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©The Author(s) 2025.
World J Cardiol. Jul 26, 2025; 17(7): 109787
Published online Jul 26, 2025. doi: 10.4330/wjc.v17.i7.109787
Published online Jul 26, 2025. doi: 10.4330/wjc.v17.i7.109787
Table 1 Epidemiological characteristics of acute myocardial infarction complicated by ventricular septal rupture before and after the implementation of emergency percutaneous coronary intervention, n (%)
Research object | Research center/country | Type of study population | AMI cases | VSR incidence | Gender (male:female) | Implementation status of acute PCI | Year | Ref. |
GUSTO Trial | International multicenter (Europe and United States) | AMI patients primarily receiving thrombolytic therapy | 36303 | 798 (2.2) | 1:1.2 | Thrombolysis as the primary approach | 1993 | [84] |
PAMI-1 and PAMI-2 | Multicenter (America) | AMI patients | 1295 | 4 (0.31) | - | PCI | 1995 | [85-87] |
SHOCK Research | International multicenter (Europe and United States) | Patients with cardiogenic shock complicated by VSR after MI | 939 | 55 (5.86) | - | Thrombolysis combined with IABP, partial PCI | 1999-2006 | [88] |
MOODY Registered Study | China (multicenter) | AMI | 9265 | 52 (0.56) | 0.625:1 | Thrombolysis combined with IABP, partial PCI | 1999-2016 | [89] |
- | International multicenter | STEMI, NSTEMI | 9126362 | 10344 (0.11) | 0.71:1 | Thrombolysis combined with IABP, partial PCI | 2003-2015 | [9] |
Huazhong Fuwai Cardiovascular Hospital | China (single centre) | VSR with percutaneous closure | - | 81 | 0.72:1 | PCI and Percutaneous Septal Closure | 2013-2020 | [90] |
Huazhong Fuwai Cardiovascular Hospital | China (single centre) | PIVSR patients | - | 213 | 0.95:1 | PCI | 2018-2023 | [91] |
CAUTION study(NCT03848429) | International multicenter | Post-infarction MCs | - | 720 | 1.46:1 | Thrombolysis combined with IABP, partial PCI | 2001-2019 | [92] |
Narayana Institute of Cardiac Sciences, India | India (single centre) | Patients diagnosed with post-AMI VSR and who underwent surgical closure of VSR by double patch technique | - | 77 | 2.67:1 | Thrombolysis combined with IABP, partial PCI | 2002-2022 | [93] |
Karachi Tabba Heart Institute, Department of Clinical Research in Cardiology | Pakistan (multicenter) | AMI-VSR | 11428 | 67 (0.6) | 1.68:1 | PCI | 2011-2020 | [94] |
First Affiliated Hospital of Xi'an Jiaotong University | China (single centre) | AMI-VSR | 5395 | 42 (0.78) | - | PCI | 2016-2020 | [95] |
Beijing Anzhen Hospital, Capital Medical University | China (single centre) | AMI-VSR | - | 180 | 0.94:1 | PCI | 2016-2023 | [25] |
Coronary Heart Disease Center, Fu Wai Hospital, National Center for Cardiovascular Diseases, Chinese Academy of Medical Science and Peking Union Medical College | China (single centre) | AMI-VSR | 12354 | 70 (0.57) | 0.89:1 | Thrombolysis combined with IABP, partial PCI | 2002-2010 | [96] |
Peking University People's Hospital Research | China (single centre) | STEMI | 2057 | 16 (0.7) | 1:1 | 11 cases of coronary angiography | 1990-2004 | [97] |
- | China (multicenter) | AMI-VSR | - | 127 | 1.12:1 | 61.4% drug therapy, 24.4% TCC, 14.2% surgical intervention | 2012-2019 | [98] |
Shenyang Northern Theater General Hospital | China (single centre) | AMI-VSR | - | 45 | 1.25:1 | Surgery, IABP/ECMO | 2012-2021 | [99] |
Cairo University | Egypt (single centre) | PIVSR | - | 32 | 1:1 | PCI | 2015-2023 | [100] |
Nanjing First Hospital Affiliated with Nanjing Medical University | China (single centre) | AMI-VSR | - | 50 | 0.63:1 | PCI | 2012-2021 | [101] |
National University of Singapore research | Singapore (single centre) | Analysis of Pathological Characteristics of VSR in Asian Populations | - | 40 | 1.2:1 | Histopathology combined with immunohistochemistry | 2010-2020 | [102] |
A tertiary care center in South India | South India (single centre) | Patients undergoing TCC | - | 21 | 2.5:1 | PCI + TCC | 2000-2014 | [103] |
Cleveland clinic | United States (single centre) | AMI-VSR | - | 38 | 1.375:1 | PCI + Ventricular septal repair | 1976-2023 | [104] |
Table 2 Comparative table of clinical characteristics of acute myocardial infarction complicated by ventricular septal rupture
Clinical factors | Clinical manifestations | Diagnostic methods | Risk factors | Prevalence (%) | Treatment options | Ref. |
Gender | The proportion of females was significantly higher than that in the control group (62.5% vs 36.4%) | Retrospective cohort analysis | Female is an independent risk factor | 62.5 (VSR group) | Gender does not affect treatment selection, but women require closer hemodynamic monitoring | [6,105] |
