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Goalkeeper anticipation in football, handball and hockey: what experts look at, what video training changes, and what is still missing.
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In brief. In football, handball and hockey, expert goalkeepers anticipate the shot better than novices, and their gaze changes as soon as they have to dive. Perceptual training improves anticipation on video, with up to five months of retention in one trial, but no controlled trial has counted saves in matches. 50 studies analyzed. Updated on November 3, 2026.
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The same experienced football goalkeepers, five ways of responding to the penalty: by voice or joystick in front of a video, then, facing the kicker, by voice, with a simplified movement or by actually diving. As long as the body moves little, their eyes stay longer on the kicker than on the ball. When the shot has to be stopped, gaze time is split equally between the two (Dicks et al., 2010a). Modeled over time by the same team, the gaze of the diving goalkeeper lands first on the kicker's head, then shifts to the ball for roughly the last second before the strike (Button et al., 2011).
The goalkeeper coach sees the problem straight away: a good part of what we know about goalkeeper gaze was measured in front of a screen, and the screen changes the gaze. So what does an expert goalkeeper pick up before the ball leaves, and what is left, at the dive, of what they are taught on video?
For a goalkeeper, anticipating means committing to the save on what the kicker shows before the ball or the puck leaves. Researchers cut the video of the shot before, during or just after contact (temporal occlusion), record where the eyes land and measure the quiet eye, the last stable fixation before the action, detailed in our article on the quiet eye in precision movements.
Twelve goalkeepers and twelve outfield players, who had to intercept filmed penalties, do not exploit the cues visible before impact when they leave before the strike; the goalkeepers start faster and, according to the authors, then bet on the probabilities of the situation (Peiyong and Inomata, 2012). The motor reaction time therefore weighs on strategy. On penalties taken by professional and semi-professional players, the goalkeeper commits to the side of the save before contact, and to the height about 245 ms afterward, on the trajectory of the ball (Higueras-Herbada et al., 2020). The side is read on the kicker, the height on the ball.
On filmed penalties, expert goalkeepers predict better, wait longer and use fewer, longer fixations: novices linger on the trunk, arms and hips, experts on the kicking leg, the standing leg and the ball (Savelsbergh et al., 2002). Among experts, the most accurate seem to fixate the standing leg longer (Savelsbergh et al., 2005). With the standing leg doctored on 20 of 40 videos, 17 goalkeepers nevertheless predict just as well: according to the authors, the gaze anchors on the kicking leg and the ball, and peripheral vision completes the reading (Woolley et al., 2015). Judgments track information spread across several body segments (Diaz et al., 2012), and patterned shirts that mask the alignment of the hips only hinder skilled goalkeepers (Causer and Williams, 2015).
This reading remains specific to the sport: among 216 athletes, skilled footballers guess the penalty better than all the others, less skilled footballers included (Andrew and Causer, 2022). In open play, elite goalkeepers also spot the future shooter earlier (Murphy et al., 2025), an information pickup close to scanning in football.
