Supplementary Figure 1. ALVAC-protein vaccines and macaque immunization. (A) Maximum likelihood

Similar documents
Higher priming doses enhance HIV-specific humoral but not cellular. responses in a randomized, double-blind phase Ib clinical trial of

Crystallization-grade After D After V3 cocktail. Time (s) Time (s) Time (s) Time (s) Time (s) Time (s)

Supporting Information

Supporting Information

Supplementary information. Early development of broad neutralizing antibodies in HIV-1 infected infants

Supplementary Fig. 1: Ex vivo tetramer enrichment with anti-c-myc beads

HVTN P5 Vaccine Trials

Identification of Mutation(s) in. Associated with Neutralization Resistance. Miah Blomquist

Supplementary appendix

The inherent resistance of human immunodeficiency virus type

GOVX-B11: A Clade B HIV Vaccine for the Developed World

HIV and Challenges of Vaccine Development

activation with anti-cd3/cd28 beads and 3d following transduction. Supplemental Figure 2 shows

Nature Medicine: doi: /nm.4322

AIDSVaccine2010 Atlanta, Georgia Willy Bogers. NIH HIVRad Grant nr 5P01AI066287

DEBATE ON HIV ENVELOPE AS A T CELL IMMUNOGEN HAS BEEN GAG-GED

Min Levine, Ph. D. Influenza Division US Centers for Disease Control and Prevention. June 18, 2015 NIBSC

Supplementary Figure 1. Using DNA barcode-labeled MHC multimers to generate TCR fingerprints

Antibody Dependent Cellular Cytotxic activity: Past and Future. Guido Ferrari, M.D. Duke University Medical Center

The Harvard community has made this article openly available. Please share how this access benefits you. Your story matters

Combinatorial Vaccines for AIDS and other Infectious Diseases

SUPPLEMENTARY INFORMATION

NK mediated Antibody Dependent Cellular Cytotoxicity in HIV infections

Streamlining Heterologous DNA-Prime and NYVAC/Protein-Boost HIV Vaccine Regimens in

EMERGING ISSUES IN THE HUMORAL IMMUNE RESPONSE TO HIV. (Summary of the recommendations from an Enterprise Working Group)

Employing Improved Antigens Allows Streamlining of Heterologous DNA-Prime and NYVAC/Protein-Boost HIV Vaccine Regimens in Rhesus Macaques

Supplementary Figure 1. Heavy chain sequences of 2G1 and 8M2 aligned with V H 1-69

Manish Sagar, 1,2 Xueling Wu, 2 Sandra Lee, 3 and Julie Overbaugh 2 *

HIV: RV 144 prime boost HIV vaccine efficacy study

Understanding HIV. Transmitted/Founder Viruses. Brandon Keele SAIC-Frederick National Cancer Institute

Research Online. Edith Cowan University. Constantinos K. Wibmer. Jinal N. Bhiman. Elin S. Gray Edith Cowan University,

What is the place of the monoclonal antibodies in the clinic?

Increasing Neutralisation resistance in HIV-1 Clade C over the course of the southern African Epidemic. Cecilia Rademeyer 26 October 2014

HIV-1 p24 ELISA Pair Set Cat#: orb54951 (ELISA Manual)

NIH Public Access Author Manuscript Nat Med. Author manuscript; available in PMC 2010 September 1.

Development of Broadly Reactive HIV-1/AIDS Virus-like Particle Vaccines. Sean Patrick McBurney. B.S. Microbiology, University of Pittsburgh, 2004

Why are validated immunogenicity assays important for HIV vaccine development?

Nature Genetics: doi: /ng Supplementary Figure 1. SEER data for male and female cancer incidence from

Supporting Information

Boosts Following Priming with gp120 DNA

Superior Control of HIV-1 Replication by CD8+ T Cells Targeting Conserved Epitopes: Implications for HIV Vaccine Design

Recombinant Baculovirus Derived HIV-1 Virus-Like Particles Elicit Potent Neutralizing Antibody Responses

HIV Vaccine. 15 September 2016 นพ.นคร เปรมศร ผ อ านวยการส าน กงาน โครงการศ กษาว คซ นเอดส ทดลอง

Received 25 January 2011/Accepted 22 April 2011

Supplementary Figure 1. SC35M polymerase activity in the presence of Bat or SC35M NP encoded from the phw2000 rescue plasmid.

