Tag Archives: adult learners

Hypermedia in Camosun College’s ABE Program

The Demands for Change

In British Columbia the Ministry of Skills, Labour and Training (1995) has recently announced a policy on educational technology.

The Ministry recognizes that current and emerging educational technologies have special significance in the continuing development of the college and institute system. In particular, the Ministry recognizes:

  • the need for curriculum, professional and resource development to match the pace of the rapid rate of technological change, to ensure that educational programs are current both in their use of technological skills and their inclusion of technological information;
  • the continuing need to utilize advances in telecommunication and information technologies to meet the infrastructure requirements of the system and to maintain parity with developments external to the system;
  • the ongoing need to better serve the public by optimizing the capabilities of the system, through technological enhancements and alternatives in the delivery of educational services.

The fine print, as well as rub for post-secondary institutes in British Columbia, is that all of the above must be completed “. . . within the existing resource allocation framework.”

Camosun College, in Victoria, British Columbia provides one example of how educational institutions are responding to the demands for increased access coupled with decreasing resources. Over the next three years Camosun will be faced with up to ten per cent annual cuts in government funding. The college’s president has charted a new course for her institution.

To address this reality, colleges need to discover new ways of having a positive impact on these forces through innovation, entrepreneurship and productivity gains (Ashton, 1994).

The Access Division at Camosun College, responsible for facilitating student access to college programs, is responding to these new demands on several fronts.


The Need for Flexibility in ABE Programs

There is a need for more flexible course scheduling and delivery. (Adult Basic Education (ABE) Student Outcomes Steering Committee, March, 1995)

In March of 1995 the British Columbia Student Outcomes Steering Committee completed the first of a series of reports on the effectiveness of Adult Basic Education programs in provincial colleges. One of the major findings of the study was the identification of the adult student’s need for more flexible course scheduling and delivery. Camosun has long offered flexibility in its ABE offerings through continuous intake, individualized instruction and year-round programming. However, until the fall of this year (1995) classroom instruction continued to be offered only at set times and relatively few specific locations. The need for this flexibility has always been clear to ABE faculty and staff. Traditionally ABE students have been anything but ‘traditional’ students. That is they often come to Camosun’s ABE program with a set of challenges that few recent high school graduates face. Many are supporting single parent families. A number are dealing with addiction issues. Self-esteem due to unemployment and more recently under-employment is also an issue. The list of barriers to education faced by these mature learners is long. The James report discovered that due to these obstacles the majority of ABE learners take at least five years to complete their upgrading program.

In light of the college’s projected financial situation this project must be accomplished not just within the existing resource allocation framework, a difficult enough task, but also within a climate of federal cuts to post-secondary education. Camosun’s President, Elizabeth Ashton, estimates that the next three years will see cross-college budget reductions of ten per cent per year. Camosun’s ABE program, like most college ABE programs is driven by FTE’s or full time equivalencies. Every month a count of student numbers is taken. If classroom are less than full, then in the following year the program may an FTE. That is a faculty or staff member may lose their position. There will be a corresponding decrease in the number of classes the ABE program is able to offer. A major goal of this project is to develop appropriate technologies and systems which allow faculty and staff to effectively increase services to students. The business world has already demonstrated how the application of information technology can increase effectiveness. The appropriate utilization of these same technologies in the service of students combined with useful data management systems will provide similar gains in efficiency.


A Response to the Demands for Change

In 1993 planning was initiated for an Adult Basic Education open access lab. The purpose of this provincially funded Skills Now initiative was to provide more flexible course scheduling and delivery of access courses. Any adult learner wishing to enter Camosun who does not have the necessary prerequisites, or has been out of high school for more than three years, completes a math and English assessment. Adult learners whom the assessment test indicates need upgrading then come to the ABE program at Camosun. ABE offers English and math upgrading instruction to adults (mean age of thirty) towards completion of prerequisites for trades, technology, university transfer and college diploma programs. While ABE instruction has always been individualized and self-paced, it does take place in traditional classrooms with fixed timetables. The lab using both existing, traditional resources and as well as newly developed instructional print modules, offers more flexible instruction and course scheduling. Instruction is offered in all levels of ABE math and English, save Basic Academic Skills Development. It is expected this innovative diversification of instructional resources will allow Camosun’s ABE department to increase student access by at least ten per cent. Intake of new students on a weekly basis begins the Fall of 1995.


Creating an ABE Hypermedia Instructional Delivery System

For the next phase of Camosun’s ABE Open Access lab, hypermedia is a key component. Once ABE faculty become skilled in this technology they will have an opportunity to apply, far more efficiently and effectively, the amalgam of curriculum design that is encapsulated in andragogy.

Hypermedia provides many advantages to the learner, especially through its abilities to adapt to individual differences and to allow the learner to control the path of his/her study. The learner can either be directed or wander through information. The system can provide customized interfaces for each user with varying levels of guidance. Some studies have shown that a learner-controlled environment can be more effective than a program that adapts automatically to learner differences (Allred & Locatis, 1988, quoted by Schroeder, 1991).

The planning for these hypermedia learning webs is running parallel to and in support of first phase of the Open Lab. The focus is on train faculty to use hypermedia based information technology to further expand the efficiency and effectiveness of the Open lab. How will this be accomplished? ABE faculty have already proven themselves adept at structuring information to meet individual learner needs. These same approaches can be applied and facilitated through information technology. However instructors need to be provided with appropriate hardware, software and training opportunities as well as technical support. The funding to support the first part of this project is already in place. Once ABE instructors have mastered this technology, they will be able to interact with students in a multi-modal fashion. Rather than limiting their contact with students to one location (i.e., an ABE classroom), and one time (i.e., a regularly scheduled class), instructors will also be able to electronically link with students. These links will provide ways structuring information in an electronic format that can be delivered over the college’s network.

According to Rogers (1989), “Learning is part of a circuit that is one of life’s fundamental pleasures: the instructor’s role is to keep the current flowing” (p. 38). Instructors who have successfully engaged adults as partners by providing direction and support will have succeeded admirably (Imel, 1994).

Camosun College ABE faculty are adept at engaging adults as partners. Further efficiencies of ten to fifteen per cent per year over the next three phases of the project (see Table 2) will result from offering this expertise to adult learners in a time and space independent fashion as envisioned by this project. Thus ABE faculty will also be able to offer instruction to Camosun students who discover upgrading needs in the midst of their career or university transfer college programs. Faculty prepared as well as appropriately modified “off-the-Internet” hypermedia modules delivered through a variety of media will allow the ABE program to diversify its services to students even outside the confines of the Open Lab classroom. Thanks to ample faculty development release time, two months every year, ABE instructors have the time to develop these modules. All that is required now are the hardware, software and support resources to allow them to develop individualized hypermedia modules to meet the specific learning needs of Camosun students.

The modules will be developed using the hypertext markup language (HTML) developed for the Internet’s World Wide Web. The second phase will culminate with the delivery and piloting of the first of these hypermedia modules to the existing Open Access Lab. Later phases will see the expansion of this instructional technology beyond the walls of the ABE Open Lab to students the ABE program would not normally reach. The goal is to make resources available to any college student, in any program, who needs remedial or upgrading assistance. This will be accomplished by expanding instructional delivery to other Camosun computer labs. Thanks to the college’s inter-campus computer network as well as the network-friendly capabilities of the HTML instructional modules, students will be able to interact with ABE instructors and curricula using any computer connected to the college network. These modules will also allow the department to leverage its resources to offer just-in-time instruction to workers at the job site. Thus ABE instruction will also be offered to workers at the job site with access provided via telephone, modem and office computer. The project’s ultimate goal is to establish an entrepreneurial delivery paradigm outside the “bricks and mortar” of the existing infrastructure, using the college’s Internet connections. The end result of this project will be to offer instruction to any adult learner who has a computer connected to the Internet. Instructors then will be able to extend their influence well beyond Camosun’s two campuses to anyone with an Internet connection, anywhere on the globe.

