Doctor of Philosophy / Curriculum and Instruction / Lotta C. Larson / The transition to college offers students the chance to explore, experiment with, and eventually begin to solidify their identities (Boyd, Hunt, Kandell, & Lucas, 2003), but for students from agricultural backgrounds, leaving home to head to a more urban area for college constitutes a threat to identity (Breakwell, 1986; Cicognani, Menezes, & Nata, 2011; Proshanksy, 1978). Although education research concerning rural students is plentiful (e.g., Antos, 1999; Donehower, Hogg, & Schell, 2012; Durham & Smith, 2006; Lester, 2012), research specific to agrarian students is sparse (e.g., Dees, 2006). The purpose of this qualitative instrumental case study was to explore and describe the experiences of students from agricultural backgrounds as they transitioned to college and how the transition impacted self-perceived identity. In particular, this study inquired into the difficulties and successes faced by study participants, as well as strategies used for coping with the transition from their agrarian homes to their more urban university setting. Four male and four female participants attended a university situated in the Midwest and majored in agricultural education. These university participants were invited to complete two qualitative interviews, submit photographs they felt represented their home and school lives, invite the researcher to observe any facet of their university experience, and submit the most meaningful assignment completed in college. Additionally, three male and two female high school students anticipating the transition to college were interviewed about their perceptions of the upcoming transition. Analysis of research data revealed that participant identities were impacted by the transition to college, their agrarian backgrounds, and their university experiences. Twenty-three distinct codes emerged from the data and were further categorized into six patterns: merging worlds, differences and tensions, “it’s in my blood,” continuing educational legacy/impact, finding self-identity, and can I go home? This study’s results highlighted, first and foremost, the need for universities to keep statistics on rural student enrollment. Additionally, this study emphasized the need for teachers, advisors, and counselors to be mindful of students’ backgrounds and future plans. Finally, this study demonstrated the importance of exposure to more urban areas and educational opportunities for easing the transition to college in students from agricultural backgrounds.

No description available.

Nationwide, mathematical scores have been a topic of concern among elementary and secondary educators for many years. Decreasing math skills are also trickling into post-secondary education, requiring universities to provide additional remedial math instruction in colleges and universities. Studies have been conducted to discover the most effective pedagogical methods of teaching math. Teaching contextualized math has been found to be effective and includes providing a direct application to real-life scenarios rather than teaching linear equations and algebraic principles outside of their application. A study was conducted measuring the effects of integrating mathematical skills in an animal science curriculum. Eight Utah schools participated in the research study. Students received a pretest measuring their existing mathematical skills and self-efficacy in math. All students were taught a unit of instruction about animal nutrition and feeding. The control group received a typical nutrition unit and the treatment group received the same unit of instruction with the addition of mathematical skill integration. Students were taught to use the Pearson Square to calculate feed rations as well as solve basic equations to balance rations. Following the unit of instruction, students completed a posttest survey, which included a math attitudinal scale, posttreatment self-efficacy scale, and posttreatment math skills quiz. There was no statistically significant difference in math self-efficacy or math skills between the control group receiving a typical nutrition unit and the treatment group which received the math-enhanced unit of instruction. Correlational statistics were gathered and showed a strong positive relationship between students' self-efficacy and math skills. Gender, grade level, highest completed math class, and grade received in highest-level math class were not found to be statistically significant predictions of math skills. Highest level of math completed and overall grade point average were statistically significant factors in predicting math self-efficacy.

A descriptive study examining 4-H programs in Africa, Asia, and Europe was conducted for the National 4-H Council. Program size, scope, structure, organization, and funding varied greatly by country and few of the programs were connected to a university, but many partnered with other 4-H organizations around the world. Program participants were found to be primarily male with few programs specifically for women. A list of content areas provided by the 4-H programs was also obtained and compared to top agricultural commodities in their country. Very few content areas offered by the country aligned with their major agricultural commodities even though programs were available in the United States. The Global 4-H Network has the potential to fill in these holes and provide additional opportunities to global programs.

