OVERVIEW
Your Research Journey,in Nine Phases
1 Discover
Find a problem worth solving
2 Explore
Gather resources and literature
3 Validate
Confirm the problem is worth pursuing
4 Read
Skim fast, then read the strong ones deeply
5 Review
Take structured notes across papers
6 Design
Plan your hypothesis and methodology
7 Build
Implement carefully and reproducibly
8 Evaluate
Judge whether your results actually hold up
9 Publish
Turn results into a proper paper
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3.
MINDSET
Research Is aDifferent Game
Before the how-to, understand what changes when you move from coursework to research
COURSEWORK
The problem is already defined for you
A correct answer already exists somewhere
Success means matching the expected answer
Timelines are fixed, short, and predictable
RESEARCH
You define the problem yourself, from scratch
The answer may not exist yet, anywhere
Success means new, defensible knowledge
Timelines are open-ended and iterative
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4.
PHASE 1 ·DISCOVER
Where Problem Statements Come From
A good problem rarely appears out of nowhere. It usually comes from one of these five places
1 Gaps in your coursework
A topic your professor covered in one lecture, with real unanswered questions sitting just underneath it
2 Lab works/ Competitions like SIH, Kaggle etc.
Ask a professor what open questions remain in their current project. Every active project has loose ends.
3 Open-source issues
Unsolved bugs or feature requests on GitHub repos in your field often point to real, unsolved problems
4 Industry pain points
Talk to practitioners about tasks that are still slow, manual, or unreliable in their day-to-day work
5 Replication attempts
Try to reproduce a recent paper's result yourself, and pay close attention to exactly where it breaks
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5.
PHASE 1 ·DISCOVER
Narrowing a Broad Interest into a Question
Every strong research question passes through the same funnel
D O M A I N
Artificial Intelligence
S U BA R E A
Large Language Models
G A P
LLMs answer confidently even when they are wrong
QU E S T I ON
Can a lightweight verifier catch hallucinations before an answer reaches the user?
A good research question is specific enough to test in a single project and narrow enough that you can state it in one sentence.
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6.
PHASE 2 ·EXPLORE
Where to Search for Literature
Google Scholar, Research Gate Broadest search, citation counts, and a "cited by" link on every result
arXiv Preprints, including the newest work in your field, months before formal peer review
IEEE Xplore / ACM DL Peer-reviewed engineering and computer science papers, the standard venues in most fields
Semantic Scholar AI-assisted search that highlights which citations were genuinely influential
Papers with Code Links papers directly to their code and reported benchmark results
Tip: For Paywalled Papers, you can use Reddit Forums (or simply ask the authors if they can help) ;)
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7.
PHASE 2 ·EXPLORE
Tools That Make This Easier
Reference managers Mendeley, Zotero, EndNote — organize PDFs and auto-generate citations in any format
Literature mapping Connected Papers, ResearchRabbit — visualize how papers cite and relate to one another
AI research assistants Elicit, Consensus, scite.ai — ask a question across many papers and see how a claim holds up elsewhere
General AI assistants Tools like Claude or ChatGPT — good for summarizing dense sections and explaining unfamiliar terms, but always verify the
specifics yourself
Writing & collaboration Overleaf, Grammarly — collaborative LaTeX writing, plus a grammar and clarity pass before you submit
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8.
PHASE 2 ·EXPLORE
Snowballing: Following the Citation Trail
Do this for your two or three strongest papers, and your reading list grows itself
BACKWARD
Check the reference list of a strong
paper for the foundational work it
builds on
YOUR SEED PAPER
FORWARD
Use "cited by" to find newer papers
that build on or challenge this one
Backward citation chaining shows you where the ideas came from. Forward citation chaining shows you whether the problem is still open today, or whether
someone already solved it after this paper was published.
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9.
PHASE 3 ·VALIDATE
Is This Actually a Good Problem?
Run every candidate problem through this checklist before committing months to it
1 Novelty
Has this exact problem already been solved well by someone else?
2 Feasibility
Can you realistically build and test this within your timeline and resources?
3 Impact
Does solving it matter to someone beyond just your grade?
4 Scope
Can you state it in one sentence, without needing an "and" in the middle?
5 Evidence
Do at least two independent sources confirm that this gap genuinely exists?
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10.
PHASE 4 ·READ
The Skim Test: Triage Before You Commit
Give every new paper five to ten minutes before deciding whether it deserves a full read
Title &
Abstract
Section
Headings
Figures &
Captions
Conclusion
Rule of thumb: if you cannot state the paper's contribution in one sentence after this, it is not ready for a full read yet.
KEEP
Contribution is clear and directly relevant.
Move to the three-pass method next.
MAYBE
Relevant but not central. Bookmark it and
come back if your direction shifts.
DISCARD
Different problem, weak venue, or already
superseded. Skip it entirely.
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11.
