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Sapporo Medical University

UniversitySapporo, Japan

Research output, citation impact, and the most-cited recent papers from Sapporo Medical University (Japan). Aggregated across the NobleBlocks index of 300M+ scholarly works.

Total works
22.3K
Citations
1.9M
h-index
362
i10-index
36.2K
Also known as
Sapporo Medical UniversitySapporo ika daigaku札幌医科大学

Top-cited papers from Sapporo Medical University

Guidelines for the use and interpretation of assays for monitoring autophagy (3rd edition)
Daniel J. Klionsky, Kotb Abdelmohsen, Akihisa Abe, Md. Joynal Abedin +4 more
2016· Autophagy6.0Kdoi:10.1080/15548627.2015.1100356

In 2008 we published the first set of guidelines for standardizing research in autophagy. Since then, research on this topic has continued to accelerate, and many new scientists have entered the field. Our knowledge base and relevant new technologies have also been expanding. Accordingly, it is important to update these guidelines for monitoring autophagy in different organisms. Various reviews have described the range of assays that have been used for this purpose. Nevertheless, there continues to be confusion regarding acceptable methods to measure autophagy, especially in multicellular eukaryotes. For example, a key point that needs to be emphasized is thatthere is a difference between measurements that monitor the numbers or volume of autophagic elements (e.g., autophagosomes or autolysosomes) at any stage of the autophagic process versus those that measure flux through the autophagy pathway (i.e., the completeprocess including the amount and rate of cargo sequestered and degraded). In particular, a block in macroautophagy that results in autophagosome accumulation must be differentiated from stimuli that increase autophagic activity, defined as increasedautophagy induction coupled with increased delivery to, and degradation within, lysosomes (inmost higher eukaryotes and some protists such as Dictyostelium) or the vacuole (in plants and fungi). In other words, it is especially important that investigators new to the field understand that the appearance of more autophagosomes does not necessarily equate with more autophagy. In fact, in manycases, autophagosomes accumulate because of a block in trafficking to lysosomes without a concomitant change in autophagosome biogenesis, whereas an increase in autolysosomes may reflect a reduction in degradative activity. It is worth emphasizing here that lysosomal digestion is a stage of autophagy and evaluating its competence is a crucial part of the evaluation of autophagic flux, or complete autophagy. Here, we present a set of guidelines for the selection and interpretation of methods for use by investigators who aim to examine macroautophagy and related processes, as well as forreviewers who need to provide realistic and reasonable critiques of papers that are focused on these processes. These guidelines are not meant to be a formulaic set of rules, because the appropriate assays depend in part on the question being asked and the system being used. In addition, we emphasize that no individual assay is guaranteed to be the most appropriate one in every situation, and we strongly recommend the use of multipleassays to monitor autophagy. Along these lines, because of the potential for pleiotropic effects due to blocking autophagy through genetic manipulation, it is imperative to target by gene knockout or RNA interference more than one autophagyrelated protein. In addition, some individual Atg proteins, or groups of proteins, are involved in other cellular pathways implying that not all Atg proteins can be used as a specific marker for an autophagic process. In these guidelines, we consider these various methods of assessing autophagy and what information can, or cannot, be obtained from them. Finally, by discussing the merits and limits of particular assays, we hope to encourage technical innovation in the field.

Guidelines for the use and interpretation of assays for monitoring autophagy (4th edition)<sup>1</sup>
Daniel J. Klionsky, Amal Kamal Abdel‐Aziz, Sara Abdelfatah, Mahmoud Abdellatif +4 more
2021· Autophagy2.7Kdoi:10.1080/15548627.2020.1797280

autophagic responses. Here, we critically discuss current methods of assessing autophagy and the information they can, or cannot, provide. Our ultimate goal is to encourage intellectual and technical innovation in the field.

Noxa, a BH3-Only Member of the Bcl-2 Family and Candidate Mediator of p53-Induced Apoptosis
Eri Oda, Rieko Ohki, Hideki Murasawa, Jiro Nemoto +4 more
2000· Science2.1Kdoi:10.1126/science.288.5468.1053

A critical function of tumor suppressor p53 is the induction of apoptosis in cells exposed to noxious stresses. We report a previously unidentified pro-apoptotic gene, Noxa. Expression of Noxa induction in primary mouse cells exposed to x-ray irradiation was dependent on p53. Noxa encodes a Bcl-2 homology 3 (BH3)-only member of the Bcl-2 family of proteins; this member contains the BH3 region but not other BH domains. When ectopically expressed, Noxa underwent BH3 motif-dependent localization to mitochondria and interacted with anti-apoptotic Bcl-2 family members, resulting in the activation of caspase-9. We also demonstrate that blocking the endogenous Noxa induction results in the suppression of apoptosis. Noxa may thus represent a mediator of p53-dependent apoptosis.

Cells of the adult human heart
Monika Litviňuková, Carlos Talavera‐López, Henrike Maatz, Daniel Reichart +4 more
2020· Nature1.8Kdoi:10.1038/s41586-020-2797-4

Cardiovascular disease is the leading cause of death worldwide. Advanced insights into disease mechanisms and therapeutic strategies require a deeper understanding of the molecular processes involved in the healthy heart. Knowledge of the full repertoire of cardiac cells and their gene expression profiles is a fundamental first step in this endeavour. Here, using state-of-the-art analyses of large-scale single-cell and single-nucleus transcriptomes, we characterize six anatomical adult heart regions. Our results highlight the cellular heterogeneity of cardiomyocytes, pericytes and fibroblasts, and reveal distinct atrial and ventricular subsets of cells with diverse developmental origins and specialized properties. We define the complexity of the cardiac vasculature and its changes along the arterio-venous axis. In the immune compartment, we identify cardiac-resident macrophages with inflammatory and protective transcriptional signatures. Furthermore, analyses of cell-to-cell interactions highlight different networks of macrophages, fibroblasts and cardiomyocytes between atria and ventricles that are distinct from those of skeletal muscle. Our human cardiac cell atlas improves our understanding of the human heart and provides a valuable reference for future studies.

