a plasma membrane e-map reveals links between the eisosome...
TRANSCRIPT
A Plasma Membrane E-MAP Reveals Links Between the Eisosome, Sphingolipid Metabolism and Endosomal Trafficking Pablo S. Aguilar1,#, Florian Fröhlich2,#, Michael Rehman2,#, Mike Shales3,#, Igor Ulitsky4, Agustina Olivera-Couto1, Hannes Braberg3, Ron Shamir4, Peter Walter5, Matthias Mann6, Christer S. Ejsing7, Nevan J. Krogan3*, Tobias C. Walther2* 1 Institut Pasteur de Montevideo, Uruguay 2 Max Planck Institute of Biochemistry, Organelle Architecture and Dynamics, Martinsried, Germany 3 Department of Cellular and Molecular Pharmacology, University of California, San Francisco, CA, USA 4 The Blavatnik School of Computer Science, Tel Aviv University, Tel Aviv, Israel 5 Department of Biochemistry and Biophysics, University of California and Howard Hughes Medical Institute, San Francisco, CA, USA 6 Max Planck Institute of Biochemistry, Proteomics and Signal Transduction, Martinsried, Germany 7. University of Southern Denmark, Department of Biochemistry and Molecular Biology, Odense, Denmark
# These authors, listed in alphabetical order, contributed equally * Correspondence to: Nevan Krogan Department of Cellular and Molecular Pharmacology University of California, San Francisco 1700 4th Street, Beyers Hall 208D San Francisco, CA 94158 USA [email protected] or Tobias C. Walther Max Planck Institute of Biochemistry Organelle Dynamics and Architecture Am Klopferspitz 18 82152 Martinsried/Munich Germany [email protected]
Nature Structural & Molecular Biology: doi:10.1038/nsmb.1829
False positive rate
True
pos
itive
rate
0 0.001 0.002 0.003 0.004
00.
050.
100.
150.
200.
250.
300.
150.
15
Supplementary Figure 1 - Receiver operating characteristic (ROC) curves gauging the power of pairwise genetic profile correlations to predict physical interactions between pairs of proteins. The predictive power of the plasma membrane E-MAP (blue) is comparable to that of previously published E-MAPs, focused on chromosome biology ( , red) and the early secretory pathway ( , green). The slope of the initial portion of the curve serves as a measure of the predictor's discriminatory power at its minimal false positive rate. Physical interaction definitions were collected from , imposing a threshold of PE score > 2.
1 2
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Nature Structural & Molecular Biology: doi:10.1038/nsmb.1829
–3.0 –1.5 0.0 1.5 3.0
S-scores
MYO5BNR1
BCK1 SYP1
BBC1SLA1
ARC18
SLT2 CAP1 EDE1
CLA4BEM3ABP1
CAP2
TWF1
BZZ1
RVS167SMY1
LCB4
LAG1
SUR2 SUR4
LCB3
LAC1
VPS17
VPS29
PEP8
VPS5
VPS35
DPL1
FEN1
TLG2 ARF1
SNC2
YPT31
PEP5 VPS8
VPS41 YPT7CCZ1
ERG5ERG3ERG2ERG6
PEX15PEX6PEX1
SSK1SSK22PBS2HOG1
COG6 COG5
COG8 COG7
BEM3EDE1BBC1TWF1CLA4SYP1SMY1SLT2
RVS167ARC18
ABP1CAP2MYO5BZZ1BCK1SLA1BNR1CAP1LAG1LCB4SUR2LAC1SUR4LCB3FEN1DPL1
VPS29PEP8
VPS35VPS17VPS5YPT7
VPS41PEP5CCZ1VPS8ARF1
YPT31TLG2SNC2ERG2ERG5ERG3ERG6SSK1
SSK22PBS2HOG1COG5COG6COG8COG7
PEX15PEX1PEX6ARL3SYS1CSG2SUR1
CDC50DRS2SRN2
MVB12MKS1RTG2RTG1RTG3MID1
CCH1APM3APL5VPS9
VPS21MON2ARL1TCB3TCB2
BE
M3
ED
E1
BB
C1
TWF1
CLA
4S
YP
1S
MY
1S
LT2
RV
S16
7A
RC
18A
BP
1C
AP
2M
YO
5B
ZZ1
BC
K1
SLA
1B
NR
1C
AP
1LA
G1
LCB
4S
UR
2LA
C1
SU
R4
LCB
3FE
N1
DP
L1V
PS
29P
EP
8V
PS
35V
PS
17V
PS
5Y
PT7
VP
S41
PE
P5
CC
Z1V
PS
8A
RF1
YP
T31
TLG
2S
NC
2E
RG
2E
RG
5E
RG
3E
RG
6S
SK
1S
SK
22P
BS
2H
OG
1C
OG
5C
OG
6C
OG
8C
OG
7P
EX
15P
EX
1P
EX
6A
RL3
SY
S1
CS
G2
SU
R1
CD
C50
DR
S2
SR
N2
MV
B12
MK
S1
RTG
2R
TG1
RTG
3M
ID1
CC
H1
AP
M3
AP
L5V
PS
9V
PS
21M
ON
2A
RL1
TCB
3TC
B2
Supplementary Figure 2 - Functional modules identified using the plasma mem-brane E-MAP data and protein-protein interactions. Modules were identified as described in . White lines separate modules, which are ordered by size. Missing values are in grey. The protein-protein interaction sub-network is shown next to each module with at least three genes.
