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. 2020 Aug 27;31(2):958–966. doi: 10.1007/s00330-020-07136-6

Breast arterial calcifications as a biomarker of cardiovascular risk: radiologists’ awareness, reporting, and action. A survey among the EUSOBI members

Rubina Manuela Trimboli 1, Davide Capra 1,, Marina Codari 2, Andrea Cozzi 1, Giovanni Di Leo 3, Francesco Sardanelli 1,3
PMCID: PMC7813731  PMID: 32851451

Abstract

Objectives

To investigate the knowledge of radiologists on breast arterial calcifications (BAC) and attitude about BAC reporting, communication to women, and subsequent action.

Methods

An online survey was offered to EUSOBI members, with 17 questions focused on demographics, level of experience, clinical setting, awareness of BAC association with cardiovascular risk, mammographic reporting, modality of BAC assessment, and action habits. Descriptive statistics were used.

Results

Among 1084 EUSOBI members, 378 (34.9%) responded to the survey, 361/378 (95.5%) radiologists, 263 females (69.6%), 112 males (29.6%), and 3 (0.8%) who did not specify their gender. Of 378 respondents, 305 (80.7%) declared to be aware of BAC meaning in terms of cardiovascular risk and 234 (61.9%) to routinely include BAC in mammogram reports, when detected. Excluding one inconsistent answer, simple annotation of BAC presence was declared by 151/233 (64.8%), distinction between low versus extensive BAC burden by 59/233 (25.3%), and usage of an ordinal scale by 22/233 (9.5%) and of a cardinal scale by 1/233 (0.4%). Among these 233 radiologists reporting BAC, 106 (45.5%) declared to orally inform the woman and, in case of severe BAC burden, 103 (44.2%) to investigate cardiovascular history, and 92 (39.5%) to refer the woman to a cardiologist.

Conclusion

Among EUSOBI respondents, over 80% declared to be aware of BAC cardiovascular meaning and over 60% to include BAC in the report. Qualitative BAC assessment predominates. About 40% of respondents who report on BAC, in the case of severe BAC burden, investigate cardiovascular history and/or refer the woman to a cardiologist.

Key Points

• Of 1084 EUSOBI members, 378 (35%) participated: 81% of respondents are aware of breast arterial calcification (BAC) cardiovascular meaning and 62% include BAC in the mammogram report.

• Of those reporting BAC, description of presence was declared by 65%, low versus extensive burden distinction by 25%, usage of an ordinal scale by 10%, and of a cardinal scale by 0.4%; 46% inform the woman and, in case of severe BAC burden, 44% examine cardiovascular history, and 40% refer her to a cardiologist.

• European breast radiologists may be ready for large-scale studies to ascertain the role of BAC assessment in the comprehensive framework of female cardiovascular disease prevention.

Electronic supplementary material

The online version of this article (10.1007/s00330-020-07136-6) contains supplementary material, which is available to authorized users.

Keywords: Cardiovascular diseases, Mammography, Mönckeberg medial calcific sclerosis, Survey and questionnaires, Radiologists

Introduction

Cardiovascular disease still represents the leading cause of death for women [1]. Disparities in mortality rates still subsist by sex among age groups, with less favourable trends in young women [2, 3]. Recommended risk stratification algorithms—including traditional risk factors, sex, race, and ethnicity—do not adequately perform in women, leading to potential risk underestimation and subsequent undertreatment [4, 5]. Likely, traditional cardiovascular risk factors actually confer different risks for women and men. On the other hand, unique non-traditional risk factors such as pregnancy complications, oral contraception, hormonal fertility, menopausal therapies, and systemic autoimmune disorders play a crucial role in the complex biological pathway towards cardiovascular disease in women [6]. Moreover, the estrogenic dysregulation occurring in menopause—but also in premature ovarian insufficiency and obesity—favours breast arterial calcifications (BAC) development [710].

