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"Han Jo Kim"

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Minimally Invasive Spine Surgery

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Distinct Recovery Patterns After Transforaminal Lumbar Interbody Fusion: Comparing Minimally Invasive and Open Approaches Using Mixed-Effects Segmented Regression
Neurospine. 2025;22(1):3-13.   Published online March 31, 2025
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Distinct Recovery Patterns After Transforaminal Lumbar Interbody Fusion: Comparing Minimally Invasive and Open Approaches Using Mixed-Effects Segmented Regression
Neurospine. 2025;22(1):3-13.   Published online March 31, 2025
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Objective
While minimally invasive-transforaminal lumbar interbody fusion (MIS-TLIF) has shown superiority in key clinical metrics over the open approach, evidence regarding patient-reported outcomes remains limited. This study compared postoperative recovery trajectories and symptomatic improvement phases between MIS and open TLIF.
Methods
This retrospective review included patients who underwent single-level MIS or open TLIF. Oswestry Disability Index (ODI) and Numerical Rating Scale (NRS) for back and leg pain were collected preoperatively and postoperatively. Segmented regression analysis with mixed-effects modeling, allowing for identification of distinct recovery phases, compared symptomatic trends between approaches.
Results
Of 324 patients (268 MIS, 56 open), baseline demographics were similar except for greater preoperative leg pain in the MIS group (NRS: 6.0 vs. 5.0, p = 0.027). A segmented regression model identified 4 ODI recovery phases: postoperative disability phase (PDP, day 0 to 13), early improvement phase (day 13 to 28), late improvement phase (day 28 to 110), and plateau phase (later than day 110). The MIS group exhibited significantly lower disability exacerbation during PDP (β = 0.93 vs. 1.42 points per day, p = 0.008). Additionally, the plateau of NRS back occurred significantly earlier in the MIS group than in the open group (MIS, 26.7 ± 2.6 days vs. open, 51.7 ± 6.6 days, p < 0.001).
Conclusion
MIS-TLIF resulted in lower postoperative disability during the first 2 weeks compared to the open approach. Furthermore, low back pain achieved an earlier plateau in back pain by about 4 weeks in the MIS approach.

Citations

Citations to this article as recorded by  Crossref logo
  • Multifidus Muscle Atrophy Predicts Spinal Cage Subsidence After Lumbar Fusion
    Cong Zhang, Chengming Li, Xiaotao Wu, Xiaozhi Sun
    Journal of Pain Research.2026; Volume 19: 1.     CrossRef
  • Biomaterials and Noncoding RNA: The “Repair‐Alliance” Perspective in Intervertebral Disc Degeneration
    Chen Liu, Zhengguang Li, Yongbo Zhang, Tianyi Ji, Hua Sun, Gen Wei, Liang Zhang, Juqun Xi
    Advanced Healthcare Materials.2026;[Epub]     CrossRef
  • Modified Integrated Health State Suggests Lower Cumulative Neck Pain–Related Disability After Cervical Disk Replacement Compared With Anterior Cervical Diskectomy and Fusion
    Tomoyuki Asada, Adin M. Ehrlich, Sereen Halayqeh, Eric R. Zhao, Adrian T. H. Lui, Andrea Pezzi, Austin C. Kaidi, Kasra Araghi, Vishaal Nayagam, Roger Freeman, Olivia C. Tuma, Tarek Harhash, Harvinder S. Sandhu, Todd J. Albert, Han Jo Kim, James C. Farmer,
    Neurosurgery.2026;[Epub]     CrossRef
  • Efficacy of low-dose Escherichia coli-derived recombinant human bone morphogenetic protein-2 in minimally invasive transforaminal lumbar interbody fusion
    Tae Hoon Kang, Jeongwoon Han, Minjoon Cho, Jae Hyup Lee
    European Spine Journal.2025;[Epub]     CrossRef
  • 7,783 View
  • 215 Download
  • 4 Web of Science
  • 4 Crossref

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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.

