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A Comparison of Technology Teacher Education in the Asia-Pacific Region

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Abstract

The technology education (TE) and technology teacher education (TTE) from eight countries/areas in the Asia-Pacific Region (APAC) are presented in the former eight chapters of this book. This chapter summarizes the TE profile, the state-of-the-art of TTE, and the challenges and innovations of TTE presented in these chapters. Similar trends and unique characteristics are also raised for further discussion. Consequently, the main conclusions are as follows: (1) TE programs are common at the lower secondary education level. (2) The profile of TE varies by country/area, but the role of TE in helping students develop technological literacy is widely recognized. (3) The TE content in the eight cases could be roughly grouped into three approaches: the first approach places more emphasis on Design and Technology (D&T), as in the cases of Australia, New Zealand, and Hong Kong; the second puts more stress on Technology and Engineering (T&E), as in the United States, Japan, Korea, and Tai-wan; and the third underlines labor technology more than others topics, as in China. (4) For most cases, the minimum education level for initial technology teachers is a Bachelor's degree. (5) Pre-service technology teachers are usually required to complete pedagogical courses and technology/relevant subject coursework and to pass the teacher qualification/licensing examination. (6) Each country/area has its unique features of TTE. For example, in New Zealand, initial teacher education programs prepare student teachers to teach technology through experientially-based inquiry learning approaches. (7) A shortage of qualified technology teachers, insufficient pre-service technology teacher education programs, and the lower subject status of technology compared to other school subjects are three major problems/challenges of TTE. (8) Many innovations and strategies are raised in each country/area to deal with common and individual challenges. For example, in Australia, it has been suggested that universities offer more scholarships and be potentially funded by government departments to encourage school leavers and tradespeople to consider teaching as a career.
349 A COMPARISON OF TECHNOLOGY TEACHER EDUCATION
IN THE ASIA-PACIFIC REGION
A COMPARISON OF TECHNOLOGY TEACHER EDUCA-
TION IN THE ASIA-PACIFIC REGION
Lung-Sheng Lee
Professor, Graduate Institute of Cultural and Educational Management,
Central Taiwan University of Science and Technology, Taiwan
Yi-Fang Lee
Professor, Department of Industrial Education,
National Taiwan Normal University, Taiwan
350 International Technology Teacher Education
in the Asia-Pacific Region
ABSTRACT
The technology education (TE) and technology teacher education (TTE) from
eight countries/areas in the Asia-Pacic Region (APAC) are presented in the
former eight chapters of this book. This chapter summarizes the TE prole,
state-of-the-art of TTE, and the challenges and innovations of TTE presented
in these chapters. Similar trends and unique characteristics are also raised for
further discussion. Consequently, the main conclusions are as follows: (1) TE
programs are common at the lower secondary education level. (2) The prole
of TE varies by country/area, but the role of TE in helping students develop
technological literacy is widely recognized. (3) The TE content in the eight
cases could be roughly grouped into three approaches: the first approach
places more emphasis on Design and Technology (D&T), as in the cases of
Australia, New Zealand and Hong Kong; the second puts more stress on Tech-
nology and Engineering (T&E), as in the United States, Japan, Korea and Tai-
wan; and the third underlines labor technology more than others topics, as in
China. (4) For most cases, the minimum education level for initial technology
teachers is a Bachelor degree. (5) Pre-service technology teachers are usually
required to complete pedagogical courses and technology/relevant subject
coursework and to pass the teacher qualification/licensing examination. (6)
Each country/area has its own unique features of TTE—for example, in New
Zealand, initial teacher education programs prepare student teachers to teach
technology through experientially-based inquiry learning approaches. (7) A
shortage of qualied technology teachers, insufcient pre-service technology
teacher education programs and the lower subject status of technology com-
pared to other school subjects are three major problems/challenges of TTE. (8)
A number of innovations and strategies are raised in each country/area to deal
with the common and individual challenges—for example, in Australia, it has
been suggested that more scholarships be offered by universities and be po-
tentially funded by government departments to encourage both school leavers
and tradespeople to consider teaching as a career.
Keywords: technology education, technology teacher education, comparative
analysis, Asia-Pacic region
351 A COMPARISON OF TECHNOLOGY TEACHER EDUCATION
IN THE ASIA-PACIFIC REGION
INTRODUCTION
This book compiles articles about the technology education (TE) and tech-
nology teacher education (TTE) from eight countries/areas (i.e., cases) in the
Asia-Pacic (APAC) Region, specically Australia (AU), China (CN), Hong
Kong (HK), Japan (JP), Republic of Korea (KR), New Zealand (NZ), Taiwan
(TW) and the United States (US). TE here refers to the technological literacy
education as a realm of general education in primary and secondary schools.
It includes both Design and Technology (D&T)/Technology and Engineering
(T&E) and Information and Communication Technology (ICT). Due to dif-
ferences in the educational systems for each case, nationwide TTE may be
narrowed down to the most representative statewide TTE. Following are sum-
maries of the TE prole, state-of-the-art of TTE, and the challenges and in-
novations of TTE in this region. Similar trends and unique characteristics are
raised for further discussion.
Table 1 shows a summary of the schooling systems within which TE programs
are placed, and the types of institutes offering TE programs. For the eight
countries/areas, most cases provide TE programs from the primary through to
the secondary education levels. In AU, TE starts earlier than in other countries
(from kindergarten), while the TE program in TW is provided relatively late
(exibly offered in elementary schools and formally starting at lower second-
ary education). In the US, the schooling system varies by state and local gov-
ernment. Some have integrative STEM programs at the elementary level, but
the others do not provide TE courses in primary education. It can be conclud-
ed that nowadays TE programs are common at the lower secondary education
level (such as junior high school, middle school, lower secondary school, etc.)
Most countries/areas have extended the programs to upper secondary school
level and primary education level, and a few even to kindergarten level.
As for the types of institutes offering TE programs, TE is provided either in
general/academic high schools or vocational/ technical/comprehensive high
352 International Technology Teacher Education
in the Asia-Pacific Region
schools. CN and TW are examples of education systems that track students
into different groups according to their academic aptitude and interests in the
secondary education stage. TE is provided in both school institution tracking
types. In AU, institutional types are quite unique, including the government
public school system, the Catholic school system, and independent schools.
They all offer TE programs for students.
THE PROFILE OF TECHNOLOGY EDUCATION (TE)
Table 2 presents a summary of the profiles of technology education in the
Asia-Pacic Region. Nine comparative points were proposed for further dis-
cussion across the countries/areas, including TE program status, title, time
allocation, major objectives, characteristics of the target group, content orga-
nizers, general characteristics, means of recognition of TE achievement, and
instruction. All of the descriptions focus on the primary and secondary educa-
tion levels.
Point 1: Program Status
This section discusses whether the TE program is required/elective, separate/
integrated, or considered as a vocational/general subject. At the primary edu-
cation level, TE programs are integrated and compulsory courses in CN, HK,
JP, and KR. These courses are a part of Practice Activities (CN, KR), the Gen-
eral Studies subject (HK), and Practical Arts (KR). In JP, TE is integrated into
arts and crafts classes. As for AU and NZ, technology is a required/separate
learning area that focuses on cultivating students’ broad technological literacy.
In the US, although TE status varies by state or local school district, it is a re-
cent trend that it is provided via integrative subjects at elementary schools.
