A key component of leadership development is feedback through assessments (Church & Rotolo, Reference Church and Rotolo2013; Day, Fleenor, Atwater, Sturm, & McKee, Reference Day, Fleenor, Atwater, Sturm and McKee2014; Tornow & London, Reference Tornow and London1998). This includes 360-degree assessments (in which feedback is systematically garnered from multiple people), personality or learning assessments, or feedback from a coach or peer. Regardless of the source, rich assessment experiences help leaders understand what they are good at, as well as confront what they need to change, learn, or stop doing (McCauley, Van Velsor, & Ruderman, Reference McCauley, Van Velsor, Ruderman, Van Velsor, McCauley and Ruderman2010). Thus, feedback via assessment acts as both catalyst and compass for developing goals for greater effectiveness. We propose that the emerging industry of self-tracking technologies holds the potential to create a new avenue for leadership development assessment and feedback; however, more research and development are needed before such technologies can reach this potential.
The quantified-self and leadership development
The practice of tracking one's own reactions is not new. Researchers and laymen alike have long used logs to record and reflect on experiences and notice changes over time. However, recent advances in biometrics and sensor technologies have revolutionized how, and what, individuals can self-track. In 2007, Wired writers Gary Wolf and Kevin Kelly coined the term “quantified self” to describe this new technology-based form of self-tracking, or “self-knowledge through numbers” (https://qsinstitute.com/). Since then, both the term and the concept have taken off, and are now considered a worldwide movement (Swan, Reference Swan2012).
Often associated with wearable technologies (digital technologies worn on the body), quantified-self tracking systems help individuals gauge how they interface with the world, automatically capturing data and monitoring responses for the purposes of learning, growth, and change. The widespread use of fitness trackers and smartphones have made sensor-enabled wearables of all types commonplace (examples include wristbands, clip-on devices, digital badges, jewelry, apparel, and headgear). These technologies are usually paired with digital applications, which offer simplified, real-time data dashboards providing feedback on the metrics being assessed. The use of sensors to monitor and change psychophysiological properties, or somatic data, is a rapidly growing industry (Lupton, Reference Lupton2012; Millings et al., Reference Millings, Morris, Rowe, Easton, Martin, Majoe and Mohr2015), with trend reports predicting large expansions in wearable technology in the next five years—both in terms of devices and usage (Page, Reference Page2015; Wurmser, Reference Wurmser2019).
While the quantified-self movement initially focused largely on everyday health and fitness, there is a burgeoning interest in how this technology can be applied to the workplace (PricewaterhouseCoopers, 2016; Schatsky & Kumar, Reference Schatsky and Kumar2018). Organizational wellness initiatives are rapidly incorporating fitness trackers (Pettey, Reference Pettey2018). Hospitals and healthcare providers are exploring how self-tracking can be used to supplement healthcare systems (Kroll, Boyd, & Maslove, Reference Kroll, Boyd and Maslove2016). Self-tracking systems are being tested to improve workplace safety, such as tracking work hours and exhaustion to prevent factory accidents (Rausch, Reference Rausch2016) or medical incidents (Peixoto, Ribeiro, Pereira, Nunes, & Pereira, Reference Peixoto, Ribeiro, Pereira, Nunes and Pereira2018).
Given the escalating interest and versatility in wearables and self-tracking devices, we believe it is a matter of time before such tools are applied to other aspects of organizational life—including leadership development. Indeed, consumer reports already indicate that individuals believe wearables can increase their efficiency at work, and they expect their organizations will provide them with self-tracking technology in the future to help with productivity (PricewaterhouseCoopers, 2016). To this end, organizations are beginning to partner with technology providers to determine how wearables can increase operational efficiency, augment employee abilities, and increase self-awareness (Schatsky & Kumar, Reference Schatsky and Kumar2018).
