(a) Schematic diagram of the FS mutation of UVRAG in exon 8 containing the highly instable

Similar documents
Supplementary Figure 1.TRIM33 binds β-catenin in the nucleus. a & b, Co-IP of endogenous TRIM33 with β-catenin in HT-29 cells (a) and HEK 293T cells

Nature Structural and Molecular Biology: doi: /nsmb Supplementary Figure 1

(A) SW480, DLD1, RKO and HCT116 cells were treated with DMSO or XAV939 (5 µm)

SUPPLEMENTARY INFORMATION

Supplementary Information

(A) RT-PCR for components of the Shh/Gli pathway in normal fetus cell (MRC-5) and a

Nature Medicine: doi: /nm.4322

SUPPLEMENTARY INFORMATION

Supplementary Figure 1

SUPPLEMENTARY INFORMATION

(a) Significant biological processes (upper panel) and disease biomarkers (lower panel)

SUPPLEMENTAL EXPERIMENTAL PROCEDURES

Supplementary Figure S1 Supplementary Figure S2

SUPPLEMENTARY INFORMATION

Supplementary Figure 1: si-craf but not si-braf sensitizes tumor cells to radiation.

Supplementary information. The Light Intermediate Chain 2 Subpopulation of Dynein Regulates Mitotic. Spindle Orientation

Supplementary Figure 1. The CagA-dependent wound healing or transwell migration of gastric cancer cell. AGS cells transfected with vector control or

Supplementary figures

Supplementary Figure 1. Characterization of NMuMG-ErbB2 and NIC breast cancer cells expressing shrnas targeting LPP. NMuMG-ErbB2 cells (a) and NIC

SUPPLEMENTARY INFORMATION

SUPPLEMENTAL FIGURE LEGENDS

SUPPLEMENTARY INFORMATION

Supplementary Figure 1. Normal T lymphocyte populations in Dapk -/- mice. (a) Normal thymic development in Dapk -/- mice. Thymocytes from WT and Dapk

SUPPLEMENTARY INFORMATION. Supplementary Figures S1-S9. Supplementary Methods

T H E J O U R N A L O F C E L L B I O L O G Y

Figure S1. Reduction in glomerular mir-146a levels correlate with progression to higher albuminuria in diabetic patients.

An epithelial-to-mesenchymal transition-inducing potential of. granulocyte macrophage colony-stimulating factor in colon. cancer

Supplemental Table S1

SUPPLEMENTARY FIGURES AND TABLES

Supplementary Figure S1

GFP-LC3 +/+ CLU -/- kda CLU GFP. Actin. GFP-LC3 +/+ CLU -/- kda CLU GFP. Actin

Supplementary Information Supplementary Fig. 1. Elevated Usp9x in melanoma and NRAS mutant melanoma cells are dependent on NRAS for 3D growth.

Supplemental Materials. STK16 regulates actin dynamics to control Golgi organization and cell cycle

Supplementary Figures

Figure S1. HP1α localizes to centromeres in mitosis and interacts with INCENP. (A&B) HeLa

Tumor suppressor Spred2 interaction with LC3 promotes autophagosome maturation and induces autophagy-dependent cell death

Supplementary Figure 1 Induction of cellular senescence and isolation of exosome. a to c, Pre-senescent primary normal human diploid fibroblasts

Supplementary Fig. S1. Schematic diagram of minigenome segments.

Supplementary Fig. 1: ATM is phosphorylated in HER2 breast cancer cell lines. (A) ATM is phosphorylated in SKBR3 cells depending on ATM and HER2

SHREE ET AL, SUPPLEMENTAL MATERIALS. (A) Workflow for tumor cell line derivation and orthotopic implantation.

Supplementary Figure 1. MAT IIα is Acetylated at Lysine 81.

p = formed with HCI-001 p = Relative # of blood vessels that formed with HCI-002 Control Bevacizumab + 17AAG Bevacizumab 17AAG

SUPPLEMENTARY INFORMATION

Supplementary Figure 1: Comparison of acgh-based and expression-based CNA analysis of tumors from breast cancer GEMMs.

