Shu-Yue Pan
Hui-Min Tian
Yong Zhu1†
Rui-Juan Cheng- 1Department of Rheumatology and Immunology, The Fifth People’s Hospital Affiliated to Chengdu University of Traditional Chinese Medicine/Chengdu Fifth People’s Hospital, Chengdu, China
- 2Department of Rheumatology and Immunology, West China Hospital, Sichuan University, Chengdu, Sichuan, China
- 3Department of Radiology, The Fifth People’s Hospital Affiliated to Chengdu University of Traditional Chinese Medicine/Chengdu Fifth People’s Hospital, Chengdu, China
Autoimmune diseases are diseases that cause damage to the body’s own tissues as a result of immune dysfunction, often involving multiple organs and systems. The heart is one of the common target organs of autoimmune diseases. The whole structure of the heart can be affected, causing microcirculatory disorders, arrhythmias, pericardial damage, myocarditis, myocardial fibrosis, and impaired valvular function. However, early clinical manifestations of autoimmune heart damage are often overlooked because they are insidious or have no typical features. The damage is often severe and irreversible when symptoms are apparent, even life-threatening. Therefore, early detection and treatment of heart damage in autoimmune diseases is particularly important. Herein, we review the clinical features and mechanisms of cardiac damage in common rheumatic diseases.
Introduction
Autoimmune diseases are disorders of the immune system that cause damage to body’s own tissues and organs, leading to disability and death. The pathogenesis of autoimmune diseases is complex and often involves multiple organs and systems of the body (1).
The clinical manifestations of cardiac damage in autoimmune diseases are complex. The mechanism of cardiac damage is not clear and considered to be related to a combination of autoimmune regulatory disorders and chronic inflammation. Immune complex deposition in different areas of the heart can cause autoimmune inflammatory reactions and activate body’s complement system (2). Oxidative stress caused by persistent inflammation, along with cytokine-induced increased fibroblast activity, can lead to myocardial collagen deposition and myocardial interstitial fibrosis (3). In addition, chronic inflammation leads to accumulation of monocyte in the blood and promotes upregulation of intercellular adhesion molecules, the release of pro-inflammatory cytokines, and the production of matrix degrading enzymes. This will lead to vascular endothelial dysfunction and early onset of coronary atherosclerosis (4). The mechanism and extent of cardiac involvement vary across autoimmune diseases, which results in varied pathophysiology and clinical manifestations. The aim of this review is to summarize clinical manifestations and mechanism of cardiac damage in systemic autoimmune diseases (Table 1).
Table 1 Common cardiac damage in autoimmune diseases.
Rheumatoid arthritis
Rheumatoid arthritis (RA) is the most common chronic systemic autoimmune disease. The pathological changes of RA include chronic inflammation of the synovial membrane, pannus formation and gradual destruction of articular cartilage and bone. These processes ultimately lead to joint deformity and loss of function (59). Early cardiac diseases are very common but often subclinical in patients with RA. However severe cardiac damage increases the risk of ischaemic heart disease and heart failure and is a leading cause of premature death in patients (5, 6). Most RA patients do not develop severe cardiac manifestations even after years of disease: their hearts predominantly exhibit subclinical and asymptomatic changes. RA cardiovascular injuries mainly include heart failure, ischemic heart disease, pericarditis, myocarditis, cardiomyopathy, cardiac amyloidosis, coronary vasculitis, arrhythmias and valvular diseases (7). The increased risk of sudden cardiac death in RA patients is secondary to ischemic heart disease, non-ischemic heart disease and cardiac arrhythmias (60). At the coronary level, endothelial dysfunction in large and small coronary arteries can lead to ischemic heart disease, either secondary or not secondary to atherosclerosis. At the myocardial level, the presence of local inflammation (myocarditis, pericarditis) and fibrosis may cause diastolic or systolic dysfunction and subsequent cardiac hypertrophy. These changes in the coronary vasculature and myocardial tissue can lead to cardiac arrhythmias, hear failure and sudden cardiac death (61).
