Skip to main content
HHS Author Manuscripts logoLink to HHS Author Manuscripts
. Author manuscript; available in PMC: 2022 Dec 16.
Published in final edited form as: J Agric Saf Health. 2022;28(2):87–98. doi: 10.13031/jash.14801

Assessing Youth Safety Knowledge through the Agriculture Experience Tracker (AET)

Scott W Smalley 1, Dustin K Perry 2, Rebecca G Lawver 3, Michael L Pate 3, Alyx Shultz 4, Roger Hanagriff 5, Clay Ewell 6
PMCID: PMC9757133  NIHMSID: NIHMS1833793  PMID: 36530845

Abstract

The purpose of this study was to assess high school agricultural education youth safety knowledge. The target population consisted of high school agricultural education youth, ages 14–19 years, who were enrolled in School Based Agricultural Education programs that utilized the AET agricultural safety exam feature between the dates of May 2019 and June 2020 (N=1478). The safety knowledge questions were randomly generated from the National Safe Tractor and Machinery Operation Program instructor curriculum resources. The exam consisted of 50 multiple-choice and true/false questions with one point being awarded for each correct answer and covered topics such as safety basics, agricultural hazards, tractors, connecting and using implements with tractors and materials handling. The majority of respondents were male (n = 865, 58.5%); and in eleventh grade, twelve grade, or beyond high school (33.8%, 34.3%, and 22.9% respectively). Most respondents indicated they were from a rural area (52.5%), and most had not received formal safety training (74.4%). Test scores for the 1478 respondents ranged from a minimum of 4 to a maximum of 98. Within each independent variable, test scores averaged in the low 60’s with the exception of test scores from students in 8th, 9th, and 10th grade which averaged 78, 46, and 56 respectively. Research and continuous education are needed to influence the behaviors of young workers in agricultural settings.

Keywords: Assessment, Education, Safety, School-based Agriculture Education, Supervised Agricultural Experience, Youth

Introduction/Background

According to the U.S. Bureau of Labor Statistics ([BLS], 2018), agriculture is one of the most dangerous industries within the U.S. and experiences a rate for fatal injuries at seven times greater magnitude. Fatalities of youth workers have exceeded all other industries combined (NIOSH, 2014). With more than 27 million youth living, working on or visiting farms (Hendricks, et al., 2012), this special population is certainly susceptible to agricultural machinery dangers (Hard and Myers, 2006). The high susceptibility of youth injuries has been attributed to agricultural labor regulation exemptions and provisions applying to youth. Even more concerning data are noted in the National Children’s Center (2020) fact sheet, which reported 60% of household youth who were injured in agriculture were not actively engaged in work related tasks, thus reiterating the susceptibility to injury from exposure to a production agriculture environment.

With the proximity to safety hazards, agricultural youth need environment specific training. Students within school based agricultural education (SBAE) programs have the opportunity to participate in supervised agricultural experiences (SAE) (NCAE, 2015) where they are provided opportunities to develop their agricultural safety knowledge and awareness. Ultimately, SBAE allows students to apply classroom and laboratory concepts, such as agricultural safety, as they prepare for future career opportunities (FFA, 2020). Numerous studies have documented SAE benefits (Camp et al., 2000; Lewis et al. 2012; Moules 2013; Rubenstein and Thoron, 2014), and specifically applicable to safety, an SAE has been shown to provide a student the opportunity to explore multiple careers, develop skills, learn workplace behaviors, and apply occupational skills.

Due to their influential roles in SAEs, SBAE teachers are uniquely poised to help reduce agricultural related youth injuries by disseminating effective safety education curriculum. Yet, they continually express professional development needs in the area of safety education (McKim & Saucier, 2011; Lawver et al., 2016; Saucier et al., 2014; Shultz et al., 2014). Recent efforts to address these needs have been conducted via teacher trainings that focus on integrating hands-on activities into machinery safety curriculum (Pate et al., 2019). Additional research has focused on “train the trainer” approaches to increase safety knowledge and awareness of secondary teachers and subsequent students (Perry et al., 2020). Resulting efforts of this research culminated in recommendations that additional research should focus on the effects of youth background and safety measures within SAEs (Pate et al., 2019; Perry et al., 2020).