WDR62 is associated with the spindle pole and mutated in human microcephaly

Expanded View Figures

A. Generation and characterization of Ras-expressing autophagycompetent

Supplementary Figure 1. Genotyping strategies for Mcm3 +/+, Mcm3 +/Lox and Mcm3 +/- mice and luciferase activity in Mcm3 +/Lox mice. A.

SUPPLEMENTARY FIGURES

Supplementary Figure 1. Prevalence of U539C and G540A nucleotide and E172K amino acid substitutions among H9N2 viruses. Full-length H9N2 NS

File Name: Supplementary Information Description: Supplementary Figures and Supplementary Tables. File Name: Peer Review File Description:

Supplementary Figure 1. EC-specific Deletion of Snail1 Does Not Affect EC Apoptosis. (a,b) Cryo-sections of WT (a) and Snail1 LOF (b) embryos at

(A) PCR primers (arrows) designed to distinguish wild type (P1+P2), targeted (P1+P2) and excised (P1+P3)14-

p.r623c p.p976l p.d2847fs p.t2671 p.d2847fs p.r2922w p.r2370h p.c1201y p.a868v p.s952* RING_C BP PHD Cbp HAT_KAT11

Supplementary Fig. 1. GPRC5A post-transcriptionally down-regulates EGFR expression. (a) Plot of the changes in steady state mrna levels versus

SUPPLEMENTARY INFORMATION

Supplementary Figure 1

SUPPLEMENTARY INFORMATION

Supplementary Figure 1. HOPX is hypermethylated in NPC. (a) Methylation levels of HOPX in Normal (n = 24) and NPC (n = 24) tissues from the

SUPPLEMENTARY LEGENDS...

Supplementary Figure 1. PD-L1 is glycosylated in cancer cells. (a) Western blot analysis of PD-L1 in breast cancer cells. (b) Western blot analysis

Supplemental Figures:

Tumor stage : I II III IV. well differentiated. moderately differentiated. adenocarcinoma. normal colon (adjacent to cancer) Log (T/H) SLAP mrna level

Predictive PP1Ca binding region in BIG3 : 1,228 1,232aa (-KAVSF-) HEK293T cells *** *** *** KPL-3C cells - E E2 treatment time (h)

A. List of selected proteins with high SILAC (H/L) ratios identified in mass

hexahistidine tagged GRP78 devoid of the KDEL motif (GRP78-His) on SDS-PAGE. This

Supplementary Figures for

Supplementary Figure S1: Defective heterochromatin repair in HGPS progeroid cells

Kidney. Heart. Lung. Sirt1. Gapdh. Mouse IgG DAPI. Rabbit IgG DAPI

Supplementary Figure 1. Basal level EGFR across a panel of ESCC lines. Immunoblots demonstrate the expression of phosphorylated and total EGFR as

Supplementary Figure 1. SA-β-Gal positive senescent cells in various cancer tissues. Representative frozen sections of breast, thyroid, colon and

Type of file: PDF Title of file for HTML: Supplementary Information Description: Supplementary Figures

TRAF6 ubiquitinates TGFβ type I receptor to promote its cleavage and nuclear translocation in cancer

Supplementary Materials for

Mdm2 Promotes Genetic Instability and Transformation Independent of p53

(A) Cells grown in monolayer were fixed and stained for surfactant protein-c (SPC,

Impact of hyper-o-glcnacylation on apoptosis and NF-κB activity SUPPLEMENTARY METHODS

SUPPLEMENTARY INFORMATION

Supplementary Information and Figure legends

underlying metastasis and recurrence in HNSCC, we analyzed two groups of patients. The

Trim29 gene-targeting strategy. (a) Genotyping of wildtype mice (+/+), Trim29 heterozygous mice (+/ ) and homozygous mice ( / ).

