Abstract
Many coaching approaches aim to change behavior by increasing self-knowledge. However, self-knowledge can be difficult to achieve. One hypothesis (e.g., Jung, Rogers) is that self-knowledge is challenging because there is inherent conflict between different aspects of the self. This hypothesis is foundational to Boyatzis’ intentional change theory (ICT). ICT holds that effective coaching requires deliberate sequencing of the client’s exploration of different aspects of their self. Coaches initially encourage clients to focus exclusively on their Ideal self. The ICT approach differs from that advocated by most coaching organizations that suggest collaborative goal setting at the start of the coaching engagement, encouraging clients to focus on fixing performance deficits and problematic behaviors–aspects of the Real self. If there is conflict between thinking about Ideal and Real selves, then this strategy will be suboptimal. The hypothesis of attentional conflict therefore has significant implications for coaching practice. Previous findings establish a link between attention to Ideal vs. Real selves and global vs. local visual processing, respectively. This association alone does not imply conflict because, in naturalistic settings, global and local perceptual processes usually work in concert. However, certain stimuli such as Navon figures (letters made from many smaller letters, e.g., a large E made of small R’s) create conflict due to incongruence between the global and local features. Does thinking about the self inherently generate conflict, like a Navon figure, or is it more akin to everyday perception? To answer this question the current study uses functional magnetic resonance imaging to examine the overlap in brain activity in young adults between two pairs of otherwise very dissimilar tasks: coaching interactions focused on Ideal vs. Real self; and attention to global vs. local features of Navon figures. Despite the ostensible absence of overlap in the psychological processes involved in these pairs of tasks, we find a remarkable degree of overlap in brain activity. This overlap was pronounced in higher (parietal and temporal) areas known to be involved in resolving attentional conflict. These findings provide compelling biological evidence for inherent conflict between thinking about Ideal and Real selves.
1. Introduction
Coaching is a rapidly expanding development activity in many organizations. Professional coaches are increasingly hired to support the development of valued employees. The coach’s role in such interventions is to inspire self-directed learning and persistence in one’s efforts to develop, resulting in sustained positive change (; ). Yet sustained change–particularly behavior change–is notoriously difficult to achieve. There is broad agreement among coaching scholars that enhanced self-knowledge is critical to change (; Yip et al., 2020; ). Moreover, there is general agreement that the self is complex and multifaceted (; ; ). The multifaceted nature of the self is central to intentional change theory (ICT, ), which holds that sustained change is predicated on acceptance of an aspirational “ideal self” that is later contrasted to a more current “real self” in a complex discovery process. Research on ICT-based coaching interventions indicates that this bears out in practice (; Van Oosten et al., 2019; ).
Despite evidence that purposeful sequencing of discussion of different facets of self is critical to sustained change, it has been slow to take hold in coaching practice. Many associations, certification agencies, and training groups recommend focusing a client’s attention on their immediate goals or problems early in the coaching engagement as standard practice. In so doing, the coach focuses a client’s attention on their Real self and suppresses consideration of their “bigger picture”–the personal vision, dream and sense of purpose associated with the Ideal self. As a result, they miss engaging the psychophysiological state that is most conducive to sustained effort at learning and change (; ; ).
At the heart of this problem of practice is lack of theory to adequately address the complexity of the self. Is it possible to attend to both the Ideal self and Real self simultaneously? Or does the salience of the Real self interfere with the accessibility of the Ideal self? This study extends prior research () to directly address the question of conflict between different aspects of the self. Psychology has long recognized parallels between the social and emotional processes involved in personal development on the one hand, and visual perception on the other. These parallels motivated the development of Gestalt therapy (), which in turn grew out of Gestalt psychology, a school that emphasized the importance of holistic and meaning-making processes in perception. Our previous neuroimaging study revealed a concrete basis for the metaphorical links between personal development and visual perception by showing that brain regions traditionally thought to be specialized for visual processing are also engaged during effective coaching. The current study explores those links in greater depth by examining overlap in neural activity between two pairs of apparently unrelated tasks: coaching to the Ideal versus Real self, and visual attention to global versus local perceptual features.
Our study makes several contributions to the literature. First, we advance intentional change theory (ICT) and our understanding of possible selves in general by introducing the concept of acceptance. Second, our findings provide support for the hypothesis that conflict sometimes arises between Ideal and Real selves. Finally, we offer recommendations for coaching practice based on these findings.
2. Γνωθει σ’αυτoν (know thyself)
The belief that self-knowledge holds the key to living a good life is a recurring theme in Western thought. The ancient Greek aphorism “know thyself” was the first of three maxims inscribed at the Temple of Apollo at Delphi and guided the thinking of many of the ancient philosophers (Laertius, 225 CE, White, 2021). More recently, with the emergence of psychology as a discipline distinct from philosophy, some influential thinkers began to address the question of why self-knowledge is often difficult to acquire. Carl Jung viewed integration of “persona” and “shadow” as one of the main tasks of human development. Jung held that healthy development requires that this integration be led by the persona rather than the shadow (). He also emphasized that the shadow should ultimately be embraced rather than rejected. Carl Rogers was perhaps the most influential proponent of humanistic psychology, in contrast to the behaviorist and psycho-analytic approaches that preceded it (). Rogers thought that everyone experiences incongruence between their “Ideal” and “Real” selves. To help lessen this conflict, Rogers emphasized a client-centered approach with empathic listening used as a key tool to support the individual’s innate drive for self-realization.
Roger’s approach stands in contrast to the problem-fixing orientation more familiar in psychology, which draws strongly on the medical model of diagnosis and “cure” or treatment. Behavioral Therapy and Cognitive Behavioral Therapy (CBT) are focused exclusively on identifying then fixing problematic behaviors and thoughts. More recently Roger’s central insight has resurfaced in the so-called “third wave” cognitive behavioral approaches. Dialectical Behavior Therapy (DBT) is the best-known of these (). DBT’s central idea is the need to maintain a balance between change and acceptance. To help foster acceptance, DBT emphases the importance of the therapist adopting a warm and open interpersonal style. Another third wave cognitive behavioral approach is Acceptance and Commitment Therapy (ACT) which similarly recognizes the importance of circumventing psychological resistance to change by placing an emphasis on cultivating acceptance and “willingness” in contrast to “willfulness” (). Gestalt Therapy, a humanistic school of psychotherapy developed in the 1950’s that remains widely practiced, also emphasizes the importance for change of non-judgmental self-awareness (). Gestalt’s Paradox of Change is the idea that the more we accept ourselves as we are right now, the more it becomes possible for us to change.