Comprehensive diagnostic criteria for IgG4-related disease (IgG4-RD), 2011
Hisanori Umehara, Kazuichi Okazaki, Yasufumi Masaki, Mitsuhiro Kawano +4 more
2012· Modern Rheumatology1.7Kdoi:10.1007/s10165-011-0571-z

BACKGROUND: IgG4-related disease (IgG4-RD) is a novel clinical disease entity characterized by elevated serum IgG4 concentration and tumefaction or tissue infiltration by IgG4+ plasma cells. Although IgG4-RD is not rare and is clinically important, its clinical diagnostic criteria have not been established. Comprehensive diagnostic criteria for IgG4-RD, including the involvement of various organs, are intended for the practical use of general physicians and nonspecialists. METHODS: Two IgG4-RD study groups, the Umehara and Okazaki teams, were organized by the Ministry of Health, Labor and Welfare Japan. As IgG4-RD comprises a wide variety of diseases, these groups consist of physicians and researchers in various disciplines, including rheumatology, hematology, gastroenterology, nephrology, pulmonology, ophthalmology, odontology, pathology, statistics, and basic and molecular immunology throughout Japan, with 66 and 56 members of the Umehara and Okazaki teams, respectively. Collaborations of the two study groups involved detailed analyses of clinical symptoms, laboratory results, and biopsy specimens of patients with IgG4-RD, resulting in the establishment of comprehensive diagnostic criteria for IgG4-RD. RESULTS: Although many patients with IgG4-RD have lesions in several organs, either synchronously or metachronously, and the pathological features of each organ differ, consensus has been reached on two diagnostic criteria for IgG4RD: (1) serum IgG4 concentration >135 mg/dl, and (2) >40% of IgG+ plasma cells being IgG4+ and >10 cells/high powered field of biopsy sample. Although the comprehensive diagnostic criteria are not sufficiently sensitive for the diagnosis of type 1 IgG4-related autoimmune pancreatitis (IgG4-related AIP), they are adequately sensitive for IgG4-related Mikulicz's disease (MD) and kidney disease (KD). In addition, the comprehensive diagnostic criteria, combined with organ-specific diagnostic criteria, have increased the sensitivity of diagnosis to 100% for IgG4-related MD, KD, and AIP. CONCLUSION: Our comprehensive diagnostic criteria for IgG4-RD are practically useful for general physicians and nonspecialists.

Comprehensive diagnostic criteria for IgG4-related disease (IgG4-RD), 2011
Hisanori Umehara, Kazuichi Okazaki, Yasufumi Masaki, Mitsuhiro Kawano +4 more
2012· Modern Rheumatology1.6Kdoi:10.3109/s10165-011-0571-z

IgG4-related disease (IgG4-RD) is a novel clinical disease entity characterized by elevated serum IgG4 concentration and tumefaction or tissue infiltration by IgG4+ plasma cells. Although IgG4-RD is not rare and is clinically important, its clinical diagnostic criteria have not been established. Comprehensive diagnostic criteria for IgG4-RD, including the involvement of various organs, are intended for the practical use of general physicians and nonspecialists. Background: IgG4-related disease (IgG4-RD) is a novel clinical disease entity characterized by elevated serum IgG4 concentration and tumefaction or tissue infiltration by IgG4+ plasma cells. Although IgG4-RD is not rare and is clinically important, its clinical diagnostic criteria have not been established. Comprehensive diagnostic criteria for IgG4-RD, including the involvement of various organs, are intended for the practical use of general physicians and nonspecialists. Methods: Two IgG4-RD study groups, the Umehara and Okazaki teams, were organized by the Ministry of Health, Labor and Welfare Japan. As IgG4-RD comprises a wide variety of diseases, these groups consist of physicians and researchers in various disciplines, including rheumatology, hematology, gastroenterology, nephrology, pulmonology, ophthalmology, odontology, pathology, statistics, and basic and molecular immunology throughout Japan, with 66 and 56 members of the Umehara and Okazaki teams, respectively. Collaborations of the two study groups involved detailed analyses of clinical symptoms, laboratory results, and biopsy specimens of patients with IgG4-RD, resulting in the establishment of comprehensive diagnostic criteria for IgG4-RD. Results: Although many patients with IgG4-RD have lesions in several organs, either synchronously or metachronously, and the pathological features of each organ differ, consensus has been reached on two diagnostic criteria for IgG4RD: (1) serum IgG4 concentration >135 mg/dl, and (2) >40% of IgG+ plasma cells being IgG4+ and >10 cells/high powered field of biopsy sample. Although the comprehensive diagnostic criteria are not sufficiently sensitive for the diagnosis of type 1 IgG4-related autoimmune pancreatitis (IgG4-related AIP), they are adequately sensitive for IgG4-related Mikulicz’s disease (MD) and kidney disease (KD). In addition, the comprehensive diagnostic criteria, combined with organ-specific diagnostic criteria, have increased the sensitivity of diagnosis to 100% for IgG4-related MD, KD, and AIP. Conclusion: Our comprehensive diagnostic criteria for IgG4-RD are practically useful for general physicians and nonspecialists.

Towards the introduction of the ‘Immunoscore’ in the classification of malignant tumours
Jérôme Galon, Bernhard Mlecnik, Gabriela Bindea, Helen K. Angell +4 more
2013· The Journal of Pathology1.3Kdoi:10.1002/path.4287

The American Joint Committee on Cancer/Union Internationale Contre le Cancer (AJCC/UICC) TNM staging system provides the most reliable guidelines for the routine prognostication and treatment of colorectal carcinoma. This traditional tumour staging summarizes data on tumour burden (T), the presence of cancer cells in draining and regional lymph nodes (N) and evidence for distant metastases (M). However, it is now recognized that the clinical outcome can vary significantly among patients within the same stage. The current classification provides limited prognostic information and does not predict response to therapy. Multiple ways to classify cancer and to distinguish different subtypes of colorectal cancer have been proposed, including morphology, cell origin, molecular pathways, mutation status and gene expression-based stratification. These parameters rely on tumour-cell characteristics. Extensive literature has investigated the host immune response against cancer and demonstrated the prognostic impact of the in situ immune cell infiltrate in tumours. A methodology named 'Immunoscore' has been defined to quantify the in situ immune infiltrate. In colorectal cancer, the Immunoscore may add to the significance of the current AJCC/UICC TNM classification, since it has been demonstrated to be a prognostic factor superior to the AJCC/UICC TNM classification. An international consortium has been initiated to validate and promote the Immunoscore in routine clinical settings. The results of this international consortium may result in the implementation of the Immunoscore as a new component for the classification of cancer, designated TNM-I (TNM-Immune).

Biallelic Inactivation of <i>BRCA2</i> in Fanconi Anemia
Niall G. Howlett, Toshiyasu Taniguchi, Susan B. Olson, Barbara Cox +4 more
2002· Science1.1Kdoi:10.1126/science.1073834

Fanconi anemia (FA) is a rare autosomal recessive cancer susceptibility disorder characterized by cellular hypersensitivity to mitomycin C (MMC). Six FA genes have been cloned, but the gene or genes corresponding to FA subtypes B and D1 remain unidentified. Here we show that cell lines derived from FA-B and FA-D1 patients have biallelic mutations in BRCA2 and express truncated BRCA2 proteins. Functional complementation of FA-D1 fibroblasts with wild-type BRCA2 complementary DNA restores MMC resistance. Our results link the six cloned FA genes with BRCA1 and BRCA2 in a common pathway. Germ-line mutation of genes in this pathway may result in cancer risks similar to those observed in families with BRCA1 or BRCA2 mutations.

