What makes this product
demonstrably superior to other existing or competing technologies?
Preventing motor vehicle crashes caused by fatigue and drowsiness
has become a major focus of researchers interested in improving the safety and
well-being of drivers, passengers, and other road users (Lin, et al, 2005).
National polls indicate that 50% of drivers admit at least one incident of
falling asleep while driving; statistics of fatigue related accidents indicate
that the other 50% is lying to the pollsters. Economic trends for longer
working hours and more extensive travel are expected to continue, increasing
the needs for the life saving potential of the CDFF. An aging population of
baby boomers is more susceptible to exhausting sleep apnea due to age, diet,
and exercise issues. Fatigued drivers using the CDFF are therefore not merely
awake, but have better reaction times and are more conscious of their
environment.
Risk management strategies for drowsy
driving vary in their objectives; that is, to minimize the probability of a crash occurring or to minimize
injury severity if there is a crash. Crash prevention initiatives include a range of tactics designed
to, at least partially, compensate for drivers’ impairments and help to
minimize the risk of injury that is associated with a diminution in driving
performance. One such tactic is to maintain a cool temperature in the car as a
possible countermeasure to reduce sleepiness during prolonged and monotonous
drives (Horne & Reyner, 1995).
The CDFF, while unique as a device, builds on solid science for
its effectiveness. We have included many supporting papers in the Supporting
Technical Data portion of our website. Longstanding research has shown that alertness
and sleepiness are strongly coupled to thermoregulation in the distal
extremities (Krauchi, et al, 2005). As distal temperatures increase, levels of
sleepiness increase and, conversely, as distal temperatures decrease, levels of
sleepiness decrease (Krauchi et al, 2005).
Until
our device was invented, empirical research on this
issue was lacking and reviews of sleep loss had not addressed the effects of
ambient temperatures (e.g., cold versus warm) on driving performance except for
tests involving full body chilling with air conditioners. Reyner and Horne
(1998) asserted that common countermeasures employed by drivers to ameliorate
the negative effects of fatigue and drowsiness, such as redirecting cold air
directly onto the driver’s face via the vehicle’s air conditioning system,
appear to be of “marginal and transient benefit”. Similarly, NHTSA has identified the need for “additional
information and research on measures that increase or restore driver alertness
or reduce crash risk or incidence”.
There are various devices on the market, including those with a
price of several thousand dollars that monitor head angle and driver actions as
a measure of sleepiness. Once
algorithmically determined to be drifting off to sleep, the driver is alerted
via vibration, sound, or lights. Cheaper
devices attached to the ear also alert the driver with vibration or noise also
wake up sleepy drivers as they fall asleep and nod their heads. The disadvantage of startling and waking up a
sleeping driver, especially one driving at high speeds, is obvious. Even if
successful, this approach does not address slow reaction times and a lack of
alertness that increases accident risks during night time driving. Other
alternatives to the CDFF are artificial chemical stimulants, and home remedies
with, at best, short-lived effects. Chemical stimulants are prone to abuse are
harmful even with moderate use. Home remedies, despite widespread general
acceptance, really offer only a false sense of security to the severe and
growing problem of serious driver fatigue.
How is the Fatigue
Fighter Superior?
At its source, the Fatigue Fighter specifically counters intrinsic
biological drives that have been embedded over eons to assure organisms can
resist wide temperature variance, obtain rest and reproduce. The body’s natural
tendency to fall asleep at night is locked into sidereal rhythms as old as the
emergence of life on our planet. Altering the local temperature at the shin, a receptive
sensory area lacking the ability to manage heat transfer effectively due to a
lack of body mass, prompts the brain to alter core body temperature in an
attempt to protect itself and critical internal organs. Since the rest of the
body is not cold, the brain’s mechanism for maintaining internal temperature
stability constantly varies the body core temperature in vain attempts to find a
correct internal temperature. Sleep research has demonstrated that the body
must reach and maintain a steady body temperature in order to drift off to
sleep. The Fatigue Fighter blocks the body’s ability to reach that comfortable
temperature.