Tag

instruction

Instructor Levels of Importance and Competence With Alabama Agricultural Mechanics Standards

Authors

Brook Faulk, Auburn Community High School, absfaulk@auburnschools.org

Jason D. McKibben, Auburn University, jdm0184@auburn.edu

Christopher A. Clemons, Auburn University, cac0132@auburn.edu

James R. Lindner, Auburn University, jrl0039@auburn.edu

PDF Available

Abstract

School-based agricultural education (SBAE) teachers formally acquire requisite skills across many content-based curricula pathways. This study aimed to understand Alabama agricultural mechanics teachers’ perceived levels of competence with and the importance of Alabama agricultural mechanics standards. The participants were purposively stratified, including being a practicing SBAE teacher in Alabama with experience teaching agricultural mechanics, access to agricultural mechanics laboratory spaces, and currently teaching SBAE. The average participant in this study was a white male teacher who had been teaching for six to 11 years, and either was currently teaching or had taught agricultural mechanics in the past. Participants reported their perceived levels of importance and competence using interval-based measurement scales framed using the Borich Scale Analysis. The conclusions of this study suggested that standards connected to General Safety (Standard 1) and Electrical Wiring Tools (Standard 9) were “Very important.” While nine of the remaining ten standards (2, 3, 4, 5, 7, 8, 10, 11, & 12) were determined to be “Important.” More research needs to be done to understand the perceived barriers agriculture instructors in Alabama experience when implementing the agricultural mechanics curriculum standards in their classrooms.

Introduction

School-based agricultural education (SBAE) is integral to many public school systems. It serves the learning needs of students while helping to provide the future workforce for the farming industry and its allied sectors (Eck & Edwards, 2019). Clemons et al. (2018) discussed the importance of SBAE for developing competent and energetic students ready to embrace the needs of the 21st – century workforce. Clemons et al. (2018) further emphasized the importance of agriculture education as a “[l]lifelong journey of utilizing foundational skills and training for anticipated societal needs for the development of a well-trained and motivated student.” (p. 87).

In 2015, The National Council for Agricultural Education established content standards in eight career pathways, known as the National Agriculture, Food, and Natural Resources (AFNR) content standards (NCAE, December 2023). Science, math, communications, leadership, management, and technology are integral components of a comprehensive SBAE program (NAAE, December 2023). McKibben and Murphy (2021) recognized the applied, practical, and experiential nature of agricultural education’s reinforcement of the concepts taught in core classes. Howerton et al. (2019) specifically addressed the importance of preparatory programs to address the value of graduates entering the workforce with lifelong skills.

Talbert et al. (2014) defined a learning standard as “the expectation of what students should know and be able to do after completing the class.” (p. 137). Although content standards may provide pedagogical directives, SBAE teachers are tasked with the deconstruction, delivery, and evaluative performance relative to the success of standards-based instruction. Essentially, learning standards exist to guide the educator to identify student learning opportunities and evaluate student performance. Collectively, learning standards outline a content-rich curriculum for the establishment of career pathway preparation.

Career pathways often include (a) power, (b) structural and technical systems, (c) plant systems, (d) natural resource systems, (e) food products and processing systems, (f) environmental service systems, (g) biotechnology systems, (h) animal systems, and (i) agribusiness systems (NCAE, 2023). These content disciplines ground agricultural education instruction while the agriculture teacher’s strengths, talents, and preparatory programs frame a pragmatic approach to student learning. Each pathway uses instructional learning standards to ensure that learning objectives and goals are universal across all SBAE programs in Alabama. Power, structural, and technical systems are ubiquitously and traditionally called agricultural mechanics. Agricultural mechanics is a long-standing and foundational career pathway in many SBAE programs, requiring the SBAE teacher to have sound preparatory skills to deliver instruction safely and effectively (Hainline & Wells, 2019; Saucier et al., 2014). SBAE teachers are equipped to teach several pathways within Agriculture, Food, and Natural Resources (AFNR).

According to the National FFA Organization (2016), over 11,000 SBAE programs exist in the United States. Clark et al. (2021) reported that 59% of those programs offered agricultural mechanics courses, which are almost exclusively experiential and laboratory-based (McKibben et al., 2023). Shoulders et al. (2013) emphasized the importance of laboratory instruction in creating experiential learning opportunities that the teacher can successfully facilitate to increase students’ positive learning gains. Laboratory spaces in agricultural education often include greenhouses, farms, and agriculture mechanics facilities for student instruction and experience (Hancock et al., 2023). Positive learning outcomes are usually associated with how students interact with the instructional content delivered (McKibben et al., 2023). The value of instructional facilities dedicated to the development of cognitive analysis, critical thinking, and the development of problem-solving capacities is a vital component of the entire SBAE program (Clark et al., 2021; Cooper, 1992; Johnson & Schumacher, 1989; Phipps et al., 2008).

The SBAE teacher’s awareness of content and pedagogy significantly impacts how the agricultural mechanic’s laboratory is used (Rice & Kitchel, 2018). Newcomb et al. (1993) reported that preservice agriculture teachers and practicing teachers realize that staying updated on their current knowledge and skills is essential. Harlin et al. (2007) found that specific competencies, specifically broad content knowledge and content specialization, are critical to the success of a SBAE teacher. Teachers must take the initiative to have adequate preparation and experience in an agricultural classroom and laboratory to lead their instruction successfully. Clark et al. (2021) reinforced the value of teacher preparation in the mechanical sciences to develop future employees with basic mechanical aptitude and skills. Hubert and Leising (2000) suggested a need for sound laboratory and shop management instruction due to the significant time SBAE teachers spend in laboratories. McKibben et al. (2022a) spoke about the deficient levels of efficacy in basic agricultural mechanics skills with incoming preservice teachers, especially those who were highly active when they were agriculture students, the largest group of new teachers (McKibben et al., 2022b). With a large percentage of time spent in an agricultural mechanics laboratory, secondary and preservice agricultural education teacher candidates must be competent in multiple skills to effectively teach agricultural mechanics (Byrd et al., 2015).

Conceptual Framework

A needs assessment approach was conducted to better address the realities of SBAE teachers’ instructional experiences when teaching agricultural mechanics standards. Needs assessment frameworks have often been used in agricultural education research to understand better the skills, knowledge, interests, and desires of SBAE teachers for their instructional and professional development. Numerous studies (Clemons et al., 2018; Salem et al., 2023; Weeks et al., 2020; Wells & Hainline, 2024) in SBAE have addressed the frameworks for needs assessment studies to identify the needs of teaching professionals more accurately.

Using reliable measurement tools is vital to understand better Alabama SBAE teachers’ perceptions of standards-based instruction in agricultural mechanics. Specifically, when asking potential participants to assess their levels of competence and determine the degrees to which they value the importance of standards-based education, the Borich (1980) scale was most appropriate. According to Borich (1980), the measurable gap between importance and competence helps focus the chasm between importance and competence.  

The Borich assessment model for conducting follow-up studies is often used in agriculture education research to identify participants’ perceptions of various topics (Clemons et al., 2018; Duncan et al., 2005; Garton & Chung, 1996; Layfield & Dobbins, 2002; Ray et al., 2023; Saucier & McKim, 2011; Sorenson et al., 2010; Yopp et al., 2017). The use of the Borich model in this study is bound within the use of 12 AFNR and Alabama agriculture mechanics teaching standards. Borich (1980) pioneered his model by designing a survey instrument that weighs and ranks needs in order of respondent priorities, allowing the responses to be linked to a practical decision framework to improve the competency importance of the standards. Borich models attempt to gather additional information from respondents regarding their current knowledge of the topic under investigation and their ability to apply learning skills (Alibaygi & Zarafshani, 2008). Competency models such as the Borich needs assessment model are designed around the skills individuals and groups need to be effective in the future and are used to make human resources decisions (Alibaygi & Zarafshani, 2008).

Purpose and Research Objective

This quantitative study investigated Alabama SBAE teachers’ experiences implementing agricultural mechanics curriculum standards in their classrooms. This study aimed to understand Alabama agricultural mechanics teachers’ perceived levels of competence with and the importance of Alabama agricultural mechanics standards.

Methods

A statewide study was conducted to understand SBAE teachers’ training needs and levels of importance/confidence regarding Alabama agriculture mechanics teaching and learning standards. The participants of this study consisted of 28 purposively selected Alabama SBAE teachers. Participants were selected to participate in the study if they had access to agricultural mechanics laboratory facilities, actively taught agricultural mechanics courses, and were teaching SBAE in Alabama. The participant frame for this study was obtained and accessed using the Alabama Association of Agriculture Education teachers’ digital membership roster. The membership roster contained only currently teaching SBAE teachers who are current and paid members of Alabama association. Participants with incomplete or missing data were removed from the potential population to reduce the potential for error. Consideration was given to the accuracy of the membership list as described by Lindner et al. (2001). Membership lists could contain missing or erroneous information about the participant population. To mitigate possible errors in membership reporting, a review panel consisting of Auburn University faculty, state agricultural education staff, and current practicing SBAE teachers in Alabama reviewed the membership data for accuracy and potential exclusion of participants with incorrect information.

The instrument for this study was adapted from Ray et al. (2022) study addressing the professional development needs of SBAE teachers in Georgia and modified to address the parameters of this investigation. The instrument consisted of 12 learning standard statements to address participants’ confidence in teaching each of the 12 standards. The standards were arranged in the Borich model using interval measurement scales to determine participant responses: 1) very important/very competent, 2) important/competent, 3) somewhat important/somewhat competent, 4) of little importance/little competence, and 5) not important/not competent. A three-column instrument was developed where Alabama agriculture mechanics standards and their descriptions were displayed between the importance and competence columns in the center column.

A pilot study was conducted to address content and face validity with a representative group (n = 8) of dual roles SBAE teachers in Alabama and Georgia who also serve as adjunct professors at Auburn University and met the criteria for participants in this study (Lindner et al., 2001). The pilot study was used to reduce measurement error while maintaining that the statements and questions aligned with this study’s research objectives (Dillman et al., 2014).

