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. Author manuscript; available in PMC: 2010 Aug 16.
Published in final edited form as: Health Educ Behav. 2009 Oct;36(5 Suppl):36S–54S. doi: 10.1177/1090198109338918

Behavioral Constructs and Mammography in Five Ethnic Groups

Susan L Stewart 1, William Rakowski 2, Rena J Pasick 3
PMCID: PMC2921882  NIHMSID: NIHMS189457  PMID: 19805790

Abstract

Intention, self-efficacy, perceived susceptibility, perceived benefits, and subjective norms are key constructs of health behavior theories; their predictive validity for cancer screening has not been ascertained in multiethnic populations. Participants were 1,463 African American, Chinese, Filipina, Latina, and White women aged 40 to 74 interviewed by telephone in their preferred languages. The relationship between base-line constructs and mammography 2 years later was assessed using multivariable logistic regression. Intention predicted mammography overall and among Whites (odds ratio [OR] = 5.0, 95% confidence interval [CI] = 2.4, 10), with racial/ethnic differences in association (p = .020). Self-efficacy predicted mammography overall and among Whites (OR = 3.5, 95% CI = 1.1, 11), with no racial/ethnic interaction. Perceived benefits and subjective norms were associated with screening overall and in some racial/ethnic groups. These results generally support cross-cultural applicability of four of the five constructs to screening with mixed predictive value of measures across racial/ethnic groups. Additional in-depth inquiry is required to refine assessment of constructs.

Keywords: perceived benefits, perceived susceptibility, self-efficacy, intention, subjective norms, cross-cultural measurement


Intention, self-efficacy, perceived susceptibility, perceived benefits, and subjective norms are key components of several well-known models of health behavior. Since the early 1970s, many theories have been proposed to help explain health-related behaviors. The health belief model (HBM; Janz, Champion, & Strecher, 2002), social cognitive theory (SCT; Bandura, 2004), theory of reasoned action/planned behavior (TRA/PB; Montaño & Kasprzyk, 2002), transtheoretical model (TTM; Prochaska, Redding, & Evers, 2002), precaution adoption process model (Weinstein & Sandman, 2002), and protection motivation theory (Rogers, 1983) are among the most prominent. Each has its core constructs, typically conceptualized as potential barriers or facilitators for a desired health behavior. These constructs are used both to predict screening and as the focus for interventions.

Although the five above-listed behavioral constructs have been widely used in health research, their applicability to cancer screening in multiethnic, multilingual populations has been less well studied. It is important that the construct of intention is regarded as an immediate determinant of volitional behavior (Montaño & Kasprzyk, 2002) such that changes in intention are often used as the main outcome in intervention trials when screening cannot be measured (Wang et al., 2008). Intention is also key to the differentiation of stages in the very widely used TTM (Prochaska et al., 2002). Yet the predictive validity of this construct with regard to mammographic screening has not been tested for comparability across racial/ethnic groups. In other words, does stated intention mean the same thing to women of different cultures and who speak different languages? In addition, it is unclear whether the single-item indicators developed for mainstream Anglo populations and typically used in multipurpose health surveys effectively operationalize the constructs in ethnically diverse populations.

As part of a mixed methods study to examine the cultural appropriateness of the five stated constructs in relation to mammography use, this article begins to assess the effectiveness of the constructs and the value and meaning of common construct measures by reporting analyses from a multiethnic, multilingual survey. The study, Behavioral Constructs and Culture in Cancer Screening (3Cs), was designed to assess the cultural appropriateness of these constructs related to mammography screening by combining deductive quantitative analyses of data from five ethnic groups with an intensive inductive qualitative exploration of the constructs (see Figure 1; the inductive findings are reported elsewhere in this volume; for overall study outcomes, see Pasick, Burke, et al., 2009) among Filipina and Latina women. This approach is intended to provide a multifaceted understanding of the cross-cultural applicability of the constructs and, if indicated, to inform their subsequent adaptation. Although quantitative analyses can demonstrate patterns of association, they cannot discern the effects of measurement characteristics from those of underlying theoretical assumptions. However, the combination of quantitative deductive and qualitative inductive analyses allows for a rich and full exploration of the cross-cultural meaning and comparability of theoretic constructs.

Figure 1.

Figure 1

Behavioral Constructs and Culture in Cancer Screening (3Cs) study design and associated reports.

*Access and Early Detection for the Underserved, Pathfinders (1998 to 2003), a mammography and Pap screening intervention trial under way when 3Cs began.

This article reports the predictive validity of five constructs representing key content in several behavioral theories that have been applied to the use of breast cancer screening: (a) intention to obtain a mammogram, (b) perceived self-efficacy to obtain a mammogram, (c) perceived benefits of mammography, and (d) perceived susceptibility to breast cancer. The cross-sectional association between subjective norms (measured only in the final survey) and mammography is also reported.

Intention to perform a behavior (perceived likelihood of performing the behavior) is a central construct of TRA/PB, SCT, TTM, and the precaution adoption process model. For TRA/PB, intention is the immediate determinant of behavior such that when an appropriate measure of intention is obtained it will provide the strongest prediction of behavior. According to these theories, intention is a function of attitudes toward the behavior and subjective norms (Montaño & Kasprzyk, 2002). Efficacy beliefs may affect performance both directly and by influencing intentions (Bandura, 1997). For TTM, intention is integral to the change from precontemplation to action, and in the precaution adoption process model, intention is part of the decision to act.

