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Association of affective temperaments with blood pressure and arterial stiffness in hypertensive patients: a cross-sectional study
- Andrea László†1,
- Ádám Tabák†2, 3,
- Beáta Kőrösi†1,
- Dániel Eörsi1,
- Péter Torzsa1,
- Orsolya Cseprekál2,
- András Tislér2,
- György Reusz4,
- Zsófia Nemcsik-Bencze5,
- Xénia Gonda6, 7, 8Email authorView ORCID ID profile,
- Zoltán Rihmer7 and
- János Nemcsik1, 9
© The Author(s). 2016
Received: 20 April 2016
Accepted: 29 July 2016
Published: 8 August 2016
Affective temperaments (anxious, depressive, cyclothymic, irritable and hyperthymic) measure subclinical manifestations of major mood disorders. Furthermore, cumulating evidence suggests their involvement in somatic disorders as well. We aimed to assess associations between affective temperament scores and blood pressure and arterial stiffness parameters in hypertensive patients.
In this cross-sectional study, 173 patients with well-controlled or grade 1 chronic hypertension, with no history of depression, completed the TEMPS-A, Beck Depression Inventory (BDI) and Hamilton Anxiety Scale (HAM-A) questionnaires in three GP practices. Arterial stiffness was measured with tonometry (PulsePen).
According to multiple linear regression analysis, cyclothymic temperament score was positively associated with brachial systolic blood pressure independently of age, sex, total cholesterol, brachial diastolic blood pressure, BDI, HAM-A and the use of alprazolam (β = 0.529, p = 0.042), while hyperthymic temperament score was negatively related to augmentation index independent of age, sex, smoking, heart rate, BDI, HAM-A and the use of alprazolam (β = -0.612, p = 0.013). A significant interaction was found between cyclothymic temperament score and sex in predicting brachial systolic blood pressure (p = 0.025), between irritable and anxious temperament scores and sex in predicting pulse wave velocity (p = 0.021, p = 0.023, respectively) and an interaction with borderline significance between hyperthymic temperament score and sex in predicting augmentation index (p = 0.052).
The present findings highlight elevated blood pressure among subjects with high cyclothymic temperament as well as an increased level of arterial stiffening in subjects with low hyperthymic scores suggesting that affective temperaments may play a role in the development of hypertension and arterial stiffening and may thus represent markers of cardiovascular risk. Sex differences were also present in these associations.
KeywordsAffective temperament scores Blood pressure Arterial stiffness Augmentation index Hypertension
Cardiovascular diseases are the leading cause of morbidity and mortality in most industrialized countries worldwide, despite highly effective preventive treatments. A continuous linear relationship between elevated blood pressure and incident cardiovascular events is well known at all ages and in all ethnic groups [1–5]. In addition to elevated blood pressure, arterial stiffening – integrating the damage of risk factors on the aortic wall over a long period  – is increasingly recognized as a marker and mediator of cardiovascular diseases. Accordingly, carotid-femoral pulse wave velocity (PWV), an accepted non-invasive measure of arterial stiffness, is recommended for cardiovascular risk prediction among hypertensive patients in European Guidelines .
Depression is also a common public health problem in the Western world and its strong connection with cardiovascular diseases is broadly recognized . The pathophysiologies of depression and cardiovascular diseases show several similarities that include the dysregulation of metabolic, immune-inflammatory and autonomic systems as well as the hypothalamic-pituitary axis . In addition to depression, anger, hostility and anxiety – the negative impact of adverse individual psychological traits and characteristics – are also well-documented risk factors of coronary heart diseases [10, 11], while antagonism-related traits also appear to predict a variety of cardiovascular outcomes [12, 13].