The pilot study was distributed using Qualtrics for panelists to address sentence structure, inclusivity, appropriateness of the Borich model, and any technological challenges associated with unique email address links, progression through the instrument, and submission. Pilot study participants recommended various changes to the language’s syntax, aesthetics of the instrument’s user interface, and minimal language changes. The recommended changes were incorporated to ensure the face and content validity of the instrument addressing the research objectives.

Purposively selected participants (N = 28) were contacted using Qualtrics distribution lists from [STATE ASSOCIATION] membership rosters. The initial email was structured according to Dillman et al. (2014) suggestions for recruitment, instruction, and delivery of email-based survey instruments. Three email reminders were sent to the potential respondents at one-week intervals. A comparative analysis between early and late participants was conducted using randomly selected variables to address the potential for and control of non-response error (Lindner et al., 2001). An independent t-test indicated no statistical differences between early and late study participants. Descriptive analyses were used to evaluate the resulting t-test data and were consistent with established methods reported by Blackburn et al. (2017).

Participant Characteristics

The participants of this study (Table 1) consisted of 28 (N = 28) SBAE teachers in Alabama, and the response rate was 100% (N = 28). Eleven participants reported actively teaching the agricultural mechanics pathways. Eleven participants reported that agricultural mechanics pathways had been taught but were not currently taught, and eight (f = 8) participants did not teach the agricultural mechanics pathway but would like to in the future.

Male teachers comprised the largest gender group of participants (f = 23). Six (f = 6) respondents were female, while one respondent (f = 1) preferred not to say (Table 1). Participants were asked to report their race using an open-ended question. White/Caucasian participants represented most respondents (f = 29), and one participant (f = 1) preferred not to say. The data was further analyzed by the number of years participants had taught. Four (f = 4) participants had been teaching for less than one year, and five (f = 5) participants had been teaching for one to five years. Of the participants, ten had been teaching for six to 10 years. Two (f = 2) respondents indicated that they had been teaching SBAE for 11 to 15 years, three (f = 3) participants had taught between sixteen and 20 years, and six (f = 6) indicated that they had been teaching between 21 and 25 years.

Table 1

Personal Characteristics of Participants

Personal Characteristicsf%
Gender  
Male2377.00
Female620.00
Prefer Not To Say13.00
Total30100.00%
Race  
Caucasian2996.70
Prefer Not To Say13.30
Total30100.00%
Years Teaching  
< 1413.00
1 – 5517.00
6 – 101033.00
11 – 1527.00
16 – 20310.00
21 – 25620.00
Total30100.00%

Results

The data and results of this study are represented in table (Table 2) and narrative format, and the findings are described in the context of Alabama SBAE teachers’ characteristics, perceived importance, and levels of competence of Alabama agriculture mechanics standards. The instrument consisted of 12 statements about the importance and competence of including agriculture mechanics teaching and learning standards in SBAE curricula.

Research Objective One: Better understand Alabama agricultural mechanics teachers’ perceived levels of competence with and importance of Alabama agricultural mechanics standards. Results were calculated using the mean score and standard deviation of teachers’ competency levels and significance. After collecting personal characteristics, two participants were removed from the study due to non-response.

Table 2

Participant Levels of Competence and Importance Related to Standards

StandardStandard CodeCompetenceImportance
  MSDMSD
Standard OneBlinded4.960.194.600.56
Standard TwoBlinded4.700.464.400.73
Standard ThreeBlinded4.600.573.700.96
Standard FourBlinded4.800.443.900.97
Standard FiveBlinded4.400.683.600.98
Standard SixBlinded4.301.073.401.18
Standard SevenBlinded3.901.184.400.77
Standard EightBlinded4.400.623.930.83
Standard NineBlinded3.871.144.600.57
Standard TenBlinded4.401.073.801.08
Standard ElevenBlinded4.500.834.200.74
Standard TwelveBlinded4.400.633.700.89

Standard One (Blinded): Incorporating Safety Procedures When Handling, Operating, and Maintaining Tools and Machinery, Handling Materials, Utilizing Personal Protective Equipment, Maintaining a Safe Work Area, and Handling Hazardous Materials and Forces

The mean competence score for standard one was M = 4.96, with a standard deviation of SD = 0.19. The aggregated level of importance was M = 4.60, with a standard deviation of SD = 0.56. Most respondents (f = 26) reported standard one as very important and felt competent to incorporate the skills into their lessons. One participant (f = 1) indicated that standard one was very important but only felt somewhat competent when including the standard in their lesson. One fn = 1) teacher reported standard one as important and felt competent in incorporating it into their agricultural mechanics lessons.

Standard Two (Blinded): Instructing Students to Utilize Power Tools to Construct and Maintain Systems Within the Agriculture Industry

The mean competence score for standard two was M = 4.40, with a standard deviation of SD = 0.46. The aggregated level of importance was M = 4.60, with a standard deviation of SD = 0.73. Participants (f = 15) indicated standard two to be very important while feeling very competent in teaching it in their classroom. Five (f = 6) teachers indicated that standard two was very important and reported that they felt competent in teaching the standard. Four teachers (n = 4) reported standard two as both important and felt competent in incorporating the standard of their teaching. Participants (f = 4) indicated that using power tools for constructing and maintaining systems was important, although they only felt somewhat competent in teaching these concepts.

Standard Three (Blinded): Properly Using Metal Fabrication Tools and Equipment in SBAE Classrooms

The mean competence score for standard three was M = 4.60, with a standard deviation of SD = 0.57. The aggregated level of importance was M = 3.70, with a standard deviation of SD = 0.96. Seven teachers (n = 7) considered the standard important and felt competent. Six teachers (f = 6) believed standard three was important and felt competent when teaching students. Five teachers (f = 5) reported the standard as somewhat important and felt competent. Four teachers (f = 4) indicated they felt somewhat competent and believed the standard was important. Three teachers (f = 3) reported that the standard is somewhat important and felt somewhat competent when teaching the skills addressed in the learning standard. Teachers reported the standard as somewhat important (f = 3) but thought they needed more confidence in applying it in their curricula.

Standard Four (blinded) Students Will Be Able to Identify Electrical Hazards and Explain Ways to Avoid or Minimize Them in Agricultural Construction

The mean competence score for standard four was M = 4.80, with a standard deviation of SD = 0.44. The aggregated level of importance was M = 3.90, with a standard deviation of SD = 0.97. In contrast to teachers’ competency levels, the importance of the standard was of less concern and was supported by the clustering of responses using the standard deviation of scores. Nine teachers (f = 9) thought standard four was important and felt competent in incorporating it into their curriculum. Seven (f= 7) reported that standard four was very important while feeling competent with teaching the standard. Increasing levels of agreement among teachers showed that four fn = 4) thought standard four to be very important and felt somewhat competent to teach it, and four (f = 4) indicated the standard was important and competent. Two teachers (f = 2) believed the standard was very important but only felt slightly competent in the associated skills, and two teachers (f = 2) found standard four to be important while feeling somewhat competent in teaching the standard. One teacher (f = 1) described the standard as important and felt slightly competent.

Standard Five (blinded): Recommended Maintenance Techniques for Troubleshooting Industrial Maintenance Issues in Various Types of Machinery

Standard five’s mean competence score was M = 4.40, with a standard deviation of SD = 0.98. The aggregated level of importance was M= 3.60, with a standard deviation of SD = 0.98. Seven teachers (f = 7) felt the standard was important and competent to teach the standard, while six participants (f = 6) found standard five to be very important and competent. Four teachers (f = 4) showed the standard to be very important and felt somewhat competent. Three participants (f = 3) reported standard five as important. However, they only felt slightly competent when teaching maintenance procedures, and three teachers (f = 3) indicated that standard five was somewhat important and felt somewhat competent. Three teachers (f = 3) reported standard five as important and somewhat competent when embedding this standard in their agricultural mechanics curricula. Two teachers (f = 3) stated that standard five was very important and felt competent.

Standard Six (blinded): Develop Students’ Skills To Describe The Difference Between System Grounding and Agricultural Wiring

Standard six’s mean competence score was M = 4.30, with a standard deviation of SD = 1.07. The aggregated level of importance was M = 3.40, with a standard deviation of SD = 1.18. Seven teachers (f = 7) reported standard six as very important. They also felt very competent in teaching the skills, and four (f = 4) teachers claimed standard six to be very important and felt somewhat competent. Three teachers (f = 3) indicated standard six was important and felt somewhat competent, and three (f = 3) teachers indicated standard six to be very important and felt competent when teaching the standard. Three teachers (f = 3) reported standard six to be very important in addition to feeling slightly competent in their ability to incorporate it into their lessons. In contrast, two participants (f = 2) indicated standard six as somewhat important while feeling slightly competent. One teacher (f = 1) believed the standard to be important but did not feel competent in teaching it, one teacher (f = 1) reported the standard to be important and felt slightly competent, one (f = 1) felt that standard six was not important but felt somewhat competent. Individual teachers believed that standard six was slightly important and felt somewhat competent (f =1), the standard was somewhat important and somewhat competent (f = 1), and one  (f = 1) responded that the standard was somewhat important and felt competent.

Standard Seven (blinded): Students Will Identify Factors to Consider In Selecting Building Materials For Agricultural Structures

Standard seven’s mean competence score was M = 3.90, with a standard deviation of SD = 1.18. The aggregated level of importance was M = 4.40, with a standard deviation of SD = 0.77. Ten teachers (f = 10) reported standard seven as very important. They felt very competent; five teachers (f = 5) ranked this standard to be important and felt competent in teaching, and three teachers (f = 3) indicated standard seven to be somewhat important and felt somewhat competent, and three (f = 3) claimed standard seven to be very important and indicated themselves as somewhat competent in teaching it. Two teachers (f = 2) considered standard seven very important while feeling competent. Two teachers (f = 2) stated this standard as important to teach and felt very competent.One teacher (f = 1) indicated this standard to be somewhat important, whereas they thought they needed to be more competent; one teacher (f = 1) stated the standard to be important, though they did not feel competent. One teacher (f = 1) reported standard seven as very important and felt slightly competent.

