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Description of Supplementary Files
File name: Supplementary Information Description: Supplementary figures, supplementary table 1 and supplementary references. File name: Peer Review File
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Supplementary Figure 1a
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Supplementary Figure 1b
Supplementary Fig. 1 Defective polarization of lytic granules and mitochondria in NFATc1-
deficient CTLs. Bright field and fluorescence microscopy of living cells showing the recruitment of
lytic granules (green) and mitochondria (red) in WT (a) and Nfatc1-/- (b) CTLs upon contact with
aCD3/CD28-loaded beads. Arrows indicate the contacts between beads and CTLs. (c) Intensity
profile plots for lytic granules (LysoTracker® Green) and mitochondria (MitoTracker® Deep Red)
from WT and Nfatc1-/- CTL contacting beads loaded with aCD3/CD28. Left: Distribution of
organelles in WT CTLs. Right: Distribution of organelles in Nfatc1-/- CTL (3 to 5 profiles per time
point, ~10 cells each condition). Black bars indicate bead-cell border (bead size 5 µm).
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Intensity Profile Plot NFATc1 -‐/-‐ MitoTracker Red (n=29)Bead size ~5 µm
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Intensity Profile Plot WT MitoTracker Red (n=31)Bead size ~5 µm
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Intensity Profile Plot WT LysoTracker Green (n=17)Bead size ~5 µm
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Intensity Profile Plots NFATc1 -‐/-‐ CTL Lysotracker Green (n=52)Bead size ~5 µm
c
3
wild type
Nfatc2 -/-
Nfatc1-/-
Nfatc1-/-
Nfatc2 -/-
GzmB DAPI merge
10µm
wild type
Nfatc1-/-
15
10
5
0
GzmB (pg/ml x 103)
2015
10
5
0
vesicles per cell
wild type
Nfatc1-/-
Nfatc2 -/-Nfatc1-/-
Nfatc2 -/-
a b
+
Supplementary Fig. 2 Effect of NFATc1 ablation on the accumulation of granzyme B in CTLs. (a)Accumulation of granzyme B-containing cytoplasmic granules in Nfatc1-/- CTLs. Confocalmicroscopy. (b) Left, column presentation showing results from two independent assays. Right,granzyme B secretion, measured by ELISAs from the supernatant of CTLs. Typical assays of 3experiments are shown as means ± SEM.
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a
b H2bH2d
c
WT Nfatc1-/-n.s.2.0
1.5
1.0
0.5
0.0CD62L+
CD44+CD62L-
CD44+
Total flux (photons/sec.) x108
IL-17 Granzyme-B Perforin
0
1000
2000
3000
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MFI
(IFN
-γ)
*
MFI (IFN-g)
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2000
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(IL-
2)
***
MFI (IL-2)
0
5000
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(Gra
nzym
e-B)
**
MFI (Granzyme-B)
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MFI
(IL-
17)
*
MFI (IL-17)
0
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MFI
(TN
F-α
)
*
MFI (TNF-a)
0
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MFI(Perforin)
ns
MFI (Perforin)
WT Nfatc1-/- Nfatc2 -/-
IFN-gamma IL-2 TNFIFN-gamma
% of
Max
Perforin
% of
Max
IL-17
% of
Max
IL-2
% of
Max
TNF-alpha
% of
Max
Granzyme-B
% of
Max
WT
Nfatc2 -/-Nfatc1 -/-
NC
5
0
2000
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MFI
(TN
Fα)
0
1000
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FI (I
L-2)
0
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MFI
(IFN
-γ)
WT
Nfatc1-/-
MFI (TNF)
MFI (IFN-g)
MFI (IL-2)
0
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25000 *
MFI
(CD
62l)
0
2000
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6000
8000 ns
MFI
(CD
44)
0
5000
10000
15000 ns
MFI
(CD
25)
0
2000
4000
6000
8000
10000 *
MFI
(Fas
L)
0
1000
2000
3000
4000 *
MFI
(CD
69)
MFI
CD62L CD44 CD25 FasL CD69d
e
Supplementary Fig. 3 Cytotoxic activity and surface marker expression of Nfatc1-/- CTLs. (a)Cytotoxic activity of sorted in CD62L+CD44+ and CD62L-CD44+ CTLs. CTLs were sorted accordingto the surface markers CD62L and CD44. The sorted cells were incubated for 4 h with MOPC 315plasmacytoma cells expressing a luciferase indicator gene. A decreased chemiluminiscence (Totalflux) indicates cytotoxic activity. Data of 3 assays are shown.(b) Scheme of the generation ofallogeneic reactive CTLs in vitro for cytotoxicity and degranulation assays (presented in Fig. 2 b).(c) Expression of lymphokines, granzyme B and perforin 1 in and MFI values of CTLs (see Fig.2c). NC,negative control. (d) Expression of several surface markers and MFI values of CTLsgenerated for 6 d in vitro. ns, non-significant. (e) MFI values of cells shown in Fig. 2f. UnpairedStudent’s t-test was used. Data are shown as means ± SEM.