Citations

Citations to this article as recorded by  Crossref logo
  • 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
  • 5,047 View
  • 158 Download
  • 3 Web of Science
  • 1 Crossref

Letter to the Editor

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Reply to Commentary on “Classification(s) of Cervical Deformity”
Neurospine. 2023;20(1):408-409.   Published online March 31, 2023
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Reply to Commentary on “Classification(s) of Cervical Deformity”
Neurospine. 2023;20(1):408-409.   Published online March 31, 2023
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  • 3,870 View
  • 131 Download

Review Articles

CSRS Special Issue

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Classification(s) of Cervical Deformity
Neurospine. 2022;19(4):862-867.   Published online December 31, 2022
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Classification(s) of Cervical Deformity
Neurospine. 2022;19(4):862-867.   Published online December 31, 2022
Close
Cervical spine deformities (CSD) are complex surgical issues with currently heterogenous management strategies. The classification of CSD is still an evolving field. Rudimentary classification schemas were initially proposed in the late 20th century but were largely informal and based on the underlying etiology (i.e. , postsurgical, traumatic, or inflammatory). The first formal classification schema was proposed by Ames et al. in 2015 who established a standard nomenclature for describing these deformities. This classification system established 5 deformity descriptors based on curve apex location (cervical, cervicothoracic, thoracic, craniovertebral junctional, and coronal deformities) and 5 deformity modifiers which helped surgeons utilize a standard language when discussing CSD patients. Koller et al. in 2019 subsequently established a classification system for patients with rigid cervical kyphosis based on regional and global sagittal alignment. Most recently, Kim et al. in 2020 proposed an updated classification system utilizing dynamic cervical spine imaging to guide surgical treatment of CSD patients. It identified 4 major groups of deformities – (1) those with “flat-neck” deformities caused by cervical lordosis T1 slope mismatch; (2) those with focal kyphotic deformities between 2 cervical vertebrae; (3) those with cervicothoracic deformities caused by large T1 slope; and (4) those with coronal deformities. Group 2 deformities most often required combined anterior-posterior approaches with short constructs, and group 3 deformities most often required posterior-only approaches with 3-column osteotomies.