Standard Eight (blinded): Students Will Explain and Demonstrate Safety Techniques for Using Oxy-fuel Equipment, Including Setting Up and Shutting Down, Lighting and Adjusting a Torch, Disassembling The Equipment, Changing Cylinders, Cutting Straight Lines and Square Shapes, Piercing and Slot Cutting

Standard eight’s mean competence score was M = 4.40, with a standard deviation of SD = 0.62. The aggregated level of importance was M= 3.93, with a standard deviation of SD = 0.83. Nine (f = 9) respondents indicated this standard to be important and felt competent to teach the skills related to the standard. Six teachers (f = 6) reported the standard to be very important and very competent, and four (f = 4) teachers indicated this standard to be very important but only felt somewhat competent. Four (f = 4) respondents reported standard eight to be very important and felt competent, and two (f = 2) teachers indicated the standard as important and felt slightly competent in teaching. Two teachers (f = 2) believed standard eight to be somewhat important and felt competent. In contrast, one (f = 1) respondent reported the standard as important and felt very competent.

Standard Nine (blinded): Students Will Be Able To Identify Tools Used For Electrical Wiring and Demonstrate Their Use

Standard nine’s mean competence score is M = 3.87, with a standard deviation of SD = 1.14. The aggregated level of importance was M= 4.60, with a standard deviation of SD = 0.57. Seven (f = 7) teachers reported standard nine to be very important and felt very competent. Five teachers (f = 5) indicated standard nine as important and competent to teach. In comparison, five teachers (f = 5) indicated standard nine to be very important and felt competent when teaching the skills of the standard. Three teachers (f = 3) reported standard nine as very important and felt somewhat competent. Three teachers (f = 3) indicated that standard nine was important and felt very competent when incorporating electrical tool identification into their lessons. Two teachers (f = 2) indicated standard nine as important. They felt somewhat competent, and one teacher (f = 1) responded that they believed the standard was important but needed to feel more competent when teaching the skills. One teacher (f = 1) believed standard nine to be very important but needed to feel more competent. One teacher (f = 1) reported that standard nine was very important but only felt slightly competent.

Standard 10 (blinded): Calculate Equipment and Workspace Requirements for Building Agricultural Structures

Standard 10’s mean competence score was M = 4.40, with a standard deviation of SD = 1.07. The aggregated level of importance was M= 3.80, with a standard deviation of SD = 1.08. Eight teachers (f = 8) believed Standard 10 was very important and felt very competent. Five teachers (f = 5) ranked Standard 10 as important and felt competent when teaching students how to calculate equipment and workspace requirements for agricultural structures. Three teachers (f = 3) responded that the standard was important while feeling slightly competent when teaching, and three teachers (f = 3) believed the standard wasvery important and felt somewhat competent. Three teachers (f = 3) indicated that Standard 10 was very important and felt competent. Two teachers (f = 2) believed Standard 10 to be important in addition to feeling somewhat competent in their ability to incorporate it into their lessons; two teachers (f = 2) reported Standard 10 as somewhat important while feeling competent to teach the standard. One teacher (f = 1) indicated that Standard 10 was important and felt slightly competent. One teacher (f = 1) reported the standard as very important and felt slightly competent.

Standard 11 (blinded): Students Will Participate in Supervised Agricultural Experiences (SAE) and Work-Based, Experiential, and Service Learning

The mean competence score for Standard 11 was M = 4.50, with a standard deviation of SD = 0.83. The aggregated level of importance was M = 4.20, with a standard deviation of SD = 0.74. Ten teachers (f = 10) believed Standard 11 was very important and felt very competent in directing SAE and service-learning experiences. Six teachers (f = 6) thought Standard 11 was very important and felt competent in teaching the standard. Three teachers (f = 3) indicated Standard 11 as somewhat important. They felt competent to incorporate it into their lessons, and three teachers (f = 3) reported standard eleven as important while also feeling competent. Two teachers (f = 2) reported that Standard 11 was important and felt somewhat competent. In comparison, two teachers (f = 2) ranked Standard 11 as very important but only felt somewhat competent when teaching SAE and service-learning experiences. Two teachers (f = 2) believed standard eleven was important and felt very competent.

Standard 12: (blinded): Identify Specific Tools Used on Agricultural Engines and Demonstrate Their Use

The mean competence score for Standard 12 was M = 4.40, with a standard deviation of SD = 0.63. The aggregated level of importance was M= 3.70, with a standard deviation of SD = 0.89. The largest group of teachers (f = 10) believed that standard twelve was important, and they felt competent to teach tools used for agricultural engines. Five teachers (f = 5) indicated that Standard 12 was very important. They felt competent to teach, and four teachers (f = 4) believed standard twelve was very important but only felt somewhat competent. Four teachers (f = 4) reported that standard twelve was very important and felt very competent when teaching. Two teachers (f = 2) believed standard twelve was slightly important and felt competent to teach the skills. Two teachers (f = 2) thought the standard was important and were only somewhat competent. One teacher (f = 1) reported that the standard was important but needed to feel more competent.

Conclusion, Implications, and Recommendations

Conclusions

Teachers felt that standards connected to General Safety (Standard 1) and Electrical Wiring Tools (Standard 9) were very important. In comparison, nine of the remaining ten standards (2, 3, 4, 5, 7, 8, 10, 11, & 12) were considered important. The highest level of importance, with the least variability, is being put on the standard covering general safety; this supports the work of Hancock et al. (2023), which suggests that safety is the most significant concern for SBAE teachers. The question has been raised in research presentations as to the fidelity of the statement and if it is part of a learned response where teachers feel anything less than very important would not be appropriate, no matter their honest opinions (Hancock et al., 2022). Standard six did not meet the determined threshold for this study: “Describe the difference between system grounding and equipment grounding related to agricultural wiring.” Participants rated it as somewhat important.

Using the same conventions of interpreting the true limits for interval measurement type data (Lindner & Lindner, 2024), teachers felt very competent in their ability to incorporate five of the standards: General Safety (Standard One), Power Tools (Standard Two), Metal Fabrication Tools (Standard Three), Electrical Hazards (Standard Four), and Supervised Agricultural Experience/Work-based Learning (Standard Eleven). They also reported they were competent in incorporating the remaining seven standards: Maintaining and Troubleshooting Machines (Standard Five), System Grounding and Equipment Grounding (Standard Six), Selecting Building Materials (Standard Seven), Oxy-Fuel Related (Standard Eight), Electrical Wiring Tools (Standard Nine), Equipment and Workspace requirements for Structures (Standard Ten), and Tools for Engines (Standard Twelve). Both competent and very Competent were determined to be appropriate levels for these teachers in their self-determined competencies.

Implications and Recommendations

The average participant in this study was a white male teacher who had been teaching for six to eleven years, and either was currently teaching or had taught agricultural mechanics in the past. This finding does not represent the changed demographics of SBAE teachers as has been reported by (McKibben et al., 2022a), indicating that either Alabama’s teacher demographics do not mirror the national trends, or more likely, those who would respond to an instrument about agricultural mechanics are more likely to be male, older, and white. Future work should address why or if either Alabama or the discipline of agricultural mechanics remains male-dominated.

The teachers in this study overwhelmingly reported that safety was very important. These unsurprising results of this single-state paper support the larger body of evidence that SBAE teachers, specifically those teaching agricultural mechanics, respond to any question about safety and its importance with quick and written responses. While safety is important, and it would not be wise to suggest in any form that it was not, there is the possibility that our development of a culture of safety within agricultural mechanics has been more focused on the recognition of safety as important and less on the implementation of long-term safety habits as our industry partners would suggest would be appropriate. After all, what does it mean to, as standard one says: “Incorporate safety procedures in handling, operating, and maintaining tools and machinery; handling materials; utilizing personal protective equipment; maintaining a safe work area; and handling hazardous materials and forces.” While this standard appears specific in its prolific use of vocabulary, it does little to address what any of those words mean or how to address the standard pragmatically. It has been shown that when SBAE teachers speak about safety, they speak in housekeeping and safety glasses, not in developing a safety culture and safe decision-making.

The standard not reaching the minimum threshold for importance: “Describe the difference between system grounding and equipment grounding related to agricultural wiring,” when compared to the other eleven standards, appears to be the most specific and relatively esoteric. It would be safe to say that SBAE teachers not teaching specifically about electrical motors or motor controllers would never need to reach this standard. This standard is singular in its specificity, and though likely crucial in specific areas where electric motors and motor controls are prevalent, we determined that its overly detailed characteristic results in some SBAE teachers viewing it as less important.

Though not originally part of this study, these objectives could be viewed from the lens of specificity and generality. One interpretation of the data is that rankings of importance should be more about the standards of importance to an agricultural industry. Instead, the rankings may be more of a representation if the standard is written in a general enough way that local decisions can be made regarding how to interpret the meaning of the standard in the norms of local agricultural industries. What is done in a region of all-row cropping should look different than what is done in an area of predominantly ruminant animal agriculture, and levels of variability need to be allowed in the writing of the standards. Further study should be conducted on the level of specificity and prescription, as well as SBAE teachers’ views on the importance of that standard.

References

Alabama High School Athletic Association. (2022). 2024 reclassification. https://www.ahsaa.com/Portals/0/PDF’s/AHSAA/AHSAA/Re-Classification/2022-2024/2022-2024%20Classification.pdf?ver=0DtCm0opi6OvcUcAkdnr4g%3D%3D&timestamp=1639497592551

Alibaygi, A., & Zarafshani, K. (2008). Training needs of Iranian extension agents about sustainability: The use of Borich’s need’s assessment model. African Journal of Agricultural Research, 3(10), 681–687. http://www.academicjournals.org/AJAR

Blackburn, J. J., Bunch, J. C., & Haynes, J. C. (2017). Assessing the relationship of teacher self-efficacy, job satisfaction, and perception of work-life balance of Louisiana agriculture teachers. Journal of Agricultural Education, 58(1), 14–15. https://doi.org/10.5032/jae.2017.01014

Borich, G. D. (1980). A needs assessment model for conducting follow-up studies. Journal of Teacher Education, 31(3), 39-42. https://doi:10.1177/002248718003100310

Byrd, A. P., Anderson, R. G., Paulsen, T. H., & Schultz, M. J. (2015). Does the number of post-secondary agricultural mechanics courses completed affect teacher competence?  Journal of Agricultural Education. 56(1), 20-31. https://doi:10.5032/jae.2015.01020  

Clemons, C. A., Heidenreich, A. E., & Lindner, J. R. (2018). Assessing the technical expertise and content needs of Alabama agriscience teachers. Journal of Agricultural Education, 59(3), 87–99. https://doi.org/10.5032/jae.2018.03087

Clemons, C. A., Lindner, J. R., Murray, B., Cook, M. P., Sams, B., & Williams, G. (2018). Spanning the gap: The confluence of agricultural literacy and being agriculturally literate. Journal of Agricultural Education, 59(4), 238–252. https://doi.org/10.5032/jae.2018.04238

Dillman, D. A., Smyth, J. D., Christian, L. M. (2014). Internet, phone, mail, and mixed-mode surveys: The tailored design method (4th ed.). John Wiley & Sons, Inc.

