David J. Calderwood
University of Nottingham
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Featured researches published by David J. Calderwood.
Bioorganic & Medicinal Chemistry Letters | 2000
Lee D. Arnold; David J. Calderwood; Richard W. Dixon; David N. Johnston; Joanne S Kamens; Rainer Munschauer; Paul Rafferty; Sheldon Ratnofsky
Pyrrolo[2,3-d]pyrimidines containing a 5-(4-phenoxyphenyl) substituent are potent and selective inhibitors of Ick in vitro; some compounds are selective for lck over src. Data are shown for two compounds demonstrating that they are potent and selective inhibitors of IL2 production in cells.
Bioorganic & Medicinal Chemistry Letters | 2002
Andrew Burchat; David J. Calderwood; Michael M. Friedman; Gavin C. Hirst; Biqin Li; Paul Rafferty; Kurt Ritter; Barbara S. Skinner
A series of para-substituted 3-phenyl pyrazolopyrimidines was synthesized and evaluated as inhibitors of lck. The nature of the substitution affected enzyme selectivity and potency for lck, src, kdr, and tie-2. The para-phenoxyphenyl analogue 2 is an orally active lck inhibitor with a bioavailability of 69% and exhibits an extended duration of action in animal models of T cell inhibition.
Bioorganic & Medicinal Chemistry Letters | 2002
David J. Calderwood; David N. Johnston; Rainer Munschauer; Paul Rafferty
A series of pyrrolo[2,3-d]pyrimidines was synthesized and evaluated as inhibitors of Lck. Lck accommodates a diverse set of substituents at N-7. Altering the substituent at N-7 provided compound 13, an orally available lck inhibitor which inhibited TCR mediated IL-2 production after oral dosing.
Tetrahedron Letters | 1997
David J. Calderwood; Roy V. Davies; Paul Rafferty; Helen L. Twigger; Helen M. Whelan
Abstract A simple and efficient process has been developed for the direct conversion of benzamides and thiobenzamides into tertiary carbinamines. A synthesis of benzonitriles from simple benzamides and a thiobenzamide is also described.
Bioorganic & Medicinal Chemistry Letters | 2010
Maria A. Argiriadi; Anna M. Ericsson; Christopher M. Harris; David Banach; David W. Borhani; David J. Calderwood; Megan Demers; Jennifer DiMauro; Richard W. Dixon; Jennifer Hardman; Silvia Kwak; Biqin Li; John A. Mankovich; Douglas Marcotte; Kelly D. Mullen; Baofu Ni; M. Pietras; Ramkrishna Sadhukhan; Silvino Sousa; Medha J. Tomlinson; Lu Wang; Tao Xiang; Robert V. Talanian
MK2 is a Ser/Thr kinase of significant interest as an anti-inflammatory drug discovery target. Here we describe the development of in vitro tools for the identification and characterization of MK2 inhibitors, including validation of inhibitor interactions with the crystallography construct and determination of the unique binding mode of 2,4-diaminopyrimidine inhibitors in the MK2 active site. Use of these tools in the optimization of a potent and selective inhibitor lead series is described in the accompanying Letter.
Bioorganic & Medicinal Chemistry Letters | 2010
Christopher M. Harris; Anna M. Ericsson; Maria A. Argiriadi; Claude Barberis; David W. Borhani; Andrew Burchat; David J. Calderwood; George A. Cunha; Richard W. Dixon; Kristine E. Frank; Eric F. Johnson; Joanne Kamens; Silvia Kwak; Biqin Li; Kelly D. Mullen; Denise C. Perron; Lu Wang; Neil Wishart; Xiaoyun Wu; Xiaolei Zhang; Tami R. Zmetra; Robert V. Talanian
We describe structure-based optimization of a series of novel 2,4-diaminopyrimidine MK2 inhibitors. Co-crystal structures (see accompanying Letter) demonstrated a unique inhibitor binding mode. Resulting inhibitors had IC(50) values as low as 19nM and moderate selectivity against a kinase panel. Compounds 15, 31a, and 31b inhibit TNFalpha production in peripheral human monocytes.