International Consensus Guidance Statement on the Management and Treatment of IgG4‐Related Disease
Arezou Khosroshahi, Zachary S. Wallace, Jayne Littlejohn Crowe, Takashi Akamizu +4 more
2015· Arthritis & Rheumatology1.1Kdoi:10.1002/art.39132

A. Khosroshahi, Z. S. Wallace, J. L. Crowe, T. Akamizu, A. Azumi, M. N. Carruthers, S. T. Chari, E. Della-Torre, L. Frulloni, H. Goto, P. A. Hart, T. Kamisawa, S. Kawa, M. Kawano, M. H. Kim, Y. Kodama, K. Kubota, M. M. Lerch, M. L€ ohr, Y. Masaki, S. Matsui, T. Mimori, S. Nakamura, T. Nakazawa, H. Ohara, K. Okazaki, J. H. Ryu, T. Saeki, N. Schleinitz, A. Shimatsu, T. Shimosegawa, H. Takahashi, M. Takahira, A. Tanaka, M. Topazian, H. Umehara, G. J. Webster, T. E. Witzig, M. Yamamoto, W. Zhang, T. Chiba, and J. H. Stone

Reactive oxygen species in cancer: Current findings and future directions
Hajime Nakamura, Kohichi Takada
2021· Cancer Science970doi:10.1111/cas.15068

Reactive oxygen species (ROS), a class of highly bioactive molecules, have been widely studied in various types of cancers. ROS are considered to be normal byproducts of numerous cellular processes. Typically, cancer cells exhibit higher basal levels of ROS compared with normal cells as a result of an imbalance between oxidants and antioxidants. ROS have a dual role in cell metabolism: At low to moderate levels, ROS act as signal transducers to activate cell proliferation, migration, invasion, and angiogenesis. In contrast, high levels of ROS cause damage to proteins, nucleic acids, lipids, membranes, and organelles, leading to cell death. Extensive studies have revealed that anticancer therapies that manipulate ROS levels, including immunotherapies, show promising in vitro as well as in vivo results. In this review, we summarize molecular mechanisms and oncogenic functions that modulate ROS levels and are useful for the development of cancer therapeutic strategies. This review also provides insights into the future development of effective agents that regulate the redox system for cancer treatment.

Double-blind, Placebo-controlled Trial of Pirfenidone in Patients with Idiopathic Pulmonary Fibrosis
Arata Azuma, Toshihiro Nukiwa, Eiyasu Tsuboi, Moritaka Suga +4 more
2005· American Journal of Respiratory and Critical Care Medicine955doi:10.1164/rccm.200404-571oc

Idiopathic pulmonary fibrosis (IPF) is a fatal disorder without an effective therapy to date. In a double-blind, randomized, placebo-controlled trial, 107 patients were prospectively evaluated for efficacy of a novel compound, pirfenidone. The difference in the change in the lowest oxygen saturation by pulse oximetry (SpO2) during a 6-minute exercise test, the primary endpoint, from baseline to 6 months was not significant between the two groups (p = 0.0722). In a prespecified subset of patients who maintained a SpO2 greater than 80% during a 6-minute exercise test at baseline, the lowest SpO2 improved during a 6-minute exercise test in the pirfenidone group at 6 and 9 months (p = 0.0069 and 0.0305, respectively). Positive treatment effect was demonstrated in secondary endpoints: (1) change in VC measurements at 9 months (p = 0.0366) and (2) episodes of acute exacerbation of IPF occurring exclusively in the placebo group during the 9 months (p = 0.0031). Significant adverse events were associated with pirfenidone; however, adherence to treatment regimen was similar between pirfenidone and placebo groups. In conclusion, treatment with pirfenidone improved VC and prevented acute exacerbation of IPF during the 9 months of follow-up. Future long-term studies are needed to clarify the overall safety and efficacy of pirfenidone in IPF.

Genomic Correlates of Immune-Cell Infiltrates in Colorectal Carcinoma
Marios Giannakis, Xinmeng Jasmine Mu, Sachet A. Shukla, Zhi Rong Qian +4 more
2016· Cell Reports936doi:10.1016/j.celrep.2016.03.075

Large-scale genomic characterization of tumors from prospective cohort studies may yield new insights into cancer pathogenesis. We performed whole-exome sequencing of 619 incident colorectal cancers (CRCs) and integrated the results with tumor immunity, pathology, and survival data. We identified recurrently mutated genes in CRC, such as BCL9L, RBM10, CTCF, and KLF5, that were not previously appreciated in this disease. Furthermore, we investigated the genomic correlates of immune-cell infiltration and found that higher neoantigen load was positively associated with overall lymphocytic infiltration, tumor-infiltrating lymphocytes (TILs), memory T cells, and CRC-specific survival. The association with TILs was evident even within microsatellite-stable tumors. We also found positive selection of mutations in HLA genes and other components of the antigen-processing machinery in TIL-rich tumors. These results may inform immunotherapeutic approaches in CRC. More generally, this study demonstrates a framework for future integrative molecular epidemiology research in colorectal and other malignancies.

Appearance of enhanced tissue features in narrow-band endoscopic imaging
Kazuhiro Gono, Takashi Obi, Masahiro Yamaguchi, Nagaaki Ohyama +4 more
2004· Journal of Biomedical Optics929doi:10.1117/1.1695563

This study was performed to examine the usefulness of medical endoscopic imaging utilizing narrow-band illumination. The contrast between the vascular pattern and the adjacent mucosa of the underside of the human tongue was measured using five narrow-band illuminations and three broadband illuminations. The results demonstrate that the pathological features of a vascular pattern are dependent on the center wavelength and the bandwidth of illumination. By utilizing narrow-band illumination of 415+/-30 nm, the contrast of the capillary pattern in the superficial layer was markedly improved. This is an important benefit that is difficult to obtain with ordinary broadband illumination. The appearances of capillary patterns on color images were evaluated for three sets of filters. The narrow, band imaging (NBI) filter set (415+/-30 nm, 445+/-30 nm, 500+/-30 nm) was selected to achieve the preferred appearance of the vascular patterns for clinical tests. The results of clinical tests in colonoscopy and esophagoscopy indicated that NBI will be useful as a supporting method for observation of the endoscopic findings of early cancer.

