Figure S6 from Oncogenic Transformation Drives DNA Methylation Loss and Transcriptional Activation at Transposable Element Loci

Figure S6 from Oncogenic Transformation Drives DNA Methylation Loss and Transcriptional Activation at Transposable Element Loci

<p>Supplemental Figure 6</p>

Zapisane w:

Opis bibliograficzny
1. autor:	Tomas Kanholm (14952351) (author)
Kolejni autorzy:	Uzma Rentia (16721162) (author), Melissa Hadley (16721165) (author), Jennifer A. Karlow (14957141) (author), Olivia L. Cox (16721168) (author), Noor Diab (16721171) (author), Matthew L. Bendall (14949937) (author), Tyson Dawson (16721174) (author), James I. McDonald (14952345) (author), Wenbing Xie (16721177) (author), Keith A. Crandall (14949943) (author), Kathleen H. Burns (16721180) (author), Stephen B. Baylin (15045804) (author), Hari Easwaran (16721183) (author), Katherine B. Chiappinelli (16721186) (author)
Wydane:	2025
Hasła przedmiotowe:	Cancer Cancer Risk Factors Tumor Biology Molecular and Cellular Biology Methods and Technology Computational Methods Gene expression profiling Epigenetics DNA methylation Progression, Invasion & Metastasis Tumor progression
Etykiety:	Dodaj etykietę Nie ma etykietki, Dołącz pierwszą etykiete!

Podobne zapisy

Figure S1 from Oncogenic Transformation Drives DNA Methylation Loss and Transcriptional Activation at Transposable Element Loci
od: Tomas Kanholm (14952351)
Wydane: (2025)

Figure S2 from Oncogenic Transformation Drives DNA Methylation Loss and Transcriptional Activation at Transposable Element Loci
od: Tomas Kanholm (14952351)
Wydane: (2025)

Figure S3 from Oncogenic Transformation Drives DNA Methylation Loss and Transcriptional Activation at Transposable Element Loci
od: Tomas Kanholm (14952351)
Wydane: (2025)

Figure S4 from Oncogenic Transformation Drives DNA Methylation Loss and Transcriptional Activation at Transposable Element Loci
od: Tomas Kanholm (14952351)
Wydane: (2025)

Figure S5 from Oncogenic Transformation Drives DNA Methylation Loss and Transcriptional Activation at Transposable Element Loci
od: Tomas Kanholm (14952351)
Wydane: (2025)

Figure S7 from Oncogenic Transformation Drives DNA Methylation Loss and Transcriptional Activation at Transposable Element Loci
od: Tomas Kanholm (14952351)
Wydane: (2025)

Figure S8 from Oncogenic Transformation Drives DNA Methylation Loss and Transcriptional Activation at Transposable Element Loci
od: Tomas Kanholm (14952351)
Wydane: (2025)

Figure S9 from Oncogenic Transformation Drives DNA Methylation Loss and Transcriptional Activation at Transposable Element Loci
od: Tomas Kanholm (14952351)
Wydane: (2025)

Table S1 from Oncogenic Transformation Drives DNA Methylation Loss and Transcriptional Activation at Transposable Element Loci
od: Tomas Kanholm (14952351)
Wydane: (2025)

Table S2 from Oncogenic Transformation Drives DNA Methylation Loss and Transcriptional Activation at Transposable Element Loci
od: Tomas Kanholm (14952351)
Wydane: (2025)

Table S3 from Oncogenic Transformation Drives DNA Methylation Loss and Transcriptional Activation at Transposable Element Loci
od: Tomas Kanholm (14952351)
Wydane: (2025)

Supplementary Data from DNA Methylation Landscapes of Prostate Cancer Brain Metastasis Are Shaped by Early Driver Genetic Alterations
od: John Gallon (15096459)
Wydane: (2025)

Supplementary Figure S1 from Elucidating the Genetic Landscape of Oral Leukoplakia to Predict Malignant Transformation
od: Leon J. Wils (15055780)
Wydane: (2025)

Supplementary Figure S10 from Elucidating the Genetic Landscape of Oral Leukoplakia to Predict Malignant Transformation
od: Leon J. Wils (15055780)
Wydane: (2025)

Supplementary Figure S11 from Elucidating the Genetic Landscape of Oral Leukoplakia to Predict Malignant Transformation
od: Leon J. Wils (15055780)
Wydane: (2025)

Supplementary Figure S12 from Elucidating the Genetic Landscape of Oral Leukoplakia to Predict Malignant Transformation
od: Leon J. Wils (15055780)
Wydane: (2025)

Supplementary Figure S2 from Elucidating the Genetic Landscape of Oral Leukoplakia to Predict Malignant Transformation
od: Leon J. Wils (15055780)
Wydane: (2025)