Study | Sport | Population (n) | Task | What was measured | Result | Level of evidence |
|---|---|---|---|---|---|---|
Football | Expert and novice goalkeepers (n not specified in the abstract) | Filmed penalties, joystick response | Accuracy, timing, fixations | Experts more accurate, later, fewer and longer fixations | Low | |
Football | 17 goalkeepers, 20 outfield players, 20 controls | 40 videos cut at contact, standing leg doctored on 20 | Corner prediction, gaze | Goalkeepers better, standing leg not decisive | Low | |
Football | 12 goalkeepers, 12 outfield players | Interception of filmed penalties, cut from 467 ms before to 267 ms after impact | Accuracy, start time | Cues before impact unexploited, goalkeepers faster | Low | |
Football | Professional and semi-professional players (reanalysis) | Real penalties | Shot height, kinematics, goalkeeper start | Side committed before contact, height about 245 ms after | Low | |
Football | 17 semi-elite goalkeepers and 18 non-athletes, then 27 and 27 | Videos cut 50 and 100 ms before contact, prior information on direction | Accuracy, event-related potentials | Prior direction information improves accuracy | Low | |
Football | 20 experienced goalkeepers, 20 novices | Filmed penalties, kicker's preference announced as correct, false or absent | Anticipation, fixations | Better anticipation with correct information; goalkeepers superior to novices without information or with false information, longer gaze on the trunk, hips and both legs | Low | |
Football | 30 goalkeepers (10 elite, 10 sub-elite, 10 amateur) | Excerpts of 11 v 11 play, clipped | Identification of the future shooter | Elites earlier and more accurate | Low | |
Football | 20 Premier League goalkeepers, 42 duels (20 goals, 22 saves) | One-on-one in matches, 2013-2014 season | Closing the distance, timing | Goals conceded linked to delayed movement toward the shooter | Low, but in matches | |
Ice hockey | Elite goaltenders (n not specified in the abstract) | Wrist shots at 5 and 10 m on ice | Quiet eye | Earlier and longer quiet eye on saves | Low | |
Handball | 40 elite goalkeepers (20 women, 20 men) | Five 7-m throws in real conditions | Fixations, quiet eye | Longer quiet eye on successful interventions | Low | |
Field hockey | 8 international and national goalkeepers (women) | Drag-flick under temporal occlusion, women shooters then men | Transfer of anticipation from one opponent to another | 5 of 8 transfer on wide run-ups, none on tight ones | Low |
In handball goalkeepers of three levels, responding with a key press gives better scores than responding with a real movement, but the gaps between levels appear, descriptively, more marked when the body is engaged (Huesmann et al., 2022). A test decoupled from action erases part of the expertise. This is perception-action coupling: we perceive according to what our body allows us to do.
Action capabilities also enter the calculation. Among experienced goalkeepers, the fastest leave later than the slowest (Dicks et al., 2010b). Facing real penalties with feints, run-up information hinders the save, and the authors advise preferring what appears just before the strike (Dicks et al., 2010c). In futsal, at 10 m rather than 6 m, expert goalkeepers save more, leave later and look more at the ball (Navia et al., 2017). In virtual reality, facing curved free kicks, the goalkeeper's hands follow the initial direction of the ball and poorly compensate for the curve (Dessing and Craig, 2010).
Study | Sport | Population (n) | Situation | Quiet eye and outcome of the shot | Level of evidence |
|---|---|---|---|---|---|
Ice hockey | Elite goaltenders (n not specified in the abstract) | Wrist shots at 5 and 10 m | On saves, earlier onset (8.6% of the action versus 18.86%) and longer duration (952.3 ms versus 826.1 ms); on the puck or the stick in 70.53% of trials, on the shooter's body in 2.1% | Low | |
Ice hockey | 8 university goaltenders | Deflected, hard-to-predict shots | Late onset: 41% goals versus 22%; short duration: 38% versus 14% | Low | |
Handball | 40 elite goalkeepers | Real 7-m throws | Longer on successful interventions, by 92 ms (women) and 123 ms (men); men on the throwing arm and the ball, women on the trunk and head | Low | |
Football | Intermediate-level goalkeepers (n not specified in the abstract) | Real penalties, instep or inside of the foot | Longer on saves, on the visual pivot; final fixation on the ball beyond about 1,100 ms, goal more likely; 28% saves on the instep versus 12% | Low | |
Football | 8 intermediate-level goalkeepers | Penalties, start to the left or right | Microsaccades dropping about 1,000 ms before the start, oriented toward the side of the dive; saccades peaking around 500 ms | Low | |
Football | Expert and novice goalkeepers | Filmed penalties | No gaze difference between saved and conceded penalties | Low | |
Football | 5 goalkeepers, 10 saves each (reanalysis) | Real penalties | Variable duration between goalkeepers and within the same goalkeeper; only the location, the ball most often, stays stable | Very low | |
Football | Professional goalkeepers (n not specified in the abstract) | One-on-one | Quiet eye on the ball and the visual pivot, different patterns between goalkeepers and from one save to the next | Very low |
In ice hockey and handball, the quiet eye lasts longer on saves, and in hockey it also starts earlier, landing on the puck or the stick rather than on the shooter. In football, the picture gets blurred. Piras and Vickers (2011) find a longer quiet eye on saves, but a final fixation that is too long on the ball announces the goal there, whereas Savelsbergh et al. (2002) see no gaze difference between saves and goals. Microsaccades, those small eye movements during fixation, even announce the side of the dive, while ocular saccades peak around 500 ms before the start (Piras et al., 2021). Ramsey et al. (2020), on five goalkeepers, and Franks et al. (2022), in a case study, describe a duration that changes from one goalkeeper and one save to another: they contradict the idea of a common target duration, without proving that it does not exist.
