Glossary and definition of terms
1 Introduction Research background
1.5. Research practice approach
The research presented in this thesis is focused on the investigation of woven e-‐textiles
through design led practice (Frayling, 1993). The empirical research conducted for this
whereby both form and function are synchronised for combined design considered outcomes.
1.5.1 The researcher
The ƌĞƐĞĂƌĐŚĞƌ͛Ɛ background in woven textile design, acquired over a number of years through undergraduate, postgraduate, professional practice and academic experience has been essential to structure and execute this research. The expertise of the researcher in woven textiles allows for her to undertake a dual position in this research project ʹ i.e. as designer and researcher. Furthermore, the researcher's personal interest in technological and innovative textiles, which has been a consistent theme present in her previous work, has also been an additional motivation to pursue this research. The researcher was able to apply in-‐depth woven expertise of textile construction and combine this with the research investigation. However, electronics were less familiar to the researcher until embarking on this research project; thus, the researcher's knowledge of electronics developed reflectively (section 3.4.6) throughout the course of this research. On reflection, this basic level of electronics knowledge enabled the researcher to take a novel approach to designing e-‐textiles.
As the researcher is an expert weaver, the mechanics of woven structures and weaving construction was more instinctive than that of electronics. Basic electronics were studied to initiate circuit formation, inputs, outputs, variables, and so forth, to gain a deeper understanding. This was achieved by learning basic practical and theoretical electronics through taught demonstrations, books, websites and expert advice. The basic electronics knowledge was applied to some initial e-‐textile pilot samples and technical tests. Building electronics knowledge helped to establish where common parallels fell between the two subjects. Analysis and reflective learning from these initial e-‐textiles progressively built electronics knowledge throughout this research project.
1.5.2 Craft, design and technology
This research differs to previous work in the field, as it pursued synthesis of electronic circuit design principles with in-‐depth woven textile construction through design led methods. An empirical methodical approach similar to technical material development
has been used to develop the woven process, by focusing on functional objectives and trialling techniques that best achieve the set aim. Simultaneously, a creative exploration of form design and craft led woven techniques to develop the same technical objective are investigated. These utilise the woven structure to produce integrated e-‐textiles. As Harold Nelson and Erik Stolterman suggest, both the material of design and the craft involved in the production methods are interconnected processes. ͞The fact that we
distinguish between the act of creativity and more pragmatic or concrete activities does not mean they are separated in the design process͟ (Nelson and Stolterman, 2012
p.174). It is this combined approach that is applied to this PhD research, and is what Nelson and Stolterman refer to as a ͚tertium ƋƵŝĚ͛ when becoming a designer. The teritum quid is described as the ͚third way͛ amongst traditional subjects of science and the arts (Figure 1.4 1.4), i.e. ͞This nascent contextual tradition forms a container, a
protector, for design learning and eventual design praxis. It forms the crucible that holds the superheated liquid form of inquiry at the centre of design learning as well as design praxis͟ (Ibid. p.225). Similarly, Ken Friedman also suggests design is first a process,
where insights developed from these processes create design knowledge (Friedman, 2000); thus ͞Those who create knowledge through research have a different and richer
relationship to their subject field than those who simply teach knowledge that others create͟ (Ibid. p19).
Figure 1.4 Tertium quid the, third way (Nelson and Stolterman, 2012 p.226)
The researcher applied expert weaving knowledge and reflective practice to develop the woven e-‐textiles in this research; this expert knowledge is unique to the discipline and enables its advanced progression (Bye, 2010 p.3). Although woven knowledge and
practice stems from craft subjects, the researcher applied this through design processes combined with electronics. ͞The creative processes now found in textiles defy the
historical divisions and definitions applied to it͟ (Gale and Kaur, 2002 p.31), in that
modern textile design processes are often combined with IT, digital tools, cross discipline collaborations and other processes. Thus, in relation to this research the design process combines woven craft knowledge with electronics to enable new outputs. However, it cannot be overlooked that craft does underpin the textiles design process, as the practice of textile design requires a hands-‐on making approach stemmed from craft skills (Ibid. p31).
Sandra Wilson suggests craft practice should be credited separately to design practice, to preserve the core principles of craft and allow a deeper understanding of its values (Wilson, 2004). However, if craft practice is seen as a set of specialist skills connected to an individual via making processes, there will always be an association with craft skills and materials, regardless of this being related to technology. Craft skills are required to enable technology to progress in areas such as e-‐textiles, where the maker/ designer/ researcher is tangibly connected with a process. This reconfiguration of craft with technology and how they connect can be an enabler for progressive design (Rosner, 2012; Scali, Shillito and Wright, 2002).
David Pye defines craft differently to workmanship, in that the actions and skills applied when crafting is ͚ǁŽƌŬŵĂŶƐŚŝƉ͛, and can be present in any made application (Pye, 1980). He further suggests workmanship cannot be expressed, as ͞What you see, and nearly all
that you can see, in a man-‐made environment, is design expressed and amplified in terms of ǁŽƌŬŵĂŶƐŚŝƉ͙͘ Design is what can be expressed in working drawings and a written specification͟ (Ibid. p.3). Pye firmly states workmanship is design, where the two
subjects are closely interconnected for final outcomes (Pye, 1978 p.79). The relationship between a design and the workmanship to realise the final outcome, is a result of the ŵĂŬĞƌ͛Ɛ discretion and decisions actioned during the making process. Similarly, Glenn Adamson states craft is a process, and ͙͞ŽŶůLJ exists in motion. It is a way of doing
things, not a classification of objects, institutions, or people. It is also multiple: an amalgamation of interrelated core principles, which are put into relation with one another through the overarching idea of ͚ĐƌĂĨƚ͛͟ (Adamson, 2007 p.4). This process is
and lateral (creative) thinking, which is also connected to feeling (Penfold, 1988 p.133). In relation to the e-‐textile research practice approach, weaving craft skills are applied by the researcher. The application of these skills with electronics through design processes result in the woven e-‐textiles presented in this thesis.
Design led investigations of woven e-‐textiles can enable realisation of alternative woven outputs that may not be considered through purely technical materials or creative craft routes alone.
The researcher͛Ɛ previous woven textile design working methods were reflected upon and framed this approach into a model. This design process model helped position the ƌĞƐĞĂƌĐŚĞƌ͛Ɛ existing design process. The ƌĞƐĞĂƌĐŚĞƌ͛Ɛ previous woven textile design process was then combined with electronics for this e-‐textile research. This framed the woven e-‐textiles design process, and synthesises a technical materials approach and creative craft methods to address both form and function. This is unlike conventional textile design processes that are typically related to implicit thinking and tacit knowledge through explorative design approaches, where there is limited research of existing textile design process (Bye, 2010; Gale and Kaur, 2002; Studd, 2002). Underpinning design methods such as tacit knowledge, implicit thinking and others are discussed in chapter 3. The e-‐textile design process model was applied through reflective practice to develop the e-‐textiles in this project.