Table 2. Project Timelines and Resulting Productivity Increases


Phase  Location                                  Start Date     FTE     
                                                              Increase  

  1    Interurban Open Lab                        Oct. '95      10%     

  2    electronic modules piloted at Interurban   Sept. '96     10%     
       ABE Open Access Lab                                              

  3    expansion to Lansdowne campus and any      Jan. '97      15%     
       college networked computer                                       

  4    worksite based delivery                    Sept. '97     15%     

  5    Internet based delivery                    Jan. '98      15%     



This information technology based instructional system, implemented in the context of the growing sophistication of what is known about instructional design for the adult learner, can provide a flexible, innovative and multi-modal means of instruction. Such an approach would extend the instructor’s influence beyond the walls of the classroom. This system would encourage choice and structure for both learner and instructor by offering modularization of curriculum, self-pacing, and interactive feedback. Critical to all of this, however, is the provision by instructors of a structure to encourage the development in students of good research skills and work habits. Under such a system the instructor moves from the role of information dispenser to that of learning facilitator and courseware developer.


Phase One of the Open Access Lab

Initial planning for Phase One of the Camosun College Adult Basic Education Open Lab was begun in 1993. In the fall of 1994 financing of the planning stage of the project was provided in part by the provincial Skills Now initiative supported by faculty’s annual block of two month’s development time.

The ABE program is the first stop for any student who is unable to meet college entry standards as measured by math and English assessment tests. The ABE department then becomes the college’s ‘assessor’, preparing the student to meet the prerequisites of the program identified by his or her career goal. All students without a high school diploma or who have been out of school for more than three years complete this assessment test. ABE’s particular focus is on the mature adult learner. The program is not normally available to students younger than nineteen. The average age of ABE learners is in the mid-thirties. While ABE instruction, in math, English and general science has always been individualized and self-paced, it does take place in traditional classrooms with traditional timetables. Phase One of the lab, using both existing resources and as well as newly developed instructional print modules, offers more flexible course scheduling. Faculty and staff are available from 8:30 am to 8:30 pm Monday through Thursday and 8:30 am to 1:00 pm on Friday. It is expected this model will allow Camosun’s ABE department to offer students increased access and retention in a cost effective program.


Phase Two — Electronic Delivery of Instruction

Development of the next phase of the ABE Open Lab is also already underway. It focuses on providing faculty with the resources necessary to electronically expand the efficiency and effectiveness of the Open Lab. As mentioned earlier, this will include hypermedia instructional offerings to both current ABE student as well as other Camosun students who discover upgrading needs in the midst of their college programs. Faculty developed instructional modules using a variety of media, but delivered through the Web, will allow the ABE program to expand its services to students in other college programs. The modules will be developed using the Web’s hypertext markup language (HTML) which includes provision for electronic print, graphics, video and audio. Faculty development time has been leveraged by a grant from the college to provide initial hardware, software and support resources to provide faculty with the expertise necessary to develop hypermedia modules. To effectively deliver the modules, however, an additional sum of money is required (see Table 3). To publish the electronic instructional modules a Windows NT server and twenty-five student multimedia workstations are required. With this sum of $128,000 in place by September 1996, Phase Two team members expect the delivery of the first of these modules in the existing Open Lab to bring an addition FTE increase of ten per cent.


Phase Three — Delivery of Instruction to Other Campuses

The next phase will see the delivery of these hypermedia instructional modules beyond the walls of the ABE Open Lab at Interurban. The goal is to make these resources available to any college student, in any program, on any campus, who needs remedial or upgrading assistance. Phase Three will begin with expansion of instructional delivery to the ABE computer lab at Lansdowne. This will necessitate the purchase of a second Windows NT server, student/instructor workstations and the appropriate support staff for a total of $226,500. Thanks to the college’s inter-campus computer network as well as the network-friendly capabilities of HTML, a further increase of fifteen per cent in FTE is predicted here. Any college network connected computer, including the general purpose computer labs will be able to receive and display ABE instructional modules. Thus learning webs will be created between ABE faculty and virtually any college student. The network transmission capabilities of these modules will eventually permit the Access Division to offer just-in-time instruction to workers off-campus at their job site.


Phase Four — Delivery of Instruction to the Worksite

ABE instruction will be offered to worksites connected to the college via telephone, modem and office computer by September 1997. Learners needing skill upgrading, both former Camosun students and those who have never darkened the college corridors, will have access to ABE faculty expertise. An expenditure of $198,000 for additional instructor workstations and support should result in a further FTE increase of fifteen per cent. This phase should tie in well with the college decentralization of its community education programs. Under this plan, currently being implemented, each college division is assigned a community, international and co-op education programmer. These individuals along with faculty representatives and the division dean will comprise a Management Segment Team. Their principal task is to develop courseware offerings for the community beyond the campus walls, which has traditionally been southern Vancouver Island. However, the college committee responsible for overseeing the set up of these Management Segment Teams, sees the Camosun’s potential market as a world-wide one. This ties in well with the project’s ultimate goal of establishing a delivery paradigm outside the “bricks and mortar” of the existing infrastructure, using the college’s Internet connections.


Phase Five — Delivery of Instruction over the Internet

From 1995 to 1998 the total number of people connected by the Internet is expected to reach 125 million worldwide. This phase anticipates this by expanding the delivery of ABE course offerings through the college’s Internet connections to any of these potential students. For an expenditure of $198,000 for instructor workstations and technical support, an FTE increase of fifteen per cent is predicted. As more and more homes and offices become equipped with Internet connected computers, Camosun instructors will be able to extend their influence well beyond Camosun’s two campuses and offer the ultimate in flexible course scheduling and delivery. The world will have become their classroom.

Table 3. Detailed Project Timelines and Additional Resources Required.


Phase           Start Date  Additional Resources Required     FTE Increase  

1. Development  Sept. 1994   all resources in place                         

 Action          Oct. 1995   computer technician -- $             10%       
                            17,875                                          

2. Development  Sept. 1995   all resources in place                         

 Action         Sept. 1996   Win NT network server --             10%       
                            $13,500                                         
                             student workstations --                        
                            $95,000                                         
                             computer technician -- $19,500                 
                             Phase 2 total -- $128,000                      

3. Development  Sept. 1996   instructor workstations --                     
                            $27,500                                         
                             web (HTML) coder -- $18,500                    
                             project manager -- $33,000                     

 Action          Jan. 1997   Win NT network server --             15%       
                            $13,500                                         
                             student workstations --                        
                            $95,000                                         
                             computer technician -- $39,000                 
                             Phase 3 total -- $226,500                      

4. Development  Sept. 1996   instructor workstations --                     
                            $27,500                                         
                             web (HTML) coder -- $38,000                    
                             project manager -- $66,000                     

 Action         Sept. 1997   instructor workstations --           15%       
                            $27,500                                         
                             computer technician -- $39,000                 
                             Phase 4 total -- $198,000                      

5. Development  Sept. 1997   instructor workstations --                     
                            $27,500                                         
                             web (HTML) coder -- $38,000                    
                             project manager -- $66,000                     

 Action          Jan. 1998   instructor workstations --           15%       
                            $27,500                                         
                             computer technician -- $39,000                 
                             Phase 5 total -- $198,000                      


Hardware and Software Requirements for Students

While a powerful multimedia capable computer is the ultimate Internet workstation, virtually any computer that can be connected to a modem and run telecommunications software is Internet capable. Even with this minimal configuration, students will be equipped to access most of what the Internet offers. A graphical user interface Windows or Mac multimedia equipped machine will lessen the learning curve substantially. Almost a century ago anyone who wanted to operate the first motor cars had to be a mechanic or hire a chauffeur (French for the furnace-man — the only person in the household with sufficient mechanical ability). So too one must be a bit of a computer wizard to take advantage of an older computer’s capabilities. Much preferred are the current generation of computers, many which come equipped and preconfigured with all of the functionality and ease of use necessary to connect to the Internet. Once a college or private Internet provider has provided the software necessary to link a Mac or Windows machine to the Net, graphical software ‘browsers’ make Internet access ‘push button’ easy. Also free and recommended is an email package to facilitate instructor-student communication. Again a Windows or Mac capable machine is necessary to make email easy to master. A word processing package complete with spelling and grammar checker is also critical. If the connection is via a modem, it should be 14,400 bits per second or faster. While students would be happiest with a multimedia capable machine (including a sound card, and CD-ROM drive, 540 megabytes of storage and eight megabytes or more of system memory), an older machine is capable of meeting the basic requirements for Web connectivity. The needs for faculty and staff, the developers of the Web pages, are more stringent, however.