Looking at the same place does not guarantee picking up as much, by the way: handball goalkeepers predict left-handers' 7-m throws less well without looking at them differently (Loffing et al., 2015).
As early as 1979, 34 young ice hockey goaltenders (15.8 years on average) read the shot better when the film showed more frames before impact, better the wrist shot than the slap shot, and better the horizontal plane than the vertical (Salmela and Fiorito, 1979): side before height, as in football. In field hockey, five of eight international or national goalkeepers keep their reading of wide run-ups when going from women to men shooters at the drag-flick, none for tight run-ups (Morris-Binelli et al., 2022). The handball outfield player has their own article, vision and handball. For the water polo goalkeeper, no study on gaze appears in PubMed at the date of this inventory.
Study | Sport | Population (n) | Published protocol | Measure | Result | Transfer to the field | Level of evidence |
|---|---|---|---|---|---|---|---|
Handball (goalkeeper task) | 60 novices, 6 equal groups | Explicit rules, verbal cues, verbal cues and color, implicit matching; placebo and control | Anticipation on video, under stress, at 5 months | Explicit, verbal and implicit improve durably; color no better than controls; only implicit holds under stress | Not measured | Moderate to low | |
Handball | Skilled goalkeepers: 14 trained, 14 placebo, one control group | Perceptual training on video (duration not specified in the abstract) | Direct and feinted 7-m throws | Better than placebo and control; less gain on feints | Not measured | Moderate to low | |
Handball | Skilled goalkeepers, two groups (n not specified in the abstract) | Exposure to shooters who prefer one side, or to shooters with no preference | Anticipation of throws | Gain if the shooter keeps their preference, loss if they change it | Not measured | Moderate | |
Football | 28 novices (9 guided, 10 unguided, 9 controls) | 7 days, half the trials with color cues on the kicker's kinematics or the expert's gaze | Penalty direction on video | Only the guided group improves, gain maintained at 24 h | Not measured | Moderate | |
Football | 28 novice junior goalkeepers (14 versus 14) | 30 simulated penalty trials, verbal cue on the standing foot | Direction | Cued group more accurate, group by trials interaction not significant | Not measured | Low to moderate | |
Football | Beginners at the task (n not specified in the abstract) | Explicit or implicit learning on occluded penalties; placebo | Prediction, gaze | Placebo improves as much as explicit; only explicit changes gaze | Not measured | Low | |
Football | Goalkeepers and novices (n not specified in the abstract) | One session of videos, implicit or explicit, cut 200 ms before contact | Prediction, reaction time | Accuracy up in both methods, reaction time unchanged | Not measured | Low | |
Football | 24 novice goalkeepers aged 14 | 6 PETTLEP imagery sessions by audio file, versus goalkeeper training alone | 12 penalty videos | Difference at post-test (p = 0.004) | Not measured | Low | |
Football | 18 novices, two groups | On-field training facing a single kicker, or facing three players of whom two stop about 1.2 m from the ball | Saves on real penalties | More saves on shots without feints for the three-player group | Field, outside matches | Low | |
Football | 1 goalkeeper under 10 | 8 on-field sessions of 10 penalties, kickers' tendencies given in advance | Dive start, saves | Start delayed toward contact at retention | Field, single case | Very low |
Two scoping reviews from the same group (20 studies on expertise, 13 on training) describe research centered on adult men, in standardized laboratory penalties, little coupled to action, and conclude conditionally: explicit, guided-discovery or implicit approaches could improve anticipation (Huesmann et al., 2025).
