Thoracic and vertebral deformities in lung transplantation: perioperative complications and long-term prognoses.

BACKGROUND: Lung transplantation (LTx) is a crucial therapeutic strategy for patients suffering from end-stage respiratory diseases, necessitating precise donor-recipient size matching to ensure optimal graft function. While standard allocation protocols rely on predicted lung capacity based on factors such as sex, age, and height, a subset of patients with respiratory diseases presents an additional challenge - thoracic or vertebral deformities. These deformities can complicate accurate volume predictions and may impact the success of lung transplantation. METHODS: In this retrospective cohort study of patients who underwent LTx at Tohoku University Hospital between January 2007 and April 2022, with follow-up until October 2022, the primary objective was to assess the influence of thoracic and vertebral deformities on perioperative complications, emphasizing interventions, such as volume reduction surgery. The secondary objective aimed to identify any noticeable impact on long-term prognoses in recipients with these deformities. RESULTS: Of 129 LTx recipients analyzed, 17.8% exhibited thoracic deformities, characterized by pectus excavatum, while 16.3% had vertebral deformities. Perioperative complications, requiring delayed chest closure, tracheostomy, and volume reduction surgery, were more prevalent in the deformity group. Thoracic deformities were notably associated with the need for volume reduction surgery. However, long-term prognoses did not differ significantly between patients with deformities and those without. Vertebral deformities did not appear to significantly impact perioperative or long-term outcomes. CONCLUSIONS: This study highlights the prevalence of thoracic deformities in LTx recipients, correlating with increased perioperative complications, particularly the potential need for volume reduction surgery. Importantly, these deformities do not exert a significant impact on long-term prognoses. Additionally, patients with vertebral deformities, such as scoliosis and kyphosis, appear to be manageable in the context of LTx.

Is impaired lung function related to spinal deformities in patients with adolescent idiopathic scoliosis? A systematic review and meta-analysis-SOSORT 2019 award paper.

PURPOSE: Some teenagers with adolescent idiopathic scoliosis (AIS) display compromised lung function. However, the evidence regarding the relations between pulmonary impairments and various spinal deformity parameters in these patients remains unclear, which affects clinical management. This systematic review and meta-analysis aimed to summarize the associations between various lung function parameters and radiographic features in teenagers with AIS. METHODS: A search of PubMed, Embase, PEDro, SPORTDiscus, CINAHL, Cochrane Library, and PsycINFO (from inception to March 14, 2022) without language restriction. Original studies reporting the associations between lung function and spinal deformity in patients with AIS were selected. Independent reviewers extracted data and evaluated the methodological quality of the included studies according to Preferred Reporting Items for Systematic Reviews and Meta-Analyses guidelines. Pearson correlation and 95% confidence intervals were calculated using random-effects meta-analysis. RESULTS: Twenty-seven studies involving 3162 participants were included. Limited-quality evidence supported that several spinal parameters were significantly related to lung function parameters (e.g., absolute value and percent of the predicted forced vital capacity (FVC; %FVC), forced expiratory volume in one second (FEV1; %FEV1), and total lung capacity (TLC; %TLC)) in AIS patients. Specifically, meta-analyses showed that main thoracic Cobb angles in the coronal plane were significantly and negatively related to FVC (r = - 0.245), %FVC (r = - 0.302), FEV1 (r = - 0.232), %FEV1 (r = - 0.348), FEV1/FVC ratio (r = - 0.166), TLC (r = - 0.302), %TLC (r = - 0.183), and percent predicted vital capacity (r = - 0.272) (p < 0.001). Similarly, thoracic apical vertebral rotation was negatively associated with %FVC (r = - 0.215) and %TLC (r = - 0.126) (p < 0.05). Conversely, thoracic kyphosis angles were positively related to %FVC (r = 0.180) and %FEV1 (r = 0.193) (p < 0.05). CONCLUSION: Larger thoracic Cobb angles, greater apical vertebral rotation angle, or hypokyphosis were significantly associated with greater pulmonary impairments in patients with AIS, although the evidence was limited. From a clinical perspective, the results highlight the importance of minimizing the three-dimensional spinal deformity in preserving lung function in these patients. More research is warranted to confirm these results.

