Research Collaborator
Secondary Data Collectors
A new tool to quickly make horseback riding safer for beginners at a trail riding stable.
Research Collaborator
Secondary Data Collectors
Lead Researcher
Research Planning & Execution
Data Collection & Analysis
Videography
Behavior Change Design
Project Management
Ethnography
Field Experiment
Descriptive Statistics
Inferential Statistics
iMovie
Paper & Pencil
Microsoft Excel
SPSS
Recreational horse-related activities have evolved into a booming industry, with trail riding particularly popular in the United States. Trail riding offers a chance to enjoy the outdoors and relieve stress, while not requiring the rider to be physically fit.
Rental stables, such as Giant City Stables in Illinois, are especially popular among inexperienced riders. Here, riders pay for a horse rental, rather than a riding lesson. Although most rental stables are appropriate for beginner riders (Pavia, 2005), there is no guarantee that riders will be taught basic riding skills.
Although horseback riding carries risks, with injuries ranging from minor to severe, many incidents are preventable. To ensure a safer and more enjoyable experience, trail riders should know the basics of how to ride and operate a horse before embarking down the open trail.
I began this project by talking with stakeholders to:
By speaking with stakeholders, I learned that:
Upon arrival at the stables, customers were asked to complete a short survey to assess their competency in horseback riding. Data confirmed that a majority of customers were beginner riders with less than 10 hours of prior horseback riding experience.
I conducted multiple, all-day ethnographic research sessions at the stable to better understand the full scope of business workflows from open until close, the business-customer dynamics, and customer needs. I was also looking for recurring challenges and potential design opportunities.
Observations also revealed potential behavioral barriers, such as cognitive overload from brief verbal instructions, and social hesitations that prevented customers from asking questions during group briefings.
I conducted multiple, all-day ethnographic research sessions at the stable to better understand the full scope of business workflows from open until close, the business-customer dynamics, and customer needs. I was also looking for recurring challenges and potential design opportunities.
The project's goal was to improve beginners' horseback riding and safety knowledge through targeted behavior change. To pinpoint the target behaviors of interest, I consulted the authoritative literature and expertise of the stable owner, who had more than 20 years of experience with horses. We identified four essential behaviors critical for a safe and successful riding experience:
By focusing on these core skills, we could help new riders build confidence and enjoy their time in the saddle safely, addressing both safety outcomes and rider self-efficacy.
Discovery research revealed two main barriers to safe riding:
Using the ethnography insights, I identified an ideal behavior change opportunity: the downtime after customer check-in. Customers were already waiting during this period, making it a natural moment for a behavioral nudge by converting passive waiting into a structured learning opportunity.
Based on research insights and known business constraints, the behavior change design solution needed to be:
When designing a behavior change intervention, it's crucial to start with a review of existing scientific literature. I conducted a literature review to find proven approaches for improving safety behaviors in high-risk activities.
My research revealed a surprising gap: there were few empirical studies specifically addressing the adoption of horse safety practices, teaching horseback riding skills, or trail riding. Consequently, I explored findings from the athletic safety and skill training literature to broaden my understanding and inform the intervention.
The University of Kentucky Healthcare sponsored a five-year Saddle Up Safely Rider Safety Program aimed at educating riders on horse handling safety and reducing horse-related injuries. The program featured an interactive website with safety quizzes, tips, blogs, expert advice, and brochures. However, the program's effectiveness was not directly assessed.
One way to convey safety education is through video.
Numerous commercially available options can be found on platforms like Amazon, covering topics such as boating skills, stranger safety, gun safety, fire safety, water safety, hunter safety, and bicycle safety.
Additionally, many safety videos have been systematically evaluated in the behavioral safety literature addressing issues like home hazards, domestic violence in the workplace, child passenger safety, proper patient lifting, and injury prevention in sports.
The University of Kentucky Healthcare sponsored a five-year Saddle Up Safely Rider Safety Program aimed at educating riders on horse handling safety and reducing horse-related injuries. The program featured an interactive website with safety quizzes, tips, blogs, expert advice, and brochures. However, the program's effectiveness was not directly assessed.
