Protein Kinase Inhibitors | |
Imatinib Mesylate | p. 3 |
Introduction | p. 3 |
Chemical Structure | p. 5 |
Clinical Pharmacology | p. 6 |
Drug Targets | p. 6 |
Preclinical Studies | p. 6 |
Clinical Data in CML | p. 8 |
Phase I Trials | p. 8 |
Phase II Studies | p. 8 |
Phase III Study (IRIS-Trial) | p. 9 |
Side Effects/Toxicity | p. 10 |
Disease Progression and Imatinib Resistance | p. 11 |
Treatment Recommendations for the Use of Imatinib in Chronic Phase CML | p. 34 |
Imatinib in Combination with Other Drugs | p. 15 |
Imatinib - Other Targets | p. 15 |
Conclusion and Future Perspectives | p. 16 |
References | p. 17 |
Erlotinib | p. 21 |
Introduction | p. 21 |
Mechanism of Action | p. 22 |
Non-Small Cell Lung Cancer | p. 22 |
Pancreatic Adenocarcinoma | p. 24 |
Hepatocellular Carcinoma | p. 27 |
Other Tumour Entities | p. 28 |
References | p. 28 |
Axirinib (AG-013736) | p. 33 |
Introduction | p. 33 |
Structure of Molecule | p. 34 |
Preclinical Data | p. 34 |
Bioavailability in Humans | p. 36 |
Phase II Studies | p. 36 |
Axirinib in Renal Cell Carcinoma | p. 36 |
Axirinib in Pancreatic Cancer | p. 37 |
Axirinib in Metastatic Breast Cancer | p. 38 |
Axirinib in Thyroid Cancer | p. 38 |
Axirinib in Other Solid Tumors | p. 39 |
Phase III Studies | p. 39 |
Toxicity | p. 40 |
Drag Interactions | p. 41 |
Future | p. 42 |
References | p. 42 |
Lapatinib | p. 45 |
Introduction | p. 45 |
The Epidermal Growth Factor Receptor Family of Tyrosine Kinases | p. 45 |
Human Epidermal Growth Factor Receptors and Breast Cancer | p. 47 |
Structure and Mechanism of Action | p. 47 |
Clinical Data | p. 49 |
Pharmacology | p. 49 |
Results from Clinical Trials | p. 49 |
Conclusion and Future Perspectives | p. 54 |
References | p. 55 |
Sorafenib | p. 61 |
Introduction | p. 61 |
Structure and Mechanism of Action | p. 62 |
Clinical Data | p. 64 |
Phase 1 | p. 64 |
Sorafenib in the Treatment of Renal Cell Cancer (RCC) | p. 64 |
Sorafenib in the Treatment of Lung Cancer | p. 66 |
Sorafenib in the Treatment of Hepatocellular Cancer (HCC) | p. 66 |
Sorafenib in the Treatment of Breast Cancer | p. 66 |
Sorafenib in the Treatment of Malignant Melanoma | p. 66 |
Sorafenib in the Treatment of Prostate Cancer | p. 67 |
Sorafenib in the Treatment of Head and Neck Cancer | p. 67 |
Sorafenib in the Treatment of Ovarian Cancer | p. 67 |
Sorafenib in the Treatment of Brain Tumors | p. 67 |
Sorafenib in the Treatment of Thyroid Cancer | p. 67 |
Sorafenib in the Treatment of Hematologic Diseases | p. 67 |
Conclusion and Future Perspectives | p. 68 |
References | p. 68 |
Sunitinib | p. 71 |
Introduction | p. 71 |
Sunitinib | p. 71 |
Renal Cell Carcinoma | p. 72 |
Targets for Renal Cell Carcinoma | p. 72 |
Phase II/III Studies in Metastatic RCC | p. 74 |
Gastrointestinal Stromal Tumors | p. 75 |
Targets for Gastrointestinal Stromal Tumors | p. 75 |
GIST Clinical Trials | p. 75 |
Side Effects | p. 76 |
Drug Interactions | p. 78 |
Activity in Other Tumor Sites and Ongoing Research | p. 78 |
Conclusion | p. 79 |
References | p. 79 |
Dasatinib | p. 83 |
Introduction | p. 83 |
Structure and Mechanism of Action | p. 85 |
Inhibition of ABL | p. 86 |
Inhibition of SRC | p. 87 |
Inhibition of c-KJT | p. 87 |
Inhibition of Platelet-Derived Growth Factor Receptor (PDGFR)-¿ and ß Tyrosine Kinases | p. 88 |
Inhibition of Ephrin Receptor Tyrosine Kinases | p. 88 |
Additional Effects | p. 88 |
Clinical Data | p. 88 |
Phannacokinetic Profile | p. 88 |
Clinical Studies with Dasatinib in CML and Other Diseases | p. 89 |
CML and Ph+ ALL-Overview | p. 89 |
Dasatinib and Other Diseases | p. 95 |
Safety and Tolerability | p. 96 |
Conclusion and Further Perspectives | p. 98 |
References | p. 99 |
Nilotinib | p. 103 |
Background | p. 103 |
Preclinical and Pharmacokinetic Data | p. 104 |
Pharmacological Design | p. 104 |
Drug Targets | p. 104 |
Preclinical Activity | p. 104 |
Pharmacokinetics and Metabolism | p. 105 |
Clinical Efficacy | p. 105 |
Nilotinib Phase I Study | p. 106 |
Nilotinib After Imatinib Failure | p. 106 |
