JACC: CardioOncology

Multicohort Epigenome-Wide Association Study of All-Cause Cardiovascular Disease and Cancer Incidence: A Cardio-Oncology Approach
Domingo-Relloso A, Riffo-Campos AL, Zhao N, Ayala G, Haack K, Manterola C, Rhoades DA, Umans JG, Fallin MD, Herreros-Martinez M, Pollan M, Boerwinkle E, Platz EA, Jones MR, Bressler J, Joehanes R, Ryan CP, Gonzalez JR, Levy D, Belsky DW, Cole SA, Michaud DS, Navas-Acien A and Tellez-Plaza M
Emerging evidence reveals a complex relationship between cardiovascular disease (CVD) and cancer, which share common risk factors and biological pathways.
Prognosis After Withdrawal of Cardioprotective Therapy in Patients With Improved Cancer Therapeutics-Related Cardiac Dysfunction
Park H, Lee N, Hwang CH, Cho SG, Choi GH, Cho JY, Yoon HJ, Kim KH and Ahn Y
The long-term prognosis after the discontinuation of cardioprotective therapy (CPT) in patients with cancer therapeutics-related cardiac dysfunction (CTRCD) that has shown improvement remains unclear.
Autonomic Dysfunction Among Adult Survivors of Childhood Cancer in the St. Jude Lifetime Cohort Study
Groarke JD, Ness KK, Dhaduk R, Plana JC, Durand JB, Luepker RV, Joshi VM, Ehrhardt M, Mulrooney DA, Dixon SB, Nohria A, Green DM, Howell RM, Srivastava DK, Jefferies JL, Robison LL, Hudson MM and Armstrong GT
The burden and functional significance of autonomic dysfunction among survivors of childhood cancer is unknown.
Adiposity and Muscle Strength in Men With Prostate Cancer and Cardiovascular Outcomes
Leong DP, Fradet V, Niazi T, Selvanayagam JB, Sabbagh R, Higano CS, Agapay S, Rangarajan S, Mian R, Nakashima CAK, Mousavi N, Brown I, Valle FH, Lavallée LT, Shayegan B, Ng KKH, Gopaul DD, Cavalli GD, Saavedra S, Lopez-Lopez JP, Freitas de Souza C, Duceppe E, Avezum Oliveira LF, Guha A, Gomez-Mesa JE, Eduardo Silva Móz L, Violette PD, Avezum Á, Oliveira GBF, Kann AG, Walter E, Dusilek COL, Villareal Trujillo N, Beato P, Hajjar LA, Luke PPW, Schlabendorff E, Sarid D and Pinthus J
There are limited data on the physical effects of androgen deprivation therapy (ADT) for prostate cancer (PC), and on the relationships of such measures of adiposity and strength to cardiovascular outcomes.
Genomics for Improving Heart Failure Risk Assessment in Cancer Patients
Shah S
Steroids in Immune Checkpoint Inhibitor Myocarditis
Palaskas NL, Siddiqui BA and Deswal A
Cardiac Troponin I and T in ICI Myocarditis Screening, Diagnosis, and Prognosis
Barac A, Wadlow RC, Deeken JF and deFilippi C
Autonomic Dysfunction Among Adult Survivors of Childhood Cancer
Iliescu CA, Koutroumpakis E and Karimzad K
Epigenomics of Cardio-Oncology
Joyce BT
Carvedilol to Improve Cardiac Remodeling in Anthracycline-Exposed Childhood Cancer Survivors: Subgroup Analysis of COG ALTE1621
Armenian SH, Hudson MM, Lindenfeld L, Chen S, Chow EJ, Colan S, Echevarria M, Wong FL, Chen MH and Bhatia S
Anthracycline Cardiotoxicity in Adult Cancer Patients: State-of-the-Art Review
Camilli M, Cipolla CM, Dent S, Minotti G and Cardinale DM
Since their introduction in the 1960s, anthracyclines have been a significant breakthrough in oncology, introducing dramatic changes in the treatment of solid and hematologic malignancies. Although new-generation targeted drugs and cellular therapies are revolutionizing contemporary oncology, anthracyclines remain the cornerstone of treatment for lymphomas, acute leukemias, and soft tissue sarcomas. However, their clinical application is limited by a dose-dependent cardiotoxicity that can reduce cardiac performance and eventually lead to overt heart failure. The field of cardio-oncology has emerged to safeguard the cardiovascular health of cancer patients receiving these therapies. It focuses on controlling risk factors, implementing preventive strategies, ensuring appropriate surveillance, and managing complications. This state-of-the-art review summarizes the current indications for anthracyclines in modern oncology, explores recent evidence on pathophysiology and epidemiology, and discusses advances in cardioprotection measures in the anthracycline-treated patient. Additionally, it highlights key clinical challenges and research gaps in this area.
