Experiments from unfinished Registered Reports in the Reproducibility Project: Cancer Biology

  1. Timothy M Errington  Is a corresponding author
  2. Alexandria Denis
  3. Anne B Allison
  4. Renee Araiza
  5. Pedro Aza-Blanc
  6. Lynette R Bower
  7. Jessica Campos
  8. Heidi Chu
  9. Sarah Denson
  10. Cristine Donham
  11. Kaitlyn Harr
  12. Babette Haven
  13. Elizabeth Iorns
  14. Jennie Kwok
  15. Elysia McDonald
  16. Steven Pelech
  17. Nicole Perfito
  18. Amanda Pike
  19. Darryl Sampey
  20. Michael Settles
  21. David A Scott
  22. Vidhu Sharma
  23. Todd Tolentino
  24. Angela Trinh
  25. Rachel Tsui
  26. Brandon Willis
  27. Joshua Wood
  28. Lisa Young
  1. Center for Open Science, United States
  2. Piedmont Virginia Community College, United States
  3. University of California, Davis, United States
  4. Independent consultant, United States
  5. Applied Biological Materials, Canada
  6. University of Georgia, United States
  7. University of Virginia, United States
  8. Absorption Systems, United States
  9. Science Exchange, United States
  10. Drexel University College of Medicine, United States
  11. Kinexus Bioinformatics, Canada
  12. University of British Columbia, United States
  13. BioFactura, United States
  14. Sanford Burnham Prebys Medical Discovery Institute, United States
7 figures, 1 table and 1 additional file

Figures

Figure 1 with 1 supplement
Replication attempt of Sharma et al., 2010.

Growth characteristics of PC9 cells treated with various doses of erlotinib. (A) PC9 cells were plated at equal density and treated with dimethyl sulfoxide(DMSO) or the indicated dose of erlotinib (2 or 20 µM) for 9 days (fresh erlotinib was added every 3 days). Representative microscopic images of conditions on day 9. (B) Percent of drug-tolerant persisters (DTPs) as a percentage of DMSO control cells. PC9 cells were plated at various densities (cells/cm2) and treated with DMSO or the indicated concentrations of erlotinib. (C) Survival curve of PC9 cells treated with various doses of erlotinib for 72 hr. Percent survival is relative to DMSO-treated cells. The dashed line corresponds to 50% cell killing (absolute IC50 = 0.15 µM). Data plotted from one independent biological repeat. (D) Representative Western blots of lysates from PC9 cells treated with increasing concentrations of erlotinib (0.01, 0.1, 1, and 10 µM) or DMSO (0.01%). Membranes were probed with phospho-EGFR (pEGFR)-specific antibodies. Glyceraldehyde 3-phosphate dehydrogenase (GAPDH) served as loading control. Relative expression of pEGFR (to DMSO) for each concentration (0.01, 0.1, 1, and 10 µM erlotinib) is: 1.1, 1.2, 0.8, and 0.2, respectively. Each experiment was performed independently twice. Additional details can be found at https://osf.io/xbign/.

Figure 1—figure supplement 1
Growth characteristics of PC9 cells treated with erlotinib hydrochloride (HCl).

(A) PC9 cells were plated at equal density and treated with DMSO or the indicated dose of erlotinib HCl (2 or 20 µM) for 9 days (fresh erlotinib was added every 3 days). Representative microscopic images of conditions on day 9. (B) Percent of drug-tolerant persisters (DTPs) as a percentage of DMSO control cells. PC9 cells were plated at various densities (cells/cm2) and treated with DMSO or the indicated concentrations of erlotinib HCl. (C) Survival curve of PC9 cells treated with various doses of erlotinib for 72 hr. Percent survival is relative to DMSO-treated cells. The dashed line corresponds to 50% cell killing (absolute IC50 = 0.15 µM). Each experiment was performed once. Additional details can be found at https://osf.io/xbign/.

Replication attempt of Ricci-Vitiani et al., 2010.

