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Enrollment in technology education at the college level has been declining ( Isbell & Lovedahl, 1989 ; Volk, 1997 ; Daugherty, 1998 ; Hill, 1999 ; Ndahi & Ritz, 2003 ; Moye, 2009 ). It is essential for technology teacher educators to investigate ways to increase the enrollment in their programs, or the profession may fail to provide technology teachers in the future ( Ndahi & Ritz, 2003 ). A solution that several institutions with technology education programs have adopted is the offering of the program via distance learning. Distance learning “allows participants to collapse time and space” ( Cole, 2000, p. ix ). According to Flowers (2003) technology education programs “with a history of hands-on learning at the undergraduate level” have been slow to implement distance learning techniques and strategies (p. 64). Therefore, it is important to explore the extent to which distance-learning technologies such as video modeling can be used by industrial and technical teacher education faculty. The intention of this study is to add to the body of knowledge on effective video modeling procedures and, in particular, the point of view used when recording instructional videos.
The purpose of this research was to identify which point of view—reportorial, subjective, or objective—better promotes content understanding and learning for hands-on activities in a technology education and industrial technology context.
The hypotheses that guided this study were:
H 0 : There is a significant difference among the reportorial, subjective, and objective instructional points of view for industrial and technology education courses.
H A : There is not a significant difference among the reportorial, subjective, and objective instructional points of view for industrial and technology education courses.
Video modeling involves making a video of someone performing a specific task or application ( Cannella-Malone et al., 2006 ). It can be described as a technique used to model a target skill by another individual whose actions and language are videotaped. A person watching the videotape of the targeted skill is expected to imitate behavior of the model as it is observed in the video ( D’Ateno, Mangiapanello, & Taylor, 2003 ). The video is then shown in its entirety to the individual at the beginning of each teaching session. After viewing the entire video, the individual is given the opportunity to perform the task in its entirety. Video modeling and prompting have been successfully used to teach a variety of functional skills such as withdrawing money from an ATM ( Alberto, Cihak, & Gama, 2005 ), purchasing items in a store ( Alcantara, 1994 ; Haring, Kennedy, Adams, & Pitts-Conway, 1987 ), daily life skills such as brushing teeth ( Charlop-Christy, Le, & Freeman, 2000 ), setting the table ( Cannella-Malone et al., 2006 ), cooking ( Shipley-Benamou, Lutzker, & Tauman, 2002 ), and vocational skills ( Mechling & Ortega-Hurndon, 2007 ). According to Ayres and Paas (2007) , there is growing extant literature on the use of video instruction for functional skills and trying to integrate technology (e.g., Mechling, 2004 ; Mechling & Cronin, 2006 ; Mechling & Gast, 2003 ; Norman, Collins, & Schuster, 2001 ).
Instructional video has been categorized based on the different points of views used while filming the video. McCoy and Hermansen (2007) defined point-of-view modeling as “the visual image that would be seen if the participant was engaged in the behavior including, images of hands demonstrating a specific skill, for example” (p. 185). Point-of-view video models are visual images that allow the participant to see a skill as if they were engaged in the behavior, including images of hands demonstrating a specific skill ( McCoy & Hermansen, 2007 ). The three main points of view used for instructional videos are: (a) subjective, (b) reportorial, and (c) objective ( Burrows and Wood, 1986 ). For the purposes of our study, we explain each of these points of view below.
The subjective point of view is often recommended as the dominant perspective. In the subjective point of view the students sees everything from the instructor’s eyes point of view (see figure 1). “It has the potential to enhance a feeling of viewer participation, in contrast to the objective ‘eavesdropper’ perspective” ( Willis, 1994, p. 179 ). To capture the subjective point of view, a camera would need to be mounted on top of the instructor’s head, facing the work being performed.
The reportorial point of view was often referred to as the view that comes from a non-biased source, in this case, from next to the instructor’s eyes . For this specific point of view the student sees everything as if he/she were standing to the side of the instructor (see figure 2). A camera needs to be positioned to the left or right of the instructor, facing the students, to represent the reportorial view for the instruction.
point of view is one in which the students receive
instruction (see figure 3). “most closely emulates face-to-face conversation and enables the instructor to maintain eye contact, through the lens of the camera, with the distant learner” (
Willis, 1994, p. 179
). In addition,
stated that “the video camera moves as if it were the viewer and shows what is supposed to be seen through his/her eyes” (p. 29).
