Coordination Questionnaire for Parents / Developmental Coordination Disorder Questionnaire

1. Abstract

The Developmental Coordination Disorder Questionnaire (DCDQ; Dutch adaptation: Coördinatievragenlijst voor Ouders, CVO) is an internationally validated, parent-report screening instrument engineered to identify motor coordination impairments and operationalize diagnostic screening for Developmental Coordination Disorder (DCD) in children aged 5 to 15 years. Developed originally by Brenda N. Wilson and colleagues (2000) and later revised as the DCDQ’07, with standard Dutch cross-cultural adaptation executed by Marina M. Schoemaker and colleagues (2007), the instrument directly aligns with Diagnostic and Statistical Manual of Mental Disorders (DSM-5) Criterion B by assessing the degree to which motor coordination deficits interfere with activities of daily living and academic achievement.

The measure comprises 15 items evaluated on a 5-point Likert-type scale ranging from 1 (“Not at all like your child”) to 5 (“Extremely like your child”), yielding an aggregate total score spanning 15 to 75 where lower scores indicate greater motor difficulty. Psychometric evaluations demonstrate a robust three-factor latent structure comprising: (1) Control During Movement (6 items), capturing gross motor stability, motor planning, and dynamic projectile management; (2) Fine Motor/Handwriting (4 items), indexing pencil grasp, graphomotor legibility, pressure regulation, and precision bimanual cutting; and (3) General Coordination (5 items), appraising motor learning rate, structural fatigue, daily living self-care velocity, and generalized clumsiness. Across international cohorts, the DCDQ/CVO exhibits high internal consistency (overall Cronbach’s alpha exceeding .88 to .94; subscales ranging from .70 to .89) and solid test-retest reliability ($r = .94$). Criterion-related validity evaluated against performance benchmarks like the Movement Assessment Battery for Children (M-ABC and M-ABC-2) demonstrates high clinical sensitivity (80% to 88%) and specificity (83% to 90%), substantiating its standing as a premier first-tier screening tool in pediatric neurology, occupational therapy, physiotherapy, and developmental psychology.

2. Keywords

Developmental Coordination Disorder, DCDQ, Coördinatievragenlijst voor Ouders, CVO, motor impairment, pediatric screening, gross motor skills, fine motor skills, handwriting, parent-report instrument

3. Authors

The original Developmental Coordination Disorder Questionnaire (DCDQ) and its psychometric revisions were developed by Brenda N. Wilson, MS, OT(C), and colleagues (including Stephen G. Crawford, Deborah Green, Gerald Roberts, Alyssa Aylott, and Bonnie J. Kaplan) affiliated with the Department of Paediatrics at the University of Calgary, the Alberta Children’s Hospital, and the Faculty of Medicine at the University of Calgary, Alberta, Canada.

The Dutch adaptation, clinical standardization, and cross-cultural psychometric validation of the Coördinatievragenlijst voor Ouders (CVO) were conducted by Marina M. Schoemaker, PhD, PT, and her collaborative research team at the Center for Human Movement Sciences, University Medical Center Groningen (UMCG), University of Groningen, the Netherlands, alongside pediatric physical therapy specialists across Dutch developmental rehabilitation clinics.

4. Purpose

Developmental Coordination Disorder (DCD) is a pervasive neurodevelopmental condition characterized by significant motor coordination impairments that cannot be attributed to general intellectual disability, primary sensory deficits, or congenital or acquired neurological disorders (such as cerebral palsy or muscular dystrophy). Affecting an estimated 5% to 6% of school-aged children globally, DCD impedes the acquisition and execution of coordinated motor skills, precipitating downstream psychosocial sequelae including social withdrawal, anxiety, reduced physical fitness, and low academic self-efficacy. Clinical guidelines, including the European Academy of Childhood Disability (EACD) recommendations, mandate that formal diagnosis require the demonstration that motor deficits markedly interfere with daily life activities, personal independence, or academic performance (DSM-5 Criterion B).

