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Irinotecan
Irinotecan is used for the treatment of colorectal, lung, and ovarian cancer. Irinotecan inhibitstopoisomeraseIandfunctionscell-cyclephasespecific.Itisconvertedtotheactive metaboliteSN-38.Themajorrouteofeliminationisthroughthebile.Theactiveformofthe drug is metabolized by the polymorphic enzyme UGT1A1*28. Approximately 10% of the NorthAmerican population ishomozygousfor this polymorphism andis at greater riskof experiencingneutropenia.Thedose-limitingtoxicities arediarrhea,especiallyinpatients 65yearsofageandolder,andmyelosuppression.Commonsideeffectsincludeneutropenia, vomiting,andmildalopecia(114).
Topotecan
Topotecanisusedforthetreatmentofplatinum-resistantovariancancer,cervicalcancer,and smallcelllungcancer.ItisaderivativeofcamptothecinandinhibitstopoisomeraseIactivity (88).Itsfunctioniscell-cyclephasespecific.About60%ofthedrugisexcretedintheurine. Themaindose-limitingtoxicityismyelosuppression.Commonsideeffectsincludenausea andvomiting,diarrhea,alopecia,arthralgia,andmyalgia(115).
MitomycinC
Mitomycin C is another antibiotic that was isolated from the Streptomyces fungus. It is activated in vivo into an alkylating agent that can bind DNA, producing crosslinks and inhibiting DNA synthesis. It has a quinone moiety that can generate free radical reactions similartothoseseenwiththeanthracyclineantibiotics.Itisadministeredintravenouslyandis degradedprimarily bymetabolism. Renalclearance isnot amajormechanism ofexcretion (116).
Antimetabolites
The antimetabolites interact with vital intracellular enzymes, leading to their
inactivation, or to the production of fraudulent products incapable of normal intracellular function. Their structures resemble analogs of normal purines and pyrimidines, or they resemble normal substances that are vital for cellular function. Some antimetabolites are activeasintactdrugs,andothersrequirebiotransformationtoactiveagents.
Mechanism
Althoughmanyoftheseagentsactatdifferentsitesinbiosyntheticpathways,theyappearto exerttheirantitumoractivitybydisruptingfunctionscrucialtotheviabilityofthecell.These effectsareusuallymoredisruptivetoactivelyproliferatingcells;thus,theantimetabolitesare classedingeneralascellcycle–specificagents.
Although hundreds of antimetabolites have been investigated, only a few are commonly used.Theyincludethefollowing:
1. Thefolateantagonistmethotrexate,whichinhibitstheenzymedihydrofolatereductase
2. Thepurineantagonists6-mercaptopurineand6-thioguanine
3. Thepyrimidineantagonists5-fluorouracil(5-FU)andcytarabine
4. Thenucleosideanaloggemcitabine
Inmostinstances, the antimetabolites are used in combinations becauseoftheircell cycle specificityandtheircapacityforcomplementaryinhibition.Antimetabolitescommonlyused inthetreatmentofgynecologicmalignanciesaresummarizedinTable4.11.
Table4.11Antimetabolites
Drug
Routeof Administration CommonToxicities DiseasesTreated
5-fluorouracil IV Myelosuppression,
nauseaandvomiting, anorexia,alopecia
Breast,cervicalcancer
Capecitabine PO Diarrhea,hand–foot
syndrome
Breast,coloncancer
Methotrexate PO,IV,IT Mucosalulceration,
myelosuppression, allergicpneumonitis; withintrathecal: meningealirritation
Choriocarcinoma,breast cancer
Gemcitabine IV Myelosuppression Ovarian,breastcancer,
leiomyosarcoma
Pemetrexed IV Myelosuppression Mesothelioma,non-small
celllungandovarian cancer
IV,intravenous;PO,oral;IT,intrathecal.
Drugs
Cytarabine
Cytarabine is used for the treatment of leukemia, lymphoma, and leptomeningeal carcinomatosis.Itrequiresintracellularactivationtoitsphosphorylatedderivative.Thelatter inhibits DNApolymerase that is involved in the conversion of cytosine to deoxycytidine.
