Teaching clinical reasoning by making thinking visible: an action research project with allied health clinical educators
© Delany and Golding; licensee BioMed Central Ltd. 2014
Received: 9 November 2013
Accepted: 27 January 2014
Published: 30 January 2014
Clinical reasoning is fundamental to all forms of professional health practice, however it is also difficult to teach and learn because it is complex, tacit, and effectively invisible for students. In this paper we present an approach for teaching clinical reasoning based on making expert thinking visible and accessible to students.
Twenty-one experienced allied health clinical educators from three tertiary Australian hospitals attended up to seven action research discussion sessions, where they developed a tentative heuristic of their own clinical reasoning, trialled it with students, evaluated if it helped their students to reason clinically, and then refined it so the heuristic was targeted to developing each student’s reasoning skills. Data included participants’ written descriptions of the thinking routines they developed and trialed with their students and the transcribed action research discussion sessions. Content analysis was used to summarise this data and categorise themes about teaching and learning clinical reasoning.
Two overriding themes emerged from participants’ reports about using the ‘making thinking visible approach’. The first was a specific focus by participating educators on students’ understanding of the reasoning process and the second was heightened awareness of personal teaching styles and approaches to teaching clinical reasoning.
We suggest that the making thinking visible approach has potential to assist educators to become more reflective about their clinical reasoning teaching and acts as a scaffold to assist them to articulate their own expert reasoning and for students to access and use.
KeywordsClinical reasoning Diagnostic reasoning Clinical education Professional development Action research
Clinical reasoning is fundamental to all forms of healthcare practice , but it is difficult to teach because it is complex, situation specific, built up through experience and frequently based on tacit, automatic processes of pattern recognition [2–6]. It involves gathering and analyzing information (diagnostic reasoning) as well as deciding on therapeutic actions specific to a patient’s circumstances and wishes (therapeutic reasoning) . It combines cognitive strategies such as analysis and problem solving with situated reasoning about patient needs in their broader clinical context [2, 7]. Comparative studies of experts and novices have highlighted important differences in these thinking processes. Expert practitioners rely on experience to recognise patterns [3, 6, 8], and they tacitly and automatically integrate disciplinary knowledge, clinical data, and client preferences [3, 4, 7–9].
In contrast, novices do not have experts’ prior experience to enable them to automatically integrate information, so they work through a series of distinct and explicit thinking steps in a more fixed pattern . They also tend to ask more questions than experts, some of which may be irrelevant to the situation or a particular patient’s care .
The inherent complexity of and experience required for expert clinical reasoning skills leads to two related challenges for teaching clinical reasoning. First, clinical educators who are experienced clinicians may find it difficult to explain and teach clinical reasoning because it has become ingrained in their way of thinking and being for them [3, 11–13]. Second, students may find it hard to grasp because it is effectively invisible and inaccessible to them [14, 15]. In this article we introduce and evaluate (via a pilot action research project with allied health educators), an approach to teaching clinical reasoning based on the pedagogical method of making thinking visible [16, 17]. The goal, when applied to teaching clinical reasoning is to assist educators to use a type of metacognition (thinking about their own thinking)  to reveal the otherwise ‘hidden’ elements of their reasoning , as an explicit scaffold to guide their students’ thinking and reasoning.
Standard approaches to teaching clinical reasoning have focused on broad thinking steps including to ‘gather information from a range of different sources’; ‘state the likely diagnosis’; ‘describe the presenting pattern of symptoms’ and ‘decide the most appropriate management for a particular patient’ [1, 5, 7, 20]. However, because these broad steps provide little concrete detail about what types of knowledge a clinician is drawing from and how she or he is interpreting and synthesizing that knowledge, . They may still be too abstract and detailed and some of the nuanced thinking steps of clinical reasoning may remain invisible or at least inaccessible for the learner.