Stahmer, Ingersoll, and Carter (2003) suggested that video modeling may succeed when other methods have failed. Hammond, Whatley, Ayres, and Gast (2010) noted that video gives the learner an opportunity to view the content repeatedly at any time, provides the instructor with easy editing ability to customize footage for the learner, and provides an authentic environment that mirrors real world experiences. Video modeling can also be an effective intervention for reducing problem behaviors, increasing play actions, and teaching functional living skills. Researchers have used video modeling to teach individuals such skills as purchasing ( Alcantara, 1994; Haring et al., 1987 ), conversation ( Charlop & Milstein, 1989; Sherer et al., 2001 ), perspective taking ( Charlop-Christy & Daneshvar, 2003 ; LeBlanc et al., 2003 ), spelling ( Kinney, Vedora, & Stromer, 2003 ), and daily living ( Shipley-Benamou, Lutzker, & Taubman, 2002 ).
While most of the video instruction literature relates to research in special education (specifically autism), its applicability to groups of college students in the field of industrial and technology education seems like a perfect fit. Bowie (1986) found that film is very effective in teaching observational skills and in training learners on important details. In addition, Bowie (1986) indicated that using this method for problem-solving activities, skills of inquiry, and discovery may be an effective vehicle for delivering instruction. Mechling and Ortega-Hurndon (1997) reported the value of video technology in simulating “settings, events, and scenarios…that will generalize from the school to community environments” (p. 25). In addition, Moore and Anderson (2010) noted that point-of-view video modeling may be effective in the “[reduction] of problem behaviors, increasing play actions, and teaching functional living skills” (p. 208).
Some other advantages and disadvantages in video modeling may include (but are not limited to):
Video modeling can also be an effective intervention for reducing problem behaviors, increasing play actions, and teaching functional living skills. Schreibman, Whalen, and Stahmer (2000) conducted several experiments using point-of-view modeling in which problematic behaviors were reduced and maintained during post treatment and during 1-month follow-up visits. A study performed by Hine and Wolery (2006) , revealed that during play action, actions were increased based on the video modeling condition presented. Children were shown a video where a pair of hands properly manipulated toys in a bin, and once the children viewed this video they were instructed to play with the toys based on what had been shown in the video. During baseline children performed two types of actions; however, the video modeling implementation showed the number of actions doubled to four. Follow up with video modeling revealed the number of actions to remain high from four to six actions.
According to Moore and Anderson (2010) , point-of-view video modeling research is a relatively novel approach with little published research. Prior to Moore and Anderson’s study, only six studies on the subject had been published: Alberto, Cihak, and Gama (2001) ; Hine and Wolery (2006) ; Norman, Collins, and Schuster (2001) ; Schreibman, Whalen, and Stahmer (2000) ; Shipley-Benamou, Lutzker, & Taubman (2002) ; and Sigafoos, O’Reilly, and Cannella (2005) . Scheibman et al. (2000) described their model as priming , while Sigafoos et al. (2005) described their model as prompting ( Moore & Anderson, 2010 ).
However, there is much to be learned about the elements of the model and of the processes and contexts in which it is presented, which leads to differential effectiveness of the point-of-view modeling process. According to Moore and Anderson (2010) , very little published research is available on this variant of video modeling. First studied in 2000, point-of-view video modeling was recorded using the subjective perspective. Since 2000, four additional studies have been conducted using video footage from the perspective of the viewer. In this footage, only hands were visible to the viewer ( McCoy & Hermansen, 2007 ). “One of the theoretical foundations of video instruction relates to observational learning” (Bandura, 1969, 1977; as cited in Hammond, Whatley, Ayres, & Gast, 2010, p. 525 ). Specifically, Bandura noted that student engagement in observational learning (or learning skills) is related directly to their observation of others performing those skills (Bandura, 1969, 1977; as cited in Hammond et al. , 2010 ).
A quasi-experimental study was selected as a means to perform the instructional point-of-view study during the spring semester of 2012. The study was conducted in a materials process course, STEM221, offered at Old Dominion University as a part of the STEM program. The population of the study was the course participants, and since STEM221 contains several hands-on projects where instruction through demonstration is common the researchers felt that the group was appropriate. The study’s goal was to identify which point of view—reportorial, subjective, or objective—better promotes content understanding and learning for hands-on activities in a technology education and industrial technology context.
This materials process course introduced the students to basic content and skills needed to process common materials and produce functional products using woods, metals, plastics, and composite materials. This course also included laboratory safety, use of hand tools, and operation of machinery. Course content was reiterated to students through laboratory discovery experiences in materials testing and construction of multi-material projects. Pedagogy and learning outcomes were based on the creation and demonstration of physical products.