Supplementary Figure S4 from Elucidating the Genetic Landscape of Oral Leukoplakia to Predict Malignant Transformation
od: Leon J. Wils (15055780)
Wydane: (2025)

Supplementary Figure S5 from Elucidating the Genetic Landscape of Oral Leukoplakia to Predict Malignant Transformation
od: Leon J. Wils (15055780)
Wydane: (2025)

Supplementary Figure S6 from Elucidating the Genetic Landscape of Oral Leukoplakia to Predict Malignant Transformation
od: Leon J. Wils (15055780)
Wydane: (2025)

Supplementary Figure S7 from Elucidating the Genetic Landscape of Oral Leukoplakia to Predict Malignant Transformation
od: Leon J. Wils (15055780)
Wydane: (2025)

Supplementary Figure S8 from Elucidating the Genetic Landscape of Oral Leukoplakia to Predict Malignant Transformation
od: Leon J. Wils (15055780)
Wydane: (2025)

Supplementary Figure S9 from Elucidating the Genetic Landscape of Oral Leukoplakia to Predict Malignant Transformation
od: Leon J. Wils (15055780)
Wydane: (2025)

Supplementary Table 1 from ESRRB Inhibits the TGFβ Signaling Pathway to Drive Cell Proliferation in Cervical Cancer
od: Qin-Shu Li (16990832)
Wydane: (2025)

Supplementary Table 2 from ESRRB Inhibits the TGFβ Signaling Pathway to Drive Cell Proliferation in Cervical Cancer
od: Qin-Shu Li (16990832)
Wydane: (2025)

Supplementary Data 1. from The Genomic and Epigenomic Landscape of Double-Negative Metastatic Prostate Cancer
od: Arian Lundberg (14960817)
Wydane: (2025)

Supplementary Data 2. from The Genomic and Epigenomic Landscape of Double-Negative Metastatic Prostate Cancer
od: Arian Lundberg (14960817)
Wydane: (2025)

Supplementary Table 1. from The Genomic and Epigenomic Landscape of Double-Negative Metastatic Prostate Cancer
od: Arian Lundberg (14960817)
Wydane: (2025)

Supplementary Table 2. from The Genomic and Epigenomic Landscape of Double-Negative Metastatic Prostate Cancer
od: Arian Lundberg (14960817)
Wydane: (2025)

Supplementary Table 3. from The Genomic and Epigenomic Landscape of Double-Negative Metastatic Prostate Cancer
od: Arian Lundberg (14960817)
Wydane: (2025)

Supplementary Data from Active Remodeling of Capillary Endothelium via Cancer Cell–Derived MMP9 Promotes Metastatic Brain Colonization
od: Matthia A. Karreman (15097355)
Wydane: (2025)

Supplementary Data from Active Remodeling of Capillary Endothelium via Cancer Cell–Derived MMP9 Promotes Metastatic Brain Colonization
od: Matthia A. Karreman (15097355)
Wydane: (2025)

Supplementary Data from Active Remodeling of Capillary Endothelium via Cancer Cell–Derived MMP9 Promotes Metastatic Brain Colonization
od: Matthia A. Karreman (15097355)
Wydane: (2025)

Supplementary Data from Active Remodeling of Capillary Endothelium via Cancer Cell–Derived MMP9 Promotes Metastatic Brain Colonization
od: Matthia A. Karreman (15097355)
Wydane: (2025)

Supplementary Data from Active Remodeling of Capillary Endothelium via Cancer Cell–Derived MMP9 Promotes Metastatic Brain Colonization
od: Matthia A. Karreman (15097355)
Wydane: (2025)

Supplementary Data from Active Remodeling of Capillary Endothelium via Cancer Cell–Derived MMP9 Promotes Metastatic Brain Colonization
od: Matthia A. Karreman (15097355)
Wydane: (2025)

Figure S1 from Estimation of Neutral Mutation Rates and Quantification of Somatic Variant Selection Using cancereffectsizeR
od: Jeffrey D. Mandell (14963909)
Wydane: (2025)

Supplementary Table1 from USP48 Stabilizes Gasdermin E to Promote Pyroptosis in Cancer
od: Yidan Ren (14845140)
Wydane: (2025)

Supplementary Table2 from USP48 Stabilizes Gasdermin E to Promote Pyroptosis in Cancer
od: Yidan Ren (14845140)
Wydane: (2025)

Supplementary Table3 from USP48 Stabilizes Gasdermin E to Promote Pyroptosis in Cancer
od: Yidan Ren (14845140)
Wydane: (2025)

Cannot write session to /tmp/vufind_sessions/sess_k8rovdmhh6ff1va706e3ej59mi