Abstract

 Computer technology has increasingly gained importance in the counseling profession. Therefore, counselor education training programs have begun to accept the need for increased technological proficiency in their graduates entering the job market. Computers are used to manipulate data, do word processing, and even facilitating client progress in counseling service delivery. The focus of this article is to assess student computer competency level as an effect of a one-credit hour introductory course in computer technology. The ACES Technology Interest Network recommended the 12 computer competencies selected for this research study. Results indicate student computer competencies increased after completing the computer technology course in the following areas: ethics, assisting clients with internet searches, statistical packages, listserv knowledge, CD-Rom, presentation software, and evaluating information from the internet. Findings indicate no group differences existed between the control and the experimental groups on motivation factors involved with computers usage such as: external regulation, identified regulation, introjected regulation, and intrinsic motivation. Implications for counselor educators and students are presented.


            Computers have been more widely used in counseling for record keeping (Katz & Shatkin, 1983), data analysis (Harris-Bowlsbey, 1983), cybercounseling and cyberlearning (Bloom & Waltz, 2000). In addition, counselor educators are beginning to use computer applications in the training of counselors (Cairo, 1984). The National Board for Certified Counselors (NBCC) and the Council for the Accreditation of Counseling and Related Educational Programs (CACREP) have adopted guidelines on the use of technology in training counselors (Hayes, 2001). These progressive movements provide the impetus for incorporation of technology training in counselor preparation programs.

            The Association for Counselor Education and Supervision (ACES, 1999) Technology Interest Network recommended twelve technical competencies necessary for counselor training (Appendix A). These 12 competencies are directly related to training counseling students and establish the first level of technology skills a counselor may need to be technologically competent. McFadden and Jencius (2000) describe these computer competencies as absolutes for counselors to master. While computer competencies may be absolutes for counselors, many have not considered computer competencies involve a developmental process and require technical skills. Myers and Gibson (1999) directed by the ACES Technology Interest Network surveyed counselor educators and students. Their findings revealed counselor educators and students lacked a uniformly high level of competency in each of the 12 areas.

            Since 1984, the University of Iowa has incorporated an introductory computer course into the counselor education curriculum to expose masters’ level students to computer technology. This course is designed to advance the use of technology for guidance and counseling professionals. The course emerged from a response from the school guidance and counseling professionals. The first course provided training in computer fundamentals on AppleIIw computers, using interactive video skills and CD-I, word processing, spreadsheet and database with AppleWorks, and graphics with MacPaint. The course has now expanded into teaching internet searching related to counseling, cybercounseling ethical responsibilities, development of web pages, presentation software (i.e., PowerPoint) and statistical packages. A distance hybrid learning approach is utilized by facilitating learning through web-based instruction called WebCT.

             The current study was designed to examine the lack of uniformity among counseling students described by the findings of Myers and Gibson (1999). An investigation of the effectiveness of a required technology course on student computer competency appeared necessary. Research questions were as follows:

 1.      Do students with or without computer instruction differ significantly in computer competencies?

 2.      Do students with or without computer instruction differ significantly on their motivation towards computer usage?

            The researchers hypothesized that students with computer instruction would differ from students without computer instruction on their level of computer competency and motivation towards computer usage.

 

Method

             This empirical study utilized a quasi-experimental cohort research design (Cook & Campbell, 1979; Cook, Campbell, & Peracchio, 1990). This quasi-experimental design assumed quasi-comparability between successive cohorts (Cook & Campbell, 1979). Therefore, the successive cohort groups were the summer and fall semester classes of 7C: 281 course at the University of Iowa. Comparisons were made between an experimental group and a control group. Pre and posttest scores were reported for the experimental group and compared to the pre-test scores of the control group. The statistical comparison was made between the summer (experimental group) posttest scores and the fall (control group) pre-test scores.

Participants

             Twenty-six (experimental group N=16, control group N=10) masters level counseling students in the Division of Counseling, Rehabilitation, and Student Development were involved in this study. All students were enrolled in the 7C: 281 Introduction to Computers for Counselors course during the summer and fall semesters of 2001. The master’s level students were in four counseling programs within the division: rehabilitation counseling, school counseling, student development, and substance abuse. Students voluntarily participated in the study.

             The study participants consisted of 26 students with 84.2 %  females and 15.8 % males. The respondents ranged in age from 22-57 years with 50% between 22-27 years old. Sixty-seven percent had a status of being a full-time student. Thirty-seven percent of the respondents were in the school counseling program, 32 % rehabilitation counseling program, 13 % substance abuse program, and 18% student development program. The mean number of courses completed toward a counseling degree was 6.1 with an average of 19.0 semester hours accumulated. Sixty-five percent indicated they had taken a technology course.

