カタログ番号: C001316
系統名: NOD.Cg-Prkdcscid Il2rgem1cya/Cya
一般名: NKG
遺伝的背景: NOD.Cg
被毛の色: 白
繁殖方法: Sibling x Sibling
系統の説明
NKGマウスは、CyagenによってNOD-Scid遺伝的背景マウスからIl2rg遺伝子をノックアウトすることにより作製された、重度の免疫不全マウスの一種です。NKGマウスは、成熟したT細胞、B細胞、機能的なNK細胞の欠乏、補体活性の低下、さらにはマクロファージによるヒト由来細胞の貪食の弱さを特徴としており、これらはヒト造血幹細胞(HSC)、末梢血単核細胞(PBMC)、成人幹細胞および組織、患者由来異種移植(PDX)の移植に適しています。
現在、NKGマウスは免疫不全の度合いが非常に高いモデルとして広く認識されており、腫瘍学、免疫学、自己免疫疾患、免疫療法、ワクチン開発、移植片対宿主病(GvHD)研究、薬物安全性評価など、さまざまな研究分野において優れたモデルとして利用されています。
● 成熟したT細胞、B細胞、NK細胞の欠如
● 補体活性の低下
● マクロファージおよび樹状細胞機能の異常
● 年齢が進むにつれてT細胞およびB細胞の漏出が非常に低い
● リンパ腫の発症率が極めて低い(NOD-Scidマウスとの違い)
● 1型糖尿病への進行なし
● 授乳終了推奨週齢:3週齢
● 繁殖推奨週齢:6週齢
● 実用的な繁殖可能期間:出生後30週齢まで
● 健康状態:特定病原微生物を持たない状態(SPF)
● 免疫系および腫瘍免疫研究
● 血液細胞の発生および血液疾患研究
● HIVやAIDSなどの感染症研究
● 腫瘍移植および抗腫瘍効果研究
● CDX、PDX、GVHD、ヒト化免疫系(HIS)研究
1. Prkdc遺伝子変異の検出
Figure 1. Mutation type detection of Prkdc gene in NKG mice. The Prkdcscid mutation was generated by TAT→TAA transition in exon 84 of the Prkdc gene, and gene sequencing results showed that NKG mice carried the Prkdcscid mutation.
2. Il2rgノックアウトの検出
Figure 2. Deletion of Il2rg gene in NKG mice. PCR assay of the Il2rg gene in NKG mice showed successful deletion of the Il2rg gene in NKG mice (Band size of wild-type Il12rg gene: 1430bp; band size of Il12rg gene with partial fragment knocked out: 388bp).
3. NKGマウスの末梢血(PB)におけるB、T、NK細胞の検出
Figure 3. NKG mice showed severe immunodeficiency with severe deficiency of B, T, and NK cells in peripheral blood (PB). The results showed that B cells (CD3-CD19+), T cells (CD3+CD19-), T helper cells (CD3+CD4+CD8-), cytotoxic T cells (CD3+CD4-CD8+), and NK cells (CD335+CD3-) were almost completely absent in the peripheral blood of NKG mice.
4. NKGマウスの脾臓におけるB、T、NK細胞の検出
Figure 4. NKG mice showed severe immunodeficiency with severe deficiency of B, T, and NK cells in the spleen. The results showed that B cells (CD3-CD19+), T cells (CD3+CD19-), T helper cells (CD3+CD4+CD8-), cytotoxic T cells (CD3+CD4-CD8+), and NK cells (CD335+CD3-) were almost completely absent in the spleen of NKG mice.
5. ヒトPBMC(huPBMC)ヒト化免疫システム研究用NKGマウス
a. 生存曲線
Figure 5. The survival curve of huPBMC-NKG mice. Around 35 days after transplantation, huPBMC-NKG mice gradually began to die as graft-versus-host disease (GvHD) appeared. After 60 days of transplantation, about 20% of the mice were still alive.
b. ヒト白血球の割合
Figure 6. The proportion of human CD45+ cells in peripheral blood (PB) of huPBMC-NKG mice. After transplantation of human PBMCs, the content of human leukocytes in the peripheral blood of NKG mice gradually increased. After 3 weeks, the average proportion of human CD45+ cells exceeded 40%, and the reconstruction speed was relatively fast (similar products generally take 4 weeks to reach the same level of humanization ratio). After transplantation, the humanization ratio remained at a high level for 3-6 weeks.