(A) Tie2 expression in patient-derived glioblastoma neurospheres (GSC83), a glioblastoma cell line (U87MG), and an endothelial cell line (human dermal microvascular endothelial cells, HMVEC). Real-time quantitative reverse transcription PCR (qRT-PCR) was performed to detect Tie2 and 18S rRNA expression. Relative expression (Tie2/18S rRNA) is presented for each cell type. Means reported and error bars represent SD from two (GSC83) or three (U87MG and HMVEC) independent biological repeats. One-way analysis of variance (ANOVA) of all groups: F(2, 5) = 5.90, p = 0.0484. Planned contrasts between HMVEC and GSC83: t(5) = 2.78, p = 0.040; U87MG and HMVEC: t(5) = 3.06, p = 0.028; GSC83 and U87MG: t(5) = 0.017, p = 0.987. (B) Meta-analysis of each effect. Effect size and 95 % confidence intervals are presented for Ricci-Vitiani et al., 2010, this replication study (Reproducibility Project: Cancer Biology, RP:CB), and a random-effects meta-analysis of those two effects. Cohen’s d is a standardized difference between the two indicated measurements where a larger value indicates a difference in relative Tie2 expression between the two cell types. Random-effects meta-analysis: HMVEC and GSC83: p = 0.531; U87MG and HMVEC: p = 0.532; GSC83 and U87MG: p = 0.695. Sample sizes used in Ricci-Vitiani et al., 2010 and RP:CB are reported under the study name. Additional details can be found at https://osf.io/mpyvx/.

Replication of Kan et al., 2010.

(A) Anchorage-independent growth of human mammary epithelial cells (HMECs). HMECs were left uninfected or stably expressing empty vector (EV), wild-type (WT) GNAO1, or GNAO1-R243H. Number of colonies formed after 3 weeks. PC9 cells treated with various doses of erlotinib. Means reported and error bars represent SEM from three independent biological repeats. Student’s t test: t(4) = 5.29, p = 0.0061. (B) Representative Western blots of lysates from HMEC cells expressing the indicated conditions. Membranes were probed with FLAG-specific antibodies to detect FLAG-tagged GNAO1. B-ACTIN served as loading control. (C) Meta-analysis of each effect. Effect size and 95 % confidence intervals are presented for Kan et al., 2010, this replication study (Reproducibility Project: Cancer Biology, RP:CB), and a random-effects meta-analysis of those two effects. Cohen’s d is a standardized difference between the two indicated measurements where a larger value indicates a difference in the number of colonies between the two conditions. Random-effects meta-analysis: p = 0.016. Sample sizes used in Kan et al., 2010 and RP:CB are reported under the study name. Additional details can be found at https://osf.io/jpeqg/.

Replication attempt of Heidorn et al., 2010.

ERK activation following treatment with BRAF inhibitors in A375 cells (mutant BRAF; wild-type NRAS) and D04 cells (wild-type BRAF; mutant NRAS). (A) A375 cells were treated with DMSO, sorafenib (10 µM), SB590885 (1 µM), or PD184352 (1 µM), or left untreated. Cells were harvested 4 hr later for Western blot analysis. Relative pERK1/2 expression are presented for each condition. Western blot bands were quantified, pERK1/2 was normalized to total ERK1/2, then for each biological repeat value was normalized to the untreated condition with expression presented relative to DMSO. Dot plot of independent biological repeats (n = 3). Data reported in Figure 1A of Heidorn et al., 2010 displayed as a single point (red triangle) for comparison. Planned comparison (two-tailed Wilcoxon–Mann–Whitney test) between DMSO and all other conditions: U = 2.40, uncorrected p = 0.0091, Bonferroni corrected p = 0.027, Cliff’s delta = 0.93, 95% confidence interval (CI) [0.63, 0.99]. (B) D04 cells were treated like in A and presented in the same way. Graph is separated at a dashed line to accommodate a value higher than the others. Data reported in Figure 1A of Heidorn et al., 2010 displayed as a single point (red triangle) for comparison. Planned comparisons (two-tailed Wilcoxon–Mann–Whitney tests) between DMSO and sorafenib and PD184352: U = 2.36, uncorrected p = 0.024, Bonferroni corrected p = 0.071, Cliff’s delta = 1.00, 95% CI [0.75, 1.00]; between DMSO and SB590885: U = 1.96, uncorrected p = 0.10, Bonferroni corrected p = 0.30, Cliff’s delta = 0.11, 95% CI [−0.71, 80]. (C) Representative Western blots probed with pERK1/2 (T202/Y204)-specific antibodies. Total ERK1/2 served as loading control. Additional details can be found at https://osf.io/b1aw6/.

