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Machine Learning curriculum

A practical machine learning path covering problem framing, baselines, regression, classification, ensembles, unsupervised learning, neural networks, validation, leakage, fairness, and deployment monitoring.

Intro machine learning / data science extension

Machine Learning curriculum

A practical machine learning path covering problem framing, baselines, regression, classification, ensembles, unsupervised learning, neural networks, validation, leakage, fairness, and deployment monitoring.

Pacing
8 units, 20-30 weeks self-paced
Units
8 unit sequence
Practice
640 checked answers
Support
Self-paced or tutor-guided
Outcomes
  • Frame machine learning problems with clear labels, features, baselines, and metrics.
  • Train and evaluate simple models without leaking future information or overfitting the validation set.
  • Communicate model limits, fairness risks, drift, and operational monitoring requirements.
Course command center

Know what to study, what to repair, and where to jump next

This track is organized as a mastery loop: source study, sequenced checks, Khan report evidence, then tutor handoff only when the data shows a real stuck point.

8
Units
640
Checks
80-80/unit
Range
Mastery loop
  1. 01Study

    Use linked OER and companion sources before attempting checks.

  2. 02Practice

    Move through numbered PeerTutor problems without skipping failed gates.

  3. 03Mirror

    Enter Khan report evidence and let the adaptive plan rank repair units.

  4. 04Handoff

    Bring exact misses, notes, and one sharp question to a tutor.

Practice architecture

The bank is intentionally mixed across facets and difficulty so high scores cannot come from one narrow question style.

Facets
Concept134
Fluency44
Application124
Analysis96
Exam Readiness64
Metacognition178
Difficulty
Foundation248
Developing104
Proficient160
Advanced128

Video companion links

Use these linked courses for video instruction and mastery practice, then return here for PeerTutor original checks and tutor help on the exact unit that got stuck.

External video content is linked or embedded through provider-hosted players, not copied. PeerTutor practice is original and cites each source path separately.

Provider-hosted video

Embedded video companion

Watch the strongest public video path inside PeerTutor, then use the unit checks below to prove the student can actually do the work.

2 embeds
StatQuest

StatQuest statistics and machine learning library

Use for statistics, model evaluation, machine learning, neural network, and AI explainers.

statisticsmachine learningmodel evaluationOpen on YouTube
freeCodeCamp

freeCodeCamp programming library

Use for long-form project tutorials in Python, JavaScript, data science, machine learning, and web development.

programmingprojectslong-formOpen on YouTube
Khan progress mirror

Mirror outside mastery into PeerTutor practice

Khan Academy progress has to be entered from the student or tutor report. Khan does not provide a supported public progress API, so this mirror stores unit status locally and uses it to target PeerTutor checks.

0%
Avg
0
Mastered
8
Review
Khan report mirror

Khan Academy does not provide a supported public progress API or external API keys. PeerTutor stores student-provided report evidence and maps it to original practice instead.

Adaptive study plan

Practice Problem framing and data boundaries next

0 repair units and 5 practice units need attention before extension.

Unit 1practiceProblem framing and data boundaries

No Khan mirror data yet; this is a normal practice candidate, not a proven weakness.

Complete 12 sequenced checks and advance only after misses are corrected.

Khan 0%80 PeerTutor checks
Unit 2practiceBaselines, regression, and error

No Khan mirror data yet; this is a normal practice candidate, not a proven weakness.

Complete 12 sequenced checks and advance only after misses are corrected.

Khan 0%80 PeerTutor checks
Unit 3practiceClassification and probability metrics

No Khan mirror data yet; this is a normal practice candidate, not a proven weakness.

Complete 12 sequenced checks and advance only after misses are corrected.

Khan 0%80 PeerTutor checks
Unit 4practiceTrees and ensemble methods

No Khan mirror data yet; this is a normal practice candidate, not a proven weakness.

Complete 12 sequenced checks and advance only after misses are corrected.

Khan 0%80 PeerTutor checks
Unit 5practiceUnsupervised learning and representations

No Khan mirror data yet; this is a normal practice candidate, not a proven weakness.

Complete 12 sequenced checks and advance only after misses are corrected.

Khan 0%80 PeerTutor checks
Unit 1Problem framing and data boundariesRepair before advancing

Rebuild the unit: do 12 PeerTutor checks, log every miss, then ask a tutor from the error log.

Khan evidence to mirror: percent/mastery for "Problem framing and data boundaries", missed skill, last activity date, and the next Khan item assigned by the teacher report.

