In this research brief, we define and describe “HEAL” occupations in health, education and literacy, taking inspiration from the success of the STEM movement. HEAL jobs—largely in what is sometimes called the “care economy,” including nurses, teachers, and medical assistants—already account for about one in seven jobs in the United States. The HEAL sector is projected to add 1.6 million jobs by 2033. Two in five HEAL jobs do not require a bachelor’s degree.
Male representation in HEAL professions, at 22%, is a little lower than female representation in STEM, at 24%. But while the share of STEM jobs held by women is rising rapidly, the share of men in HEAL is declining. This means missed job opportunities for men as well as a damaging lack of men in some vitally important roles.
There’s power in a good acronym. Few people need to be told that “S.T.E.M.,” for example, stands for science, technology, engineering and math. Nor that these STEM fields are important areas of study and work, not least for national security and economic growth.
But jobs that help people acquire skills and knowledge, stay healthy, and receive care are just as important, even if they are not always equally appreciated. Nurses, teachers, therapists, and social workers matter, just like engineers, coders and physicists do. In this research brief and work elsewhere we refer to these as “HEAL” jobs, emphasizing health and education, as well as jobs requiring more literacy of various kinds. Representation in both STEM and HEAL areas matters.
In recent decades there has been a concerted effort to increase the share of women in STEM. Partly as a result, the share of STEM jobs held by women increased nearly threefold from 1970 to 2020, from 9% to 26%. The representation of men in HEAL roles, however, has not increased. As we show here, male representation in HEAL has in fact fallen slightly, from 31% in 1970 to 27% in 2020. STEM jobs are becoming less gendered over time; HEAL jobs are not.
In this research brief, we:
By building and sharing a HEAL classification based on systematic occupational data, we aim to move beyond the existing qualitative descriptions of the “care economy” or “pink-collar jobs.” These earlier frameworks have played an important role in describing the unique nature of care-related work. Our quantitative approach provides an empirical framework for HEAL that we hope will be useful to scholars and policymakers.
In motivating and defining HEAL, we draw on some lessons from the STEM field. The rise of STEM was related to the growing need, especially over the last several decades, to invest in technical fields expected to be critical for the U.S. economy and national security. Reports by national academies and research bodies encouraged increased funding and opportunities for Americans to pursue education and careers in science, technology, engineering, and mathematics.
Since then, resources allocated to STEM (originally SMET) education have substantially increased, including for many programs specifically aimed at increasing the participation of women in the field. There has been bipartisan support committed to growing employment and progress in these fields.
But there is no single, agreed-upon definition of what counts as a STEM job. As Amanda Olson and co-authors note in a 2014 paper:
“Yet, as part of a research program…we discovered troubling issues surrounding the way that projections are made about the number of STEM jobs available, their expected wages, and the education needed to get these jobs.”
There have been three main approaches to defining STEM:
These differences produce widely varying estimates of the STEM workforce—from 5.4 million to 29 million jobs—and can complicate efforts to identify skill shortages, design curricula, and allocate resources. Even within a single broad approach, details may differ. For instance, both the Bureau of Labor Statistics (BLS) and the National Science Foundation (NSF) use a task-based taxonomy to classify STEM occupations, but the BLS sometimes includes “management” or “education” under STEM while the NSF distinguishes “science and engineering” (S&E) occupations—often requiring a bachelor’s degree—from “S&E-related” roles that may not.
How then should we define HEAL? Following the various approaches in the STEM field, we explored the same three overall approaches: task-based, skill-based, and knowledge-based.
Unlike for STEM, the three approaches actually result in a very similar number of occupations and share of the workforce being classified as HEAL, as figure 1 shows.
Figure 1
More results for the three approaches are shared in the appendix, but for our main analysis we use the knowledge-based classification, for two main reasons:
O*NET measures knowledge requirements for occupations through surveys completed by subject matter experts and job incumbents, evaluating the importance and level of knowledge across 33 standardized domains (e.g., “building and construction,” “public safety and security,” or “psychology”). For this classification, we focused on three key knowledge domains:
Ratings on each of these three were then standardized to identify occupations with significantly higher-than-average knowledge requirements in one or more of these domains. In line with threshold values used by Jonathan Rothwell in his knowledge-based classification of STEM occupations, we classified occupations scoring at least 1.5 standard deviations above the mean in one or more of these domains as HEAL.
For example, radiologists score a 3.70 out of 5 on “education and training,” a 4.67 out of 5 on “medicine and dentistry,” and a 2.14 out of 5 on “therapy and counseling.” These correspond to standardized scores of 1.03, 3.07 and 0.43, respectively. Since radiologists score above 1.5 on one of these domains (“medicine and dentistry” in this case), they are classified as HEAL under our knowledge-based classification.
Our resulting HEAL classification contains 134 occupations, including physical therapists and veterinarians, but also several that might be less obvious, like firefighters. Others, like home health and personal care aides, that might seem like intuitive fits, fall slightly below the required knowledge thresholds.
For comparative purposes, we use the STEM definition adopted by BLS. This definition, which estimates the STEM workforce at 10.7 million, is narrower than some alternatives but ensures no overlap between STEM and our categorization of HEAL occupations.
The interactive table below shows occupations according to their categorization as HEAL, STEM, or other, and the overall size, rate of growth, average salary, typical education level, and male share of each occupation. The table also shows standardized scores on each of the three knowledge domains used in our HEAL definition.