Commondose-limiting toxicityismyelosuppression. Other common side effects include nausea,vomiting,mucositis,diarrheaandneurotoxicity(117).
5-Fluorouracil
5-Fluorouracil is used for the treatment of gastrointestinal malignancies, as well as breast, pancreatic, and head and neck cancer. It requires activation to cytotoxic
metabolites.It interferes with DNA synthesis by blocking thymidylatesynthetase (TS), an enzymeinvolvedintheconversionofdeoxyuridylicacidtothymidylicacid.Metabolitesare incorporatedintoseveralRNAspecieswhichinterferewithproteinsynthesis.Incorporation of another metabolite into DNA results in inhibition of DNA synthesis and function. 5-
fluorouracil is cell-cycle S-phase specific but acts in other cell cycle phases as well. 5­fluorouracil rapidly enters spinal fluid and malignant effusions. Most of the degradation
occurs in the liver and inactive metabolites are excreted in the urine and bile. The main dose-limitingtoxicityismyelosuppression,whilecommonsideeffectsincludemucositis anddiarrhea.Othersideeffectsincludehand–footsyndromewithprotractedinfusiontimes;
alopeciaisrarelyobserved(118).
Capecitabine
Capecitabineisusedforthetreatmentofbreastandcoloncancer.Itisanoralmedicationand it is a prodrug 5′-deoxy-5-fluorouridine, which is converted in vivo to 5-fluorouracil. Degradation is similar to 5-fluorouracil; the dose limiting toxicity has been diarrhea and hand–footsyndrome(119).
Gemcitabine
Gemcitabine is used for the treatment of patients with pancreatic, bladder, lung, and ovariancancer,aswell assoft tissuesarcomas.It is a fluorine-substituteddeoxycytidine
analog.Itfunctionsasacellphasespecificagent,primarilykillingcellsinS-phase.However, gemcitabinealsoblockstheprogressionofcellsthroughtheG1toSphase.Gemcitabine is metabolizedintracellularlyandincorporatedintoDNA.Themaindose-limitingtoxicityis
myelosuppression.Commonsideeffectsincludenausea,vomiting,diarrhea,stomatitis, flu-likesymptoms,andskinrash.Alopeciahasbeenonlyrarelydescribed(120).
Methotrexate
Methotrexateisusedforawidevarietyofconditionsincludingthetreatmentofbreast cancer and gestational trophoblastic disease. Methotrexate blocks the enzyme
dihydrofolatereductase,preventingformationofreduced(tetrahydro-)folicacid.Tetrahydro folic acid is crucial to the transfer of carbon units in a variety of biochemical reactions. Methotrexate thus blocks formation of thymidylate from deoxyuridylate and prevents synthesis of DNA. Leucovorin can reverse the immediate cytotoxic effects of
methotrexate.Generally,1mgofleucovorinisgivenforeach1mgofmethotrexate.Dose-
limiting toxicity for high-dose regimens include nausea and vomiting.Methotrexate
neurotoxicity depends on the dose and route of administration; following intrathecal administration, methotrexate can produce an acute aseptic meningitis that is usually self­limited(121).
Pemetrexed
Pemetrexedisusedforthetreatmentofmesothelioma,non–small-celllungandovarian cancer. It is a pyrrolopyrimidine antifolate analog with activity in the S phase of the cell
cycle.Inhibitionofthefolate-dependentenzymethymidylatesynthetase(TS)isthemainsite of action. It also inhibits dihydrofolate reductase and two formyltransferases. The drug is mainlyclearedby the kidneys. About 90% of the drug is excretedunchangedinthe urine within24hours.Patientswithinsufficientfolateintakemaybeatincreasedriskoftoxicity.A baselinehomocysteinelevel >10is predictiveforthedevelopmentof grade3to4toxicity. Dose-limitingtoxicityis myelosuppression. All patients are given 1 mg of folic acid by mouthandsubcutaneousvitaminB12injectionsevery3weeksduringpemetrexedtreatment to reduce drug toxicity.Steroid medications the day before, the day of, and the day after pemetrexedtreatmentreducedrugtoxicities(122).