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ß-Act
a
50 kb29.210 kb 29.220 kb 29.230 kb 29.240 kb 29.250 kb
Cdkn1aNR_036469[0-50]
[0-50]
[0-25]
Refseq genes
BirA
Nc1A-Bio.BirA
Nc2
1 2 3 4 5 6 108 97 11 12 13
55
70
100
35
kD
25
NFATc1-alpha-spec. Ab
kD
10070
NFATc1-7A6-mAb
c
Fold induction
aCD8+ T cells
Cdkn1a
Fold induction
CTL-
Cdkn1a
Fold induction
CTL+
Cdkn1a
WT Nfatc1-/- Nfatc2 -/-
b
70
90
1
kD
2 3 4 5 6 7 8 9 10ß-Act
ß-ActNfatc1
Nfatc1f/fxCD4-cre
Nfatc1f/fxCD4-creWT WT
d
Supplementary Fig. 4 Degradation of NFATc1/aA and NFATc1-mediated control of Cdkn1a geneexpression encoding the cell cycle inhibitor p21WAW/CIP1. (a) Degradation of NFATc1/aA by proteinextracts from CTLs by incubation in vitro. Protein from KT12 NK cells overexpressing NFATc1/aAwas incubated for 30 min at 370 C alone (lane 1), with 30 mg nuclear protein from aCD8+Ts (lane3), from aCD8+Ts treated with 100 ng/ml rapamycin (lane 5), from CTLs treated for 2 d byaCD3/CD28 and 6 d by IL-2 (lane 7), from CTLs treated for 2 d by aCD3/CD28 and 6 d by IL-2followed by 5 h CsA (100 ng/ml) (lane 9), from CTLs treated for 2 d by aCD3/CD28 and 6 d by IL-2 and for 5 h by T+I (lane 11), or from NFATc2-deficient CTLs treated for 2 d by aCD3/CD28 andfor 6 d by IL-2 and for 5 h by T+I (lane 13). In the even lanes, the protein extracts of T cells alonewere fractionated. The immune blot was incubated subsequently with Ab raised against theNFATc1 a-peptide, or with the 7A6 NFATc1 Ab. One typical blot of 3 assays is shown. (b) Immuneblots of nuclear proteins from CD8+T cells of WT and Nfatc1fl/fl x CD4-cre mice. Cells were leftunstimulated (lane 1) or stimulated with aCD3/CD28 for 6 h (lane 2), 3 d (lanes 3 and 5), or withaCD3/CD28 for 3 d followed by incubation with IL-2 for 2 d (lanes 4 and 6) or 7 d (lanes 7-10). Inlanes 8 and 10, CTLs were finally stimulated by T+I for 5 h. (c) Real-time PCR assays of Cdkn1aRNA. RNAs were isolated from aCD8+Ts, and from non-induced CTLs (CTL-) and CTL+ cellsstimulated by T+I for 5 h. Two-tailed unpaired Student’s t-test was used. Data are shown asmeans ± SEM. (d) Below, binding of NFATc1/A-Bio and NFATc21 to the Cdkn1 locus. ChIP seqdata are shown from CTL+ cells.
