Abstract 3625: Tumor-specific human monoclonal antibodies isolated from cancer patients

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Abstract Introduction: New cancer-specific antigens are needed to fully realize the potential of antibody-based cancer therapies. Cancer cells express novel antigens that are characteristic of the transformed state and may engender an antibody response in patients. We hypothesize that some of these antibodies detect neo-antigens shared by diverse tumor types. We optimized a hybridoma method for cloning human IgG monoclonal antibodies (mAbs) by screening for binding to heterologous cell lines. Here, we describe four mAbs, isolated from cancer patients, that bind to cancer cells. Methods: We developed immunofluorescence binding assays with the A431, MCF-7, and MDA-MB-231 cell lines, detecting cell-reactive human IgG with the Operetta (Perkin Elmer). The assays were adapted for extracellular binding as well as internalization using specific culture conditions. We tested sera from 59 lung cancer patients with diverse clinical features. 24 of the samples contained IgG reactivity with A431 cells at > 1:100 titer, and 17 had evidence of IgG internalization. We generated hybridomas using peripheral blood B-cells isolated from two of these lung cancer patients, as well as B-cells from a lymph node of a stage I, ER+PR+ breast cancer patient. We characterized the binding of four mAbs using immunohistochemistry (IHC), microscopy, flow cytometry and immunoblotting. One mAb was used to identify its cognate antigen by immunoprecipitation and mass spectrometry. Results: In a panel of 59 lung cancer patient sera, 24 had IgG that bound the A431 cell line, and 17 of these had evidence of internalization. We isolated three human mAbs from two lung cancer patients and one mAb from the breast cancer lymph node. We performed IHC with three of the mAbs in formalin fixed, paraffin embedded normal and tumor tissues and found primarily tumor cell binding to a variety of tumor types. The 5A6 (lung) bound 3 of 4 non-small cell lung, 3 of 4 colon, 2 of 4 ovarian and 1 of 4 small cell lung cancers. 19F10 (lung) bound 1 of 4 colon and 2 of 4 small cell lung. 2G4 (breast) bound 4 of 4 non-small cell lung, 3 of 4 prostate, 3 of 4 ovarian, and 2 of 4 colon cancers. Some normal tissue binding was observed, such as small intestine and distal renal tubule (2G4 and 19F10), pancreatic islet (19F10), and prostate (2G4). The 6A10 mAb (lung) bound to the constitutive heat shock protein, HSC70, which was localized in the plasma membrane of cancer cell lines. Conclusion: We have cloned 4 human mAbs from cancer patients. This supports the hypothesis that patients with active malignancies make antibodies capable of binding cancer-specific antigens. We identified HSC70, a protein that has an altered cell localization in cancer cells, as one such antigen. The three mAbs tested by IHC bound to diverse tumor types that often differed from the tumors of the patients where the B-cells originated. The human anti-cancer antibody repertoire holds promise as a tool to identify new targets for mAb-based cancer diagnostics and therapeutics. Citation Format: Huiwu Zhao, Jiping Zhang, Ramdev Puligedda, Cezary Swider, Paul Simon, Baron Heimbach, Sharad Adekar, Maureen Murphy, Hossein Borghaei, Scott Dessain. Tumor-specific human monoclonal antibodies isolated from cancer patients. [abstract]. In: Proceedings of the 105th Annual Meeting of the American Association for Cancer Research; 2014 Apr 5-9; San Diego, CA. Philadelphia (PA): AACR; Cancer Res 2014;74(19 Suppl):Abstract nr 3625. doi:10.1158/1538-7445.AM2014-3625

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  • Research Article
  • 10.1158/1538-7445.am2015-1277
Abstract 1277: Tumor-specific human monoclonal antibodies isolated from cancer patients that bind antigens expressed on the outer plasma membrane of cancer cells
  • Aug 1, 2015
  • Cancer Research
  • Baron Heimbach + 10 more

Introduction: Cancer cells express novel antigens that reflect their transformed state and may engender an antibody response. We hypothesize that some of these auto-antibodies detect neo-antigens that are shared by diverse tumor types and that a subset of these are expressed on the outer plasma membrane (PM) of cancer cells, but not normal cells. Here, we describe two human mAbs, isolated from lymph node B-cells of breast cancer patients, that bind antigens expressed only on the surface of cancer cells. Methods: We have optimized a hybridoma method for cloning human IgG monoclonal antibodies (mAbs) by screening for those that bind to live, heterologous cancer cell lines. We use whole cell immunofluorescence binding assays with human cancer cell lines, detecting cell-reactive human IgG with the Operetta. We use B-cells from lymph nodes obtained at surgery from stage I, ER+PR+ breast cancer patients and Stage I or II lung cancer patients, as well as peripheral blood B-cells from lung cancer patients responsive to PD-1 inhibitors. We used cDNA library expression methods to identify the tumor antigens and characterized the tumor-specific activities of two mAbs using immunohistochemistry (IHC), gene transfection, flow cytometry, immunoblotting, and invasion assays. Results: Two of the mAbs isolated from lymph nodes of patients with breast cancer bind to antigens that are only expressed on the outer PM of cancer cells. The antigen recognized by mAb 9H2 is known to be expressed on the outer PM of metastatic cells, while the antigen recognized by mAb 2B9 is a cytoplasmic protein not previously recognized to exist on the outer PM. IHC demonstrates that the 9H2 antigen is expressed only rarely on normal cells, but is commonly on breast and colon cancers (3 of 4 samples tested for each tumor type). Binding was also seen on 2 of 4 small cell lung cancers samples and 1 of 3 pancreatic cancers. The existence of the 2B9 antigen on the outer PM was confirmed by study of 293T cells transiently transfected with MYC-tagged antigen expression constructs and analyzed by flow cytometry with the mAb 2B9 and an anti-myc mAb. Treatment of MDA-MB-231 cells with the mAb 2B9 substantially reduced invasion in the transwell migration assay. An additional panel of 12 mAbs exhibited internalizing activity and is being evaluated for efficacy as antibody-drug conjugates Conclusion: Our panel of mAbs from cancer patients supports the hypothesis that patients with malignancies make antibodies that bind novel cancer-specific antigens. Two mAbs bind antigens expressed only on the surface of malignant cells; one has not previously been detected on the outer PM. The ability of mAb 2B9 to inhibit breast cancer cell invasion suggests that the anti-tumor immune response may be functional. Studying the anti-cancer antibody repertoire may identify new targets for mAb-based cancer diagnostics and therapeutics. Citation Format: Baron Heimbach, Cezary Swider, Huiwu Zhao, Paul Simon, R. Katherine Alpaugh, Michael Walker, David Krag, David Knight, Tung Chan, Hossein Borghaei, Scott Dessain. Tumor-specific human monoclonal antibodies isolated from cancer patients that bind antigens expressed on the outer plasma membrane of cancer cells. [abstract]. In: Proceedings of the 106th Annual Meeting of the American Association for Cancer Research; 2015 Apr 18-22; Philadelphia, PA. Philadelphia (PA): AACR; Cancer Res 2015;75(15 Suppl):Abstract nr 1277. doi:10.1158/1538-7445.AM2015-1277

  • Research Article
  • 10.1158/1538-7445.am2016-2244
Abstract 2244: Development of an automated device for size-based enrichment and isolation of circulating tumor cells in lung cancer patients
  • Jul 15, 2016
  • Cancer Research
  • Satomi Yagi + 14 more

Background and Purpose: Circulating tumor cells (CTCs) are relatively rare cells defined as tumor cells circulating in the peripheral blood of patients with solid tumors. Diagnosis utilizing CTCs is expected to help guide decision-making for precision cancer medicine. We developed an automated microcavity array (MCA) system to detect CTCs based on the differences in size and deformability between tumor cells and normal blood cells. Here we evaluated its performance using preclinical spike-in model and blood samples from non-small cell lung cancer (NSCLC) and small cell lung cancer (SCLC) patients. Material and method: The automated MCA system consists of components such as chambered cartridge containing micro metal filter, reagent and waste reservoirs, and peristaltic pump. To evaluate the recovery of CTCs, preclinical experiments using NSCLC cells, NCI-H820, A549, NCI-H441 and NCI-H23 spiked into peripheral whole blood from healthy volunteers were performed. For clinical evaluation, 6 mL of peripheral whole blood was collected from 50 advanced lung cancer patients prior to the initiation of chemotherapy and from 10 healthy donors. Samples were collected in an EDTA-containing tube and were processed within 3 hours of blood draw. Recovered cells on the filter were then fixed, permeabilized, and stained automatically and high-resolution fluorescent images were obtained using fluorescence microscope. We defined CTC as DAPI-positive, cytokeratin-positive and CD45-negative cell. Results: Results of the preclinical study showed that up to 90% of spiked-in tumor cells were recovered, confirming that the detection sensitivity by this automated device is on par with that by previous manual detection procedure. Demographics of 50 lung cancer patients enrolled in clinical study were as follows: median age 72 (range, 48 to 85); male 66%; stage III/IV 12/88%; NSCLC/SCLC 78/22%. Cells defined as CTC were detected in 2 cases out of 10 healthy volunteers, of which CTC count was 1 and 2 / 6 mL, respectively. Three or more CTCs were detected in 71% of patients with advanced lung cancer (39 out of 50) and five or more CTCs were detected in 52% of patients (26 out of 50) (median CTC count 13.5). Among stage IV NSCLC patients, patients with extrathoracic metastasis tend to have more CTCs than in those with intrathoracic metasitasis (median CTC count, 8 versus 4, p = 0.058). A head-to-head comparison between CellSearch system and our system was conducted in NSCLC patients, showing the superiority of our system (median CTC count, 0 versus 11.25, p = 0.0001, n = 17). Conclusions Our results suggest that the automated MCA device has a clinical potential for CTCs diagnosis towards precision medicine in lung cancer. This device also enables higher throughput owing to its automated procedure. Further clinical evaluation including the detection of PD-L1 expression will be performed in an expansion cohort. Citation Format: Satomi Yagi, Yasuhiro Koh, Hiroaki Akamatsu, Woong Kim, Ayaka Tanaka, Kuninobu Kanai, Atsushi Hayata, Ryota Shibaki, Masayuki Higuchi, Hisashige Kanbara, Takashi Kikuchi, Keiichiro Akamatsu, Masanori Nakanishi, Hiroki Ueda, Nobuyuki Yamamoto. Development of an automated device for size-based enrichment and isolation of circulating tumor cells in lung cancer patients. [abstract]. In: Proceedings of the 107th Annual Meeting of the American Association for Cancer Research; 2016 Apr 16-20; New Orleans, LA. Philadelphia (PA): AACR; Cancer Res 2016;76(14 Suppl):Abstract nr 2244.

