Serum Uric Acid Is Associated with the Progression of Left Ventricular Diastolic Dysfunction in Apparently Healthy Subjects

Yang, Chen Die; Feng, Shuo; Chen, Jia Wei; Aihemaiti, Muladili; Shu, Xin Yi; Quan, Jin Wei; Ding, Feng Hua; Lu, Lin; Shen, Wei Feng; Zhang, Rui Yan; Wang, Xiao Qun

doi:https://doi.org/10.1155/2022/9927254

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Research Article | Open Access

Volume 2022 | Article ID 9927254 | https://doi.org/10.1155/2022/9927254

Serum Uric Acid Is Associated with the Progression of Left Ventricular Diastolic Dysfunction in Apparently Healthy Subjects

Chen Die Yang,¹Shuo Feng,¹Jia Wei Chen,²Muladili Aihemaiti,²Xin Yi Shu,²Jin Wei Quan,²Feng Hua Ding,¹Lin Lu,^1,2Wei Feng Shen,^1,2Rui Yan Zhang,¹and Xiao Qun Wang^1,2

Academic Editor: Wen-Jun Tu

Received14 Jun 2022

Accepted08 Oct 2022

Published15 Oct 2022

Abstract

Background. Left ventricular (LV) diastolic dysfunction (LVDD) is the defining feature of heart failure with preserved ejection fraction (HFpEF) and predicts subsequent incident heart failure (HF) and all-cause mortality. Mounting evidence reveals that cardiometabolic risk factors play critical roles in the development of LVDD. In this study, we sought to investigate the relation between serum uric acid (SUA) level and the progression of LVDD in apparently healthy patients. Methods. A total of 1082 apparently healthy subjects without diagnosed cardiovascular disease and LVDD were consecutively enrolled. SUA levels were measured, and repeat echocardiography and tissue Doppler imaging (TDI) were performed at baseline and during 1-year follow-up. Results. By dividing the study population based on quartiles of SUA, we found subjects in higher quartiles had greater increases in TDI-derived early diastolic velocity (e) and E (peak LV filling velocity)/e ratios during 1-year follow-up. After multivariate adjustment, high SUA persisted to be an independent predictor for the subsequent worsening of LVDD (odds ratio: 1.351 [95% CI 1.125~1.625], per 100 μmol/L SUA). Subgroup analysis suggested that the association between SUA and LVDD development was more pronounced in subjects without other cardiometabolic risk factors involved. Factor analysis demonstrated that high SUA was the major cardiometabolic attribute in patients with LVDD progression. Conclusion. Our findings suggest that high SUA is an independent cardiometabolic risk factor for the progression of LVDD in apparently healthy subjects.

1. Background

Left ventricular (LV) diastolic dysfunction (LVDD) is recognized as the hallmark of heart failure (HF) with preserved ejection fraction (EF, HEpEF) that has different clinical features but similar poor prognosis as compared to those with reduced EF [1–4]. With comprehensive echocardiography and tissue Doppler imaging (TDI) examination, LVDD is found to be prevalent in 11.1%~34.7% of the general population [5–9], varying according to different criteria used, and is usually presented without recognized symptoms of HF [5, 6]. Mounting evidence reveals that LVDD is associated with the subsequent development of HF and all-cause mortality [6, 10, 11]. Especially, patients with metabolic disturbance, including diabetes, obesity, and metabolic syndrome (MetS), suffer profoundly higher risk of LVDD than those without cardiometabolic risk factors [12–16].

Serum uric acid (SUA) is a metabolic end-product of purine metabolism by xanthine oxidase (XO). Emerging data reveal that SUA is closely related to cardiovascular risk and events, such as hypertension, coronary artery disease, and HF [17]. Moreover, SUA-lowering therapy by XO inhibitor displays benefits in improving cardiovascular outcomes both in clinical and animal studies [18–21]. Previously, several echocardiographic surveys demonstrated a positive relationship between SUA and markers of LVDD [22–24]. However, current data on the relationship between SUA and LVDD were almost obtained from cross-sectional surveys. Little is known regarding the impact of SUA on longitudinal changes of LVDD.

In the present study, we analyzed the relation between SUA and LVDD progression in apparently healthy patients by repeat echocardiography and TDI assessment during 1-year follow-up.

