Authors :
Ma Hui; Eliza B. Ayo
Volume/Issue :
Volume 9 - 2024, Issue 6 - June
Google Scholar :
https://tinyurl.com/385w2j7k
Scribd :
https://tinyurl.com/396ch935
DOI :
https://doi.org/10.38124/ijisrt/IJISRT24JUN1185
Note : A published paper may take 4-5 working days from the publication date to appear in PlumX Metrics, Semantic Scholar, and ResearchGate.
Abstract :
The integration of 3D technology into
sculpture courses presented both opportunities and
challenges for students and educators alike. This research
investigated the current landscape, challenges, strategies,
and recommendations associated with incorporating 3D
technology in sculptural courses. Through a
comprehensive review and analysis, key challenges
emerged, including the complexity of technology,
inadequate educational resources, varying levels of
instructor expertise, and practical issues such as
equipment maintenance and material properties. These
challenges highlighted the need for targeted interventions
to enhance educational effectiveness and accessibility.
Strategies proposed included curriculum enhancements
to integrate 3D technology, professional development
programs for educators, improvements in technology
interfaces, and collaborations between industry and
academia. These strategies aimed to address identified
challenges and optimize learning experiences in sculpture
courses. Recommendations emphasized the development
of centralized educational platforms, increased funding
for 3D research, advocacy for regulatory standards, and
the establishment of peer learning networks. These
initiatives sought to foster a supportive environment
conducive to innovation and creativity in sculptural arts
education. By addressing these technological complexities,
enhancing educational resources, improving instructor
proficiency, and overcoming practical barriers, this study
advocated for a comprehensive approach to integrating
3D technology effectively into sculpture courses,
ultimately empowering students and educators to use
their full potential in artistic expression and professional
practice.
Keywords :
3d Technology, Sculpture Courses, Educational Technology.
References :
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The integration of 3D technology into
sculpture courses presented both opportunities and
challenges for students and educators alike. This research
investigated the current landscape, challenges, strategies,
and recommendations associated with incorporating 3D
technology in sculptural courses. Through a
comprehensive review and analysis, key challenges
emerged, including the complexity of technology,
inadequate educational resources, varying levels of
instructor expertise, and practical issues such as
equipment maintenance and material properties. These
challenges highlighted the need for targeted interventions
to enhance educational effectiveness and accessibility.
Strategies proposed included curriculum enhancements
to integrate 3D technology, professional development
programs for educators, improvements in technology
interfaces, and collaborations between industry and
academia. These strategies aimed to address identified
challenges and optimize learning experiences in sculpture
courses. Recommendations emphasized the development
of centralized educational platforms, increased funding
for 3D research, advocacy for regulatory standards, and
the establishment of peer learning networks. These
initiatives sought to foster a supportive environment
conducive to innovation and creativity in sculptural arts
education. By addressing these technological complexities,
enhancing educational resources, improving instructor
proficiency, and overcoming practical barriers, this study
advocated for a comprehensive approach to integrating
3D technology effectively into sculpture courses,
ultimately empowering students and educators to use
their full potential in artistic expression and professional
practice.
Keywords :
3d Technology, Sculpture Courses, Educational Technology.