PlantAlkaloids(MitoticSpindleAgents)
The most commonly used plant alkaloids are the vinca alkaloids, natural products derived fromthe commonperiwinkleplant (Vincarosea)(Table4.12).Like mostnaturalproducts, thesecompoundsarelargeandcomplexmolecules,butvincristineandvinblastinedifferonly by a single methyl group on one side chain. Paclitaxel,docetaxel, and ixabepilone inhibit microtubuleassemblyduringtheMphaseofthecellcycle.
Mechanism
Themitoticspindleisformedbytheassemblyof microtubulesthat arecomposed ofalpha andbetatubulin.Vincaalkaloidsbindtothetubulindimer,whichisinhibitingassemblyof microtubulesduringtheMphaseofthecellcycle.Athighconcentrations,thesedrugshave effectsonnucleicacidandproteinsynthesis.Thetaxanesbindtomicrotubulesandpromote their assembly. They also promote resistance to depolymerization, which leads to the productionofnonfunctionalmicrotubules.
Drugs
Paclitaxel
Paclitaxel is used for the treatment of many cancers including breast, ovarian, lung, cervical,andpancreatic.It was originally isolated from the bark of the pacific yew tree
taxus brevifolia. Since the mid-1990s, paclitaxel has been chemically synthesized. Unlike
othertubulintargetingdrugssuchascolchicinethatinhibitsmicrotubuleassembly,paclitaxel stabilizes the microtubule polymers and protects them from disassembly. As a result, chromosomes are unable to achieve a metaphase spindle configuration. This blocks the progressionofmitosisandprolongedactivationofthemitoticcheckpointtriggersapoptosis. ThedrugisextensivelymetabolizedinthehepaticP450microsomalsystem.Morethan75% of the drug is excreted in the feces. Dose-limiting toxicity is neutropenia (123).
Carboplatin, cisplatin, and cyclophosphamide decrease paclitaxel clearance and thus increasemyelosuppression.Theyshouldbeadministeredafterpaclitaxel.
Table4.12PlantAlkaloids(MitoticSpindleAgents)
Drug
Routeof Administration CommonToxicities DiseasesTreated
Vincristine IV Neurotoxicity,
myelosuppression, cranialnervepalsies, gastrointestinal
Ovariangermcell, sarcomas,cervical cancer
Vinblastine IV Myelosuppression,
alopecia,nauseaand vomiting,neurotoxicity
Ovariangermcell
Paclitaxel IV Myelosuppression,
alopecia,allergic reactions,neuropathy
Ovarian,breastcancer
Vinorelbine IV Myelosuppression,
constipation,peripheral neuropathy
Ovarian,breastcancer
Docetaxel IV Myelosuppression,
alopecia,hypersensitivity reactions,peripheral edema
Breast,ovariancancer
Nab-paclitaxel IV Myelosuppression,
alopecia,peripheral neuropathy
Breast.Pancreatic,non­smallcelllung
Eribulin IV Myelosuppression,
peripheralneuropathy
Breastcancer, liposarcoma
Ixabepilone IV Myelosuppression,
mucositis,peripheral neuropathy
Breast,endometrial cancer
IV,intravenous.
A common side effect is hypersensitivity, which is manifested by cutaneous flushing, hypotension, bronchospasm, urticaria, diaphoresis, pain, or angioedema. Reactions usually develop within 10 minutes of starting the treatment. Premedication with corticosteroids, diphenhydramine, and famotidine has been advised. Reactions may be caused by the solvent cremophor or by the drug itself. Another common side effect is peripheral neuropathy, particularly with higher dosage schedules. The distribution of neuropathy is typically stocking- and glove-like and consists of paresthesia and loss of proprioception, whichmaytakemonthstoresolve.Alopeciaoccursin90%ofpatients,isusuallytotal,and is apparent within 4 weeks of treatment. Other side effects include nausea, vomiting, mucositis,ordiarrhea.