BAC on mammography are known to be strongly associated with cardiovascular disease, independently from other known cardiovascular risk factors [11], and their inclusion in cardiovascular risk algorithms has been advocated to improve cardiovascular outcomes in women [12, 13]. The current strength of this association, however, is not sufficient to warrant a clinical application in preventive cardiology. Indeed, the lack of validated and reproducible quantification methods allowing for risk stratification still represents an open issue. Nevertheless, no universal recommendations do exist on whether and how to report BAC and how to deal with them, discuss with women, or refer to cardiologists [5, 7].

In this context, the European Society of Breast Imaging (EUSOBI) launched a survey among its members to investigate the radiologist attitude about BAC awareness, reporting, communication, and actions. The results of this survey are reported in this paper.

Materials and methods

Survey design and recipients

The survey was developed by two board-certified radiologists, one (F.S.) with over 30 years of experience in breast and cardiovascular imaging and one (R.M.T.) with over 10 years of experience in breast imaging. A biomedical engineer with a background in image segmentation and survey methodology (M.C.) contributed to the design. After approval from the EUSOBI executive board, the questionnaire was published online on a dedicated software platform (Google Forms, Google). EUSOBI members were invited to anonymously participate by an e-mail from the society’s central office that included a link to the survey form. The self-administered questionnaire was available for 5 weeks, from February 10 to March 17, 2020, with two e-mail reminders sent on March 2 and March 15, 2020.

After a brief introduction about BAC and their association with cardiovascular risk, ten questions focused on the following: readers’ demographics (gender, age, geographical origin, job position) and experience (years in reading mammography, reading in a population-based screening mammography programme, number of mammograms read per year, percentage of working time dedicated to breast imaging); clinical setting (academic hospital, community hospital, private hospital, private practice). Subsequently, seven questions focused on whether participants had previously heard about the association between BAC and cardiovascular risk and whether they describe BAC in mammogram reports. If respondents indicated to include BAC in the mammogram reports, a further question investigated the method adopted for BAC assessment, distinguishing between qualitative and quantitative methods, according to whether visual subjective or numerical/objective evaluations were performed. Action habits, namely discussing with the woman her BAC status and, in case of severe BAC burden or progression, investigating cardiovascular anamnesis and/or referring to cardiologists, were also the focus of specific questions. The entire questionnaire is provided as Supplementary material (ESM 1).

Statistical analysis

After survey closure on March 17, 2020, results were exported in a spreadsheet for statistical analysis. Descriptive statistics were expressed as absolute frequencies and percentages for categorical variables. To compare differences between variables, the chi-squared test was applied. Statistical analysis was performed using R v3.5.3 for Windows (The R Foundation for Statistical Computing).

Results

Demographics, experience, clinical setting, and job position

Invitation e-mails were sent out to 1084 EUSOBI members, reaching 1074 of them. The questionnaire was filled-in by 378 participants, yielding a 35.2% response rate. Among them, 263 (69.6%) were females, 112 were males (29.6%), and 3 (0.8%) did not specify their gender. Most of the respondents were based in Europe (290/378, 76.7%), only 88/378 (23.2%) in non-European countries, mainly Turkey (14/378, 3.7%). Geographic origin was categorised in three different areas: Western (233/378, 61.6%) and Eastern Europe (57/378, 15.1%) and non-European countries (Fig. 1).

Fig. 1.

Fig. 1

Geographic origin of participants to the survey, grouped by three different areas. Countries with less than two respondents were not plotted

Board-certified radiologists mainly responded to the survey (361/378, 95.5%). Among them, 215 (59.6%) read in a population-based screening mammography programme and 87 (24.1%) are fully dedicated to breast imaging. Further characteristics of participants on demographics, experience, and clinical setting are given in Table 1.

Table 1.