Duncan, D. W., Ricketts, J. C., Peake, J. B., & Uesseler, J. (2006). Teacher preparation and in-service needs of Georgia agriculture teachers. Journal of Agricultural Education, 47(2), 24–35. https://doi.org/10.5032/jae.2006.02024

Eck, C. J., & Edwards, M. C. (2019). Teacher shortage in school-based, agricultural education (SBAE): A historical review. Journal of Agricultural Education, 60(4), 223–239. https://doi:10.5032/jae.2019.04223

Garton, B. L., & Chung, N. (1996). The inservice needs of beginning teachers of agriculture as perceived by beginning teachers, teacher educators, and state supervisors.  Journal of Agricultural Education, 37(3), 52-58. https://doi.org/10.5032/jae.1996.03052

Hancock, G. T., McKibben, J. D., & Lindner, J. R. (2022, October 26 – 29). HEARING in practice [Paper presentation]. 41st Annual National Ag Mechanics Professional Development Blue Ribbon Research Conference. Indianapolis, IN, United States. http://dx.doi.org/10.13140/RG.2.2.19739.23840/1

Hancock, G. T., McKibben, J. D., Byrd, A. P., Lindner, J. R., & Clemons, C. A. (2023). Hearing education in agriculture: Re-evaluating interest, needs, and growth. Journal of Agricultural Safety and Health29(2), 109–120. https://doi.org/10.13031/jash.15331

Hainline, M. S., & Wells, T. (2019). Identifying the agricultural mechanics knowledge and skills needed by Iowa school-based agricultural education teachers. Journal of Agricultural Education, 60(1), 59–79. https://doi:10.5032/jae.2019.01059

Harlin, J. F., Roberts, T. G., Dooley, K. E., & Murphrey, T. P. (2007). Knowledge, skills, and abilities for agricultural science teachers: A focus group approach. Journal of Agricultural Education48(1), 86–96. https://doi:10.5032/jae.2007.01086

Hubert, D. J., & Leising, J. (2000). An assessment of agricultural mechanics course requirements in agriculture teacher education programs in the United States. Journal of Southern Agricultural Education Research, 50(1), 24–31. http://www.jsaer.org/pdf/vol50Whole.pdf

Howerton, T., Clemons, C. A., & Lindner, J. R. (2019). Perceived factors that influence the success of vertical transfer students in agricultural education: A Delphi study. Journal of Agricultural Education, 60(3), 32-46. https://doi.org/10.5032/jae.2019.03032

Layfield, K. D., & Dobbins, T. R. (2002). Inservice needs and perceived competencies of South Carolina agricultural educators. Journal of Agricultural Education, 43(4), 46–55. https://doi.org/10.5032/jae.2002.04046

Lindner, J. R., Murphy, T. H., & Briers, G. E. (2001). Handling non-response in social science research. Journal of Agricultural Education, 42(4), 43–53. https://doi.10.5032/jae.2001.04043

McKibben, J. D., Clemons, C. A., & Nurradin, M. (2022a). Hybrid vigor: A quantitative analysis of job satisfaction of United States school based secondary agricultural education classrooms. Journal of Agricultural Education63(2), 238–250. https://doi.org/10.5032/jae.2022.02238

McKibben, J. D., Giliberti, M., Clemons, C. A., Holler, K., & Linder, J. R. (2022b). My ag teacher never made me go to the shop! Preservice teachers’ perceived self-efficacy in mechanics skills change through experience. Journal of Agricultural Education63(3), 283–296.

McKibben, J., Holler, K., Clemons, C., & Lindner, J. (2023). Locus of control and pedagogy in skill-based agricultural mechanics. NACTA Journal, 67(1), 257 – 261.

McKibben, J. D., & Murphy, T. H. (2021). The effect of authenticity on project-based learning: A quasi-experimental study of STEM integration in agriculture. Journal of Agricultural Education, 62(1), 144–155. https://doi.org/10.5032/jae.2021.01144

National Council for Agricultural Education  (2023, December). AFNR standards. https://thecouncil.ffa.org/afnr/

Newcomb, L. H., McCracken, J. D., & Warmbrod, J. R. (1993). Methods of teaching agriculture (2nd ed.). Interstate Publishers, Inc. https://doi:10.5032/jae.2001.04043

Parr, B., & Edwards, M. C. (2004). Inquiry-based instruction in secondary agricultural education: problem-solving – an old friend revisited. Journal of Agricultural Education, 45(4), 106–117. https://doi:10.5032/jae.2004.04106  

Pense, S. L., Freeburg, B. W., & Clemons, C. A. (2015). Implementation of common core state standards: Voices, positions, and frames. Career and Technical Education Research, 40(3), 157 – 173. https://doi.10.5328/cter40.3.157

Ray, B. L., Clemons, C. A., McKibben, J. D., Lindner, J. R., Fuhrman, N. E., & Barlow, R. J. (2022). Implementing forestry and natural resource curricula in Georgia. A quantitative analysis of perceived barriers towards implementation. Journal of Agricultural Education, 63(3), 149-165. https://doi.org/10.5032/jae.2022.03149

Rice, A. H., & Kitchel, T. (2018). Agriculture teachers’ integrated belief systems and its influence on their pedagogical content knowledge. Journal of Agricultural Education, 59(1), 51–69.  https://doi.org/10.5032/jae.2018.01059

Salem, M., Doss, W., & Estepp, C. (2023). Determining professional development needs of school-based agricultural education teachers for working with English language learners. Journal of Agricultural Education, 64(4), 48 – 61. https://doi.org/10.5032/jae.v64i4.91

Saucier, P. R., & McKim, B. R. (2011). Assessing the learning needs of student teachers in Texas regarding management of the agricultural mechanics laboratory: Implications for the professional development of early career teachers in agricultural education. Journal of Agricultural Education, 52(4), 24 – 43. https://doi.org/10.5032/jae.2011.04024

Saucier, R. P., Vincent, S. K., & Anderson, R. G. (2014). Laboratory safety needs of Kentucky school-based agricultural mechanics teachers. Journal of Agricultural Education, 55(2), 184-200. https://doi:10.5032/jae/2014.02184

Shoulders, C. W., Blythe, J. M., & Myers, B. E. (2013). Teachers’ perceptions regarding experiential learning attributes in agricultural laboratories. Journal of Agricultural Education, 54(2), 159-173. https://doi:10.5032/jae.2013.02159

Sorensen, T. J., Tarpley, R. S., & Warnick, B. K. (2010). Inservice needs of Utah agriculture teachers. Journal of Agricultural Education, 51(3), 1–11. https://doi.org/10.5032/jae.2010.03001

Steffes, T. L. (2020, July 24). Smith-Hughes Act. Encyclopedia Britannica. https://www.britannica.com/topic/Smith-Hughes-Act

Talbert, B. A., Vaughn, R., Croom, B., & Lee, J. S. (2014). Foundations of Agricultural Education. Pearson Education, Inc.

Wells, T. & Hainline, M. (2024). Examining differences in teachers’ agricultural mechanics professional development needs: A national study. Journal of Agricultural Education, 65(1), 245 – 264. https://doi.org/10.5032/jae.v65i1.2473

Weeks, K. J., Lawver, R. G., Sorensen, T. T., & Warnick, B. K. (2020). Do teachers have the skills: 21st century skills in the agricultural education classroom? Journal of Agricultural Education, 61(4), 127 – 142. https://doi.org/10.5032/jae.2020.04127 Yopp, A., McKim, B. R., Moore, L. L., Odom, S. F., & Hanagriff, R. (2017). A multidimensional needs assessment of social emotional learning skill areas. Journal of Agricultural Education, 58(1), 186–206. https://doi.org/10.5032/jae.2017.01186


Exploring Agricultural Literacy: Instructional Practices for Advancing Student Writing in Agricultural Education

Chris Clemons, Auburn University, cac0132@auburn.edu

Jason D. McKibben, Auburn University, jdm0184@auburn.edu

Clare E. Hancock, Auburn University, cet0071@auburn.edu

James R. Lindner, Auburn University, jrl0039@auburn.edu

PDF Available

Abstract

This qualitative study investigated instructional practices SBAE teachers use in their lessons to develop knowledge and understanding of content and disciplinary words, terms, and phrases. The overarching question guiding this research study addressed what pedagogical practices SBAE teachers incorporate within their lessons for developing disciplinary literacy. The theoretical basis for this study was structured using Bandura’s model of triadic reciprocal causation (1997). Three research questions guided this study: 1) What methods of instruction did secondary SBAE teachers use to develop agricultural literacy in SBAE students? 2) What assessments did secondary SBAE teachers use to measure if students are developing literacy skills in agricultural education? 3) How did secondary SBAE teachers incorporate agricultural literacy into agricultural students’ development? The participants consisted of practicing secondary school agriscience teachers in Alabama. The data yielded four primary themes organized into four sections. The findings of this study indicated that SBAE teachers used explicit explanations to bring new concepts and vocabulary to students, motivated their learning through group work, and led them in project-based activities to apply new ideas in real-life situations. SBAE teachers were helping students gain agricultural knowledge, which is foundational to agricultural literacy. Teachers expressed frustration with administrative oversight on literacy instruction and developing speaking, listening, and writing skills. Teachers reported that vocabulary was a mandated component of the agriscience curriculum. However, their instruction needs to include writing exercises to improve student literacy in agricultural education. Recommendations for further study indicate that teachers build on their present writing activities, add extended individual writing to the learning process, and consolidate new vocabulary knowledge by applying new terms and concepts by writing to synthesize ideas and concepts. It is also recommended that SBAE teachers work collaboratively with their administration to develop a deeper understanding of the best practices and proven methods for improving literacy skills in agriculture.

