对脆性组织样本进行多重免疫组化染色的优化方案。

IF 2.7 4区 医学 Q3 CELL & TISSUE ENGINEERING Tissue engineering. Part C, Methods Pub Date : 2024-11-22 DOI:10.1089/ten.tec.2024.0223
Yi Zhang, Yue Li, Wan-Li Zhang, Yan Liang, Lin-Qiao Tang, Cui Peng, Hui-Min Liu, Min Zhu, Liang-Ju Ning
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引用次数: 0

摘要

由于样本制备过程中组织脱落的发生率较高,多重免疫组化(mIHC)技术在肌腱、韧带和骨骼等脆性组织样本领域的应用受到了限制。为了优化在脆性组织样本上制备 mIHC 切片的方法,以人体前十字韧带为例,将厚度为 4 μm 的石蜡包埋连续切片分为两组:烘烤组进行常规切片处理,装裱在玻璃载玻片上后,在 65°C 下烘烤 4 小时、8 小时或 24 小时;紫外线(UV)光敏交联组使用涂有粘合剂的载玻片进行装裱,并直接进行紫外线诱导交联,交联时间分别设置为 0 秒、20 秒、40 秒、1 分钟、2 分钟、3 分钟、4 分钟和 5 分钟。去石墨化和复水后,我们模拟了微波步骤,这是在 mIHC 实验过程中最有可能导致组织脱落的步骤,然后用伊红对切片进行染色。最后,利用从紫外交联组中选出的最佳交联时间,对肌腱和骨组织进行 mIHC 染色。除紫外线敏感交联 0 秒组的切片显示组织完全脱落外,其他两组在去石墨化和复水后都能保持组织结构的完整性。第七次微波处理后,烘烤组出现了明显的组织剥离。紫外线交联组受到交联时间的影响,在交联时间为 20 秒、40 秒和 5 分钟时,出现了严重的组织剥离,而交联时间为 1 分钟、2 分钟、3 分钟和 4 分钟的组织都保持了完整的组织形态和结构。最后,交联 2 分钟后,光谱成像结果显示组织形态和结构完好无损。在 mIHC 染色过程中,紫外线照射光交联 1-4 分钟可有效保持组织形态结构的完整性。
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An Optimized Protocol for Multiple Immunohistochemical Staining of Fragile Tissue Samples.

Owing to the high occurrence of tissue detachment during the sample preparation process, the application of multiplex immunohistochemistry (mIHC) technology is limited in the field of fragile tissue samples, such as tendons, ligaments, and bones. To optimize a method for preparing sections for mIHC on fragile tissue samples, taking the human anterior cruciate ligament as an example, paraffin-embedded continuous sections with a thickness of 4 μm were divided into two groups: baking groups underwent routine section processing, and after being mounted on glass slides, they were baked at 65°C for 4 h, 8 h, or 24 h; ultraviolet (UV) photosensitive cross-linking groups used adhesive-coated slides for mounting and were directly subjected to UV light-induced cross-linking, with the cross-linking time set at 0 s, 20 s, 40 s, 1 min, 2 min, 3 min, 4 min, and 5 min, respectively. After deparaffinization and rehydration, we simulated the microwave step, which was most likely to cause tissue detachment during the mIHC experimental procedure, and then, the sections were stained with eosin. Finally, using the optimal cross-linking time selected from the UV cross-linking groups, mIHC staining of tendon and bone tissues was performed. After deparaffinization and rehydration, both groups were able to maintain the integrity of the tissue structure, except for the slides from the UV-sensitive cross-linking 0 s group, which showed complete tissue detachment. Following the seventh microwave treatment, the baking groups presented significant tissue detachment. The UV cross-linking groups were affected by the cross-linking time, and severe tissue detachment occurred with cross-linking times of 20 s, 40 s, and 5 min, whereas the tissues cross-linked for 1 min, 2 min, 3 min, and 4 min all maintained complete tissue morphology and structure. Finally, after 2 min of cross-linking, the results of spectral imaging revealed that the tissue morphology and structure were intact. During the process of mIHC staining, photocrosslinking with UV irradiation for 1-4 min effectively preserves the integrity of the tissue morphological structure.

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来源期刊
Tissue engineering. Part C, Methods
Tissue engineering. Part C, Methods Medicine-Medicine (miscellaneous)
CiteScore
5.10
自引率
3.30%
发文量
136
期刊介绍: Tissue Engineering is the preeminent, biomedical journal advancing the field with cutting-edge research and applications that repair or regenerate portions or whole tissues. This multidisciplinary journal brings together the principles of engineering and life sciences in the creation of artificial tissues and regenerative medicine. Tissue Engineering is divided into three parts, providing a central forum for groundbreaking scientific research and developments of clinical applications from leading experts in the field that will enable the functional replacement of tissues. Tissue Engineering Methods (Part C) presents innovative tools and assays in scaffold development, stem cells and biologically active molecules to advance the field and to support clinical translation. Part C publishes monthly.
期刊最新文献
An Optimized Protocol for Multiple Immunohistochemical Staining of Fragile Tissue Samples. Design of an Innovative Method for Measuring the Contractile Behavior of Engineered Tissues. Enhancing Gingival-Derived Mesenchymal Stem Cell Potential in Tissue Engineering and Regenerative Medicine Through Paraprobiotics. Simple Methodology to Score Micropattern Quality and Effectiveness. Autoinduction-Based Quantification of In Situ TGF-β Activity in Native and Engineered Cartilage.
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