Cancer Research | 2016
Scott E. Warder; Shaun M. McLoughlin; T. Matthew Hansen; Paul L. Richardson; Denise Wilcox; Sadiya N. Addo; Hua Tang; Chaohong Sun; Andrew M. Petros; Sanjay C. Panchal; Chang H. Park; M. Shannon Duggan; Melanie J. Patterson; F. Greg Buchanan; Dong Cheng; Heather M. Davis; David J. Calderwood; Steven W. Elmore; Yu Shen
As part of a multi-year technology integration strategy to identify unprecedented targets, AbbVie has committed to building broad-endpoint profiling assays to enable phenotypic screening campaigns and compound prioritization. Early on, phenotypic cell-based screening employing a panel of protein-fragment complementation assays (PCAs) identified A-1107604 as a hit with potent activity against a subset of endpoints. While its activity profile had some commonalities with known anti-cancer agents, the overall profile of PCAs that were significantly and concomitantly modulated represented a unique signature. Further analysis revealed A-1107604 to have potent and selective activity in a panel of human tumor cell lines. Inhibitor affinity capture from cellular lysates coupled with mass spectrometry identified the BET family of proteins as the putative cellular targets of A-1107604. Binding was localized to the bromodomain of the target proteins using affinity capture-protease digestion and was confirmed by thermal shift assay, solution binding and X-ray crystallography. This binding was found to be highly selective when A-1107604 was counter-screened against a 150-member kinase panel and an 80-member receptor panel. To correlate target affinity with cellular efficacy, a series of analogs were prepared with affinities spanning 3 orders magnitude. Affinity for BRD4, a BET family member, strongly correlated with efficacy in human tumor cell lines. Finally, A-1107604 was evaluated in human tumor xenograft models where it demonstrated significant tumor growth inhibition. This discovery effort laid the foundation for our BET inhibitor program. Disclosures: All authors are employees of AbbVie. The design, study conduct, and financial support for this research were provided by AbbVie. AbbVie participated in the interpretation of data, review, and approval of the publication. Citation Format: Scott E. Warder, Shaun M. McLoughlin, T. Matthew Hansen, Paul L. Richardson, Denise M. Wilcox, Sadiya N. Addo, Hua Tang, Chaohong Sun, Andrew M. Petros, Sanjay C. Panchal, Chang H. Park, M. Shannon Duggan, Melanie J. Patterson, F. Greg Buchanan, Dong Cheng, Heather M. Davis, David J. Calderwood, Steven W. Elmore, Yu Shen. Discovery of BET family proteins as cancer targets using phenotypic-based profiling and affinity capture mass spectrometry. [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 3059.
Bioorganic & Medicinal Chemistry Letters | 2016
Michael Z. Hoemann; Noel S. Wilson; Maria A. Argiriadi; David Banach; Andrew Burchat; David J. Calderwood; Bruce Clapham; Phil B. Cox; David B. Duignan; Don Konopacki; Gagandeep Somal; Anil Vasudevan
A series of furano[3,2-d]pyrimidine Syk inhibitors were synthesized and optimized for their enzyme potency and selectivity versus other kinases. In addition, ADME properties were assessed and compounds were prepared with optimized profiles for in vivo experiments. Compound 23 was identified as having acceptable pharmacokinetic properties and demonstrated efficacy in a rat collagen induced arthritis model.
Archive | 2010
Neil Wishart; Maria A. Argiriadi; David J. Calderwood; Anna M. Ericsson; Bryan R. Fiamengo; Kristine E. Frank; Michael M. Friedman; Dawn M. George; Eric R. Goedken; Nathan S. Josephsohn; Biqin C. Li; Michael J. Morytko; Kent D. Stewart; Jeffrey W. Voss; Grier A. Wallace; Lu Wang; Kevin R. Woller
Archive | 2002
Gavin C. Hirst; Paul Rafferty; Kurt Ritter; David J. Calderwood; Neil Wishart; Lee D. Arnold; Michael M. Friedman