Abstract
Increasing women’s representation in science, technology, engineering, and mathematics (STEM) is often seen as a way to reduce the gender wage gap. Asians are overrepresented in STEM, and previous studies found a smaller gender wage gap among Asians compared with Whites, but this research overlooked ethnic heterogeneity among Asians. This study uses 2009–2022 American Community Survey (ACS) data to examine gender differences in income for computer science (CS) professionals. We show that the gender wage gap is roughly twice as large among Indians as among Chinese and White CS workers, even after controlling for family and human capital characteristics. Indian women experience larger marriage and parenthood penalties than do White and Chinese women. They are also more likely than White and Chinese women to be married to another CS professional, which negatively impacts earnings. Our findings on how household dynamics shape the gender wage gap contribute to the literature revealing that this gap is a family wage gap in disguise.
Numerous initiatives have sought to increase the presence of women and minorities employed in the STEM workforce. Women’s underrepresentation in various STEM fields —particularly computer science and engineering—serves to perpetuate the gender wage gap, as STEM jobs have higher-than-average earnings (Michelmore and Sassler 2016; Xie and Killewald 2012). Asians are overrepresented among STEM professionals (Landivar 2013), and studies have found that the gender wage gap is smaller among Asians and other racial minorities than among Whites working in STEM professions (Greenman 2011; Michelmore and Sassler 2016). Furthermore, the impact of parenthood on earnings has long been found to differ across racial groups, with Asian women less likely than White women to reduce their labor force supply on becoming mothers (Greenman 2011), thereby accumulating more work experience. These patterns suggest racial differences in family strategies for economic attainment and success.
To date, however, studies that explore differences between White and Asian STEM workers generally examine racial minorities as if they were one undifferentiated whole (for example, Greenman 2011; Michelmore and Sassler 2016). Nationally representative surveys such as the National Longitudinal Survey of Youth (NLSY), the Survey of Income and Program Participation (SIPP), or the Panel Study of Income Dynamics (PSID) contain too few STEM workers to disaggregate by ethnicity and gender (Glass et al. 2013), while data sets like the Scientists and Engineers Statistical Data System (SESTAT) also lack a sufficient sample of various ancestry groups (Greenman 2011; Michelmore and Sassler 2016; Xie and Killewald 2012). The timing of immigrant streams and changes in US visa policies have also differentiated the experiences of Asians in the United States (Lee and Zhou 2015). As a result, little is known about ethnic-specific strategies for mobility that distinguish the experiences of Asian groups working in STEM fields and whether these experiences challenge or reify traditional gender roles.
To the extent that Asian overrepresentation in the STEM labor force contributes to their economic success, knowing more about the factors shaping returns to work, as well as how this might differ among the largest Asian ethnic groups and by gender, can provide a clearer understanding of the Asian American mobility experience (Lu 2024). This article explores the factors contributing to the gender wage gap among Asians and Whites working in CS occupations, which account for about half of all STEM jobs; we further differentiate between the two largest Asian ethnic groups working in CS, Indians and Chinese. We use data from the 2009–2022 waves of the ACS, an annual cross-sectional household survey that provides nationally representative, large sample data (Ruggles 2025). Our results suggest that even among the most highly paid workers in STEM occupations, gender continues to differentiate earnings. We find considerable heterogeneity in the factors shaping the gender wage gap among Chinese and Indian CS professionals, as well as between Asians and Whites who work in CS occupations. Even as Indian and Chinese CS professionals earn more, on average, than their White counterparts, the penalties for marriage and motherhood are larger. Indian women, who adhere to more traditional family behaviors, with earlier marriage and parenthood, experience a larger gender wage gap than either Chinese or White CS workers. High levels of occupational homogamy among married couples further decrease earnings of Indian women, though we do not observe this effect for White or Chinese women. The persistence of differential returns to family roles indicates that the gender wage gap is really a family wage gap in disguise, highlighting how family dynamics interact with occupational demands and ethnicity to perpetuate the gender wage gap.
GENDER WAGE GAPS, FAMILY WAGE GAPS, ETHNIC WAGE GAPS
The social science literature on the gender wage gap is voluminous. Women who work full-time, year-round earn significantly less than their male counterparts, and progress toward narrowing the gender wage gap has largely stalled since the 1990s (Blau and Kahn 2017; Goldin 2014). That is, in part, due to women’s underrepresentation in well-remunerated occupations such as STEM, which have a smaller gender wage gap than the overall labor force (Michelmore and Sassler 2016). Traditional economic explanations for earnings disparities between women and men often emphasize gendered differences in human capital accumulation, whereas sociologists frequently focus on how gendered role expectations for partnering and parenting shape employment and wages (Blau and Kahn 2017; Cech and Blair-Loy 2019). Of late, various sociologists have sought to unpack the salience of family factors that shape the gender wage gap, utilizing different segments of the working population or focusing only on the most highly educated (Beutel and Schleifer 2022; Cha et al. 2023; Quadlin et al. 2023; Sassler and Meyerhofer 2023; Zheng and Weeden 2023). Overlooked in much of this research is an understanding of how gendered behaviors—whether investing in human capital or engaging in time-consuming family roles—vary across race and ethnic groups (see Lim and Jeong 2026, this issue). In this article, we review how competing explanations might account for the persistent gender wage gap in CS occupations.
Human Capital Explanations for the Gender Wage Gap
The differential in wages between men and women has been extensively covered in the economics literature (Blau and Kahn 2017). This research focuses on disparities in human capital accumulation, such as the choice of college major and work histories (Becker 1985), with gendered variation in fields of study, educational attainment, hours worked, experience, and job sector used to explain wage differences. Some of these factors—such as educational attainment—have declined in explanatory power as the average education levels among women have surpassed those of men (Blau and Kahn 2017), and the proportion of women with degrees in STEM fields has grown (Michelmore and Sassler 2016). Studies focused on the college-educated population note, for example, that the college wage premium is similar for men and women (England et al. 2020).
Yet other markers of human capital investment—hours worked, and compensation for working long hours, along with selection into job sectors with high returns—continue to differentiate the earnings of men and women, resulting in the persistent gender wage gap (Goldin 2014). Men are significantly more likely than women to engage in long work hours (more than fifty hours a week), which perpetuates the gender wage gap, especially among professionals (Cha and Weeden 2014; Weeden et al. 2016). Furthermore, occupational segregation remains high, and the importance of industry and occupation now accounts for a larger share of the gender wage gap than in the latter years of the twentieth century. In 1980, gender gaps in industry and occupation accounted for one-fifth of pay disparities between women and men, but by 2010 they accounted for 51 percent of the gender gap— despite the decline over time in that gap (Blau and Kahn 2017). Even when women work in occupations stereotypically considered more “masculine,” such as STEM jobs, the greatest economic rewards continue to flow to workers engaged in jobs with the lowest shares of women, such as programming-intensive occupations (Cheng et al. 2019; Michelmore and Sassler 2016). Among those working in CS, for example, occupation accounts for a considerable share of the (unexplained) gender wage gap, largely because women are less likely than men to work in the highest-paid jobs in CS, such as software developers (Sassler and Meyerhofer 2023).
Several recent explorations of gender disparities in occupational attainment and pay have highlighted the need to pay closer attention to differential returns to men’s and women’s attributes— suggesting that despite legislation that prohibits discrimination, bias against women persists (Fernandez and Campero 2017; Galperin 2021; Moss-Racusin et al. 2012). Occupational sorting plays an important role in perpetuating gendered wage disparities among highly educated workers (Quadlin et al. 2023; Smith-Doerr et al. 2019; Zheng and Weeden 2023), and emerges early in the professional life-course— well before family formation begins. Furthermore, gender wage disparities persist within occupations, even among men and women with observably identical attributes (Sassler and Meyerhofer 2023). Certain occupations also impose heavy penalties on employees who may desire more flexible employment for caregiving responsibilities (Goldin 2014), with those who work long hours benefiting the most in terms of earnings (Weeden et al. 2016).
Family Explanations for the Gender Wage Gap
Sociological explanations for the persistent gender wage gap have focused on gendered norms that assign primacy to women’s obligations as wives and mothers—factors that are difficult to integrate into the human capital theoretical framework, due to concerns over endogeneity.1 The literature often refers to earnings advantages and disadvantages—premiums and penalties—that are associated with those who have the intersecting identities of employees and parents. Whereas working mothers often experience penalties such as wage reductions, diminished opportunities for career advancement, and lower perceived professional competence relative to childless women and both childless men and fathers, fathers are often viewed as more committed and responsible workers and rewarded accordingly (Correll et al. 2007). Recent research has pointed out that family factors, namely marital and parental status, play a sizable role in differentiating men and women’s earnings, especially when focusing on the highly educated (Beutel and Schleifer 2022; Cha et al. 2023; Sassler and Meyerhofer 2023). Such research has moved beyond asking whether there is a motherhood penalty, a fatherhood premium, or a marriage bonus, to instead asking whether the gender wage gap is really a family wage gap (Cha et al. 2023; Sassler and Meyerhofer 2023).