Self-tracking technologies are appealing because they have the benefits common to data-based interventions—they allow for exploration of the current state, provide images of a desired state, and provide the feedback necessary for practice and implementation. We believe that such technologies could be beneficial for leadership development in that it would shift assessment from the occasional event to an ongoing learning process embedded into everyday work life—a change that learning and development professionals have been advocating for years (Bersin, Reference Bersin2017; McCauley, DeRue, Yost, & Taylor, Reference McCauley, DeRue, Yost and Taylor2014). Furthermore, self-tracking measures have high ecological validity because they are collected in real-world settings; and quantified-self sensors and apps allow for a formative approach to learning, enabling individuals to identify discrepancies between current assessment scores and desired scores.
But despite the emerging trend of quantified-self feedback at large, the use of these tools for developing leaders is in its infancy. There has been little discussion in the field to date as to how industrial and organizational (I-O) psychology practitioners could leverage “the quantified leader” for development purposes. What are the best practices? Which measures are relevant to leader development? What are common pitfalls or limitations? Who would benefit? In this practice forum, we share our experiences exploring these technologies as leadership development practitioners. We conducted several field tests to learn more about the use of self-tracking technologies for development purposes. We share our preliminary results, and offer future directions—and precautions—as to how the field can better leverage the quantified-self movement for leader development purposes.
Can wearable technology address the needs of leaders?
Leaders are challenged to improve performance—their own and others’. At the heart of this challenge is often the need to build self-management skills, or intrapersonal competence (Silzer & Church, Reference Silzer and Church2009). Often difficult to measure, intrapersonal skills help people to maximize performance in a variety of situations, including those that are pressured or risky. Leadership development experts have identified three aspects of intrapersonal competence: self-awareness, self-regulation, and self-motivation (Day, Reference Day2000; McCauley, Reference McCauley2000). These competencies help leaders guide themselves in the face of changing or uncertain circumstances by enhancing self-direction. Using a data-based approach, technology-fueled self-tracking tools hold the potential to integrate goals related to intrapersonal competencies into a leadership development curriculum.
Traditional 360-degree assessments offer leaders self-awareness on general competencies (e.g., that they are seen as lacking composure under pressure); but rarely include the nuanced and operationalized information needed regarding how to adjust behaviors and perform more effectively. In contrast, self-tracking devices offer not only awareness of data (e.g., an initial sign of lack of composure, such as elevated heart rate), but the data are broken into quantifiable, physical, microcomponents (e.g., the number of beats per minute), enabling the setting of highly specific goals. In addition, digital dashboards assist with self-regulation by providing frameworks for planning change, guidance about what changes to make, and monitoring of progress. As leaders attempt to change, the devices offer real-time information regarding the effectiveness of their behaviors, helping leaders understand and achieve self-regulation. Moreover, continuous evaluative feedback also acts as a powerful self-motivator (Burgers, Eden, van Engelenburg, & Buningh, Reference Burgers, Eden, van Engelenburg and Buningh2015) because frequent feedback can reinforce intentional efforts to change. In short, self-tracking helps to shed light on microcomponents of behaviors, thus creating the possibility of improved mastery of these behaviors.
Self-tracking technologies are also promising because they measure the psychophysical aspects of leadership that can be difficult to observe or articulate by human raters—for example stress level, alertness, reaction time, vocal tone, and emotional valence. There is often a temptation to ignore these sorts of intangibles in leadership development because they are hard to measure and develop. However, these intangibles affect the quality of performance and can impact perceptions of ability, and subsequently, leadership attainment. While these systems offer metrics on a wide variety of psychophysical aspects, for the purposes of our exploration we focused on three topics that we believe are central to both performance and being seen as a leader: management of reactions to stress, fatigue management, and vocal mannerisms. Next, we explain our rationale for selecting these topics, along with how and why leaders can use self-monitoring devices to address self-management in these areas.
Stress reactions
Stress is one of the most persistent challenges of leaders in particular (Harms, Crede, Tynan, Leon, & Jeung, Reference Harms, Crede, Tynan, Leon and Jeung2017) and the workforce at large (American Psychological Association, 2017). Leaders are often asked to act during stressful situations, and it can be challenging to respond in a healthy way. The experience of stress corresponds with two clear physiological signals: heart rate variability and ectodermal skin response. Heart rate variability (HRV) measures the beat-to-beat changes in heart rateFootnote 1 and is considered an accurate measure of autonomic nervous system activation. Generally, low HRV (or less variability in heartbeats) indicates that the body is under stress. A higher HRV indicates better emotion regulation abilities (Appelhans & Luecken, Reference Appelhans and Luecken2006). HRV patterns can be measured through a variety of heart rate monitors and are typically presented on a data dashboard associated with a sensor.