The Phagocytic Function of Macrophage-Enforcing Innate Immunity and Tissue Homeostasis
Daisuke Hirayama, Tomoya Iida, Hiroshi Nakase
2017· International Journal of Molecular Sciences928doi:10.3390/ijms19010092

Macrophages are effector cells of the innate immune system that phagocytose bacteria and secrete both pro-inflammatory and antimicrobial mediators. In addition, macrophages play an important role in eliminating diseased and damaged cells through their programmed cell death. Generally, macrophages ingest and degrade dead cells, debris, tumor cells, and foreign materials. They promote homeostasis by responding to internal and external changes within the body, not only as phagocytes, but also through trophic, regulatory, and repair functions. Recent studies demonstrated that macrophages differentiate from hematopoietic stem cell-derived monocytes and embryonic yolk sac macrophages. The latter mainly give rise to tissue macrophages. Macrophages exist in all vertebrate tissues and have dual functions in host protection and tissue injury, which are maintained at a fine balance. Tissue macrophages have heterogeneous phenotypes in different tissue environments. In this review, we focused on the phagocytic function of macrophage-enforcing innate immunity and tissue homeostasis for a better understanding of the role of tissue macrophages in several pathological conditions.

Stereotactic hypofractionated high‐dose irradiation for stage I nonsmall cell lung carcinoma
Hiroshi Onishi, Tsutomu Araki, Hiroki Shirato, Yasushi Nagata +4 more
2004· Cancer908doi:10.1002/cncr.20539

BACKGROUND: Stereotactic irradiation (STI) has been actively performed using various methods to achieve better local control of Stage I nonsmall cell lung carcinoma (NSCLC) in Japan. The authors retrospectively evaluated results from a Japanese multiinstitutional study. METHODS: Patients with Stage I NSCLC (n = 245; median age, 76 years; T1N0M0, n = 155; T2N0M0, n = 90) were treated with hypofractionated high-dose STI in 13 institutions. Stereotactic three-dimensional treatment was performed using noncoplanar dynamic arcs or multiple static ports. A total dose of 18-75 gray (Gy) at the isocenter was administered in 1-22 fractions. The median calculated biologic effective dose (BED) was 108 Gy (range, 57-180 Gy). RESULTS: During follow-up (median, 24 months; range, 7-78 months), pulmonary complications of National Cancer Institute-Common Toxicity Criteria Grade > 2 were observed in only 6 patients (2.4%). Local progression occurred in 33 patients (14.5%), and the local recurrence rate was 8.1% for BED > or = 100 Gy compared with 26.4% for < 100 Gy (P < 0.05). The 3-year overall survival rate of medically operable patients was 88.4% for BED > or = 100 Gy compared with 69.4% for < 100 Gy (P < 0.05). CONCLUSIONS: Hypofractionated high-dose STI with BED < 150 Gy was feasible and beneficial for curative treatment of patients with Stage I NSCLC. For all treatment methods and schedules, local control and survival rates were better with BED > or = 100 Gy compared with < 100 Gy. Survival rates in selected patients (medically operable, BED > or = 100 Gy) were excellent, and were potentially comparable to those of surgery.

Aspirin Use, Tumor<i>PIK3CA</i>Mutation, and Colorectal-Cancer Survival
Xiaoyun Liao, Paul Lochhead, Reiko Nishihara, Teppei Morikawa +4 more
2012· New England Journal of Medicine843doi:10.1056/nejmoa1207756

BACKGROUND: Regular use of aspirin after a diagnosis of colon cancer has been associated with a superior clinical outcome. Experimental evidence suggests that inhibition of prostaglandin-endoperoxide synthase 2 (PTGS2) (also known as cyclooxygenase-2) by aspirin down-regulates phosphatidylinositol 3-kinase (PI3K) signaling activity. We hypothesized that the effect of aspirin on survival and prognosis in patients with cancers characterized by mutated PIK3CA (the phosphatidylinositol-4,5-bisphosphonate 3-kinase, catalytic subunit alpha polypeptide gene) might differ from the effect among those with wild-type PIK3CA cancers. METHODS: We obtained data on 964 patients with rectal or colon cancer from the Nurses' Health Study and the Health Professionals Follow-up Study, including data on aspirin use after diagnosis and the presence or absence of PIK3CA mutation. We used a Cox proportional-hazards model to compute the multivariate hazard ratio for death. We examined tumor markers, including PTGS2, phosphorylated AKT, KRAS, BRAF, microsatellite instability, CpG island methylator phenotype, and methylation of long interspersed nucleotide element 1. RESULTS: Among patients with mutated-PIK3CA colorectal cancers, regular use of aspirin after diagnosis was associated with superior colorectal cancer-specific survival (multivariate hazard ratio for cancer-related death, 0.18; 95% confidence interval [CI], 0.06 to 0.61; P<0.001 by the log-rank test) and overall survival (multivariate hazard ratio for death from any cause, 0.54; 95% CI, 0.31 to 0.94; P=0.01 by the log-rank test). In contrast, among patients with wild-type PIK3CA, regular use of aspirin after diagnosis was not associated with colorectal cancer-specific survival (multivariate hazard ratio, 0.96; 95% CI, 0.69 to 1.32; P=0.76 by the log-rank test; P=0.009 for interaction between aspirin and PIK3CA variables) or overall survival (multivariate hazard ratio, 0.94; 95% CI, 0.75 to 1.17; P=0.96 by the log-rank test; P=0.07 for interaction). CONCLUSIONS: Regular use of aspirin after diagnosis was associated with longer survival among patients with mutated-PIK3CA colorectal cancer, but not among patients with wild-type PIK3CA cancer. The findings from this molecular pathological epidemiology study suggest that the PIK3CA mutation in colorectal cancer may serve as a predictive molecular biomarker for adjuvant aspirin therapy. (Funded by The National Institutes of Health and others.).

Cancer classification using the Immunoscore: a worldwide task force
Jérôme Galon, Franck Pagès, Francesco M. Marincola, Helen K. Angell +4 more
2012· Journal of Translational Medicine803doi:10.1186/1479-5876-10-205

Prediction of clinical outcome in cancer is usually achieved by histopathological evaluation of tissue samples obtained during surgical resection of the primary tumor. Traditional tumor staging (AJCC/UICC-TNM classification) summarizes data on tumor burden (T), presence of cancer cells in draining and regional lymph nodes (N) and evidence for metastases (M). However, it is now recognized that clinical outcome can significantly vary among patients within the same stage. The current classification provides limited prognostic information, and does not predict response to therapy. Recent literature has alluded to the importance of the host immune system in controlling tumor progression. Thus, evidence supports the notion to include immunological biomarkers, implemented as a tool for the prediction of prognosis and response to therapy. Accumulating data, collected from large cohorts of human cancers, has demonstrated the impact of immune-classification, which has a prognostic value that may add to the significance of the AJCC/UICC TNM-classification. It is therefore imperative to begin to incorporate the 'Immunoscore' into traditional classification, thus providing an essential prognostic and potentially predictive tool. Introduction of this parameter as a biomarker to classify cancers, as part of routine diagnostic and prognostic assessment of tumors, will facilitate clinical decision-making including rational stratification of patient treatment. Equally, the inherent complexity of quantitative immunohistochemistry, in conjunction with protocol variation across laboratories, analysis of different immune cell types, inconsistent region selection criteria, and variable ways to quantify immune infiltration, all underline the urgent requirement to reach assay harmonization. In an effort to promote the Immunoscore in routine clinical settings, an international task force was initiated. This review represents a follow-up of the announcement of this initiative, and of the J Transl Med. editorial from January 2012. Immunophenotyping of tumors may provide crucial novel prognostic information. The results of this international validation may result in the implementation of the Immunoscore as a new component for the classification of cancer, designated TNM-I (TNM-Immune).