4
Nature Structural & Molecular Biology: doi:10.1038/nsmb.1829
–3.0 –1.5 0.0 1.5 3.0
S-scores
MON2YPT31VPS17
ARL3SYS1
VPS13RIC1SFT2ARL1APM3ENT5SCS7SAC1SNC2SWA2
VPS29VPS35GET3APL5PEP8GOT1TPM1TLG2GET1VPS8GUP1EDE1BSP1SMY1HKR1
VPS27CHS6BNR1VPS9PEX6BEM3ERG4
PEX15CLA4SYP1PEX1SKN7
ARC18VPS64
FPS1ADH1
ECM33AKR1SLA1CAP1AIP1
BBC1TWF1
YLR408CYPT35PRM8ABP1SUR7CAP2GGA1MYO5BZZ1
YGL079WGIM4JSN1
MSB3YPT53RAS1
VPS21SYN8SRN2
YMR031CYPT52ENT3TAT1YPT7ARF3
MVB12CCZ1GPB2ARN2RAD1BRE4MID1SIP2
PBS2MRH1DUR3ARN1
JJJ1VPS33CHC1STD1ASG7
ASK10QDR3CRN1TOR1ATG8HXT2RSR1GAL2TGS1
YHL044WSKN1SSK1IPT1
LCB4YNL086W
ENT4HOG1CRZ1ERP1RAS2ATO3SUR1ARF1
COG5CDC50COG6PER1INP53GYL1DRS2ERG3PIB2
COG8COG7LRO1BUL1CIS3
GPA2YKL061W
PDR12YBP2CMP2MID2
GSC2MDG1CCH1BCH2KEM1RTG1MKS1ALP1
PEP12RTG2RTG3VAC8VPS5COG1FKS1
ROM2SUR2LEM3ERG5SUR4PKH3LCB3FEN1SEM1SHO1BOI1
ARK1WSC4
KIN2SPO14
EXG1ROM1TCB3TCB2LCB5
WSC3SIW14NCR1SST2PMA2TRE1NHA1MKK2INP51
PIL1COS10
YSR3EMP70
ERG6YDL012C
AIF1YEH2EHD3GEF1OSH2
FUI1HOR7
YBR016WPSR2YPS3MTL1SLI1
UBC5KIN1
ENB1LAG1
TSC10VPS4DPL1FAT1
SSU1GAP1YTA6SVL3GPB1SRO7
YAP1801CSG2ALR2
YOL019WPDR5TAT2PLB3
ROD1RSB1AKR2LSB5
RVS161RVS167
SAC6PMP3HSE1
YBR108WSES1STV1CHS1BRO1ISC1
SCH9QDR1
THI7YLR073C
CNA1YCK3WHI2ELM1RGD1
ATG18ERG2HAC1
SIT1YOR1
YGR266WYIR044C
ENT2FTR1
PEX11SSK22SMF1ERS1BIO5
HXT10PRM9DAL5GYP5SKM1GPR1GPG1SNQ2SNC1GCS1
SPS22YAP1802
IMH1
MO
N2
YP
T31
VP
S17
AR
L3S
YS
1V
PS
13R
IC1
SFT
2A
RL1
AP
M3
EN
T5S
CS
7S
AC
1S
NC
2S
WA
2V
PS
29V
PS
35G
ET3
AP
L5P
EP
8G
OT1
TPM
1TL
G2
GE
T1V
PS
8G
UP
1E
DE
1B
SP
1S
MY
1H
KR
1V
PS
27C
HS
6B
NR
1V
PS
9P
EX
6B
EM
3E
RG
4P
EX
15C
LA4
SY
P1
PE
X1
SK
N7
AR
C18
VP
S64
FPS
1A
DH
1E
CM
33A
KR
1S
LA1
CA
P1
AIP
1B
BC
1TW
F1Y
LR40
8CY
PT3
5P
RM