  • Research Article
  • Cite Count Icon 1
  • 10.1158/2159-8290.cd-22-1105
The AACR Journals: Advancing Progress Toward the AACR's 115-Year Mission.
  • Nov 2, 2022
  • Cancer discovery
  • Kenneth C Anderson + 14 more

The AACR Journals: Advancing Progress Toward the AACR's 115-Year Mission.

  • Research Article
  • 10.1158/1055-9965.epi-22-0852
The AACR Journals: Advancing Progress Toward the AACR's 115-Year Mission.
  • Nov 2, 2022
  • Cancer epidemiology, biomarkers & prevention : a publication of the American Association for Cancer Research, cosponsored by the American Society of Preventive Oncology
  • Kenneth C Anderson + 14 more

The American Association for Cancer Research (AACR) is the first and largest cancer research organization dedicated to accelerating the conquest of cancer. The stated purpose of the organization when it was founded 115 years ago was “to further the investigation and spread the knowledge of cancer.” Since that time, the AACR has been the driving force to eradicate cancer. Publication of research findings has always been critical to this endeavor, with the 11 founders recognizing the importance of “sharing observations” and the need for a journal to “collect under one cover such contributions as bear in any way upon the general problems of oncology.”The AACR launched its first peer-reviewed scientific journal, The Journal of Cancer Research, in 1916. At the time, it was the only English-language cancer journal in the world. Since then, the AACR portfolio of journals has grown to 10. These journals cover the full spectrum of cancer science and medicine and together, over the years, have published over 100,000 articles and over 130,000 meeting abstracts. This is an immense contribution to the body of knowledge on cancer and has ignited communication among cancer scientists and physicians, helping to catalyze a revolution in the field.We are honored to serve as the current Editors-in-Chief of the AACR journals. Each of the 10 journals was launched by the AACR to meet the scientific information needs of its membership and all those engaged in cancer research. Under our leadership, the journals engage closely and collaboratively with the community to facilitate the presentation and wide dissemination of research findings. Importantly, the AACR is a not-for-profit publisher. This means that any surplus from the AACR journals program is used to help support the cancer research community and the mission of the AACR to prevent and cure all cancers by contributing to funding for AACR grants, scientific conferences, and science policy and advocacy efforts. Here, we highlight the unique roles of our journals within the family of AACR journals and how they serve to advance the mission of the AACR.At the inception of the AACR, there was a clear need for journals focused on cancer research to assemble key studies to help guide the field. Cancer Research was launched in 1941 as the flagship journal of the AACR from a rich ancestry that started with its predecessors: The Journal of Cancer Research (1916–1930) and The American Journal of Cancer Research (1931–1940). From the very beginning, Cancer Research has published landmark papers (https://aacrjournals.org/cancerres/pages/landmark_articles) that have enriched our knowledge of cancer biology and treatment and have provided the foundation upon which major breakthroughs have been built. In the first year of publication, Cancer Research featured seminal studies on the effect of castration on prostate cancer and the mechanism of carcinogenesis that shaped the field (https://www.aacr.org/wp-content/uploads/2019/11/CancerResearch_75Anniversary_1941-2016.pdf). Cancer Research has continued to publish articles that cover the full range of research, spanning from investigations on drug discovery, cancer molecular mechanisms, and the tumor microenvironment to clinical and population studies. As cancer research has evolved over the past century, new AACR journals have emerged to embrace and support expanding fields, providing specialized venues for studies that deepen our understanding of areas that were historically covered by Cancer Research. In this regard, the “pedigree” of AACR journals stemmed from the principles set by Cancer Research, which remains a venue for publishing fundamental studies in all areas of cancer research, including emerging areas such as cancer data science and mathematics. As a society journal, Cancer Research serves the community through its editorial process that is guided by the judgment of international academic editors who provide rich expertise in various areas as practicing researchers. Further, the Journal embraces early career investigators and has recognized these researchers with the prestigious Cancer Research Early Career Award. Guided by its extensive history, Cancer Research hopes to motivate and support the next generation of scientists to lessen the burden of cancer through their innovative research.As cancer science and medicine entered the molecular biology era, it became clear that a communication channel was needed to emphasize basic science studies in oncology—studies that report significant mechanistic findings at the molecular or cellular level. Originally published under the title Cell Growth & Differentiation from 1990 to 2002, Molecular Cancer Research (MCR) was launched as the AACR was beginning to build its now-renowned focus on molecular biology and genetics. The Journal served to help emphasize this focus and attract more scientists into the AACR's membership. As part of this mission, MCR features studies exploring the molecular underpinnings of each of the hallmarks of cancer, with a particular emphasis on studies elucidating oncogenic alterations in metabolism. Cancer metabolism is increasingly recognized as a key vulnerability of tumor biology. MCR is committed to recruiting and disseminating studies featuring novel metabolomic analyses, mass spectrometry, metabolic imaging and tracing, and other approaches that clarify links between metabolism and cancer, with the goal of identifying metabolic vulnerabilities and adding to the armamentarium of anticancer interventions. In addition to publishing impactful basic cancer research studies, the Journal aims to promote diversity of thought and perspective within the basic cancer research community. To achieve this goal, MCR has launched an initiative in which senior investigators are paired with rising stars in their fields to write and edit review articles jointly. This initiative encourages collaboration among researchers by integrating historical perspectives with new directions to provide novel, actionable insights for the field.Cancer Epidemiology, Biomarkers & Prevention (CEBP) is the leading subspecialty journal for fundamental and applied population science research describing the burden of cancer; uncovering possible causes of cancer and its progression; and informing and evaluating strategies for cancer prevention, early detection, cancer survivorship, and closing the cancer disparities gap. CEBP is unique among AACR journals in focusing on populations at risk for cancer, with cancer, and surviving cancer, especially U.S. and global populations who experience health inequities. Among its many contributions, the Journal has advanced the field of molecular epidemiology of cancer by providing expert peer review and a highly regarded publications forum and has helped launch the careers of many investigators who conduct population science research on cancer. CEBP plays an active role in informing public health practice, policy, and recommendations by publishing articles that are cited as part of the evidence base, including by the FDA, the Centers for Disease Control and Prevention, the U.S. Preventive Services Task Force, and the World Health Organization. Recognizing the societal need to enhance the translation of population science evidence for cancer prevention and control today and in the future, the Journal recently expanded its scope to include cancer care delivery and implementation science research. Like the other AACR journals, CEBP serves the research community well through its editorial rigor and publication of innovative and impactful research addressing contemporary and emerging cancer problems.As biologic insights into cancer rapidly accelerated in the decades after the discovery of the structure of DNA and the armamenta­rium of anticancer agents began to expand, the AACR identified the need for a communication outlet focused on the clinical applications of these discoveries; Clinical Cancer Research was launched to provide this much-needed outlet. Early therapeutic development has since transitioned from rigidly divided trial phases into an adaptive process that encompasses investigation of safety, pharmacokinetics, proof of mechanism, and first evidence of clinical activity. These same trials now frequently serve as the basis for first regulatory approval. The Journal bridges the transition from late preclinical development, when a new therapy is being paired with insights into the molecular features that predict responsiveness to therapy, to clinical validation of those hypotheses, and the Journal has evolved into a premier venue for phase I/II trials. As the only AACR journal with clinical research of all types, including clinical trials, as its sole purview, Clinical Cancer Research has taken the charge of being the journal that accounts for what happens to the discoveries described in basic and translational cancer research when they are tested prospectively for their potential impact on the outcomes of patients with cancer. Since its launch, Clinical Cancer Research has also played a distinct educational role among clinical oncology journals, with a robust collection of review articles to benefit basic scientists with clinical interests and clinical investigators studying new agents with unique biologic mechanisms of action. Clinical Cancer Research has also become an important forum for critical discussions in clinical oncology. Field-leading experts are invited to deliberate on the progress made in a given therapeutic area, focusing on the lessons to be learned from recent successes and failures. Authors from the FDA provide detailed insights into the data that drive regulatory decision-making for each successful therapy. Clinical Cancer Research continues to demonstrate the AACR's long-standing commitment to accelerating research that leads to potential interventions for prevention, early detection, and treatment of cancer and particularly to showcasing clinical trials.Improving and expanding the arsenal of anticancer therapies is an essential goal in our shared mission to prevent and cure all cancers. From before the humble beginnings of nitrogen mustards and vinca alkaloids to the advent of immuno-oncology and rationally designed targeted therapy, the last 115 years have seen quantum leaps in therapeutic strategies and clinical options to combat cancer. Molecular Cancer Therapeutics has been at the forefront of this effort for more than 20 years, publishing top-tier science in the design, synthesis, discovery, and preclinical study of novel therapeutic agents for the treatment and prevention of cancer. The Journal's scope covers anticancer therapeutics broadly, including precision medicine therapies of all types: cell therapies, gene therapies, RNA therapeutics, oncolytic viruses, and vaccines in addition to established regimens such as mole­cular and biologic agents, chemotherapy, and radiotherapy. Among these efforts, the Journal provides a specialized venue for the first disclosure of experimental therapeutics advancing toward clinical trials, providing a platform with international reach to authors. The crucial role of Molecular Cancer Therapeutics among the AACR journals—and, indeed, among all oncology journals—cannot be overstated. The Journal's laser focus on disseminating rigorously vetted research with near-term clinical benefit has enormous potential to impact the entire cancer research community and to improve, extend, and defend the lives of patients with cancer. To that end, Molecular Cancer Therapeutics continues to provide a vital forum for the communication of important discoveries in cancer therapeutics research