Δημήτρης Φαρμάκης · 2018. 7. 5. · Obesity ValvularHD (mod./severe) Combined...

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Ο ογκολογικός ασθενής και η καρδιά του Δημήτρης Φαρμάκης Αν. Καθηγητής, Πανεπιστήμιο Κύπρου Καρδιακή Ανεπάρκεια & Καρδιο-Ογκολογία, ΠΓΝ «Αττικόν»

Transcript of Δημήτρης Φαρμάκης · 2018. 7. 5. · Obesity ValvularHD (mod./severe) Combined...

  • Ο ογκολογικός ασθενής και η καρδιά του

    Δημήτρης Φαρμάκης

    Αν. Καθηγητής, Πανεπιστήμιο Κύπρου

    Καρδιακή Ανεπάρκεια & Καρδιο-Ογκολογία, ΠΓΝ «Αττικόν»

  • Disclosures

    • Consultation fees, speaker honoraria or travel grants from

    Boehringer-Ingelheim, Daiichi-Sankyo, Menarini, Novartis,

    Pfizer, Servier.

  • Outline

    • The burden

    • The pathophysiology

    • The spectrum

    • The role of Cardiologist

    • The open issues

  • The burden

  • Estimated and projected cancer survivors in USA

    de Moor JS et al. Cancer Epidemiol Biomarkers Prev 2013

  • Causes of death in cancer survivors

    Ning et al. Cancer Res 2012

    Causes of death in 1807 cancer survivors followed for 7 years

    Cancer

    51%Heart disease

    33%

    Other

    16%

  • Causes of death in breast cancer survivors

    Patnaik et al, Breast Cancer Res 2011

    Leading causes of death by time since breast cancer diagnosis

    63,566 breast cancer women

  • Childhood cancer survivors in UK

    Skinner et al. Lancet Oncol 2006

    Kroll et al. Cancer Stats Monograph 2004

    • In 2000, 26000 childhood cancer survivors in UK

    • Childhood cancer survival rates, 25% in 1960s vs. 75% in 1990s

  • Mortality in childhood cancer survivors

    • The Childhood Cancer Survivor Study

    • 20,227 childhood cancer 5-year survivors, diagnosed 1970-

    1986, up to 25 years follow-up

    • Standardized mortality ratio (SMR):

    – Overall mortality: 10.8 (10,3-11.3)

    – Cardiac mortality: 8.2 (6.4-10.4)

    Mertens et al, J Clin Oncol 2001

  • The pathophysiology

  • Farmakis et al. Eur J Heart Fail 2018

    Determinants of cardiotoxicity in cancer

  • 1. Effects of cancer therapy

    Lenneman and Sawyer, Circ Res 2016

  • Main cardiotoxic agents

    Ameri, Farmakis et al, Eur J Heart Fail 2018

  • Molecular pathways of anthracycline

    cardiotoxicity

    Lenneman and Sawyer, Circ Res 2016

  • Pathophysiology of anthracycline cardiotoxicity

    Henriksen, Heart 2017

  • Increased Top2β in peripheral blood in

    anthracycline-sensitive patients

    • Anthracycline-sensitive (n=21): low doxo dose (10% to 450 mg/m2 and preserved

    LVEF)

    Vejpongsa et al, Circulation 2013 (abstr)

    0,4

    24%

    Anthra-resistant Anthra-sensitive

    Top2β >0.5 ng/μg

    • Top2β levels >0.5 ng/μg a risk factor

  • Molecular pathways of ErbB2-targeted therapies

    cardiotoxicity

    Lenneman and Sawyer, Circ Res 2016

  • ErbB2 is essential in the prevention of

    dilated cardiomyopathy

    • ErbB2-knock-out mice developed spontaneous dilated

    cardiomyopathy

    • Cardiomyocytes isolated from these mice were more

    susceptible to anthracycline toxicity

    Crone et al, Nat Med 2002

  • Ewer and Ewer, Nat Rev Cardiol 2015

    Anthracycline-trastuzumab synergy

  • 2. Effects of cancer

    Farmakis et al, J Am Coll Cardiol 2014

  • Cancer and heart failure interaction

    Ameri, Farmakis et al, Eur J Heart Fail 2018

  • Common risk factors in cancer and heart failure

    Farmakis et al, Int J Cardiol 2016

  • 3. Effects of RF and CV disease

  • Risk factors for cardiotoxicity

    Farmakis et al, in press

    Demographics Risk factors Heart disease Cancer therapy

    Age 65 y

    Diabetes Heart failure or LV

    dysfunction

    Prior antracyclines

    Female gender

    (anthracyclines)

    Hypercho-

    lesterolemia

    CAD Prior chest

    radiotherapy

    Smoking Hypertensive HD

    (LVH)

    Combined

    chemo/targeted

    agents

    Obesity Valvular HD

    (mod./severe)

    Combined chemo

    and chest radiation

    Sedentary life Cardiomyopathies Cumulative dose

    (antrhacyclines)

    Sign. arrhythmias

    (AF, VT)

  • The spectrum

  • Myocardial dysfunction and heart failure:

    Not just anthracyclines!