Temperament is regarded as an inherited part of personality and represents the biologically stable core of emotional reactivity [14, 15]; however, there is ongoing discussion regarding the influence of age on depressive temperament with differences between man and women also being present . Affective temperaments can be measured on five temperament scales by the Temperament Evaluation of Memphis, Pisa, Paris and San Diego Autoquestionnaire (TEMPS-A) . Hyperthymic temperament is characterized by upbeat, overconfident and over-energetic traits while depressive temperament is self-denying, striving to live in harmony with others and sensitive to suffering. Anxious temperament can best be explained by exaggerated worries especially toward family members. Cyclothymic temperament shows affective instability with rapid mood shifts and intense emotions, while irritable temperament incorporates skeptical and critical traits [15, 18, 19]. Affective temperaments are also associated with numerous other measures of psychopathology . Specific affective temperament types are the subclinical, trait-related manifestations and commonly the antecedents of minor and major mood disorders , where hyperthymic affective temperament can inversely be related to depression . Recently, we described an association between chronic hypertension and the dominant cyclothymic temperament . Cyclothymic temperament was also associated with acute coronary events in hypertensive patients . In a small matched case-control study comparing hypertensive patients with and without dominant affective temperaments, we found lower peripheral and central diastolic blood pressure values and decreased serum brain-derived neurotrophic factor levels in patients with dominant temperaments . Since the ratio of those subjects who score high on different temperament directions while having a dominant affective temperament is relatively low (rarely does a subject have multiple dominant temperaments), as found in only 16.8 % of the general population , it would be important to ascertain the continuous association between affective temperament scores and blood pressure or arterial stiffness parameters.
We hypothesized that individual affective temperament scores may be related to brachial blood pressure as well as arterial stiffness in chronic hypertensive patients. We speculated a positive association in instances of depressive, cyclothymic, irritable or anxious temperaments and an inverse association in instances of hyperthymic temperament. We also hypothesized the presence of sex differences in relation to these studied associations.
In the present cross-sectional study, 173 Caucasian patients with well-controlled or grade 1 chronic (on medication for >3 months) hypertension were investigated in three primary care practices. Patients with atrial fibrillation and treated depression or with dementia potentially interfering with the completion of questionnaires were excluded. Patients on moderate doses of alprazolam (<0.5 mg/day) were not excluded. All of the 48 patients of our previous pilot study  were also involved in the present study.
Evaluation of affective temperaments, depression and anxiety
depressive temperament: questions 1 to 21 (21 points)
cyclothymic temperament: questions 22 to 42 (21 points)
hyperthymic temperament: questions 23 to 63 (21 points)
irritable temperament: questions 64 to 84 (21 points in women, 20 in the men’s version)
anxious temperament: questions 85 to 110 (26 points).
TEMPS-A has been extensively studied, translated into more than 25 languages and validated in several of the latter. Similarities and differences were also found in national samples which suggest that distribution of affective temperaments has both universal and cultural-specific characteristics .
The Beck Depression Inventory (BDI), created by Aaron T. Beck, is a 21-question multiple-choice self-report questionnaire and is one of the widely used instruments for measuring depression severity. Participants are asked to make ratings on a four point scale, where a higher score correlates with more severe depression .
The Hamilton Anxiety Scale (HAM-A) was used to study the severity of anxiety. The scale consists of 14 items, each item is scored on a scale of 0 (not present) to 4 (severe anxiety) .