Supplementary Figures

SUPPLEMENTARY FIGURES AND TABLE

Supplementary material. Supplementary Figure legends

AP VP DLP H&E. p-akt DLP

Supplementary Figure 1

293T cells were transfected with indicated expression vectors and the whole-cell extracts were subjected

The clathrin adaptor Numb regulates intestinal cholesterol. absorption through dynamic interaction with NPC1L1

A Normal Exencephaly Craniora- Spina bifida Microcephaly chischisis. Midbrain Forebrain/ Forebrain/ Hindbrain Spinal cord Hindbrain Hindbrain

Supplementary Figure 1 CD4 + T cells from PKC-θ null mice are defective in NF-κB activation during T cell receptor signaling. CD4 + T cells were

supplementary information

marker. DAPI labels nuclei. Flies were 20 days old. Scale bar is 5 µm. Ctrl is

Supplementary Figure 1: Expression of NFAT proteins in Nfat2-deleted B cells (a+b) Protein expression of NFAT2 (a) and NFAT1 (b) in isolated splenic

SUPPLEMENTARY INFORMATION

Nature Immunology doi: /ni.3268

Supplementary Materials for

Type of file: PDF Size of file: 0 KB Title of file for HTML: Supplementary Information Description: Supplementary Figures

Supplementary Figure 1

Supplemental Information. NRF2 Is a Major Target of ARF. in p53-independent Tumor Suppression

Supplementary Appendix

Transcription:

Supplementary Figure 1. Frameshift (FS) mutation in UVRAG. (a) Schematic diagram of the FS mutation of UVRAG in exon 8 containing the highly instable A 10 DNA repeat, generating a premature stop codon (TAA) and thereby a truncated protein (UVRAG FS ). Domain organization of wild-type UVRAG and amino acid compositions shown at

the top. PR, proline rich; CCD, coiled-coil domain; Ku/DNA-PKcs, Ku70/Ku80/DNA-dependent protein kinase catalytic subunit. (b) The full-length amino acid sequence of UVRAG FS compared to UVRAG WT. The truncation is due to the frameshift mutation in exon 8. Amino acid alterations were highlighted in red. *, stop codon. (c) Detection of the FS mutant of UVRAG in vivo with UVRAG FS-peptide-derived antibody. HEK293T cells were transfected with Flag-UVRAG WT and Flag-UVRAG FS. Whole cell lysates (WCL) were immunoblotted (IB) with anti-flag and the antibody against UVRAG FS. Note that UVRAG FS -specific antibody does not recognize WT UVRAG. (d) UVRAG expression in six different CRC cell lines of the NCI-60 panel from TSRI (The Scripps Research Institute). TSRI Data are accessible at BioGPS: http://biogps.org). (e) Distribution of the FS mutation at the A 10 repeats in UVRAG in human cancers with MSI (see Seltarbase; accessible at http://www.seltarbase.org).

Supplementary Figure 2. Oncogenic function of UVRAG FS. (a, b, c) UVRAG FS promotes cell proliferation (a), anchorage-independent colony formation (b), and subcutaneous tumor formation (c) in a mouse xenograft model with MSS SW480 cells. SW480 cells stably expressing empty vector, UVRAG WT, or UVRAG FS were seeded at 5000

cells per well in the present of puromycin (2 g/ml) and counted over time in triplicate (a). Values are the means ± SD (n = 3). Expression of WT and UVRAG FS was detected by western blot with actin serving as a loading control. SW480 cells in (a) were seeded (5 x 10 4 cells per plate) in soft agar, cultured for two weeks, fixed, and stained with crystal violet (b). Colony numbers and diameters were evaluated from three independent experiments, with 10 random fields per condition. Values are the means ± SD (n = 3). For tumor growth in vivo (c), SW480 cells (10 6 ) as described in (a) were injected subcutaneously into nude mice. Tumor volumes were measured daily over time and representative images of mice with colon tumors are shown. WCL of crude tumor tissues from vector and UVRAG FS mice were subjected to western blot analysis using Flag and actin antibodies. Data shown are representative of three independent analyses of randomly selected tumor species from mice. Scale bar, 5 mm. (d, e) UVRAG FS promotes cell proliferation (d) and anchorage-independent colony formation (e) of MSI HCT116 cells. HCT116 cells stably expressing empty vector, UVRAG WT, or UVRAG FS were seeded at 5000 cells per well and counted over time in triplicates. Values are the means ± SD (n = 3). WCL were blotted with Flag and tubulin antibodies (d). Alternatively, HCT116 cells were seeded in soft agar and colony numbers were evaluated as described above. Values are the the means ± SD (n = 3). (f, g) UVRAG FS promotes cell proliferation (f) and anchorage-independent colony formation (g) of HeLa cells. HeLa cells stably expressing empty vector, UVRAG WT, or UVRAG FS were seeded and counted over time in triplicate as described above, and lysates were blotted with Flag and actin antibodies (f). Additionally, HeLa cells were plated in soft agar and colonies counted as described above. All values are the means ± SD (n = 3). Scale bars, 50 m. *, P < 0.05; **, P < 0.01; ***, P < 0.001.