Additionally, many safety videos have been systematically evaluated in the behavioral safety literature addressing issues like home hazards, domestic violence in the workplace, child passenger safety, proper patient lifting, and injury prevention in sports.
Video-based training emerged as a consistently effective approach for teaching skills in physical sports and high-risk activities. Research showed that video modeling, which leverages observational learning, can improve skill acquisition and promote safe behaviors in sports including basketball, climbing, football, gymnastics, lifting, skiing, tennis, softball, and volleyball.
Observational learning is a well-established behavioral science technique for teaching physical skills through demonstration.
One notable study by Cook, Cusimano, Tator, and Chipman (2003) found that a safety video reduced dangerous penalties in hockey while improving players’ concussion knowledge, demonstrating how video can drive both immediate behavior change and longer-term retention.
Video-based training emerged as a consistently effective approach for teaching skills in physical sports and high-risk activities. Research showed that video modeling, which leverages observational learning, can improve skill acquisition and promote safe behaviors in sports including basketball, climbing, football, gymnastics, lifting, skiing, tennis, softball, and volleyball.
One notable study by Cook, Cusimano, Tator, and Chipman (2003) found that a safety video reduced dangerous penalties in hockey while improving players’ concussion knowledge, demonstrating how video can drive both immediate behavior change and longer-term retention.
Based on the scientific literature, video modeling offered several behavioral and practical benefits for this project:
The video solution also aligned with business needs. It was a low-cost solution, staff just had to press play, it seamlessly integrated into the current wait process, and could be customized for this specific riding stable.
For safety precautions, verbal instructions remained in place at the key stakeholder's request. The video offered a valuable, supplemental training layer.
What: Customers watch a safety traiing video demonstrating essential riding skills and rules.
Where: Waiting area at Giant City Stables
Who: Facilitated by staff or a stable volunteer (minimal involvement needed)
When: After check-in, before the trail ride begins
How Often: Before every trail ride
This approach transformed existing downtime into an opportunity for structured, low-effort behavior change that builds confidence, reduces safety risks, and improves customer experience.
By embedding this intervention into the natural flow of the visit, we created a low-friction, default behavior change opportunity that aligns with both safety goals and business operations.
Together with the stable manager (combined 40+ years of horse experience), we developed the Horse Operation and Riding Safety Expectations (HORSE) Task Analysis. The detailed task analysis broke down the four key riding skills (mounting, steering, riding, and dismounting) into step-by-step observable actions.
The task analysis allowed us to clearly define the expected riding behaviors. It also provided a consistent framework for instruction, behavioral shaping, and performance measurement.
I created multiple iterations of the instructional video script and storyboard, in collaboration with the stable manager. All footage was filmed on-site at Giant City Stables and edited using iMovie.
The resulting 4-minute instructional video used behavioral modeling techniques, showing step-by-step demonstrations with subtitles of how to mount, steer, ride on the trail, and dismount a horse.
The steering segment featured a rider's point of view to visually model common maneuvers such as turning and stopping. The video was directly aligned with the HORSE task analysis, ensuring consistency between the learning materials and performance expectations.
The video prototype was reviewed by stakeholders and revised based on their feedback. It was then field-tested with customers and refined again after observing its impact.
Participants were drawn from customers attending guided trail rides at Giant City Stables during regular business hours. Riders with more than 10 hours of riding experience were excluded from this field experiment to focus on beginner behavior change.
I conducted a post-test only field experiment using a between-groups design. Due to safety concerns, I did not include a pretest or a “no-instruction” control group.
Customers were randomly assigned to one of the following conditions (all riders on the same trail ride received the same condition):
All customers were, at minimum, presented with the stable's standard verbal instructions.
After check-in, customers were directed to either watch the video in the waiting area and/or meet by the arena for the verbal instructions. Wranglers prepared the horses during this time. After the instruction, customers were assigned horses, mounted up, and set off on their trail rides.
Wranglers refrained from intervening unless necessary for safety, allowing riders’ behavior to naturally reflect their training.