Self-efficacy refers to beliefs in one’s capabilities to execute the courses of action required to produce a particular outcome (Bandura, 1997). This is a key construct in SCT, the theory of planned behavior, and protection motivation theory and is also in TTM. Most measures of self-efficacy for health behaviors are a single item or short scale using items of the form, “I am certain that I can do xx, even if yy (barrier)” (Schwarzer & Luszczynska, 2007). Despite some variation in measurement, there is substantial evidence demonstrating its predictive value and general agreement on the use of the concept (Ajzen, 2001).

Perceived benefit of a behavior and the difficulties of carrying out the behavior are basic constructs of HBM (benefits and barriers), TTM (pros and cons), SCT, and TRA/PB. Champion (1999) developed a five-item scale to measure the perceived benefits of mammography, establishing its validity and reliability in an HMO and general medical population. Skinner, Champion, Gonin, and Hanna (1997) demonstrated that perceived benefits and barriers successfully differentiated among women at different stages of mammography compliance.

Perceived susceptibility, which refers to an individual’s belief about the likelihood of developing a particular health problem, is a major construct of HBM, the precaution adoption process model, and protection motivation theory. Perceived susceptibility has been variously measured as absolute (e.g., a numerical probability estimate), conditional (given future behavior), or relative to other people (Gerrard & Houlihan, 2007). Champion (1999) developed a three-item scale measuring perceived susceptibility to breast cancer and demonstrated its reliability and validity in members of an HMO and general medicine clinic. A recent meta-analysis (Katapodi, Lee, Facione, & Dodd, 2004) found an overall positive association between perceived susceptibility and screening mammography.

Subjective norms are a TRA/PB behavioral construct that is the product of two components: perceived normative beliefs and motivation to comply. Normative beliefs refer to important others’ expectations for the individual’s performance of a specific behavior, and motivation to comply refers to the individual’s willingness to adhere to these expectations (Montaño & Kasprzyk, 2002). Subjective norms, along with attitudes, are posited in TRA/PB as direct influences on intentions to perform a behavior.

METHOD

The data for the study were collected in the baseline and final surveys of a randomized, controlled trial to promote breast and cervical cancer screening (Access and Early Detection for the Underserved, Pathfinders) that was conducted in Alameda County, California, from 1997 to 2003 (Somkin et al., 2004). The primary theoretical framework for the intervention was TTM (Rakowski, Fulton, & Feldman, 1993). To reach potential participants, we used a modified random-digit dialing (RDD) technique (Waksberg, 1978) with telephone prefixes that were associated with low-income zip codes or a relatively high proportion of Filipino residents. The RDD sample was supplemented with listed surname samples to reach additional Chinese and Filipino households.

Eligible participants were female residents of the county aged 40 to 74 who self-identified as African American, Chinese, Filipina, Latina, or non-Hispanic White; were able to be interviewed in English, Cantonese, Tagalog, or Spanish; and had no personal history of cancer. Participants agreed to be randomized, to be contacted every 6 months for the next 3 years, and to allow participating health clinics to validate type of health insurance and receipt of screening. Sampling was stratified by race/ethnicity and age. Verbal consent was obtained for eligible women who agreed to participate, and an interview was scheduled for approximately 2 weeks later. Participants were interviewed by telephone in their preferred language by professional bilingual, bicultural female interviewers a maximum of three times: at baseline, in a brief second wave survey (Mdn = 10 months later), and in a final survey on completion of the intervention (Mdn = 26 months after baseline). Respondents were compensated $10 for the first two interviews and $20 for the third interview.

Following the baseline survey, participants were randomized 1:1 to the study arms. Intervention group members received tailored printed health guides following the base-line and second wave surveys and tailored telephone counseling between the second wave and final surveys. Control group members received greeting cards after the base-line and second wave surveys and a tailored health guide following the final survey. The committees on human research of the collaborating institutions approved the research protocol.

Response Rate

A total of 46,206 telephone numbers were called, of which 32,521 (70%) were household numbers. We attempted to screen all households for eligibility. A total of 17,257 (53%) households were not screened because a respondent could not be found (76%), they did not complete the screener (14%), or they refused (10%). Among the 15,264 (47%) households screened, 2,963 (19%) contained an eligible respondent. Reasons for ineligibility included not being a member of a study racial/ethnic group (20%), not speaking any of the study languages (10%), not having a woman aged 40 to 74 in the household (66%), having a history of cancer (2%), and residing or planning to move out of the area (1%). Among eligible respondents, 1,840 (62%) consented to participate in the study. Of those who agreed to participate, 1,463 (80%) were recontacted, enrolled in the study, and interviewed, with 1,175 (80%) completing the final survey. The overall response rate was 49% (1,463 of 2,963 eligible respondents); racial/ethnic-specific response rates were African American (52%), Chinese (39%), Filipina (36%), Latina (52%), and White (68%). Characteristics of the study participants are given in Table 1.

Table 1.

Distribution of Demographic Characteristics and Screening Status by Race/Ethnicity

African
American
Chinese Filipina Latina White Total
Baseline n 497 199 167 300 300 1,463
Age in years
  (M, SD)
52.1, 9.0 52.3, 9.2 54.8, 9.4 50.7, 8.5 52.6, 8.4 52.3, 8.9
Education
  in years (M, SD)
13.6, 2.4 10.6, 4.4 14.2, 3.1 8.7, 4.5 16.5, 2.9 12.9, 4.3
Married (%) 32 85 73 66 54 56
Income level (%)
    <$20,000 43 41 15 42 17 34
    $20,000 to
  $50,000
35 34 27 35 31 33
    ≥$50,000 21 14 51 9 51 27
    Missing 2 12 7 14 1 6
≤10 years in
  United States (%)
<1 32 20 23 1 12
Non-English
  interview (%)
0 86 34 73 0 31
Insurance status (%)
    Private 61 52 83 48 87 65
    Public 25 24 11 16 6 17
    None 14 24 6 36 7 17
Regular doctor (%) 81 83 85 65 86 79
Baseline mammography status (%)a
    Never 12 22 11 14 9 13
    Not recent 29 27 31 29 27 29
    Recent, not regular 8 12 16 18 9 12
    Regular 51 39 43 39 55 47
Final n 407 154 121 235 258 1,175
Final mammography status (%)a
    Never 6 5 3 4 5 5
    Not recent 23 12 23 30 20 22
    Recent, not regular 9 25 7 13 8 11
    Regular 62 58 67 53 67 61