8A
BP
1S
UR
7C
AP
2G
GA
1M
YO
5B
ZZ1
YG
L079
WG
IM4
JSN
1M
SB
3Y
PT5
3R
AS
1V
PS
21S
YN
8S
RN
2Y
MR
031C
YP
T52
EN
T3TA
T1Y
PT7
AR
F3M
VB
12C
CZ1
GP
B2
AR
N2
RA
D1
BR
E4
MID
1S
IP2
PB
S2
MR
H1
DU
R3
AR
N1
JJJ1
VP
S33
CH
C1
STD
1A
SG
7A
SK
10Q
DR
3C
RN
1TO
R1
ATG
8H
XT2
RS
R1
GA
L2TG
S1
YH
L044
WS
KN
1S
SK
1IP
T1LC
B4
YN
L086
WE
NT4
HO
G1
CR
Z1E
RP
1R
AS
2AT
O3
SU
R1
AR
F1C
OG
5C
DC
50C
OG
6P
ER
1IN
P53
GY
L1D
RS
2E
RG
3P
IB2
CO
G8
CO
G7
LRO
1B
UL1
CIS
3G
PA2
YK
L061
WP
DR
12Y
BP
2C
MP
2M
ID2
GS
C2
MD
G1
CC
H1
BC
H2
KE
M1
RTG
1M
KS
1A
LP1
PE
P12
RTG
2R
TG3
VAC
8V
PS
5C
OG
1FK
S1
RO
M2
SU
R2
LEM
3E
RG
5S
UR
4P
KH
3LC
B3
FEN
1S
EM
1S
HO
1B
OI1
AR
K1
WS
C4
KIN
2S
PO
14E
XG
1R
OM
1TC
B3
TCB
2LC
B5
WS
C3
SIW
14N
CR
1S
ST2
PM
A2
TRE
1N
HA
1M
KK
2IN
P51
PIL
1C
OS
10Y
SR
3E
MP
70E
RG
6Y
DL0
12C
AIF
1Y
EH
2E
HD
3G
EF1
OS
H2
FUI1
HO
R7
YB
R01
6WP
SR
2Y
PS
3M
TL1
SLI
1U
BC
5K
IN1
EN
B1
LAG
1TS
C10
VP
S4
DP
L1FA
T1S
SU
1G
AP
1Y
TA6
SV
L3G
PB
1S
RO
7YA
P18
01C
SG
2A
LR2
YO
L019
WP
DR
5TA
T2P
LB3
RO
D1
RS
B1
AK
R2
LSB
5R
VS
161
RV
S16
7S
AC
6P
MP
3H
SE
1Y
BR
108W
SE
S1
STV
1C
HS
1B
RO
1IS
C1
SC
H9
QD
R1
THI7
YLR
073C
CN
A1
YC
K3
WH
I2E
LM1
RG
D1
ATG
18E
RG
2H
AC
1S
IT1
YO
R1
YG
R26
6WY
IR04
4CE
NT2
FTR
1P
EX
11S
SK
22S
MF1
ER
S1
BIO
5H
XT1
0P
RM
9D
AL5
GY
P5
SK
M1
GP
R1
GP
G1
SN
Q2
SN
C1
GC
S1
SP
S22
YAP
1802
IMH
1
Supplementary Figure 3 - Functional modules identified using the plasma membrane E-MAP data for pairs without PPIs. Modules were identified as described in , but without requiring PPI network connectivity. White lines separate modules, which are ordered by size. Missing values are in grey. The PIL1-EMP70 module is marked by a red bar.