to the global research community.Effective global cancer control must emphasize efforts to reduce cancer incidence rather than concentrating solely on cancer treatment. To help catalyze such efforts, the AACR launched Cancer Prevention Research (CaPR) in 2008 to be devoted excl­usively to cancer prevention research. From its inception, CaPR has endeavored to be a primary resource for original articles, scholarly reviews, and timely perspectives regarding basic, translational, clinical, and population science investigations related to cancer risk reduction. Five years ago, CaPR published the landmark perspective, “Transforming Cancer Prevention through Precision Medicine and Immune-oncology,” which proposed a Pre-Cancer Atlas and recognized unprecedented opportunities to interrogate the biology of premalignancy (1). The subsequent development of the Pre-Cancer Atlas, together with other advances, represents a “moonshot” opportunity for the field of cancer prevention. CaPR will continue to cultivate high-caliber content from pioneers in fields such as carcinogenesis, the biology of premalignancy, cancer risk assessment, screening, and policy implementation that will transform the way we detect and, ultimately, intercept and prevent cancer. The Journal's mission to reflect the current state of cancer prevention and to catalyze the development of the field supports the AACR mission to prevent and cure all cancers. The community of researchers, educators, advocates, and funders that works together under the umbrella of the AACR and its family of journals is a critical part of the cancer prevention ecosystem. Together, we are publishing research that defines the field of cancer prevention, building a translational bridge between bench and community, and developing the next generation of cancer prevention researchers.In 2011, recognizing the cancer research community's need for a journal that published the most impactful research while placing a premium on streamlined editorial processes and service to authors, the AACR launched Cancer Discovery. Bringing together basic scientists with detailed knowledge of cancer biology and physicians at the vanguard of science-driven clinical trial design, Cancer Discovery immediately changed the landscape of scientific publishing in the field, with many other journals now trying to emulate the unique mix of basic, translational, and clinical research that the Journal pioneered. Cancer Discovery has been at the forefront of the most important developments in cancer over the past decade, from targeted therapy and immunotherapy to technological advances in single-cell sequencing and liquid biopsy that have fundamentally changed our understanding of cancer biology and response to treatment. Preclinical and clinical studies published in Cancer Discovery have laid the foundation for numerous FDA approvals within a short period, and influential commentaries and reviews have galvanized the field and guided policy decisions. The unique editorial team consisting of leading researchers and experienced professional editors works collaboratively with the community to quickly publish and disseminate the strongest, immediately impactful science to support the AACR mission to prevent and cure all cancers.The first cancer immunotherapeutic is famously considered to have been administered in 1891 by William B. Coley, one of the 11 founders of the AACR, when he used a mixture of heat-killed bacteria (subsequently known as Coley's toxins) to create an inflammatory response that could treat a patient with sarcoma. However, it took more than 100 years before the field of cancer immunology and immunotherapy research gained meaningful traction among those working in the broader discipline of cancer science and medicine. The rapid expansion of the field began in the early 2000s as a result of increasing evidence linking the immune system with cancer development and demonstrations that the immune system might be harnessed to treat cancer, and it has continued at an even more remarkable pace since the FDA approval of the first immune checkpoint inhibitor, the CTLA4-specific blocking antibody ipilimumab, in 2011. Recognizing the need to further enhance interactions between researchers in the realm of cancer immunology and immunotherapy and those in all other areas of the cancer research community, and to provide a forum for the presentation of advances in the rapidly evolving field of cancer immunology science, the AACR collaborated with the Cancer Research Institute to launch Cancer Immunology Research in 2013. Since its inaugural issue, the Journal has disseminated exciting discoveries and developments in the field of cancer immunology and immunotherapy, and successfully introduced the central principles of immunology to cancer biologists and clinical investigators. As a journal devoted to the science underlying some of the most transformative therapeutics to have entered the clinic for the treatment of cancer in recent years, Cancer Immunology Research has played a unique role in advancing the mission of the AACR.Unprecedented progress in understanding the pathogenesis of hematologic malignancies and in translating these insights into improved clinical outcomes has created a demand for a high-profile outlet for publishing these discoveries. To address this need and to emphasize the AACR's commitment to the prevention and cure of all types of cancer, Blood Cancer Discovery was launched in 2020 to inspire, facilitate, and broadly disseminate important discoveries about hematologic malignancies. The Journal's model of operation replicates Cancer Discovery's success in creating synergies between the expertise of leaders in the field and the dedication of in-house editorial and publishing teams, enabling rigorous, rapid, and transparent editorial processes. Blood Cancer Discovery has published cutting-edge research articles on a broad spectrum of topics encompassing leukemia, lymphoma, myeloma, and other blood cancer subtypes that also have profound implications for our understanding of solid tumors. The Journal has also published all the phases of clinical research: drug development in preclinical disease models, clinical trials, molecular events underlying clinical responses and resistance to therapies, and real-world epidemiology. As a forum for diverse ideas shaping future research directions, Blood Cancer Discovery has published incisive commentaries and has partnered with the AACR's hematologic malignancy-focused Special Conferences, quickly emerging as a thought leader in blood cancer research.The landscape of cancer science and medicine continues to change and accelerate, becoming ever more multifaceted. Launched in October 2021, Cancer Research Communications was designed with these considerations in mind. Most crucially, the Journal is fully open access and boasts the broadest and most flexible scope of any AACR title to date, providing a pathway to publication for authors working within funder mandates or whose work falls outside the scope of other titles in the AACR portfolio. The Journal's nine sections offer a comprehensive view of the spectrum of oncology research. With an editorial ethos centered on accessibility, reproducibility, and value to the field, the Journal is inclusive of a wide variety of important research findings that may be beyond the scope of other journals in the program. Cancer Research Communications is committed to catalyzing the rapid dissemination of rigorously peer-reviewed scientific findings in diversified areas of study, including but not limited to physics, engineering, mathematics, and computational biology. This interdisciplinary approach stimulates the cross-pollination of insight and innovation among cancer researchers. Moreover, the Journal emphasizes flourishing areas of research—such as precision medicine, immuno-oncology, and disparities in cancer health outcomes—that will be foundational to the next 115 years of progress against cancer. As a thoroughly modern platform designed to meet the needs of our authors and readers while complementing the other AACR journals, Cancer Research Communications is poised to stimulate the efficient and dynamic exchange of knowledge, actively sparking new ideas and discoveries to prevent and cure all cancers.Since the very first issue of The Journal of Cancer Research was published in 1916, the AACR journals have been a critical resource for cancer researchers and physicians, providing a forum for disseminating groundbreaking discoveries in cancer science and medicine. As the current Editors-in-Chief of the AACR journals, we are proud that this tradition of publishing seminal, rigorously vetted research that can change the trajectory of the field has established the AACR journals as a trusted partner of the research community. Importantly, we would like to take this opportunity to thank our authors, editorial teams, reviewers, and readers for their invaluable contributions to this endeavor. The tireless efforts of this community provide a beacon of hope to patients and their loved ones.As we look to the future, we continue to collaborate with the research community to ensure that the journals operate with a forward-thinking mentality that adapts to the evolving needs of all stakeholders. In recent years, we have seen critical scientific and technological innovations propel extraordinary progress against cancer. We are confident that this progress will continue, and we remain dedicated to ensuring that the AACR journals continue to provide a platform for the communication of impactful research and support the AACR mission to prevent and cure all cancers.L. Cantley consulted for Petra Pharmaceuticals, Agios Pharmaceuticals, EIP Pharmaceuticals, Volastra, Larkspur, and Cell Signaling Technologies over the past year. He also received grant support from the NIH/NCI, Gray Foundation, The Mark Foundation, the Breast Cancer Research Foundation, and Stand Up To Cancer/American Association for Cancer Research over the past year, and is a stockholder in Agios Pharmaceuticals, EIP Pharmaceuticals, Cell Signaling Technologies, Volastra, and Larkspur. R. Dalla-Favera is a consultant for NeoGenomics and AstraZeneca and receives research funds from AstraZeneca. L.A. Diaz is a member of the board of directors of Jounce Therapeutics and Epitope and is a compensated consultant to PetDx, Innovatus CP, Se'er, Delfi, Blackstone, Kinnate, and Neophore. He is an inventor of multiple licensed patents related to technology for circulating tumor DNA analyses and mismatch repair deficiency for diagnosis and therapy; some of these licenses and relationships are associated with equity or royalty payments directly to the inventors. He holds equity in Epitope, Jounce Therapeutics, PetDx, Se'er, Delfi, Kinnate, and Neophore; he divested his equity in Personal Genome Diagnostics to LabCorp in February 2022 and he divested his equity in Thrive Earlier Detection to Exact Biosciences in January 2021. His spouse holds equity in Amgen. The terms of all these arrangements are being managed by Memorial Sloan Kettering in accordance with their conflict of interest policies. K.T. Flaherty reports personal fees from Clovis Oncology, Checkmate Pharmaceuticals, Strata Oncology, Kinnate Biopharma, Scorpion Therapeutics, PIC Therapeutics, Apricity, Tvardi, ALX Oncology, xCures, Monopteros, Vibliome, Soley Therapeutics, Quanta Therapeutics, Nextech, Takeda, Novartis, OMRx, and Transcode Therapeutics and other support from Roche/Genentech outside the submitted work. P.D. Greenberg reports grants and personal fees from Juno Therapeutics; grants from Lonza; personal fees and other support from Earli, Metagenomi, Elpiscience, Rapt Therapeutics, and and grants, personal and other support from outside the submitted work. reports personal fees from reports personal fees from Oncology, Memorial Sloan Kettering Cancer The Institute for AACR, and Cancer Research grants, personal and support from and grants and personal fees from and Jounce Therapeutics; and personal fees and support from outside the submitted work. reports personal fees from and Therapeutics; grants from Novartis, Therapeutics, and and personal fees and grants from and outside the submitted work. were by the other authors.

