Human Cytogenetics Prenatal Diagnostics
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Clinical Candidates Targeting the ATR–CHK1–WEE1 Axis in Cancer
cancers Review Clinical Candidates Targeting the ATR–CHK1–WEE1 Axis in Cancer Lukas Gorecki 1 , Martin Andrs 1,2 and Jan Korabecny 1,* 1 Biomedical Research Center, University Hospital Hradec Kralove, Sokolska 581, 500 05 Hradec Kralove, Czech Republic; [email protected] (L.G.); [email protected] (M.A.) 2 Laboratory of Cancer Cell Biology, Institute of Molecular Genetics of the Czech Academy of Sciences, Videnska 1083, 142 00 Prague, Czech Republic * Correspondence: [email protected]; Tel.: +420-495-833-447 Simple Summary: Selective killing of cancer cells is privileged mainstream in cancer treatment and targeted therapy represents the new tool with a potential to pursue this aim. It can also aid to overcome resistance of conventional chemo- or radio-therapy. Common mutations of cancer cells (defective G1 control) favor inhibiting intra-S and G2/M-checkpoints, which are regulated by ATR–CHK1–WEE1 pathway. The ATR–CHK1–WEE1 axis has produced several clinical candidates currently undergoing clinical trials in phase II. Clinical results from randomized trials by ATR and WEE1 inhibitors warrant ongoing clinical trials in phase III. Abstract: Selective killing of cancer cells while sparing healthy ones is the principle of the perfect cancer treatment and the primary aim of many oncologists, molecular biologists, and medicinal chemists. To achieve this goal, it is crucial to understand the molecular mechanisms that distinguish cancer cells from healthy ones. Accordingly, several clinical candidates that use particular mutations in cell-cycle progressions have been developed to kill cancer cells. As the majority of cancer cells have defects in G1 control, targeting the subsequent intra-S or G2/M checkpoints has also been extensively Citation: Gorecki, L.; Andrs, M.; pursued. -
Functional Genomics Approaches to Elucidate Vulnerabilities of Intrinsic and Acquired Chemotherapy Resistance
cells Review Functional Genomics Approaches to Elucidate Vulnerabilities of Intrinsic and Acquired Chemotherapy Resistance Ronay Cetin 1,† , Eva Quandt 2,† and Manuel Kaulich 1,3,4,* 1 Institute of Biochemistry II, Goethe University Frankfurt-Medical Faculty, University Hospital, 60590 Frankfurt am Main, Germany; [email protected] 2 Faculty of Medicine and Health Sciences, Universitat Internacional de Catalunya, 08195 Barcelona, Spain; [email protected] 3 Frankfurt Cancer Institute, 60596 Frankfurt am Main, Germany 4 Cardio-Pulmonary Institute, 60590 Frankfurt am Main, Germany * Correspondence: [email protected]; Tel.: +49-(0)-69-6301-5450 † These authors contributed equally to this work. Abstract: Drug resistance is a commonly unavoidable consequence of cancer treatment that results in therapy failure and disease relapse. Intrinsic (pre-existing) or acquired resistance mechanisms can be drug-specific or be applicable to multiple drugs, resulting in multidrug resistance. The presence of drug resistance is, however, tightly coupled to changes in cellular homeostasis, which can lead to resistance-coupled vulnerabilities. Unbiased gene perturbations through RNAi and CRISPR technologies are invaluable tools to establish genotype-to-phenotype relationships at the genome scale. Moreover, their application to cancer cell lines can uncover new vulnerabilities that are associated with resistance mechanisms. Here, we discuss targeted and unbiased RNAi and CRISPR efforts in the discovery of drug resistance mechanisms by focusing on first-in-line chemotherapy and their enforced vulnerabilities, and we present a view forward on which measures should be taken to accelerate their clinical translation. Citation: Cetin, R.; Quandt, E.; Kaulich, M. Functional Genomics Keywords: chemotherapy resistance; cancer and drug vulnerabilities; functional genomics; RNAi Approaches to Elucidate Vulnerabilities of Intrinsic and and CRISPR screens Acquired Chemotherapy Resistance. -
