Abstract:Professional skills have long been perceived as lacking in junior engineers. Adopting a social realist theoretical framework of knowledge in practice, a hypothesis-based survey study of early career engineers' perceptions of engineering expertise was conducted. It investigated a professional skills readiness difference between initial career trajectories (hypothesis 1) through an analysis of engineering expertise perception, and whether this difference decreases over time as engineers mature (hypothesis 2). Bo… Show more
“…First, dismissing professional skills as "soft," or otherwise separating them from core engineering course content, misleads students to believe that these skills are optional, void of intrinsic merit, and not essential to their future career trajectories. Literature frequently documents areas where undergraduate perceptions are misaligned with the activities or competencies of practicing engineers (e.g., Flening et al, 2021;Jang, 2016;Lutz & Paretti, 2021;Trevelyan, 2019), and no wonder-for decades, most industry reports have called for engineers with strong interpersonal and communication skills. However, new graduates entering the workforce are surprised by the distribution of daily activities pertaining to social skills, collaboration, and communication (e.g., Domal & Trevelyan, 2009;Trevelyan & Tilli, 2008).…”
As everyone is aware, languages, economics, and social sciences are generally treated as "extras" in [engineering] curricula, and are as generally regarded as superfluous "chores" by the students. The difficulty in present school practices evidently lies in the exclusion from the technical work of all consideration of the questions of human values and costs; and, conversely, the isolation of the humanistic studies from all technical interest. (Mann, 1918, p. 92) Engineering education in the United States grapples prodigiously with the role that humanities should play in the formation of engineers. Founders in our discipline like Charles Mann (1918) and William Wickenden (1926, 1927, 1938) laid the groundwork for the inclusion of humanities, social sciences, and communication in the engineering curriculum even before the Grinter Report described recommendations that included "a continuing, concentrated effort to strengthen and integrate work in the humanistic and social sciences into engineering programs [and] an insistence upon the development of a high level of performance in the oral, written, and graphical communication of ideas" (Committee on Evaluation of Engineering Education, 1955Education, /1994. All these publications, which might have been written just yesterday but for the antiquated language, formed the architecture for today's accreditation standards, the effects of which have been thoroughly reviewed by other scholars (e.g.,
“…First, dismissing professional skills as "soft," or otherwise separating them from core engineering course content, misleads students to believe that these skills are optional, void of intrinsic merit, and not essential to their future career trajectories. Literature frequently documents areas where undergraduate perceptions are misaligned with the activities or competencies of practicing engineers (e.g., Flening et al, 2021;Jang, 2016;Lutz & Paretti, 2021;Trevelyan, 2019), and no wonder-for decades, most industry reports have called for engineers with strong interpersonal and communication skills. However, new graduates entering the workforce are surprised by the distribution of daily activities pertaining to social skills, collaboration, and communication (e.g., Domal & Trevelyan, 2009;Trevelyan & Tilli, 2008).…”
As everyone is aware, languages, economics, and social sciences are generally treated as "extras" in [engineering] curricula, and are as generally regarded as superfluous "chores" by the students. The difficulty in present school practices evidently lies in the exclusion from the technical work of all consideration of the questions of human values and costs; and, conversely, the isolation of the humanistic studies from all technical interest. (Mann, 1918, p. 92) Engineering education in the United States grapples prodigiously with the role that humanities should play in the formation of engineers. Founders in our discipline like Charles Mann (1918) and William Wickenden (1926, 1927, 1938) laid the groundwork for the inclusion of humanities, social sciences, and communication in the engineering curriculum even before the Grinter Report described recommendations that included "a continuing, concentrated effort to strengthen and integrate work in the humanistic and social sciences into engineering programs [and] an insistence upon the development of a high level of performance in the oral, written, and graphical communication of ideas" (Committee on Evaluation of Engineering Education, 1955Education, /1994. All these publications, which might have been written just yesterday but for the antiquated language, formed the architecture for today's accreditation standards, the effects of which have been thoroughly reviewed by other scholars (e.g.,
“…A primary reason is that it offers engineering students an opportunity to learn informal engineering skills. Although these skills are otherwise difficult to teach in higher education, the engineering discipline of a (secondcycle) engineering student can come with the expectation to quickly master such skills [20]. This cooperation also aligns well with strong contemporary initiatives such as CDIO [21], which seek to define best practice in the context of engineering education.…”
Section: Theoretical Backgroundmentioning
confidence: 60%
“…Engaging with the virtuous cycle regarding second-cycle students can both be appreciated by old colleagues and enable SMEs to hunt for talents aligned with growth needs. In fact, if this is based on a strong mutual trust it might enable secondcycle students to learn informal skills [17] and transition more easily to industry [20]. However, given the strong emphasis I and Table II, with technical consultancy highlighted in white.…”
Section: A the Academic Boundary Spannermentioning
This Research Full Paper relates to public-private innovation ecosystems. This loosely knit form of cooperation allows for beneficial activities such as knowledge transfer, dissemination of novel technology, and recruitment. In these contexts students graduating from third-cycle education should be able to find opportunities for transferring to knowledge-intensive positions in small and medium-sized enterprises (SMEs).However, a 3-year study of the reasons why firms approach public organisations within a Europe-wide, public-private innovation ecosystem suggests that students might struggle to find such opportunities. Through a questionnaire provided to all firms approaching the ecosystem we identify recruitment as one of their lowest ranked interests. By interviewing members of the public organisations found in the ecosystem we identify how cooperation is initiated and maintained, and how this influences the opportunities for students to transfer into industry. The results provide nuance to the current emphasis in skill development within third-cycle (engineering) education. It is rarely recognized that fostering technical skill and academic entrepreneurship might not be enough to allow all types and sizes of firms to receive engineering students.Particularly, this study identifies the academic and industrial boundary spanning roles at knowledge-intensive SMEs as important. These roles require a third-cycle education that early on hones skills that typically do not become critical until much later for students that pursue an academic path -e.g., the interorganisational project management skills necessary to effectively seek research funding or to negotiate goal alignment between organisations. We argue that to allow third-cycle students to practice the finer points of such skills, universities need to evolve more distributed support structures for innovation that integrate in-depth engineering knowledge with innovation skills and have an increased focus on human and social capital.
“…These objections are more pronounced in economically underdeveloped areas of developing nations that have not yet achieved higher education for all citizens. Broo et al (2022), Flening et al (2022), Munir (2022), and Jiang and Chen (2022) agree that the optimal development of an engineering profile requires the enhancement of the following cross-curricular skills: deductive reasoning, inductive reasoning, leadership, teamwork, meticulousness, and multidisciplinarity.…”
This study explores the effectiveness of online and blended teaching methods in developing cross-curricular skills crucial for an ideal engineering profile among undergraduate students. Involving 587 online and 635 blended students across 11 Latin American universities, the research incorporates Likert tests for student perceptions and Mann-Whitney statistical tests for hypothesis scrutiny. Challenges emerged due to diverse academic contexts and the subjective nature of self-reported perceptions. Despite these hurdles, findings highlight the blended method’s superior effectiveness in fostering key engineering skills. The study not only contributes to teaching method exploration but also addresses challenges in cross-cultural research settings, enhancing our understanding of the complexities and adaptations required for cross-curricular skill development in engineering education.
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