Comparing antibody and small-molecule therapies for cancer
Kohzoh Imai, Akinori Takaoka
2006· Nature reviews. Cancer788doi:10.1038/nrc1913

Several small-molecule inhibitors and monoclonal antibodies are now approved for the therapy of various cancers. Focusing on the example of the epidermal growth factor receptor inhibitors, this Review compares and contrasts these two classes of agents. The 'magic bullet' concept of specifically targeting cancer cells at the same time as sparing normal tissues is now proven, as several monoclonal antibodies and targeted small-molecule compounds have been approved for cancer treatment. Both antibodies and small-molecule compounds are therefore promising tools for target-protein-based cancer therapy. We discuss and compare the distinctive properties of these two therapeutic strategies so as to provide a better view for the development of new drugs and the future direction of cancer therapy.

Nucleocytoplasmic Shuttling of the NAD+-dependent Histone Deacetylase SIRT1
Masaya Tanno, Jun Sakamoto, Tetsuji Miura, Kazuaki Shimamoto +1 more
2007· Journal of Biological Chemistry766doi:10.1074/jbc.m609554200

Sir2 (silent information regulator 2) is an NAD+-dependent histone deacetylase that contributes to longevity in yeast. SIRT1, a mammalian Sir2 ortholog, deacetylates histones and various transcription factors, including p53, FOXO proteins, and peroxisome proliferator-activated receptor-γ. We found that its subcellular localization varied in different tissues of the adult mouse. Some subsets of neurons predominantly expressed SIRT1 in the cytoplasm, but ependymal cells expressed it in both the nucleus and cytoplasm. On the other hand, spermatocytes expressed SIRT1 only in the nucleus. Cardiomyocytes in the day 12.5 mouse embryo expressed SIRT1 exclusively in the nucleus, but in the adult heart, they expressed it in both the cytoplasm and nucleus. C2C12 myoblast cells expressed SIRT1 in the nucleus, but it localized to the cytoplasm after differentiation. LY294002, an inhibitor of phosphoinositide 3-hydroxykinase, strongly inhibited the nuclear localization of SIRT1 in undifferentiated C2C12 cells. In a heterokaryon assay, SIRT1 shuttled between the nucleus and cytoplasm, and leptomycin B, an inhibitor of CRM1-mediated nuclear exportation, inhibited this shuttling. Two nuclear localization signals and two nuclear signals and nuclear SIRT1 the of histone in C2C12 cells. only the nuclear the of C2C12 cells an that is a of SIRT1, in and in of Sir2 (silent information regulator 2) is an NAD+-dependent histone deacetylase that contributes to longevity in yeast. SIRT1, a mammalian Sir2 ortholog, deacetylates histones and various transcription factors, including p53, FOXO proteins, and peroxisome proliferator-activated receptor-γ. We found that its subcellular localization varied in different tissues of the adult mouse. Some subsets of neurons predominantly expressed SIRT1 in the cytoplasm, but ependymal cells expressed it in both the nucleus and cytoplasm. On the other hand, spermatocytes expressed SIRT1 only in the nucleus. Cardiomyocytes in the day 12.5 mouse embryo expressed SIRT1 exclusively in the nucleus, but in the adult heart, they expressed it in both the cytoplasm and nucleus. C2C12 myoblast cells expressed SIRT1 in the nucleus, but it localized to the cytoplasm after differentiation. LY294002, an inhibitor of phosphoinositide 3-hydroxykinase, strongly inhibited the nuclear localization of SIRT1 in undifferentiated C2C12 cells. In a heterokaryon assay, SIRT1 shuttled between the nucleus and cytoplasm, and leptomycin B, an inhibitor of CRM1-mediated nuclear exportation, inhibited this shuttling. Two nuclear localization signals and two nuclear signals and nuclear SIRT1 the of histone in C2C12 cells. only the nuclear the of C2C12 cells an that is a of SIRT1, in and in of Sir2 (silent information regulator 2) a of histone found in to and histone the Sir2 the In Sir2 in Sir2 the of in the and the of a of the in to and the Sir2 an in this of the Sir2 of SIRT1 is the of SIRT1 in and in peroxisome proliferator-activated SIRT1 deacetylates the transcription the of and the of SIRT1 contributes to and the of the of FOXO is SIRT1, SIRT1 the of and of SIRT1 it deacetylates and a transcription that the of myoblast cells a of SIRT1 and in various including heart, and an SIRT1 in to a nuclear it is localized exclusively to the nucleus in cells and in cells SIRT1 the localization of SIRT1 in and in the subcellular localization of Sir2 the subcellular localization of SIRT1 and in to and SIRT1 deacetylates histones and various transcription factors, its subcellular localization its of to and of the nucleus, that the of the nuclear of a is a nuclear localization nuclear localization nuclear phosphoinositide leptomycin nuclear localization nuclear phosphoinositide leptomycin in the is a of and a is the of two of a of of the nucleus is nuclear signals of is a of and the subcellular localization of a the of the In is to an in this of this that the subcellular localization of SIRT1 in various tissues and cells. the of SIRT1 in SIRT1 is to the cytoplasm the of C2C12 myoblast cells. We found that the phosphoinositide the subcellular localization of LY294002, an inhibitor of the localization of SIRT1 in C2C12 the nuclear of SIRT1 We a heterokaryon to that SIRT1 is a We two and two in SIRT1 and of nuclear SIRT1 inhibited a of the of SIRT1 to a in the of and in and in to in and in a and a to in and the and and and day mouse and in of the cells and nuclear a mammalian histone histone and and cells in of the C2C12 cells a the cells of the leptomycin cells in and its and in cells and in the cells cells to the cells in a and and the cells the of and cells in the of the the of mouse SIRT1 its the the and and the SIRT1 and the and a and cells an in of the in a in the of the of the subcellular localization of SIRT1 in adult mouse and in cells of the SIRT1 expressed in the cytoplasm and in ependymal it expressed in both the cytoplasm and nucleus On the other hand, spermatocytes and expressed SIRT1 only in We the subcellular localization of SIRT1 localized exclusively to the nucleus in the of day 12.5 In the of adult and nuclear SIRT1 the in SIRT1 subcellular of day and adult SIRT1 only in the nuclear in the In the of the in the in the nuclear in the adult and SIRT1 the nucleus to the cytoplasm in in the myoblast expressed only in the nucleus in of the cells. after of the cells expressed in the cytoplasm of SIRT1 that SIRT1 the nucleus to the cytoplasm in to the that SIRT1 a localization of and SIRT1 in C2C12 cells. of and SIRT1, nuclear and B, of and the subcellular of C2C12 cells that the of SIRT1, strongly inhibited of