Educational PsychologyPsychometricsSelf-Efficacy Scales

The Teaching Confidence Scale

The Teaching Confidence Scale (TCS) is a 32-item psychometric assessment developed by Anita Woolfolk Hoy and Wayne K. Hoy to measure teacher self-efficacy across classroom management, math/science, and innovative teaching.

memjavad
PUBLISHED
Scientifically Reviewed · Dr. Marwa Abd-Alazim · September 25, 2026
Medically & Scientifically Reviewed Verified: September 25, 2026
Dr. Marwa Abd-Alazim Ph.D.
Professor of Psychology • University of Kerbala
Review Criteria & Clinical Standards

This content undergoes rigorous scientific peer-review and medical editorial standards at Arab Psychology Network to ensure clinical accuracy, validity, and compliance with evidence-based guidelines from leading psychological and healthcare authorities (APA / WHO).

1. Abstract

The Teaching Confidence Scale (TCS), frequently cataloged in teacher education literature as the Ohio State University Teacher Confidence Scale, is a comprehensive 32-item self-report psychometric instrument engineered to evaluate prospective and practicing educators’ domain-specific instructional and professional self-efficacy beliefs. Originating from research on teacher preparation and the longitudinal trajectory of pedagogical competence, the TCS assesses educators’ perceived capabilities across pedagogical tasks, curricular domains, and operational classroom demands. Specifically, psychometric evaluations identify three primary subscales: Math/Science Teaching (8 items), Innovative Teaching (8 items), and Classroom Management (4 items), alongside additional specialized pedagogical items addressing assessment, literacy integration, and sociocultural dynamics. Respondents evaluate each statement using an anchored 6-point Likert response scale ranging from 1 (“Strongly Disagree”) to 6 (“Strongly Agree”). Grounded in Albert Bandura’s theoretical framework of self-efficacy and social cognitive theory, the instrument captures how internal cognitive appraisals govern instructional behaviors, resilience in the face of pedagogical obstacles, and classroom organizational performance. Psychometric investigations reveal robust internal consistency reliability across dimensions, with Cronbach’s alpha coefficients typically spanning from .78 to .94 for the full instrument and distinct subscales. Factor-analytic investigations confirm distinct multidimensional latent constructs that correspond to concrete demands of teacher training programs. This comprehensive article delineates the conceptual foundation, structural configuration, reliability, validity evidence, and administrative protocols of the Teaching Confidence Scale, establishing its utility for teacher preparation institutions, longitudinal educational research, and empirical investigations into educator retention and professional efficacy.

2. Keywords

Teaching Confidence Scale, teacher self-efficacy, pedagogical confidence, teacher education, classroom management, innovative teaching, mathematics instruction, science instruction, psychometrics, preservice teachers

3. Authors

The Teaching Confidence Scale was developed through teacher education and efficacy research led by prominent educational psychologists and instructional researchers affiliated with The Ohio State University:

  • Anita Woolfolk Hoy, Ph.D. — Professor Emerita of Educational Psychology, College of Education and Human Ecology, The Ohio State University. Renowned internationally for foundational contributions to educational psychology, instructional methodologies, and the conceptualization of teacher self-efficacy beliefs.
  • Wayne K. Hoy, Ed.D. — The Fawcett Professor Emeritus of Educational Administration, College of Education and Human Ecology, The Ohio State University. Widely recognized for seminal scholarship on school organizational climate, academic optimism, and structural organizational dynamics in educational leadership.
  • Rhonda Burke-Spero, Ph.D. — Researcher and educator associated with The Ohio State University, collaborating on foundational longitudinal inquiries regarding the emergence, stabilization, and fluctuation of teacher efficacy across preservice training and induction years.

Scholarly contact and archival repository: Research instruments, manuals, and related psychometric documentation are maintained via the institutional portal at The Ohio State University: http://u.osu.edu/hoy.17/research/instruments/ and Anita Woolfolk Hoy’s Research Archive.

4. Purpose

The primary purpose of the Teaching Confidence Scale is to measure preservice and novice educators’ task-specific self-efficacy beliefs regarding their instructional, organizational, and pedagogical competence. Originating within programmatic evaluations of teacher preparation programs at The Ohio State University, the instrument emerged from a recognized need to evaluate how teacher education curricula influence prospective teachers’ beliefs about their instructional readiness prior to and during initial classroom service. While generalized measures of teacher efficacy often gauged broad institutional expectations or fatalistic views regarding student socio-demographic limitations, the TCS was intentionally constructed to capture the multifaceted, task-level capabilities required of teachers navigating modern educational environments.