WO 2018/067991 Al 12 April 2018 (12.04.2018) W !P O PCT
(12) INTERNATIONAL APPLICATION PUBLISHED UNDER THE PATENT COOPERATION TREATY (PCT) (19) World Intellectual Property Organization International Bureau (10) International Publication Number (43) International Publication Date WO 2018/067991 Al 12 April 2018 (12.04.2018) W !P O PCT (51) International Patent Classification: achusetts 021 15 (US). THE BROAD INSTITUTE, A61K 51/10 (2006.01) G01N 33/574 (2006.01) INC. [US/US]; 415 Main Street, Cambridge, Massachu C07K 14/705 (2006.01) A61K 47/68 (2017.01) setts 02142 (US). MASSACHUSETTS INSTITUTE OF G01N 33/53 (2006.01) TECHNOLOGY [US/US]; 77 Massachusetts Avenue, Cambridge, Massachusetts 02139 (US). (21) International Application Number: PCT/US2017/055625 (72) Inventors; and (71) Applicants: KUCHROO, Vijay K. [IN/US]; 30 Fairhaven (22) International Filing Date: Road, Newton, Massachusetts 02149 (US). ANDERSON, 06 October 2017 (06.10.2017) Ana Carrizosa [US/US]; 110 Cypress Street, Brookline, (25) Filing Language: English Massachusetts 02445 (US). MADI, Asaf [US/US]; c/o The Brigham and Women's Hospital, Inc., 75 Francis (26) Publication Language: English Street, Boston, Massachusetts 021 15 (US). CHIHARA, (30) Priority Data: Norio [US/US]; c/o The Brigham and Women's Hospital, 62/405,835 07 October 2016 (07.10.2016) US Inc., 75 Francis Street, Boston, Massachusetts 021 15 (US). REGEV, Aviv [US/US]; 15a Ellsworth Ave, Cambridge, (71) Applicants: THE BRIGHAM AND WOMEN'S HOSPI¬ Massachusetts 02139 (US). SINGER, Meromit [US/US]; TAL, INC. [US/US]; 75 Francis Street, Boston, Mass c/o The Broad Institute, Inc., 415 Main Street, Cambridge, (54) Title: MODULATION OF NOVEL IMMUNE CHECKPOINT TARGETS CD4 FIG. -
Actin Gesting That Cytoskeletal Laments May Be Exploited to Supplement Chemotherapeutic Approaches Currently Used Microfilaments in the Clinical Setting
Biochimica et Biophysica Acta 1846 (2014) 599–616 Contents lists available at ScienceDirect Biochimica et Biophysica Acta journal homepage: www.elsevier.com/locate/bbacan Review Exploiting the cytoskeletal filaments of neoplastic cells to potentiate a novel therapeutic approach Matthew Trendowski ⁎ Department of Biology, Syracuse University, 107 College Place, Syracuse, NY 13244, USA article info abstract Article history: Although cytoskeletal-directed agents have been a mainstay in chemotherapeutic protocols due to their ability to Received 2 August 2014 readily interfere with the rapid mitotic progression of neoplastic cells, they are all microtubule-based drugs, and Received in revised form 19 September 2014 there has yet to be any microfilament- or intermediate filament-directed agents approved for clinical use. There Accepted 21 September 2014 are many inherent differences between the cytoskeletal networks of malignant and normal cells, providing an Available online 5 October 2014 ideal target to attain preferential damage. Further, numerous microfilament-directed agents, and an intermediate fi fi Keywords: lament-directed agent of particular interest (withaferin A) have demonstrated in vitro and in vivo ef cacy, sug- fi Actin gesting that cytoskeletal laments may be exploited to supplement