Blood pressure and arterial stiffness measurements
Measurements were performed in a temperature-controlled room, between 7.00 and 8.00 a.m. prior to blood collection. Patients were required to fast overnight and refrain from smoking and drinking caffeine-containing beverages before the procedure, but to take their usual blood pressure medication. Upon arrival and after 5 min rest, two brachial blood pressure measurements were taken on each arm in the sitting position with a validated oscillometric blood pressure device (Omron M3). The mean value of the higher side of arms was further taken into calculation as brachial systolic (SBPbrach) and diastolic (DBPbrach) blood pressures and heart rate. Brachial pulse pressure (PPbrach) was also calculated from these data. The subjects were next fitted with arterial stiffness measurement device and were asked to rest in the supine position for approximately 15 min before being measured. Arterial stiffness parameters were evaluated with the gold-standard tonometric method (PulsePen, DiaTecne, Milan, Italy) . This method provides estimates of pulse wave velocity (PWV) and in which central systolic blood pressure (SBPcentr), central pulse pressure (PPcentr) and pulse pressure amplification (PPAmp) can be calculated. Augmentation index (Aix), a widely used wave reflection parameter, can also be measured by automatic identification of the “first shoulder” (inflection point) of the averaged carotid pulse signal by the PulsePen software. This index is provided by the pressure amplitude following this point divided by the pulse pressure and calculated as a percentage. In these calculations, brachial blood pressure values measured in the supine position were used, which were required for calibration after each (carotid or femoral) pulse wave detection. In each subject, two sequences of arterial stiffness measurements were performed and their mean used for statistical analysis. In the PWV calculations, 80 % of the carotid-femoral distance was used, according the most recent recommendation . The intra- and interobserver variability of PWV measurements obtained by the PulsePen device in hypertensive patients was 4.6 and 6.3 %, respectively. Since PulsePen calculates pressures based on brachial diastolic blood pressure calibration, the calculated central diastolic blood pressure is identical to the brachial diastolic blood pressure assessed in the supine position .
Descriptive data are expressed as mean ± standard deviation or median with interquartile ranges or percentages. Normality of continuous parameters was tested with the Kolmogorov-Smirnov test. Pearson correlation coefficients were calculated to study the relationship between affective temperament scores and demographic, hemodynamic or arterial stiffness parameters. Multiple linear regression analysis was used to study the determinants of these hemodynamic or arterial stiffness parameters which were associated in univariate analysis with affective temperaments. Based on literature data, sex differences in the association between affective temperaments and the studied hemodynamic or arterial stiffness parameters  were expected, and therefore sex and its interaction with the given affective parameter was included into all regression models and where an interaction was found, such interaction was further studied. A two-sided p < 0.05 was considered to be significant. SPSS 13.0 for Windows was used for all calculations.
Baseline characteristics of study participants
Duration of hypertension (year)
Diabetes [n (%)]
CV disease [n (%)]
Current smoker [n (%)]
Body height [cm]
Body weight [kg]
Blood glucose [mmol/l]
GFR-EPI [ml/min/1.73 m2]
Uric acid [μmol/l]
324.2 ± 79.6
Total cholesterol [mmol/l]
5.2 ± 1.1
ACE-inhibitor [n (%)]
ARB [n (%)]
Calcium channel blocker [n (%)]
Beta-blocker [n (%)]
Diuretic [n (%)]
Antiplatelet drug [n (%)]
Statin [n (%)]
Alprazolam [n (%)]
TEMPS-A, BDI, HAM-A scores
Hemodynamic. arterial stiffness parameters
Heart rate [1/min]
133.5 ± 12
75.6 ± 9.2
Variables with significant Pearson correlations and variables entered in the final multiple linear regression model showing the independent predictors of brachial systolic blood pressure, pulse wave velocity and augmentation index
Brachial systolic blood pressure
SBP amplification [mmHg]
Pulse wave velocity
Duration of hypertension [year]
Blood glucose [mmol/l]
GFR-EPI [ml/min/1.73 m2]
Current smoking [p/y]
Body height [cm]
Heart rate [1/min]
Uric acid [μmol/l]
Predictive value of cyclothymic affective temperament scores on brachial systolic blood pressure and of hyperthymic affective temperament scores on augmentation index in the various models. The progressive involvement of variables into models and other significant predictors in the final models are also demonstrated
Brachial systolic blood pressure
Cyclothymic temp. score
Model 2: Model 1 + Age + Sex
Cyclothymic temp. score
Model 3: Model 2 + DBPbrach
Cyclothymic temp. score
Model 4: Model 3 + Triglyceride + Cholesterol
Cyclothymic temp. score
Model 5: Model 4 + BDI + HAM-A + Alp
Cyclothymic temp. score
Hyperthymic temp. score
Model 2: Model 1 + Age + Sex
Hyperthymic temp. score
Model 3: Model 2 + Smoking
Hyperthymic temp. score
Model 4: Model 3 + Heart rate
Hyperthymic temp. score
Model 5: Model 4 + Uric acid
Hyperthymic temp. score
Model 6: Model 5 + BDI + HAM-A + Alp
Hyperthymic temp. score
With regard to the association between PWV and irritable temperament score, the correlation still remained significant (p = 0.012) after adjustment for age, sex, brachial systolic blood pressure, GFR-EPI, blood glucose and duration of hypertension, although became non-significant after further adjustment for BDI and HAM-A scores and the use of alprazolam (p = 0.078). The same results were also found for anxious temperament score and PWV: the significant association (p = 0.043) that was present after adjustment for age, sex, brachial systolic blood pressure, GFR-EPI, blood glucose and duration of hypertension disappeared after further adjustment for BDI and HAM-A scores and the use of alprazolam (p = 0.475).
