Regulating the Regulators for Cancer Immunotherapy: LAG-3 Finally Catches Up. Drew Pardoll Sidney Kimmel Cancer Center Johns Hopkins

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Regulating the Regulators for Cancer Immunotherapy: LAG-3 Finally Catches Up Drew Pardoll Sidney Kimmel Cancer Center Johns Hopkins

The hostile immune microenvironment within a tumor Stat3 Stat3 NK Lytic activity Stat3 degranulation granulocyte Tumor VEGF, IL6, IL10, IL23 B7-H4 adenosine B7-H1 B7-H1 X X X XX NO X PDC IL10 TGFβ A2aR LAG-3 CD4 T cell FoxP3 Treg Stat3 IL-23 DC maturation MΦ/MSC/ imc B7-H4 Tumorspecific CTL

Combinatorial immune therapies to hit distinct steps in the evolution of antitumor immunity TLR agonists Vaccines Costimulators CTLA-4 blockade B7-H1/4,PD1 blockade STAT-3 blockade Ag Presentation By Appropriately Activated DCs + Costimulation Blockade of Immunologic Check Points Manipulation of the Tumor Microenvironment Blockade of Regulatory T cells

Peripheral T cell tolerance APC + MHC-Ag signal 2 B7 CD28 signal 1 TCR Naïve T cell + signal 2 Activation (γ-ifn, CTL activity) signal 2 Tolerance FoxP3 LAG-3 GITR A2aR (Anergy) Regulatory T cell

The Probasin Hemagluttinin (ProHA) Transgenic Mouse HA wt HAs HAF 2 17 110 120 542 550 538 SS ED ED I-E d K d TM CD

The ProHA x TRAMP Mouse(ProTRAMP) A tumor tolerance model ProSV40 Oncogenic ProHA A Tumor / and Tissue Specific Antigen Disease grossly identical to TRAMP 12 th Generation Intercross onto B10.D2 HA-specific CD4 and CD8 TCR transgenic T cells transferred into ProTRAMP are TOLERIZED. HA-specific CD4s become Treg

Mouse model Immunogenomics Therapeutic Ab production Back to the mouse model to test therapeutic Ab

Genes Involved in Expression of the Tolerant Phenotype in T Cells In VIVO In VITRO Upregulated Day 4 Anergy vs. Day 4 Activation (n=20,000) Upregulated Day 4 Anergy vs. Day 7 Activation (n=18,000) Upregulated in Signal 1 Alone vs Unstimulated (n=17,000) Upregulated in Signal 1 Alone vs. CSA Blocked (n=18,000) n=13,000 N=4,500 N=12,000 HAM Analysis N = 151 Kowalski J, Drake CG, Schwartz R, and Powell J. Non- Parametric, hypothesis-based analysis of microarrays for comparison of several phenotypes. Bioinformatics 20: 364-373, 2004

Symbol IN VIVO Ratio Anergy / Memory IN VITRO Ratio Anergy / Resting NAME - FROM GO Ontogeny Search Lag3 3.6 8.7 Lymphocyte-activation gene 3 Bcl3 3.5 14.6 B-cell leukemia/lymphoma 3 Tnfrsf4 2.9 5.7 tumor necrosis factor receptor superfamily member 4 Nfatc1 2.7 14.3 NF-ATc isoform a (NF-ATca) Il5 2.7 10.7 Interleukin 5 Bcat1 2.6 34.0 branched chain amino acid transferase 1, cytosolic Ptprs 2.5 4.5 Protein tyrosine phosphatase, receptor type, S Mapkapk2 2.4 10.5 MAP kinase-activated protein kinase 2 Tubb5 1.8 4.5 beta-tubulin (isotype Mbeta 5) Bcap37 1.8 4.1 B-cell receptor-associated protein 37 Fhl2 1.7 8.3 Four and a half LIM domains Il1r2 1.5 3.9 Interleukin 1 receptor, type II Cish 1.4 5.9 Cytokine inducible SH2-containing protein Ndrg1 1.4 8.0 N-myc downstream regulated gene 1 Etf1 1.4 4.6 Eucaryotic tranlation termination factor 1 Prkch 1.4 6.0 Protein kinase C, eta Cnil 1.3 24.7 cornichon-like protein Tnfsf11 1.2 26.0 Tumor necrosis factor (ligand) superfamily, member 11 Il13 1.2 95.7 Interleukin 13 Kcnn4 1.2 5.2 calcium -activated potassium channel, small conductance Ccl1 1.1 159.9 chemokine (C-C) motif ligand 1 Egr2 1.1 75.9 Early growth response 2 Ier3 1.1 8.7 immediate early response 3 Gch 1.1 30.5 GTP cyclohydrolase 1 Rgs16 1.1 13.4 regulator of G protein signalling 16 Csf1 1.1 3.7 colony-stimulating factor 1 (macrophage) Fkbp8 1.0 8.2 FK506 binding protein 8 Nr4a1 1.0 46.9 nuclear receptor subfamily 4, group A member 1 Lcp2 1.0 4.4 lymphocyte cytosolic protein 2 Dnajc5 1.0 16.1 DnaJ (Hsp40) homolog

