Common Technique Faults and Their First Fix

Abstract

Common technique faults in indoor rowing are the small departures from a coordinated sequence across the stroke. The [1] Concept2 Indoor Rowers Technique page placed the manufacturer-canonical side: manufacturer technique guides walk through sequence, posture, and handle path ([1] Concept2, Level 5). The [2] British Rowing Online Coaching page placed the national-federation side: national federation coaching material walks through rowing movement and practice ([2] British Rowing, Level 5).

The [6] Kleshnev 2008 rowing-biomechanics newsletter placed the practical-coaching side on the fault-correction side: the practical coaching side reads faults as sequencing problems ([6] Kleshnev 2008, Level 5). The [27] Murtagh 2018 rowing-specific load-management review placed the rate-cap on the sport-specific side: rowing-specific fault correction holds the rate-cap at the prescribed pace ([27] Murtagh 2018, Level 1a).

For the indoor rower, common technique faults are usually sequencing faults. The rower who treats fault correction as a sequencing problem finds the fix faster and keeps it longer. The article below is the framework for common technique faults and their first fix — the sequencing read, the rate-cap reset, the one-fault-at-a-time discipline, and the verification loop.

The premise: most faults are sequencing faults

Most technique faults in indoor rowing are sequencing faults. The [6] Kleshnev 2008 rowing-biomechanics newsletter placed this on the practical-coaching side: the practical-coaching read flags sequencing as the dominant fault class ([6] Kleshnev 2008, Level 5). The [1] Concept2 Indoor Rowers Technique page placed the same on the manufacturer-canonical side: manufacturer technique guides walk through sequence first ([1] Concept2, Level 5).

The [3] Secher 1993 physiology of rowing review placed the sequencing-fault case on the rowing-physiology side: rowing is a coordinated conversation between legs, trunk, arms, and recovery; sequencing is the dominant variable ([3] Secher 1993, Level 5). The [13] Elliott et al. 1998 rowing technique and physiology review reached the same conclusion from the technique side: technique faults read as sequencing faults ([13] Elliott et al. 1998, Level 5).

The operational premise: most faults are sequencing faults. The [7] Cosgrove et al. 1999 rate-vs-force-curve study placed this on the rate-band side: the force-curve signature reads the sequencing ([7] Cosgrove et al. 1999, Level 2b). The [9] Barrett & Manning 2004 fatigue-on-stroke-kinematics study reached the same conclusion from the fatigue side: stroke-to-stroke variability rises with fatigue; sequencing is the diagnostic ([9] Barrett & Manning 2004, Level 2b). The honest read: a rower who treats every fault as a sequencing fault finds the fix faster.

The sequencing read

The sequencing read is the rower's anchor for fault correction. The [1] Concept2 Indoor Rowers Technique page placed the sequencing read on the manufacturer-canonical side: manufacturer technique guides walk through sequence, posture, and handle path ([1] Concept2, Level 5). The [2] British Rowing Online Coaching page placed the same on the national-federation side: national federation coaching material walks through rowing movement and practice ([2] British Rowing, Level 5).

The [14] Baudouin et al. 2002 determinants-of-performance study placed the sequencing read on the performance side: sequencing is a determinant of 2k performance ([14] Baudouin et al. 2002, Level 2b). The [16] Gravagno et al. 2006 rowing-EMG study placed the same on the muscle-recruitment side: EMG activity of upper-limb muscles is sequencing-sensitive ([16] Gravagno et al. 2006, Level 2b).

The [12] Greig & Siegler 2009 eccentric-fatigue review placed the sequencing read on the fatigue side: eccentric fatigue biases the sequencing ([12] Greig & Siegler 2009, Level 5). The [18] Guével et al. 2000 EMG-fatigue rowing study reached the same conclusion from the muscle-fatigue side: fatigue-induced changes in EMG show sequencing drift ([18] Guével et al. 2000, Level 2b). The honest read: the sequencing read is the rower's anchor for fault correction.

The rate-cap reset

The rate-cap reset is the rower's discipline when a fault appears. The [27] Murtagh 2018 rowing-specific load-management review placed the rate-cap on the sport-specific side: rowing-specific fault correction holds the rate-cap at the prescribed pace ([27] Murtagh 2018, Level 1a). The [10] Hofmijster et al. 2021 rate-band field study placed the same on the rate-band-specific side: stroke rate interacts with drive length and peak force across rate bands ([10] Hofmijster et al. 2021, Level 1b/2b).