Protein-boundPaclitaxel(Nab-Paclitaxel)
Nab-paclitaxelisasolvent-freeformulationofpaclitaxel,whichisusedforthetreatment ofbreast,pancreatic,and non–small-cell lung cancer. The paclitaxel is albumin-bound,
which helps make the drug more water-soluble and facilitates the transport across cell membranes. Since solvent-related hypersensitivity reactions do not occur with nap- paclitaxel,thosemedications commonly used for paclitaxel are not necessary. Other dose­limitingtoxicitiesandcommonsideeffectsareverysimilartopaclitaxel(124).
Docetaxel
Docetaxelisusedforthetreatmentofmanycancersincludingbreast,ovarian,stomach, esophagus, head and neck, and prostate. The drug is prepared semi-synthetically,
beginning with a precursor extracted from the needles of the European yew tree. It is an inhibitor of microtubular depolymerization and is extensively metabolized in the hepatic P450microsomalsystem.Themaindoselimitingtoxicityismyelosuppression.Otherside
effects include alopecia, maculopapular rash, discoloration of fingernails, mucositis, fatigue, and occasionally hypersensitivity. The neurotoxicity is slightly less when
comparedtopaclitaxel.Premedicationshould include4-mg dexamethasone twicedaily the daybeforeandafterchemotherapy,toreducefluidretention,skinrash,andallergicreactions (125).
Eribulin
Eribulinisanon-taxanemicrotubuleinhibitor,thatisahalichondrinBanalog.Itinhibitsthe formationofmitoticspindles,causingarrestofthecellcycleattheG2/Mphase.Eribulin suppressespolymerizationofmicrotubuleswithoutaffectingdepolarization.Morethan80% of the drug is excreted unchanged in the feces. The main dose-limiting toxicities are myelosuppressionandperipheralneuropathy(126).
Ixabepilone
Ixabepilone is used for the treatment of refractory locally advanced or metastatic breast
cancer. This drug is an epothilone B analog. It binds to the beta tubulin subunit of the microtubule,thusarrestingthecellcycleattheG2/Mphaseandinducingapoptosis.Likethe other mitotic spindle inhibitors, it is excreted mostly in the feces, with minimal renal excretion.Thedoselimitingtoxicitiesaremyelosuppressionandcentrifugalneuropathy. Alopeciaiscommon andoccasional sideeffectsarehand–footsyndromeand skinand nail disorders(127).
Vinblastine
Vinblastineisusedforthetreatmentoflymphomasandtesticularcarcinoma.Thedrugis a plant alkaloid which binds to microtubular proteins. It also inhibits RNA synthesis by affectingDNA-dependentRNApolymerase.VinblastinecausesarrestoftumorcellsintheM phaseofthecellcycle.Thedrugismetabolizedthroughtheliverandpredominantlyexcreted in the bile. The major dose-limiting toxicity is neutropenia, while other side effects includenausea,vomiting,diarrhea,mucositis,andinterstitialpneumonitis(128).
Vincristine
Vincristineisusedinawidevarietyofmalignanciesincludinggestationaltrophoblastic tumors.Thepharmacologicmechanismsofmetabolismarethesameasforvinblastine.The dose-limiting toxicity is peripheral neuropathy, which develops universally. Alopecia
occursin20–50%ofpatients,whileraresideeffectsincludenauseaandvomiting(128).
Vinorelbine
Vinorelbineisusedforthetreatmentofnon–small-celllung,breast,andovariancancers as well as lymphoma. It is a semisynthetic alkaloid derived from vinblastine. It inhibits
tubularpolymerization,disruptingtheformationoftubulesduringmitosis.Mostofthedrug is metabolized in the liver and excreted in the bile. Dose-limiting toxicity is myelosuppression.Other sideeffectsinclude neuropathy, nausea, vomiting,and stomatitis (129).
Acknowledgments
TheauthorswouldliketoacknowledgeDr.MaurieMarkman,whosignificantlycontributed toearlierversionsofthischapter.
References
1. MitchisonT.Theproliferationrateparadoxinantimitoticchemotherapy.MolBiolCell2012;23:1–6.
2. DeVitaVTJr,ChuE.Ahistoryofcancerchemotherapy.CancerRes2008;68(21):8643–8653.
3. Gilman A, Philips FS.The biological actions and therapeuticapplications of theβ-chloroethylamines and sulfides.
Science1946;103:409–415.
