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Book
Inhibiting PARP as a Strategic Target in Cancer
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Year: 2016 Publisher: Frontiers Media SA

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Abstract

Poly-ADP ribose polymerase (PARP) proteins are critical mediators of DNA repair. Many traditional anti-cancer chemotherapy agents overwhelm a cell’s ability to repair DNA damage in order to kill proliferating malignant cells. Recent evidence suggests that cancers within and across tissue types have specific defects in DNA repair pathways, and that these defects may predispose for sensitivity and resistance to various classes of cytotoxic agents. Breast, ovarian and other cancers develop in the setting of inherited DNA repair deficiency, and these cancers may be more sensitive to cytotoxic agents that induce DNA strand breaks, as well as to inhibitors of PARP activity. A series of recent clinical trials has tested whether PARP inhibitors can achieve synthetic lethality in hereditary DNA repair-deficient tumors. At the current time, mutation of BRCA serves as a potential, but not comprehensive, biomarker to predict response to PARP inhibitor therapy. Mechanisms of resistance to PARP inhibitors are only recently being uncovered. Future studies seek to identify sporadic cancers that harbor genomic instability rendering susceptibility to PARP inhibitors that compound lethal DNA damage.


Book
Inhibiting PARP as a Strategic Target in Cancer
Authors: ---
Year: 2016 Publisher: Frontiers Media SA

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Abstract

Poly-ADP ribose polymerase (PARP) proteins are critical mediators of DNA repair. Many traditional anti-cancer chemotherapy agents overwhelm a cell’s ability to repair DNA damage in order to kill proliferating malignant cells. Recent evidence suggests that cancers within and across tissue types have specific defects in DNA repair pathways, and that these defects may predispose for sensitivity and resistance to various classes of cytotoxic agents. Breast, ovarian and other cancers develop in the setting of inherited DNA repair deficiency, and these cancers may be more sensitive to cytotoxic agents that induce DNA strand breaks, as well as to inhibitors of PARP activity. A series of recent clinical trials has tested whether PARP inhibitors can achieve synthetic lethality in hereditary DNA repair-deficient tumors. At the current time, mutation of BRCA serves as a potential, but not comprehensive, biomarker to predict response to PARP inhibitor therapy. Mechanisms of resistance to PARP inhibitors are only recently being uncovered. Future studies seek to identify sporadic cancers that harbor genomic instability rendering susceptibility to PARP inhibitors that compound lethal DNA damage.


Book
Inhibiting PARP as a Strategic Target in Cancer
Authors: ---
Year: 2016 Publisher: Frontiers Media SA

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Abstract

Poly-ADP ribose polymerase (PARP) proteins are critical mediators of DNA repair. Many traditional anti-cancer chemotherapy agents overwhelm a cell’s ability to repair DNA damage in order to kill proliferating malignant cells. Recent evidence suggests that cancers within and across tissue types have specific defects in DNA repair pathways, and that these defects may predispose for sensitivity and resistance to various classes of cytotoxic agents. Breast, ovarian and other cancers develop in the setting of inherited DNA repair deficiency, and these cancers may be more sensitive to cytotoxic agents that induce DNA strand breaks, as well as to inhibitors of PARP activity. A series of recent clinical trials has tested whether PARP inhibitors can achieve synthetic lethality in hereditary DNA repair-deficient tumors. At the current time, mutation of BRCA serves as a potential, but not comprehensive, biomarker to predict response to PARP inhibitor therapy. Mechanisms of resistance to PARP inhibitors are only recently being uncovered. Future studies seek to identify sporadic cancers that harbor genomic instability rendering susceptibility to PARP inhibitors that compound lethal DNA damage.


Book
Integrating Clinical and Translational Research Networks-Building Team Medicine
Authors: ---
Year: 2021 Publisher: Basel, Switzerland MDPI - Multidisciplinary Digital Publishing Institute

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Abstract

Medical centers are widely recognized as vital components of the healthcare system. However, academic medical centers are differentiated from their community counterparts by their mission, which typically focuses on clinical care, education, and research. Nonetheless, community clinics/hospitals fill a critical need and play a complementary role serving as the primary sites for health care in most communities. Furthermore, it is now increasingly recognized that in addition to physicians, physician-scientists, and other healthcare-related professionals, basic research scientists also contribute significantly to the emerging inter- and cross-disciplinary, team-oriented culture of translational science. Therefore, approaches that combine the knowledge, skills, experience, expertise, and visions of clinicians in academic medical centers and their affiliated community centers and hospitals, together with basic research scientists, are critical in shaping the emerging culture of translational research so that patients from the urban as well as suburban settings can avail the benefits of the latest developments in science and medicine. ‘Integrating Clinical and Translational Research Networks—Building Team Medicine’ is an embodiment of this ethos at the City of Hope National Medical Center in Duarte, California. It includes a series of papers authored by teams of leading clinicians, basic research scientists, and translational researchers. The authors discuss how engaging and collaborating with community-based practices, where the majority of older patients with cancer receive their care, can ensure that these patients receive the highest-quality, evidence-based care. Based on our collective experience at City of Hope, we would like to stress that the success of academic-community collaborative programs not only depends on the goodwill and vision of the participants but also on the medical administration, academic leadership, and policymakers who define the principles and rules by which cooperation within the health care industry occurs. We trust that our experience embodied in this singular compendium will serve as a ‘Rosetta Stone’ for other institutions and practitioners.