Supplementary Figure 1: Equilibrium binding analyses of the interaction of efgartigimod with human FcRn

SUPPLEMENTARY INFORMATION

ADCC Develops Over Time during Persistent Infection with Live-Attenuated SIV and Is Associated with Complete Protection against SIV(mac)251 Challenge

A Path to an HIV Vaccine: GSID Consortium Activities. Faruk Sinangil, PhD 4th Annual CAVD Meeting Miami, FL December 1-4, 2009

Preventive and therapeutic HIV vaccines. Markus Bickel Infektiologikum Frankfurt

Alternate Antibody-Based Therapeutic Strategies To Purge the HIV Cell Reservoir

Broad and Potent Neutralizing Antibodies from an African Donor Reveal a New HIV-1 Vaccine Target

IgG3 regulates tissue-like memory B cells in HIV-infected individuals

J. D. Trujillo,* N. M. Kumpula-McWhirter, K. J. Hötzel, M. Gonzalez, and W. P. Cheevers

Piraporn Utachee 1, Panasda Isarangkura-na-ayuthaya 2, Kenzo Tokunaga 3, Kazuyoshi Ikuta 5, Naokazu Takeda 1,5 and Masanori Kameoka 1,4,5*

HIV-specific humoral responses benefit from stronger prime in phase Ib clinical trial

Isolation of a Broadly Neutralizing Antibody with Low Somatic Mutation from a Chronically Infected HIV-1 Patient

Figure S1. Schematic presentation of genomic replication of idsiv after transfection and infection. After transfection of idsiv plasmid DNA into 293T

Comparative Immunogenicity of HIV-1 Clade C Envelope Proteins for Prime/Boost Studies

New Group Reading Test Level 3A

4. Th1-related gene expression in infected versus mock-infected controls from Fig. 2 with gene annotation.

Comments made today contain forward looking statements as described under the Private Securities Litigation Reform Act of Our forward looking

Human Immunodeficiency Virus type 1 (HIV-1) p24 / Capsid Protein p24 ELISA Pair Set

Human Immunodeficiency Virus type 1 (HIV-1) gp120 / Glycoprotein 120 ELISA Pair Set

HD1 (FLU) HD2 (EBV) HD2 (FLU)

2005 LANDES BIOSCIENCE. DO NOT DISTRIBUTE.

Supplementary Figure 1. BMS enhances human T cell activation in vitro in a

Chronic HIV-1 Infection Frequently Fails to Protect against Superinfection

Nature Biotechnology: doi: /nbt Supplementary Figure 1. Binding capacity of DNA-barcoded MHC multimers and recovery of antigen specificity

Identification of Microbes Lecture: 12

RAISON D ETRE OF THE IMMUNE SYSTEM:

Nature Immunology: doi: /ni Supplementary Figure 1

SUPPLEMENTARY FIGURES

4/14/2016. HIV Vaccines and Immunoprotection: Where Are We? Learning Objectives. After attending this presentation, participants will be able to:

Supplemental Materials and Methods Plasmids and viruses Quantitative Reverse Transcription PCR Generation of molecular standard for quantitative PCR

Immunogenicity of Avian Influenza H7N9 Virus in Birds

University of Massachusetts Medical School Matthew R. Costa University of Massachusetts Medical School

Chapter 35 Active Reading Guide The Immune System

Supplementary Figure 1

Nature Biotechnology: doi: /nbt.3828

Relative activity (%) SC35M

Biology Open (2014) 000, 1 10 doi: /bio

Supporting Information

HIV Anti-HIV Neutralizing Antibodies

Supplementary Figure 1. Efficiency of Mll4 deletion and its effect on T cell populations in the periphery. Nature Immunology: doi: /ni.