At the lower secondary education level, it is common to see TE as a required
and separate subject in this region. As for upper secondary education, the TE
program in most cases is elective and general-oriented, except for AU where
353 A COMPARISON OF TECHNOLOGY TEACHER EDUCATION
IN THE ASIA-PACIFIC REGION
Australia
(AU)
China
(CN)
Hong
Kong (HK) Japan (JP) Korea
(KR)
New Zea-
land (NZ) Taiwan (TW)
United
States
(US)
Schooling
system
(place of
TE)
From Kinder-
garten to
secondary
education (K
- 12)
All elemen-
tary and
secondary
school stu-
dents
Primary
education
and second-
ary educa-
tion (junior &
senior)
Elementary
school, lower
secondary
school, and
upper second-
ary school:
divided into gen-
eral education
(general course)
and professional
education (in-
dustrial course)
Elementary
education
(only for
5th and 6th
graders);
Secondary
education
Technology
education is
a compulsory
subject in the
schooling
sector (Years
1-10)
Secondary edu-
cation
Integrative
STEM at
the elemen-
tary level;
Secondary
level of
education
Types of
institutes
offering TE
programs
Government
public school
system,
Catholic
school
system, &
independent
school
Elemen-
tary school,
junior high
school, tech-
nical and
vocational
schools, &
academic
senior high
schools
Primary
school, lo-
cal middle
schools
(government
schools, aid-
ed schools
and caput
schools)
Elementary
school, lower
secondary
school, & up-
per secondary
school
Primary
school,
middle
school, &
general
high school
Primary
school, full
primary
school, in-
termediate
school, mid-
dle school,
secondary
school, &
area school
Junior high
school & senior
high school
(divided into
general high
school, technical
high school, &
comprehensive
high school)
Elemen-
tary school,
middle
school, &
high school
Table 1. A summary of the schooling system and institute types regarding TE programs in the Asia-Pacic Region
354 International Technology Teacher Education
in the Asia-Pacific Region
TE in Years 9-12 has a more vocational focus that aims at preparing students
for entry into the workforce or university.
Point 2: Program Title
Some cases which have a national curriculum have a nationwide TE program.
Examples of their program titles include: Design and Technologies and Digital
Technologies in AU; Practice Activities (IPA), General Technology (GT), and
Information Technology (IT) in CN; Technology Education (TE), Business,
Accounting and Financial Studies, Design & Applied Technology, Health
Management & Social Care, Information & Communication Technology, and
Technology and Living in HK; Technology and Home Economics, and Infor-
mation in JP; Practical Arts and Technology-Home Economics in KR; Tech-
nology in NZ; and Information Technology (IT) and Living Technology (LT)
in TW. As for the US, program titles are very diverse across states, including:
Applying Technology, Creating Technology, Explorations in Technology or
Technology Education in middle schools; and Material processing, Graphics,
Digital technologies (like web design, coding of robots and CNC machining
devices), Videography, Rapid prototyping or 3D printing in high schools.
Point 3: Time Allocation
The time allocation of TE programs for the eight cases is too diverse to gen-
erate a common pattern. What we found interesting is that in some countries
such as AU, CN, KR, and TW, the recent revision of the curriculum guidelines
has highlighted the importance of TE and has allocated more time to the pro-
gram compared to the past.
Point 4: Major Objectives
There are a number of similar major objectives of TE programs in this re-
gion. Most cases recognize that the major objectives are to help students de-
velop technological literacy in order to be well-prepared for participating in
355 A COMPARISON OF TECHNOLOGY TEACHER EDUCATION
IN THE ASIA-PACIFIC REGION
changing technologies in their current and future life. More specically, tech-
nological awareness and understanding are common factors, and technological
problem solving, innovative making, and applying are highlights in countries
such as AU, CN, KR, and TW.
Point 5: Characteristics of the Target Group
In AU, CN, and HK, students can access TE programs from Years 1 to 12
and in NZ from Years 1 to 10. In KR, the TE program starts from Grade 5 and
extends to all students in middle school. For the other cases of JP, TW, and the
US, most students access the TE program from the junior high school/middle
school level.
Point 6: Content Organizers
The content organizers of TE in each country/area are quite diverse due to
their TE program development history and current focus. However, some pop-
ular components are observed in this region, such as Design and Technology
(D&T), Home Economics (HE), Living Technology, Technology and Engi-
neering (T&E), Information Technology (IT), and Information and Communi-
cation Technology (ICT). In AU, a number of traditional TE content organiz-
ers (such as Textile technology, Woodwork, Metalwork, etc.) are maintained
in the current program. Overall, the TE content organizers have changed in
recent decades; in the early stage more time was allocated to traditional crafts-
manship learning, while nowadays it has started to shift to living technology,
information technology or engineering. For the eight cases in APAC, the TE
content could be roughly grouped into three approaches: the first approach
places more emphasis on D&T, as in AU, NZ, and HK; the second puts more
stress on T&E, as in the US, JP, KR, and TW; and the third underlines labor
technology more than other topics, as in CN.
356 International Technology Teacher Education
in the Asia-Pacific Region
Point 7: General Characteristics
The general characteristics of TE among the cases have similar and unique
points. Some similar characteristics include the focus on knowledge as well
as practice/hands-on skills learning (AU, CN, TW, US), paying attention to
the relationships among human action, technology, society, and the environ-
ment (JP, NZ), and utilization of technology in the real world (AU, JP, KR,
TW, US). It is worth noting that the HK authors proposed that the recent TE
program revision in HK overstresses the content of knowledge, which might
undermine the role of practical problem-solving activities. More attention to
further adjustment is warranted.
Point 8: Mean of TE Achievement Recognition
All of the cases in this region adopt varied types of school-based assessment
to evaluate student TE achievement in terms of knowledge, skills and attitude.
The common means are interviews, student self-assessment, peer review, port-
folios, paper-and-pencil tests, checklists, scoring rubrics, posters, projects, and
videos. An authentic assessment approach is used in which students are asked
to perform real-world tasks to demonstrate meaningful application of what
they learned about TE knowledge, skills, and attitude. These school-based as-
sessments are usually used as formative and summative assessments during
students’ learning period. Besides, some countries conduct unied tests or is-
sue national certicates or awards to recognize achievement. For example, CN
has the Academic Test for the Junior Secondary School Students on IPA and
IT, and the Academic Test for the Senior Secondary School Students on IT
and GT. In addition, CN holds competitions (such as Olympics of the Mind,
National Computer Production Activities, etc.) that also provide access to un-
derstanding students’ performance. In NZ, the National Certicate in Educa-
tional Achievement secondary school qualication can assess students’ prog-
ress from Level 1 in Year 11 to Level 3 in Year 13. It assesses against either
Achievement Merit or Excellence in Achievement Standards (pass/fail in Unit
357 A COMPARISON OF TECHNOLOGY TEACHER EDUCATION
IN THE ASIA-PACIFIC REGION
Standards). In the US, the Teacher Excellence Award and Program Excellence
Award programs sponsored by the International Technology & Engineering
Educators Association (ITEEA) are powerful means of recognizing achieve-
ment.
Point 9: Instruction
There are some popular teaching and learning pedagogical principles or ap-
proaches used in this region, such as the problem-based/ problem-solving ap-
proach, project-based learning and learning by doing/ hands-on experience.
In addition, some unique approaches are highlighted in individual cases. For
example, besides the earlier mentioned approaches, AU also emphasizes the
design-based approach; CN stresses the integrative-activity-based approach
which incorporates the investigation and exploration approach, and the design
and making approach. In NZ, inquiry learning, talking for learning, and the
future-focused approach are highlighted; their use is exible in order to ac-
commodate students’ learning needs.
358 International Technology Teacher Education
in the Asia-Pacific Region
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zealand
(NZ)
Taiwan
(TW)
United States
(US)
Program
status-required
or elective-
separate or
integrated-
vocational or
general
1.
A Technolo-
gies learning
area re-
quired from
Kindergarten
to Year 8
with an op-
tion in Years
9-10.
2.
From K-8,
TE is
truly gen-
eral (broad,
relevant to
technologi-
cal literacy);
in Years 9-12
TE is not
compulsory
and has a
more voca-
tional focus,
preparing
for entry into
the work-
force or for
university
1.
Both com-
pulsory and
elective
programs.
2.
Both inte-
grated and
separate:
embodied
as a part of
Integrated
Practice
Activities
(IPA) from
Grades 1 to
12. Technol-
ogy and
Engineering
is integrated
with science
in elemen-
tary schools;
separate
subjects
of General
Technology
(GT) and
Information
Technol-
ogy (IT) in
senior high
schools.
1.
Primary
level: par t of
the Gen-
eral Studies
subject
2.