Introduction

Articulating the knowledge and understanding of agriculture requires the teaching and furtherance of reading, writing, and communicating using specialized words and terms. This tenet has been the cornerstone of agricultural education since the passage of the Morrill Act of 1862 and the Smith-Hughes Act of 1917. Hasselquist et al. (2019) stated: “Disciplinary literacy includes the way the content is organized, how it communicates key information, technical vocabulary, and how texts are used.” (p. 141). Understanding pedagogical practices for developing disciplinary knowledge and improving reading, writing, and communication in agriculture is vital for student learning. Instructional literacy practices in school-based agricultural education (SBAE) classrooms enable students to master the distinction between being disciplinary literate and possessing knowledge and understanding in agriscience education. Shanahan and Shanahan (2012) characterized disciplinary literacy as speaking, listening, and writing using specialized words and terms. Therefore, all SBAE teachers are responsible for instructing, developing, and promoting literacy (Park & Osborne, 2007), often through agricultural contexts. According to Lemley, 2019, the expectation exists in SBAE to support agricultural education students to meet the shifting expectations of the 21st-century workforce. This study addressed teachers’ understanding of integrating writing into instructional activities to affect student literacy.

The Smith-Hughes Act (C.F.R., 1960) addressed the improvement of agricultural practices without explicitly mentioning literacy: “The preparation of those preparing to enter upon the work of the farm or of the farm home” (p. 107). The insinuation of this passage suggests that improving agricultural practices would require those individuals engaged in the profession to possess literacy to advance knowledge. This passage is narrowly descriptive of today’s expectations associated with agricultural education. However, the foresight for improving instructional literacy methods in the 21st century remains just as profound. The historical foundations of knowledge and understanding in agricultural education are replete with the importance and value of literacy. Roberts and Ball (2009) supported a society of agriculturally literate citizens and the dualistic role of SBAE, the development of a skilled workforce, and literate contributors to society. Blythe et al. (2015) reported that today’s society requires scientifically literate citizens, and developing an agreed-upon definition of agriculturally literate students was supported by Hess and Trexler (2011). Clemons et al. (2018) highlighted that limited studies since the early 1990s have attempted to close the distance between being literate in agriculture and agricultural literacy.

The value of a content literate populace or students endeavoring to become disciplinarily literate was described in Wallace’s Farmer Weekly Journal (1908) as cited by Cremin (1967), “It is hard for many a middle-aged farmer to get a clear idea of what is meant by protein, carbohydrate, nitrogen-free extract, etc.” (p. 45). The proceeding statement implies the importance of words, terms, and phrases for citizens to become disciplinarily literate. To address the gap between being literate and possessing literacy, a distinction between the terms should be addressed: “Agricultural literacy differs from agricultural education in that its focus is on educating students about the field of agriscience rather than preparing students for work within the field of agriscience” (Vallera & Bodzin, 2016, pp. 102–103). The gap between knowledge and understanding of agriculture and agricultural literacy accentuates the importance of literacy education in SBAE classrooms. Developing student literacy prevents them from falling behind in SBAE classrooms and their future employment (Hasselquist et al., 2019). 

The development of agricultural literacy has been fostered over 125 years through curriculum development and has shaped the role of SBAE. In Wallace’s Farmer Weekly Journal (1908), the connection between well-trained agriculturalists possessing knowledge and understanding and developing literacy begins with SBAE students. Agriculture education teachers experience a variety of student learning deficiencies in reading, writing, and communicating agricultural words and terms. Hasselquist et al. (2019) reported the challenges SBAE teachers experience when introducing instructional literacy strategies in classroom lessons. The challenges stem from SBAE teachers’ belief that literacy instruction is supplemental to the content area, teacher attitudes towards literacy instruction are fostered from personal experiences and literacy skills should be taught outside their classroom (Hasselquist et al., 2019). Hasselquist et al. (2019) supported Clemons et al. (2018) findings that agricultural professionals have specific feelings and thoughts about the profession. Park and Osborne (2007) found that only 14 percent of SBAE teachers promoted reading strategies for SBAE students in SBAE classrooms. Tummons et al. (2020) reported that literacy skills and techniques are vital for SBAE teachers, although acquiring instructional skills is not always taught in teacher education programs. When accounting for student learning difficulties in literacy, SBAE teachers do not see themselves as English teachers (Park et al., (2010). Essential reading, writing, and communication skills are necessary to acquire knowledge and may allow an understanding of agriculture concepts. This skill gap can be difficult for some students to overcome.

Shoulders and Myers (2013) reported that teaching agricultural literacy often relies on using multiple pedagogical styles to provide students with a foundation for learning. Traditional learning environments rely heavily on teacher-centered dissemination (Alston & English, 2007). Various learning models structure the acquisition of disciplinary knowledge and understanding in the 21st-century agriscience classroom. Kolb’s (2012) experiential learning theory, project-based learning (Smith & Rayfield, 2016), and social development theory (Vygotsky, 1978) are widely used to frame teaching literacy in SBAE classrooms. McKim et al. (2017) referred to the value of instructional methods, knowledge, and problem-solving as pedagogy, or a “Common [set] of competencies that include motivating students to learn, managing behavior, teaching students with special needs, and using technology as a teaching tool.” (p. 3). Instructional methods provide for contextual hands-on learning in agricultural education. However, reading, writing, and communication development using skills acquired through knowledge and understanding is often not emphasized during instruction. Understanding the methods SBAE teachers use to improve student literacy may further the research conducted by Tummons et al. (2020) regarding how practitioners and researchers consider new teaching and learning strategies for pre-service and practicing SBAE teachers.

Theoretical Framework

The theoretical basis for this study was structured using Bandura’s model of triadic reciprocal causation (1997). Bandura (1997) theorized that the interconnectivity between the person (P), environment (E), and behavior (B) affects the desired change and postulated reciprocity between the person (P), the environment (E), and behavior (B). Vygotsky (1978) believed that for learning to occur, the “Student will be interacting with people in their environment and cooperating with their peers” (p. 90).

Bandura (1997) reported personal (P) factors as “the beliefs in one’s capabilities to organize and execute the courses of action required to produce given attainments” (p. 3). This assumption provided the basis for examining teacher-initiated literacy instruction in secondary school agriscience education. Bandura (1997) described the environment (E) as a pathway for influencing self-efficacy by using models to impact student learning (Bandura, 1997; Roberts et al., 2008). When students learn within the classroom environment, self-efficacy can be validated through comparative methods of individual performance when measured against their peers. Self-efficacy of the individual (teacher) “refers to the beliefs in one’s capabilities to organize and execute the courses of action required to produce the given attainments” (Bandura, 1997, p. 3).

Roberts et al. (2008) reported that self-efficacy is specialized, where a person can possess high efficacy in one area and diminished efficacy in others. Fuhrman and Rubenstein (2017) wrote that a teacher’s ethos of education occurs through “interactions between the individual, behavior, and the environment.” (p. 225). Shunck (2004) citing Rosenthal and Zimmerman (1978), reported that skills to foster declarative, procedural, and conditional literacy instruction for students are dependent on performance and observation, reinforcing the person (P) and the environment (E) to affect behavior (B). Balancing the need for positive self-efficacy and improving student outcomes is challenging (McKibben et al., 2022). For example, high self-efficacy in content instruction may result in low self-efficacy when SBAE teachers apply literacy instruction in the agriscience classroom.

Purpose and Research Questions

This study aimed to investigate the pedagogical practices secondary SBAE teachers incorporated within their lessons for developing knowledge, understanding, and improvement of agriculturally literate students. Three research questions guided this investigation: (1) What methods of instruction did secondary SBAE teachers use to develop agricultural literacy in SBAE students? (2) What assessments did secondary SBAE teachers use to measure if students are developing literacy skills in agricultural education? (3) How did secondary SBAE teachers incorporate agricultural literacy into agricultural students’ development?

Methods

We developed a one-day professional development session addressing agricultural literacy to aid teachers’ understanding of the differences between agricultural literacy and being agriculturally literate. The ten participants indicated their interest in the professional development workshop during the Alabama Association of Agricultural Educators conference. SBAE teachers attended the professional development because they were interested in literacy education and developing literate students in SBAE coursework. After the professional development session, the same ten secondary SBAE teachers agreed to participate in the study, and interviews were scheduled after the professional development session. Telephone interviews were conducted within three weeks of the professional development meeting, with each interview lasting 40 minutes. Interviews were recorded and later transcribed.

The participants comprised four women (40.0%) and six men (60.0%). Following qualitative design measures for anonymity (Kaiser, 2009), teachers self-selected pseudonyms to protect their identities and responses: Aloe Vera, Big Country, Hank, Jane, Ken Powers, Lee, Mini Mouse, Otis, Pike Place, and Winnie. The small sample size of this study is supported by existing research (Young &Casey, 2018; Hennick et al., 2016), where small sample sizes in qualitative research can represent the full experiences of the participants. Delbecq et al. (1975) also supported the use of ten to fifteen subjects in qualitative research when the backgrounds of the participants are homogenous. Three structured interview questions were posed to each participant with follow-up questions based on responses used to collect data: a) What methods of instruction do you most commonly use to develop knowledge and understanding of SBAE students? b) What types of assessments do you use to measure if students possess literacy or are literate in the discipline? and c) Where do you believe knowledge, understanding, and being disciplinary literate should be introduced in lesson design and delivery? The structured response questions were prepared before the interviews based on previous literacy research and the stated theoretical framework (Merriam, 2009). Audio file interviews from each participant were captured digitally.

Data were transcribed, coded, organized by findings, and arranged using theme development. Open coding, a component of qualitative data analysis, uses the constant comparative method to discover consistent themes within the data. Open coding allows researchers to identify the participants’ thoughts, ideas, and concepts to drive the thematic development process instead of predetermined thematic concepts (Merriam, 2009). Independent analysis of participant comments was evaluated and organized using each of the three research questions and follow-up questions to the participants by the researchers. Trustworthiness of the collected data was ensured as this study’s participants possessed differentiated educational backgrounds, years of experience in education, age, and professional accomplishments. The analysis identified four primary thematic categories for organizing participant responses. Transcendental analysis provided the means for determining the essence of secondary SBAE teacher literacy instruction to develop students’ ability to be literate in agriscience (Brown et al., 2015). These processes identified data for creating themes, interpretations, and a detailed description of the instructional process. After independent coding, we used peer discussions to improve credibility (Guba & Lincoln, 1989) and establish sub-themes to better organize responses to the research questions.

