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1.山东第一医科大学口腔医学院2021级口腔医学本科专业,山东 济南 250117
2.山东第一医科大学口腔医学院口腔基础医学教研室,山东 济南 250117
3.山东第一医科大学口腔医学院口腔颌面外科学教研室,山东 济南 250117
顿爱社,E-mail:das1977@163.com
赵作勤,E-mail:13616324399@163.com
收稿日期:2024-05-14,
纸质出版日期:2025-08-25
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安柏瑜,焦方通,张顺等.结合3D打印模型对可复性颞下颌关节盘前移位的分析研究[J].局解手术学杂志,2025,34(08):653-656.
AN Bo-yu,JIAO Fang-tong,ZHANG Shun,et al.Research of 3D printing model in analysis of anterior disc displacement with reduction[J].JOURNAL OF REGIONAL ANATOMY AND OPERATIVE SURGERY,2025,34(08):653-656.
安柏瑜,焦方通,张顺等.结合3D打印模型对可复性颞下颌关节盘前移位的分析研究[J].局解手术学杂志,2025,34(08):653-656. DOI: 10.11659/jjssx.05E024066.
AN Bo-yu,JIAO Fang-tong,ZHANG Shun,et al.Research of 3D printing model in analysis of anterior disc displacement with reduction[J].JOURNAL OF REGIONAL ANATOMY AND OPERATIVE SURGERY,2025,34(08):653-656. DOI: 10.11659/jjssx.05E024066.
目的
2
通过尸体解剖及3D打印技术,深入了解颞下颌关节紊乱病的解剖学基础,探究及掌握颞下颌关节盘前移位的病理特点。
方法
2
通过解剖40例头颈部标本的颞下颌关节,测量颞下颌关节的双侧结构,获取髁突及关节盘数据,利用3ds Max软件进行3D建模,打印出颞下颌关节模型。通过调整该模型的开口度、关节盘位置及髁突的位置模拟出可复性颞下颌关节盘前移位(ADDwR)的病理模型。
结果
2
经解剖及测量成功获取左右两侧颞下颌关节盘和髁突的精确数据,左侧颞下颌关节盘前带厚度为(2.02±0.57)mm,中间带厚度为(1.46±0.33)mm,后带厚度为(3.00±0.46)mm,前后径为(9.60±0.72)mm,内外径为(17.73±0.84)mm;右侧颞下颌关节盘前带厚度为(1.84±0.35)mm,中间带厚度为(1.43±0.28)mm,后带厚度为(3.08±0.49)mm,前后径为(9.30±0.88)mm,内外径为(17.38±1.10)mm。左侧颞下颌关节髁突内外径为(18.97±0.41)mm,前后径为(8.56±0.43)mm;右侧颞下颌关节髁突内外径为(18.86±0.75)mm,前后径为(8.40±0.30)mm。通过测量数据打印出标准的颞下颌关节模型。利用模型分别模拟出正常情况下颞下颌关节的生理状态,以及发生ADDwR时的闭口、闭口到张口、张口三种病理状态等。
结论
2
颞下颌关节模型可更直观地呈现出可复性颞下颌关节紊乱中解剖结构的变化,有助于对此疾病不同分类的理解和掌握。
Objective
2
To deeply understand the anatomical basis of temporomandibular joint disorders, and explore and master the pathological characteristics of anterior displacement of temporomandibular joint disc through cadaveric dissection and 3D printing technology
.
Methods
2
By dissecting the temporomandibular joints of 40 head and neck specimens, the bilateral structures of the temporomandibular joints were measured to obtain condyle and articular disc data. 3D modeling was carried out using 3ds Max software and printed out a model of temporomandibular joint. The pathological model of the anterior disc displacement with reduction (ADDwR) was simulated by adjusting the opening degree, the position of the articular disk, and the position of the condyle of the model.
Results
2
The precise data of the right and left temporomandibular joint discs and condyle were successfully obtained by dissection and measurement. The thickness of the anterior band of left temporomandibular joint discs was (2.02±0.57) mm, the thickness of the middle band was (1.46±0.33) mm, the thickness of the posterior band was (3.00±0.46) mm, the anterior-posterior diameter was (9.60±0.72) mm, and the internal-external diameter was (17.73±0.84) mm. While the thickness of the anterior band of right temporomandibular joint discs was (1.84±0.35) mm, and the thickness of the middle band was (1.43±0.28) mm, the thickness of posterior band was (3.08±0.49) mm, the anterior-posterior diameter was (9.30±0.88) mm, and the internal-external diameter was (17.38±1.10) mm. The internal-external diameter of the left temporomandibular joint condyle was (18.97±0.41) mm, and the anterior-posterior diameter was (8.56±0.43) mm; the internal-external diameter of the right temporomandibular joint condyle was (18.86±0.75) mm, and the anterior-posterior diameter was (8.40±0.30) mm. The standard temporomandibular joint model was printed out by the measured data. The model was utilized to simulate the physiological state of temporomandibular joint under normal conditions, as well as the three pathological states of closed mouth, closed mouth to open mouth, and open mouth in the case of ADDwR.
Conclusion
2
The temporomandibular joint model can more intuitively present the changes of anatomical structure in reversible temporomandibular joint disorders, which is helpful for understanding and mastering the different classification of this disease.
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