Surgical treatment of spinal deformities in spinal muscular atrophy: a single-center experience from China.

PURPOSE: To report the clinical characteristics and surgical outcomes of scoliosis in patients with spinal muscular atrophy (SMA) from Mainland China. METHODS: Nineteen patients were retrospectively analyzed. Demographic, anthropometric and respiratory parameters were collected preoperatively. Surgical program was analyzed. Radiographic data were measured perioperatively. Motor status, ventilation support, sitting ability and respiratory symptoms were evaluated preoperatively and at final follow-up. RESULTS: Age at surgery was 17.08 (12.83, 20.08) years. More than 40% of patients were diagnosed with low weight. Pulmonary dysfunction was observed in all patients. All patients received posterior spinal fusion (PSF). Sacroiliac fixation with sacral-2 alar iliac technique was used in 16 patients. Major curve correction rate was 54.87 ± 16.14%. Pelvic obliquity correction rate was 63.84 ± 23.70%. T1-T12 height, space-available-for-lung ratio and thoracic transverse diameter were increased (p < 0.001). Percentage of patients capable of sitting independently increased from 26.32% preoperatively to 73.68% at final follow-up. Cumulative scores of sitting-related items in muscular dystrophy spine questionnaire improved from 19.11 ± 5.40 preoperatively to 26.21 ± 5.20 at final follow-up. Total scores of symptomatic domains in St. George's Respiratory Questionnaire decreased from 4 (2, 12) preoperatively to 1 (0, 3) at final follow-up. CONCLUSIONS: SMA patients in China always present severe scoliosis at late adolescence, accompanied with high proportion of low weight and pulmonary dysfunction. PSF is effective for the correction of scoliosis and pelvic obliquity and the improvement of thoracic morphology. Sitting ability and respiratory symptoms were improved postoperatively.

Predicting preoperative pulmonary function in patients with thoracic adolescent idiopathic scoliosis from spinal and thoracic radiographic parameters.

PURPOSE: The objective was to analyse the effect of thoracic morphology on pulmonary function in adolescent idiopathic scoliosis (AIS) to predict preoperative lung function. METHODS: A total of 170 consecutive preoperative patients (average age 15.1 years) with Lenke 1 and 2 AIS underwent pulmonary function testing. Thirteen deformity parameters, including rib hump size, rib asymmetry, spinal intrusion and thoracic/lung dimensions in the sagittal and coronal plane, were measured on whole-spine radiographs. Lung function parameters were expressed as z-scores. Correlation and regression analysis of these parameters with lung function were performed. RESULTS: Mean thoracic Cobb (MT) was 69.1°, and mean T5-T12 thoracic kyphosis (TK) was 21.8°. MT correlated significantly with FEV1 and FVC (rs = - 0.40 and - 0.38). TK correlated weakly with FEV1 and FEV1/FVC (rs = 0.23 and 0.25). FEV1 and FVC were best predicted by the inverse apical vertebra body-rib ratio (AVBRr-1, rs = 0.46 and 0.42), rib hump depth index (RHDi, rs = - 0.52 and - 0.50) and spinal intrusion ratio (SIr, rs = - 0.50 and - 0.45). The kyphosis-lordosis index (KLi) correlated with FEV1/FVC (rs = 0.29). Multivariate regression analysis of coronal and sagittal Cobb angles produced a model which explained 35% and 30% of the variance in FEV1 and FVC, whilst a regression model consisting of AVBRr-1 and SIr was able to predict 54% and 48%. CONCLUSION: AVBRr-1, RHDi and SIr measured on posterior-anterior and lateral radiographs provide better estimations of lung function in preoperative AIS patients than Cobb measurements. KLi was an indicator of airway obstruction as measured by FEV1/FVC.

Computed tomography-based bronchial tree three-dimensional reconstruction and airway resistance evaluation in adolescent idiopathic scoliosis.