Experimental Group

             The experimental group consisted of 16 students with 89.3% females and 10.7% males. Forty-two percent of the respondents were in the school counseling program, 33% were in the rehabilitation counseling program, 18% were in the substance abuse counseling program, and 7% were in the student development program. These respondents ranged in age from 22-57 years. The majority (43%) of the respondents were in the 22-27 age range with 36% aligning in the 28-33 years age range.  The pretest surveys revealed 57% of experimental group respondents were full-time students and 68% had taken a computer course prior to this course. The mean number of courses completed toward a counseling degree was 5.3 with an average of 17.6 semester hours accumulated. Only one experimental group member reported that they had taken a course within the counselor education curriculum that utilized technology in the course.

             The respondents were asked to identify the types of technology they currently used or have used previous to this course. Responses indicated 100% had used word processing software, 81% had used electronic mail, 50% had utilized audiovisual equipment, 44% had a course using web-based or web-assisted instruction, 18% acknowledged use of statistical programs, 18% cited usage of a listserv, 6% had used a cd-rom, and 6% indicated other technology.

             The posttest survey was completed by only 12 of the 16 original respondents. Two respondents specified they had taken a course within counselor education curriculum that utilized technology. Respondents were asked to identify the types of technology they currently used or had used before the technology course. These responses yielded the following frequency information on usage was provided: 96% word processing software, 89% electronic mail, 53% audiovisual equipment, 54% web-based or web-assisted instruction, 32% statistical software, 25% listserv, 14% cd-roms, and 7% other technology.

Control Group

             The control group consisted of 10 masters students enrolled in the 7C: 281 Introduction to Computers For Counselors course.  The control group consisted of 60.0% females and 40.0% males. Fifty percent of the respondents were in the student development program, 30% were in rehabilitation counseling program, and 20% were in the school counseling program. These respondents ranged in age from 21-33 years. The majority (70%) of the respondents were in the 22-27 age range. Eighty percent were full-time students and 70% had taken a computer course prior to this class. The average number of courses taken toward completion of a counseling degree was 5.6 with a mean cumulative semester hours score of 15.8. Two respondents from the control group reported they had taken a counseling course, which required the use of technology. Respondents were asked to identify the types of technology experience they held prior to the technology course. Their responses indicated usage in the following areas: 100% word processing software, 100% electronic mail, 60% audiovisual equipment, 60% web-based or web-assisted instruction, 10% statistical software, 60% listservs, 3% cd-roms, and 1% other technology.

Procedures

            Prospective participants were master’s level counselor education students at The University of Iowa in the College of Education enrolled in the 7C: 281 Introduction to Computers in Counseling one-hour semester course. The students were given a cover letter introducing the research study, a survey and an informed consent document for voluntary participation in the study during the first class session.  Students could choose not to participate by checking no on the informed consent document and returning the uncompleted surveys. Completed surveys to be given to the researchers were placed in an envelope. The informed consent documents were placed in a separate envelope to maintain the anonymity of the participants. Students were given the same survey again at the end of the semester as a posttest survey.

 Measures

            Demographic information. Students were asked to provide the following demographic information: gender, age, degree program, computer courses taken, degree of computer skills, types of courses completed, courses taken that integrated web-based or web-assisted instruction, types of technologies used, number of courses completed toward degree, and number of semester hours completed. Surveys were coded based on whether they were pre or post-test instruments. 

            Computer Technology Competencies Scale (CTCS). The CTCS was created using 12 competency areas recommended by the ACES Technology Interest Network and developed 15 items to measure an individual’s competence level on the technology competency. A 5-point Likert scale was developed, ranging from 1 (not familiar) to 5 (very confident). Participants were instructed to indicate their competence level on each of 15 computer technology items. The initial reliability data revealed good internal consistency, with a with Cronbach’s alpha of a =. 93. Validity data for CTCS are not available.

            Situational Motivation Scale (SIMS; Guay, Vallerand, & Blanchard, 2000). This 20-item Situational Motivation scale consists of five subscales with four questions designed to assess situational variables that affect the experience of intrinsic motivation, extrinsic motivation, and amotivation. Extrinsic motivation was identified through two extrinsic motivational subscales of identified regulation and external regulation. Intrinsic motivation was identified through one intrinsic motivational subscale. Amotivation was identified through one amotivation subscale. The measure of introjected regulation was developed by borrowing from a previously validated questionnaire (Reason to Work Scale, RTWS; Ryan & Connell, 1989). The items from the RTWS were adapted specifically for this study. The adapted items used precise experiences in distance education obtained from a literature review of self-determination.

