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This study investigates national trends in students’ science, technology, engineering, and mathematics (STEM) occupational expectations by using Program for International Student Assessment (PISA) 2000, 2003, and 2006 data. The analyses in this study revealed several noteworthy national trends in STEM occupational expectations. In many countries students’ computing or engineering (CE) occupational expectations changed between PISA 2000 and PISA 2006, while students’ health service (HS) occupational expectations remained constant. In particular, many developed countries experienced downward national trends in CE occupational expectations among top performers in science. This study also found gender differences in national trends in STEM occupational expectations. In many countries boys’ CE occupational expectations decreased between PISA 2000 and PISA 2006, while girls’ occupational expectations remained unchanged in both CE and HS fields. Finally, the gender gaps in CE occupational expectations converged in many countries, but this convergence was not due to increases in CE occupational expectations among girls, but rather decreases in expectations among boys. Because one of the policy goals in many countries is to promote engagement in STEM education and occupations among students, especially academically talented students, the current findings – national declines in CE occupational expectations among top academic performers – will most likely be viewed as problematic in several countries. Future research should use data collected over longer periods to investigate whether students’ interest in STEM education and occupations increased or decreased in a variety of countries, and whether these patterns varied by student characteristics and performance levels. Moreover, future research must focus on factors that can explain the national trends in student interest in STEM education and occupations.

Research studies indicate African American males face multiple and reinforcing obstacles by choosing to pursue science, technology, engineering, and mathematics (STEM) related majors and professions. Though participation in STEM fields has increased, African American males remain underrepresented in STEM academic programs and occupations as a whole, and in the computing sciences specifically. In the STEM field of computing sciences, isolation, inadequate advisement, among other complex factors, perpetuate the underrepresentation and low persistence of African American males in academic programs. Utilizing viable social identity and communities of practice as theoretical underpinnings, this qualitative study into the lives of aspiring and current African American male computer scientists produced findings that illuminate the significance of what I call STEMfluences, or social interactions that promote socialization, STEM identity, confidence, and success in science, technology, engineering, and mathematics related disciplines like the computing sciences, and promote persistence through degree attainment in homogeneous, unwelcoming STEM academic environments. These STEMfluences are social constructs that include positive peer interactions and modeling, parental and familial nurturing, and multifaceted mentorship.

Research suggests there are at least three challenges to Black male interest and success in STEM careers: increasing access to STEM resources and curriculum, increasing Black and male inclusiveness in STEM initiatives, and increasing cultural and technical competency in STEM fields. African American schools typically do not have equitable STEM resources or instruction. In addition, there is limited research on supporting Black males' success in STEM in the culturally responsive computing (CRC) literature. Most STEM initiatives prioritize increasing the number of girls in STEM fields. STEM field employers are not active recruiters of Black male hires and have little experience with diversity and cultural inclusiveness. Research also suggests that Black students may not be interested working in White corporate America that undervalues their unique cultural perspectives and are more concerned with schooling that improves their communities. This chapter utilized CRC as a lens to examine the complexity of engaging Black males in STEM. As a result, the authors suggest adopting an equity ethic to help teachers help Black males connect themselves and their communities to STEM technology by utilizing smartphones and smartphone technology to engage Black males who may not have access to computers. We end with an example of CRC called barbershop computing, which combines computing, engineering, and innovation as a method to attract and retain Black males in STEM classes and help them persist in STEM careers.

Increased efforts are being made by key entities (e.g., the National Science Foundation) within the United States to support various strategies aimed at broadening participation in science, technology, engineering, and mathematics (STEM) fields. Consistent with these efforts, strategic attention has been placed on targeting African Americans in the computing sciences. Previous research on computing sciences intervention efforts (e.g., Chase & Okie, 2000; Hale, 2002) revealed that even when positive outcomes occur, they tend to vary by gender. As such, this study examined the differential gender outcomes of a computing sciences outreach effort aimed at broadening participation of African Americans in degree programs and career options at predominantly White institutions. The results of this study highlight the need to address the varying needs of targeted participants based on gender when designing and implementing similar programs.

Recent educational initiatives by the Obama Administration have highlighted the need for more racial and ethnic diversity in Science, Technology, Engineering, and Mathematics (STEM) fields (The White House, 2011). While African Americans are underrepresented in faculty positions nationally, accounting for only 5.2% of all academic faculty across all disciplines (Harvey, W. B., & Anderson, E. L. (2005). Minorities in higher education: Twenty-first annual status report. Washington, DC: American Council on Education), the underrepresentation of African Americans in STEM fields such as computing science is even more severe. According to a recent Computing Research Association (CRA) Taulbee Survey, African Americans represent just 1.3% of all computing sciences faculty (CRA, 2006).

This paper examines the benefits of one program that specifically seeks to fulfill the Obama Administration’s initiatives by addressing this disparity in higher education.

The program helps prepare doctoral students for the academic job search process in an effort to increase the ranks of African American faculty in computing sciences.