Citations

Citations to this article as recorded by  Crossref logo
  • Current Concepts of Sagittal Alignment in Adult Cervical Deformity
    Zeeshan M. Sardar, Justin L. Reyes, Josephine R. Coury, K. Daniel Riew
    Journal of the American Academy of Orthopaedic Surgeons.2026; 34(2): e176.     CrossRef
  • Atlantoaxial rotatory fixation
    Peter M. Cirrincione, Jessica H. Heyer
    Current Opinion in Pediatrics.2026; 38(1): 73.     CrossRef
  • Surgical management of congenital C2 over C3 spondyloptosis with severe cervical kyphosis: two case reports
    Shaodong Mo, Yuanquan Chen, Zhen Che, Jing Xu, Rald Groven, Frank Hildebrand, Honglei Yi, Hu Chen, Fuzhi Ai
    European Spine Journal.2026; 35(6): 3612.     CrossRef
  • 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
  • Pediatric Syndromic Cervical Kyphosis – Tips and Tricks: A Case-based Review
    Manoj Phalak, Vivek Yadav, Sachin Borkar, Shashank Sharad Kale
    Journal of Spinal Surgery.2026; 13(1): 53.     CrossRef
  • Bibliometric analysis of the top 50 most-cited articles on cervical deformities: a web of science database study
    Julia Diamandi, Amelia Stepniak, Hannah Tetreault, Regan M. Shanahan, Qazi Zeeshan, David T. Fernandes Cabral, Nitin Agarwal, D. Kojo Hamilton
    Spine Deformity.2026; 14(4): 1147.     CrossRef
  • Proposal of a Cervical Sagittal Classification System to Guide Surgical Treatment for Adult Cervical Deformity
    Zeeshan M. Sardar, Roy Miller, Justin L. Reyes, Alexandra C. Dionne, Josephine R. Coury, Fthimnir M. Hassan, Jean-Charles Le Huec, Stephane Bourret, Kazuhiro Hasegawa, Hee Kit Wong, Gabriel Liu, Hwee Weng Dennis Hey, Michael P. Kelly, Lawrence G. Lenke
    Spine.2026; 51(11): 773.     CrossRef
  • Risk factors associated with distal junctional kyphosis and failure after surgical management of adult cervical deformity: a systematic review
    Davin C. Gong, Anthony N. Baumann, Zhaorui Wang, Omkar S. Anaspure, Muhammad Waheed, Evan J. Beck, Rakesh D. Patel, Ilyas S. Aleem
    European Spine Journal.2025; 34(8): 3430.     CrossRef
  • Post-MVC Cervical Kyphosis Deformity Reduction Using Chiropractic BioPhysics Protocols: 1-Year Follow-Up Case Report
    Nicholas J. Smith, Thomas J. Woodham, Miles O. Fortner
    Healthcare.2025; 13(19): 2459.     CrossRef
  • A Narrative Review of Cervical Spinal Deformity
    Srikanth N. Divi, Tyler M. Compton, Daniel E. Herrera, Wellington K. Hsu, Alpesh A. Patel
    Clinical Spine Surgery.2025; 38(9): 393.     CrossRef
  • Reducing Chronic Spine Pain in an Adult Male by Decreasing Lumbar Scoliosis and Increasing Cervical Lordosis Using Chiropractic BioPhysics® Protocols: A 26-Month Follow-Up Case Report
    Jason W Haas, Miles O Fortner, Thomas J Woodham, Deed E Harrison
    Cureus.2024;[Epub]     CrossRef
  • Atlantoaxial Instability in the Course of Rheumatoid Arthritis in Relation to Selected Parameters of Sagittal Balance
    Robert Wróblewski, Małgorzata Mańczak, Robert Gasik
    Journal of Clinical Medicine.2024; 13(15): 4441.     CrossRef
  • So Close yet So Far: The impact of undercorrection of cervical sagittal alignment during adult cervical deformity surgery − An Incremental correction analysis
    Ankita Das, Anthony Yung, Oluwatobi Onafowokan, Jamshaid Mir, Max R. Fisher, Tyler K. Williamson, Ethan J. Cottrill, Zorica Buser, Peter S. Tretiakov, Khoi D. Than, Neil V. Shah, Christopher I. Shaffrey, Peter G. Passias
    Journal of Clinical Neuroscience.2024; 130: 110869.     CrossRef
  • Reply to Commentary on “Classification(s) of Cervical Deformity”
    Austin C. Kaidi, Han Jo Kim
    Neurospine.2023; 20(1): 408.     CrossRef
  • Commentary on “Classification(s) of Cervical Deformity”
    Atul Goel
    Neurospine.2023; 20(1): 405.     CrossRef
  • From the Spinopelvic Parameters to Global Alignment and Proportion Scores in Adult Spinal Deformity
    Yongjae Cho, Dae Jean Jo, Seung-Jae Hyun, Jin Hoon Park, Na Rae Yang
    Neurospine.2023; 20(2): 467.     CrossRef
  • Optimizing Surgical Strategy for Cervical Spinal Deformity: Global Alignment and Surgical Targets
    Jae-Koo Lee, Seung-Jae Hyun, Ki-Jeong Kim
    Neurospine.2023; 20(4): 1246.     CrossRef
  • 8,719 View
  • 382 Download
  • 17 Web of Science
  • 17 Crossref