Heart failure is one of the main causes of cardiovascular mortalities in patients with RA (8). Studies have shown that RA patients have a higher incidence of heart failure with preserved ejection fraction (HFpEF) compared to non-RA patients (9). Patients with RA also have an increased incidence of congestive heart failure (CHF), and inflammatory stimuli appear to play an important role in the development of CHF in patients with RA (10). Left ventricular diastolic dysfunction is a common manifestation of RA heart failure, the risk of which increases as the disease progresses (11) RA induced heart failure do not typically present with systolic dysfunction. Many symptom reliefing drugs for RA, such as steroid and NSAIDs, carry a potential risk of heart damage (12). RA predisposes patients to a variety of coronary artery injury, such as coronary arteritis, vasospasm and microvascular disease. All of these can destabilize atherosclerotic coronary artery disease and lead to cardiac ischemia (13). In addition, glucocorticoid use is associated with an increased risk of heart failure, myocardial infarction, stroke and all-cause mortality in a dose-dependent manner (12).
Pericarditis is another common cardiac complication in RA. Although pericarditis with clinical symptoms may be less than 15%, echocardiography can show 20%~50% of RA patients with pericardial involvement, of which 20%~40% are pericarditis, mainly fibrinous (14, 15). RA pericarditis generally has a favorable prognosis and rarely results in cardiac tamponade. However, fibrinous pericarditis can lead to pericardial constriction and even death (16). Pericarditis in RA is characterized pathologically by diffused fibrinoid exudation of the pericardium and varying degrees of adhesions to the heart. The main clinical manifestations are due to fibrinous pericardial occlusion or chronic pericardial effusion; a small number of patients may present with fever, chest pain, an enlarged heart border and pericardial friction rub in the acute phase. Their clinical presentation may not correlate with the duration or severity of their joint disease. Symptoms are often vague and nonspecific, which frequently cause delays in diagnosis and subsequent treatment (17). RA pericarditis is mainly caused by chronic inflammatory reactions, whereas pericardial effusion is mostly caused by extensive vasculitis, which can precede joint disease. Severe cases associated with cardiac tamponade, pericardial effusion causing hemodynamic compromise, or constrictive pericarditis may require surgical treatment (e.g. pericardiocentesis, pericardiectomy, or pericardiotomy) (18).
Cardiac arrhythmia is an important clinical manifestation of cardiac damage caused by RA. Inflammatory processes in the heart can cause excessive myocardial fibrosis leading to ventricular sclerosis, which result in systolic and diastolic dysfunction as well as cardiac arrhythmias. Atrial fibrillation is the most common cardiac arrythmias in RA related arrythmias. Dysfunction of the immune system leading to arrhythmia in patients with RA may have the following mechanisms: (1) crosstalk between immune cells and fibroblasts and/or cardiomyocytes, leading to fibrosis and thus atrial fibrillation; (2) immune cells directly participate in the electrical remodeling of leukocytes through gap junctions with CX-43 leading to atrial fibrillation; (3) the immune system can directly affect the specific ion channel function on the surface of cardiomyocytes through autoantibodies and/or inflammatory cytokines leading to atrial fibrillation (19–21). RA patients progressively developed proarrhythmic QTc prolongation over time (22). Dai et al, reported in a recent animal study that RA can induce atrial fibrillation by increasing the number of RA rat cardiac fibroblasts and expressing inflammatory factors such as TNF-α and IL-6. These inflammatory factors are involved in pathophysiological processes such as atrial fibrosis (AF), atrial myocardial apoptosis and autophagy, as well as atrial electrical remodeling and autonomic remodeling. It has been found that the duration of AF is positively correlated with plasma IL-6 and TNF-α levels (62).
In addition, valvular involvement in patients with RA is also common in clinical practice. There are two types of heart valve involvement: (1) nonspecific fibrosis and sclerosis and thickening of the valve. The lesions are mostly locate at the base of the leaflets and annulus. Antigen-antibody complexes are deposited at the lesion site so that collagen fibers undergo fibroid degeneration, interstitial edema and inflammatory cell infiltration, which can lead to severe valvular distortion, deformation and poor coaptation (23); (2) a relatively specific form of involvement, where nodules, similar to those formed in subcutaneous tssues, develop in the myocardium and valvular tissue. Rheumatic granulomas can invade the annulus and base of the valve, and the lesions are mostly located in the center of the leaflet thus do not affect the surrounding part. The main valves involved are mitral and aortic valves, with valvular fibrosis causing insufficiency being the most common (24). The signs and symptoms of patients with heart valve disease induced by RA are insidious and not easily detected by clinical examination. Therefore, it is necessary to use ultrasonography to determine whether the heart valve is damaged and whether lesions have occurred.