2. Methods

2.1. Study Design

A total of 2,843 subjects between 18 to 80 years old who had physical examination including echocardiography and TDI in Ruijin Hospital, Shanghai Jiao Tong University School of Medicine from November 2018 to December 2019 were consecutively enrolled in the study. Exclusion criteria were as follows: (1) lack of clinical or biochemical assessment including SUA in the baseline (); (2) history of diagnosed cardiovascular disease (), which includes coronary artery disease (), chronic HF (), moderate to severe valvular heart disease (), congenital heart disease (), and atrial fibrillation (); (3) possessing factors that affect purine metabolism (), which include chronic kidney disease (), diagnosed gout (), medication use of uric-acid lowering agents (), and diuretics (). Thus, a total of 2052 subjects were enrolled in the baseline and their LVDD was graded by TDI. There were 1173 subjects with normal LV diastolic function (grade 0) or mild LVDD (grade 1) and 879 subjects with moderate (grade 2) or severe (grade 3) LVDD. Since this study is aimed at analyzing LVDD progression, we only selected subjects with non-LVDD (grade 0~1) in the cohort. These subjects were then followed-up for around 12 months and underwent repeated echocardiography and TDI assessment. After exclusion of 91 subjects who lost to follow-up, the remaining 1082 subjects comprised the final analysis (Figure 1).

2.2. Clinical and Biochemical Assessments

Detailed information of medical history and lifestyles were obtained using a standard questionnaire by trained physicians. Body mass index (BMI) was calculated as (kilograms per square meter). Body surface area (BSA) was calculated as . Blood pressure was measured on the nondominant arm in seated position after a 10-minute rest. Three measurements were taken at 1-minute interval, and the average was used for analysis. The diagnosis of type 2 diabetes was made according to the criteria of American Diabetes Association (symptoms of diabetes with casual mg/dL [11.1 mmol/L] or mg/dL [7.0 mmol/L], 2 h mg/dL [11.1 mmol/L] during an oral glucose tolerance test (OGTT) and currently or previously treated with insulin and/or oral hypoglycemic agents) [25]. Hypertension was diagnosed according to seventh report of the Joint National Committee on prevention, detection, evaluation, and treatment of high blood pressure (JNC 7) [26].

All the blood samples, except for postprandial testing, were drawn after an overnight fasting. OGTT was performed with 75 g glucose, and blood was collected for the measurement of postprandial glucose and insulin after 2 h. SUA, fasting and postprandial plasma glucose, insulin, creatinine, alanine aminotransferase (ALT), aspartate aminotransferase (AST), total cholesterol, low-density lipoprotein (LDL) cholesterol, high-density lipoprotein (HDL) cholesterol, and triglycerides were assessed (HITACHI 912 Analyzer, Roche Diagnostics, Germany). Blood HbA1c was measured using ion-exchange high performance liquid chromatography with Bio-Rad Variant Hemoglobin Testing System (Bio-Rad Laboratories, USA). Serum levels of high sensitive C-reactive protein (hsCRP) were determined by ELISA (Biocheck Laboratories, Toledo, OH, USA). Estimated glomerular filtration rate (eGFR) was computed using the Chronic Kidney Disease Epidemiology Collaboration equation. Homeostasis model assessment-estimated insulin resistance (HOMA-IR) was calculated according to the formula as follows: [27].

2.3. Echocardiographic Examination

Transthoracic echocardiography was performed using a commercially available system (Vivid-I, GE Healthcare, Milwaukee, WI) with a 1.9 to 3.8 mHz phased-array transducer. All data were stored digitally, and offline data analysis was performed (EchoPac, version 7; GE Healthcare).

EF was calculated using the modified Simpson’s biplane technique. The LV length was measured in the apical 4-chamber view. To facilitate application of clinical normality cut points, LV end-diastolic volume (LVEDV), LV end-systolic volume (LVESV), and LV mass were indexed by BSA calculated at each study time point. LV mass was estimated from M-mode measurements by the formula , where LVEDD is LV end-diastolic diameter, IVST is interventricular septal thickness, and LVPWT is LV posterior wall thickness.