Figure 5 with 1 supplement
Replication attempt of Johannessen et al., 2010.

(A) Cellular dose–response curves for RAF inhibitor (PLX4720) in BRAF(V600E) cell lines, A375, HT29, and RPMI-7951. Absolute half-maximum growth inhibition (GI50) values (µM) were determined for each biological repeat. GI50 values unable to be accurately estimated are reported as either >10 µM, which was the highest dose tested. Data reported in Figure 3D of Johannessen et al., 2010 displayed as a single point (red triangle) for comparison. Where possible the mean and 95 % confidence interval (CI) of the replication data are shown. Planned comparison (Student’s t-test) between A375 and HT29 GI50 values: t(4) = 5.90, p = 0.0041; Cohen’s d = 4.82, 95% CI [1.21, 8.36]. (B) Quantification of Western blots of lysates from RPMI-7951 cells treated with DMSO or the indicated doses of MAP3K8 kinase inhibitor for 1 hr. Membranes were probed with phospho-MEK- (pMEK), total ERK- (ERK), phospho-ERK- (pERK), or total MEK (MEK)-specific antibodies. pMEK levels were normalized to ERK, and pERK levels were normalized to MEK, and then to DMSO for each biological repeat [n = 8]. Note: Normalization of pMEK to ERK and pERK to MEK was a recommendation made by reviewers of the Registered Report (Sharma et al., 2016b). Box and whisker plots with median represented as the line through the box and whiskers representing values within 1.5 interquartile range (IQR) of the first and third quartiles. Data reported in Figure 3I of Johannessen et al., 2010 is displayed as a single point (red triangle) for comparison. One-way analysis of variance (ANOVA) on pMEK/ERK data: F(3,28) = 1.93, uncorrected p = 0.147, Bonferroni corrected p = 0.295; pERK/MEK data: F(3,28) = 1.04, uncorrected p = 0.392, Bonferroni corrected p = 0.784. Planned one-sample t-test between 20 µM and a constant of 1 (DMSO-treated cells) on pMEK/ERK data: t(7) = 2.83, uncorrected p = 0.025, Bonferroni corrected p = 0.051; Cohen’s d = −1.00, 95% CI [−1.84, −0.12]; pERK/MEK data: t(7) = 2.65, uncorrected p = 0.033, Bonferroni corrected p = 0.066; Cohen’s d = −0.94, 95% CI [−1.76, −0.07]. Additional details can be found at https://osf.io/lmhjg/.

Figure 5—figure supplement 1
Cellular dose–response curves for each biological repeat and representative Western blot image of ERK and MEK phosphorylation.

(A) This is the same experiment as in Figure 5A. The dose–response curve of each biological repeat [n = 3] for A375, HT29, and RPMI-7951 cells treated with PLX4720 for this replication attempt are plotted. (B) This is the same experiment as in Figure 5B with the indicated doses of MAP3K8 kinase inhibitor. Representative Western blots probed with pMEK- (S217/S221), pERK- (T202/Y204), total ERK-, or total MEK-specific antibodies. Vinculin (VINC) served as loading control. Relative pMEK/ERK and pERK/MEK expressions are reported below pMEK and pERK images, respectively. Additional details can be found at https://osf.io/lmhjg/.

Replication attempt of Kang et al., 2011.

(A–F) Quantification of Nras-, p21-, and p16-positive cells on liver sections from C.B-17 or C.B-17 SCID/beige mice six or 30 days after intrahepatic delivery of NrasG12V or NrasG12V/D38A. Percent positive cells were determined for each mouse. Five mice per group, except C.B-17 with NrasG12V at 6 days and C.B-17 SCID/beige with NrasG12V/D38A at 6 days, which had 6 mice per group. (G) Quantification of Nras-positive cells on liver sections from wild-type (BL/6) or CD4−/− mice 12 days after intrahepatic delivery of NrasG12V or NrasG12V/D38A. Percent positive cells were determined for each mouse (n = 5 per group). Additional details can be found at https://osf.io/82nfe/.

