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hutau-P301S Mouse
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hutau-P301S Mouse

製品名
hutau-P301S Mouse
製品ID
C001836
系統名
C57BL/6JCya-Mapttm3(hMAPT*P301S)/Cya
背景情報
C57BL/6JCya
Note
One of Cyagen’s HUGO-GTTM (Humanized Genomic Ortholog for Gene Therapy) Strains
状況
Live Mouse
このマウス系統を論文で使用する場合は、「hutau-P301S Mouse(カタログ番号C001836)はサイアジェンから購入しました。」と引用してください。
HUGO-GT Humanized Models
Disease Animal Models
Neurodegenerative Diseases
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製品タイプ
年齢
遺伝子型
性別
数量
標準的な配送方法では、少なくとも3匹のヘテロ接合体キャリアを保証しています。ホモ接合体キャリアや指定された性別の個体の繁殖サービスも利用可能です。
お見積もりについてはこちらまでご連絡ください
HUGO-GT Humanized Models
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基本情報

検証 Data

関連リソース

基本情報

遺伝子名

MAPT

遺伝子別名

TAU, MSTD, PPND, DDPAC, MAPTL, MTBT1, MTBT2, tau-40, FTDP-17, PPP1R103, Tau-PHF6

NCBI ID

4137

染色体

Chr 17

MGI ID

MGI:97180

さらに

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系統詳細

Frontotemporal Dementia (FTD) is the second most prevalent form of early-onset dementia, following Alzheimer’s disease (AD). This condition is distinguished by the selective degeneration of the frontal and temporal lobes, resulting in personality and behavioral changes, language impairments, and executive dysfunction. Approximately 40%-50% of FTD cases have a familial component, with known causative genes including MAPT, FUS, and TARDBP. Of these, MAPT is the earliest discovered and most frequently implicated in FTD. Mutations in the MAPT gene are detectable in roughly 30% of familial FTD cases [1].
The tau protein, a microtubule-associated protein encoded by MAPT, is primarily localized to neuronal axons and plays a critical role in microtubule stability and assembly. By binding to microtubules, the tau protein helps to maintain neuronal cell shape. Mutations in MAPT can promote tau aggregation, leading to pathological tau protein accumulation and death of glutamatergic cortical neurons [2]. Additionally, certain MAPT mutations can affect pre-mRNA exon splicing, altering the ratio of 3R to 4R tau protein isoforms and increasing the relative production of 4R-tau protein, which is more prone to fibril formation [3]. Common mutations include P301L, P301S, and Intron10+3 G>A [4]. Research indicates that the P301S mutation significantly reduces the ability of recombinant tau protein to promote microtubule assembly. Patients with this mutation exhibit clinical heterogeneity [10-12]. Similar to the P301L mutation, the P301S mutation also leads to pathological aggregation of the tau protein, resulting in neurodegenerative diseases.
Therapies targeting the MAPT gene primarily consist of small-molecule drugs and monoclonal antibodies, with indications including AD and FTD. Transgenic mice are frequently used in drug development, and the utilization of humanized animal models helps advance potential MAPT-related therapies toward clinical trials [5-9]. This strain is a mouse Mapt gene humanized model carrying the P301S mutation and can be used for research on FTD and AD. The homozygous hutau-P301S mice are viable and fertile. In addition, based on the independently developed TurboKnockout fusion BAC recombination technology, Cyagen can also generate other hot mutation models (e.g., B6-htau*P301L mice, Catalog Number: C001835) and provide customized services for specific mutations.