Junior sec-
ondary level:
required and
separate
subject
3.
Senior sec-
ondary level:
compulsory
and elective
subjects
1.
Required/
separate
subject
in lower
secondary
school
2.
General
courses
in general
education &
vocational in
professional
education
1.
Integrated, a
part of ‘Prac-
tical Arts’
in primary
school
2.
Integrated,
a half of
‘Technology-
Home
Economics’
and required
in middle
school
3.
Integrated,
a half of
‘Technology-
Home Eco-
nomics’ and
selected in
general high
school
1.
Separate
learning
area
2.
Compulsory
subject in
the school-
ing sector
(Years 1-10)
1.
A mandato-
ry/ separate
technology
curriculum
in junior high
school
2.
Mandatory
and elective
in senior
high school
1.
Varies by state/ local
school district
2.
Recent trend: inte-
grative subject at
elementary level
Table 2. A summary of the proles of technology education in the Asia-Pacic Region
359 A COMPARISON OF TECHNOLOGY TEACHER EDUCATION
IN THE ASIA-PACIFIC REGION
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zealand
(NZ)
Taiwan
(TW)
United States
(US)
Program titles-
course titles
A national
technologies
curriculum,
encompassing
two subjects:
Design and
Technologies
and Digital
Technologies
1.
Technology
& Engineer-
ing (T &E)
in Science
(Integrate for
Grade 1-6)
2.
Labor &
Technology
(LT) in IPA
(Integrate for
Grade 1-12)
3.
IT (Inte-
grated for
Grade 1-9;
Separate for
Grade 10-
12)
4.
GT incorpo-
rating IPA
(Separate
for Grade
10-12)
1.
TE is one of 8
Key Learning
Areas in the
Curriculum
Framework
2.
Subject title
in TE KLA:
Primary Edu
1-6: General
Studies (GS);
Secondary
Edu 1-3: Tech-
nology Educa-
tion (TE); Sec-
ondary Edu
4-6: Business,
Accounting
and Finan-
cial Studies,
Design & Ap-
plied Technol-
ogy, Health
Management
& Social Care,
Information
& Com-
munication
Technology,
& Technology
and Living
1.
Elementary
school: arts
and crafts
classes
2.
Lower
second-
ary school:
Technology
and Home
Economics
3.
Upper
second-
ary school:
Information
in general
education
1.
Primary
school:
Practical
Arts (nation-
al curricu-
lum)
2.
Middle
school:
Technology-
Home
economics
(national
curriculum)
3.
General
high school:
Technology-
Home
economics
(national
curriculum)
Technology
(Intervention
by Design)
Technology
domain curric-
ulum, including
two subjects:
Information
Technology
(IT) and Living
Technology
(LT)
1.
Middle school: Ap-
plying Technology,
Creating Technology,
Explorations in Tech-
nology, or Technology
Education
2.
High school: Mate-
rial processing,
Graphics, Digital
technologies (like
web design, CADD
and coding of robots
and CNC machining
evices),Videography,
Rapid prototyping or
3D printing
360 International Technology Teacher Education
in the Asia-Pacific Region
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zealand
(NZ)
Taiwan
(TW)
United States
(US)
Time alloca-
tion
Notional hours
recommended
by ACARA:
K-12 (60), Year
3-4 (80), Year
5-6 (120), Year
7-8 (160), Year
9-10 (optional,
0-160), Year
11-12 (optional,
per subject
200-240)
1.
T&E: 18 hrs./
per year
2.
LT:17.5±hrs./
per year
3.
IT: 17.5±
hrs./per
year (inte-
grate)126
hrs./3 years
(separate)
4.
GT: 144
hrs./3 years
1.
Primary
GS serves
Science
Edu, TE, &
Personal,
Social and
Humanities
Edu KLAs.
The total
time alloca-
tion is 12-15%
2.
TE KLA:
8–15% (220
to 413 hrs)
for junior
secondary
level
3.
Senior sec-
ondary level:
all TE sub-
jects (which
ar electives
subjedts)
accounts
for 10-15%
of the total
lesson time
1.
Lower
secondary
school: 70
hrs in the 1st
school year,
70 hrs in the
2nd, and 35
hrs in the
3rd
1.
Primary
school: 68
hours for
5th and 6th
graders
2.
Middle
school: 272
hours
3.
General high
school: elec-
tive courses
for 3 hours/
per week for
10th graders
1.
Depends on
the school
context,
collective
staff focus,
or teacher’s
interest
2.
In primary
school,
taught
through
inquiry
learning;
from Years
9-10, same
timetabled
time as other
subjects
1.
For Grades
7-9 in junior
high school,
each IT
& LT has
one class
(45mins) per
week
2.
In Senior
high school:
each IT & LT
has 2 credits
(100mins)/
per week
in one
semester
(mandatory
courses),
and 8 credits
for elective
courses
Varied by state/ local
school district
361 A COMPARISON OF TECHNOLOGY TEACHER EDUCATION
IN THE ASIA-PACIFIC REGION
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zealand
(NZ)
Taiwan
(TW)
United States
(US)
Major objec-
tives
1.
Design
and Tech-
nologies:
students
use design
thinking and
technologies
to generate
and produce
designed
solutions for
authentic
needs and
opportuni-
ties.
2.
Digital Tech-
nologies:
students
use com-
putational
thinking and
information
systems
to dene,
design and
implement
digital solu-
tions
1.
Gen-
eral goal:
to boost
students’
technologi-
cal literacy
2.
T&E in
Science:
to improve
students’
ability to bet-
ter under-
stand nature
and to solve
problems by
integrating
knowledge
and method-
ologies.
3. LT/IT in IPA:
problem-
solving and
innovative
making
4. IT in senior
high school:
Information
awareness,
1.
Developing
students’
technologi-
cal literacy
through the
cultivation
of tech-
nological
capability,
technologi-
cal under-
standing and
technologi-
cal aware-
ness.
2.
Primery
Level:
Awareness
& Explora-
tion;
Junior
Secondary
Level: Expe-
riencing &
Application;
Senior
Secondary
Level:
Orientation
for Lifelong
To learn
basic knowl-
edge and
technolo-
gies through
practical
and hands-
on learning
such as
manufactur-
ing assigned
to all stu-
dents
To help
students cul-
tivate tech-
nological
competence,
including
abilities of
technologi-
cal problem
solving,
technologi-
cal system
designing,
& utilizing
technology
1.
To develop
technologi-
cal literacy:
assisting
learners’
preparation
for life,both
in the current
and future
technologi-
cal world
2. Major goals:
to teach
students the
capability
to operate
effectively
and cre-
atively in the
made-world;
to prepare
students to
participate
in rap-
idly changing
technologies,
and to
1.
Acquire
basic tech-
nological
knowledge
and skills,
and develop
appropriate
concepts, at-
titudes, and
work habit-
sattitudes,
and work
habits
2. Become
procient in
the use of
technological
knowledge
and skills
to carry out
creative, de-
sign, critical,
logical, and
computation
thinking
3. Integrate
theory and
practice to
solve prob-
lems and
meet
1.
Nature and Charac-
teristics of Technol-
ogy & Engineering
2.
Core Concepts of
Technology & Engi-
neering
3. ntegration of Knowl-
edge, Technologies,
and Practices
4. Impacts of Technol-
ogy
5. Inuence of Society
on Technological
Development
6. History of Technology
7. Design in Technology
& Engineering Educa-
tion
8. Applying, Maintaining
& Assessing Techno-
logical Products and
Systems
362 International Technology Teacher Education
in the Asia-Pacific Region
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zealand
(NZ)
Taiwan
(TW)
United States
(US)
Comput-
ing think-
ing, Digital
learning and
innovation,
and Sense
of respon-
sibility for
information
society
5.
GT in senior
high school:
Technology
awareness,
Engineer-
ing mindset,
Creative
design,
Engineering
drawings,
Competence
of material-
ization
Learning
and Special-
ization
intervene
creatively
to improve
quality of life
for them-
selves and
others
needs
4.