From an applied research and clinical teacher-preparation perspective, the instrument fulfills three vital functions:

  • Diagnostic Assessment of Teacher Candidate Competence: Teacher educators utilize the scale to benchmark prospective teachers’ confidence across core curricular and operational domains. By administering the scale prior to clinical student teaching practica, teacher education programs can pinpoint pedagogical deficits—such as low confidence in delivering inquiry-based science instruction, differentiating mathematics concepts, or establishing classroom management routines in complex environments.
  • Longitudinal Tracking Across Professional Milestones: Longitudinal studies (e.g., Hoy & Spero, 2005) leverage the TCS to measure shifts in efficacy during teacher preparation, the student teaching semester, and the critical first year of induction. Empirical data derived from the scale elucidate the documented “reality shock” experienced by novice teachers, wherein initial optimism during preservice coursework confronts authentic classroom challenges, leading to measurable shifts in perceived capability.
  • Evaluation of Teacher Preparation Curricula: The instrument acts as an empirical evaluation mechanism for teacher education interventions, professional development workshops, and targeted instructional practica. By administering the TCS using pretest-posttest designs, institutions can ascertain whether methodological coursework (e.g., integrated language arts, constructivist mathematics, or culturally responsive pedagogy) meaningfully elevates candidates’ sense of pedagogical competence.

The theoretical rationale rests on the principle that confidence—specifically, domain-specific self-efficacy—is not an innate personality trait, but a dynamic, malleable cognitive judgment. By operationalizing teaching tasks into concrete, curriculum-aligned statements, the TCS provides educational researchers and school administrators with granular insights into the psychological mechanisms that underpin instructional persistence, pedagogical innovation, and teacher retention.

5. Psychological Construct

The psychological construct operationalized by the Teaching Confidence Scale is teacher self-efficacy, conceptualized as a teacher’s judgment of their personal capabilities to bring about desired outcomes of student engagement and learning, even among difficult or unmotivated students (Bandura, 1997; Tschannen-Moran, Woolfolk Hoy, & Hoy, 1998). Rather than treating instructional competence as a global, unitary attribute, the TCS reflects the multidimensional reality of contemporary classroom teaching. Psychometric validation studies identify three prominent theoretical dimensions within the scale, alongside domain-spanning instructional competencies:

Math/Science Teaching Efficacy

This dimension encompasses an educator’s confidence in organizing, delivering, and facilitating cognitively demanding STEM instruction. It includes capabilities such as locating curricular resources for mathematics (Item 1), structuring science as a shared inquiry process (Item 13, Item 23), teaching advanced conceptual operations such as algebra and fractions (Item 17, Item 19), facilitating student discourse regarding mathematical reasoning (Item 21), fostering foundational number sense (Item 24), integrating mathematics with literary texts (Item 26), and providing concrete, manipulative-driven learning experiences (Item 28). This subscale specifically addresses domain-specific pedagogical content knowledge (PCK), capturing the degree to which teachers feel equipped to dismantle abstract scientific and mathematical principles into intuitive, developmental learning experiences.

Innovative Teaching and Curricular Design

The innovative teaching dimension reflects an educator’s perceived ability to execute student-centered, interdisciplinary, and differentiated instructional methodologies. Representative tasks include integrating language arts across subjects (Item 5), designing and implementing alternative assessment rubrics and techniques (Item 6, Item 14), diagnosing individual student academic needs (Item 7), curating thematic children’s literature (Item 8), leveraging multimedia to enhance instructional delivery (Item 29), evaluating educational software (Item 30), and adapting classroom content to accommodate cultural diversity (Item 31). This construct measures instructional flexibility and the capacity to transcend conventional, teacher-centric lecture modes in favor of constructivist, inquiry-oriented frameworks.

Classroom Management and Environmental Climate

Effective teaching requires an orderly, psychologically secure learning environment. The classroom management dimension measures an educator’s perceived competence in establishing behavioral routines, navigating institutional contexts, and nurturing communal relationships. Key markers include teaching effectively within high-need urban school systems (Item 10), facilitating inclusive and productive whole-class discussions (Item 11), establishing a supportive sense of community (Item 12), and orchestrating holistic classroom management systems (Item 18). This construct assesses an educator’s perceived agency in preventing disruptive behaviors, creating structured learning settings, and fostering social-emotional safety.