参考文献

Bang J, Spina S, Miller BL. Frontotemporal dementia. Lancet. 2015 Oct 24;386(10004):1672-82.
Strang KH, Golde TE, Giasson BI. MAPT mutations, tauopathy, and mechanisms of neurodegeneration. Lab Invest. 2019 Jul;99(7):912-928.
Lisowiec J, Magner D, Kierzek E, Lenartowicz E, Kierzek R. Structural determinants for alternative splicing regulation of the MAPT pre-mRNA. RNA Biol. 2015;12(3):330-42.
Molecular Genetics Department, University of Antwerp. AD Mutations.
Andorfer C, Kress Y, Espinoza M, de Silva R, Tucker KL, Barde YA, Duff K, Davies P. Hyperphosphorylation and aggregation of tau in mice expressing normal human tau isoforms. J Neurochem. 2003 Aug;86(3):582-90.
Easton A, Jensen ML, Wang C, Hagedorn PH, Li Y, Weed M, Meredith JE, Guss V, Jones K, Gill M, Krause C, Brown JM, Hunihan L, Natale J, Fernandes A, Lu Y, Polino J, Bookbinder M, Cadelina G, Benitex Y, Sane R, Morrison J, Drexler D, Mercer SE, Bon C, Pandya NJ, Jagasia R, Ou Yang TH, Distler T, Grüninger F, Meldgaard M, Terrigno M, Macor JE, Albright CF, Loy J, Hoeg AM, Olson RE, Cacace AM. Identification and characterization of a MAPT-targeting locked nucleic acid antisense oligonucleotide therapeutic for tauopathies. Mol Ther Nucleic Acids. 2022 Aug 4;29:625-642.
DeVos SL, Miller RL, Schoch KM, Holmes BB, Kebodeaux CS, Wegener AJ, Chen G, Shen T, Tran H, Nichols B, Zanardi TA, Kordasiewicz HB, Swayze EE, Bennett CF, Diamond MI, Miller TM. Tau reduction prevents neuronal loss and reverses pathological tau deposition and seeding in mice with tauopathy. Sci Transl Med. 2017 Jan 25;9(374):eaag0481.
Yoshiyama Y, Higuchi M, Zhang B, Huang SM, Iwata N, Saido TC, Maeda J, Suhara T, Trojanowski JQ, Lee VM. Synapse loss and microglial activation precede tangles in a P301S tauopathy mouse model. Neuron. 2007 Feb 1;53(3):337-51.
Arvinas. (2021). Arvinas 2021 Investor Day Presentation.
Barghorn S, Zheng-Fischhöfer Q, Ackmann M, Biernat J, von Bergen M, Mandelkow EM, Mandelkow E. Structure, microtubule interactions, and paired helical filament aggregation by tau mutants of frontotemporal dementias. Biochemistry. 2000 Sep 26;39(38):11714-21.
Bugiani O, Murrell JR, Giaccone G, Hasegawa M, Ghigo G, Tabaton M, Morbin M, Primavera A, Carella F, Solaro C, Grisoli M, Savoiardo M, Spillantini MG, Tagliavini F, Goedert M, Ghetti B. Frontotemporal dementia and corticobasal degeneration in a family with a P301S mutation in tau. J Neuropathol Exp Neurol. 1999 Jun;58(6):667-77.
Yasuda M, Nakamura Y, Kawamata T, Kaneyuki H, Maeda K, Komure O. Phenotypic heterogeneity within a new family with the MAPT p301s mutation. Ann Neurol. 2005 Dec;58(6):920-8.

系統作製戦略

The mouse Mapt gene was replaced with the human MAPT gene carrying the P301S mutation by gene editing technology.
Figure 1. Gene editing strategy of hutau-P301S mice.

適用分野

Research on Frontotemporal dementia (FTD);
Research on Alzheimer's disease (AD);
Research on other neurodegenerative diseases.
検証 Data

1. Expression of the human MAPT gene and the mouse Mapt gene

The results indicate that hutau-P301S mice and B6-htau mice significantly express the human MAPT gene in the liver, cerebral cortex, and kidney, while not expressing the mouse Mapt gene. In contrast, WT mice only exhibit expression of the mouse Mapt gene and do not show expression of the human MAPT gene.
Figure 2. RT-qPCR detection of human MAPT gene and mouse Mapt gene expression in the liver, cerebral cortex, and kidney of 6-week-old female hutau-P301S mice (hMAPT*P301S), B6-htau (hMAPT), and wild-type (WT) mice. ND: Not detected

2. Behavioral Testing: Open Field Test

(1)3-month-old
Figure 3. The travel distance (A-C) and central area time ratio (D-F) for WT, B6-htau, B6-htau*P301L, and hutau-P301S mice in the open field test. Data were analyzed using an ordinary one-way ANOVA; ns indicates no significant differences, **p < 0.01. (A-C) No significant alterations in travel distance across all models. (D-F) A notable decrease in the time spent in the central area is observed in hutau-P301S female when compared to their B6-htau counterparts, suggesting a slight increase in anxiety levels.
(2)6-month-old
Figure 4. The travel distance (A-C) and central area time ratio (D-F) for WT, B6-htau, B6-htau*P301L, and hutau-P301S mice in the open field test. Data were analyzed using an ordinary one-way ANOVA; ns indicates no significant differences, *p < 0.05, **p < 0.01. (A-C) In comparison to WT mice, the B6-htau, hutau-P301S, and B6-htau*P301L exhibited a significant rise in travel distance. Given that no differences were noted among the three HUGO strains, we suggest that this increase in travel distance is likely a physiological characteristic rather than a pathological change (e.g., hyperactivity). (D-F) No significant alterations in the central area time ratio across all models.
(3)9-month-old
(A~C) No significant changes in travel distance were observed across all male models, indicating stable spontaneous locomotor activity.
(D~F) No significant variations in the time ratio spent in the central area were found across all models, suggesting unchanged anxiety levels.
Figure 5. The travel distance (A-C) and central area time ratio (D-F) for WT, B6-htau, B6-htau*P301L, and hutau-P301S mice in the open field test. (A~C): The travel distance of 9-month-old mice over a duration of 10 minutes in an open field arena was measured. Statistical comparisons were performed using one-way ANOVA; ns indicates no significant differences. (D~F): The time ratio of the central area (central area time spent/total time spent) of the open field arena by 9-month-old mice was measured over a duration of 10 minutes. Statistical comparisons were performed using one-way ANOVA; ns indicates no significant differences.

