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Productivity & Study Skills Learning Science & Effective Study Strategies Syllabus

The Learning Science & Effective Study Strategies syllabus for Productivity & Study Skills in full: 6 chapters and 26 topics, every one listed below, plus 50 Learning Science & Effective Study Strategies flashcards with answers.

6Chapters
26Topics
50Flashcards

Learning Science & Effective Study Strategies syllabus: all 6 chapters

Expand any chapter to see its topics and sub-topics.

  1. How Learning Works

    4 topics
    • Encoding, Storage & Retrieval
    • Cognitive Load Theory
    • Schemas & Prior Knowledge
    • Transfer of Learning
  2. Evidence-Based Study Techniques

    6 topics
    • Retrieval Practice (Active Recall)
    • Spaced Repetition
    • Interleaving
    • Elaboration & Self-Explanation
    • Dual Coding
    • Concrete Examples
  3. Low-Utility Techniques to Avoid

    4 topics
    • Rereading & Highlighting Pitfalls
    • Massed Practice (Cramming)
    • The Illusion of Fluency
    • Passive Review Traps
  4. Note-Taking Systems

    4 topics
    • Cornell Note-Taking Method
    • Outline & Mind-Mapping Methods
    • The Feynman Technique
    • Zettelkasten & Digital Notes
  5. Reading & Comprehension

    4 topics
    • SQ3R Method
    • Active & Critical Reading
    • Skimming vs Deep Reading
    • Annotation Strategies
  6. Exam Preparation & Test-Taking

    4 topics
    • Study Planning & Practice Exams
    • Question Strategies by Type
    • Managing Test Anxiety
    • Post-Exam Review (Exam Wrappers)

Productivity & Study Skills Learning Science & Effective Study Strategies flashcards โ€” 50 questions with answers

  1. What are the three stages of memory processing in learning science?

    Encoding (converting information into a memory representation), Storage (maintaining the encoded information over time), and Retrieval (accessing the stored information when needed).

  2. What is the difference between shallow and deep encoding, according to levels-of-processing theory?

    Shallow encoding processes surface features (e.g., how a word looks or sounds), producing weak memories; deep encoding processes meaning and connections to prior knowledge (semantic processing), producing stronger, more durable memories.

  3. What is the encoding specificity principle?

    Retrieval is most successful when the cues present at recall match the cues present at encoding โ€” memory depends on the overlap between the encoding context and the retrieval context.

  4. In Bjork's 'new theory of disuse,' what is the difference between storage strength and retrieval strength?

    Storage strength is how well-learned and durable a memory is (it never decreases); retrieval strength is how accessible the memory is right now. Difficult retrieval when retrieval strength is low produces the largest gains in storage strength.

  5. What does Cognitive Load Theory claim about working memory, and who developed the theory?

    Developed by John Sweller, it claims working memory is severely limited (holding roughly $4 \pm 1$ chunks of novel information), so instruction must manage the load placed on it, while long-term memory is effectively unlimited.

  6. Name and define the three types of cognitive load in Cognitive Load Theory.

    Intrinsic load โ€” the inherent difficulty of the material itself; Extraneous load โ€” unnecessary load caused by poor presentation or distractions; Germane load โ€” the productive effort devoted to building and automating schemas.

  7. According to Cognitive Load Theory, how should a student manage the three types of cognitive load while studying?

    Minimize extraneous load (remove distractions, clean up materials), manage intrinsic load (break complex material into smaller chunks, sequence simple to complex), and maximize germane load (invest effort in schema-building activities like worked examples and self-explanation).

  8. What is a schema in cognitive psychology?

    An organized mental framework or structure of related knowledge stored in long-term memory that lets the brain chunk many elements into a single unit, reducing working-memory load and guiding the interpretation of new information.

  9. Why does prior knowledge make new learning easier?

    New information is understood and stored by connecting it to existing schemas; the more relevant prior knowledge a learner has, the more 'hooks' exist for encoding, so new material is chunked efficiently, imposes less cognitive load, and is retrieved more reliably.