There is a significant need for research examining safety knowledge among agricultural youth, as the availability of data directly from this group is limited. In its Report, NIOSH (2002) notes that “[t]he effectiveness of tractor safety training programs has not been adequately evaluated nationwide” (p. 70). The few studies that have been completed continually demonstrate the need for a much closer and more thorough examination of the effectiveness of tractor safety training for children (Carraba et al., 2000; Jepsen, 2012; Wilkinson et al., 1993). One such study conducted in Indiana (Carraba et al., 2000) found that participants who engaged in a 4-H tractor safety program demonstrated a greater level of confidence in operating tractors, and that the program appeared to have a positive influence on the safe operating procedures of participants. However, Carrabba et al. (2000) also found that despite the youths’ feelings of confidence, they continued to engage in risky behaviors such as allowing extra riders. Even with the demonstrated challenges of improving youth safety behavior, NIOSH (2002) recognized a Wisconsin study (Wilkinson et al., 1993) that found youth who had completed a training program reported an increase in usage of tractors equipped with roll-over protection structures (p. 71).

These few studies demonstrate the need for a much closer and more thorough examination of the effectiveness of tractor safety training for children. However, a common challenge in evaluating the effectiveness of these safety trainings is access to a national agricultural youth population. Although admittedly not all encompassing, one such data source that targets this population and capitalizes on the learning potential of SAEs can be found in the Agricultural Experience Tracker (AET), an integrated online data management/record-keeping platform that allows educators and students to keep track of their SAEs (AET, 2020). Data about youth safety knowledge was collected and assessed for this project directly from high school agricultural education students who participated in a safety exam housed within the AET.

Purpose and Objectives

Recognizing the lack of adequate agricultural youth research, the purpose of this project was to assess high school agricultural education youth safety knowledge. Specific objectives included:

  1. Describe selected demographics of high school agricultural education youth who completed the AET safety knowledge assessment.

  2. Determine significant predictors of youth performance on the AET safety knowledge assessment, focusing on participant grade level, gender, race and residence.

Materials and Methods

The target population consisted of high school agricultural education youth, ages 14–19 years, who were enrolled in SBAE programs that utilized the AET agricultural safety exam feature between the dates of May 2019 and June 2020 (N=1478). The AET is an online data management system designed for agricultural education students and teachers to assist in managing time and financial resources associated with SAEs. The AET has assisted more than 2 million students and teachers nationwide in managing resources inside and outside of the classroom (AET, 2020). Within the AET, participants had the opportunity to complete an agricultural safety knowledge exam. To address objectives one and two, select demographic information was collected through self-reported data. Participants identified their age, grade level, gender, state of residence, race, and residence size. Residence size options were based off National Center for Education Statistics classifications for city (greater than 100,000 population and an urban setting), suburb (up to 100,000 population, but outside the city), town (10 to 35 miles from urban area), and rural (outside urban area and less than 5,000 population). Participants from 39 states completed the exam.

To address objective two, safety knowledge questions were randomly generated from the National Safe Tractor and Machinery Operation Program (NSTMOP) instructor curriculum resources. NSTMOP is a project of the United State Department of Agriculture Cooperative States Research, Education and Extension Service’s Hazardous Occupations Safety Training for Agriculture (HOSTA) Program and was developed to respond to the need for resources to inform and support the USDA NIFA Youth Farm Safety Education and Certification Regulation. The agricultural safety exam consisted of 50 multiple-choice and true/false questions with one point being awarded for each correct answer and covered topics such as safety basics, agricultural hazards, tractors, connecting and using implements with tractors and materials handling. The instructional curriculum and exam items were evaluated by agricultural safety educators and determined to meet content validity standards (Garvey et al., 2008).

Results and Discussion

Researchers collected basic demographic data from all respondents. The majority of respondents were male (n = 865, 58.5%); and in eleventh grade, twelve grade, or beyond high school (33.8%, 34.3%, and 22.9% respectively). Most respondents indicated they were from a rural area (52.5%) and most had not received formal safety training (74.4%). Full demographic data is displayed in Table 1.

Table 1.