NOTE: Age, 1 missing; education, 14 missing. All variables differ across race/ethnicity at p < .001 except years in United States (p = .021). Language of interview and years in United States tested among Chinese, Filipina, and Latina only.

a

Never = never had a mammogram; not recent = most recent mammogram more than 15 months before interview; recent, not regular = most recent mammogram within 15 months of interview, no mammogram within 2 years of most recent; regular = most recent mammogram within 15 months of interview and a prior mammogram within 2 years of the most recent.

Measurement

Forty-minute structured questionnaires were developed for the baseline and final surveys. Many of the measures were obtained from questionnaires used in our prior cancer screening studies with comparable populations (Hiatt et al., 2001). Additional items were newly developed using focus groups and in-depth interviews or adapted from other studies and refined by our multiethnic team of researchers for comprehension and for linguistic, cultural, and content validity. Items were initially developed in English using terms known by the multilingual research team to be readily translated into Spanish, Cantonese, and Tagalog. Questions were back translated, decentered, and pretested in English and the other three languages (Pasick, Sabogal, et al., 1996).

Behavioral Constructs

Four of the five constructs were measured at both the baseline and the final surveys. These items were used in our previous studies of cancer screening in multiethnic populations (Hiatt et al., 2001). Subjective norms were not measured at baseline because they were not part of the Pathfinders intervention; they were added to the final survey for the 3Cs study. It should be noted that through pilot testing and previous studies, we determined that scaled response options could not be used in a multilingual sample with diverse socioeconomic status, particularly with questions administered by phone. Thus, only two response choices were offered at a time as described below.

Intention (“Do you plan to have a mammogram in the next 12 months?”), a single-item measure with response options yes or no, was based on a similar question used to determine mammography stage of adoption (Rakowski et al., 1993).

Self-efficacy (“Do you think that you could get a mammogram every year?”) was also a single-item measure with response options yes or no, similar to one of two items in a self-efficacy measure associated with mammography intention (Allen, Sorensen, Stoddard, Colditz, & Peterson, 1998). It is important that the common wording for this measure is, “Do you feel confident that you could get a mammogram every year?” However, confident does not translate from English to the other three languages.

Perceived susceptibility (“Compared to other women your age, do you think your chances of getting breast cancer are likely, or not at all likely?”) was a single-item measure. When the respondent chose one of those alternatives, she was then asked, “Is that very (un)likely or a little (un)likely?” This item was based on a measure of relative risk associated with mammography intention (Lerman et al., 1991).

Perceived benefits included five items based on mammography pros from a decisional balance scale associated with mammography stage (Rakowski et al., 1993) and similar to the perceived benefits items of Champion (1999). Early detection (“In your opinion, if breast cancer is detected at an early stage, what is a person’s chance of surviving?”) had response options excellent, good, not very good, or none (categorized as excellent/good vs. not very good/none for item-specific analysis). Four items—control over health (“Having a mammogram every year will give you a feeling of control over your health”), good for family (“It will be good for your family if you have a mammogram”), peace of mind (“Yearly mammograms give you peace of mind”), and lower mortality (“Having a mammogram every one to two years decreases a woman’s chance of dying from breast cancer”)—had response options agree or disagree. After selecting one of these alternatives, women were asked, “Is that strongly (dis)agree or somewhat (dis)agree?” A perceived benefits summary score was computed by assigning the values 0 to 3 to the four ordinal response categories for each item and summing the responses for the five items; “don’t know” responses were assigned the midpoint value.

For item-specific analysis of all of the above constructs, “don’t know” responses were included in the negative category (no, very/a little unlikely, not very good/none, strongly/somewhat disagree).

Subjective norms were measured using six pairs of items of the form, “Do you think [referent person] believes that you should have a mammogram every year?” with response options definitely does not believe it, probably does not believe it, she/he is neutral, probably does believe it, or definitely does believe it, and “How often do you try to do what [referent person] believes that you should do?” with response options never, seldom, about half the time, usually, or always. These items are similar to those of a subjective norms scale associated with both mammography participation and intention (Montaño & Taplin, 1991). Consistent with the definition of subjective norms as a product of normative beliefs and motivation to comply, the two items in each pair were combined and recoded into three categories for referent-specific analysis: (a) referent person definitely or probably believes and respondent usually or always tries to do what referent person believes (i.e., motivation to comply with a positive normative belief), (b) referent person definitely or probably believes and respondent does not usually or always try to do what referent person believes (i.e., positive normative belief without motivation to comply), and (c) referent person does not definitely or probably believe (i.e., no positive normative belief). “Not applicable” and “don’t know” responses regarding the referent person’s belief were included in the third category. The six referent persons were “your best friend,” “your sister,” “your mother,” “your husband,” “your doctor,” and “most people who are important to you.” A subjective norms summary score was computed by assigning the values 0 to 4 to the five ordinal response categories for each item, multiplying the responses for each pair of items, and summing the six products; “not applicable” and “don’t know” responses were assigned the mid-point value. For this construct, we used standard response items to assess how well they worked in this sample.