  10. In Piaget's terms, what is the difference between assimilation and accommodation when schemas meet new information?

    Assimilation fits new information into an existing schema without changing it; accommodation modifies or restructures the schema itself when the new information does not fit.

  11. What is transfer of learning?

    The application of knowledge, skills, or strategies learned in one context to a new context or problem โ€” the ultimate goal of education.

  12. Distinguish near transfer from far transfer, and state which is harder to achieve.

    Near transfer applies learning to contexts very similar to the original (e.g., practice problems to a similar exam problem); far transfer applies learning to very different contexts (e.g., chess strategy to business). Far transfer is much harder and rarer.

  13. What is the difference between positive and negative transfer?

    Positive transfer occurs when prior learning helps performance in a new situation; negative transfer occurs when prior learning interferes with or hurts performance in the new situation (e.g., old habits conflicting with new rules).

  14. What study conditions promote transfer of learning to new problems?

    Learning underlying principles rather than surface procedures, practicing with varied and interleaved examples, self-explaining why solutions work, and abstracting the deep structure common to multiple concrete cases.

  15. What is retrieval practice (active recall)?

    A study strategy in which the learner deliberately recalls information from memory (e.g., self-testing, flashcards, free recall) rather than re-exposing themselves to it; the act of retrieval itself strengthens and modifies the memory.

  16. What is the 'testing effect'?

    The robust finding that taking a test on material produces better long-term retention than spending the same amount of time restudying it โ€” retrieval is a learning event, not just an assessment.

  17. In Roediger and Karpicke's classic 2006 experiment, how did repeated testing compare with repeated studying after one week?

    Students who repeatedly studied recalled more minutes after learning, but one week later the repeatedly tested group remembered substantially more โ€” restudying won short-term, retrieval practice won long-term.

  18. Name three practical ways to use retrieval practice while studying.

    Close the book and write down everything you remember (brain dump/free recall), answer flashcard or practice questions before checking solutions, and quiz yourself with questions generated from headings or lecture objectives.

  19. What is the spacing effect?

    The finding that distributing study sessions over time produces far better long-term retention than the same total study time concentrated in one session; first documented by Hermann Ebbinghaus in 1885.

  20. What is Ebbinghaus's forgetting curve, and what is its approximate mathematical form?

    It describes how memory retention declines rapidly at first and then levels off over time; it is modeled approximately as exponential decay, $R = e^{-\frac{t}{S}}$, where $R$ is retention, $t$ is elapsed time, and $S$ is the stability (strength) of the memory.

Show the other 30 Learning Science & Effective Study Strategies flashcards
  1. How does spaced repetition exploit the forgetting curve?

    Each successful review just before the material would be forgotten resets the curve and increases memory stability $S$, flattening the decay; this justifies expanding intervals (e.g., 1 day, 3 days, 1 week, 1 month) between reviews.

  2. What is 'desirable difficulty,' and why are spacing and testing examples of it?

    A term from Robert Bjork for conditions that make practice feel harder and slow short-term performance but improve long-term retention and transfer; spacing and retrieval force effortful reconstruction of memories, which strengthens them.

  3. What is interleaving, and how does it differ from blocked practice?

    Interleaving mixes different problem types or topics within one session (ABCABC), whereas blocked practice completes all of one type before the next (AAABBBCCC); interleaving produces worse practice performance but better test performance and transfer.

  4. Why does interleaving improve learning even though it feels harder?

    Because problems of different types are mixed, the learner must repeatedly discriminate between categories and choose the right strategy for each problem โ€” practicing the selection skill that blocked practice removes โ€” and each switch forces fresh retrieval.

  5. For which subjects or skills is interleaving especially effective?

    Domains where problems look similar but require different solutions โ€” e.g., mixing math problem types (volume formulas for different solids), classifying artists' painting styles, or mixing pitch types in baseball batting practice.