Nilotinib First-Line Therapy | p. 108 |
Nilotinib After Dasatinib Failure | p. 108 |
Toxicity | p. 109 |
Resistance to Nilotinib | p. 112 |
Outlook | p. 113 |
Conclusion | p. 114 |
References | p. 114 |
Bosutinib | p. 119 |
Chemical Structure | p. 119 |
Mechanism of Action | p. 119 |
SRC Kinase Inhibition | p. 120 |
Abl and bcr-abl Inhibition | p. 120 |
Bosutinib in Chronic Myeloid Leukaemia (CML) | p. 121 |
Preclinical Data | p. 121 |
Clinical Trials | p. 121 |
Bosutinib in Solid Tumours | p. 124 |
Preclinical Data | p. 124 |
Clinical Trials | p. 125 |
Conclusion and Future Directions | p. 125 |
References | p. 126 |
Epigenetic Modifiers | |
Decitabine | p. 131 |
Introduction | p. 131 |
Structure and Mechanism of Action | p. 132 |
Studies of Single-Agent Decitabine in MDS and Acute Leukemias | p. 133 |
Combination Treatment in AML, MDS, and Other Diseases | p. 135 |
Decitabine as a Preparative Agent in Allogeneic Stem Cell Transplantation | p. 140 |
Immunomodulation with Decitabine | p. 142 |
Decitabine Treatment in Other Diseases | p. 143 |
Activity of Decitabine in Patients with Acute Lymphoblastic Leukemia | p. 143 |
Activity of Decitabine in Patients with Chronic Myeloid Leukemia | p. l44 |
Activity of Decitabine in Patients with Idiopathic Myelofibrosis (IMF) | p. 145 |
Clinical Effects of Decitabine in Severe ß-Thalassemia and Sickle Cell Disease | p. 145 |
Efficacy of Decitabine in Patients with Solid Tumors | p. 146 |
Conclusion and Future Perspectives | p. 148 |
References | p. 149 |
5-Azacytidine/Azacitidine | p. 149 |
Introduction: 5-Azacytidine - Novel or Almost Historic? | p. 159 |
Agent | p. 160 |
Chemical Structure | p. 160 |
Mode of Action | p. 160 |
Pharmacology | p. 161 |
Route of Administration and Dosage | p. 161 |
Bioavailability, Half-Life, Elimination, Drug-Drug Interactions | p. 162 |
Safety, Side Effects, and Contraindications | p. 162 |
Clinical Use of 5-Azacytidine | p. 164 |
Early Studies | p. 164 |
5-Azacytidine in Myelodysplastic Syndromes (MDS) | p. 164 |
New Therapeutic Approaches | p. 166 |
Future Perspective, Experimental Studies, and Conclusion | p. 166 |
References | p. 167 |
Cell Cycle Inhibitors | |
Bortezomib | p. 173 |
Mode of Action | p. 173 |
Antitumor Effects | p. 175 |
Clinical Application of Proteasome Inhibitors | p. 176 |
Bortezomib | p. 177 |
Bortezomib-Based Combination Therapy for Multiple Myeloma | p. 178 |
Treatment Options for Patients Eligible for Transplant | p. 179 |
Next Generation Proteasome Inhibitors | p. 179 |
References | p. 180 |
Temsirolimus | p. 189 |
Introduction | p. 189 |
Development | p. 190 |
Structure and mechanism of action | p. 190 |
Clinical Data | p. 192 |
Safety and Efficacy | p. 192 |
Side Effects | p. 193 |
Conclusion and Future Perspectives | p. 194 |
References | p. 195 |
Danusertib (formerly PHA-739358) - A Novel Combined Pan-Aurora Kinases and Third Generation Bcr-Abl Tyrosine Kinase Inhibitor | p. 199 |
Introduction | p. 199 |
Structure, Localization, and Functions | p. 200 |
Aurora Kinases and Cancer | p. 201 |
Inhibitors | p. 202 |
Danusertib (formerly PHA-739358) | p. 204 |
Conclusion | p. 208 |
References | p. 209 |
BI_2536 - Targeting the Mitotic Kinase Polo-Like Kinase 1 (Plkl) | p. 215 |
Introduction | p. 215 |
Structure and Mechanism of Action | p. 217 |
Clinical Data | p. 217 |
Conclusion and Future Perspectives | p. 218 |
References | p. 218 |
Other Novel Agents | |
Imetelstat (GRN163L) - Telomerase-Based Cancer Therapy | p. 221 |
Introduction | p. 221 |
Telomerase-Based Approaches of Cancer Treatment | p. 224 |
Telomerase Inhibition | p. 224 |
Structure of Imetelstat and Mechanism of Action | p. 224 |
Preclinical and Clinical Data of Imetelstat | p. 225 |
Conclusion and Future Prospects | p. 229 |
References | p. 229 |
GDC-0449 - Targeting the Hedgehog Signaling Pathway | p. 235 |
Introduction | p. 235 |
Structure and Mechanism of Action | p. 236 |
Clinical Datak | p. 236 |
Conclusion and Future Perspectives | p. 237 |
References | p. 237 |
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