Self-reported mammography screening was measured at each survey wave. Based on published guidelines (Smith et al., 2003) and alternative mammography stages that do not include intention (Rakowski et al., 1993), mammography screening status was categorized for all ages as follows: (a) never had a mammogram; (b) not recent—most recent mammogram more than 15 months (i.e., 12 months plus a 3-month grace period) before interview; (c) recent, not regular—most recent mammogram within 15 months of interview, no mammogram within 2 years of most recent; and (d) regular—most recent mammogram within 15 months of interview and a prior mammogram within 2 years of the most recent one. These categories were combined to form a binary dependent variable, recent mammography (“regular” or “recent, not regular” vs. “not recent” or “never”), for logistic regression analysis.

Sociodemographic variables included age (in years), education (in years), race/ethnicity (African American, Chinese, Filipina, Latina or White), language of interview (English or non-English), number of years in the United States (≤10 or >10), annual household income (<$20,000, $20,000 to $50,000, ≥$50,000, or unknown), and marital status (married or living with a partner vs. divorced, widowed, or single). Variables indicating access to medical care included health insurance (private, public, or none) and having a regular doctor.

Statistical Analysis

Analyses of baseline data included all 1,463 participants; analyses of final data included the 1,175 participants who also completed the final survey. The distributions of sociodemographic factors, baseline and final mammography screening status, and behavioral construct measures were compared across racial/ethnic groups using chi-square tests for categorical variables and analysis of variance for numeric variables (see Table 1). Longitudinal models of receipt of a recent mammogram at the time of the final survey (the dependent variable), as a function of each of the four constructs measured at baseline and race/ethnicity (the independent variables), were analyzed using multi-variable logistic regression controlling for baseline screening status, study arm, time between the baseline and final survey, and other potentially confounding factors, that is, age, non-English language of interview, years in the United States, education, marital status, household income, health insurance, and having a regular doctor. Separate models were constructed for each of the five perceived benefits, the perceived benefits summary score, perceived susceptibility, self-efficacy, and intention (see Table 2). Subjective norms constructs were measured only in the final survey. Multivariable logistic regression was also used to assess the cross-sectional relationship between receipt of a recent mammogram and each subjective norms measure and race/ethnicity, controlling for the covariates listed above. Separate models were constructed for each subjective norms referent (best friend, sister, mother, husband, doctor, most people who are important to you); an analogous model using the subjective norms summary score was also constructed (see Table 3).

Table 2.

Longitudinal Association Between Recent Mammography at Final Survey and Behavioral Constructs at Baseline by Race/Ethnicity

Construct Race/
Ethnicity
Total n % Yes % Screened
if Yesa
% Screened
if No, DKa
ORb 95% CI
Self-efficacy;
  could get a
  mammogram
  every year
  (R2 = .22)
African
 American
407 93 72 54 1.2 0.5, 2.8
Chinese 154 73 88 71 1.9 0.8, 4.8
Filipina 121 88 76 53 2.6 0.8, 8.3
Latina 235 95 66 64 0.9 0.2, 3.5
White 258 94 78 31 3.5 1.1, 11
All 1,175 90 74 58 1.8 1.1, 2.8
Perceived
  susceptibility;
  very, a little
  likely to get
  breast cancer
  compared to
  other women
  (R2 =.21)
African
 American
407 57 74 67 1.5 0.9, 2.4
Chinese 154 50 79 87 0.6 0.2, 1.5
Filipina 121 49 76 71 1.4 0.6, 3.4
Latina 235 35 70 64 1.7 0.9, 3.3
White 258 47 74 76 1.0 0.5, 1.8
All 1,175 49 74 71 1.3 0.9, 1.7
Perceived
  benefit: Early
  detection;
  chances of
  survival good,
  excellent
  (R2 =.22)
African
 American
407 95 72 48 2.8 1.0, 7.5
Chinese 154 73 83 83 0.8 0.3, 2.3
Filipina 121 94 75 57 2.4 0.4, 14
Latina 235 86 67 58 2.1 0.9, 4.9
White 258 97 76 43 3.3 0.7, 16
All 1,175 91 73 64 1.9 1.1, 3.1
Perceived
  benefit:
  Control over
  health;
  strongly,
  somewhat
  agree
  (R2 =.22)
African
 American
407 88 72 61 1.2 0.6, 2.3
Chinese 154 95 85 50 5.0 1.0, 25
Filipina 121 88 79 36 7.1 2.0, 26
Latina 235 91 67 57 1.4 0.5, 3.9
White 258 79 80 55 2.1 1.0, 4.2
All 1,175 87 75 55 1.9 1.3, 2.9
Perceived
  benefit:
  Good for family;
  strongly,
  somewhat
  agree
  (R2 =.22)
African
 American
407 90 73 51 1.8 0.9, 3.9
Chinese 154 97 83 75 1.5 0.1, 17
Filipina 121 96 75 40 4.7 0.7, 34
Latina 235 94 66 67 0.7 0.2, 2.4
White 258 86 78 51 2.2 1.0, 5.9
All 1,175 91 74 54 1.8 1.1, 2.8
Perceived
  benefit: Peace
  of mind;
  strongly,
  somewhat
  agree
  (R2 =.23)
African
 American
407 92 73 42 2.3 1.0, 5.0
Chinese 154 99 83 100 0.5 0.01, 21
Filipina 121 93 75 56 2.1 0.5, 9.5
Latina 235 94 68 38 2.8 0.8, 9.7
White 258 85 80 44 3.2 1.5, 7.1
All 1,175 92 75 45 2.6 1.6, 4.2
Perceived
  benefit:
  Lower
  mortality;
  strongly,
  somewhat
  agree
  (R2 =.22)
African
 American
407 76 74 61 1.6 1.0, 2.8
Chinese 154 94 83 90 0.8 0.1, 7.9
Filipina 121 86 77 53 3.6 1.1, 11
Latina 235 83 65 73 0.6 0.2, 1.3
White 258 91 77 57 1.8 0.7, 4.5
All 1,175 84 74 64 1.4 1.0, 2.0
Perceived
  benefits
  summary
  score per SD
  (R2 = .23)
African
 American
407 1.3 1.0, 1.6
Chinese 154 1.4 0.7, 2.7
Filipina 121 2.2 1.3, 3.8
Latina 235 1.1 0.8, 1.5
White 258 1.5 1.1, 1.9
All 1,175 1.3 1.2, 1.5
Intention;
  plans to get a
  mammogram
  in next 12
  months
  (R2 = .23)
African
 American
407 86 72 61 1.1 0.6, 2.1
Chinese 154 53 89 77 1.8 0.7, 4.6
Filipina 121 83 76 60 1.7 0.6, 5.0
Latina 235 87 68 53 1.0 0.4, 2.2
White 258 81 84 38 5.0 2.4, 10
All 1,175 81 76 60 1.7 1.2, 2.5