4. FarberS,DiamondLK,MercerRD,etal.Temporaryremissionsinacuteleukemiainchildrenproducedbyfolicacid
antagonist,4-aminopteroyl-glutamicacid(aminopterin).NEnglJMed1948;238:787–793.
5. LiMC,HertzR,BergenstalDM.Therapyofchoriocarcinomaandrelatedtrophoblastic tumors withfolicacidand
purineantagonists.NEnglJMed1958;259:66–74.
6. Heidelberger C, Chaudhuari NK, Danenberg P,et al. Fluorinated pyrimidines. A new class of tumor inhibitory
compounds.Nature1957;179:663–666.
7. Johnson TS, ArmstrongJG, Gorman M,et al. Thevinca alkaloids: a new class of oncolyticagents. Cancer Res
1963;23:1390–1427.
8. DeVita VT, Serpick A, Carbone PP. Preliminary clinical studies with ibenzmethyzin. Clin Pharmacol Ther
1966;7:542–546.
9. Freireich EJ, Karon M, Frei E III. Quadruple combination therapy (VAMP) for acute lymphocytic leukemia of
childhood.ProcAmAssocCancerRes1964;5:20.
10. HollandJF.Hopesfor tomorrow versus realitiesof today: therapyand prognosis in acutelymphocytic leukemia of
childhood.Pediatrics1970;45:191–193.
11. DeVitaVT,SerpickAA,CarbonePP.CombinationchemotherapyinthetreatmentofadvancedHodgkin’sdisease.
AnnInternMed1970;73:881–895.
12. CanellosGP, DeVitaVT,Gold GL,etal. Cyclical combinationchemotherapy in the treatmentof advanced breast
carcinoma.BritMedJ1974;1:218–220.
13. FisherB,CarboneP,EconomouSG,etal.L-phenylalaninemustard(L-PAM)inthemanagementofprimarybreast
cancer.NEnglJMed1975;292:110–122.
14. BonadonnaG,BrusamolinoE,Valegussa P,et al. Combinationchemotherapyasanadjuncttreatmentinoperable
breastcancer.NEnglJMed1976;294:405–410.
15. McGuireWP,HoskinsWJ,BradyMF,etal.Cyclophosphamideandcisplatincomparedwithpaclitaxelandcisplatin
inpatientswithstageIIIandstageIVovariancancer.NEnglJMed1996;334(1):1–6.
16. OzolsRF,BundyBN,GreerBE,etal;GynecologicOncologyGroup.PhaseIIItrialofcarboplatinand paclitaxel
compared with cisplatin and paclitaxel in patients with optimally resected stage III ovarian cancer: a Gynecologic OncologyGroupstudy.JClinOncol2003;21(17):3194–3200.
17. du Bois A, Luck HJ, Meier W, et al;Arbeitsgemeinschaft Gynäkologische Onkologie Ovarian Cancer Study Group.Arandomizedclinicaltrialofcisplatin/paclitaxelversuscarboplatin/paclitaxelasfirst-linetreatmentofovarian
cancer.JNatlCancerInst2003;95(17):1320–1329.
18. MorrisM,EifelPJ,LuJ,etal.Pelvicradiationwithconcurrentchemotherapycomparedwithpelvicandpara-aortic radiationforhigh-riskcervicalcancer.NEnglJMed1999;340(15):1137–1143.
19. Rose PG, Bundy BN, Watkins EB, et al. Concurrent cisplatin-based radiotherapy and chemotherapy for locally advancedcervicalcancer.NEnglJMed1999;340(15):1144–1153.
20. PetersWA3rd,LiuPY,BarrettRJ2nd,etal.Concurrentchemotherapyandpelvicradiationtherapycomparedwith pelvicradiationtherapyaloneasadjuvanttherapyafterradicalsurgeryinhigh-riskearly-stagecancerofthecervix.J ClinOncol2000;18(8):1606–1613.