            The SIMS scale uses the response stem (e.g., “Why are you currently participating in distance education?” or “Why are you currently not participating in distance education?”), with a 1 to 7 Likert response scale (strongly disagree, disagree, somewhat disagree, neutral, somewhat agree, agree, strongly agree) for each of the 20 items. Totals for each subscale were computed by averaging the relevant four items. Guay et al. (2000) reported the construct validity and assessed it by two correlation analyses. Their results found an overall pattern of interrelations among the subscales is formed from an ordered pattern of those subscales adjacent along the continuum. For example, intrinsic motivation correlated positively with identified regulation (r =. 36) but negatively with amotivation (r = -.41). The second correlation analysis was performed between the SIMS subscales and perceived competence and concentration/behavioral intentions. There was a strong positive correlation (SIMS subscales with motivational determinant and consequences) observed with intrinsic motivation and identified regulation but a strong negative correlation with amotivation and external regulation. These correlations were consistent with those predicted by self-determination theory. The subscales’ internal consistency values or Cronbach Alphas were: intrinsic motivation a =.92, identified regulation a =.80, external regulation a =.86, and amotivation  a =.77.

 Results

 Data Analysis  

            Prior to analysis, variables were examined for accuracy of data entry, missing values, and fit between their distributions. During data entry, precautions were taken to ensure there was no human error in the data entry process. The precaution procedures were to pull out every third questionnaire and check to see if the data entered into SPSS were correct.

            All analyses were performed using SPSS 9.0 (SPSS, 1998) to provide descriptive statistics. Internal consistency for the two scales used in the study was explored by calculating alpha coefficients of reliability for the total score of each scale as well as SIMS subscales. Frequencies and means were calculated for all demographic characteristics of the sample.

            In keeping with the cohort design, the statistical hypotheses were that the mean scores of the experimental group pretest did differ from those of the experimental group posttest scores on the CTCS. A one-way analysis of variance was performed to test this hypothesis. The CTCS scale items were computed by averaging items. The dependent variables were CTCS averaged score. The independent variable in this research was time when the test was taken (pretest or posttest). The results revealed that computer competency was increased after taking the introductory computer course.

            The results of the analysis of variance revealed that the experimental group differed significantly from the control group on the Computer Technology Competency Scale (F (1, 20) = 7.519, p = .013).  Examination of the group means revealed a significant difference in mean scores between the experimental group (M =3.60) and control group (M = 2.71) on computer competencies.  This result demonstrates an increase in computer competency after completing the required introduction to computers in counseling course.

            The results of the t-test revealed that several items on the CTCS scale yielded a significant difference between the experimental and control groups: ethics (t[19] = 4.254, p=.000), assisting client with internet searches (t[19] = 2.199, p=.040), statistical package (t[20] = 5.520, p=.000), listserv (t[19] = 2.705, p=.014), cd-rom (t[19] = 2.827, p=.011), presentation software (t[20] = 2.237, p=.037), and evaluating information from the internet (t[20] = 2.359, p=.029). As indicated in Table 1, the group means indicate that the experimental group increased computer competency after completing the course under the following competency items: ethics (M=4.00), assisting clients with Internet searches (M=3.00), statistical software (M=2.92), listserv (M=2.91), cd-rom (M=3.00), presentation software (M=4.17), and evaluating information from the internet (M=3.92). The group means from the control group indicated computer competency were low before the computer course was taken under the following competency items: ethics (M=2.00), assisting clients with Internet searches (M=1.70), statistical software (M=1.10), listserv (M=1.60), cd-rom (M=1.60), presentation software (M=3.00), and evaluating information from the internet (M=2.70).

            The results of the analysis of variance revealed that the experimental group pretest and posttest results differed significantly on the Computer Technology Competency Scale (F (1, 26) = 38.007, p = .000).  Examination of the group means revealed a significant difference in mean scores between the post-test scores (M =3.60) and pre-test scores (M = 1.97) on computer competencies.  This result demonstrates an increase in computer competency after completing the required introduction to computers in counseling course.