The ectodermal skin response refers to the amount of sweat produced by the body. When the sympathetic nervous system (SNS; i.e., “fight or flight” system) is aroused, sweat glands are activated, which increases skin conductance. This can be measured through an ectodermal activity (EDA)Footnote 2 sensor. EDA rises in response to environmental threats such as fear or unfairness (Dunn, Evans, Makarova, White, & Clark, Reference Dunn, Evans, Makarova, White and Clark2012). EDA sensors have a long history of being used in psychological research and biofeedback devices (Hentschely, Smith, & Draguns, Reference Hentschely, Smith, Draguns, Hentschely, Smith, Draguns and Ehlers2004). Modern devices often require pressing a fingertip against a sensor, as the extremities are a good place to measure skin conductance.
Although they work differently, both HRV and EDA sensors assess physiological signals associated with stress. Monitoring these physiological aspects of stress allows leaders to increase awareness of what triggers bodily stress reactions, explore their feelings, and experiment with ways to regulate and modify reactions to respond more effectively. This is especially important in the workplace, where the body's default responses may not be effective for leadership purposes (e.g., “fight or flight” are rarely good options during a stressful business meeting). Because skin conductance and heart rate variability are not controlled consciously, they offer insights into subconscious physiological responses and emotional experiences. The sensors are associated with feedback apps that provide guidance on how to regulate responses. With repeated practice, the devices can be used to teach self-regulation strategies such as lowering SNS activation or changing cognitive interpretations of the situation. Use of the monitors allows people to understand the efficacy of their attempts to respond to internal bodily reactions. Moreover, both HRV and EDA readings can be associated with meditative states, making it possible to use these tools to teach contemplative practices to leaders, which, in turn, may lead to more effective reactions to stress.
Understanding the physiological signals associated with stress is not only helpful as distressing situations occur but also post-situation when rumination gets in the way of thinking clearly (Roger & Petrie, Reference Roger and Petrie2017). Being able to read these signals can be helpful in learning to adeptly express emotions. Furthermore, learning to regulate responses to stress is at the center of resilience training and can influence how people speak and act when experiencing stress.
Fatigue
Fatigue impacts performance and increases the risk of errors and accidents (Sonnentag, Binnewies, & Mojza, Reference Sonnentag, Binnewies and Mojza2008). Although there are many ways to assess fatigue, we focused on fatigue associated with lack of sleep. In today's “always on” work culture of travel and 24/7 accessibility, sleep is perhaps leaders’ most important personal resource. Lack of sleep has been linked to lower performance, including problems with emotion regulation, memory, attention, and problem solving (Nowack, Reference Nowack2017). But despite the solid scientific evidence, many leaders do not get enough sleep. A Center for Creative Leadership survey found that 42% of leaders get fewer than 6 hours of sleep a night—a far cry from the recommended level of 8 hours (Clerkin, Ruderman, & Svetieva, Reference Clerkin, Ruderman and Svetieva2017). In the US, 23% of employees report being too sleepy to function (Kessler et al. Reference Kessler, Berglund, Coulouverat, Hajak, Roth, Shahly and Wash2011). Yet, unlike other safety issues, such as washing hands or wearing safety goggles, it is very difficult for organizations to mandate the sleep required to prevent fatigue.
Sleep and fatigue monitoring have become a focus in medicine, athletics, and the military, and several sleep tracking tools are now available. At present, actimetry sensors are the most promising: generally worn on the wrist like a watch, they measure gross motor activity and can be used to calculate variables such as total sleep time, sleep efficacy, sleep onset latency, and wakefulness after sleep onset. There currently are many types of actimetry sensors, and they differ in their sophistication. Like the tools for monitoring responses to stress, actimetry sensors can help leaders become more aware of their habits, analyze them, and work on self-improvement. The data help people to explore their sleep habits, understand measures associated with sleep deprivation, and associated apps can provide relevant advice to improve sleep performance and lower fatigue. For instance, leaders can use data about their circadian rhythms the way that military and athletes do: to strategize when to do challenging tasks and when to avoid dangerous or high-risk situations.