21. Crawford S. Is it time for a new paradigm for systemic cancer treatment? Lessons from a century of cancer chemotherapy.FrontPharmacol2013;4:68.
22. KastanMB,BartekJ.Cellcyclecheckpointsandcancer.Nature2004;432:316–323.
23. AartsM,LinardopoulosS,TurnerNC.Tumourselectivetargetingofcellcycle kinasesforcancertreatment.Curr
OpinPharmacol2013;13:529–535.
24. AlbertsB,JohnsonA,LewisJ,etal.Anoverviewofthecellcycle.In:MolecularBiologyoftheCell.4thed.New York:GarlandScience;2002.
25. JordanC,GuzmanML,NobleM.Cancerstemcells.NEJM2006;355(12):1253–1261.
26. AndreeffM,GoodrichDW,PardeeAB.Chapter2:Cellproliferation,differentiation,andapoptosis.In:BastRCJr, KufeDW,PollockRE,etal.,eds.Holland-FreiCancerMedicine.5thed.Hamilton,ON:BCDecker;2000.
27. StegAD,BevisKS,KatreAA,etal.Stemcellpathwayscontributetoclinicalchemoresistanceinovariancancer.Clin
CancerRes2012;18(3):869–881.
28. Latifi A, Luwor RB, Bilandzic M, et al. Isolation and characterization of tumor cells from the ascites of ovarian cancerpatients:molecularphenotypeofchemoresistantovariantumors.PLoSOne2012;7(10):e46858.
29. KwonMJ,ShinYK.Regulationofovariancancerstemcellsortumor-initiatingcells.IntJMolSci2013;14(4):6624–
6648.
30. SkipperHE,Schabel FMJr,MullettLB.Implicationsofbiochemical,cytokinetic,pharmacologic,andtoxicologic relationshipsinthedesignofoptimaltherapeuticschedules.CancerChemotherRep1950;54:431–450.
31. Vergote I, Trope CG, Amant F, et al. Neoadjuvant chemotherapy or primary surgery in stage IIIC or IVovarian cancer.NEnglJMed2010;363(10):943–953.
32. KehoeS,HookJ,NankivellM,et al.Primarychemotherapyversusprimarysurgeryfornewlydiagnosedadvanced ovariancancer(CHORUS):anopen-label,randomised,controlled,non-inferioritytrial. Lancet 2015;386(9990):249–
257.
33. Kuerer HM, Newman LA, Smith TL, et al. Clinical course of breast cancer patients with complete pathologic primary tumor and axillary lymph node response to doxorubicin-based neoadjuvant chemotherapy. J Clin Oncol 1999;17(2):460–469.
34. BohmS,FaruqiA,SaidI,etal.Chemotherapyresponsescore:developmentandvalidationofasystemtoquantify histopathologic response to neoadjuvant chemotherapy in tubo-ovarian high-grade serous carcinoma. J Clin Oncol 2015;33(22):2457–2463.
35. ZhaoH,HeY,YangSL.Neoadjuvantchemotherapywithradicalsurgeryvsradicalsurgeryaloneforcervicalcancer: asystematicreviewandmeta-analysis.OncoTargetsTher2019;12:1881–1891.
36. vanDrielWJ,KooleSN,SikorskaK,etal.Hyperthermicintraperitonealchemotherapyinovariancancer.NEnglJ Med2018;378(3):230–240.
37. YounesA,BartlettNL,LeonardJP,etal.Brentuximabvedotin(SGN-35)forrelapsedCD30-positivelymphomas.N EnglJMed2010;363:1812–1821.
38. VermaS, Miles D,Gianni L, etal.; EMILIAStudyGroup.Trastuzumabemtansine for HER2-positive advanced breastcancer.NEnglJMed2012;367:1783–1791.
39. CamposMP,KonecnyGE.Thetargetinvites a foe: antibody-drugconjugatesin gynecologic oncology.CurrOpin ObstetGynecol2018;30(1):44–50.