  6. What is elaboration (elaborative interrogation) as a study strategy?

    Deepening memory by connecting new material to existing knowledge, typically by asking and answering 'how' and 'why' questions about the facts being studied (e.g., 'Why would this be true?').

  7. What is self-explanation, and how does it improve learning?

    Explaining to yourself, step by step, how a worked example or text passage works and why each step follows; it forces the learner to detect gaps in understanding, connect steps to principles, and build coherent schemas.

  8. How does elaboration differ from retrieval practice as a learning mechanism?

    Retrieval practice strengthens access to a memory by pulling it out of long-term memory; elaboration enriches the memory itself by adding meaningful connections and cues during encoding โ€” the two are complementary and best combined.

  9. What is dual coding theory, and who proposed it?

    Allan Paivio's theory that information is processed through two separate channels โ€” verbal and visual โ€” and that encoding material in both forms (words plus images/diagrams) creates two memory traces, doubling the retrieval routes.

  10. How should a student apply dual coding in practice?

    Pair verbal material with meaningful visuals: draw diagrams, timelines, concept maps, or sketches of what the text describes, and conversely put words to graphs and figures โ€” creating the representations yourself is more effective than just viewing them.

  11. Why is dual coding different from the debunked 'learning styles' idea?

    Learning styles claims each student should receive material in one preferred modality (visual OR verbal), which evidence does not support; dual coding says every learner benefits from combining verbal and visual representations of the same content.

  12. Why do concrete examples improve learning of abstract concepts?

    Abstract ideas are hard to grasp and remember on their own; concrete examples anchor them in familiar, vivid experiences, making the concept easier to encode, understand, and retrieve (e.g., illustrating scarcity with concert ticket prices).

  13. What is the recommended way to use multiple concrete examples when studying an abstract concept?

    Collect at least two or three different examples (including self-generated ones checked for correctness), then explicitly link each example back to the underlying principle and identify what deep structure the examples share, so you don't just remember surface details.

  14. Why is rereading a low-utility study strategy according to Dunlosky et al.'s 2013 review?

    Rereading mostly increases familiarity and fluency with the text rather than durable memory; its benefits fade quickly, it rarely improves comprehension or exam performance beyond the first reread, and it takes time away from high-utility strategies like practice testing and spacing.

  15. What are the main pitfalls of highlighting as a study technique?

    It is a passive activity that requires no deep processing, students often highlight too much or mark the wrong material, it can isolate facts rather than build connections, and highlighted pages create a false sense of mastery โ€” Dunlosky et al. rated it low utility.

  16. If a student insists on rereading or highlighting, how can these techniques be made more effective?

    Make them active: delay the reread (spacing), highlight sparingly only after reading a full section, and convert highlights into self-test questions, marginal summaries in your own words, or flashcards that force retrieval.

  17. What is massed practice (cramming), and what are its short-term and long-term effects?

    Concentrating all study of a topic into one long session close to the test; it can produce acceptable short-term performance on an immediate exam, but the material is forgotten rapidly afterward and long-term retention is far worse than spaced study.

  18. Why does cramming feel effective to students even though it produces poor retention?

    During massed practice the material stays highly accessible in working memory and retrieval strength is temporarily high, so recall feels easy; students mistake this momentary fluency for durable learning, but without spacing the storage strength gains are minimal.

  19. What is the 'illusion of fluency' (illusion of knowing) in studying?

    The metacognitive error of mistaking ease of processing โ€” a text that reads smoothly, notes that look familiar, a solution that makes sense when seen โ€” for actual mastery, leading students to overestimate how well they know material they cannot actually recall or apply.

  20. Which common study behaviors create illusions of fluency, and what is the antidote?

    Rereading, reviewing highlighted notes, watching worked solutions, and cramming all boost familiarity without building recall; the antidote is objective self-testing โ€” judging your knowledge only by what you can retrieve or produce closed-book.

  21. Why is recognizing information a misleading substitute for recalling it?

    Recognition ('I've seen this before') is much easier than recall (producing the answer from memory with no cues); exams usually demand recall or application, so a student who only verifies recognition during review will feel prepared but fail to retrieve answers under test conditions.