C2C12 after of and is heterokaryon and and and and the of cells in the and of other and the FOXO that the subcellular of SIRT1 We the of various the localization of in C2C12 cells and found that LY294002, an inhibitor of the nucleus In the nuclear of an of the to cells LY294002, in the nucleus of of of and the the of a of inhibited the of of that the subcellular localization of SIRT1 the the of SIRT1, a heterokaryon and both of SIRT1 exclusively in the nucleus. cells SIRT1 shuttled between the nucleus and the cytoplasm in the found only in the nucleus, but in the nucleus. in in that in of the the cells it the nucleus the heterokaryon a of the the of an and this is inhibited inhibited the of the nucleus to the nucleus in the of in its p53, a the nuclear of the of that nuclear that SIRT1 is an of the in the nucleus. We the of SIRT1 to of a of Two found in and to and and a of and expressed in cells and the both and and expressed exclusively in the nucleus and the of and and in the of the to both the cytoplasm and nucleus. both and the localized to the cytoplasm that both and and that the nuclear localization of the both of the the SIRT1 of the to the the of and cells the after the cells and B, of and of the the and the and and cells the and and in the two in and to a that to the nucleus and cytoplasm the in to an of to the cytoplasm and nucleus of and in the localization of the both and in the nuclear of of the in inhibited the nuclear of SIRT1 SIRT1 is to an of a the of the in SIRT1, of and cells SIRT1 that the two exclusively nuclear localization it to the of an only nuclear both the SIRT1 of the to the B, cells the in after the cells and of cells in the nucleus in both the nucleus and cytoplasm and in the cytoplasm cells of and and the of in cells in in this of in subcellular the of cells in the nucleus in both the nucleus and cytoplasm, and in the cytoplasm and the of in the of cells the of SIRT1 and subcellular of the cells the in the cytoplasm in the cytoplasm in that the nuclear of this is an a subcellular to an is in the of the expressed in the cytoplasm in of the cells In expressed in the cytoplasm and that between and of the and of and to and and the of the of and and the of cells that expressed in the nucleus to and to In the of cells in the cytoplasm to and to and that both and of and in of of the of and and and the B, of the the and and cells the and in of cells in the nucleus in both the nucleus and cytoplasm and in the cytoplasm cells of and and the the of in nuclear in in nuclear in the nuclear of and and and the of cells the in the cytoplasm to a and the of to and that both and nuclear and the nuclear the heterokaryon cells cells of the expressed the in the of the nuclear of the the In only of the that that nuclear the in and the nuclear only of the that of the the heterokaryon of the of the and and and and B, of the the and the and cells cells that and and and in the of cells nuclear in a and but in and of the of the of the of SIRT1, and in the nucleus and cytoplasm, expressed in C2C12 cells the of the deacetylase of SIRT1, a SIRT1 in the nucleus deacetylase of SIRT1 and its that and histone of nuclear SIRT1 the of histone the other and the of histone of SIRT1 the of and histone in the C2C12 cells that only nuclear SIRT1 histone of the nuclear of C2C12 cells a a of SIRT1 after the cells and and and and in the cells of and cells the but B, of cells cells and the in in the after that strongly inhibited the and of of histone nuclear C2C12 myoblast cells a a of SIRT1 and the histone the of histone histone of histone and and histone of histone the cells an inhibitor of and histone in to We the of the subcellular localization and of SIRT1 the in C2C12 cells of the and the of C2C12 cells and and the cells the the of that only of the cells the the this of nuclear SIRT1 the of the the to of that and this the of nuclear SIRT1 SIRT1 in in the cells of the the cells the SIRT1 a only nuclear SIRT1 a in C2C12 subcellular localization of SIRT1 to in cells nuclear of SIRT1, but expressed it in the cytoplasm in both the nucleus and cytoplasm. subcellular localization of SIRT1 two and two in its and the We found that only nuclear SIRT1 in histone and the Sir2 to its subcellular localization it is expressed in both the cytoplasm and it to the cytoplasm and it is to in both We found that Sir2 two in and and in a and and the of Sir2 and to that of in mouse SIRT1, Sir2 only two but that to and of mouse the of Sir2 a that is to this the of the of the that both the heterokaryon that only the nuclear that in SIRT1, but it the of a of localization of SIRT1 that the is in C2C12 cells. In found that in C2C12 cells of in the of that of and its to nuclear in the of two that nuclear SIRT1 the in C2C12 myoblast cells in the nuclear of SIRT1 an in and is in SIRT1 the nucleus and in SIRT1 cells in this is the SIRT1 is to and p53, in the of in cells in the of SIRT1 the of the the of of nuclear SIRT1 cells and and the nucleus, in SIRT1 to the of FOXO it is that SIRT1 and FOXO an found that the of SIRT1 that of FOXO a a transcription in the nucleus and it is is its nuclear localization both and other and of the localization of SIRT1 is of histone transcription that histone nuclear of SIRT1 and its localization to the of transcription SIRT1 to and a transcription the of SIRT1 the nucleus the of in differentiation. that SIRT1 the nucleus the of C2C12 cells is in this the of SIRT1 a its the nuclear of SIRT1 the to of the of SIRT1 to its nuclear a Sir2 (silent information regulator 2) a of histone found in to and histone the Sir2 the In Sir2 in Sir2 the of in the and the of a of the in to and the Sir2 an in this In of the Sir2 of SIRT1 is the of SIRT1 in and in peroxisome proliferator-activated SIRT1 deacetylates the transcription the of and the of SIRT1 contributes to and the of the of FOXO is SIRT1, SIRT1 the of and of SIRT1 it deacetylates and a transcription that the of myoblast cells a of SIRT1 and in various including heart, and an SIRT1 in differentiation. SIRT1 to a nuclear it is localized exclusively to the nucleus in cells and in cells SIRT1 the localization of SIRT1 in and in the subcellular localization of Sir2 the subcellular localization of SIRT1 and in to and SIRT1 deacetylates histones and various transcription factors, its subcellular localization its of to and of the nucleus, that the of the nuclear of a is a nuclear localization nuclear localization nuclear phosphoinositide leptomycin nuclear localization nuclear phosphoinositide leptomycin in the is a of and a is the of two of a of of the nucleus is nuclear signals of is a of and the subcellular localization of a the of the In is to an in this of In this that the subcellular