Understand
the technol-
ogy industry
and its future
development
trends
5.
Cultivate an
interest in
technological
research and
development
6.
Understand
the interac-
tions between
technology
and individu-
als, society,
the environ-
ment, and
culture, and
reect on
ethical issues
related to its
use
Characteristics
of the target
group
From Kinder-
garten to Year
12
All students
from Grade 1
to 12
All students from
primary educa-
tion to junior
secondary level.
TE subjets in
senior second-
ary level are
electives for
students with
specic interests
and inclinations.
All students in
lower second-
ary education
From Grade 5
to all students
in middle
schools
Students from
Year 1 to 10
All junior and
senior high
school stu-
dents
All middle and high
school students
363 A COMPARISON OF TECHNOLOGY TEACHER EDUCATION
IN THE ASIA-PACIFIC REGION
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zealand
(NZ)
Taiwan
(TW)
United States
(US)
Content orga-
nizers
Engineering
principles
and systems,
Food and ber
production,
Food spe-
cializations,
Materials and
technologies
specialization,
Computer Sci-
ence, Design,
Manufacturing,
Engineering,
Textile tech-
nology, Food
technology,
Woodwork,
Metalwork,
Cooking, prac-
tical work
1.
T&E in
elementary
Science:
three big
ideas
2.
IT and LT in-
tegrated into
IPA: Design
& Making
(like manual
production
and digital
processing,
handicraft
workshop,
nutrition and
cooking,
etc.)
3.
IT in senior
high school:
Module
1: Data &
computation;
Module 2:
Information
& society,
etc.
1.
Junior sec-
ondary level:
Computer
Literacy,
Design and
Technol-
ogy (D&T),
Home
Economics /
Technology
and Living
2.
Senior sec-
ondary level:
‘Information
and Com-
munication
Technology’
(ICT) has
Compul-
sory Part
(Information
Processing,
Computer
System Fun-
damentals,
Internet and
Its Applica-
tions, Basic
1.
In 2012
curriculum:
Technology
& Manufac-
turing, Infor-
mation &
Computers
2.
Curriculum
in 2021con-
sisting of
Material and
processing
technol-
ogy, Raising
organisms
technology,
Energy con-
version tech-
nology, and
Information
technology
1.
Technologi-
cal system
including
production,
transporta-
tion, & com-
munication
technology
2.
Utilization of
technology
including
standardiza-
tion, inven-
tion, and
sustainabil-
ity
1.
Three
strands of
learning:
Technologi-
cal Practice,
the Nature
of Technol-
ogy, & Tech-
nological
Knowledge
2.
Within ve
technologi-
cal areas:
designing
and de-
veloping
material out-
comes, de-
signing and
developing
processed
outcomes,
design and
visual com-
munication,
the design
and devel-
opment
1.
Six themes
in IT: Algo-
rithms, Pro-
gramming,
System
platforms,
Data repre-
sentation,
processing
& analysis,
Application
of informa-
tion technol-
ogy, and
Information
technology,
humans, &
society
2.
Four themes
in LT: Nature
of technol-
ogy, Design
& making,
Application
of technol-
ogy, and
Technology
& society
Material Conversion &
Processing, Transporta-
tion & Logistics, Energy
& Power, Information
& Communication,
The Built Environment,
Medical & Health-
related technologies,
and Computation,
Automation, Articial
Intelligence and Robot-
ics, Practices (Making
by Doing, Systems
Thinking, Creativity,
Collaboration, Com-
munication, Optimism,
Critical Thinking, and
Attention to Ethics)
364 International Technology Teacher Education
in the Asia-Pacific Region
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zealand
(NZ)
Taiwan
(TW)
United States
(US)
4.
GT in senior
high school:
Technology
& Design,
Engineering,
ntegrated
application
of technol-
ogy, etc.
Program-
ming
Concepts
and Social
Implications)
and Elective
Part (Data-
bases, etc.);
‘Design and
Applied
Technology’
(elective
subject)
of digital
technolo-
gies, & com-
putational
thinking.
General char-
acteristics
1.
Australian
Technolo-
gies Cur-
riculum is
divided into
two strands
- Knowledge
and under-
standing and
Process and
production
skills
1.
Relative
emphasis on
design and
making in
Grades 1-9
2.
Relative
emphasis on
the integra-
tion of theory
and practice
in senior
secondary
education
1.
Learning in
TE centers
on the pro-
cesses that
take place
in a range of
Knowledge
Contexts, &
the develop-
ment of the
awareness
of the impact
of technol-
ogy
1.
Focus on
deepening
the under-
standing of
the relation-
ship among
technology,
society and
environ-
ment, and
on develop-
ing abilities
and attitudes
to evaluate
1.
TE curricu-
lum includes
two areas:
technologi-
cal system
and utili-
zation of
technology
in real world
1.
Adopt a
sociocultural
approach
which posits
that learning
is to under-
stand the
relationships
between hu-
man action
and mental
functioning,
as well as
the cultural,
1.
Stressing
the integra-
tion among
disciplines
2.
Curriculum
planned
according
to a sys-
tematic and
complete
approach,
with detailed
curriculum
goals and
learning
content
The use of hands-on
learning as a primary
means of instruction,
and the creation of
some form of product
as an outcome
365 A COMPARISON OF TECHNOLOGY TEACHER EDUCATION
IN THE ASIA-PACIFIC REGION
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zealand
(NZ)
Taiwan
(TW)
United States
(US)
2.
They give
students the
opportunity
to develop
their prob-
lem-solving
and creative
skills to ad-
dress issues
in society.
3.
Including
both com-
pulsory and
elective
programs
2.
Overstress-
ing of the
content of
Knowledge
Contexts
inthe latest
TEKLA
Curricu-
lum
Guide
undermines
the impor-
tance of the
role of prac-
tical prob-
lem-solving
activities
and use
technologies
properly for
establish-
ing a better
society
institutional,
and histori-
cal context
in which this
action oc-
curs
TE achieve-
ment recogni-
tion
Varied types
of assess-
ments could
be used to
collect learning
evidence for
either indi-
vidual or group
projects, such
as portfolios,
tests, examina-
tions, research
1.
Formative
and sum-
mative
assessment
during and
after stu-
dents take a
program
2.
Unied
tests: The
Academic
Test for the
Junior
1.
Pen-and-
paper
examina-
tion, School-
based
Assessment
(Case stud-
ies, Technol-
ogy explora-
tion task,
Projects,
Portfolios,
etc.)
1.
3 perspec-
tives of
evaluation:
“knowledge
and skill”
“ability to
think, abil-
ity to judge,
ability to
express” and
“attitude to
take initiative
in learning
Employ di-
verse assess-
ments (portfo-
lio, checklist,
scoring rubric,
students’ work,
paper and
pencil test,
etc.) to recog-
nize students’
achievement
1.
National
Certicate in
Educational
Achievement
for second-
ary school
qualication
that students
progress
from Level
1 in Year 11
to Level 3 in
Year 13
Assess tech-
nology knowl-
edge, atti-
tudes, practice
skills, & inte-
gration abil-
ity via diverse
approaches
(interview,
student self-
assessment,
peer review,
portfolio, etc.)
Teacher Excellence
Award program and
Program Excellence
Awards program
sponsored by the Inter-
national Technology &
Engineering Educators
Association (ITEEA)
366 International Technology Teacher Education
in the Asia-Pacific Region
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zealand
(NZ)
Taiwan
(TW)
United States
(US)
tasks, posters,
videos, web-
site creations,
use of con-
tracts, et al.
Secondary
School Stu-
dents (IPA
and IT); The
Academic
Test for
the Senior
Second-
ary School
Students (IT
and GT)
3.
Competi-
tions: Olym-
pics of the
Mind, Nation-
al Computer
Production
Activities,
etc.
in the Hong
Kong Diploma
of Secondary
Education
examination
2.
for learning
in schools,
TLAs are both
continuous
and summa-
tive assess-
ments that
constitute the
yearly overall
results in the
report cards.