c. T細胞再構築の割合
Figure 7. The proportion of human CD3+ T cells in the peripheral blood of huPBMC-NKG mice. About 95%- 100% of hCD45+ cells in NKG mice belong to hCD3+ T cells 3 weeks after human PBMC transplantation, indicating that the reconstruction of the human immune system in huPBMC-NKG mice was dominated by T cells.
d. 移植片対宿主病(GvHD)
Figure 8. GvHD scores and body weight changes in NKG mice after PBMC transplantation. GvHD symptoms begin to appear around 28d. Mice lost a significant amount of body weight, and the body weight was reduced by more than 20% after 45d.
6. huCD34+ HSC(huHSC)ヒト化免疫システム研究用のNKGマウス(成体)
a. 生存曲線
Figure 9. The survival curve of huHSC-NKG adult mice. The huHSC-NKG adult mice were free of graft-versus-host disease (GvHD) and maintained a high survival rate of over 70% after 150 days post-engraftment.
b. 成長曲線
Figure 10. The growth curve of huHSC-NKG adult mice. The huHSC-NKG adult mice maintained normal weight gain after the transplantation of huHSC.
c. ヒト白血球の割合
Figure 11. The proportion of human CD45+ cells in peripheral blood of huHSC-NKG adult mice. The percentage of human leukocytes gradually increased, and the average percentage of human CD45+ cells reached more than 60%.
d. ヒトT細胞およびB細胞の割合
Figure 12. Proportions of human T cells and B cells in huHSC-NKG adult mice. The reconstruction of the immune system in this model was dominated by B cells in the early stage. The proportion of B cells gradually decreased and the proportion of T cells gradually increased in the later stage. At 12 weeks post-engraftment, the proportion of T cells began to increase, reaching about 40% at week 16. The proportion of B cells was higher at the early stage, reaching 80%, and decreased to 15% at week 24.
e. ヒトNK細胞および単球の割合
Figure 13. Proportions of human NK cells and monocytes in huHSC-NKG adult mice. The proportions of NK cells and monocytes during immune system reconstitution were low. The average proportion of NK cells maintained at about 2% overall and the proportion of monocytes at week 16 was about 2%.
7. huHSCヒト化免疫系研究用NKGマウス(新生児)
a. 生存曲線
Figure 14. The survival curve of huHSC-NKG newborn mice. The huHSC-NKG newborn mice were free of graft-versus-host disease (GvHD). The survival rate of huHSC-NKG newborn mice maintained more than 90% before 100 days post engraftment and the survival rate still maintained more than 80% nearly 150 days post engraftment, which was higher than that of the adult model.
b. 成長曲線
Figure 15. The growth curve of huHSC-NKG newborn mice. The huHSC-NKG newborn mice maintained normal weight gain after the transplantation of huHSC.
c. ヒト白血球の割合
Figure 16. The proportion of human CD45+ cells in peripheral blood of huHSC-NKG newborn mice. The percentage of human leukocytes gradually increased. The average percentage of human CD45+ leukocytes reached more than 40% after 8 weeks post engraftment and subsequently increased and maintained at about 60%.
d. ヒトT細胞およびB細胞の割合
Figure 17. Proportions of human T cells and B cells in huHSC-NKG newborn mice. Similar to the adult model, the reconstruction of the immune system in this model was dominated by B cells in the early stage. The proportion of B cells gradually decreased and the proportion of T cells gradually increased in the later stage. At 12 weeks post-engraftment, the proportion of T cells began to increase, reaching about 40% at week 14. The proportion of B cells was higher than 80% at the early stage and decreased continuously, dropping to 40% at week 20.
e. ヒトNK細胞および単球の割合
Figure 18. Proportions of human NK cells and monocytes in huHSC-NKG newborn mice. The proportions of NK cells and monocytes were higher in this newborn model than that in the adult model. The average percentage of NK cells was more than 10% in the early stage and maintained at about 5% in the later stage. The average percentage of monocytes was higher than 5%. Therefore, the newborn model is more suitable for studies related to myeloid cell targets.