Demographic Data for Survey Respondents

Frequency % N
Gender 1478
 Male 865 58.5
 Female 613 41.5
Grade
 8 2 .1 1478
 9 22 1.5
 10 109 7.4
 11 499 33.8
 12 507 34.3
 Beyond HS 339 22.9
Residence 1478
 Rural 776 52.5
 Town 434 29.4
 Suburb 169 11.4
 City 99 6.7
Formal Safety Training 459*
 Yes 122 26.6
 No 337 73.4

Note:

*

Formal training data not collected on all state instruments

As shown in Table 2, the majority of respondents were White, Non-Hispanic (n = 1145, 77.5%). Therefore, researchers collapsed race data into two categories, White, Non-Hispanic and All Other Responses, for the remainder of the analysis.

Table 2.

Race Data for Survey Respondents (N= 1476)

Race Frequency %
White, Non-Hispanic 1145 77.5
Asian 11 .7
Hispanic 180 12.2
American Indian 18 1.2
Two or more 58 3.9
Black, Non-Hispanic 37 2.5
No Answer/Non-disclosed 24 1.6
Pacific Islander 2 .1
Native Hawaiian 1 .1

Test scores for the 1478 respondents ranged from a minimum of 4 to a maximum of 98. The mean and the median scores were very close (63.32 and 64.00 respectively) and implied a roughly normal distribution. However, when graphed, as shown in Figure 1, the test scores showed a roughly bimodal distribution peaking at 62 and 80.

Figure 1.

Figure 1.

Distribution of Student Test Scores

Within each independent variable, test scores averaged in the low 60’s with the exception of test scores from students in 8th, 9th, and 10th grade which averaged 78, 46, and 56 respectively. See Table 3 for full details.

Table 3.

Descriptive Statistics for Dependent Variable, Test Score (N = 1478)

Mean Median Mode SD Minimum Maximum
Score 63.32% 64.00% 80.00% 17.87% 4.00% 98.00%

Within each independent variable, mean test scores remained consistent as shown in Table 4. The largest variance was within the Grade variable, with 8th graders (n = 2 scoring) the highest (78%), and 10th graders (n = 109) scoring the lowest (55.63%).

Table 4.

Test Scores of Students within Each Independent Variable

Mean SD Median
Grade
 8 (n = 2) 78.00 14.14 78.00
 9 (n = 22) 46.18 17.17 45.00
 10 (n = 109) 55.63 18.86 56.00
 11 (n = 499) 61.84 18.37 62.00
 12 (n = 507) 66.32 17.09 68.00
 Beyond HS (n = 339) 64.49 16.49 66.00
Race
 White 63.60 16.91 66.00
 All Other Responses 62.44 20.88 62.00
Gender
 Female (n = 613) 63.33 18.49 64.00
 Male (n = 865) 63.30 17.44 66.00
Residence
 Rural (n = 776) 62.85 17.48 64.00
 Town (n = 434) 64.10 18.09 65.00
 Suburb (n = 169 64.21 18.41 64.00
 City (n = 99) 61.96 19.09 62.00

Linear Regression Model

In order to determine significant predictors of youth performance on the AET safety knowledge assessment, researchers completed a linear regression model. Using grade level, race, residence, and gender as independent variables, the regression model predicted 2.6% of the variance in test scores (R2 = .026). Within the model, Grade Level was a statically significant predictor of test scores. Race, Gender, and Residence were not statistically significant predictors of test scores. See Tables 5 and 6 for a complete summary of the regression model and associated coefficients.

Table 5.

Summary of the Regression Model to Predict Test Scores (N = 1476)

R R2 Adjusted R2 F p
.162 .026 .022 6.589 .000

Note: Predictors: (Constant), Residence, Gender, Grade, Race (White, All Other)

Table 6.

Regression Coefficients within the Model

95% CI
B SE Beta t Sig. LL UP
(Constant) 29.221 5.925 3. 4.931 .000 17.598 40.844
Grade 2.848 .480 .153 3.245 .000 1.907 3.789
Race* −1.660 1.149 −.039 −1.445 .149 −3.913 .593
Gender −.285 .944 −.008 −.302 .762 −2.136 1.566
Residence
 Rural .657 1.920 .018 .342 .732 −3.110 4.424
 Town 2.288 1.972 .058 1.160 .246 −1.580 6.157
 Suburb 2.519 2.241 .045 1.124 .261 −1.877 6.915

Note.