Supplementary Figure 3 Inhibitory effect of UVRAG FS on autophagy. (a) Dominant negative inhibition of autophagy by UVRAG FS. NIH3T3.UVRAG cells were transfected with increasing amount of UVRAG FS (0, 0.5, 2, 4 μg) together with GFP-LC3 and treated with rapamycin. The percentage of cells with GFP-LC3 puncta was quantified. Data represent mean ± SD (n = 3). *, P < 0.05; **, P < 0.01. (b) UVRAG FS inhibits the interaction between endogenous UVRAG and Beclin1. HEK293T cells were transfected with increasing amounts of Flag-UVRAG FS. WCL were used for coimmunoprecipitation (co-ip) with anti-uvrag, anti-beclin1, or anti-flag, followed by IB with the indicated antibodies.

Supplementary Figure 4. UVRAG FS induces chromosomal aneuploidy. (a) Karyotypes of 20 metaphases from vector and UVRAG FS ES cell lines are listed. Del, deletion. (b) Representative images of metaphase spread from ES cells stably expressing an empty vector or Flag-UVRAG FS (DAPI stained). The percentage of cells with abnormal karyotype (aneuploidy) was quantified (top right) (**, P < 0.01, from three independent experiments). The expression of UVRAG FS was analyzed by immunoblot with anti-flag and actin antibodies (bottom right). (c) Boxplot representation of total protein-altering mutations (left) and total number of single nucleotide variants (SNVs, right) in MSS (n = 90), UVRAG WT -MSI (n = 4) and UVRAG FS -MSI (n = 5) gastric cancer of the Pfizer & UHK cohort 1. The Mann-Whitney test was used. (d) UVRAG FS expression is associated with advanced TNM stage in the Pfizer & UHK cohort 1. TNM, Tumor, Node, Metastasis.

Supplementary Figure 5. UVRAG FS induces centrosome instability and chromosomal missegregation. (a) Time lapse of cell division in UVRAG WT and UVRAG FS SW480 cells. Arrows denote malformed spindles and prolonged mitosis upon UVRAG FS expression. (b) Dislocalization of endogenous UVRAG from the centrosome structure by UVRAG FS. HeLa cells stably expressing vector or Flag-UVRAG FS were immunostained with anti-flag (green), anti-uvrag (blue) that does not recognize UVRAG FS, and γ-tubulin. Note that UVRAG no longer localizes to the centrosomes in UVRAG FS -expressing cells, in contrast to control cells where UVRAG is distinctly associated with the centrosome. Scale bars, 10 m.

Supplementary Figure 6. UVRAG FS enhances tumor metastasis and EMT change. (a, b) UVRAG FS promotes cell migration in vitro. Migration of HCT116 cells stably expressing vector, UVRAG WT, or UVRAG FS was measured by the trans-well migration assay. Data are

presented as mean ± SD (n = 3). Images were captured at 72 hr under 60x magnification (a). Scale bar, 10 μm. Invasive cells per 10 HPF were quantified (b). (c) Quantification of tumor metastasis in the peritoneum and kidney of mice that were inoculated by intrasplenic injection with SW480 cells stably expressing Vec and UVRAG FS. Fisher s exact test was used for statistical analysis. (d) Dorsal and lateral bioluminescent images of metastatic lesions of GFP-expressing SW480 cells in live nude mice at the indicated time after splenic transplantation of SW480.Vec or SW480.UVRAG FS cells. Radiant efficiency is expressed as p/sec/cm 2 /sr/(μw/cm 2 ). (e) Immunohistochemical analysis of EMT-related protein expression in human primary CRC specimen with UVRAG WT or UVRAG FS molecular subtype obtained from three representative patients. (f) SW480.Vec, SW480.UVRAG WT, and SW480.UVRAG FS cells were treated with Taxol, followed by colony survival assay. Data are mean ± SD (n = 3). No significant difference was detected.