Age | Average age 66.85 years (VSR group) vs 60.79 years (control group) | Analysis of clinical data | Advanced age (> 65 years) significantly increases the risk | - | Elderly patients should be prioritized for interventional or surgical procedures | [6,105] |
Inflammatory markers | CRP, D-dimer levels are significantly elevated | Serological testing (CRP, D-dimer) | Inflammatory response exacerbates myocardial necrosis | - | Anti-inflammatory therapy (such as glucocorticoids) may assist in stabilizing the condition | [106,107] |
Myocardial injury markers | TnT significantly elevated | Troponin test | TnT levels are positively correlated with myocardial necrosis area | - | Early reperfusion therapy reduces peak TnT levels | [108] |
Hemoglobin | Hb, Hct, and RBC were significantly lower than those in the control group | Complete blood count test | Anemia may increase the cardiac workload | - | Blood transfusion support to maintain tissue oxygen supply | [14] |
Cardiac function classification | Killip classification ≥ grade III (78.1% in the deceased group vs 50% in the survival group) | Killip classification assessment | Deterioration of cardiac function is an independent risk factor for mortality | 60 (Killip IV) | IABP support therapy | [25,34] |
Myocardial infarction site | Anterior wall myocardial infarction accounts for 75%-84.6% | ECG, echocardiogram | Anterior wall infarction is prone to involve the blood supply area of the interventricular septum | 75-84.6 | Patients with anterior wall infarction require early screening for VSR | [14,109,110] |
Location of ventricular septal perforation | Near the cardiac apex (anterior wall infarction) vs posterior interventricular septum (inferior wall infarction) | Echocardiography (ventricular septal echo dropout, left-to-right shunt) | Posterior perforation carries a worse prognosis | 60 near the cardiac apex | Interventional closure is suitable for anterior perforations, while surgical repair is indicated for complex locations | [58] |
Perforation diameter | Average 9.8 ± 3.9 mm, large perforation (> 15 mm) are associated with higher mortality rates | Echocardiography | The perforation diameter is positively correlated with the left-to-right shunt volume | - | Major perforations require emergency surgical intervention or occlusion | [10,110] |
Reperfusion therapy | The proportion of reperfusion therapy was low (0% in the death group vs 50% in the survival group) | Coronary angiography (IRA completely occluded) | Failure to receive reperfusion therapy increases the risk of VSR | - | Emergency PCI or thrombolysis reduces the incidence of VSR | [10] |
Comorbidity | Hypertension (60%); Diabetes (27.8%-46.9%) | Medical history collection | Hypertension and diabetes accelerate myocardial remodeling | 60 (hypertension) | Control blood pressure and blood sugar to reduce cardiac workload | [14,110] |
Hemodynamic status | CS (90% mortality group vs 33.9% survival group) | Hemodynamic monitoring (mean arterial pressure, heart rate) | CS is an independent risk factor for 30-day mortality. (OR = 24.112) | 90 (mortality group) | VA-ECMO or IABP | [14] |
Laboratory indicators | Elevated white blood cell count and lactate levels (survival group) | Complete blood count, lactate test | Elevated white blood cell count (OR = 1.619) is associated with mortality | - | Anti-infection and metabolic support therapy | [58] |
MELD-XI Score | Patients with a score > 15 had a 3-year survival rate of 35.7% vs 85.1% for those with a score ≤ 15 | MELD-XI score (Based on creatinine and bilirubin) | High score indicates hepatic and renal dysfunction with poor prognosis | - | Patients with a score > 15 should be prioritized for palliative care | [58] |
Echocardiography parameters | LVEF is normal (66.7% of patients), but cardiac function continues to deteriorate | LVEF, LVEDD measurement | LVEF is normal but mechanical complications are prone to be missed in diagnosis | - | Comprehensive evaluation based on clinical symptoms | [14,93] |
Coronary artery disease | Multivessel disease (62.5%), with the left anterior descending artery being the most common infarct-related vessel | Coronary angiography | Multivessel disease and absence of collateral circulation increase the risk of VSR | 62.5 (multivessel disease) | CABG combined with VSR repair | [14,110] |