The teaching method of ‘making thinking visible’ has previously been used successfully in classroom settings to promote and guide student thinking . It involves identifying and then ‘repackaging’ the thinking steps used by experts when they engage in clinical reasoning into ‘thinking routines’. Thinking routines consist of short, repeatable actions that isolate a type of thinking and provide heuristics or ‘tools’ for enabling and promoting this thinking . For example, a commonly used routine to encourage evaluative thinking is ‘Plus, Minus and Interesting’ or PMI . When using this routine, students first consider the plus or positives, then the minus or negatives, and finally, any interesting questions or issues that arise. By doing these three actions students engage in evaluative thinking that is both expansive and inclusive. By repeating these actions regularly and frequently – making it a routine – they become more skilful at evaluation, until it becomes an automated way of thinking for them .
Making thinking visible
• Make explicit the thinking required
• Reverse engineer your own thinking. Explain and describe how you think through problems and issues
2. Make concrete and visible
• Identify thinking behaviours – what expert thinkers ask and say when they engage in thinking
4. Refine, chunk & sequence
• Refine and group the thinking behaviours into useful heuristics – thinking routines
• Make the thinking a routine part of your teaching
• Repeat and model thinking routines
• Encourage students to frequently and regularly use these routines
Three key pedagogical principles underpin this approach. The first recognises that reducing complex expert thinking to a thinking routine that a student can use, is a form of simplification of knowledge to reduce the cognitive work of clinical reasoning [25–27]. Simplification of knowledge is not designed to ignore or reduce the inherent complexity of clinical reasoning, but rather to provide an entry point for students to participate in disciplinary thinking and discourse. A second pedagogical premise is that students can be effectively facilitated to learn by participating in the daily activities of their community of practitioners, where peers, role models and mentors scaffold or extend learning through guidance, modelling and discussion [28, 29]. Lave and Wenger  describe this conception of learning as a type of professional socialisation and Vygotsky’s  theories about the importance of explicit scaffolding and social inclusion of students is also educationally relevant [32–34]. The third pedagogical premise is that when educators think about their own thinking, they are engaging in reflective and metacognitive thinking Schön , and this assists them to develop a more explicit understanding of their own clinical reasoning prior to teaching others , even if their clinical reasoning is partly subconscious .
We used action research – a method widely used in primary and secondary education as a powerful means of professional learning for clinical educators . The key tenets of action research are that real problems are discussed with the intention of improvement and empowerment . Action research engages participants in a structured process of reflection  about their teaching, so they can generate new knowledge about their teaching practices . This is consistent with the idea of mindfulness in education, described by Ritchhart and Perkins  as having an open and creative state of consciousness, in contrast to a passive, inert and superficial learning disposition. We purposefully chose action research methodology to enable participants to actively reflect on their styles and methods of clinical supervision and teaching . Standard methods of professional learning for clinical teaching include lectures and workshops about teaching strategies [41–44]. While there is evidence that educators benefit from participating in lectures and short workshops [27, 41, 45], concerns remain that such courses may not provide sufficient opportunity for teachers learn through active participation.
Because action research empowers participants to construct, use and evaluate their own knowledge and understanding [46, 47], it provides both a practical and theoretical frame for clinical educators to link their clinical thinking expertise to their teaching methods. Using an iterative learning cycle [48, 49], it encourages them to construct their own teaching practices by developing, trialling and evaluating new teaching methods.
The participants were recruited in the following way: We introduced the ‘Making thinking visible’ teaching approach (Table 1) at three 2-hour seminars at a large Australian metropolitan teaching hospital in May 2010. We surveyed the 70 allied health professionals who attended about how they teach clinical reasoning, and this is reported elsewhere . In the third seminar, we invited the audience to indicate interest in participating in action research/learning project by leaving their contact details in a box at the back of the lecture theatre.
Action research participants – discipline and numbers
Education play therapy
The action research followed a structured pattern of participant reflection and trialing of teaching heuristics (Figure 1):
Stage one and two
Participants were asked to identify an area of clinical reasoning or practice their students found challenging, or an area where their students rarely engaged in the necessary reasoning. They were then asked to identify how they would go about clinical reasoning in this same situation by stating the steps they followed when they consciously think through the same challenges faced by their students. The final step involved refining the steps into a ‘thinking routine’ that students could employ. We facilitated this process of reflection by asking the clinical educators to consider and discuss the following questions:
What questions would you ask yourself if you faced a challenging clinical scenario?
What type of thinking would you like your students to develop?
What would your students ask if they were engaged in this thinking?
What questions can you ask to encourage this thinking?