Transmitral inflow was recorded using pulsed wave Doppler in the apical 4-chamber view for measurements of early (E) and late (A) mitral inflow velocities. Early diastolic velocity was assessed at the septal (septal e) and lateral (e) sites of the mitral annulus using pulsed-wave TDI. Mean E/e ratio was obtained by averaging the septal and lateral mitral annulus to estimate LV filling pressure. Patients were classified into four groups according to diastolic function based on EACVI/ASE recommendations [28] as follows: normal diastolic function (grade 0), mild (grade 1), moderate (grade 2) or severe (grade 3) LVDD. Patients with both septal cm/s and lateral cm/s constituted the group in grade 0. For the remaining patients, the following classification was used: grade 1 when , mean ; grade 2 when E/A was between 0.8 and 2, mean E/e between 8 and 13; and grade 3 when , mean . In this study, development of LVDD from grade 0~1 to grade 2~3 was defined as LVDD progression.

2.4. Statistical Analyses

Continuous variables were presented as median (interquartile range [IQR]) or , and categorical data were summarized as frequencies (percentages). Normal distribution of continuous variables was evaluated by Shapiro-Wilk test. For normally distributed variables, differences in quartiles of SUA and subgroup analysis were performed by one-way analysis of variance (ANOVA) followed by post hoc -test with Bonferroni correction. For nonnormally distributed continuous variables, differences were analyzed by the Mann–Whitney test or Kruskal-Wallis test. Differences in categorical variables were analyzed by test. Correlation between SUA and mean E/e ratio was determined by Spearman’s correlation test. Univariate logistic regression analysis was performed to identify univariate determinants of LVDD progression. Afterwards, multivariate regression was performed by entering all the conventional risk factors and significant determinates in the univariate analysis after backward elimination. SUA was analyzed both as continuous and categorical variables in univariate and multivariate models. All statistical analyses were performed using the R statistical package v.4.0.3 (R Project for Statistical Computing, Vienna, Austria). A was considered statistically significant.

For the exploratory factor analysis, principal component analysis (PCA) was performed to reduce intercorrelated variables to fewer clustering factors that retain as the much of variance in the original variables as possible. Higher factor loadings denote higher correlation between the given variable and the clustering factor. Bartlett’s test of sphericity was implemented to test whether a correlation matrix is different from an identity matrix and support the need for data reduction. Z scores were calculated to scale all the variables to standard scores before PCA. An was used as the extraction method and varimax rotation. We included only the highest ranked variables with at least shared variance between the variable and clustering factors (%) in interpreting factors.

3. Results

3.1. Baseline Characteristics of the Cohort

A total of 1082 subjects were enrolled in the cohort and were followed-up for months. The mean age was years and the male-to-female ratio was 63.5% to 36.5%. There were 8.3% subjects with hypertension and 15.1% with type 2 diabetes. The mean level of SUA was μmol/L. Of note, male subjects had markedly higher SUA level as compared to that of females ( vs. μmol/L, ).

We divided the entire population of the cohort into quartiles based on SUA levels ( μmol/L; 283~340 μmol/L; 341~393 μmol/L; ≥ 394 μmol/L; Table 1). We found subjects with higher quartiles of SUA were more frequently to be male, having smoking habits, higher levels of BMI, systolic and diastolic blood pressure, fasting glucose, lipid, hsCRP, and insulin resistance levels, but poorer hepatic and renal function. There was no significant difference in history of hypertension and diabetes and medical treatments among the 4 groups.

3.2. Geometric and Functional Echocardiographic Analyses

After a 12-month follow-up, 37.6% of subjects in the cohort progressed to moderate to serve LVDD (grade 2~3). The mean E/e ratios were cm/s at baseline and cm/s at the 12-month follow-up. The mean change in E/e ratio was cm/s. There was a positive correlation between baseline SUA level and changes in E/e ratio during follow-up (Spearman’s , ; Figure 2(a)). Changes in E/e ratio during follow-up were also increased across quartiles of SUA (; Figure 2(b)).

(a)

(b)

Geometric and functional echocardiographic parameters were compared between patients in different quartiles of SUA (Table 2). We found left atrial diameter, diastolic and systolic LV diameters, LV wall thickness, and mass index were stepwise increased with increasing quartiles of SUA both at baseline and during follow-up. However, changes in these LV geometric parameters, with the exception for LVEDD, were comparable between the 4 groups. No significant changes in EF were detected.