8. 細胞株由来の異種移植(CDX)モデルの確立のためのNKGマウス
Figure 19. Tumor growth curves after subcutaneous xenografts of various human-derived tumor cells.Tumor cells were inoculated into NKG and NOD-Scid mice by subcutaneous injection at a cell inoculation rate of 5x10^6/each, and tumorigenic volumes were measured at different time points. The results showed that human pancreatic cancer cell line PANC-1, human liver cancer cell line Huh7, human gastric cancer cell line HGC-27, and human colon adenocarcinoma cell line SW620 were effective in establishing tumor models on NKG mice. The rate of tumor growth, as well as size in NKG mice, were better than those in NOD-Scid mice.
9. 血液腫瘍細胞株移植モデルの確立のためのNKGマウス
Figure 20. Tumor growth in NKG mice after transplantation of human Jurkat cells. Transplant human T-lymphocyte cell line Jurkat with luciferase marker into NKG mice by tail vein injection and subsequently detect tumor growth by fluorescence generation. The results showed that Jurkat lymphocyte cells could grow in NKG mice, indicating the successful establishment of this tumor model.
10. ヒトリンパ腫(Raji-Luc)CDXモデルにおけるパクリタキセルの抗腫瘍薬理学
Figure 21. The anti-tumor pharmacodynamics of paclitaxel on the human lymphoma (Raji-Luc) CDX model. Transplant human lymphoma (Raji-Luc) cell lines into NKG mice and treat with the anti-cancer drug paclitaxel (PTX) to verify the effect of tumorigenesis in NKG mice and the pharmacodynamic. The results showed that the human lymphoma (Raji-Luc) cell line could grow normally in mice and lead to their death by day 28. In contrast, treatment with paclitaxel (PTX) effectively attenuated tumor development and maintained the survival of mice.
11. NKGマウスを用いたPANC-1膵臓in-situモデルの確立
Figure 22. Establishment of a pancreatic in-situ model using NKG mice. After transplanting the human pancreatic cancer cell line PANC-1 into NKG mice, the fluorescent effect, mouse survival, and average total fluorescence value were measured. The results show that the PANC-1 pancreatic in-situ model was successfully established.
12. NKGマウスを用いたNCI-H441肺in-situモデルの確立
Figure 23. Establishment of a lung in-situ model using NKG mice. After transplanting the human lung cancer cell line NCI-H441 into NKG mice, the fluorescent effect and the average total fluorescence value were measured, and the lung tissue of the mice was observed by dissection. The results show that the NCI-H441 lung in-situ model was successfully established.
13. NKGマウスを用いたMCF-7-luc乳がん骨転移マウスモデルの確立
Figure 24. Establishment of a breast cancer bone metastasis mouse model using NKG mice. Human breast cancer MCF-7-luc cells were inoculated into NKG (left) in the form of tibial injection, with a cell inoculation amount of 0.5×106 per mouse. At the same time, MCF-7-luc cells were inoculated into NKG in the form of iliac artery injection, with a cell inoculation amount of 1×106 per mouse (right). The results show that MCF-7-luc can effectively establish a bone metastasis tumor model in NKG mice.
14. H&E染色
a. NKGマウスの各種組織のH&E染色
Figure 25. Pathological examination of NKG mice. No obvious abnormalities were observed in the lung, liver, heart, kidney, stomach, small intestine, colon, and cervix. However, the spleen lacked white pulp, and lymphocytes were reduced in the spleen and thymus.
b. 脾臓および胸腺組織のH&E染色結果
Figure 26. Pathological examination of spleen and thymus tissues in wild-type (WT) mice, NOD-Scid mice, and NKG mice. Results show that the spleen structure of wild-type mice is normal, with intact follicles and a normal red-to-white pulp ratio. In contrast, NOD-Scid and NKG mice exhibit a decreased number of lymphocytes and unclear red and white pulp boundaries in the spleen. Additionally, the thymus structure of wild-type mice is normal, whereas the thymuses of NOD-Scid and NKG mice are atrophied, with significantly reduced cortical and medullary lymphocytes.