PURPOSE: To investigate airway development and airway resistance by computed tomographic three-dimensional (3D) reconstruction of the bronchial tree in patients with adolescent idiopathic scoliosis (AIS). We evaluated factors predicting postoperative respiratory complications to provide timely treatment, prevent complications, and improve operative and anesthetic safety. METHODS: From August 2015 to August 2017, 53 AIS patients with a mean age of 15.4 years (range 10-20 years) were included in this study. Scoliotic parameters on radiographs were analyzed. Airway resistance was obtained by pulmonary function testing. All patients' pulmonary bronchial trees were 3D-reconstructed via chest thin layer computed tomography to explore the correlation between the spinal-thoracic deformity parameters and airway resistance. RESULTS: Correlations between scoliotic parameters and airway development parameters were not statistically significant (P > 0.05). The scoliotic parameters such as Cobb angle, apical vertebral translation, rotation angle to sagittal plane, rotation angle to middle line, and apical vertebral body-rib ratio (AVB-R) were positively correlated with tracheal bifurcation angle (R2: 0.429, 0.374, 0.430, 0.504, and 0.414, respectively; P < 0.05). Cobb angle, rib hump, and apical vertebral body-rib ratio (AVB-R) were positively correlated with left principal bronchus length to right principal bronchus length (PBL-R) (R2: 0.373, 0.503, and 0.377, respectively; P < 0.05). Superficial area of bronchial tree (SABT) and narrow cross section of trachea (NCT) were negatively correlated with plethysmography Pre-Ref resistance ratio (Pre/Ref) (R2: - 0.365 and - 0.452, respectively; P < 0.05). SABT and NCT were negatively correlated with respiratory impedance (Zrs) (R2: - 0.327 and - 0.436, respectively; P < 0.05). CONCLUSIONS: Pulmonary bronchial development in patients with AIS is affected by spinal-thoracic deformity. Comprehensive assessment of preoperative pulmonary function, especially airway resistance, is necessary in patients with AIS whether the thoracic scoliosis is severe or mild-to-moderate. These slides can be retrieved under Electronic Supplementary Material.

[Long-term outcome of lipomodeling in Poland's syndrome: about our first case with an eleven-years' follow-up]. / Évolution de la reconstruction mammaire par lipomodelage dans le syndrome de Poland: à propos d'un cas avec un recul de onze ans.

Poland's syndrome is a rare congenital malformation with thoracic and breast deformities very difficult to treat. Several techniques can be used involving, sometimes, implant insertion. Most of the classic techniques could not be used in this patient. Particularly, the transfer of the latissimus dorsi flap could not be performed because of the agenesis of the muscle. Lipomodeling is used, in our team, for breast reconstruction since 1998. This case was described and published one year after the end of the reconstruction in 2004. The immediate outcome appeared very satisfying and effective but some surgeons remained skeptical. An important question remains: what about the long-term efficiency and stability of the reconstruction? In this review, we report our first case of severe Poland's syndrome treated eleven years ago with lipomodeling. The patient was twelve years old. She had a severe form of Poland's syndrome. Five fat grafting sessions were performed between 2001 and 2003, for a total transfer of 809 ml. Today, outcome is very satisfying with a natural breast shape, consistency and sensitivity. An increase of volume in the reconstructed breast is noted. It is due to a rapid and significant weight gain by the patient. We performed two shorts movies describing this outcome one year and ten years after the reconstruction. It confirms the stability and the sustainability of the reconstruction. Lipomodeling does not interfere with breast ultrasound surveillance. Fat grafting deeply improved outcomes and management of thoracic and breast deformities in Poland's syndrome.

Bilateral Costal Cartilage Harvest for Auricle Reconstruction: A New Technique to Prevent Postoperative Thoracic Deformity.