In the baseline, e and E/e ratios were similar in different quartiles of SUA both at septal and lateral sides of mitral annulus. However, increases in E/e at both sides and the averaged values were markedly elevated in subjects in higher quartiles, whereas peak atrial filling velocity (A) and E/A ratio as well as their respective changes were comparable among different quartiles.

3.3. Univariate and Multivariate Analyses

Univariate analyses (Table 3) revealed that predictors for LVDD progression were older age (OR: 2.466 [95% CI 2.138~2.864], per 10 years), male sex (OR: 1.908 [95% CI 1.462~2.503]), higher systolic (OR: 1.232 [95% CI 1.122~1.357], per 10 mmHg) and diastolic blood pressure (OR: 1.221 [95% CI 1.063~1.406], per 10 mmHg), the presence of hypertension (OR: 2.638 [95% CI 1.581~4.431]) and diabetes (OR: 2.595 [95% CI 1.852~3.648]), current smokers (OR: 1.461 [95% CI 1.067~2.000]), higher levels of HbA1c (OR: 1.688 [95% CI 1.380~2.088]), fasting glucose (OR: 1.230 [95% CI 1.105~1.381]), triglyceride (OR: 1.436 [95% CI 1.255~1.659]), medication use of beta blocker (OR: 1.889 [95% CI 1.114~3.208]), renin-angiotensin-aldosterone system inhibitor (OR: 2.403 [95% CI 1.380~4.239]), calcium channel blocker (OR: 3.038 [95% CI 1.489~6.465]), and statin (OR: 2.997 [95% CI 1.872~4.869]). Meanwhile, lower HDL cholesterol (OR: 0.361 [95% CI 0.243~0.530]), poorer renal (eGFR, OR: 0.750 [95% CI 0.685~0.818]), and LV function (LVEF, OR: 0.942 [95% CI 0.909~0.976]) were also associated with LVDD progression. When treated as categorical variables, quartiles of SUA were positively associated with progression of LVDD ( for trend <0.001). μmol/L corresponded to a 2.697-fold [95% CI 1.892~3.867] increased risk for progression of LVDD as compared to μmol/L. Similarly, when treated as a continuous variable, SUA level remained positively associated with LVDD progression (OR: 1.528 [95% CI 1.311~1.786], per 100 μmol/L).

Multivariate analyses (Table 3) were performed by entering all the conventional risk factors and significant predictors from the univariate analyses followed by stepwise backward elimination. Age, diastolic blood pressure, the presence of diabetes, triglyceride, EF, and SUA remained in the model with significant association with LVDD progression. After multivariate adjustment, μmol/L corresponded to a 1.851-fold [95% CI 1.215~2.828] increased risk for progression of LVDD as compared to μmol/L. Every 100 μmol/L increase in SUA conferred a 1.351-fold [95% CI 1.125~1.625] higher risk of LVDD progression when treated as a continuous variable. Furthermore, subgroup analyses (Figure 3) demonstrated that patients with higher SUA developed LVDD progression regardless of sex, BMI, renal function, lipid levels, and LV systolic and diastolic function at baseline, whereas the association was only present in subgroups who were of younger age (<51 years), with lower HbA1c (<6.1%) or without hypertension, diabetes, and smoking habits. There were also significant interaction terms between age, HbA1c, and SUA on LVDD progression in the bivariate analysis of the overall population.

Figure 3

Subgroup analysis by forest plot. Forest plot shows the association between serum uric acid level and LVDD progression in different subgroups and the significance of the corresponding interaction terms. The dashed reference line indicates odds ratio of 1.0. The number of all the patients and the number of patients with LVDD progression in each subgroup are labelled. BMI: body mass index; eGFR: estimated glomerular filtration rate; HbA1c: glycated hemoglobin A1c; HDL: high-density lipoprotein; HOMA-IR: homeostasis model assessment-estimated insulin resistance; LDL: low-density lipoprotein; LVDD: left ventricular diastolic dysfunction; LVEF: left ventricular ejection fraction.