Hardware and Software Requirements for Faculty

A major step, in building a Web-based instructional system that will allow instructors to extend their influence electronically, is to provide those responsible for its development with the hardware, software and network connections necessary to create such a system. At Camosun College the hardware system of choice is a Microsoft Windows capable machine. To properly run Windows each instructor and student workstation should have the fastest processor affordable. In mid 1995 this is a minimum of a 486DX/2 66 Mhz. Before the end of 1995 that will be a Pentium 75 Mhz. In general, the faster the speed (Mhz) the better. Each system should come equipped with a minimum of eight megabyte (MB) of random access memory (RAM), sixteen MB if funding permits. In addition to a three and a half inch floppy drive (1.44 MB) each machine should have a hard drive. While 500 MB may be enough for students one gigabyte (1000 MB) or more is essential for staff. To make the Internet connection available at most colleges, each machine will need an ethernet network interface card. If this direct interface is not available, then a fast (14,4000 bits per second or faster) modem connected to a phone line is essential. As more and more educational multimedia titles, including texts, are being offered on CD-ROM disks, a multimedia upgrade kit is also required. This typically includes a 16 bit Sound Blaster (TM) sound card and a quadruple-speed or faster CD-ROM drive. For student use, replace the speakers that are provided with most of these kits with headphones. All modern machines come with a mouse and operating system. While the Microsoft Workgroup for Windows will allow the machines to connect to one another, additional software will be required to connect to off-campus networks. In August 1995 Windows 95 arrived complete with Internet connection software built in. Indications are that it is a much easier system for the novice to learn, an important consideration for both ABE students and faculty. As these computer systems have now become commodities, they may be purchased just as cheaply from any of the major computer manufacturers like Compaq, Dell and IBM as from the “no-name” clone manufacturers. In mid September 1995 the system specified is available for about $3300 including software. See Appendix C for more information on hardware costs.

The choice of software may be influenced by what products a particular college computing services has chosen to support. Many colleges have standardized on Microsoft (MS) products. Under the MS Select program a college is able to purchase most Microsoft products significantly below cost. No matter whose products are purchased, each machine should come equipped with an integrated package containing word processing, spreadsheet, presentation manager and data base software. In the case of Microsoft products the best bet is the MS Office Professional. It is available under the Select Program for about $150.

When it comes to connecting to the Internet, many excellent software packages are available over the Internet at little or no cost. Netscape has become the interface of choice to connect to the fast growing, and easiest part of the Internet to use — the World Wide Web. At the moment it is available at no cost to educators at the Web home page location of http://home.netscape.com/. It also allows one to download files from remote computer sites around the world as well as access to gopher. With a version of Netscape that is just about to be released, one can even send and receive email. For many educators Eudora is the recommended email program. Once again it is available for free download this time at the Web location of http://www.qualcomm.com/. There are several other useful additions to Netscape that are itemized at the Netscape home page. Again all are free or available at minimal cost. Microsoft has just come out with their own browser available free from http://www.microsoft.com/. If a fax/modem has been purchased, then also purchase a telecommunications program. Delrina’s Communication Suite does both fax and data communications for about $200. For faculty with an interest in simple programming, Visual Basic Professional is a useful addition. Under the Select pricing it is about $75. For just under $500, each machine can be equipped with the software needed to develop and manage an informatics curriculum.

One last but critical piece of software is the add-on to the word processing package that allows for the creation of hypertext markup language (HTML) documents. The Microsoft product is called Internet Assistant for Windows. Available from Microsoft or over the Net (http://www.microsoft.com), this product is the key to the pilot project. Any instructor who is able to manipulate a word processor like Word for Windows (a similar product is available for Wordperfect) will soon be creating electronic hypermedia documents with this addition to the word processor.


Creating Customized Hypermedia Instruction Modules

The ABE faculty at Camosun have a long history of customized curriculum development for their students. Jack Crane developed the complete ABE Math 040 program on a Macintosh computer ten years ago. Instructors are also developing curricula for English programs. HTML is a natural extension of this effort. With appropriate training and support an instructor will be able to take her existing word processed curriculum and bring it up in Word for Windows. With the Internet Assistant upgrade installed she can soon convert her curriculum documents into hypermedia documents capable of being delivered electronically to her students in the Open Lab or indeed to any location with a computer network connection.

Due to a paucity of computer resources within the Camosun ABE department, any faculty or staff member who has more than a basic computer literacy has had to accomplish that by expending their personal resources at home. Fortunately the last few months have seen faculty and staff computing resources finally being made available to a few . This small core group of faculty have begun to learn about the possibilities of facilitating instruction through appropriate technologies. There is, hopefully, a larger group who provided with the appropriate technology and peer support would also be willing to engage in this activity. One of the goals of this project is to provide the department with a collaborative electronic environment, at the moment through email and listservs, to help support the acquisition of new knowledge in the development of new ways of delivering instruction.


Training and Support for Faculty and Staff

No innovative initiative will succeed without the support of the faculty and staff who must implement it. As mentioned previously the majority of ABE faculty and staff have limited experience with information technology. Many are plus forty years old. Research indicates that this group can find change to be a more difficult process than do younger colleagues who have grown up with this technology. Thus an important goal for project is to provide colleagues and support staff with the human support necessary to help them become information literate. That is why there is provision in the project budget for a project leader, a hardware technician and a web coder. The leader is there to guide faculty and staff toward a new understanding of what it means to facilitate learning in the information age. The technician is there to deal with the myriad of problems that seem inevitable with new computer networks. The web coder is necessary to help faculty and staff master new software programs and provide the HTML expertise necessary to create effective, interactive web documents. These folks will go a long way to help develop a learning community (electronic and otherwise) for those “early leaders” amongst faculty who wish to discover how the networked information resources of the college and the Internet can help facilitate innovation in faculty and staff’s own learning and instruction. This core group can then in turn provide leadership and instruction to ‘later adopter’ colleagues as they become interested in and aware of the capabilities of this new technology. By the latter phases of the pilot project, an informatics literate faculty and support staff will be committed to the building and maintaining of electronic learning webs. These webs will be there for not only ABE students, but indeed all college students, regardless of their program or physical location.


Critical Partnerships

In order to bring this vision into being, additional resources beyond what the college can offer must be sought. BC Tel or one of its competitors is a natural partner. The former currently supplies the cables that connect computers at Camosun’s two campuses to each other as well as the rest of the Internet. Phases three through five of this project are dependent on fast and dependable network connections to other colleges, jobsites and student computers. Representative from Stentor, the alliance of telephone companies from across the country building the information highway infrastructure, have indicated that they want to do more than just supply the highways to transport information. They also want to be involved in delivering the content that travels on those electronic roadways. The faculty at Camosun have the expertise and, thanks to faculty development, the time to structure information into knowledge that can be electronically delivered to any student, anywhere, anytime. A synergistic partnership could benefit both organizations.

Next — Summary

Theoretical Base

The Holist and the Behaviourist
— Two Binary Opposites?