15. 8週齢NKGマウスの完全血球計算(CBC)(n=20、データは平均±SEMのように表示)
16. 血液生化学(n=8、データは平均±SEMのように表示)
17. ヒト由来の腫瘍細胞株を用いた in vivo 腫瘍形成の検証
Cell lines |
Source |
Cancer |
Cell types |
Host mouse strains |
In vivo |
5637 |
Human |
Bladder cancer |
Wild-type |
NKG |
Subcutaneous |
22Rv1 |
Human |
Prostatic cancer |
Wild-type |
NKG; NOD-Scid |
Subcutaneous |
786-O |
Human |
Kidney cancer |
Wild-type |
NKG, NOD-Scid |
Subcutaneous |
A-375 |
Human |
Malignant melanoma |
Wild-type |
NKG, BALB/c nude, NOD-Scid |
Subcutaneous |
A-431 |
Human |
Epidermal carcinoma |
Wild-type |
NKG |
Subcutaneous |
A549 |
Human |
Non-small cell lung cancer |
Wild-type |
NKG, NOD-Scid |
Subcutaneous |
ACHN |
Human |
Kidney cancer |
Wild-type |
NKG |
Subcutaneous |
AsPC-1 |
Human |
Pancreatic cancer |
Wild-type |
NKG, BALB/c nude, NOD-Scid |
Subcutaneous |
BT-474 |
Human |
Breast cancer |
Wild-type |
NKG, NOD-Scid |
Subcutaneous |
BxPC-3 |
Human |
Pancreatic cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
Caki-1 |
Human |
Renal cell carcinoma |
Wild-type |
NKG |
Subcutaneous |
Calu-3 |
Human |
Lung adenocarcinoma |
Wild-type |
NKG |
Subcutaneous |
Colo205 |
Human |
Colorectal cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
Daudi |
Human |
Burkitt's lymphoma |
Wild-type |
NKG |
Subcutaneous |
DLD-1 |
Human |
Colorectal adenocarcinoma epithelium |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
HCC827 |
Human |
Non-small cell lung cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
HCT-116 |
Human |
Colorectal cancer |
Wild-type |
NKG, BALB/c nude, NOD-Scid |
Subcutaneous |
HCT-15 |
Human |
Colorectal cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
HeLa |
Human |
Cervical cancer |
Wild-type |
NKG, BALB/c nude, NOD-Scid |
Subcutaneous |
Hep G2 |
Human |
Liver cancer |
Wild-type |
NKG, NOD-Scid |
Subcutaneous |
Hep3B |
Human |
Liver cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
HGC-27 |
Human |
Gastric cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
HT29 |
Human |
Colorectal cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
HuH-7 |
Human |
Liver cancer |
Wild-type |
NKG, NOD-Scid |
Subcutaneous |
KYSE-150 |
Human |
Esophageal cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
LoVo |
Human |
Colorectal cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
LS174T |
Human |
Colorectal adenocarcinoma |
Wild-type |
NKG |
Subcutaneous |
MCF-7 |
Human |
Breast cancer |
Wild-type |
NKG |
Subcutaneous |
MDA-MB-231 |
Human |
Breast cancer |
Wild-type |
NKG, NOD-Scid |
Subcutaneous |
MGC-803 |
Human |
Gastric cancer |
Wild-type |
NKG |
Subcutaneous |
MKN-45 |
Human |
Gastric cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
MM.1S |
Human |
Multiple myeloma |
Wild-type |
NKG |
Subcutaneous |
MV-4-11 |
Human |
Leukaemia |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
NCI-H1299 |
Human |
Non-small cell lung cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
NCI-H1650 |
Human |
Lung cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
NCI-H1703 |
Human |
Squamous cell lung carcinoma |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
NCI-H1975 |
Human |
Lung adenocarcinoma |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
NCI-H2228 |
Human |
Lung cancer |
Wild-type |
NKG |
Subcutaneous |
NCI-H226 |
Human |
Squamous cell lung carcinoma |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
NCI-H23 |
Human |
Non-small cell lung cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
NCI-H292 |
Human |
Lung cancer |
Wild-type |
NKG, NOD-Scid |
Subcutaneous |
