Metabolomics Analysis Reveals Differential T-Cell Serine...
Transcript of Metabolomics Analysis Reveals Differential T-Cell Serine...
Metabolomics Analysis Reveals Differential T-Cell Serine Metabolism as a Target in Autoimmunity Gabriela Andrejeva Jeffrey Rathmell lab Vanderbilt University Medical Center [email protected] 2018 UK Metabolism Symposium Monday, 30th July 2018
Outline
Background and hypothesis
Global metabolomics and proteomics studies of CD4 T cells
Serine pathway in CD4 T cell subsets
Serine pathway and MTHFD2 in EAE and multiple sclerosis
Summary and future directions
2
AGXT2L-Cystine
DLD
L-Arginine
CoA
ADC
5,10-Methylenetetrahydrofolate"
CDO1
GOT2
4-Aminobutanoate
MPST
GOT1
2-OxoglutarateMercaptopyruvate
Pyruvate
L-Cysteate
Cyanide
3-Sulfino-L-alanine
GPT
Taurine
GAD1
beta-Alanine
GAD2
GPT2
CSAD
Hypotaurine
SDS
5-FormiminotetrahydrofolateThiocysteine
2-Oxobutanoate
2-Aminoacrylate
L-Glutamate
L-Cysteine
L-Alanine
Oxaloacetate
AGXTCTH
L-Cystathionine
4-Guanidinobutanoate
Succinyl-CoA
GAMT
Guanidinoacetate
Creatine
GSS
DMGDH
S-Adenosyl-L-homocysteine
Betaine aldehyde
CO2
S-Aminomethyldihydrolipoylprotein
L-Pipecolate
PDPR
CHDH
Choline
Sarcosine
GLDC
SARDH
ALAS1
Glutathione
ALAS2
PIPOX
GNMT
GCAT
L-2-Amino-3-oxobutanoic acid
5-Aminolevulinate
MTRBHMT2
"N,N-Dimethylglycine"
BHMT
Selenohomocysteine
AHCYL1
L-Homocysteine
BetaineCob(II)alamin
AHCY
PPCS
ANPEPHydroxypyruvate
CP
Acetyl-CoA
GATM
Se-Adenosylselenomethionine
L-Methionine
MAT1AMAT2B
S-Adenosyl-L-methionine
MAT2A
CBS
PPIGGlycine
IL4I1Cystathionine
ALDH1L2
ALDH1L1
Tetrahydrofolyl-[Glu](n)
Poly-L-glutamate
10-Formyltetrahydrofolylpolyglutamate 10-Formyltetrahydrofolyl L-glutamate
GGH
ATIC
MTHFD2
DHFR
MTHFD1
10-Formyltetrahydrofolate
Tetrahydrofolate
MTHFD1L
"5,10-Methylenetetrahydrofolate"
FPGS
"5,10-Methenyltetrahydrofolate"
Formate
O-Phospho-L-serine
5-MethyltetrahydrofolateMTHFR
MTHFS
FTCD
MTFMT
N-Formimino-L-glutamatePSPH
GART
PHGDH
3-Phosphonooxypyruvate
2-Oxo-3-hydroxy-4-phosphobutanoate
3-Phospho-D-glycerate
O-Phospho-4-hydroxy-L-threonine PSAT1
NAGS
SHMT1
NH3 L-Serine
AMT5-Formyltetrahydrofolate
SHMT2
dUMP dTMP
Folate
DihydropteroateDihydrofolate
TYMS
Glucose
Serine
Methylene-THF
Serine
ExtracelularSerine
Methylene-THF
FormateFormate
MTHFD2
NADPH NADPH/NADHPURINES
GSH
METHIONINE
GSH
MITOCHONDRION
CYTOSOL
Treg
Th17
Th1
Outline
Background and hypothesis
Global metabolomics and proteomics studies of CD4 T cells
Serine pathway in CD4 T cell subsets
Serine pathway and MTHFD2 in EAE and multiple sclerosis
Summary and future directions
3
CD4 T Cells and Metabolism 4
Adapted from Swain et al., Nat Rev Immunol, 2012
Th2 GATA3
Treg FoxP3
Th17 Ror𝛾t
Th1 T-bet
TGFβ IL-6
IL-23 TGFβ IL-2
Antigen Recognition & Co-Stimulation
IL-12 IFN𝛾 IL-4
IL-10 IL-17A, IL-17F, IL-22
IFN𝛾, TNF IL-4, IL-5, IL-13
POLARIZING MILEU
EFFECTOR MEDIATORS
EFFECTOR FUNCTIONS
Regulation, suppression of inflammatory responses
Inflammation Allergic and helminth
responses
Macrophage activation,
inflammation
Naïve
TCR
CD4 T Cells and Metabolism 5
Adapted from Swain et al., Nat Rev Immunol, 2012
Th2 GATA3
Treg FoxP3
Th17 Ror𝛾t
Th1 T-bet
TGFβ IL-6
IL-23 TGFβ IL-2
Antigen Recognition & Co-Stimulation
IL-12 IFN𝛾 IL-4
IL-10 IL-17A, IL-17F, IL-22
IFN𝛾, TNF IL-4, IL-5, IL-13
POLARIZING MILEU
EFFECTOR MEDIATORS
EFFECTOR FUNCTIONS
Regulation, suppression of inflammatory responses
Inflammation Allergic and helminth
responses
Macrophage activation,
inflammation
Naïve
TCR
Sugiura & Rathmell., J Immunol, 2018
CD4 T Cells and the Immunological Balance 6
Th2 Treg
Tolerance Normal Immunity
Th17
Th1 Th2
Treg
Immunosuppression Cancer
Th17
Th1
Th2
Treg
Inflammation Autoimmunity
Th17
Th1
Hypothesis
Cytokine signaling during CD4 T cell development induces differential
metabolic rewiring to fulfill biosynthetic, signaling and epigenetic
roles.