Keywords

Medicine --- renal cell carcinoma --- team medicine --- translational research --- community practice --- clinical trials --- geriatric oncology --- older adults --- cancer clinical trials --- recruitment --- community --- team science --- bladder cancer --- urothelial carcinoma --- COVID-19 --- team-based medicine --- colorectal cancer --- precisian medicine --- academic and community oncology --- cancer center --- lung cancer --- lung cancer screening --- low-dose CT scans --- cancer prevention --- smoking cessation --- tobacco control --- national guidelines for screening and prevention --- pharmaceutical aids to smoking cessation --- non-small cell lung cancer --- driver mutations --- testing rates --- receptor tyrosine kinases --- actionable mutations --- next-generation sequencing --- fast-and-frugal trees --- personalized medicine --- minorities --- ethnicity --- race --- breast cancer --- research --- HER2-directed therapy --- community oncology --- academic cancer center --- precision medicine --- cancer genetics --- cancer genomics --- small cell lung cancer --- immunotherapy --- epithelial ovarian cancer --- frontline treatment --- surgical debulking --- adjuvant chemotherapy --- maintenance therapy --- PARP inhibitor --- genetics counseling --- clinical research --- oropharyngeal cancer --- concurrent chemoradiation therapy --- human papillomavirus --- feeding tube dependency --- value-based care --- value-based cancer care --- oncology pathways --- Early Recovery After Surgery (ERAS) --- team-based care --- oncology medical home --- integrated cancer care --- supportive care pathways --- surgical pathways --- cancer care plans --- renal cell carcinoma --- team medicine --- translational research --- community practice --- clinical trials --- geriatric oncology --- older adults --- cancer clinical trials --- recruitment --- community --- team science --- bladder cancer --- urothelial carcinoma --- COVID-19 --- team-based medicine --- colorectal cancer --- precisian medicine --- academic and community oncology --- cancer center --- lung cancer --- lung cancer screening --- low-dose CT scans --- cancer prevention --- smoking cessation --- tobacco control --- national guidelines for screening and prevention --- pharmaceutical aids to smoking cessation --- non-small cell lung cancer --- driver mutations --- testing rates --- receptor tyrosine kinases --- actionable mutations --- next-generation sequencing --- fast-and-frugal trees --- personalized medicine --- minorities --- ethnicity --- race --- breast cancer --- research --- HER2-directed therapy --- community oncology --- academic cancer center --- precision medicine --- cancer genetics --- cancer genomics --- small cell lung cancer --- immunotherapy --- epithelial ovarian cancer --- frontline treatment --- surgical debulking --- adjuvant chemotherapy --- maintenance therapy --- PARP inhibitor --- genetics counseling --- clinical research --- oropharyngeal cancer --- concurrent chemoradiation therapy --- human papillomavirus --- feeding tube dependency --- value-based care --- value-based cancer care --- oncology pathways --- Early Recovery After Surgery (ERAS) --- team-based care --- oncology medical home --- integrated cancer care --- supportive care pathways --- surgical pathways --- cancer care plans


Book
Plasma in Cancer Treatment
Authors: ---
Year: 2021 Publisher: Basel, Switzerland MDPI - Multidisciplinary Digital Publishing Institute

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Abstract

In the last decade, research on cold atmospheric plasma (CAP) has significantly advanced our understanding of the effect of CAP on cancer cells and their potential for cancer treatment. This effect is due to the reactive oxygen and nitrogen species (RONS) created by plasma. This has been demonstrated for different cancer cell lines and the first clinical trials showed promising results. In addition, plasma could be combined with other treatments—such as immunotherapy—to boost its anticancer activity. The addition of new research tools to study the response of cancer cells to CAP—such as 3D in vitro, in ovo, and in vivo models and in silico approaches—as well as the use of -OMICS technologies could aid in unravelling the underlying mechanisms of CAP in cancer treatment. In order to progress towards widespread clinical application of CAP, an integrated study of the multidimensional effect of CAP in cancer treatment is essential. In this book, reviews and original research papers are published that provide new insights into the mechanisms of cold atmospheric plasma in cancer treatment, based on in vitro and in vivo experiments, clinical studies, as well as computer modeling.