Systemic lupus erythematosus
The heart is one of the target organs involved in systemic lupus erythematosus (SLE), and all parts of the heart can be affected, including the pericardium, myocardium, endocardium, conduction system and coronary artery. Some scholars believe that immune complexes formed by specific antibodies such as ds-DNA, anti-Sm antibody and self-antigens exist in any tissues of the heart in SLE patients. These antibodies induce lymphocytes, immune factors, etc., to accumulate widely around the myocardium, pericardium, coronary vessel wall and conduction system, further promoting the inflammatory cascade response and causing cardiac tissue damage, dysfunction and cardiac dysrhythmia (63). Systemic manifestations of SLE are severe, and cardiac damage caused by SLE is easily overlooked in the early stage due to inconspicuous symptoms or subtle clinical signs and is difficult to manage as the disease progresses (64).
The main manifestations of pericardial diseases in SLE are pericardial thickening and pericardial effusion. Patients present clinically with precordial pain, shortness of breath, chest tightness, transient pericardial friction, etc. Histologically, acute pericardial involvement is characterized by exudative or fibrinous changes, if injury persists and recurs, scarring progresses can be observed as well (25). Pericardial diseases often occur in the early or recurrent stages of SLE, suggesting that pericardial diseases, especially pericardial effusion, are related to SLE activity. The autoimmune reactions during SLE activity produce immune complex deposition in the pericardium, causing increased pericardial permeability and lead to pericardial effusion. Serous or fibrinous exudations are seen in the acute phase, and pericardial adhesions may occur in the chronic phase (26). Inflammatory exudates and autoantibodies dominated by neutrophils were found in pericardial effusions of SLE patients (27). In addition, pericarditis is also a common manifestation of pericardial damage in SLE, typical histopathology is characterized by monocyte infiltration, deposition of fibrin substances and immune complexes (28, 29).
SLE also has a high rate of myocardial injury. Frequently the cardiomyopathy that SLE causes are occult and atypical clinical features. Autopsy revealed SLE with myocardial damage in up to 63% of the patients (30). Myocarditis is a serious manifestation of SLE myocardial injury, and myocarditis has a variety of clinical presentations, including dyspnea, non-exertional chest pain, peripheral edema, fever, diaphoresis, paroxysmal nocturnal dyspnea, nausea, vomiting, and palpitations (31). Immune complexes abnormally deposited in the myocardium can cause edema of connective tissue, infiltration of inflammatory cells, and eventually leading to degeneration and necrosis of cardiomyocytes, myocardial fibrosis and scarring., Biopsies typically show fibrotic plaques in the myocardium, interstitial mononuclear cell infiltration, and occasional myocardial cell necrosis with immune complex deposition, which can be observed even in areas without inflammatory lesions (32).
SLE with valvular heart disease is also a common clinical manifestation of heart injury. Roldan et al. identified valvular abnormalities in 61% of SLE patients by echocardiography; valve thickening was 51%, vegetations 43%, valve regurgitation 25%, and stenosis 4% (33). Under the microscope, the valvular lesions of SLE are characterized by proliferating and degenerated cells forming fibrin and fibrous tissue, occasionally with thrombi and necrotic tissue. They are most commonly located in the supraspinous tendon, papillary muscle, and at the edge of the valve (34). It is usually characterized by valve thickening, varying degrees of fibrosis, scar formation, calcification and valve excrescence. Clinical manifestations may include fever, bradycardia, tachycardia and cardiac murmur (35). Anticardiolipin antibodies are generally considered to be closely related to SLE valvular involvement (36), mainly mitral and aortic valves, leading to valve thickening, fibrosis, stenosis and dysfunction. Shapiro et al. found that immunoglobulin and complement were selectively deposited along the vascular wall, indicating that circulating immune complexes may participate in the formation of uninfected vegetation on the valve (37). At present, it is speculated that SLE with valvular disease may be caused by valvular inflammation from the deposition of circulating immune complexes and the activation of complement. Valvulitis and scarring promote vascular thickening and deformation, leading to valve dysfunction in elderly SLE patients (38). In addition, some scholars believe that antiphospholipid antibodies may contribute to the occurrence of valvular heart disease and promote thrombosis, but further studies into this area is required to confirm this. Severe valvular disease leads to ventricular enlargement and CHF, this is linked with poor prognosis.