Three instructional films demonstrating facing, turning, and drilling on a lathe were created by the researchers and validated by instructional technology faculty at the college. To prevent bias all films were of the same length and used the same narrative piece of activity explanation. The first film was created using a subjective point of view using an overhead camera. The students in this case were able to receive instruction through the instructor’s eyes. The second film was created using an objective point of view. The students in this case were able to receive face-to-face instruction. The third film was created using the reportorial point of view. The students in this case were able to receive instruction from a point of view next to the instructor’s eyes, more specifically, to the right side of the instructor, as if they were standing next to him.
All three films share the same narrative instruction, which were filmed at the same time, with the only difference being the point of view. All groups watched the same films. After viewing the films, the student participants were divided in three groups ( n 1=14, n 2=15, and n 3= 14 with an overall population of n = 43 and completed a written content quiz related to the demonstration. The groups were then sent into three different rooms according to the three different instructional views to demonstrate the three lathe applications, turning, facing and drilling, on the lathe. Each group only watched the assigned point-of-view modeling. During the demonstration on the lathe, the instructor, with the help of a teaching assistant, completed a direct observation instrument to identify activity completeness. Prior to the experiment, the instrument was validated using graduate students during lab activities, and a positive correlation was observed. The instrument measured time that it took to complete activity, comfort level, and overall completion results. Using a 1–5 Likert scale, the researchers were able to document the results. Using both the written quiz and direct observation instrument, analysis of the data began.
The first method of data collection involved direct observation of the participants as they physically replicated the instruction. The instructor and teaching assistant scored the participants on a scale of 1–5 on their ability to complete the activity. The instrument had three categories: (a) time to complete activity, (b) comfort level (hesitation in between different steps of the process), and (c) overall completion of the activity. As shown in Table 1, the group that received instruction via subjective means ( n = 14) had a mean observation score of 4.07. The groups that received instruction via objective ( n = 15) and reportorial ( n = 14) views had higher observation scores of 5.86 and 5.14 respectively. A one-way ANOVA was run to compare the mean scores for significant differences among the three groups. The result of the ANOVA test, as shown in table 2, was significant, F(2, 40) = 14.54, p < 0.01. The data was dissected further through the use of a post hoc Tukey’s honestly significant difference (HSD) test. As it can be seen in table 3, the post hoc analysis shows a statistically significant difference between the subjective and objective points of view ( p < 0.001, d = 2.08) and the subjective and reportorial points of view ( p = 0.008, d = 1.54), with the subjective point of view being significantly lower in both cases.
After viewing the instructional videos, a quiz was given to the participants. The quiz was given to each of the three groups of Reportorial, Subjective, and Objective, based on the instructional exposure of the participants. As shown in table 4, the groups that received the instruction via subjective views ( n = 14) and objective views ( n = 15) had similar quiz scores of 30.57 and 28.66 respectively. The group that received instruction via reportorial views ( n = 14) achieved a higher mean score of 36.21. A one-way ANOVA was run to compare the mean scores for significant differences among the three groups. The result of the ANOVA test, as shown in table 5, was not significant. However, it should be noted that the group who received instruction with reportorial views was the only group to score well with both hands-on demonstration and written comprehension.
|Quiz||N||Mean||SD||Std. Error||95% Confidence Interval for Mean|
|Lower Bound||Upper Bound|
|* Denotes statistical significance|
|Between Groups||23.531||2||11.765||14.536||< 0.001*|
|Views (1 vs. 2)||Mean Diff. (1-2)||Std. Error||p|
|* Denotes statistical significance|
|Subjective vs. Objective||-1.80||0.334||< 0.001*|
|Subjective vs. Reportorial||-1.07||0.34||0.008*|
|Objective vs. Reportorial||0.724||0.334||0.09|
|Quiz||N||Mean||SD||Std. Error||95% Confidence Interval for Mean|
|Lower Bound||Upper Bound|
|* Denotes statistical significance|
This study was done to determine any differences among points of view with video modeling instruction and to identify if any provided better instruction for students in industrial and technology education courses. In particular, the study compared the objective, subjective, and reportorial points of view. It was found that the objective view (face to face) and the reportorial view (shot next to the instructor’s head) both provided statistically significant higher scores than the subjective view (shot from where the students are standing) when the students demonstrated what they learned. While not statistically significant, the students who received instruction via the reportorial view outperformed their peers who received instruction from the other two views on a written quiz. This could indicate that students were better able to comprehend instruction given from the eyes of the instructor or reportorial view, over the objective and subjective views. If this is the case, a major question arises: Why is the subjective point of view used most often in instructional videos?