Just as workplace paradigms have experienced change, so to have curriculum paradigms. The need for change was not just recently articulated. Curriculum pioneers, John Dewey and Ralph Tyler, presented apparently opposing views on restructuring the curriculum. On the learner-centred end of the continuum, Dewey presented arguments for designing a curriculum and school environment that developed an organic, living, interactive connection between a student’s personal experience and education. In such a curriculum, it is the environment, the community, created by the interaction between learners and teachers that provides students with a context for learning. Such a community school would then not be solely concerned with the regurgitation of past knowledge, but instead would strive to provide a range of meanings and thinking skills. The teacher’s focus becomes centred on identifying an individual student’s characteristics and then luring him or her towards other interactions and other worlds. According to Dewey, curriculum decisions should be made by those who are in closest contact with student experience. Rather than planning for objectives, the teacher’s task is to plan the environment and to become a critical co-investigator with the student. Many classroom instructors will respond that this is a rather daunting task, impossible to complete with existing resources especially given the increasing demands being put on educational institutions. Perhaps the magnitude of the task of individualizing instruction is the reason the dominant educational culture, particularly as applied to instructional design and educational technology, continues to be derived from the behaviourist end of the continuum. In the early 1950’s B.F. Skinner proposed that educators apply behavioural reinforcement theory to the design of instruction. From this “scientific” approach, Ralph Tyler developed the outcome based instructional design theory known as the Tylerian Rationale. Whereas Dewey’s approach was holistic, Tyler’s was more arbitrary. Instead of a learning process that inextricably intertwined student and community experience, the Tylerian model was eclectic, deriving educational objectives from a variety of mostly external sources. Dewey saw subject content as interconnection between ideas; Tyler was concerned with the itemization of content. The content of practically all modern computer-based instructional systems is Tylerian, predetermined by agencies remote from learner and teacher. This works against the learner-centred approach favoured by many who work and write in the field of adult education, where content tends to emerge from the needs of the learners and their community. In this latter, individualized context learning can have maximum meaning for all involved in the process, rather than being defined as simply a change in behaviour. Ultimately for the Tylerian the emphasis is on control of the students and their environment. The holist on the other hand seeks to structure the learning environment so that the learners are free to pursue experiences relevant to them. This approach assumes that with the creation of a nurturing environment, learning will occur naturally. The problem the holist has to face is the gaps that inevitably come with this approach. The instructor cannot and does not want to precisely control and direct the student’s learning. The problem the Tylerian faces is that the assumptions that learning is systematic and can be made more predictable are also being questioned (Eisner and Vallance, 1974). As educational critics have noted, this teacher controlled factory model is incapable of meeting the needs of numerous knowledge age learners.

Educational critics have continued to build on Dewey’s philosophy of education. They agree on the need for a more learner-centred instructional system that gives students a sense of control over their own fate, destiny or sense of self-worth.. Thus learning is seen as a lifelong process best performed when self-directed (Coleman, 1967 and Platt, 1974, cited by Kohl, pp. 176-178). The question remains, how can the average instructor in the average educational institution effect such change? Kieran Egan writing in the February 1989 issue of Phi Delta Kappan states that the Tylerian, factory model, of curriculum development does not accurately represent how humans learn.

The problem is that we appear to have forgotten that such models are based on an analogy with an industrial process and that human learning is an imaginative activity, not merely a storage function that a computer might perform (p. 458).

To develop the learning process as an imaginative activity, requires the teacher “. . . to reconstruct the curriculum, redesign the environment, and change one’s own behavior so that one’s students will have the experiences, resources and support they need to develop their sensitivity, compassion, and intelligence” (Kohl, p. 30).

How does the teacher accomplish this restructuring? Egan declares, “. . . the new qualitative approaches would portray teaching and learning in context (p. 26).” Rather than being dependent on a preset curriculum, one needs to be responsive to the students. This is a learner-centred approach where the teacher has developed “. . . the ability to observe and discover students’ skills and needs, and build a learning environment that grows from them and does not violate them (Kohl, p. 30).” The task then is for the instructor to become an expert in a wide variety of areas. The teacher in effect becomes the instructional designer, or to use Thomas Barone’s metaphor, artist (1983). “Learn to use the tools needed to make your own curriculum (Kohl, p. 36).” Such a learner-centred curriculum is developed on a theme relevant to the students and integrated with different subject areas across the curriculum.

In light of the exceptional learning demands brought about by the knowledge explosion, how can this be accomplished? What about teacher workload? Kohl readily admits, “All of this may seem like an awful lot of teacher preparation. It certainly involves more time and research than what usually goes into making up lesson plans (p. 42).” Unlike the text book author who does a revision every five years, Kohl says to the classroom teacher-curriculum author; “You have to be constantly responding to the needs of individual students and getting resource material and people as well as developing your own ideas. Your students become hungry to learn, and the textbook will not provide fully for their needs (p. 135).”

Classroom instructors reading these elucidations could hardly be blamed for having mixed emotions. On the one hand, they might mentally nod their heads in agreement. Yes, the teacher needs to fully engage students in a learning lifestyle. Teachers, who are also learners, have all experienced the ecstasy of new found learning webs; connections of fact, knowledge and truth. They naturally want their students to share in that. On the other hand, the logistics of becoming that kind of teacher — teacher as hero — are staggering. It is one thing to hypothesize. It is another to be in the trenches. Kohl agrees. “Fitting a range of learning styles and a variety of activities into a classroom takes a lot of time and experimentation. . . (p. 136).” How can educational institutions, with decreasing resources, meet the increasing demand for a learner-centred program?

Kohl responds,

Changes can be made in public schools. There are models, customers, and support. It can be made. Those who want public schools to survive but refuse to help make major changes should think about the dinosaurs’ experience. The dinosaurs didn’t change to meet new requirements and became extinct (p. 179)!

Yet as we approach the beginning of the third millennium, twenty years after Kohl wrote his critique, little has changed.

After decades of attempts to reform schools, most of which constituted little more than tinkering with surface parts, many observers feel that schools as they are presently organized must be overhauled in ways that fundamentally change the institution of schooling itself (O,Neil. 1990, p. 5).

To become more learner-centred, a crucial change in both our schools and culture is required. Change elements in instructional design are coming from a variety of directions.

The Developmental Theories of Cognitivism and Constructivism

In addition to the humanist and behaviourist approaches to instruction are the developmental theories, one of which is cognitivism. Cognitivism offers a theoretical base on how people learn. Cognitive research, as exemplified by the Myers-Briggs Type Indicator (MBTI) and the Gregoric Learning Styles Inventory, have brought knowledge of individual differences in how students learn. These tools describe four domains of preferred learning styles:

  1. concrete sequential,
  2. concrete random,
  3. abstract sequential
  4. abstract random.

Recent studies have indicated that the majority of college faculty prefer the abstract sequential pattern, while the majority of first year students are concrete random. Only ten per cent of the student population matches the instructor’s preferred delivery style (Twigg, 1994, July-August). Cognitive research suggests that adult learners have individual approaches to learning.

According to Merriam (1984), one of the best-developed theoretical links between adult development and learning lies in the theory of andragogy. Andragogy is based on the assumption that, by and large, adults are self-directed beings who are the products of an accumulation of unique and personal experiences and whose desires to learn grow out of a need to face the tasks they encounter during the course of their development. (Naylor, M., 1985)

Thus many adult learners do not respond well to the lecture approach predominant at most colleges. The cognitive research encourages instructors to facilitate learner choice by involving them in active, self-directed learning. This in turn calls for a more adventurous style of instructional development. In information rich environment this would involve students in such information literate activities as seeking a wide range of knowledge sources, communicating an understanding of content, posing questions about the content being learned, using the environment (including people and tools) for learning, reflecting on their own learning, assessing their own learning and taking responsibility for their own learning (Hancock, 1993, May).

Howard Gardner’s Frames of mind: The theory of multiple intelligences, is also worth considering when developing instruction that hopes to respond to the needs of individual learners. He suggests that there are at least seven human intelligences:

  1. verbal-linguistic — cognizance of language, a way with words,
  2. logical-mathematical — conceptualization of the abstract, arithmetic accuracy, organization, analytical,
  3. spatial — creation of mental images, metaphors,
  4. musical — sensitivity to pitch, rhythm, and the complex organization of music
  5. kinesthetic — control of one’s physical self and of objects,
  6. interpersonal — sensitivity to others and
  7. intrapersonal — sensitivity to oneself.