Participants' characteristics

n %
Demographics
  Gender
    Female 263 69.6
    Male 112 29.6
    Not specified 3 0.8
  Age
   < 30 years 7 1.9
    30–39 years 85 22.5
    40–49 years 133 35.2
    50–59 years 105 27.8
    60–69 years 45 11.9
   > 70 years 3 0.8
  Job position
    Radiologist 361 95.5
    Resident 8 2.1
    Fellow/PhD 9 2.4
Clinical setting
  Academic hospital 152 40.2
  Community hospital 83 22.0
  Private hospital 75 19.8
  Private practice 61 16.1
  Other 7 1.9
Experience
  Reading mammography
   < 2 years 17 4.5
    2–5 years 50 13.2
    6–10 years 94 24.9
    11–20 years 110 29.1
   > 20 years 107 28.3
  Screening reader
    Yes 224 59.3
    No 154 40.7
  Mammograms per year
    0–1999 132 34.9
    2000–4999 127 33.6
   > 5000 119 31.5
  Working time in breast imaging
    0–99% 286 75.7
    100% 92 24.3

Awareness

Among the 378 respondents, 305 (80.7%) had heard about the association between BAC on mammography and cardiovascular risk. BAC awareness did not significantly differ among gender, geographic origin, clinical setting, job position, years of experience in reading mammography, number of mammograms read per year, and percentage of working time dedicated to breast imaging (p ≥ 0.101). Age and reading in a population-based screening mammography programme were associated with the knowledge of BAC cardiovascular meaning (p = 0.045 and p = 0.020, respectively). Respondents over 50 years were more frequently aware (131/153, 85.6%) compared with younger breast radiologists (174/225, 77.3%), while 76.8% (172/224) of those reading in a population-based screening mammography programme were aware of BAC meaning compared with 86.4% (133/154) of radiologists not involved in a population-based screening programme.

Reporting

Over 60% of respondents (234/378, 61.9%) include BAC in the mammogram reports; 64.9% (198/305) of those aware of BAC cardiovascular meaning declared to report BAC compared with 49.3% (36/73) of those unaware (p = 0.014).

Attitude towards BAC reporting was not significantly influenced by gender, age, geographic origin, job position, years of experience in reading mammography, and percentage of working time dedicated to breast imaging (p ≥ 0.588). BAC reporting was associated to clinical setting and number of mammograms read per year (p < 0.001), as well as to reading in a population-based screening mammography programme (p = 0.037); 83.6% (51/61) of radiologists based in private practice and 66.7% (50/75) of those based in private hospitals use to report BAC, compared with 49.4% (41/83) of those based in community hospitals and 56.6% (86/152) of those based in academic hospitals; 68.3% (177/259) of respondents with a mammography workload under 5000 examinations per year and 68.2% (105/154) of those not reading in a population-based screening mammography programme declared to report BAC compared with 47.9% (57/119) of respondents having an annual mammography workload over 5000 examinations and 57.6% (129/224) of radiologist readers of population-based screening mammography. Association of BAC awareness and reporting with respondents’ demographics and experience are detailed in Table 2.

Table 2.

Association of BAC awareness and reporting with respondents’ demographics and experience

BAC awareness p BAC reporting p
Yes No Yes No
Demographics
  Gender 0.176 0.983
    Female 206 57 163 100
    Male 96 16 69 43
    Not specified 3 0 2 1
  Age 0.045 0.588
   < 50 years 174 51 142 83
   ≥ 50 years 131 22 92 61
  Geographic origin 0.599 0.827
    Western Europe 186 47 134 99
    Eastern Europe 47 10 39 18
    Non-EU countries 72 16 61 27
  Job position 0.139 0.718
    Radiologist 294 67 225 136
    Resident 6 2 4 4
    Fellow/PhD 5 4 5 4
  Clinical setting 0.101 < 0.001
    Academic hospital 129 23 86 66
    Community hospital 59 24 41 42
    Private hospital 59 16 50 25
    Private practice 52 9 51 10
    Other 6 1 6 1
Experience
  Working time in breast imaging 0.401 0.796
    0–99% 228 58 176 110
    100% 77 15 58 34
  Reading mammography 0.446 0.990
   < 2 years 12 5 10 7
    2–5 years 39 11 30 20
    6–10 years 76 18 60 34
    11–20 years 86 24 68 42
   > 20 years 92 15 66 41
  Mammograms per year 0.360 < 0.001
    0–1999 103 29 93 39
    2000–4999 101 26 84 43
   > 5000 101 18 57 62
  Screening reader 0.020 0.037
    Yes 172 52 129 95
    No 133 21 105 49
  BAC awareness 0.014
    Yes 198 107
    No 36 37