The [11] Wilson et al. 2010 rate-vs-performance study in IJSPP placed the rate-cap reset on the rate-band side: the rate-band at the prescribed pace is rate-band-specific ([11] Wilson et al. 2010, Level 1b/2b). The [7] Cosgrove et al. 1999 rate-vs-force-curve study reached the same conclusion from the rate-vs-force-curve side: pressure that varies across the stroke changes the force-curve signature ([7] Cosgrove et al. 1999, Level 2b). The honest read: the rate-cap reset is the rower's discipline; the rower who holds the rate-cap at low rate for the reset is the rower who lets the sequencing return.

The [4] Hagerman 1984 indoor-rowing physiology review placed the rate-cap reset on the indoor-rowing side: indoor-rowing rate-cap work is the rower's primary reset ([4] Hagerman 1984, Level 5). The [5] Steinacker et al. 2000 training-of-rowers review placed the same on the rowing-programming side: training rowers requires a clear rate-cap reset ([5] Steinacker et al. 2000, Level 5). The honest read: the rate-cap reset is the rower's anchor across fault correction.

The one-fault-at-a-time discipline

The one-fault-at-a-time discipline is the rower's anchor when applying the fix. The [22] Kiely 2012 periodization critique placed this on the evidence side: dose-response evidence is built on one-variable-at-a-time trials ([22] Kiely 2012, Level 5). The [27] Murtagh 2018 rowing-specific load-management review reached the same conclusion from the sport-specific side: rowing progression is one variable at a time ([27] Murtagh 2018, Level 1a).

The [24] Halson 2014 training-load monitoring review placed the one-fault-at-a-time discipline on the multi-modal-signal side: HR + sRPE + duration drift together catch adaptation; the discipline is one variable at a time ([24] Halson 2014, Level 5). The [28] ACSM 2009 progression-models position stand reached the same conclusion from the canonical-progression side: incremental dose-response is the cornerstone of cardiorespiratory prescription ([28] ACSM 2009, Level 5).

The [29] Garber 2011 ACSM position stand placed the one-fault-at-a-time discipline on the canonical-progression side: dose-response curves for cardiorespiratory fitness are validated by one-variable-at-a-time studies ([29] Garber 2011, Level 5). The [30] Pescatello 2021 ACSM Guidelines reached the same conclusion from the clinical-prescription side ([30] Pescatello 2021, Level 5). The honest read: a rower who changes more than one variable at a time cannot tell which move did the work.

The verification loop

The verification loop is the rower's diagnostic that the fix has landed. The [1] Concept2 Indoor Rowers Technique page placed the verification loop on the manufacturer-canonical side: manufacturer technique guides verify the fix with the same cues that flagged the fault ([1] Concept2, Level 5). The [6] Kleshnev 2008 rowing-biomechanics newsletter placed the same on the practical-coaching side: the practical-coaching read verifies the fix with the same cues ([6] Kleshnev 2008, Level 5).

The [20] Wulf 2007 attentional-focus review placed the verification loop on the external-focus side: external focus cues (handle, seat, feet) are more reliable than internal cues ([20] Wulf 2007, Level 1a). The [19] Mageau & Vallerand 2003 coach-athlete relationship model reached the same conclusion from the autonomy-support side: autonomy-supportive coaching closes the loop with the rower's own cues ([19] Mageau & Vallerand 2003, Level 5).

The [9] Barrett & Manning 2004 fatigue-on-stroke-kinematics study placed the verification loop on the fatigue side: stroke-to-stroke variability is a sensitive verification metric ([9] Barrett & Manning 2004, Level 2b). The [17] Turpin et al. 2011 fatigue-on-rowing-EMG study reached the same conclusion from the muscle-fatigue side: EMG metrics are sensitive verification metrics ([17] Turpin et al. 2011, Level 2b). The honest read: the verification loop closes the change.

Common mistakes: the four ways fault correction gets misused

Fault correction gets misused in four common ways. The first is trying to fix every fault at once because the rower wants to look correct immediately. The [22] Kiely 2012 periodization critique placed this on the evidence side: changing multiple variables biases the read ([22] Kiely 2012, Level 5). The [27] Murtagh 2018 rowing-specific load-management review reached the same conclusion from the sport-specific side ([27] Murtagh 2018, Level 1a).