The evidence of gender disparities among men and women with at least a college degree has shifted in recent years, as the returns to education rise, marriage is increasingly delayed, and parental roles change due to delayed fertility, childlessness, and the spread of blended families (Sassler and Lichter 2020). Although married men earn more, on average, than unmarried men, the association between marriage and wages among women has changed across cohorts (Killewald and Gough 2013). Michelle J. Budig and Misun Lim (2016) found that both baby boomer and millennial men and women received marriage premiums, though the advantages were smaller for millennial men and larger for millennial women. Katherine Michelmore and Sharon Sassler (2016) found that married women with college degrees who worked in STEM occupations also earned more than their unmarried counterparts (see also Sassler and Meyerhofer 2023). Selection into marriage in part explains this finding (Budig and Lim 2016); along with the rise in educational homogamy, and the increase in dual-career couples, returns to remaining in the paid labor force have grown, resulting in higher levels of female employment among college-educated women (Percheski 2008). We therefore expect to find a marriage premium among CS professionals.
But marital status alone does not capture the importance of couple-level characteristics in shaping the gender wage gap. Jennifer Glass and colleagues (2013), looking at baby boomer women with degrees in a STEM field, found that those whose spouse worked in STEM were significantly more likely to remain in STEM jobs than those whose spouse worked in another field, but that as a spouse’s work hours increased the likelihood of women exiting the labor force rose. Youngjoo Cha and Kim Weeden (2014) suggest that men’s greater likelihood of engaging in overwork (defined as working fifty or more hours per week), in conjunction with the rising hourly wage returns to overwork, contributes to the persistent gender wage gap, particularly among those for whom at least one partner works in a professional and managerial occupation.2 In other work, Cha and colleagues (2023) find that the gender wage gap was substantially larger among married White respondents compared with their married Black or Hispanic counterparts. Yet few studies explore the importance of couple-level attributes in determining the size of the gender wage gap, further reifying gendered assumptions about marriage and parenthood.
In fact, the bulk of research on the family wage gap has focused on rewards or penalties to unpaid care work, such as looking after children or aging parents, rather than marriage (Lim and Jeong 2026). While much of this research focuses on the general population, studies concentrated on those with a college degree or more or those engaged in demanding professions challenge the accepted wisdom that mothers are penalized relative to childless women in terms of their earnings. Among college-educated men, fathers earn more than their childless counterparts (Buchmann and McDaniel 2016; Glauber 2008). The association between motherhood and earnings is less clear for highly educated mothers. A growing body of evidence shows that among professionals, the size of the negative wage differential for motherhood has decreased when childless women are the referent (Beutel and Schleifer 2022; Buchmann and McDaniel 2016). In fact, in traditionally male-dominated professions, such as STEM, medicine, and law, women with children earn more than their childless counterparts (Buchmann and McDaniel 2016; Michelmore and Sassler 2016; Sassler and Meyerhofer 2023). Women in female-dominated professions continue to experience a motherhood penalty (Buchmann and McDaniel 2016), and the gender wage gap widens at the top of the earnings distribution among professionals (Quadlin et al. 2023; Zheng and Weeden 2023). Findings regarding the motherhood wage penalty, then, depend on women’s educational attainment and job sector, as well as on marital status and race. Given our sample, we anticipate a parenthood premium for both women and men.
Further disaggregation of the impacts of motherhood focuses on whether children of a particular age are more detrimental to earnings for women, with some exploring the impact of preschool-aged children or various ages of children (Percheski 2008; Sassler and Meyerhofer 2023), and others examining the number of children (Buchmann and McDaniel 2016). Buchmann and McDaniel (2016) find that among professional women employed in medicine, STEM, and law, mothers earn more than childless women, regardless of number of children, though there is variation across professions; among women working in STEM professions, those with one child or three or more children earn similar wages to childless women (Buchmann and McDaniel 2016, note 13; see also Sassler and Meyerhofer 2023). One recent study of college graduates working in CS found that both men and women with parenting responsibilities earned more than childless CS professionals; this held regardless of the age of children, but the premium was greatest when children were the youngest (Sassler and Meyerhofer 2023). While men with only preschool-aged children earned seven cents more than did childless men, women with preschool-aged children only earned 2.1 cents more per hour than their childless counterparts (Sassler and Meyerhofer 2023). The wage premium was somewhat smaller when there were both young and school-aged children, at least for men, and was smallest for those with only school-aged children. What matters here is the referent: while mothers earned more than childless women, they continued to earn significantly less than fathers, thereby widening the gender wage gap—even though women were significantly less likely to be parents than were men. We therefore anticipate that both mothers and fathers will experience a parenthood premium, but it is not clear ex ante how this may vary by age and number of children and ethnicity.
Given changes in union formation patterns, little attention has been paid to the importance of maternal age at birth as a factor shaping wage penalties. One such study, using data from the NLSY79, found that for college graduates, motherhood penalties were larger when first births occurred at earlier ages, but declined with older ages at first birth; women who delayed fertility until their mid-30s received a motherhood premium (Doren 2019). Since baby boomer women came of age, however, the median age at first marriage, especially for college-educated women, has increased, and college-educated women mostly bear children within marital unions (Sassler and Lichter 2020). In fact, the majority of college-educated women’s first births were at ages older than thirty (Bui and Cain Miller 2018), suggesting additional factors associated with returns to motherhood that require study. Heterogeneity in family formation and caretaking behaviors may further exacerbate or minimize the gender wage gap, as older first-time mothers accrue additional job tenure and work experience prior to parenthood.
Racial and Ethnic Variation in Work Behaviors Contributing to the Gender Wage Gap
Asians are frequently overlooked in research, particularly in studies that explore the factors contributing to the gender wage gap (Lu 2024). Despite being overrepresented in professional occupations—particularly in STEM jobs—Asians accounted for only 6 percent of the US population in 2020 (Jones et al. 2021).3 While Asians are the fastest-growing racial group in the United States, given their overall population size, longitudinal surveys frequently do not contain enough Asian respondents to assess wage gaps across occupations or differentiate between ethnic groups. Furthermore, the work-family literature that explores gender variation in earnings generally overlooks racial and ethnic heterogeneity (Perry-Jenkins and Gerstel 2020). Research that has assessed racial variation in the gender wage gap tends to contrast Black and Hispanic workers with White workers (Budig et al. 2021; Cha et al. 2023). Such studies have found that the marriage premium is smaller for Black men than for White men, while the motherhood penalty is smaller for Black and Hispanic women (England et al. 2016; Glauber 2007), especially among the highly educated.
The few studies that have examined gender wage gaps among Asians have found that the gender wage gap is smaller among Asians than among Whites working in STEM professions (Greenman 2011; Greenman and Xie 2008; Michelmore and Sassler 2016). Utilizing data from the 2000 Census, Emily Greenman and Yu Xie (2008) showed that there were smaller gender earnings gaps among various Asian groups than among Whites, though they limited their analysis to native-born workers. Other analyses that included foreign-born Asians found that the gender earnings gap was larger among immigrants than among native-born workers (Goyette and Xie 1999; Xie and Shauman 2005); while not testing it directly, these articles suggested that this disparity arose because foreign-born wives were trailing spouses (Goyette and Xie 1999; Xie and Shauman 2005). Others have noted more of an earnings premium for parenthood among some groups of women; for example, Asian mothers (along with their White and Black counterparts) earned more than their childless counterparts (see Michelmore and Sassler 2016), but Hispanic women did not. Greenman and Xie (2008) also found less of an earnings penalty for marriage and parenthood among their sample of native-born minorities (Asians, Blacks, and Hispanics) relative to Whites, leading them to suggest the possibility of greater traditional role specialization among White couples. Taken as a whole, these results suggest the possibility that Asian families utilize somewhat different care work strategies than other race groups in the United States, with important ramifications for economic well-being.
Other, causal work has sought to unpack the mechanisms behind the smaller wage gaps and higher returns to family status among Asian workers. Such studies, relying on various data sources, have found that Asian women were less likely than White women to reduce their labor supply on becoming mothers. Using nationally representative data from SIPP, Yao Lu and colleagues (2017) found that Asian women who were employed before childbirth demonstrated greater labor market continuation than their White counterparts (see also Greenman and Xie 2008). Lu and colleagues (2017) also found that immigrant women who had been in the US for longer durations demonstrated greater labor force attachment. This also appears to be the case among Asian women employed in STEM fields. Using data from SESTAT, Emily Greenman (2011) found that Asian women were less likely than White women to reduce their labor force supply on becoming mothers. This enabled them to accumulate more work experience. Other family behaviors—the timing of marriage, for example, or the age at which women become mothers and men fathers—may also contribute to wage premiums or penalties (Doren 2019).
We advance the research into wage gaps and ethnic attainment by exploring how family attributes are associated with the gender wage gap among different Asian ethnic groups compared with Whites. If patterns found for other racial minorities (England et al. 2016; Glauber 2007) hold, the marriage premium may be smaller for Chinese and Indian women than it is for White women. But the evidence also suggests that parenthood penalties might be greater for White women than for Chinese and Indian women (Greenman and Xie 2008; Michelmore and Sassler 2016). These studies, then, do not provide a clear direction for how the impact of motherhood may differ by age of children.