Findings

Data analysis identified four primary thematic categories: 1) classroom environment (teacher controlled), the instructional methods used for the daily instruction of goals and objectives. This was the environment in which teachers set the expectations and instructional delivery models for teaching and learning; 2) the learning environment (student-controlled) reflected the skills, aptitudes, and potential gaps in knowledge and skills students demonstrate during instruction. This environment can reflect prior education, familial expectations, limitations, or the geographical location of the school and community; 3) foundational competencies (skills/materials) refer to the instructional materials that reinforce instructional lessons, including textbooks, technical manuals, news articles, and periodicals; and 4) limitations (administration) describes the policies for student learning determined outside of the teachers’ classroom or sphere of influence. These policies may include mandated assessments, administrator-determined vocabulary, or time devoted to specific instruction techniques. Subsequent analysis identified sub-themes within each thematic category.

Classroom Environment (Teacher Controlled)

The teachers reported variations in class schedules: 40.0% indicated a traditional 60/40 class period day, 50.0% taught within a four-by-four block schedule, and 10.0% experienced an eight-block class schedule. The analysis of the collected data yielded three sub-themes: instructional choice, pedagogy (methods and practices of teaching), and learning assessment.

Instructional Choice

The different methods and practices for teaching words, terms, and phrases were centered on traditional instruction (direct instruction, vocabulary identification) practices in the classroom. Participants explained that their instructional methods would depend on the content of the course. Hank explained his process for determining appropriate teaching methods for literacy instruction, “The methods of instruction would depend on the class. . . animal science class would be a lot more terminology than basic agriscience or introduction to agriscience.” Hank emphasized terminology through practical hands-on applications: “I do a lot of reading for content using engine manuals or other technical-based texts. Then, we [class] discuss terms like an air gap, oil type, and preventative maintenance. I think that’s where our focus is when reading for information.” Hank’s instruction reflected instructional choices steeped in content and disciplinary word association, reinforcement, and application.

Big Country expressed similar traditional instruction methods when determining delivery for improving knowledge and understanding. Big Country emphasized formal instruction, “I use a lot of PowerPoint materials, and students take notes from the screen.” Other participants indicated that their instructional methods were similar to their own educational experiences in high school when learning words, terms, and phrases. Hank conveyed his experiences as a veteran teacher in the secondary agriscience classroom. He stated: “In my first year of teaching, I was giving notes, lectures, PowerPoint presentations, diagrams, etc., and realized this is not what kids want . . . they want to rip their hair out.” Lee supported Hank’s first-year experiences instructing students using words, terms, and phrases and how he approached teaching content to his classes. Lee said: “I’d go around the room, and one student would read a section, and I would offer feedback and then have classroom discussion on the material being read. That’s how I taught all the students in each class.” Otis remembered being a high school sophomore and enrolling in SBAE classes. His memory provided a historical context regarding literacy instruction, which translated to his instructional style during his first two years of teaching agriscience education. Otis reflected:

I remember copying notes in high school I didn’t understand because I was more concerned with the process of taking notes from the board than what I was supposed to be learning. I was concentrating on transcribing the information instead of learning the information.

Hank reinforced high school experiences in literacy education and discussed his memories of engaging teachers and the methods they used to teach reading and writing skills. He indicated, “I had some great teachers as a high school student. My English teacher was very engaging during reading and discussion as a class. I try to mimic his methods when I teach my students.”

Pedagogy: Methods and Practices of Teaching

Each participant explained the various methods and strategies for delivering instruction, and a common theme emerged among the teachers. Delivery methods for instructional purposes included guided notes, contextual learning, scaffolding instruction, and prior educational experiences. For example, using guided notes in the classroom allowed students to direct their attention to the lesson instead of the note-taking process. Lee noted: “One thing I do is have my notes printed off, and then I provide them [notes] to the students.” Lee supported using guided notes when asked to elaborate on his experiences. He said, “I’m not your science or history teacher putting notes on the board for you [students] to copy.” Ken Powers addressed varied teaching methods through scaffolding content knowledge to establish a learning baseline for his students. He stated: “We do a lot of literacy-type strategies, including chunking text and breaking complex words and concepts down for student understanding.”

Ken Powers further explained that knowing his students’ ability levels is vital for acquiring words, terms, and phrases while learning the appropriate strategies. Ken explained how ability levels influence his instructional approach, If it’s something we need to cover, we’re going to break it down into small groups, paying attention to diverse reading levels, chunking the text, and discussing as a group.” Ken spoke of his role as the SBAE teacher when instructing students: “I will lead the students through a discussion where I ask, what does the text mean to you? We typically do this with five to six sentences, not 10 to 12 paragraphs.”

Other participants used different instructional methods when discussing words, terms, and phrases in the classroom. This analysis contrasts classroom instruction models while emphasizing pedagogical practices. Mini Mouse indicated that his delivery is more direct [instruction] in the beginning when introducing new words, terms, and phrases. He clarified how using digital video, demonstrations, and discussion provided context for vocabulary terms or the concepts being studied: “I use a lot of presentations and give examples and visuals. I talk a lot at the beginning of the class to lead the discussion.” Mini Mouse further detailed how he incorporated student involvement in the lesson: “I’ll ask for a volunteer or randomly call on students in the class. I check for understanding and use probing questions before the lesson to see where they [students] are learning.” Otis reinforced Mini Mouse’s instructional methods when discussing words, terms, and phrase instruction: “I feel like sometimes we go backward [in education]; we throw big words out first, and they [students] become overwhelmed.” Otis’ frustration was more evident when discussing vocabulary instruction in the classroom: “We [teachers] have traditionally started with vocabulary first and then explain the term out of context.” Aloe Vera explained her approach as hands-on by providing a contextual foundation. She indicated: “We must [be] very hands-on in my program. We will go to the greenhouse and practice the concept or term I introduced in class”. Aloe Vera described the hands-on approach that encapsulated her teaching:

I would take different plants and line them up in the greenhouse so we could discuss, demonstrate, and practice cuttings, division, stem cuttings, and leaf cuttings. I would show them various ways to apply the term, and they [students] would demonstrate for me to assess their understanding.

Just as important as the material presented during the lesson, Aloe Vera also spoke about the value of post-instruction formative assessment:

After applying words, terms, and phrases in the lab, we [teacher and students] would return to the classroom and review vocabulary words and associate them with pictures, and students will take notes. I found this approach works best for my students to learn.

This type of multi-faceted lesson design, which includes introduction, application, assessment, and repetition, indicates a well-designed approach to learning words, terms, and phrases (Shanahan & Shanahan, 2012). 

Assessment

Participants discussed using formative and summative assessments in their classrooms during the interviews. Responses varied considerably between participants, including project-based assessment, traditional testing procedures, technology applications, and administratively defined testing. Participants generally fell between traditionally assessing student performance and using non-traditional assessment methods. When evaluating students’ knowledge, words, and concepts, Lee responded: “Since students don’t have to write the notes I give them, they can bring them to class for the test, but I won’t let them photocopy.” Although he referred to summative examination, the interview questions may have limited his response. Lee had little regard for rote memorization examinations and believed that allowing students to use their notes on the exam provided more significant potential for student success.

Mini Mouse also shared this sentiment when asked to explain the purpose of assessments during and after a lesson or unit plan. Mini Mouse stated: “I don’t give a lot of tests.” The researcher probed for further explanation of how students in Mini Mouses’ classes were assessed. His response was distanced from traditional assessment to more student-driven activities where he could observe concepts and the acquisition of words, terms, and phrases. Mini Mouse explained: “I ask many questions before the lesson, and then we go out [to the mechanics lab] and apply the concepts and skills.” Pike Place explained a similar situation to Mini Mouse: “I coach them [students] to ensure the process is followed, and I assess their performance during their demonstration.”

Other participants indicated a more traditional approach to their assessment. Hank explained that his literacy exams typically include 30 to 40 questions with multiple choice, true and false, fill in the blank, and matching terms with definitions. Otis explained that his use of Scantron®, paper exams, and Kahoot, a game-based learning platform, are the typical assessment types used in his classroom.” Winnie described assessment in a less traditional sense. She said: “I usually have a matching quiz with multiple uses of the word being examined. Having this type of assessment allows students to move beyond simple recognition.”

While interviewing Winnie and probing deeper into assessment methods, she began to be more open about using technology for the formative assessment of agricultural literacy. Winnie, a young teacher (< five years’ experience), and Otis (> ten years’ experience) were the only teachers to mention using applications such as Kahoot or Quizlet platforms for assessment. Her description of the applications provided context for how she uses them in the classroom: “Typically, I ask the students to take the words from the lesson and develop phone-based quizzes that can then be shared with other students in the class.” The researcher probed for further understanding regarding the type of assessment used from these applications: “I guess I use them as more formative assessment, like a bell ringer for understanding if my students have grasped the material.” Winnie explained her rationale for using application-based programs:

In grades 7 through 9, we use technology. Kids don’t like making the quizzes but do enjoy playing the game. When the students are developing their online quizzes, they must type the terms and definitions before they can play the game.

Learning Environment (Student Controlled)

Teachers discussed the importance of the formalized student-centered learning environment and the characteristics innate to each student. Many teachers discussed the environmental conditions of learning and geography’s impact on presumptions, misconceptions, and breaking away from family-based lexicons to be literate. Participants also described education challenges when teaching words, terms, and phrases to students with learning disabilities and the role gender has in education. Otis described geographical location as limiting when learning words, terms, and phrases. Otis explained: “My kids believe that GMO’s [genetically modified organisms] will kill you, so we make a stand and deliver on the difference between sustainable, organic versus traditional farming, populations, and discuss the amount of food a traditional vs. organic producer can provide to the public.” When describing the methods used to provide instruction, Otis explained: “Most of the time, it is self-directed learning and then research for their information.”