HYPOTHESIS: Unilateral costal cartilage harvesting (UCCH) for auricle reconstruction in children tends to cause thoracic deformities. Therefore, our study aimed to develop a novel bilateral costal cartilage harvesting (BCCH) method to prevent and reduce thoracic deformities. METHODS: Patients with unilateral microtia who underwent either UCCH (n = 50) or BCCH (n = 46) were enrolled in this study. The grafts for the BCCH group were harvested from the 6th costal cartilage of the ipsilateral hemithorax and the 7th and 8th cartilage from the other hemithorax. Computed tomography and physical examination were performed to identify any physical deformities in the chest contours post-surgery. The cosmetic appearance of the thoracic scars post-surgery was evaluated using the Scar Cosmesis Assessment and Rating Scale (SCAR) and Visual Analogue Scales (VAS cosmetic). The numerical rating scale (NRS) was used to quantify the pain in donor sites. The reconstructed ears were assessed during the follow-up period. RESULT: None of the patients in the BCCH group developed thoracic deformities, while 16 patients within the UCCH group developed mild (n = 12) or severe (n = 4) thoracic deformities (p < 0.001). The SCAR (3.09 vs. 2.92, p = 0.580) and VAS scores (0.96 vs. 0.90, p = 0.813) did not differ significantly between the two groups. For both treatment arms, the NRS scores were highest on the first-day post-surgery and gradually dropped over the 10 days. No significant differences were found in the NRS scores and the aesthetic outcomes of the reconstructed ears between the two groups. CONCLUSION: The BCCH method effectively reduced the incidence of thoracic deformity at the donor site without increasing postoperative pain and cosmetic concerns for patients. It could be used clinically to improve patient outcomes of costal cartilage grafts. LEVEL OF EVIDENCE: 4 Laryngoscope, 134:3572-3580, 2024.

Surgical timing for asphyxiating thoracic dystrophy.

This report describes a 4-year-old girl diagnosed with asphyxiating thoracic dystrophy who experienced severe respiratory distress and multiple complications after undergoing a corrective operation for a thoracic deformity. The optimal age for children with asphyxiating thoracic dystrophy to receive a corrective operation is between 6 and 12 years old. For children under 6 years old, the decision to undergo an operation should be carefully evaluated.

Effects of spinal deformities on lung development in children: a review.

Scoliosis before the age of 5 years is referred to as early-onset scoliosis (EOS). While causes may vary, EOS can potentially affect respiratory function and lung development as children grow. Moreover, scoliosis can lead to thoracic insufficiency syndrome when aggravated or left untreated. Therefore, spinal thoracic deformities often require intervention in early childhood, and solving these problems requires new methods that include the means for both deformity correction and growth maintenance. Therapeutic strategies for preserving the growing spine and thorax include growth rods, vertically expandable titanium artificial ribs, MAGEC rods, braces and casts. The goals of any growth-promoting surgical strategy are to alter the natural history of cardiorespiratory development, limit the progression of underlying spondylarthrosis deformities and minimize negative changes in spondylothorax biomechanics due to the instrumental action of the implant. This review further elucidates EOS in terms of its aetiology, pathogenesis, pathology and treatment.

The application of local rotating flap and latissimus dorsi flap in thoracic deformity correction.

BACKGROUND: Wound healing problem is one of the main complications after correction of chest wall deformity. Orthopedic flap tissue repair technique has a clear significance in non-healing wound and defect wound and provides a new choice for poor wound healing after orthopedic surgery of chest wall deformity. OBJECTIVE: To investigate, the application value of modified local rotary flap and latissimus dorsi myocutcutaneous flap in the treatment of poor wound healing after orthodontic treatment of chest wall deformity. METHOD: A retrospective analysis was performed on patients who admitted to our department from August 2012 to November 2019 due to non-healing incision after surgery for thoracic deformity. Skin flap was selected according to the size of the wound surface, and the effect of skin flap repair was observed. The clinical data of the included patients were recorded, and the preoperative and postoperative wound conditions were evaluated. RESULTS: This study included 13 patients with chest wall deformity who received plastic surgery tissue using flap technique for wound repair, 11 cases used modified local rotation skin flap, and 2 cases used modified latissimus dorsi myocutaneous flap. The mean age of the 13 patients was 18.54 ± 4.14 years old, the mean body mass index (BMI) was 17.02 ± 2.16 kg/m2 , and the mean preoperative nonunion time of the incision was 64.77 ± 93.01 days. Five patients had positive bacteria culture on the wound surface, including 3 cases of Staphylococcus aureus, 1 case of Pseudomonas aeruginosa, and 1 case of Staphylococcus epidermidis. All the 13 patients achieved primary grade A healing. CONCLUSION: The modified local rotary flap and latissimus dorsi musculocutaneous flap have a significant effect on the postoperative correction of chest wall deformity, which can ensure wound healing while retaining the orthopedic plate to the maximum extent to ensure the effect of the correction.