  • Research Article
  • Cite Count Icon 1
  • 10.1158/2643-3230.bcd-22-0165
The AACR Journals: Advancing Progress Toward the AACR's 115-Year Mission.
  • Nov 2, 2022
  • Blood cancer discovery
  • Kenneth C Anderson + 14 more

The AACR Journals: Advancing Progress Toward the AACR's 115-Year Mission.

  • Front Matter
  • 10.1158/1541-7786.mcr-22-0804
The AACR Journals: Advancing Progress Toward the AACR's 115-Year Mission.
  • Nov 3, 2022
  • Molecular cancer research : MCR
  • Kenneth C Anderson + 14 more

The American Association for Cancer Research (AACR) is the first and largest cancer research organization dedicated to accelerating the conquest of cancer. The stated purpose of the organization when it was founded 115 years ago was “to further the investigation and spread the knowledge of cancer.” Since that time, the AACR has been the driving force to eradicate cancer. Publication of research findings has always been critical to this endeavor, with the 11 founders recognizing the importance of “sharing observations” and the need for a journal to “collect under one cover such contributions as bear in any way upon the general problems of oncology.”The AACR launched its first peer-reviewed scientific journal, The Journal of Cancer Research, in 1916. At the time, it was the only English-language cancer journal in the world. Since then, the AACR portfolio of journals has grown to 10. These journals cover the full spectrum of cancer science and medicine and together, over the years, have published over 100,000 articles and over 130,000 meeting abstracts. This is an immense contribution to the body of knowledge on cancer and has ignited communication among cancer scientists and physicians, helping to catalyze a revolution in the field.We are honored to serve as the current Editors-in-Chief of the AACR journals. Each of the 10 journals was launched by the AACR to meet the scientific information needs of its membership and all those engaged in cancer research. Under our leadership, the journals engage closely and collaboratively with the community to facilitate the presentation and wide dissemination of research findings. Importantly, the AACR is a not-for-profit publisher. This means that any surplus from the AACR journals program is used to help support the cancer research community and the mission of the AACR to prevent and cure all cancers by contributing to funding for AACR grants, scientific conferences, and science policy and advocacy efforts. Here, we highlight the unique roles of our journals within the family of AACR journals and how they serve to advance the mission of the AACR.At the inception of the AACR, there was a clear need for journals focused on cancer research to assemble key studies to help guide the field. Cancer Research was launched in 1941 as the flagship journal of the AACR from a rich ancestry that started with its predecessors: The Journal of Cancer Research (1916–1930) and The American Journal of Cancer Research (1931–1940). From the very beginning, Cancer Research has published landmark papers (https://aacrjournals.org/cancerres/pages/landmark_articles) that have enriched our knowledge of cancer biology and treatment and have provided the foundation upon which major breakthroughs have been built. In the first year of publication, Cancer Research featured seminal studies on the effect of castration on prostate cancer and the mechanism of carcinogenesis that shaped the field (https://www.aacr.org/wp-content/uploads/2019/11/CancerResearch_75Anniversary_1941-2016.pdf). Cancer Research has continued to publish articles that cover the full range of research, spanning from investigations on drug discovery, cancer molecular mechanisms, and the tumor microenvironment to clinical and population studies. As cancer research has evolved over the past century, new AACR journals have emerged to embrace and support expanding fields, providing specialized venues for studies that deepen our understanding of areas that were historically covered by Cancer Research. In this regard, the “pedigree” of AACR journals stemmed from the principles set by Cancer Research, which remains a venue for publishing fundamental studies in all areas of cancer research, including emerging areas such as cancer data science and mathematics. As a society journal, Cancer Research serves the community through its editorial process that is guided by the judgment of international academic editors who provide rich expertise in various areas as practicing researchers. Further, the Journal embraces early career investigators and has recognized these researchers with the prestigious Cancer Research Early Career Award. Guided by its extensive history, Cancer Research hopes to motivate and support the next generation of scientists to lessen the burden of cancer through their innovative research.As cancer science and medicine entered the molecular biology era, it became clear that a communication channel was needed to emphasize basic science studies in oncology—studies that report significant mechanistic findings at the molecular or cellular level. Originally published under the title Cell Growth & Differentiation from 1990 to 2002, Molecular Cancer Research (MCR) was launched as the AACR was beginning to build its now-renowned focus on molecular biology and genetics. The Journal served to help emphasize this focus and attract more scientists into the AACR's membership. As part of this mission, MCR features studies exploring the molecular underpinnings of each of the hallmarks of cancer, with a particular emphasis on studies elucidating oncogenic alterations in metabolism. Cancer metabolism is increasingly recognized as a key vulnerability of tumor biology. MCR is committed to recruiting and disseminating studies featuring novel metabolomic analyses, mass spectrometry, metabolic imaging and tracing, and other approaches that clarify links between metabolism and cancer, with the goal of identifying metabolic vulnerabilities and adding to the armamentarium of anticancer interventions. In addition to publishing impactful basic cancer research studies, the Journal aims to promote diversity of thought and perspective within the basic cancer research community. To achieve this goal, MCR has launched an initiative in which senior investigators are paired with rising stars in their fields to write and edit review articles jointly. This initiative encourages collaboration among researchers by integrating historical perspectives with new directions to provide novel, actionable insights for the field.Cancer Epidemiology, Biomarkers & Prevention (CEBP) is the leading subspecialty journal for fundamental and applied population science research describing the burden of cancer; uncovering possible causes of cancer and its progression; and informing and evaluating strategies for cancer prevention, early detection, cancer survivorship, and closing the cancer disparities gap. CEBP is unique among AACR journals in focusing on populations at risk for cancer, with cancer, and surviving cancer, especially U.S. and global populations who experience health inequities. Among its many contributions, the Journal has advanced the field of molecular epidemiology of cancer by providing expert peer review and a highly regarded publications forum and has helped launch the careers of many investigators who conduct population science research on cancer. CEBP plays an active role in informing public health practice, policy, and recommendations by publishing articles that are cited as part of the evidence base, including by the FDA, the Centers for Disease Control and Prevention, the U.S. Preventive Services Task Force, and the World Health Organization. Recognizing the societal need to enhance the translation of population science evidence for cancer prevention and control today and in the future, the Journal recently expanded its scope to include cancer care delivery and implementation science research. Like the other AACR journals, CEBP serves the research community well through its editorial rigor and publication of innovative and impactful research addressing contemporary and emerging cancer problems.As biologic insights into cancer rapidly accelerated in the decades after the discovery of the structure of DNA and the armamenta­rium of anticancer agents began to expand, the AACR identified the need for a communication outlet focused on the clinical applications of these discoveries; Clinical Cancer Research was launched to provide this much-needed outlet. Early therapeutic development has since transitioned from rigidly divided trial phases into an adaptive process that encompasses investigation of safety, pharmacokinetics, proof of mechanism, and first evidence of clinical activity. These same trials now frequently serve as the basis for first regulatory approval. The Journal bridges the transition from late preclinical development, when a new therapy is being paired with insights into the molecular features that predict responsiveness to therapy, to clinical validation of those hypotheses, and the Journal has evolved into a premier venue for phase I/II trials. As the only AACR journal with clinical research of all types, including clinical trials, as its sole purview, Clinical Cancer Research has taken the charge of being the journal that accounts for what happens to the discoveries described in basic and translational cancer research when they are tested prospectively for their potential impact on the outcomes of patients with cancer. Since its launch, Clinical Cancer Research has also played a distinct educational role among clinical oncology journals, with a robust collection of review articles to benefit basic scientists with clinical interests and clinical investigators studying new agents with unique biologic mechanisms of action. Clinical Cancer Research has also become an important forum for critical discussions in clinical oncology. Field-leading experts are invited to deliberate on the progress made in a given therapeutic area, focusing on the lessons to be learned from recent successes and failures. Authors from the FDA provide detailed insights into the data that drive regulatory decision-making for each successful therapy. Clinical Cancer Research continues to demonstrate the AACR's long-standing commitment to accelerating research that leads to potential interventions for prevention, early detection, and treatment of cancer and particularly to showcasing clinical trials.Improving and expanding the arsenal of anticancer therapies is an essential goal in our shared mission to prevent and cure all cancers. From before the humble beginnings of nitrogen mustards and vinca alkaloids to the advent of immuno-oncology and rationally designed targeted therapy, the last 115 years have seen quantum leaps in therapeutic strategies and clinical options to combat cancer. Molecular Cancer Therapeutics has been at the forefront of this effort for more than 20 years, publishing top-tier science in the design, synthesis, discovery, and preclinical study of novel therapeutic agents for the treatment and prevention of cancer. The Journal's scope covers anticancer therapeutics broadly, including precision medicine therapies of all types: cell therapies, gene therapies, RNA therapeutics, oncolytic viruses, and vaccines in addition to established regimens such as mole­cular and biologic agents, chemotherapy, and radiotherapy. Among these efforts, the Journal provides a specialized venue for the first disclosure of experimental therapeutics advancing toward clinical trials, providing a platform with international reach to authors. The crucial role of Molecular Cancer Therapeutics among the AACR journals—and, indeed, among all oncology journals—cannot be overstated. The Journal's laser focus on disseminating rigorously vetted research with near-term clinical benefit has enormous potential to impact the entire cancer research community and to improve, extend, and defend the lives of patients with cancer. To that end, Molecular Cancer Therapeutics continues to provide a vital forum for the communication of important discoveries in cancer therapeutics research to the global research community.Effective global cancer control