Matrix精选 October 24, 2026 12-minute read
12-minute read
Matrix Homepage Recommendation
Matrix is the writing community of SSPAI. We advocate sharing real product experiences and practical experience and thinking of value. We regularly select the highest-quality articles from Matrix to showcase the most authentic experiences and viewpoints from users.
Articles represent the author’s personal views; SSPAI only makes slight modifications to the title and formatting.
Imagine you are a professional football player, standing on the twelve-yard penalty spot under the gaze of tens of thousands of eyes. This kick could very likely decide the ownership of an important championship. The opposing goalkeeper makes all kinds of distracting movements on the goal line, trying hard to interfere with your decision-making, run-up, and strike. For anyone, this is undoubtedly a moment of enormous pressure.
What strategy will you choose to guide the next shot?
- Ignore the goalkeeper’s movements, aim at a fixed angle, and strike hard.
- Carefully observe the goalkeeper’s reactions, and try a placed shot or even a clever finish.
If you were the coach, how would you instruct the athlete? Would you tell them during the tactical briefing, “Don’t overthink it, just kick it there,” or would you require them to “Don’t slack off, carefully observe every detail”?
No strategy is guaranteed to win. In the first case, some players run up and swing their legs in one fluid motion, and the ball flies like a cannonball straight into the corner. Others pursue the angle too much and kick the ball straight into the stands.
In the second case, some players keenly catch the tiny shift in the goalkeeper’s center of gravity, calmly deceive the goalkeeper, and score. Others scheme exhaustively, but the ball they finally kick is weak and feeble, and the goalkeeper saves it squarely.
The “optimal strategy” cannot be separated from the two elements of “task” and “person”
With the same strategic choice, some people deliver the decisive blow under pressure, while others collapse outright and ruin the match. If we extend our perspective from the twelve-yard penalty spot to other technical actions in football, other sports, and even military and police tactics and personal defense, we will see many similar controversies about strategy selection and execution.
Simply labeling strategies as “simple is good (don’t overthink)” or “the more comprehensive/complex/refined the better (win by precise calculation)” is meaningless. What truly determines success or failure is (1) how complex the information processing actually required by the task environment itself is, and (2) whether the athlete themselves, at the moment of high pressure, has sufficient cognitive capacity and execution stability to support the strategy they choose.
That is, the question is not which strategy is superior, but “who, facing what kind of task, chooses which strategy, is more likely to achieve the result.”
Dr. Laura Voigt and others from the German Sport University Cologne, in a newly published theoretical article in Trends in Cognitive Sciences, precisely aim to explore such a core proposition. Co-author Professor Markus Raab is the head of the Department of Sport Psychology at the German Sport University Cologne, and the other two co-authors, Arne Nieuwenhuys and Rich S.W. Masters, are also leading figures in the field of “choking under pressure.”
In this paper titled “Beyond attention: performance pressure shifts information-processing complexity”, the authors step outside the controversies of traditional theories and propose a brand-new integrative framework:
What pressure truly changes is not an abstract “mindset,” nor the “performance” of specific movements, but the athlete’s level of information-processing complexity.
When an athlete’s level of information-processing complexity approaches the complexity required by the task, the athlete will withstand the pressure and perform “beyond their usual level”; conversely, if the level of information-processing complexity deviates from the complexity required by the task, the athlete will show a performance breakdown.
Theoretical framework: when motor control meets the “bias-variance trade-off”
To precisely characterize this mechanism, the authors introduce three interlocking core concepts:
The first concept is information-processing rules & complexity. Any high-level athletic performance cannot be separated from the information-processing process of the nervous system. What information the brain selects, how much weight it assigns, and how it integrates this information to guide action selection and execution—all of these processes depend on the “rules” acquired by the specific athlete. Different athletes will acquire rules of varying complexity through their own practice and coaching.
The higher the complexity of the rules, the more information is invoked and the more conditions are referenced, and the more complex the calculation steps.
Take the wuxia novels familiar to everyone as an example. The Taishan Sect in Jin Yong’s works has a move called “How Is Mount Tai,” which essentially requires the user to become a human computer, calculating all conditions accurately and defeating the enemy with one move. This is a complex rule.
In contrast, the flying swordsman in Gu Long’s works never calculates; he simply pierces the opponent’s throat with one sword, and only speed prevails. This is a simple rule.
The second concept comes from statistics and decision science, called the bias-variance trade-off. Similar to the formula proposed by Daniel Kahneman in the book Noise, the authors decompose the error occurring in motor control into three parts:
The square of bias + variance + irreducible error
Bias means systematic error. High bias means the rule is too simple, or the executor tends to ignore key information. For example, some players always blindly kick toward a habitual corner, ignoring the goalkeeper’s movements—this is high bias, low variance. Such players may have very consistent shooting movements and are not prone to on-the-spot mistakes, but they are easy for opponents to study in advance and exploit. The original authors specifically emphasize that the reason bias is squared is precisely to match the dimension of variance and eliminate directionality.