chemotherapeutic approaches currently used Microfilaments in the clinical setting. Therefore, this review is intended to expose academics and clinicians to the tremendous Intermediate filaments variety of cytoskeletal filament-directed agents that are currently available for further chemotherapeutic evalu- Drug synergy ation. The mechanisms by which microfilament directed- and intermediate filament-directed agents damage Chemotherapy malignant cells are discussed in detail in order to establish how the drugs can be used in combination with each other, or with currently approved chemotherapeutic agents to generate a substantial synergistic attack, potentially establishing a new paradigm of chemotherapeutic agents. -
(12) United States Patent (10) Patent No.: US 7,612,250 B2
US00761225OB2 (12) UnitedO States Patent (10) Patent No.: US 7,612,250 B2 Overstrom et al. (45) Date of Patent: Nov. 3, 2009 (54) NUCLEAR TRANSFER EMBRYO OTHER PUBLICATIONS FORMATION METHOD Ibanez et al. Biology of Reproduction, 2003, 68:1249-1258.* (75) Inventors: Eric W. Overstrom, Grafton, MA (US); Baguisi et al. Nature, May 1999, 17:456-461.* Daniela Fischer Russell, Guelph (CA) Lai. L. et al., “Feasibility of Producing Porcine Nuclear Transfer s Embryos by Using G2/M-Stage Fetal Fibroblasts as Donors.” Biol (73) Assignee: Trustees of Tufts College, Medford, MA ogy of Reproduction, 65:1558-1564 (2001). (US) Vogel, “Misguided Chromosomes Foil Primate Cloning.” Science, 300: 225 and 227 (2003). ( c ) Notice: Subj ect to any disclaimer, the term of this Simerly, Molecular Correlates of Primate Nuclear Transfer Fail atent is extended or adjusted under 35 ures,” et al., Science, 300: 297 (2003). p S.C. 154(b) by 103 days Zieve, et al., “Production of Large Numbers of Mitotic Mammalian M YW- y yS. Cells by Use of the Reversible Microtubule Inhibitor Nocodazole.” Exp. Cell Res., 126(2): 397-405 (1980). (21) Appl. No.: 10/208,653 Ibanez, E., et al., “Genetic Strain Variations in the Metaphase-II 1-1. Phenotype of Mouse Oocytes Matured in vivo or in vitro.” Repro (22) Filed: Jul. 29, 2002 duction, 130: 845-855 (2005). O O Gasparrin, B., et al., "Cloned Mice Derived from Embryonic Stem (65) Prior Publication Data Cell Karyoplasts and Activated Cytoplasts Prepared by Induced US 2004/OO19924 A1 Jan. 29, 2004 Enucleation.” Biology of Reproduction, 68: 1259-1266 (2003). -
Elevated MARCKS Phosphorylation Contributes to Unresponsiveness of Breast Cancer to Paclitaxel Treatment
www.impactjournals.com/oncotarget/ Oncotarget, Vol. 6, No. 17 Elevated MARCKS phosphorylation contributes to unresponsiveness of breast cancer to paclitaxel treatment Ching-Hsien Chen1, Chun-Ting Cheng2,3, Yuan Yuan4, Jing Zhai5, Muhammad Arif1, Lon Wolf R. Fong1, Reen Wu1 and David K. Ann2,3 1 Department of Internal Medicine, Division of Pulmonary and Critical Care Medicine and Center for Comparative Respiratory Biology and Medicine, University of California Davis, California, USA 2 Department of Molecular Pharmacology, Beckman Research Institute, City of Hope, Duarte, California, USA 3 Irell and Manella Graduate School of Biological Sciences, Beckman Research Institute, City of Hope, Duarte, California, USA 4 Department of Medical Oncology and Experimental Therapeutics, City of Hope Comprehensive Cancer Center, Duarte, California, USA 5 Department of Pathology, City of Hope Comprehensive Cancer Center, Duarte, California, USA Correspondence to: David K. Ann, email: [email protected] Correspondence to: Reen Wu, email: [email protected] Keywords: phospho-MARCKS, MANS peptide, paclitaxel, mitotic inhibitor, breast cancer Received: December 23, 2014 Accepted: March 26, 2015 Published: April 14, 2015 This is an open-access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited. ABSTRACT Accumulating evidence has suggested that myristoylated alanine-rich C-kinase substrate (MARCKS) is critical for regulating multiple pathophysiological processes. However, the molecular mechanism underlying increased phosphorylation of MARCKS at Ser159/163 (phospho-MARCKS) and its functional consequence in neoplastic disease remain to be established. Herein, we investigated how phospho-MARCKS is regulated in breast carcinoma, and its role in the context of chemotherapy. -
204820Orig1s000
CENTER FOR DRUG EVALUATION AND RESEARCH APPLICATION NUMBER: 204820Orig1s000 PHARMACOLOGY REVIEW(S) Secondary Pharmacology and Toxicology Review for NDA 204‐820 TO: NDA 204‐820 (Hikma Pharmaceuticals, LLC) FROM: Marcie Wood, Ph.D. Supervisory Pharmacologist Division of Pulmonary, Allergy, and Rheumatology Drug Products DATE: July 8, 2013 Overview: I concur with the recommendation of Dr. L. Steven Leshin (detailed in a nonclinical review dated July 1, 2013) that Mitigare (0.6 mg colchicine capsules) should be approved from a nonclinical perspective. Mitigare is a new formulation of colchicine (0.6 mg colchicine capsules) indicated for the prophylaxis of gout flares. Colchicine has a long history of clinical use for the treatment of gout. The applicant has submitted this application in response to an FDA drug safety initiative to bring marketed, unapproved drugs under NDA. No new nonclinical studies were submitted for review; rather, the applicant is relying on published nonclinical literature in support of this 505(b)(2) application. Toxicology: Historical information provided by the applicant from published animal and clinical studies indicated similar toxicities. In general, the acute toxic signs in animals (rats, dogs, rabbits, cats) with short‐term colchicine administration are gastrointestinal tract‐related. With increasing doses these signs become more severe, and there is a loss of body tone, abnormal gait and hindlimb paralysis, and wasting atrophy, ascites, and eventually death. However, the published nonclinical literature contained inadequate long‐term toxicology studies. Almost all the studies were conducted prior to GLP regulations and lack much of the information now routinely assessed, such as clinical pathology and histopathology findings. -
Pharmaceutical Appendix to the Tariff Schedule 2
Harmonized Tariff Schedule of the United States (2006) – Supplement 1 (Rev. 1) Annotated for Statistical Reporting Purposes PHARMACEUTICAL APPENDIX TO THE HARMONIZED TARIFF SCHEDULE Harmonized Tariff Schedule of the United States (2006) – Supplement 1 (Rev. 1) Annotated for Statistical Reporting Purposes PHARMACEUTICAL APPENDIX TO THE TARIFF SCHEDULE 2 Table 1. This table enumerates products described by International Non-proprietary Names (INN) which shall be entered free of duty under general note 13 to the tariff schedule. The Chemical Abstracts Service (CAS) registry numbers also set forth in this table are included to assist in the identification of the products concerned. For purposes of the tariff schedule, any references to a product enumerated in this table includes such product by whatever name known. Product CAS No. Product CAS No. ABACAVIR 136470-78-5 ACEXAMIC ACID 57-08-9 ABAFUNGIN 129639-79-8 ACICLOVIR 59277-89-3 ABAMECTIN 65195-55-3 ACIFRAN 72420-38-3 ABANOQUIL 90402-40-7 ACIPIMOX 51037-30-0 ABARELIX 183552-38-7 ACITAZANOLAST 114607-46-4 ABCIXIMAB 143653-53-6 ACITEMATE 101197-99-3 ABECARNIL 111841-85-1 ACITRETIN 55079-83-9 ABIRATERONE 154229-19-3 ACIVICIN 42228-92-2 ABITESARTAN 137882-98-5 ACLANTATE 39633-62-0 ABLUKAST 96566-25-5 ACLARUBICIN 57576-44-0 ABUNIDAZOLE 91017-58-2 ACLATONIUM NAPADISILATE 55077-30-0 ACADESINE 2627-69-2 ACODAZOLE 79152-85-5 ACAMPROSATE 77337-76-9 ACONIAZIDE 13410-86-1 ACAPRAZINE 55485-20-6 ACOXATRINE 748-44-7 ACARBOSE 56180-94-0 ACREOZAST 123548-56-1 ACEBROCHOL 514-50-1 ACRIDOREX 47487-22-9 ACEBURIC -
