7 Study Methods That Actually Work in University (According to Research)

University students spend thousands of hours studying over the course of their degree. Yet most have never been taught how to study effectively. Research in cognitive science has identified which techniques genuinely improve learning—and the results might surprise you. Here are the seven most effective study methods, ranked by scientific evidence.

1. Practice Testing (Active Recall)

Effectiveness: Very High

Testing yourself on material—without looking at the answer—is the single most effective study technique identified by research. A comprehensive review by Dunlosky et al. (2013) rated it as "high utility" based on decades of evidence across subjects, ages, and testing conditions.

Why it works: The act of retrieving information from memory strengthens the neural pathways associated with that information. Each successful retrieval makes the next one easier. This is called the "testing effect," and it's one of the most robust findings in cognitive psychology.

How to implement it:

• Convert your notes into questions and answer them from memory
• Use flashcards (digital tools can generate these from your notes automatically)
• Take practice exams under exam-like conditions
• After reading a section, close the book and write down everything you remember
• Study with a partner by quizzing each other

2. Spaced Practice (Distributed Study)

Effectiveness: Very High

Spreading your study sessions over time—rather than cramming everything into one long session—dramatically improves long-term retention. This is the second technique rated "high utility" by researchers.

Why it works: Each time you return to material after a gap, your brain has to work harder to retrieve it. This effortful retrieval strengthens memory more than easy re-reading. The forgetting that happens between sessions is actually productive—it makes the next study session more effective.

The optimal spacing schedule:

• First review: Within 24 hours of initial learning
• Second review: 2-3 days later
• Third review: 1 week later
• Subsequent reviews: Gradually increasing intervals (2 weeks, 1 month, etc.)

Spaced repetition software automates this scheduling, showing you material just before you'd forget it. This is the most time-efficient approach because you never waste time reviewing material you already know well.

3. Interleaving

Effectiveness: High

Instead of studying one topic exhaustively before moving to the next (blocked practice), mix different topics or problem types within a single study session (interleaved practice).

Why it works: Interleaving forces your brain to continuously identify which strategy or knowledge applies to each problem. This builds discrimination skills—the ability to recognize what type of problem you're facing and select the appropriate approach. In an exam, this is exactly what's required.

Examples:

• Math: Instead of doing 20 integration problems then 20 differentiation problems, mix them randomly
• Biology: Study cell division, then protein synthesis, then genetics, rather than covering all of one topic first
• Languages: Mix vocabulary, grammar, and conversation practice within each session

Warning: Interleaving feels harder and less productive than blocked practice. Students often report feeling like they're learning less. But test results consistently show they're learning more. Trust the process.

4. Elaborative Interrogation

Effectiveness: High

For every fact or concept you learn, ask yourself "Why?" and "How does this connect to what I already know?" Then answer those questions.

Why it works: Elaboration creates additional memory connections. A fact stored in isolation is fragile—it has only one retrieval path. A fact connected to multiple other pieces of knowledge has many retrieval paths, making it far more accessible during an exam.

How to practice it:

• After learning a new concept, explain why it's true
• Connect new information to things you already understand
• Ask "What would happen if this weren't true?"
• Create analogies between new material and familiar concepts

5. Concrete Examples

Effectiveness: High

Abstract concepts become much more memorable when connected to specific, concrete examples. This works for virtually every subject.

Why it works: Our brains evolved to process concrete, sensory information—stories, images, physical experiences. Abstract concepts are processed by the same neural machinery but less efficiently. Concrete examples provide hooks that make abstract ideas stick.

Implementation:

• For every abstract concept, find or create at least two concrete examples
• Use real-world applications: "How does this show up in actual practice?"
• Create vivid mental images or scenarios
• The more personally relevant the example, the better it works

6. Dual Coding

Effectiveness: Moderate-High

Combine verbal information (words, text) with visual information (diagrams, charts, images). This isn't about "learning styles"—it's about creating two separate memory traces instead of one.

Why it works: According to Allan Paivio's dual coding theory, our brains process verbal and visual information through separate channels. When you encode information both verbally and visually, you create two independent memory traces, roughly doubling your chances of successful retrieval.

How to use it:

• Draw diagrams and flowcharts while studying
• Create mind maps connecting related concepts visually
• Sketch processes and mechanisms rather than just writing about them
• Use timeline visualizations for historical or sequential information

7. The Feynman Technique

Effectiveness: Moderate-High

Named after Nobel physicist Richard Feynman, this technique involves explaining a concept in simple language as if teaching someone with no background knowledge.

The four steps:

1. Choose a concept you want to understand
2. Explain it in simple language as if teaching a 12-year-old. Write it down.
3. Identify gaps where your explanation breaks down or gets vague
4. Go back to the source material to fill those gaps, then explain again

Why it works: Explaining forces retrieval, reveals gaps, and requires you to organize information coherently. If you can't explain something simply, you don't truly understand it. Jargon and complexity often mask shallow understanding.

What Doesn't Work (Despite Feeling Productive)

For completeness, here are popular techniques that research rates as low effectiveness:

• Highlighting/underlining: Creates an illusion of engagement with minimal actual learning
• Re-reading notes: Builds familiarity (recognition) but not the ability to recall under exam conditions
• Copying notes: Engages motor memory but not conceptual understanding
• Passive video watching: Without active engagement (pausing, testing yourself), retention is minimal

Building Your Study System

The most effective approach combines multiple techniques. Here's a practical workflow:

1. Initial learning: Attend lectures or read material actively, using elaborative interrogation ("Why?") and creating concrete examples
2. Same day: Convert key concepts to flashcards (practice testing + dual coding if you include diagrams)
3. Daily: Review flashcards using spaced repetition (15-20 minutes)
4. Weekly: Interleave practice problems from different topics
5. Before exams: Use the Feynman technique on concepts you find most challenging

This system requires less total time than re-reading notes repeatedly, yet produces dramatically better results. The initial setup takes effort, but once the habit forms, it becomes automatic.

Conclusion: Study Smarter, Not Longer

The gap between effective and ineffective study methods is enormous. Students using evidence-based techniques consistently outperform those who don't—often while studying fewer total hours. The research is clear; the only question is whether you'll apply it.

You're investing years and significant resources in your university education. Doesn't it make sense to use study methods that actually work?