Time | Patients with AMI to VSR time ≤ 4 days have higher mortality rates | Medical history review | Early perforation (≤ 4 days) presents fragile myocardial tissue and carries high surgical risks | - | Postpone the surgery for 3-4 weeks (if hemodynamically stable) | [94] |
Timing of surgical intervention | Early surgery (≤ 7 days) mortality rate 43%, delayed surgery (> 4 weeks) mortality rate 65% | Analysis of Surgical Records | The timing of surgery is correlated with myocardial tissue stability | - | Hemodynamically stable patients are recommended for delayed surgery | [111,112] |
Interventional occlusion procedure | The 30-day mortality rate after occlusion was 32%, with a 3-year survival rate of 73.8% | Percutaneous interventional occlusion (umbrella occluder) | Blockage failure is related to the perforation location and diameter | - | Applicable to patients with hemodynamic stability and suitable perforation site | [58] |
Conservative treatment | The mortality rate of conservative treatment was 61.5% vs surgery/intervention at 14.3% | Medications (diuretics, vasodilators, positive inotropic drugs) | Conservative treatment is only suitable for those who cannot tolerate surgery | - | Short-term transitional therapy requires combination with IABP or ECMO | [113] |
Merged ventricular aneurysm | 30% of patients are complicated by ventricular aneurysm | Echocardiography or cardiac MRI | Ventricular aneurysm increases the risk of cardiac rupture | 30 | Resection of ventricular wall aneurysm combined with VSR repair | [21] |
Renal insufficiency | Elevated serum creatinine (death group 138.5 μmol/L vs survival group 88.0 μmol/L) | Serum creatinine test | Renal insufficiency is an independent risk factor for postoperative mortality (OR = 1.78) | - | Preoperative hemofiltration or postoperative CRRT | [14,114] |
Arrhythmia | The incidence of ventricular fibrillation and atrial fibrillation is relatively high | Electrocardiographic monitoring | Arrhythmia reflects instability in myocardial electrical activity | - | Antiarrhythmic drugs or ICDs | [115] |
Thrombosis risk | D-dimer levels were significantly elevated (death group 2.2 μg/mL vs survival group 1.0 μg/mL) | D-dimer test | Hypercoagulability increases the risk of embolism | - | Anticoagulation therapy (such as heparin), but the bleeding risk needs to be balanced | [109,116] |
Pulmonary artery systolic pressure | Pulmonary arterial hypertension (> 50 mmHg) is associated with right heart failure | Echocardiography (Tricuspid Regurgitation Velocity Method) | Pulmonary hypertension indicates increased right heart workload | - | Reduce pulmonary circulation resistance (such as inhaling NO) | [58,117] |
Mitral regurgitation | Mitral regurgitation area shows no significant correlation with mortality | Echocardiography (regurgitant jet area measurement) | Mitral regurgitation is mostly secondary and not an independent risk factor | - | After VSR repair, mitral valve function can be indirectly improved | [118] |
Hospitalization period | The death group had a shorter hospital stay (6 days vs the survival group's 22.5 days) | Medical record analysis | Short-term hospitalization reflects a sharp deterioration in the condition | - | Short-term hospitalization reflects a sharp deterioration in the condition | [6,109] |
Long-term prognosis | 3-year survival rate: Interventional closure 738%, surgical procedure 70% | Follow-up (survival rate, cardiac function classification) | Long-term mortality is often due to heart failure or reinfarction | - | Long-term anti-heart failure therapy postoperatively (such as ARNI, β-blockers) | [6,119] |
Case distribution | VSR accounts for approximately 0.2%-1.57% of AMI | Epidemiological statistics | The incidence of VSR has decreased in the PCI era, but mortality rates remain high | 0.2 - 1.57 | Enhance the popularization rate of early reperfusion therapy to reduce the incidence rate | [98,110] |
Table 3 Cardiac pathological characteristics and immunohistochemical results
Anatomic location | Pathologic feature | Immunohistochemical result | Perforation site | Complication | Probable cause of death | Ref. |
Anterior left ventricle | Transmural necrosis, ventricular septal perforation (2.0 cm) | CD68 + macrophages densely packed, IL-1β highly expressed | Apical interventricular septum | Acute left heart failure, ventricular fibrillation | Cardiogenic shock | [20,21] |