Monoclonal Antibodies to the V2 Domain of MN-rgp120: Fine Mapping of Epitopes and Inhibition of a4b7 Binding

Supplemental Information. Checkpoint Blockade Immunotherapy. Induces Dynamic Changes. in PD-1 CD8 + Tumor-Infiltrating T Cells

Received 9 June 1997/Accepted 7 October 1997

Module 8: Introduction to Immune Correlates of Protection. Instructors: Ivan Chan, Peter Gilbert, Paul T. Edlefsen, Ying Huang

Towards an HIV Cure Pre-Conference Symposium 20 & 21 July 2012

ALVAC -HIV and AIDSVAX B/E Prime-Boost HIV-1 Preventive Vaccine Regimen. Results of the Thai HIV Vaccine Trial, RV144

Supplemental Figure S1

Kelly A. Curtis, M. Susan Kennedy, Kevin Delaney, Man Charurat, and S. Michele Owen

Immunization with Single-Cycle SIV Significantly Reduces Viral Loads After an Intravenous Challenge with SIV mac 239

Incomplete immune response to Coxsackie B viruses. associates with early autoimmunity against insulin

Nature Immunology: doi: /ni Supplementary Figure 1. Gene expression profile of CD4 + T cells and CTL responses in Bcl6-deficient mice.

Module 8: Evaluating Immune Correlates of Protection

To test the possible source of the HBV infection outside the study family, we searched the Genbank

Current State of HIV Vaccine Development

Supporting Information Table of Contents

Transcription:

Supplementary Figure 1. ALVAC-protein vaccines and macaque immunization. (A) Maximum likelihood tree illustrating CRF01_AE gp120 protein sequence relationships between 107 Envs sampled in the RV144 trial (.1 vaccine and.0 placebo groups). The two CRF01_AE immunogens used in the RV144 vaccine are in red. The 3 additional natural Envs selected to be included in the pentavalent vaccine are in green, and the heterologous challenge SHIV (SHIV-1157(QNE)Y173H) shown in blue. (B) Logos comparing the vaccine antigens in the V2 region to the CRF01_AE sequences sampled from 110 infections in the RV144 trial and challenge SHIV. Black amino acids across represent the CRF01_AE consensus in this region and are not included in subsequent logos. Red amino acids are not found in the vaccines, RV144 vaccine residues are in green and pentavalent vaccine residues displayed in blue. The frequency of each amino acid in each position is indicated by the height of the letter on the y-axis, and HXB2 positions are highlighted from left to right. (C) Amino acid alignment of vaccine Env V2 sequences. Red are essential glycan sites and green residues are sites of immune pressure in RV144. (D) Alignment of amino acids of the challenge SHIV and A244 V2 sequence with contact sites for CH58 and CH59 indicated by the red stars. Site of immune pressure in RV144 are in red and green. (E) Single-genome amplification of the challenge virus stock. Nucleotide changes from the master sequence (top) are indicated by colored boxes.

Supplementary Figure 2. Humoral immune response to vaccination. (A) Plasma antibody blocking of CH59, CH01, A32 antibodies and scd4 to A244 over the course of immunization by competitive ELISA. Average of all animals graphed. (B) HIV-1 Env region/epitope and corresponding peptide number on array. (C) Chart showing the percentage of positive peptides in a peptide microarray that contains overlapping 15-mer peptides covering the Env gp160 for 7 clade consensus (A, B, C, D, M, AE, AG) and 6 vaccine strains (ZM651, TV1, 1086, MN, 92TH023, and A244). Positive threshold is signal intensity/igg concentration > 100. (D) Chart showing the maximum binding intensity for all clades along the HIV-1 Env regions (MFI/IgG concentration).

Supplementary Figure 3. Mucosal antibody binding responses. Mucosal IgG purified from rectal wecks taken at week 0 and week 23 (after 2 nd protein boost) were tested for binding of 12 multi-clade HIV-1 Env proteins using the binding antibody multiplex assay. Binding intensity measure as mean fluorescence intensity (MFI) and normalized by IgG concentration (specific activity). Positive response determined when specific activity 3x baseline and 95 th percentile of all baseline samples for each antigen. Each dot within the box and whisker plot represents an individual animal in the bivalent (blue) and pentavalent (red) immunized groups.