Standard clinical motor batteries, such as the Movement Assessment Battery for Children (M-ABC-2) or the Bruininks-Oseretsky Test of Motor Proficiency (BOT-2), provide direct, objective measurement of motor impairment in structured, artificial environments (Criterion A). However, these laboratory-based assessments frequently fail to capture how motor planning deficits manifest across variable, everyday naturalistic contexts, such as the home, playground, and classroom. The primary purpose of the DCDQ / CVO is to bridge this diagnostic gap by providing a reliable, cost-effective, and standardized parent-report questionnaire that quantifies parental observations of motor execution during functional tasks.

In pediatric healthcare, occupational therapy, physical therapy, and epidemiological research, the DCDQ / CVO serves three distinct functions. First, it functions as a primary population and clinical triage screening tool to identify children at elevated risk of DCD before scheduling resource-intensive, direct clinical assessments. Second, it operationalizes DSM-5 Criterion B within multi-informant diagnostic pathways, systematically documenting functional interference in activities of daily living (ADLs) and scholastic tasks (e.g., dressing, handwriting, scissor usage, ball sports). Third, within longitudinal intervention and rehabilitation studies, the DCDQ serves as a standardized outcome measure to track ecological transfer of therapeutic gains from clinic-based interventions to real-world home and school environments.

5. Psychological Construct

The psychological and physiological construct measured by the DCDQ / CVO is perceived functional motor competence in naturalistic settings. Rather than measuring raw kinetic force or isolated reflex integrity, the instrument targets the integrated cognitive-motor planning, sensorimotor integration, dynamic balance, and visuo-spatial control required for complex motor execution. The construct is operationalized across three interrelated latent dimensions:

Control During Movement

This subscale assesses gross motor coordination, dynamic balance, visual-motor tracking, and feedforward motor planning during dynamic kinetic activities. Items in this domain evaluate the child’s ability to coordinate ballistic movements and track trajectory vectors in three-dimensional space, such as accurately throwing a ball, intercepting an approaching projectile (e.g., catching a tennis ball or striking a moving shuttlecock with a racket), jumping cleanly over playground barriers, and executing coordinated sprint mechanics matched to peer norms. Furthermore, it probes motor praxis and motor ideation: the child’s capacity to conceptualize, sequence, and organize body segments to implement complex multi-step kinetic goals, such as assembling a functional cushion fort or navigating challenging playground obstacle courses.

Fine Motor/Handwriting

This dimension focuses on manual dexterity, distal finger control, visuomotor integration, and graphomotor mechanics within classroom and table-top activities. The items measure the child’s ability to maintain legible, accurately formatted handwriting and drawing at a pace sufficient to satisfy scholastic demands, without experiencing atypical muscular fatigue or postural collapse. It evaluates the child’s kinetic sensorimotor regulation, specifically the modulation of pen/pencil grip pressure to avoid tearing paper or producing faint, uncontrolled strokes, alongside bimanual coordination required to accurately cut intricate shapes with scissors.

General Coordination

This subscale captures general motor competence, motor learning capacity, structural stamina, and general motor safety during routine activities of daily living. It evaluates the child’s intrinsic motivation to engage in social active games, their capacity to acquire novel procedural motor repertoires (such as swimming or bicycling) without requiring extensive, compensatory training intervals, and their efficiency and speed in performing fundamental self-care tasks (e.g., tying shoe laces, fastening buttons, donning footwear). Additionally, this dimension evaluates generalized somatic stability and postural endurance, screening for recurrent tripping, bumping into environmental obstacles (clumsiness), and rapid axial/postural fatigue evidenced by slumped posture at academic workstations.

6. Theoretical Framework

The DCDQ / CVO is anchored in contemporary neurocomputational theories of motor control, notably the Internal Modeling Deficit (IMD) hypothesis, dynamic systems theory, and the World Health Organization’s International Classification of Functioning, Disability and Health (ICF) framework.