As a note, data limitations require us to use a slightly smaller set of occupations for some estimates. These adjustments, along with more detailed information on the other two approaches, are noted and detailed in the appendix.
Figure 2
Data used in this research brief are collected from the following sources:
For a more detailed explanation of our methods and analysis, see the appendix.
HEAL roles account for 24 million jobs (16% of total jobs) compared to 10.7 million (7% of total jobs) for STEM, as shown in figure 3.
Figure 3
HEAL occupations are expected to see significant growth, especially in healthcare related professions. In contrast, some education-related occupations (not shown) will see small declines. Overall, the HEAL occupations are predicted to add 1.6 million new jobs by 2033, an increase of 7%, compared to 1.1 million new jobs for STEM, an increase of 10%.
The ten HEAL and STEM occupations projected to grow the most in absolute terms from 2023 to 2033 are shown in figure 4. Overall, the top ten HEAL occupations will collectively add around 900,000 new jobs, compared to 790,000 for the top ten STEM occupations.
Figure 4
HEAL, STEM, and other occupations differ in terms of pay, education level, required skills, and demographics. Overall, STEM jobs are the highest-paid. In fact, workers at the 25th percentile of the STEM wage distribution earn the same as those at the 75th percentile of the HEAL distribution ($86,000 per year).
Figure 5
In part, this reflects differences in education requirements. The majority of STEM jobs (83%) and HEAL jobs (62%) require a bachelor’s degree, compared to just 16% of other occupations, as figure 6 shows.
Figure 6
Though not shown, our analysis of O*NET data also indicates that most HEAL roles typically require less on-the-job training (around 3-6 months) and fewer years of related work experience (about 1-2 years) compared to STEM roles, which generally require 6-12 months of training and 4-6 years of experience.
As figure 7 shows, there are also differences in the racial makeup of the three broad occupational categories. HEAL jobs have a higher share of Black workers (16%) than STEM roles (7%) or other occupations (12%), but a smaller share of Hispanic workers (14%) compared to other fields (22%). Asian Americans account for 19% of STEM workers and 7% of HEAL workers.
Figure 7
In contrast to STEM occupations, HEAL occupations tend to be heavily female, as shown in figure 8. In fact, men account for a similar share of HEAL jobs (22%) as women do in STEM (24%).
Figure 8
There are big potential opportunities here for men to find work. For example, the HEAL profession with the largest expected job growth (see above) is nursing, where men currently account for just 12% of the workforce. Medical and health service managers, with the second largest expected job gains, are just 27% male.
While the shares of men in HEAL and women in STEM are similar, the trends are very different. Note that to track trends, we had to truncate the number of occupations in the analysis, and pool the numbers across several years, so the numbers are not directly comparable to figure 8 above.
The share of STEM jobs occupied by women increased nearly threefold from 1970 to 2018-2022, from 9% to 26% using this definition. Meanwhile the share of men in HEAL roles actually declined slightly.
Figure 9
These estimates of the share of men in HEAL occupations over time are derived using a harmonized occupation variable suitable for historical comparisons. The 2023 estimate used in other figures relies on a more granular occupation variable. As a result, these two measures are not perfectly comparable. Differences between the 2022 ACS 5-year estimate in figure 9 and the 2023 ACS 5-year estimate in figure 8 partly reflect the differing occupation coding schemes.
One suggested explanation for the underrepresentation of men in HEAL is that these jobs typically require greater interpersonal skills like social perceptiveness and communication—which, on average, men may be less likely to possess than women. To explore this potential connection, we construct a measure of “human-centered” skills and job requirements and compare it to the male share of an occupation. Of note, this human-centered index is the skill-based option we considered for defining HEAL jobs, (For more details see the appendix.) Note, too, that our analysis here is limited to the 390 occupations and approximately three-fourths of all workers for which the 5-year ACS sample provides sufficient data on male share. Figure 10 shows all the occupations on these two axes. Unsurprisingly, HEAL jobs cluster towards the more human-centered end of the scale, and have a lower male share as noted above.
Figure 10
There are notable exceptions to the general trend, however, including firefighters, police supervisors, and clergy, which all rank highly on human-centeredness but are also predominantly male. This indicates that other factors, such as physical demands, risk, or even simply the historical exclusion of women, may lead to an occupation remaining male-coded despite a greater reliance on interpersonal and relational skills. It may also reflect a uniquely male model of caregiving—one that emphasizes rescuing others from harm.
Our hope is that the HEAL classification can animate research and policy in a similar way to STEM, and in an equally important part of the labor market. HEAL jobs may in fact be as important in the 21st century as STEM jobs were in the 20th. If so, future research on HEAL could address several key areas, including but not limited to:
Understanding HEAL occupations better could help policymakers strengthen these professions, through education and skills, incentives, and institutional support—just as with STEM. This will be especially important in areas facing current or potential labor shortages.
A particularly pressing issue is the lack of male representation in the HEAL workforce. Understanding the barriers for boys and men from entering these fields is important. Are cultural perceptions of care-related roles driving men away? Could targeted training programs, role models, or early exposure to these careers make a difference? What is the role of pay? Lowering some of these barriers could help improve the gender balance of HEAL occupations, as well as broaden employment opportunities for men. Getting more women into STEM has been a win for those professions, for women and for society as a whole. The same would be true of a successful effort to increase the share of men in HEAL.
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