Keywords

Medicine --- cell adhesion --- plasma medicine --- oncology --- cold atmospheric plasma --- selectivity --- plasma-treated liquid --- dielectric barrier discharge --- pancreatic cancer --- pancreatic stellate cells --- immunogenic cell death --- dendritic cells --- cell communication --- extracellular matrix (ECM) --- reactive oxygen and nitrogen species (ROS) --- tumour microenvironment (TME) --- extracellular vesicles --- communication junctions --- three-dimensional in vitro culture models --- apoptosis --- breast cancer --- genome-wide expression --- reactive oxygen species --- anticancer drugs --- screening --- tumor spheroids --- combination therapy --- kINPen --- reactive oxygen and nitrogen species --- ROS --- cancer --- non-thermal atmospheric pressure plasma (NTP) --- indirect treatment --- plasma-treated phosphate-buffered saline --- electroporation --- electric pulses --- pulsed electric field amplitude --- melanoma --- long-lived reactive species --- bone cancer --- osteosarcoma --- reactive species --- plasma-activated liquid --- Ringer's saline --- organotypic model --- nonthermal biocompatible plasma --- soft jet plasma --- human glioblastoma --- p38/MAPK pathway --- tissue penetration --- non-thermal plasma --- non-invasive plasma treatment (NIPP) --- cervical intraepithelial neoplasia (CIN) --- Raman imaging --- Raman microspectroscopy --- Plasma lipid interactions --- cold physical plasma --- radiation therapy --- radio-frequency discharge --- PARP-inhibitor --- olaparib --- DNA-damage --- gold quantum dots --- plasma --- nanomaterials --- cellular uptake --- invasiveness --- cold atmospheric pressure plasma --- plasma-activated Ringer's lactate solution --- ovarian cancer --- cytotoxicity --- plasma-activated liquids --- multicellular tumor spheroids --- long-lived reactive oxygen and nitrogen species --- high frequency electrosurgery --- plasma treatment --- cold atmospheric plasma (CAP) --- free radicals --- cancer selectivity --- cervical cancer treatment --- cervical intraepithelial neoplasia --- cholangiocarcinoma --- cold plasma --- innovative therapy --- tumor cells --- macrophages --- plasma selectivity --- plasma jet --- cell adhesion --- plasma medicine --- oncology --- cold atmospheric plasma --- selectivity --- plasma-treated liquid --- dielectric barrier discharge --- pancreatic cancer --- pancreatic stellate cells --- immunogenic cell death --- dendritic cells --- cell communication --- extracellular matrix (ECM) --- reactive oxygen and nitrogen species (ROS) --- tumour microenvironment (TME) --- extracellular vesicles --- communication junctions --- three-dimensional in vitro culture models --- apoptosis --- breast cancer --- genome-wide expression --- reactive oxygen species --- anticancer drugs --- screening --- tumor spheroids --- combination therapy --- kINPen --- reactive oxygen and nitrogen species --- ROS --- cancer --- non-thermal atmospheric pressure plasma (NTP) --- indirect treatment --- plasma-treated phosphate-buffered saline --- electroporation --- electric pulses --- pulsed electric field amplitude --- melanoma --- long-lived reactive species --- bone cancer --- osteosarcoma --- reactive species --- plasma-activated liquid --- Ringer's saline --- organotypic model --- nonthermal biocompatible plasma --- soft jet plasma --- human glioblastoma --- p38/MAPK pathway --- tissue penetration --- non-thermal plasma --- non-invasive plasma treatment (NIPP) --- cervical intraepithelial neoplasia (CIN) --- Raman imaging --- Raman microspectroscopy --- Plasma lipid interactions --- cold physical plasma --- radiation therapy --- radio-frequency discharge --- PARP-inhibitor --- olaparib --- DNA-damage --- gold quantum dots --- plasma --- nanomaterials --- cellular uptake --- invasiveness --- cold atmospheric pressure plasma --- plasma-activated Ringer's lactate solution --- ovarian cancer --- cytotoxicity --- plasma-activated liquids --- multicellular tumor spheroids --- long-lived reactive oxygen and nitrogen species --- high frequency electrosurgery --- plasma treatment --- cold atmospheric plasma (CAP) --- free radicals --- cancer selectivity --- cervical cancer treatment --- cervical intraepithelial neoplasia --- cholangiocarcinoma --- cold plasma --- innovative therapy --- tumor cells --- macrophages --- plasma selectivity --- plasma jet


Book
Integrating Clinical and Translational Research Networks-Building Team Medicine
Authors: ---
Year: 2021 Publisher: Basel, Switzerland MDPI - Multidisciplinary Digital Publishing Institute