The trials mostly compare ways of learning. In 60 novices, the gains hold for five months (Abernethy et al., 2012), a rare duration: the other quantified retention in the table is 24 hours (Ryu et al., 2013), far from a true retention test several weeks later. When a placebo group that watches matches improves as much as the explicit group (Poulter et al., 2005), familiarization with the test weighs heavily. Knowing the kicker's preference helps (Murta et al., 2022; Ji et al., 2023), as long as they remain faithful to it (Mann et al., 2014). The feint remains the hard point: video training gains less there (Alsharji and Wade, 2016), and videos filtered in spatial frequencies remove the drop in anticipation on deceptive shots in goalkeepers tested online, with no training trial to date (Roberts et al., 2026).
The goalkeeper also acts on the shooter's gaze. Under threat, the shooter fixates them more and recenters the shot; a goalkeeper who waves their arms, or stands imperceptibly off-center on the line, weighs on the choice of side. The shooter poorly exploits a goalkeeper who leaves early, unless the cue is explained to them.
Study | Population (n) | Situation | Result | Level of evidence |
|---|---|---|---|---|
14 experienced footballers | Penalties under low or high threat | Under threat, faster first fixations and longer gaze on the goalkeeper, shots recentered within their reach | Low | |
18 experienced footballers | Goalkeeper still or waving their arms | Moving goalkeeper more distracting, more saves, more central shots | Low | |
Shooters (n not specified in the text consulted) | Goalkeeper placed slightly left or right of the center of the goal | The shooter aims more often at the larger side without noticing the offset | Low | |
Participants (n not specified in the abstract) | Photorealistic images, goalkeeper more or less offset | The offset steers the choice of side, even when not perceived | Low | |
12 shooters facing a goalkeeper | Scored penalty and saved penalty | Saved penalty: quiet eye cut short by an anticipatory fixation on the ball's trajectory, more central shot | Low | |
8 low-level shooters, 7 high-level | Goalkeeper projected on a large screen, dive before, during or after the strike | Empty half aimed at chance level on predictive information alone | Low | |
32 expert footballers, 4 groups | Real penalties, goalkeeper cue explained or not | More success with the cue, still at 1 and 7 days | Low | |
Shooters (n not specified in the abstract), 3 experiments | Deceptive gaze toward the opposite side | Aiming while deceiving requires a longer quiet eye | Low | |
10 trained shooters, 10 placebo | 7 weeks of quiet eye training | Half as many saved shots at retention; advantage lost in a shoot-out session | Moderate to low |
Near transfer is established: trained on video, the goalkeeper improves on a video of the same type. On real penalties, only two studies: 18 novices trained on the field facing three players, two of whom stop before the strike, save more shots without feints than those trained facing a single kicker (Dicks et al., 2017), and a goalkeeper under ten delays their start when given the shooters' tendencies (Luis-Del Campo et al., 2024). Far transfer, saves in matches, has been measured by no controlled trial in this inventory. Null results weigh just as much: color cues with no effect (Abernethy et al., 2012), unguided group with no progress (Ryu et al., 2013), reaction time unchanged (Faquin et al., 2024), placebo as good as explicit training (Poulter et al., 2005), trained shooter who loses their advantage under pressure (Wood and Wilson, 2011). Because expertise sticks to the sport and the opponent, representative design keeps, in training, the link between what you see and what you do, the same conclusion as for the athlete's neurocognitive training.
This body of work rests in large part on a few teams. Around Dicks, Button and Davids, the studies take place in real situations and insist on variability. Around Schorer, Loffing and Hagemann, you find a good share of the work on the handball goalkeeper and the 2025 review. At Exeter, Wilson, Wood and Vine studied the shooter under threat.