Figure 7 with 2 supplements
Replication attempt of Lu et al., 2012.

(A) HEK293T cells transfected with wild-type (WT) or the indicated mutant of IDH1 or IDH2, or empty vector, were analyzed for intracellular metabolites 72 hr after transfection by gas chromatography–mass spectrometry (GC–MS). Quantitation of 2HG single intensity relative to glutamate was determined using total ion chromatograms (TIC) for each biological repeat (n = 6). Box and whisker plot with median represented as the line through the box and whiskers representing values within 1.5 interquartile range (IQR) of the first and third quartiles. Means as black dot and bold error bars represent 95% CI. Data estimated from the representative experiment reported in Figure 1B of Lu et al., 2012 is displayed as a single point (red circle) for comparison. Statistical analysis was performed on log10-transformed data generated during this replication attempt. One-way analysis of variance (ANOVA) of IDH1 and IDH2 groups: F(3, 20) = 56.8, p = 5.73 × 10−10. Planned contrasts between IDH1 WT and IDH1 R132H: t(20) = 8.33, uncorrected p = 6.23 × 10−8, Bonferroni corrected p = 1.25 × 10−7, Cohen’s d = 4.81, 95% CI [2.42, 7.15]; IDH2 WT and IDH2 R172K: t(20) = 9.35, uncorrected p = 9.71 × 10−9, Bonferroni corrected p = 1.94 × 10−8, Cohen’s d = 5.40, 95% CI [2.79, 7.96]. (B) Western blot analysis for HEK293T cells transfected with WT or the indicated mutant of IDH1 or IDH2, or empty vector. Methylation status from histone extracts of the indicated markers were normalized to H3 and then to vector for each biological repeat (n = 6). Box and whisker plot with median represented as the line through the box and whiskers representing values within 1.5 IQR of the first and third quartiles. For each marker a one-way analysis of variance (ANOVA; or Kruskal–Wallis) was performed on IDH1 and IDH2 groups and the correlation with 2HG levels in A was performed. H3K4me2: H(3) = 0.367, uncorrected p = 0.947, Bonferroni corrected p > 0.99; correlation with 2HG: t(12) = 1.12, uncorrected p = 0.275, Bonferroni corrected p > 0.99. H3K9me2: F(3,20) = 0.793, uncorrected p = 0.512, Bonferroni corrected p > 0.99; correlation with 2HG: t(12) = 1.53, uncorrected p = 0.140, Bonferroni corrected p = 0.699. H3K9me3: F(3,20) = 0.515, uncorrected p = 0.676, Bonferroni corrected p > 0.99; correlation with 2HG: t(12) = 1.35, uncorrected p = 0.191, Bonferroni corrected p = 0.957. H3K36me3: F(3,20) = 0.248, uncorrected p = 0.862, Bonferroni corrected p > 0.99; correlation with 2HG: t(12) = 0.725, uncorrected p = 0.476, Bonferroni corrected p > 0.99. H3K79me2: H(3) = 1.55, uncorrected p = 0.672, Bonferroni corrected p > 0.99; correlation with 2HG: t(12) = 0.752, uncorrected p = 0.460, Bonferroni corrected p > 0.99. Planned contrasts for H3K9me2 between IDH1 WT and IDH1 R132H: t(20) = −0.238, uncorrected p = 0.815, Bonferroni corrected p > 0.99; IDH2 WT and IDH2 R172K: t(20) = 1.31, uncorrected p = 0.203, Bonferroni corrected p > 0.99. (C) 3T3-L1 cells were transduced to express the indicated proteins and analyzed and presented in the same way as A. Number of independent biological repeats (n = 5). Data estimated from the representative experiment reported in Figure 2A of Lu et al., 2012 is displayed as a single point (red circle) for comparison. Statistical analysis was performed on log10-transformed data generated during this replication attempt. Student’s t-test of IDH2 WT and IDH2 R172K: t(8) = 14.3, p = 5.49 × 10−7, Cohen’s d = 9.06, 95% CI [4.53, 13.57]. Additional details can be found at https://osf.io/vfsbo/.