TLAs include
tangible prod-
ucts made
and the folios
composed
to reect the
students’
capabilities
3.
The Chief
Executive’s
Award for
Teaching
Excellence is
organized by
the Educa-
tion Bureau
to recognize
accomplished
teachers who
demonstrate
exemplary
teaching
practices
2.
Consider
aspects like
descriptions
in notebook
and report,
remark,
behavior
observation
by teachers
and self-
evaluation
and interac-
tive evalu-
ation by
students
2.
Assessed
against
either
Achieve-
ment Merit,
Excellent in
Achievement
Standards
and /or pass
/fail in Unit
Standards
367 A COMPARISON OF TECHNOLOGY TEACHER EDUCATION
IN THE ASIA-PACIFIC REGION
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zealand
(NZ)
Taiwan
(TW)
United States
(US)
Instruction 1.
A broad
range of
pedagogies
are used
2.
Traditionally,
the prevail-
ing strategy
was the pro-
cess of dem
1.
Integrative-
activity-
based
approaches
such as the
investigation
& explora-
tion ap-
proach,
1.
Realizing the
distinguish-
able subject
status under
the introduc-
tion of STEM
education
(inconsistence
and instabi-
lity in deni-
tion, scope,
position in
curriculum)
2.
Challenges for
PGDE D&T:
Introduction of
a loose and ill-
dened STEM
education led
to “anything
goes” that
downplays the
signicance
of practi-
cal learning
experiences
in problem
solving; &
Teacher train-
ing for D&T
will cease
1.
Project-
typed
learning
focusing on
manufactur-
ing subjects
2.
By using
many teach-
ing materi
1.
Project (or
problem)
based
learning and
cooperative
learning
in middle
school and
general high
school
1.
A future-
focused
approach to
education
within learn-
ing (exible
to accom-
modate
students’
1.
Offer
students
opportuni-
ties to gain
hands-on
experience
and increase
designing
and making
capabilities
1.
Learning by doing
2.
Technological prob-
lem-solving method
(addressing a chal-
lenge, researching
solutions, proposing
multiple solutions,
prototyping a solu-
tion, and rening a
368 International Technology Teacher Education
in the Asia-Pacific Region
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zealand
(NZ)
Taiwan
(TW)
United States
(US)
onstration;
more recent
and so-
phisticated
philosophi-
cal under-
pinnings,
problem-
based and
design-
based ap-
proaches
the design
& making
approach
2.
Multi-disci-
pline-based
approaches:
project-
based ap-
proach and
the problem-
based
approach,
the STEM
approach
3.
Whole-
task-based
teaching
and learning
approach
founding
aims of the
latest TEKLA
Curriculum
through
“authentic
hands-on
problem-solv-
ing learning
activities”,i. e.
technology
learning ac-
tivities, though
this is under-
mined by the
plethora of
contents in
the knowledge
context that is
introduced in
the 2017 Cur-
riculum Guide
als, effective
and efficient
education
is provided
in order to
learn the
knowledge
and skills of
technology
learning
needs)
2.
Experiential
Learning
3.
Inquiry
learning
and guided
inquiry
4.
Talking for
learning
by providing
technology
tools, ma-
terials, and
resources
2.
Assessment
covers differ-
ent aspects
such as
techno-
logical
knowledge,
attitudes,
practical
skills, com-
prehensive
capabilities
prototype into a work-
ing product)
3.
Using rubrics for proj-
ects, portfolios, and
other form of authen-
tic assessment
369 A COMPARISON OF TECHNOLOGY TEACHER EDUCATION
IN THE ASIA-PACIFIC REGION
THE STATE-OF-THE-ART OF TECHNOLOGY TEACHER ED-
UCATION
In this section, we conduct a comparison of the state-of-the-art of technology
teacher education (TTE) among the eight cases in APAC. Table 3 presents the
summarized information. Three points are raised for the following compari-
son: certification requirements for technology teachers, TTE programs, and
features of the TTE.
Point 1: Certication Requirements for Technology Teachers
The requirements for initial technology teachers (such as education level,
coursework, certification examination) have similar components among the
target countries/areas. For most cases, the minimum education level for initial
technology teachers is a Bachelor degree. An exception is CN where second-
ary normal school graduates meet the educational requirement for being an
elementary school teacher.
Usually, the student teachers are required to complete a certain number of
hours/credits in an education program (teaching profession/pedagogical cours-
es) and technology/relevant subject coursework. In the US, due to the lack of
qualified teachers, some states/local governments open access to those who
have not completed an approved collegiate level teacher-preparation program.
People who have working/practical experience or interest in teaching could
serve as teachers and take the teacher-preparation program at the same time.
After nishing the teacher education program and technology/relevant subject
credits, students have to pass the teacher qualication/ licensing examination.
In some countries like KR, due to the oversupply of teachers, licensing exami-
nations for secondary school teachers are very difficult, making licensing a
key selection point rather than admission to initial training. In AU, the Teacher
Performance Assessment will be conducted to assess pre-service teachers’
370 International Technology Teacher Education
in the Asia-Pacific Region
quality against the Australian Institute for Teaching and School Leadership
(AITSL) Standards. Students need to evidence certain requirements of the
Standards in order to become a registered teacher or achieve Highly Accom-
plished and Lead certication.
Point 2: Technology Teacher Education (TEE) Programs
Most cases have a pre-service/initial TEE program as well as an in-service/
professional development TEE program (an exception is HK where there is
no professional development requirement for in-service technology teach-
ers). For the pre-service TEE program, the coursework usually includes three
categories: general/ common/ basic courses (like Introduction to technol-
ogy, Mathematics, Physics, etc.), subject-specic/ technical/ content courses
(like Energy & Power, Manufacturing, Mechanical design, Structural design,
Woodworking, etc.), and professional education courses (like Pedagogy of
Technology Education, Teaching Methods, Educational Psychology, etc.). The
training program also includes practical/ eld experience/ practicum units. The
TEE programs need to be accredited by an independent or national agency to
ensure their quality.
Point 3: Features of the TTE
Each country/area has its unique features of TTE. In AU, technologies move
toward the national curriculum, with a focus on design and computational
thinking in an active learning environment and manipulative skill develop-
ment. The structure of the technologies curriculum is sound and is based on
contemporary principles of pedagogy and learning. In CN, TTE actively takes
the dual perspectives of both globalization and localization. International tal-
ent is coming to CN and boosting the overall professionalism of technology
teacher education. In HK, the recent curriculum revision overstresses the con-
tent of Knowledge Contexts leading to insufciency in practical components
in the D&T program. In addition, instantaneous introduction of STEM into
371 A COMPARISON OF TECHNOLOGY TEACHER EDUCATION
IN THE ASIA-PACIFIC REGION
the curriculum without reaching consensus on the purpose, pedagogies, and
learning activities has posed challenges to teacher training programs. In Japan,
training for 10 (or more) years’ experience teachers has been offered, aiming
to improve their guidance ability and to develop their specialties. Active teach-
ers participate in a regional, national or international research institute or pro-
fessional organization to improve professional competencies by themselves.
In KR, there is well-organized pre-service TTE in the undergraduate programs
which are closely related to the National Curriculum. Also, there is a well-de-
signed in-service technology teacher education program. There is an engineer-
ing-based nature to the body of knowledge in TTE, and a need for technology
from a holistic point of view. In NZ, initial teacher education programs pre-
pare student teachers to teach technology through experientially-based inquiry
learning approaches to design and develop technological outcomes, systems or
products, and to meet identied needs within social, cultural and sustainable
parameters. In TW, well-designed pre-service and in-service technology teach-
er programs equip technology teachers with sufcient professional knowledge
and skills to effectively guide students’ learning activities. In the US, there is a
broad-based nature to the body of knowledge in TTE which looks at technol-
ogy from a holistic point of view. The program emphasizes learning by doing
and provides great variety and exibility that allows the educators to custom-
ize the learning to the needs of students and the local economy.
372 International Technology Teacher Education
in the Asia-Pacific Region
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zea-
land
(NZ)
Taiwan
(TW)
United
States
(US)
Certication
requirements
for technology
teachers
1.