Supplementary Figure 4. Plasma antibody effector functions. (A) Plasma neutralization of Tier-1 viruses at weeks 23, 49 and prior to challenge at week 90 and the tier-2 viruses at week 90 measured in the TZM-bl neutralization assay (red > 500, orange > 50, yellow < 50). (B) Phagocytosis of vaccine and challenge gp120 coated targets by postivie (HIVIG) and negative (palivizumab) controls. Average of two replicate experiments. (C-D) High-througput Fc functional analysis. Purified plasma IgG from each animal from group 1 and 2 were tested for (C) Complement deposition (C3b) on the surface of A244 gp120 pulsed CD4+ target cells from HIVnegative donors. (D) Antibody-dependent Neutrophil-mediated phagocytosis against A244 gp120 coated beads by primary neutrophils. Horizontal line indicates group mean. (E) Max ADCC (top), peak ADCC titer (Endpoint dilution that scored above positive threshold; bottom) of gp120 coated target cells (CEM.NKR CCR5 ) by plasma from both immunization groups measured using the ADCC-GTL assay.

Supplementary Figure 5. Bivalent and pentavalent vaccine arms elicit different antibody responses. (A) Parameters that were measured pre-challenge (week 90) that were used for correlate analysis. (B) Parameters measured by high-throughput antibody profiling with A244 gp120 coated target cells. (C) Antigens and detection reagents used in the Fc array assay. (D) Mean True Positive Rate (balanced accuracy) of 100 runs of 9-fold cross-validation from weeks 15 through 90, comparing accuracy in predicting true group labels (cyan) vs. permuted labels (orange). The classifiers were trained on measurements taken only at the respective timepoints. (E) Test of robustness for models trained on measurements taken at the second protein boost (week 23), comparing performance of 100 repetitions of 9-fold cross-validation for actual (orange) vs. permuted (cyan) group labels. Significance was evaluated using the Wilcoxon-Mann-Whitney test. (F) Other antibody responses illustrating the evolving differences between groups; Wilcoxon-Mann-Whitney, * : P<0.05, ** : P<0.01, *** : P<0.001.

Supplementary Figure 6. Correlates of delayed infection. (A) C-indices of individual variables used in Fig. 5E. (B) Correlation of antibody ADCC, binding and blocking titers and tier-1 neutralization at week 90 with the number of weeks after challenge required to establish infection. The plotted data reflect only the vaccinated animals and not controls. Group 1 (B/E) in blue and group 2 (B/E/E/E/E) in red, open circles indicate animals uninfected after 8 challenges. P values reflect Spearman rank correlation tests. (C) Parameters that were measured pre-challenge (week 90) and weekly until infection. P values reflect analysis with a Cox Proportional Hazard model with time varying covariates.

Supplementary Figure 7. Isolation of antibodies from macaques immunized with the pentavalent vaccine. (A) Number of antibodies isolated from each animal, timepoint and antigen used for sorting. (B) Immunogenetic characteristics of isolated antibodies. (C) ELISA binding of DH638, DH637 and DH641 to wild-type and mutated gp120 and V1/V2 HIV antigens. (D) DH637 binding (signal intensity) to peptides on a linear microarray. Sequences of peptides 56 and 57 that are in the V2 and contain the 4 7 integrin binding site for each clade/strain are shown. (E) Inhibition of 4 7 on RPMI8866 cells to cyclic 92TH023 (Clade E Env) V2 epitope peptide by DH637. Representative graph of blocking over time of 4 7 by DH637 at 20µg/ml and 50µg/ml antibody concentrations or media (blue) over time. Chart below shows the percent inhibition of both experiments by DH637 and two negative control antibodies (Ab82, influenza; 7B2, HIV gp41). Both Experiments performed in triplicate. Error bars indicate standard deviation. (F) ELISA binding of DH632, DH631 and DH633 to YU2 gp120 (Solid line) and YU2 gp120 D368R mutant (Dashed line).