There was also a significant interaction between irritable temperament score and sex in predicting PWV (p = 0.021). There was a positive association between irritable temperament score and PWV in men (B = 0.154, SE = 0.060, p = 0.012) which was absent in women (B = 0.076, SE = 0.064, p = 0.235) (Fig. 1b). After adjustment for age, blood glucose, brachial systolic blood pressure and GFR-EPI, the interaction p-value was attenuated (p = 0.037), however the strength of the association remained similar (in men B = 0.104, SE = 0.050, p = 0.039 and in women B = 0.082, SE = 0.052, p = 0.116). The interaction became non-significant (p = 0.168) after further adjustment for BDI and HAMA-A scores and the regular use of alprazolam (in men B = 0.091, SE = 0.051, p = 0.078 and in women B = 0.054, SE = 0.061, p = 0.375).
Similarly to irritable temperament, there was also a significant interaction between the anxious temperament score and sex in predicting PWV (p = 0.023). There was a positive association between anxious temperament score and PWV in men (B = 0.106, SE = 0.043, p = 0.015) which was absent in women (B = 0.047, SE = 0.036, p = 0.189) (Fig. 1c). After adjustment for age, blood glucose, brachial systolic blood pressure and GFR-EPI, the interaction p-value was attenuated (p = 0.046), however the strength of the association remained similar in men (in men B = 0.088, SE = 0.036, p = 0.017 and in women B = 0.021, SE = 0.030, p = 0.484). The interaction became non-significant (p = 0.135) after further adjustment for BDI and HAMA-A scores and the regular use of alprazolam (in men B = 0.070, SE = 0.039, p = 0.075 and in women B = -0.017, SE = 0.037, p = 0.656).
An interaction with borderline significance (p = 0.052) was found between sex and hyperthymic affective temperament in predicting Aix. An inverse association was found in women (B = -0.754, SE = 0.326, p = 0.022) which was absent in men (B = -0.305, SE = 0.370, p = 0.411) (Fig. 1d). This interaction became weaker (p = 0.064) after further adjustment for age, smoking, heart rate and uric acid (in women B = -0.678, SE = 0.312, p = 0.032 and in men B = -0.327, SE = 0.352, p = 0.325).
To the best of our knowledge, this is the first study to demonstrate that, in chronic hypertensive patients, cyclothymic temperament score is associated with brachial systolic blood pressure while hyperthymic temperament score is independently related to the augmentation index after adjustment for potential confounders including severity of depression and anxiety and the use of alprazolam. Sex differences were also found in relation with brachial systolic blood pressure and cyclothymic temperament score, pulse wave velocity and irritable and anxious temperament scores and augmentation index and hyperthymic temperament score.
Previous findings support our present observations that affective temperaments are associated with cardiovascular pathology. For example, patients with cyclothymic, irritable and anxious temperaments were shown to have a tendency to obesity . Depressive temperament was also found to be associated with worse metabolic control in type-2 diabetes , while anxious temperament was associated with an increased likelihood for the presence of prediabetic condition . Our result with regard to cyclothymic temperament is in line with our previous findings in which dominant cyclothymic temperament demonstrated a significant association with the presence of hypertension  and with acute coronary events in a hypertensive patient population .