localization of SIRT1 in various tissues and cells. the of SIRT1 in SIRT1 is to the cytoplasm the of C2C12 myoblast cells. We found that the phosphoinositide the subcellular localization of LY294002, an inhibitor of the localization of SIRT1 in C2C12 the nuclear of SIRT1 We a heterokaryon to that SIRT1 is a We two and two in SIRT1 and of nuclear SIRT1 inhibited a of the of SIRT1 to a in the of and in and in to in and in a and a to in and the and and and day mouse and in of the cells and nuclear a mammalian histone histone and and cells in of the C2C12 cells a the cells of the leptomycin cells in and its and in cells and in the cells cells to the cells in a and and the cells the of and cells in the of the the of mouse SIRT1 its the the and and the SIRT1 and the and a and cells an in of the in a in the of the and in and in to in and in a and a to in and the and and and day mouse and in of the cells and nuclear a mammalian histone histone and and cells in of the C2C12 cells a the cells of the leptomycin cells in and its and in cells and in the cells cells to the cells in a and and the cells the of and cells in the of the the of mouse SIRT1 its the the and and the SIRT1 and the and a and cells an in of the in a in the of the of the subcellular localization of SIRT1 in adult mouse and in cells of the SIRT1 expressed in the cytoplasm and in ependymal it expressed in both the cytoplasm and nucleus On the other hand, spermatocytes and expressed SIRT1 only in We the subcellular localization of SIRT1 localized exclusively to the nucleus in the of day 12.5 In the of adult and nuclear SIRT1 the in SIRT1 subcellular of day and adult SIRT1 only in the nuclear in the In the of the in the in the nuclear in the adult and SIRT1 the nucleus to the cytoplasm in in the myoblast expressed only in the nucleus in of the cells. after of the cells expressed in the cytoplasm of SIRT1 that SIRT1 the nucleus to the cytoplasm in to the that SIRT1 a other and the FOXO that the subcellular of SIRT1 We the of various the localization of in C2C12 cells and found that LY294002, an inhibitor of the nucleus In the nuclear of an of the to cells LY294002, in the nucleus of of of and the the of a of inhibited the of of that the subcellular localization of SIRT1 the the of SIRT1, a heterokaryon and both of SIRT1 exclusively in the nucleus. cells SIRT1 shuttled between the nucleus and the cytoplasm in the found only in the nucleus, but in the nucleus. in in that in of the the cells it the nucleus the heterokaryon a of the the of an and this is inhibited inhibited the of the nucleus to the nucleus in the of in its p53, a the nuclear of the of that nuclear that SIRT1 is an of the in the nucleus. We the of SIRT1 to of a of Two found in and to and and a of and expressed in cells and the both and and expressed exclusively in the nucleus and the of and and in the of the to both the cytoplasm and nucleus. both and the localized to the cytoplasm that both and and that the nuclear localization of the both of the the SIRT1 of the to the the of and cells the after the cells and B, of and of the the and the and and cells the and and in the two in and to a that to the nucleus and cytoplasm the in to an of to the cytoplasm and nucleus of and in the localization of the both and in the nuclear of of the in inhibited the nuclear of SIRT1 SIRT1 is to an of a the of the in SIRT1, of and cells SIRT1 that the two exclusively nuclear localization it to the of an only nuclear both the SIRT1 of the to the B, cells the in after the cells and of cells in the nucleus in both the nucleus and cytoplasm and in the cytoplasm cells of and and the of in cells in in this of in subcellular the of cells in the nucleus in both the nucleus and cytoplasm, and in the cytoplasm and the of in the of cells the of SIRT1 and subcellular of the cells the in the cytoplasm in the cytoplasm in that the nuclear of this is an a subcellular to an is in the of the expressed in the cytoplasm in of the cells In expressed in the cytoplasm and that between and of the and of and to and and the of the of and and the of cells that expressed in the nucleus to and to In the of cells in the cytoplasm to and to and that both and of and in of of the of and and and the B, of the the and and cells the and in of cells in the nucleus in both the nucleus and cytoplasm and in the cytoplasm cells of and and the the of in nuclear in in nuclear in the nuclear of and and and the of cells the in the cytoplasm to a and the of to and that both and nuclear and the nuclear the heterokaryon cells cells of the expressed the in the of the nuclear of the the In only of the that that nuclear the in and the nuclear only of the that of the the heterokaryon of the of the and and and and B, of the the and the and cells cells that and and and in the of cells nuclear in a and but in and of the of the of the of SIRT1, and in the nucleus and cytoplasm, expressed in C2C12 cells the of the deacetylase of SIRT1, a SIRT1 in the nucleus deacetylase of SIRT1 and its that and histone of nuclear SIRT1 the of histone the other and the of histone of SIRT1 the of and histone in the C2C12 cells that only nuclear SIRT1 histone of the nuclear of C2C12 cells a a of SIRT1 after the cells and and and and in the cells of and cells the but B, of cells cells and the in in the after that strongly inhibited the and of of histone nuclear C2C12 myoblast cells a a of SIRT1 and the histone the of histone histone of histone and and histone of histone the cells an inhibitor of and histone in to We the of the subcellular localization and of SIRT1 the in C2C12 cells of the and the of C2C12 cells and and the cells the the of that only of the cells the the this of nuclear SIRT1 the of the the to of that and this the of nuclear SIRT1 SIRT1 in in the cells of the the cells the SIRT1 a only nuclear SIRT1 a in C2C12 cells. of the subcellular localization of SIRT1 in adult mouse and in cells of the SIRT1 expressed in the cytoplasm and in ependymal it expressed in both the cytoplasm and nucleus On the other hand, spermatocytes and expressed SIRT1 only in We the subcellular localization of SIRT1 localized exclusively to the nucleus in the of day 12.5 In the of adult and nuclear SIRT1 the in SIRT1 subcellular of day and adult SIRT1 only in the nuclear in the In the of the in the in the nuclear in the adult and We SIRT1 the nucleus to the cytoplasm in in the myoblast expressed only in the nucleus in of the cells. after of the cells expressed in the cytoplasm of SIRT1 that SIRT1 the nucleus to the cytoplasm in to the that SIRT1 a other and the FOXO that the subcellular of SIRT1 We the of various the localization of in C2C12 cells and found that LY294002, an inhibitor of the nucleus In the