must emphasize efforts to reduce cancer incidence rather than concentrating solely on cancer treatment. To help catalyze such efforts, the AACR launched Cancer Prevention Research (CaPR) in 2008 to be devoted excl­usively to cancer prevention research. From its inception, CaPR has endeavored to be a primary resource for original articles, scholarly reviews, and timely perspectives regarding basic, translational, clinical, and population science investigations related to cancer risk reduction. Five years ago, CaPR published the landmark perspective, “Transforming Cancer Prevention through Precision Medicine and Immune-oncology,” which proposed a Pre-Cancer Atlas and recognized unprecedented opportunities to interrogate the biology of premalignancy (1). The subsequent development of the Pre-Cancer Atlas, together with other advances, represents a “moonshot” opportunity for the field of cancer prevention. CaPR will continue to cultivate high-caliber content from pioneers in fields such as carcinogenesis, the biology of premalignancy, cancer risk assessment, screening, and policy implementation that will transform the way we detect and, ultimately, intercept and prevent cancer. The Journal's mission to reflect the current state of cancer prevention and to catalyze the development of the field supports the AACR mission to prevent and cure all cancers. The community of researchers, educators, advocates, and funders that works together under the umbrella of the AACR and its family of journals is a critical part of the cancer prevention ecosystem. Together, we are publishing research that defines the field of cancer prevention, building a translational bridge between bench and community, and developing the next generation of cancer prevention researchers.In 2011, recognizing the cancer research community's need for a journal that published the most impactful research while placing a premium on streamlined editorial processes and service to authors, the AACR launched Cancer Discovery. Bringing together basic scientists with detailed knowledge of cancer biology and physicians at the vanguard of science-driven clinical trial design, Cancer Discovery immediately changed the landscape of scientific publishing in the field, with many other journals now trying to emulate the unique mix of basic, translational, and clinical research that the Journal pioneered. Cancer Discovery has been at the forefront of the most important developments in cancer over the past decade, from targeted therapy and immunotherapy to technological advances in single-cell sequencing and liquid biopsy that have fundamentally changed our understanding of cancer biology and response to treatment. Preclinical and clinical studies published in Cancer Discovery have laid the foundation for numerous FDA approvals within a short period, and influential commentaries and reviews have galvanized the field and guided policy decisions. The unique editorial team consisting of leading researchers and experienced professional editors works collaboratively with the community to quickly publish and disseminate the strongest, immediately impactful science to support the AACR mission to prevent and cure all cancers.The first cancer immunotherapeutic is famously considered to have been administered in 1891 by William B. Coley, one of the 11 founders of the AACR, when he used a mixture of heat-killed bacteria (subsequently known as Coley's toxins) to create an inflammatory response that could treat a patient with sarcoma. However, it took more than 100 years before the field of cancer immunology and immunotherapy research gained meaningful traction among those working in the broader discipline of cancer science and medicine. The rapid expansion of the field began in the early 2000s as a result of increasing evidence linking the immune system with cancer development and demonstrations that the immune system might be harnessed to treat cancer, and it has continued at an even more remarkable pace since the FDA approval of the first immune checkpoint inhibitor, the CTLA4-specific blocking antibody ipilimumab, in 2011. Recognizing the need to further enhance interactions between researchers in the realm of cancer immunology and immunotherapy and those in all other areas of the cancer research community, and to provide a forum for the presentation of advances in the rapidly evolving field of cancer immunology science, the AACR collaborated with the Cancer Research Institute to launch Cancer Immunology Research in 2013. Since its inaugural issue, the Journal has disseminated exciting discoveries and developments in the field of cancer immunology and immunotherapy, and successfully introduced the central principles of immunology to cancer biologists and clinical investigators. As a journal devoted to the science underlying some of the most transformative therapeutics to have entered the clinic for the treatment of cancer in recent years, Cancer Immunology Research has played a unique role in advancing the mission of the AACR.Unprecedented progress in understanding the pathogenesis of hematologic malignancies and in translating these insights into improved clinical outcomes has created a demand for a high-profile outlet for publishing these discoveries. To address this need and to emphasize the AACR's commitment to the prevention and cure of all types of cancer, Blood Cancer Discovery was launched in 2020 to inspire, facilitate, and broadly disseminate important discoveries about hematologic malignancies. The Journal's model of operation replicates Cancer Discovery's success in creating synergies between the expertise of leaders in the field and the dedication of in-house editorial and publishing teams, enabling rigorous, rapid, and transparent editorial processes. Blood Cancer Discovery has published cutting-edge research articles on a broad spectrum of topics encompassing leukemia, lymphoma, myeloma, and other blood cancer subtypes that also have profound implications for our understanding of solid tumors. The Journal has also published all the phases of clinical research: drug development in preclinical disease models, clinical trials, molecular events underlying clinical responses and resistance to therapies, and real-world epidemiology. As a forum for diverse ideas shaping future research directions, Blood Cancer Discovery has published incisive commentaries and has partnered with the AACR's hematologic malignancy-focused Special Conferences, quickly emerging as a thought leader in blood cancer research.The landscape of cancer science and medicine continues to change and accelerate, becoming ever more multifaceted. Launched in October 2021, Cancer Research Communications was designed with these considerations in mind. Most crucially, the Journal is fully open access and boasts the broadest and most flexible scope of any AACR title to date, providing a pathway to publication for authors working within funder mandates or whose work falls outside the scope of other titles in the AACR portfolio. The Journal's nine sections offer a comprehensive view of the spectrum of oncology research. With an editorial ethos centered on accessibility, reproducibility, and value to the field, the Journal is inclusive of a wide variety of important research findings that may be beyond the scope of other journals in the program. Cancer Research Communications is committed to catalyzing the rapid dissemination of rigorously peer-reviewed scientific findings in diversified areas of study, including but not limited to physics, engineering, mathematics, and computational biology. This interdisciplinary approach stimulates the cross-pollination of insight and innovation among cancer researchers. Moreover, the Journal emphasizes flourishing areas of research—such as precision medicine, immuno-oncology, and disparities in cancer health outcomes—that will be foundational to the next 115 years of progress against cancer. As a thoroughly modern platform designed to meet the needs of our authors and readers while complementing the other AACR journals, Cancer Research Communications is poised to stimulate the efficient and dynamic exchange of knowledge, actively sparking new ideas and discoveries to prevent and cure all cancers.Since the very first issue of The Journal of Cancer Research was published in 1916, the AACR journals have been a critical resource for cancer researchers and physicians, providing a forum for disseminating groundbreaking discoveries in cancer science and medicine. As the current Editors-in-Chief of the AACR journals, we are proud that this tradition of publishing seminal, rigorously vetted research that can change the trajectory of the field has established the AACR journals as a trusted partner of the research community. Importantly, we would like to take this opportunity to thank our authors, editorial teams, reviewers, and readers for their invaluable contributions to this endeavor. The tireless efforts of this community provide a beacon of hope to patients and their loved ones.As we look to the future, we continue to collaborate with the research community to ensure that the journals operate with a forward-thinking mentality that adapts to the evolving needs of all stakeholders. In recent years, we have seen critical scientific and technological innovations propel extraordinary progress against cancer. We are confident that this progress will continue, and we remain dedicated to ensuring that the AACR journals continue to provide a platform for the communication of impactful research and support the AACR mission to prevent and cure all cancers.L. Cantley consulted for Petra Pharmaceuticals, Agios Pharmaceuticals, EIP Pharmaceuticals, Volastra, Larkspur, and Cell Signaling Technologies over the past year. He also received grant support from the NIH/NCI, Gray Foundation, The Mark Foundation, the Breast Cancer Research Foundation, and Stand Up To Cancer/American Association for Cancer Research over the past year, and is a stockholder in Agios Pharmaceuticals, EIP Pharmaceuticals, Cell Signaling Technologies, Volastra, and Larkspur. R. Dalla-Favera is a consultant for NeoGenomics and AstraZeneca and receives research funds from AstraZeneca. L.A. Diaz is a member of the board of directors of Jounce Therapeutics and Epitope and is a compensated consultant to PetDx, Innovatus CP, Se'er, Delfi, Blackstone, Kinnate, and Neophore. He is an inventor of multiple licensed patents related to technology for circulating tumor DNA analyses and mismatch repair deficiency for diagnosis and therapy; some of these licenses and relationships are associated with equity or royalty payments directly to the inventors. He holds equity in Epitope, Jounce Therapeutics, PetDx, Se'er, Delfi, Kinnate, and Neophore; he divested his equity in Personal Genome Diagnostics to LabCorp in February 2022 and he divested his equity in Thrive Earlier Detection to Exact Biosciences in January 2021. His spouse holds equity in Amgen. The terms of all these arrangements are being managed by Memorial Sloan Kettering in accordance with their conflict of interest policies. K.T. Flaherty reports personal fees from Clovis Oncology, Checkmate Pharmaceuticals, Strata Oncology, Kinnate Biopharma, Scorpion Therapeutics, PIC Therapeutics, Apricity, Tvardi, ALX Oncology, xCures, Monopteros, Vibliome, Soley Therapeutics, Quanta Therapeutics, Nextech, Takeda, Novartis, OMRx, and Transcode Therapeutics and other support from Roche/Genentech outside the submitted work. P.D. Greenberg reports grants and personal fees from Juno Therapeutics; grants from Lonza; personal fees and other support from Earli, Metagenomi, Elpiscience, Rapt Therapeutics, and and grants, personal and other support from outside the submitted work. reports personal fees from reports personal fees from Oncology, Memorial Sloan Kettering Cancer The Institute for AACR, and Cancer Research grants, personal and support from and grants and personal fees from and Jounce Therapeutics; and personal fees and support from outside the submitted work. reports personal fees from and Therapeutics; grants from Novartis, Therapeutics, and and personal fees and grants from and outside the submitted work. were by the other authors.