PHASE 4 ·READ
The Three-Pass Reading Method
Use this only on papers that already cleared the skim test
Pass Time What you do
Pass 1 ~10 minutes Read the title, abstract, introduction, headings, and conclusion. Decide relevance only
Pass 2 ~1 hour Read the body, study every figure and table, note key references. Skip proofs and derivations for now
Pass 3 2 to 4 hours Re-derive the results yourself, question every assumption, and note what you would do differently
Note: most papers you skim will never reach Pass 3, and that is expected. Reserve Pass 3 for the handful of papers your own work will directly build on.
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12.
PHASE 5 ·REVIEW
Keep a Running Literature Notes Table
Paper Problem Method Result Limitation Relevance
Paper A Object detection in clutter CNN with attention +4% mAP over baseline Never tested in real time Baseline for my comparison
Paper B Path planning near people Sampling-based planner Lower collision rate Assumes static obstacles Directly motivates my gap
Paper C Sensor fusion for odometry Kalman filter + IMU Reduced drift over distance Needs precise calibration Useful for my pipeline
Why it matters: this table also reveals exactly where the real gap sits, since the pattern across the Limitation column is usually your research question.
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13.
PHASE 6 ·DESIGN
Designing Your Approach Before You Build
Decide these four things on paper, before writing a single line of code
1 State a testable hypothesis
Write a claim you can prove false, not just a vague goal like "improve performance"
2 Choose your baselines first
Decide what you're comparing against before you build anything, not after your method already works
3 Fix your evaluation metrics
Pick the numbers that will decide success up front, so you cannot quietly shift the goalposts later
4 Sketch the experiment design
Note what varies, what stays fixed, and how many trials each condition needs
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14.
PHASE 7 ·BUILD
Implementation Practices Worth the Discipline
1 Version control everything
Commit even small experiments, so you can always trace back to what actually produced a result
2 Keep code modular
One component should change without breaking every other part of your pipeline
3 Log every experiment
Record the parameters and full result, not just the one final number you were hoping for
4 Document setup as you go
Write down each step while you remember it, not weeks later when you have forgotten why
5 Separate raw and processed data
Keep both saved and clearly labeled, so you can always regenerate results from scratch
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15.
PHASE 7 ·BUILD
Common Implementation Pitfalls
Each of these quietly invalidates a result, without ever throwing an error
1 Data leakage
Testing on the same data that was used for tuning, even indirectly
2 A single lucky run
Reporting one run's number instead of an average across multiple seeds
3 Skipped baselines
Assuming your method "obviously" wins, so a real comparison never gets built
4 Skipped ablations
Never isolating which part of your method is actually doing the work
5 Multiple variables at once
Changing more than one thing between two runs you're comparing
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16.
PHASE 8 ·EVALUATE
Are Your Results Actually Useful?
A number that looks good is not the same as a result that means something
1 Statistically significant
Not just numerically higher on one run, but reliably better across repetitions
2 Beats a real baseline
Compared against a serious existing method, not a deliberately weak strawman
3 Ablations isolate the contribution
You can say exactly which part of your method is responsible for the gain
4 Holds up across settings
Consistent across multiple seeds, datasets, or conditions, not a single favorable run
5 Passes basic sanity checks
Fails gracefully on edge cases instead of silently producing nonsense
A well-documented negative result, rigorously obtained, is still a valid and publishable contribution.
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17.
PHASE 9 ·PUBLISH
The Anatomy of a Publication-Level Paper
This is the shape nearly every paper takes. Follow it unless your venue specifies otherwise
1
Abstract
2
Intro-
duction
3
Related
Work
4
Method-
ology
5
Experi-
ments
6
Results &
Discussion
7
Conclu-
sion
8
Refer-
ences
Why the order matters: Related Work comes before Methodology, so the reader understands the gap before you claim to fill it. Results and Discussion stay
separate, so what happened is never confused with what it means.
Some venues merge Results and Discussion or place Related Work after the Introduction instead. Always check your target venue's own template first.
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18.
PHASE 9 ·PUBLISH
What Actually Goes in Each Section
A one-line brief for each part of the paper
Section What goes here
Abstract One paragraph: the problem, your approach, and the key result, in that order
Introduction The motivation, the gap, and your contribution stated as an explicit list
Related Work Grouped by approach rather than chronology, ending in what's still missing
Methodology Enough detail that someone else could rebuild your method from this alone
Experiments Setup, datasets, baselines, and metrics, described before any results appear
Results & Discussion What happened, then separately, what it means
Conclusion The contribution and its limits restated. No new claims introduced here
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19.
PHASE 9 ·PUBLISH
Writing Style That Reads Like Research
DO
✓ Use active voice for your own actions: "We evaluate..."
✓ State exact numbers, not vague terms like "much better"
✓ Define every symbol and acronym the first time it appears
✓ Keep one idea per sentence
AVOID
✕ Overclaiming beyond what your data actually supports
✕ Repeating the abstract's exact wording in the introduction
✕ Introducing a new term for a concept you already named
✕ Filler phrases that add words but no information
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20.