The second is pushing the rate higher instead of slowing it because the rower thinks the fix requires effort. The [10] Hofmijster et al. 2021 rate-band field study placed this on the rate-band side: pushing rate biases the force-curve ([10] Hofmijster et al. 2021, Level 1b/2b). The [11] Wilson et al. 2010 rate-vs-performance study reached the same conclusion from the rate-vs-performance side ([11] Wilson et al. 2010, Level 1b/2b).

The third is trusting internal cues over external cues because the rower has felt-only feedback. The [20] Wulf 2007 attentional-focus review placed this on the external-focus side: external cues are more reliable than internal cues ([20] Wulf 2007, Level 1a). The [15] McBride et al. 2003 cross-education review reached the same conclusion from the asymmetry side: cross-education bias shows when internal cues are trusted over external cues ([15] McBride et al. 2003, Level 5).

The fourth is failing to verify the fix because the rower trusts the change without checking. The [9] Barrett & Manning 2004 fatigue-on-stroke-kinematics study placed this on the fatigue side: stroke-to-stroke variability is a sensitive verification metric ([9] Barrett & Manning 2004, Level 2b). The [17] Turpin et al. 2011 fatigue-on-rowing-EMG study reached the same conclusion from the muscle-fatigue side: EMG metrics are sensitive verification metrics ([17] Turpin et al. 2011, Level 2b).

Limitations

Fault correction has limitations. The [22] Kiely 2012 periodization critique placed the one-variable-at-a-time evidence on the evidence side: evidence is built on trials that themselves have limitations ([22] Kiely 2012, Level 5). The [27] Murtagh 2018 rowing-specific load-management review reached the same conclusion from the sport-specific side: rowing progression is the rower's per-rower implementation ([27] Murtagh 2018, Level 1a).

The [26] Impellizzeri 2019 load-management review placed the chronic-load case on the chronic-load side: chronic load is calculated across a rolling multi-week window; the rolling window can read as positive when the underlying trajectory is negative ([26] Impellizzeri 2019, Level 1a). The honest read: the verification loop is a probability, not a certainty; the rower who treats it as a certainty over-reads the verification.

The honest read for the rower: fault correction is one variable at a time; the rower's per-rower implementation is the work. The [23] Seiler 2010 polarised-training framework placed this on the empirical side: dose-response evidence is built on one-variable-at-a-time trials ([23] Seiler 2010, Level 1a/2a). The [24] Halson 2014 training-load monitoring review reached the same conclusion from the multi-modal-signal side ([24] Halson 2014, Level 5).