The morphological changes of thorax in pediatric microtia patients after costal cartilage harvesting.

BACKGROUND: The surgical treatment of microtia generally starts in childhood, and costal cartilage is the most widely used material for auricular reconstruction. However, multiple costal cartilage harvests lead to local cartilage defects, which may influence the growth of the hemithorax, that need close attention by doctors. In this study, morphological changes of the thorax were measured and analyzed in different follow-up groups. METHODS: Twenty-eight adolescent microtia patients underwent auricular reconstruction using 6th-8th costal cartilage. Thoracic computed tomography (CT) with three-dimensional reconstruction was performed preoperatively and during follow-up. Comparison of the hemithorax on the operated and unoperated sides was performed by measuring several thoracic parameters using Mimics software (Materialise, Belgium). The data were further analyzed by a paired-samples t-test. RESULTS: In the operated hemithorax, the costochondral junction midpoints moved medially (6th-8th), posteriorly (6th-7th) and descended less (6th-9th) with significant differences as P < 0.05 compared to the unoperated hemithorax. In addition, height differences indicated local depressions in the chest wall in the areas of cartilage defects (6th-9th, P < 0.05). Following local depression of the chest wall and migration of the ribs, the operated hemithorax also had a smaller area than the unoperated hemithorax (6th-9th, P < 0.05). The differences in the hemithorax were more significant in the midterm group (5-10 y) than in the other follow-up groups, while most parameters showed no significant differences in the long-term group (10-15 y). No significant differences were found in the modified Haller index. CONCLUSION: Multiple costal cartilage harvests caused morphological changes and asymmetry of the thorax in adolescent patients. As indicated by thoracic CT, significant changes occurred in the local area of cartilage defects, which did not affect the overall thorax. In the long term, more than 10 years after harvesting, the differences in the hemithorax between the operated and unoperated sides decreased significantly. This study provides an important reference for thoracic changes when applying auricular reconstruction in the pediatric microtia patients.

The characterization, cytotoxicity, macrophage response and tissue regeneration of decellularized cartilage in costal cartilage defects.

After harvesting multiple costal cartilages, the local defect disrupts the integrity of the chest wall and may lead to obvious thoracic complications, such as local depression and asymmetry of the bilateral thoracic height. Decellularized materials have been used for tissue reconstruction in clinical surgeries. To apply xenogenic decellularized cartilage in costal cartilage defects, porcine-derived auricular and costal cartilage was tested for characterization, cytotoxicity, macrophage response, and tissue regeneration. Most of the DNA and α-Gal were effectively removed, and the collagen was well preserved after the decellularization process. The glycosaminoglycan (GAG) content decreased significantly compared to that in untreated cartilage. The decellularized auricular cartilage had a larger pore size, more pores, and a higher degradation rate than the decellularized costal cartilage. No apparent nuclei or structural damage was observed in the extracellular matrix. The decellularized auricular cartilage had a higher cell proliferation rate and more prominent immunomodulatory effect than the other groups. Two types of decellularized cartilage, particularly decellularized auricular cartilage, promoted the tissue regeneration in the cartilage defect area, combined with noticeable cartilage morphology and increased chondrogenic gene expression. In our research, the functional components and structure of the extracellular matrix were well preserved after the decellularization process. The decellularized cartilage had better biocompatibility and suitable microenvironment for tissue regeneration in the defect area, suggesting its potential application in cartilage repair during the surgery. STATEMENT OF SIGNIFICANCE: Autologous costal cartilage has been widely used in various surgeries, while the cartilage defects after the harvesting of multiple costal cartilages may cause localized chest wall deformities. Decellularized cartilage is an ideal material that could be produced in the factory and applied in surgeries. In this study, both decellularized costal cartilage and auricular cartilage preserved original structure, functional biocompatibility, immunosuppressive effects, and promoted tissue regeneration in the cartilage defect area.