How can you turn these questions and thinking steps into a thinking routine/heuristic – a short, repeatable set of questions or actions that isolates and engages the same type of thinking?
Examples of developing and refining thinking routines
Initial thinking routine
Evaluation of this thinking routine
Refined thinking routine
1. Assessing a patient with a musculoskeletal injury (Physiotherapy)
1. Gather information
“This routine was too complex for novices… students still struggled with what to consider”
2. Consider diagnosis
1. Underlying structures
3. Sort priorities
2. Connecting structures
3. Patterns of pain and symptoms
2. Reassessment of a child after initial treatment (Physiotherapy)
1. List main problems
“This routine was too challenging for a student who could only list but could not make the connections or make sense of how the previous treatment impacted on the patient.”
1. What changes occurred in the child’s symptoms since last presentation?
2. Compare with previous problems
2. What is the impact of treatment on their mobility, function, muscle tone… ?
3. Decide whether to continue with same treatment
3. Whether to continue or change your treatment?
3. Assessing a limb for prosthesis fitting (Prosthetics and orthotics)
1. Feel stump
“This routine really helped students. I further refined this with sub questions”
1. Feel what is the tissue consistency? What are the anatomical prominences?
2. Describe shape, texture
2. Describe what is the profile of the residuum? Is it bulbous?
3. Test lining
3. What is the distal circumference?
4. Test does the skin pull in against the gel when rolled on?
4. Treatment planning (Social work)
1. Why are you/they here?
“This routine was still too complex for some students. Asking ‘what’ about a patients’ goals also involves sorting and categorising the goals”
No new routine but…
2. What are this patient’s goals?
“The routine meant we discussed the importance of asking open-ended questions to clients and then using their answers to build further questions”
3. Summarise what you could do
Participating educators then trialed these routines with their students. They were asked to record the thinking routines they trialled; to state their teaching goal for using the routine; and to describe in concrete terms what happened after using the routine. They were also asked to evaluate the impact of using the thinking routine on student responses and on their own teaching styles by responding to the following questions:
What went well?
What didn’t go so well?
What did the students say or do?
Was their behaviour different? If so how?
Did the student engage in clinical reasoning? How was this demonstrated?
Have the routines impacted on your clinical education practice? If so how?
Educators’ written reflections were compared in the discussion sessions and they evaluated and further refined their thinking routine to better match their students’ learning needs. Any changes to thinking routines were recorded on the whiteboard and checked with participants.
The educators then trialed the refined routines.
Participating educators evaluated and further refined these routines.
Stage three and five of the action research cycle occurred during the participants’ clinical teaching. Stage one, two, four and six occurred through individual reflection, regular email interaction with the researchers, and during fortnightly discussion sessions. All participants engaged in the individual reflection. Five to eighteen participants attended each discussion session where they worked in multidisciplinary groups of three to four, and each participant attended an average of three sessions (Table 2). Participants took as many sessions as needed until they were satisfied that the routines they had refined would foster the relevant clinical thinking in their students.
Two sources of data were obtained and analysed. First, educators’ written reflections and observations of the thinking routines they developed and trialled, what happened during and after using the routine and the impact of the action research on their clinical teaching. Second, the researchers’ memos during the discussion groups documenting different types of thinking routines including refinements made over time (Table 3).
We used content analysis to summarise educators’ descriptions of their teaching trials and our own discussion group memos [51–53]. Both authors summarized and grouped the educators’ written reports into categories about teaching clinical reasoning and then refined these categories to reach a consensus of two overriding descriptive themes about the impact of using the ‘making thinking visible approach’ their clinical teaching. The first was an orientation by participating educators towards students’ understanding of the reasoning process. The second was heightened awareness of personal teaching styles and approaches to teaching clinical reasoning.
Theme 1: a focus on student understanding – through developing and refining thinking routines
“The routine didn’t really fit the scenario … On reflection I would use a slightly different routine myself with an inpatient such as that.” (music therapist)
In other cases educators noticed that a particular step of a routine was too difficult for a student and so they refined this step, as illustrated in the first example in Table 3. In yet other cases, the entire routine was refined because it did not encourage the thinking needed for a particular aspect of a clinical task (see Table 3).