Variance represents instability of execution. High variance means the rule is too complex and easily affected by external noise and cues. For example, some players simultaneously calculate the goalkeeper’s positioning, movement, and past habits, observing various details of the goalkeeper’s actions. Although this helps reduce information omission (low bias), the computational load may exceed the capacity of the human brain and is easily disturbed by on-the-spot interference. This is high variance, low bias. Such players may occasionally produce flashes of superhuman performance, but at other times they also frequently crash spectacularly and leave people stunned.
This leads to the third and most core concept of the entire piece—task-matched complexity. In a coordinate system with complexity as the horizontal axis and error as the vertical axis, as complexity increases, the bias curve declines while the variance curve rises, and the total error formed by their superposition presents a U-shaped curve. The “golden sweet spot” at the bottom of this curve represents task-matched complexity, that is, the complexity best suited to the current motor task—no more, no less, just right.
The authors believe that this sweet spot is not an unchanging constant, but a dynamic equilibrium point jointly determined by two factors. That is, the objective demands of the task itself, as well as individual athlete factors (such as skill proficiency and working memory capacity).
Two choices, four processing outcomes
The two strategic choices mentioned above each correspond to two completely different directions of cognitive regulation. Within each direction, there is also a distinction between “appropriate” and “excessive,” or rather between “reasonable direction” and “unreasonable direction,” which to a large extent determines the outcome of movement execution.
Under pressure, will the brain “turn left (simplify)” or “turn right (complicate)”? Theory points out that this depends on the specific psychological response induced by pressure within the specific player’s mind.
In pressure situations, some athletes think about prize money, results, or social evaluation, mobilize their own effort (effort mobilization), and raise their motivation level, making them more likely to choose complication. Conversely, other athletes develop more anxiety and worry, their attention shifts to the subjective experience of “being threatened,” and they are more likely to choose simplification. In addition, if athletes can subjectively perceive that their own computational capacity is strained, they will also actively choose strategic simplification as a compensatory strategy.
In situations without pressure, different athletes have different information-processing styles. Some tend to “overthink” and “calculate precisely” in daily life, with a baseline complexity higher than the theoretical sweet spot. Others consistently prefer to “go by feel” and “just take a swing,” with a baseline complexity lower than the sweet spot. This baseline level, superimposed with the individual’s feelings under pressure and the ensuing choice of simplification or complication, produces four different outcomes.
An athlete who tends to overthink in daily life actively lowering complexity under pressure and powerfully striking a preset corner is a reasonable simplification strategy (Simplification): giving up step-by-step decomposition control of the run-up and leg-swing movements, and also ignoring the goalkeeper’s distracting feints, instead packaging the shooting action into a highly automated “higher-order movement chunk,” avoiding brain overload in high-pressure situations.
If this simplification occurs in an athlete who already tends to go by feel in daily life, it becomes oversimplification (Oversimplification): completely ignoring the goalkeeper’s movements, not considering the opponent’s study of one’s own technical characteristics, and thus falling right into the opponent’s prediction; or, not paying attention to on-the-spot conditions or one’s own physical state, excessively fixating in the mind on the corner and power, and kicking the ball straight over.
In contrast, an athlete who is relatively casual in daily life actively raising complexity under pressure and choosing to calmly observe the goalkeeper before making a placed shot is a reasonable complexification strategy (Complexification).
Obviously, not every player (or every player in all match situations) can handle such complex information processing. If one tends to overthink in daily life, or although one “tries hard to think more” the brain is already overloaded, one will fall into the big pit of overcomplexification (Overcomplexification) amid the over-analysis of “wanting this, wanting that, and wanting more.” This causes the shooting action itself to become fragmented, producing a half-height ball or a soft ground ball, gifting the opponent a big present.
Both theories may be right, it just depends on the person and the occasion
The proposal of the above new theoretical framework helps resolve two difficult problems in the field of choking under pressure research.
In the sports psychology community, theories about performance failure are mainly divided into two major camps. Co-author Masters himself is the proposer of the “Self-focus / Reinvestment” theory. This camp’s theory is based on the three-stage theory of motor learning—“cognitive-associative-automatic”—and holds that pressure may or may not raise anxiety levels. Regardless of whether anxiety is present, as long as performance appears very important, or there is a gap with the expected result, athletes may initiate self-focus, invest extra effort, and carry out step-by-step, excessive monitoring of originally automated movements, thereby leading to de-automatization and movement breakdown.
Another co-author, Nieuwenhuys, has conducted extensive research based on distraction accounts / Attention Control Theory (ACT). This camp’s theory holds that pressure raises anxiety levels, which then directs attention to external threatening stimuli and neglects task-relevant information, thereby leading to degradation of movement control and execution.
These two seemingly opposing theories have each received support from some empirical research results, leaving the academic community unable to reach a consensus. This article can be seen as an attempt by researchers from the two camps to reach a consensus. Self-focus and distraction may not be in a mutually exclusive competitive relationship. Under pressure, people can mobilize effort, and they can also be anxious; they can try to simplify, and they can also continue to complicate. The two reactions move left and right on the same complexity spectrum, and with the sweet spot determined by the nature of the specific task as the baseline, four reactions emerge:
If movement to the right approaches the sweet spot, it is “reasonable complexification”; if it moves away from the sweet spot, it is “overcomplexification” or so-called “reinvestment.”