Teaching
requires a
minimum
4-year under-
graduate de-
gree or 2-year
postgraduate
degree.
2.
Teaching
Performance
Assessment
will assess
pre-service
teachers to col-
lect evidence
during the nal
professional
experience
against the
AITSL stan-
dards.
1.
Educa-
tion level:
elemen-
tary school
teacher
- gradu-
ated from
a second-
ary normal
school or
above; junior
second-
ary school
teacher- a
diploma or
above from
a higher nor-
mal college
or univer-
sity; senior
second-
ary school
teacher
qualication-
bachelor
degree or
above
2.
Passing the
technology
teachers
certication
tests
1.
Hold a
teacher
qualication
(e.g., a local
Teacher’s
Certicate or
Post-Gradu-
ate Diploma
of Educa-
tion, PGDE)
and be a
Hong Kong
permanent
resident
2.
PGDE in
D&T pro-
gram: pass
all credit
require-
ments, the
practicums,
and the
Information
Technology
Competency
in Education
(ITCE) be-
fore gradua-
tion
1.
Graduate
from univer-
sity with a
Bachelor’s
degree and
credits in
subjects
relating to a
prescribed
course and
the teaching
profession
(including
teaching
practice)
2.
Possess
a teacher
certicate
(3 levels
with differ-
ent required
credits)
1.
Bachelor’s
degree from
4- year
undergradu-
ate program
or Master’s
degree from
2-year post-
graduate
program &
complete a
pre-service
technol-
ogy teacher
educational
program
2.
Get a
teacher’s
license of
technology
when gradu-
ating from
the above
institutions
3.
Pass the
National
teacher
recruitment
examina-
tion to be
employed
1.
Bachelor’s
degree and
graduate
diploma
2.
undertake a
number of
small tasks
that are ap-
plicable to
future school
settings, and
are reective
of a range of
technologi-
cal areas
1.
Graduat-
ing from a
college or
university
2.
Complet-
ing a pre-
service TE
teacher
education
program
3.
Passing
the teacher
qualication
examination
4.
Finishing
educational
practicum
5.Meeting
the teacher
selection re-
quirements
1.
Each state
follows a
broadly simi-
lar process:
certication
paths for
individuals
who have
completed
an approved
collegiate
level pro-
gram and
those who
did not.
2.
Unique
points: re-
quirements
for perma-
nent licen-
sure varied
(each state
may have a
mentoring,
assess-
ment, and a
continuing
education
components
but they are
all differ-
ent in the
details.)
Table 3. A summary of the state-of-the-art of technology teacher education in the Asia-Pacic Region
373 A COMPARISON OF TECHNOLOGY TEACHER EDUCATION
IN THE ASIA-PACIFIC REGION
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zea-
land
(NZ)
Taiwan
(TW)
United
States
(US)
Technology
teacher educa-
tion programs
1.
All Initial
Teacher
Education pro-
grams need to
be accredited
by the jurisdic-
tion in which
they exist
based on the
requirements
of AITSL.
2.
Each needs to
have units that
address vari-
ous aspects of
teaching edu-
cation includ-
ing curriculum,
content and
pedagogical
units.
3.Students
studying second-
ary education are
required to have
both a
1.
Programs
with
academic
degrees:
science and
technology
education
programs
(for Science,
IPA & GT
teachers,
covering
courses of
theoretical
foundation of
teaching and
education &
professional
develop-
ment) and
educational
technology
programs
(for IT teach-
ers, covering
courses in
Pedagogy,
1.
Both pre-
service
training
programs:
PGDE ICT
& D&T;
Entrance
requirement:
a relevant
honorary
Bachelor’s
degree
2.
Program
structure for
PGDE ICT:
Required
Courses (8
Units), Core
Electives
(4.5), Elec-
tives (4.5),
& Teaching
Practice (3)
3.
Programme
structure for
PGDE D&T:
30-33 ,
1.
Technology
teachers are
trained in
the engi-
neering and
agricultural
departments
of national
and private
universities
2.
128 credits
including
Common
subjects,
Professional
education
subjects (like
Course ma-
jor subjects:
Woodwork-
ing, Metal-
working, Ma-
chines, etc.;
Teaching
profession
subjects:
Technology
1.
Pre-service
teacher
education:
provided by
4-year un-
dergraduate
programs, or
postgradu-
ate schools
of education
2.
Includes two
major parts:
(1) Gen-
eral teaching
profession
including
educational
theory,
practicums
and others;
and (2) sub-
ject-specic
profession
including
pedagogy of
TE such as
foundation
1.
Entry re-
quirements
are restrict-
ed to those
with Univer-
sity En-
trance AND
all students
must be
interviewed
and pass
a police
screening
2.
Teacher
education
occurs at
two levels: in
pre-service
or Initial
Teacher
Educa-
tion (ITE)
programs &
in-service or
professional
learning and
develop
1.
Admission
criteria:
depend on
each univer-
sity
2.
Pre-service
education
including
general
courses (In-
troduction to
technology
education,
Electronic
circuits,
etc.), sub-
ject-specic
courses
(Mechani-
cal design,
Structural
design, etc.),
and pro-
fessional
education
courses
1.
Varies from
program to
program
2.
Typical
program
includes:
General Ed-
ucation (45
credits, like
Mathemat-
ics, Phys-
ics, etc.),
Professional
Studies, (33
credits, like
teaching
methods,
Educational
Psychol-
ogy, etc.),
& Techni-
cal Studies
(44 credits,
like Energy
& Power,
Manufactur-
ing, etc.)
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zea-
land
(NZ)
Taiwan
(TW)
United
States
(US)
Certication
requirements
for technology
teachers
1.
Teaching
requires a
minimum
4-year under-
graduate de-
gree or 2-year
postgraduate
degree.
2.
Teaching
Performance
Assessment
will assess
pre-service
teachers to col-
lect evidence
during the nal
professional
experience
against the
AITSL stan-
dards.
1.
Educa-
tion level:
elemen-
tary school
teacher
- gradu-
ated from
a second-
ary normal
school or
above; junior
second-
ary school
teacher- a
diploma or
above from
a higher nor-
mal college
or univer-
sity; senior
second-
ary school
teacher
qualication-
bachelor
degree or
above
2.
Passing the
technology
teachers
certication
tests
1.
Hold a
teacher
qualication
(e.g., a local
Teacher’s
Certicate or
Post-Gradu-
ate Diploma
of Educa-
tion, PGDE)
and be a
Hong Kong
permanent
resident
2.
PGDE in
D&T pro-
gram: pass
all credit
require-
ments, the
practicums,
and the
Information
Technology
Competency
in Education
(ITCE) be-
fore gradua-
tion
1.
Graduate
from univer-
sity with a
Bachelor’s
degree and
credits in
subjects
relating to a
prescribed
course and
the teaching
profession
(including
teaching
practice)
2.
Possess
a teacher
certicate
(3 levels
with differ-
ent required
credits)
1.
Bachelor’s
degree from
4- year
undergradu-
ate program
or Master’s
degree from
2-year post-
graduate
program &
complete a
pre-service
technol-
ogy teacher
educational
program
2.
Get a
teacher’s
license of
technology
when gradu-
ating from
the above
institutions
3.
Pass the
National
teacher
recruitment
examina-
tion to be
employed
1.
Bachelor’s
degree and
graduate
diploma
2.
undertake a
number of
small tasks
that are ap-
plicable to
future school
settings, and
are reective
of a range of
technologi-
cal areas
1.
Graduat-
ing from a
college or
university
2.
Complet-
ing a pre-
service TE
teacher
education
program
3.
Passing
the teacher
qualication
examination
4.
Finishing
educational
practicum
5.Meeting
the teacher
selection re-
quirements
1.
Each state
follows a
broadly simi-
lar process:
certication
paths for
individuals
who have
completed
an approved
collegiate
level pro-
gram and
those who
did not.
2.