NOTE: DK = don’t know; OR = odds ratio; CI = confidence interval; SD = standard deviation. p = .020 for race/ethnicity–intention interaction; p > .05 for all other race/ethnicity interactions. Statistically significant ORs and CIs are shown in boldface.

a

Recent screening (most recent mammogram within 15 months of interview).

b

Adjusted for race/ethnicity, age, education, non-English language, years in United States, marital status, income, insurance, regular doctor, study arm, months between surveys, baseline screening. Logistic regression analyses (n = 1,157).

Table 3.

Cross-Sectional Association Between Recent Mammography Screening and Subjective Norms at Final Survey by Race/Ethnicity

P Believes,
R Tries
to Comply
P Believes,
R Does Not
Try to Comply
P Does Not
Believe, N/A
Motivation
to Comply
Normative
Beliefs





Referent
Person
Racial/
Ethnic Group
Total
n
% of
Total
%
Screeneda
% of
Total
%
Screeneda
% of
Total
%
Screeneda
ORb 95% CI ORb 95% CI
Best friend (R2 = .23) African American 407 24 80 56 72 19 57 1.3 0.7, 2.5 1.9 1.0, 3.4
Chinese 154 26 83 49 87 25 77 0.7 0.2, 2.1 1.6 0.6, 4.7
Filipina 121 61 81 20 67 19 57 2.8 0.9, 8.5 1.0 0.3, 3.6
Latina 235 35 71 47 66 18 55 1.3 0.7, 2.6 1.6 0.7, 3.5
White 258 29 80 52 79 19 54 1.0 0.5, 2.1 2.8 1.3, 6.1
All 1,175 32 78 49 74 20 59 1.3 0.9, 1.8 1.9 1.3, 2.7
Sister (R2 = .23) African American 407 25 80 44 67 31 68 1.7 0.9, 3.3 1.0 0.6, 1.7
Chinese 154 31 85 29 93 40 74 0.5 0.1, 2.3 3.3 0.8, 13
Filipina 121 64 81 20 71 16 47 1.9 0.6, 5.7 2.4 0.6, 9.6
Latina 235 40 73 40 64 19 56 1.6 0.8, 3.2 1.5 0.7, 3.4
White 258 13 91 34 76 53 70 3.8 1.0, 15 1.1 0.6, 2.1
All 1,175 30 80 37 71 33 67 1.8 1.2, 2.6 1.3 0.9, 1.8
Mother (R2 = .21) African American 407 51 71 26 73 23 67 0.8 0.5, 1.5 1.2 0.6, 2.3
Chinese 154 33 86 25 87 42 78 1.0 0.3, 3.7 1.2 0.4, 3.8
Filipina 121 64 76 13 63 22 74 1.6 0.5, 5.6 0.6 0.1, 2.6
Latina 235 47 65 17 58 36 72 1.0 0.4, 2.4 0.6 0.2, 1.4
White 258 21 82 41 79 37 66 1.1 0.5, 2.7 1.6 0.8, 3.3
All 1,175 43 73 26 75 31 70 0.9 0.6, 1.3 1.1 0.7, 1.6
Husband (R2 = .21) African American 407 16 76 22 77 62 67 0.8 0.3, 1.7 1.7 0.9, 3.2
Chinese 154 38 85 31 90 31 74 0.6 0.2, 2.2 2.5 0.8, 8.5
Filipina 121 68 74 10 83 22 67 0.7 0.1, 3.7 1.4 0.2, 9.0
Latina 235 41 68 22 67 37 63 1.0 0.4, 2.2 1.1 0.5, 2.5
White 258 29 81 14 78 57 71 1.4 0.5, 4.2 1.3 0.5, 3.5
All 1,175 32 76 20 78 48 68 0.9 0.6, 1.4 1.5 1.0, 2.4
Doctor (R2 = .23) African American 407 74 75 18 64 7 47 1.5 0.8, 2.7 2.0 0.8, 5.2
Chinese 154 62 86 26 75 12 84 1.4 0.5, 3.8 0.3 0.1, 1.5
Filipina 121 78 77 9 55 13 69 2.4 0.6, 9.5 0.5 0.1, 2.6
Latina 235 80 71 13 50 7 38 1.9 0.8, 4.7 1.9 0.5, 7.8
White 258 74 81 11 64 16 55 2.5 1.0, 6.4 1.1 0.4, 3.4
All 1,175 74 77 16 63 10 57 1.8 1.2, 2.6 1.2 0.7, 2.0
Most people
  important to
  respondent (R2 = .23)
African American 407 38 73 51 71 11 61 0.9 0.6, 1.6 1.6 0.7, 3.3
Chinese 154 42 88 35 85 23 71 1.0 0.3, 3.1 1.7 0.6, 5.3
Filipina 121 73 75 18 73 9 64 1.1 0.3, 3.3 0.9 0.2, 4.6
Latina 235 56 73 33 56 11 63 2.4 1.2, 4.6 0.6 0.2, 1.6
White 258 43 80 35 83 22 50 0.8 0.4, 1.8 3.4 1.5, 7.9
All 1,175 47 76 38 73 15 60 1.2 0.8, 1.6 1.6 1.0, 2.4
Subjective norms
  summary score per
  SD (R2 = .23)
African American 407 1.4 1.0, 1.8
Chinese 154 1.2 0.7, 1.9
Filipina 121 1.3 0.9, 1.9
Latina 235 1.4 0.9, 1.9
White 258 2.0 1.4, 3.1
All 1,175 1.4 1.2, 1.7