Under the computational motor control framework articulated by Wolpert, Kawato, and applied to DCD by Wilson and Peter Wilson, skilled motor behavior relies on internal models within the cerebellum and parietal networks. These models comprise forward models (which predict the sensory consequences of an efference motor copy before peripheral feedback is available) and inverse models (which calculate the motor commands necessary to achieve an intended trajectory). Children with DCD demonstrate profound impairments in generating accurate internal forward models, forcing an over-reliance on slow, feedback-driven peripheral sensory loops. Consequently, when tasks involve fast environmental dynamics—such as hitting an approaching ball, catching a projectile, or running dynamically across irregular terrain—the internal predictive error cannot be corrected in time, leading to clumsy, uncoordinated execution. Items within the “Control During Movement” subscale directly tap into these forward-modeling predictive capabilities.

Within dynamic systems theory (Thelen & Smith), motor behavior emerges from non-linear interactions across organismic, environmental, and task constraints. Fine motor activities like handwriting and scissor cutting require the stabilization of degrees of freedom in proximal limb joints (shoulder, elbow) to allow refined, high-frequency kinetic control at the distal extremities (fingers, wrist). Children with coordination difficulties frequently co-contract antagonistic muscle groups to freeze degrees of freedom, which explains the high writing fatigue, awkward pencil grip, and poor pressure modulation captured by the “Fine Motor/Handwriting” dimension.

Finally, the conceptual architecture aligns with the WHO ICF model. While standardized clinical examinations assess body functions and structural impairments, the DCDQ explicitly measures the Activity (execution of discrete daily tasks) and Participation (engagement in community, recreation, and classroom settings) domains, providing ecologically valid operationalization of disability.

7. Validity

The psychometric validity of the DCDQ and its Dutch adaptation (CVO) has been rigorously established across multiple pediatric cohorts, clinical control paradigms, and cross-cultural validations.

Construct and Structural Validity

Construct validity is evidenced by the scale’s ability to differentiate between neurotypical children and children with verified motor disorders. In the standardization study of the revised DCDQ’07 (Wilson et al., 2009) involving 282 children with motor challenges and 708 typically developing controls, mean scores differed significantly across all three subscales and total scores ($p < .001$), with large effect sizes (Cohen’s$d > 1.2$). In the Dutch validation study conducted by Schoemaker et al. (2007) examining 173 children, the CVO demonstrated parallel discriminative capability, clearly separating children with DCD from typically developing peers across all three age bands.

Concurrent and Criterion-Related Validity

Criterion validity has been evaluated against the Movement Assessment Battery for Children (M-ABC and M-ABC-2) and the Bruininks-Oseretsky Test of Motor Proficiency (BOTMP). Concurrent correlation coefficients between the DCDQ/CVO total score and M-ABC total impairment scores consistently range between $r = -.55$ and $r = -.68$ (negative due to opposite scoring directionalities), indicating strong convergent agreement between parental ecological report and direct clinical assessment. When evaluated against M-ABC cutoff thresholds (≤ 5th percentile for definite motor impairment; ≤ 15th percentile for borderline impairment), the DCDQ’07 exhibits high diagnostic sensitivity (85% to 88.5%) and specificity (83% to 90.7%) in clinical referral samples, exceeding psychometric thresholds recommended for pediatric developmental screening tools.

Discriminant Validity

Discriminant validity has been demonstrated in studies comparing children with DCD to those with Attention-Deficit/Hyperactivity Disorder (ADHD) without motor impairment. While ADHD and DCD frequently co-occur (with comorbidity rates between 30% and 50%), children with isolated ADHD score significantly higher on the DCDQ than those with DCD or comorbid DCD+ADHD, confirming that the questionnaire targets motor execution deficits rather than generalized inattention or impulsivity.