An increasing cyclothymic temperament score was found herein to be associated with a higher brachial systolic blood pressure. This temperament shows a central dimension that includes rapid fluctuations in mood and emotional instability. Such alterations can span from lethargy to eutonia, from pessimistic brooding to optimistic, from hypersomnia to decreased need for sleep or from introverted self-absorption to uninhibited people-seeking . In contrast, hyperthymic temperament, which was associated in our study with better wave reflection, can be described as a temperament that displays extroversion, emotional intensity, a high level of life-energy and little need for sleep. Subjects with hyperthymic temperament are cheerful, overoptimistic, overconfident as well as over-talkative and vigorous . While the hyperthymic temperament is associated with better quality of life (QOL), the cyclothymic temperament is conversely associated with worse QOL . Moreover, people with hyperthymic temperament can better cope with somatic problems , while cyclothymic disposition is related to a high somatic risk . Based on these results, we hypothesize that there is a likely differential impact of these two temperaments on vascular pathology, although prospective studies are required to confirm this hypothesis.
There are existing data in the literature regarding the association between personality traits and arterial stiffening. In a study by Midei and Matthews, higher trait anxiety and hostility were associated with a higher PWV . In the Baltimore Longitudinal study of Aging, middle-aged adults with suppressed anger had elevated carotid arterial stiffness . In keeping with these studies, irritable and anxious affective temperament scores were found herein to be covariates of PWV after adjustment for age, sex, brachial systolic blood pressure, blood glucose, GFR-EPI and duration of hypertension. However, these associations became non-significant after further adjustment with severity of depression and anxiety and the use of alprazolam. Given that arterial stiffness is associated with depression and anxiety [38, 39], we can hypothesize that, similarly to the relationship between life stress and arterial stiffness , the association between anxious and irritable affective temperaments and PWV is partly mediated by severity of depressive and anxiety symptoms.
Augmentation index is an accepted parameter of pulse wave analysis. Aix is associated with age, sex, body height, smoking and heart rate [41, 42], associations which were also reproduced in the present study. Aix is furthermore reported to be a predictor of mortality in various pathological conditions, such as end-stage renal disease  or coronary artery disease , and its predictive value was also confirmed by a meta-analysis . In the study of Seldenrijk et al., anxiety-related symptoms were found to be associated with Aix . Our present results indicate that hyperthymic affective temperament score is an independent covariable of Aix with higher scores being associated with better wave reflection and thus a preserved elasticity of the arteries. This suggests a protective role of hyperthymic temperament on cardiovascular pathology and emphasizes the potential of further evaluation of affective temperaments with wave reflection parameters.
Significant interactions were also found in the present study between sex and cyclothymic temperament score in predicting brachial systolic blood pressure, between sex and irritable temperament as well as between sex and anxious temperament scores in predicting PWV, while the interaction between sex and hyperthymic temperament score in predicting Aix had borderline significance. These findings are consistent with the study of Williams et al., where trait anger was associated with elevated arterial stiffness in men, while in women the association was marginally significant . These results suggest that, similarly to the presence of sex differences in scoring in different affective temperament directions , sex differences are also present in the associations between affective temperament scores and brachial systolic blood pressure and arterial stiffness parameters. Additional studies are likely needed to specify these observed sex differences, including taking into consideration menopausal status or the use of hormone replacement therapy.
The pathophysiological background of our findings is complex and remains to be clarified. Subjects in states of anger or hostility show elevated levels of inflammation [47, 48] and those with anxiety show reduced autonomic nervous system function . The involvement of neurotrophic molecules should also be considered since we recently demonstrated decreased serum brain-derived neurotrophic factor levels in chronic hypertensive patients with dominant cyclothymic, depressive, anxious or irritable affective temperament . However, this area also requires further studies.