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a
b aCD8+ T cells
Fold induction
Gzmb Prf1
WT Nfatc1-/- Nfatc2 -/-
ns4
3
2
1
0
200
150
100
50
0
Fold induction
[0-50]
[0-50]
[0-25]
Refseq genes
BirA
Nc1A-Bio.BirA
Nc2
Gzmb
56.860 kb 56.870 kb 56.880 kb 56.890 kb 56.900 kb 56.910 kb60kb
[0-50]
[0-50]
[0-25]
Refseq genes
BirA
Nc1A-Bio.BirA
Nc2
II12rb2
67.280kb123kb
II123r
67.300kb 67.320kb 67.340kb 67.360kb 67.380kb
[0-50]
[0-50]
[0-25]
Refseq genes
BirA
Nc1A-Bio.BirA
Nc2
MAST3
73.320kb51kb
Arrdc2II12rb1
73.330kb 73.340kb 73.350kb 73.360kb
Supplementary Fig. 5 NFATc1 binding to Il12 beta receptor loci, and to the granzyme B locus. (a)Binding of NFATc1/A-Bio and NFATc21 to the Il12rb and Il12rb2 genes encoding IL-12 receptorproteins. ChIP seq data of CTLs stimulated for 5 h by T+I. (b) Above, real-time PCR assays ofGzmb and Prf1 RNAs encoding the effector molecules granzyme B and perforin 1, respectively.Data of 5 PCR assays are shown, relative to naïve WT CD8+T cells and normalized to Actb. Two-tailed unpaired Student’s t-test was used. Data are shown as means ± SEM. RNAs were isolatedfrom aCD8+Ts. Below, binding of NFATc1/A-Bio and NFATc21 to the Gzmb gene. ChIP seq data ofCTLs stimulated for 5 h by T+I.
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[0-50]
[0-50]
[0-25]
Refseq genesBirA
Nc1A-Bio.BirA
Nc2
49kb98.990 kb 98.000 kb 98.010 kb 98.020 kb 98.030 kb
Ccr7
Refseq genes
BirA
Nc1A-Bio.BirA
Nc2
[0-50]
[0-50]
[0-25]
70kb9.450 kb9.440 kb 9.470 kb9.4640 kb 9.490 kb9.480 kb 9.4500 kb
II7r
97kb
Refseq genes
BirA
Nc1A-Bio.BirA
Nc2
[0-50]
[0-50]
[0-25]
30.810 kb 30.820 kb 30.830 kb 30.840 kb 30.850 kb 30.860 kb 30.870 kb 30.880 kb 30.890 kb
Irf4sp22
Refseq genesBirA
Nc1A-Bio.BirA
Nc2
[0-50]
[0-50]
[0-25]
99kb52.070 kb 52.080 kb 52.090 kb 52.100 kb 52.110 kb 52.120 kb 52.130 kb 52.140 kb 52.150 kb
Tcf7p1a
Refseq genes
BirA
Nc1A-Bio.BirA
Nc2
[0-50]
[0-50]
[0-25]
60kb72.900 kb 72.910 kb 72.920 kb 72.930 kb 72.940 kb 72.950 kb
ItgaeItgae Gsg24J11Rik
Supplementary Fig. 6 Binding of NFATc1/A-Bio and NFATc21 to the Ccr7, Il7r, Itgae, Tcf7 andIrf4 loci encoding the chemokine receptor Ccr7, the IL-7 receptor a chain, the integrinCD103/integrin aE, and the transcription factors Tcf1 and Irf4, respectively. ChIP seq data ofCTLs stimulated for 5 h by T+I.