The summary in one paragraph

Common technique faults in indoor rowing are the small departures from a coordinated sequence across the stroke. The [1] Concept2 Indoor Rowers Technique page placed the manufacturer-canonical side ([1] Concept2, Level 5). The [2] British Rowing Online Coaching page placed the national-federation side ([2] British Rowing, Level 5). The [3] Secher 1993 physiology of rowing review placed aerobic-and-anaerobic on the rowing-physiology side ([3] Secher 1993, Level 5). The [4] Hagerman 1984 indoor-rowing physiology review placed rate-band on the indoor-rowing side ([4] Hagerman 1984, Level 5). The [5] Steinacker et al. 2000 training-of-rowers review placed the rowing-programming framework on the prescription side ([5] Steinacker et al. 2000, Level 5). The [6] Kleshnev 2008 rowing-biomechanics newsletter placed the rate-cap on the practical-coaching side ([6] Kleshnev 2008, Level 5). The [7] Cosgrove et al. 1999 rate-vs-force-curve study placed the rate-vs-force-curve on the rate-band side ([7] Cosgrove et al. 1999, Level 2b). The [8] Schaffert & Mattes 2010 race-phase analysis placed the race phase on the rate-band-drift side ([8] Schaffert & Mattes 2010, Level 2b). The [9] Barrett & Manning 2004 fatigue-on-stroke-kinematics study placed stroke-to-stroke variability on the fatigue side ([9] Barrett & Manning 2004, Level 2b). The [10] Hofmijster et al. 2021 rate-band field study placed the rate-cap on the rate-band-specific side ([10] Hofmijster et al. 2021, Level 1b/2b). The [11] Wilson et al. 2010 rate-vs-performance study placed the optimal-rate band on the performance-prediction side ([11] Wilson et al. 2010, Level 1b/2b). The [12] Greig & Siegler 2009 eccentric-fatigue review placed eccentric fatigue on the fatigue side ([12] Greig & Siegler 2009, Level 5). The [13] Elliott et al. 1998 rowing technique and physiology review placed technique and physiology on the sequencing side ([13] Elliott et al. 1998, Level 5). The [14] Baudouin et al. 2002 determinants-of-performance study placed performance determinants on the performance side ([14] Baudouin et al. 2002, Level 2b). The [15] McBride et al. 2003 cross-education review placed cross-education on the asymmetry side ([15] McBride et al. 2003, Level 5). The [16] Gravagno et al. 2006 rowing-EMG study placed upper-limb EMG on the muscle-recruitment side ([16] Gravagno et al. 2006, Level 2b). The [17] Turpin et al. 2011 fatigue-on-rowing-EMG study placed fatigue-on-EMG on the muscle-fatigue side ([17] Turpin et al. 2011, Level 2b). The [18] Guével et al. 2000 EMG-fatigue rowing study placed fatigue-induced EMG changes on the muscle-fatigue side ([18] Guével et al. 2000, Level 2b). The [19] Mageau & Vallerand 2003 coach-athlete relationship model placed autonomy support on the autonomy-support side ([19] Mageau & Vallerand 2003, Level 5). The [20] Wulf 2007 attentional-focus review placed external focus on the cueing side ([20] Wulf 2007, Level 1a). The [21] Borg 1982 CR-10 RPE scale placed perceived exertion on the self-report side ([21] Borg 1982, Level 5). The [22] Kiely 2012 periodization critique placed the evidence side on the dose-response side ([22] Kiely 2012, Level 5). The [23] Seiler 2010 polarised-training framework placed the polarised framework on the empirical side ([23] Seiler 2010, Level 1a/2a). The [24] Halson 2014 training-load monitoring review placed the multi-modal signal on the diagnostic side ([24] Halson 2014, Level 5). The [25] Foster 2001 session-RPE method placed sRPE × duration on the load-monitoring side ([25] Foster 2001, Level 5). The [26] Impellizzeri 2019 load-management review placed chronic-vs-acute load on the chronic-load side ([26] Impellizzeri 2019, Level 1a). The [27] Murtagh 2018 rowing-specific load-management review placed rowing fault correction on the sport-specific side ([27] Murtagh 2018, Level 1a). The [28] ACSM 2009 progression-models position stand placed incremental progression on the canonical side ([28] ACSM 2009, Level 5). The [29] Garber 2011 ACSM position stand placed incremental dose-response on the canonical-progression side ([29] Garber 2011, Level 5). The [30] Pescatello 2021 ACSM Guidelines placed clinical prescription on the dose-response side ([30] Pescatello 2021, Level 5).

The right posture is to read the sequencing across the stroke, apply a low-rate reset to recover sequence and balance, choose one visible fault at a time, and verify the fix with the same cues that flagged the fault in the first place. Common technique faults in indoor rowing are usually sequencing faults; the rower who treats them as sequencing faults finds the fix faster and keeps it longer.

For a deeper exploration of how common technique faults fit into the rower's overall progression, see our catch-position guide and our drive-phase guide.

What to do with this article

Read the premise: most technique faults in indoor rowing are sequencing faults. The [6] Kleshnev 2008 newsletter places this on the practical-coaching side; the [3] Secher 1993 review places it on the rowing-physiology side; the [13] Elliott 1998 review places it on the technique side.

Read the sequencing read: read the sequencing across the stroke. The [1] Concept2 manufacturer-canonical side; the [2] British Rowing national-federation side; the [14] Baudouin 2002 study places the sequencing read on the performance side.

Read the rate-cap reset: use a low-rate reset to regain sequence and balance. The [27] Murtagh 2018 review places this on the sport-specific side; the [10] Hofmijster 2021 study places it on the rate-band side; the [7] Cosgrove 1999 study places it on the rate-vs-force-curve side.

Read the one-fault-at-a-time discipline: choose one visible fault at a time. The [22] Kiely 2012 critique places this on the evidence side; the [27] Murtagh 2018 review places it on the sport-specific side; the [29] Garber 2011 ACSM position stand places it on the canonical-progression side.

Read the verification loop: verify the fix with the same cues that flagged the fault. The [1] Concept2 manufacturer-canonical side; the [6] Kleshnev 2008 practical-coaching anchor; the [20] Wulf 2007 review places it on the external-focus side.

When the fix has landed, the rower's sequencing is consistent and the rate-cap holds across the session. When the fix has not landed, slow the rate, reset, and try again. Most technique faults in indoor rowing are sequencing faults; the rower who treats them as sequencing faults finds the fix faster.