Literature DB >> 17198079

A clinical development paradigm for cancer vaccines and related biologics.

Axel Hoos1, Giorgio Parmiani, Kristen Hege, Mario Sznol, Hans Loibner, Alexander Eggermont, Walter Urba, Brent Blumenstein, Natalie Sacks, Ulrich Keilholz, Geoffrey Nichol.   

Abstract

Therapeutic cancer vaccines are a heterogeneous group of complex biologics with distinctly different clinical characteristics than cytotoxic agents. The current clinical development paradigm used for oncology drug development is based on criteria developed for cytotoxic agents. More flexible and focused developmental guidelines are needed to address the unique characteristics of therapeutic cancer vaccines. Over the course of 1 year, the Cancer Vaccine Clinical Trial Working Group, representing academia and the pharmaceutical and biotechnology industries with participation from the US Food and Drug Administration, defined in a consensus process the cornerstones of a new clinical development paradigm for cancer vaccines and related biologics. Four major topics were addressed: (1) end points for clinical trials, (2) trial designs and statistical methods, (3) technical and developmental challenges, and (4) combination therapy. The proposed paradigm suggests therapeutic cancer vaccines to be investigated in 2 general types of clinical studies: proof-of-principle trials and efficacy trials. Proof-of-principle trials, which introduce a novel cancer vaccine into humans, should include a minimum of 20 or more patients in a homogenous, well-defined population in an adjuvant setting or without rapidly progressive disease in a metastatic setting to allow vaccines adequate time to induce biologic activity and should incorporate immune and molecular markers. Objectives should include initiation of a safety database, determination of dose and schedule, and demonstration of biologic activity as proof-of-principle. Biologic activity is defined as any effect of the vaccine on the target disease or host immune system using biologic markers as study end points, for example, clinical, molecular, or immune response. Immune response is demonstrated if determined in 2 separate, established and reproducible assays at 2 consecutive follow-up time points after the baseline assessment. If proof-of-principle trials show such immune response, or other biologic or clinical activity, efficacy trials may be initiated. If none of these end points is met, the clinical development plan should be reevaluated to decide if further development is warranted. Efficacy trials formally establish clinical benefit either directly or through a surrogate and are encouraged to be randomized studies. This is in contrast to single-arm phase 2 trials used for cytotoxic agents, which often use tumor response rate as the primary end point and historical controls as a comparator. Efficacy trials may use prospectively planned adaptive designs to expand from randomized phase 2 into phase 3 studies if well-defined trigger-point criteria are met, but the cost of incorporating such design elements should be carefully evaluated. Efficacy trials can also be exploratory randomized phase 2 trials or conventional phase 3 trials. In addition, conventional clinical end points can be adjusted to account for biologic features of cancer vaccines. The concept of efficacy trials allows for an early assessment of vaccine efficacy based on credible prospective data. This 2-phase developmental paradigm supports a more flexible, expeditious, and focused clinical developmental process with early and informed decision making. In addition, this report addresses clinical development challenges and issues for combination therapies.

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Year:  2007        PMID: 17198079     DOI: 10.1097/01.cji.0000211341.88835.ae

Source DB:  PubMed          Journal:  J Immunother        ISSN: 1524-9557            Impact factor:   4.456


  85 in total

1.  WT1 peptide vaccinations induce CD4 and CD8 T cell immune responses in patients with mesothelioma and non-small cell lung cancer.

Authors:  Lee M Krug; Tao Dao; Andrew B Brown; Peter Maslak; William Travis; Sara Bekele; Tatyana Korontsvit; Victoria Zakhaleva; Jedd Wolchok; Jianda Yuan; Hao Li; Leslie Tyson; David A Scheinberg
Journal:  Cancer Immunol Immunother       Date:  2010-06-08       Impact factor: 6.968

Review 2.  Dendritic cell vaccines in cancer immunotherapy: from biology to translational medicine.