These are selectively essential for the development and function of
different CD4 T cell subsets.
7
Outline
Background and hypothesis
Global metabolomics and proteomics studies of CD4 T cells
Serine pathway in CD4 T cell subsets
Serine pathway and MTHFD2 in EAE and multiple sclerosis
Summary and future directions
8
Experimental System for Metabolomics and Proteomics
9
Cytokines added Outcome TGFβ Treg TGFβ + IL-2 Treg proliferative IL-12 Th1 IL-12 + IL-2 Th1 TGFβ + IL-6 Th17 TGFβ + IL-6 + IL-23 More pathogenic Th17 TGFβ + IL-6 + IL-23 + IL-1β
Pathogenic Th17
Nothing Th0
Cytokines added Outcome IL-7 Naïve T cell
Isolated naïve
mouse CD4+ T
cell
anti-CD3 anti-CD28
CD28 CD3
TCR
SIGNAL 1 SIGNAL 2
anti-CD3 and anti-CD28 coated plate (5ug/ml each)
Isolated naïve
mouse CD4+ T
cell
Immune Characterization • Transcription Factor Expression • Cytokine Secretion
Metabolic Characterization • Intracellular Metabolite MS • Medium Analysis by NMR • Proteomics
24h, 48h, 72h
Outline
Background and hypothesis
Global metabolomics and proteomics studies of CD4 T cells
Serine pathway in CD4 T cell subsets
Serine pathway and MTHFD2 in EAE and multiple sclerosis
Summary and future directions
10
Serine/Glycine/One-Carbon Metabolism 11
Glucose
Serine
Methylene-THF
Serine
Extracellular Serine
Methylene-THF
Formate Formate
NADPH NADPH/ NADH PURINES
GSH
METHIONINE
GSH
MITOCHONDRION
CYTOSOL
Glycine
Glycine
Serine/Glycine/One-Carbon Metabolism 12
Glucose
Serine
Methylene-THF
Serine
Extracellular Serine
Methylene-THF
Formate Formate
MTHFD2
NADPH NADPH/ NADH PURINES
GSH
METHIONINE
GSH
MITOCHONDRION
CYTOSOL
Glycine
Glycine
Serine/Glycine/One-Carbon Metabolism 13
Glucose
Serine
Methylene-THF
Serine
Extracellular Serine
Methylene-THF
Formate Formate
MTHFD2
NADPH NADPH/ NADH PURINES
GSH
METHIONINE
GSH
MITOCHONDRION
CYTOSOL
Th17 ? Glycine
Glycine
TReg
Th1
Possible Mechanisms of MTHFD2 Inhibitor Action
Nucleotide Synthesis Reactive Oxygen Species
The Model of MTHFD2 Inhibitor Action 15
Glucose
Serine
Methylene-THF
Serine
Extracellular Serine
Methylene-THF
Formate Formate
MTHFD2
NADPH NADPH/ NADH PURINES
GSH
METHIONINE
GSH
MITOCHONDRION
CYTOSOL
Th17
Glycine
Glycine
TReg
Th1
AICAR
AMPK
mTORC1
Outline
Background and hypothesis
Global metabolomics and proteomics studies of CD4 T cells
Serine pathway in CD4 T cell subsets
Serine pathway and MTHFD2 in EAE and multiple sclerosis
Summary and future directions
16
Outline
Background and hypothesis
Global metabolomics and proteomics studies of CD4 T cells
Serine pathway in CD4 T cell subsets
Serine pathway and MTHFD2 in EAE and multiple sclerosis
Summary and future directions
17
Summary and Future Directions
Global metabolomics analysis can reveal pathways that are important in CD4 T cell activation and subset function
Naïve CD4 T cell differentiation with lineage-specific cytokines results in significant alterations of serine metabolism
Targeting MTHFD2 might be a viable strategy to shift the balance between Th1/Th17/Treg in human inflammatory disease In vivo: Does targeting MTHFD2 suppress autoimmunity and promote Treg stability?