Inhibition of Polo-Like Kinase 4 Induces Mitotic Defects and DNA Damage in Diffuse Large B-Cell Lymphoma
www.nature.com/cddis ARTICLE OPEN Inhibition of Polo-like kinase 4 induces mitotic defects and DNA damage in diffuse large B-cell lymphoma 1 1 1 1 1 1 1 1,2,3,4,5,6 ✉ Yi Zhao , Juan Yang✉ , Jiarui Liu , Yiqing Cai , Yang Han , Shunfeng Hu , Shuai Ren , Xiangxiang Zhou and Xin Wang 1,2,3,4,5,6 © The Author(s) 2021 Polo-like kinase 4 (PLK4), a key regulator of centriole biogenesis, has recently been shown to play key roles in tumorigenesis. Blocking PLK4 expression by interference or targeted drugs exhibits attractive potential in improving the efficacy of chemotherapy. Nevertheless, the role of PLK4 in diffuse large B-cell lymphoma (DLBCL) is still undefined. In this study, we discover that PLK4 is a potential target for the treatment of DLBCL, and demonstrate the efficacy of a PLK4 inhibitor when used in combination with doxorubicin. Pharmaceutical inhibition of PLK4 with CFI-400945 inhibited DLBCL cell proliferation and induced apoptotic cell death. The anti-tumor effects were accompanied by mitotic defects, including polyploidy and cytokinesis failure. Activation of p53 and Hippo/YAP tumor suppressor signaling pathway was identified as the potential mechanisms driving CFI-400945 activity. Moreover, CFI-400945 treatment resulted in activation of DNA damage response. Combining CFI-400945 with doxorubicin markedly delayed tumor progression in DLBCL xenografts. Finally, PLK4 was increased in primary DLBCL tissues and cell lines. High levels of PLK4 expression were associated with poor survival in the patients receiving CHOP-based treatment, implicating PLK4 as a predictive biomarker of DLBCL chemosensitivity. These results provide the therapeutic potential of CFI-400945 both as monotherapy or in combination with doxorubicin for the treatment of DLBCL. -
Colcemid and the Mitotic Cycle
Journal of Cell Science 102, 387-392 (1992) 387 Printed in Great Britain © The Company of Biologists Limited 1992 COMMENTARY Colcemid and the mitotic cycle CONLY L. RIEDER* Wadsworth Center for Labs and Research, P.O. Box 509, Albany, NY 12201-0509, USA and Department of Biomedical Sciences, State University of New York, Albany, NY 12222, USA and ROBERT E. PALAZZO Marine Biological Laboratory, Woods Hole, MA 02543, USA *Author for correspondence at Wadsworth Center for Labs and Research Introduction been impacted by, recent and important findings on the control mechanisms by which the cell monitors progress The precise segregation of replicated chromosomes to through, and ultimately exits, mitosis (e.g. see Hartwell daughter cells during mitosis depends on the formation and Weinert, 1989; Murray and Kirschner, 1989). of a bipolar spindle composed primarily of microtubules The aim of this commentary is to oultine the process (MTs). Since MTs are highly dynamic structures whose of C-mitosis in plant and animal cells with an emphasis spatial organization is critical for proper spindle on new data that provide possible explanations for why function, physical and chemical agents that interfere various cell types behave differently during mitosis in with MT behavior invariably disrupt mitosis. Perhaps the presence of drugs that disrupt MT function. the most notable of these agents is colchicine, derived Although our focus is on colchicine/Colcemid, many of from plants of the genus Colchicum, which has long the conclusions may be applicable to similar drugs that been known to be a potent inhibitor of cell division disrupt mitosis through their action on MTs. -