Assessment methods

Out of 234 responders who report BAC, one respondent gave an inconsistent answer that was excluded. Simple annotation of BAC presence was declared by 151/233 (64.8%), distinction between low versus extensive BAC burden by 59/233 (25.3%), usage of an ordinal scale by 22/233 (9.5%) and of a cardinal scale by 1/233 (0.4%). No respondent indicated the use of software for quantitative assessment (Fig. 2). The choice of the modality of assessment was not influenced by radiologists’ geographic origin, clinical setting, and experience (p ≥ 0.079). Gender and age were associated with the use of a dichotomous assessment method (p < 0.001), with female and younger than 50 years radiologists being more prone to adopt a dichotomic present/absent assessment, 73.5% (119/162) and 75.2% (106/141) respectively compared with 46.4% (32/69) males and 48.9% (45/92) radiologists over 50 years. Of note, 95/233 (40.8%) of respondents also evaluate BAC evolution over time by comparing previous examinations.

Fig. 2.

Fig. 2

Pie chart of BAC assessment modality as declared by 233 BAC reporters. No one indicated computerised methods

Action habits

Three questions aimed to investigate radiologists’ attitude about communication of the BAC status to the woman and eventual subsequent actions to be taken. Among the 233 respondents reporting BAC, 106 (45.5%) orally inform the woman, 50 (47.2%) only in case of severe BAC burden or progression. Finally, in this case, 103/233 (44.2%) respondents investigate personal or family history of cardiovascular disease and 92/233 (39.5%) refer the woman to a cardiologist.

Overall, action habits were associated with respondents’ awareness about BAC, geographic origin, and clinical setting (p ≤ 0.048). Moreover, respondents under 50 years were less likely to communicate to the woman (p = 0.016) or to investigate cardiovascular anamnesis (p = 0.009). Action habits were not associated with radiologists’ experience (p ≥ 0.258). Significant associations of action habits with respondents’ demographics and experience are detailed in Table 3.

Table 3.

Association of action habits with respondents’ demographics and BAC awareness

Communication to the woman p Ask for CV anamnesis p Refer for a cardiology visit p
Yes No NR Yes No NR Yes No NR
Demographics
  Age 0.016 0.009 0.191
   < 50 years 55 85 2 53 88 2 51 89 2
   ≥ 50 years 51 41 0 50 41 1 41 50 1
  Geographic origin 0.002 0.010 < 0.001
    Western Europe 65 67 1 62 70 1 51 81 1
    Eastern Europe 24 15 0 23 16 0 26 12 1
    Non-EU countries 17 44 1 18 43 2 15 46 1
  Clinical setting < 0.001 0.001 < 0.001
    Academic hospital 28 58 0 34 52 1 26 59 1
    Community hospital 10 30 0 9 30 1 7 32 1
    Private hospital 32 17 1 28 22 1 25 25 1
    Private practice 36 15 0 31 20 0 31 20 0
    Other 0 6 0 1 5 0 3 3 0
  BAC awareness 0.002 0.029 0.048
    Yes 98 98 1 93 103 2 83 112 2
    No 8 28 1 10 26 1 9 27 1

CV, cardiovascular; NR, no response

Discussion

The response rate to this survey, reaching more than a third of all EUSOBI members, shows a relatively high interest of breast radiologists towards BAC. Over 80% of participants were aware of the association between BAC and cardiovascular risk and over 60% declared to include BAC in mammography reports when they are present. Such data show how even in an era of highly specialised medicine and radiological subspecialties, about 30% of EUSOBI members display a comprehensive approach towards disease prevention, beginning to consider mammography as a tool that could combine breast cancer prevention with cardiovascular prevention in women.