100 75 LAG-3 -Real Time -PCR Anergy/Treg Effector/Memory 50 25 0 0 7 14 21 28 35 Days in vivo

LAG-3 is highly expressed on the surface of induced Treg Isotype Control Effector/Memory Naive Anergic/Treg LAG-3 10 3

LAG-3 Cloned in early 1990s CD4 homologue Does not substitute for CD4 in T cell development or helper T cell function Binds MHC II with higher affinity than CD4 but at a distinct site from CD4 Function unclear - reported to play a role in modulating NK function, T cell function, APC function but no clear conclusions Cytoplasmic tail completely different from CD4. Signaling pathways unclear

Transduction of CD4+CD25- T cells with wild type LAG-3 confers regulatory capacity 10000 GFP:6.5tg LAG-3/GFP:6.5tg LAG-3.Y73FΔCY/GFP:6.5tg Effectors only cpm 1000 100 0.125:1.25:1.5:1 suppressor:effector ratio

Can LAG-3 blockade alter endogenous T cell function? Day 0: α-lag-3 (0.2mg) Day 1: VAC-HA Day 3: α-lag-3 (0.2mg) Day 6: Adoptive transfer targets PT vac 4.025 ProTramp ProTRAMP+vaccine Mix 1:1; inject i.v. M1 M2 Unstimulated HA peptide-pulsed CFSE lo CFSE hi B10.D2 splenocytes 10 0 10 1 10 2 10 3 10 4 ProTRAMP+vaccine+anti-LAG3 PT vac/lag 4.033 Day 7: Harvest spleens; Flow M1 M2 10 0 10 1 10 2 10 3 10 4 CFSE

Tumor-tolerized endogenous CTL regain effector function in vivo after LAG-3 blockade ProTramp (14-16 wk old) 70 60 Percent Specfic Lysis [(E - S)/S] x 100 50 40 30 20 10 0 NT + VAC-HA PT PT + αlag-3 + VV-HA + VV-HA

α-lag-3 leads to endogenous CD8 migration and TNF-α production within prostates of ProTRAMP mice 10 4 ProTramp 1.73 6.27e-3 ProTramp + α-lag-3 10 4 7.94 0.025 FL4-H: TNF APC 10 3 10 2 10 1 FL4-H: TNF APC 10 3 10 2 10 1 10 0 98.1 0.18 10 0 91.7 0.37 10 0 10 1 10 2 10 3 10 4 FL3-H: Thy1.1PerCP Total # CD8 + TNF-α producing cells 10 6 10 5 10 4 10 3 PT prostate PT a-lag-3 prostat

Prostate tissue from Pro-Tramp mice 7 days post-at Clone 4 Adoptive Transfer Clone 4 Adoptive Transfer + anti-lag-3

Histology of prostate cancers treated with vaccine + anti-lag-3 antibodies

LAG-3 and FoxP3 expression are concordant on antigen-specific CD4 T cells only when antigen is present as self or tumor

CD4+25+ Treg from tumor bearing mice are highly suppressive in in vitro assays

Membrane protein encoding genes upregulated among CD4+ cells infiltrating human prostate cancer

LAG3 expression on tumor specific CD8 T cells restrains their accumulation and function of in prostate cancers IFNγ CFSE

CD4-independent role of LAG-3 for tumor-specific CD8 T cells

LAG-3 downregulates TCR dependent signaling Ca++

ProTRAMP model Charles Drake Adam Adler LAG-3 Charles Drake Ching-Tai Huang Joe Grosso Tulia Bruno Ed Hipkiss Christin Kelleher Dario Vignale Craig Workman