3. Behavioral Testing: Rotarod Test

(1)3-month-old
No significant alterations in the latency across all models.
Figure 6. The latency for WT, B6-htau, B6-htau*P301L, and hutau-P301S mice in rotarod test. Data were analyzed using an ordinary one-way ANOVA; ns indicates no significant differences.
(2)6-month-old
No significant alterations in the latency across all models.
Figure 7. The latency for WT, B6-htau, B6-htau*P301L, and hutau-P301S mice in rotarod test. Data were analyzed using an ordinary one-way ANOVA; ns indicates no significant differences.
(3)9-month-old
No significant differences in latency for the rotarod assay were detected across all mixed-sex models, indicating consistent endurance and balance.
Figure 8. The latency observed in 9-month-old mice prior to their fall from the rotarod was measured. Statistical comparisons were conducted using one-way ANOVA for normally distributed data and the Kruskal–Wallis test for non-normally distributed data; ns indicates no significant differences.

4. Behavioral Testing: Novel Object Recognition Test

(1)6-month-old, Male
For the male comparison, WT, B6-htau, and B6-htau*P301L displayed a strong tendency to investigate new objects. In contrast, hutau-P301S mice exhibited almost no variation in their exploration patterns between familiar and novel objects, implying a considerable deficit in episodic memory.
Figure 9. The object preference (percentage of exploring the specific object/total exploration time of both objects) for male WT, B6-htau, B6-htau*P301L, and hutau-P301S mice in novel object recognition test. Data were analyzed using the t-test; ns indicates no significant differences, *p < 0.05, **p < 0.01.
(2)6-month-old, Female
For the female comparison, WT and B6-htau displayed a strong tendency to investigate new objects. In contrast, B6-htau*P301L mice showed a minor decrease in their preference for exploring new objects, resulting in an insignificant distinction between the familiar and novel subjects, indicating a slight impairment in episodic memory. Meanwhile, hutau-P301S mice exhibited almost no variation in their exploration patterns between familiar and novel objects, implying a considerable deficit in episodic memory.
Figure 10. The object preference (percentage of exploring the specific object/total exploration time of both objects) for female WT, B6-htau, B6-htau*P301L, and hutau-P301S mice in novel object recognition test. Data were analyzed using the t-test; ns indicates no significant differences, *p < 0.05, **p < 0.01.
(3)6-month-old, Male & Female
WT and B6-htau mice exhibited a strong tendency to investigate unfamiliar objects. In contrast, the previously observed lack of this inclination in B6-htau*P301L mice became evident in a mixed-sex setting, potentially due to the increased group size. Meanwhile, hutau-P301S mice showed minimal to no variation in their exploration patterns between familiar and novel objects, indicating a notable deficit in episodic memory.
Figure 11. The object preference (percentage of exploring the specific object/total exploration time of both objects) for mixed-sex WT, B6-htau, B6-htau*P301L, and hutau-P301S mice in novel object recognition test. Data were analyzed using the t-test; ns indicates no significant differences, *p < 0.05, ***p < 0.001.
(4)9-month-old, Male
Male WT and B6-htau mice demonstrated a strong preference for exploring the novel object, indicative of intact episodic memory. In contrast, male B6-htau*P301L and hutau-P301S mice showed little to no difference in exploration between familiar and novel objects, suggesting a marked impairment in episodic memory function.
Figure 12. The object preference (percentage of exploring the specific object/total exploration time of both objects) of 9-month-old male mice over a duration of 10 minutes was measured. Statistical comparisons were performed using a paired t-test; ns indicates no significant differences, *p < 0.05, ***p < 0.001.
(5)9-month-old, Female
Female WT and B6-htau mice exhibited a strong preference for exploring the novel object, reflecting intact episodic memory. In contrast, female hutau-P301S mice showed a slight, but statistically non-significant increase in preference for the novel object, suggesting a mild impairment in episodic memory. Female B6-htau*P301L mice displayed almost no difference in exploration between the familiar and novel objects, indicating a substantial deficit in episodic memory.
Figure 13. The object preference (percentage of exploring the specific object/total exploration time of both objects) of 9-month-old female mice over a duration of 10 minutes was measured. Statistical comparisons were performed using a paired t-test; ns indicates no significant differences, ***p < 0.001, ****p < 0.0001.
(6)9-month-old, Male & Female
Mixed-sex WT and B6-htau mice demonstrated a robust preference for exploring the novel object, indicative of preserved episodic memory. In contrast, B6-htau*P301L and hutau-P301S mice exhibited little to no difference in exploration between familiar and novel objects, suggesting a significant impairment in episodic memory.
Figure 14. The object preference (percentage of exploring the specific object/total exploration time of both objects) of 9-month-old mixed-sex mice over a duration of 10 minutes was measured. Statistical comparisons were performed using a paired t-test; ns indicates no significant differences, ***p < 0.001, ****p < 0.0001.