Basal part of the ventricular septum | Myocardial rupture with hematoma | Neutrophil infiltration, C3d complement deposition (++) | Near aortic valve at basal part | Third-degree atrioventricular block | Cardiac arrest | [22,23] |
Anterior right ventricle | Necrosis extends to right ventricle, perforation slit-like | CD3 + T cell infiltration, IFN-γ positive | Anterior interventricular septum | Right heart failure, hepatic congestion | Multi - organ failure | [120,121] |
Lateral left ventricle | Old infarct area calcified, fresh perforation (0.8 cm) | CD163 + M2 - type macrophages predominant, TGF-β highly expressed | Lateral edge of interventricular septum | Wall thrombus, cerebral embolism | Large - area cerebral infarction | [122,123] |
Middle of the ventricular septum | Necrosis with abscess formation | CD15 + neutrophils aggregated, Gram-positive bacteria detected | Middle of the ventricular septum | Septic shock, infective endocarditis | Sepsis with DIC | [23,124] |
Inferior left ventricle | Transmural necrosis with pericarditis | CD20 + B lymphocyte infiltration, focal IL-10 expression | Posterior - inferior part of interventricular septum | Cardiac tamponade, cardiac rupture | Acute cardiac tamponade | [125,126] |
Papillary muscle root | Papillary muscle rupture with mitral valve prolapse | CD31 + neovessel growth, VEGF highly expressed | Posterior papillary muscle attachment area of interventricular septum | Acute mitral regurgitation, pulmonary edema | Acute pulmonary edema asphyxia | [127,128] |
Apical left ventricle | Ventricular aneurysm formation, thrombus at perforation edge | CD68 + /CD206 + M2 - type macrophage polarization | Apical interventricular septum | Peripheral artery embolism (mesenteric) | Intestinal necrosis leading to septic shock | [129,130] |
Upper part of the ventricular septum | Perforation with aortic valve ring tear | CD4 + helper T cell infiltration, HLA-DR overexpressed | Upper part of interventricular septum near aortic valve | Aortic valve regurgitation, coronary artery dissection | Acute circulatory collapse | [131,132] |
Right ventricular outflow tract | Necrosis involving pulmonary valve | CD8 + cytotoxic T cell infiltration, PD-L1 negative in perforation area | Perforation in outflow tract of interventricular septum | Pulmonary hypertension, right ventricular failure | Acute right heart failure | [133,134] |
Posterior left ventricle | Transmural necrosis extending to AV groove | IgG/IgM immune complex deposition, C1q positive | Posterior - basal part of interventricular septum | Complete atrioventricular block | Asystole syndrome | [135,136] |
Anterior edge of the ventricular septum | Multiple small perforations (3 sites) | CD66b + NETs formed | Anterior 1/3 of interventricular septum | DIC, micro thromboembolism | Multi - organ microinfarction | [135,137] |
Basal left ventricle | Transmural necrosis with ventricular wall rupture | TNF-α/IL-6 double - positive cells diffuse | Basal part of interventricular septum | Mediastinal hematoma, pericardial effusion | Hemorrhagic shock | [120,122] |
Posterior right ventricle | Necrosis with fat infiltration | CD34 + microvessel density increased, Ang-2 highly expressed | Posterior - inferior part of interventricular septum | Pulmonary embolism, right atrial enlargement | Acute pulmonary embolism | [138,139] |
Anterior interventricular septum | Ventricular aneurysm with mural thrombus | CD47 highly expressed (anti-phagocytosis signal), fibrosis at perforation edge | Middle of anterior interventricular septum | Thrombus detachment causing renal infarction | Acute renal failure | [130,140] |
Junction of the septum and right ventricle | Granulation tissue growth in necrotic area | CD45RO + memory T cell infiltration, IL-17A positive in perforation area | Right ventricular face of interventricular septum | Refractory ventricular tachycardia | Electrical storm | [141,142] |
Posterolateral left ventricle | Transmural necrosis involving posterior leaflet of mitral valve | Mixed CD68 + macrophage and CD3 + T cell infiltration | Posterior papillary muscle area of interventricular septum | Acute mitral regurgitation, pulmonary edema | Respiratory failure | [123,125] |
Apical part of the septum | Perforation with left ventricular apical thrombus | CD14 + monocyte aggregation, MMP - 9 overexpression in perforation area | Apical interventricular septum | Cerebral embolism, lower limb artery embolism | Brainstem infarction | [22,143] |