NOTE: P = referent person; R = respondent; N/A = not applicable; OR = odds ratio; CI = confidence interval; SD = standard deviation. Subjective norms distributions for all reference persons differ by race/ethnicity (p < .001); all race/ethnicity–subjective norms interactions p > .05. Statistically significant ORs and CIs are shown in boldface.

a

Recent screening (most recent mammogram within 15 months of interview).

b

Adjusted for race/ethnicity, months between surveys, study arm, baseline screening, age, education, non-English language, years in United States, marital status, income, insurance, regular doctor. All logistic regression analyses (n = 1,157).

For both longitudinal and cross-sectional comparisons, two multivariable models were created for each set of independent and dependent variables: one with only main effects for the construct and race/ethnicity and another that included an interaction between race/ethnicity and the construct to test for racial/ethnic differences in the association between the construct and receipt of mammography. Adjusted odds ratios (OR) and 95% confidence intervals (CI) were computed for main effects and race/ethnicity-specific effects of constructs on mammography. Maximum-rescaled R2 was computed for the interaction models to assess the amount of variation explained. Statistical significance was set at the .05 level, two-sided.

RESULTS

An important finding across all constructs, with the exception of perceived susceptibility and, for the most part, subjective norms, is limited variability in responses. As shown in the “% Yes” column of Table 2, except for susceptibility, more than 80% of responses were yes (or agree), and they were often greater than 90%. This response characteristic almost certainly contributed to many of the large CIs found in the multi-variable results.

Intention

The longitudinal association between recent screening at the final survey and base-line intention (R2 = 23; see Table 2) was significant overall and among White women (OR = 5.0, 95% CI = 2.4, 10). The interaction between race/ethnicity and intention was statistically significantly (p = .020).

Self-Efficacy

For self-efficacy, the longitudinal association (R2 = .22) was also significant overall and for White women (OR = 3.5, 95% CI = 1.1, 11), but there was a nonsignificant interaction with race/ethnicity (p > .05).

Perceived Susceptibility

Perceived susceptibility (R2 = .21) did not have a significant association with screening overall or in any racial/ethnic group.

Perceived Benefits

Significant longitudinal associations with recent screening (see Table 2) were found for the perceived benefits of control over health overall and among Filipinas (OR = 7.1, 95% CI = 2.0, 26) and Whites (OR = 2.1, 95% CI = 1.0, 4.2; R2 = .22), for peace of mind overall and among African Americans (OR = 2.3, 95% CI = 1.0, 5.0) and Whites (OR = 3.2, 95% CI = 1.5, 7.1; R2 = .23), and for early detection overall and among African Americans (OR = 2.8, 95% CI = 1.0, 7.5; R2 = .22). The perceived benefits summary score had significant longitudinal associations with recent mammography overall and among African Americans (OR = 1.3, 95% CI = 1.0, 1.6), Filipinas (OR = 2.2, 95% CI =1.3, 3.8), and Whites (OR = 1.5, 95% CI = 1.1, 1.9; R2 = .23). The perceived benefit of good for family had a significant longitudinal association with screening in the total sample but not in any specific racial/ethnic group (R2 = .22). The perceived benefit of lower mortality was significant only among Filipinas (OR = 3.6, 95% CI = 1.1, 11; R2 = .22).

Subjective Norms

Significant cross-sectional associations with recent screening (see Table 3) were found for belief in annual mammography by the respondent’s best friend overall and among African American (OR = 1.9, 95% CI = 1.0, 3.4) and White women (OR = 2.8, 95% CI = 1.3, 6.1; R2 = .23) and by most people important to her overall and among White women (OR = 3.4, 95% CI = 1.5, 7.9; R2 = .23). In addition, recent screening was associated with trying to comply with a belief in annual mammography by the respondent’s sister (R2 = .23) and doctor (R2 = .23) overall but in no specific racial/ethnic group and by people important to her only among Latinas (OR = 2.4, 95% CI = 1.2, 4.6; R2 = .23). There were no significant cross-sectional relationships between recent screening and subjective norms regarding the respondent’s mother (R2 = .21) or husband (R2 = .21). The subjective norms summary score had significant cross-sectional associations with recent mammography overall and among African Americans (OR = 1.4, 95% CI = 1.0, 1.8), Latinas (OR = 1.4, 95% CI = 1.0, 1.8), and Whites (OR = 2.0, 95% CI = 1.4, 3.1; R2 = .23). There were no statistically significant racial/ethnic interactions in cross-sectional associations between screening and subjective norms measures.