Figure 7—figure supplement 1
Replication attempt of Lu et al., 2012.

(A) This is the same experiment as in Figure 7B. Representative Western blots (experiment performed independently six times) of histone extractions from HEK293T cells transfected with the indicated plasmids. Membranes were probed with the indicated antibodies (total H3 served as loading control). (B) This is the same experiment as in Figure 7A. Representative total ion chromatograms (TIC) from samples harvested 72 hr after transfection for the indicated transfected HEK293T cells. The detection of 2HG and glutamate are shown and based on spectra of derivatized commercial standards. (C) This is the same experiment as in Figure 7C. Representative Western blots (experiment performed independently six times) of histone extractions from 3T3-L1 cells transduced to express the indicated proteins. Membranes were probed with IDH1 and IDH2. (D) This is the same experiment as in Figure 7C. Representative TIC from samples harvested 7 days after transduction to express the indicated proteins in 3T-L1 cells. The detection of 2HG and glutamate are shown and based on spectra of derivatized commercial standards. Additional details can be found at https://osf.io/vfsbo/.

Figure 7—figure supplement 2
Meta-analyses of effects from replication attempt of Lu et al., 2012.

Meta-analysis of each effect reported in Figure 7. Effect size and 95 % confidence intervals are presented for Lu et al., 2012, this replication study (Reproducibility Project: Cancer Biology, RP:CB), and a random-effects meta-analysis of those two effects. The effect size r is a standardized measure of the correlation (strength and direction) of the association between two variables and Cohen’s d is a standardized difference between the two indicated measurements where a larger value indicates a difference in expression between the two conditions. (A) Meta-analysis p values: H3K4me3 expression (p = 0.235), H3K9me2 expression (p = 0.117), H3K9me3 expression (p = 0.135), H3K36me3 expression (p = 0.133), and H3K79me2 expression (p = 0.090). (B) Meta-analysis p values: H3K9me2 expression between IDH1 WT and IDH1 R132H (p = 0.398), and H3K9me2 expression between IDH2 WT and IDH2 R172K (p = 0.202). (C) Meta-analysis p values: correlation of H3K4me3 expression and 2HG (p = 0.122), correlation of H3K9me2 expression and 2HG (p = 0.092), correlation of H3K9me3 expression and 2HG (p = 0.081), correlation of H3K36me3 expression and 2HG (p = 0.181), and correlation of H3K79me2 expression and 2HG (p = 0.185). Sample sizes used in Lu et al., 2012 and RP:CB are reported under the study name. Additional details can be found at https://osf.io/vfsbo/.