Many contemporary schools of coaching also view the cultivation of self-knowledge as central. Coaches often use stories about the self to stimulate change (Taylor et al., 2019; Yip et al., 2020). The self is multifaceted in nature (; ; ). Hence, the self-narratives evoked in coaching conversations tend to focus on different salient aspects of the self. Two aspects of the self are most relevant to coaching. Visioning work helps the person being coached articulate the story of a desired future and evokes a narrative about one’s Ideal self (; Taylor et al., 2019). Ideal self-narratives answer the question, who do I want to be? In contrast, coaching conversations that begin with evaluation, such as reviewing multisource feedback, evoke a narrative about the Real self (Taylor, 2006). Real self-narratives answer the question, who am I today? Although both self-narratives play essential roles in any change process, there may be an unintended cost when coaches seek to establish the immediate utility of coaching by focusing first and foremost on fixing current problems. This directs the coaching conversation to discussion of the Real self.
3. Concepts of self in intentional change theory
According to intentional change theory (ICT, ), sustained development occurs through a complex process in which individuals adopt new behaviors to approach their Ideal self or reduce the discrepancy between an Ideal self and Real self (; ). The process of intentional change (Figure 1) involves five discoveries: (1) articulation of the ideal self, (2) increased awareness of the real self, (3) setting a learning agenda to move toward one’s ideal self, (4) implementing the learning agenda through deliberate action, and (5) leveraging supportive relationships for one’s change efforts. ICT views the conflict between different ways of thinking about the self as a fundamental tension that forms the foundation of the ICT approach to coaching. ICT builds on key insights of Jung, Rogers and others and elaborates them in two ways: first it offers a more thorough theoretical explanation of the underlying conflict based on current research in neuroscience and psychology; and second it prescribes a concrete and actionable sequence for effective coaching based on this theoretical model. Here we additionally update ICT theory to incorporate a more nuanced account of different aspects of the self (Figure 2). Prior theorizing in ICT acknowledges the ought self, but until now has not explicitly articulated the role of acceptance in promoting integration of different aspects of the self (Ideal and Real). This update to ICT aligns with theorizing on “radical acceptance” and “willingness,” key concepts in Dialectical Behavior Therapy and Acceptance and Commitment Therapy, respectively.
FIGURE 1
FIGURE 2

Different aspects of the self and relationship to the two hypothesized psychophysiological states evoked by the two coaching conditions in the current experiment.
Here we focus on four distinct aspects of self, which may be briefly defined as follows:
- •
Ideal self: the individual as they most desire to be, with their strengths fully realized and their weakness minimized.
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Real self: the individual as they are presently showing up, including both strengths and weaknesses.
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Accepted self: aspects of the self that the individual embraces and accepts.
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Ought self: aspects of the self, often externally imposed, that the individual judges and rejects.
Intentional change theory holds that thinking about aspects of the self that are both Ideal and Accepted elicits a psycho-physiological state called the Positive Emotional Attractor (PEA). By contrast, thinking about aspects of the self that are both Real and Ought elicits a psycho-physiological state called the Negative Emotional Attractor (NEA). Critically, the PEA and NEA are held to be mutually incompatible states around which cognition and behavior related to personal development are organized. Table 1 provides a fuller list of the contrasting characteristics of the two attractors.
TABLE 1
| Positive emotional attractor | Negative emotional attractor | |
| Primary self focus | Ideal and accepted self | Real and ought self |
| Autonomic Nervous System | Parasympathetic arousal | Sympathetic arousal |
| Cortical networks | Empathic Network aka “Default Mode Network” | Analytic Network aka “Task Positive Network” |
| Affective valence | Positive | Negative |
| Cognitive-affective state | optimism, hope | pessimism, fear |
| Self Determination Theory | Intrinsic motivation | Extrinsic motivation |
| Self-regulatory focus | Promotion: attaining gains | Prevention: avoiding losses |
| Orientation | Possibilities, dreams | Problems, expectations |
| Focal Capabilities | Strengths | Weaknesses |
| Learning agenda actions | Self-generated experiments | Compliance behaviors |
| Practice | Practice to mastery | Practice to comfort |
| Relationship tone | Resonant/Inspiring | Dissonant/Annoying |
Characteristics of the two psycho-physiological attractors.
The ICT coaching process (Figure 1) is hypothesized to act on different aspects of the self as follows:
- (1)
The first discovery increases the salience and clarity of the Ideal and Accepted self. This provides a powerful motivational anchor and gives the coachee a basis for generating their own goals rather than following external expectations.
- (2)
The second discovery leverages the increase in self-acceptance achieved by the first discovery to allow the coachee to acknowledge and accept more of their Real self. The result is an increase in overlap between Real and Accepted aspects of self. This engenders willingness to change instead of the psychological resistance, denial, and willfulness engendered by the Ought self. As a result, the coachee becomes more open to feedback and processes it more effectively.
- (3)
The third, fourth and fifth discoveries, and engaging in the ongoing cycle, gradually bring the Real self closer to the Ideal self, increasing overlap between Real and Ideal selves. In addition, as the coachee experiences how personal development can be more effectively intrinsically motivated by a vision of their Ideal self (rather than extrinsically motivated by external expectations), the salience of their Ought self decreases. This increases their openness to continued personal development.
