossRef
  • Utilizing a comprehensive machine learning approach to identify patients at high risk for extended length of stay following spinal deformity surgery in pediatric patients with early onset scoliosis
    Michael W. Fields, Jay Zaifman, Matan S. Malka, Nathan J. Lee, Christina C. Rymond, Matthew E. Simhon, Theodore Quan, Benjamin D. Roye, Michael G. Vitale
    Spine Deformity.2024; 12(5): 1477.     CrossRef
  • Artificial Intelligence in Spinal Imaging and Patient Care: A Review of Recent Advances
    Sungwon Lee, Joon-Yong Jung, Akaworn Mahatthanatrakul, Jin-Sung Kim
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  • Manejo de la deformidad espinal en el contexto de fracturas por compresión vertebral osteoporóticas
    C. Mengis, N. Plais, F. Moreno, G. Cózar, F. Tomé-Bermejo, L. Álvarez-Galovich
    Revista Española de Cirugía Ortopédica y Traumatología.2024; 68(6): 615.     CrossRef
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    C. Mengis, N. Plais, F. Moreno, G. Cózar, F. Tomé-Bermejo, L. Álvarez-Galovich
    Revista Española de Cirugía Ortopédica y Traumatología.2024; 68(6): T615.     CrossRef
  • Pseudarthrosis following adult spinal deformity surgery may be predicted with preoperative MRI adipose tissue features: an artificial intelligence study on raw 3D imaging
    Graham W. Johnson, Hani Chanbour, Derek J. Doss, Ghassan S. Makhoul, Amir M. Abtahi, Byron F. Stephens, Scott L. Zuckerman
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    Yann Philippe Charles, Vincent Lamas, Yves Ntilikina
    Orthopaedics & Traumatology: Surgery & Research.2023; 109(1): 103456.     CrossRef
  • Postoperative Gravity Line-Hip Axis Offset as a Substantial Risk Factor for Mechanical Failure After Adult Spinal Deformity Correction Surgery
    Sungjae An, Seung-Jae Hyun, Jae-Koo Lee, Seung Heon Yang, Ki-Jeong Kim
    Neurosurgery.2023; 92(5): 998.     CrossRef
  • Predicting Mechanical Complications After Adult Spinal Deformity Operation Using a Machine Learning Based on Modified Global Alignment and Proportion Scoring With Body Mass Index and Bone Mineral Density
    Sung Hyun Noh, Hye Sun Lee, Go Eun Park, Yoon Ha, Jeong Yoon Park, Sung Uk Kuh, Dong Kyu Chin, Keun Su Kim, Yong Eun Cho, Sang Hyun Kim, Kyung Hyun Kim
    Neurospine.2023; 20(1): 265.     CrossRef
  • A bibliometric analysis of patient-reported outcome measures in adult spinal deformity, and the future of patient-centric outcome assessments in the era of predictive analytics
    David B. Kurland, Darryl Lau, Nora C. Kim, Christopher Ames
    Seminars in Spine Surgery.2023; 35(2): 101032.     CrossRef
  • In Silico Biomarkers of Motor Function to Inform Musculoskeletal Rehabilitation and Orthopedic Treatment
    Ilse Jonkers, Erica Beaucage-Gauvreau, Bryce Adrian Killen, Dhruv Gupta, Lennart Scheys, Friedl De Groote
    Journal of Applied Biomechanics.2023; 39(5): 284.     CrossRef
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    Jay Dalton, Ayman Mohamed, Noel Akioyamen, Frank J. Schwab, Virginie Lafage
    Neurosurgery Clinics of North America.2023; 34(4): 527.     CrossRef
  • Artificial Intelligence and Machine Learning in Spine Surgery
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    Contemporary Spine Surgery.2023; 24(9): 1.     CrossRef
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    Doaa A. Abdel Hady, Tarek Abd El-Hafeez
    Scientific Reports.2023;[Epub]     CrossRef
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    Sang-Youn Song, Min-Seok Seo, Chang-Won Kim, Yun-Heung Kim, Byeong-Cheol Yoo, Hyun-Ju Choi, Sung-Hyo Seo, Sung-Wook Kang, Myung-Geun Song, Dae-Cheol Nam, Dong-Hee Kim
    Bioengineering.2023; 10(10): 1229.     CrossRef
  • Artificial Intelligence to Preoperatively Predict Proximal Junction Kyphosis Following Adult Spinal Deformity Surgery: Soft Tissue Imaging May Be Necessary for Accurate Models
    Graham W. Johnson, Hani Chanbour, Mir Amaan Ali, Jeffrey Chen, Tyler Metcalf, Derek Doss, Iyan Younus, Soren Jonzzon, Steven G. Roth, Amir M. Abtahi, Byron F. Stephens, Scott L. Zuckerman
    Spine.2023; 48(23): 1688.     CrossRef
  • Development and Validation of an Online Calculator to Predict Proximal Junctional Kyphosis After Adult Spinal Deformity Surgery Using Machine Learning
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    Neurospine.2023; 20(4): 1272.     CrossRef
  • Commentary on “Development and Validation of an Online Calculator to Predict Proximal Junctional Kyphosis After Adult Spinal Deformity Surgery Using Machine Learning”
    In Ho Han
    Neurospine.2023; 20(4): 1281.     CrossRef
  • Can Machine Learning Accurately Predict Postoperative Compensation for the Uninstrumented Thoracic Spine and Pelvis After Fusion From the Lower Thoracic Spine to the Sacrum?