Distraction or being interfered with corresponds to movement to the left, likewise divided into “oversimplification” away from the sweet spot and “reasonable simplification/strategic simplification” near the sweet spot.
This four-way result can also explain another problem that often arises in practice: given the same pressure, why do some athletes choke at some times, while other athletes produce clutch performance at other times? The new theory acutely points out that the direction of complexity shift and the final performance outcome can be independent of each other. That is, simply discussing “don’t overthink” or “think a bit more” is not enough; the human element must be incorporated and analyzed within the specific situation.
Implications: From laboratory modeling to on-field pressure training
The first author of this article, Dr. Laura Voigt, was my master’s thesis supervisor at the German Sport University Cologne. My thesis was a sub-project of Dr. Voigt’s research project, and its main purpose was to aggregate and analyze experimental results on “the impact of pressure on sports performance.”
Interestingly, my preliminary analysis results seemed to show that the factor that can influence the effect of pressure on sports performance is not the motor task, the athlete’s experience, or the specific pressure source, but rather “who conducted the experiment” and “in which country/region/cultural circle the experiment was conducted.”
This result is consistent with the direction of the new theory: the same pressure elements and experimental paradigms, applied by different researchers to subjects from different cultural backgrounds, may trigger choking, may have no effect, or may lead to clutch performance. Future pressure manipulation research may have to incorporate the following three considerations when designing studies:
- For the specific task, at what level is its task-matched information-processing complexity? That is, is the task itself relatively simple, without confrontation or game interaction (such as basketball free throws, dart throwing, Olympic shooting, golf putting), or relatively complex, with confrontation and game interaction (such as penalty kicks, military/police tactical shooting, esports)?
- For the specific subject, is their information-processing style and rule complexity higher or lower than the task’s complexity level?
- How will the specific pressure source shift the subject’s complexity preference? That is, will it produce more effort mobilization (tending toward complexification), or more perceived threat (tending toward simplification)?
The authors also provide a clear falsifiable boundary at the end of the original text: if pressure reliably changes sports performance but no independent change in complexity can be measured, or if an athlete’s complexity level approaches the expected task-matched complexity but this leads to a decrease in performance level, then the theory would be falsified.
Even setting aside the truth or falsity of the theory itself, the proposal of this new theory at least provides coaches and athletes with a simple yet profound insight: analysis, thinking, and intervention in sports psychology must never be one-size-fits-all; specific problems must be analyzed specifically.
Many coaches, especially grassroots coaches, are particularly prone to relying on their own experience and using a single prescription to treat all ailments. For example, I have seen a combat sports coach who shouts to all new students, “Don’t overthink, just fight by instinct (blind simplification)”; another tennis coach likes to take the lead in overthinking himself (blind complexification). Neither is advisable.
The core of “pressure training” may first lie in individualized diagnosis and precise matching: coaches must understand the starting habits of their athletes, their tendency to react to pressure, and their working memory capacity under high pressure. For athletes who are usually rough-and-ready, rely on feeling, and tend to ignore and simplify information, coaches should stimulate their level of effort, raise their working memory and information-processing level, and train these athletes’ ability to deliberately complexify.
Conversely, for athletes who are usually heavy-hearted, full of ideas, and tend to pursue details, coaches should design for them high-reliability, low-complexity “strategic simplification” contingency plans—for example, directly telling them which side to kick toward.
Returning to the suffocating penalty shootout at the beginning, or the decisive match of any other sport—can you let go, even just a little, of your fixation on a “big heart” or a “sure-win strategy,” and start thinking about how to match the two? The helplessness of blasting the ball over the bar, or the regret of a weak, tame shot, perhaps neither means “this is definitely not going in” nor “this person is simply not a winner by nature”—the result of a single rueful kick may simply be that pressure pushed the specific player off the balance point, either sending deviation off the charts or letting variance spin out of control.
Every competitive sport inevitably involves a psychological contest. Even when you are near the eye of the typhoon, you can still recognize yourself clearly, define the task clearly, and steadily step into the sweet spot of “task-matched complexity.” That so-called composure, that so-called winner, is roughly just this.
Related reading: Voigt, L., Nieuwenhuys, A., Masters, R. S. W., & Raab, M. (2026). Beyond attention: Performance pressure shifts information-processing complexity. Trends in Cognitive Sciences, S1364661326002135. https://doi.org/10.1016/j.tics.2026.09.008
The author holds a master’s degree from the Department of Sport Psychology at the German Sport University Cologne. Currently a doctoral student in Budo Pedagogy at Waseda University’s Faculty of Sport Sciences, an Expert 1 level member of the International Krav Maga Federation (IKMF), and a civil/female/disability safety defense instructor.
> Follow Shaoshupai Xiaohongshu to experience a wonderful digital life 🍃
> Practical, easy-to-use genuine software, presented to you by Shaoshupai 🚀