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The American Association for Cancer Research (AACR) is the first and largest cancer research organization dedicated to accelerating the conquest of cancer. The stated purpose of the organization when it was founded 115 years ago was “to further the investigation and spread the knowledge of cancer.” Since that time, the AACR has been the driving force to eradicate cancer. Publication of research findings has always been critical to this endeavor, with the 11 founders recognizing the importance of “sharing observations” and the need for a journal to “collect under one cover such contributions as bear in any way upon the general problems of oncology.”The AACR launched its first peer-reviewed scientific journal, The Journal of Cancer Research, in 1916. At the time, it was the only English-language cancer journal in the world. Since then, the AACR portfolio of journals has grown to 10. These journals cover the full spectrum of cancer science and medicine and together, over the years, have published over 100,000 articles and over 130,000 meeting abstracts. This is an immense contribution to the body of knowledge on cancer and has ignited communication among cancer scientists and physicians, helping to catalyze a revolution in the field.We are honored to serve as the current Editors-in-Chief of the AACR journals. Each of the 10 journals was launched by the AACR to meet the scientific information needs of its membership and all those engaged in cancer research. Under our leadership, the journals engage closely and collaboratively with the community to facilitate the presentation and wide dissemination of research findings. Importantly, the AACR is a not-for-profit publisher. This means that any surplus from the AACR journals program is used to help support the cancer research community and the mission of the AACR to prevent and cure all cancers by contributing to funding for AACR grants, scientific conferences, and science policy and advocacy efforts. Here, we highlight the unique roles of our journals within the family of AACR journals and how they serve to advance the mission of the AACR.At the inception of the AACR, there was a clear need for journals focused on cancer research to assemble key studies to help guide the field. Cancer Research was launched in 1941 as the flagship journal of the AACR from a rich ancestry that started with its predecessors: The Journal of Cancer Research (1916–1930) and The American Journal of Cancer Research (1931–1940). From the very beginning, Cancer Research has published landmark papers (https://aacrjournals.org/cancerres/pages/landmark_articles) that have enriched our knowledge of cancer biology and treatment and have provided the foundation upon which major breakthroughs have been built. In the first year of publication, Cancer Research featured seminal studies on the effect of castration on prostate cancer and the mechanism of carcinogenesis that shaped the field (https://www.aacr.org/wp-content/uploads/2019/11/CancerResearch_75Anniversary_1941-2016.pdf). Cancer Research has continued to publish articles that cover the full range of research, spanning from investigations on drug discovery, cancer molecular mechanisms, and the tumor microenvironment to clinical and population studies. As cancer research has evolved over the past century, new AACR journals have emerged to embrace and support expanding fields, providing specialized venues for studies that deepen our understanding of areas that were historically covered by Cancer Research. In this regard, the “pedigree” of AACR journals stemmed from the principles set by Cancer Research, which remains a venue for publishing fundamental studies in all areas of cancer research, including emerging areas such as cancer data science and mathematics. As a society journal, Cancer Research serves the community through its editorial process that is guided by the judgment of international academic editors who provide rich expertise in various areas as practicing researchers. Further, the Journal embraces early career investigators and has recognized these researchers with the prestigious Cancer Research Early Career Award. Guided by its extensive history, Cancer Research hopes to motivate and support the next generation of scientists to lessen the burden of cancer through their innovative research.As cancer science and medicine entered the molecular biology era, it became clear that a communication channel was needed to emphasize basic science studies in oncology—studies that report significant mechanistic findings at the molecular or cellular level. Originally published under the title Cell Growth & Differentiation from 1990 to 2002, Molecular Cancer Research (MCR) was launched as the AACR was beginning to build its now-renowned focus on molecular biology and genetics. The Journal served to help emphasize this focus and attract more scientists into the AACR's membership. As part of this mission, MCR features studies exploring the molecular underpinnings of each of the hallmarks of cancer, with a particular emphasis on studies elucidating oncogenic alterations in metabolism. Cancer metabolism is increasingly recognized as a key vulnerability of tumor biology. MCR is committed to recruiting and disseminating studies featuring novel metabolomic analyses, mass spectrometry, metabolic imaging and tracing, and other approaches that clarify links between metabolism and cancer, with the goal of identifying metabolic vulnerabilities and adding to the armamentarium of anticancer interventions. In addition to publishing impactful basic cancer research studies, the Journal aims to promote diversity of thought and perspective within the basic cancer research community. To achieve this goal, MCR has launched an initiative in which senior investigators are paired with rising stars in their fields to write and edit review articles jointly. This initiative encourages collaboration among researchers by integrating historical perspectives with new directions to provide novel, actionable insights for the field.Cancer Epidemiology, Biomarkers & Prevention (CEBP) is the leading subspecialty journal for fundamental and applied population science research describing the burden of cancer; uncovering possible causes of cancer and its progression; and informing and evaluating strategies for cancer prevention, early detection, cancer survivorship, and closing the cancer disparities gap. CEBP is unique among AACR journals in focusing on populations at risk for cancer, with cancer, and surviving cancer, especially U.S. and global populations who experience health inequities. Among its many contributions, the Journal has advanced the field of molecular epidemiology of cancer by providing expert peer review and a highly regarded publications forum and has helped launch the careers of many investigators who conduct population science research on cancer. CEBP plays an active role in informing public health practice, policy, and recommendations by publishing articles that are cited as part of the evidence base, including by the FDA, the Centers for Disease Control and Prevention, the U.S. Preventive Services Task Force, and the World Health Organization. Recognizing the societal need to enhance the translation of population science evidence for cancer prevention and control today and in the future, the Journal recently expanded its scope to include cancer care delivery and implementation science research. Like the other AACR journals, CEBP serves the research community well through its editorial rigor and publication of innovative and impactful research addressing contemporary and emerging cancer problems.As biologic insights into cancer rapidly accelerated in the decades after the discovery of the structure of DNA and the armamenta­rium of anticancer agents began to expand, the AACR identified the need for a communication outlet focused on the clinical applications of these discoveries; Clinical Cancer Research was launched to provide this much-needed outlet. Early therapeutic development has since transitioned from rigidly divided trial phases into an adaptive process that encompasses investigation of safety, pharmacokinetics, proof of mechanism, and first evidence of clinical activity. These same trials now frequently serve as the basis for first regulatory approval. The Journal bridges the transition from late preclinical development, when a new therapy is being paired with insights into the molecular features that predict responsiveness to therapy, to clinical validation of those hypotheses, and the Journal has evolved into a premier venue for phase I/II trials. As the only AACR journal with clinical research of all types, including clinical trials, as its sole purview, Clinical Cancer Research has taken the charge of being the journal that accounts for what happens to the discoveries described in basic and translational cancer research when they are tested prospectively for their potential impact on the outcomes of patients with cancer. Since its launch, Clinical Cancer Research has also played a distinct educational role among clinical oncology journals, with a robust collection of review articles to benefit basic scientists with clinical interests and clinical investigators studying new agents with unique biologic mechanisms of action. Clinical Cancer Research has also become an important forum for critical discussions in clinical oncology. Field-leading experts are invited to deliberate on the progress made in a given therapeutic area, focusing on the lessons to be learned from recent successes and failures. Authors from the FDA provide detailed insights into the data that drive regulatory decision-making for each successful therapy. Clinical Cancer Research continues to demonstrate the AACR's long-standing commitment to accelerating research that leads to potential interventions for prevention, early detection, and treatment of cancer and particularly to showcasing clinical trials.Improving and expanding the arsenal of anticancer therapies is an essential goal in our shared mission to prevent and cure all cancers. From before the humble beginnings of nitrogen mustards and vinca alkaloids to the advent of immuno-oncology and rationally designed targeted therapy, the last 115 years have seen quantum leaps in therapeutic strategies and clinical options to combat cancer. Molecular Cancer Therapeutics has been at the forefront of this effort for more than 20 years, publishing top-tier science in the design, synthesis, discovery, and preclinical study of novel therapeutic agents for the treatment and prevention of cancer. The Journal's scope covers anticancer therapeutics broadly, including precision medicine therapies of all types: cell therapies, gene therapies, RNA therapeutics, oncolytic viruses, and vaccines in addition to established regimens such as mole­cular and biologic agents, chemotherapy, and radiotherapy. Among these efforts, the Journal provides a specialized venue for the first disclosure of experimental therapeutics advancing toward clinical trials, providing a platform with international reach to authors. The crucial role of Molecular Cancer Therapeutics among the AACR journals—and, indeed, among all oncology journals—cannot be overstated. The Journal's laser focus on disseminating rigorously vetted research with near-term clinical benefit has enormous potential to impact the entire cancer research community and to improve, extend, and defend the lives of patients with cancer. To that end, Molecular Cancer Therapeutics continues to provide a vital forum for the communication of important discoveries in cancer therapeutics research to the global research community.Effective global cancer control must emphasize efforts to reduce cancer incidence rather than concentrating solely on cancer treatment. To help catalyze such efforts, the AACR launched Cancer Prevention Research (CaPR) in 2008 to be devoted excl­usively to cancer prevention research. From its inception, CaPR has endeavored to be a primary resource for original articles, scholarly reviews, and timely perspectives regarding basic, translational, clinical, and population science investigations related to cancer risk reduction. Five years ago, CaPR published the landmark perspective, “Transforming Cancer Prevention through Precision Medicine and Immune-oncology,” which proposed a Pre-Cancer Atlas and recognized unprecedented opportunities to interrogate the biology of premalignancy (1). The subsequent development of the Pre-Cancer Atlas, together with other advances, represents a “moonshot” opportunity for the field of cancer prevention. CaPR will continue to cultivate high-caliber content from pioneers in fields such as carcinogenesis, the biology of premalignancy, cancer risk assessment, screening, and policy implementation that will transform the way we detect and, ultimately, intercept and prevent cancer. The Journal's mission to reflect the current state of cancer prevention and to catalyze the development of the field supports the AACR mission to prevent and cure all cancers. The community of researchers, educators, advocates, and funders that works together under the umbrella of the AACR and its family of journals is a critical part of the cancer prevention ecosystem. Together, we are publishing research that defines the field of cancer prevention, building a translational bridge between bench and community, and developing the next generation of cancer prevention researchers.In 2011, recognizing the cancer research community's need for a journal that published the most impactful research while placing a premium on streamlined editorial processes and service to authors, the AACR launched Cancer Discovery. Bringing together basic scientists with detailed knowledge of cancer biology and physicians at the vanguard of science-driven clinical trial design, Cancer Discovery immediately changed the landscape of scientific publishing in the field, with many other journals now trying to emulate the unique mix of basic, translational, and clinical research that the Journal pioneered. Cancer Discovery has been at the forefront of the most important developments in cancer over the past decade, from targeted therapy and immunotherapy to technological advances in single-cell sequencing and liquid biopsy that have fundamentally changed our understanding of cancer biology and response to treatment. Preclinical and clinical studies published in Cancer Discovery have laid the foundation for numerous FDA approvals within a short period, and influential commentaries and reviews have galvanized the field and guided policy decisions. The unique editorial team consisting of leading researchers and experienced professional editors works collaboratively with the community to quickly publish and disseminate the strongest, immediately impactful science to support the AACR mission to prevent and cure all cancers.The first cancer immunotherapeutic is famously considered to have been administered in 1891 by William B. Coley, one of the 11 founders of the AACR, when he used a mixture of heat-killed bacteria (subsequently known as Coley's toxins) to create an inflammatory response that could treat a patient with sarcoma. However, it took more than 100 years before the field of cancer immunology and immunotherapy research gained meaningful traction among those working in the broader discipline of cancer science and medicine. The rapid expansion of the field began in the early 2000s as a result of increasing evidence linking the immune system with cancer development and demonstrations that the immune system might be harnessed to treat cancer, and it has continued at an even more remarkable pace since the FDA approval of the first immune checkpoint inhibitor, the CTLA4-specific blocking antibody ipilimumab, in 2011. Recognizing the need to further enhance interactions between researchers in the realm of cancer immunology and immunotherapy and those in all other areas of the cancer research community, and to provide a forum for the presentation of advances in the rapidly evolving field of cancer immunology science, the AACR collaborated with the Cancer Research Institute to launch Cancer Immunology Research in 2013. Since its inaugural issue, the Journal has disseminated exciting discoveries and developments in the field of cancer immunology and immunotherapy, and successfully introduced the central principles of immunology to cancer biologists and clinical investigators. As a journal devoted to the science underlying some of the most transformative therapeutics to have entered the clinic for the treatment of cancer in recent years, Cancer Immunology Research has played a unique role in advancing the mission of the AACR.Unprecedented progress in understanding the pathogenesis of hematologic malignancies and in translating these insights into improved clinical outcomes has created a demand for a high-profile outlet for publishing these discoveries. To address this need and to emphasize the AACR's commitment to the prevention and cure of all types of cancer, Blood Cancer Discovery was launched in 2020 to inspire, facilitate, and broadly disseminate important discoveries about hematologic malignancies. The Journal's model of operation replicates Cancer Discovery's success in creating synergies between the expertise of leaders in the field and the dedication of in-house editorial and publishing teams, enabling rigorous, rapid, and transparent editorial processes. Blood Cancer Discovery has published cutting-edge research articles on a broad spectrum of topics encompassing leukemia, lymphoma, myeloma, and other blood cancer subtypes that also have profound implications for our understanding of solid tumors. The Journal has also published all the phases of clinical research: drug development in preclinical disease models, clinical trials, molecular events underlying clinical responses and resistance to therapies, and real-world epidemiology. As a forum for diverse ideas shaping future research directions, Blood Cancer Discovery has published incisive commentaries and has partnered with the AACR's hematologic malignancy-focused Special Conferences, quickly emerging as a thought leader in blood cancer research.The landscape of cancer science and medicine continues to change and accelerate, becoming ever more multifaceted. Launched in October 2021, Cancer Research Communications was designed with these considerations in mind. Most crucially, the Journal is fully open access and boasts the broadest and most flexible scope of any AACR title to date, providing a pathway to publication for authors working within funder mandates or whose work falls outside the scope of other titles in the AACR portfolio. The Journal's nine sections offer a comprehensive view of the spectrum of oncology research. With an editorial ethos centered on accessibility, reproducibility, and value to the field, the Journal is inclusive of a wide variety of important research findings that may be beyond the scope of other journals in the program. Cancer Research Communications is committed to catalyzing the rapid dissemination of rigorously peer-reviewed scientific findings in diversified areas of study, including but not limited to physics, engineering, mathematics, and computational biology. This interdisciplinary approach stimulates the cross-pollination of insight and innovation among cancer researchers. Moreover, the Journal emphasizes flourishing areas of research—such as precision medicine, immuno-oncology, and disparities in cancer health outcomes—that will be foundational to the next 115 years of progress against cancer. As a thoroughly modern platform designed to meet the needs of our authors and readers while complementing the other AACR journals, Cancer Research Communications is poised to stimulate the efficient and dynamic exchange of knowledge, actively sparking new ideas and discoveries to prevent and cure all cancers.Since the very first issue of The Journal of Cancer Research was published in 1916, the AACR journals have been a critical resource for cancer researchers and physicians, providing a forum for disseminating groundbreaking discoveries in cancer science and medicine. As the current Editors-in-Chief of the AACR journals, we are proud that this tradition of publishing seminal, rigorously vetted research that can change the trajectory of the field has established the AACR journals as a trusted partner of the research community. Importantly, we would like to take this opportunity to thank our authors, editorial teams, reviewers, and readers for their invaluable contributions to this endeavor. The tireless efforts of this community provide a beacon of hope to patients and their loved ones.As we look to the future, we continue to collaborate with the research community to ensure that the journals operate with a forward-thinking mentality that adapts to the evolving needs of all stakeholders. In recent years, we have seen critical scientific and technological innovations propel extraordinary progress against cancer. We are confident that this progress will continue, and we remain dedicated to ensuring that the AACR journals continue to provide a platform for the communication of impactful research and support the AACR mission to prevent and cure all cancers.L. Cantley consulted for Petra Pharmaceuticals, Agios Pharmaceuticals, EIP Pharmaceuticals, Volastra, Larkspur, and Cell Signaling Technologies over the past year. He also received grant support from the NIH/NCI, Gray Foundation, The Mark Foundation, the Breast Cancer Research Foundation, and Stand Up To Cancer/American Association for Cancer Research over the past year, and is a stockholder in Agios Pharmaceuticals, EIP Pharmaceuticals, Cell Signaling Technologies, Volastra, and Larkspur. R. Dalla-Favera is a consultant for NeoGenomics and AstraZeneca and receives research funds from AstraZeneca. L.A. Diaz is a member of the board of directors of Jounce Therapeutics and Epitope and is a compensated consultant to PetDx, Innovatus CP, Se'er, Delfi, Blackstone, Kinnate, and Neophore. He is an inventor of multiple licensed patents related to technology for circulating tumor DNA analyses and mismatch repair deficiency for diagnosis and therapy; some of these licenses and relationships are associated with equity or royalty payments directly to the inventors. He holds equity in Epitope, Jounce Therapeutics, PetDx, Se'er, Delfi, Kinnate, and Neophore; he divested his equity in Personal Genome Diagnostics to LabCorp in February 2022 and he divested his equity in Thrive Earlier Detection to Exact Biosciences in January 2021. His spouse holds equity in Amgen. The terms of all these arrangements are being managed by Memorial Sloan Kettering in accordance with their conflict of interest policies. K.T. Flaherty reports personal fees from Clovis Oncology, Checkmate Pharmaceuticals, Strata Oncology, Kinnate Biopharma, Scorpion Therapeutics, PIC Therapeutics, Apricity, Tvardi, ALX Oncology, xCures, Monopteros, Vibliome, Soley Therapeutics, Quanta Therapeutics, Nextech, Takeda, Novartis, OMRx, and Transcode Therapeutics and other support from Roche/Genentech outside the submitted work. P.D. Greenberg reports grants and personal fees from Juno Therapeutics; grants from Lonza; personal fees and other support from Earli, Metagenomi, Elpiscience, Rapt Therapeutics, and and grants, personal and other support from outside the submitted work. reports personal fees from reports personal fees from Oncology, Memorial Sloan Kettering Cancer The Institute for AACR, and Cancer Research grants, personal and support from and grants and personal fees from and Jounce Therapeutics; and personal fees and support from outside the submitted work. reports personal fees from and Therapeutics; grants from Novartis, Therapeutics, and and personal fees and grants from and outside the submitted work. were by the other authors.