The first two have dominated North American public schooling. The latter five, with the possible exception of kinesthetic, have been virtually ignored. If instructional designers can find ways to engage all intelligences, it may be possible to increase opportunities for student success.

The constuctivist builds on these theories. However in this case it is ” . . .the learner, rather than the teacher, (who) develops or ‘constructs knowledge’ (Brennan, 1992, March).” How does that happen? In the April 1994 issue of Educational Technology, Jonassen gives a summary of the work of Duffy and Jonassen (1992) in this area. These authors believe that purposeful knowledge construction may be facilitated by learning environments which provide multiple representations of reality, thereby:

  • avoiding oversimplification of instruction by representing the natural complexity of the real world;
  • focusing on knowledge construction, not reproduction;
  • presenting authentic tasks (contextualizing rather than abstracting instruction);
  • providing real-world, case-based learning environments, rather than pre-determined instructional sequences;
  • fostering reflective practice;
  • enabling context- and content-dependent knowledge construction; and
  • supporting collaborative construction of knowledge through social negotiation, not competition among learners for recognition

Jonassen goes on to make the point that pure constructivism would be an anathema to instructional designers as, “Constuctivists emphasize the design of learning environments rather that instructional sequences (p. 35).” Nonetheless an instructional designer can incorporate constructivist principles into instructional systems. “The best designers are those who select, use, adapt, massage, or otherwise apply attributes and components of different models, strategies, and tactics in order to accommodate the instructional methods to the nature of the learning problem (p. 37).”

The Road Best Taken

Thus in answer to the question of which instructional paradigm is best, the behavourist objectivism or humanist constructivism, it is critical to avoid thinking in binary opposites. As instructional designer Jonassen says,

Objectivist models of instruction are useful, as are constructivist models, albeit in different contexts (p. 37).

Adult educator Cross agrees,

. . . humanistic theory appears relevant to learning self-understanding; behaviorism seems useful in teaching practical skills; and (cognitivist, constructivist) developmental theory has much to offer to goals of teaching ego, intellectual, or moral development. . . . (I)f the ultimate goal is to facilitate the learning of adults, then adult educators will have to merge all these streams of research and theory into their own practice – or the field as a whole will have to attempt some synthesis.” (p. 234)

Dewey and Tyler, then, are not the mutually exclusive, binary opposites some have suggested.

“… when it comes to practical matters circumstances compel us to compromise (Dewey, p. 17).

Yet, a critical question still remains. What resources and tools are available to instructors to bring a new curriculum which will facilitate the learning needs of adults?

Instructional Design Approaches and Tools

With an understanding of the philosophical and theoretical approaches available for the development of a knowledge age instructional modules, it is time to discover what tools and practices are available to facilitate the task of changing instructional paradigms to meet the demands of information age instruction. The September 1989 issue of Educational Leadership, “Preparing Today’s Students for Tomorrow’s World,” focused on some of the tools available to help deal with the problem of restructuring schools. An element of school and societal restructuring that cannot be ignored is the “third wave” — a technology driven information wave. Humans have experienced in succession the tools that brought about the agricultural wave, then an industrial wave and more recently an information age wave (Toffler, 1980). Harold G. Shane (1989) writes,

Forecasting even further, I believe we are destined to encounter two more waves within the lifetimes of our students: a micro-electronic wave during which we learn how to process and prudently apply the present flood of data, and an informed society wave during which educated foresight and wisdom begin to transcend mere access to information (p. 5).

Shane goes on to suggest that educators can develop a “power of foresight” much enhanced by waves four and five. This could bring about a “. . .rebirth of the Renaissance spirit that motivated scholars to study the world in its many complexities (p. 5) [and] . . . help us cope with the dilemmas and grasp the opportunities for educational changes that the 1990s promise to bring” (p. 6).

Technology has always played a major role in the development of the human race. Many will point to all of the ills: gun powder, the car, nuclear weapons and so on. Others respond with what men and women of good will have been able to accomplish with these same as well as other technologies. Where would society be without the printing press; the machine that allows human thought and experience easy passage through time and space? This tool helped Martin Luther to marshal forces against the hypocrisy of the then established church. His namesake Martin Luther King was able to harness the communications media of the early 60’s to stir public opinion against racism. The labour movement and the women’s movement all owe a debt to these enabling technologies. What of the modern schooling system? How can tools and practices benefit today’s learners?

If teachers were supplied with appropriate technologies of instruction and trained to use them effectively, they would be freed to focus on what they can do best if properly trained and educated, that is deal with students in a humane, one-on-one learning environment. (Fawson and Smellie, p. 25)

Information age learners need access to facts, places, processes, events, and records. Most importantly they need interaction with a community who will share tricks of their trades, the rudiments of their skills as well as the technology that drives this age.

This project provides an opportunity to develop an informatics curriculum using this information technology. Design parameters can be taken from the following specific guidelines by instructional developers Fawson and Smellie (April, 1990):

  • Mastery learning models should be implemented more efficiently and effectively with the use of technology, providing students with a greater role and responsibility for their own learning outcomes.
  • Technology should permit teachers to become facilitators of learning experiences rather than dispensers of information.
  • Technology should reduce the time teachers spend on the many administrative functions that now encumber them.
  • Technology should permit a transformation of the instructional process that leads to alternative teaching configurations It should also expand the learning environment, which would result in increased creativity and more on-task behavior by students.
  • Technology should help schools and school districts reduce instructional time and administrative cost.
  • Technologies of instruction should be designed to increase, not reduce, the amount of personal contact between teacher and learner (p. 19).

Instructors can create an andragogic structure and environment that facilitates access to enabling information technology. Robert Logan of the Ontario Institute for Studies in Education builds on the work of Marshall McLuhan at the Toronto School of Communications. He has come up with a cogent theory on how recent breakthroughs in microelectronics have influenced and will influence communications. He does so by bringing a media perspective to the effects of educational technology on cognition, communication and education. Electronic tools such as the word processor, spreadsheet, graphics and database are made accessible to students a new understanding to coming to the phrase, the power of the press belongs to those who own one.

Logan, however, goes beyond simply putting the tools into the hands of learner and teacher. He argues for a greater emphasis on computer literacy; a literacy he defines as an understanding of the language of computers. Logan argues that computer literacy is as essential for success in science, engineering, the humanities, the arts and most aspects of commerce as literacy and numeracy once were. Logan defines computer literacy as:

” . . . the ability to take advantage of the enhanced information processing capabilities that computers make possible over the manual techniques of paper and pencil or those of print and the typewriter (Logan, Ch. 5, p. 9).”

Some authorities have described the feeling of freedom that word processing gives as ‘liftoff’. These curriculum development ideas can be implemented in classrooms. They make use of word processing’s evolutionary advantages to integrate English language and communication skills with other subjects. Initial research and feedback from students have demonstrated the computer can help stimulate the development of ideas, manipulation of data and individualized instruction in the classroom. Logan further illustrates his position by focusing on the role of computers in the development of civilization and education. The growth of our civilization and the education systems that support them can be linked to the development of the ‘languages’ of speech, writing, mathematics and science. Computing, which incorporates all of these, is the next evolutionary step in humankind’s language development.

Logan postulates microcomputers will have a significant liberating effect on education. “The microcomputer is a medium of communication which is interactive, and hence, has the potential to promote exploration and discovery (Ch. 5, p. 2).” Another factor that Logan alludes to is the synergy available when computers and humans from around the world are linked. A computer on its own is a bit like a television without access to cable or broadcast signals. Even with a VCR capable of storing video, one can enjoy only limited access to information. However once the TV is connected to the rest of the world, either through cable, wireless broadcast or satellite, there is an almost unlimited amount of data available. A computer connected to the Internet, unlike the TV, has two way interactive, user controlled access. One now begins to get a glimpse of the potential for information sharing. As teachers are given the appropriate tools to incorporate these media into classroom practice they will be using these tools to structure information into a format that allow it to become, for the student, knowledge.