In 2009, the National Academy of Sciences called for a dynamic approach to teaching and learning in colleges of agriculture. In response, innovative faculty at colleges and universities are implementing new frameworks for undergraduate education in the agricultural sciences. The purpose of this study, therefore, was to explore the experience of faculty teaching and learning in sustainable agriculture education curricula at a land grant university. A qualitative research methodology employing a case study approach was utilized. Methods of data collection included semi-structured interviews, participant/observer field notes, and secondary data analysis. This study contributed to understanding faculty work as learning by illustrating the triad approach to teaching and learning in the Civic Agriculture and Food Sytems (CAFS) minor comprising core areas of experiential learning, interdisciplinary teaching and learning, and community engagement. This triad approach to teaching and learning brings together a framework for understanding faculty work as a social practice and the inherent learning that occurs. CAFS faculty upheld the land-grant mission of their institution by promoting community engagement, experiential learning, and interdisciplinary collaboration toward teaching and scholarship. CAFS faculty learned from interactions with other faculty outside and within their disciplinary and departmental homes, which enhanced their teaching/learning experience. Collaborative work was described as a practice where faculty from different disciplinary perspectives and cultural practices engage in a collaborative teaching model that communicates value for resources to administrative leadership and clarifies navigation of faculty reward structures. Additionally, these faculty members were able to participate in an emerging pedagogical practice where service-learning and community partners were embedded in the curriculum, which legitimized the role of the community partner as educator. The findings from this research are expected to be useful for implementation in other sustainable agriculture education programs at other universities. This study may also serve as a catalyst for the adoption of collaborative and interdisciplinary teaching in colleges of agriculture. The implications of this research can inform an assessment methodology for agriculture education programs, as well as to create a framework whereby the essential tenets of the sustainable agriculture education movement in higher education can be promulgated in different disciplines. / Ph. D.

No description available.

<p>  </p> <p>School-based agricultural education programs use laboratories to develop cognitive, psychomotor, and procedural skills (Phipps et al., 2008). It is important to help preservice teachers develop the ability to design instruction to cultivate skills that are taught in laboratory settings. Shulman (1986) authored a term called Pedagogical Content Knowledge (PCK), which is a teacher’s knowledge of teaching. Animal science dissection was the topic chosen for this study, as PCK is topic-specific (Chan & Hume, 2018). There are many interpretations of PCK. The Refined Consensus Model (RCM) of PCK in Science Education (Carlson et al., 2019) was the conceptual model used in this study, as it is the most recent PCK model, and was developed by experts in science education from multiple countries. This model asserts that PCK is comprised of three realms: Collective PCK (cPCK), Personal PCK (pPCK), and Enacted PCK (ePCK). The first purpose of this study was to describe preservice agriculture teachers' Professional Knowledge Bases (which informs pPCK), before and after instruction, on the topic of animal science dissection in a Laboratory Practices in Agricultural Education (LPAE) course. The second purpose was to describe preservice agriculture teachers' cPCK, after instruction, on animal science dissection in an LPAE course. Content Representations (CoRes), a common tool used for PCK research, were used identify evidence of the Professional Knowledge Bases (PKBs) in preservice agriculture teachers’ instructional planning. Results from this study showed elevated descriptions of Professional Knowledge Bases, and participants collectively gained new ideas and collaboration skills. Overall LPAE dissection experience appeared to push the depth of student thinking and ability to make connections with future learning. Future research recommendations include using the RCM of PCK (Carlson et al., 2019) and CoRes in agricultural education; more PCK research, specifically exploring the development of Curricular Knowledge, on preservice teachers in agricultural education; and PCK research on other topics in agricultural education. It is recommended to not only include PCK development in teacher preparation programs but also have more than one exposure to PCK development.</p>