Study on the correlation between OSAS and thoracic deformity in children: A retrospective single-center study in China.

OBJECTIVE: To evaluate the correlation between obstructive sleep apnea syndrome (OSAS) and the development of thoracic deformity in Children. METHODS: A retrospective analysis was performed with the medical records of 39 pediatric OSAS patients with thoracic deformity and matching 39 without thoracic deformity as control group between January 2015 and June 2019. The contrast was performed with age, gender, height, weight, body mass index (BMI), apnea/hypopnea index (AHI), the lowest oxyhemoglobin saturation (loSpO2)at night, tonsil and adenoid size, Alkaline phosphatase (ALP)and trace elements and metals between two groups. RESULTS: BMI, AHI, the lowest SpO2, Phosphorus and Zinc were the risk factors of thoracic deformity. Age, gender, disease history, the size of tonsil and adenoid, ALP and other trace elements were no significant difference occurred between two groups. CONCLUSION: OSAS characterized by apnea and hypoxia which are caused by narrow upper airway may be one cause of thoracic deformity in children. Pediatricians, thoracic and otolaryngologic surgeons should be alert to OSAS when thoracic deformities are diagnosed in children.

Suffocation due to Thoracic Deformity Caused by Acromegaly.

A 61-year-old man with gigantism and acromegaly choked and fell into a coma. Immediate tracheal intubation resulted in a return of his consciousness. Enhanced computed tomography indicated that the trachea and left main bronchus were compressed by the thoracic spine and sternum. He required tracheotomy and positive end-expiratory pressure to maintain his pulmonary function. This is the first case of suffocation due to a thoracic deformity associated with acromegaly. Physicians should focus on clearing the tracheal airway using computed tomography to elucidate the anatomical relationship between the trachea and surrounding structures in acromegalic patients suffering from dyspnea.

T12 Sagittal Tilt Predicts Thoracic Kyphosis.

STUDY DESIGN: Retrospective review and analysis of lateral long cassette radiographs. OBJECTIVE: The purpose of this paper is to assess whether certain radiographic features routinely seen on lumbar radiographs can predict a structural thoracic deformity. SUMMARY OF BACKGROUND DATA: Obtaining proper sagittal alignment is an essential factor contributing to favorable clinical outcomes following spinal deformity surgery. The majority of patients treated with lumbar fusions do not undergo long cassette radiographs, and therefore physicians must rely upon clinical examination to determine the presence of a structural thoracic kyphotic deformity. METHODS: A total of 193 consecutive lateral long cassette radiographs of outpatients without prior spine surgery presenting to a spine surgeon were independently reviewed. Statistical analysis was performed on sagittal parameters that included the T12 slope, pelvic incidence, sacral slope, T2-T12 and T5-T12 kyphosis, and T12-S1 lordosis, and correlated with patient demographics. RESULTS: The age of the patient combined with the sagittal slope of T12 can be used to assess a patient's risk of having a structural thoracic deformity defined in this series as >35 degrees from T5 to T12 and >40 degrees from T2 to T12. Based on our findings, for a given 20-year-old patient, the threshold T12 sagittal angle was about 17-18 degrees. This angle decreased 2-3 degrees per decade so that the threshold value was 12-13 degrees by age 40, 7-9 degrees by age 60, and 3-4 degrees by age 80. CONCLUSION: Age and the sagittal slope of the 12th thoracic vertebra are effective predictors of kyphosis between T2-T12 and T5-T12. This information may be used to determine the need for long cassette radiographs to further examine the possible presence of kyphotic deformity in the thoracic spine. LEVEL OF EVIDENCE: Level IV.