4
Nature Structural & Molecular Biology: doi:10.1038/nsmb.1829
Supplementary Figure 4 - Map of type I TGMs in the plasma membrane E-MAP. Overview of all Type I TGMs found in the plasma membrane E-MAP. PIL1, YMR031c and EMP70 are highlighted in red.
Nature Structural & Molecular Biology: doi:10.1038/nsmb.1829
Emp70-GFP mergeVps5-RFPmars
FM4-64 Emp70-GFP merge
a
b
Supplementary Figure 5 - Emp70 localization in respect to endosomes. (a) Strains expressing Emp70-GFP and Vps5-RFPmars from the endogenous locus were imaged by confocal microscopy. Representative images are shown. (b) FM4-64 uptake experiment was performed at 16°C and representative confocal midsections are shown. Bar = 2.5 µm.
Nature Structural & Molecular Biology: doi:10.1038/nsmb.1829
Module # Gene symbols ORFs 1 CLA4,ABP1 YNL298W,YCR088W 2 EDE1,SYP1,SLA1 YBL047C,YCR030C,YBL007C 3 SLT2,BCK1 YHR030C,YJL095W 4 CAP1,CAP2 YKL007W,YIL034C 5 RTG3,RTG1 YBL103C,YOL067C 6 ENT3,GGA2,ENT5 YJR125C,YHR108W,YDR153C 7 PEX15,PEX6 YOL044W,YNL329C 8 GET1,GEF1,GET3 YGL020C,YJR040W,YDL100C 9 SYS1,ARL3 YJL004C,YPL051W
10 IMH1,MON2,ARL1 YLR309C,YNL297C,YBR164C 11 SNC2,TLG2 YOR327C,YOL018C 12 VPS17,VPS35,PEP8,VPS29 YOR132W,YJL154C,YJL053W,YHR012W 13 VPS41,APM3,APL5 YDR080W,YBR288C,YPL195W 14 COG8,COG7,COG5,COG6 YML071C,YGL005C,YNL051W,YNL041C 15 VPS21,VPS9 YOR089C,YML097C 16 HOG1,SSK22,SSK1,PBS2 YLR113W,YCR073C,YLR006C,YJL128C
17 TSC10,DPL1,SUR2,LAC1, LCB3,SUR4,LAG1
YBR265W,YDR294C,YDR297W,YKL008C,YJL134W,YLR372W,YHL003C
18 ERG5,ERG3,ERG2 YMR015C,YLR056W,YMR202W Supplementary Table 3 - List of modules with PPIs found in the plasma membrane EMAP.
Nature Structural & Molecular Biology: doi:10.1038/nsmb.1829
Module # Gene symbols ORFs
1 INP52,ERG3,ERG2 YNL106C,YLR056W,YMR202W
2 SRO77,FUI1,SHO1,BOI2,RGD1 YBL106C,YBL042C,YER118C,YER114C,YBR260C
3 MYO3,YCK3,YAP1801,TOR2 YKL129C,YER123W,YHR161C,YKL203C
4 GYP5,PRM9,DAL5 YPL249C,YAR031W,YJR152W
5 AIP1,BNR1,IST2,ECM33,YBR108W, CLA4,HSE1,ABP1,PMP3,MYO5
YMR092C,YIL159W,YBR086C,YBR078W,YBR108W, YNL298W,YHL002W,YCR088W,YDR276C,YMR109W
6 YOL019W,SRN2,INP54,FTH1,VPS4, ATG21,GUP1,VPS27
YOL019W,YLR119W,YOL065C,YBR207W,YPR173C, YPL100W,YGL084C,YNR006W
7 FIG4,LEM3 YNL325C,YNL323W
8 SPO14,SNC1 YKR031C,YAL030W