In terms of how to practically approach coaching, ICT outlines a sequence of “discoveries” through which the coach guides the coachee (
Careful framing of the exploration of the Real self, so it is (i) seen as being in service of the Ideal self, and (ii) focused on developing strengths, are two critically important features of ICT because they foster greater acceptance of the Real self. As mentioned earlier, the NEA is associated with thinking about the Real and Ought self. Thinking about the Real and Accepted self does not cause the coachee to enter the NEA. By increasing acceptance, this framing minimizes conflict between the Ideal and Real selves. By contrast, the way that performance reviews are usually conducted in organizations evokes the NEA because the focus is usually put on externally imposed expectations that highlight Ought aspects of the Real self. Similarly, starting a coaching conversation by focusing on concrete goals directs attention to Ought aspects of the Real self, and so evokes the NEA rather than the PEA. For these reasons, ICT holds that it is very important to sequence coaching conversations by focusing first and foremost on the client’s Ideal and Accepted self. Even though the coach may be otherwise highly competent and the coachee sincerely motivated to change, ICT predicts that coaching approaches that frame the change process in terms of externally defined goals are likely to have the unintended consequence of inhibiting the individual’s efforts to adapt, grow, or change (
In addition to ICT three other well-known theories similarly suggest that placing emphasis on the Ideal and Accepted self will be more effective at motivating sustained behavior change than placing emphasis on the Real and Ought self, due to links with positive vs. negative affect, intrinsic vs. extrinsic motivation, and promotion vs. prevention motivation (
4. Testing the hypothesis
What evidence might tell for or against the hypothesis of conflict between thinking about the Ideal and Accepted and thinking about Real and Ought selves? Behavioral investigations of social cognition are challenging to control because of the inherent trade-off between ecological validity and the use of precisely quantifiable stimuli and tasks (Schilbach, 2015). Neuroimaging offers a window onto the physiological processes evoked by different psychological conditions. This can be highly informative about the underlying mechanisms that guide our thinking, provided that appropriate care is taken not to overinterpret findings (
Neuropsychological and neuroimaging studies indicate that distinct brain areas are specialized for the perception of global versus local visual features. Neuropsychological studies, i.e., studies of individuals with brain lesions, lack anatomical precision because brain damage often impacts the function of nearby tissue. Neuropsychological studies have thus traditionally focused on relatively crude distinctions such as whether the lesion impacts the left or right hemisphere and is anterior (i.e., frontal lobe) or posterior (i.e., occipital, temporal and parietal lobes). These studies have found that individuals with right posterior lesions have impaired global processing, whereas individuals with left posterior lesions have difficulty processing local information (
A type of stimulus often used in studies of global and local perception is a hierarchical or Navon figure (
FIGURE 3

One of the Navon figures used in the visual attention task (local cue).
The current study used fMRI to investigate neural signatures associated with two pairs of otherwise highly dissimilar tasks: two visual attention tasks in which participants were required to respond to either the global or local features of a series of Navon figures; and two tasks involving simulated coaching interactions which led participants to think about either their Ideal and Accepted self or their Real and Ought self. The latter two tasks were closely modeled on our prior fMRI study which provided evidence for a link between thinking about the Ideal self and global perception (
5. Materials and methods
5.1. Subjects
Forty-seven full time undergraduates participated in this study. An online pre-screen and scheduling tool (Experiment Management System, Sona Systems) was used to establish that subjects were right-hand dominant, native English speakers, had no neurological disorders or diseases, were not pregnant, did not experience claustrophobia, and were not declared Cognitive Science majors. Of the 65 who volunteered for the entire study of which this was a part, 14 were dropped due to high scores on the Depression, Anxiety, and Stress Scale (DASS-21), failing to attend sessions, claustrophobia, or previously undisclosed neurological disorders. fMRI data were obtained from a final total of 51 subjects (26 male, average age = 19.8 years). Four participants had incomplete imaging data, yielding a final sample size of 47 subjects. Subjects were compensated for their time at a rate of $10 to complete an initial questionnaire, and an additional $50 as well as a copy of a leadership book and a structural image of their brain if they completed the remaining study requirements. This research was approved by the appropriate local Institutional Review Board, and informed consent was obtained from all participants.
5.2. Design
Our hypotheses were tested using functional magnetic resonance imaging (fMRI) to quantify neural activity while subjects engaged in coaching and visual attention tasks. Consistent with
Coaching conditions were kept consistent between the face-to-face and video-simulated scanner interactions. That is, the same coach who led the real self session appeared in the scanner video making Real self related statements. The coaches were counterbalanced across conditions and gender to minimize coach-specific or gender effects. Coaches were randomly assigned to the Ideal Self or the Real Self condition for each subject. In order to standardize timing, all Ideal self sessions were conducted first and within 1 week of each other (in multiple session conditions), followed by the Real self session. fMRI scans were conducted within 2 weeks of the final session.
Face-to-face coaching session(s). Two experienced coaches of different genders were trained in the study protocol to conduct semi-structured coaching sessions. After introducing himself/herself, the coach in the Ideal self condition asked the anchor question: “If everything worked out ideally in your life, what would you be doing in 10 years?” This was followed with more specific probes if needed. In addition to this theme of vision for the future, subjects who were assigned to two or three Ideal self sessions also discussed (2) compassion via people who have helped the student most in the past, and (3) mindfulness with a discussion of their current most important values.
In the Real self condition, the coach asked the anchor question: “What challenges have you encountered or do you expect to encounter in your experience here?” If needed, additional probes were used. The aim of the Real self session was to focus the participant on assessing their current performance and anticipate the future in terms of what they should be doing to achieve what they believed was expected of them. The coaches always maintained a polite and respectful tone.
5.3. Neuroimaging sequence
In the scanner, each participant received seven scans (MR acquisition sequences). The first two scans established the unique anatomical structure of that individual’s brain and allowed the functional data to be transformed to a standardized atlas space (711-2B, with coordinates approximating standard Talairach space). The other five scans were functional scans, used to assess BOLD response to different task conditions. The first functional scan is not of relevance here, and involved participants viewing pictures of static faces. The next three functional scans required participants to engage in the simulated coaching task. The final functional scan required participants to engage in the visual attention task.