40. AmantF,HanSN,GziriMM,etal.Chemotherapyduringpregnancy.CurrOpinOncol2012;24(5):580–586.
41. ZahreddineH,BordenK.Mechanismsandinsightsintodrugresistanceincancer.FrontPharmacol2013;4:28.
42. Burrell RA, McGranahan N, Bartek J, et al. The causes and consequences of genetic heterogeneity in cancer
evolution.Nature2013;501:338–345.
43. LingV.Drugresistanceandmembranealterationinmutantsofmammaliancells.CanJGenetCytol1975;17:503–515.
44. AlfaroukKO,StockCM,TaylorS,etal.Resistancetocancerchemotherapy:failureindrugresponsefromADMEto
P-gp.CancerCellInt2015;15:71.
45. Helleday T,Petermann E, Lundin C, et al. DNA repair pathways as targets for cancer therapy. Nat Rev Cancer 2008;8:193–204.
46. DemariaM,O’LearyMN,ChangJ,etal.Cellularsenescencepromotesadverseeffectsofchemotherapyandcancer relapse.CancerDiscov2017;7:165–176.
47. MilanovicM,FanDNY,BelenkiD,etal.Senescence-associatedreprogrammingpromotescancerstemness.Nature 2018;553:96–100.
48. HoeyT.Drugresistance,epigenetics,andtumorcellheterogeneity.SciTranslMed2010;2:28ps19.
49. ChenQN,WeiCC,WangZX,etal.Longnon-codingRNAsinanti-cancerdrugresistance.Oncotarget2017;8:1925–
1936.
50. BashashatiA,HaG,Tone A, et al. Distinctevolutionarytrajectoriesofprimaryhigh-gradeserousovariancancers revealedthroughspatialmutationalprofiling.JPathol2013;231:21–34.
51. ChenX,QianY,WuS.TheWarburgeffect:evolvinginterpretationsofanestablishedconcept.FreeRadicBiolMed 2015;79:253–263.
52. HanahanD,WeinbergRA.Hallmarksofcancer:thenextgeneration.Cell2011;144:646–674.
53. FischerKR, Durrans A, Lee S, et al. Epithelial-to-mesenchymal transitionis notrequired for lung metastasis but
contributestochemoresistance.Nature2015;527:472–476.
54. DuB,ShimJ.Targetingepithelial-mesenchymal transition (EMT)toovercomedrugresistanceincancer. Molecules 2016;21:965.
55. CanalP,ChatelutE,GuichardS.Practicaltreatmentguidefordoseindividualisationincancerchemotherapy.Drugs 1998;56(6):1019–1038.
56. BeijnenJH,SchellensJH.Druginteractionsinoncology.LancetOncol2004;5(8):489–496.
57. BlowerP,deWitR,GoodinS,etal.Drug-druginteractionsin oncology: why aretheyimportant and can they be
minimized?CritRevOncolHematol2005;55(2):117–142.
58. FreiEIII,EderJP.Chapter44:Principlesofdose,schedule,and combination therapy.In:Kufe DW,Pollock RE, WeichselbaumRR,etal.,eds.Holland-FreiCancerMedicine.6thed.Hamilton,ON:BCDecker;2003.
59. BookmanMA,BradyMF,McGuireWP,etal.Evaluation ofnewplatinum-basedtreatmentregimensinadvanced-
stageovariancancer:aPhaseIIITrialoftheGynecologicCancerIntergroup.JClinOncol2009;27(9):1419–1425.
60. MayerLD,JanoffAS.Optimizingcombinationchemotherapybycontrollingdrugratios.MolInterv2007;7(4):216–
223.
61. EisenhauerEA,TherasseP, Bogaerts J, et al. New response evaluationcriteriainsolidtumours:revisedRECIST guideline(version1.1).EurJCancer2009;45(2):228–247.
62. CollinsIM,Roberts-ThomsonR,FaulknerD,etal.Carboplatindosinginovariancancer:problemsandpitfalls.IntJ GynecolCancer2011;21(7):1213–1218.
63. CalvertAH,NewellDR,GumbrellLA,etal.Carboplatindosage:prospectiveevaluationofasimpleformulabased onrenalfunction.JClinOncol1989;7:1748–1756.