9 EDE1,SLT2,CAP1,BBC1,CHS6,ARC18, CAP2,SLA1,SMY1,MID2,BCK1
YBL047C,YHR030C,YKL007W,YJL020C,YJL099W, YLR370C,YIL034C,YBL007C,YKL079W,YLR332W, YJL095W
10 FPS1,VPS41,SIT1,RTG3,CCZ1,SAC6, RTG1,VAC8,MKS1,WHI2,SST2,MID1
YLL043W,YDR080W,YEL065W,YBL103C,YBR131W, YDR129C,YOL067C,YEL013W,YNL076W,YOR043W, YLR452C,YNL291C
11 DUR3,GGA2,SKM1,WSC4,WSC3, YPT53,ARN1,ARN2
YHL016C,YHR108W,YOL113W,YHL028W,YOL105C, YNL093W,YHL040C,YHL047C
12 CRN1,SRO7,YNL208W,SIP2,RAS2, YDC1
YLR429W,YPR032W,YNL208W,YGL208W,YNL098C, YPL087W
13 BCH1,YPT52,SYN8,RGT2 YMR237W,YKR014C,YAL014C,YDL138W
14 PEX15,BSP1,PEX6,RSR1 YOL044W,YPR171W,YNL329C,YGR152C
15 KIN2,JSN1,SSK22,YDR357C, HUA2,YNL086W,YPT35,PRM8
YLR096W,YJR091C,YCR073C,YDR357C,YOR284W, YNL086W,YHR105W,YGL053W
16 SFK1,BZZ1,SNQ2 YKL051W,YHR114W,YDR011W
17 YKL061W,OSH2,YDL012C,AIF1, GEF1,ALP1,SKN7,YEH2
YKL061W,YDL019C,YDL012C,YNR074C,YJR040W, YNL270C,YHR206W,YLR020C
18
VPS17,ENT3,GOT1,APM3,SAC1, VPS21,MON2,GET1,LCB5,CSG2, VPS29,GET3,VPS9,TLG2,SFT2, SNC2,VPS35,RCY1,SWA2,CUP5, PEP8,VPS8,TPM1,APL5
YOR132W,YJR125C,YMR292W,YBR288C,YKL212W, YOR089C,YNL297C,YGL020C,YLR260W,YBR036C, YHR012W,YDL100C,YML097C,YOL018C,YBL102W, YOR327C,YJL154C,YJL204C,YDR320C,YEL027W, YJL053W,YAL002W,YNL079C,YPL195W
19
HOG1,IMH1,SYS1,ELM1,COG8,CCH1, IPT1,ENT5,ARL1,COG5,COG6,SUR1, ARL3,TCB2,PIB2,ATO3,COG7,INP53, GSC2,CRZ1
YLR113W,YLR309C,YJL004C,YKL048C,YML071C, YGR217W,YDR072C,YDR153C,YBR164C,YNL051W, YNL041C,YPL057C,YPL051W,YNL087W,YGL023C, YDR384C,YGL005C,YOR109W,YGR032W,YNL027W
20 YLR073C,SMF1,YPS3 YLR073C,YOL122C,YLR121C
21 TSC10,DPL1,SUR2,LCB3,SUR4,FAT1, LAG1
YBR265W,YDR294C,YDR297W,YJL134W, YLR372W,YBR041W,YHL003C
22 PMP1,ERS1,HXT10,NHA1,HSP30 YCR024C-A,YCR075C,YFL011W,YLR138W,YCR021C
23 HSP12,PSR1,SCP1 YFL014W,YLL010C,YOR367W
24 ROD1,RSB1,PEP12,STD1,AKR2 YOR018W,YOR049C,YOR036W,YOR047C,YOR034C
25 YPL150W,STV1,STL1,TWF1 YPL150W,YMR054W,YDR536W,YGR080W
26 YSR3,INP51,SUR7,PIL1,ERG6,EMP70 YKR053C,YIL002C,YML052W,YGR086C,YML008C, YLR083C
27 YMR086W,WSC2,LCB4,ERP1 YMR086W,YNL283C,YOR171C, YAR002C-A
28 MDG1,SKN1,YIR044C YNL173C,YGR143W,YIR044C
29 GGA1,TOR1,GAP1,HOR7,SSK1 YDR358W,YJR066W,YKR039W,YMR251W-A,YLR006C
Supplementary Table 4 - List of modules without PPIs found in the plasma membrane E-MAP.