    Farmakis et al, Eur J Heart Fail 2018

    Class Drug Incidence

    Anthacyclines Doxorubicin 3-48%

    Alkylating agents Cyclophosphamide 7-28%

    Antimicrotubule agents Docetaxel 2-13%

    Monoclonal Ab Trastuzumab 1-20%

    Tyrosine kinase inhibitors Sunitinib 3-19%

    Proteasome inhibitors Carfilzomib 11-15%

  • Cancer therapy cardiotoxicity:

    Not just LV dysfunction!

    Farmakis et al. (in press)

    Class Drug

    Arterial hypertension VEGF inh.

    Myocardial ischemia Fluopyrimidines, cisplatin

    Thromboembolism Cisplatin, VEGF inh.

    QT prolongation Arsenic trioxide, lapatinib, vandetanib

    Arrhythmias Alkylating agents, taxanes, anthracyclines

    Myocarditis Check-point inhibitors

  • Cardiovascular complications

    in cancer

    1. Myocardial dysfunction and heart failure

    2. Coronary artery disease

    3. Arrhythmias

    4. Arterial hypertension

    5. Valvular heart disease

    6. Thromboembolic disease

    7. Peripheral vascular disease and stroke

    8. Pulmonary hypertension

    9. Other: pericardial disease, ANS dysfunction

  • The role of cardiologist:

    In whom, when and how?

  • In whom?

    • Patients with a history of cardiotoxicity

    • Patients with coexistent CV disease

    • Patients with a constellation of CV risk factors

    • Patients previously exposed to cardiotoxic therapies

  • When?

    • Before cancer therapy:

    – Optimal treatment of CV disease and risk factors

    – Primary prevention measures

    • During cancer therapy:

    – Close monitoring for early detection of cardiotoxicity

    – Timely implementation of therapeutic measures

    • After cancer therapy:

    – Long-term surveillance

  • How?

    • Cardiovascular monitoring

    • Prevention

    • Treatment

    • Long-term follow-up

  • Cardiovascular monitoring

    ESC 2016

  • Cardinale et al, Circulation 2015

    Echo monitoring for LVEF decline

    • 2625 pts receiving anthracycline chemo (breast Ca or NHL)

    • Close monitoring (3-monthy during chemo and 1st year, 6-monthly for 4

    years, yearly afterwards)

    • 9% LVEF decline (decrease >10% to

  • Early detection of cardiotoxicity

    Ewer and Ewer, Nat Rev Cardiol 2015

  • Troponin predicts cardiac events and LVEF

    decline

    Cardinale et al, Circulation 2004

    TnI measured soon after chemotherapy (early TnI) and 1 month later (late TnI).

  • ΝT-proBNP predicts LVEF decline

    Cardinale & Sandri, Prog Cardiovasc Dis 2010

  • 2D strain predicts LV dysfunction early

    Stoodley et al, Eur J Echocard 2011

    Florescu et al, J Am Soc Echocardiogr 2014

    • Α decrease in longitudinal strain after the 3rd cycle of

    epirubicin was the best predictor of cardiotoxicity

    after treatment

    • >15% reduction in global longitudinal strain

  • 2D strain predicts LV dysfunction early

    • Global longitudinal strain >10-15% predicts future LVEF decline

    Mougdil et al, Echocardiography 2018

    Baseline 1 months 9 months

  • Primary prevention

    ESC 2016

  • Dexrazoxane for primary prevention

    • Meta-analysis, 10 RCTs, 1619 pts

    • Reduction of heart failure by 70%

    • No effect on tumor response rate, second malignancy or survival

    • Inconclusive for adverse events

    van Dalen et al, Cochrane Database Syst Rev. 2011

  • Treatment

    • Myocardial dysfunction/heart failure:

    – LVEF decrease >10% and 10% but >50%: repeated LVEF in 3 w

    • Coronary artery disease/events:

    – Patients on pyrimidine analogues: close ECG monitoring for ischemia

    – Discontinuation of chemotherapy if ischemia occurs; re-challenge only when

    no alternatives, pretreatment with nitrates and/or CCB

    • Arterial hypertension:

    – Start antihypertensive agents (avoid non-dihydropyridine CCB)