8. Reliability

The DCDQ and CVO exhibit high reliability metrics across internal consistency, test-retest stability, and inter-rater agreement.

Internal Consistency

Standardized psychometric evaluations demonstrate high internal consistency for the total scale and adequate-to-high coefficients across individual subscales:

• Total Scale: Wilson et al. (2000, 2009) reported overall Cronbach’s alpha coefficients of $\alpha = .94$ in the normative and clinical validation samples. In the Dutch CVO standardization cohort (Schoemaker et al., 2007), internal consistency remained strong at $\alpha = .89$ to $.91$.
• Control During Movement (Items 1–6): Subscale alpha ranges from $\alpha = .85$ to $.89$.
• Fine Motor/Handwriting (Items 7–10): Subscale alpha ranges from $\alpha = .83$ to $.87$.
• General Coordination (Items 11–15): Subscale alpha ranges from $\alpha = .70$ to $.78$.

Test-Retest and Inter-Rater Reliability

Test-retest reliability was established by administering the instrument twice across a 2- to 3-week interval to parents of clinically stable children. Intraclass correlation coefficients (ICC) and Pearson correlation values were high, with total score test-retest reliability documented at $r = .94$ ($p < .001$) for the DCDQ’07 and ICC =$.88$ ($p < .001$) for the Dutch CVO adaptation. Agreement between maternal and paternal ratings yielded inter-rater correlation coefficients ranging from$r = .79$ to $.84$, confirming robust observational concordance between primary caregivers.

9. Factor Analysis

The latent dimensionality of the DCDQ / CVO has been investigated via exploratory factor analysis (EFA) and confirmatory factor analysis (CFA) across multiple international cohorts.

Exploratory Factor Structure

During the primary psychometric development of the revised 15-item DCDQ, principal component analyses with varimax and oblimin rotations yielded an invariant three-factor solution accounting for approximately 58% to 64% of the total variance across age cohorts. The three extracted factors mapped consistently onto:

• Factor 1: Control During Movement (eigenvalue ≈ 6.3), capturing projectile control, jumping, running, and motor planning (items 1–6), with salient factor loadings ranging from $.58$ to $.82$.
• Factor 2: Fine Motor/Handwriting (eigenvalue ≈ 1.8), loading items 7 through 10, with factor loadings ranging between $.64$ and $.85$.
• Factor 3: General Coordination (eigenvalue ≈ 1.2), loading items 11 through 15, with factor loadings spanning $.49$ to $.76$.

Confirmatory Factor Analysis and Cross-Cultural Invariance

CFA studies conducted across international adaptations—including the Dutch CVO (Schoemaker et al., 2007), German, French, and Asian cohorts—have verified the structural fit of the three-factor model. Goodness-of-fit indices satisfy standard empirical criteria:

• Comparative Fit Index (CFI): $.93 – .96$
• Tucker-Lewis Index (TLI): $.92 – .95$
• Root Mean Square Error of Approximation (RMSEA): $.048 – .062$ ($90%\text{ CI } [.041, .069]$)
• Standardized Root Mean Square Residual (SRMR): $.042 – .051$

Multi-group CFA has further demonstrated structural and metric measurement invariance across gender and age groupings (5–7 years, 8–9 years, and 10–15 years), confirming that the underlying construct of functional motor competence is evaluated equivalently across developmental periods.

