Imagine a flowering plant. A baking cake. A rising stock price. A healing wound. Time passing can be a beautiful thing.
Why then does the cartoon above resonate so deeply with us? Is it our fear of mortality? Our never-ending list of to-do’s and things left undone that haunt us moment-to-moment? Are we as a culture, as a species, doomed to brood on the past, fear the future, and run away from the present?
The Centers for Disease Control and Prevention (CDC) identifies our sense of “time scarcity” as a leading source of stress in the United States — a primary cause of heart disease, our number one killer. Meanwhile, growing positive psychology research demonstrates the healing power of “being in the present.”
What if our relationship with time shifted? What if we began to view time as a source of inspiration instead of dread? What if each glance at the watch put us more “in the moment,” made us feel more focused, centered and alive? Few realize that our modern timekeeping system is fundamentally arbitrary. Hours, minutes and seconds have no home in cosmology, but rather the digits of our hands…
Technology is evolving as we speak to put smartphones on our wrists. The era of smartwatches with heart rate sensors and real-time monitoring systems is dawning upon us. With processing powers greater than the earliest mainframes and NASA spaceships embedded into our timepieces, we are no longer compelled to settle for a construct of time rooted in hand gestures, ropes and rocks. What if we, as a community of innovators and healers, took the first step in evolving our modern-day answer to the age-old question, “What time is it?”
Mindfulness & Innovations in Timekeeping
The mindfulness community actually has a long and storied track record of innovation in timekeeping, centered around spiritual observations, holidays, rites, rituals, meditation and prayer:
32,000 BCE - Cave art found in France and Germany depicts lunar and seasonal cycles of the “heavens”, representing the first known calendaring system. Its creators are believed to be astronomer-priests of the late Upper Paleolithic Cultures.
4,200 BCE — Ancient Egyptians calculate 365 days between alignments of the sun and Sopdet, goddess of Sirius the Dog Star, marking the Nile’s concurrent flooding and enrichment of the soil.
3,000 BCE — Stonehenge in modern-day England demarcates the annual winter and summer solstices, serving as burial grounds and a venue of ancestor worship and rituals.
2,400 BCE - The first known clocks are the shadow clocks or “obelisks” of ancient Egypt, erected by clerics in pairs at temple entrances for ritual observances.
2,100 BCE — Assyrians, Sumerians and Babylonians of the Middle East establish twelve phases of the moon, or “moonths”, per lunar calendar year. Holy days are declared on the first, seventh and fifteenth of each month.
1,000 BCE - Egyptian clerics develop water clocks or “clepsydras” to continue tracking proper timing of rituals throughout the night, i.e. in the absence of sun and shadows.
100 BCE - Chinese, Korean and Japanese Buddhist monks advance incense timers to replace the more flammable and inaccurate candle clocks of the day. Utilizing various scents, one smells the time change.
1200-1300 AD — Benedictine Monks of Western Europe become the first clockmakers of the region and create the mechanical clock. Adding weights and escapements to water clocks automates ringing of the communal prayer bell.
1582 AD — To more accurately celebrate Easter in its relation to the March equinox, Pope Gregory XIII spearheads the Gregorian Calendar widely used today. The Gregorian Calendar arrives closer to the tropical or “solar” year than the preceding Julian Calendar.
The Origins of Tic-Toc
The divisions of years, months and days are rooted in cosmological events and account for consistent measurements across disconnected cultures. Subdivisions of weeks, hours, minutes and seconds, however, are largely arbitrary and varied more greatly throughout history.
Weeks, for example have seen lengths of 3 to 13 days depending on prevailing leadership. Decisions usually hinged on what was deemed a reasonable workweek as per autocrat or religious text, i.e. “… on the seventh day he rested.” Papal States used six hour days as recently as the 1800’s with 6 o’clock pointing fixedly to sunset, and the Japanese had a twelve hour system with intervals that varied in length according to the season. Decimal time was used by China throughout most of its history dating back to 1000 BCE, was espoused by the French Revolutionary thinkers of the late 1700’s and resurfaced in 1998 when the Switzerland-based Swatch company proposed “Internet Time” of 1000 beats per day.
The sexagesimal system which lies at the heart of our modern-day “tic-toc” was similarly devised for convenience, not derived from scientific fact or basic principles. The ancient Sumerians and Babylonians used sixty as a mathematical base due to its ease of counting with two hands. Each finger segment on one hand represented a number one through twelve demarcated by the thumb, and each digit of the other hand represented a multiplier. Multiplying twelve finger segments by five digits provided a max count of sixty. The number sixty is also considered a “superior highly composite number” in mathematics, meaning it is easily divisible and lends itself well to fractions.
The Problems with Tic-Toc
Dr. Jon Kabat-Zinn presents a valuable anecdote from the Mindfulness-Based Stress Reduction (MBSR) program he developed at the University of Massachusetts Medical Center, in his manuscript Full Catastrophe Living:
Linda described feeling as if a large truck were always right on her heels, driving just faster than she can walk. It was an image people could relate to; the vividness of it sent a wave of acknowledging nods and smiles through the room...