NCI-H441 |
Human |
Lung adenocarcinoma |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
NCI-H446 |
Human |
Lung cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
NCI-H460(H460) |
Human |
Large cell lung cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
NCI-H520 |
Human |
Lung cancer |
Wild-type |
NKG |
Subcutaneous |
NCI-H69 |
Human |
Non-small cell lung cancer |
Wild-type |
NKG |
Subcutaneous |
NCl-N87 |
Human |
Gastric cancer |
Wild-type |
NKG |
Subcutaneous |
NUGC-3 |
Human |
Gastric cancer |
Wild-type |
NKG |
Subcutaneous |
NUGC-4 |
Human |
Gastric cancer |
Wild-type |
NKG |
Subcutaneous |
OVCAR-3 |
Human |
Ovarian cancer |
Wild-type |
NKG |
Subcutaneous |
PANC-1 |
Human |
Pancreatic cancer |
Wild-type |
NKG |
Subcutaneous |
PC-9 |
Human |
Lung cancer |
Wild-type |
NKG, SCID Beige |
Subcutaneous |
Raji |
Human |
Lymphomas |
Wild-type |
NKG, NOD-Scid |
Subcutaneous |
RPMI8226 |
Human |
Multiple myeloma |
Wild-type |
NKG |
Subcutaneous |
RT-4 |
Human |
Bladder cancer |
Wild-type |
NKG |
Subcutaneous |
SH-SY5Y |
Human |
Neuroblastoma |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
SK-HEP-1 |
Human |
Liver cancer |
Wild-type |
NKG |
Subcutaneous |
SK-OV-3 |
Human |
Ovarian cancer |
Wild-type |
NKG, BALB/c nude, NOD-Scid |
Subcutaneous |
SW480 |
Human |
Colorectal cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
SW620 |
Human |
Colorectal cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
SW780 |
Human |
Bladder cancer |
Wild-type |
NKG |
Subcutaneous |
U-87 MG |
Human |
Malignant glioblastoma |
Wild-type |
NKG, NOD-Scid |
Subcutaneous |
UM-UC-3 |
Human |
Bladder cancer |
Wild-type |
NKG, BALB/c nude |
Subcutaneous |
*NOD-Scidマウス(カタログ番号:C001070)は、非肥満糖尿病マウス(NOD)背景株にPrkdc^scid変異を導入することにより構築された免疫不全マウスで、先天的なT細胞およびB細胞免疫不全を持っています。BALB/c Nudeマウス(カタログ番号:C001217)は、成熟したTリンパ球を欠いた免疫不全マウスです。
*この表に記載されている具体的な検証データは、公式ウェブサイトで確認できます。
Publications
[1]Ying-Qun Yang, Yue Hu, Si-Rui Zhang, Jie-Fu Li, Jia-Wen Guan, Wen-Jing Zhang, Yu Sun, Xiao-Yan Feng, Jing Sun, Yun Yang, Zefeng Wang, Huan-Huan Wei. Extensive Dysregulation of SLK Splicing in Cancers Impacts Metastasis. bioRxiv 2022.10.28.514146.
[2]Peng Y, Wu Z, Pang Z, Zhang L, Song D, Liu F, Li Y, Lin T. Manufacture and evaluation of a HER2-positive breast cancer immunotoxin 4D5Fv-PE25. Microb Cell Fact. 2023 May 17;22(1):100.
[3]Zhao JZ, Wang W, Liu T, Zhang L, Lin DZ, Yao JY, Peng X, Jin G, Ma TT, Gao JB, Huang F, Nie J, Lv Q. MYBL2 regulates de novo purine synthesis by transcriptionally activating IMPDH1 in hepatocellular carcinoma cells. BMC Cancer. 2022 Dec 9;22(1):1290.
[4]Cheng C, Cui H, Liu H, Wu Y, Ding N, Weng Y, Zhang W, Cui Y. Role of Epidermal Growth Factor Receptor-Specific CAR-T Cells in the Suppression of Esophageal Squamous Cell Carcinoma. Cancers (Basel). 2022 Dec 7;14(24):6021.
[5]Li Z, Guo T, Zhao S, Lin M. The Therapeutic Effects of MUC1-C shRNA@Fe3O4 Magnetic Nanoparticles in Alternating Magnetic Fields on Triple-Negative Breast Cancer. Int J Nanomedicine. 2023 Oct 6;18:5651-5670.
[6]Liang W, Yi R, Wang W, Shi Y, Zhang J, Xu X, Wang Q, Liu M, Wang F. Enhancing the Antitumor Immunity of T Cells by Engineering the Lipid-Regulatory Site of the TCR/CD3 Complex. Cancer Immunol Res. 2023 Jan 3;11(1):93-108.
[7]Ye J, Liu Q, He Y, Song Z, Lin B, Hu Z, Hu J, Ning Y, Cai C, Li Y. Combined therapy of CAR-IL-15/IL-15Rα-T cells and GLIPR1 knockdown in cancer cells enhanced anti-tumor effect against gastric cancer. J Transl Med. 2024 Feb 18;22(1):171.
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