Tables

Key resources table
Reagent type (species) or resourceDesignationSource or referenceIdentifiersAdditional information
Cell line (Homo sapiens, male)PC9Sigma-Aldrichcat# 90071810;RRID:CVCL_B260lot# 14A030
Chemical compound, drugerlotinibCayman Chemicalcat# 10,483lot# 0459700-31
Chemical compound, drugerlotinib-HClLC Laboratoriescat# E-4007lot# BBE-108
Software, algorithmCellometer Auto T4 SoftwareNexcelom BioscienceRRID:SCR_021656Version 3.1.1
Software, algorithmImage Studio SoftwareLI-COR BiosciencesRRID:SCR_015795
Antibodyrabbit-anti-phospho-EGFR (Y1068)Cell Signaling Technologycat# 3777; clone D7A5;RRID:AB_20962701:1000 dilution
Antibodymouse anti-GAPDHThermo Fisher Scientificcat# MA5-15738; clone GA1R; RRID:AB_109773871:2000 dilution
AntibodyIRDye 680RD-conjugated donkey anti-mouseLI-COR Biosciencescat# 926-68072;RRID:AB_109536281:15,000 dilution
AntibodyIRDye 800CW-conjugated donkey anti-rabbitLI-COR Biosciencescat# 926-32213;RRID:AB_6218481:15,000 dilution
Software, algorithm2,100 Bioanalyzer SoftwareAgilent TechnologiesRRID:SCR_019389Version 1.03
Cell line (Homo sapiens, male)U87MGATCCcat#HTB-14; RRID:CVCL_0022
Cell line (Homo sapiens, male)HMVECLonzaCC-2516
Cell line (Homo sapiens, male)GSC83doi:10.1038/nature09557RRID:CVCL_A9TLShared by Ricci-Vitiani lab, Istituto Superiore di Sanità
Cell line (Homo sapiens, female)HMECApplied Biological Materialscat# T0454; RRID:CVCL_B0CIlot# RZ824921; infected with SV40 large T and small T antigen
Recombinant DNA reagentpRetroX-IRES-ZsGreen1-empty vectorClontechcat# 632,520
Recombinant DNA reagentpRetroX-FLAG-GNAO1WT-IRES-ZsGreen1This paper
Recombinant DNA reagentpRetroX-FLAG-GNAO1R243H-IRES-ZsGreen1This paper
Cell line (Homo sapiens, female)PhoenixATCCcat# CRL-3213; RRID:CVCL_H716
Antibodymouse anti-FLAGSigma-Aldrichcat# F1804; clone M2; RRID:AB_2620441:500 dilution
Antibodymouse anti-β-ACTINSigma-Aldrichcat# A5441; clone AC-15; RRID:AB_4767441:1000 dilution
AntibodyHRP-conjugated rabbit anti-mouseAbcamcat# ab6728; RRID:AB_9554401:10,000 dilution
Software, algorithmFACSDivaBD BiosciencesRRID:SCR_016722Version 6.1.2
Software, algorithmImageJdoi:10.1038/nmeth.2089RRID:SCR_003070Version 1.51p
Cell line (Homo sapiens, female)D04ABN Cell Line Bank, QIMR
Berghofer Medical
Research Institute
RRID:CVCL_H604
Cell line (Homo sapiens, female)A375ATCCcat# CRL-1619; RRID:CVCL_0132
Chemical compound, drugsorafenibSelleckchemcat# S7397
Chemical compound, drugSB590885Selleckchemcat# S2220
Chemical compound, drugPD184352Selleckchemcat# S1020
Antibodymouse anti-phospho-ERK1/2 (T202/Y204)Cell Signaling
Technology
cat# 9106; clone E10; RRID:AB_3317681:1000 dilution
AntibodyRabbit anti-ERK1/2Cell Signaling
Technology
cat# 9102; RRID:AB_3307441:1000 dilution
Cell line (Homo sapiens, female)RPMI-7951ATCCcat# HTB-66; RRID:CVCL_1666
Cell line (Homo sapiens, male)OUMS-23JCRBcat# JCRB1022; RRID:CVCL_3088
Cell line (Homo sapiens, female)HT-29ATCCcat# HTB-38; RRID:CVCL_0320
Chemical compound, drugPLX4720Selleckchemcat# S1152
Chemical compound, drugMAP3K8 kinase inhibitorEMD Milliporecat# 616,373
Antibodyrabbit anti-phospho MEK1/2 (S217/221)Cell Signaling
Technology
cat# 9154; clone 41G9; RRID:AB_21380171:1000 dilution
Antibodymouse anti-ERK1/2Cell Signaling
Technology
cat# 4696; clone L34F12; RRID:AB_3907801:1000 dilution
Antibodyrabbit anti-MEK1/2Cell Signaling
Technology
cat# 8727; clone D1A5; RRID:AB_108294731:1000 dilution
Antibodyrabbit anti-VinculinSigma-Aldrichcat# V4139; RRID:AB_2620531:20,000 dilution
AntibodyHRP-conjugated goat anti-rabbitCell Signaling
