Erythrokeratodermia-cardiomyopathy syndrome: A Patient Guide
At a Glance
Erythrokeratodermia-cardiomyopathy syndrome is a rare genetic condition linked to DSP gene changes that affects the skin and heart. Skin changes may appear early, while heart disease can be silent, so ongoing heart imaging and rhythm monitoring are important.
Erythrokeratodermia-cardiomyopathy (EKC) syndrome is an exceptionally rare genetic condition that bridges two of the body’s most essential systems: the skin and the heart. The condition is associated with a change in the DSP gene, which provides the instructions for making a protein called desmoplakin. This protein acts as a vital “cellular glue” or anchor, helping to hold cells together in tissues that experience constant mechanical stress. When these anchors are weakened, the skin and the heart muscle can struggle to remain structurally sound, leading to the dual nature of the syndrome [1][2].
The most visible part of EKC is the skin involvement, which typically appears in infancy as red, thickened, and scaly patches. These skin changes are often what lead families to seek medical attention initially. However, a critical aspect of the condition is the potential for cardiomyopathy, or heart muscle disease. In individuals with DSP variants, the heart muscle can undergo structural changes—such as the development of scar tissue or the enlargement of the pumping chambers—which can interfere with the heart’s electrical rhythms and pumping strength. Unlike the skin symptoms, this heart involvement is often “silent” in its early stages, meaning it can evolve without causing obvious outward symptoms like shortness of breath or fatigue [3][4].
Because the skin and heart symptoms do not always progress at the same rate, managing EKC requires an ongoing, proactive approach. A person may have significant skin challenges while their heart remains stable, or they may have mild skin changes while the heart requires careful medical management. This variability means that regular cardiac imaging and rhythm monitoring are highly recommended, even when a patient feels perfectly healthy. Understanding this relationship allows families and care teams to support both the visible skin symptoms and the internal health of the heart [5][6].
While much of the medical literature regarding EKC comes from case reports and small cohorts, identifying the underlying genetic cause allows you and your medical team to implement a personalized care plan. Modern cardiology offers sophisticated tools to monitor heart health, manage symptoms, and guide shared decisions about treatments. By building a multidisciplinary team of specialists—including genetics, dermatology, and inherited cardiology—you can ensure that your care is tailored to your specific needs over time [7][8].
In this guide
7 chapters
Understanding Your Diagnosis: Erythrokeratodermia-Cardiomyopathy Syndrome (EKC)
Learn what erythrokeratodermia-cardiomyopathy (EKC) syndrome means, how DSP mutations affect skin and heart, and why regular cardiac screening matters.
Recognizing Symptoms and Emergency Red Flags in EKC
Learn to recognize erythrokeratodermia-cardiomyopathy syndrome symptoms and emergency red flags, including chest pain, fainting, palpitations, breathing trouble
The Biology of EKC: Glue, Gaps, and Look-Alikes
Learn how EKC syndrome affects skin and heart cells, how DSP gene variants cause acantholysis and fibrosis, and how doctors distinguish similar disorders.
The Diagnostic Journey: Testing and Imaging for EKC
Learn how Erythrokeratodermia-cardiomyopathy (EKC) is diagnosed with DSP genetic testing, skin biopsy, ECG, echo, cardiac MRI, and Holter monitor testing.
Standard of Care: Protecting Your Heart and Managing Your Skin
Learn how EKC syndrome care protects heart health and manages skin symptoms, including medicines, ICD decisions, moisturizers, exercise, and warning signs.
Staying Ahead: Advanced Monitoring and Risk Assessment
Learn how Erythrokeratodermia-cardiomyopathy syndrome monitoring uses ECGs, Holter monitors, echocardiograms, cardiac MRI, and DSP risk markers to guide care.
Building Your Care Team: Coordination and First Visit Prep
Learn how to prepare for an EKC syndrome specialty visit, organize genetic and heart records, coordinate care, and arrange family DSP testing with a counselor.
Common questions in this guide
What is erythrokeratodermia-cardiomyopathy syndrome?
How can a DSP gene change affect both the skin and heart?
Why is heart monitoring needed if I feel healthy?
Can the skin and heart problems progress at different rates?
Which doctors usually help manage this condition?
Should family members consider genetic counseling?
Get notified when new evidence is published on Erythrokeratodermia-cardiomyopathy syndrome.
We monitor PubMed for new peer-reviewed studies on this topic and email a short summary when something meaningful changes.
References
References (8)
- 1
Dominant de novo DSP mutations cause erythrokeratodermia-cardiomyopathy syndrome.
Boyden LM, Kam CY, Hernández-Martín A, et al.
Human molecular genetics 2016; (25(2)):348-57 doi:10.1093/hmg/ddv481.
PMID: 26604139 - 2
Desmoplakin Haploinsufficiency Underlies Cell-Cell Adhesion Failure in DSP Cardiomyopathy and is Rescued by Transcriptional Activation.
Smith ED, Jin K, Ferguson B, et al.
bioRxiv : the preprint server for biology 2025; doi:10.1101/2025.06.01.657304.
PMID: 40502028 - 3
Erythrokeratodermia-Cardiomyopathy Syndrome: Expanding the DSP Mutational Spectrum Beyond Proline Substitutions.
Hamzehlou S, Mortlock RD, Echeandia-Francis C, et al.
Pediatric dermatology 2026; (43(2)):444-447 doi:10.1111/pde.70048.
PMID: 41088746 - 4
Desmoplakin Cardiomyopathy: Gene Dose-Dependent Myocardial Remodeling, Arrhythmias, and Premature Death.
Guazzo A, Perumal Vanaja I, Di Bona A, et al.
JACC. Clinical electrophysiology 2026; (12(4)):747-764 doi:10.1016/j.jacep.2025.10.031.
PMID: 41411472 - 5
Hair and skin predict cardiomyopathies: Carvajal and erythrokeratodermia cardiomyopathy syndromes.
Sun Q, Wine Lee L, Hall EK, et al.
Pediatric dermatology 2021; (38(1)):31-38 doi:10.1111/pde.14478.
PMID: 33275305 - 6
Recurrent Ventricular Tachycardia in a Young Adult-Imaging and Genetic Evidence of DSP-Associated Arrhythmogenic Cardiomyopathy: A Case Report.
Gomez LE, Martinenghi N, Ortiz-Genga M, et al.
Case reports in cardiology 2026; (2026()):5899286 doi:10.1155/cric/5899286.
PMID: 41953707 - 7
Imaging Naxos disease and related cardiocutaneous syndromes: the NAXCARE multimodality approach.
Protonotarios I, Alsergani H, Anastasakis A, et al.
Hellenic journal of cardiology : HJC = Hellenike kardiologike epitheorese 2026; doi:10.1016/j.hjc.2026.03.007.
PMID: 41936932 - 8
A Novel Homozygous Mutation of the Desmoplakin Gene With Biventricular Arrhythmogenic Cardiomyopathy.
Giannoni A, Modena M, Montuoro S, et al.
JACC. Case reports 2025; (30(14)):103688 doi:10.1016/j.jaccas.2025.103688.
PMID: 40514143
This page is for informational purposes only and does not constitute medical advice. Your genetics, dermatology, and cardiology team can tailor heart monitoring and skin care for you or your child.