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Cervical Deformity: Evaluation, Classification, and Surgical Planning
Neurospine. 2020;17(4):833-842.   Published online December 31, 2020
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Cervical Deformity: Evaluation, Classification, and Surgical Planning
Neurospine. 2020;17(4):833-842.   Published online December 31, 2020
Close
Cervical deformity is a challenging condition to treat and requires complex decision-making. Apart from a thorough history and physical examination, a thoughtful and quantitative analysis of multiple imaging modalities is critical for understanding the nature and driver of the cervical deformity. A few classification schemes have emerged, and it is now clear that dynamic films are invaluable as they capture the extension reserve that patients can use to compensate for malalignment. These classification systems can help guide surgical planning, because the various subgroups have different properties that lend themselves to specific treatment paradigms. Here we review the clinical and radiographic evaluation, classification, and surgical planning for cervical deformity.

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
  • Progressive Acquired Cervical Deformity With Myelopathy Managed by Occipitocervicothoracic Fusion: A Case Report
    Kyle Molinari, Nicolas A Siegelman, Steven Leckie
    Cureus.2026;[Epub]     CrossRef
  • Infinity: A Prospective Trial for Safety and Accuracy of Navigated Posterior Cervical and Thoracic Instrumentation in Long-segment Fusions
    Joshua L. Wang, Ryan G. Eaton, Joravar Dhaliwal, Chi Shing Lam, David S. Xu, Stephanus V. Viljoen, Andrew J. Grossbach
    Spine.2025; 50(4): 224.     CrossRef
  • Are Patient-Reported drug allergies associated with perioperative complications following adult cervical deformity correction?
    Stephane Owusu-Sarpong, Tyler K. Williamson, Lauren Holladay, Nina Fisher, Andrew Bi, Peter G. Passias
    Journal of Orthopaedic Reports.2025; 4(3): 100604.     CrossRef
  • Lower C2 slope and milder uncovertebral joint degeneration are risk factors for pseudarthrosis after single-level anterior cervical corpectomy and fusion (ACCF): retrospective study of 102 patients with minimum 2-year follow-up
    Haoxiang Wang, Tian Xia, Ruomu Qu, Hanbo Geng, Yu Sun, Fengshan Zhang, Shengfa Pan, Xin Chen, Yanbin Zhao, Feifei Zhou
    Journal of Orthopaedic Surgery and Research.2025;[Epub]     CrossRef
  • Exploring “Intoxicated Syndrome”: A rare case of cervical kyphoscoliosis due to drug abuse
    Majid Rezvani, Seyedali Modarres Sadeghi, Farid Masaeli, Anish Thapa, Ashani Shah, Farhad Mahmoudi
    Clinical Case Reports.2025;[Epub]     CrossRef
  • A Systematic Review of the Effect of Osteoporosis on Radiographic Outcomes, Complications, and Reoperation Rate in Cervical Deformity
    Ishan Shah, Elizabeth A. Lechtholz-Zey, Mina Ayad, Brandon S. Gettleman, Emily Mills, Hannah Shelby, Andy Ton, William J. Karakash, Apurva Prasad, Jeffrey C. Wang, Ram K. Alluri, Raymond J. Hah
    Journal of Clinical Medicine.2025; 14(17): 6196.     CrossRef
  • Clinical Classification of Adolescent Cervicothoracic Hemivertebra Treated with Surgical Intervention Incorporating Shoulder Balance Considerations
    Jinhui Wu, Biao Yang, Yefeng Zhao, Ce Wang, Xuhui Zhou
    World Neurosurgery.2025; 202: 124362.     CrossRef