Unique
points: re-
quirements
for perma-
nent licen-
sure varied
(each state
may have a
mentoring,
assess-
ment, and a
continuing
education
components
but they are
all differ-
ent in the
details.)
374 International Technology Teacher Education
in the Asia-Pacific Region
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zea-
land
(NZ)
Taiwan
(TW)
United
States
(US)
major and a
minor teaching
area.
Computer
science &
Media)
2.
Programs
without
academic
degrees: The
National- or
Provincial-
level Teach-
ers Training
Program
credit points,
including:
Major Sub-
ject Stud-
ies (6/9),
Education
Studies (12)
Electives
Studies
(6/9), Field
Experience
(6)
4.
No pro-
fessional
development
require-
ments for
in-service
technology
teachers
Education),
& Indepen-
dent sub-
jects
3.
Workshops
of certicate
renewal are
intended for
in-service
teachers
of TE, TE
curriculum,
Researching
& develop-
ing teaching
& learning
materials
of TE; and
content of
TE such as
production,
transporta-
tion, com-
munication,
invention/
standardiza-
tion, and
sustainable
technology.
ment(PLD)
3.
Most under-
graduate
and gradu-
ate courses
have 15
points
(1 point
equivalent
of 10 hours
of study),
undertaking
8-9 courses
per year
3.
The program
mainly cov-
ers Content
Knowledge,
Pedagogi-
cal Knowl-
edge, and
Pedagogical
Content
Knowledge
4.
In-service
teacher
training
program
provided by
individual
institutions,
6 credit (18
hours/ per
credit)
Features of
technology
teacher educa-
tion
1.
Technologies
move toward
national cur-
riculum, with
a focus on
design and
computational
1.
It actively
takes the
dual per-
spectives of
both global-
ization and
localization
1.
Overstress-
ing of the
content of
Knowledge
Contexts
leads to
insufficient
1.
Training for
teachers
who have
10 years’
experience
has been
offered,
1.
Well-
organized
pre-service
technology
teacher edu-
cation at the
undergradu
1.
ITE pro-
grams pre-
pare student
teachers
to teach
technology
through
1.
A well-
designed
pre-service
& in-service
technol-
ogy teacher
program
1.
Broad-based
nature of
the body of
knowledge
2.
Looking at
technology
from a
375 A COMPARISON OF TECHNOLOGY TEACHER EDUCATION
IN THE ASIA-PACIFIC REGION
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zea-
land
(NZ)
Taiwan
(TW)
United
States
(US)
thinking, in an
active learning
environment
2.
Focus on ma-
nipulative skills
development
3.
The structure
of the Technol-
ogies curricu-
lum is sound
and is based
on contempo-
rary principles
of pedagogy
and learning
2.
International
talent is
coming to
China and
boosting the
overall pro-
fessionalis-
mof technol-
ogy teacher
education
and even
missing
practical
components
in the PGDE
D&T pro-
gram
2.
Instan-
taneous
introduction
of STEM yet
without con-
sensus on
the purpose,
pedagogies,
learning ac-
tivities, etc.
has posed
challenges
to teacher
training
programs
aiming to
improve their
guidance
ability and to
develop their
specialties.
2.
Active
teachers
belong to
a regional,
national or
international
research
institute or
professional
organiza-
tion in order
to improve
themselves.
ate pro-
grams which
are closely
related to
the National
Curriculum
through ‘ba-
sic areas (or
courses) of
study to be
completed’
2.
A well
designed
in-service
technol-
ogy teacher
education
program
3.
Engineer-
ing-based
nature of
the body
of knowl-
edge and
technology
needs from
a holistic
point of view
experien-
tially-based
inquiry
learning
approaches
to design
and develop
techno-
logicalout-
comes,
systems or
products, to
meet identi-
ed needs
within social,
cultural and
sustainable
parameters
to equip
technol-
ogy teach-
ers with
sufficient
professional
knowledge
and skills to
effectively
guide stu-
dents’ learn-
ing activities
holistic point
of view
3.
Emphasis
on learning
by doing4.
Great variety
and exibility
that allows
educators to
customize
the learning
to the needs
of students
and the local
economy
376 International Technology Teacher Education
in the Asia-Pacific Region
CHALLENGES AND INNOVATION OF TECHNOLOGY
TEACHER EDUCATION
In this section, a comparison of major problems/challenges for technology
teacher education is conducted. In addition, the process of innovation and
strategies undertaken in order to obtain solutions to the major problems identi-
ed are discussed. Table 4 shows a summary of challenges and innovation of
technology teacher education in the Asia-Pacic Region.
Point 1: Major Problems/Challenges
Some prevalent challenges are observed among the target countries/areas in
this region. First, there is a shortage of qualied technology teachers (in AU,
CN, JP, TW, and the US). The enrollment in TTE programs in the US has even
declined recently. Second, pre-service technology teacher education programs
are insufcient. There are a small number of universities offering technology
teacher courses in AU, CN, and JP. Such programs generally have a smaller
number of students and instructors but need more facilities, equipment, and
a bigger budget than other subjects. In KR, the lack of qualied technology
teacher educators is a challenge. Third, technology has lower subject status
compared to other school subjects, especially in CN and NZ.
Besides, each country/area has encountered its own set of challenges. For ex-
ample, in AU, the university entry requirement relies more on sitting examina-
tions than on vocational/skill tests, and primary teachers are unsure of how to
teach technology. In HK, there is a resource limitation due to the minor sub-
ject branch in the universities; and STEM education has inconsistent and in-
stable denition, scope, and position in the curriculum that lead to downplay-
ing the signicance of practical learning of problem solving. In JP, due to the
integration of departments and universities, it is impossible to carefully foster
technology teachers by individual prefecture. In KR, there is a discrepancy
between current basic courses/ areas of study for technology teachers’ license
377 A COMPARISON OF TECHNOLOGY TEACHER EDUCATION
IN THE ASIA-PACIFIC REGION
and technology education curriculum content. As for NZ, the challenges are
the lack of understanding of the philosophy and key ideas that underpin tech-
nology; and teachers struggle with philosophical changes that need to shift
technology from a technical, skills-based program to the needs-based student-
centered program outlined in the current curriculum. In TW, TTE faces the
problems of inconsistent levels of professionalism among technology teachers
due to diversied educational channels; and TTE programs are impacted by
emerging technology topics. In the US, inequity in terms of gender, race, and
ethnicity among technology educators was raised.
Point 2: Innovation and Strategies
As mentioned above, technology teacher education in each country/area faces
common problems as well as individual challenges. A number of innovations
and strategies are raised in each country. For example, in AU, it has been
suggested that more scholarships be offered by universities and potentially
be funded by government departments to encourage both school leavers and
tradespeople to consider teaching as a career. Professional learning opportu-
nities from specic associations and universities directed to both preservice
and in-service teachers would go a long way towards supporting content and
pedagogical knowledge. In CN, the strategies include increasing provision for
technology teacher education, rening TTE curricula, and building a network
of teaching and researcher leadership with a disciplinary vision in provincial
governments. In HK, teacher trainers are encouraged to arrange school vis-
its for student teachers to ICT-outstanding schools in order to gain rst-hand
experience of excellence in ICT teaching pedagogy, and to understand what
innovative learning activities look like. Besides, in search of the ideal D&T
teacher training, it is encouraged to re-think what the teacher training courses
should look like in order to develop potential D&T teachers’ knowledge, ca-
pabilities and values in teaching the subjects. In JP, it is proposed to design
“Examination certifying teaching ability of technology teachers” to evaluate
378 International Technology Teacher Education
in the Asia-Pacific Region
the teachers’ abilities in the Technology subject, and to promote and enlighten
technology education via various committees, newspapers and projects. In
KR, the current basic courses for the technology teachers’ license should be
stipulated in accordance with the 2015 revision of the national curriculum in
order to narrow the gap between training programs and the licensing test. Ad-
ditionally, more technology teacher preparation programs are needed at under-
graduate school in terms of quantity. In NZ, practicing teachers need to move
from a sole focus on specialist knowledge towards the interpretation of the
curriculum and/or assessment standards, and move towards a student-centered
approach. Student teachers need to reect upon their own and others’ percep-
tions of TE, and it is the responsibility of ITE programs to prepare them to cri-
tique the way that TE is taught in schools. In TW, strategies include boosting
the maker movement to raise national awareness of teaching in technology,
taking initiatives in developing hands-on capabilities, and promoting robot
competitions, teaching and learning. In the US, in the case of declining enroll-
ment, one may begin to solve the problem by bringing in students for work-
shops in fun and interesting subjects. Finding ways to certify more technology
and engineering (T&E) teachers through alternative means (completing TE as
a minor, etc.) are also proposed to deal with the problems of teacher shortage.