Winnie and Jane shared their perceptions of gender and special education populations in their classrooms. Winnie described the challenges of being female when teaching young men. Winnie said: “Being a woman, boys will talk differently around me. I have to figure out how to connect with them and find the connection between how they talk and think.” Winnie further explained how family influences student learning in a rural town by saying: “A lot of time when you teach in the country, people are set in their ways. For example, I drive a Ford, the only truck I’ll ever drive.” The researchers followed Winnie’s response and redirected the question to address how she reaches these students: “They [students] want to come at it their way, and you have to figure out how to accept and encourage their views and redirect them to the correct terminology.”

Like Winnie, Jane had experienced issues with word appropriateness and questioned her ability to provide meaningful instruction to special education students. Specifically, she discussed her difficulty differentiating her teaching when focusing on agricultural literacy. Jane admitted: “I do struggle with simple things . . . I get a lot of 504 [special education modification plans] and IEP [Individualized Education Plan] students with much lower rates of literacy and possessing literacy skills.” This varied ability-level transition has been difficult for Jane: “I’m old school. I use the vocabulary in the chapters [textbook] a lot.”

Foundational Competencies (Skills/Materials)

During the interviews, teachers were asked to describe their students’ foundational literacy skills and cognitive levels when asked to learn new concepts or terms. Sub-themes emerged within Foundational Competencies and were divided into three subcategories: 1) reading or writing to learn, 2) developing knowledge and understanding, and 3) educational materials (digital and text-based instruction).

Reading or Writing to Learn

Teachers indicated similar ideas and methods when asked about their perceptions of how foundational knowledge of student literacy is established. All participants agreed that educational growth can only occur by establishing a solid literacy foundation. Ken Powers said: “I will use the Lexile levels of the material we are going to learn.” Ken Powers referenced several web-based Lexile generators (Lexile.com, Renaissance.com) for determining the reading level of written text for his students: We’re [agriculture educators] looking at what they [students] know: concepts, demonstration of contextual vocabulary, and their current knowledge of the term or concept being discussed.” Otis addressed the importance of establishing a context for learning before introducing more complex vocabulary during his lesson. He stated: “What we need to do is ask students if they understand how this [concept] works. If they say yes, then build on that foundation before we take notes on the concept.” Otis’s explanation of establishing foundational learning was also present in his use of technology:

I also use Instagram as an example in class and discuss a company that has a flash sale on Instagram that all my students are familiar with and then determine if they [students] understand concepts such as the law of demand. This helps me give them a common starting point since all my students use Instagram.

Hank agreed with his peers, citing the need for solid foundations in literacy before introducing more advanced content. He said: “If they’re [students] not content literate in words and concepts at the beginning of the lesson, then it’s going to be hard to hammer those skills home during the lesson.” Aloe Vera also believed the key to establishing a solid foundation for learning was determining where students are in their learning. Aloe Vera incorporates discussion and writing to assess student knowledge and then adjusts her instruction accordingly. She said: “I would ask someone to describe what they wrote. Right or wrong, the answer doesn’t matter in the beginning. We’re [teacher and students] just thinking out loud.”

Developing Knowledge and Understanding

All participants echoed the importance of teaching words, terms, and phrases. Teachers described the challenges of determining foundational knowledge before introducing new concepts and vocabulary. These challenges led to discussions with each participant about the role of learning words, terms, and phrases in agriculture and the instructional methods each participant used to improve student understanding and learning. Mini Mouse described how words and terms are introduced in a forestry lesson. He said: “I might introduce the term forestry first, then describe the term dendrology. I’ll put up a list of terms and run [a copy] the definitions for students before I start the actual teaching.”

Hank described teaching disciplinary literacy, using contextual vocabulary in his classroom, and utilizing a comparative discussion between general and disciplinary literacy. He explained:

I like to use everyday vocabulary [general literacy] as a point of reference when I teach terms and concepts. I give a point of reference, especially when teaching tool identification. Most people have a hammer or a screwdriver at home, so these items are well-known to students. Students don’t have palm sanders, skill saws, stationary equipment, or specialized tools.

Hank described his application of words, terms, and phrases in the classroom: “I describe each of the disciplinary vocabulary words and demonstrate to students how to use the tool and that often the tool’s name is similar to its function.”

Educational Materials (Digital and Text-Based Instruction)

Richards et al. (1992) defined readability as: “How easily written materials can be read and understood.” (p. 306). Each participant mentioned the use of digital and text-based learning materials. The role and use of materials varied considerably between participants during instruction. Teachers reported limited use of textbooks because of low availability and outdated information. Most indicated that textbooks were used as a supplement or reference for students, while others cited the use of textbooks for use during their absence from the classroom when a substitute teacher was present. Lee described using textbooks in the classroom: “Textbooks don’t leave the classroom, but they are used as a resource. I only ask students to use them when a sub [substitute teacher] covers my classes.” Winnie explained the difficulty related to the readability of CTE texts and her students’ abilities to comprehend textbook-based material for comprehension. She supported Lee’s analysis: “CTE texts are written at an extremely high reading level, and I just don’t understand why.”

Some teachers indicated that although textbooks are seldom used, text-based material from the Internet, research journals, trade magazines, and other sources were much more prevalent in their classrooms. Digital text delivered by tablet, computer, or mobile phone was more prominent during instruction. Teachers also described that non-textbook-based materials were more accessible to locate and were sometimes more up-to-date regarding agriculture professions when compared to textbooks. Big Country utilizes text-based materials from the Internet and reputable online publishers, “I will give the students journal articles from trade magazines like Ag Daily, Coop Magazine, Progressive Farmer, etc.

Otis and others discussed the types of materials used for text-based reading and the methods used to provide materials to students. Otis stated:

We use the Internet and CEV [Internet-based curriculum platform] because I can edit the curriculum to fit the needs of my students. I like to give them a handout or something on their Chromebook. This way, they [students] can work with me and keep on task while I teach.

Lee agreed with his peers regarding the digital delivery of text and supported his rationale for allowing personal technology devices in the classroom: “I try to utilize their [student’s] technology because we’re not going to win, so I might as well let students use them [technology] for appropriate purposes.”

Limitations (Administration)

Throughout the interviews, teachers described perceived limitations regarding learning words and phrases in the agriscience classroom. A uniform response highlighted the impact of Common Core State Standards (CCSS), Agriculture, Food, and Natural Resource standards (AFNR), Alabama content standards, and administrative limitations for classroom instruction. The discussion of standards inclusion in daily instruction was mentioned as an administrative requirement to what teachers believed was quality SBAE instruction. Pike Place explained how she incorporates CCSS, AFNR, and Alabama content standards in her instruction: “When I give vocabulary tests, I take the standards we have to meet (AFNR, CCSS, and Alabama) and make them understandable for the age level I work with.”

Participant statements focused on administrative oversight of literacy instruction, administrative-directed literacy assessments, and short-lived interest in standards-based instruction. Mini Mouse described in detail his experience with administrative oversight between literacy and agriscience education: “A couple of years ago, when we were getting slammed with literacy [mandates] to introduce more reading, they [administration] wanted us to come up with some activities that helped with reading and writing standards.” Mini Mouse further explained that over time, administrative interest in literacy waned, and other mandates became their focus:

They [administration] backed off, which is why I feel we get on whims a lot and then get tossed from one thing to another. It’s not that the administration wants us to stop incorporating standards, but they move on to something different. I think they assume that we keep doing what we are doing.

Jane told a similar story regarding administrative oversight in her classroom regarding literacy instruction: “The curriculum specialists are pushing so hard for us to move to project-based learning and give kids a choice of assignments that we [teachers] don’t have the freedom to teach traditional literacy instruction.”

Conclusions, Implications, and Recommendations

The findings of this study revealed that SBAE teachers were engaged in various literacy activities. However, student writing was only seldom mentioned. Participants used explicit explanations to introduce students to new agricultural concepts and vocabulary, motivated their learning through group work, and led them in project-based activities to apply new ideas in real-life situations.

When the teachers were asked to explain the methods for literacy instruction, our teachers used varying materials for student instruction, e.g., by having students review articles in periodicals, using internet-based learning platforms (CEV), comparing arguments, or creating quizzes using web-based applications. However, more evidence of sustained individual writing needed to be shared to apply new concepts to support using words, terms, and phrases for developing student literacy. This finding supports Roberts et al. (2008) that high self-efficacy in group work, limited answers, or developing web-based quizzes may be evident yet is manifested in low self-efficacy if students were to be tasked with individual writing prompts. For example, teachers should have reported using a gradual release of responsibility where students were helped to locate meanings, relate words to other words, extricate words from their initial context, and generate new contexts with emerging expertise. Participants relied primarily on contextual vocabulary teaching methods where students explained new vocabulary terms orally, allowing teachers to scaffold students’ usage of words, terms, and phrases during classroom instruction and project-based activities.

Understanding the assessments used to measure speaking, listening, and writing using specialized words and terms (Shanahan & Shanahan, 2012) in SBAE provided insight into how teachers determine student growth. Teachers listened closely to students’ conversational responses and used formative assessment to redirect their understanding of concepts and vocabulary. Instead, teachers reported that changing students’ lexicon to define content-driven vocabulary was too difficult. Instead, teachers would list the vocabulary words in a handout. These findings suggest that teachers in this study do not fully implement Bandura’s (1997) model of interaction between the person, environment, and behavior. Instead, instruction of words, terms, and phrases was predominantly spoken and not emphasized through independent student writing. The implications of this de-emphasis indicate that students may not acquire vital skills in agricultural literacy because SBAE teachers do not possess foundational literacy instruction and training skills.

Consequently, students need to develop speaking, listening, and writing skills using specialized words and terms in agriculture, as supported by Shanahan and Shanahan (2012). This means they must acquire speaking, reading, and writing tools to learn about agriculture with their teachers and then be able to write independently by receiving foundational literacy skills. Park et al. (2010) reinforced the importance of student literacy and emphasized the nature of agricultural education as a content application. The work of Rosenthal and Zimmerman (1978) supports this finding as high self-efficacy in one area (content instruction) is juxtaposed against low self-efficacy (literacy instruction efficacy) of the teacher. Ultimately, the data supported the idea that knowing and teaching content must likely be reinforced through student writing for improved literacy.