Right ventricular septal part | Necrosis extending to tricuspid valve ring | CD79a + B cell infiltration, IgA deposition | Right side of interventricular septum | Tricuspid regurgitation, hepatic and renal failure | Hepatorenal syndrome | [144,145] |
Anterolateral left ventricle | Transmural necrosis with epicarditis | CD123 + plasmacytoid dendritic cell infiltration, IFN-α positive in perforation area | Anterolateral edge of interventricular septum | Pericarditis, pleural effusion | Cardiac tamponade | [122,123] |
Middle of the septum | Necrotic area with eosinophilic infiltration | CD117 + mast cell activation, histamine release in perforation area | Middle 1/3 of interventricular septum | Anaphylactic shock, bronchospasm | Asphyxia | [124,146] |
Posterior basal left ventricle | Old calcified lesion with fresh perforation | CD68 + macrophages and CD20 + B cell colocalization | Posterior - basal part of interventricular septum | Splenic infarction, sepsis | Septic cardiomyopathy | [147,148] |
Apical right ventricle | Necrosis with fatty degeneration | CD36 + foam cell aggregation, ox - LDL positive | Apical part of right ventricle | Pulmonary infarction, ARDS | Respiratory failure with right heart failure | [149,150] |
Anterior part of the left ventricle interventricular septum | Transmural necrosis with coronary artery fistula | CD144 + endothelial injury marker, VWF highly expressed in perforation area | Anterior interventricular septum near left anterior descending artery | Coronary artery - ventricular fistula, myocardial steal | Refractory hypotension | [151,152] |
Junction of the septum and left ventricle | Necrosis with lymphatic dilation | CD68 + macrophages engulfing hemosiderin | Left ventricular face of interventricular septum | Chylothorax, protein - losing enteropathy | Hypoproteinemia causing multi - organ edema | [153,154] |
Extensive anterior left ventricle | Large - area necrosis (> 40% left ventricle) | CD163 + M2 macrophages predominant, IL-10 highly expressed in perforation area | Anterior and middle parts of interventricular septum | Cardiogenic shock, lactic acidosis | Metabolic acidosis causing cardiac arrest | [155,156] |
Posterior upper part of the septum | Perforation with chordae tendineae rupture | Mixed CD68 + macrophage and CD15 + neutrophil infiltration | Posterior upper part of interventricular septum near mitral valve | Acute mitral valve flail, pulmonary edema | ARDS | [124,157] |
Free wall of the right ventricle | Necrosis with epicardial hemorrhage | CD11b + myeloid cell infiltration, MPO positive in perforation area | Free wall of right ventricle | Pericardial effusion, cardiac tamponade | Acute circulatory failure | [158,159] |
Posterolateral left ventricle | Transmural necrosis involving left atrium | CD68 + macrophage polarization (M1 predominant), TNF-α/IL-1β co - expression in perforation area | Posterolateral edge of interventricular septum | Atrial fibrillation, left atrial thrombus | Cerebral embolism with brain herniation | [155,160] |
Whole layer of the septum | Multiple perforations (5 sites) with myocardial dissolution | CD4+/CD8+ T cell ratio inverted, Fas/FasL highly expressed in perforation area | Anterior, middle, and posterior parts of interventricular septum | Whole - heart failure, hyperkalemia | Electromechanical dissociation | [161,162] |
Table 4 Analysis of the Association between major prognostic factors and clinical outcomes
Prognostic factors | Clinical impact | Evidence-based basis | Severity level | Management strategies | Timeframe of impact | Population specificity | Intervention efficacy (%) | Ref. |
Female | The 30-day mortality rate among female patients showed a significant increase (OR = 4.263) | Multicenter studies indicate that female patients account for 62.5% of VSR cases and represent an independent risk factor | High | Close hemodynamic monitoring with priority given to surgical intervention | Short-term (≤ 30 days) | Female, Elderly patients | The surgical survival rate has increased to 70% | [7,13,163,164] |
Age > 65 years old | The mortality rate among elderly patients increased significantly (mean age of survival group: 57.4 years vs death group: 72.4 years) | Logistic regression analysis showed that age was an independent risk factor for 30-day mortality. (OR = 4.956) | High | Elderly patients are recommended to delay surgery (if stable) or undergo interventional occlusion | Short-term to medium-term (≤ 1 year) | Elderly patients | Delayed surgery mortality rate drops to 6.5% | [13,165-168] |