In sum, TE and TTE programs in the APAC have a long way to go. More time
and attention in this eld are warranted for improvement and a better future.
379 A COMPARISON OF TECHNOLOGY TEACHER EDUCATION
IN THE ASIA-PACIFIC REGION
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zealand
(NZ)
Taiwan
(TW)
United States
(US)
Major prob-
lems/chal-
lenges
1.
A small
number of
Universi-
ties offer
Technology
courses.
2.
Technolo-
gies teacher
shortages;
3.
Issues with
Univer-
sity entry re-
quirements:
rely most on
sitting exams
and less on
vocational
system
4.
Primary
teachers are
unsure of
how to teach
technology
5.
Concerns
regarding 1-
and 2-year
teacher
1.
Lower
status of
technology
compared to
other school
subjects.
2.
Insufficient
provision of
pre-service
and in-ser-
vice technol-
ogy teacher
education.
3.
Lack of
candidates
to receive
technol-
ogy teacher
education
1.
Challenges
for PGDE
ICT: Re-
source limi-
tation due
to the minor
subject
branch in the
university; &
Distinguish-
able subject
status under
the introduc-
tion of STEM
education
(inconsis-
tence and
instability in
denition,
scope,
position in
curriculum)
2.
Challenges
for PGDE
D&T: Intro-
duction of a
loose and
1.
Due to the
integration
of depart-
ments &
universities,
it is impos-
sible to care-
fully foster
technology
teachers by
individual
prefecture
2.
Technology
education
course is
generally
smaller in
terms of
the number
of instruc-
tors but
needs more
facilities,
equipment
and a bigger
budget for
research
1.
There is a
discrepancy
between
current basic
courses or
areas of
study for
technology
teachers
license and
technology
education
curriculum
content
2.
Lack of qual-
ied technol-
ogy teacher
educator;
those with
an engineer-
ing back-
ground lack
or misun-
derstand the
technology
education
1.
Lack of
understand-
ing of the
philosophy
and key ideas
that underpin
technology,
low subject
status based
on its prede-
cessor techni-
cal educa-
tion, and the
lack of time
and facili-
ties available
in teacher
education
programs
2.
Teachers
struggle with
philosophi-
cal changes
needed to
move tech-
nology from a
technical,
1.
Insufficient
number of
technology
teachers
due to the
reduced
number of
pre-service
teachers
2.
Inconsistent
levels of
profession-
alism among
technology
teachers due
to diversied
educational
channels
3.
The technol-
ogy teacher
education
programs
are impacted
by emerging
technology
topics
1.
Decline in
enrollment in
technology
teacher educa-
tion programs
2.
A shortage
of in-service
teachers
3.
An ineq-
uity in terms of
gender, race,
and ethnicity
among tech-
nology educa-
tors
Table 4. A summary of challenges and innovation of technology teacher education in the Asia-Pacic Region
380 International Technology Teacher Education
in the Asia-Pacific Region
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zealand
(NZ)
Taiwan
(TW)
United States
(US)
education
programs
6.
Focus on
Vocational
and General
Technology
education
7.
The con-
fusion of
STEM
ill-dened
STEM edu-
cation led
to “anything
goes” that
downplays
the sig-
nicance
of practical
learning
experiences
in problem
solving; &
Teacher
training for
D&T will
cease
and educa-
tion than
other sub-
jects
3.
Insufficient
qualied
technology
teachers
3.
Insufficient
enrollment
quota in the
pre-service
technol-
ogy teacher
education
program
skills-based
program to
the needs-
based
student-cen-
tered program
outlined in
the current
curriculum
Innovation and
strategies
1.
Scholarships
offered by
universities
and funded
by govern-
ment depart-
ments are
suggested to
encourage
both school
leavers
1.
Increasing
provision
for technol-
ogy teacher
education
2.
Rening
technol-
ogy teacher
education
curricula
1.
Teacher
trainers ar-
range school
visit for stu-
dent teach-
ers to ICT
outstanding
schools to
gain rst-
hand experi-
ence of
1.
Design
“Examina-
tion certify-
ing teaching
ability of
technology
teachers” to
evaluate the
abilities of
teachers in
the Technol
1.
Current ba-
sic courses
or areas of
study for
technology
teachers
license
should be
stipulated in
accordance
with the
1.
Practicing
teachers
need to
move from
a sole focus
on specialist
knowledge,
towards the
interpretation
of the curricu-
lum and/or
1.
Boost the
maker
movement
to raise na-
tional aware-
ness of
teaching in
technology
and to take
initiatives in
developing
1.
Bringing in
students for
workshops in
fun and inter-
esting subjects
to boost enroll-
ment
2.
Finding ways
to certify more
technology &
engineer
381 A COMPARISON OF TECHNOLOGY TEACHER EDUCATION
IN THE ASIA-PACIFIC REGION
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zealand
(NZ)
Taiwan
(TW)
United States
(US)
& trades-
people to
consider
teaching as
a career.
2.
Professional
learning op-
portunities
from spe-
cic asso-
ciationsand
universities
directed to
both pre-
service and
in-service
teachers
would go
a long way
towards
supporting
content and
pedagogical
knowledge.
3.
Teach-
ers would
benet from
further
3.
Building a
network of
teaching and
researcher
leader-
ship with a
disciplinary
vision in
provincial
govern-
ments
4.
Enhancing
the technol-
ogy culture
atmosphere
excellence in
ICT teaching
pedagogy,
and an un-
derstanding
of what inno-
vative learn-
ing activities
look like
2.
The endeav-
ors initiated
by theICT
professional
community
and teacher
trainers to
promote
learning
experiences
with ICT
signatures
3.
In search
of the ideal
D&T teacher
training, to
re-thinking
what the
teacher
ogy subject
2.
Host “Con-
test on
technology
works with
energy” that
provides an
environment
where stu-
dents work
on manufac-
turing with
technologi-
cal views,
and to foster
national
understand-
ing of TE
3.
Promote and
enlighten
technology
education
via various
committees,
newspapers
and projects
2015 revi-
sion of the
national
curriculum
2.
More
technol-
ogy teacher
preparation
programs
are needed
at under-
graduate
school in
terms of
quantity
assessment
standards,
and towards
a student-
centered
approach
2.
Student
teachers
need to
reect upon
their own
and others’
perceptions
of TE, and it
is the respon-
sibility of ITE
programs to
prepare them
to critique the
way that TE
is taught in
schools
3.
Recent
curriculum
revisions to
increase the
presence of
digital tech
hands-on
capabilities
3.
Promote
robot com-
petitions,
teaching and
learning
ing teachers
through alter-
native means
(completing
TE as a minor,
etc.)
382 International Technology Teacher Education
in the Asia-Pacific Region
Australia
(AU)
China
(CN)
Hong Kong
(HK)
Japan
(JP)
Korea
(KR)
New Zealand
(NZ)
Taiwan
(TW)
United States
(US)
professional
development
includ-
ing short
courses and
mentoring,
creating an
opportunity
for both uni-
versities and
teacher as-
sociations.
training
course
should look
like in order
to develop
poten-
tial D&T
teachers
knowledge,
capabilities
and values
in teaching
the subjects
4.
Professional
requirement
for teaching
in Work-
shops
nologies in
the technolo-
gy curriculum,
and the move
to teach-
ing through
inquiry
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ResearchGate has not been able to resolve any references for this publication.