There is robust evidence linking BAC with well-known cardiovascular risk factors, such as increasing age, parity, diabetes mellitus, and hyperlipidaemia, all associated with a higher BAC prevalence [5, 7, 11] than that (12.7%) currently reported among the general female population attending breast cancer screening programmes [11]. Several studies suggested that BAC presence is associated with a risk of coronary heart disease up to three times higher than in the general population [8, 1416], independently from other known cardiovascular risk factors and from the presence of coronary artery disease [14, 15].

Notably, BAC and coronary atherosclerotic plaques are the expression of two different pathophysiological processes. While BAC are the consequence of Mönckeberg medial calcific sclerosis—a non-occlusive disease resulting in thicker and stiffer vessels—coronary plaques involve the vascular intima, leading to luminal narrowing and vessel occlusion [17].

This survey also revealed that, among radiologists reading in a population-based screening mammography programme, the majority is aware of BAC cardiovascular meaning and includes BAC in mammogram reports (when BAC are present), even if report forms, per se, do not provide such input. This is a positive proactive behaviour. First of all, this improves primary care physicians’ perception of BAC meaning and potential. Secondly, it facilitates the creation of large datasets, encouraging prospective studies with known cardiovascular outcomes to ascertain if BAC may improve cardiovascular risk stratification over traditional approaches. Finally, from the patient’s perspective, receiving such information is desirable. A recent study centred on a self-administered survey involving 419 women undergoing screening or diagnostic mammography highlighted how women have an overwhelming preference to be informed if BAC are found in their mammograms [18]. Of note, while cardiovascular risk awareness among women remains low despite the high toll paid in terms of cardiovascular mortality [19, 20], findings by Margolies et al [18] strongly hint that, if properly informed, women would become actively involved in tailored preventive strategies focused on cardiovascular disease, beginning to consider it not only as a “male problem”.

Oral communication with women about their BAC status is pursued by 45.5% of respondents which routinely include BAC in mammography reports, even though in 47.2% of cases doing it only when BAC burden or progression is deemed severe. If so, 44.2% proceed to investigate cardiovascular anamnesis and 39.5% refer women to a cardiologist. Interestingly, all these action habits were more frequently undertaken in Eastern European countries and by radiologists working in private hospitals and private practice. Such findings may be partially explained considering that these three geographic areas (Western Europe, Eastern Europe, and non-European countries) do not mirror official indications, rather reflect a similarity of routine practices both in screening and diagnostic setting.

Italy, along with the UK, had the greater number of respondents to this survey (53/378, 14.0% Italian and 38/378, 10.1% English respondents), as for the greater number of members within EUSOBI (187/1084, 17.2% Italian and 80/1084, 7.4% English members). This result could also be influenced by the lesser diffusion of organised screening programmes in some countries, as well as by differences in the number of examinations and allotted time performed in private setting, factors which unfortunately do not emerge from our survey. Finally, different socio-cultural contexts or medico-legal issues may also come into play.

Most of the respondents, 64.8%, qualitatively describe BAC as “present”, while just over a fourth assess them through an ordinal visual scale, the latter undoubtedly representing a considerable step from a mere subjective and qualitative evaluation towards a semi-quantitative assessment. Only one radiologist (0.4%) declared to manually perform a quantitative assessment, while computer-aided tools were absolutely missing.