    – Reduce dose or stop VEGF inhibitors if BP not controlled; re-challenge once BP

    controlled

    • QT prolongation:

    – Stop treatment if QTc >500 ms or QTc prolonged >60 ms or dysrhythmias

    ESC 2016

  • Cardinale et al, Circulation 2015

    Effects of ACEi and BB on anthracycline-induced

    cardiotoxicity

    • 2625 pts receiving anthracycline chemo (breast Ca or NHL)

    • Enalapril and carvedilol or bisoprolol:

    • 82% LVEF recovery:

    – 11% full recovery (pre-chemo value)

    – 71% partial recovery (increase >5% and >50%)

    • Mean time to LVEF recovery: 8 months

  • Cardinale et al, JACC 2010

    • 201 pts, LVEF 50% - 13% LVEF incr. >10% but

  • ESC 2016

    Long-term follow-up in cancer survivors

    • Myocardial dysfunction: periodic screening (echo, biomarkers)

    in patients treated with anthracyclines or with reversible LV

    dysfunction during cancer therapy

    • CAD: periodic screening in patients with mediastinal radiation,

    starting 5 years post-treatment and at least every 5 years

    thereafter

    • Carotid artery disease: ultrasound scanning in patients with

    previous neck irradiation

    • Radiation-induced valvular heart disease: periodic screening

    (echo) at 10 years post-radiation and every 5 years thereafter

  • Τhe open issues

  • Open issues

    • Effectiveness of cardioactive agents in primary prevention

    • Integration of biomarkers & sensitive echo techniques in

    clinical practice

    • Biomarker/echo-guided primary prevention

  • Exercise for primary prevention

    • Theoretical background

    • Benefit proven in pre-clinical studies (rodent/murine models)

    • Poor clinical evidence (observational studies, CRF as main outcome)

    Chen et al, Am J Physiol Heart Circ Physiol 2017

    Scott et al, Circulation 2018

  • Trial Agent N Follow-up Endpoints

    Kalay (2006) Carvedilol 12.5 50 6mo ↓ LVEF decline

    ↓ diastolic dysfunction

    Bosch (2013)

    OVERCOME

    Carvedilol &

    Enalapril

    90 6mo ↓ LVEF decline

    ↓ Heat failure, death

    Tashakori Behoshiti

    (2016)

    Carvedilol 6,25 70 During

    chemo

    No effect on LVEF

    ↓ LV strain decline

    Avila (2018)

    CECCY

    Carvedilol 50 200 6mo No effect on LVEF

    ↓TnI increase

    Guglin et al, Carvedilol CR or

    lisinopril

    470 24 monts ↓ LVEF decline only in

    anthra-pretreated

    Farmakis et al, in press

    Main RCT on primary prevention:

    Carvedilol

  • Main RCT on primary prevention:

    Other CV agents

    Trial Agent N Follow-up Results

    Cardinale (2006) Enalapril 114 12mo ↓ LVEF decline

    ↓ MACE

    Pituskin (2015) Bisoprolol

    Perindopril

    99 12mo ↓ LVEF decline

    Gulati (2015) Candesartan 120 12-16mo ↓ LVEF decline

    Akpek (2015) Spironolactone 83 6mo ↓ LVEF decline

    ↓ TNI and BNP increase

    Acar (2011) Atorvastatin 40 RCT/6mo ↓ LVEF decline

    Farmakis et al, in press

  • Ongoing trials

    Meattini et al, Med Oncol 2017

    Farmakis et al, in press

    Trial Agent N Endpoints

    SAFE Biosoprolol,

    ramipril

    480 Biomarkers, echo (GLS)

    STOP Atorvastatin 90 CMR

    McKennan Metformin 44 Echo (LVEF)

    COG-ALTE1621 Carvedilol 250 Biomarkers, echo

    TITAN Multidisciplinar

    y care

    Biomarkers, echo, MACE

  • Biomarker-guided prevention

    Enalapril in Tn elevation

    • ICOS-ONE, open-label RCT

    • 21 Italian hospitals, 273 pts

    • 1st–line anthra

    • Enalapril in all or in Tn ↑

    • Mixed Tn assays (T/I, low/high sens.)

    • Primary outcome, Tn elevation > ULN

    • 23% vs. 26% (p=NS)

    • LVEF decline only in 1%

    Cardinale et al, Eur J Cancer 2018

  • Antithrombotic therapy for AFib in cancer

    Farmakis et al, J Am Coll Cardiol 2014

    • Anticoagulation if CHA2DS2VASc >=2 and PTL >50,000/mm3

    ESC 2016

  • Cardiac journey of cancer patients

    Cardinale et al, Curr Cardiol Rep 2016

    ??

  • Thank you!