Objective To analyze the application effects of artificial intelligence (AI) software and Mimics software in preoperative three-dimensional (3D) reconstruction for thoracoscopic anatomical pulmonary segmentectomy. Methods A retrospective analysis was conducted on patients who underwent thoracoscopic pulmonary segmentectomy at the Second People's Hospital of Huai'an from October 2019 to March 2024. Patients who underwent AI 3D reconstruction were included in the AI group, those who underwent Mimics 3D reconstruction were included in the Mimics group, and those who did not undergo 3D reconstruction were included in the control group. Perioperative related indicators of each group were compared. Results A total of 168 patients were included, including 73 males and 95 females, aged 25-81 (61.61±10.55) years. There were 79 patients in the AI group, 53 patients in the Mimics group, and 36 patients in the control group. There were no statistical differences in gender, age, smoking history, nodule size, number of lymph node dissection groups, postoperative pathological results, or postoperative complications among the three groups (P>0.05). There were statistical differences in operation time (P<0.001), extubation time (P<0.001), drainage volume (P<0.001), bleeding volume (P<0.001), and postoperative hospital stay (P=0.001) among the three groups. There were no statistical differences in operation time, extubation time, bleeding volume, or postoperative hospital stay between the AI group and the Mimics group (P>0.05). There was no statistical difference in drainage volume between the AI group and the control group (P=0.494), while there were statistical differences in operation time, drainage tube retention time, bleeding volume, and postoperative hospital stay (P<0.05). Conclusion For patients requiring thoracoscopic anatomical pulmonary segmentectomy, preoperative 3D reconstruction and preoperative planning based on 3D images can shorten the operation time, postoperative extubation time and hospital stay, and reduce intraoperative bleeding and postoperative drainage volume compared with reading CT images only. The use of AI software for 3D reconstruction is not inferior to Mimics manual 3D reconstruction in terms of surgical guidance and postoperative recovery, which can reduce the workload of clinicians and is worth promoting.

Objective: To explore the clinical manifestations, diagnosis, differential diagnosis, and treatment of granulomatous cheilitis complications after treatment in patients with upper lip venous malformations, as well as to provide a reference for their clinical diagnosis and treatment. Methods: This report provides details on the clinical manifestations, diagnosis, differential diagnosis, and treatment of a case of granulomatous cheilitis after the treatment of upper lip venous malformation, and then analyzes granulomatous cheilitis alongside the related literature. The patient, a 30-year old male, was first seen in the dermatology department of another hospital with bright red spots on his lips, diagnosed with allergic dermatitis and received symptomatic treatment, and the erythema did not improve. He was diagnosed with ‘cavernous hemangioma&rsquo; and was treated with polydocanol and bleomycin injections. The bright red spots on his lips improved, but the swelling worsened for more than half a year. He then sought treatment at the oral mucosal department of our hospital. At the time of consultation, the swelling of the upper lip and perilabial skin was obvious, and there was a red patch on the right side of the upper lip, that was congested with blood. The upper lip was tough, with hard nodules, unclear borders, and poor mobility. Pathological examination showed epithelial hyperplasia of the upper lip mucosa, surface hyperkeratosis, subepithelial fibrous tissue hyperplasia, and chronic inflammation of the mucosa and minor salivary glands. Focal histiocyte, lymphocyte, and plasma cell infiltration was seen in the submucosal layer, with granulomatous inflammatory manifestations. Based on the patient's medical history, clinical manifestations, and histopathological manifestations, the diagnosis of granulomatous cheilitis was made. Tretinoin 0.3 mL (40 mg/mL, 1 mL/vial) was injected into the deep layer of the mucosa of the right and left upper lips for local block treatment. Prednisone acetate tablets (10 mg/Qd) were taken orally, and after 1 week of follow-up, the symptoms improved, so the original treatment was continued. After 2 weeks of follow-up, the swelling of the lips improved significantly, and the oral prednisone acetate tablets were adjusted to 5 mg/Qd. After 4 weeks of follow-up, the shape of the lips was largely back to normal, and the color and suppleness of the lips had improved significantly. The local block treatment and oral medication were stopped, and the patient was instructed to apply the topical tretinoin ointment Bid on the upper lip. Results: The patient had a follow-up visit 8 weeks later, at which their lip color, shape, and texture remained normal, and the patient was instructed to stop the medication and follow up. A review of the literature suggests that the etiology of granulomatous cheilitis is unknown and that it is associated with genetic predisposition, odontogenic infections, allergic factors, microbial infections, and immunological factors. It needs to be clinically differentiated from diseases such as lip venous malformations, lip angioneurotic oedema, Crohn's disease, and tuberculosis. At present, the clinical treatment of granulomatous cheilitis is still based on local glucocorticoid block therapy or a combination of oral glucocorticoid drugs. In this case, the area of erythema on the lips decreased in size, but swelling occurred and continued to worsen after polydocanol and bleomycin injection treatment. Pre-existing venous malformation should be considered as a complication associated with injectable drugs that can produce granulomatous cheilitis. Conclusion The injection-based treatment of lip venous malformation may be complicated by granulomatous cheilitis, and in the process of clinical diagnosis and treatment, it is necessary to be aware to the existence of drug-related factors in the occurrence and development of granulomatous diseases.