Binary BAC classifications hinder the comprehensive stratification of women into multiple cardiovascular risk levels and the identifications of women who would mostly benefit from a tailored disease prevention [7]. The target population for a cost-effective further risk assessment is primarily represented by individuals at intermediate cardiovascular risk; indeed, in a low-risk population, the rationale for preventive intervention is missing, while in a high-risk population, further risk assessment would not reasonably impact on a formerly recommended pharmacological treatment [21]. Nevertheless, the major source of bias for qualitative or semi-quantitative methods for BAC evaluation has been—up to now—their poor reproducibility [7, 22]. Albeit easily detectable on mammography, BAC topological complexity and vessel overlap on two-dimensional mammographic projections make both the identification and quantification of BAC quite difficult to standardise, preventing robust validation and subsequent clinical application [5, 7]. A sound and reproducible BAC quantification, ideally through a continuous scale, is paramount for cardiovascular risk stratification. Valuable information on this issue will probably come from the MINERVA study, the first large prospective study using a continuous mass (in milligrams) score for BAC assessment. These results will hopefully contribute to determine whether this validated method [23] is indeed capable of predicting coronary heart disease, cerebrovascular disease, heart failure, peripheral vascular disease, and total cardiovascular disease on a large population. Answers to these questions will also clarify if adding BAC burden classification to prediction models based on traditional risk factors effectively stimulates a reclassification of cardiovascular disease risk in women [24].

An automated tool could also represent a useful solution for BAC quantification and is what we must strive for. Recently, the use of artificial intelligence systems for BAC segmentation was investigated. In particular, a deep convolutional neural network was trained to discriminate between BAC and non-BAC pixels from digital mammography images, obtaining good performances both in BAC detection and calcium mass quantification [25]. However, such systems, although promising, are still far from being validated and subsequently applied, large-scale studies being needed to obtain further improvements.

Limitations of this survey include, first, a potential selection bias among radiologist members of the EUSOBI, who of course supposedly display special interest in breast imaging and in keeping updated with correlated research on such topic. Therefore, awareness about BAC meaning and reporting attitude are potentially overestimated and not generalisable to the whole radiological community. Secondly, the response rate was below 50%, as indeed typically observed in similar surveys [26], with our 35.2% response rate being higher than expected and representing an excellent data. Finally, more detailed questions about education, habits, and technical challenges were avoided to reach a good compliance in terms of response rate.

In conclusion, this survey illustrated that, among EUSOBI members, more than 80% of respondents are aware of BAC implications in terms of cardiovascular risk, and that more than 60% include BAC on mammogram reports when they are present. However, BAC quantitative estimates are not performed, with very few exceptions.

Large-scale studies are now needed to ascertain the role of BAC assessment in the comprehensive framework of female cardiovascular disease prevention, provided that BAC quantitative methods are available. Furthermore, efforts should be pursued in discussing with women their BAC status and its meaning. Reporting BAC may prove a step towards promoting cardiovascular disease prevention in women via mammography. This would ultimately confer the ability to concomitantly influence the course of two leading causes of death in women, i.e. breast cancer and cardiovascular disease, to a widely diffused and endorsed population-based screening programme.

Electronic supplementary material

ESM 1 (177.6KB, pdf)

(PDF 177 kb)

Acknowledgements

We thank the EUSOBI central office for all the logistic support together with all members participating in the survey.

Abbreviations

BAC

Breast arterial calcifications

EUSOBI

European Society of Breast Imaging

Funding information

Open access funding provided by Università degli Studi di Milano within the CRUI-CARE Agreement. This study was partially supported by Ricerca Corrente funding from the Italian Ministry of Health to IRCCS Policlinico San Donato.

Compliance with ethical standards

Guarantor

The scientific guarantor of this publication is Francesco Sardanelli.

Conflict of interest

R.M. Trimboli, M. Codari, A. Cozzi, D. Capra, and G. Di Leo all declare no relationships with any companies, whose products or services may be related to the subject of the article. F. Sardanelli declares to have received grants from or to be member of speakers’ bureau/advisory board for Bayer, Bracco, and General Electric.

Statistics and biometry

G. Di Leo and M. Codari have significant statistical expertise.

Informed consent

Written informed consent was not required for this study, being it an anonymous survey.

Ethical approval

Institutional Review Board approval was not required, being the study an anonymous survey.

Methodology

• Cross-sectional study

Footnotes

Publisher’s note

Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.

Rubina Manuela Trimboli and Davide Capra equally contributed to this work and share co-first authorship.

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