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Refseq genesBirA
Nc1A-Bio.BirA
Nc2
81.260 kb157kb
81.280 81.300 81.320 81.340 81.360 81.380
[0-50]
[0-50]
[0-25]
Actn1
Fold induction
5
4
3
2
1
0
80
60
40
20
0
ns
Actn1
CTL- CTL+
Nfatc2 -/-
Refseq genesBirA
Nc1A-Bio.BirA
Nc2
16.850 kb99kb
16.860 16.870 16.880 16.890 16.900 16.910 16.920 16.930
[0-50]
[0-50]
[0-25]
PlekEldr Fbxo48
Fold induction
5
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3
2
1
0
4
3
2
1
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Plek
Refseq genesBirA
Nc1A-Bio.BirA
Nc2
13.470 kb
Vim
73kb13.480 13.490 13.500 13.510 13.520 13.530
[0-50]
[0-50]
[0-25]
Trdmt1
Fold induction 54
3
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Vim nsWT Nfatc1 -/-
Gene GeneNfatc2 -/-(-)
Nfatc1-/-(-)
Nfatc2 -/-(+)
Nfatc1-/-(+)
Nfatc2 -/-
Nfatc1-/-
globalglobal
ActbDnm1FlnaFlnbPsrc1
Tubb6
Actn 1Plek
Tubb5
Tubb2bTubb2a
Tubb4bTubb4a
Vim
Tuba1aTuba1bTuba1cTuba4a
ActbDnm1FlnaFlnbPsrc1
Tubb6
Actn 1Plek
Tubb5
Tubb2bTubb2a
Tubb4bTubb4a
Vim
Tuba1aTuba1bTuba1cTuba4a
b
a
aCD8+Ts CTLs
Supplementary Fig. 7 Expression of genes affecting the re-modeling of cytoskeleton in Nfatc1-/-and Nfatc2-/- CD8+T cells. (a) Heat map of RNA expression in aCD8+Ts (left) and CTLs (right) ofselected genes encoding cytoskeleton proteins. NGS transcriptome data of Nfatc1-/- and Nfatc2-/-aCD8+Ts and CTLs are shown, relative to WT cells. (b) Left, binding of NFATc1/A-Bio and NFATc21to the Vim, Plek and Actn1 loci in CTL+ cells. ChIP seq assays. Right, real-time PCR assays ofVim, Plek and Actn1 RNAs encoding vimentin, pleckstrin and a-actinin 1, respectively. RNAs wereisolated from CTLs. Data of 5 PCR assays are shown, relative to naïve WT CD8+T cells andnormalized to Actb. Two-tailed unpaired Student’s t-test was used. Data are shown as means ±SEM. 10
GlucoseSlc2a3/Glut3Slc2a1/Glut1
Hk2
Gpi
Pfkm
Gapdh
Aldoc
Pgk1
Eno1
Pkm
Ldha
Pgm2
Glucose 6-P
Fructose 6-P
Fructose 1,6-bis-P
Glyceraldehyde 3-P
1,3-Biphosphoglycerate
3-Phosphoglycerate
2-Phosphoglycerate
Phosphoenolpyruvate
Pyruvate
Lactate
WT Nfatc1 -/- Nfatc2 -/-
Supplementary Fig. 8 Effect of NFATc1 and NFATc2 ablation on the RNA expression of genes of aerobic glycolysis in aCD8+T cells. NGS results of transcriptome assays.