*

Race coded as White or Non-White.

Conclusions

The purpose of this project was to assess high school agricultural education youth safety knowledge by identifying selected demographics and determining significant predictors of youth performance, focusing on participant grade level, gender, race and residence. A limitation was the use of convenience sampling of participants who responded on AET. Generalizations based on study conclusions should be made with caution. Agricultural youth safety training is a continuous effort to ensure students have the basic understanding and knowledge to be safe in an agriculture setting. SBAE is a way to make contact with a variety of youth who are involved in agriculture. Specifically, students involved in SBAE come in contact with agriculture through their involvement in SAEs, which serves as an opportunity to apply learning occurred in the agricultural classroom.

Participant test scores ranged from 4 to 98, with the mean and median scores very close, implying a normal distribution. Test scores showed a bimodal distribution at two different points (62 and 80). Respondents had an overall mean of 63.32%, suggesting additional safety training needs to occur. However, the mode for respondents was 80% (SD – 17.87%), indicating a large swing in scores and the need for continued exploration. Within each independent variable, test scores averaged in the low 60’s with the exception of test scores from students in 8th, 9th, and 10th grade. Within each variable, mean test scores remained consistent with the largest variance in the Grade variable, which could indicate the time at which safety curriculum might be being taught to students in SBAE classrooms.

In order to determine significant predictors of youth performance on the AET safety knowledge assessment, researchers completed a linear regression model. Using grade level, race, residence, and gender as independent variables, the regression model predicted 2.6% of the variance in test scores (R2 = .026). Within the model, Grade Level was the only statically significant predictor of test scores. It is important to note only 25.6% of respondents indicated having received formal training, indicating the impact of professional focal points. The residence (rural, town, suburb and city) classification did not see a difference in participant performance. The changing demographic might be a focus to consider with students regarding the experiences and training they have with agricultural equipment and practices.

Future research is needed to determine the impact of safety training and at what point students are receiving this instruction in agricultural education programs. This will be important to understand the youth safety knowledge and why the results fluctuate. This understanding will help identify specific areas of professional development for agricultural educators to reduce the work-related injuries of youth involved in SAEs. One such provision for teachers to consider integrating within their SAE programming is the National Children’s Center Model Policy for youth in agriculture, which outlines guidelines for hired labor focusing on the youth employment, development, and the work environment (2020).

Acknowledgements

This research was supported by the Utah Agricultural Experiment Station, Utah State University, and approved as journal paper number 9471 and the High Plains Intermountain Center for Agriculture Health and Safety (HICAHS) (Grant No. 5U54OH008085-17). Its contents are solely the responsibility of the authors and do not necessarily represent the official views of HICAHS or USDA NIFA.

Footnotes

Written for presentation at the 2021 Annual International Meeting ASABE Virtual and On Demand July 12–16, 2021