Other Explanatory Factors
A key factor distinguishing Asian workers from their White counterparts—even among those working in a similar occupation—is the large proportion who are foreign-born, as well as their disproportionate representation in STEM occupations. Asians are overrepresented among those working in all STEM occupations in general, and in computer occupations in particular (Landivar 2013). Furthermore, many of those working in STEM jobs are foreign-born. As of 2021, over one in four (26 percent) foreign-born workers employed in the United States worked in STEM occupations (National Science Board 2024), and among Asians this proportion is even greater.4
Therefore, any reports about the size of the gender wage gap among Asians must account for the share who are foreign-born, and the factors differentiating earnings among them (such as naturalization and education). One recent exploration of the gender wage gap among CS workers, for example, found that Asian workers earned significantly more than their White counterparts, though the Asian earnings advantage was entirely driven by foreign-born workers (Sassler and Meyerhofer 2023). But various factors differentiate the earnings trajectories of the foreign-born in ways that may shape the gender wage gap. Where one’s education was obtained, the prestige of schools attended, English-speaking ability, and work experience in the US all have been shown to influence Asians’ earnings (Lee et al. 2024; Zeng and Xie 2004). Looking at natives and immigrants in the early 1990s, Zhen Zeng and Yu Xie (2004) found that foreign-educated immigrants’ earnings were substantially lower than those of immigrants and natives who obtained their schooling in the United States; they concluded that foreign education was less valuable in the US job market. Jennifer Lee and colleagues (2024) report that Asians in the United States engage in strategic adaptation to a discriminatory marketplace by pursuing credentials at prestigious universities; such strategies, however, often still fail to eliminate bias in job returns.
Others argue for the need to differentiate culturally between East Asians, (for example, ethnic Chinese) and South Asians (for example, ethnic Indians). Jackson G. Lu (2024) asserts that whereas Chinese professionals in the business world tend to experience a “bamboo ceiling,” Indian professionals do not. Examining those who attain MBAs or work in consulting, Lu (2024) documents differential treatment in starting salaries (Lu 2023) and leadership attainment (Lu 2022), with Chinese professionals experiencing more barriers than their Indian counterparts. Explanations for these differences focus on social-cognitive disparities, such as assertiveness and perceived creativity (Lu et al. 2022). These studies examine professionals working in law, business, and consulting; it is unclear whether such factors shape work in CS to the same extent. Furthermore, these arguments are focused on the successes of Indian men and give short shrift to the fact that Indian women do not fare as well (Lu 2024). We therefore differentiate between Indians and Chinese CS professionals, contrasting them with their White counterparts and with each other, to better understand the cultural as well as structural dynamics shaping the gender wage gap.
DATA, VARIABLES, AND METHODS
Our analyses use data from ACS, an annual cross-sectional household survey conducted annually between 2009, the year that the field of an individual’s bachelor’s degree was initially ascertained, and 2022. Among the primary advantages of using ACS cross-sectional data over other longitudinal studies is its sizable sample of Asians, which enables us to disaggregate different ethnic groups to assess within racial group heterogeneity. We are unable to test a causal model of wages, determine starting salaries (Lu 2023), or detail how decisions made over the life course cumulate to shape wage gaps, though information on the timing of events—age at first marriage, for example, or first childbirth—does allow us to provide a more thorough description of the empirical relationship between the gender wage gap and family wage gaps. The cross-sectional nature of the ACS precludes our ability to assess what role selection plays in gender differences in pay; previous research indicates that women are significantly more likely than men to exit jobs in CS (Sassler et al. 2023).
We limit our sample to those with a bachelor’s degree or higher, who account for over two-thirds of full-time CS professionals. Penalties for family attributes have been greatest among highly educated women (England et al. 2016; Glauber 2008), whereas among men the fatherhood premium has mostly benefited highly educated fathers living with children (Glauber 2008). Next, we restrict the sample to individuals working at least thirty-five hours per week (working full-time) who had positive income, were in the prime working age population (ages twenty-two to sixty), and whose youngest child living in the household was younger than age eighteen.5
Our analysis focuses on those working in CS occupations, as these positions account for roughly half of all STEM jobs (Landivar 2013). Among STEM occupations, CS jobs have the highest average annual earnings and the best job prospects (Beutel and Schleifer 2022). We follow the Census definitions for a CS occupation.6 To implement these classifications, we use the 2000 Standard Occupational Classification (SOC) for 2009, the 2010 SOC for 2010–2017 and the 2018 SOC for 2018 and onward, for consistent occupation classification across years. Everyone in our sample works in one of twelve CS occupations.
Our final restriction limits our sample to those who identify as non-Hispanic Asian or non-Hispanic White individuals who report a single race. Whites and Asians account for 86 percent of all full-time CS workers in our sample; only 4 percent of all CS workers are Hispanic, and 5 percent are Black or African American, with another 5 percent identifying as another race or a non-Asian mixed race. The ACS provides a sizable sample of Asians who work in CS occupations, including 24,831 Asian females (including 12,380 Indian and 6,814 Chinese women), and 65,388 Asian males. There are 171,378 White men and 50,516 White women working in CS jobs.
Variables
Our key dependent variable is the natural log of pretax wage and salary income for individuals working in CS. Our wage measure includes all pretax income respondents receive as an employee, which includes bonuses that can make up a large portion of all income in CS occupations (Dice 2025). All wages are converted into 2018 dollars using the Consumer Price Index. The ACS top codes the income data;7 the maximum salary in our sample is $780,000.
Our analysis examines how both gender and race influence earnings. Gender in our sample is a binary variable (male or female). We focus on two race groups: non-Hispanic White and non-Hispanic Asian. We further disaggregate Asians into the two largest subgroups working in CS, Indians and Chinese, to disentangle ethnic-specific strategies for balancing work and family. Sample size precludes us from examining additional Asian ethnic groups.
Our measures of family characteristics include respondents’ marital and parental status, and whether they reside in a three-generation family. Those who are currently married serve as the reference group; dummy variables capture those who are previously married (divorced, separated, or widowed) and never married. Parental status is measured with two ACS questions on the number of children in the household (number of children under age eighteen in the household, and number of children under age five in the household) to capture differential demands children impose on parents’ ability to work at different stages of child development.8 We include a continuous variable for the number of children a respondent has, before further differentiating the age groups of respondents’ children into four mutually exclusive groups: those with no children, those with only children under age five, those with only children five and older, and those with children who are both under five and over five. We also include an indicator of whether the respondent lives in a multigenerational household, where at least three generations are present, which is more prevalent among Asian families (Lim and Jeong 2026).
In additional sensitivity analyses, we limit the sample to those who are married to explore the impact of occupational homogamy on the gender wage gap. This allows us to more thoroughly assess a previously understudied aspect of the family wage gap. The ACS enables us to link married respondents to their spouses if they reside in the same household. We then determine whether both spouses were employed in the same field and then the same occupation, first exploring the broad field of STEM, before narrowing the analysis to determine if both spouses worked in a CS occupation.
Our measures of human capital accumulation include variables relating to experience, degree field and educational attainment, and occupation. While the ACS does not have a variable that captures work experience or time in the labor force, we proxy this (imperfectly) with age and its square, to account for its nonlinear impact over the work life course. We include the college major of individuals, comparing those with CS majors to other majors prevalent among those working in CS occupations—engineering, other STEM majors, business, and other non-STEM majors. We also include an indicator for educational attainment, comparing having a bachelor’s degree with having a professional or master’s degree, and with a doctorate.9 Our final indicator of human capital differentiates between twelve CS occupations. In some model specifications we also include an indicator for overwork, noting whether an individual reports that their usual hours of work exceed fifty hours a week.
Additionally, we include controls for citizenship status, given that sizable proportions of our Asian respondents were born abroad, and research suggests that immigrants who become American citizens fare better in the workforce than those who do not (National Academies of Sciences, Engineering, and Medicine 2017).10 We compare native US citizens with those who are non-US born and who have or have not naturalized to be US citizens.11 In some analyses, we include fixed effects for all fifty states, as well as year fixed effects for all years.
Descriptive Results
Despite numerous efforts designed to increase the representation of women in CS occupations, only 24 percent of our sample of CS workers are female. Table 1 shows basic summary statistics for our full analysis sample and split by gender. Female CS professionals are more diverse than male CS professionals; 67 percent of all female CS professionals are White, compared to 72 percent of all male CS professionals. Chinese women are overrepresented among female CS professionals compared to Chinese men, making up 9 percent of all female CS professionals, compared to Chinese men who are just 6 percent of all male CS professionals. Finally, women employed in CS jobs earn significantly less than their male counterparts, regardless of race or ethnic group. The gender wage gap for the entire sample is $19,500.
Descriptive Statistics for Analysis Variables Whole Sample and by Gender
Because the overall means for our sample mask considerable variation across race and ethnic groups, we review descriptive statistics for our variables of interest for White, Indian, and Chinese groups (see table 2). While the gender wage gap is evident across race groups, Asians earn more than their White counterparts (see the top column in table 2). But Asians are a heterogeneous group; Chinese men and women earn substantially more than Indian men and women, who earn more than White men and women.
Descriptive Statistics for Analysis Variables by Race and Gender Subcategory
If, as the literature suggests, there is increasingly a family premium among professional workers—both in terms of financial returns to marriage and parenthood—then variation in the family attributes of those working in CS suggests one possible contribution to the earnings disparities observed earlier. Even though most men and women who work in CS occupations are currently married, White CS professionals are significantly less likely to be married than their Asian counterparts, and the gap is the largest between Whites and Indians. Only 58 percent of White women and 66 percent of White men who work in CS occupations are married, compared with 86 percent of Indian women and 83 percent of Indian men. White CS workers are also significantly more likely to be previously married, a status that may not have the same returns as marriage. Furthermore, over half of White women and men working in CS (60 percent of women, and 53 percent of men) have no minor children, compared with only about a third of Indian men and women, and half of Chinese men and women.