Mapped skills: Define prediction target, label timing, features, unit of analysis, baseline, and decision use. · Detect leakage and ambiguous labels before modeling.
Unit 2Baselines, regression, and errorRepair before advancing

Rebuild the unit: do 12 PeerTutor checks, log every miss, then ask a tutor from the error log.

Khan evidence to mirror: percent/mastery for "Baselines, regression, and error", missed skill, last activity date, and the next Khan item assigned by the teacher report.

Mapped skills: Fit mean, linear, and regularized regression baselines. · Use MAE, RMSE, residuals, and calibration-style checks.
Unit 3Classification and probability metricsRepair before advancing

Rebuild the unit: do 12 PeerTutor checks, log every miss, then ask a tutor from the error log.

Khan evidence to mirror: percent/mastery for "Classification and probability metrics", missed skill, last activity date, and the next Khan item assigned by the teacher report.

Mapped skills: Use logistic regression, confusion matrices, precision, recall, specificity, ROC-AUC, and threshold tradeoffs. · Choose metrics based on false-positive and false-negative costs.
Unit 4Trees and ensemble methodsRepair before advancing

Rebuild the unit: do 12 PeerTutor checks, log every miss, then ask a tutor from the error log.

Khan evidence to mirror: percent/mastery for "Trees and ensemble methods", missed skill, last activity date, and the next Khan item assigned by the teacher report.

Mapped skills: Use decision trees, random forests, gradient boosting concepts, feature importance, and pruning. · Recognize when tree models overfit.
Unit 5Unsupervised learning and representationsRepair before advancing

Rebuild the unit: do 12 PeerTutor checks, log every miss, then ask a tutor from the error log.

Khan evidence to mirror: percent/mastery for "Unsupervised learning and representations", missed skill, last activity date, and the next Khan item assigned by the teacher report.

Mapped skills: Use clustering, dimensionality reduction, embeddings, and similarity measures. · Validate unsupervised patterns without pretending they are ground truth.
Unit 6Neural networks and optimizationRepair before advancing

Rebuild the unit: do 12 PeerTutor checks, log every miss, then ask a tutor from the error log.

Khan evidence to mirror: percent/mastery for "Neural networks and optimization", missed skill, last activity date, and the next Khan item assigned by the teacher report.

Mapped skills: Use layers, activation, loss, gradient descent, backpropagation intuition, and regularization. · Understand what neural networks buy and what they make harder.
Unit 7Validation, overfitting, and fairnessRepair before advancing

Rebuild the unit: do 12 PeerTutor checks, log every miss, then ask a tutor from the error log.

Khan evidence to mirror: percent/mastery for "Validation, overfitting, and fairness", missed skill, last activity date, and the next Khan item assigned by the teacher report.

Mapped skills: Use train/validation/test splits, cross-validation, leakage audits, drift checks, and fairness metrics. · Separate model selection from final evaluation.
Unit 8Capstone and deployment monitoringRepair before advancing

Rebuild the unit: do 12 PeerTutor checks, log every miss, then ask a tutor from the error log.

Khan evidence to mirror: percent/mastery for "Capstone and deployment monitoring", missed skill, last activity date, and the next Khan item assigned by the teacher report.

Mapped skills: Build a small end-to-end ML project with reproducible data prep, model comparison, evaluation, and documentation. · Plan monitoring for data drift, error shifts, and retraining triggers.
Loading saved mirror.

Unit sequence

Built for independent progress first, then tutor support where the student gets stuck.

  1. 01

    Problem framing and data boundaries

    • Define prediction target, label timing, features, unit of analysis, baseline, and decision use.
    • Detect leakage and ambiguous labels before modeling.

    Practice: Turn a vague model idea into a supervised-learning spec with target, features, split rule, and baseline.

    Unit work plan
    1. 1
      Source study

      Start with Principles of Data Science and 6.0002 Introduction to Computational Thinking and Data Science. Take notes until you can explain: Define prediction target, label timing, features, unit of analysis, baseline, and decision use.

    2. 2
      Foundation gate

      Do the first sequenced checks until the definitions, vocabulary, and setup are correct without hints.

    3. 3
      Transfer gate

      Produce the assignment artifact, then pass the application and analysis checks tied to: Turn a vague model idea into a supervised-learning spec with target, features, split rule, and baseline.

    4. 4
      Repair loop

      Any miss becomes an error-log entry, a clean redo, and one nearby transfer problem before advancing.

    5. 5
      Tutor handoff

      Bring your attempted work, the exact missed check, and one question about: Detect leakage and ambiguous labels before modeling.