Loading...
Export citation

Choose an application

Bookmark

Abstract

Medical centers are widely recognized as vital components of the healthcare system. However, academic medical centers are differentiated from their community counterparts by their mission, which typically focuses on clinical care, education, and research. Nonetheless, community clinics/hospitals fill a critical need and play a complementary role serving as the primary sites for health care in most communities. Furthermore, it is now increasingly recognized that in addition to physicians, physician-scientists, and other healthcare-related professionals, basic research scientists also contribute significantly to the emerging inter- and cross-disciplinary, team-oriented culture of translational science. Therefore, approaches that combine the knowledge, skills, experience, expertise, and visions of clinicians in academic medical centers and their affiliated community centers and hospitals, together with basic research scientists, are critical in shaping the emerging culture of translational research so that patients from the urban as well as suburban settings can avail the benefits of the latest developments in science and medicine. ‘Integrating Clinical and Translational Research Networks—Building Team Medicine’ is an embodiment of this ethos at the City of Hope National Medical Center in Duarte, California. It includes a series of papers authored by teams of leading clinicians, basic research scientists, and translational researchers. The authors discuss how engaging and collaborating with community-based practices, where the majority of older patients with cancer receive their care, can ensure that these patients receive the highest-quality, evidence-based care. Based on our collective experience at City of Hope, we would like to stress that the success of academic-community collaborative programs not only depends on the goodwill and vision of the participants but also on the medical administration, academic leadership, and policymakers who define the principles and rules by which cooperation within the health care industry occurs. We trust that our experience embodied in this singular compendium will serve as a ‘Rosetta Stone’ for other institutions and practitioners.

Keywords

renal cell carcinoma --- team medicine --- translational research --- community practice --- clinical trials --- geriatric oncology --- older adults --- cancer clinical trials --- recruitment --- community --- team science --- bladder cancer --- urothelial carcinoma --- COVID-19 --- team-based medicine --- colorectal cancer --- precisian medicine --- academic and community oncology --- cancer center --- lung cancer --- lung cancer screening --- low-dose CT scans --- cancer prevention --- smoking cessation --- tobacco control --- national guidelines for screening and prevention --- pharmaceutical aids to smoking cessation --- non-small cell lung cancer --- driver mutations --- testing rates --- receptor tyrosine kinases --- actionable mutations --- next-generation sequencing --- fast-and-frugal trees --- personalized medicine --- minorities --- ethnicity --- race --- breast cancer --- research --- HER2-directed therapy --- community oncology --- academic cancer center --- precision medicine --- cancer genetics --- cancer genomics --- small cell lung cancer --- immunotherapy --- epithelial ovarian cancer --- frontline treatment --- surgical debulking --- adjuvant chemotherapy --- maintenance therapy --- PARP inhibitor --- genetics counseling --- clinical research --- n/a --- oropharyngeal cancer --- concurrent chemoradiation therapy --- human papillomavirus --- feeding tube dependency --- value-based care --- value-based cancer care --- oncology pathways --- Early Recovery After Surgery (ERAS) --- team-based care --- oncology medical home --- integrated cancer care --- supportive care pathways --- surgical pathways --- cancer care plans


Book
Plasma in Cancer Treatment
Authors: ---
Year: 2021 Publisher: Basel, Switzerland MDPI - Multidisciplinary Digital Publishing Institute

Loading...
Export citation

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Bookmark

Abstract

In the last decade, research on cold atmospheric plasma (CAP) has significantly advanced our understanding of the effect of CAP on cancer cells and their potential for cancer treatment. This effect is due to the reactive oxygen and nitrogen species (RONS) created by plasma. This has been demonstrated for different cancer cell lines and the first clinical trials showed promising results. In addition, plasma could be combined with other treatments—such as immunotherapy—to boost its anticancer activity. The addition of new research tools to study the response of cancer cells to CAP—such as 3D in vitro, in ovo, and in vivo models and in silico approaches—as well as the use of -OMICS technologies could aid in unravelling the underlying mechanisms of CAP in cancer treatment. In order to progress towards widespread clinical application of CAP, an integrated study of the multidimensional effect of CAP in cancer treatment is essential. In this book, reviews and original research papers are published that provide new insights into the mechanisms of cold atmospheric plasma in cancer treatment, based on in vitro and in vivo experiments, clinical studies, as well as computer modeling.