Nature Structural & Molecular Biology: doi:10.1038/nsmb.1829
PM E-MAP
(this study) ESP E-MAP (Schuldiner et al., 2005, 2)
E-MAP size (genes) 374 423 Number of modules 19 16 Genes in module (% of the E-MAP)
14% 22.4% PPI-based modules
% of modules enriched with GO “biological process” set (FDR<0.01)
63% 79.4%
Number of modules 29 36 Genes in module (% of the E-MAP)
72.4% 62.5% Modules identified without using PPIs
% of modules enriched with GO “biological process” set (FDR<0.01)
19.4% 23.2%
% of GO “biological process” sets enriched in at least one module
23.2% 23.0%
Supplementary Table 5 - Comparison of modules detected in the plasma membrane (PM) E-MAP and ESP E-MAP 2. Lipid lass (Normalized by levels in wild-type BY4742) WT sur2Δ sur4Δ lcb3Δ csg2Δ rom2Δ
rom2Δ sur2Δ
rom2Δ lcb3Δ
rom2Δ csg2Δ
LCB 1 65.78 270.22 16.60 0.97 100.40 409.41 14.07 261.34Cer 1 0.84 0.49 0.80 0.81 0.30 0.20 1.09 0.32IPC 1 0.19 0.96 0.77 2.48 0.64 0.10 0.86 1.03MIPC 1 3.80 0.00 1.26 0.00 1.10 0.78 2.10 0.00M(IP)2C 1 1.81 0.16 0.63 0.04 0.67 0.81 1.06 0.03PA 1 1.03 1.61 0.64 0.75 1.12 0.98 1.09 1.55PS 1 0.88 0.26 0.89 0.76 0.75 0.64 0.80 0.38PE 1 1.07 0.73 1.18 1.06 0.73 0.54 1.12 0.64PC 1 0.80 0.71 0.74 0.85 0.66 0.60 0.81 0.69PI 1 1.00 1.11 1.12 1.06 1.07 1.14 1.03 1.10DAG 1 0.89 0.73 0.72 0.89 0.72 0.58 0.82 0.74TAG 1 1.24 1.30 1.42 1.28 1.87 1.53 1.31 1.49SE 1 0.84 3.06 0.84 1.43 1.11 1.89 1.18 1.96
Abbreviations: PC (phosphatidylcholine), PE (phosphatidylethanolamine), PA (phosphatidic acid),
PS (phosphatidylserine), PI (phosphatidylinositol) DAG (diacylglycerol), TAG (triacylglycerol), SE (sterol ester) Cer (ceramide), LCB (long-chain base), IPC (inositolphosphoceramide), MIPC (mannosyl-inositolphosphoceramide), M(IP)2C (mannosyl-diinositolphosphoceramide)
Supplementary Table 6 - Lipidomic data for rom2Δ and mutants in the sphingolipid synthesis pathway as shown in Figure 8b
Nature Structural & Molecular Biology: doi:10.1038/nsmb.1829
Strain Genotype Reference
TWY1194 Mat a KEX2-RFPmars::NATR, EMP70-GFP::KANR ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study
TWY1044 Mat a EMP70-GFP::KANR SNF7-RFPmars::NATR ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study
TWY1063 Mat a EMP70-GFP::KANR ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study
TWY871 Mat α EMP70-GFP::KANR, LSP1-RFPmars::NATR ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study
TWY1319 Mat a YLR413w-RFPmars::NATR, EMP70-gfp::KANR ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study
TWY1320 Mat a YLR413w-RFPmars:.NATR, EMP70-gfp::KANR, pil1Δ::KANR ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study
TWY1195 Mat a KEX2-GFP::KANR, emp70Δ::NATR ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study TWY138 Mat a ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study TWY1360 Mat a emp70Δ::NATR ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study TWY1223 Mat a vps1Δ::HPHR ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study
TWY1230 Mat a tmn1Δ::NATR tmn2Δ::HPHR tmn3Δ::HPHR ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study
TWY1183 Mat a VPS5-RFPmars::NATR, EMP70-GFP::KANR ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study
Mat α his3Δ1; leu2Δ0; met15Δ0; ura3Δ0; can1Δ::MATaPr-HIS3; lyp1Δ::MATαPr-LEU2 Fiedler et al., 2009