In humans: Is MTHFD2 expression increased in human multiple sclerosis patient brain lesions?
18
AGXT2L-Cystine
DLD
L-Arginine
CoA
ADC
5,10-Methylenetetrahydrofolate"
CDO1
GOT2
4-Aminobutanoate
MPST
GOT1
2-OxoglutarateMercaptopyruvate
Pyruvate
L-Cysteate
Cyanide
3-Sulfino-L-alanine
GPT
Taurine
GAD1
beta-Alanine
GAD2
GPT2
CSAD
Hypotaurine
SDS
5-FormiminotetrahydrofolateThiocysteine
2-Oxobutanoate
2-Aminoacrylate
L-Glutamate
L-Cysteine
L-Alanine
Oxaloacetate
AGXTCTH
L-Cystathionine
4-Guanidinobutanoate
Succinyl-CoA
GAMT
Guanidinoacetate
Creatine
GSS
DMGDH
S-Adenosyl-L-homocysteine
Betaine aldehyde
CO2
S-Aminomethyldihydrolipoylprotein
L-Pipecolate
PDPR
CHDH
Choline
Sarcosine
GLDC
SARDH
ALAS1
Glutathione
ALAS2
PIPOX
GNMT
GCAT
L-2-Amino-3-oxobutanoic acid
5-Aminolevulinate
MTRBHMT2
"N,N-Dimethylglycine"
BHMT
Selenohomocysteine
AHCYL1
L-Homocysteine
BetaineCob(II)alamin
AHCY
PPCS
ANPEPHydroxypyruvate
CP
Acetyl-CoA
GATM
Se-Adenosylselenomethionine
L-Methionine
MAT1AMAT2B
S-Adenosyl-L-methionine
MAT2A
CBS
PPIGGlycine
IL4I1Cystathionine
ALDH1L2
ALDH1L1
Tetrahydrofolyl-[Glu](n)
Poly-L-glutamate
10-Formyltetrahydrofolylpolyglutamate 10-Formyltetrahydrofolyl L-glutamate
GGH
ATIC
MTHFD2
DHFR
MTHFD1
10-Formyltetrahydrofolate
Tetrahydrofolate
MTHFD1L
"5,10-Methylenetetrahydrofolate"
FPGS
"5,10-Methenyltetrahydrofolate"
Formate
O-Phospho-L-serine
5-MethyltetrahydrofolateMTHFR
MTHFS
FTCD
MTFMT
N-Formimino-L-glutamatePSPH
GART
PHGDH
3-Phosphonooxypyruvate
2-Oxo-3-hydroxy-4-phosphobutanoate
3-Phospho-D-glycerate
O-Phospho-4-hydroxy-L-threonine PSAT1
NAGS
SHMT1
NH3 L-Serine
AMT5-Formyltetrahydrofolate
SHMT2
dUMP dTMP
Folate
DihydropteroateDihydrofolate
TYMS
Glucose
Serine
Methylene-THF
Serine
ExtracelularSerine
Methylene-THF
FormateFormate
MTHFD2
NADPH NADPH/NADHPURINES
GSH
METHIONINE
GSH
MITOCHONDRION
CYTOSOL
Treg
Th17
Th1
Acknowledgements 19
Rathmells’ labs • Jeffrey Rathmell • Kimryn Rathmell • Kathryn Beckermann • Anna Chytil • Diana Contreras • Aguirre De cubas • Stephanie Dudzinski • Marc Johnson • Aaron Lim • Matthew Madden • Damian Maseda • Frank Mason • Stephen Norris • Bradley Reinfeld • Ayaka Sugiura • Esteban Terzo • Jamie Weyandt • Melissa Wolf • Kirsten Young
Young lab • Jamey Young • Irina Trenary • Ali McAtee
Vanderbilt NMR cores • Donald Stec • Markus Voehler
Sriram lab • Subramaniam Sriram
Aune lab • Thomas Aune
McLean lab • Stacy Sherrod • Alexandra Rutledge • Simona Codreanu
Vanderbilt MS core • Kevin Schey • Wade Calcutt • Emilio Rivera • Kristie Lindsey Rose
Norris lab • Jeremy Norris • Danielle Guttierez