6. Theoretical Framework

The theoretical framework undergirding the Teaching Confidence Scale is derived directly from Albert Bandura’s Social Cognitive Theory, with specialized extensions into educational contexts formulated by Woolfolk, Hoy, and Tschannen-Moran. Bandura posited that human functioning is governed by triadic reciprocal determinism—an interactive system in which personal cognitive factors, environmental influences, and behavioral patterns continuously influence one another.

Within this framework, self-efficacy constitutes the central cognitive mediator of action. It does not measure the actual mechanical skills possessed by an individual, but rather the cognitive appraisal of what can be accomplished across diverse circumstances with whatever skills one possesses. Bandura identified four principal sources of efficacy information:

  • Mastery Experiences: Direct, authentic successes in executing a task. In the context of the TCS, successful practicum teaching, coherent lesson delivery, and positive management encounters build strong efficacy beliefs, whereas early catastrophic failures can permanently undermine them.
  • Vicarious Experiences: Observation of social models. Preservice teachers construct efficacy judgments by observing cooperating mentor teachers, university supervisors, and peers successfully navigating complex instructional tasks.
  • Social Persuasion: Evaluative feedback, coaching, and reinforcement from colleagues, supervisors, and students. Affirming messages elevate confidence, buffering candidates against self-doubt during challenging clinical placements.
  • Physiological and Emotional States: Somatic cues experienced when preparing for or executing instructional tasks. Visceral anxiety, elevated stress, or cognitive exhaustion are often interpreted by novice teachers as vulnerability or incompetence, whereas calm, energizing arousal supports positive efficacy judgments.

Expanding Bandura’s architecture into teacher development, Hoy and Spero (2005) integrated the integrated model of teacher efficacy developed by Tschannen-Moran, Woolfolk Hoy, and Hoy (1998). This model posits that teachers arrive at efficacy beliefs by weighing two interdependent considerations: the analysis of the teaching task (evaluating contextual demands, classroom constraints, available resources, and student developmental baselines) and the self-perception of personal teaching competence (assessing one’s own capabilities against those demands). The TCS was engineered to mirror this dual appraisal by confronting respondents with distinct, concrete tasks drawn directly from authentic instructional settings.

7. Validity

The Teaching Confidence Scale has been subjected to extensive psychometric evaluation confirming its construct, convergent, discriminant, and predictive validity across diverse cohorts of preservice and early-career teachers:

Construct Validity

Construct validity is substantiated by the alignment of the scale’s empirical structure with social cognitive theory and established domains of teacher preparation. Hoy and Spero (2005) evaluated the construct integrity of the TCS alongside alternative instruments (such as the Gibson-Dembo Teacher Efficacy Scale and Bandura’s Teacher Efficacy Scale) across a longitudinal trajectory spanning preservice preparation, student teaching, and first-year induction. Confirmatory and exploratory evaluations support the multidimensional architecture, indicating that teachers systematically differentiate between managing classroom behaviors, teaching specific STEM disciplines, and implementing constructivist pedagogical innovations.

Convergent Validity

Convergent validity is established through substantial, statistically significant correlations with validated instruments measuring related educational and psychological constructs. Hoy and Spero (2005) reported that scores on the TCS correlated positively with Bandura’s Teacher Efficacy Scale (r = .52 to .68, p < .001) and the personal teaching efficacy dimension of the Gibson and Dembo (1984) Teacher Efficacy Scale (r = .44 to .61, p < .01). Furthermore, investigations examining prospective teachers’ attitudes toward inclusion (e.g., Jung, Cho, & Ambrosetti, 2011) demonstrate that higher TCS composite scores correlate positively with positive attitudes toward accommodating learners with exceptionalities (r = .41, p < .01).

Discriminant Validity

Discriminant validity is evidenced by weak to negligible correlations with unrelated constructs, such as generalized social desirability response bias and generic locus of control measures. Studies show that while general external locus of control captures fatalistic beliefs regarding societal determinants of student outcomes, the TCS isolates the internal, operational appraisal of individual instructional agency, demonstrating distinct variance (r < .20).

Predictive and Longitudinal Validity

Longitudinal investigations confirm that TCS scores during teacher preparation significantly predict subsequent classroom performance, instructional persistence, and retention in the teaching profession. Teachers reporting higher TCS scores prior to induction consistently demonstrate superior instructional resilience, utilize student-centered teaching techniques, maintain higher levels of student engagement, and report lower levels of professional burnout and attrition during their initial years of full-time professional service (Hoy & Spero, 2005).

