
hIL-15 NOG Mice
414
NOD.Cg-PrkdcscidIL2rgtm1SugTg(CMV-IL2/IL15)1-1Jic/JicCrl
【CIEM正式授权】表达人源细胞因子IL-15
品系来源
hIL-15 NOG小鼠由日本中央实验动物研究所(CIEM)培育而成。CIEM Mamoru Ito实验室通过将CMV启动子控制的含有hIL-15 cDNA的DNA转基因载体(带有hIL-2信号肽)显微注射到NOD/ShiJic-Il2rg小鼠的受精卵中,构建出Founder品系。该Founder再与NOG小鼠回交,建立了稳定的hIL-15 NOG小鼠。
✈ 2020年,维通利华从CIEM引入该品系。
☑ 拓展阅读:hIL-15 NOG小鼠在γδ T细胞治疗研究中的应用案例
☑ 拓展阅读:NK细胞研发加速计划:看hIL-15 NOG小鼠推动细胞疗法新进展
应用特性
研究用途:
- 非常适用于抗体依赖性的NK细胞毒性(ADCC)研究。
- 可用于基于NK细胞的肿瘤免疫疗法研究。
- 可用于癌症、传染病、免疫学、再生医学、人类免疫系统移植等研究。
特性:
毛色:白化
除了NOG小鼠的特性外,还具备以下特性:
- 表达人源细胞因子IL-15。
- 与NOG小鼠相比,huHSC-CD34+移植hIL-15 NOG小鼠后,人的NK细胞重建率更高,但寿命相对缩短。
- huHSC-CD34+移植hIL-15 NOG小鼠后产生的人源NK细胞,能够表达各种NK细胞受体,刺激后也能够产生颗粒酶A和穿孔素。
- 直接移植人外周血单个核细胞来源的CD56+NK细胞(huPBMC-NK),也会有NK细胞的重建及扩增。
价格规格
品系代码 | 品系名称 | 日/周龄 | 性别 | VAF/SPF级 | Elite/SPF级 |
414 |
hIL-15 NOG
|
1-8周
|
雌
|
1290 |
*以上规格与价格自2025年1月1日至2025年12月31日有效。
应用文献
hIL-15 NOG Publications
Authors |
Year |
Paper Title |
Keywords |
Odd L Gammelgaard, et al. |
2024 |
Adoptive cell transfer therapy, Anti-PDL1, triple-negative breast cancer, MDA-MB-231 |
|
Émilie Degagné, et al. |
2024 |
BCMA, allogenei CAR-T, GvHD |
|
Shahryar Khoshtinat Nikkhoi, et al. |
2024 |
bispecific killer cell engager, BiKE:E5C1, NK cell, HER-2+, |
|
Lisa A. King, et al. |
2024 |
Vg9Vd2 T-cells, bispecific T-cell engager, single domain antibody, expansion, immunotherapy, cancer |
|
Khoshtinat Nikkhoi S, et al. |
2024 |
HER2, CD16a, BiKE:E5C1, ADCC, laNK92, NK |
|
Jian‑Xin Cui, et al. |
2023 |
L-kynurenine induces NK cell loss in gastric cancer microenvironment via promoting ferroptosis |
NK cell, Gastric cancer, Tumor microenvironment, L-kynurenine, Ferroptosis |
Jens Pahl, et al. |
2023 |
AFM13,AB-101,ADCC, NK, CD30/CD16A,Bispecific antibody |
|
Sumin Jo, et al. |
2022 |
Endowing universal CAR T-cell with immuneevasive properties using TALEN-gene editing |
|
Rodolfo Gonzalez, et al. |
2022 |
CAR-NK, iPSC-derived, cell therapy, ROR1 |
|
Caruso, Simona et al. |
2022 |
CAR-NK, AML, CD123, cell therapy |
|
Anna Bunin, et al. |
2019 |
Human transgenic IL-15 NOG mice reconstituted with human NK cells as a model for NK cell depletion |
NK cell engraftment, ADCC, lymphoma |
Ikumi Katano, et al. |
2020 |
ADCC, NK cell, humanized, |
|
Eduardo Huarte, et al. |
2021 |
NK cell, GvHD, JAK/STAT, |
|
Jens Pahl, et al. |
2021 |
BiAbs,CD16/EGFR, breast cancer, antibody-dependent cell-mediated cytotoxicity (ADCC), macrohphage-mediated antibody-dependent cellular phagocytosis (ADCP), Immuno-Oncology |
|
Kevin R. Kipp, et al. |
2021 |
IL15/IL21 inhibitor, GvHD, blood immunophenotyping, CD8+ T cell |
|
Nina B. Horowitz, et al. |
2021 |
Humanized Mouse Models for the Advancement of Innate Lymphoid Cell-Based Cancer Immunotherapies |
innate lymphocyte cell (ILCs), NK cell, cancer immunotherapy, oncoimmunology, PDX, humanized |
C.Rudulier, et al. |
2020 |
In vivo Model Development for Genome-Edited T Cell Therapeutics |
safety assessment, cell therapy |
Paul Volden, et al. |
2018 |
NK cell, cytotoxicity, |
|
Ikumi Katano, et al. |
2017 |
NK cell, ADCC, leukemia, K562, gastric cancer, HER-2, cell therapy, humanized |
|
Ikumi Katano, et al. |
2016 |
Human interleukin-15 transgenic NOG mice support the long-term maintenance of human mature NK cells from peripheral blood |
NK cell, myelogenous leukemia, K562 |