Vocal characteristics
Leaders need to be skilled speakers—persuading high-level stakeholders or rallying underperforming troops. Yet anxiety around public speaking is common, affecting 15–30% of adults and even interfering with work responsibilities (Glassman et al., Reference Glassman, Herbert, Forman, Bradley, Izzetoglu, Ruocco and Goldstein2014). In fact, the anticipation of public speaking is used in experiments to induce social anxiety (Durlik, Brown, & Tsakiris, Reference Durlik, Brown and Tsakiris2014). In the leadership literature, strong vocal delivery has been linked to positive leadership characteristics, including charisma (Awamleh & Gardner, Reference Awamleh and Gardner1999; Den Hartog & Verburg, Reference Den Hartog and Verburg1997) and credibility (Holladay & Coombs, Reference Holladay and Coombs1993, Reference Holladay and Coombs1994). Research by DeGroot and Motowidlo (Reference DeGroot and Motowidlo1999) suggests that vocal cues can be valid indicators of perceived promotability in organizations. Moreover, research suggests that training can help speakers gain conscious control over their voices (Sulter, Schutte, & Miller, Reference Sulter, Schutte and Miller1995).
Traditionally, leaders have gotten feedback on their communication in an impressionistic way. While this is invaluable, it is also subjective. In recent years, technologies have led to an increased understanding of vocal mannerisms (Niebuhr, Voße, & Brem, Reference Niebuhr, Voße and Brem2016). Quantified-self assessments of communication (known as voice analytics) offer objective acoustic measurements—using voice analysis algorithms to identify the different features of voice. Vocal characteristics typically analyzed include pitch, pitch variability, pausing, pace, disfluencies, and volume variability. These features are then converted to outcome data, which can be used to understand vocal capabilities. Training with such tools can help speakers gain insights, confidence, and vocal control. As with other data-based development tools, the feedback reports are accompanied with automated and personalized performance coaching; the easy, repeated use of such tools allows for practice and implementation of improved techniques. The technology allows for the setting of very specific goals and repeated practice to reach those goals.
Testing the tools
There were a wide variety of self-tracking sensors claiming to provide assistance with stress management, sleep/fatigue management, and vocal characteristics. We restricted our testing to tools that appeared to be appropriate for augmenting leadership talents. Influenced by an inquiry approach (Argyris & Schon, Reference Argyris and Schon1978), our testing was intended to understand and appreciate the experiences of users (i.e., both leaders and leadership development practitioners). All of the tools we chose are intended to help individuals better understand their interior state and hard-to-control responses, allowing for repertoires to be broadened and more constructive responses identified. Since the technology is changing rapidly, we do not offer detailed descriptions of specific tools, but rather discuss the general themes and concerns that emerged. We used a multistage process to examine the instruments. Each phase had a series of checkpoints that had to be reviewed to get to the next phase (see Table 1). This examination is just the beginning because the experimental evidence on the efficacy of these tools for leadership development is currently lacking.
Table 1. Multistage process used for device examination
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First, we located and reviewed the available tools. Because of the infancy of the field, formal databases such as EBSCO Psychology and EBSCO Business did not yield any peer-reviewed articles on the use of self-monitoring devices for leadership development purposes, so we identified available tools based on searches of Google, user reviewers, and conversations with colleagues. We looked for tools that (1) appeared to be appropriate for use with leaders in formal development or learning settings; (2) included sufficient information about the scientific basis for metrics; (3) were within a modest price range; (4) were based on a theory recognized as supported by evidence; and (5) recommended activities to improve scores. Of the approximately 20 tools found, a total of 8 devices were selected, including a combination of wristbands, optical monitors, chest straps, and sensors.
Next, both authors tested the tools on themselves, focusing on practicality and face-validity for use in leadership development programs. We examined aspects such as comfort, simplicity, wireless capability, battery life, cleaning, and safety risks. We used each tool for at least a week. Two main issues resulted in eliminating devices at this stage: (1) discomfort or impracticality; (2) meaningless data (due to vague or inaccurate data summaries or devices that did not detect meaningful amounts of variation). If we could not get them to work consistently in a way that made sense to us, we did not ask others to use them. Five devices were identified as suitable for further testing.