The research literature also suggests the importance of other factors shaping career investments, including partner attributes (such as their occupation or hours worked), as well as marriage timing and the age of first parenthood (see table 3). Focusing only on married couples, we explored the proportion of CS professionals whose spouse works in any STEM field, before refining this to assess occupationally homogamous couples—where both spouses work in CS jobs. This subanalysis reveals that across all groups, women who worked in CS are significantly more likely to be married to a spouse who worked either in a STEM field or more specifically in CS than their male counterparts. Marriage to another STEM professional or a spouse whose job was in CS was least likely for White men in our sample of CS professionals (9 percent and 6 percent, respectively). Indian and Chinese men were considerably more likely than White men to have a spouse who also worked in a STEM field. But occupational homogamy is far more prevalent among women, and Indian women stand out for their incredibly high level of occupational marital homogamy. Over two-thirds of Indian women’s spouses are also employed in a STEM field, with a surprising 59 percent of Indian women who are CS professionals married to a spouse who also works in CS. While still considerable, the proportions are much lower for Chinese women working in CS (40 percent of whose spouses also worked in a CS job), and only 18 percent of White women working in CS have spouses also working in CS.
Descriptive Statistics of Spouses for Married Members in Analysis Sample
There are also other ways that the family behaviors of our Asian groups differ from Whites that may shape earnings and contribute to the gender wage gap. Additional analyses reveal that Indian women marry earlier, become mothers earlier, and have more children on average than either their White or Chinese counterparts. Figure 1 shows these trends across gender and racial groups in our sample. The age gap at first marriage is largest among Indians, and smallest among Whites. Indian women also have their first child earlier, on average, than White and Chinese women, as shown in figure 1, panel B. Indian women are just over the age of twenty-nine when their first child is born. While this is older than the population in general, it is younger than other groups in our specific sample of highly educated women (Bui and Cain Miller 2018). The average age at first childbirth for White women is thirty-one, while for Chinese women the average age is 32.5. The average age at first parenthood for men is later than for their female counterparts, at ages in the early thirties. There is important heterogeneity in the family behaviors of Chinese and Indian women that is overlooked when Asian women are analyzed as a monolith.
Family Differences by Race and Gender
Source: Authors’ calculations using American Community Survey one-year estimates from 2009–2022.
We also observe important differences in measures of human capital, by gender as well as race and ethnicity (see table A.1). White CS workers are significantly older than their Asian counterparts, suggesting that Asian CS workers are more recent graduates, who may have had less time to experience wage compression. Furthermore, White CS professionals are far less likely than their Indian and Chinese counterparts to have obtained their degrees in CS or engineering, or to have post-graduate degrees. Finally, the descriptive results reveal stark differences in occupational concentration across ethnic groups, depicted in Figure 2. Chinese and Indian individuals are much more likely to be employed in software development—the second highest paid occupation, on average, in our sample—than their White counterparts; over half of all Indian and Chinese individuals work as software developers. Indian women are significantly more likely to work in this high-paying occupation than Chinese women; however, female Indian software developers make about $20,000 less per year than their Chinese counterparts, indicating factors beyond occupational segregation that drive wage gaps across and between ethnic groups. Both Indian and Chinese women are significantly more likely than White women to work in high-paying occupations.
Occupation Median Salary by Occupation Share Across Race and Gender Groups
Source: Authors’ calculations using American Community Survey one-year estimates from 2009–2022.
Note: Size of marker is determined by the raw number of individuals within each occupation.
MULTIVARIATE RESULTS
We turn now to our multivariate regression results to explore possible explanations for racial and ethnic differences in the gender wage gap. We initially seek to quantify the magnitude of the gender wage gap within racial groups, by running regressions separately for each racial group (White, Indian, and Chinese), with and without the control variables described above. The key coefficient of interest is the indicator variable female. We first run the regression without any controls, before incorporating a vector of control variables.12 We use robust standard errors and ACS person weights in all regressions. The coefficient on the female indictor can be interpreted as the percentage difference between men and women in annual wages and salary. With each estimate we also display the 95 percent confidence interval (CI), to identify the precision of our estimates relative to each other.
Our first set of regression specifications is presented in table 4. Results of the raw gender wage gap are shown in column 1, while column 2 shows the analogous information (the coefficient and 95 percent confidence interval) when our full set of controls is included. Results from the naive model reveal that the gender wage gap between White men and women is large and significant. White women make 17.4 percent less than White men in salary and wage income. Asian men and women working in CS experience a similar gender wage gap (17.8 percent), and this is not statistically different from the gender wage gap between White men and women. There is, however, considerable heterogeneity across Asian ethnic groups. Among Indians, the raw gender wage gap is 23.3 percent, statistically larger than all other groups at the 95 percent confidence level. The raw gender wage gap among Chinese men and women is 12.7 percent, and this is statistically smaller than for White individuals.
Linear Regression Predicting Log Hourly Wages: Coefficients on Female
Column 2 of table 4 accounts for family and human capital attributes, and also includes controls for state and year fixed effects to net out differences that may result from time trends or cost-of-living differences or changing salaries across states. Incorporating these controls improves the model fit substantially and shrinks the gender wage gap within our groups. The White gender wage gap shrinks by 7.7 percent, resulting in White women earning 9.8 percent less than White men. The overall Asian gender wage gap shrinks by 4.6 percent, leaving a wage gap of 13.2 percent. These differences are statistically different from one another; the Asian gender wage gap is an estimated 3.7 percent larger than the White gender wage gap.
But a focus on the pan-ethnic Asian group masks considerable ethnic variation in the magnitude of change resulting from incorporating additional controls. Among Indians, incorporating the range of family and human capital measures shrinks the gender wage gap minimally; Indian women continue to earn nearly 20 percent less than Indian men. The gap between Chinese men and women, in contrast, decreases nearly 5 percent on including other controls, and in the full models, Chinese women earn 7.9 percent less than Chinese men—the smallest gap in our sample.
Ethnic Variation in the Contribution of Family Factors
To isolate the effects of family factors—assessing the extent to which the gender wage gap is really a family wage gap—we explore the impact of our family variables from our second set of regressions (table 4, column 2), presenting these as a coefficient plot in figure 3. Shown here are the coefficient estimates and 95 percent confidence intervals for regressions run individually for each race and gender group. The graph shows the impact of marriage and parenthood on earnings, across women and men from different ethnic groups with similar levels of human capital. Specifically, within this set of regressions, we compare unmarried women and men to their married and divorced counterparts and childless women and men to those with children in varying age brackets within each racial group. To capture the full effect of parenthood, we also run a specification including only a parent indicator.
Impact of Family Status on Wages by Race and Gender
Source: Authors’ calculations using American Community Survey one-year estimates from 2009–2022.
Note: Models are run separately for each race by gender pair. Each marker displays the coefficient estimate for the coefficient labeled on the y-axis. We display 95 percent confidence intervals. Controls include: children indicators, including children 0–5, children 0–18, children 5–18 (omitted = Childless) [except in the parenthood indicator set of models where these are excluded]. Marital status indicators include married and previously married (omitted = never married). Citizenship indicators include naturalized citizen and foreign-born noncitizen (omitted = citizen from birth). Additional controls include age and age squared. Field-of-degree indicators include engineering, other STEM, business, other non-STEM (omitted = computer science). Highest degree indicators include master’s, professional degree, PhD (omitted = bachelor’s). Computer science occupations include CIS manager, computer scientist, computer systems analyst, information security analyst, computer programmer, web developer, support specialist, database administrator, network administrator, network architect (omitted = software development).
Figure 3 reveals considerably greater divergence in returns to marriage and parenthood among women than among men. Men of all groups examined here, White, Indian, and Chinese, experience a marriage premium, though this is greater for those who are currently married than the previously married. Married White and Chinese men experience an earnings boost of around 10 percent compared to their never married counterparts, while married Indian men earn 8.4 percent more; these differences are all statistically different from zero. White men experience a significantly larger marriage premium than Indian men.
In contrast to men, and to expectations drawn from the literature on professional working women, only White women experience a marriage premium that is significantly different from zero, earning 5 percent more than their never married counterparts. While married Chinese women do not experience an earnings premium, they also do not experience a marriage penalty; though imprecisely estimated, the point estimate is very close to zero. But Indian women experience large marriage penalties, which are significantly different from the returns to marriage experienced by White and Chinese women. Being married decreases Indian women’s earnings by 14 percent relative to their never married counterparts; they also experience a marriage penalty relative to married Chinese and White women. A similar pattern with regard to returns to parenthood can also be observed. Though returns to fatherhood vary somewhat across different stages of parenthood, most fathers receive a small premium for being parents, relative to their childless counterparts. There is some slight variation across ethnic groups, though these differences are not significant. White men who are fathers of preschoolers, for example, experience a small 4.8 percent earnings premium over their childless counterparts. But the earnings of Indian and Chinese fathers of preschool-aged children do not differ significantly from their childless counterparts. On the other hand, Indian fathers experience a slight earnings premium (5.4 percent) over their childless counterparts when they have school-aged children, though this difference is not significantly different from the bonus White fathers of older children experience. Chinese fathers experience no earnings premium, regardless of the age of their child or children, over childless Chinese men.