Study A | Relation | Study B |
|---|---|---|
Ramsey 2020 | reanalyzes five goalkeepers from | Dicks 2010a |
Button 2011 | models over time the gaze studied by | Dicks 2010a |
Ramsey 2020, Franks 2022 | contradict the idea of a common quiet eye duration drawn from | Panchuk 2006 and 2017, Jedziniak 2025, Piras 2011 |
Savelsbergh 2002 | contrasts with | Piras 2011: no gaze difference between saved and conceded penalties |
Woolley 2015 | contradicts | Savelsbergh 2005 on the role of the standing leg |
Peiyong 2012 | qualifies | Savelsbergh 2002: cues before impact unexploited when the start precedes the strike |
Huesmann 2022 | converges with | Dicks 2010a: gaze and expertise change with coupling to action |
Mann 2014 | qualifies | Murta 2022, Ji 2023 and Luis-Del Campo 2024: prior information helps if the shooter stays faithful |
Dicks 2017 | converges with | Luis-Del Campo 2024: only interventions evaluated on real penalties, none in matches |
van der Kamp 2011 | contrasts with | Núñez 2010 on the shooter's exploitation of the goalkeeper |
Weigelt 2012 | replicates in images | Masters 2007: the goalkeeper's offset steers the shot without being perceived |
Wood 2011 | extends | Wilson 2009 and Wood 2010: same laboratory, same threat |
Higueras-Herbada 2020 | converges with | Salmela 1979: side is read better than height |
Abernethy 2012, Loffing 2015, Huesmann 2022 | share authors with | Huesmann 2025 |
Established: the expert goalkeeper anticipates better than the novice, reads the side before the height, and their gaze changes depending on whether they respond to a screen or dive. Debated: the weight of the quiet eye, clear in hockey and handball, variable in football, and the role of the standing leg. Extrapolated: that a goalkeeper who improves on a video test saves more penalties on Sunday. No quiet eye duration serves as an individual norm either.
One prediction would settle it. A randomized trial in club goalkeepers compares video anticipation training with an equal volume of real penalties, with saves on real shots, feinted or not, as the criterion, and retention over several weeks. If it finds no difference, the idea that the screen trains the save falls.
If your athlete reports double vision, blur that persists, headaches on exertion or dizziness, visual training waits. They first consult an ophthalmologist, then an orthoptist in France, or an optometrist in Switzerland or the United States. LabO RNP is neither medical nor paramedical, and is an addition to a care pathway, never a replacement for it. LabO RNP works with optometrists; the curriculum was built with them.
The eyes are a point of entry. What LabO RNP teaches is the whole sensorimotor loop: how what the athlete perceives organizes what they do. In the goalkeeper, the gaze does not pick up the same thing when the body stays still or goes into a dive, and their speed of movement sets the moment when they can afford to wait. For the place of the eyes in the warm-up, read our article on oculomotor exercises in the warm-up; for the whole range of visual training families, the map of evidence in sports vision.
On video, expert football goalkeepers mainly fixate the kicking leg, the standing leg and the ball, with fewer fixations than novices (Savelsbergh et al., 2002). Facing a real kicker, they look first at his head, then at the ball for roughly the last second before the strike (Button et al., 2011).
On video, yes: guided cues, explicit rules and implicit learning improve prediction, with five months of retention in 60 novices (Abernethy et al., 2012). On real penalties, a field trial in 18 novices (Dicks et al., 2017) and the case of a goalkeeper under ten (Luis-Del Campo et al., 2024) point in the same direction. No controlled trial has measured saves in matches.
In ice hockey and handball, an earlier or longer quiet eye goes with saves (Panchuk and Vickers, 2006; Jedziniak et al., 2025). In football, results diverge, and quiet eye duration varies from one goalkeeper and one save to another (Ramsey et al., 2020).
In part. In ice hockey as in football, the side of the shot is read better than its height (Salmela and Fiorito, 1979). Expertise nevertheless sticks to the opponent: field hockey goalkeepers poorly transfer their reading from women to men shooters (Morris-Binelli et al., 2022), and handball goalkeepers read left-handers less well (Loffing et al., 2015).