DISCUSSION

Measures of intention, self-efficacy, perceived benefits, and subjective norms were significantly associated with mammography in this multiethnic cohort, overall and to some extent within racial/ethnic groups, and, with the exception of intention, racial/ethnic differences in association were not statistically significant. Therefore, the results here generally support the cross-cultural applicability of four of the five behavioral constructs to cancer screening, although they can raise questions about the validity and utility of standard questions. There is one important aspect of the data to recognize before discussing specific analyses. That is, because of the strong skew toward agreement with most of the behavioral constructs, there was a relatively small percentage (and therefore absolute number) of women who responded “no” or “don’t know.” This characteristic of the data almost certainly contributed to the very wide 95% CIs found within racial/ethnic groups for some constructs and thereby also reduced the likelihood of detecting racial/ethnic interactions with the behavioral constructs.

The longitudinal association between intention and recent mammography 2 years later was significant only among Whites, and the interaction term with race/ethnicity was statistically significant. Given the adjusted ORs in Table 2, it is clear that the interaction denotes the strong association for intention for Whites as the basis for the interaction result. Other studies have also found intention to be prospectively associated with mammography among middle-class U.S. White women (Han et al., 2007). Possible reasons for the lack of association in the other racial/ethnic groups in our study include lack of temporal stability of intentions and complexity translating intentions into actions (Ajzen, 2001) and the fact that our one-item measure was likely inadequate to measure the full spectrum of intention. The inductive study by Pasick, Barker, et al. (2009) found likely variations in the meaning of stated intention, examples of social environmental (social context) influences that directly affected behavior in the absence of intention (i.e., women obtained a mammogram without having formed the intention to do so), and situations where favorable intention conflicted with other influences and screening was not obtained. In addition, except among Whites, a rather large proportion of women reported a recent mammogram at the time of the final survey among those who did not intend to get one at baseline. In addition to the reasons outlined by Pasick et al., this may be because of participation in the study, which was specifically designed to address barriers to screening among African American, Latina, Chinese, and Filipina women.

There was a significant longitudinal association between baseline self-efficacy and recent mammography 2 years later only for White women. The test for racial/ethnic interaction was not significant, but the adjusted OR “point estimates” were clearly not the same across the racial/ethnic groups. As noted above, percentages of “% yes” were high, so that the 95% CIs were wide and overlapped for the racial/ethnic groups, and it was not surprising that a test for interactions did not yield significance. Here too our one-item measure may not have had sufficient specificity to determine which of these women actually felt able or unable to obtain mammograms. As noted by Ajzen (2001), the perceived difficulty of a behavior, which we did not assess, is more important than perceived behavioral control. This latter point appears compatible with Burke et al. (2009), whose inductive analysis suggested that self-efficacy was experienced and perceived differently depending on the social context, particularly with regard to poverty and migration. According to those authors, although self-efficacy theory acknowledges complex contextual influences, operationalization of this construct in mammography studies and interventions fails to adequately account for them, resulting in simplified understandings of how women make decisions about their health behavior and how to motivate them to change their health behaviors.

We did not find a positive longitudinal relationship between perceived susceptibility to breast cancer and mammography, overall or in any racial/ethnic group. Although meta-analyses have found on average a positive association between perceived risk and mammography (e.g., Katapodi et al., 2004), null associations have also been observed among Whites (Bowen, Alfano, McGregor, & Andersen, 2004), Chinese Americans (Wu & Yu, 2003), African Americans (Russell, Perkins, Zollinger, & Champion, 2006), and Latinas (Palmer, Fernandez, Tortolero-Luna, Gonzales, & Mullen, 2005). It is possible that our one-item measure of comparative susceptibility was inadequate to identify women who considered themselves at high risk for breast cancer. However, our measure was significantly associated with reporting a family history of breast cancer (data not shown), and there was considerable variation in response to the item. Each measure of perceived benefits predicted recent mammography among women overall, except for the benefit of lower mortality, which was significant only for Filipinas. In general, women responding yes to the benefit questions had a higher likelihood of a recent mammogram 2 years later. A smaller but still substantial percentage of women who responded no also had recent mammograms in that interval. Racial/ethnic interactions were not statistically significant. In a multiethnic cohort of older women (Glenn, Bastani, & Reuben, 2006), there was no association between getting a mammogram and either belief in the efficacy of early detection or the likelihood of surviving breast cancer after 5 years.

The inductive findings of Joseph, Burke, Tuason, Barker, and Pasick (2009) raise doubts about two assumptions inherent to the constructs of perceived susceptibility and perceived benefits: first, that people trust that the health care system will serve them effectively and, second, that people believe in and trust scientific principles and technical biomedical knowledge exclusively, over and above other healing beliefs and practices. In contrast to these assumptions, these authors conclude that beliefs about susceptibility to illness and benefits of preventive care are less significant or even antithetical in the face of worldviews that meld conscious and unconscious domains of social context into meanings of health and illness. Our cross-sectional analysis of subjective norms found screening to be associated with both normative beliefs and motivation to comply. Women who reported that their best friend or important people believed in annual mammography were more likely to have had a recent mammogram than those without such influences. Screening was also associated with trying to act on the beliefs of one’s sister or doctor, but the beliefs of one’s mother and husband were apparently not influential. A study including a multiethnic sample of inner-city women (Montaño, Thompson, Taylor, & Mahloch, 1997) found that past mammography was associated with subjective norms regarding one’s doctor, but not one’s family, friends, people in the news, or others in medicine. In our study, associations with screening did not differ significantly by race/ethnicity for subjective norms. In the 3Cs qualitative interviews, Pasick, Barker, et al. (2009) found support for the underlying assumption of subjective norms of the importance of significant others. However, their data suggested that many aspects of the operationalization of subjective norms are inconsistent with relational culture, “the processes of interdependence and interconnectedness among individuals and groups and the prioritization of these connections above virtually all else” (p. 95S). In particular, the emphasis on definable, expressible beliefs both on the part of a respondent and among her referents is likely to be more implicit rather than overtly discussed; and although pressure to comply is also plausible, it is more likely that a process of consultation leads to a joint conclusion. A novel ethnographic analysis that was part of the 3Cs study, conducted by Washington, Burke, Joseph, Guerra, and Pasick (2009), identified a potentially important but missing referent from the subjective norms construct as used in the United States, adult daughters, whose influence on their mothers emerged as important for mammography decision making, consistent with results from an adaptation of Montaño and Taplin’s (1991) items recently used in Spain (Andreu Vaillo, Galdón Garrido, Durá Ferrandis, Carretero Gómez, & Tuells Hernández, 2004).