            The results of the analysis of variance revealed that all the items with the exception of word processing on the CTCS scale yielded a significant difference between the posttest and pretest: word processing (F (1, 26) = 1.438, p = .241, email (F (1, 26) = 4.508, p = .043), bulletin board (F (1, 26) = 12.118, p = .002), knowledge of ethics Internet (F (1, 26) = 29.630, p = .000), computerized testing (F (1, 26) = 12.306, p = .000), assisting clients with Internet (F (1, 26) = 11.045, p = .003), statistical packages (F (1, 26) = 39.918, p = .000), Internet for research (F (1, 25) = 9.580, p = .005), counseling listservs (F (1, 25) = 7.080, p = .013), Internet for continuing education (F (1, 25) = 15.558, p = .001), counseling CD-Rom (F (1, 25) = 14.103, p = .001), database (F (1, 26) = 13.180, p = .001), presentation software (F (1, 26) = 36.322, p = .000), developing web pages (F (1, 26) = 59.313, p = .000), and evaluate the quality of information provided via Internet (F (1, 26) = 30.128, p = .000).  As indicated in Table 2, group means indicate the experimental group posttest results significant increase in their computer competency after completing the course in under the following competency items: ethics posttest (M=4.00), ethics pretest (M=2.0), computerized testing pretest M=1.56), computerized testing posttest (M=3.0), assisting clients with Internet searches pretest (M=1.50), assisting clients with Internet searches posttest (M=2.82), statistical software pretest (M=1.19), statistical software posttest (M=2.92), listserv posttest (M=1.50), listserv pretest (M=2.91), cd-rom pretest (M=1.50), cd-rom posttest (M=3.00), presentation software pretest (M=1.75), presentation software posttest (M=4.17), evaluating information from the internet posttest (M=1.88), and evaluating information from the internet posttest (M=3.92). 

            Results that measure motivation towards computers revealed no group differences existed on motivation factors of participants in the study on external regulation, identified regulation (value toward computers), introjected regulation (participating because of guilt), amotivation (indifferent), intrinsic (engaging because I want to too). Thus, indicating motivation toward computer usage may not be a factor in training.

 Discussion

             Findings from this study support the research hypothesis that students will increase their computer competency based on completing a computer course. The results enhance McFadden and Jencius (2000) suggestion that computer competency is a developmental skill and the results showed that those skills can be enhanced with an introductory computer course.

             As indicate by the Table 1 of Means of Experimental and Control Group, there are increased levels of competency for the 12 areas recommended by the ACES Technology Interest Network. It should be noted that both the experimental group (EG) and the control group (CG) yielded lower mean scores on some of the competency areas indicating the need for further research and instruction. These competency areas included: assisting clients with Internet searches (EG, M=2.82; CG, M=1.70), statistical packages (EG, M=2.92; CG, M=1.10), listserv (EG, M=2.91; CG, M=1.60), and cd-rom (EG, M=3.00; CG, M=1.60).  Also noted, the experimental group pretest and posttest results showed significant difference among all the items on CTCS with the exception of word processing. Therefore, student competency areas were low on all the items

             In this study both the experimental and control groups demonstrated similar levels of motivation to participate in computer technology as indicated by scores on the SIMS motivational scale. Thus, they were not hindered in participating in computer technology. However, the course appears to help students improve skills on some of the computer competencies. Areas such as, being familiar with statistical packages, assisting clients in internet searches, and knowledge of listservs need an increase in competency level. Thus, the computer course curriculum must be modified to improve competency level in these areas.

 Implications for Counselors

            Implications for counselors are tempered by considerations of threats to validity. First, external validity is threatened by the restricted nature of the sample and the purposive sampling strategy. Second, the multiple t-tests increase the probability of Type 1 error. Third, the institutional cohort design, by its nature, is relatively a weak quasi-experimental design and leaves open some threat to internal validity, especially history. Fourth, the pretest of the experimental group added an additional threat to internal validity (i.e. testing). Although these threats to validity do limit the applicability of these results, they are partially allayed by the consistency of the previous studies using this design.

            This study suggests that computer competency increases with exposure to computer technology in a required introductory course. Based on the research, we provide the following suggestions to assist counselor educators implementing similar approaches. First, consider adding a computer technology course into the curriculum during the first year of coursework. Thus the computer course can focus on application to practice. Providing a brief overview of the potential integration of technology into other counselor education courses, such as ethical considerations in cybercounseling for ethics courses, may also increase initial competence. Second, teach application of computer technology. Application of computer technology to practice cannot be assumed, it must be taught. The application of computer technology is normally taught through performance assessment. Students are taught how to operate and demonstrate different software and equipment by producing several assignments for the course. These assignments can be graded as pass/fail. This may benefit the student by allowing them to learn programs without feeling pressure to receive letter grades. This also allows the instructor to discuss possible problem-solving techniques to help the student make connections between computer technology principles and professional practice decisions. Finally, an introductory course, which discusses technology integration into counseling courses in the program, aids with future instruction for faculty because instructional time for technology is not used in the regular courses. For example, if a faculty member incorporates web-based or web-assisted classroom learning experiences students who have the introductory course are prepared to move quickly into the process of learning without being hindered by the technology.