Keywords

cell adhesion --- plasma medicine --- oncology --- cold atmospheric plasma --- selectivity --- plasma-treated liquid --- dielectric barrier discharge --- pancreatic cancer --- pancreatic stellate cells --- immunogenic cell death --- dendritic cells --- cell communication --- extracellular matrix (ECM) --- reactive oxygen and nitrogen species (ROS) --- tumour microenvironment (TME) --- extracellular vesicles --- communication junctions --- three-dimensional in vitro culture models --- apoptosis --- breast cancer --- genome-wide expression --- reactive oxygen species --- anticancer drugs --- screening --- tumor spheroids --- combination therapy --- kINPen --- reactive oxygen and nitrogen species --- ROS --- cancer --- non-thermal atmospheric pressure plasma (NTP) --- indirect treatment --- plasma-treated phosphate-buffered saline --- electroporation --- electric pulses --- pulsed electric field amplitude --- melanoma --- long-lived reactive species --- bone cancer --- osteosarcoma --- reactive species --- plasma-activated liquid --- Ringer’s saline --- organotypic model --- nonthermal biocompatible plasma --- soft jet plasma --- human glioblastoma --- p38/MAPK pathway --- tissue penetration --- non-thermal plasma --- non-invasive plasma treatment (NIPP) --- cervical intraepithelial neoplasia (CIN) --- Raman imaging --- Raman microspectroscopy --- Plasma lipid interactions --- cold physical plasma --- radiation therapy --- radio-frequency discharge --- PARP-inhibitor --- olaparib --- DNA-damage --- gold quantum dots --- plasma --- nanomaterials --- cellular uptake --- invasiveness --- cold atmospheric pressure plasma --- plasma-activated Ringer’s lactate solution --- ovarian cancer --- cytotoxicity --- plasma-activated liquids --- multicellular tumor spheroids --- long-lived reactive oxygen and nitrogen species --- high frequency electrosurgery --- plasma treatment --- cold atmospheric plasma (CAP) --- free radicals --- cancer selectivity --- cervical cancer treatment --- cervical intraepithelial neoplasia --- cholangiocarcinoma --- cold plasma --- innovative therapy --- tumor cells --- macrophages --- plasma selectivity --- plasma jet --- n/a --- Ringer's saline --- plasma-activated Ringer's lactate solution


Book
Anticancer Agents : Design, Synthesis and Evaluation
Author:
Year: 2021 Publisher: Basel, Switzerland MDPI - Multidisciplinary Digital Publishing Institute

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Abstract

This book is a printed edition of the Special Issue entitled “Anticancer Agents: Design, Synthesis and Evaluation” that was published in Molecules. Two review articles and thirty research papers are included in the Special Issue. Three second-generation androgen receptor antagonists that have been approved by the U.S. FDA for the treatment of prostate cancer have been reviewed. Identification of mimics of protein partners as protein-protein interaction inhibitors via virtual screening has been summarized and discussed. Anticancer agents targeting various protein targets, including IGF-1R, Src, protein kinase, aromatase, HDAC, PARP, Toll-Like receptor, c-Met, PI3Kdelta, topoisomerase II, p53, and indoleamine 2,3-dioxygenase, have been explored. The analogs of three well-known tubulin-interacting natural products, paclitaxel, zampanolide, and colchicine, have been designed, synthesized, and evaluated. Several anticancer agents representing diverse chemical scaffolds were assessed in different kinds of cancer cell models. The capability of some anticancer agents to overcome the resistance to currently available drugs was also studied. In addition to looking into the in vitro ability of the anticancer agents to inhibit cancer cell proliferation, apoptosis, and cell cycle, in vivo antitumor efficacy in animal models and DFT were also investigated in some papers.