Cancer Survivors and Cardiovascular Risk: What Patients Should Know From the Perspective of Another Survivor
Petrow S
Rarefaction of Blood, But Not Lymphatic Capillaries, in Patients With Cardiac Amyloidosis
Aimo A, Bonino L, Castiglione V, Musetti V, Rossetti M, Celi A, Coceani M, Emdin M, Pucci A and Vergaro G
Use of Polygenic Risk Score for Prediction of Heart Failure in Cancer Survivors
Soh CH, Xiang R, Takeuchi F and Marwick TH
The risk for heart failure (HF) is increased among cancer survivors, but predicting individual HF risk is difficult. Polygenic risk scores (PRS) for HF prediction summarize the combined effects of multiple genetic variants specific to the individual.
Preventing Cardiac Damage in Patients Treated for Breast Cancer and Lymphoma: The PROACT Clinical Trial
Austin D, Maier RH, Akhter N, Sayari M, Ogundimu E, Maddox JM, Vahabi S, Humphreys AC, Graham J, Oxenham H, Haney S, Cresti N, Verrill M, Osborne W, Wright KL, Goranova R, Bailey JR, Kalakonda N, Macheta M, Kilner MF, Young ME, Morley NJ, Neelakantan P, Gilbert G, Thomas BK, Graham RJ, Fujisawa T, Mills NL, Hildreth V, Prichard J, Kasim AS, Hancock HC and Plummer C
Cardiotoxicity is a concern for cancer survivors undergoing anthracycline chemotherapy. Enalapril has been explored for its potential to mitigate cardiotoxicity in cancer patients. The dose-dependent cardiotoxicity effects of anthracyclines can be detected early through the biomarker cardiac troponin.
Priorities in Cardio-Oncology: Filling the Gaps in Evidence
Ky B
Body Composition During Androgen Deprivation Therapy in Prostate Cancer: A Target to Reduce Cardiovascular Risk
Lee J and Lin JB
Measuring "Cardiovascular Health" in Everyone Including Cancer Patients
Okwuosa TM and Lloyd-Jones D
Human Induced Pluripotent Stem Cell-Derived Cardiomyocytes for Preclinical Cardiotoxicity Screening in Cardio-Oncology
Shead KD, Huethorst E, Burton F, Lang NN, Myles RC and Smith GL
• hiPSC-CM offer an alternative to in vivo models for predicting cardiotoxicity. • hiPSC-CM monolayers detect pro-arrhythmic effects; inotropic detection is less established. • Cardiac spheroids and engineered tissue may suit chronic cardiotoxicity studies (>2 weeks). • Cardiac assays with non-myocyte cells may be key to identifying some cardiotoxicity forms. • hiPSC-CM technologies are well placed to develop patient-specific assays in the future.
Cardiovascular Considerations Before Cancer Therapy: Gaps in Evidence and Expert Panel Recommendations
Raisi-Estabragh Z, Murphy AC, Ramalingam S, Scherrer-Crosbie M, Lopez-Fernandez T, Reynolds KL, Aznar M, Lin AE, Libby P, Cordoba R, Bredsen-Masley C, Wechalekar A, Apperley J, Cheng RK and Manisty CH
Baseline cardiovascular assessment before the initiation of potentially cardiotoxic cancer therapies is a key component of cardio-oncology, aiming to reduce cardiovascular complications and morbidity in patients and survivors. Recent clinical practice guidelines provide both general and cancer therapy-specific recommendations for baseline cardiovascular toxicity risk assessment and management, including the use of dedicated risk scores, cardiovascular imaging, and biomarker testing. However, the value of such interventions in altering disease trajectories has not been established, with many recommendations based on expert opinion or Level of Evidence: C, studies with a potential for high risk of bias. Advances in understanding underlying mechanisms of cardiotoxicity and the increased availability of genetic and immunologic profiling present new opportunities for personalized risk assessment. This paper evaluates the existing evidence on cardiovascular care of cancer patients before cardiotoxic cancer therapy and highlights gaps in evidence and priorities for future research.
Guiding Treatment With Recovered CTRCD: Time to Focus on Definitions of Recovery and Randomized Data
Halliday BP and Nazir MS