日期:
2020 年 — 2026 年
2020
2021
2022
2023
2024
2025
2026
影响因子:

Self-aggregating Lactiplantibacillus plantarum enhances type-I interferon responses via the cytosolic sensors NOD2 and cGAS

自聚集的植物乳杆菌通过胞质传感器NOD2和cGAS增强I型干扰素反应。

Solis, Selvin; Maldonado, Elaina M; Mukhopadhyay, Subhankar; Jan, Gwénaël; Landete, José María; Maluquer de Motes, Carlos; Gutierrez-Merino, Jorge

The ZNF148-ZEB1-AS1-IGF2BP2-NOD2 Axis Drives Microglial Antipneumococcal Immunity in Bacterial Meningitis.

ZNF148-ZEB1-AS1-IGF2BP2-NOD2 轴驱动细菌性脑膜炎中的小胶质细胞抗肺炎球菌免疫。

Hu Xiufu, Jiang Fang, Liu Xinjie, Li Ling, Hu Ruimei, Dong Meng, Cao Aihua

Disulfidptosis-Induced Chondrocyte-Macrophage Crosstalk via GYS1/CCND1/NOD2 Axis Promotes Osteoarthritis Progression

二硫键凋亡诱导的软骨细胞-巨噬细胞串扰通过GYS1/CCND1/NOD2轴促进骨关节炎进展

Sun, Qing; Wei, Zhihui; Shao, Gaohai; Yang, Mengfan; Zeng, Xianyan; Hong, Xiang; Gou, Rong; Zhang, Han; Zhang, Yining; Dong, Shuheng; Qu, Yiming; Liu, Yujiao

Identification and Evaluation of Benzimidazole- Agonists of Innate Immune Receptor NOD2

先天免疫受体NOD2的苯并咪唑激动剂的鉴定和评价

Wittle, Liora; Ocius, Karl L; Chordia, Mahendra D; van Wagoner, Carly; Bullock, Timothy N J; Pires, Marcos M

A NOD2-Encoded Toggle Switch Resolves the Host-Microbe Battle Over Cyclic AMP Control

一种NOD2编码的拨动开关解决了宿主与微生物之间关于环磷酸腺苷(cAMP)控制权的争夺。

Anandachar, Mahitha Shree; Chen, David; Perkins, Kennith Carpio; Katkar, Gajanan D; Roy, Suchismita; Espinoza, Celia R; Mullick, Madhubanti; Sinha, Saptarshi; Nakayama, Michelle; Salem, Jasmin; Estanol, Megan; Bhattacharjee, Rishav; Zablan, Kameron; Hsu, Shu-Tsing; Williams, Sinclair; Sun, Annan; Tindle, Courtney; Yang, Jerry; Kufareva, Irina; Ghosh, Pradipta

Evaluation of ASCA IgA/IgG seropositivity, fecal calprotectin levels and NOD2 gene polymorphisms in patients with hidradenitis suppurativa: A prospective case-control study

化脓性汗腺炎患者抗血清抗凝物抗体IgA/IgG血清阳性率、粪便钙卫蛋白水平及NOD2基因多态性的评估:一项前瞻性病例对照研究

Tanrıbilir, Mahmut Esat; Aksakal, Ahmet Burhan; Gülbahar, Özlem; Aydın, Gizem Yaz; Kayhan, Gülsüm; Karakan, Tarkan; Adışen, Esra

DUBA sustains the stability of NOD2 and RIPK2 to enhance innate immune responses

DUBA 维持 NOD2 和 RIPK2 的稳定性,从而增强先天免疫反应

Bincheng Zhou ,Maojin Yin ,Xian Su ,Suhui Sheng ,Xue Du ,Jiangyun Shen ,Kangmin Chen ,Deqi Wang ,Zhenhu Zhu ,Yanqi Xu ,Zhongding Li ,Jianmin Li ,Yuhua Li ,Jing Ruan ,Xu Wang

Distinct colitis-associated macrophages drive NOD2-dependent bacterial sensing and gut homeostasis

独特的结肠炎相关巨噬细胞驱动NOD2依赖性细菌感知和肠道稳态

Katkar, Gajanan D; Anandachar, Mahitha Shree; Ibeawuchi, Stella-Rita C; McLaren, Ella G; Estanol, Megan L; Carpio-Perkins, Kennith; Hsu, Shu-Ting; Espinoza, Celia R; Coates, Jane E; Malhotra, Yashaswat S; Mullick, Madhubanti; Castillo, Vanessa; Vo, Daniella; Sinha, Saptarshi; Ghosh, Pradipta

The dual roles of peptidoglycans: NOD1 and NOD2 inversely regulate bone metabolism

肽聚糖的双重作用:NOD1 和 NOD2 反向调节骨代谢

Park, Ok-Jin; Kim, Jiseon; Lim, Yeonjin; Park, Chaeyeon; Yun, Cheol-Heui; Han, Seung Hyun

Contrasting outcomes of inherited NOD2 loss-of-function variants on immunotherapy response in cancer

遗传性NOD2功能缺失变异对癌症免疫治疗反应的不同影响

Bousdar, Nora; Pérez-Ruiz, Elisabeth; Barragán, Isabel; Benítez, José Carlos; Rueda-Domínguez, Antonio; Oliver, Javier