Theme 1: a focus on student understanding – noticing how routines influenced student reasoning
“The three words allowed for more concise documentation and kept her on track. It was useful in refining and reducing complex issues.” (social worker)
“Both of the students were able to reflect on the thinking routine and explain how it had helped to guide their assessment of the infant.” (physiotherapist)
“The student was able to go into more detail when asking questions.” (social worker)
“After they had tried to prioritise their problems, the students justified their choices to me by explaining the reasoning behind them.” (physiotherapist)
“Using the routine, meant the student was able to reduce the complex issues that the patient presented with and focus on the fundamental issues at hand specifically for the patient.” (social worker)
“The student did engage in clinical reasoning because they wanted to know what is normal, that is, to have a point of comparison to know the significance of their assessment findings.” (physiotherapist)
“The student reported that the routine ‘gave structure in my head’, and that it helped with on the spot thinking, especially using the prompt ‘clarify’.” (physiotherapist)
“The student appreciated a structure to work with and was encouraged by having a strategy since she had struggled with other placements.” (occupational therapist)
“The student was able to use the word cues from the routine to identify what they saw and heard during the session, it prompted them to tease out the specific details.” (podiatrist)
“Normally when you say to students: ‘please try to prioritise your problem list and then show it to me’, they immediately want to ask me the answers and talk it through with me. However, with these two students, they very quietly went about trying to prioritise themselves, using the thinking routine and without asking me at all.” (physiotherapist)
“The student showed initiative with making plans and was more assertive with patients. Having a stronger plan allowed her to focus more on other elements of her interaction with patients.” (speech pathologist)
Theme 2: awareness of teaching styles for clinical reasoning
“I noticed that she first wrote out a list of problems and then changed the order to reflect the correct prioritised order. I could really see her thinking through the process.” (physiotherapist)
“The student watched and picked up on ‘non-verbal’ cues the patient was giving from the ‘look’ prompt. She was able to describe in detail what went on in the session, both verbally and non-verbally.” (social worker)
“The word ‘describe’ worked really well in asking the student to be really detailed about what they had seen and heard. This included being specific about the movements the client did, how they did them and how they explained this.” (physiotherapist)
“The student needed extra prompts to pick out the key issues.” (educational play therapist)
“She is struggling to ascertain what the patient’s problems are after her assessment, let alone prioritise them. So I think she wasn’t ready for this thinking routine, it is too advanced. She needs a thinking routine to help her work out the patient’s problems. This thinking routine I introduced to her today would be ideal (I think!) for a student who can get the main problems, but who is struggling to prioritise them.” (physiotherapist)
Theme 2: refining teaching styles for clinical reasoning
“I am more willing to try new things as it did work – the challenge is finding the right ‘set’ or ‘routine’ for the particular student.” (music therapist)
“Using this particular thinking routine has encouraged me to think about how I can devise other thinking routines for the other clinical areas I work in.” (educational play therapist)
“Once the undergraduate students return I would like to be able to try this thinking routine with them. I think it would be better to use it in a clinic that is less busy to allow more time and opportunity for the student to feedback on the process, and to gauge the usefulness of this thinking routine for them.” (physiotherapist)
In this action research project we trialled a method for teaching clinical reasoning. Participating educators developed a tentative heuristic of their own clinical reasoning, trialled it with students, evaluated if it helped their students to reason clinically, and then refined it so the heuristic was targeted to developing each student’s reasoning skills. As predicted by action research theories [50, 54–56], the cycle of - developing, trialling, evaluating and refining – resulted in participating educators taking responsibility for their own specific professional learning . It also encouraged them to examine the impact of their teaching on student learning [35, 49, 57–61]. This outcome reflects a key tenet of learning derived from action research. Concrete experience is the impetus for creating knowledge through a process of “observing and reflecting on that experience, forming abstract concepts and generalisations, and testing the implications of these new concepts in new situations” (, p.46).