The mechanisms of cardiac arrhythmias with SLE are not fully understood. The manifestations of arrhythmia in SLE patients are complex and diverse. Sinus tachycardia has the highest incidence, which may be caused by abnormal autonomic regulation of the sinoatrial node due to cardiac immune damage, excessive sympathetic tone and vagal weakening. This was followed by sinus bradycardia, which may be related to sinoatrial node damage leading to reduced function. Studies have shown that supraventricular arrhythmias, atrioventricular block (especially high grade) and other arrythmias are mostly associated with positive ribonucleoprotein (RNP) antibodies (39). In addition, it has been reported that anti-SSA and SSB antibodies in the serum of mothers with SLE can be transplacentally transmitted to the fetus, causing congenital heart block in newborns (36). Another study by Logar et al. suggested that anti-SSA and/or anti-SSB antibodies are associated with the development of conduction block in adult SLE patients (40). Studies have shown that there is a significant correlation between left atrial enlargement and AF (41). Other arrhythmias seen in SLE patients also include atrioventricular block, bundle branch or branch block, various extrasystoles, sick sinus syndrome, atrial fibrillation, etc. (42, 43).
Polymyositis/dermatomyositis
Polymyositis/dermatomyositis (PM/DM) is a heterogeneous group of diseases characterized by chronic inflammation of striated muscle and skin. PM/DM can involve multiple organs and a significant proportion of patients have cardiac damage which affect the treatment and prognosis. The two types of myositis have different histopathological features. DM is a microangiopathy with capillary injury and secondary ischemic changes in muscle fibers, whereas PM has cellular infiltration at major endomysial sites with CD8+ lymphocytes infiltration into MHC I positive muscle fibres (44). The main manifestations of cardiac injury are arrhythmia, myocardial injury, pericarditis, valvular disease, pulmonary arterial hypertension and myocardial ischemia. Clinically, patients may have elevation of myocardial injury markers (TnT, brain natriuretic peptide), various rhythmic abnormal ECG findings, and systolic and diastolic dysfunction detected by echocardiogram (45). Myocardial cells can also be affected in inflammatory myopathy. Infiltration of inflammatory cell in myocardium is the most common pathological change, accounting for approximately 38% of patients, followed by focal myocardial fibrosis (22%) (46). Myocardial damage caused by PM/DM was highly similar to the pathological characteristics of skeletal muscle, mainly manifested as diffuse mononuclear cell infiltration in the myocardial interstitium and perivascular area. Additionally, the myocardium of the patient may experience fibrosis, showing enlargement, degeneration, and necrosis. Cardiac damage, as a common complication of PM/DM, has complex and diverse manifestations, has an insidious onset and varying severity of symptoms, requiring high vigilance in clinical practice.
Myocarditis may be one of the most important manifestations for cardiovascular system involvement in PM/DM patients. The main effect of myocarditis including myocardial hypertrophy, myocardial ischemia, myocardial infarction, cardiac enlargement and left ventricular systolicand diastolic dysfunction. The abnormal immune system of DM/PM patients attacks their own skeletal muscle cells while also attacking cardiomyocytes, resulting in varying degrees of cardiomyocyte involvement. Myocardial biopsy in patients with DM shows CD4+ T lymphocyte infiltration in the surface layer of the muscle bundles and the epimysial region that surrounds small vessels. There is also tissue atrophy around muscle bundles. Similar changes can be found in the cardiac conduction system as well.
Serum muscle enzyme examination is an important basis for the diagnosis of PM/DM. In addition to elevated creatine kinase levels, there may be elevated levels of cardiac enzymes such as cardiac troponin I (47). Cardiac myocardial enzyme changes can be masked by serum muscle enzyme changes in extensive skeletal muscle damage. Additionally, the clinical symptoms of myocardial injury are insidious, atypical symptoms and are easily ignored.
Arrhythmia and conduction abnormalities are most common in PM/DM myocardial damage. Electrocardiogram and Holter abnormalities observed in PM/DM included premature atrial or ventricular contractions, atrial tachycardia, ventricular tachycardia, atrial fibrillation, atrioventricular block, bundle branch block, abnormal Q waves, and nonspecific ST-T wave changes (49). Bundle branch block and atrioventricular block were predominant in conduction block, with left anterior fascicular block and right bundle branch block being the most common (48). The cardiac conduction system is affected by immune processes, such as myocarditis and myocardial fibrosis (involving the sinoatrial node and conduction system), accompanied by lymphocyte infiltration and contraction band necrosis. In addition, cardiac small vessel disease, such as luminal narrowing, smooth muscle hyperplasia and vascular intimal hyperplasia, can also cause arrhythmia, cardiac strangulation and other symptoms. The prognosis of PM/DM is related to the degree of cardiac involvement, so the detection and treatment of early cardiac dysfunction is critical and can prevent serious complications.