During the first field experiment, I observed recurring challenges across groups while managing their horses (e.g., stopping a horse from eating grass, steering horses who veer off the trail, and making a horse stand still).
These challenges highlighted the need for context-specific behavior modeling. I created a second version of the video (5 minutes 30 seconds) that included:
The revised video (Vr) replaced the original version (V) for the next field experiment.
We assessed up to five beginner riders per trail ride using the HORSE Task Analysis. Observers evaluated all mounting and dismounting components in the barnyard. Riding and steering skills were observed at two designated checkpoints along the trail known for common difficulties.
A second trained observer independently recorded data for 67% of the riders to ensure interobserver agreement and minimize bias. All secondary observers were current or former volunteers at Giant City Stables, familiar with stable protocols.
The analysis revealed a significant difference between types of instruction (F (2,42) = 6.797, p < 0.05). Riders who only received standard instruction (SI) completed significantly fewer correct riding skills independently compared to those who also watched either version of the video modeling. Although there wasn't a statistically significant difference between the two video versions, similar positive trends were seen in both, particularly for mounting and dismounting behaviors
These results demonstrate the value of integrating video-based behavior modeling into training. The videos improved beginner riders’ ability to independently perform essential riding behaviors, demonstrating the effectiveness of video modeling and observational learning.


A one-way ANOVA and Tukey’s HSD post-hoc tests were computed to compare the mean percentage of Horse Operation and Riding Safety Expectations (HORSE) task analysis components completed independently (overall and across categories) by customers who qualified for the study (i.e., beginner riders) across all three instruction conditions. The one-way ANOVA revealed a significant difference for the type of instruction (F (2,42) = 6.797, p < 0.05). Consequently, Tukey’s HSD was used to determine the nature of the differences between the types of instruction.
Customers who only received the classic standard instruction (SI) completed significantly fewer overall horseback riding skills independently (m = 77.10, sd = 4.95) than customers who received standard instruction paired with the first iteration of the instructional video (V) prototype (m = 84.72, sd = 10.55) or the revised video (Vr) prototype (m = 88.96, sd = 7.18). However, there were no significant differences found in the riding skills of customers who watched either version of the instructional video. Statistical analyses found similar findings across the mounting and dismounting categories.
Horseback riding skills were evaluated with the HORSE task analysis at both the beginning and end of the trail ride. Similar to the other findings, significantly fewer riding skills were completed correctly by customers leaving on the trail ride who only received the standard verbal instruction (m = 83.76, sd = 12.01) than customers who also watched the revised instructional video (m = 97.22, sd = 5.14). The overall horseback riding skills of customers who watched the first version of the training video (V) in addition to the standard instruction was not significantly different from either of the other two instructional conditions. Similar findings were also found in the customer's steering skills. No significant differences were found in customer riding skills as they returned from their 40-minute trail ride or in the frequency of prompts given to customers by wranglers.
The results suggest that, at least for this horseback riding stable, a custom-designed instructional video can serve as a quick, effective, and scalable tool to teach essential riding behaviors to beginners, especially when paired with standard instruction.
The stable manager reported observing noticeable improvements among riders who had watched the supplemental video, particularly during dismounting and at the barnyard upon return. Despite her initial reluctance about adding the video, she now requires all customers to watch the video (Vr) before their trail rides. She views it as a necessary step for improving rider confidence and safety.
This outcome reflects a broader behavioral insight: structured, observational learning, delivered through video modeling, can build rider self-efficacy, reduce safety risks, and improve skill acquisition in recreational settings.
There were several methodological limitations to note:
This study did not evaluate the effects of video instruction alone because of potential safety concerns about removing in-person instruction. A future follow-up study could explore whether the video (on its own) can effectively teach the full set of safety skills outlined in the Horse Operation and Rider Safety Expectations (HORSE) Task Analysis.
This project not only addressed a pressing safety need but also represents a unique application of behavior modeling within the recreational horse industry. It suggests that similar approaches could be extended to other equestrian activities to promote safer, more confident riding behaviors.