5.4. Coaching task
The coaching task simulated Ideal and Real self-based coaching interactions in a video-conference-style interaction between the participant and the coaches. The participant was presented with a total of 96 pre-recorded videos of the coaches making statements about the participant’s educational experience or outlook on the future. These statements were developed around the themes of hope, compassion, mindfulness and playfulness in the Ideal self condition and lack thereof in the Real self condition (e.g., ideal self: “I am excited about the possibilities my future holds,” and real self: “I am afraid I will not achieve what is expected of me”). Equal numbers of present and future-focused statements were included. Using a button press, subjects indicated the degree to which they agreed or disagreed with the statement on a four-point scale (1 = strongly disagree, 4 = strongly agree). As soon as the subject responded, a brief video clip played in which the coach thanked the participant for their response. Hence, each trial involved a pseudo-interactive exchange between the participant and one of the two interviewers.
The timing of an individual trial of the coaching task is depicted in Figure 4. The videos consisted of a face-on view of the head and shoulders of the coach, who maintained eye contact (i.e., looked at the camera) as s/he spoke. Each coach made statements in a tone congruent with the style of coaching session previously experienced by the participant with that coach (mean length = 5193.54 ms), followed by a 2-s fixation cross. Then participants had 4 s to respond to the statement. After the response or the passing of 4 s, a short video of the interviewer thanking them for their response played (mean length = 2218.34 ms). A fixation of 100 ms, 2,000 ms, or 4,000 ms was randomly inserted between each trial. Participants underwent three fMRI runs of this task for 280 frames or 560 s. Each fMRI run comprised 32 experimental trials (16 of each condition, ideal and real self) and 8 resting fixation periods of 15 s.
FIGURE 4

Coaching task sequence.
5.5. Visual attention task
A stimulus from the visual attention task is depicted in Figure 3. The visual attention task consisted of a cued-version of the
5.6. MRI Image acquisition
A 4-Tesla Siemens-Bruker hybrid research MRI scanner was used. Participants experienced structural image acquisition (T1 and T2w), and five blood oxygenation level-dependent (BOLD) runs (TR = 2,000, TE = 20, flip angle = 90°) containing 310 or 280 echo planar imaging (EPI) volumes each (one of these runs was for the purpose of a different study). BOLD EPI images consisted of 38 contiguous 3.8 mm slices, producing 3.8 mm cubic voxels. The experimental paradigm, presented using E-Prime 2.0 software, was projected onto a screen on the head coil and visible through an angled mirror adjusted to accommodate each participant. Responses from four buttons, two under the index and middle fingers of each hand, were recorded and time stamped by E-Prime 2.0.
Preprocessing was accomplished using software developed, tested, and maintained by Abraham Snyder at Washington University in St. Louis Medical School.1 Dr. Synder consulted on the analysis. Motion was corrected across and within runs using a rigid-body rotation and translational algorithm. Spatial transforms were computed to realign BOLD images where they were moved into a common atlas space determined by co-registration of an average EPI image with the T2 weighted structural image. The T2 weighted structural image was aligned with the T1 weighted magnetization-prepared rapid-acquisition gradient echo (MP-RAGE) structural sequence. The T1 image was aligned with an average T1 atlas through a series of affine transformations. This atlas had been created specifically for the Bruker 4T magnet and was aligned to the Washington University in St. Louis 711-2B version of Talairach atlas space (
5.7. Imaging data analysis
All reported findings are based on quantitative analysis and established inferential statistics using the Washington University in St. Louis software, FIDL, created and maintained by Dr. Mark McAvoy.
Data for each participant was entered into a general linear model in which baseline and linear trend were estimated alongside an assumed hemodynamic response function (HRF) associated with each condition. The assumed hemodynamic response function used was similar to that used by a variety of common neuroimaging analysis programs and is based on careful work modeling the HRF to visual stimuli in V1 (
Statistical inference was made based on random effects analyses, in which each participant contributed one estimate for each condition derived from the individual participant GLMs. The degrees of freedom for these analyses were determined by the number of participants. The contrasts used in the cognitive conjunction analysis were derived using paired t-tests.
We used cognitive conjunction analysis, which is an inferential technique for establishing that a brain region is activated by two statistically independent comparisons (
All reported findings were corrected for whole brain multiple comparison correction using a threshold and clustering criterion (Threshold z = > 3, Cluster: number of contiguous voxels = > 17). These thresholds were established through monte-carlo simulations run on real fMRI data (
6. Results
6.1. Manipulation check
To check that the coaching tasks were having the expected and desired effect on the subjects, a brief survey was administered right after each coaching session. The items used emotions that were predicted to be aroused according to ICT and the design of the coaching tasks. Results of the manipulation check were in the predicted direction for all participants. In fact, there were significant differences in participants’ perceptions of the Ideal Self and Real Self coaches with regard to the quality of the relationship (the subjects felt more trust, rapport after the PEA sessions as contrasted to the NEA sessions) and the motivational strategy (the subjects felt more inspiration and less obligation after the PEA sessions as contrasted to the NEA sessions) used by the coach, as shown in Table 2.
TABLE 2
| Real self coaching | Ideal self coaching | t-test | |||
| M | (SD) | M | (SD) | ||
| Trust | 3.52 | (1.5) | 6.08 | (1.1) | t(23) = −6.12* |
| Rapport | 3.49 | (1.3) | 6.10 | (0.9) | t(23) = −7.38* |
| Inspiration | 3.22 | (1.2) | 4.84 | (1.0) | t(22) = −4.57* |
| Obligation | 5.51 | (1.3) | 2.30 | (1.3) | t(23) = 9.39* |
Manipulation check results.
*p < 0.001.