Among women, there is considerably more heterogeneity in the effect of parenthood on earnings, both across ages of children and ethnic groups. Indian women have the largest estimated parenthood penalty, of around 13 percent, statistically larger than that of White women, who have a very small positive effect of parenthood that is not different from zero. Chinese women have a parenthood penalty roughly in the middle of the two groups, around 5 percent. Whereas research on professional women has found that those with preschool-aged children experienced a wage premium relative to childless women, disaggregating motherhood penalties by ethnicity and age of children reveals a more nuanced picture. The impact of having children of different age groups on wages also shows that the effect sizes are generally larger for Indian and Chinese women than for White women, but they are more noisily estimated due to smaller sample sizes. Consistent with the results on marriage, there are larger penalties for Indian mothers compared to Indian childless women. But having older children—whether all school-aged, or in combination with preschool-aged children—has the largest estimated earnings penalty for Indian women, though we cannot say that this is significantly different from the penalty for having younger children. Indian women with both preschool- and school-aged children earn 13.5 percent less than childless women, while those with only older children (aged five to eighteen) earn 15 percent less. Chinese women also experience a mother penalty when they have only school-aged children, though the point estimates are smaller.
Figure 4 reveals how the effects of marriage and parenthood differ within racial groups across genders, highlighting across-sex variation in returns to family roles. To compare the effects of marriage and parenthood across men and women within the same racial or ethnic group, we use a set of interaction terms. Relying on the same set of controls described previously, we include an interaction between the female indicator and the associated variables for each set of relevant characteristics. We run three regressions for each racial group: the first includes interactions between females and both married and previously married (relative to never married); the second includes the interaction of female and a parenthood indicator; the third includes the interaction between female and each child age group. The coefficients on the interaction term for each of these regressions are shown in figure 4.
Differential Impact of Family Status for Females Compared to Males by Race
Source: Authors’ calculations using American Community Survey one-year estimates from 2009–2022.
Note: We run models separately for each racial group. Each marker is the coefficient for an interaction term between female and the variable displayed on the y-axis. We display 95 percent confidence intervals. Controls include: female, children indicators, including children 0–5, children 0–18, children 5–18 (omitted = childless) [except in the parenthood regression where these controls are omitted]. Marital status indicators include married and previously married (omitted = never married). Citizenship indicators include naturalized citizen and foreign-born noncitizen (omitted = citizen from birth). Additional controls include age and age squared. Field-of-degree indicators include engineering, other STEM, business, other non-STEM (omitted = computer science). Highest degree indicators include master’s, professional degree, PhD (omitted = bachelor’s). Computer science occupations include CIS manager, computer scientist, computer systems analyst, information security analyst, computer programmer, web developer, support specialist, database administrator, network administrator, network architect (omitted = software development).
The vertical dashed line crossing through zero shown in figure 4 reflects the balance between returns for men and women of the characteristic being interacted. The coefficients can be interpreted as the difference between females and males in the effect of the variable on income, not the overall effect of the characteristic on income. Returns to family attributes are universally lower for women than for men. In other words, even when women receive a marriage premium, it is significantly lower than that received by their male counterparts. White women experience the smallest penalties relative to their male counterparts, while Indian women generally experience the largest penalties relative to Indian men. Compared to White men who are married, married White women earn 11 percent less per year, on average, which is significant at the 1 percent level. But the marriage penalty between married Indian women and men is substantially larger, and the difference from Whites is statistically significant; married Indian women earn 21 percent less per year than married Indian men. The marriage premium for Chinese men relative to women is 15 percent, which is not statistically different from the estimates for White or Indian women.
A similar pattern is observed with regard to the parenthood penalty. White women also face significantly smaller parenthood penalties versus white men when compared to the parenthood penalties Indian mothers face relative to Indian fathers. In our specification with just a parenthood indicator, White women have about an 8 percent parenthood penalty compared to White men (significant at the 1 percent level). On the other hand, this penalty for Indian women is 15 percent (p < .001) and this estimate is also significantly more negative than the parenthood gap for White men and women. The parenthood gap between Indian women and men with older children is likely what is driving the larger parenthood gap for this group.
Given these large ethnic differences in returns to family attributes—particularly the wide disparities in returns to marriage—we further explore the role of occupational homogamy and whether those whose spouse is working in the same field or occupation are disadvantaged in terms of relative earnings. We do this by focusing on married couples and running regressions for each racial and gender group separately; the outcome is the log of wage and salary income, consistent with our previous analysis of the entire sample. We first include only an indicator for whether a respondent’s spouse was in a STEM occupation, before further limiting it to those where both partners worked in CS. Then we include the controls described earlier, along with this indicator. The coefficients on the spousal occupation indicator are shown in figure 5.
Effect of Spouse in Computer Science (STEM) Occupation on Wages by Race and Gender
Source: Authors’ calculations using American Community Survey one-year estimates from 2009–2022.
Note: Models are run separately for each race by gender pair. Each marker displays the coefficient estimate for the coefficient labeled on the y-axis. We display 95 percent confidence intervals. Controls include: female, children indicators, including children 0–5, children 0–18, children 5–18 (omitted = childless) [except in the parenthood regression where these controls are omitted]. Marital status indicators include married and previously married (omitted = never married). Citizenship indicators include naturalized citizen and foreign-born noncitizen (omitted = citizen from birth). Additional controls include age and age squared. Field-of-degree indicators include engineering, other STEM, business, other non-STEM (omitted = computer science). Highest degree indicators include master’s, professional degree, PhD (omitted = bachelor’s). Computer science occupations include CIS manager, computer scientist, computer systems analyst, information security analyst, computer programmer, web developer, support specialist, database administrator, network administrator, network architect (omitted = software development). CS = computer science. STEM = science, technology, engineering, and mathematics. CIS = Computer and Information Systems.
The results of these models demonstrate that for men working in CS, having a spouse employed in either a STEM occupation more broadly, or in CS more specifically, is associated with roughly a 5 percent increase in income. The one outlier here is Chinese men, who appear to particularly benefit from having a spouse in CS, which is associated with income gains of around 10 percent, at statistically significant levels (though the confidence intervals around this estimate are fairly wide). Notably, for Chinese and White women, having a spouse in CS (STEM) is also associated with income gains, with these gains also being around 5 percent in the naive model, a difference that shrinks to around 3 percent when controls are included. Chinese women are again an exception to this. Like their male counterparts, they appear to particularly benefit from having a spouse in CS; having a husband who works in CS is associated with income gains of around 10 percent for Chinese women, at statistically significant levels. For Indian women who work in CS, being married to a spouse who also is employed in CS is associated with a 5 percent decline in income, significant at conventional levels. This is striking, as nearly 60 percent of Indian women in our sample have spouses who work in CS.
DISCUSSION AND CONCLUSION
Attempts to reduce the gender wage gap frequently focus on the importance of encouraging women to enter STEM occupations. Numerous public campaigns also promote the idea that women should increase their presence in well-remunerated fields such as CS, through coding boot camps, college summer sessions focused on creating pathways for talented young women to major in technologically related majors, and affinity groups for women and minorities in STEM. Expanding women’s representation in STEM occupations is often forwarded as one means of reducing the gap in men and women’s wages, as is improving women’s attachment to the labor market. Our analyses suggest that this strategy is already utilized by some ethnic groups. Asian women in general, and Chinese and Indian women in particular, are better represented in STEM occupations, and particularly in CS jobs, than their White counterparts. Both Chinese and Indian women also earn significantly more, on average, than do White women who work in CS.
While Asian women earn more, on average, than White women, they continue to earn significantly less than Asian men. Female Asian and White full-time CS professionals earn about 17 percent less than men—a raw gender gap that is similar to the gender wage gap for the overall labor force (where it was 82 percent) (Sassler and Meyerhofer 2023). Controlling for family attributes and other factors narrows the gender wage gap, though White women continue to earn 9.8 cents per dollar less than their male counterparts, Chinese women earn 7.9 cents per dollar less, and Indian women make 19.6 cents per dollar less than Indian men working in CS occupations. Therefore, increasing women’s representation in STEM fields such as CS may not reduce the overall size of the gender wage gap.
Family factors are frequently believed to explain the persistence and size of the gender wage gap. Our findings provide further nuance to this explanation, given how marriage and parenthood penalties differ across ethnic groups. All men benefit from a marriage premium, relative to never married men, though Indian men benefit less than White men; Chinese men garner a premium that is between the two other groups but not statistically different from either one. But not all married women benefit from a marriage premium, which is contrary to what we expected on the basis of what other studies of professional women have found (for example, Buchmann and McDaniel 2016; Michelmore and Sassler 2016; Sassler and Meyerhofer 2023). Among most women working in CS, the marriage premium is limited to White married women, who outearned never married and previously married women; their bonus, however, was significantly smaller than that obtained by married White men. Indian women in particular experience a significantly larger marital penalty, relative to unmarried Indian women, than do White or Chinese women. This is notable, as the vast majority of Indian women in our sample of CS professionals (86 percent) were married. Given the cross-sectional nature of the ACS data, we are unable to ascertain whether there are differences across White, Indian, and Chinese women in the likelihood of remaining in CS occupations. Other data sources likewise do not provide sufficient ethnic-specific samples to determine whether married Indian women are more likely to remain in CS occupations than White or Chinese women with similarly high, unobservable marriage penalties (Sassler et al. 2023). Nonetheless, the larger wage gap evidenced among Indian CS professionals may be the result of their greater propensity to remain in the labor force following marriage and motherhood.