Our models explained only a modest proportion of variation in mammography screening behavior, comparable to the adjusted R2 of .27 obtained in a model of mammography compliance as a function of HBM constructs (Aiken, West, Woodward, & Reno, 1994) and the R2 of .26 in a model of mammography participation as a function of TRA measures (Montaño & Taplin, 1991). However, as noted by Sheeran (2002), it is important to consider that correlations with a binary outcome may be low even for large differences in proportions.

The strengths of our study include the measurement of several behavioral constructs used by prominent theoretical models, inclusion of multiple racial/ethnic groups and languages, a large population-based sample, and a longitudinal design. The limitations of our study include low response rates among Chinese and Filipina women, lack of variation in socioeconomic status within racial/ethnic groups, timing of interviews that precluded determining if a woman had a mammogram within 12 months after baseline, possible intervention effects on the relationship between constructs and final screening status, single-item measures for three of the constructs, overlap of subjective norms referent categories, and the use of self-reported screening data. In spite of these limitations, we found significant positive associations between measures of four of our constructs and screening, overall and within racial/ethnic groups. It is possible, however, that there were racial/ethnic differences in associations that we were unable to detect because of lack of power. In particular, the measures of self-efficacy, intention, and perceived benefits all showed a lack of variation in response that produced small race/ethnic-specific cell sizes in some analyses. Therefore, it was possible to obtain a significant association in only one racial/ethnic group without finding significant racial/ethnic differences in association, as occurred with the perceived benefit of lower mortality.

Unfortunately, with these data it is virtually impossible to differentiate between the properties of the item and the properties of the construct itself. For instance, the lack of association between perceived susceptibility and mammography may be because of poor measurement or lack of relevance of this construct in relation to screening in this population. In addition, it is important to note that although measures of association can provide support for or against a hypothesized relationship, they cannot provide a complete explanation of the underlying mechanism. A more in-depth study is required to fully understand these constructs and determine whether better cross-cultural measures can be developed. Such a study would build on the inductive work described elsewhere in this volume and extend to the development of multi-item measures. The new measures would be evaluated through a variety of methods (Harkness, Van de Vijver, & Mohler, 2003), including cognitive interviewing, test–retest reliability assessment, and analytic techniques such as confirmatory factor analysis as well as further qualitative evaluation.

It could be argued that the development of widely applicable cross-cultural measures of these constructs is not only timely but also overdue. In recent years, measures of HBM constructs in relation to mammography have been used worldwide, chiefly through translations and adaptations of the Champion (1999) Health Belief Model Scale. Although these studies provide convincing evidence for the widespread applicability of these constructs, their findings are by no means uniform. Positive associations between perceived benefits and mammography were found among women in Spain (Andreu Vaillo et al., 2004), Turkey (Secginli & Nahcivan, 2006), Korea (Hur, Kim, & Park, 2005), and Israel (Soskolne, Marie, & Manor, 2007). However, other studies found no association with mammography among women in Spain (Lostao, Joiner, Pettit, Chorot, & Sandín, 2001), Turkey (Avci & Kurt, 2008), Korea (Ham, 2006), and Israel (Azaiza & Cohen, 2006). Similar inconsistencies have been found with respect to the associations between mammography and both self-efficacy and, as noted above, perceived risk. Such promising, yet variable, findings call for a deeper understanding of the cultural and social contexts of health beliefs and behaviors as well as the development of measures that incorporate this understanding.

IMPLICATIONS FOR PRACTICE

Measures for these constructs are imperfect because they are not specific enough to identify the majority of women who do not get screened and because their meaning, as intended by theory, may not apply comparably across ethnic groups. It is important to keep in mind that many women who report that they are able to get a mammogram, intend to get a mammogram, and recognize the benefits of mammography are nevertheless not getting regular mammograms. These constructs are now being measured in various population groups around the world. Therefore, it is imperative to develop improved measures of perceived benefits, perceived susceptibility, self-efficacy, subjective norms, and intention that are cross-culturally valid, reliable, and capable of discerning those in need of health promotion interventions.

Acknowledgments

This study was funded by the National Cancer Institute (Grants RO1CA81816 and P01CA55112, R. Pasick, principal investigator).

This supplement was supported by an educational grant from the National Cancer Institute, No. HHSN261200900383P.

Contributor Information

Susan L. Stewart, Helen Diller Family Comprehensive Cancer Center, University of California, San Francisco.

William Rakowski, Department of Community Health, Brown University, Providence, Rhode Island.

Rena J. Pasick, Helen Diller Family Comprehensive Cancer Center, University of California, San Francisco.

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