It should be noted that the majority of instructional videos created in the past and today use the objective point of view as the primary one, regardless of the academic subject and content area. Using instructional videos to teach industrial technology and technology education hands-on tasks has great potential. We have the ability to share instructional resources, such as pre-recorded videos, and provide instruction to students at a distance. However, it appears that more research is needed on the camera view used to shoot those videos. This small exploratory study provided results contrary to the commonly used method of placing a camera facing the instructor to represent the view of a student in front of the activity. Instead, a view from the instructor’s eyes by placing the camera on the head of the instructor while shooting seems to give the students a better understanding of the task being taught.
The researchers suggest that the current of point-of-view database on video instructional modeling be strengthened by repeating the study with additional sections of the course. The researchers also plan to review courses outside of the materials process course that contain additional academic majors, engineering technology in particular, to determine if this course is representative of the programs in general. In addition, the researchers are interested in further exploring the optimal point of view. Further research is needed to determine if cultural differences have an effect. An assumption could be that different eastern European cultures favor a different point of view over another.
While conducting the literature review to better focus this research, it was determined that there was a lack of research undertaken on cognitive technical distance learning. By understanding the optimal point of view for distance learning in technology education and industrial technology, distance instruction can be enhanced through the use of recorded or live video feeds.
Petros J. Katsioloudis ( firstname.lastname@example.org ) is an Associate Professor in the Department of STEM Education at Old Dominion University; Todd D. Fantz ( email@example.com ) is an Assistant Professor in the Department of STEM Education at Regis University; Millie Jones ( firstname.lastname@example.org ) is a Graduate Student in the Department of STEM Education at Old Dominion University.
Alberto, P. A., Cihak, D. F., & Gama, R. I. (2005). Use of static picture prompts versus video modeling during simulation. Research in Developmental Disabilities 26 , 327–329, Doi: 10.1016/j.ridd.2004.11.002.
Alcantara, P. R. (1994). Effects of videotape instructional package on purchasing skills of children with autism. Exceptional Children, 61 , 40–55.
Ayres, P., & Paas, F. (2007). Making instructional animations more effective: A cognitive load approach. Applied Cognitive Psychology, 21 : 695–700. Doi: 10.1002/acp.1343.
Bowie, M. M. (1986). Instructional film research and the learner . Paper presented at the Annual Convention of the Association for Educational Communications and Technology. Las Vegas, NV, January 16–21, 1986.
Burrows, T. D., & Wood, D. N. (1986). Television production: Disciplines and technique . Dubuque, IA: W. C. Brown.
Cannella-Malone, H., Sigafoos, J., O’Reilly, M., De la Cruz, B., Edrisinha, C., & Lancioni, G. E. (2006). Comparing video prompting to video modeling for teaching daily living skills to six adults with developmental delay. Education and Training in Developmental Disabilities, 41 , 344–356.
Charlop, M. H., & Milstein, J. P. (1989). Teaching autistic children conversational speech using video modeling. Journal of Applied Behavior Analysis, 22 , 275–285.
Charlop-Christy M.H., Daneshvar S. (2003). Using video modeling to teach perspective taking to children with autism. Journal of Positive Behavior Interventions. 36 (2), 12–21.
Charlop-Christy, M. H., Le, L., & Freeman, K. A. (2000). A comparison of video modeling with in vivo modeling for teaching children with autism. Journal of Autism and Developmental Disorders, 30 , 537–552.
Cole, R. A. (2000). Issues in web-based pedagogy: A critical primer. Westport, CT: Grenwood Press.
Daugherty, M. K. (1998). A recruitment crisis: Strategies for affecting change. The Technology teacher, 57 (7), 21–26.
D’Ateno, P., Mangiapanello, K., & Taylor, B. A. (2003). Using video modeling to teach complex play sequences to a preschooler with autism. Journal of Positive Behavior Interventions, 5 , 5–11.
Flowers, J. (2003). Under Review: Handbook on distance education. Journal of Industrial Teacher Education, 40 (4), 64–72 .
Hammond, D. L., Whatley, A. D., Ayres, K. M., & Gast, D. L. (2010). Effectiveness of video modeling to teach iPod use to students with moderate intellectual disabilities. Education and Training in Autism and Developmental Disabilities , 2010, 45 (4), 525–538.