Keywords

Medicine --- benzofurans --- chemical synthesis --- cytotoxic properties --- HeLa --- MOLT-4 --- K562 --- anticancer --- anti-neuroinflammation --- coumarin --- dihydroartemisinin --- flavonoids --- allene --- E-stereoselective --- regioselective --- anti-cancer activity --- cyanopyridone --- substituted pyridine --- pyridotriazine --- pyrazolopyridine --- thioxotriazopyridine --- anticancer activity --- HepG2 --- antitumor activity --- computational docking --- MDM2-p53 interaction --- xanthones --- yeast-based assays --- estrone derivatives --- hydrazine --- N-substituted pyrazoline --- anti-ovarian cancer --- topoisomerase II inhibitor --- kinase inhibitor --- antiproliferative agent --- urea --- synthesis --- antiproliferative activity --- apoptosis --- indoleamine 2,3-dioxygenase --- inhibitor --- anti-tumor --- immune modulation --- tryptophan metabolism --- taxoids --- βIII-tubulin --- P-glycoprotein --- drug resistance --- thiopene --- thienopyrimidinone --- thiazolidinone --- breast cancer --- benzofuran–pyrazole --- nanoparticles --- cytotoxic activity --- PARP-1 inhibition --- 3,6-dibromocarbazole --- 5-bromoindole --- carbazole --- actin --- migration --- Thienopyrimidine --- Pyrazole --- PI3Kα inhibitor --- quinazolin-4(3H)-one --- quinazolin-4(3H)-thione --- Schiff base --- antioxidant activity --- DFT study --- ortho-quinones --- beta-lapachone --- tanshione IIA --- PI3Ks --- PI3Kδ inhibitors --- 2H-benzo[e][1,2,4]thiadiazine 1,1-dioxide --- anticancer agents --- protein–protein interactions --- virtual screening --- mimetics --- drug discovery --- bivalency --- polyvalency --- antitumor --- cell cycle --- ovarian cancer --- P-MAPA --- IL-12 --- TLR signaling --- inflammation --- chemoresistance --- 4-(pyridin-4-yloxy)benzamide --- 1,2,3-triazole --- c-Met --- natural product --- anticancer agent --- zampanolide --- Talazoparib --- PARP inhibitor --- prodrug --- o-nitro-benzyl --- photoactivatable protecting groups --- salinomycin --- overcoming drug resistance --- tumor specificity --- synergy --- 5-fluorouracil --- gemcitabine --- amides/esters --- colchicine analogs --- thiocolchicine --- colchiceine --- antimitotic agents --- hydrates --- dihydropyranoindole --- HDAC inhibitors --- neuroblastoma --- aromatase --- MCF-7 --- NIH3T3 --- benzimidazole --- triazolothiadiazine --- docking --- ADME --- organosilicon compounds --- SILA-409 (Alis-409) --- SILA-421 (Alis-421) --- multidrug resistance (MDR) reversal --- ABCB1 (P-glycoprotein) --- colon cancer --- colchicine amide --- colchicine sulfonamide --- tubulin inhibitors --- docking studies --- crystal structure --- PROTACs --- protein degradation --- IGF-1R --- Src --- protein kinase --- phenylpyrazolopyrimidine --- enzyme inhibition --- molecular simulation --- androgen receptor --- prostate cancer --- enzalutamide --- apalutamide --- darolutamide --- triple-negative breast cancer --- cytotoxicity --- chrysin analogues --- flavonoid --- anticancer compounds --- benzofurans --- chemical synthesis --- cytotoxic properties --- HeLa --- MOLT-4 --- K562 --- anticancer --- anti-neuroinflammation --- coumarin --- dihydroartemisinin --- flavonoids --- allene --- E-stereoselective --- regioselective --- anti-cancer activity --- cyanopyridone --- substituted pyridine --- pyridotriazine --- pyrazolopyridine --- thioxotriazopyridine --- anticancer activity --- HepG2 --- antitumor activity --- computational docking --- MDM2-p53 interaction --- xanthones --- yeast-based assays --- estrone derivatives --- hydrazine --- N-substituted pyrazoline --- anti-ovarian cancer --- topoisomerase II inhibitor --- kinase inhibitor --- antiproliferative agent --- urea --- synthesis --- antiproliferative activity --- apoptosis --- indoleamine 2,3-dioxygenase --- inhibitor --- anti-tumor --- immune modulation --- tryptophan metabolism --- taxoids --- βIII-tubulin --- P-glycoprotein --- drug resistance --- thiopene --- thienopyrimidinone --- thiazolidinone --- breast cancer --- benzofuran–pyrazole --- nanoparticles --- cytotoxic activity --- PARP-1 inhibition --- 3,6-dibromocarbazole --- 5-bromoindole --- carbazole --- actin --- migration --- Thienopyrimidine --- Pyrazole --- PI3Kα inhibitor --- quinazolin-4(3H)-one --- quinazolin-4(3H)-thione --- Schiff base --- antioxidant activity --- DFT study --- ortho-quinones --- beta-lapachone --- tanshione IIA --- PI3Ks --- PI3Kδ inhibitors --- 2H-benzo[e][1,2,4]thiadiazine 1,1-dioxide --- anticancer agents --- protein–protein interactions --- virtual screening --- mimetics --- drug discovery --- bivalency --- polyvalency --- antitumor --- cell cycle --- ovarian cancer --- P-MAPA --- IL-12 --- TLR signaling --- inflammation --- chemoresistance --- 4-(pyridin-4-yloxy)benzamide --- 1,2,3-triazole --- c-Met --- natural product --- anticancer agent --- zampanolide --- Talazoparib --- PARP inhibitor --- prodrug --- o-nitro-benzyl --- photoactivatable protecting groups --- salinomycin --- overcoming drug resistance --- tumor specificity --- synergy --- 5-fluorouracil --- gemcitabine --- amides/esters --- colchicine analogs --- thiocolchicine --- colchiceine --- antimitotic agents --- hydrates --- dihydropyranoindole --- HDAC inhibitors --- neuroblastoma --- aromatase --- MCF-7 --- NIH3T3 --- benzimidazole --- triazolothiadiazine --- docking --- ADME --- organosilicon compounds --- SILA-409 (Alis-409) --- SILA-421 (Alis-421) --- multidrug resistance (MDR) reversal --- ABCB1 (P-glycoprotein) --- colon cancer --- colchicine amide --- colchicine sulfonamide --- tubulin inhibitors --- docking studies --- crystal structure --- PROTACs --- protein degradation --- IGF-1R --- Src --- protein kinase --- phenylpyrazolopyrimidine --- enzyme inhibition --- molecular simulation --- androgen receptor --- prostate cancer --- enzalutamide --- apalutamide --- darolutamide --- triple-negative breast cancer --- cytotoxicity --- chrysin analogues --- flavonoid --- anticancer compounds