Supplementary Figure 7. UVRAG FS impairs DNA double-strand-break (DSB) repair. (a, b) UVRAG FS expression leads to the accumulation of DNA DSBs. SW480.Vec and SW480. UVRAG FS cells were stained with anti-γ-h2ax (red) and DAPI (blue). Representative images of γ-h2ax foci are shown (left). The percent distribution of cells with different γ-h2ax foci is determined (right). Western blot shows the levels of endogenous γ-h2ax and UVRAG FS expression in these cells (b). Data are the means ± SD (n = 3). Scale bar, 5 m. (c) UVRAG FS -associated accumulation of DNA DSBs can be antagonized by exogenous UVRAG WT dose-dependently. HCT116 (left) and RKO (right) cells were transfected with increasing amount of Flag-UVRAG WT. The levels of endogenous γ-h2ax expression in these cells were examined by western blot. Actin serves as a loading control. (d) UVRAG FS associated accumulation of DNA DSBs is independent of autophagy. Atg3 +/+ and Atg3 -/- imef cells stably expressing Vec and Flag-UVRAG FS were stained with anti-γ-h2ax (red) and DAPI (blue). Representative images of γ-h2ax foci are shown (up). The percentage of cells with γ-h2ax foci is determined (middle) and immunobloting shows the expression of Flag, Atg3 and actin in these cells (bottom). Scale bar, 50 m. ***, P < 0.001. (e) UVRAG FS does not interact with the DNA-PK complex. WCL of 293T cells transfected with vector control, Flag-UVRAG WT, or UVRAG FS were immunoprecipitated with anti-flag, followed by IB with the indicated antibodies. The bottom four panels show input protein expression. (f) UVRAG FS fails to be recruited to laser-induced DNA damage stripes. SW480.UVRAG WT and SW480.UVRAG FS cells were subject to focal laser microirradiation followed by immunofluorescence (1 hr after damage) with the indicated antibodies against γ-h2ax,

UVRAG, and DAPI (for nuclei). Note that unlike UVRAG WT (left panel), UVRAG FS (right panel) is defective in the recruitment to the γ-h2ax-positive DSBs sites. Scale bar, 10 m. (g) UVRAG FS inhibits DSBs repair through DNA-PK. MEF cells expressing vector or UVRAG FS were treated with buffer vehicle or Nu7441 (50 nm). DSBs were measured by immunostaining of -H2AX (green). Immunoblotting shows the levels of endogenous -H2AX and UVRAG FS in these cells (right). Scale bar, 50 m.

Supplementary Figure 8. The uncropped blots showing the experiments displayed in the main and supplementary figures

Supplementary Figure 9. The uncropped blots showing the experiments displayed in the main and supplementary figures

Supplementary Figure 10. The uncropped blots showing the experiments displayed in the main and supplementary figures

Supplementary Table 1. Clinicopathological features of MSS and MSI CRC patients. Sample ID Gender Age Microsatellite instability status Tumor site T stage N stage M stage UVRAG Genotype CYS001 M 71 MSI Sigmoid colon CYS002 F 73 MSI Sigmoid colon T3 N0 Mx FS a T3 N0 Mx WT CYS003 F 66 MSI Right colon T2 N1a Mx WT CYS004 M 52 MSI Rectum T2 N0 Mx WT CYS005 F 41 MSS Sigmoid colon CYS006 M 50 MSS Rectosigmoid colon N/A N1a Mx WT T3 N0 Mx WT CYS007 M 54 MSS Rectum T3 N0 Mx WT CYS008 F 67 MSS Right colon T2 N0 Mx WT a an A deletion in the A 10 repeat of the exon 8 of UVRAG. Supplementary Reference: 1. Wang, K. et al. Whole-genome sequencing and comprehensive molecular profiling identify new driver mutations in gastric cancer. Nat Genet 46, 573-82 (2014).