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Tissue-specific Physical and Biological Microenvironments Modulate the Behavior of Cervical Squamous Cell Carcinoma

発表形態:
原著論文
主要業績:
主要業績
単著・共著:
共著
発表年月:
2021年10月
DOI:
10.1267/ahc.21-00038
会議属性:
指定なし
査読:
有り
リンク情報:

日本語フィールド

著者:
Katsuyuki Hanashima, Takashi Akutagawa, Mihoko Yamamoto-Rikitake, Takehisa Sakumoto, Maki Futamata, Yoshifumi Nakao , Masatoshi Yokoyama, Shuji Toda, Shigehisa Aoki
題名:
Tissue-specific Physical and Biological Microenvironments Modulate the Behavior of Cervical Squamous Cell Carcinoma
発表情報:
Acta Histochem Cytochem 巻: 54 号: 5 ページ: 155-165
キーワード:
air-liquid interface; cancer microenvironment; cancer-stroma interaction; cervical cancer; shear stress
概要:
The mechanisms controlling the aggressiveness and survival of cervical SCC cells remain unclear. We investigated how the physical and biological microenvironments regulate the growth, apoptosis and invasiveness of cervical cancer cells. Dynamic flow and air exposure were evaluated as physical microenvironmental factors, and stromal fibroblasts were evaluated as a biological microenvironmental factor. To investigate any regulatory effects of these microenvironmental factors, we established a new culture model which concurrently replicates fluid streaming, air exposure and cancer-stromal interactions. Three cervical cancer cell lines were cultured with or without NIH 3T3 fibroblasts. Air exposure was realized using a double-dish culture system. Dynamic flow was created using a rotary shaker. Dynamic flow and air exposure promoted the proliferative activity and decreased the apoptosis of cervical cancer cells. Fibroblasts regulated the invasive ability, growth and apoptosis of cervical cancer cells. Extracellular signal-regulated kinase and p38 signaling were regulated either synergistically or independently by dynamic flow, air exposure and cellular interactions, depending on the cervical cancer cell type. This study demonstrates that the physical and biological microenvironments interact to regulate the aggressiveness and survival of cervical cancer cells. Our simple culture system is a promising model for developing further treatment strategies for various types of cancer.
抄録:

英語フィールド

Author:
Katsuyuki Hanashima, Takashi Akutagawa, Mihoko Yamamoto-Rikitake, Takehisa Sakumoto, Maki Futamata, Yoshifumi Nakao , Masatoshi Yokoyama, Shuji Toda, Shigehisa Aoki
Title:
Tissue-specific Physical and Biological Microenvironments Modulate the Behavior of Cervical Squamous Cell Carcinoma
Announcement information:
Acta Histochem Cytochem Vol: 54 Issue: 5 Page: 155-165
Keyword:
air-liquid interface; cancer microenvironment; cancer-stroma interaction; cervical cancer; shear stress
An abstract:
The mechanisms controlling the aggressiveness and survival of cervical SCC cells remain unclear. We investigated how the physical and biological microenvironments regulate the growth, apoptosis and invasiveness of cervical cancer cells. Dynamic flow and air exposure were evaluated as physical microenvironmental factors, and stromal fibroblasts were evaluated as a biological microenvironmental factor. To investigate any regulatory effects of these microenvironmental factors, we established a new culture model which concurrently replicates fluid streaming, air exposure and cancer-stromal interactions. Three cervical cancer cell lines were cultured with or without NIH 3T3 fibroblasts. Air exposure was realized using a double-dish culture system. Dynamic flow was created using a rotary shaker. Dynamic flow and air exposure promoted the proliferative activity and decreased the apoptosis of cervical cancer cells. Fibroblasts regulated the invasive ability, growth and apoptosis of cervical cancer cells. Extracellular signal-regulated kinase and p38 signaling were regulated either synergistically or independently by dynamic flow, air exposure and cellular interactions, depending on the cervical cancer cell type. This study demonstrates that the physical and biological microenvironments interact to regulate the aggressiveness and survival of cervical cancer cells. Our simple culture system is a promising model for developing further treatment strategies for various types of cancer.


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