Though STEM-related jobs have become a critical sector in the United States economy, there remains a severe employment shortage of eligible workers in these fields (Beyer, Rynes, Perrault, Hay, & Haller, 2003; National Science Foundation, 2009). The shortage of workers who possess the necessary skills to fulfill this growing sector of the economy are at a level last reached the middle of the 20th century (ACT, 2006; Jackson et al., in press). Even so, approximately 1.6 million supplementary workers with degrees in the computing sciences will be required to satisfy workforce demands according to the U. S. Department of Labor (Beyer et al., 2003; Hecker, 2001). Social misfortunes have played a significant role in the disproportioned participation rates of ethnic minorities in STEM fields. Although it could be argued that the field of computing sciences has moved to the forefront of STEM within this information-based global economy, very few African Americans productively contribute to the field (Carver, 1994; Gilbert, Jackson, George, Charleston, & Daniels, 2007).

The current era of the fourth industrial revolution has attracted significant research on the use of digital technologies in improving construction project delivery. However, less emphasis has been placed on how these digital tools will influence the management of the construction workforce. To this end, using a review of existing works, this chapter explores the fourth industrial revolution and its associated technologies that can positively impact the management of the construction workforce when implemented. Also, the possible challenges that might truncate the successful deployment of digital technologies for effective workforce management were explored. The chapter submitted that implementing workforce management-specific digital platforms and other digital technologies designed for project delivery can aid effective workforce management within construction organisations. Technologies such as cloud computing, the Internet of Things, big data analytics, robotics and automation, and artificial intelligence, among others, offer significant benefits to the effective workforce management of construction organisations. However, several challenges, such as resistance to change due to fear of job loss, cost of investment in digital tools, organisational structure and culture, must be carefully considered as they might affect the successful use of digital tools and by extension, impact the success of workforce management in the organisations.

The Computing Research Association (CRA) was formed in 1972 as the Computer Science Board (CSB), which provided a forum for the chairs of Ph.D.-granting computer science departments to discuss issues and share information (CRA, 2009). Since 1989, women have never accounted for more than 24% of the computer science faculty at any given rank (e.g., assistant, associate, or full professor). Currently, women represent 21.7%, 15.4%, and 11.7% of computer science faculty at the assistant, associate, and full professor ranks, respectively. Women have been as much as 24% of the Ph.D. graduates in computing in a single year. Since 1998, African Americans have never accounted for more than 2.0%, 1.4%, and 0.7% of the assistant, associate, and full professors, respectively, in computer science. Furthermore, African Americans have never accounted for more than 2% of the Ph.D. graduates in computer science in a single year over that same time period. It appears women and African Americans overall are underrepresented among the ranks of computer science faculty, but to what extent?

“The Computing Research Association (CRA) is an association of more than 200 North American academic departments of computer science, computer engineering, and related fields; laboratories and centers in industry, government, and academia engaging in basic computing research; and affiliated professional societies” (CRA, 2010a). Each year the CRA publishes its Taulbee Survey. “The Taulbee Survey is the principal source of information on the enrollment, production, and employment of Ph.D.s in computer science and computer engineering (CS & CE) and in providing salary and demographic data for faculty in CS & CE in North America. Statistics given include gender and ethnicity breakdowns” (Computer Research Association, CRA, 2010a).

According to national statistics, small numbers of black American women earn science, technology, engineering, and math (STEM) degrees. Instead of focusing on this disturbing, well-documented trend, this chapter explores STEM career success among black female graduate students who enroll in and complete PhD programs. In other words, we are engaged in an effort to address how black women in STEM fields succeed in graduate school. This chapter presents a qualitative look at successful PhD pathways. It will provide data on the pipeline of black women at the high school, undergraduate, and graduate levels; describe programs that the state of Maryland has employed among its public research universities to recruit and retain black women in doctoral programs; present testimonials from black women who have participated in these programs; and offer an extensive case study of 15 black women alumni of these programs who now have PhDs and are establishing their STEM careers. Programs that will be documented as successful for recruiting, mentoring, and retaining black women in STEM include the National Science Foundation's (NSF) University System of Maryland Louis Stokes Alliance for Minority Participation Bridge to the Doctorate program; the NSF's PROMISE: Maryland's Alliance for Graduate Education and the Professoriate (AGEP) program for UMBC, the University of Maryland, Baltimore (UMB), and the University of Maryland, College Park (UMCP); the National Institutes of Health's (NIH) Meyerhoff Graduate Fellows Program in the Biomedical Sciences (Minority Biomedical Research Support – Initiative for Maximizing Student Development (MBRS-IMSD)) at UMBC and UMB; and subprograms such as the Dissertation House (DH), the Community Building Retreat, and the PROF-it: Professors-in-Training program. The case study will include the following questions: What were some of the obstacles that occurred during graduate school, and what helped you to overcome them? Were there any issues that occurred that made you want to quit? If you stopped for a while, or thought about stopping, what were your motivations for returning? Where did you receive mentoring during your graduate school process? What advice would you give to young women who are just starting? The chapter focuses on a variety of methods and practices that successfully shepherd black women from undergraduate ranks to PhD-level careers in STEM fields.