Predicting NFL Success By What Draft Picks Say

Thankfully, the NFL Draft and all its hype is behind us.  The matchmaking is complete but the guessing game begins as to which team picked the right combination of athletic skill, mental toughness and leadership potential in their player selections.  Hundreds of hours of game film can be broken down to grade performance with X’s and O’s.  Objective athletic tests at the NFL combine rank the NCAA football draftees by speed and strengths, just as the infamous Wonderlic intelligence test tries to rank their brain power.  

However, despite all of this data, coaches and general managers often point to a player’s set of fuzzy personal qualities, dubbed the “intangibles”, as the ultimate tie-breaking determinant to future success in the league.

Always looking for the edge in this crystal ball forecasting, teams are turning to other technologies and methods that have been used in related assessment arenas in business and politics.  As any good self-improvement speaker will tell you, success leaves clues.  By studying established leaders, certain traits, attitudes and themes can be identified as consistent “bread crumbs” left behind for others to follow.  In the same way, potential leaders that don’t pan out also demonstrate patterns of behavior that can be linked to their less-than-hyped performance.

Now, a new tool is available to NFL front offices and, as with many high-tech innovations, they have the U.S. military to thank.  Achievement Metrics, a risk prediction service for the sports industry, now provides speech content analysis meant to give the odds of a budding superstar either rising into a leadership role or sinking into legal trouble based on just their public comments.  Their base technology grew out of the work that their sister company, Social Science Automation, has provided to the CIA and government agencies including profiles of possible terrorists, based on their use of language.

Using only the transcripts from a player’s recent college press conferences or interviews, the company’s computer algorithms find patterns in a player’s words and phrases.  Its not just a few vocabulary no-no’s that set off the alarms, but rather a pattern of selected triggers from a “hot list” of over 2000 words.  So, unlike the Wonderlic IQ test that might allow for some pre-test cram sessions to increase the score, this analysis is much more intricate and based on an athlete’s words from the past.  And, by using just the transcripts of speech, the tone, volume and pronunciation of the words don’t matter; simply the ideas and subconscious selection of phrasing.

Combining numerical text analysis stats such as word meanings and frequency with established psychological profiling theories, players can be categorized in dimensions such as need for power, level of self-centerdness, ability to affect destiny and many more.

Currently, the database includes an analysis of 592 NFL players’ speech patterns matched with their off-field behavior, both positive and negative, with a correlation algorithm.  As much as this seems like a scene from Minority Report and the fictional “Pre-Crime” department, the accuracy of the results are impressive, according to the company website:

-  89 percent (89 out of 100) of the players placed in the high-risk category have been arrested or suspended while in the NFL.
-  Even more striking, only 0.13 percent (two out of 1,522) of players categorized as low-risk have been arrested or suspended during their professional careers.
-  Of the players in the database who have been arrested or suspended while in the NFL, the models placed 98 percent (104 out of 106) in the intermediate- or high-risk category based on their football-related speech from college.

Below is the current scatter plot graph that shows the distribution of NFL subjects along a “bad behavior” continuum from their database.  Any college football player who ends up in Areas 3 or 4 after his speech analysis is not good news for his future employer.
 

Here is Roger Hall, Achievment Metrics’ CEO and psychologist, explaining the process at the MIT Sloan Sports Analytics Conference held in March:

As Hall notes in his presentation, quarterbacks can have a major influence on an NFL team, so there has been much focus on the 2011 crop of draft picks and their chances of success.  Not to leave us hanging, Hall recently released the analysis of this group alongside some of the established QBs in the league.  On the Y-axis is the Positive Power score, or the level of belief in self-controlled destiny and along the X-axis is Ingroup Affiliation or the level of team orientation.  If given a choice, a team would probably prefer their prospect to be in the Aaron Rodgers/ Philip Rivers quadrant rather than the Alex Smith/Matt Leinart quadrant.


Assessing off-field risk is only the beginning for this type of analysis as long as the correlation equals causation relationship is believed and backed up with more data.  While some old school scouts and evaluators will cling to their intuitions, more forward-thinking GMs will try any new angle to get the edge.  It may just turn out to be a $20 million edge.

Which Comes First For Athletes - Money Or Motivation?

Whether it's for money, marbles or chalk, the brains of reward-driven people keep their game faces on, helping them win at every step of the way. Surprisingly, they win most often when there is no reward.  That's the finding of neuroscientists at Washington University in St. Louis, who tested 31 randomly selected subjects with word games, some of which had monetary rewards of either 25 or 75 cents per correct answer, others of which had no money attached.