Killip Class ≥ Ⅲ | The mortality rate reaches 78.1% in patients with deteriorating cardiac function (death group vs 50% survival group) | Killip classification ≥ grade III is significantly associated with 30-day mortality rate. (OR = 24.112) | Critical | IABP or VA-ECMO support, early surgical intervention | Short-term (≤ 30 days) | Merge patients with cardiogenic shock | IABP support increases survival rate by 20% | [13,20,119,165] |
Anterior Wall AMI | Anterior wall infarction patients account for 75%-84.6% of VSR cases, with a higher mortality rate | Anterior wall infarction is prone to involve the blood supply area of the interventricular septum, increasing the risk of perforation. (P = 0.023) | High | Early screening for VSR, prioritizing PCI or CABG combined with repair surgery | Acute phase to short term | Patients with anterior wall AMI | PCI reduces mortality rate to 14.3% | [13,163,169-171] |
VSR Diameter > 15 mm | The mortality rate of patients with large perforations (> 15mm) significantly increases | The diameter of the perforation is positively correlated with the left-to-right shunt volume, and large perforations require emergency surgery | Severe | Emergency surgical repair or interventional closure | Acute phase (≤ 7 days) | Hemodynamically unstable patient | The success rate of the occlusion procedure is 73.8% | [13,105,169,172] |
Time to VSR Onset ≤ 4 Days | The 30-day mortality rate reaches 77.4% for patients who develop VSR within 4 days after AMI | Early perforation (≤ 4 days) presents with fragile myocardial tissue and carries high surgical risks. (OR = 12.646) | Critical | Postpone surgery until 3-4 weeks later (if stable), supplemented with mechanical circulatory support | Short-term (≤ 30 days) | Early-stage perforation patients | Delayed surgery mortality rate 65% | [6,13,163] |
Elevated Inflammatory Markers | Elevated CRP and D-dimer levels are positively correlated with mortality (CRP 85 mg/L in the deceased group vs 27 mg/L in the survival group) | Inflammatory response exacerbates myocardial necrosis, and elevated CRP is associated with mortality (P < 0.05) | Moderate to High | Anti-inflammatory therapy (such as glucocorticoids), infection control | Short-term to medium-term | Patients with concurrent infections or systemic inflammation | Anti-inflammatory therapy improves prognosis by 30% | [13,166,173] |
Cardiogenic Shock (CS) | The 30-day mortality rate for patients with combined CS reaches 90% | CS is an independent risk factor (OR = 4.288), requiring VA-ECMO support | Critical | VA-ECMO combined with IABP for hemodynamic maintenance | Acute phase (≤ 7 days) | Patients with hemodynamic collapse | ECMO support increases survival rate by 40% | [13,21,166,174] |
LVEF < 40% | Patients with low LVEF showed significantly higher mortality (survivor group LVEF 45% vs deceased group 30%) | Left ventricular dysfunction exacerbates shunting, leading to multiple organ failure | High | Positive inotropic drugs combined with mechanical support to optimize cardiac function before surgery | Medium-term (≤ 1 year) | Patients with chronic heart failure | Postoperative survival rate 70% | [13,169,175] |
No ventricular aneurysm | Patients without ventricular aneurysms have a higher mortality rate (OR = 12.646) | Ventricular aneurysm may alleviate perforation tension, while non-aneurysmal myocardium is prone to secondary rupture | Moderate | Ventricular aneurysm resection combined with VSR repair surgery | Long-term (> 1 year) | Patients with complex anatomical structures | Combined surgery survival rate 85% | [163,169,176] |
Elevated TnT levels | TnT levels were positively correlated with mortality (3.56 ng/mL in the deceased group vs 0.31 ng/mL in the survival group) | Elevated TnT indicates extensive myocardial necrosis and poor prognosis (P = 0.011) | High | Early reperfusion therapy reduces peak TnT levels | Acute phase (≤ 72 hours) | Patients with extensive myocardial infarction | Reperfusion therapy reduces mortality by 50% | [13,165,177,178] |
Delayed surgical timing | Early surgery (≤ 7 days) mortality rate 43% vs delayed surgery (> 4 weeks) 6.5% | The success rate of surgery is higher after myocardial tissue edema subsides | Moderate to High | Hemodynamically stable patients are recommended for delayed surgery, supplemented with temporary mechanical support | Mid-term (1-4 weeks) | Patients with stable condition | Delayed surgery survival rate 935% | [179,180] |