    Sequenced original practice checks

    Move in order: foundation, transfer, analysis, timed readiness, then metacognitive repair.

    6 shown / 80 checked answers
    Exercise path
    Foundation: 31Developing: 13Proficient: 20Advanced: 16

    Start the next sequenced check: #1 Trace check. Do not jump ahead until this one is correct.

    Learning analysis
    0/80
    Tried
    0
    Correct
    0%
    Mastery

    Weakest facet: Concept

    Concept0/18
    Fluency0/6
    Application0/16
    Analysis0/12
    Exam Readiness0/7
    Metacognition0/21
    #1Trace checkConceptfoundationNext

    A loop for Problem framing and data boundaries runs once for each value 0 through 3. How many times does it run?

    #2Implementation disciplineConceptfoundation

    Which implementation is easiest to test?

    #3Unit readinessConceptfoundation

    Which target best matches the Machine Learning unit "Problem framing and data boundaries"?

    #4Practice artifactApplicationfoundation

    Which practice artifact should you produce for "Problem framing and data boundaries" before asking a tutor for help?

    #5Unit targetConceptfoundation

    Which target best proves readiness for "Problem framing and data boundaries"?

    #6Second targetConceptfoundation

    Which second target belongs to "Problem framing and data boundaries"?

  2. 02

    Baselines, regression, and error

    • Fit mean, linear, and regularized regression baselines.
    • Use MAE, RMSE, residuals, and calibration-style checks.

    Practice: Compare a regression model to a baseline and explain whether the improvement is meaningful.

    Unit work plan
    1. 1
      Source study

      Start with Principles of Data Science and 6.0002 Introduction to Computational Thinking and Data Science. Take notes until you can explain: Fit mean, linear, and regularized regression baselines.

    2. 2
      Foundation gate

      Do the first sequenced checks until the definitions, vocabulary, and setup are correct without hints.

    3. 3
      Transfer gate

      Produce the assignment artifact, then pass the application and analysis checks tied to: Compare a regression model to a baseline and explain whether the improvement is meaningful.

    4. 4
      Repair loop

      Any miss becomes an error-log entry, a clean redo, and one nearby transfer problem before advancing.

    5. 5
      Tutor handoff

      Bring your attempted work, the exact missed check, and one question about: Use MAE, RMSE, residuals, and calibration-style checks.

    Sequenced original practice checks

    Move in order: foundation, transfer, analysis, timed readiness, then metacognitive repair.

    6 shown / 80 checked answers
    Exercise path
    Foundation: 31Developing: 13Proficient: 20Advanced: 16

    Start the next sequenced check: #1 Trace check. Do not jump ahead until this one is correct.

    Learning analysis
    0/80
    Tried
    0
    Correct
    0%
    Mastery

    Weakest facet: Concept

    Concept0/13
    Fluency0/4
    Application0/14
    Analysis0/12
    Exam Readiness0/6
    Metacognition0/31
    #1Trace checkMetacognitionfoundationNext

    A loop for Baselines, regression, and error runs once for each value 0 through 4. How many times does it run?

    #2Implementation disciplineConceptfoundation

    Which implementation is easiest to test?

    #3Unit readinessMetacognitionfoundation

    Which target best matches the Machine Learning unit "Baselines, regression, and error"?

    #4Practice artifactMetacognitionfoundation

    Which practice artifact should you produce for "Baselines, regression, and error" before asking a tutor for help?

    #5Unit targetMetacognitionfoundation

    Which target best proves readiness for "Baselines, regression, and error"?

    #6Second targetMetacognitionfoundation

    Which second target belongs to "Baselines, regression, and error"?

  3. 03

    Classification and probability metrics

    • Use logistic regression, confusion matrices, precision, recall, specificity, ROC-AUC, and threshold tradeoffs.
    • Choose metrics based on false-positive and false-negative costs.

    Practice: Choose a classification threshold from a confusion matrix and defend the tradeoff.

    Unit work plan
    1. 1
      Source study

      Start with Principles of Data Science and 6.0002 Introduction to Computational Thinking and Data Science. Take notes until you can explain: Use logistic regression, confusion matrices, precision, recall, specificity, ROC-AUC, and threshold tradeoffs.

    2. 2
      Foundation gate

      Do the first sequenced checks until the definitions, vocabulary, and setup are correct without hints.

    3. 3
      Transfer gate

      Produce the assignment artifact, then pass the application and analysis checks tied to: Choose a classification threshold from a confusion matrix and defend the tradeoff.