    Nathan J. Lee, Zeeshan M. Sardar, Venkat Boddapati, Justin Mathew, Meghan Cerpa, Eric Leung, Joseph Lombardi, Lawrence G. Lenke, Ronald A. Lehman
    Global Spine Journal.2022; 12(4): 559.     CrossRef
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    Carl Laverdière, Miltiadis Georgiopoulos, Christopher P. Ames, Jason Corban, Pouyan Ahangar, Khaled Awadhi, Michael H. Weber
    Global Spine Journal.2022; 12(4): 689.     CrossRef
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    European Spine Journal.2022; 31(8): 2007.     CrossRef
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    Yonsei Medical Journal.2022; 63(4): 305.     CrossRef
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    Neurospine.2022; 19(1): 236.     CrossRef
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    European Spine Journal.2022; 31(8): 2057.     CrossRef
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    Frontiers in Bioengineering and Biotechnology.2022;[Epub]     CrossRef
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    Samuel S. Rudisill, Alexander L. Hornung, J. Nicolás Barajas, Jack J. Bridge, G. Michael Mallow, Wylie Lopez, Arash J. Sayari, Philip K. Louie, Garrett K. Harada, Youping Tao, Hans-Joachim Wilke, Matthew W. Colman, Frank M. Phillips, Howard S. An, Dino Sa
    European Spine Journal.2022; 31(8): 2104.     CrossRef
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    Journal of Neurosurgery: Spine.2022; 37(1): 104.     CrossRef
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    Diagnostics.2022; 12(11): 2732.     CrossRef
  • CORR Insights®: Are Higher Global Alignment and Proportion Scores Associated With Increased Risks of Mechanical Complications After Adult Spinal Deformity Surgery? An External Validation
    Kornelis A. Poelstra
    Clinical Orthopaedics & Related Research.2021; 479(2): 321.     CrossRef
  • Surgical treatment of senile spinal diseases
    Dal-Sung Ryu, Seung-Hwan Yoon
    Journal of the Korean Medical Association.2021; 64(3): 191.     CrossRef
  • Artificial intelligence for adult spinal deformity: current state and future directions
    Rushikesh S. Joshi, Darryl Lau, Christopher P. Ames
    The Spine Journal.2021; 21(10): 1626.     CrossRef
  • Selection of Fusion Level for Adolescent Idiopathic Scoliosis Surgery : Selective Fusion versus Postoperative Decompensation
    Do-Hyoung Kim, Seung-Jae Hyun, Ki-Jeong Kim
    Journal of Korean Neurosurgical Society.2021; 64(4): 473.     CrossRef
  • Preoperative Radiological Parameters to Predict Clinical and Radiological Outcomes after Laminoplasty
    Su Hun Lee, Dong Wuk Son, Jun Jae Shin, Yoon Ha, Geun Sung Song, Jun Seok Lee, Sang Weon Lee
    Journal of Korean Neurosurgical Society.2021; 64(5): 677.     CrossRef
  • Commentary on “Emerging Technologies in the Treatment of Adult Spinal Deformity”
    Seung-Jae Hyun
    Neurospine.2021; 18(3): 428.     CrossRef
  • Commentary on “Characteristics and Risk Factors of Rod Fracture Following Adult Spinal Deformity Surgery: A Systematic Review and Meta-Analysis”
    Junseok Bae
    Neurospine.2021; 18(3): 455.     CrossRef
  • The Important Role of Paraspinal Muscle Quality for Maintaining Sagittal Balance While Walking: Commentary on “Correlation of Paraspinal Muscle Mass With Decompensation of Sagittal Adult Spinal Deformity After Setting of Fatigue Post 10-Minute Walk”
    Kyung-Hyun Kim
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Introduction

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Artificial Intelligence and the Future of Spine Surgery
Neurospine. 2019;16(4):637-639.   Published online December 31, 2019
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Artificial Intelligence and the Future of Spine Surgery
Neurospine. 2019;16(4):637-639.   Published online December 31, 2019
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Brief History of Spinal Neurosurgical Societies in the United States: Part 1
Neurospine. 2019;16(4):631-636.   Published online December 31, 2019
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Brief History of Spinal Neurosurgical Societies in the United States: Part 1
Neurospine. 2019;16(4):631-636.   Published online December 31, 2019
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