Multiple coronary artery diseases | The mortality rate increased in patients with multivessel disease (62.5% vs single-vessel disease) | Multiple vessel disease leads to aggravated myocardial ischemia, making repair more difficult | High | CABG combined with VSR repair surgery | Long-term (> 1 year) | Patients with complex coronary artery lesions | CABG combined surgery survival rate 80% | [13,166,181,182] |
Anemia (Hb < 10 g/dL) | Anemia increases cardiac workload and elevates mortality rates (survivor group Hb 12 g/dL vs deceased group 9 g/dL) | Low Hb reduces tissue oxygen supply and accelerates the progression of heart failure | Moderate | Blood transfusion support to maintain Hb > 10 g/dL | Short-term to medium-term | Patients with chronic kidney disease or bleeding tendency | Blood transfusion improves oxygen delivery with a 25% increase in survival rate | [13,99,183] |
Renal insufficiency | Postoperative mortality rate increases in patients with renal insufficiency (OR = 1.78) | Elevated creatinine levels (> 138.5 μmol/L) are associated with postoperative mortality | High | Preoperative hemofiltration, postoperative CRRT support | Short-term to long-term | Patients with chronic kidney disease | CRRT support reduces mortality rate by 20% | [6,13,16] |
Elevated Lactate Levels | A lactate level > 4 mmol/L indicates tissue hypoperfusion and is associated with significantly increased mortality | Elevated lactate levels reflect systemic hypoperfusion and are associated with multiple organ failure (P < 0.001) | Critical | Optimize perfusion (e.g., ECMO), correct metabolic acidosis | Acute phase (≤ 24 hours) | Patients with shock or sepsis | ECMO support increases survival rate by 35% | [13,166,184,185] |
Diabetes Mellitus | Mortality rate increased in patients with combined diabetes (46.9% vs non-diabetic 27.8%) | Diabetes accelerate myocardial remodeling and impair healing (P < 0.05) | Moderate | Strictly control blood glucose (target HbA1c < 7%) | Long-term (> 1 year) | Diabetic patients | Blood sugar control reduces complication rates by 30% | [13,15,186] |
Lack of Reperfusion Therapy | The mortality rate reaches 66.7% in patients who did not receive reperfusion therapy | Reperfusion therapy reduces the incidence of VSR (50% of the survival group received PCI vs 0% in the deceased group) | High | Emergency PCI or thrombolysis to restore coronary blood flow | Acute phase (≤ 12 hours) | AMI patients without contraindications | PCI reduces mortality rate to 14.3% | [13,169,187,188] |
Postoperative CAR ≥ 2.83 | Postoperative CAR is associated with increased risk of complications (OR = 5.540) | CAR predicts postoperative infections and organ failure (AUC = 0.767) | Moderate | Postoperative monitoring of CAR, early anti-infection and nutritional support | Short-term (≤ 30 days) | Postoperative patient | The complication rate decreased by 40% after intervention | [165,189,190] |
Genetic Polymorphisms | Specific genotypes (such as IL-6 variants) are associated with exacerbated inflammatory responses | Preliminary studies suggest that gene polymorphisms influence the efficacy of anti-inflammatory therapy (further verification required) | Low to Moderate | Personalized anti-inflammatory regimen | Long-term (> 1 year) | Genetically susceptible population | Research phase, no definitive data available yet | [191,192] |
Table 5 Comparison of advantages and disadvantages among different treatment strategies
Treatment method | Indications | Success rate (%) | Complications incidence (%) | Cost-effectiveness | Ref. |
Percutaneous interventional closure procedure (TCC) | The condition is stable, the perforation diameter is ≤ 20 mm, and the location is away from the valve structures | 73.8 (3-year survival rate) | 32 (Residual shunt, mechanical hemolysis) | Moderate (requiring high-precision imaging equipment and consumables) | [20,82,193-195] |
Surgical repair (combining CABG) | Perforation diameter > 20mm, multivessel disease, combined with ventricular aneurysm or valvular injury | 70 (3-year survival rate) | 40-52 (Postoperative infection, cardiogenic shock) | Low (The surgical costs are high, requiring long-term monitoring and care) | [98,114,165,169] |
Medical conservative treatment (medication + IABP/ECMO) | Hemodynamically extremely unstable, unable to tolerate surgery or interventional therapy | 38.5 (30-day survival rate) | 50-60 (multiple organ failure, hemorrhage) | Low short-term costs, but high long-term expenses (requires repeated hospitalizations) | [25,165,196] |