Her mind was the truck. It was always right behind her, pushing her, driving her, allowing her no rest, no peace.
In the modern age, feeling overwhelmed and out-of-sync is an increasingly common experience. Heart disease is real, heart attacks are real, and the CDC sobers us with the knowledge that this “time scarcity” mentality is a chronic stressor.
Perhaps it is not surprising then that one of the central tenets of mindfulness-based stress reduction is to encourage patients to adopt the present moment. As Dr. Kabat-Zinn explains:
Mindfulness is paying attention on purpose, in the present moment, and nonjudgmentally, to the unfolding of experience moment to moment.
The ancient Greeks embraced two definitions of time to help carry this distinction. “Chronos” was used to discuss chronological or sequential concepts of time, with which we are most familiar and tic-toc describes quite well. “Kairos”, on the other hand, translates to the “eternal moment” in which everything actually happens. This latter concept is missing from our current communication of time and resonates with Dr. Kabat-Zinn’s teaching.
Among pools of evidence collecting around the importance of present moment awareness, Science published a Harvard study in 2010 demonstrating a link between “mind-wandering” and mental health. Over 250,000 data points from 2,250 subjects between the ages of 18 and 88 shows our minds are focused on the past or future 46.9% of the day, leading directly to poor mood. As summarized by study co-author psychologist Matthew A. Killingsworth:
Mind-wandering is an excellent predictor of people’s happiness. In fact, how often our minds leave the present and where they tend to go is a better predictor of our happiness than the activities in which we are engaged.
The tic-toc almost by definition puts us in a sequential frame of mind rather than in the moment. This shift first took hold in the Western world during the Middle Ages with the spread of the mechanical clock. Benedictine Monks lived ascetic lives centered on punctual communal prayer six to seven times per day. Bells (Celtic = clocca or “clock”) were rung manually to inform the community of established timetables. By adding weights and escapements to water clocks, a bell could be rung automatically without requiring a brother present, and more dependably as well.
As the National Watch and Clock Collectors Association notes:
Time no longer flowed like water through a clepsydra — it ticked. It was no longer a seamless continuum, but a succession of short periods.
The streaming of water, passing of a shadow or burning of a flame became replaced by the now familiar “tic-toc”. With the dawning of the Industrial Revolution and mass scaling of clock and watch production, “dollar watches” put everyone in a mechanical state-of-mind and helped synchronize the workforce. Time became money as factories calculated hours worked as key labor costs and employees as wages. As per American historian Lewis Mumford, “… the archetypal model for the industrial era was the clock.”
The tic-toc represented a major departure from cosmological cues for the average person organizing her or his day, as the sundial became officially obsolete in the 1800’s. Perhaps the greatest divorce came more recently with the International Committee for Weights and Measures decision to re-define the second in 1967. A “second” no longer represents an arbitrary fraction of Earth’s rotation around the Sun, but rather:
9,192,631,770 periods of the radiation corresponding to the transition between the two hyperfine levels of the ground state of the caesium 133-atom.
While this advances our computer networking capabilities and satellite communications, the tightening of our “tic-toc” does not necessarily serve to heal our emotional relationship with time. In fact, the focus by such governing bodies on the physics and engineering components of time misses the human implications that actually define it.
Within some of our lifetimes, Albert Einstein brought forward the general theory of relativity, which proved without a doubt that a second for you is not the same as a second for me:
Put your hand on a hot stove for a minute, and it seems like an hour. Sit with a pretty girl for an hour, and it seems like a minute. That’s relativity.
Our speed, our culture, our circumstances, our environment, our climate, our neighbor, our mindspace all dramatically impact our individual perceptions of time. Further, Einstein’s contributions to quantum mechanics helped show the existence of time actually depends on our perceptions of it. No consciousness, no time. So these changes in perception that we feel and experience on a regular basis are not simply novelties or asides in the calculations of time, but real occurrences that get neglected in our current approach.
In the 1950’s, University of Minnesota biologist Franz Halberg coined the term “circadian” (Latin = around a day). Known as the “godfather of chronobiology,” he helped establish a fundamental, evolutionary relationship between our biology and time. We now know that every cell in our body, down to the DNA level, has some “awareness” of (or dependency on) the time of day. This is true for virtually every known organism, even those that are single-celled.
The implications of these “circadian rhythms”, or physiological patterns dictated by the rise and fall of the sun, are both broad and deep. Recent research encouraged the World Health Organization to label night-shift work as a “probable carcinogen”, in the same class as UV radiation, due to its devastating impact on circadian rhythms. Poor circadian rhythms are also linked to heart disease, obesity, diabetes, metabolic syndrome and mental health disorders. Our 24/7, hyper-connected, always-on smartphone culture makes the bulk of us “social-shift workers,” exposed to blue light late into the night… and shifting our hormones into dangerous patterns.
Why then has nothing changed? Does our new subjective, dynamic definition of time, no longer static and mechanical, not change the underlying formula? Does the realization that our biology has a fundamental, natural and overarching relationship with time not beg us to re-evaluate why this is not factored into the perennial question, “What time is it?”