6.2. Behavioral results
Behavioral results are reported for 46 participants (data was corrupted for one subject). The behavioral results provide evidence of the efficacy of both the visual processing and coaching tasks. For the visual attention task, overall accuracy on all trials was 96.82% (global = 97.94%, local = 95.90%). High accuracy on this task signifies that subjects were successful in their attempts to attend to the global or local features of the image. The average response time for all correct trials was 415.19 ms. As expected on the basis of prior work (
For the coaching task, subjects agreed overall with statements in the coaching trials more than they disagreed (M = 2.90), and agreed with ideal-self coaching statements more than real-self coaching statements (t = 13.02, p < 0.001, Mideal = 3.35, Mreal = 2.45). Average response time to statements was 656.76 ms, and subjects responded more quickly to ideal self statements than to real self statements (t = −3.60, p < 0.001, Mideal = 624.99, Mreal = 689.65).
6.3. Imaging results
The standard approach to the cognitive conjunction analysis (
TABLE 3
| Location of center of mass | Talairach coordinates (x, y, z) | Extent (voxels) | Condition |
| Left cerebrum, Occipital lobe, Fusiform gyrus, Gray matter, Brodmann area 18, Range = 2 | (−20, −89, −9) | 812 | real/local |
| Right cerebrum, Occipital Lobe, Lingual gyrus, Gray matter, Brodmann area 18, Range = 0 | (27, −96, −3) | 234 | real/local |
| Right cerebrum, Sub-lobar, Insula, Gray matter, Brodmann area 13, Range = 1 | (31, 14, −6) | 60 | real/local |
| Right cerebrum, Frontal lobe, Superior frontal gyrus, Gray matter, Brodmann area 9, Range = 0 | (9, 59, 26) | 17 | real/local |
| Left cerebrum, Temporal lobe, Caudate, Gray matter, Caudate tail, Range = 3 | (−35, −38, 6) | 150 | ideal/global |
| Right cerebrum, Occipital lobe, Cuneus, Gray matter, Brodmann area 30, Range = 0 | (14, −67, 12) | 537 | ideal/global |
| Left cerebrum, Occipital lobe, Middle occipital gyrus, Gray matter, Brodmann area 19, Range = 4 | (−36, −69, 13) | 454 | ideal/global |
| Left cerebrum, Sub-lobar, Claustrum, Gray matter, Range = 1 | (−38, −20, −4) | 17 | ideal/global |
| Right cerebrum, Temporal lobe, Superior temporal gyrus, Gray matter, Brodmann area 22, Range = 3 | (51, −52, 18) | 618 | ideal/global |
| Left cerebrum, Frontal lobe, Middle frontal gyrus, Gray matter, Brodmann area 8, Range = 3 | (−22, 22, 35) | 156 | ideal/global |
| Left cerebrum, Sub-lobar, Insula, Gray matter, Brodmann area 13, Range = 1 | (−37, −12, 13) | 17 | ideal/global |
| Right cerebrum, Parietal lobe, Precuneus, Gray matter, Brodmann area 7, Range = 1 | (1, −48, 49) | 247 | ideal/global |
| Left cerebrum, Frontal lobe, Sub-Gyral, White matter (No gray matter found within ± 5 mm) | (−35, −18, 31) | 35 | ideal/global |
Overlapping brain regions, standard conjunction analysis.
Location of center of mass includes output from Talairach Client set to search nearest gray matter to given coordinates.
TABLE 4
| Location of center of mass | Talairach coordinates (x, y, z) | Extent (voxels) | Condition |
| Left cerebrum, Occipital lobe, Inferior occipital gyrus, Gray matter, Brodmann area 17, Range = 1 | (−19, −94, −6) | 173 | real/local |
| Right cerebrum, Occipital lobe, Lingual gyrus, Gray matter, Brodmann area 18, Range = 0 | (28, −97, −3) | 43 | real/local |
| Right cerebrum, Limbic lobe, Parahippocampal gyrus, Gray matter, Brodmann area 19, Range = 1 | (17, −49, −5) | 26 | ideal/global |
| Right cerebrum, Occipital lobe, Lingual gyrus, Gray matter, Brodmann area 18, Range = 0 | (11, −68, 1) | 27 | ideal/global |
| Right cerebrum, Occipital lobe, Middle temporal gyrus, Gray matter, Brodmann area 19, Range = 2 | (43, −62, 13) | 61 | ideal/global |
| Left cerebrum, Temporal lobe, Middle temporal gyrus, Gray matter, Brodmann area 39, Range = 4 | (−38, −71, 16) | 42 | ideal/global |
| Right cerebrum, Parietal lobe, Inferior parietal lobule, Gray matter, Brodmann area 40, Range = 1 | (60, −35, 28) | 41 | ideal/global |
| Right cerebrum, Parietal lobe, Precuneus, Gray matter, Brodmann area 7, Range = 0 | (4, −49, 50) | 41 | ideal/global |
Overlapping brain regions, strict conjunction analysis.
Location of center of mass includes output from Talairach Client set to search nearest gray matter to given coordinates.
We also conducted a conjunction analysis in the opposite direction in order to determine the extent of overlap between real-self coaching and global attention as well as ideal-self coaching and local attention. Pairing the task conditions opposite to the predicted direction produced limited results, as shown in Table 5. Using the standard threshold (less strict), 1,031 voxels showed overlap for global-real/local-ideal as compared to 3,469 voxels for global-ideal/local-real. Moreover, there was no overlap at all for global-real/local-ideal using the strict threshold for conjunction analysis. This is further support for one of the hypotheses of this study (i.e., that ideal self coaching is associated with global processing and real self coaching is associated with local processing at the neurobiological level).