Delayed intervention closure (occurring > 3 weeks after VSR) | Myocardial edema subsides, hemodynamics stabilize, and perforated tissue becomes fibrotic | 96.3 (30-day survival rate) | 10-15 (Residual shunt, arrhythmia) | High (reduces the risk of secondary surgery) | [58,82,193,197] |
Early intervention and occlusion (VSR occurrence ≤ 3 weeks) | Emergency rescue, unable to wait for delayed surgery | 62.5 (30-day survival rate) | 45-50 (Perforation enlargement, occluder displacement) | Moderate (urgent resource support required) | [193,198,199] |
VA-ECMO combined with IABP support | CS, hemodynamic collapse | 40 (Survival rate improvement) | 25-30 (Lower limb ischemia, hemorrhage) | Low (equipment and monitoring costs are high) | [169,200,201] |
Pharmacological treatment alone (diuretics + vasodilators) | Hospice care or transitional treatment | 14.3 (30-day survival rate) | 60-70 (Deterioration of renal function, electrolyte imbalance) | Minimum (drug cost only) | [165,202,203] |
Interventional occlusion combined with PCI procedure | Single-vessel disease, late-onset VSR after PCI | 91.4 (Surgical success rate) | 20-25 (Stent thrombosis, residual shunt) | Moderate (requires phased implementation) | [58,194,195] |
Surgical procedure combined with CABG | Multivessel disease requiring revascularization, combined with complex anatomical structures | 80 (Long-term survival rate) | 35-40 (Postoperative infection, stroke) | Low (surgical and rehabilitation costs compounded) | [93,169,204] |
Staged interventional therapy (occlusion first followed by PCI) | Hemodynamically stable but requires revascularization | 85 (1-year survival rate) | 15-20 (Secondary operational risk) | Moderate (phased fee accumulation) | [195,203,205] |
Palliative care (anti-heart failure medications) | Advanced age, severe comorbidities, limited life expectancy | - | - | Minimum (only basic medication costs) | [105,119,165] |
IABP standalone support | Mild cardiogenic shock, transition to definitive treatment | 20 (Survival rate improvement) | 15-20 (Lower limb ischemia, catheter infection) | Moderate (equipment rental and monitoring costs) | [118,169,206] |
Emergency surgical procedure (≤ 7 days) | Hemodynamically unstable, unable to wait for myocardial repair | 57 (30-day survival rate) | 50-60 (Postoperative heart failure, infection) | Low (emergency surgery costs and high risk) | [83,111,165] |
Delayed surgical procedure (> 4 weeks) | Myocardial tissue stabilization, hemodynamic improvement | 93.5 (30-day survival rate) | 10-15 (Postoperative adhesions, arrhythmia) | High (surgical success rate improvement) | [112,173,193] |
Hybrid surgery (interventional + surgical) | Complex perforations (multiple holes or serpentine tracts), residual shunts requiring secondary intervention | 75 (Overall success rate) | 30-35 (Multi-stage complication risks) | Low (high cost of multidisciplinary collaboration) | [10,93] |
Anticoagulation therapy (heparin/warfarin) | Hypercoagulable state, embolism prevention | - | 20-25 (Bleeding, thrombocytopenia) | Low (primarily drug costs) | [82,169,202,207] |
Anti-inflammatory therapy (glucocorticoids) | Systemic inflammatory response, significant elevation of CRP | 30 (Prognosis improvement rate) | 10-15 (Risk of infection increases) | Moderate (requires monitoring of infection indicators) | [106,165,169,208] |
Transcatheter thrombolytic therapy | No PCI conditions, early reperfusion requirements | 50 (Recanalization rate) | 30-40 (Bleeding, allergic reactions) | Low (medication costs are low, but complication treatment expenses are high) | [58,169,209] |
Pericardiocentesis drainage | Massive pericardial effusion leading to cardiac tamponade | 90 (Symptom remission rate) | 5-10 (Puncture injury, infection) | Moderate (requires imaging guidance and aseptic operation) | [116,210] |
MELD-XI Score-Guided Therapy | Risk stratification in patients with hepatic and renal dysfunction | - | - | High (optimizing resource allocation and reducing ineffective treatment) | [58,82,83] |
- Citation: Zu J, Cheng L, Lu JJ, Xu H, Zhang R, Ye XR, Qiao Q, Zhang LH, Zhang HL, Zhang JJ. Acute myocardial infarction with ventricular septal rupture: Clinical characteristics, prognosis factors, and treatment strategies. World J Cardiol 2025; 17(7): 109787
- URL: https://www.wjgnet.com/1949-8462/full/v17/i7/109787.htm
- DOI: https://dx.doi.org/10.4330/wjc.v17.i7.109787