11
d
CTLs
Nfatc1-/-(-)
Nfatc2-/-(-)
Nfatc1-/-(+)
Nfatc2-/-(+)
Gene
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aCD8+Ts
Nfatc1-/-
Nfatc2-/-
Gene
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Hk2
0.0
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Fold
indu
ctio
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Hk2
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2.5 *
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indu
ctio
n
Hk2 Hk2
Fold induction
Fold induction
Nfatc1 -/- Nfatc2 -/-WT
CTL- CTL+
Slc2a3
0
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3
4
*
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indu
ctio
n
Slc2a3
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ctio
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Slc2a3Slc2a3
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Fold induction
Slc2a1
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indu
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Slc2a1 Slc2a1
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- - - - - - + +
- - - - + + - -- - + + + + + +
1 2 3 4 5 6 7 8
kD
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PR
Rapamycin
IL-2aCD3/CD28
b
2-NBDG
% of
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CTL-
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2-NBDG
Nfatc2 -/-Nfatc1 -/-WT
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2D GGlucose Oligomycin200
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50ECAR (mpH/min)
8060402000
Time (minutes)
Nfatc1 -/-WT
2D GGlucose Oligomycin
806040200
0
200
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50ECAR (mpH/min)
Time (minutes)
Supplementary Fig. 9 Effect of NFATc1 ablation on metabolism of CTLs. (a) Heat map of RNAexpression of mitochondrial genes in aCD8+T cells, compared to WT cells. For comparison, theexpression of nuclear cytochrome c-1 gene (Cyc1) is also shown. (b) Immune blot showing the
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effect of aCD3/CD28, IL-2 and Rapamycin on the Thr37/46 phosphorylation of the mTOR target4E-BP1 in splenic WT and Nfatc1-/- CD8+T cells upon treatment for 24 h. (c) Heat map of RNAexpression of genes of glycolysis cascade in Nfatc1-/- and Nfatc2-/- CTL- and CTL+ cells. (d)Incorporation of 2-NBDG into CTL- cells upon incubation for 1 h at 37oC. One typical assay of 2experiments is shown. (e) Real-time PCR assays of Slc2a1, Slc2a3 and Hk2 RNAs encoding theglucose transporters Glut1 and Glut3, and hexokinase 2, respectively, isolated from CTL- andCTL+ cells. Data of 5 PCR assays are shown, relative to naïve WT CD8+T cells and normalized toActb. (f) Extracellular flux analysis. 4x105 CTL- or CTL+ cells were seeded in a plate pre-coatedwith poly-D-lysine (Sigma;; 50 mg/ml) and subjected to extracellular flux analysis. Typical assays of3 experiments are shown. For (e), two-tailed unpaired Student’s t-test was used. Data are shown asmeans ± SEM.
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a
b
WT Nfatc1-/- Nfatc2 -/-
aCD8+ T cells
Fold induction 8
6
4
2
0
10Myc
CTL-
1.5
1.0
0.5
0
Fold induction
10
8
6
4
0
Fold induction
CTL+
2
Refseq genes
BirA
Nc1A-Bio.BirA
Nc2
[0-50]
[0-50]
[0-25]
23kb61.812 kb
Myc
61.816 kb 61.820 kb 61.824 kb 61.828 kb 61.832 kb
125.104
Refseq genes
BirA
Nc1A-Bio.BirA
Nc2
24kb125.108 125.112 125.116 125.120 125.124
GapdhIffo1 Ncapd2[0-50]
[0-50]
[0-25]
Refseq genes
BirA
Nc1A-Bio.BirA
Nc2
113kb82.660 82.680 82.700 82.720
Hk2[0-50]
[0-50]
[0-25]
82.740
Refseq genes
BirA
Nc1A-Bio.BirA
Nc2
124,410 124,430
Slc7a5
[0-50]
[0-50]
[0-25]
BC048644
124,400 124,42043kb
Supplementary Fig. 10 NFATc1 binding to the Hk2, Gapdh, Slc7a5 and Myc loci encodinghekokinase 2, glyceraldehyde 3-phosphate dehydrogenase, cationic aa transporter Slc7a5 and c-Myc, respectively. (a) ChIP seq assays of NFATc1/A-Bio and NFATc21 binding to the Hk2, Gapdhand Slc7a5 genes in CTL+ cells. (b) Above, ChIP seq assays of NFATc1/A-Bio and NFATc21binding to the Myc locus in CTL+ cells. Below, real time PCR assays of Myc RNA. Data of 5 PCRassays are shown, relative to naïve WT CD8+T cells and normalized to Actb.Two-tailed unpairedStudent’s t-test was used. Data are shown as means ± SEM. 14
1) Martinez, G. J. et al. The transcription factor NFAT promotes exhaustion of activated CD8(+) T cells. Immunity 42, 265-278, doi:10.1016/j.immuni.2015.01.006 S1074-7613(15)00032-1 [pii] (2015).