64. https://ctep.cancer.gov/content/docs/carboplatin_information_Letter.pdf#search=%22carboplatin%20information%20letter%22
AccessedDecember29,2019.
65. https://gogmember.gog.org;https://www.gog.org/Spring2011newsletter.pdf.AccessedDecember29,2019.
66. SmithTJ,BohlkeK,LymanGH,etal.RecommendationsfortheuseofWBCgrowthfactors:Americansocietyof
clinicaloncologyclinicalpracticeguidelineupdate.ClinOncol2015;33(28):3199–3212.
67. National Comprehensive Cancer Network (NCCN) clinical practice guidelines in oncology. Available at
https://www.nccn.org/professionals/physician_gls/pdf/aml.pdf.AccessedSeptember6,2019.
68. KlasterskyJ,deNauroisJ,RolstonK,etal.Managementoffebrileneutropaenia:ESMOclinicalpracticeguidelines. AnnOncol2016;27(suppl5):v111–v118.
69. Roila F, Molassiotis A, Herrstedt J, et al. 2016 MASCC and ESMO guideline update for the prevention of chemotherapy-andradiotherapy-inducednauseaandvomitingandofnauseaandvomitinginadvancedcancerpatients. AnnOncol2016;27(suppl5):v119–v133.
70. HeskethP,KrisMG,Basch E,etal.Antiemetics:Americansocietyofclinicaloncology clinical practiceguideline update.JClinOncol2017;35:3240–3261.
71. SchnellFM. Chemotherapy-induced nausea and vomiting: the importance of acute antiemetic control. Oncologist 2003;8(2):187–198.
72. BensingerW, Schubert M, Ang KK, et al. NCCN TaskForceReport.preventionandmanagementofmucositisin cancercare.JNatlComprCancNetw2008;6(Suppl1):S1–S21;quizS22–S24.
73. ArtzAS,SomerfieldMR,FeldJJ,etal.AmericanSocietyofClinicalOncologyprovisionalclinicalopinion:chronic hepatitisBvirusinfectionscreeninginpatientsreceivingcytotoxicchemotherapyfortreatmentofmalignantdiseases.J ClinOncol2010;28(19):3199–3202.
74. deWitM,OrtnerP,LippHP,etal.Managementofcytotoxicextravasation—ASORSexpertopinionfordiagnosis, preventionandtreatment.Onkologie2013;36(3):127–135.
75. KomenMM,SmorenburgCH,vandenHurkCJ,etal.Factorsinfluencingtheeffectivenessofscalpcoolinginthe preventionofchemotherapy-inducedalopecia.Oncologist2013;18(7):885–891.
76. MuggiaFM,HainsworthJD,JeffersS,etal.PhaseIIstudyofliposomaldoxorubicin inrefractoryovariancancer: antitumoractivityandtoxicitymodificationbyliposomalencapsulation.JClinOncol1997;15:987–993.
77. KingPD,PerryMC.Hepatotoxicityofchemotherapy.Oncologist2001;6(2):162–176.
78. LimperAH.Chemotherapy-inducedlungdisease.ClinChestMed2004;25:53–64.
79. BovelliD,PlataniotisG, Roila F; ESMOGuidelinesWorkingGroup.Cardiotoxicity of chemotherapeutic agents
andradiotherapy-relatedheartdisease:ESMOClinicalPracticeGuidelines.AnnOncol2010;21(Suppl5):v277–v282.
80. PerezEA,RodehefferR.Clinicalcardiactolerabilityoftrastuzumab.JClinOncol2004;22:322–329.
81. BurgerRA,SillMW,MonkBJ,etal.PhaseIItrialofbevacizumabinpersistentorrecurrentepithelialovariancancer
orprimaryperitonealcancer:aGynecologicOncologyGroupstudy.JClinOncol2007;25:5165–5171.
82. LameireN, Kruse V, Rottey S. Nephrotoxicity of anticancer drugs—An underestimated problem? Acta Clin Belg 2011;66(5):337–345.
83. PerazellaMA,MoeckelGW.Nephrotoxicityfromchemotherapeuticagents:clinicalmanifestations,pathobiology,and