Technology
cat# 7074; RRID:AB_20992331:1000 dilution
AntibodyHRP-conjugated horse anti-mouseCell Signaling
Technology
cat# 7076; RRID:AB_3309241:1000 dilution
Strain, strain background (M. musculus, C.BKa-lghb/lcrCrl, female)C.B-17 wild-typeCharles RiverRRID:IMSR_CRL:251
Strain, strain background (M. musculus, CB17.Cg-PrkdcscidLystbg/Crl, female)SCID/beigeCharles RiverRRID:IMSR_CRL:250
Strain, strain background (M. musculus, C57BL/6 J, female)BL/6 wild-typeThe Jackson
Laboratory
RRID:IMSR_JAX:000664
Strain, strain background (M. musculus, B6.129S2-Cd4tm1Mak/J, female)CD4−/−The Jackson
Laboratory
RRID:IMSR_JAX:002663
Recombinant DNA reagentpPGK-SB13doi:10.1038/nature10599Shared by Zender lab, University of Tuebingen
Recombinant DNA reagentpT/CaggsNrasG12Vdoi:10.1038/nature10599Shared by Zender lab, University of Tuebingen
Recombinant DNA reagentpT/CaggsNrasG12V/D38Adoi:10.1038/nature10599Shared by Zender lab, University of Tuebingen
Antibodymouse anti-p16Abcamcat# ab54210; clone 2D9A12; RRID:AB_8818191:50 dilution
Antibodymouse anti-p21BD Biosciencescat# 556431; clone SXM30; RRID:AB_3964151:50 dilution
Antibodymouse anti-NrasSanta Cruz
Biotechnology
cat# sc-31; clone F155; RRID:AB_6280411:100 dilution
Antibodymouse IgG1 isotype controlSigma-Aldrichcat# M5284; clone MOPC21; RRID:AB_11636851:50 dilution
Antibodybiotinylated goat anti-mouseThermo Fisher Scientificted goat anti-mouse (Thermo Fisher Scientific)
Software, algorithmCaseViewer3DHISTECHRRID:SCR_017654Version 2.2
Cell line (Homo sapiens, female)HEK293TATCCcat# CRL-3216; RRID:CVCL_0063
Cell line (M. musculus, male)3T3-L1ATCCcat# CL-173; RRID:CVCL_0123
Recombinant DNA reagentpLPC empty vectorThis paper
Recombinant DNA reagentpLPC-IDH1 wildtypeThis paper
Recombinant DNA reagentpLPC-IDH1R132HThis paper
Recombinant DNA reagentpLPC-IDH2 wildtypeThis paper
Recombinant DNA reagentpLPC-IDH2R172KThis paper
Antibodyrabbit anti-H3Cell Signaling
Technology,
cat# 4499; clone D1H2; RRID:AB_105445371:1000 dilution
Antibodyrabbit anti-H3K4me3Milliporecat# 17–614; RRID:AB_112127701:2000 dilution
Antibodyrabbit anti-H3K36me3Abcamcat# ab9050; RRID:AB_3069661 µg/ml dilution
Antibodyrabbit anti-H3K79me2Cell Signaling
Technology
cat# 9757; RRID:AB_21184481:1000 dilution
Antibodyrabbit anti-H3K9me2Cell Signaling
Technology
cat# 9753; RRID:AB_6598481:1000 dilution
Antibodyrabbit anti-H3K9me3Abcamcat# ab8898; RRID:AB_3068481 µg/ml dilution
Antibodyrabbit anti-IDH1Proteintechcat# 12332-1-AP; RRID:AB_21231591:1500 dilution
Antibodymouse anti-IDH2Abcamcat# ab55271; clone 5F11; RRID:AB_9437931 µg/ml dilution
Software, algorithmR project for statistical computinghttps://www.r-project.orgRRID:SCR_001905Version 4.1.0
Software, algorithmmetafordoi:10.18637/jss.v036.i03RRID:SCR_003450Version 3.0-2

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  1. Timothy M Errington
  2. Alexandria Denis
  3. Anne B Allison
  4. Renee Araiza
  5. Pedro Aza-Blanc
  6. Lynette R Bower
  7. Jessica Campos
  8. Heidi Chu
  9. Sarah Denson
  10. Cristine Donham
  11. Kaitlyn Harr
  12. Babette Haven
  13. Elizabeth Iorns
  14. Jennie Kwok
  15. Elysia McDonald
  16. Steven Pelech
  17. Nicole Perfito
  18. Amanda Pike
  19. Darryl Sampey
  20. Michael Settles
  21. David A Scott
  22. Vidhu Sharma
  23. Todd Tolentino
  24. Angela Trinh
  25. Rachel Tsui
  26. Brandon Willis
  27. Joshua Wood
  28. Lisa Young
(2021)
Experiments from unfinished Registered Reports in the Reproducibility Project: Cancer Biology
eLife 10:e73430.
https://doi.org/10.7554/eLife.73430