TABLE 5
| Location of center of mass | Talairach coordinates (x, y, z) | Extent (voxels) | Condition |
| Left cerebellum, Posterior lobe, Pyramis, Gray matter, Range = 0 | (−19, −77, −34) | 38 | real/global |
| Left cerebrum, Temporal lobe, Middle temporal gyrus, Gray matter, Brodmann area 22, Range = 3 | (−52, −40, 0) | 203 | real/global |
| Left cerebrum, Frontal lobe, Inferior frontal gyrus, Gray matter, Brodmann area 47, Range = 5 | (−41, 33, 2) | 38 | real/global |
| Right cerebrum, Temporal lobe, Middle temporal gyrus, Gray matter, Brodmann area 22, Range = 0 | (65, −37, 5) | 30 | real/global |
| Left cerebrum, Occipital lobe, Cuneus, Gray matter, Brodmann area 18, Range = 0 | (−5, −95, 14) | 30 | real/global |
| Left cerebrum, Frontal lobe, Inferior frontal gyrus, Gray matter, Brodmann area 44, Range = 2 | (−49, 10, 19) | 33 | real/global |
| Left cerebrum, Temporal lobe, Superior temporal gyrus, Gray matter, Brodmann area 39, Range = 1 | (−56, −62, 19) | 33 | real/global |
| Right cerebrum, Frontal lobe, Middle frontal gyrus, Gray matter, Brodmann area 9, Range = 0 | (48, 14, 27) | 18 | real/global |
| Left cerebrum, Frontal lobe, Superior frontal gyrus, Gray matter, Brodmann area 8, Range = 0 | (−2, 32, 44) | 113 | real/global |
| Left cerebrum, Frontal lobe, Middle frontal gyrus, Gray matter, Brodmann area 9, Range = 3 | (−40, 10, 40) | 67 | real/global |
| Right cerebrum, Parietal lobe, Inferior parietal lobule, Gray matter, Brodmann area 40, Range = 0 | (37, −39, 48) | 175 | real/global |
| Left cerebrum, Frontal lobe, Middle frontal gyrus, Gray matter, Brodmann area 6, Range = 0 | (−38, −1, 49) | 20 | real/global |
| Left cerebrum, Frontal lobe, Precentral gyrus, Gray matter, Brodmann area 4, Range = 0 | (−34, −24, 51) | 30 | ideal/local |
| Left cerebrum, Occipital lobe, Middle occipital gyrus, Gray matter, Brodmann area 19, Range = 5 | (−27, −77, 12) | 97 | ideal/local |
| Right cerebrum, Occipital lobe, Middle occipital gyrus, Gray matter, Brodmann area 19, Range = 3 | (31, −79, 11) | 80 | ideal/local |
Overlapping brain regions, standard conjunction analysis, opposite conjunction to hypothesis.
Location of center of mass includes output from Talairach Client set to search nearest gray matter to given coordinates.
Figure 5 depicts overlapping brain regions in the two conditions for the entire brain. This figure shows that different brain areas are involved in resolving conflict in favor of ideal-self/global features as compared to real-self/local feature.
FIGURE 5

Conjunction analysis (see “5. Materials and methods”) of coaching and visual attention conditions shown from lateral, medial, and posterior-lateral views of the left and right hemispheres. Overlap of ideal (>real) self and global (>local) attention conditions are shown in warm colors (orange and yellow). Overlap of real (>ideal) self and local (>global) attention conditions are shown in cool colors (blue and cyan). Darker colors (orange and blue) indicate regions that pass a standard threshold for cognitive conjunction. Brighter colors (yellow and cyan) indicate regions that also pass a stricter threshold. Overlap incongruent to the direction hypothesized was minimal and is not shown. Statistical maps were computed in volume space then projected onto the PALS average surface atlas (Van Essen, 2005).
As shown in Figure 5, the real/local conjunction was present in the posterior occipital love (e.g., left inferior occipital gyrus). This region, which includes parts of the primary visual cortex corresponding to more foveal parts of the visual field, is responsible for initial processing of fine-grained local visual features. The ideal/global conjunction lay more anterior in occipital cortex, lying at the junction between occipital and temporal lobes (e.g., extending posterior from the end of the middle temporal gyrus). This region is known as a visual associative area involved in processing of high-level visual features. The ideal/global conjunction also recruited regions in medial parietal and temporo-parietal junction known to be involved in visual attention.
7. Discussion
We found that ICT coaching to the Ideal (and Accepted) self activates neural regions associated with resolving attentional conflict in favor of the global features of Navon figures, whereas coaching to the Real (and Ought) self activates neural regions associated with resolving attentional conflict in favor of local features. Based on the standard cognitive conjunction analysis, more than three times as much cortex showed overlap in the manner predicted (ideal/global and real/local) than in the other direction (ideal/local and real/global). Based on the statistically strict cognitive conjunctional analysis, we only found overlap in the manner predicted. The clearest differences between the conjunctions of ideal/global and real/local related to distinct cortical regions within each hemisphere. This finding is consistent with prior neuroimaging studies of global vs. local perception (
It is notable that we found such extensive overlap between such disparate tasks. Our study design severely limits the psychological processes that can plausibly explain this overlap. In this regard, it is important to note that we were not looking for overlap in the main effects associated with the coaching and visual attention tasks. The coaching and visual attention tasks shared many features in common, such as visual perceptual and manual response demands. However, these cognitive components were identical or very similar for the paired tasks and so could not have influenced the contrasts used in the conjunction analyses. The visual attention task was highly decontextualized, containing no social or emotional cues of any sort. The conditions involved very similar stimuli and hence the differences in brain activity can only be plausibly attributed to attentional processes involved in resolving conflict in favor of global over local, and local over global representations, respectively. The coaching tasks were quite different from the visual attention tasks. They involved rich social cues that were contextualized by prior in person interactions with the two individuals that featured in the videos. On the other hand, there were no differences in visual perceptual demands between the two coaching conditions. The two coaching conditions involved video clips shot under identical conditions of the same two people (counterbalanced across participants for which condition they represented). That we nonetheless found extensive overlap both in early visual processing areas and in higher areas associated with visual attention provides strong support for ICT’s hypothesis that there is conflict between distinct aspects of the self and that attentional processes need to be recruited to resolve that conflict.
