Bridging design prototypes

Resourcing sustainable and equitable education in flexible learning should start with understandingneeds, wants, and context of a classroom community. So, educators can bring about meaningfullearning and foster connection with students who could be time-starved, reside outside of maincentres, studying while working, caretaking and/or with disabilities. Motivation and retention of diversestudents (Cook & Cook, 2023) as well as managing disruption (Porter et al., 2024) require changes inhow technology is used (Lai & Bower, 2020), curriculum is designed (Bovill & Woolmer, 2019;Vaughan et al., 2023), and students understood (Daellenbach et al., 2022). Human-centred design (HCD) facilitates the construction of culturally sensitive, accessible, andflexible learning (G. Gomez et al., 2022). The bridging design prototype (BDP) approach is an HCDmethod that design researchers can use to engage users (e.g., educators) in experimentations withnovel resources. Some educators have used BDPs as inspiration to implement their own noveldesigns (Kicken et al., 2016). This illustrates that “everybody who works in education is a designer”(Weiner, et al., 2020, p.781) or have the potential to become one. A BDP is a fully functional rapid prototype that users accept to incorporate in real (not pretended)activities; while designers used them for learning about the context (Gomez, 2020). Its iterativedevelopment is informed by six principles, which are seminal concepts drawn from human-centredproduct development (Norman, 1999), user-centred, inclusive and participatory design (Keates &Clarkson, 2003; Norman, 2002; Sanders & William, 2002; Suchman, 1993) and a theory ofmeaningful learning (Ausubel et al., 1978). The principles enable to:• Carry out careful analysis of relevant data,• Develop resources with familiar features to enhance adoption,• Determine when novel features should be included as part of resource design, and• Inform feature design based on a good understanding of the prior knowledge, diversecapabilities, and context realities of users. BDPs have been built for preschool concept mapping in K12 (Cassata-Widera, 2009; Gomez, 2010)and online learning in higher education (Gloria Gomez et al., 2022; Gomez & van der Meer, 2010).Teachers at a primary school re-oriented my BDP for preschool concept mapping to explore itssuitability as a didactic tool to enhance interactive language learning in the education of children withspeech impairments (Kicken et al., 2016). Explorations with BDP adaptations and a new design (anapp for the interactive whiteboard) transformed speech therapists, counsellors, and teachers intodesigners (Lee, 2008; Weiner et al., 2020). After three pilots with escalating numbers in participationand duration, the school management decided to incorporate concept mapping at every level(Gomez, 2020). The BDP enabled this school community to sustainably adopt a new tool and construct a newteaching reality (i.e. incorporating concept mapping in interactive language learning) to replace anexisting method (topic webs) and complement others (e.g., conversation exchange). The teachers co-designing achieved a change in didactic tools from a bottom up approach. One by one teachers wereconvinced through personal experience because they saw the children behaving differently. Thisexperience report invites to further investigate how BDPs could inspire/nudge educators in K12 andhigher education to design for “one size does not fit all” (Vaughan et al., 2023, p. 13). Attendees will be invited to discuss the possibilities with the 6 BDP principles.

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Publication Details

Journal
Pacific Journal of Technology Enhanced Learning
Published
2025-05-05
DOI
https://doi.org/10.24135/pjtel.v7i2.215
Primary Topic
Innovative Human-Technology Interaction
Type
article
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article

Bridging design prototypes

Gloria Gómez
Pacific Journal of Technology Enhanced Learning
Innovative Human-Technology Interaction
article

Bridging design prototypes

Gloria Gómez
article en

Abstract

Resourcing sustainable and equitable education in flexible learning should start with understandingneeds, wants, and context of a classroom community. So, educators can bring about meaningfullearning and foster connection with students who could be time-starved, reside outside of maincentres, studying while working, caretaking and/or with disabilities. Motivation and retention of diversestudents (Cook & Cook, 2023) as well as managing disruption (Porter et al., 2024) require changes inhow technology is used (Lai & Bower, 2020), curriculum is designed (Bovill & Woolmer, 2019;Vaughan et al., 2023), and students understood (Daellenbach et al., 2022). Human-centred design (HCD) facilitates the construction of culturally sensitive, accessible, andflexible learning (G. Gomez et al., 2022). The bridging design prototype (BDP) approach is an HCDmethod that design researchers can use to engage users (e.g., educators) in experimentations withnovel resources. Some educators have used BDPs as inspiration to implement their own noveldesigns (Kicken et al., 2016). This illustrates that “everybody who works in education is a designer”(Weiner, et al., 2020, p.781) or have the potential to become one. A BDP is a fully functional rapid prototype that users accept to incorporate in real (not pretended)activities; while designers used them for learning about the context (Gomez, 2020). Its iterativedevelopment is informed by six principles, which are seminal concepts drawn from human-centredproduct development (Norman, 1999), user-centred, inclusive and participatory design (Keates &Clarkson, 2003; Norman, 2002; Sanders & William, 2002; Suchman, 1993) and a theory ofmeaningful learning (Ausubel et al., 1978). The principles enable to:• Carry out careful analysis of relevant data,• Develop resources with familiar features to enhance adoption,• Determine when novel features should be included as part of resource design, and• Inform feature design based on a good understanding of the prior knowledge, diversecapabilities, and context realities of users. BDPs have been built for preschool concept mapping in K12 (Cassata-Widera, 2009; Gomez, 2010)and online learning in higher education (Gloria Gomez et al., 2022; Gomez & van der Meer, 2010).Teachers at a primary school re-oriented my BDP for preschool concept mapping to explore itssuitability as a didactic tool to enhance interactive language learning in the education of children withspeech impairments (Kicken et al., 2016). Explorations with BDP adaptations and a new design (anapp for the interactive whiteboard) transformed speech therapists, counsellors, and teachers intodesigners (Lee, 2008; Weiner et al., 2020). After three pilots with escalating numbers in participationand duration, the school management decided to incorporate concept mapping at every level(Gomez, 2020). The BDP enabled this school community to sustainably adopt a new tool and construct a newteaching reality (i.e. incorporating concept mapping in interactive language learning) to replace anexisting method (topic webs) and complement others (e.g., conversation exchange). The teachers co-designing achieved a change in didactic tools from a bottom up approach. One by one teachers wereconvinced through personal experience because they saw the children behaving differently. Thisexperience report invites to further investigate how BDPs could inspire/nudge educators in K12 andhigher education to design for “one size does not fit all” (Vaughan et al., 2023, p. 13). Attendees will be invited to discuss the possibilities with the 6 BDP principles.

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