Component Display Theory
Family Tree Cognitivists
The family tree for cognitivist focus theory to
teach problem solving tactics with classroom practices. These cognitivists and
the component display theory commonly define facts and rule to demonstrate
procedural knowledge. For example,
keyboard tutorials practiced for a sustained period time increase typing speed
and ability to expedite typing jobs. This completed task embodies the learner’s
conditional knowledge, an optimal display for cognitive ability. In addition,
active levels of cognitive processing serve as a bridge to increasing
complexities in self-organization for compare and contrast analysis, applicable
in systematic solutions for problems.
From a historical point of view, in
1956, Bloom established his research on taxonomy in cognition, affective and
psychomotor disciplines. Fast forward to current teacher training, Blooms
Cognitive Taxonomy outlines the behavioral verbs to include knowledge,
comprehension, application, analysis, synthesis and evaluation. Similarly, David
Merrill’s Component Display Theory was and is based upon the same assumptions
as Robert Gagne's Events of Instruction. They agree that different types of
learning procedures are best suited for teaching individual concepts to assign personal control
during the learning process. This school of cognitivism establishes descriptive
theories that describe how people learn and understand new ideas.
The Component
Display Theory outlines how to design instruction for the cognitive domain,
based on pre-determined objectives of instruction. This theory arose from the
notion that learners select and control their own instructional strategies in
response to content and presentation components. C.D.T. focuses on a singular idea
or objective at a time. The Component Display Theory suggests a particular
objective and learner, utilizes a unique combination of presentation forms that
result in the most effective learning experience.
C.D.T. deals with the micro level of instruction, it works in conjunction with Reigeluth's Elaboration Theory, which is a macro learning system. Learning has two dimensions: content and performance. Content encompasses facts, concepts, procedures and principles. Performance consists of memory, utilization, generalizing.
The table below shows the corresponding relationship for presentation and task forms for the teacher-trainer to systematically organize objectives for cognitive-based lessons.
C.D.T. deals with the micro level of instruction, it works in conjunction with Reigeluth's Elaboration Theory, which is a macro learning system. Learning has two dimensions: content and performance. Content encompasses facts, concepts, procedures and principles. Performance consists of memory, utilization, generalizing.
The table below shows the corresponding relationship for presentation and task forms for the teacher-trainer to systematically organize objectives for cognitive-based lessons.
TEST
ITEM
TASK LEVEL |
PRIMARY PRESENTATION FORM
|
||||
Tell Via Generality (Generality
|
Tell Via Example (Example)
|
Question Via Example (Practice)
|
Question Via Generality (Generality Practice)
|
||
Use Generality
|
|||||
Remember Paraphrased Generality
|
|||||
Remember Verbatim Generality
|
|||||
CALICO
Journal, Volume 3 Number 4
APPLICATION OF COMPONENT DISPLAY THEORY
IN DESIGNING AND DEVELOPING CALI
Soo-Young
Choi
Assistant
Professor of Korean Department of Asian and Near Eastern Languages
Brigham Young University Provo, Utah 84602
Profile for Component Display
Theory
Component Display Theory ( CDT) frames the learning processes upon an individual knowledge and skills. This
theory emphasizes the process for any learner to receive and self-organize
information. This learning process is the instructional designers’ point of
influence to manipulate pieces of information that provide comprehension in
order to access training or course content. The optimal results for learning
outcomes anchor the instructional plans. As seen in the table below is two
dimensions for the learning process that encode information into memory. The y-axis
shows qualities for performance and the x-axis show the qualities for content.
performance
|
use
|
use concepts
|
use process
|
use principles
|
|
find
|
find concepts
|
find process
|
find principles
|
||
remember
|
remember
facts
|
remember
concepts
|
remember process
|
remember
principles
|
|
FACTs
|
CONCEPTs
|
PROCESS
|
PRINCIPLEs
|
||
content
|
content
|
content
|
content
|
||
evidence
statement
|
model
idea
|
procedure
method
|
theory
standard
|
This table shows the unique
combinations to design unique learning objectives and corresponding activities.
The different types of associative and logical memory complement the designs for instruction.According
to Dr. David Merrill, who researches and explains the assumptions about
cognition that underpins CDT. The associative and logical memory structures
directly impact performances objective of Remember and Use/Find. He specifies
that associate memory has an interconnected network-like structure whereas
logical memory contains rules. The
significant aspect of CDT framework is that learners can select their own
instructional strategies within content and presentation modules. These modules
used for instructional design provide a high proportion of individualization
and self-selected learning preferences and styles. With an emphasis placed on individual control,
there are transactions rather than presentation forms as well as learner
control for guided strategies. This theory has been embedded within course and
lesson design as familiar to current expert learning systems and authoring
tools.
Theory in practice is to reduce
stress placed in and upon learners memory. It is advantageous to select
categories for multiple elements of information that lead into a single outcome,
then assessment. In the end, this allows the teacher to construct lesser to
more complex structure when delivering information that yields efficient
learning to leverage the teaching processes.
Component Display Theory (C.D.T.) in my classroom
C.D.T. provides the basis for my lesson
design in our foreign language learning system and instructional materials.
After viewing pictures for a short
story, sentence starters are posted for the whole class. The cognitive
strategies in action are as follows:
Teacher models how to ask questions
by saying aloud (with intonations) the
following sentence starters and not completing them :
“ What if . . “
“How come . .”
“I do know . .”