Haring, T. G., Kennedy, C. H., Adams, M. J., & Pitts-Conway, V. (1987). Teaching generalization of purchasing skills across community settings to autistic youth using videotape modeling. Journal of Applied Behavior Analysis, 20 , 89–96.
Hine, J. F., & Wolery, M. (2006). Using point-of-view modeling to teach play to preschoolers with autism. Topics in Early Childhood Special Education, 26 , 83–93.
Hill, C. E. (1999). Signs of distress in technology education programs. The Technology Teacher, 58 (7), 21–25.
Isbell, C. H., & Lovedahl, G. G. (1989). A survey of recruitment techniques used in industrial arts/technology education programs. The Journal of Epsilon Pi Tau, 15 (1), 37–41.
Kinney, E. M., Vedora, J., & Stromer, R. (2003). Computer-presented video models to teach generative spelling to a child with an autism spectrum disorder. Journal of Positive Behavior Interventions, 5 (1), 22-29.
LeBlanc, L. A., Coates, A. M., Daneshvar, S., Charlop-Christy, M. H., Morris, C., & Lancaster, B. M. (2003). Using video modeling and reinforcement to teach perspective-taking skills to children with autism. Journal of Applied Behavior Analysis, 36 (2), 253-257.
McCoy, K., & Hermansen, E. (2007). Video modeling for individuals with autism: A review of model types and effects. Education and Treatment of Children, 30 (4), 183–213. doi: 10.1353/etc.2007.0029
Mechling, L. C. (2004). Effects of multi-media, computer-based instruction on grocery shopping fluency. Journal of Special Education Technology, 19 , 23–34.
Mechling, L. C. (2005). The effect of instructor-created video programs to teach students with disabilities: A literature review. Journal of Special Education Technology, 20 (2), 25–36.
Mechling, L. C. & Cronin, B. A. (2006). Computer-based video instruction to teach augmentative communication device use for making purchases in fast food restaurants. Journal of Special Education, 39 , 234–245.
Mechling, L. C., & Gast, D. (2003). Multimedia instruction to teach grocery store location: A study of generalization. E ducation and Training in Developmental Disabilities, 38 , 62–76.
Mechling, L., & Ortega-Hurndon, F. (2007). Computer-based video instruction to teach young adults with moderate intellectual disabilities to perform multiple step, job tasks in a generalize setting. Education and Training in Developmental Disabilities , 2007, 42 (1), 24–37.
Moore, D. W., & Anderson, A. (2010). Point-of-view video-mediated procedure is effective for teaching children with autism to maintain contact and initiate and maintain scripted social interactions with others. Evidence-based Communication Assessment and Intervention , 2010, 4 (4), 205–210.
Moye, J. (2009). Technology Education Teacher Supply and Demand-A critical Situation. The Technology and Engineering Teacher, 69 (2), 30–16.
Ndahi, H. B., & Ritz, J. M. (2003). Technology education teacher demand, 2002–2005. The Technology Teacher, 62 (7), 27–31.
Norman, J. M., Collins, B. C., & Schuster, J. W. (2001). Using an instructional package including video technology to teach self-help skills to elementary students with mental disabilities. Journal of Special Education Technology, 16 , 5–18.
Schreibman, L., Whalen, C., & Stahmer, A. C. (2000). The use of video priming to reduce disruptive transition behavior in children with autism. Journal of Positive Behavior Interventions, 2 , 3–11.
Sherer, M., Pierce, K. L., Paredes, S., Kisacky, K. L., Ingersoll, B., & Schreibman, L. (2001). Enhancing conversation skills in children with autism via video technology: Which is better, "Self" or "Other" as a model? Behavior Modification, 25 (1), 140–158.
Shipley-Benamou, R., Lutzker, J. R., & Taubman, M. (2002). Teaching daily living skills to children with autism through instructional video modeling. Journal of Positive Behavior Interventions, 4 , 165–175.
Sigafoos, J., O’Reilly, M., & Cannella, H. (2005). Computer-presented video prompting for teaching microwave oven use to three adults with developmental disabilities. Journal of Behavioral Education, 14 , 189–201.
Stahmer, A. C., Ingersoll, B., & Carter, C. (2003). Behavioral approaches to promoting play. Autism; The International Journal of Research and Practice, 7 , 401–413.
Volk, K. S. (1997). Going, going, gone? Recent trends in technology teacher preparation programs. Journal of Technology Education, 8 (2), 67–71.
Willis, B. D. (1994). Distance Education: Strategies and Tools . Englewood Cliffs, NJ:.Educational Technology Publishers.