Our next step was to test the user experience with a larger group of colleagues (between 10 and 20 people, depending on the device). We sought out people of different ages, body types, and genders who worked in the field of leadership development. We thought of them as “beta-testers” rather than subjects. Afterward, we conducted informal debriefings, asking them to share their candid reactions regarding usability, face-validity, helpfulness, and the impact of using the tools. We learned that not all devices work well for all people. In several tests, people had technological issues syncing the monitor with the analytic software, resulting in diminished value of the data visualizations. In most cases, we found that people required more in-depth direction and coaching around the use and output of the tools. Only two devices were identified as suitable for use with clients in the leadership classroom. These devices were user-friendly, scientifically sound, and encouraged deep meaning-making with the data. They provided skills training and feedback about progress with relationship to metrics, and the relevance to the “how” of leading was clear.
Quasi-experimental tests in leadership development settings
In this phase of testing we were interested in user impact, face validity, construct validity, and criterion validity. From a client standpoint, the tools had to feel relevant and useful to the leaders who were investing time and money in development; and from a research–practitioner standpoint, we wanted to know if the tools explained leadership outcomes and how similar they are to other assessments (e.g., 360s, personality tests, expert observations). We were also extremely interested in feedback on the user experience.
HRV monitor device
We tested an HRV monitor device for face validity and impact in several classrooms and got generally positive feedback. People found it easy to use and were interested in becoming more aware of the connections between physiology, behavior, and feelings of stress. However, we also experienced some difficulties: there was substantial variation in how easily participants in a classroom setting adjusted to using the devices.
Following these pilots, we conducted a quasi-experimental study to see if the use of the monitor in conjunction with an associated meditative breathing app was effective at building resilience to stress, among other measures (Ruderman & Clerkin, Reference Ruderman and Clerkin2015). The app provided both instructions as to how to breathe in a way believed to lower stress, as well as real-time feedback from the sensor regarding heart rate variability. We asked clients to volunteer to use the monitors and the breathing technique for at least 5 minutes a day for 5 days while participating in a standard leadership development classroom. Seventy of 73 participants volunteered, and 65 participants used the monitors at least 4 out of 5 days.
Overall, we did not find statistically significant self-reported differences between this experimental group and those in the standard program.Footnote 3 However, we did find a positive relationship between HRV-related scores on the app and self-ratings of resilience; specifically, participants who on average “scored higher” on the breathing app (i.e., were evaluated as having calmer breathing patterns) also showed more gains in a self-report measure of resilience between day one and day five.Footnote 4
Voice analytics
The second device that made it to client testing was a voice analytic tool. The tool allowed individuals to record their voice using an app, and then upload the recording to a personalized data dashboard that provided numeric scores on a variety of vocal qualities as well as a coaching section that offered feedback for improvement. As with the HRV monitor, we first piloted the device in several classrooms, asking leaders for their feedback about the user experience. Again the responses were positive, with most people finding the app intuitive and the dashboard accurate. Users liked seeing what they were doing well and the provision of specific suggestions for improvement in areas needing development. We experienced fewer technical issues with this device (largely because it was not a wearable, but a voice recording app connected to software). A field study examining the predictive validity of this tool is currently underway. Preliminary results suggest a positive correlation between higher vocal scores as rated by the software and leader emergence within classroom settings. Thus, we have some evidence that this particular self-tracking tool is relevant for leadership development.
Lessons learned: Essential factors for using self-tracking tools in leadership development
Our pilots indicated that there is both acceptance and demand among clients for using self-tracking tools; however, few tools were both rigorous and accessible enough to be a good resource for leadership learning and development. The tools that had the most promise provided very specific feedback and helped users to intuitively connect behaviors and outcomes. Based on our experiences, we identified six factors that practitioners should consider when exploring these tools for leadership development. These factors, along with details about our experiences and advice, can be found in Table 2.