Then, to review
our story after the first read,
the sentence starters are repeated and teacher types the student responses for
whole class view on (computer linked to) projector screen. As a
third repetition, teacher reads aloud students previously completed sentences hand
written on white board before story and
corresponding sentence starters completed after the story. The instructional
design is for these second language students to self-select their instructional
strategies. For my teacher best cognitive-based practices for (primary grade
level) foreign language students is to concentrate on oral language development
with word choice not pronunciation, student efficacy for meaningful communication: when language is used for communicating
original ideas. The ongoing prompt for cognitive based self-correction, “Does
it sound right?” The repeated reading
comprehension and assessment with remedial skills level students is my method to assign new
information into memory for foreign language comprehension, assemble texts with
increasing word count.
REFERENCES
Anglin, Gary J. (1995). Instructional Technology: Past, Present, and Future (2nd Edition). Libraries Unlimited, Inc. Englewood, Colorado.
Anderton, George; Parry, Kent; and Twitchell, David. (1990). A Simplified Approach to the Application of the Component Display Theory. Educational Technology. April 1990.
Braxton, Sherri; Bronico, Kimberly; and Looms, Thelma. Lessons Based on Component Display Theory. http://penta.ufrgs.br/edu/telelab/teclec/lesson_c.htm.
Merrill, M. David. Component Display Theory. http://tecfa.unige.ch/themes/sa2/act-app-dos2-fic-component.htm. Accessed June 8, 2014
Reigeluth, Charles M. (1999). Instructional-Design Theories and Models: A New Paradigm of Instructional Theory (Volume II). Lawrence Erlbaum Associates, Inc.
Tennyson, Robert D. (1994). Automating Instructional Design, Development, and Delivery. Springer-Verlag Berlin Heidelberg: Germany.
Twitchell, David. (1990). A Comparison or Robert M. Gagne’s Events of Instruction and M. David Merrill’s Component Display Theory. Educational Technology.
Anglin, Gary J. (1995). Instructional Technology: Past, Present, and Future (2nd Edition). Libraries Unlimited, Inc. Englewood, Colorado.
Anderton, George; Parry, Kent; and Twitchell, David. (1990). A Simplified Approach to the Application of the Component Display Theory. Educational Technology. April 1990.
Braxton, Sherri; Bronico, Kimberly; and Looms, Thelma. Lessons Based on Component Display Theory. http://penta.ufrgs.br/edu/telelab/teclec/lesson_c.htm.
Merrill, M. David. Component Display Theory. http://tecfa.unige.ch/themes/sa2/act-app-dos2-fic-component.htm. Accessed June 8, 2014
Reigeluth, Charles M. (1999). Instructional-Design Theories and Models: A New Paradigm of Instructional Theory (Volume II). Lawrence Erlbaum Associates, Inc.
Tennyson, Robert D. (1994). Automating Instructional Design, Development, and Delivery. Springer-Verlag Berlin Heidelberg: Germany.
Twitchell, David. (1990). A Comparison or Robert M. Gagne’s Events of Instruction and M. David Merrill’s Component Display Theory. Educational Technology.
Keywords suggested for text search:
Schema, schemata, information processing, symbol manipulation, information
mapping, mental models
Knowledge can be seen as
schema or symbolic mental constructions. Learning is defined as change in a
learner’s schemata.
(3)
Biography about
Dr. David Merrill, Phd.
http://osuedtech.blogspot.ae/2006/03/david-merrill-biography.html
Dr. David Merrill is one of the most influential names in
the field of Instructional Design. For over four decades, Merrill has provided
many contributions to Instructional Design. This is a brief summary of his
background and accomplishments.
Dr. David Merrill
earned his BA from Brigham Young University in 1961, his Ph.D from the
University of Illinois in 1964 His publications include 12 books, 65 journal
articles, 16 book chapters, 123 technical reports, and more. He has also
performed work on 18 instructional computer products and expert system
prototypes.
Merrill has provided his knowledge and expertise to
several academic institutions and corporations. Merrill has been a faculty
member for Utah State University since 1987 where he is now an emeritus
professor. Other academic institutions he has worked with include the University
of Southern California, Brigham Young University, and George Peabody College
for Teachers. He has also taught in several institutions internationally, such
as Twente University in The Netherlands, and the University of Indonesia.
Corporately, Merrill has provided leadership for educational technology
companies, including being founder, director, and president of Microteacher,
Inc., as well as being founder, director, and Vice President for Research for
Courseware, Inc.
Today, Dr. Merrill independently contracts himself as an instructional effectiveness consultant. He has held many major instructional consulting contracts throughout his career, including Arthur Anderson & Company, IBM, the US Air Force Human Resources Lab, and United Airlines Services Corporation. His major research contracts have included the National Science Foundation, Navy Personnel Research and Development Center, US Air Force, US Department of Defense, Apple Computer Corporation, and others.
Today, Dr. Merrill independently contracts himself as an instructional effectiveness consultant. He has held many major instructional consulting contracts throughout his career, including Arthur Anderson & Company, IBM, the US Air Force Human Resources Lab, and United Airlines Services Corporation. His major research contracts have included the National Science Foundation, Navy Personnel Research and Development Center, US Air Force, US Department of Defense, Apple Computer Corporation, and others.
Dr. Merrill now resides in Kahuku, Hawaii with his wife
Dixie where he works with BYU Hawaii. They have 6 children and 24 grandchildren. His birthday
is March 27th.
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