  22. List four passive review traps and, for each, the active alternative.

    Rereading the chapter โ†’ free recall then check; recopying notes verbatim โ†’ summarize from memory in your own words; watching solution videos โ†’ attempt the problem first, then compare; flipping flashcards too quickly โ†’ answer fully out loud before turning the card and grade yourself honestly.

  23. Describe the page layout of the Cornell note-taking method.

    The page is divided into three zones: a wide right-hand column (about $15\,\text{cm}$) for notes taken during class, a narrow left-hand cue column (about $6\,\text{cm}$) for questions and keywords added after class, and a summary strip (about $5\,\text{cm}$) across the bottom for a brief synthesis in your own words.

  24. What are the 'Five Rs' of the Cornell note-taking system?

    Record (take notes in the main column), Reduce (condense into cue-column questions/keywords), Recite (cover the notes and answer the cues from memory), Reflect (connect ideas to prior knowledge), and Review (revisit the notes regularly over time).

  25. Why is the Cornell method considered aligned with learning science rather than a passive format?

    The cue column turns notes into a built-in self-testing tool (retrieval practice), writing the bottom summary forces elaboration in your own words, and the recite-and-review cycle naturally implements spaced retrieval โ€” the format bakes active strategies into ordinary note review.

  26. Compare the outline method and the mind-mapping method of note-taking.

    Outlining organizes content linearly and hierarchically with indented levels (main topics, subtopics, details) โ€” ideal for structured lectures and sequential material; mind mapping places the central concept in the middle with labeled branches radiating outward โ€” ideal for showing relationships between ideas, brainstorming, and visual/dual-coded overviews of a topic.

  27. What are the core steps of the Feynman Technique?

    1) Choose a concept and study it; 2) explain it from scratch in simple language, as if teaching a child, without jargon; 3) identify the points where your explanation breaks down and return to the source to fill those gaps; 4) simplify further and add analogies, repeating until the explanation is clear and complete.

  28. Why does the Feynman Technique work, in terms of learning science?

    Generating an explanation from memory is retrieval practice; translating jargon into plain language and analogies forces elaboration and connection to prior knowledge; and failed explanations give precise, honest feedback that destroys the illusion of fluency by exposing exactly what you don't understand.

  29. What is the Zettelkasten method, and who is its most famous practitioner?

    A 'slip-box' knowledge system popularized by sociologist Niklas Luhmann: each idea is written as one atomic note in your own words, given a unique identifier, and densely linked to related notes, so the network of connections grows into a thinking and writing partner over time.

  30. In a Zettelkasten workflow, what distinguishes fleeting notes, literature notes, and permanent notes?

    Fleeting notes are quick temporary captures of passing ideas; literature notes summarize a source's ideas briefly in your own words with a citation; permanent notes are polished, atomic, self-contained ideas written as if for someone else, linked into the slip-box โ€” only permanent notes form the lasting knowledge network.

Productivity & Study Skills Learning Science & Effective Study Strategies FAQ

What is in the Productivity & Study Skills Learning Science & Effective Study Strategies syllabus?

Productivity & Study Skills Learning Science & Effective Study Strategies is split into 6 chapters: How Learning Works, Evidence-Based Study Techniques, Low-Utility Techniques to Avoid, Note-Taking Systems, Reading & Comprehension and Exam Preparation & Test-Taking. Together they contain 26 topics.

How many chapters are in Productivity & Study Skills Learning Science & Effective Study Strategies?

6 chapters, containing 26 topics. The largest chapter is Evidence-Based Study Techniques, with 6 topics.

Are there flashcards for Productivity & Study Skills Learning Science & Effective Study Strategies?

Yes โ€” a 50-card Learning Science & Effective Study Strategies deck, printed in full in the flashcards section of this page and available in the Examius app with spaced repetition. The free plan covers one exam of your choice, including its flashcards; Examius Pro, a one-time purchase, unlocks every other exam and deck.