Lung cancer is the leading cause of death worldwide. With the prevalence of CT screening and early diagnosis and treatment of lung cancer in China, more and more patients with early-stage lung cancer characterized with ground-glass opacity are discovered and urgently require treatment, which poses a significant challenge to surgeons. As an emerging technology, three dimensional reconstruction technology plays a crucial auxiliary role in clinical work. This review aims to briefly introduce this technology, focusing on its latest advances in surgical applications in early lung cancer screening, malignant risk assessment, and perioperative period application and medical education.

Autologous blood patch pleurodesis (ABPP) was first proposed in 1987. Now it is mainly used to treat intractable pneumothorax and persistent air leakage after pneumonectomy, and also used to treat pneumothorax in children and other rare secondary pneumothorax. Persistent air leakage and pneumothorax of various causes are essentially alveolar pleural fistula. It can usually be treated by closed thoracic drainage, continuous negative pressure suction and surgery. Pleurodesis is a safe and effective alternative to surgery for patients who have failed conventional conservative treatment and can not receive operations. Compared with other pleurodesis adhesives, autologous blood (ABPP) is safer and more effective, and it is simple, painless, cheap and easy to be accepted by patients. But in the domestic and foreign researches in recent years, many details of ABPP treatment have not been standardized. For further research and popularization of ABPP, this article reviews the detailed regulations, efficacy and safety of this technology.

In the field of oral medicine, 3D-printed individualized titanium mesh technology is gradually becoming an important means for the treatment of severe alveolar bone defect augmentation. This article provides a comprehensive analysis of the advantages of this technology, the evaluation of osteogenic effects, and the progress of research in clinical applications. In response to the current issue of variability in bone augmentation outcomes, this paper delves into multiple factors affecting bone augmentation effects, including individualized titanium mesh design (involving the thickness, pore size, pore shape, porosity, contour shape, selection of titanium alloy materials, and 3D printing technology), intraoperative procedures (the accuracy of placement during 3D-printed individualized titanium mesh surgery), and postoperative care (including the prevention of complications, formation of pseudoperiosteum, and stability of the titanium mesh). By integrating the clinical experience and research findings of our team, we propose a series of targeted optimization strategies, including designing, manufacturing, and clinically applying self-positioning individualized titanium meshs (positioning wings + individualized titanium meshs) to improve the positioning accuracy of the titanium mesh; propose individualized treatment processes and titanium mesh design schemes based on specific conditions of alveolar bone defects and soft tissue status; and emphasize the importance of long-term stable fixation of the titanium mesh to reduce the risk of postoperative mesh loosening and displacement. In addition, we appropriately summarize the evaluation methods for the bone augmentation effects of 3D-printed individualized titanium meshes, covering the following key indicators: (1) vertical bone augmentation and horizontal bone augmentation; (2) changes in bone contour morphology; (3) bone volume increase; (4) clinical indicators (surgical success rate, titanium mesh exposure, infection rate, and postoperative recovery); (5) aesthetic effect evaluation; (6) long-term stability; (7) radiological assessment; (8) patient satisfaction; and (9) precision of surgical operation, aiming to assist doctors in comprehensively assessing and in-depth analyzing the surgical outcomes to achieve the best therapeutic effects. The purpose of this article is to provide a reference for the optimization and clinical application of 3D-printed individualized titanium mesh technology and to lay a theoretical foundation for achieving the best osteogenic effects.