Book
Anticancer Agents : Design, Synthesis and Evaluation
Author:
Year: 2021 Publisher: Basel, Switzerland MDPI - Multidisciplinary Digital Publishing Institute

Loading...
Export citation

Choose an application

Bookmark

Abstract

This book is a printed edition of the Special Issue entitled “Anticancer Agents: Design, Synthesis and Evaluation” that was published in Molecules. Two review articles and thirty research papers are included in the Special Issue. Three second-generation androgen receptor antagonists that have been approved by the U.S. FDA for the treatment of prostate cancer have been reviewed. Identification of mimics of protein partners as protein-protein interaction inhibitors via virtual screening has been summarized and discussed. Anticancer agents targeting various protein targets, including IGF-1R, Src, protein kinase, aromatase, HDAC, PARP, Toll-Like receptor, c-Met, PI3Kdelta, topoisomerase II, p53, and indoleamine 2,3-dioxygenase, have been explored. The analogs of three well-known tubulin-interacting natural products, paclitaxel, zampanolide, and colchicine, have been designed, synthesized, and evaluated. Several anticancer agents representing diverse chemical scaffolds were assessed in different kinds of cancer cell models. The capability of some anticancer agents to overcome the resistance to currently available drugs was also studied. In addition to looking into the in vitro ability of the anticancer agents to inhibit cancer cell proliferation, apoptosis, and cell cycle, in vivo antitumor efficacy in animal models and DFT were also investigated in some papers.

Keywords

Medicine --- benzofurans --- chemical synthesis --- cytotoxic properties --- HeLa --- MOLT-4 --- K562 --- anticancer --- anti-neuroinflammation --- coumarin --- dihydroartemisinin --- flavonoids --- allene --- E-stereoselective --- regioselective --- anti-cancer activity --- cyanopyridone --- substituted pyridine --- pyridotriazine --- pyrazolopyridine --- thioxotriazopyridine --- anticancer activity --- HepG2 --- antitumor activity --- computational docking --- MDM2-p53 interaction --- xanthones --- yeast-based assays --- estrone derivatives --- hydrazine --- N-substituted pyrazoline --- anti-ovarian cancer --- topoisomerase II inhibitor --- kinase inhibitor --- antiproliferative agent --- urea --- synthesis --- antiproliferative activity --- apoptosis --- indoleamine 2,3-dioxygenase --- inhibitor --- anti-tumor --- immune modulation --- tryptophan metabolism --- taxoids --- βIII-tubulin --- P-glycoprotein --- drug resistance --- thiopene --- thienopyrimidinone --- thiazolidinone --- breast cancer --- benzofuran–pyrazole --- nanoparticles --- cytotoxic activity --- PARP-1 inhibition --- 3,6-dibromocarbazole --- 5-bromoindole --- carbazole --- actin --- migration --- Thienopyrimidine --- Pyrazole --- PI3Kα inhibitor --- quinazolin-4(3H)-one --- quinazolin-4(3H)-thione --- Schiff base --- antioxidant activity --- DFT study --- ortho-quinones --- beta-lapachone --- tanshione IIA --- PI3Ks --- PI3Kδ inhibitors --- 2H-benzo[e][1,2,4]thiadiazine 1,1-dioxide --- anticancer agents --- protein–protein interactions --- virtual screening --- mimetics --- drug discovery --- bivalency --- polyvalency --- antitumor --- cell cycle --- ovarian cancer --- P-MAPA --- IL-12 --- TLR signaling --- inflammation --- chemoresistance --- 4-(pyridin-4-yloxy)benzamide --- 1,2,3-triazole --- c-Met --- natural product --- anticancer agent --- zampanolide --- Talazoparib --- PARP inhibitor --- prodrug --- o-nitro-benzyl --- photoactivatable protecting groups --- salinomycin --- overcoming drug resistance --- tumor specificity --- synergy --- 5-fluorouracil --- gemcitabine --- amides/esters --- colchicine analogs --- thiocolchicine --- colchiceine --- antimitotic agents --- hydrates --- dihydropyranoindole --- HDAC inhibitors --- neuroblastoma --- aromatase --- MCF-7 --- NIH3T3 --- benzimidazole --- triazolothiadiazine --- docking --- ADME --- organosilicon compounds --- SILA-409 (Alis-409) --- SILA-421 (Alis-421) --- multidrug resistance (MDR) reversal --- ABCB1 (P-glycoprotein) --- colon cancer --- colchicine amide --- colchicine sulfonamide --- tubulin inhibitors --- docking studies --- crystal structure --- PROTACs --- protein degradation --- IGF-1R --- Src --- protein kinase --- phenylpyrazolopyrimidine --- enzyme inhibition --- molecular simulation --- androgen receptor --- prostate cancer --- enzalutamide --- apalutamide --- darolutamide --- triple-negative breast cancer --- cytotoxicity --- chrysin analogues --- flavonoid --- anticancer compounds