Primary Sjogren’s syndrome
Primary Sjogren’s syndrome (pSS) is a diffuse connective tissue disease characterized by invasion of exocrine glands (such as salivary glands and lacrimal glands), abnormal proliferation of B lymphocytes and histolymphatic invasion. Heart is one the the target organis and pathologies are often subclinical and easily ignored. When pSS involves the heart, it mainly manifests as pericardial effusion, myocardial ischemia, heart block, valvular heart disease, etc., and even causes heart failure and myocardial infarction in severe cases. Cardiac involvement may be caused by myocarditis, myocardial fibrosis, vasculitis, or microvascular dysfunction, which is associated with chronic inflammatory responses resulting from autoimmune diseases, such as the effects from inflammatory agents like IL-6 and INF-α. Although the clinical manifestations of cardiac damage in patients with pSS are not obvious, multiple studies have shown that cardiac damage caused by pSS is not uncommon (50–52). Their clinical presentations can be and complex and variable, and treatment options should be carefully selected.
Myocardial damage in patients with pSS includes myocarditis, myocardial fibrosis, myocardial ischemia, etc., which are mainly caused by pSS related chronic inflammatory reactions. Myocardial fibrosis gradually appears when exposed to an inflammatory environment, such as increased TNFα, IL-1β, and IL-6 cytokine expression, as well as upregulated monocyte chemoattractant protein 1, IL-8, and biglycan expression, leading to overexpression of α-SMA, osteopontin, and lysy-l oxidase (53). Some scholars believe that vasculitis is caused by vascular wall injury followed by immune complexes formation secondary to immune-mediated antigen-antibody reactions. This process leads to vascular intimal thickening or even hyalinization, I and in severe cases, full-thickness vasculitis may occur, blocking the myocardial blood supply.
Patients with pSS often have abnormalities in their annular apparatus, such as valves, annulus, chordae tendineae, and papillary muscles, on echocardiography. Heart valve changes mainly manifested as valvular regurgitation. Abnormal valvular thickening in pSS patients mainly involve mitral, tricuspid and aortic valves. These thickening can be seen on the entire leaflets or along the margins of the leaflets, the development of which are thought to be dependent on the immunopathological features of pSS (54). Chronic inflammation associated with pSS immunoreactivity may contribute to exacerbated systemic sclerosis (SSc) in valvular tissue degeneration. In conclusion, for patients with confirmed pSS, attention should also be paid to their cardiac symptoms and signs in order to perform relevant examinations and decide for treatment
Systemic sclerosis
SSc is clinically characterized by localized or diffuse thickening and fibrosis of the skin and systemic diseases affecting the heart, lungs, and digestive system. Extensive vascular disease, collagen proliferation, and fibrosis of the affected tissue are the pathological features of this disease. SSc often involves the heart, causing patients to develop cardiovascular disease while developing corresponding autoimmune symptoms. Anti-endothelial antibody-induced endothelial cell injury, ischemia/reperfusion injury, and immune-mediated cytotoxicity are the main causes of vascular injury, as well as impaired vascular repair mechanisms (55). Cardiac injury occurs in two forms: one is direct damage to the heart, including the production of large amounts of collagen fibers through the continuous activation of fibroblasts, impairment of microcirculatory function and immune system regulation. These can lead to ischemic damage of the myocardial tissue, fibrosis, small coronary artery spasm, valvular stenosis, and fibrosis or inflammatory damage to the pericardium and cardiac conduction system, the other is heart disease secondary to SSc damage of the lungs or kidneys (56). SSc can cause collagen proliferation and fibrosis in all parts of the heart, and then the corresponding clinical symptoms appear. Myocardium, coronary arteries, pericardium, cardiac conduction system and heart valves can also be affected.
Myocardial fibrosis is a typical presentation of cardiac involvement in SSc, it can manifest as patchy myocardial fibrosis, focal degeneration and necrosis (57). Myocardial fibrosis is often located under the endocardium, leading to a series of clinical symptoms such as myocardial ischemia, hypertrophy, and ventricular diastolic dysfunction. Bulkley reported that 50% of 52 SSc autopsy materials had myocardial lesions and multiple irregular patchy fibrotic lesions in the myocardium (58). Myocardial involvement is characterized by decreased myocardial systolic function and compliance. This may be the results of severe proliferation of collagen fibers in the myocardium. As recurrent Raynaud’s phenomenon in the myocardium leads to myocardial ischemia, healthy tissues are replaced by collagen fibers after degeneration and necrosis to form scars of different sizes.