nuclear of an of the to cells LY294002, in the nucleus of of of and the the of a of inhibited the of of that the subcellular localization of SIRT1 the the of SIRT1, a heterokaryon and both of SIRT1 exclusively in the nucleus. cells SIRT1 shuttled between the nucleus and the cytoplasm in the found only in the nucleus, but in the nucleus. in in that in of the the cells it the nucleus the heterokaryon cytoplasm. a of the the of an and this is inhibited inhibited the of the nucleus to the nucleus in the of in its p53, a the nuclear of the of that nuclear that SIRT1 is an of the in the nucleus. We the of SIRT1 to of a of Two found in and to and and a of and expressed in cells and the both and and expressed exclusively in the nucleus and the of and and in the of the to both the cytoplasm and nucleus. both and the localized to the cytoplasm that both and and that the nuclear localization of the both We in the two in and to a that to the nucleus and cytoplasm the in to an of to the cytoplasm and nucleus of and in the localization of the both and in the nuclear of of the in inhibited the nuclear of SIRT1 SIRT1 is to an of a the of the in SIRT1, of and cells SIRT1 that the two exclusively nuclear localization it to the of an only nuclear both In this of in subcellular the of cells in the nucleus in both the nucleus and cytoplasm, and in the cytoplasm and the of in the of cells the of SIRT1 and subcellular of the cells the in the cytoplasm in the cytoplasm in that the nuclear of this is an a subcellular to an We is in the of the expressed in the cytoplasm in of the cells In expressed in the cytoplasm and that between and of the and of and to and and the of the of and and the of cells that expressed in the nucleus to and to In the of cells in the cytoplasm to and to and that both and the nuclear of and and and the of cells the in the cytoplasm to a and the of to and that both and nuclear We and the nuclear the heterokaryon cells cells of the expressed the in the of the nuclear of the the In only of the that that nuclear the in and the nuclear only of the that of the of the of the of SIRT1, and in the nucleus and cytoplasm, expressed in C2C12 cells the of the deacetylase of SIRT1, a SIRT1 in the nucleus deacetylase of SIRT1 and its that and histone of nuclear SIRT1 the of histone the other and the of histone of SIRT1 the of and histone in the C2C12 cells that only nuclear SIRT1 histone SIRT1 in to We the of the subcellular localization and of SIRT1 the in C2C12 cells of the and the of C2C12 cells and and the cells the the of that only of the cells the the this of nuclear SIRT1 the of the the to of that and this the of nuclear SIRT1 SIRT1 in in the cells of the the cells the SIRT1 a only nuclear SIRT1 a in C2C12 cells. subcellular localization of SIRT1 to in cells nuclear of SIRT1, but expressed it in the cytoplasm in both the nucleus and cytoplasm. subcellular localization of SIRT1 two and two in its and the We found that only nuclear SIRT1 in histone and the Sir2 to its subcellular localization it is expressed in both the cytoplasm and it to the cytoplasm and it is to in both We found that Sir2 two in and and in a and and the of Sir2 and to that of in mouse SIRT1, Sir2 only two but that to and of mouse the of Sir2 a that is to this the of the of the that both the heterokaryon that only the nuclear that in SIRT1, but it the of a of localization of SIRT1 that the is in C2C12 cells. In found that in C2C12 cells of in the of that of and its to nuclear in the of two that nuclear SIRT1 the in C2C12 myoblast cells in the nuclear of SIRT1 an in and is in SIRT1 the nucleus and in SIRT1 cells in this is the SIRT1 is to and p53, in the of in cells in the of SIRT1 the of the the of of nuclear SIRT1 cells and and the nucleus, in SIRT1 to the of FOXO it is that SIRT1 and FOXO an found that the of SIRT1 that of FOXO a a transcription in the nucleus and it is is its nuclear localization both and other and of the localization of SIRT1 is of histone transcription that histone nuclear of SIRT1 and its localization to the of transcription SIRT1 to and a transcription the of SIRT1 the nucleus the of in differentiation. that SIRT1 the nucleus the of C2C12 cells is in this the of SIRT1 a its the nuclear of SIRT1 the to of the of SIRT1 to its nuclear a subcellular localization of SIRT1 to in cells nuclear of SIRT1, but expressed it in the cytoplasm in both the nucleus and cytoplasm. subcellular localization of SIRT1 two and two in its and the We found that only nuclear SIRT1 in histone and the Sir2 to its subcellular localization it is expressed in both the cytoplasm and it to the cytoplasm and it is to in both We found that Sir2 two in and and in a and and the of Sir2 and to that of in mouse SIRT1, Sir2 only two but that to and of mouse the of Sir2 a that is to yeast. In this the of the of the that both the heterokaryon that only the nuclear that in SIRT1, but it the of a of localization of SIRT1 that the is in C2C12 cells. In found that in C2C12 cells of in the of that of and its to nuclear in the of two We that nuclear SIRT1 the in C2C12 myoblast cells in the nuclear of SIRT1 an in and is in SIRT1 the nucleus and in SIRT1 cells in this is the SIRT1 is to and p53, in the of in cells in the of SIRT1 the of the the of of nuclear SIRT1 cells and and the nucleus, in SIRT1 to the of FOXO it is that SIRT1 and FOXO an found that the of SIRT1 that of FOXO a a transcription in the nucleus and it is is its nuclear localization both and other and of the localization of SIRT1 is of histone transcription that histone nuclear of SIRT1 and its localization to the of transcription SIRT1 to and a transcription the of SIRT1 the nucleus the of in differentiation. that SIRT1 the nucleus the of C2C12 cells is in this In the of SIRT1 a its the nuclear of SIRT1 the to of the of SIRT1 to its nuclear a

Recommendations for the nomenclature of IgG4‐related disease and its individual organ system manifestations
John H. Stone, Arezou Khosroshahi, Vikram Deshpande, John K. C. Chan +4 more
2012· Arthritis & Rheumatism726doi:10.1002/art.34593

John H. Stone, Arezou Khosroshahi, Vikram Deshpande, John K. C. Chan, J. Godfrey Heathcote, Rob Aalberse, Atsushi Azumi, Donald B. Bloch, William R. Brugge, Mollie N. Carruthers, Wah Cheuk, Lynn Cornell, Carlos Fernandez-Del Castillo, Judith A. Ferry, David Forcione, Gunter Kloppel, Daniel L. Hamilos, Terumi Kamisawa, Satomi Kasashima, Shigeyuki Kawa, Mitsuhiro Kawano, Yasufumi Masaki, Kenji Notohara, Kazuichi Okazaki, Ji Kon Ryu, Takako Saeki, Dushyant Sahani, Yasuharu Sato, Thomas Smyrk, James R. Stone, Masayuki Takahira, Hisanori Umehara, George Webster, Motohisa Yamamoto, Eunhee Yi, Tadashi Yoshino, Giuseppe Zamboni, Yoh Zen, and Suresh Chari