[摘 要] 小细胞肺癌（SCLC）是肺癌中恶性程度最高的一种类型，其在全部肺癌病例中约占13%~15%。初治SCLC患者虽然对化疗和放疗具有较高的敏感性，但容易复发，导致患者生存率较低。2018年以来，随着IMpower133和CASPIAN研究相继成功，SCLC进入了免疫治疗时代，化疗联合免疫检查点抑制剂已成为广泛期SCLC的一线治疗标准方案。同时，免疫治疗在局限期SCLC中也取得了初步成功。SCLC的免疫治疗虽然取得了一些进展，但免疫治疗整体上带来的生存获益有限，缺乏有效的预测生物标志物，对复发/难治性SCLC缺少治疗手段，SCLC免疫治疗未来仍面临诸多挑战。本文回顾国内外SCLC免疫治疗临床研究的最新进展，分析不同类型的免疫治疗药物、生物标志物及新型免疫治疗靶点，探讨SCLC免疫治疗的联合策略和发展前景。

Bronchial rupture from penetrating, perforating, or compressive cervical or thoracic injuries can lead to complete tracheal, mainstem bronchial, or lobar bronchial detachment. Although rare in children, bronchial rupture presents significant risks, including dyspnea, respiratory failure, and potentially fatal airway obstruction, and is often overlooked or diagnosed late in clinical settings. Prompt diagnosis and intervention are prognostically crucial.[1,2] Between January 2013 and December 2023, four children (two male and two female) with bronchial rupture were admitted to the Pediatric Surgical Intensive Care Unit (ICU) at Children&rsquo;s Hospital, Zhejiang University School of Medicine. Here, we share our experience of patient management.

Fungal infections are relatively common among patients with systemic lupus erythematosus (SLE), and patients may be infected simultaneously or sequentially with multiple fungal species. Physicians need to select appropriate antifungal agents and therapeutic regimens based on the type and severity of the infection. Herein, we report a young SLE patient who developed concurrent pulmonary infection with Pneumocystis jirovecii and Trichosporon coremiiforme. The patient presented with a variety of imaging manifestations, with specific features evolving as the disease progressed.

How to effectively promote osseointegration of dental implants remains a pressing clinical challenge. Low-intensity pulsed ultrasound (LIPUS) has demonstrated remarkable efficacy in accelerating the healing of various bodily tissues, including bone tissue. In recent years, there has been extensive research on its application in promoting osseointegration in the field of dental implantology. Animal studies have shown that LIPUS exhibits significant potential in facilitating osseointegration of dental implants. In vitro experiments have further revealed that LIPUS can enhance the expression of key osteogenic factors, extracellular matrix mineralization, and induce local neurons to secrete αCGRP. Through the regulation of signaling pathways such as bone morphogenetic protein/Smad (Bmp/Smad), mitogen-activated protein kinase (MAPK), and phosphatidylinositol 3-kinase/protein kinase B (PI3k/Akt), LIPUS promotes the proliferation, migration, and osteogenic differentiation of osteogenic-related cells, thereby enhancing osseointegration of dental implants. Additionally, clinical studies have shown that bone mass increases around the implants after LIPUS treatment, with more pronounced growth observed on the buccal bone plate than on the palatal side. Furthermore, there is a lack of research that systematically summarizes the clinical evidence, in vitro and in vivo studies, and mechanisms of action regarding the role of LIPUS in promoting osseointegration of implants. Therefore, the aim of this study is to discuss the mechanisms of effect of LIPUS on osseointegration of implants, with the goal of further enhancing the outcome of implant-supported prosthodontic treatment.