3.4. Factor Analysis

There was high degree of intercorrelation between various metabolic variables (Supplementary Table I). Especially, SUA was significantly associated with most of these metabolic variables except for postprandial glucose and total cholesterol. Therefore, factor analysis was performed to extract key uncorrelated metabolic factors in subjects with LVDD progression. Bartlett’s test of sphericity was highly significant (), indicating good model acceptability.

We identified an insulin resistance factor as the initial factor that accounted for 27.9% of the variance, a second cholesterol factor accounted for 19.0% of the variance, and a third factor comprised of SUA as a major component accounted for 14.7% of the variance. Taken together, these factors accounted for 61.5% of the total variance in measured variables (Supplementary Table II and Figure 4).

Figure 4

Factor analysis of metabolic patterns in association with LVDD progression. BMI: body mass index; FPG: fasting plasma glucose; FPI: fasting plasma insulin; HbA1c: glycated hemoglobin; HDL-c: high-density lipoprotein cholesterol; HOMA-IR: homeostatic model assessment of insulin resistance; LDL-c: low-density lipoprotein cholesterol; LVDD: left ventricular diastolic dysfunction; PCA: principal component analysis; PPG: postprandial plasma glucose (2 hours); PPI: postprandial plasma insulin (2 hours); TC: total cholesterol; TG: triglyceride; SUA: serum uric acid.

4. Discussion

The major findings of the present study are that SUA levels are positively related to increase in E/e in apparently healthy subjects with non-LVDD (grade 0~1). SUA is an independent predictor for the progression of LVDD after multivariate adjustment of conventional risk factors.

Previous population-based studies revealed that LVDD is prevalent in the general population [5–9] and is progressed rapidly over time. A large-scale community-based study in Minnesota showed that the prevalence of LVDD increased from 23.8% to 39.2% by repeat echocardiography examinations after 4 years [10]. In a retrospective study of outpatient patients, LVDD was present in 72.3% of patients, and 16% had worsening diastolic function after 1 year [29]. Consistent with these findings, 42.8% of the subjects in the present study were with LVDD. During 1-year follow-up, 37.6% of the remaining subjects with non-LVDD developed worse diastolic dysfunction. These data support the concept that LVDD is rapidly evolved even in apparently healthy patients without obvious LVDD. Given that LVDD is the defining feature of HFpEF and an independent predictor for subsequent HF and mortality, early risk stratification and proper management of LVDD are warranted.

Several risk factors have been established for LVDD including age [30, 31], diabetes [12, 13], obesity [16], hypertension [32, 33], and LV hypertrophy [34]. Several lines of evidence suggest that SUA is also associated with LVDD in a variety of clinical conditions. SUA was shown to be associated with LVDD in apparently healthy patients with essential hypertension [22]. Elevated SUA was independently associated with the presence of LVDD criteria as septal e in military individuals [35]. In patients with dilated cardiomyopathy, Cicoira et al. found that there was a positive correlation between SUA level and mitral E wave velocity, E/A ratio, E wave deceleration time (DtE), and restrictive mitral filling pattern (RMFP) [23]. In a large-scale community-based research performed in asymptomatic Asians, hyperuricemia was closely linked to indices of LVDD and SUA set at 7.0 mg/dl provided the optimal cut-off to identify LVDD [24]. However, current data on the relationship between SUA and LVDD were merely based on cross-sectional surveys. Since LVDD is in essence a rapidly progressed LV functional abnormality, the role of SUA in the development of LVDD is still unclear.

In the present study, for the first time we reported that SUA level was not only related to impaired LVDD but also the subsequent development of LVDD over time. First, in apparently healthy subjects, those with higher SUA level tended to have worse LVDD. Second, SUA level was positively correlated to changes in E/e ratio during 1-year follow-up. After multivariate adjustment, SUA remained an independent predictor for the subsequent worsening of LVDD. Third, due to the fact that cardiometabolic variables were intercorrelated, factor analysis showed that SUA comprised the major cardiometabolic factors in patients with LVDD progression. Taken together, these findings demonstrated that SUA is an important cardiometabolic player, or at least a sensitive biomarker, in the development of LVDD. Interestingly, subgroup analysis showed that the association between SUA and LVDD progression was more pronounced in subjects with younger age, lower HbA1c, or those without hypertension, diabetes, and smoking habits, implying that the potential contribution of SUA to LVDD progression is greater when other conventional risk factors of LVDD are not involved. Therefore, there might be common downstream pathways underlying the development of LVDD in the setting of metabolic disturbance. Multiple cardiometabolic risk factors, as usually seen in the context of MetS, may have overlapping effects on LVDD progression.