These findings support ICT’s contention that attentional processing is a highly relevant factor in determining how people respond to Ideal versus Real self-narratives (
The current findings suggest that thinking about the self is like being presented with a multifaceted visual stimulus. Given that psychological accounts of the self generally hold that the self is constructed, it might seem reasonable to suppose we can think about whatever aspect of the self we choose without constraint or conflict. The current finds suggest a rather different picture. It appears that instead we are bombarded by a variety of self-referential thoughts that we must choose between. This picture fits well with evidence from studies of mind wandering, stimulus unrelated thoughts, and random experience sampling, all of which indicate that we have a tendency toward spontaneous self-referential thoughts even when our attention is primarily directed outside the self (
The most practically significant implications of these findings concern the sequencing and emphasis of different types of self-narrative in coaching conversations. The conflict between Ideal and Accepted and Real and Ought selves suggests that coaches should be highly intentional about when and how they engage discussions about different aspects of the self. It has been hypothesized that PEA coaching (i.e., a focus on vision, values and compassion) enhances a person’s energy and increases internal resources needed for change efforts. In contrast, NEA coaching (i.e., a focus on current problems and challenges or perceived needs to change as proposed by others in one’s environment) decreases, drains and depletes internal resources available for such effort.
The correspondence between Ideal versus Real self coaching and global versus local perception provides important clues to why it is more effective to coach first and foremost to the Ideal self. One reason for this relates to goal construal. Empirical work related to Regulatory Focus theory has already established a link between visual attention and promotion versus prevention focus (
A second reason why it is more effective to coach first and foremost to the Ideal rather than the Real self relates to positive versus negative emotion. When the Ideal self is activated, it is accompanied by affirming thoughts, a connection to that which is deeply meaningful, and a sense of optimism and self-efficacy that correspond to an increase in positive emotions (
A third reason it is good to coach first and foremost to the Ideal self derives from Self-determination theory (SDT,
A fourth and final reason to adopt the ICT coaching sequence relates to Regulatory Focus Theory’s distinction between promotion and prevention motivation (
It is important to note that while the alternative theories mentioned help explain why coaching to the Ideal self is more effective, they fall short of predicting or explaining the results presented here. All three theories (Regulatory Focus and Fit Theories, Self-Determination Theory, and Broaden and Build Theory) suggest greater sustained motivation to change when thinking about the Ideal self rather than the Real self, however, they also suggest that it would be most effective to simultaneously think about both Ideal and Real aspects of the self. This is different from ICT, which claims the two ways of thinking are in conflict. First, the Regulatory Focus Scale (
A strong implication of the current findings is that coaches should begin a coaching engagement by focusing as much as possible on the Ideal self. This exploration should then be used to frame subsequent conversations about the Real self, rather than allowing externally imposed needs and objectives to frame consideration of the Real self. Coaches should also focus on developing the individual’s strengths rather than their weaknesses, and they should employ empathic listening. These strategies should increase acceptance of the Real self. This will minimize the unintended and counterproductive psychological processes associated with thinking about the Real and Ought self that result in resistance, denial, and willfulness. These processes include negative emotion, prevention focused motivation, extrinsic motivation, and interference with thinking about Ideal and Accepted aspects of the self. This recommendation differs markedly from some current approaches to coaching that recommend making a presenting problem or specific change goal the predominant context and focus of the coaching conversation.
7.1. Limitations and future research
Several limitations to our study should be noted. First, the temporal orientation of coaching to the ideal self versus coaching to the real self may play a role in our results. Coaching to the ideal self leans toward the future, but also engages reflection and discussion of people who have helped a person in the past and their present core values. The real self leans toward the present, but it also addresses anticipated problems in the future. Research examining the effect of imagining an event (e.g., locking a door) in the distant versus near future demonstrated that distant events were associated with higher-level construal (e.g., securing the house) whereas proximal events were associated with lower-level construal (e.g., putting the key in the lock; Trope, 2003). We attempted to control for temporal effects in the coaching task by including an equal number of statements that were focused on the past, present, and future in each coaching condition. Further research is needed to tease apart the temporal domain to determine if it has an effect on neural activation.
Second, there is evidence that the positive-global and negative-local association may be dispositional. Trait anxiety and depression have been associated with a local bias, whereas positive mood and optimism have been associated with a global bias and inversely related to a local bias (
Third, it is widely noted that fMRI represents a measure of neural processing which is both indirect (e.g., dependent on the existence of a reliable vascular response to neural activity) and correlational (e.g., might reflect neural activity which is not necessary for completion of the given task). While both these limitations are present for all fMRI research, it is worth noting that experimental work establishes that fMRI is a highly reliable measure of neural activity (
Fourth, it might be objected that the logic of this study depends on what cognitive neuroscientists refer to as “reverse inference.” Reverse inference occurs when psychological processes are inferred from brain activity. As Russ Poldrack and others have influentially argued, many instances of reverse inference are invalid (
Fifth, the population studied was limited to young adults. It is possible that attentional competition between ideal and real aspects of the self is greater in this population than older populations. Indeed, Jung and Rogers might both be read as predicting a diminution in competition between ideal and real self with increasing psychological maturity. There are a couple of reasons this may occur. One possible reason is that as the individual matures and learns from experience, their real self comes to better approximate their ideal self. Another possible reason is that as the individual matures, they come to accept aspects of their real self they previously rejected. We hypothesize that ICT coaching brings about both these changes. We welcome future studies that empirically test these intriguing possibilities.
Sixth, it might be argued that a more convincing way to establish conflict between Ideal and Real selves would involve a behavioral test. We welcome this, however, we note there are difficulties that would make such an experiment challenging. Both broaden-and-build theory and regulatory focus theory have found support by measuring reaction time to Navon figures. This evidence provides excellent support for the claims that positive emotion and promotion focus are associated with global perception, whereas negative and emotion and prevention focus are associated with local perception. However, these findings do not provide evidence for the existence of conflict between positive and negative emotion, or conflict between promotion focus and prevention focus. The presence of an attentional bias toward one aspect of a real or imagined stimulus (or other mental construct such as the “self”) over another aspect need not entail those aspects are in conflict. Further, broaden-and-build theory does not claim any conflict between positive and negative emotion nor does regulatory focus theory claim conflict between promotion and prevention motivation. Even if it were shown that there was both speeding of response to global (local) features and slowing of response to local (global) features of a Navon figure relative to a baseline condition, this would still be insufficient. The reason is that active conflict between global and local features is inherent to the Navon figure, therefore any evidence for attentional competition might be due to the test stimulus used rather than conflict between the underlying psychological processes being assessed. A behavioral demonstration of conflict between different emotional or motivational states would require the use of test stimuli that do not themselves generate attentional competition. Given the difficulties inherent in carefully controlling social cognition, the need to have participants repeatedly elicit genuine thoughts about their Ideal and Real selves, and the large number of trials that would be required to reliably measure reaction time differences, these authors believe it would be very challenging to construct a behavioral test statistically sensitive enough to provide evidence for or against attentional competition between Ideal and Real selves. We would be glad to be proven wrong about this by enterprising researchers. Potentially the negative priming paradigm (Tipper, 1985) could be used as inspiration for such a design.