Yes, as soon as a signal appears: double vision, blur that persists, headaches on exertion or dizziness. The ophthalmologist comes first, then the orthoptist in France or the optometrist in Switzerland and the United States. LabO RNP is neither medical nor paramedical, and is an addition to a care pathway, never a replacement for it.
The goalkeeper reads the kicker with their whole body, and it is in the dive that you check what the screen has taught them.
👉 I want to understand what my goalkeeper perceives before correcting their dive.
By the LabO RNP team
Method. Inventory of November 3, 2026, drawn from the LabO RNP inventory of studies on athlete vision and a complementary PubMed search: 64 studies on the goalkeeper or the penalty identified, 50 analyzed. Excluded: references without an abstract or readable text, studies on the shooter alone, classification of goalkeepers by machine learning, tasks outside shot anticipation. No PubMed study on the water polo goalkeeper's gaze. PMIDs verified on PubMed on November 3, 2026; four non-indexed studies cited by their DOI, verified on Crossref.
Abernethy B, Schorer J, Jackson RC, Hagemann N (2012). Perceptual training methods compared: the relative efficacy of different approaches to enhancing sport-specific anticipation. J Exp Psychol Appl, 18(2), 143-53. PMID 22564086. doi:10.1037/a0028452
Alsharji KE, Wade MG (2016). Perceptual training effects on anticipation of direct and deceptive 7-m throws in handball. J Sports Sci, 34(2), 155-62. PMID 25917061. doi:10.1080/02640414.2015.1039463
Amini Farsani M, Shahbazi M, Tahmasebi Boroujeni S (2023). Improvement in soccer goalkeepers' spatial anticipation during penalty kicks as a result of PETTLEP imagery intervention. Journal of Imagery Research in Sport and Physical Activity, 18(1). Not indexed in PubMed. doi:10.1515/jirspa-2023-0022
Andrew M, Causer J (2022). Does anticipation of penalty kicks in soccer transfer across similar and dissimilar sports?. Cogn Process, 23(3), 459-465. PMID 35355142. doi:10.1007/s10339-021-01073-y
Button C, Dicks M, Haines R, Barker R, Davids K (2011). Statistical modelling of gaze behaviour as categorical time series: what you should watch to save soccer penalties. Cogn Process, 12(3), 235-44. PMID 21140189. doi:10.1007/s10339-010-0384-6
Causer J, Williams AM (2015). The use of patterns to disguise environmental cues during an anticipatory judgment task. J Sport Exerc Psychol, 37(1), 74-82. PMID 25730893. doi:10.1123/jsep.2014-0200
Dessing JC, Craig CM (2010). Bending it like Beckham: how to visually fool the goalkeeper. PLoS One, 5(10), e13161. PMID 20949130. doi:10.1371/journal.pone.0013161
Diaz GJ, Fajen BR, Phillips F (2012). Anticipation from biological motion: the goalkeeper problem. J Exp Psychol Hum Percept Perform, 38(4), 848-64. PMID 22309088. doi:10.1037/a0026962
Dicks M, Button C, Davids K (2010a). Examination of gaze behaviors under in situ and video simulation task constraints reveals differences in information pickup for perception and action. Atten Percept Psychophys, 72(3), 706-20. PMID 20348577. doi:10.3758/APP.72.3.706
Dicks M, Davids K, Button C (2010b). Individual differences in the visual control of intercepting a penalty kick in association football. Hum Mov Sci, 29(3), 401-11. PMID 20359763. doi:10.1016/j.humov.2010.02.008
Dicks M, Button C, Davids K (2010c). Availability of advance visual information constrains association-football goalkeeping performance during penalty kicks. Perception, 39(8), 1111-24. PMID 20942362. doi:10.1068/p6442