References

  1. Agricultural Experience Tracker (AET). (2020). The AET Community. Retrieved from https://www.theaet.com/
  2. U. S. Bureau of Labor Statistics [BLS]. (2018). National Census of Fatal Occupational Injuries in 2017. USDL-18-1978. Washington, DC: Bureau of Labor Statistics. Retrieved from https://www.bls.gov/news.release/pdf/cfoi.pdf [Google Scholar]
  3. Camp WG, Clarke A, & Fallon M (2000). Revisiting supervised agricultural experience. J. Agric. Educ, 41(3), 13–22. [Google Scholar]
  4. Carrabba JJ, Field WE, Tormoehlen RL, Talbert BA (2000). Effectiveness of the Indiana 4-H tractor program at instilling safe tractor operating behaviors and attitudes in youth. J Agric Safety Health 6(3): 179–189. [DOI] [PubMed] [Google Scholar]
  5. FFA. (2020). 2020–2021 official FFA manual. Indianapolis, IN: National FFA Organization. Retrieved from https://www.ffa.org/official-manual/ [Google Scholar]
  6. Garvey PM, Murphy DJ, Yoder AM, & Hilton JW (2008). National safe tractor and machinery operation program: Development and content evaluation. J. Agric. Saf. Health, 14(3), 333–349. 10.13031/2013.24567 [DOI] [PubMed] [Google Scholar]
  7. Hard DL, & Myers JR (2006). Fatal work-related injuries in the agriculture production sector among youth in the united states, 1992–2002. J. Agromedicine, 11(2), 57–65. 10.1300/J096v11n02_09 [DOI] [PubMed] [Google Scholar]
  8. Hendricks KJ, Layne LA, & Goldcamp EM (2018). National estimates of youth and injuries on U.S. farms, 2012. J. Agric. Saf. Health, 24(4), 261–269. 10.13031/jash.13014 [DOI] [PMC free article] [PubMed] [Google Scholar]
  9. Jepsen SD (2012). The U.S. Department of Labor’s Tractor and Machinery Certification Program: Management Styles and Perceptions Held by Community Stakeholders and Instructors. J. of Agric. Saf. Health, 18(3), 217–232. 10.13031/2013.41958 [DOI] [PubMed] [Google Scholar]
  10. Lewis LJ, Rayfield J, & Moore LL (2012). Supervised agricultural experience: An examination of student knowledge and participation. J. Agric. Educ, 53(4), 70–84. [Google Scholar]
  11. Moules M (2013). Supervised agricultural experience programs and the importance of implementing them in a high school agriculture program. Senior project. San Luis Obispo, CA: California Polytechnic State University. [Google Scholar]
  12. National Children’s Center for Rural and Agriculture Health and Safety. (2020). Childhood Agricultural Injuries (U.S.) 2020 Fact Sheet. Retrieved from https://cultivatesafety.org/wp-content/uploads/2020/04/ChildAgInjuryFactsheet2020.pdf
  13. National Children’s Center for Rural and Agriculture Health and Safety. (2020). Model Policy: Youth Employment in Agriculture. Retrieved from https://www.marshfieldresearch.org/Media/Default/NFMC/National%20Childrens%20Center/PDFs/MCRF-Centers-NFMC-NCCRAHS-ModelPolicy_YouthEmployment_in_Agriculture.14.pdf
  14. National Institute for Occupational Safety and Health (NIOSH). (2014). Child Agricultural Injury Survey. https://www.cdc.gov/niosh/topics/childag/cais/default.html
  15. National Institute for Occupational Safety and Health (NIOSH) (2002). Recommendations to the U.S. Department of Labor for Changes to Hazardous Orders (pp. 1–176). National Institute for Occupational Safety and Health. https://www.cdc.gov/niosh/docs/nioshrecsdolhaz/default.html [Google Scholar]
  16. NCAE. (2015). Agriculture, food, and natural resources (AFNR) career clusters content standards. Indianapolis, IN: National Council for Agricultural Education. [Google Scholar]
  17. Pate ML, Lawver RG, Smalley SW, Perry DK, Stallones L, & Schultz A (2019). Agricultural Safety Education: Formative Assessment of a Curriculum Integration Strategy. J. Agric. Saf. Health, 25(2). 63–76. 10.13031/jash.13113 [DOI] [PMC free article] [PubMed] [Google Scholar]
  18. Perry DK, Smalley SW, & Pate ML (2020). Effectiveness of Utilizing an Evidence Based Safety Curriculum to Increase Student Knowledge. J. Agric. Educ, 61(3), 294–307. doi: 10.5032/jae.2020.0300294 [DOI] [PMC free article] [PubMed] [Google Scholar]
  19. Rubenstein ED, & Thorn AC (2014). Successful supervised agricultural experience programs as defined by American FFA degree star finalists. J. Agric. Educ, 55(3), 162–174. doi: 10.5032/jae.2014.03162 [DOI] [Google Scholar]
  20. Wilkinson TL, Schuler RT, Skjolaas CA, (1993). The effect of safety training and experience of youth tractor operators. Technical Paper at the Conference of the National Institute for Farm Safety, June 13–17, 1993, Coeur d’Alene, Idaho, Paper No. 93–6.

RESOURCES