Authors:  Hongmei Xu; Xuetao Cao
Journal:  Front Med       Date:  2011-12       Impact factor: 4.592

3.  A methodological framework to enhance the clinical success of cancer immunotherapy.

Authors:  Axel Hoos; Cedrik M Britten; Christoph Huber; Jill O'Donnell-Tormey
Journal:  Nat Biotechnol       Date:  2011-10-13       Impact factor: 54.908

Review 4.  Therapeutic cancer vaccines: are we there yet?

Authors:  Christopher A Klebanoff; Nicolas Acquavella; Zhiya Yu; Nicholas P Restifo
Journal:  Immunol Rev       Date:  2011-01       Impact factor: 12.988

Review 5.  Strategies to use immune modulators in therapeutic vaccines against cancer.

Authors:  Jay A Berzofsky; Masaki Terabe; Lauren V Wood
Journal:  Semin Oncol       Date:  2012-06       Impact factor: 4.929

6.  A novel immunogenic CS1-specific peptide inducing antigen-specific cytotoxic T lymphocytes targeting multiple myeloma.

Authors:  Jooeun Bae; Weihua Song; Robert Smith; John Daley; Yu-Tzu Tai; Kenneth C Anderson; Nikhil C Munshi
Journal:  Br J Haematol       Date:  2012-04-26       Impact factor: 6.998

Review 7.  Challenges with advanced therapy medicinal products and how to meet them.

Authors:  Christian K Schneider; Paula Salmikangas; Bernd Jilma; Bruno Flamion; Lyubina Racheva Todorova; Anna Paphitou; Ivana Haunerova; Toivo Maimets; Jean-Hugues Trouvin; Egbert Flory; Asterios Tsiftsoglou; Balázs Sarkadi; Kolbeinn Gudmundsson; Maura O'Donovan; Giovanni Migliaccio; Jānis Ancāns; Romaldas Maciulaitis; Jean-Louis Robert; Anthony Samuel; Johannes H Ovelgönne; Marit Hystad; Andrzej Mariusz Fal; Beatriz Silva Lima; Anca Stela Moraru; Peter Turcáni; Robert Zorec; Sol Ruiz; Lennart Akerblom; Gopalan Narayanan; Alastair Kent; Fabrizia Bignami; J George Dickson; Dietger Niederwieser; María-Angeles Figuerola-Santos; Ilona G Reischl; Claire Beuneu; Rosen Georgiev; Maria Vassiliou; Alena Pychova; Mette Clausen; Taina Methuen; Sophie Lucas; Martina Schüssler-Lenz; Vasilios Kokkas; Zsuzsanna Buzás; Niall MacAleenan; Maria Cristina Galli; Aija Linē; Jolanta Gulbinovic; Guy Berchem; Mariusz Fraczek; Margarida Menezes-Ferreira; Nela Vilceanu; Mikulás Hrubisko; Petra Marinko; Marcos Timón; Wing Cheng; George Andrew Crosbie; Nick Meade; Michelino Lipucci di Paola; Thierry VandenDriessche; Per Ljungman; Lucia D'Apote; Olga Oliver-Diaz; Isabel Büttel; Patrick Celis
Journal:  Nat Rev Drug Discov       Date:  2010-03       Impact factor: 84.694

Review 8.  Cancer vaccines: what do we need to measure in clinical trials?

Authors:  Alex Kudrin
Journal:  Hum Vaccin Immunother       Date:  2014-11-01       Impact factor: 3.452

9.  "MIATA"-minimal information about T cell assays.

Authors:  Sylvia Janetzki; Cedrik M Britten; Michael Kalos; Hyam I Levitsky; Holden T Maecker; Cornelius J M Melief; Lloyd J Old; Pedro Romero; Axel Hoos; Mark M Davis
Journal:  Immunity       Date:  2009-10-16       Impact factor: 31.745

10.  Therapeutic vaccines for malignant brain tumors.

Authors:  Michael P Gustafson; Keith L Knutson; Allan B Dietz
Journal:  Biologics       Date:  2008-12
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