Although it is still unclear whether SUA plays a causal role or just acts as a biomarker in LVDD progression, hyperuricemia is generally considered to be associated with increased XO activity in purine metabolism, which presumably promotes excess production of reactive oxygen species (ROS), thereby leading to reduced nitric oxide bioavailability, inflammatory state, endothelial dysfunction, myocardial fibrosis, and finally LVDD [18–21]. Actually, existing clinical and basic research evidence showed that treatment by XO inhibitor which lowered XO activity and thus SUA level would improve LVDD and clinical outcomes [36–39]. Nevertheless, the specific role of SUA in the development of LVDD and the precise mechanisms await precise characterization in future studies.

Our findings should be interpreted in the context of following limitations: first, this study is a retrospective analysis based on prospectively collected data, and all the enrolled patients were from a single center. Second, some LVDD parameters such as deceleration time and isovolumic relaxation time were not assessed. Moreover, combined use of different echocardiography measurements including stress echocardiography, Valsalva maneuver, and color M-mode flow propagation velocity in addition to TDI that we performed may provide more precise information.

5. Conclusions

In conclusion, our findings suggest that elevated SUA is independently associated with LVDD progression in apparently healthy subjects. Tight control of SUA by lifestyle intervention or medication optimization may provide favorable effects on the development of LVDD.

Abbreviations

ALT:	Alanine aminotransferase
AST:	Aspartate aminotransferase
BMI:	Body mass index
BSA:	Body surface area
DtE:	E wave deceleration time
eGFR:	Estimated glomerular filtration rate
EF:	Ejection fraction
HDL:	High-density lipoprotein
HF:	Heart failure
HFpEF:	Heart failure with preserved ejection fraction
HOMA-IR:	Homeostasis model assessment-estimated insulin resistance
hsCRP:	High sensitive C-reactive protein
IVST:	Interventricular septal thickness
LDL:	Low-density lipoprotein
LV:	Left ventricle
LVDD:	Left ventricular diastolic dysfunction
LVEDD:	Left ventricular end-diastolic diameter
LVEDV:	Left ventricular end-diastolic volume
LVESV:	Left ventricular end-systolic volume
LVPWT:	Left ventricular posterior wall thickness
MetS:	Metabolic syndrome
OGTT:	Oral glucose tolerance test
PCA:	Principal component analysis
RMFP:	Restrictive mitral filling pattern
ROS:	Reactive oxygen species
SUA:	Serum uric acid
TDI:	Tissue Doppler imaging
XO:	Xanthine oxidase.

Data Availability

The datasets analyzed within the study are available from the corresponding author on reasonable request.

Ethical Approval

This study complies with the Declaration of Helsinki. The study protocol was approved by the Ruijin Hospital ethics committee, and written informed consent was obtained from all participants.

Disclosure

This article was previously published as a congress abstract (10.1093/eurheartj/ehab724.0767).

Conflicts of Interest

The authors declare that they have no competing interests.

Authors’ Contributions

CY and XW contributed to the conception or design of the work. CY, SF, JC, MA, XS, JQ, and XW contributed to the acquisition, analysis, or interpretation of data for the work. CY and SF drafted the manuscript. FD, LL, WS, RZ, and XW revised the manuscript. All gave final approval and agreed to be accountable for all aspects of work ensuring integrity and accuracy. Chen Die Yang, Shuo Feng, Jia Wei Chen, and Muladili Aihemaiti have contributed equally to this work and share first authorship.

Acknowledgments

This study was supported by the National Natural Science Foundation of China (Grant No. 81870179, 82000369, 82170423), Shanghai Municipal Health and Family Planning Commission (Grant No. 20194Y0042), Shanghai High School Fellowship Program for Research & Translation (Grant No. RC0030103), Technology Transfer Project of School of Medicine, Shanghai Jiao Tong University (Grant No. ZT202103).

Supplementary Materials

Supplementary Table I. Correlation analysis between cardiometabolic variables. Supplementary Table II. Factors analysis for LVDD progression. (Supplementary Materials)

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