Although aspects of expert clinical reasoning are considered to be subconscious and impossible to precisely describe , the clinical educators in our study were able to make visible and accessible some steps in their reasoning process by reflecting on what they would do or say in a specific clinical situation . The multidisciplinary nature of discussion groups assisted in this process, because in order to describe their clinical thinking to a colleague from a different discipline, educators had to be more concrete and explicit about their knowledge and reasoning. The focus of the clinical educators shifted during their involvement in the project, from considering a) What their students should know and do; to encompass b) What students currently understood and did; to also include reflection on a third level c) How to enable students to move from their current understandings and behaviours to the desired learning outcomes. Recognising and moving through these essential elements of teaching [21, 36], is an example of what Shulman refers to as developing pedagogical content-knowledge . They became involved in actively constructing their own discipline’s curriculum to build student understanding of clinical reasoning .
The specific focus on creating thinking routines seemed to be useful for teaching clinical reasoning because it directed the clinicians to develop an understanding of their own clinical reasoning, which is a necessary precondition for teaching clinical reasoning [17, 64]. It provided a method of working towards the pedagogical goal of aligning the learning outcome of developing expert clinical reasoning skills with specific teaching methods - in this case - the thinking steps used by expert clinicians [65, 66]. Clinical educators were also able to use the routines to prompt their students to engage in independent clinical reasoning, rather than have them passively watch and wait for the answers [65, 67].
These results suggest that making expert clinical thinking visible is a potentially valuable approach for assisting to bridge the gap between expert and novice reasoning [10, 14, 68]. The routines encouraged educators to provide students with access to their specific disciplinary language and to assist them to become part of their profession’s community of clinical practice [28–32]. They accord with the successful use of this method in classroom settings . However, unlike the classroom research where routines were given to teachers, the thinking routines developed in this research were derived through action research from clinician/teachers’ own ‘expert’ thinking and were specifically focused on facilitating steps of thinking for disciplinary-specific clinical reasoning.
There are several important limitations to this research project. The overall sample of participating educators is limited to eight allied health disciplines with small numbers of participants. There was both a variable and declining attendance at each discussion session, which participating educators explained as being caused by changing student supervision loads and busy clinical commitments. Also, seven discussion groups of one-hour duration, scheduled every two weeks is a relatively small amount of time to effect a sustained change in teaching behaviour. A further factor which limits both generalizability and replication of this study is the dynamic and responsive nature of discussions between the authors, as facilitators, and the participants in each focus group session. The impact on students’ actual clinical reasoning capacities was not measured because the data comprised of educators’ descriptions of students’ responses and reasoning. Data which relies on participants’ descriptions and interpretations of their teaching practice, are always open to differing and subjective interpretations and reports [69, 70].
Despite these limitations, we suggest that the key pedagogical tenets of the making thinking visible’ approach are potentially useful for clinical educators to assist in teaching students the steps of clinical reasoning. The making thinking visible approach encourages educators to become more reflective about their clinical reasoning teaching and acts as a scaffold to assist them to articulate their own expert reasoning and for students to access and use. The approach requires further testing and evaluating for its impact on clinical reasoning performance and in specific disciplines and clinical settings.
How can clinical educators learn to teach clinical reasoning, given it is second-nature to them, but inaccessible and unobservable to students? Our conclusion is that the making visible thinking approach in combination with an action research methodology could be useful as a form of professional learning. It guides educators to be learning and improvement oriented, to be explicit about their own clinical reasoning, and to develop and trial strategies to support student reasoning.
Clare Delany (PhD) is Associate Professor and Director of Teaching and Learning at the School of Health Sciences, The University of Melbourne and Senior Ethics Associate at the Children’s Bioethics Centre, at the Royal Children’s Hospital. Research interests include clinical education pedagogy and practice and clinical ethics consultation and education.
Clinton Golding (PhD) is Senior Lecturer at the Higher Education Development Centre, University of Otago, an Honorary Senior Fellow of the Centre for the Study of Higher Education, University of Melbourne, and the Chair of the Higher Education Research and Development Society of Australasia, New Zealand. Research interests include educating for thinking across the disciplines, especially clinical reasoning in the medical disciplines and health professions.
The authors would like to thank the clinical educators who took precious time to participate, the reviewers who made such useful comments, and Carol Jewell, Allied Health Clinical Education Coordinator at the Royal Melbourne Hospital in Melbourne, Australia, who provided much support and encouragement. This research was funded by a grant from the Australian Victorian Healthcare Association: 2009/10 Clinical Supervision Grants Program.
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