Three-dimensional chest computed tomography analysis of thoracic deformities in patients with microtia.

OBJECTIVE: The objective of this study was to identify the incidence and characteristics of congenital thoracic deformities in patients with microtia and to investigate the interaction between microtia and thoracic deformities. METHODS: A total of 239 consecutive patients received a preoperative three-dimensional chest computed tomography (3-D chest CT). A retrospective study was performed with the clinical and imaging data from March 2013 to December 2013. Pearson χ(2) test and Spearman analysis were used to analyze the interaction between microtia and thoracic deformities. RESULTS: With the 3-D chest CT images, a total of 68 cases (28.5%) were documented with thoracic deformities including 60 cases (25.1%) with rib anomalies, 20 cases (8.4%) with spinal deformities, and 12 cases (5.0%) with both rib anomalies and spinal deformities. The incidence of rib anomalies (P = 0.049) and spinal deformities (P = 0.000) varied with grades of microtia. The incidence of rib anomalies was slightly positively correlated with the incidence of spinal deformities in patients with microtia (r = 0.243). CONCLUSIONS: The incidence of congenital thoracic deformities was high in patients with microtia. We observed a higher incidence of thoracic deformities in patients with a more serious grade of microtia. Microtia with thoracic deformities may involve a new syndrome previously undiscovered or just another extension with the very wide spectrum of microtia.

Cervical compensatory alignment changes following correction of adult thoracic deformity: a multicenter experience in 57 patients with a 2-year follow-up.

OBJECT Alignment changes in the cervical spine that occur following surgical correction for thoracic deformity remain poorly understood. The purpose of this study was to evaluate such changes in a cohort of adults with thoracic deformity treated surgically. METHODS The authors conducted a multicenter retrospective analysis of consecutive patients with thoracic deformity. Inclusion criteria for this study were as follows: corrective osteotomy for thoracic deformity, upper-most instrumented vertebra (UIV) between T-1 and T-4, lower-most instrumented vertebra (LIV) at or above L-5 (LIV ≥ L-5) or at the ilium (LIV-ilium), and a minimum radiographic follow-up of 2 years. Sagittal radiographic parameters were assessed preoperatively as well as at 3 months and 2 years postoperatively, including the C-7 sagittal vertical axis (SVA), C2-7 cervical lordosis (CL), C2-7 SVA, T-1 slope (T1S), T1S minus CL (T1S-CL), T2-12 thoracic kyphosis (TK), apical TK, lumbar lordosis (LL), pelvic incidence (PI), PI-LL, pelvic tilt (PT), and sacral slope (SS). RESULTS Fifty-seven patients with a mean age of 49.1 ± 14.6 years met the study inclusion criteria. The preoperative prevalence of increased CL (CL > 15°) was 48.9%. Both 3-month and 2-year apical TK improved from baseline (p < 0.05, statistically significant). At the 2-year follow-up, only the C2-7 SVA increased significantly from baseline (p = 0.01), whereas LL decreased from baseline (p < 0.01). The prevalence of increased CL was 35.3% at 3 months and 47.8% at 2 years, which did not represent a significant change. Postoperative cervical alignment changes were not significantly different from preoperative values regardless of the LIV (LIV ≥ L-5 or LIV-ilium, p > 0.05 for both). In a subset of patients with a maximum TK ≥ 60° (35 patients) and 3-column osteotomy (38 patients), no significant postoperative cervical changes were seen. CONCLUSION Increased CL is common in adult spinal deformity patients with thoracic deformities and, unlike after lumbar corrective surgery, does not appear to normalize after thoracic corrective surgery. Cervical sagittal malalignment (C2-7 SVA) also increases postoperatively. Surgeons should be aware that spontaneous cervical alignment normalization might not occur following thoracic deformity correction.