Table 2. Six factors to consider before using self-tracking tools for leadership development
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Finding the right device is not the only requirement for successful implementation of self-tracking tools. Once an appropriate tool is identified, human motivation and support also need to be taken into consideration. Just as with the success of any other tool for development, there must be a commitment to using the tool and processing the feedback. For example, in our HRV/breathing intervention, we noticed that one or two participants used the practice time to check emails, ignoring the biofeedback on the screen. In such cases, the quality of data matters little if leaders lack intrinsic motivation. As with most efforts to change personal habits, intention to change matters (Prochaska & DiClemente, Reference Prochaska, DiClemente, Norcross and Goldfried2005). Self-tracking tools raise consciousness and can reinforce new behaviors, but they cannot force someone who is resistant or skeptical of different habits to try something new. Just as with other learning interventions, readiness to change is critical (Rafferty, Jimmieson, & Armenakis, Reference Rafferty, Jimmieson and Armenakis2012). The tools require both setting specific goals and putting in the practice time to reach them.
Additionally, the impact of self-tracking data will be limited if there is no support for development or change. As with other forms of assessment, the data itself is a starting point. Leaders need to know how to leverage the data to develop a personalized and operationalized strategy for self-development. The organizational culture also needs to support change efforts. Practitioners could offer supplemental materials and/or coaching to help leaders make the connections they need. Educators may be able to offer insights as to how to use these tools from a lifelong learning perspective. They could also help combine them with other tools in pedagogically meaningful ways and provide input as to the importance of practice. Some devices can connect to social networks that could be used to help leaders with goals and accountability. As with most development processes, ongoing practice and social support are essential.
What is the future of quantified-self methods in leadership development?
Based on our experiences with self-tracking tools, we believe they can become a meaningful component of leadership development—if more research is done, and if the technology becomes more accurate. These tools offer the promise of real-time feedback to help leaders optimize their performance. However, to realize this promise, the technologies need insights and contributions from I-O psychologists. There is an opportunity for I-O researchers and leadership development practitioners to collaborate with experts in emotional regulation, sensor technology, and psychophysiology to not only leverage self-tracking devices, but to help shape the future design and implementation of these tools. In particular, there are four areas that we think would benefit from more I-O psychologist involvement in order to make these technologies useful to our field: validity standards, data relevance, ethical issues, and universal usability.
Validity standards
We found that some of the sensors were not as accurate or sensitive as they should be for use in leadership development. Both the EDA and HRV monitors got confounded by extraneous movements. The voice analytic tool was limited by extraneous sounds. Even the sleep monitor occasionally confused watching TV with sleeping. Other reviews of quantified-self options have come to similar conclusions (Donker et al., Reference Donker, Petrie, Proudfoot, Clarke, Birch and Christensen2013). Performance monitoring is only as good as the measures. We have metric standards for looking at the reliability and validity of 360-degree feedback scales; analogous guidelines are necessary for monitors for self-development. In addition, despite the strong fascination with the use of self-tracking tools, proven evidence of efficacy for behavior change is lagging. I-O psychologists should take an active role in establishing the field standards regarding the threshold of accuracy that should be met for purposes of leader development.
Data relevance
Every tool we examined promised to provide insights through data, but the data provided were often not useful for our needs. For instance, several devices simply offered basic metadata such as location, date, or amount of time used. While these types of data are valuable for user or marketing research, they are of little use to I-O psychologists or leaders. This is critical, given that a recent qualitative study on fitness trackers found that individuals were more likely to use trackers when the data were useful, accurate, and aligned with a previously formed goal (Canhoto & Arp, Reference Canhoto and Arp2017). There is a marked opportunity for I-O psychologists to help create tools that provide data that are relevant to leadership and/or the workplace. Based on our review, we believe that much of the technology required to introduce quantified self-assessment into leadership development already exists. What is lacking is empirical testing, calibration of instruments for the leadership population, and the knowledge about how to best combine these tools with pedagogy, learning objectives, and other tools for optimal development.