Subjects were given a short list of five words to memorize in a matter of seconds, then a 3.5-second interval or pause, then a few seconds to respond to a solitary word that either had been on the list or had not. Test performance had no consequence in some trials, but in others, a computer graded the responses, providing an opportunity to win either 25 cent or 75 cents for quick and accurate answers. Even during these periods, subjects were sometimes alerted that their performance would not be rewarded on that trial.

Prior to testing, subjects were submitted to a battery of personality tests that rated their degree of competitiveness and their sensitivity to monetary rewards.

Designed to test the hypothesis that excitement in the brains of the most monetary-reward-sensitive subjects would slacken during trials that did not pay, the study is co-authored by Koji Jimura, PhD, a post-doctoral researcher, and Todd Braver, PhD, a professor, both based in psychology in Arts & Sciences. Braver is also a member of the neuroscience program and radiology department in the university's School of Medicine.
But the researchers found a paradoxical result: the performance of the most reward-driven individuals was actually most improved -- relative to the less reward-driven -- in the trials that paid nothing, not the ones in which there was money at stake.

Even more striking was that the brain scans taken using functional Magnetic Resonance Imaging (fMRI) showed a change in the pattern of activity during the non-rewarded trials within the lateral prefrontal cortex (PFC), located right behind the outer corner of the eyebrow, an area that is strongly linked to intelligence, goal-driven behavior and cognitive strategies. The change in lateral PFC activity was statistically linked to the extra behavioral benefits observed in the reward-driven individuals.

The researchers suggest that this change in lateral PFC activity patterns represents a flexible shift in response to the motivational importance of the task, translating this into a superior task strategy that the researchers term "proactive cognitive control." In other words, once the rewarding motivational context is established in the brain indicating there is a goal-driven contest at hand, the brain actually rallies its neuronal troops and readies itself for the next trial, whether it's for money or not.

The brain's lateral prefrontal cortex (in yellow) shows heightened
and long-lasting activity in people more driven by rewards,
even when a reward is not offered. (Credit: Koji Jimura)
"It sounds reasonable now, but when I happened upon this result, I couldn't believe it because we expected the opposite results," says Jimura, first author of the paper. "I had to analyze the data thoroughly to persuade myself. The important finding of our study is that the brains of these reward- sensitive individuals do not respond to the reward information on individual trials. Instead, it shows that they have persistent motivation, even in the absence of a reward. You'd think you'd have to reward them on every trial to do well. But it seems that their brains recognized the rewarding motivational context that carried over across all the trials."

The finding sheds more light on the workings of the lateral PFC and provides potential behavioral clues about personality, motivation, goals and cognitive strategies. The research has important implications for understanding the nature of persistent motivation, how the brain creates such states, and why some people seem to be able to use motivation more effectively than others. By understanding the brain circuitry involved, it might be possible to create motivational situations that are more effective for all individuals, not just the most reward-driven ones, or to develop drug therapies for individuals that suffer from chronic motivational problems.

Their results are published April 26 in the early online edition of the Proceedings of the National Academy of Sciences.

Everyone knows of competitive people who have to win, whether in a game of HORSE, golf or the office NCAA basketball tournament pool. The findings might tell researchers something about the competitive drive.

The researchers are interested in the signaling chain that ignites the prefrontal cortex when it acts on reward-driven impulses, and they speculate that the brain chemical dopamine could be involved. That could be a potential direction of future studies. Dopamine neurons, once thought to be involved in a host of pleasurable situations, but now considered more of learning or predictive signal, might respond to cues that let the lateral PFC know that it's in for something good. This signal might help to keep information about the goals, rules or best strategies for the task active in mind to increase the chances of obtaining the desired outcome.

In the context of this study, when a 75-cent reward is available for a trial, the dopamine-releasing neurons could be sending signals to the lateral PFC that "jump start" it to do the right procedures to get a reward.
"It would be like the dopamine neurons recognize a cup of Ben and Jerry's ice cream, and tell the lateral PFC the right action strategy to get the reward -- to grab a spoon and bring the ice cream to your mouth," says Braver. "We think that the dopamine neurons fires to the cue rather than the reward itself, especially after the brain learns the relationship between the two. We'd like to explore that some more."

They also are interested in the "reward carryover state," or the proactive cognitive strategy that keeps the brain excited even in gaps, such as pauses between trials or trials without rewards. They might consider a study in which rewards are far fewer.

"It's possible we'd see more slackers with less rewards," Braver says. "That might have an effect on the reward carryover state. There are a host of interesting further questions that this work brings up which we plan to pursue."