    4. 4
      Repair loop

      Any miss becomes an error-log entry, a clean redo, and one nearby transfer problem before advancing.

    5. 5
      Tutor handoff

      Bring your attempted work, the exact missed check, and one question about: Choose metrics based on false-positive and false-negative costs.

    Sequenced original practice checks

    Move in order: foundation, transfer, analysis, timed readiness, then metacognitive repair.

    6 shown / 80 checked answers
    Exercise path
    Foundation: 31Developing: 13Proficient: 20Advanced: 16

    Start the next sequenced check: #1 Trace check. Do not jump ahead until this one is correct.

    Learning analysis
    0/80
    Tried
    0
    Correct
    0%
    Mastery

    Weakest facet: Concept

    Concept0/18
    Fluency0/6
    Application0/16
    Analysis0/12
    Exam Readiness0/7
    Metacognition0/21
    #1Trace checkConceptfoundationNext

    A loop for Classification and probability metrics runs once for each value 0 through 5. How many times does it run?

    #2Implementation disciplineConceptfoundation

    Which implementation is easiest to test?

    #3Unit readinessConceptfoundation

    Which target best matches the Machine Learning unit "Classification and probability metrics"?

    #4Practice artifactApplicationfoundation

    Which practice artifact should you produce for "Classification and probability metrics" before asking a tutor for help?

    #5Unit targetConceptfoundation

    Which target best proves readiness for "Classification and probability metrics"?

    #6Second targetConceptfoundation

    Which second target belongs to "Classification and probability metrics"?

  4. 04

    Trees and ensemble methods

    • Use decision trees, random forests, gradient boosting concepts, feature importance, and pruning.
    • Recognize when tree models overfit.

    Practice: Explain how a tree split improves prediction and how validation prevents overfitting.

    Unit work plan
    1. 1
      Source study

      Start with Principles of Data Science and 6.0002 Introduction to Computational Thinking and Data Science. Take notes until you can explain: Use decision trees, random forests, gradient boosting concepts, feature importance, and pruning.

    2. 2
      Foundation gate

      Do the first sequenced checks until the definitions, vocabulary, and setup are correct without hints.

    3. 3
      Transfer gate

      Produce the assignment artifact, then pass the application and analysis checks tied to: Explain how a tree split improves prediction and how validation prevents overfitting.

    4. 4
      Repair loop

      Any miss becomes an error-log entry, a clean redo, and one nearby transfer problem before advancing.

    5. 5
      Tutor handoff

      Bring your attempted work, the exact missed check, and one question about: Recognize when tree models overfit.

    Sequenced original practice checks

    Move in order: foundation, transfer, analysis, timed readiness, then metacognitive repair.

    6 shown / 80 checked answers
    Exercise path
    Foundation: 31Developing: 13Proficient: 20Advanced: 16

    Start the next sequenced check: #1 Trace check. Do not jump ahead until this one is correct.

    Learning analysis
    0/80
    Tried
    0
    Correct
    0%
    Mastery

    Weakest facet: Concept

    Concept0/18
    Fluency0/6
    Application0/16
    Analysis0/12
    Exam Readiness0/7
    Metacognition0/21
    #1Trace checkConceptfoundationNext

    A loop for Trees and ensemble methods runs once for each value 0 through 6. How many times does it run?

    #2Implementation disciplineConceptfoundation

    Which implementation is easiest to test?

    #3Unit readinessConceptfoundation

    Which target best matches the Machine Learning unit "Trees and ensemble methods"?

    #4Practice artifactApplicationfoundation

    Which practice artifact should you produce for "Trees and ensemble methods" before asking a tutor for help?

    #5Unit targetConceptfoundation

    Which target best proves readiness for "Trees and ensemble methods"?

    #6Second targetConceptfoundation

    Which second target belongs to "Trees and ensemble methods"?

  5. 05

    Unsupervised learning and representations

    • Use clustering, dimensionality reduction, embeddings, and similarity measures.
    • Validate unsupervised patterns without pretending they are ground truth.

    Practice: Interpret a clustering result with one useful insight and one reason it may be misleading.

    Unit work plan
    1. 1
      Source study

      Start with Principles of Data Science and 6.0002 Introduction to Computational Thinking and Data Science. Take notes until you can explain: Use clustering, dimensionality reduction, embeddings, and similarity measures.

    2. 2
      Foundation gate

      Do the first sequenced checks until the definitions, vocabulary, and setup are correct without hints.