PHASE 9 ·PUBLISH
Choosing a Format and a Venue
Check your target venue's own template and page limit before you start writing
Template Layout Typical length
IEEE conference Two-column 6 to 8 pages
ACM conference Two-column 6 to 10 pages
Springer Single-column 12 to 15 pages
1 Conferences vs. journals
Conferences move fast with one hard deadline. Journals move slower but allow rounds of revision
2 Template first
Page limits and formatting rules vary by venue, so confirm them before you begin writing, not after
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21.
PHASE 9 ·PUBLISH
Not All Venues Are Equal
In computer science and AI, top conferences often outrank journals, unlike most other fields
1
Workshop /
Symposium
Low barrier,
fast feedback
2
Regional
Conference
Peer-reviewed,
moderate rate
3
Flagship
Conference
Highly selective,
the gold standard
4
High-Impact
Journal (Q1)
Multi-round
review process
RANKINGS WORTH KNOWING
1 CORE Rankings
CS conferences are graded A*, A, B, or C on the CORE portal. A* is the most competitive tier
2 Google Scholar h5-index
Ranks venues by the citation count of their most-cited recent papers, visible under Google Scholar Metrics
3 Journal Quartiles (Q1–Q4)
Based on citation-weighted scores like SJR or Impact Factor. Q1 is the top 25% of journals in a subject area
A paper at a flagship venue like NeurIPS or CVPR usually counts for more than one in an average journal. This is the reverse of fields like biology or chemistry,
where journals dominate.
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22.
B EF OR E YO U G O
Five Things Worth Remembering
1 A good problem is specific, feasible, and confirmed by more than one source
2 Skim before you read, and read before you build
3 Document as you go. You will not remember your reasoning three weeks later
4 A rigorous negative result beats an exaggerated positive one
5 Publication is the last step of the process, not a separate skill bolted on at the end
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Editor's Notes
#1 It's a walkthrough of the actual steps and the resources that might help you at each step so that you'll know how to find a problem, read papers efficiently, build something rigorous, and write it up properly.
#2 Here's the map for the whole talk. Research breaks down into nine phases: Discover, Explore, Validate, Read, Review, Design, Build, Evaluate, and Publish. I will go about them in detail as we go forward but before that, has anyone here read Research papers or has their own papers?
#3 Research has a different mindset to it. In coursework, the problem is handed to you, the answer already exists, and success means matching it. In research, you define the problem yourself, you may or may not know whether the problem is solvable, and success means producing something new that can survive scrutiny. Doesn’t matter whether its only positive or negative but positive is given a higher preference in the general sense.
#5 Research Statements or Questions is the important part. The more questions u can ask, the wider scope u get to play around with.
#6 Scholar for Finding Authors work directly or lab related responses.
Arxiv for latest studies or potential question searching. Do not refer to it extensively since these are pre-prints meaning they may or may not be verified.
#7 Set these up now, not three months in. A reference manager, Mendeley, Zotero, or EndNote, keeps your PDFs organized and generates citations in whatever format you need later. Connected Papers and ResearchRabbit visualize how papers relate to each other, which is genuinely useful once we get to citation chaining in a minute. Elicit, Consensus, and scite.ai let you ask a question across many papers at once and see how a claim actually holds up in the literature. Tools like Claude or ChatGPT are good for summarizing dense sections or explaining a term you haven't seen before, but treat them as a first pass, not a source. Always verify specifics yourself. And for writing later, Overleaf handles collaborative LaTeX, Grammarly catches the small stuff. One piece of advice: pick one reference manager now and stick with it. Switching halfway through a project wastes more time than it saves.
#9 Feasibility – Time Constraints since you need to complete the projects within your academic years. You may or may not have GPUs or devices to conduct full tests so check requirements of a problem before starting work on it.
Impact matters because that will decide whether your paper is acceptable to be published. Something that solves one problem completely is much better than something that solves 10 problems with exceptions.
Evidence – Your professors and guides will be the best sources to confirm your problem statement since they have experience in research.
#10 You cannot deep-read every paper you find. Some are 8 pages, some are 16 or even 50 pages long. It is not feasible since you’d be going through atleast 10-20 papers at any time. Give each paper five to ten minutes: read the title and abstract, skim the section headings, look at every figure and its caption, and read the conclusion. That's it. After that, you sort the paper into one of three buckets. Keep, if the contribution is clear and directly relevant, move it to a full read. Maybe, if it's relevant but not central, bookmark it. Discard, if it's a different problem, a weak venue, or already superseded. The rule of thumb: if you can't state the paper's contribution in one sentence after the skim, it isn't ready for a full read yet.
#11 Now that you have a shortlist from the previous step, you do a 3 stage pass per paper to shorten it even more. This helps you find your seed papers for the snowballing method I mentioned before.
#12 As you do the previous passes, start noting them down in a table like this. It essentially makes you a Related Works section for your paper writing stage and is also more organized to understand the baseline for your problem. What you HAVE to defeat or succeed it atleast. if you look down the limitation column across ten papers, you'll usually see the same gap showing up again and again. That pattern is often your actual research question.
#14 These are Some tips from my own experiences. Makes it much easier to track progress and also be ready if something wrong happens that you didn’t think of in the beginning.. Which will happen to all of you at some point through the research.