10. Instrument / Measurement Tool

• Instrument Name: Developmental Coordination Disorder Questionnaire (DCDQ) / Dutch version: Coördinatievragenlijst voor Ouders (CVO).
• Format: Standardized parent/caregiver-completed behavioral rating questionnaire.
• Target Population: Children aged 5 years 0 months through 14 years 11 months (stratified across three clinical age brackets: 5y 0m – 7y 11m, 8y 0m – 9y 11m, and 10y 0m – 14y 11m).
• Item Count: 15 items grouped into three distinct subscales: Control During Movement (6 items), Fine Motor/Handwriting (4 items), and General Coordination (5 items).
• Response Format: 5-point Likert scale: 1 = Not at all like your child, 2 = A bit like your child, 3 = Moderately like your child, 4 = Quite a bit like your child, 5 = Extremely like your child.
• Scoring Direction: All 15 items are scored positively (1 to 5), with higher scores reflecting better motor coordination. The total raw score spans from 15 to 75.
• Age-Stratified Diagnostic Cutoff Thresholds:
  • Ages 5y 0m to 7y 11m: Total score 15–46 indicates an “Indication of DCD / Suspect DCD”; score 47–75 indicates “Probably not DCD”.
  • Ages 8y 0m to 9y 11m: Total score 15–55 indicates an “Indication of DCD / Suspect DCD”; score 56–75 indicates “Probably not DCD”.
  • Ages 10y 0m to 15y: Total score 15–57 indicates an “Indication of DCD / Suspect DCD”; score 58–75 indicates “Probably not DCD”.
• Administration Time: Approximately 10 to 15 minutes.

11. Permissions & Fee and Test Year

The original Developmental Coordination Disorder Questionnaire was published in 2000, with its standardized revised edition (DCDQ’07) published in 2009 by Brenda N. Wilson and colleagues. The official Dutch translation and psychometric adaptation (Coördinatievragenlijst voor Ouders, CVO) was developed and validated in 2007 by Marina M. Schoemaker and collaborators.

The DCDQ / CVO is an open-access clinical and academic screening instrument. It is made freely available for non-commercial clinical, rehabilitation, and educational research purposes by the original instrument copyright holders (Wilson et al., CanChild Centre for Childhood Disability Research, McMaster University). Clinicians and research investigators may obtain official copies, administration manuals, scoring sheets, and authorized cross-cultural translations via the dedicated portal (www.dcdq.ca) without payment of licensing royalties. Commercial distribution, proprietary electronic integration into electronic health records (EHR), or for-profit publication requires explicit written licensing permission from the copyright owners.

12. References

• American Psychiatric Association. (2013). Diagnostic and statistical manual of mental disorders (5th ed.). American Psychiatric Publishing. https://doi.org/10.1176/appi.books.9780890425596
• Blank, R., Smits-Engelsman, B., Polatajko, H., & Wilson, P. (2012). European Academy for Childhood Disability (EACD): Recommendations on the definition, diagnosis and intervention of developmental coordination disorder (long version). Developmental Medicine & Child Neurology, 54(1), 54–93. https://doi.org/10.1111/j.1469-8749.2011.04171.x
• Schoemaker, M. M., Flapper, B., Verheij, N. P., Wilson, B. N., & Reinders-Messelink, H. A. (2007). Evaluation of the Developmental Coordination Disorder Questionnaire as a screening instrument. Developmental Medicine & Child Neurology, 48(8), 668–673. https://doi.org/10.1111/j.1469-8749.2006.tb01333.x
• Wilson, B. N., Crawford, S. G., Green, D., Roberts, G., Aylott, A., & Kaplan, B. J. (2009). Psychometric properties of the revised Developmental Coordination Disorder Questionnaire. Physical & Occupational Therapy in Pediatrics, 29(2), 182–202. https://doi.org/10.1080/01942630902784761
• Wilson, B. N., Kaplan, B. J., Crawford, S. G., Campbell, A., & Dewey, D. (2000). Reliability and validity of a parent questionnaire on childhood motor skills. American Journal of Occupational Therapy, 54(5), 484–493. https://doi.org/10.5014/ajot.54.5.484
• Wilson, P. H., Ruddock, S., Smits-Engelsman, B., Polatajko, H., & Blank, R. (2017). Understanding performance deficits in developmental coordination disorder: A meta-analysis of recent empirical literature. Developmental Medicine & Child Neurology, 59(11), 1117–1129. https://doi.org/10.1111/dmcn.13530

13. Items of the Scale