Furthermore, our results provide suggestive evidence that returns to parenthood also differ among women, particularly by the age of children, no doubt reflecting how parents respond differently to children’s needs across the life course. There is considerable variation among women in when and how family roles are arranged. These differences may impact earnings and, therefore, the gender wage gap. White women working in CS experience less of a parenthood penalty relative to their male counterparts than Indian women, though the difference is not significant when compared to Chinese women. Additional research is needed to ascertain why this may be the case, given that existing research finds that Asian women are less likely than White women to reduce labor supply in response to parenthood (Greenman 2011). As others have shown (Cha et al. 2023), the gender gap framing operates better for White workers than for Black or Hispanic workers; our research indicates that it also has less purchase for Asian workers.
Differential costs of family behaviors perpetuate the gender wage gap, but family strategies regarding women’s behaviors differ broadly across ethnic and racial groups. Indian women, for example, marry and become mothers at substantially younger ages than their Chinese and White counterparts. As noted by other articles in this issue (Lim and Jeong 2026), Chinese and Indians have greater prevalence of extended families than their White counterparts, with important ramifications for women’s labor force participation rates. Both Indian and Chinese women’s likelihood of employment is shaped by the prevalence of living in multigeneration households (Lim and Jeong 2026), though the presence of parents or in-laws may shape mothers’ ability to work but can also introduce additional care burdens. The larger parenthood penalty experienced by Indian women relative to White women when they have children who are school-aged suggests the need for further attention to child investment strategies and how they differ across both Asian groups and parents in demanding professional occupations. Our evidence suggests that intensive parenting norms may exact higher costs on Indian mothers relative to White mothers with school-aged children, with less differentiation among Chinese and White mothers of school-aged children.
There is clearly a need to better identify the sources of gender differences in family premiums or penalties in the family wage gap literature. Additional research should determine how age at marriage or first birth shapes wage disparities and the gender wage gap, as the later family formation behaviors of White and Chinese women appear responsible for some of this gender difference in returns. Future studies could also assess whether men and women receive the same returns to working in occupations (such as software developer) where Indian and Chinese men and women are well-represented. In her examination of the factors contributing to “a grand gender convergence,” Claudia Goldin (2014, 1091) asserted that what happened within each occupation was far more important in shaping the gender wage gap than gender differences in the occupations in which men and women wound up (see also Quadlin et al. 2023; Zheng and Weeden 2023). Given marital sorting and the rise in educational homogamy, better understanding what happens not only within occupations but also within couples where both partners work in the same occupation may shed further light on how the family wage gap is perpetuated or reduced. Our results on occupational homogamy within married couples reveal that women from some ethnic groups may be more disadvantaged by interfamily exchanges when it comes to relative earnings, while other women are benefited. White and Chinese women, for example, experience more of a marriage premium when they are married to men who also work in CS occupations; Indian women, on the other hand, experience a marriage penalty for occupational marital homogamy. This is clearly an important subset of what could be termed the family wage gap.
Of course, our analysis is not without shortcomings. Due to the cross-sectional nature of the ACS data, we only observe those working in a CS occupation at the time of interview, which means we cannot address differential attrition in CS by gender prior to observing respondents. Retention in CS jobs is substantially lower for women than men (Sassler et al. 2017; Sassler et al. 2023). Workers who remain in CS jobs may be more highly qualified workers or in better-paid positions. Our estimates are likely a lower bound if those most dissatisfied with jobs in CS had left CS jobs prior to being observed. We are also unable to ascertain whether pay disparities are the result of “glass ceiling” effects, where women’s earnings are lower than men’s with similar levels of work experience due to discrimination occurring across the work life course. The structure of the ACS data does not enable us to determine how long respondents have worked in current positions or in the field of CS, or if women left the labor force for a period of time following childbirth. Furthermore, the immigration experience may influence the gender wage gap in ways that we cannot ascertain with ACS data; Indian men and women are significantly more likely to be foreign-born and non-citizens than their Chinese and White counterparts. Yet we lack information on the type of visa status the foreign-born initially had, and whether, among those married to others currently working in CS, both partners were working or if one partner was prohibited from holding a job—a factor that could affect work experience and, therefore, wages. There are, then, various factors beyond family responsibilities that shape the gender wage gap within ethnic groups, though our findings suggest these remain gendered. Many data limitations challenge our ability to explore how the family decisions of women and men play out over the career life course.
Better understanding the factors that shape the persistent gender wage gap, and how these differ across ethnic groups overrepresented in well-paid professions, is necessary in order to reduce gender and racial inequality in the United States. As our results show, ethnic variation in returns to marriage and parenthood, as well as within married couple differences in the returns to occupational homogamy, help perpetuate the gender wage gap, even when women work in STEM fields such as CS. That means that encouraging more women to enter and remain in STEM occupations will not, alone, be enough to reduce the gender wage gap. Narrowing wage disparities between women and men remains a challenge. Even among ethnic groups with high levels of STEM engagement, wage disparities persist. This disparity is clearly evident among Asians working in CS in the United States. While Chinese and Indian women earn more than White women, their family roles result in significantly lower returns to their employment than those experienced by their male counterparts. In other words, for Chinese and Indian women, the gender wage gap appears to be largely a family wage gap, with important ramifications for the Asian American experience in the United States.
APPENDIX
Further Descriptive Statistics on Immigration Status for Analysis Sample
FOOTNOTES
↵1. Youngjoo Cha and colleagues (2023) explain the endogeneity problem by stating that human capital, including educational attainment and work experience, mediates the association between family status and wages, while family status also mediates the association between human capital and wages. Changes in family formation behaviors, particularly among the college-educated, complicate this association. Young women no longer plan their occupational goals around caregiving or family plans (Morgan et al. 2013), and the proportions of women projected to remain childless by midlife are estimated to reach around one-quarter of all women, due to delayed fertility (Guzzo and Hayford 2023). Yet it has been difficult to dismiss the endogeneity challenge, which may in itself reveal the gendered nature of research. The pursuit of particular degrees or work hours and their association with family formation and wages does not feature in studies of factors influencing men’s choices.
↵2. Their more recent scholarship on family wage gaps notes racial differences in the association between family wage gaps and the gender wage gap, but their sample does not include Asians (Cha et al. 2023).
↵3. This refers to single ancestry responses, rather than those who selected more than one race.
↵4. The demand for H-1B (a US specialty occupation visa program) workers, which has increased since the early years of the twenty-first century, contributes to the increase in foreign-born representation among STEM workers, while also shaping the ethnic and gender composition of foreign nationals (Ruiz 2017). In recent years, the largest share of H-1B visas has gone to CS professionals; in fiscal year 2023, computer-related occupations accounted for 65 percent of all approved H-1B petitions. Additionally, the vast majority of H-1B beneficiaries in recent years have been men; among the top ten countries of birth for approved H-1B beneficiaries in fiscal year 2023, 71 percent were male, with an even larger male representation (76 percent) among Indians (US Citizenship and Immigration Services 2024).
↵5. Including part-time STEM workers yields similar results to models using only full-time workers (see also Blau and Kahn 2017; Quadlin et al. 2023; Sassler and Meyerhofer 2023); they make up a very small share of all STEM workers (n = 13,217, or 3.6 percent of the sample). Women make up a somewhat larger share of part-time workers (n = 6,208, or 6.7 percent of all women), compared to men, among whom only 2.6 percent (n = 7,009) work part-time.
↵6. CS occupations include: computer and information science (CIS) manager, computer scientist, computer analyst, information analyst, computer programmer, software developer, web developer, computer specialist, data administrator, network administrator, network architect, and all other computer occupations.
↵7. Incomes at or above the 99.5th percentile of a state are recoded to the median income of that state.
↵8. Our measures capture only children who live in the household; we do not observe children over the age of eighteen or minors residing elsewhere (such as with a different parent). Our measures therefore understate parental obligations, more so for men than women (Goldscheider and Sassler 2006).
↵9. The ACS does not collect data on the field of study of the graduate degree.
↵10. Research also shows that foreign-born individuals who receive their degrees in the US outearn their immigrant counterparts who obtained degrees in their home country (Zeng and Xie 2004). To avoid conflating year of degree receipt, year of immigration, and nativity, we focus instead on naturalization status, which is measured in the ACS.
↵11. The ACS defines native US citizens as those born in the US or born abroad to US citizens.
↵12. Controls include: children indicators, including children ages 0–5, children ages 0–18, and children ages 5–18 (omitted = childless). Marital status indicators include previously married and never married (omitted = married). Citizenship indicators include naturalized citizen and foreign-born noncitizen (omitted = citizen from birth). Additional controls include age and age squared. Field-of-degree indicators include engineering, other STEM, business, other non-STEM (omitted = computer science). Highest degree indicators include master’s, professional degree, PhD (omitted = bachelor’s). Computer science occupations include CIS manager, computer scientist, computer systems analyst, information security analyst, computer programmer, web developer, support specialist, database administrator, network administrator, network architect (omitted = software development). In some specifications, models also include an indicator for overwork (works fifty or more hours per week), as well as state and year fixed effects.
- © 2026 Russell Sage Foundation. Sassler, Sharon, and Gabrielle Sorresso. 2026. “Narrowing the Gender Wage Gap Among Computer Science Professionals: What Differentiates the Earnings of Asian and White Workers?” RSF: The Russell Sage Foundation Journal of the Social Sciences 12(3): 98–123. https://doi.org/10.7758/RSF.2026.12.3.05. Direct correspondence to: Sharon Sassler, at sharon.sassler@cornell.edu, G42 Flora Rose House, Cornell University, Ithaca, NY 14853, United States. Gabrielle Sorresso, at gns36@cornell.edu, 190 Pleasant Grove Road, Apartment K4, Ithaca, NY 14850, United States.