  • Research Article
  • 10.6834/csmu.2013.00101
細胞介素-10 (IL-10)啟動子基因多型性對麟狀上皮細胞肺癌及肺腺癌預後的不同影響之研究
  • Jan 1, 2013
  • 王耀震

Objective:The term lung cancer or known as bronchogenic carcinoma,whichrefers to malignancies that originate in the airways or pulmonary parenchyma. Lung cancers are classified as small cell lung cancer (SCLC) (13%) or non-small cell lung cancer (NSCLC) (82%). These cell types of lung cancer comprise up to 95% of all lung cancer. Only 5% of lung cancers are comprised of other cell types. Non-small cell lung cancer can be further divided into three major cell types, including squamous cell lung cancer (SCC) (20%), adenocarcinoma (ADC) (38%) and large cell carcinoma (5%). Lung cancer is the most common cancer worldwide. In the year 2009, it was estimated to have 1,600,000 new cases and 1,380,000 deaths directly related with lung cancer occurred in the US. The absolute and relative frequency of lung cancer has increased dramatically. Lung cancer has became the most common cause of cancer deaths in men since the year of 1953 and has also became the most common cause of cancer deaths in women after the year 1985. Despite the cause of lung cancer deaths in male starts to decrease, but the trend of lung cancer deaths continues to increase in female. It was estimated that approximately half of cancer deaths occur in women. In Taiwan, lung cancer has also become the leading cause of deaths since the year 1980. In the past 30 years, lung cancer remains to be the leading cause of deaths. In both men and women, the incidence of lung cancer has increased 8 times and is also the most rapidly increased cancer among all cancers. The incidence of small cell lung cancer in Taiwan is approximately 88-90% and the incidence of small cell lung cancer is about 10-12%. The primary risk factor for the development is cigarette smoking, especially in squamous cell lung cancer. The overall survival and prognosis is poor. In all lung cancer patients, the overall 5 year survival rate is about 15%. Usually, patients are in late clinical staging at the time of cancer diagnosis. In non-small cell lung cancer, nearly 30-40% of cases were in stage four. Likewise, about 60% of small cell lung cancer patients were in disseminated stage. Many factors are related with prognosis in both small cell and non-small cell lung cancer, among these, cancer stage is the most important prognostic factor. Other related prognostic factors include, clinical parameters, histopathology, molecular characterization, positron- computerizedtomography (PET-CT) findings, and whether there is any recurrence after tumor resection. Reverse Transcriptase Polymerase Chain Reaction (RT-PCR) is also being utilized to be a diagnostic assay to detect whether there is any lymphatic metastasis in non-small cell lung cancer. The immune system is a complex and sophisticatenetwork, that is designed to protect the host from both external (such as bacteria and virus) and internal threats (such as malignant transformation). Cytokines are hormone-like proteins that enable immune cells to communicate and play an integral role in the initiating, perpetuation and subsequent downregulation of the immune response. Cytokines are as important to the termination of the immune response as they are to its initiation. Interleukine-10 (IL-10) is also known as a human cytokine synthesis inhibitor factor (CSIF). It is an important immunoinhibitory cytokine or function as an anti-inflammatory cytokine. It also plays an integral role in the complex but balanced immune network system. Previous studies have shown that interleukine-10 promoter polymorphisms at (-1082A>G, -819C>T, -592C>A) is closely related to its transcription activities. Blocking the tumor immune-surveillance by suppressing T-cell immunity could explain the important role of IL-10 in the progression of tumor. Several other studies have also observed that Il-10 promoter polymorphisms are also related to many other cancers, including diffuse B-cell lymphoma, non-Hodgkin’s lymphoma, breast cancer, gastric cancer, colon cancer, myeloma, advancedmelanoma and skin squmaous cell carcinoma occurred after renal transplantation. Squamous cell lung cancer is closely related to cigarette smoking, a procarcinogen extracted from cigarette (NNK)Nicotine-derived nitrosamine ketone, or 4-(methylnitrosamino)- 1-(3-pyridyl)-1-butanone, is a nitrosamine, which could induce the production of IL-10. It probably plays an important role in the development of lung cancer. In our previous study, we hypothesized that IL-10 haplotypes categorized by IL-10 promoter polymorphisms at (-1082A>G, -819C>T, -592C>A), might influence IL-10 expression and may be related with poor clinical outcomes and relapse in patients with non-small cell lung cancer. We have observed that lung tumors with non-ATA haplotypes had significantly higher mRNA level when compare with tumor with ATA-haplotypes. The overall survival (OS) and relapse free survival (RFS) in tumors with non-ATA haplotypes was significantly shorter then tumors with ATA-haplotypes. Furthermore, T-cells collected from peripheral blood in healthy donors when co-cultured with cancer cells, were more susceptible to apoptosis and less cytoxic to tumor cells in patients with non-ATA haplotypes than in patients with ATA-hapoltypes. T-cells apoptosis could be increased and tumor cell apoptosis could be decreased by adding IL-10 recombinant protein. On the contrary, T-cell apoptosis could be decreased and tumor cell apoptosis could be increased by adding neutralizing antibody. This was also consistent with our hypothesis that IL-10 haplotypes categorized by IL-10 promoter polymorphisms at (-1082A>G, -819C>T, -592C>A), might influence IL-10 expression and may be related with poor clinical outcomes and relapse in patients with non-small cell lung cancer. The influence of IL-10 was further demonstrated in our animal experiment. In the histological examination of TC-1 tumors in lung following intravenous injection of TC-1 cells into experiment mice. Lung metastasis was found in mice injected with IgG antibody but not in mice injected with IL-10 neutralizing antibody. We have concluded that, IL-10 can promote tumor malignancy via promoting T-cell apoptosis and tumor cell survival, and IL-10 haplotypes may be used to predict survival and relapse in resected non-small cell lung cancer. The overall survival and prognosis of lung cancer is poor, therefore we are expecting to apply and utilize the state of the art molecular technology, in predicting the response of lung cancer treatment and overall survival. Interleukin-10 (IL-10) may play an importance role in the progression of lung cancer. The objective of this study is to evaluate the different impact of IL-10 haplotypes on prognosis, including overall survival (OS) and relapse-free survival (RFS) in lung squamous cell cancer (SCC) and adenocarcinoma (ADC). Methods and Materials:In this study, we included 439 non-small cell lung cancer (NSCLC) patients recruited from Taichung Veteran General Hospital (TCVGH). Study samples were collected from immediately frozen section during surgery. Surgically resected normal lung tissues adjacent to the lung tumor were examined. Genomic DNA was extracted by conventional methods, which was prepared by prokinase K digestion and phenol-chloroform extraction; followed by ethanol precipitation. The genotypes of IL-10 were determined by Polymerase Chain Reaction-Restriction Fragment Length Polymorphism (PCR-RFLP). Polymorphisms of IL-10 were determined by direct sequencing of Polymerase Chain Reaction(PCR) products amplified from the DNA of normal tissues adjacent to the tumors. For continuous or discrete data analysis, Student’s t-test and Chi-square test were applied. Kaplan-Meier method and log-rank test were used to determine the association between IL-10 promoter polymorphisms and patients’ survival. Cox regression models were used to adjust potential confounders. Statistical testing was conducted by using two-sided tests and p-values G, -819C>T, and =592G>A). The non-ATA haplotype in NSCLC is more prevalent both in nodal metastatic tumors than in non-nodal metastatic tumors (N0) (59.7% vs. 48.4%, p = 0.017). In our previous study, we have also shown that patients with non-ATA haplotypes had higher IL-10 mRNA expression levels than patients with ATA haplotypes. In tumor histology, IL-10 haplotypes also correlated with nodal metastasis (63.0% vs 40.5%, p < 0.01) and tumor stage in SCC (59.2% vs 46.3%, p = 0.047). This was not observed in ADC patients. The non-ATA haplotypes may be used as a biomarker for poor prognosis in surgically resected NSCLC. Kaplan-Meier and Cox regression analysis showed that patients with ATA haplotypes had poorer OS and RFS. (HR 1.522, 95% CI = 1.191-1.945, p=0.001 for OS; HR 1.611, 95% CI = 1.247-2.082, p < 0.01 for RFS). The median survival duration and five years survival rate of patients with non-ATA haplotypes were significantly shorter when compare with patients ATA (median OS = 25.8 vs. 42.9 months; median RFS =16.8 vs. 30.9 months; 5-year OS = 28.6% vs. 44.7% and RFS = 22.2% vs. 36.2%). SCC patient with non-ATA haplotypes had poorer OS and RFS than patients with ATA haplotypes. No prognostic value was observed in ADC patients. These results suggest that IL-10 haplotypes has different impacts on OS and RFS in SCC patients from those with ADC. Conclusion and Suggestion:The IL-10 haplotypes has been associated with lung cancer risk. A prognostic value of non-ATA haplotypes was observed for SCC, but not for ADC. Non-ATA haplotypes were associated with nodal metastasis and tumor stage. In summary, IL-10 may have a stronger influence on tumor progression in SCC than ADC.