    3. 3
      Transfer gate

      Produce the assignment artifact, then pass the application and analysis checks tied to: Interpret a clustering result with one useful insight and one reason it may be misleading.

    4. 4
      Repair loop

      Any miss becomes an error-log entry, a clean redo, and one nearby transfer problem before advancing.

    5. 5
      Tutor handoff

      Bring your attempted work, the exact missed check, and one question about: Validate unsupervised patterns without pretending they are ground truth.

    Sequenced original practice checks

    Move in order: foundation, transfer, analysis, timed readiness, then metacognitive repair.

    6 shown / 80 checked answers
    Exercise path
    Foundation: 31Developing: 13Proficient: 20Advanced: 16

    Start the next sequenced check: #1 Trace check. Do not jump ahead until this one is correct.

    Learning analysis
    0/80
    Tried
    0
    Correct
    0%
    Mastery

    Weakest facet: Concept

    Concept0/18
    Fluency0/6
    Application0/16
    Analysis0/12
    Exam Readiness0/7
    Metacognition0/21
    #1Trace checkConceptfoundationNext

    A loop for Unsupervised learning and representations runs once for each value 0 through 7. How many times does it run?

    #2Implementation disciplineConceptfoundation

    Which implementation is easiest to test?

    #3Unit readinessConceptfoundation

    Which target best matches the Machine Learning unit "Unsupervised learning and representations"?

    #4Practice artifactApplicationfoundation

    Which practice artifact should you produce for "Unsupervised learning and representations" before asking a tutor for help?

    #5Unit targetConceptfoundation

    Which target best proves readiness for "Unsupervised learning and representations"?

    #6Second targetConceptfoundation

    Which second target belongs to "Unsupervised learning and representations"?

  6. 06

    Neural networks and optimization

    • Use layers, activation, loss, gradient descent, backpropagation intuition, and regularization.
    • Understand what neural networks buy and what they make harder.

    Practice: Sketch a small neural network for tabular or image input and explain loss, output, and overfitting controls.

    Unit work plan
    1. 1
      Source study

      Start with Principles of Data Science and 6.0002 Introduction to Computational Thinking and Data Science. Take notes until you can explain: Use layers, activation, loss, gradient descent, backpropagation intuition, and regularization.

    2. 2
      Foundation gate

      Do the first sequenced checks until the definitions, vocabulary, and setup are correct without hints.

    3. 3
      Transfer gate

      Produce the assignment artifact, then pass the application and analysis checks tied to: Sketch a small neural network for tabular or image input and explain loss, output, and overfitting controls.

    4. 4
      Repair loop

      Any miss becomes an error-log entry, a clean redo, and one nearby transfer problem before advancing.

    5. 5
      Tutor handoff

      Bring your attempted work, the exact missed check, and one question about: Understand what neural networks buy and what they make harder.

    Sequenced original practice checks

    Move in order: foundation, transfer, analysis, timed readiness, then metacognitive repair.

    6 shown / 80 checked answers
    Exercise path
    Foundation: 31Developing: 13Proficient: 20Advanced: 16

    Start the next sequenced check: #1 Trace check. Do not jump ahead until this one is correct.

    Learning analysis
    0/80
    Tried
    0
    Correct
    0%
    Mastery

    Weakest facet: Concept

    Concept0/18
    Fluency0/6
    Application0/16
    Analysis0/12
    Exam Readiness0/7
    Metacognition0/21
    #1Trace checkConceptfoundationNext

    A loop for Neural networks and optimization runs once for each value 0 through 8. How many times does it run?

    #2Implementation disciplineConceptfoundation

    Which implementation is easiest to test?

    #3Unit readinessConceptfoundation

    Which target best matches the Machine Learning unit "Neural networks and optimization"?

    #4Practice artifactApplicationfoundation

    Which practice artifact should you produce for "Neural networks and optimization" before asking a tutor for help?

    #5Unit targetConceptfoundation

    Which target best proves readiness for "Neural networks and optimization"?

    #6Second targetConceptfoundation

    Which second target belongs to "Neural networks and optimization"?

  7. 07

    Validation, overfitting, and fairness

    • Use train/validation/test splits, cross-validation, leakage audits, drift checks, and fairness metrics.
    • Separate model selection from final evaluation.

    Practice: Design a validation protocol that blocks leakage and reports at least one subgroup performance check.

    Unit work plan
    1. 1
      Source study

      Start with Principles of Data Science and 6.0002 Introduction to Computational Thinking and Data Science. Take notes until you can explain: Use train/validation/test splits, cross-validation, leakage audits, drift checks, and fairness metrics.