One of the limitations of the present analysis is the relatively low number of chronic hypertensive patients used to study the associations between affective temperaments and blood pressure or arterial stiffness parameters, which limits the generalizability of our results, as well as the number of entered confounders into regression analyses. Another main limitation stems from its cross-sectional design which precludes causal inference. Moreover, although our methodology used standardized questionnaires and excluded patients with dementia, a complete exclusion of misinterpretations or mistakes by patients is nevertheless impossible.
In conclusion, the elevated blood pressure among subjects with high cyclothymic temperament and the increased level of arterial stiffening in subjects with low hyperthymic scores suggest that affective temperaments might play a role in the development of hypertension and arterial stiffening and thus could represent potential markers of cardiovascular risk. The discovered sex differences in numerous studied associations may be the consequence of the known differences in affective temperaments between men and women. Cumulating data suggest that the identification of affective temperaments in the future can improve both the psychopathological and cardiovascular risk stratification of patients leading to a more accurate, personalized patient management.
AIx, augmentation index; ARB, angiotensin II receptor blocker; BDI, Beck depression inventory; BMI, body mass index; Cyclothymic temp. score, cyclothymic affective temperament score; DBPbrach, brachial diastolic blood pressure; GFR-EPI, glomerular filtration rate assessed by the chronic kidney disease epidemiology collaboration glomerular filtration rate equation; HAM-A, Hamilton anxiety scale; HR, heart rate; Hyperthymic temp. score, hyperthymic affective temperament score; PPAmp, pulse pressure amplification; PPB, brachial pulse pressure; PPbrach, brachial pulse pressure; PPcentr, central pulse pressure; PWV, pulse wave velocity; SBPbrach, brachial systolic blood pressure; SBPcentr, central systolic blood pressure; TEMPS-A, the temperament evaluation of Memphis Pisa, Paris and San Diego questionnaire
The authors acknowledge the contribution of Lászlóné Hárshegyi, Ágnes Polyák and Zoltánné Reisz, who helped in medically assisting the patients and in data acquisition. We also acknowledge the contribution of Oleg Pogrebnyak for his technical and linguistic support.
Xenia Gonda is a recipient of the János Bolyai Research Fellowship of the Hungarian Academy of Sciences.
This study was supported by the Hungarian Society of Hypertension and the Hungarian Scientific Research Fund (OTKA K 100909, György Reusz). There has been no role of these grants in the design of the study and collection, analysis, and interpretation of data and in writing the manuscript.
Availability of data and materials
The dataset supporting the results of this article are available in LabArchives, in the “Temp-BP-stiffness paper” repository, under the file name of “Patient_data_stiffness-temp”, at http://dx.doi.org/10.6070/H4Q23X90. No registration is required to view the dataset.
AL collected and analyzed the data, measured arterial stiffness and wrote the first version of the manuscript. BK helped in arterial stiffness measurements and clinical data collection. DE and PT helped in patient recruitment. OC helped in the analysis of the pulse wave curves and in the training of the examiners of arterial stiffness. AT supervised the arterial stiffness aspect of the study providing extensive intellectual input. ÁT helped in study planning and statistical analysis. GR supervised the data analysis and critically revised the manuscript. ZN-B uploaded the autoquestionnaires into Excel. XG helped in the psychiatric portion of the study in choosing the proper questionnaires and helped in their analysis as well as writing the paper. ZR supervised the psychiatric aspect of the study and critically reviewed the manuscript. JN planned and supervised the study, helped in patient recruitment and data analysis and completed the manuscript. All authors have read and approved the final version of the manuscript.
The authors declare that they have no competing interests.
Consent for publication
Ethics approval and consent to participate
Prior to participation, all patients gave written informed consent. The study was approved by the Scientific and Research Ethics Committee of the Medical Research Council, the Hungarian Ministry of Health (ETT TUKEB 842/PI/2011) and was carried out in accordance with the tenets of the Declaration of Helsinki.
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