5. Validation of Pathological Changes for htau Strains

(1)3-month-old, hutau-P301S mice, HT7 & AT8
HT7 is a monoclonal antibody that binds to an epitope present on all isoforms of human tau, enabling the visualization of overall tau expression. In contrast, AT8 selectively recognizes tau phosphorylated at Ser202 and Thr205, serving as a marker for pathological tau hyperphosphorylation commonly observed in Alzheimer's disease and related tauopathies.
Figure 15. Visualization of DAPI (blue), HT7 (green), and AT8 (green) staining was performed in the hippocampus of 3-month-old hutau-P301S mice. DAPI staining (blue) revealed normal nuclear morphology. HT7 immunoreactivity (green, top line) confirmed the expression of human tau protein in hippocampal neurons, using a Thermo Fisher antibody (catalog no. MN1000) at a 1:1,000 dilution. AT8 immunoreactivity (green, bottom line) indicated the presence of phosphorylated human tau; however, its expression in the hippocampus was sparse at this age, which may be in line with the absence of behavioral pathology. AT8 staining was performed using a Thermo Fisher antibody (catalog no. MN1020) at a 1:1,000 dilution.
(2)9-month-old, B6-htau mice, HT7
Figure 16. Visualization of DAPI (blue), NeuN (red), and HT7 (green) staining in the hippocampus of C57BL/6J wild-type (WT) and B6-htau mice. Both C57BL/6J WT and B6-htau models displayed normal DAPI and NeuN staining, indicating proper nuclear morphology and well-organized neuronal architecture. No HT7 signal (green) was detected in the C57BL/6J WT mice, confirming the absence of human tau protein expression. In contrast, HT7 immunoreactivity (green) was evident in the B6-htau models, indicating the expression of human tau protein. HT7 staining was performed using a Thermo Fisher antibody (catalog number MN1000) at a dilution of 1:1,000.
(3)9-month-old, B6-htau*P301L and hutau-P301S mice, HT7
Figure 17. Visualization of DAPI (blue), NeuN (red), and HT7 (green) staining in the hippocampus of B6-htau*P301L and hutau-P301S models. In both models, DAPI staining (blue) reveals abnormal neuronal nuclear morphology, while NeuN immunoreactivity (red) indicates disorganized neuronal architecture. HT7 immunoreactivity (green) confirms the expression of human tau protein in the hippocampal tissue. HT7 staining was conducted using a Thermo Fisher antibody (catalog number MN1000) at a dilution of 1:1,000.
(4)9-10-month-old, B6-htau mice, AT8
Figure 18. Visualization of DAPI (blue), NeuN (red), and AT8 (yellow) staining in the hippocampus of C57BL/6J WT and B6-htau models. Normal DAPI and NeuN staining were observed in both models, indicating intact nuclear morphology and organized neuronal arrangement. The absence of AT8 signal suggests no phosphorylated tau protein, indicating the lack of pathological tau in the C57BL/6J WT and B6-htau mice. AT8 staining was performed using the Thermo Fisher antibody (catalog number MN1020) at a dilution of 1:1,000.
(5)9-month-old, B6-htau*P301L and hutau-P301S mice, AT8
Figure 19. Visualization of DAPI (blue), NeuN (red), and AT8 (yellow) staining in the hippocampus of B6-htau*P301L and hutau-P301S models. In both B6-htau*P301L and hutau-P301S models, DAPI staining (blue) depicts abnormal neuronal nuclear morphology, while NeuN immunoreactivity (red) illustrates a disorganized neuronal architecture. AT8 immunoreactivity (yellow) confirms the presence of phosphorylated human tau protein, indicating pathological tau in these models. AT8 staining was performed using the Thermo Fisher antibody (catalog number MN1020) at a dilution of 1:1,000.
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