Introducing Lub-Dub
The arbitrariness of our current timekeeping method, combined with the facts that it is out-of-date and fosters a stressful mindset, presents us with a wide-open opportunity to improve. Coupling our evolved understanding of time with modern needs and the latest technologies, perhaps we can imagine a way to re-define the concept so that it better serves our bodies, hearts and minds.
Consider your daily routine. It might look a lot like this: wake up, meditate, eat breakfast, drive to work, work, eat lunch, go for a walk, work some more, drive home, cook dinner, spend time with family, relax and read a book, go to sleep. What is the optimal way to get you from one "daily milestone" to the next? When you realize the bulk of these milestones don’t generally change from one 24-hour block to the next, you begin to sense there might be a better way to organize and track your day.
Peter Galison, physics professor, historian and philosopher at Harvard University defines clocks accordingly:
We’re always looking for things that repeat, over and over again… and that repetition, that cycle of things, forms a clock. That’s all time becomes, is some repetitive process.
So since my daily activity patterns generally repeat from one day to the next, what if they became my “tic” and my “toc”? So my cadence became linked to “breakfast time” and “exercise time” rather than some mechanical, arbitrary construct that lies beneath it? In essence, I become my clock. Lub-dub.
What we can imagine is a shift from a quantitative, mathematical and mechanical view of time towards a more heartful, experiential and soulful view of time — one that makes sense on an emotional and psychological level.
Amazingly, this approach has a biological basis as well. In his study of circadian rhythms, Dr. Aschoff also coined the term “zeitgeber”, German for “time giver” or “synchronizer. ” The zeitgeber is any external or environmental cue that “entrains” or synchronizes an organism’s biological rhythms to Earth’s 24 hour light/dark cycle and twelve month orbit.
Decades of chronobiology research tells us that these same types of intuitive markers for progression of the day, or daily milestones outlined above, are in fact biological zeitgebers. Meals, exercise, and socializing each play a role in establishing our cyclical physiological relationship with the solar environment. This has implications for: our sleep/wake cycle, body temperature, patterns of hormone secretion, blood pressure, digestive secretions, levels of alertness, mood and reaction times just to name a few.
Timothy Monk, Professor of Psychiatry at the University of Pittsburgh Sleep Medicine Institute summarizes the value of this framework well:
Circadian rhythms are driven by endogenous processes, are self-sustaining, and rely upon circadian time cues (zeitgebers) to remain appropriately oriented to the individual's environment and desired routine. The gold-standard measures of human circadian rhythms have been core body temperature and salivary or plasma melatonin levels. However, one can also make the case that the behavioral circadian rhythms related to the timing of sleep, meals, work and social interactions are just as valid circadian rhythms as the physiological ones. Moreover, these are the rhythms most salient to the individual himself or herself.
An additional “bonus” of shifting to this type of intuitive, biologically-based system is that these same behaviors — nutrition, sleep, exercise and socializing — are deemed by the American College of Lifestyle Medicine to be the fundamental building blocks of a long, healthy life. Also called “lifestyle vital signs,” measuring and monitoring these parameters might be more meaningful in predicting long-term morbidity and mortality than the traditional set of vital signs for current and future generations (due to an overall shift from acute to chronic and preventable disease). Following the age-old adage that you cannot manage what you do not measure, taking these health fundamentals into account would help prevent and treat diabetes, obesity, heart disease, high blood pressure, depression, anxiety and more.
For example, we know that heart attacks are most likely to occur shortly after dawn due to concurrent rises in blood pressure and cortisol levels. We also know they are more likely to occur at the beginning of the workweek, when stress from anticipating future events reaches its peak. What if your timekeeping tools took this knowledge into account, and helped you time activities accordingly? Perhaps optimizing algorithms to discourage Monday AM work meetings when possible? Or suggesting stress-reducing sounds or images during these times? Something as simple as a picture of a loved one, left in ambient view on your wristwatch at the right time, might go a long way in dipping your odds for a cardiac event.
Now time becomes something we can control, name, juggle, design, manipulate and relate to according to our personal biology, desires and needs. Granted, a universal timekeeping system would always need to lie at its base. Meeting times must be coordinated and train crashes prevented. And yet, analogous to “personalized medicine”, we can evolve or grow from this generalized base to create a truly individualized and relevant concept of time that inspires and heals rather than stresses and reduces.
Commonly in mindfulness courses today, we are taught that certain external stressors cannot be changed, and are best addressed by mobilizing our internal resources to better respond and adapt to our environment. Yet our maligned relationship with time seems to be universal and we know now, increasingly, that our historical perspective of time is incomplete, arbitrary and malleable. Perhaps we should learn from the mindfulness leaders of millennia ago, and play an active, creative role with regard to understanding, communicating and measuring time.
As we speak, physicists and engineers continue to develop incredible methods for fine-tuning existing calculations of timekeeping tools to better run the machines of the world. I propose it is our duty, as a community of healers and innovators, to ensure that human health and well-being is plugged more squarely into the equation.