    2. 2
      Foundation gate

      Do the first sequenced checks until the definitions, vocabulary, and setup are correct without hints.

    3. 3
      Transfer gate

      Produce the assignment artifact, then pass the application and analysis checks tied to: Design a validation protocol that blocks leakage and reports at least one subgroup performance check.

    4. 4
      Repair loop

      Any miss becomes an error-log entry, a clean redo, and one nearby transfer problem before advancing.

    5. 5
      Tutor handoff

      Bring your attempted work, the exact missed check, and one question about: Separate model selection from final evaluation.

    Sequenced original practice checks

    Move in order: foundation, transfer, analysis, timed readiness, then metacognitive repair.

    6 shown / 80 checked answers
    Exercise path
    Foundation: 31Developing: 13Proficient: 20Advanced: 16

    Start the next sequenced check: #1 Trace check. Do not jump ahead until this one is correct.

    Learning analysis
    0/80
    Tried
    0
    Correct
    0%
    Mastery

    Weakest facet: Concept

    Concept0/18
    Fluency0/6
    Application0/16
    Analysis0/12
    Exam Readiness0/7
    Metacognition0/21
    #1Trace checkConceptfoundationNext

    A loop for Validation, overfitting, and fairness runs once for each value 0 through 9. How many times does it run?

    #2Implementation disciplineConceptfoundation

    Which implementation is easiest to test?

    #3Unit readinessConceptfoundation

    Which target best matches the Machine Learning unit "Validation, overfitting, and fairness"?

    #4Practice artifactApplicationfoundation

    Which practice artifact should you produce for "Validation, overfitting, and fairness" before asking a tutor for help?

    #5Unit targetConceptfoundation

    Which target best proves readiness for "Validation, overfitting, and fairness"?

    #6Second targetConceptfoundation

    Which second target belongs to "Validation, overfitting, and fairness"?

  8. 08

    Capstone and deployment monitoring

    • Build a small end-to-end ML project with reproducible data prep, model comparison, evaluation, and documentation.
    • Plan monitoring for data drift, error shifts, and retraining triggers.

    Practice: Write a model card with intended use, data limits, metrics, fairness checks, and monitoring plan.

    Unit work plan
    1. 1
      Source study

      Start with Principles of Data Science and 6.0002 Introduction to Computational Thinking and Data Science. Take notes until you can explain: Build a small end-to-end ML project with reproducible data prep, model comparison, evaluation, and documentation.

    2. 2
      Foundation gate

      Do the first sequenced checks until the definitions, vocabulary, and setup are correct without hints.

    3. 3
      Transfer gate

      Produce the assignment artifact, then pass the application and analysis checks tied to: Write a model card with intended use, data limits, metrics, fairness checks, and monitoring plan.

    4. 4
      Repair loop

      Any miss becomes an error-log entry, a clean redo, and one nearby transfer problem before advancing.

    5. 5
      Tutor handoff

      Bring your attempted work, the exact missed check, and one question about: Plan monitoring for data drift, error shifts, and retraining triggers.

    Sequenced original practice checks

    Move in order: foundation, transfer, analysis, timed readiness, then metacognitive repair.

    6 shown / 80 checked answers
    Exercise path
    Foundation: 31Developing: 13Proficient: 20Advanced: 16

    Start the next sequenced check: #1 Trace check. Do not jump ahead until this one is correct.

    Learning analysis
    0/80
    Tried
    0
    Correct
    0%
    Mastery

    Weakest facet: Concept

    Concept0/13
    Fluency0/4
    Application0/14
    Analysis0/12
    Exam Readiness0/16
    Metacognition0/21
    #1Trace checkExam ReadinessfoundationNext

    A loop for Capstone and deployment monitoring runs once for each value 0 through 10. How many times does it run?

    #2Implementation disciplineConceptfoundation

    Which implementation is easiest to test?

    #3Unit readinessExam Readinessfoundation

    Which target best matches the Machine Learning unit "Capstone and deployment monitoring"?

    #4Practice artifactExam Readinessfoundation

    Which practice artifact should you produce for "Capstone and deployment monitoring" before asking a tutor for help?

    #5Unit targetExam Readinessfoundation

    Which target best proves readiness for "Capstone and deployment monitoring"?

    #6Second targetExam Readinessfoundation

    Which second target belongs to "Capstone and deployment monitoring"?

Source library

These are source links, not scraped course copies. Licenses differ, so the label tells students how each source is used.

View the full citation index