Ethical and privacy issues
At the time of writing, there are significant issues about data privacy and security with these tools. For instance, 2015 study of 79 smartphone health applications found that two-thirds of apps certified as safe and trustworthy by the UK NHS Health Apps Library still sent identifying information over the internet without encryption, and 20% did not have a privacy policy (Huckvale, Prieto, Tilney, Benghozi, & Car, Reference Huckvale, Prieto, Tilney, Benghozi and Car2015). A related issue is ownership of data. Is quantified-self data strictly the property of the individual? Does the company selling the device own it? If an organization or coach pays for the tools, do they have rights to see the data? Can they use it for surveillance purposes? The General Data Protection Regulation law implemented by the European Union in 2018, along with other similar regulations worldwide, are an important first step to address some of these issues, but many questions remain. As is common with new technologies, applications have outpaced legal guidance. Until these issues are settled, there is the risk of adverse employee impact and misguided use of data. I-O psychologists should be attuned to these current debates and consulted for policy developments. For data to be developmental, there must be confidentiality and ethical standards in place and recognition of the intrusion these devices can cause. Without appropriate ethical guidelines, self-tracking tools run the risk of becoming disempowering.
Universal usability
Our test subjects were fairly homogeneous. All were interested in leadership development, were highly educated, and were working in American organizations. Additional research needs to be conducted to see if these tools hold promise in different sociocultural settings and the growing diversity of people engaged in developing their leadership abilities. Future research should also explore who would benefit most from this type of approach and why. For instance, a recent study found that people were more likely to try an augmented reality wearable when they expected functional benefits and social conformity; however, these results were moderated by personality differences (Rauschnabel, Brem, & Ivens, Reference Rauschnabel, Brem and Ivens2015). Similarly, trend reports suggest that currently people under 40 are more interested in wearable devices (Page, Reference Page2015; PricewaterhouseCoopers, 2016). However, this trend may change as such tools become more commonplace, and generations grow older. We suspect that wearables are most useful with people who are highly goal-driven, as the devices indicate small increments of change. Future research should look at the motivational impact of small increments of improvement.
Conclusion
Quantified-self methods hold both promise and challenges for leadership development. The promise is that they offer specific feedback for intrapersonal qualities and internal sensations that can make or break performance in a pressured situation. In addition, they enable people to take an iterative approach to learning, connecting ongoing monitoring to development—offering feedback that is specific and operational. They align nicely with the trend to promote continuous learning and development in organizations, making work and the experience of learning about what one does, versus what one thinks one does, seamless and available on demand. However, despite general enthusiasm for quantified-self methods, some challenges keep them from being ready for easy adoption. First and foremost, the technology is not always easy to use. Second, the measures do not always have face validity for leadership roles because most of the devices were created for other audiences. Third, privacy and ethical issues are not easy to address. Fourth, more research is needed to determine what development scenarios they work best in (e.g., it may be that they enhance coaching initiatives and action learning but are not helpful in classroom or digital learning settings).
The tools discussed here are just the tip of the iceberg. There are many more on the horizon that could also facilitate leadership development by increasing intrapersonal competences (i.e., self-awareness, self-regulation, and self-motivation). For example, many sensor technologies are currently experimenting with ways to assess mood. Such tools could be used within leadership development to improve empathy and emotional intelligence. Similarly, there are electroencephalogram wearables being developed that promise to track attention during conversations, which could be used to provide leaders with unique feedback about their communication skills. “Smart shoes” could be used to provide leaders with feedback regarding whether they are spending a disproportionate amount of time in certain offices or departments while ignoring others. Contact lenses could provide data on stress levels based on tear composition. Quantified-self clothing could offer feedback about nonverbal behavior (e.g., slouching, crossing arms). Virtual and augmented reality could offer new ways to teach emotional regulation and create a positive feedback loop for behavior change. In short, there is a myriad of possible tools and applications and little certainty about what will become mainstream in the future.
At the same time that self-tracking tools are becoming more popular, the environment is growing more demanding of leaders. Leaders and HR professionals are increasingly looking for just-in-time leadership development solutions and new models of capability building. I-O psychologists are in a prime position to steer the adaption and adoption of self-monitoring approaches to behavior change for purposes of leadership development. Moreover, it is critical that I-O researchers offer expertise in creating ethical and methodological guidelines for the future of the self-tracking movement in the workplace.