Source: Washington University in St. Louis

See also: The Big Mo' - Momentum In Sports and Tiger's Brain Is Bigger Than Ours

Military Mindfulness Training May Also Help Athletes Handle Stress

A University of Pennsylvania-led study in which training was provided to a high-stress U.S. military group preparing for deployment to Iraq has demonstrated a positive link between mindfulness training, or MT, and improvements in mood and working memory. Mindfulness is the ability to be aware and attentive of the present moment without emotional reactivity or volatility.

The study found that the more time participants spent engaging in daily mindfulness exercises the better their mood and working memory, the cognitive term for complex thought, problem solving and cognitive control of emotions. The study also suggests that sufficient MT practice may protect against functional impairments associated with high-stress challenges that require a tremendous amount of cognitive control, self-awareness, situational awareness and emotional regulation.

To study the protective effects of mindfulness training on psychological health in individuals about to experience extreme stress, cognitive neuroscientist Amishi Jha of the Department of Psychology and Center for Cognitive Neuroscience at Penn and Elizabeth A. Stanley of Georgetown University provided mindfulness training for the first time to U.S. Marines before deployment. Jha and her research team investigated working memory capacity and affective experience in individuals participating in a training program developed and delivered by Stanley, a former U.S. Army officer and security-studies professor with extensive experience in mindfulness techniques.

The program, called Mindfulness-based Mind Fitness Training (MMFT™), aims to cultivate greater psychological resilience or "mental armor" by bolstering mindfulness.

 The program covered topics of central relevance to the Marines, such as integrating skills to manage stress reactions, increase their resilience to future stressors and improve their unit's mission effectiveness. Thus, the program blended mindfulness skills training with concrete applications for the operational environment and information and skills about stress, trauma and resilience in the body.

The program emphasized integrating mindfulness exercises, like focused attention on the breath and mindful movement, into pre-deployment training. These mindfulness skills were to regulate symptoms in the body and mind following an experience of extreme stress. The importance of regularly engaging in mindfulness exercises was also emphasized.

"Our findings suggest that, just as daily physical exercise leads to physical fitness, engaging in mindfulness exercises on a regular basis may improve mind-fitness," Jha said. "Working memory is an important feature of mind-fitness. Not only does it safeguard against distraction and emotional reactivity, but it also provides a mental workspace to ensure quick-and-considered decisions and action plans. Building mind-fitness with mindfulness training may help anyone who must maintain peak performance in the face of extremely stressful circumstances, from first responders, relief workers and trauma surgeons, to professional and Olympic athletes."

Study participants included two military cohorts of 48 male participants with a mean age of 25 recruited from a detachment of Marine reservists during the high-stress pre-deployment interval and provided MT to one group of 31, leaving 17 Marines in a second group without training as a control. The MT group attended an eight-week course and logged the amount of out-of-class time they spent practicing formal exercises. The effect of the course on working memory was evaluated using the Operation Span Task, whereas the impact on positive and negative affect was evaluated using the Positive and Negative Affect Schedule, or PANAS.

The Positive Affect scale reflects the extent to which a person feels enthusiastic, active and alert. The Negative Affect scale reflects unpleasant mood states, such as anger, disgust and fear. Working memory capacity degraded and negative mood increased over time in the control group. A similar pattern was observed in those who spent little time engaging in mindfulness exercises within the MMFT group. Yet, capacity increased and negative mood decreased in those with high practice time over the eight weeks.

The study findings are in line with prior research on Mindfulness Based Stress Reduction, or MBSR, programs and suggest that MMFT may provide "psychological prophylaxis," or protection from cognitive and emotional disturbances, even among high-stress cohorts such as members of the military preparing for deployment. Given the high rate of post-traumatic stress disorder and other mental-health disturbances suffered by those returning from war, providing such training prior to deployment may buffer against potential lifelong psychological illness by bolstering working memory capacity.

In the several months prior to a deployment, service members receive intensive training on mission-critical operational skills, physical training and "stress-inoculation" training to habituate them to stressors they may experience during their impending mission. They also must psychologically prepare to leave loved ones and face potentially violent and unpredictable situations during their deployment.
Persistent and intensive demands, such as those experienced during high-stress intervals, have been shown to deplete working memory capacity and lead to cognitive failures and emotional disturbances.

The research team hypothesized that MMFT may mitigate these deleterious effects by bolstering working memory capacity.

Source:  University of Pennsylvania

See also: The Big Mo' - Momentum In Sports and Watching Sports Is Good For Your Brain