遗传 ›› 2026, Vol. 48 ›› Issue (10): 973-985.doi: 10.16288/j.yczz.26-140
收稿日期:2026-06-11
修回日期:2026-08-04
出版日期:2026-09-01
发布日期:2026-09-01
通讯作者:
臧潇,博士,助理研究员,研究方向:细胞生物学。E-mail: xiaozang@intl.zju.edu.cn作者简介:王伊萌,硕士研究生,专业方向:生物化学与分子生物学。E-mail: yimeng.23@intl.zju.edu.cn
基金资助:
Yimeng Wang1(
), Xiao Zang1,2(
)
Received:2026-06-11
Revised:2026-08-04
Published:2026-09-01
Online:2026-09-01
Supported by:摘要:
对基因表达的时空特异性操控是解析基因功能、阐明发育过程及揭示复杂生理机制的重要前提。作为模式生物,秀丽隐杆线虫(Caenorhabditis elegans)在基础生物学研究中发挥了重要的作用,并为实现上述操控提供了理想的实验体系。近年来,随着单拷贝转基因、CRISPR/Cas9基因编辑以及条件性重组和诱导系统的发展,线虫中时空特异性乃至单细胞分辨率调控基因表达的遗传工具不断丰富。本文系统梳理了在线虫研究中应用的主要时空特异性基因表达调控策略,重点介绍了组织特异性RNA干扰、条件性蛋白降解系统、可诱导转录调控系统,以及新近发展的Ribo-on/Ribo-off等方法,并从调控层级、技术优势、局限性及适用场景等方面进行了比较分析。这些工具覆盖了从转录、转录后到蛋白质水平的多个调控环节,为发育生物学、衰老机制、跨组织信号传递以及疾病模型构建等研究提供了重要的技术支持,也为解析复杂生命过程中的细胞自主性和非自主性调控机制奠定了方法学基础。
王伊萌, 臧潇. 秀丽隐杆线虫时空特异性基因表达调控工具与策略研究进展[J]. 遗传, 2026, 48(10): 973-985.
Yimeng Wang, Xiao Zang. Advances in tools and strategies for spatiotemporal regulation of gene expression in Caenorhabditis elegans[J]. Hereditas(Beijing), 2026, 48(10): 973-985.
表1
线虫中主要时空特异性基因表达调控系统比较"
| 系统 | 调控层级 | 空间控制 方式 | 时间控制 方式 | 是否作用于内 源基因 | 可逆性 | 主要优点 | 主要局限 | 潜在毒性/扰动 | 优先适用场景 |
|---|---|---|---|---|---|---|---|---|---|
| 组织特异性RNAi | mRNA降解 | 组织特异性启动子恢复RNAi活性 | 喂食RNAi起始时间可控 | 是,无需标签化 | 部分可逆,取决于dsRNA清除时间 | 操作简便,适合筛选 | 依赖RNAi敏感性,受启动子限制 | 总体较低,需考虑脱靶和系统性传播 | 高通量初筛、低成本组织特异性敲降 |
| AID/AIDv2 | 蛋白质降解 | 组织特异性表达TIR1 | 外源生长素或衍生物诱导与撤除 | 是,需内源敲入降解子 | 可逆,撤药后依赖靶蛋白重新合成 | 响应较快,适合急性功能分析 | 需标签化改造,处理条件需优化 | AID有本底降解及高浓度配体影响;AIDv2通常较低 | 必需基因蛋白降解、不同时间蛋白降解 |
| GFP纳米抗体- ZIF-1蛋白降解 | 蛋白质降解 | 组织特异性表达降解模块 | 无,取决于降解模块表达时序 | 是,需内源引入GFP标记 | 不可逆 | 适配GFP资源丰富 | 依赖GFP标记 | 生殖系表达可导致不育,GFP标签可能影响蛋白功能 | 有现有GFP内源敲入资源的体细胞降解 |
| 热休克系统 | 转录激活 | 组织特异性启动子恢复热应激能力 | 短时升温或局部激光触发 | 通常否,主要驱动转基因 | 可撤除,需等待mRNA/蛋白降解 | 操作简单,诱导快 | 早期胚胎和生殖系诱导受限 | 热应激可改变细胞状态 | 短时脉冲、单细胞激光诱导 |
| cGAL系统 | 转录激活 | 组织特异性启动子驱动cGAL | 无 | 否,主要驱动转基因 | 几乎不可逆,通常为组成型驱动 | 模块清晰,构建成熟 | 剂量控制与可逆性有限 | 通常较低,需评估高表达效应 | 稳定组织特异性表达和模块化品系组合 |
| Q系统 | 转录激活/抑制 | QF/QS/QUAS组合 | QA解除QS抑制 | 否,主要驱动转基因 | 可逆,受QA清除和产物周转限制 | 背景较低,可进行抑制-激活控制 | 诱导动力学较慢 | QA通常较低 | 需要抑制/解除抑制逻辑的转基因表达 |
| 分裂Q系统 | 转录 | 两个启动子交集控制 | 依赖模块重建 | 否,主要驱动转基因 | 有限,与QS联用增加可调性 | 分辨率更高,适合细胞亚群 | 构建复杂 | 通常较低,元件增多可能增加背景 | 稀有细胞或神经元亚群交叉定位 |
| QF-GR | 转录 | 启动子限制QF-GR表达 | Dex诱导核转位 | 否,主要驱动转基因 | 可逆,撤掉Dex后逐步恢复 | 低泄漏,时间控制增强 | 药物条件需优化 | Dex剂量依赖,需药物对照 | 需持续诱导表达的实验 |
| Tet/Q融合系统 | 转录 | 结合Q与Tet模块 | 四环素类药物调控 | 否,主要驱动转基因 | 可逆,撤掉Dox后逐步关闭 | 灵活度高,动态调节能力强 | 系统复杂 | Dox剂量依赖,需评估药物本身效应 | 较稳健的药物诱导表达 |
| Cre/FLP三元系统 | DNA重组 | 双启动子交集控制 | 重组酶条件激活 | 是,需编辑靶位点 | 不可逆,DNA重组 | 构建AND门,提高特异性 | 元件较多,构建复杂 | 较低,非预期重组可形成永久效应 | 谱系示踪、永久激活、稀有细胞类型 |
| Ribo-on、Ribo-off | DNA重组 | Cre/loxP限制核酶活化或切除 | 重组酶诱导 | 是,需敲入核酶 | Cre触发后通常不可逆 | 直接作用于内源mRNA | 系统较新,应用范围待拓展 | 总体较低,需排除RNA加工和基础表达扰动 | 内源基因条件性开启/关闭、必需基因研究 |
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