Pharmaceutical Appendix to the Tariff Schedule 2
Harmonized Tariff Schedule of the United States (2007) (Rev. 2) Annotated for Statistical Reporting Purposes PHARMACEUTICAL APPENDIX TO THE HARMONIZED TARIFF SCHEDULE Harmonized Tariff Schedule of the United States (2007) (Rev. 2) Annotated for Statistical Reporting Purposes PHARMACEUTICAL APPENDIX TO THE TARIFF SCHEDULE 2 Table 1. This table enumerates products described by International Non-proprietary Names (INN) which shall be entered free of duty under general note 13 to the tariff schedule. The Chemical Abstracts Service (CAS) registry numbers also set forth in this table are included to assist in the identification of the products concerned. For purposes of the tariff schedule, any references to a product enumerated in this table includes such product by whatever name known. ABACAVIR 136470-78-5 ACIDUM LIDADRONICUM 63132-38-7 ABAFUNGIN 129639-79-8 ACIDUM SALCAPROZICUM 183990-46-7 ABAMECTIN 65195-55-3 ACIDUM SALCLOBUZICUM 387825-03-8 ABANOQUIL 90402-40-7 ACIFRAN 72420-38-3 ABAPERIDONUM 183849-43-6 ACIPIMOX 51037-30-0 ABARELIX 183552-38-7 ACITAZANOLAST 114607-46-4 ABATACEPTUM 332348-12-6 ACITEMATE 101197-99-3 ABCIXIMAB 143653-53-6 ACITRETIN 55079-83-9 ABECARNIL 111841-85-1 ACIVICIN 42228-92-2 ABETIMUSUM 167362-48-3 ACLANTATE 39633-62-0 ABIRATERONE 154229-19-3 ACLARUBICIN 57576-44-0 ABITESARTAN 137882-98-5 ACLATONIUM NAPADISILATE 55077-30-0 ABLUKAST 96566-25-5 ACODAZOLE 79152-85-5 ABRINEURINUM 178535-93-8 ACOLBIFENUM 182167-02-8 ABUNIDAZOLE 91017-58-2 ACONIAZIDE 13410-86-1 ACADESINE 2627-69-2 ACOTIAMIDUM 185106-16-5 ACAMPROSATE 77337-76-9 -
Section B Changed Classes/Guidelines Final
EPHMRA ANATOMICAL CLASSIFICATION GUIDELINES 2019 Section B Changed Classes/Guidelines Final Version Date of issue: 24th December 2018 1 A3 FUNCTIONAL GASTRO-INTESTINAL DISORDER DRUGS R2003 A3A PLAIN ANTISPASMODICS AND ANTICHOLINERGICS R1993 Includes all plain synthetic and natural antispasmodics and anticholinergics. A3B Out of use; can be reused. A3C ANTISPASMODIC/ATARACTIC COMBINATIONS This group includes combinations with tranquillisers, meprobamate and/or barbiturates except when they are indicated for disorders of the autonomic nervous system and neurasthenia, in which case they are classified in N5B4. A3D ANTISPASMODIC/ANALGESIC COMBINATIONS R1997 This group includes combinations with analgesics. Products also containing either tranquillisers or barbiturates and analgesics to be also classified in this group. Antispasmodics indicated exclusively for dysmenorrhoea are classified in G2X1. A3E ANTISPASMODICS COMBINED WITH OTHER PRODUCTS r2011 Includes all other combinations not specified in A3C, A3D and A3F. Combinations of antispasmodics and antacids are classified in A2A3; antispasmodics with antiulcerants are classified in A2B9. Combinations of antispasmodics with antiflatulents are classified here. A3F GASTROPROKINETICS r2013 This group includes products used for dyspepsia and gastro-oesophageal reflux. Compounds included are: alizapride, bromopride, cisapride, clebopride, cinitapride, domperidone, levosulpiride, metoclopramide, trimebutine. Prucalopride is classified in A6A9. Combinations of gastroprokinetics with other substances