            In summary, the essence of computer competency is obtaining knowledge, skills, and connections with practice. This is accomplished through teaching concepts of computer technology, providing practice with different types of software and providing reality based applications in order to obtain a high level of computer competency. Students appear to rate this approach as highly effective.


References

 

Association for Counselor Education and Supervision Technology Interest Network. (1999). Technical competencies for counselor education students: Recommended guidelines for program development. Retrieved February 26, 2002, from http://filebox.vt.edu/users/thohen/competencies.htm  

Bloom J. W. & Walz, G. R. (2000). Cybercounseling and cyberlearning: Strategies and resources for the millennium. Alexandria, VA: American Counseling Association.  

Cairo, P. C. (1984). Investigating the effects of computerized approaches to counselor training. Counselor Education and Supervision, 24, 212-221.

Chandras, K. (2000). Technology-enhanced counselor-training: Essential technical competencies. Journal of Instructional Psychology, 27(4), 224-227.

Cook, T. D., & Campbell, D. T. (1979). Quasi-experimentation: Design and analysis issues for field settings.. Boston: Houghton-Mifflin.

Cook, T. D., Campbell, D. T., Peracchio, L., & Hough, L. M. (1990). Quasi experimentation. In M. D. Dunnette (Ed.), Handbook of industrial and organizational psychology. (2nd ed., Vol. 1, pp. 491-576). Palo Alto, CA: Consulting Psychologists Press.

Guay, F., Vallerand, R. J., & Blanchard, C. (2000). On the assessment of situational intrinsic and extrinsic motivation: The situational motivation scale (SIMS). Motivation and Emotion, 24(3), 175-213.

Harris-Bowlsbey, J. (1983). The computer information and the decider. The Counseling Psychologist, 11, 9-14.

Hayes, B. G. (2001). Where's the data? Is multimedia instruction effective in training counselors? Journal of Technology in Counseling, 1.1. Retrieved from http://jtc.colstate.edu/vol1_1/multimedia.htm

Katz, M. R. (1983). Characteristics of computer-assisted guidance. The Counseling Psychologist, 11, 9-14.

Katz, M. R., & Shatkin, L. (1983). Characteristics of computer-assisted guidance. The Counseling Psychologist, 11, 9-14.

McFadden, J., & Jencius, M. (2000). Using cyberspace to enhance transcendence. In J. W. Bloom & G. R. Waltz (Eds.), Cybercounseling and cyberlearning: Strategies and resources for the millennium. (pp. 67-84). Alexandria, VA: American Counseling Association.  

Myers, H. E. & Gibson, D. M. (2000). Technology Competence in Counselor Education:  Results of a National Survey. Retrieved August 22, 2000 from the World Wide   Web: http://cybercounsel.uncg.edu/manuscripts/techcomp.htm.

Ryan, R. M., & Connell, J. P.. Perceived locus of causality and internalization: Examining reasons for acting in two domains. Journal of Personality and Social Psychology, 57, 749-761.

  


 Appendix A:  

 

Technical Competencies for Counselor Education Students: Recommended Guidelines for Program Development by ACES Technology Interest Network (1999)

At the completion of a counselor education program, students should:

1.        Be able to use productivity software to develop web pages, group presentations, letters, and reports.

2.        Be able to use such audiovisual equipment as video recorders, audio recorders, projection equipment, video conferencing equipment, and playback units.

3.        Be able to use computerized statistical packages.

4.        Be able to use computerized testing, diagnostic, and career decision-making programs with clients.

5.        Be able to use email.

6.        Be able to help clients search for various types of counseling-related information via the Internet, including information about careers, employment opportunities, educational & training opportunities, financial assistance/scholarships, treatment procedures, and social and personal information.

7.        Be able to subscribe, participate in, and sign off counseling related listservs.

8.        Be able to access and use counseling related CD-ROM databases.

9.        Be knowledgeable of the legal and ethical codes, which relate to counseling services via the internet.

10.     Be knowledgeable of the strengths and weaknesses of counseling services provided via
 the Internet.

11.     Be able to use the Internet for finding and using continuing education opportunities in
 counseling.

12.     Be able to evaluate the quality of Internet information.

 

Yolanda V. Edwards, Ph.D. is an assistant professor at the University of Maryland in the Counseling and Personnel Services Department.  Tarrell Awe Agahe Portman, Ph.D., L.M.H.C., N.C.C. is an assistant professor at The University of Iowa in the Division of Counseling, Rehabilitation, and Student Development.  James Bethea, Doctoral Candidate at the University of Iowa in the Division of Counseling, Rehabilitation, and Student Development. You may reach Dr. Edwards at: ye6@umail.umd.edu