  • Research Article
  • Cite Count Icon 39
  • 10.1016/j.trsl.2011.09.003
Association of hypoxia inducible factor-1α polymorphisms with susceptibility to non–small-cell lung cancer
  • Oct 8, 2011
  • Translational Research
  • Wu-Hsien Kuo + 6 more

Association of hypoxia inducible factor-1α polymorphisms with susceptibility to non–small-cell lung cancer

  • Research Article
  • 10.1158/1538-7445.am2014-3629
Abstract 3629: Overcoming macrophage immunosuppression in small cell lung cancer with high-affinity SIRPa variants
  • Sep 30, 2014
  • Cancer Research
  • Kipp Weiskopf + 9 more

CD47 allows cancer cells to evade the immune system by signaling through SIRPa, an inhibitory receptor on macrophages. Therapies that block CD47 convert tumor-promoting macrophages to a tumoricidal state within the tumor microenvironment. We recently developed next-generation CD47 antagonists by engineering the extracellular domain of SIRPa. As single-domain polypeptides, these “high-affinity SIRPa variants” have an affinity for human CD47 (KD) as low as 11.1 pM, approximately 50,000-fold improved over wild-type SIRPa. By themselves, the high-affinity SIRPa variants are inert and therefore non-toxic in mouse and primate studies. However, when combined with tumor-specific antibodies, the high-affinity SIRPa variants act as immunotherapeutic adjuvants to antibody therapies by maximizing the ability of macrophages to destroy cancer cells. In our current study, we hypothesized these novel CD47-blocking agents could be applied to the treatment of small cell lung cancer (SCLC), a cancer with poor prognosis for which no clinically-approved antibodies or immunotherapies exist. We examined a panel of human SCLC samples and found all samples tested expressed high levels of CD47 on their surface. Using purified macrophages in vitro, we found that CD47-blocking therapies were able to induce macrophage phagocytosis of SCLC cell lines and primary patient samples. As a proof-of-concept, treatment of mice bearing primary SCLC tumors with CD47-blocking antibodies was able to inhibit tumor growth and significantly prolong survival. To identify novel SCLC antigens that can be targeted in combination with the high-affinity SIRPa variants, we screened SCLC samples by high-throughput flow cytometry using LEGENDScreen comprehensive antibody arrays. We identified several new and established therapeutic targets on the surface of SCLC cells, including CD99, CD56, CD166, CD326, and CD164. We identified antibodies to these antigens that could elicit macrophage phagocytosis in vitro, validating these antigens as targets for immune-based therapies. The ability of these antibodies to induce phagocytosis was dramatically enhanced when combined with the high-affinity SIRPa variants. Future studies will test these immunotherapeutic combinations in vivo against SCLC samples to develop novel therapeutic combinations for patients. We propose this strategy as a universal method to identify new tumor antigens and overcome macrophage immunosuppression within the tumor microenvironment. Citation Format: Kipp Weiskopf, Peter J. Schnorr, Nadine Jahchan, Aaron M. Ring, Roy L. Maute, Anne K. Volkmer, Jens-Peter Volkmer, Kenan C. Garcia, Julien Sage, Irving L. Weissman. Overcoming macrophage immunosuppression in small cell lung cancer with high-affinity SIRPa variants. [abstract]. In: Proceedings of the 105th Annual Meeting of the American Association for Cancer Research; 2014 Apr 5-9; San Diego, CA. Philadelphia (PA): AACR; Cancer Res 2014;74(19 Suppl):Abstract nr 3629. doi:10.1158/1538-7445.AM2014-3629

  • Research Article
  • Cite Count Icon 1
  • 10.1158/1538-7445.am2020-4124
Abstract 4124: The combination of PARP inhibitor talazoparib with low-dose temozolomide results in increased cell lethality in BRCA1/2 wild-type melanoma, small cell lung cancer, ovarian, and colon cancer cell lines and mouse xenografts via the formation of DNA double-strand breaks during S-phase
  • Aug 13, 2020
  • Cancer Research
  • Kelly Elizabeth Mccann + 3 more

Background: Previous studies of PARP inhibitors have shown efficacy in tumors with defects in homologous recombination repair, particularly in persons with ovarian and breast cancers with germline deleterious BRCA1/2 mutations (gBRCA1/2+). There is much interest in expanding the use of PARP inhibitors beyond these populations, with one strategy being the creation of DNA damage with cytotoxic chemotherapy with concomitant inhibition of its repair with a PARP inhibitor. Murai, et al, have also shown that PARP is trapped on the DNA at the site of damage in the presence of a PARP inhibitor. In April 2016, my colleague Dr Zev Wainberg presented Phase I safety and efficacy data at AACR (abstract CT011) with PARP inhibitor talazoparib in combination with alkylating agent temozolomide in cancer patients without gBRCA1/2+, demonstrating this to be a promising combination. Methods: We evaluated the molecular mechanisms underlying cancer cell lethality with talazoparib plus temozolomide in melanoma, small cell lung, ovarian, and colorectal cancer cell lines and mouse xenografts. We determined growth-adjusted IC50s for talazoparib in multiple histologies to choose cell lines of low and high sensitivity to the PARP inhibitor as monotherapy. We studied percent growth inhibition of talazoparib, temozolomide, and combination therapy at increasing doses. We investigated cell cycle dynamics at 24 hours and 48 hours; PARP inhibitors have been shown to activate the G2/M cell cycle checkpoint, which could confound growth arrest and DNA repair studies. We performed western blot analysis to identify phosphorylated histone H2AX as a marker of DNA double-strand breaks. We used FACS to determine apoptotic fractions and to correlate phospho-H2AX formation with cell cycle phase. We used confocal microscopy to correlate phospho-H2AX with nuclear PARP. We used mouse xenografts to demonstrate sensitivity of tumors to temozolomide, talazoparib, and combination therapy. Results: The combination of temozolomide with talazoparib results in the formation of DNA double-strand breaks during S-phase, which results in increased cell lethality in BRCA1/2 wild-type cell lines and mouse xenografts of melanoma, colorectal, ovarian, and small cell lung histologies even when those cell lines are not sensitive to either talazoparib or temozolomide alone. We were unable to demonstrate colocalization of PARP and phospho-H2AX due to PARP's high expression in the nucleus during S-phase. We were also not able to demonstrate PARP-trapping by western blot at doses utilized in human patients, but this is likely due to lack of assay sensitivity. Conclusions: Taking into consideration both the molecular data demonstrating efficacy of talazoparib plus temozolomide therapy in BRCA1/2 wild-type cell lines and mouse xenografts and the Phase I trial data showing safety and efficacy with this combination, PARP inhibitors likely have utility beyond treatment of gBRCA1/2+ patients. Use of the alkylating agent might be particularly important, as it is recognized during S-phase and trapping of PARP on the DNA could result in collapse of a stalled replication fork into a DNA double-strand break. Citation Format: Kelly Elizabeth McCann, Erika von Euw, Neil O'Brien, Dennis Slamon. The combination of PARP inhibitor talazoparib with low-dose temozolomide results in increased cell lethality in BRCA1/2 wild-type melanoma, small cell lung cancer, ovarian, and colon cancer cell lines and mouse xenografts via the formation of DNA double-strand breaks during S-phase [abstract]. In: Proceedings of the Annual Meeting of the American Association for Cancer Research 2020; 2020 Apr 27-28 and Jun 22-24. Philadelphia (PA): AACR; Cancer Res 2020;80(16 Suppl):Abstract nr 4124.

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