Implications of Curriculum Theory on Adult Basic Education Practice

If lifelong learning is critical to the young students of today, it is even more critical to the adult learner. In the industrial paradigm, schooling was for young people. Once they had graduated, earned their degree or trades ticket, they were finished with formal education. All of that has changed in the last few decades, however. The average age of those attending higher education institutions is no longer in the early twenties. The two largest constituencies are now the thirty year olds and the forty plus age group. They are struggling to meet society’s information age requirement for lifelong learning. As adults who have been away from the classroom for sometime, they come back to school bringing with them rich and varied backgrounds as well as a different set of needs and demands.

In addition to the common learning traits found in all learners, adults are often likely to display characteristics quite different from those of children (Knowles, 1973, 1984; Westmeyer, 1988 quoted by Ference and Vockell, 1994).

  • Adults tend to be self-directing.
  • Adults have a rich set of experiences that can serve as a resource for learning.
  • Adults tend to have a life or task centred approach to learning as contrasted to a subject matter orientation.
  • Adults are generally motivated to learn due to intrinsic factors as opposed to or extrinsic forces.

Malcolm Knowles suggests the first question an instructor of adults needs to ask is, “What is the question I (the learner) want an answer to (1975, p. 25)?” He recommends that through a learning contract, learners should develop their own learning objectives, ascertain what learning resources and strategies , evidence of accomplishment and criteria and means of validating are appropriate (p. 26). The teacher still has a major, but different, role to play. Kemp’s traditional instructional design criteria are pertinent:

  1. What content needs to be covered?
  2. How can this content be organized into manageable units?
  3. How can these units be organized into a logical sequence?
  4. What means of transmission will be most efficient for transmitting each unit?

However, the instructor’s self-concept is changed from ‘foreman’ in charge of dispensing information to that of facilitator of learning. Knowles makes a number of recommendations to accomplish this change in mind set. He suggests the instructor ask him or herself the following questions:

  1. Climate setting – How can I most quickly get the learners to become acquainted with one another as persons and as mutual resources for learning?
  2. Planning – At what points shall I decide what procedures to use, and at what points shall I present optional procedures for them to decide about?
  3. Diagnosing needs for learning – How shall we construct a model of the competencies (or content objectives, if you prefer) this particular learning experience should be concerned with?
  4. Setting goals – How can I help them translate diagnosed needs into learning objectives that are clear, feasible, at appropriate levels of specificity or generality, personally meaningful, and measurable as to accomplishment?
  5. Designing a learning plan – What guidelines for designing a learning plan will I propose?
  6. Engaging in learning activities – Which learning activities shall I take responsibility for to meet objectives that are common to all (or most) of their learning plans, which activities should be the responsibility of subgroups, and which should be individual inquiry projects?
  7. Evaluating learning outcomes – What should be my role in feeding data to the learners regarding my perceptions of the accomplishment of their learning objectives? How can I present these judgments in such a way that they will enhance rather than diminish the learners’ self-concepts as self-directed persons (pp. 31-35)?

While these principles of adult learning may appear radical to some when compared to the lecture style predominant in most colleges, they are really in line approaches being taken in the modern workplace. There the paradigms of collaboration, team-work and synergy facilitated by information age technologies are bringing “. . . productivity increases of not a hundredfold but a hundred times, and yet a hundred times, a hundredfold–and more (Heterik and Sanders, 1993).” Just as in the transition from agrarian to industrial age perhaps educators can learn from way business is altering its activities for the information age. Critics of the education system have used a business concept, the factory model, to describe the present school system. Yet most modern businesses have left this model far behind. Nowhere has the microcomputer had a bigger impact than in the fastest growing business sector, the small office or home office (SOHO). There the computer does little of the actual ‘business’. The computer’s principal task is to help the owner manage the business’ information flow. It assists in payroll, inventory, written communication and other information management requirements. In fact many of these SOHO businesses are in existence because of this medium’s capabilities. Thus the designer of instructional modules for adult learners has two reasons for pursuing a paradigm that bears a close relation to the present and near-future working world. One is the result of studies by adult educators like Knowles and Cross that indicate the most effective instructional approaches for adults. Second is that this approach reflects the work place reality that these lifelong learners will find themselves in when they return to the workforce. In summary, the late twentieth century shifts in the global economy and education are especially critical to the Adult Basic Education community. These learners are being increasingly affected as their learning skills fail to meet the challenges of the new economies. An instructional model that bears a closer relation to the present and near-future working world, thoughtfully implemented in the school environment can evolutionize what education is able to do for students.

At Camosun College ABE instructors are currently implementing many of the ideas on adult education articulated by Malcolm Knowles and others as a viable alternative to the factory model. Seymour Papert of MIT’s Media Lab explains how this model is put into practice. “Many (students). . . are held back in their learning because they have a model of learning in which you have either ‘got it’ or ‘got it wrong’ (Brand, 1988, p. 127).” Papert draws an analogy.

But when you program a computer you almost never get it right the first time. Learning to be a master programmer is learning to become highly skilled at isolating and correcting ‘bugs’, the parts that keep the program from working. The question to ask about the program is not whether it is right or wrong, but if it is fixable (Brand, p.128).

English and math ABE programs at Camosun use a variation of Papert’s debugging model with individualized, competency based curriculum. Students are not tested to see if they pass or fail. Tests are diagnostic tools. To use Papert’s analogy instructors test to see if there are any bugs in the students’ skill development. Once the bugs are identified, they can be fixed. The same approach is taken with written assignments. The instructor interacts with individual students over a succession of drafts, until a polished draft has been completed to the satisfaction of both instructor and student. This competency-based approach is a hallmark of adult instructional practice in most ABE classes. It is also a paradigm espoused by most computer-based instructional systems. However it is the next area, critical to the adult learner, where these electronic learning systems fall short.

A crucial component of this proposed hypermedia learning web is the provision of an instructional environment that recognizes the adult learners’ “need and capacity to be self-directing, to utilize his experience in learning, to identify his own readiness to learn, and to organize his learning around life problems (Knowles, 1978, p. 119; emphasis Knowles’)”. Too often it is precisely because of this need for and lack of self-directedness that the adult learner has had an unhappy experience with schooling. Thus it is up to the adult educator to encourage the learner who is not yet self-directed “. . . by structuring the learning environment that weans the student from dependence and encourages interdependence (Kidd, 1975, p. 26).”

How should the learning environment be constructed to provide a responsive environment for learners? “A logical outcome of these assumptions is the use of a collaborative teaching model that involves the learners as partners (Knowles, 1980, quoted by Imel, 1994).” Such an environment implies choices for students (Mink, 1977), including self-pacing, variable kinds and amounts of feedback, provision of structure to encourage development of good habits, and a new role for the instructor as “learning coach” or facilitator. This is accomplished by melding the approaches of Dewey and Tyler. The instruction distributed to ABE learners should include clearly stated learning objectives and mastery learning conditions (Crane, 1983), that are modified according to individual student need. Roueche and Mink (1975) claim that students provided with this kind of responsive learning environment develop greater feelings of control over their lives, and self-direction. Some interpret a self-directed approach as an abrogation of responsibility by the instructor. This is not the case according to Pratt (1988, quoted by Imel, 1994). The amount of control given into the hands of the learner will depend on the individual learner’s circumstances.

Pratt’s model establishes the level of learners’ competence in deciding what to learn and how to carry out the learning process (direction) and their competence to do so (support). These key factors provide the foundation for initiating a partnership between instructors and learners. Even though learners may need both direction and support, they can still be involved in designing and directing their learning in meaningful ways (Imel, 1994).

With a overview of the hallmarks of a responsive learning environment the proper approach to designing ABE instructional modules is clear. In summary . . .

Merriam (1984) proposes that adult educators consider the following as among the most effective instructional techniques for use with adult learners: contract learning, experiential learning, portfolios, and self-pacing. Merriam also suggests that teachers strive to make learning experiences as meaningful as possible for individual learners and that they attempt to refrain from the stereotypical role of authority figure and transmitter of knowledge, functioning instead as a role model or resource person (Schroeder, 1991).