Open Access Policy: RSF: The Russell Sage Foundation Journal of the Social Sciences is an open access journal. This article is published under a Creative Commons Attribution-NonCommercial-NoDerivs 3.0 Unported License.
REFERENCES
- ↵Becker, Gary S. 1985. “Human Capital, Effort, and the Sexual Division of Labor.” Journal of Labor Economics 3(1): S33–S58. https://www.jstor.org/stable/2534997.
- ↵Beutel, Ann M., and Cyrus Schleifer. 2022. “Family Structure, Gender, and Wages in STEM Work.” Sociological Perspectives 65(4): 790–819. https://doi.org/10.1177/07311214211060032.
- ↵Blau, Francine D., and Lawrence M. Kahn. 2017. “The Gender Wage Gap: Extent, Trends, and Explanations.” Journal of Economic Literature 55(3): 789–865. https://doi.org/10.1257/jel.20160995.
- ↵Buchmann, Claudia, and Anne McDaniel. 2016. “Motherhood and the Wages of Women in Professional Occupations.” RSF: The Russell Sage Journal of the Social Sciences 2(4): 128–50. https://doi.org/10.7758/RSF.2016.2.4.05.
- ↵Budig, Michelle J., and Misun Lim. 2016. “Cohort Differences and the Marriage Premium: Emergence of Gender-Neutral Household Specialization Effects.” Journal of Marriage and Family 78(5): 1352–70. https://doi.org/10.1111/jomf.12326.
- ↵Budig, Michelle J., Misun Lim, and Melissa J. Hodges. 2021. “Racial and Gender Pay Disparities: The Role of Education.” Social Science Research 98: 102580. https://doi.org/10.1016/j.ssresearch.2021.102580.
- ↵Bui, Quoctrung, and Claire Cain Miller. 2018. “The Age That Women Have Babies: How a Gap Divides America.” New York Times, August 4. https://www.nytimes.com/interactive/2018/08/04/upshot/up-birth-age-gap.html.
- ↵Cech, Erin A., and Mary Blair-Loy. 2019. “The Changing Career Trajectories of New Parents in STEM.” Proceedings of the National Academy of Science 116(10): 4182–87. https://doi.org/10.1073/pnas.1810862116.
- ↵Cha, Youngjoo, and Kim A. Weeden. 2014. “Overwork and the Slow Convergence in the Gender Gap in Wages.” American Sociological Review 79(3): 457–84. https://doi.org/10.1177/0003122414528936.
- ↵Cha, Youngjoo, Kim A. Weeden, and Landon Schnabel. 2023. “Is the Gender Wage Gap Really a Family Wage Gap in Disguise?” American Sociological Review 88(6): 972–1001. https://doi.org/10.1177/00031224231212464.
- ↵Cheng, Siwei, Bhumika Chauhan, and Swati Chintala. 2019. “The Rise of Programming and the Stalled Gender Revolution.” Sociological Science 6(13): 321–51. https://doi.org/10.15195/V6.A13.
- ↵Correll, Shelley J., Stephen Benard, and In Paik. 2007. “Getting a Job: Is there a Motherhood Penalty?” American Journal of Sociology 112(5): 1297–1338. https://doi.org/10.1086/511799.
- ↵Doren, Catherine. 2019. “Which Mothers Pay a Higher Price? Education Differences in Motherhood Wage Penalties by Parity and Fertility Timing.” Sociological Science 6(26): 684–709. https://doi.org/10.15195/v6.a26.
- ↵England, Paula, Jonathan Bearak, Michelle J. Budig, and Melissa J. Hodges. 2016. “Do Highly Paid, Highly Skilled Women Experience the Largest Motherhood Penalty?” American Sociological Review 81(6): 1161–89. https://doi.org/10.1177/0003122416673598.
- ↵England, Paula, Andrew Levine, and Emma Mishel. 2020. “Progress Toward Gender Equality in the United States Has Slowed or Stalled.” Proceedings of the National Academy of Science 117(13): 6990–97. https://doi.org/10.1073/pnas.1918891117.
- ↵Fernandez, Roberto M., and Santiago Campero. 2017. “Gender Sorting and the Glass Ceiling in High-Tech Firms.” ILR Review 70(1): 73–104. https://doi.org/10.1177/0019793916668875.
- ↵Galperin, Hernan. 2021. “This Gig Is Not for Women: Gender Stereotyping in Online Hiring.” Social Science Computer Review 39(6): 1089–1107. https://doi.org/10.1177/0894439319895757
- ↵Glass, Jennifer L., Sharon Sassler, Yael Levitte, and Katherine M. Michelmore. 2013. “What’s So Special About STEM? A Comparison of Women’s Retention in STEM and Professional Occupations.” Social Forces 92(2): 723–56. https://doi.org/10.1093/sf/sot092.
- ↵Glauber, Rebecca. 2007. “Marriage and the Motherhood Wage Penalty Among African Americans, Hispanics, and Whites.” Journal of Marriage and Family 69(4): 951–61. https://www.jstor.org/stable/4622500
- ↵Glauber, Rebecca. 2008. “Race and Gender in Families and at Work: The Fatherhood Wage Premium.” Gender & Society 22(1): 8–30. https://doi.org/10.1177/0891243207311593.
- ↵Goldin, Claudia. 2014. “A Grand Gender Convergence: Its Last Chapter.” American Economic Review 104(4): 1091–1119. https://doi.org/10.1257/aer.104.4.1091.
- ↵Goldscheider, Frances, and Sharon Sassler. 2006. “Creating Stepfamilies: Integrating Children into the Study of Union Formation.” Journal of Marriage and Family 68(2): 275–91. https://doi.org/10.1111/j.1741-3737.2006.00252.x.
- ↵Goyette, Kimberly, and Yu Xie. 1999. “The Intersection of Immigration and Gender: Labor Force Outcomes of Immigrant Women Scientists.” Social Science Quarterly 80(2): 395–408. https://www.jstor.org/stable/42863908.
- ↵Greenman, Emily. 2011. “Asian American–White Differences in the Effect of Motherhood on Career Outcomes.” Work and Occupations 38(1): 37–67. https://doi.org/10.1177/0730888410384935.
- ↵Greenman, Emily, and Yu Xie. 2008. “Double Jeopardy? The Interaction of Gender and Race on Earnings in the United States.” Social Forces 86(3): 1217–44. https://doi.org/10.1353/sof.0.0008.
- ↵Guzzo, Karen Benjamin, and Sarah R. Hayford. 2023. “Evolving Fertility Goals and Behaviors in Current U.S. Childbearing Cohorts.” Population and Development Review 49(1): 7–42. https://doi.org/10.1111/padr.12535.
- ↵Jones, Nicholas, Rachel Marks, Roberto Ramirez, and Mararys Ríos-Vargas. 2021. “2020 Census Illuminates Racial and Ethnic Composition of the Country.” US Census Bureau. August 12. https://www.census.gov/library/stories/2021/08/improved-race-ethnicity-measures-reveal-united-states-population-much-more-multiracial.html.
- ↵Killewald, Alexandra, and Margaret Gough. 2013. “Does Specialization Explain Marriage Penalties and Premiums?” American Sociological Review 78(3): 477–502. https://doi.org/10.1177/0003122413484151.
- ↵Landivar, Liana Christin. 2013. Disparities in STEM Employment by Sex, Race, and Hispanic Origin. American Community Survey Reports, no. ACS-24. US Census Bureau. September. https://www.census.gov/library/publications/2013/acs/acs-24.html
- ↵Lee, Jennifer, Kimberly Goyette, Xi Song, and Yu Xie. 2024. “Presumed Competent: The Strategic Adaptation of Asian Americans in Education and the Labor Market.” Annual Review of Sociology 50: 455–74. https://doi.org/10.1146/annurev-soc-090523-051614.
- ↵Lee, Jennifer, and Min Zhou. 2015. The Asian American Achievement Paradox. Russell Sage Foundation.
- ↵Lim, Sojung, and Wonjeong Jeong. 2026. “The Role of Extended Family in Asian American Women’s Employment from 1990 to 2022.” RSF: The Russell Sage Foundation Journal of the Social Sciences 12(3): 124–44. https://doi.org/10.7758/RSF.2026.12.3.06.
- ↵Lu, Jackson G. 2022. “A Social Network Perspective on the Bamboo Ceiling: Ethnic Homophily Explains Why East Asians but Not South Asians Are Underrepresented in Leadership in Multiethnic Environments.” Journal of Personality and Social Psychology 122(6): 959–82. https://doi.org/10.1073/pnas.1918896117.
- ↵Lu, Jackson G. 2023. “Asians Don’t Ask? Relational Concerns, Negotiation Propensity, and Starting Salaries.” Journal of Applied Psychology 108(2): 273–90. https://doi.org/10.1037/apl0001017.
- ↵Lu, Jackson G. 2024. “‘Asian’ Is a Problematic Category in Research and Practice: Insights from the Bamboo Ceiling.” Current Directions in Psychological Science 33(6): 400–06. https://doi.org/10.1177/09637214241283406.