Seventh, some readers may be inclined to think that links between visual perception and aspects of the self are metaphorical at best. More specifically, the objection might be made that the conceptual gap between the psychological processes involved in personal development on the one hand, and the neural processes involved in visual perception on the other hand, is too great to be bridged by a single study. We agree that these links have traditionally been thought to be abstract and purely metaphorical, however, we point to several reasons for believing that these metaphorical links reflect concrete and real connections. First, some 30% of the human brain is involved in visual processing. It would be surprising and wasteful if evolution had not caused this extensive computational machinery to be co-opted to assist other types of cognitive processing. Second, our previous neuroimaging study showed that brain regions traditionally thought to be specialized for visual processing are also engaged during effective coaching. This reveals a concrete basis for the metaphorical links between personal development and visual perception. Third, a substantial body of work on embodied cognition (
8. Conclusion
The current study used fMRI to test the hypothesis of conflict between thinking about Ideal and Real aspects of the self. We conducted a conjunction analysis to find evidence of overlap in brain activity between starkly different tasks. On the one hand, we used a coaching task to compare coaching focused on the Ideal self with coaching focused on the Real self. On the other hand, we used a visual attention task to assess brain areas associated with resolving attentional conflict generated by Navon figures in favor of either global or local perceptual features. We found substantial overlap between the two task contrasts. This provides further empirical support for intentional change theory’s (ICT) assertion that PEA coaching is associated with “big picture” global processing whereas NEA coaching is associated with more detail-oriented local processing. Furthermore, it supports ICT’s hypothesis that, similar to the global and local features of Navon figures, there is inherent conflict between Ideal and Accepted aspects of the self and Real and Ought aspects of the self. ICT not only asserts that there is attentional competition but also that an initial focus on the Ideal self facilitates behavior change whereas early consideration of the Real self inhibits behavior change. To help their clients effectively process feedback from co-workers and others, coaches need to foster greater acceptance of the Real self by (i) framing exploration of the Real self as being in service of the Ideal self and (ii) focusing on developing the individual’s strengths rather than fixing their weaknesses. We discuss three other psychological theories which provide further support that thinking about the Ideal self is more effective at producing behavior change. Individuals whose ideal self is salient are better able to scan the broad environment and perceive emerging themes. They experience more positive emotion, are more open to new ideas, and possess more sustained intrinsic motivation. If the current findings are further confirmed, organizations should be made aware of the likely costs of imposing organizational goals on the coaching process. Coaches will have greater success at engendering the positive change sought by organizations by accepting that the coaching process must be framed purely in terms of the individual’s personal vision of an ideal future, rather than framing the coaching process in terms of presenting problems. Coaching certification processes would also want to be changed to reflect this shift in emphasis early in the coaching process and in the rubric used to code recorded coaching sessions for determining certification levels.
Statements
Data availability statement
The raw data supporting the conclusions of this article will be made available by the authors, without undue reservation.
Ethics statement
The studies involving human participants were reviewed and approved by the Case Western Reserve Institutional Review Board. The participants provided their written informed consent to participate in this study. Written informed consent was obtained from the individual(s) for the publication of any identifiable images or data included in this article.
Author contributions
AP led the data collection, analyzed and interpreted the behavioral data. AJ analyzed and interpreted the brain imaging data. AJ and AP wrote the manuscript. All authors contributed to the experimental design, theoretical framing, and editing of the manuscript.
Acknowledgments
We would like to thank Hector Martinez and Abigail Dawson for their help with data collection and analysis.
Conflict of interest
The authors declare that the research was conducted in the absence of any commercial or financial relationships that could be construed as a potential conflict of interest.
Publisher’s note
All claims expressed in this article are solely those of the authors and do not necessarily represent those of their affiliated organizations, or those of the publisher, the editors and the reviewers. Any product that may be evaluated in this article, or claim that may be made by its manufacturer, is not guaranteed or endorsed by the publisher.
Footnotes
1.^For an overview see https://vimeo.com/17012062
2.^This label is misleading because the anterior cingulate cortex is a massive structure that can be subdivided into functionally distinct parts. Further, while the relevant cortical area overlaps part of the anterior cingulate it also involved paracingulate and medial prefrontal cortical areas.
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Summary
Keywords
fMRI, intentional change theory, self-knowledge, coaching, behavior change, self-acceptance and growth
Citation
Jack AI, Passarelli AM and Boyatzis RE (2023) When fixing problems kills personal development: fMRI reveals conflict between Real and Ideal selves. Front. Hum. Neurosci. 17:1128209. doi: 10.3389/fnhum.2023.1128209
Received
20 December 2022
Accepted
11 July 2023
Published
03 August 2023
Volume
17 - 2023
Edited by
Nick Lee, University of Warwick, United Kingdom
Reviewed by
Lu Wang, Stevens Institute of Technology, United States; Miquel Alabèrnia Segura, University of Barcelona, Spain
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Copyright
© 2023 Jack, Passarelli and Boyatzis.
This is an open-access article distributed under the terms of the Creative Commons Attribution License (CC BY). The use, distribution or reproduction in other forums is permitted, provided the original author(s) and the copyright owner(s) are credited and that the original publication in this journal is cited, in accordance with accepted academic practice. No use, distribution or reproduction is permitted which does not comply with these terms.
*Correspondence: Anthony Ian Jack, tony.jack@gmail.com
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