Administrative oversight of the instructional processes is a concept that has been introduced previously in education. Participants expressed frustration with administrative oversight related explicitly to literacy instruction and the development of students to possess speaking, listening, and writing skills in agriscience. Teachers reported that vocabulary was a mandated component of the agriscience curriculum. However, their instruction needs to be improved to determine the best practices for improving students’ ability to become literate and develop the necessary skills for success. The implications of this mandated oversight of literacy instruction are the removal of the agriscience teacher as the content area expert and their expertise in creating multiple pedological styles to improve the literacy of students in agriscience (Shoulders & Myers, 2013).

Participants should build on their present writing activities to add extended individual writing to the learning process and hands-on application of new concepts (Park et al., 2010) to reinforce literacy instruction. For example, students could use content-literacy guides to focus their textbook reading on essential ideas and writing activities in SBAE classrooms. They could follow up their project-based activities by writing formal lab reports from their observational notes. They could consolidate their new vocabulary knowledge by applying new terms and new concepts by writing for synthesis, and they could publish their ideas on Internet websites to share them with other students and professionals beyond the classroom. Such writings could serve as summative evaluations of students’ understanding of concepts introduced in class and appropriate usage of new vocabulary in the discipline.

The findings indicated a perceived need for an administrative understanding of pedagogical practices for literacy instruction in the SBAE classroom. Participants spoke of frustration, mandates, and limited instructional models for developing students’ understanding of literacy. It can be concluded that administrators need to understand better the intricacies and specialized skills required for the instruction of secondary agriscience education. It is recommended that SBAE teachers and administrators discuss how writing in the agricultural education curriculum could develop a deeper understanding of the best practices and proven methods for instructing students to develop literacy skills in agriculture. Instead of a one-size-fits-all approach, SBAE teachers should highlight the interconnection of student experiences in labs, greenhouses, and other agricultural experiences. These conversations and collaborative efforts could reduce the frustration and perceived oversight participants felt as limiting their expertise.

We recommend that teachers continue to develop their instruction methods for incorporating speaking, listening, and writing in the secondary agriscience education curriculum. The outcome of such development could further SBAE students’ literacy beyond just the acquisition of agricultural knowledge. Instead, students will be better prepared as future advocates and consumers of agricultural services and have opportunities to extend factual discussions to more audiences. We expect this new emphasis on speaking, listening, and writing using specialized words and terms in agriculture to provide students with the literacy tools agricultural professionals use to read and write to learn agriscience.

References

Act of July 2, 1862 (Morrill Act), Public Law 37-108, which established land grant colleges, 07/02/1862; Enrolled Acts and Resolutions of Congress, 1789-1996; Record Group 11; General Records of the United States Government; National Archives

Alston, J. A., & English, C. W. (2007). Technology-enhanced agricultural education learning environments: An assessment of student perceptions. Journal of Agricultural Education, 48(4), 1–10. https://doi.org/10.5032/Jae.2007.04001

Bandura, A. (1997). Self-efficacy: The exercise of control. W.H. Freeman and Company.

Clemons, C. A., Lindner, J. R., Murray, B., Cook, M. P., Sams, B., & Williams, G. (2018). Spanning the gap: The confluence of agricultural literacy and being agriculturally literate.  Journal of Agricultural Education, 59(4), 238–252. doi: https://doi.org/10.5032/jae.2018.04238

Blythe, J. M., DiBenedetto, C. A., & Myers, B. E. (2015). Inquiry-based instruction: Perceptions of national agriscience teacher ambassadors. Journal of Agricultural Education, 56(2), 110–121. https://doi.org/10.5032/jae.2015.02110

Brown, N. R., Roberts, R., Whiddon, A. S., Goossen, C. E., & Kacal, A. (2015). The essence of the lived experiences of urban agricultural education students. Journal of Agricultural Education, 56(1), 58–72. https://doi.org/10.5032/jae.2015.01058

Cremin, L. A. (1967). The transformation of the school: Progressivism in American education 1879-1957. Vantage Press.

Delbecq, A. L., Van de Ven, A. H., & Gustafson, D. H. (1975). Group techniques for program

planning: A guide to nominal group and Delphi processes. Foresman.

Fuhrman, N. E., & Rubenstein, E. D. (2017). Teaching with animals: The role of animal ambassadors in improving presenter communication skills. Journal of Agricultural Education, 58(1), 223-235. https://doi.org/10.5032/jae.2017.01223

Guba, E. G., & Lincoln, Y. S. (1989). Fourth generation evaluation. Sage Publications.

Harris, T. L., & Hodges, R. E. (1995). The literacy dictionary: The vocabulary of reading and writing. International Reading Association.

Hasselquist, L., Naughton, M., & Kitchel, T. (2019). Preservice Teachers’ Experiences in a Required Reading in the Content Area Course. Journal of Agricultural Education, 60(2), 140–152. https://doi.org/10.5032/jae.2019.02140

Hennink, M.M., Kaiser, B.N., & Marconi, V.C. (2016). Code saturation versus meaning saturation: How many interviews are enough? Qualitative Health Research, 27(4), 591–608. https://doi.org/10.1177/1049732316665344

Hess, A. J., & Trexler, C. J. (2011). A qualitative study of agricultural literacy in urban youth: What do elementary students understand about the agri-food system? Journal of Agricultural Education, 52(4) 1-12. https://doi.org/10.5032.jae.2011.04001

Kaiser, K. (2009). Protecting respondent confidentiality in qualitative research. Qualitative Health Research, 19(11), 1632–1641. https://doi.org/10.1177/1049732309350879

Lemley, S. M., & Hart, S. M. (2019). Using inquiry to develop agricultural education preservice teachers’ disciplinary literacy pedagogy. Journal of Agricultural Education, 60(4), 149-163. https://doi.org/10.5032/jae.2019.04149

McKibben, J. D., Giliberti, M., Clemons, C. A., Holler, K., & Linder, J. R. (2022). My ag teacher never made me go to the shop! Pre-service teachers’ perceived self-efficacy in mechanics skills change through experience. Journal of Agricultural Education, 63(3), 283–296. https://doi.org/10.5032/jae.2022.03283

McKim, A. J., Sorensen, T., Velez, J. J., & Henderson, T. M. (2017). Analyzing the relationship between four teacher competence areas and commitment to teaching. Journal of Agricultural Education, 58(4), 1–14. https://doi.org/10.5032/jae.2017.04001

Kolb, A.Y., Kolb, D.A. (2012). Experiential Learning Theory. In N. M. Seel (ed), Encyclopedia of the Sciences of Learning. Springer. https://doi.org/10.1007/978-1-4419-1428-6_227

Merriam, S. B. (2009). Qualitative research: A guide to design and implementation. Josey-Bass.

Park, T. D., & Osborne, E. (2007). A model for the study of reading in agriscience. Journal of Agricultural Education, 48(1), 20–30. https://doi.org/10.5032/jae.2007.01020

Park, T. D., Van Der Mandele, E. S., & Welch, D. (2010). Creating a culture that fosters disciplinary literacy in agricultural sciences. Journal of Agricultural Education, 51(3). 100-113. https://doi.org/10.5032/jae.2010.03100

Richards. J. C., Platt, J., & Platt, H. (1992). Longman dictionary of language and teaching and applied linguistics. Longman.

Roberts, G. R., & Ball, A. L. (2009). Secondary agricultural science as content and context for teaching. Journal of Agricultural Education, 50(1), 81–91. https://doi.org/10.5032/jae.2009.01081  

Roberts, G. R., Harlin, J. F., & Briers, G. E. (2008). Peer modeling and teaching efficacy: The influence of two student teachers at the same time. Journal of Agricultural Education, 49(2), 13-26. https://doi.org/10.5032/jae.2008.02013

Rosenthal, T. L. & Zimmerman, B. J. (1978). Social learning and cognition. Academic Press.

Shanahan, T., & Shanahan, C. (2012). What is disciplinary literacy and why does it matter? Topics in Language Disorders, 32(1), 7-18. https://doi.org/10.1097/TLD.0b013e318244557a

Schunk, D. H. (2004). Learning theories: An education perspective. Pearson.

Shoulders, C. W., & Myers, B. E. (2013). Teachers’ use of experiential learning stages in agricultural laboratories. Journal of Agricultural Education, 54(3), 100-115. https://doi.org/10.5032/jae2013.03100

Smith-Hughes National Vocational Education Act of 1917, 45 C.F.R. § 104.56 (1960).

Smith, K. L., & Rayfield, J. (2016). An early historical examination of the educational intent of supervised agricultural experiences (SAEs) and project-based learning in agricultural education. Journal of Agricultural Education, 57(2), 146–160. https://doi.org/doi:10.5032/jae.2016.02146

Tummons, J., Hasselquist, L., & Smalley, S. (2020). Exploring content, pedagogy, and literacy strategies among preservice teachers in CASE institutes. Journal of Agricultural Education, 61(2), 289-306. https://doi.org/10.5032/jae.2020.02289

Vallera, F. L., & Bodzin, A. M. (2016). Knowledge, skills, or attitudes/beliefs: The contexts of agricultural literacy in upper-elementary science curricula. Journal of Agricultural Education, 57(4), 101-117. https://doi.org/10.5032/jae.2016.04101

Vygotsky, L. S. (1978). Mind in Society: The development of higher psychological processes.  Harvard University Press.

Young, D. S., & Casey, E. A. (2018). An examination of the sufficiency of small qualitative samples. Social Work & Criminal Justice Publications. 500.
https://digitalcommons.tacoma.uw.edu/socialwork_pub/500

The Impact of Socioscientific Issues-based Instruction on College Students’ Knowledge Acquisition

Catherine W. Shoulders & Jarred D. Wyatt
The need for STEM literacy among undergraduates has fueled the exploration of innovative teaching methods in the higher education setting. Socioscientific issues (SSI)-based instruction is an instructional model that has yielded positive results in a variety of settings, including agricultural education. However, the multiple variables contributing to the impact of classroom instruction on student outcomes merits further investigation into the effectiveness of SSI-based instruction at the undergraduate level. This quasi-experimental study examined the impact of SSI-based instruction on undergraduate students’ knowledge of solar energy…

Read More