The rub is how to provide this responsiveness to student need; “. . . most educators would agree that (while) the individualization of learning is a good ideal . . . it is extremely difficult to accomplish” (Dewey, 1975, p. vii). This is where the hypermedia information management capabilities of the networked computer must be implemented.

By providing information in a variety of modalities, providing a context for the information, and allowing multiple paths through this knowledge, the (hypermedia instructional) system allows the learner to select information in the format or formats best suited to his/her learning style, ability level, and information needs through one unified system of access. All of this will increase the learner’s engagement with the learning situation as he/she elaborates on current knowledge (Schroeder, 1991)

Thus the information technology that has brought such productivity gains to the business world properly applied in the light of what we know about how adults learn can bring equally high productivity gains to the education of adult learners. Hypermedia used in individual, cooperative learning or group composition with a group of users contributing to a common database of information is the lynch pin for the hypermedia instructional modules being piloted in this project.

Next — Hypermedia in Camosun’s ABE Program

Objectives of the Project

All digital information sources, available at the speed of light over global networks, are converging on, and available, through the Web at an exponentially increasing rate. There is a corresponding increase in the need for instructors who can structure the information glut that is the Internet into a form that makes sense to learners. This task is anything but new to instructors. Learners come to educational institutions because of faculty’s ability to structure information into forms useful to students. Most of the courses ever offered to students already exist in the printed form in libraries and other reference sources. Why don’t more students involve themselves in a self-study program? Perhaps it is because humans need, a community in which this chaos called the information age can be ordered in ways that are useful and make sense to them.

Many educators believe that it is time for a response to a changing definition of teaching and learning. Driven by the information explosion, an education system that prepares a student for a single career is outmoded. “Graduates need to have acquired skills, such as critical thinking, quantitative reasoning, and effective communication, along with abilities, such as the ability to find needed information and the ability to work well with others (Twigg, 1994).” The Pew Higher Education Roundtable’s, To Dance With Change (1994) contends, “The danger is that colleges and universities have become less relevant to society precisely because they have yet to understand the new demands being placed on them.”

How can educators adequately respond to these new demands from society? The Pew report directs educators’ attention to the new electronic superhighway. The report claims the Internet may turn out to be the most powerful external challenge facing higher education. Graves (1994) calls for

“. . . strategic experimentation with alternative models of instruction. The goal should be for the instructor to help the student learner when help is most needed. With the assistance of computer and video networks and technologies, this interaction can happen outside the typical class lecture period or tightly scheduled office hours. We must utilize this flexibility to discover models of instruction more appropriate to the emerging Knowledge Age than to the receding Industrial Age.

Educators are beginning to examine the expanding educational potential of information technology for a solution to the demand for more accountable and cost-effective instructional programs.

To ensure that all of the above happens in the context of ‘good practice’, this project presents a process leading to the development of World Wide Web based instructional modules focused on the needs of an Adult Basic Education student.

  1. The first step is a literature review of instructional design philosophy and theory that attempts to respond to the needs of a life long learner. What do curriculum theorists and practitioners say about designing instruction to meet the needs of such a learner?
  2. The second is an examination of the fit of design theory with current instructional practice in the ABE classroom. What elements of the above are ABE instructors already implementing in their curriculum? How can technology assist and enhance current instructional patterns?
  3. Third, from this review of theory and practice will come the design framework to plan and pilot the development of information technology based instructional modules.

Offered here, then, is an extension to the traditional educational technologies of chalk and talk, a synthesis of theory and practice in instruction and technology. This synthesis will offer a way to extend the instructor’s influence outside the confines of a classroom. Electronic learning webs will provide faculty with a vehicle with which they can structure information in ways that, for the adult learner, information can become knowledge.

Next — Theoretical Base

A Look to the Future — Some Terms and Concepts

The Machine as Cognition Enhancer

Christopher Dede (1989) discusses how evolving information technologies are transforming the nature of work and in turn can positively affect the design and content of the school curriculum. We are beginning to experience “cognition enhancers” that combine “complimentary strengths of a person and an information technology” (p. 23). One category of a cognition enhancer is the empowering environment in which the machine handles the routine mechanics of a task, while the person is immersed in its higher-order meanings. The following example will serve to illustrate the point. The author’s wife wanted to play the guitar, but found the task of tuning a guitar beyond her. She bought an electronic tuner which provided visual feedback when the guitar was properly tuned. She was soon playing regularly in a Sunday church service. The word processor with spelling and grammar checker, thesaurus and graphics capabilities provides other good examples. Students should have access to these tools.

Hypermedia

Hypermedia, another cognition enhancer, is not yet an integral part of any of the current commercial instructional systems. This computer software program, is “a framework for creating an interconnected, web-like representation of symbols (text, graphics, images, software codes). . . (Dede, p. 24)”. Imagine a series of transparent cards. Attached to each of these cards is a button. Each of these buttons can activate an educational resource or information provider. This could be a video segment, a textbook or an encyclopedia. Increasingly it could also be a telecommunications connection to such computer networked resources as electronically stored texts, graphics, sound and video as well as other students and teachers. The user would then be linked to any information, person or place desired. “Hypermedia is the scholar’s and the scientist’s dream (Lemke, 1993)”.

The emerging hypermedia capabilities of networked computers are already dramatically altering learning paradigms. The Internet as the world’s largest computer network, connects educational, government and commercial institutions in thirty-five countries.

It (the Internet) is the 21st century version of an 18th century French project born of the optimism of the Age of Enlightenment: to create a single encyclopaedia of everything known by mankind. The French were defeated by the sheer growth of information and by the lack of technology to store and access it. As we approach the 21st century, however, the Internet could be that encyclopedia – and much more (Highways for Learning, 1995, p. 3).

The British Columbia Ministries of Education and Skills, Training and Labour have committed to link every school, college, institute and university in the province to this resource.

Libraries and computer centers will integrate their functions. There will be seamless connections of local-area networks and wide-area ones, so that we will as readily use this medium to share instructional materials with our students (as they will share their projects with us) as to share professional work with our colleagues. And this in turn will revolutionize the paradigm of education and learning itself . . . (Lemke, 1993)

While commercial ILS system marketing representatives have expressed curiosity and interest in offering connections to the Internet, none of the systems reviewed by Thomas & Buck (1994) do so. One site visited does offer this capability to its students. A college ABE program in the interior of British Columbia, that did not have the resources to purchase a commercial ILS, was able to acquire the hardware and software necessary to connect student workstations to one-another through the world-wide network called the Internet. The instructor has then structured his own curriculum along the lines Lemke suggested above. While this program was outside the parameters of the Thomas & Buck analysis, it was intriguing to see what a classroom instructor could do given the appropriate technological support and access to a network of other learners and instructors.

The Internet

What is the Internet (Net), the largest of all computer networks? According to the winning entry in a BBC competition to describe the Internet,

The Net is possibly the largest store of information on this planet. Everybody can be part of it; it is one of the few places where race, creed, colour, gender, sexual preference do not prejudice people against others. All this through the magic of modern technology. Communication is the key. People talking to people. The Net isn’t computers. That’s just the way we access it. The Net is people helping each other in a world-wide community. (Simon Cooke, physics student, quoted in the World Wide Web document titled Highways for Learning published in paper and on the Net at http://ncet.csv.warwick.ac.uk/WWW/randd/highways/index.html)

In mid-1995 the Internet is composed of 30,000 smaller computer networks operated by universities, colleges, research centres, government agencies, non-profit and commercial organizations connecting 30 million people. It is estimated there could be a 125 million users world-wide within two years. Net connections range in price from free, for may faculty and students, to less than two dollars an hour for a connection to a commercial Internet provider site in the world. Once a personal computer has been connected to the Internet any information stored at virtually any site anywhere in the world is available free of charge.