Conclusions
In recent years, cardiac damage in autoimmune diseases has gradually become the focus of attention of rheumatologists. Research on the pathogenesis, diagnosis and treatment of heart damage in autoimmune diseases is still in the exploratory stage. Immunosenescence is a process related to aging. T cells changes caused by immunosenescence have been shown to reduce normal immune responses as well as increase the risk for autoimmunity and inflammation. Various factors may contribute to immunosenescence related T cell changes, such as thymic degeneration, shortened telomere and epigenetic changes. It has also been reported that chronic viral infections may drive immunosenescence and contribute to the development of atherosclerosis (65).
Immunosenescence process is not due to overall functional decline of T cells, instead, it is due to the accumulation of T cells have undergone cellular senescence (66). Those senescent T cells have important roles in the pathophysiological processes of cardiovascular disease: they trigger inflammatory responses and cause cytotoxicity; both promote the progression of disease. At the same time, risk factors associated with cardiovascular diseases are also strongly related to senescent T cells. As we age, pro-inflammatory cytokines accumulate and cause increase in monocyte specific TLR signaling. This is shown to be linked with the development of chronic heart failure (67). It is not clear what the exact mechanism underlying autoimmune disease induced cardiac damage is. Recent studies have shed light on some cellular pathways: the role of adaptive immunity in cardiomyocyte injury, especially the roles of pro-inflammatory and anti-apoptotic phenotype of CD4 CD28 cytotoxic T cells (68). It has been reported that RA patients with extraarticular inflammation or atherosclerosis have prominent CD4+CD28-T cells (69). Chronic simulation of inflammatory factors in autoimmune disease can cause inflammatory damage of cardiomyocytes, which lead to cardiac damage. Cardiac dysfunction caused by inflammation have been reported in animal models as well (70). The importance of senescent immunity in autoimmune disease heart damage has not been officially proven and requires further research, which also provides another direction for our future research. The early clinical manifestations of heart injury in autoimmune diseases are relatively insidious and are not easy to attract the attention of physicians. When symptoms become apparent, the damage is often severe and irreversible; therefore, early diagnosis, timely prevention and treatment are essential to improve prognosis and reduce long-term morbidity and mortality. Therefore, the clinical manifestations and pathogenesis of cardiac damage in autoimmune diseases should be fully grasped, and cardiac damage in patients with autoimmune diseases should be treated with caution. After excluding their traditional risk factors for heart disease, the effects of the primary disease should be considered, and early examination, early detection and treatment should be carried out.
Author contributions
Conceptualization: YZ and ZY; Methodology: S-YP and R-JC; Formal analysis: ZY and S-YP; Writing original draft preparation: H-MT, HZ, W-JG, S-YP, YZ; Writing and editing: S-YP, X-QW, R-JC. All authors contributed to the article and approved the submitted version.
Funding
Seedling project of science and Technology Department of Sichuan Province (Project no. 2021JDRC0153) to S-YP.
Conflict of interest
The authors declare that the research was conducted in the absence of any commercial or financial relationships that could be construed as a potential conflict of interest.
Publisher’s note
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Keywords: autoimmune disease, cardiac damage, rheumatoid arthritis, systemic lupus erythematosus, polymyositis/dermatomyositis, Sjogren’s Syndrome, systemic sclerosis
Citation: Pan S-Y, Tian H-M, Zhu Y, Gu W-J, Zou H, Wu X-Q, Cheng R-J and Yang Z (2022) Cardiac damage in autoimmune diseases: Target organ involvement that cannot be ignored. Front. Immunol. 13:1056400. doi: 10.3389/fimmu.2022.1056400
Received: 28 September 2022; Accepted: 07 November 2022;
Published: 22 November 2022.
Edited by:
Chris Wincup, King’s College Hospital NHS Foundation Trust, United KingdomReviewed by:
Sally A. Huber, University of Vermont, United StatesKyoko Imanaka-Yoshida, Mie University, Japan
Copyright © 2022 Pan, Tian, Zhu, Gu, Zou, Wu, Cheng and Yang. This is an open-access article distributed under the terms of the Creative Commons Attribution License (CC BY). The use, distribution or reproduction in other forums is permitted, provided the original author(s) and the copyright owner(s) are credited and that the original publication in this journal is cited, in accordance with accepted academic practice. No use, distribution or reproduction is permitted which does not comply with these terms.
*Correspondence: Rui-Juan Cheng, b3JhbmdlNDExQHFxLmNvbQ==; Zhi Yang, eWFuZ3poaWNkd3lAcXEuY29t
†These authors have contributed equally to this work and share first authorship