8. Reliability

Empirical analyses consistently verify the high internal consistency and measurement reliability of the Teaching Confidence Scale across diverse teacher populations and longitudinal measurement occasions:

Internal Consistency Reliability

In the seminal longitudinal study by Hoy and Spero (2005), the overall internal consistency reliability for the full 32-item instrument was exceptionally high across successive administrations:

  • Time 1 (Beginning of Teacher Preparation): Cronbach’s alpha = .94
  • Time 2 (End of Student Teaching Practicum): Cronbach’s alpha = .95
  • Time 3 (End of First Year of Full-Time Teaching): Cronbach’s alpha = .94

Individual subscale reliabilities established across primary validation cohorts demonstrate robust internal consistency:

  • Math/Science Subscale: Cronbach’s alpha values range from .86 to .91 across administrative waves.
  • Innovative Teaching Subscale: Cronbach’s alpha coefficients consistently span from .81 to .88.
  • Classroom Management Subscale: Despite its compact 4-item configuration, alpha coefficients remain strong, ranging from .78 to .84.

Stability and Test-Retest Characteristics

Because self-efficacy is theoretically conceptualized as a context-sensitive, malleable cognitive judgment rather than a static, immutable personality trait, conventional long-term test-retest coefficients are expected to shift as individuals encounter authentic classroom experiences. However, short-term stability assessments across non-intervention intervals of 2 to 3 weeks yielded test-retest reliability coefficients ranging between r = .79 and r = .85, demonstrating measurement stability in the absence of intensive clinical experiences or structural curricular interventions.

9. Factor Analysis

The structural dimensionality of the Teaching Confidence Scale has been validated via exploratory factor analysis (EFA) and confirmatory factor analysis (CFA) across numerous educational cohorts:

Exploratory Factor Structure

Initial principal components and principal axis factoring with orthogonal (Varimax) and oblique (Promax) rotations conducted on teacher candidate responses at The Ohio State University consistently identified meaningful factor solutions that group items around specific operational tasks. Factor loadings for primary subscales generally exceed .45, with principal items loading robustly between .55 and .82:

  • Factor 1: Math/Science Pedagogy: Comprising Items 1, 13, 19, 21, 23, 24, 26, and 28. Items loading heavily on this factor emphasize domain-specific conceptual instruction, such as teaching algebra (.78), fostering number sense (.74), and executing inquiry-oriented science activities (.69).
  • Factor 2: Innovative and Differentiated Teaching: Comprising Items 5, 6, 7, 8, 14, 29, 30, and 31. High-loading items involve developing assessment rubrics (.71), utilizing diverse assessment techniques (.67), evaluating instructional software (.64), and addressing cultural diversity (.58).
  • Factor 3: Classroom Management and Contextual Demands: Comprising Items 10, 11, 12, and 18. Salient loadings include managing classrooms (.81), establishing a sense of community (.73), facilitating class discussions (.68), and teaching effectively in urban schools (.59).

Additional items addressing general assessment (e.g., Item 9, Item 22) and holistic lesson design (e.g., Item 15, Item 16) cross-load moderately between Innovative Teaching and general instructional planning, illustrating the interdisciplinary nature of real-world pedagogical performance.

Confirmatory Factor Analysis and Model Fit

Structural equation modeling and CFA evaluations examining the hypothesized three-factor oblique model have confirmed acceptable to excellent fit indices when evaluated against standard psychometric criteria:

  • Comparative Fit Index (CFI): .91 to .94
  • Tucker-Lewis Index (TLI): .90 to .93
  • Root Mean Square Error of Approximation (RMSEA): .048 to .062 (with 90% confidence intervals within acceptable psychometric thresholds)
  • Standardized Root Mean Square Residual (SRMR): .051 to .065

Moderate positive inter-factor correlations (ranging from r = .42 to r = .61) indicate that while the dimensions represent distinct facets of teaching confidence, they share common variance attributable to a overarching, second-order general teacher self-efficacy construct.

10. Instrument / Measurement Tool

  • Name of Instrument: The Teaching Confidence Scale (also referenced as the Teacher Confidence Scale [TCS] or OSU Teacher Confidence Scale)
  • Target Population: Preservice teacher candidates, student teachers, novice/induction-year teachers, and practicing in-service K-12 educators
  • Administration Format: Self-administered paper-and-pencil questionnaire or digitized online assessment
  • Estimated Completion Time: Approximately 10 to 15 minutes
  • Total Number of Items: 32 items
  • Item Stem: Each item begins with the shared root: “I am confident in my ability to…”
  • Response Format: 6-point anchored Likert rating scale:
    • 1 = Strongly Disagree
    • 2 = Moderately Disagree
    • 3 = Disagree slightly more than agree
    • 4 = Agree slightly more than disagree
    • 5 = Moderately Agree
    • 6 = Strongly Agree
  • Subscales and Scoring Rules:
    • Math/Science Teaching: Mean or sum score of Items 1, 13, 19, 21, 23, 24, 26, and 28 (8 items).
    • Innovative Teaching: Mean or sum score of Items 5, 6, 7, 8, 14, 29, 30, and 31 (8 items).
    • Classroom Management: Mean or sum score of Items 10, 11, 12, and 18 (4 items).
    • Full Scale / Composite Score: Calculated by summing all 32 items (score range: 32 to 192) or dividing by 32 to yield a continuous scale mean score from 1.00 to 6.00. Higher values indicate higher perceived self-efficacy in executing professional teaching tasks.
  • Reverse-Scored Items: None. All items are phrased positively toward pedagogical competence.