  • Management of cervical kyphotic deformity after intradural tumor resection in pediatric patients
    PAULA DE CAMPOS CALASSARA, GIANCARLO JORIO ALMEIDA, MARIANA CHANTRE-JUSTINO, ALDERICO GIRãO CAMPOS DE BARROS, LUíS E. CARELLI
    Coluna/Columna.2025;[Epub]     CrossRef
  • The Role of Enabling Technologies in the Surgical Management of Cervical Spine Deformity
    Rahul Bhale, Hania Shahzad, Richard Price, Wilson Z. Ray, Frank Phillips, Hai V. Le, Yashar Javidan, Safdar N. Khan
    Clinical Spine Surgery.2025; 38(9): 459.     CrossRef
  • The Evolution of Enhanced Recovery After Surgery
    Peter G. Passias, Peter S. Tretiakov, Oluwatobi O. Onafowokan, Matthew Galetta, Nathan Lorentz, Jamshaid M. Mir, Ankita Das, Pooja Dave, Renaud Lafage, Timothy Yee, Bassel Diebo, Shaleen Vira, Pawel P. Jankowski, Aaron Hockley, Alan Daniels, Andrew J. Sch
    Clinical Spine Surgery.2024; 37(4): 182.     CrossRef
  • Is the disappearance of the cervical flexion-relaxation phenomenon associated with cervical degeneration in healthy people?
    Peifeng He, Yunbo Yang, Minglang Wang, Dan Li, Hao Yuan, Jianxiong Wang, Qiang He, Daxiong Feng, Xuanwen Liu
    European Spine Journal.2024; 33(8): 2997.     CrossRef
  • Expectations of clinical improvement following corrective surgery for adult cervical deformity based on functional disability at presentation
    Peter G. Passias, Oluwatobi O. Onafowokan, Rachel Joujon-Roche, Justin Smith, Peter Tretiakov, Thomas Buell, Bassel G. Diebo, Alan H. Daniels, Jeffrey L. Gum, D. Kojo Hamiltion, Alex Soroceanu, Justin Scheer, Robert K. Eastlack, Richard G. Fessler, Eric O
    Spine Deformity.2024; 12(5): 1431.     CrossRef
  • SOP Ventrale Stabilisierung der subaxialen HWS
    Jonathan Neuhoff, Alexander Wengert, Philipp Schleicher, Andreas Pingel, Frank Kandziora
    Orthopädie und Unfallchirurgie up2date.2024; 19(05): 429.     CrossRef
  • So Close yet So Far: The impact of undercorrection of cervical sagittal alignment during adult cervical deformity surgery − An Incremental correction analysis
    Ankita Das, Anthony Yung, Oluwatobi Onafowokan, Jamshaid Mir, Max R. Fisher, Tyler K. Williamson, Ethan J. Cottrill, Zorica Buser, Peter S. Tretiakov, Khoi D. Than, Neil V. Shah, Christopher I. Shaffrey, Peter G. Passias
    Journal of Clinical Neuroscience.2024; 130: 110869.     CrossRef
  • Factors related to T1 slope: spinopelvic balance and thoracic compensation
    Chengxin Liu, Yongjin Li, Xiangyu Li, Bin Shi, Shibao Lu
    BMC Surgery.2023;[Epub]     CrossRef
  • Odontoid Incidence: A Novel Cervical Parameter Influencing Cervical Alignment From Top to Bottom
    Jae-Koo Lee, Seung-Jae Hyun, Ki-Jeong Kim
    Neurospine.2022; 19(2): 463.     CrossRef
  • Does the asymmetry and extension function of the preoperative cervical paraspinal extensor predict postoperative cervical sagittal deformity in patients who undergo modified laminoplasty?
    Sibo Lin, Taotao Lin, Zhengru Wu, Gang Chen, Zhitao Shangguan, Zhenyu Wang, Wenge Liu
    The Spine Journal.2022; 22(12): 1953.     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
  • Regional Anesthesia for Lumbar Spine Surgery: Can It Be a Standard in the Future?
    Jae-Koo Lee, Jong Hwa Park, Seung-Jae Hyun, Daniel Hodel, Oliver N. Hausmann
    Neurospine.2021; 18(4): 733.     CrossRef
  • 11,239 View
  • 437 Download
  • 19 Web of Science
  • 21 Crossref