Reference
15
Gene Primer Sequence
Ifng For: 5’-‐GAGCTCATTGAATGCTTGGC Rev: 5’-‐GCGTCATTGAATCACACCTG
Cxcr3 For: 5’-‐TCTCGTTTTCCCCATAATCG Rev: 5’-‐AGCCAAGCCATGTACCTTGA
Ccr7 For: 5’-‐GTCTCTCTCCAGCTAGCCCA Rev: 5’-‐CAAACAGGAGCTGATGTCCA
Cdkn1a For: 5’-‐ACGGGACCGAAGAGACAAC Rev: 5’-‐CAGATCCACAGCGATATCCA
Slc2a3 For: 5’-‐: ATCGTGGCATAGATCGGTTC Rev: 5’-‐CCGCTTCTCATCTCCATTGT
Cdkn2a For: 5’-‐GCAGAAGAGCTGCTACGTGA Rev: 5’-‐CGTGAACATGTTGTTGAGGC
Cad For: 5’-‐TACGCAGTTCTCATCGACCA Rev: 5’-‐TGGGAGTTGCATGAAGAGTG
Myc For: 5’-‐ACGGAGTCGTAGTCGAGGTC Rev: 5’-‐AGAGCTCCTCGAGCTGTTTG
Sell For: 5’-‐TTCATGGCTTTCCTTTCACA Rev: 5’-‐CTGGCATTTCTCATTTGGCT
Gls2 For: 5’-‐AGTTCACCACGGCTCTGAAG Rev: 5’-‐ CACACCTGGATCCCAGACAC
Slc1a5 For: 5’-‐GGACGTCTTTCATCTCCACAA Rev: 5’-‐ACTCCTTCAATGATGCCACC
Cdkn1b For: 5’-‐GGGGAACCGTCTGAAACATT Rev: 5’AGTGTCCAGGGATGAGGAAG
Il7r For: 5’CATTTCACTCGTAAAAGAGCCC Rev: 5’-‐TGGAAGTGGATGGAAGTCAA
Ccl3 For: 5’-‐GTGGAATCTTCCGGCTGTAG Rev: 5’-‐ACCATGACACTCTGCAACCA
Ccl4 For: 5’-‐GAAACAGCAGGAAGTGGGAG Rev: 5’-‐CATGAAGCTCTGCGTGTCTG
Il2 For: 5’-‐CGCAGAGGTCCAAGTTCATC Rev: 5’-‐AACTCCCCAGGATGCTCAC
Itgae For: 5’-‐GCCCAGTCCACATCCATATT Rev: 5’-‐GCTGCATCTGCTCCAGCTAT
Slc2a1 For: 5’-‐GAGTGTGGTGGATGGGATG Rev: 5’-‐AACACTGGTGTCATCAACGC
Ccr7 For: 5’-‐ACACAGGAAGGCTGTGCTTT Rev: 5’-‐CATGGACTGCTATCTGCGTC
Actn1 For: 5’-‐TCGGAAGTCCTCTTCGATGT Rev: 5’GGGAGAAGCAGCAGAGGAAG
Gzmb For: 5’-‐ CATGTAGGGTCGAGAGTGGG Rev: 5’ CCTCCTGCTACTGCTGACCT
Prf1 For: 5’-‐ TGGAGGTTTTTGTACCAGGC Rev: 5’ TAGCCAATTTTGCAGCTGAG
Eomes For: 5’-‐ GACCTCCAGGGACAATCTGA Rev: 5’ GGCCTACCAAAACACGGATA
Hk2 For: 5’-‐ GGAACCGCCTAGAAATCTCC Rev: 5’-‐ GGAGCTCAACCAAAACCAAG
Tbx21 For: 5’-‐ ATCCTGTAATGGCTTGTGGG Rev: 5’-‐TCAACCAGCACCAGACAGAG
Irf4 For: 5’-‐ CAAAGCACAGAGTCACCTGG Rev: 5’ TGCAAGCTCTTTGACACACA
Plek For: 5’-‐ CCACATGGGTTTCCAGGTAT Rev: 5’-‐ AAGAGTGGACCCGTGTGTCT
Vim For: 5’-‐ TCCACTTTCCGTTCAAGGTC Rev: 5’-‐ AGAGAGAGGAAGCCGAAAGC
Supplementary Table 1
List of Real Time-PCR Primers
16