- ↵Lu, Jackson G., Richard E. Nisbett, and Michael W. Morris. 2022. “The Surprising Underperformance of East Asians in US Law and Business Schools: The Liability of Low Assertiveness and the Ameliorative Potential of Online Classrooms.” Proceedings of the National Academy of Sciences 119(13): e2118244119.
- ↵Lu, Yao, Julia Shu-Huah Wang, and Wen-Jui Han. 2017. “Women’s Short-Term Employment Trajectories Following Birth: Patterns, Determinants, and Variations by Race/Ethnicity and Nativity.” Demography 54(1): 93–118. https://doi.org/10.1007/s13524-016-0541-3.
- ↵Michelmore, Katherine, and Sharon Sassler. 2016. “Explaining the Gender Wage Gap in STEM: Does Field Sex Composition Matter?” RSF: The Russell Sage Foundation Journal of the Social Sciences 2(4): 194–215. https://doi.org/10.7758/RSF.2016.2.4.07.
- ↵Morgan, Stephen L., Dafna Gelbgiser, and Kim A. Weeden. 2013. “Feeding the Pipeline: Gender, Occupational Plans, and College Major Selection.” Social Science Research 42(4): 989–1005. https://doi.org/10.1016/j.ssresearch.2013.03.008.
- ↵Moss-Racusin, Corinne A., John F. Dovidio, Victoria L. Brescoll, Mark J. Graham, and Jo Handelsman. 2012. “Science Faculty’s Subtle Gender Biases Favor Male Students.” Proceedings of the National Academy of Sciences 109(41): 16474-9. https://doi.org/10.1073/pnas.1211286109.
- ↵National Academies of Sciences, Engineering, and Medicine. 2017. The Economic and Fiscal Consequences of Immigration. National Academies Press. https://doi.org/10.17226/23550.
- ↵National Science Board. 2024. The STEM Labor Force: Scientists, Engineers, and Skilled Technical Workers. Science and Engineering Indicators. NSB-2024-5. https://ncses.nsf.gov/pubs/nsb20245.
- ↵Percheski, Christine. 2008. “Opting Out? Cohort Differences in Professional Women’s Employment Rates from 1960 to 2005.” American Sociological Review 73(3): 497–517. https://doi.org/10.1177/000312240807300307.
- ↵Perry-Jenkins, Maureen, and Naomi Gerstel. 2020. “Work and Family in the Second Decade of the 21st Century.” Journal of Marriage and Family 82(1): 420–53. https://doi.org/10.1111/jomf.12636.
- ↵Quadlin, Natasha, Tom VanHeuvelen, and Caitlin E. Aheran. 2023. “Higher Education and High-Wage Gender Inequality.” Social Science Research 112: 102873. https://doi.org/10.1016/j.ssresearch.2023.102873.
- ↵Ruggles, Steven, Sarah Flood, Matthew Sobek, et al. 2025. “IPUMS USA: Version 16.0 [dataset].” Minneapolis, MN: IPUMS. https://doi.org/10.18128/D010.V16.0.
- ↵Ruiz, Neil G. 2017. “Key Facts About the U.S. H-1B Visa Program.” Pew Research Center. April 27. https://www.pewresearch.org/short-reads/2017/04/27/key-facts-about-the-u-s-h-1b-visa-program/.
- ↵Sassler, Sharon, and Daniel T. Lichter. 2020. “Cohabitation and Marriage: Complexity and Diversity in Union-Formation Patterns.” Journal of Marriage and Family 82(1): 35–61. https://doi.org/10.1111/jomf.12617.
- ↵Sassler, Sharon, and Pamela Meyerhofer. 2023. “Factors Shaping the Gender Wage Gap Among College-Educated Computer Science Workers.” PLOS ONE 18(10): e0293300. https://doi.org/10.1371/journal.pone.0293300.
- ↵Sassler, Sharon, Katherine Michelmore, and Kristin Smith. 2017. “A Tale of Two Majors: Explaining the Gender Gap in STEM Employment Among Computer Science and Engineering Degree Holders.” Social Sciences 6(3): 69. https://doi.org/10.3390/socsci6030069.
- ↵Sassler, Sharon L., Kristin E. Smith, and Katherine Michelmore. 2023. “Cohort Differences in Occupational Retention Among Computer Science Degree Holders: Reassessing the Role of Family.” Sociological Perspectives 66(6): 1060–83. https://doi.org/10.1177/07311214231195024.
- ↵Smith-Doerr, Laurel, Sharla Alegria, Kaye Husbands Fealing, Debra Fitzpatrick, and Donald Tomaskovic-Devey. 2019. “Gender Pay Gaps in U.S. Federal Science Agencies: An Organizational Approach.” American Journal of Sociology 125(2): 534–75. https://doi.org/10.1086/705514.
- ↵US Citizenship and Immigration Services. 2024. Characteristics of H-1B Specialty Occupation Workers: Fiscal Year 2023 Annual Report to Congress. US Citizenship and Immigration Services. https://www.uscis.gov/sites/default/files/document/reports/OLA_Signed_H-1B_Characteristics_Congressional_Report_FY2023.pdf.
- ↵Weeden, Kim A., Youngjoo Cha, and Mauricio Bucca. 2016. “Long Work Hours, Part-Time Work, and Trends in the Gender Gap in Pay, the Motherhood Wage Penalty, and the Fatherhood Wage Premium.” RSF: The Russell Sage Journal of the Social Sciences 2(4): 71–102. https://doi.org/10.7758/rsf.2016.2.4.03.
- ↵Xie, Yu, and Alexandra A. Killewald. 2012. Is American Science in Decline? Harvard University Press.
- ↵Xie, Yu, and Kimberlee A. Shauman. 2005. Women in Science: Career Processes and Outcomes. Harvard University Press.
- ↵Zeng, Zhen, and Yu Xie. 2004. “Asian-Americans’ Earnings Disadvantage Reexamined: The Role of Place of Education.” American Journal of Sociology 109(5): 1075–1108. https://doi.org/10.1086/381914.
- ↵Zheng, Haowen, and Kim A. Weeden. 2023. “How Gender Segregation in Higher Education Contributes to Gender Segregation in the U.S. Labor Market.” Demography 60(3): 761–84. https://doi.org/10.1215/00703370-10653728.




![Impact of Family Status on Wages by Race and Gender Source: Authors’ calculations using American Community Survey one-year estimates from 2009–2022. Note: Models are run separately for each race by gender pair. Each marker displays the coefficient estimate for the coefficient labeled on the y-axis. We display 95 percent confidence intervals. Controls include: children indicators, including children 0–5, children 0–18, children 5–18 (omitted = Childless) [except in the parenthood indicator set of models where these are excluded]. Marital status indicators include married and previously married (omitted = never married). Citizenship indicators include naturalized citizen and foreign-born noncitizen (omitted = citizen from birth). Additional controls include age and age squared. Field-of-degree indicators include engineering, other STEM, business, other non-STEM (omitted = computer science). Highest degree indicators include master’s, professional degree, PhD (omitted = bachelor’s). Computer science occupations include CIS manager, computer scientist, computer systems analyst, information security analyst, computer programmer, web developer, support specialist, database administrator, network administrator, network architect (omitted = software development).](https://www.rsfjournal.org/content/rsfjss/12/3/98/F3.medium.gif)
![Differential Impact of Family Status for Females Compared to Males by Race Source: Authors’ calculations using American Community Survey one-year estimates from 2009–2022. Note: We run models separately for each racial group. Each marker is the coefficient for an interaction term between female and the variable displayed on the y-axis. We display 95 percent confidence intervals. Controls include: female, children indicators, including children 0–5, children 0–18, children 5–18 (omitted = childless) [except in the parenthood regression where these controls are omitted]. Marital status indicators include married and previously married (omitted = never married). Citizenship indicators include naturalized citizen and foreign-born noncitizen (omitted = citizen from birth). Additional controls include age and age squared. Field-of-degree indicators include engineering, other STEM, business, other non-STEM (omitted = computer science). Highest degree indicators include master’s, professional degree, PhD (omitted = bachelor’s). Computer science occupations include CIS manager, computer scientist, computer systems analyst, information security analyst, computer programmer, web developer, support specialist, database administrator, network administrator, network architect (omitted = software development).](https://www.rsfjournal.org/content/rsfjss/12/3/98/F4.medium.gif)
![Effect of Spouse in Computer Science (STEM) Occupation on Wages by Race and Gender Source: Authors’ calculations using American Community Survey one-year estimates from 2009–2022. Note: Models are run separately for each race by gender pair. Each marker displays the coefficient estimate for the coefficient labeled on the y-axis. We display 95 percent confidence intervals. Controls include: female, children indicators, including children 0–5, children 0–18, children 5–18 (omitted = childless) [except in the parenthood regression where these controls are omitted]. Marital status indicators include married and previously married (omitted = never married). Citizenship indicators include naturalized citizen and foreign-born noncitizen (omitted = citizen from birth). Additional controls include age and age squared. Field-of-degree indicators include engineering, other STEM, business, other non-STEM (omitted = computer science). Highest degree indicators include master’s, professional degree, PhD (omitted = bachelor’s). Computer science occupations include CIS manager, computer scientist, computer systems analyst, information security analyst, computer programmer, web developer, support specialist, database administrator, network administrator, network architect (omitted = software development). CS = computer science. STEM = science, technology, engineering, and mathematics. CIS = Computer and Information Systems.](https://www.rsfjournal.org/content/rsfjss/12/3/98/F5.medium.gif)