TWY1770 Mat a rom2Δ::KANR csg2Δ::NATR his3Δ1; leu2Δ0; met15Δ0; ura3Δ0; can1Δ::MATaPr-HIS3; lyp1Δ::MATαPr-LEU2 This study
TWY1771 Mat a rom2Δ::KANR sur2Δ::NATR his3Δ1; leu2Δ0; met15Δ0; ura3Δ0; can1Δ::MATaPr-HIS3; lyp1Δ::MATαPr-LEU2 This study
TWY1772 Mat a rom2Δ::KANR lcb3Δ::NATR his3Δ1; leu2Δ0; met15Δ0; ura3Δ0; can1Δ::MATaPr-HIS3; lyp1Δ::MATαPr-LEU2 This study
Mat α lcb3Δ::KANR his3Δ1; leu2Δ0; ura3Δ0; lys2Δ0 Winzeler et al., 1999 Mat α sur4Δ::KANR his3Δ1; leu2Δ0; ura3Δ0; lys2Δ0 Winzeler et al., 1999 Mat α csg2Δ::KANR his3Δ1; leu2Δ0; ura3Δ0; lys2Δ0 Winzeler et al., 1999 Mat α rom2Δ::KANR his3Δ1; leu2Δ0; ura3Δ0; lys2Δ0 Winzeler et al., 1999 Mat α sur2Δ::KANR his3Δ1; leu2Δ0; ura3Δ0; lys2Δ0 Winzeler et al., 1999 TWY1122 Mat a PIL1-TEV-GFP::HIS his3Δ1; leu2Δ0; ura3Δ0; lys2Δ0 This study TWY70 Mat a his3Δ1; leu2Δ0; ura3Δ0; lys2Δ0 Walther et al., 2006 TWY790 Mat a pil1Δ::NATR LSP1-GFP::HIS his3Δ1; leu2Δ0; ura3Δ0; lys2Δ0 This study TWY791 Mat a pil1Δ::NATR YMR031C-GFP::HIS his3Δ1; leu2Δ0; ura3Δ0; lys2Δ0 This study TWY726 Mat a PIL1-GFP::HIS his3Δ1; leu2Δ0; ura3Δ0; lys2Δ0 This study TWY787 Mat α ymr031cΔ::KANR PIL1-GFP::HIS his3Δ1; leu2Δ0; ura3Δ0; lys2Δ0 This study TWY788 Mat α ymr031cΔ::KANR LSP1-GFP::HIS his3Δ1; leu2Δ0; ura3Δ0; lys2Δ0 This study Mat α ymr031cΔ::KANR his3Δ1; leu2Δ0; ura3Δ0; lys2Δ0 Winzeler et al., 1999 TWY743 Mat a YMR031C-GFP::HIS PIL1-RFPmars::KANR his3Δ1; leu2Δ0; ura3Δ0; lys2Δ0 This study TWY727 Mat a YMR031C-GFP::HIS his3Δ1; leu2Δ0; ura3Δ0; lys2Δ0 This study TWY786 Mat a Lsp1-GFP::HIS his3Δ1; leu2Δ0; ura3Δ0; lys2Δ0 This study TWY637 Mat a LSP1-TAP::KANR his3Δ1; leu2Δ0; ura3Δ0; met15Δ0 This study TWY642 Mat a YMR031C-TAP::KANR his3Δ1; leu2Δ0; ura3Δ0; met15Δ0 This study TWY450 Mat α pil1Δ :: KANR ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study TWY1184 Mat a tmn2Δ :: HPHR ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study TWY1182 Mat α tmn3Δ :: HPHR ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study TWY1207 Mat α emp70Δ :: NATR, tmn3Δ :: HPHR ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study TWY1206 Mat a emp70Δ:: NATR, tmn2Δ :: HPHR ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study TWY1814 Mat a tmn2Δ :: HPHR, tmn3Δ::NATR ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100 This study
TWY1064 Mat a EMP70-GFP :: KANR, LSP1-RFPcherry::HIS ura3-1 trp1-1 leu2 his3-11,15 ade2-1 can1-100
This study
Supplementary Table 7- List of strains used in this study
Nature Structural & Molecular Biology: doi:10.1038/nsmb.1829
Supplementary Material References 1. Collins, S.R. et al. Functional dissection of protein complexes involved in yeast
chromosome biology using a genetic interaction map. Nature 446, 806-10 (2007).
2. Schuldiner, M. et al. Exploration of the function and organization of the yeast early secretory pathway through an epistatic miniarray profile. Cell 123, 507-19 (2005).
3. Collins, S.R. et al. Toward a comprehensive atlas of the physical interactome of Saccharomyces cerevisiae. Mol Cell Proteomics 6, 439-50 (2007).
4. Ulitsky, I., Shlomi, T., Kupiec, M. & Shamir, R. From E-MAPs to module maps: dissecting quantitative genetic interactions using physical interactions. Mol Syst Biol 4, 209 (2008).
Nature Structural & Molecular Biology: doi:10.1038/nsmb.1829