What was once the playground of an academic, American male, computing elite, now offers something for everyone. Each person sees it differently: for one it may be the largest library on the planet to browse and contribute materials to; for another the fastest and most reliable postal service in the world; for still others it is a way to meet friends, to discuss politics and music, to share views and to exchange help and support (Highways for Learning, 1995, p. 3).

In a world of cognition enhancers, the global marketplace is altering the workplace. The impact on instructional practice, and curriculum content and design will be profound. Facilitated by the Internet, Dede claims the emergence of:

  • a new definition of human intelligence; a partnership between human strengths and the computer’s cognition enhancing capabilities,
  • a greater emphasis on collaborative learning as combined computer and telecommunications technologies allow individuals and communities in a variety of places and circumstances to interact,
  • improved methods of assessing individual learning needs,
  • lifelong “learning-while-doing”, thanks to these same telecomputing networking capabilities,
  • a curricular shift from presenting data to evaluating and synthesizing ideas, and
  • a focus on solving real-world problems using concepts and skills from multiple subject areas (Dede, 1989, pp. 25-26).

Informatics

The innovations that supports the objectives outlined above by Dede is called “informatics – computers linked to electronic communication systems” (Knappler, 1988, p. 92). While some of the electronic instructional systems that Thomas & Buck examined attempted to meet at least some of these goals, these commercial systems have so far failed to provide an informatics curriculum; that is “fundamental skills for the new hypermedia literacy (Lemke, 1993).” These skills include database exploration, information search and retrieval and other user skills, as well as authoring skills. With the world’s information base becoming broader and deeper at an exponential rate, database exploration will be a critical skill in an environment where “. . . students will frequently be expected to change from one area of work to another and quickly ‘catch up’ with its problems and issues (Lemke).” Beyond awareness of the wealth of information available on the Internet are the electronic/Internet skills necessary to locate and retrieve a specific, identified, bit of information. Once information is retrieved the learner will need hypermedia navigation skills. Just as the printing press brought about the demand for a new range of skills, so too will hypermedia.

Convergence

Convergence is one of the factors driving these changes. All of the world’s information sources are being converted into, and converging to, one digital format. This digitized information can then be delivered via an interconnected series of computer networks called the Internet. These information sources include the traditional media of print, graphics, audio, video and film. Every medium of instruction used in the classroom can now be delivered beyond the four walls of the physical classroom through network tools like email and the World Wide Web (see Appendix A for information on gopher and listservs). Every information source known to humans can be expressed in a digital form stored on computers connected through this world wide network. Once put into a digital format, information stored on the Net can be readily transmitted at the speed of light through a rapidly growing number of global connections.

The World Wide Web

The World Wide Web (Web) has become the easiest and most effective way to interact with information on the Internet. Not only is it possible to electronically receive text, like this document, but a properly equipped multimedia personal computer can receive graphics, video, audio and indeed any information in binary form. By the year 2000, according to a keynote speaker at the University of British Columbia’s WRITE conference, ninety-five percent of the world’s information will be digitized. The World Wide Web is rapidly becoming the Internet’s principal means of electronically publishing and distributing this information.

Every ten weeks the number of computers providing information on the World Wide Web doubles. You can use the Web to visit museums, art galleries, libraries and exhibitions, even the White House and soon concerts, all for the cost of a local phone call. You can access the Library of Congress, science resources, journals, book reviews, business statistics, geological survey maps, United Nations papers, music, French language press reviews, software archives, sport databases, magazine archives. You can obtain weather details for most of the globe, images of outerspace; the bible is there, all the novels of Mark Twain, the plays of Shakespeare, the scripts of Blackadder. You can drop in on peoples’ lives and homes. The pictures, text data, video and audio files can be copied and saved for your own use (subject to copyright) (Highways for Learning, 1995, p. 4).

Educators are beginning to see the potential in the Web for delivering instructional modules to learners in a time and space independent manner (Ministry of Skills, Training and Labour, 1995).

The Internet is changing the concept of publishing and new computer systems are being supplied with this in mind. Products like Microsoft’s Windows NT server allow users quickly and easily to set up an Internet (Web) server: you can publish your own information – whether prospectus, article, poem, music or thesis – at low cost. . . Just as there was an explosion of books after the invention of the printing press, we can expect an explosion of digital books on the Net; the low cost and huge audience prove irresistible to anyone with something to say (Highways to Learning, 1995, p. 4).

In addition to a Windows NT Web server, faculty and students need a computer which can be connected to the server via telephone and modem, or direct network cable. The server, connected to the Internet, can in turn provide network connections to any machine attached to it.

Hypertext Markup Language (HTML)

One very important feature of the Web is HTML, the language that allows for the electronic publishing of documents containing text, animation, graphics, video, and audio. In the last few months Web or HTML electronic documents have become even easier to create thanks to a free add-on product offered by all of the major word processing software developers. Now anyone who can create and manipulate word processed documents can, with those same skills, create and manipulate hypermedia Web documents. An author who uses HTML to create World Wide Web pages is called a web weaver. Appendix A contains a document which outlines some basic Internet concepts and capabilities. It was retrieved over the Internet from the Web home page, or electronically published document, of the British Columbia Ministry of Skills, Training and Labour’s Standing Committee on Educational Technology (SCOET). If this document had been electronically published on the Web, a mouse click on the following underlined word, SCOET would connect the reader to a Camosun College address ( http://ccins.camosun.bc.ca:80/scoet/contact/p5.html) where the electronic pages are kept and regularly updated. HTML permits, in addition to text, the electronic publishing of any multimedia event the web weaver has connected to this Web home page. For example, in a Web-based document the reader could use the computer mouse to click on an icon or picture of a speaker. In turn they could hear the author’s voice played through the computer’s sound card and speakers. As the Internet’s bandwidth (capability of carrying data) increases, student Web users will also be to interactively video conference with their instructors. Thus the Web offers some intriguing possibilities for structuring information in ways that prove useful to students.

Next — Objectives of the Project

2014 SD Year Report

Abstract

I have strived to be an educational innovator throughout my career at Camosun. As I enter the last few months of my post-retirement contract, I want to share with my colleagues lessons I have learned in promoting student success in online math.

To that end, I attended the 2014 League for Innovations in the Community College conference. I wanted to determine if I have been on the right path with my innovations in encouraging student success in online math learning as well as learn about new initiatives and trends in this area. I have also prepared a training workshop for my colleagues on teaching math online.

At the moment, I am the only math instructor at Camosun teaching online. It is my hope that the result of this SD activity will be to encourage colleagues to make use of the knowledge and resources I am sharing.

Report on Outcomes

I attended the League for Innovations in the Community Colleges Innovations 2014 conference (http://www.league.org/i2014/) to learn what other colleagues across North America are doing to enhance the community college experience. I have shared the insights I have gained at my faculty website at http://legacy.lwebs.ca/index.php/category/professional-development/innovations-2014/

The task of updating and improving my online math system at http://mathxl.com continues throughout the year. Details are available at my faculty website, my Google Plus site and YouTube Channel as well as in my online classroom  This is also a 52 week a year task. Pearson Ed, our math textbook publisher who provides the site, regularly makes changes to its site that I need to keep up on.  There are two MathXL updates in the month of July that I will need to master and then implement in my online classrooms in time for the Fall 2014 term. I begin my orientation to the online classroom by welcoming Fall 2014 student in mid-August. 

My chair and I had originally planned to deliver the online math training workshop in May. However, that will now happen the end of August when faculty and staff return from holidays. It is my hope that my colleagues will be willing to make use of this knowledge and these resources in their own practice, either as a supplement to their current face-to-face practice or in a fully online environment.

Encouraging colleagues to make use of the Internet in service of our students has been a goal of mine for over 20 years. See http://legacy.lwebs.camosun.bc.ca/lwebs/session1.htm for a report of a workshop I helped facilitate in 1996. It was also a goal when I was founding chair of the Community Learning Partnerships Department. Perhaps the time is right for faculty to finally cross Roger’s innovation chasm. See Technology adoption lifecycle for more information.