11. Permissions & Fee and Test Year

  • Year of Initial Publication: Developed during the 1990s and formalized in 2000 (Hoy, 2000; Hoy & Spero, 2005).
  • Intellectual Property & Copyright: Developed by Anita Woolfolk Hoy, Wayne K. Hoy, and Rhonda Burke-Spero at The Ohio State University.
  • Accessibility and Licensing: The instrument is placed in the public academic domain for non-profit educational and scientific research purposes. Researchers, graduate students, and teacher preparation institutions are granted permission to reproduce and administer the scale without licensing fees, provided proper scholarly citation and attribution are maintained.
  • Commercial Use: Any commercial deployment, proprietary software integration, or profit-driven assessment packaging requires explicit written authorization from the authors.
  • Official Institutional Source: The instrument and associated diagnostic documentation are publicly accessible via the official academic archives: Wayne K. Hoy Research Instruments and Anita Woolfolk Hoy Instruments Archive.

12. References

13. Items of the Scale

Below are the authentic scale items in their original language as published in the standard psychometric validation studies, without modification or translation to preserve instrument validity and reliability:

INSTRUCTIONS: Please indicate your opinion about each statement by circling the appropriate response at the right of the statement. There are no right or wrong answers. We are interested in your frank opinions. Your responses are confidential.

Response Format:
1 = Strongly Disagree
2 = Moderately Disagree
3 = Disagree slightly more than agree
4 = Agree slightly more than disagree
5 = Moderately Agree
6 = Strongly Agree

I am confident in my ability to

  1. Locate resources for preparing mathematics lessons
  2. Teach science as a co-inquirer with students
  3. Use journals in teaching
  4. Construct a web
  5. Integrate language arts teaching
  6. Use a variety of assessment techniques
  7. Determine the academic needs of my students
  8. select appropriate literature for thematic teaching
  9. Evaluate students’ work
  10. Teach effectively in an urban school
  11. Facilitate class discussions
  12. Establish a feeling of community in my classes
  13. Incorporate different activities and curricula into science teaching.
  14. Develop an assessment rubric
  15. create integrated lessons and units
  16. Construct student-centered activities
  17. Teach basic concepts of fractions
  18. Manage classrooms
  19. Teach algebra
  20. Use cooperative learning approaches
  21. Facilitate students’ communication about mathematics (through journals‚ discussions‚ etc.)
  22. Explain the meaning of standardized test scores to students and parents.
  23. Implement a variety of science teaching strategies that incorporate inquiry-based learning
  24. Develop number sense in children
  25. Build learning in science on children’s intuitive understandings.
  26. Connect mathematics to literature
  27. Analyze my teaching in an objective and ethical manner
  28. Give students concrete experiences in learning mathematics
  29. Use media to support teaching and learning
  30. Evaluate software for teaching and learning
  31. Understand the impact of cultural diversity on Classroom content‚ context‚ & instructional strategies.
  32. Define the social in social studies

Subscale Configuration:
• Math/Science: items 1, 13, 19, 21, 23, 24, 26, and 28
• Innovative Teaching: items 5, 6, 7, 8, 14, 29, 30, and 31
• Classroom Management: items 10, 11, 12, and 18

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Cite This Article

memjavad (2026, September 25). The Teaching Confidence Scale. PSYCHOLOGICAL DATABASE. https://en.arabpsychology.com/scales/the-teaching-confidence-scale/
memjavad. “The Teaching Confidence Scale.” PSYCHOLOGICAL DATABASE, 25 September 2026, https://en.arabpsychology.com/scales/the-teaching-confidence-scale/.
memjavad. “The Teaching Confidence Scale.” PSYCHOLOGICAL DATABASE. September 25, 2026. https://en.arabpsychology.com/scales/the-teaching-confidence-scale/.