Book
Anticancer Agents : Design, Synthesis and Evaluation
Author:
Year: 2021 Publisher: Basel, Switzerland MDPI - Multidisciplinary Digital Publishing Institute

Loading...
Export citation

Choose an application

Bookmark

Abstract

This book is a printed edition of the Special Issue entitled “Anticancer Agents: Design, Synthesis and Evaluation” that was published in Molecules. Two review articles and thirty research papers are included in the Special Issue. Three second-generation androgen receptor antagonists that have been approved by the U.S. FDA for the treatment of prostate cancer have been reviewed. Identification of mimics of protein partners as protein-protein interaction inhibitors via virtual screening has been summarized and discussed. Anticancer agents targeting various protein targets, including IGF-1R, Src, protein kinase, aromatase, HDAC, PARP, Toll-Like receptor, c-Met, PI3Kdelta, topoisomerase II, p53, and indoleamine 2,3-dioxygenase, have been explored. The analogs of three well-known tubulin-interacting natural products, paclitaxel, zampanolide, and colchicine, have been designed, synthesized, and evaluated. Several anticancer agents representing diverse chemical scaffolds were assessed in different kinds of cancer cell models. The capability of some anticancer agents to overcome the resistance to currently available drugs was also studied. In addition to looking into the in vitro ability of the anticancer agents to inhibit cancer cell proliferation, apoptosis, and cell cycle, in vivo antitumor efficacy in animal models and DFT were also investigated in some papers.

Keywords

benzofurans --- chemical synthesis --- cytotoxic properties --- HeLa --- MOLT-4 --- K562 --- anticancer --- anti-neuroinflammation --- coumarin --- dihydroartemisinin --- flavonoids --- allene --- E-stereoselective --- regioselective --- anti-cancer activity --- cyanopyridone --- substituted pyridine --- pyridotriazine --- pyrazolopyridine --- thioxotriazopyridine --- anticancer activity --- HepG2 --- antitumor activity --- computational docking --- MDM2-p53 interaction --- xanthones --- yeast-based assays --- estrone derivatives --- hydrazine --- N-substituted pyrazoline --- anti-ovarian cancer --- topoisomerase II inhibitor --- kinase inhibitor --- antiproliferative agent --- urea --- synthesis --- antiproliferative activity --- apoptosis --- indoleamine 2,3-dioxygenase --- inhibitor --- anti-tumor --- immune modulation --- tryptophan metabolism --- taxoids --- βIII-tubulin --- P-glycoprotein --- drug resistance --- thiopene --- thienopyrimidinone --- thiazolidinone --- breast cancer --- benzofuran–pyrazole --- nanoparticles --- cytotoxic activity --- PARP-1 inhibition --- 3,6-dibromocarbazole --- 5-bromoindole --- carbazole --- actin --- migration --- Thienopyrimidine --- Pyrazole --- PI3Kα inhibitor --- quinazolin-4(3H)-one --- quinazolin-4(3H)-thione --- Schiff base --- antioxidant activity --- DFT study --- ortho-quinones --- beta-lapachone --- tanshione IIA --- PI3Ks --- PI3Kδ inhibitors --- 2H-benzo[e][1,2,4]thiadiazine 1,1-dioxide --- anticancer agents --- protein–protein interactions --- virtual screening --- mimetics --- drug discovery --- bivalency --- polyvalency --- antitumor --- cell cycle --- ovarian cancer --- P-MAPA --- IL-12 --- TLR signaling --- inflammation --- chemoresistance --- 4-(pyridin-4-yloxy)benzamide --- 1,2,3-triazole --- c-Met --- natural product --- anticancer agent --- zampanolide --- Talazoparib --- PARP inhibitor --- prodrug --- o-nitro-benzyl --- photoactivatable protecting groups --- salinomycin --- overcoming drug resistance --- tumor specificity --- synergy --- 5-fluorouracil --- gemcitabine --- amides/esters --- colchicine analogs --- thiocolchicine --- colchiceine --- antimitotic agents --- hydrates --- dihydropyranoindole --- HDAC inhibitors --- neuroblastoma --- aromatase --- MCF-7 --- NIH3T3 --- benzimidazole --- triazolothiadiazine --- docking --- ADME --- organosilicon compounds --- SILA-409 (Alis-409) --- SILA-421 (Alis-421) --- multidrug resistance (MDR) reversal --- ABCB1 (P-glycoprotein) --- colon cancer --- colchicine amide --- colchicine sulfonamide --- tubulin inhibitors --- docking studies --- crystal structure --- PROTACs --- protein degradation --- IGF-1R --- Src --- protein kinase --- phenylpyrazolopyrimidine --- enzyme inhibition --- molecular simulation --- androgen receptor --- prostate cancer --- enzalutamide --- apalutamide --- darolutamide --- triple-negative breast cancer --- cytotoxicity --- chrysin analogues --- flavonoid --- anticancer compounds

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