Dicks M, Pocock C, Thelwell R, van der Kamp J (2017). A Novel On-Field Training Intervention Improves Novice Goalkeeper Penalty Kick Performance. The Sport Psychologist, 31(2), 129-133. Not indexed in PubMed. doi:10.1123/tsp.2015-0148
Faquin BS, Teixeira LA, Candido CRC, Arias RLB, Okazaki VHA (2024). Perceptual training with implicit and explicit learning improves the prediction of ball direction in soccer penalty kicks. Int J Psychol, 59(6), 1158-1167. PMID 39295164. doi:10.1002/ijop.13245
Franks B, Roberts WM, Jakeman J, Swain J, Davids K (2022). A Descriptive Case Study of Skilled Football Goalkeepers During 1 v 1 Dyads: A Case for Adaptive Variability in the Quiet Eye. Front Psychol, 13, 908123. PMID 35874354. doi:10.3389/fpsyg.2022.908123
Higueras-Herbada A, Lopes JE, Travieso D, Ibáñez-Gijón J, Araújo D, Jacobs DM (2020). Height After Side: Goalkeepers Detect the Vertical Direction of Association-Football Penalty Kicks From the Ball Trajectory. Front Psychol, 11, 311. PMID 32174871. doi:10.3389/fpsyg.2020.00311
Huesmann K, Loffing F, Büsch D, Schorer J, Hagemann N (2022). Varying Degrees of Perception-Action Coupling and Anticipation in Handball Goalkeeping. J Mot Behav, 54(4), 391-400. PMID 34663190. doi:10.1080/00222895.2021.1984868
Huesmann K, Schorer J, Büsch D, Loffing F (2025). Expertise and training of anticipation in goalkeeping: Two scoping reviews. J Sports Sci, 43(18), 2075-2099. PMID 40684285. doi:10.1080/02640414.2025.2533002
Jedziniak W, Panek K, Lesiakowski P, Florkiewicz B, Zwierko T (2025). Differences in Gaze Behavior Between Male and Female Elite Handball Goalkeepers During Penalty Throws. Brain Sci, 15(3). PMID 40149833. doi:10.3390/brainsci15030312
Ji Q, Zhou C, Wang Y (2023). Influence of conflicting prior information on action anticipation in soccer players: an ERP study. Front Behav Neurosci, 17, 1320900. PMID 38131060. doi:10.3389/fnbeh.2023.1320900
Loffing F, Sölter F, Hagemann N, Strauss B (2015). Accuracy of Outcome Anticipation, But Not Gaze Behavior, Differs Against Left- and Right-Handed Penalties in Team-Handball Goalkeeping. Front Psychol, 6, 1820. PMID 26648887. doi:10.3389/fpsyg.2015.01820
Luis-Del Campo V, Esteves PT, Monteiro LP, Casanova FLM (2024). Case Report: Effect of providing penalty kicking tendencies on goalkeeper's motor behaviour and performance: a case study with an on-field intervention on youth football. Front Sports Act Living, 6, 1356340. PMID 39329051. doi:10.3389/fspor.2024.1356340
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Masters RS, van der Kamp J, Jackson RC (2007). Imperceptibly off-center goalkeepers influence penalty-kick direction in soccer. Psychol Sci, 18(3), 222-3. PMID 17444916. doi:10.1111/j.1467-9280.2007.01878.x
Morris-Binelli K, Müller S, van Rens FECA, Harbaugh AG, Rosalie SM (2022). Individual Differences and Transfer of Visual Anticipation in Expert Female Field Hockey Goalkeepers. Optom Vis Sci, 99(2), 150-158. PMID 34897232. doi:10.1097/OPX.0000000000001851
Murphy CP, Patel K, Hope E, North JS (2025). Early identification of the opposition shot taker characterises elite goalkeepers' ability to read the game. Sci Med Footb, 9(2), 181-188. PMID 38530231. doi:10.1080/24733938.2024.2329466
Murta CCF, Albuquerque MR, Greco PJ, Raab M, Praça GM (2022). Goalkeepers put their money where the coach's mouth is: Knowing kickers' preferences enhances anticipation of football goalkeepers. International Journal of Sport and Exercise Psychology, 20(5), 1507-1522. Not indexed in PubMed. doi:10.1080/1612197x.2021.1987962
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