
Disclosure: NOXI publishes this guide and is one of the tools it mentions; the method works in any presentation software.
Quick answer: To turn a research paper into a conference presentation, first write three sentences: the question the study addressed, what the evidence supports and what it does not. Keep only the method a listener needs to judge that answer, redraw the main figure for projection and give the result the most time. For a 10-minute talk, about nine slides work: question, gap, design, how to read the evidence, main result, uncertainty, limitations, next test and take-home, with backup slides held for expert questions.
Compressing every section of the paper into fewer words usually produces a talk that feels rushed and still hides its contribution: the literature review consumes the opening, the methods become an unreadable diagram, and the main result appears just as the session chair signals that time is up. This guide works through an explicitly fictional sensor study, with invented data and reproducible arithmetic, to show how to choose a claim, keep the evidence that makes it defensible and build a ten-minute talk without turning a small study into a sweeping promise.
In short
- Three sentences firstQuestion, answer and boundary, written before any slide exists.
- TimeSet by the organizer: CHI 2026 gave paper talks 10 minutes plus 2 for questions; ETRA 2026 gave 12 plus 3.
- SlidesNine main slides for the 10-minute example; the main result gets the most time, 1 minute 50 seconds.
- MethodKeep every detail that would change how a listener reads the result; move the rest to backup or the paper.
- FiguresRedrawn for the room: one message, with the unit, sample size and comparator readable from the back.
- QuestionsBackup slides named by the question they answer, and answers that separate evidence from plans.
What a short conference talk has to do
A conference talk has one job: to help other researchers understand a single contribution well enough to judge and discuss it. It is not a shorter copy of the paper, and equal coverage of every section is rarely the right use of the time.
The most useful preparation question is: "What should another researcher understand well enough to discuss after this talk?" The answer might be a surprising result, a methodological contribution or a limitation that changes how the field interprets previous work. Whichever it is, the talk needs four elements around it:
- A clear research question that names the unresolved issue.
- Enough method to judge the answer, chosen by what affects belief in the claim, not by what took the most work.
- Visible evidence, in a form the audience can read while you explain it.
- An honest boundary that says where the conclusion stops.
Start with those four elements, then decide which parts of the paper help the audience understand them. Everything else has another home: backup slides, the paper or the supplement.
Establish the presentation contract first
The organizer's instructions decide how long you speak, what the file must contain and how questions are handled, so read them before planning a single slide. Record the speaking allowance separately from the total slot, and check whether introductions, setup or questions are included.
Two 2026 events show how much this varies. CHI 2026 allocated on-site paper talks ten minutes of presentation plus two minutes of questions. ETRA 2026 allocated twelve minutes plus three minutes of questions for full papers and selected short papers. These were the requirements for those events, both checked on 7 October 2026; they are not a rule for every ACM conference.
The preparation sheet
Capture these items in one place before drafting. Each one changes the content, not only the logistics.
| Item | What to record | Why it changes the talk |
|---|---|---|
| Speaking allowance | Minutes you speak, separate from the total slot | Sets the slide plan and the reserve |
| Questions | Inside the slot or separate, and who moderates | Decides how much detail can wait for questions |
| Display and file | Display format, file type and submission deadline | A late format change can break figure layouts |
| Equipment | Own laptop or venue machine, connector, screen sharing | Decides which file you present from and which fallback you carry |
| Accessibility | Captioning and any requirements for materials | Affects figure labels and what you describe aloud |
| Recording | Whether the talk is recorded or streamed | A recorded talk needs more spoken explanation of each diagram |
| First slide | Mandatory details such as paper title and authors | Fixed content to plan around |
How the format changes the talk
| Format | What is different | Plan for |
|---|---|---|
| Paper talk to specialists | The audience knows the field's methods | Time on what is new and on the evidence; familiar theory stays in the paper |
| Interdisciplinary session | Some listeners do not know your measurement or comparator | A longer explanation of what was measured and against what |
| Lightning talk or poster pitch | A few minutes, sometimes without questions | One claim, one figure and a pointer to the poster or paper |
| Recorded presentation | Nobody can ask what a symbol means | Every diagram explained aloud and every symbol defined on the slide |
None of these formats needs a slide count fixed before the argument exists. If the timing is unclear, ask the session chair.
Choose the contribution before choosing the slides
Decide what the talk claims before deciding what it shows. Write three sentences privately: the question, the answer the evidence supports, and the boundary beyond which a conclusion would be unreasonable.
| Sentence | Ask yourself | In the fictional sensor study |
|---|---|---|
| The question | What unresolved issue did this study address? | Can a fixed software correction reduce temperature-reading error on test sensors that were not used to develop it? |
| The answer | What does the evidence support? | Mean absolute error fell from 0.48°C to 0.31°C across twelve test units under specified laboratory conditions. |
| The boundary | What would be unreasonable to conclude? | Anything about other production batches, changing humidity, long-term drift or real deployments. |
| The central claim | One sentence that carries all three | "A frozen correction reduced temperature error in this single-batch bench test." |
The phrase "single-batch bench test" is part of the finding's scope, not a disclaimer to hide on the final slide. The fictional paper could also contain calibration details, several supplementary checks and a long account of competing approaches. The talk's contribution is the held-out test: the correction was fixed before the twelve evaluation units were measured. Keep that development/evaluation separation visible, because it determines how the audience should interpret the result.
What counts as sufficient evidence depends on the kind of research
Choose the method details that affect belief in your particular claim. The table applies that rule to common types of contribution.
| Contribution | What the main talk needs | What can usually wait for backup or the paper |
|---|---|---|
| Measurement or experiment (the example) | Selection of units, separation of development and evaluation, the unit of analysis, the pairing and the tested conditions | Full equations, every raw reading, the instrument interface |
| New algorithm | An explanation of its mechanism and appropriate baselines | Full derivations, complete settings and secondary comparisons |
| Observational finding | How cases were selected and how confounding was handled | Full variable lists and secondary sensitivity checks |
| Qualitative study | Participant-selection logic, the analysis approach and a contrasting case | The full coding scheme and further excerpts |
| Theoretical result | The important assumptions, the idea that makes the argument work, the domain where it applies, and a worked example or counterexample | The complete proof |
| Benchmark study | Evaluation data, relevant baselines and comparison conditions | Per-task result tables |
Two cautions: a qualitative talk should not suggest that three quotations represent an entire population, and better benchmark performance does not by itself establish better performance in every deployment. The most useful retained method detail is the one that lets the audience judge the evidence your paper actually supplies.
The worked example: a fictional sensor study
The example is a complete small study, so every editing decision in this guide can be checked against the full record.
The researchers developed a linear correction using six development units, then froze its parameters. Twelve different units, randomly selected from one production batch, formed the evaluation sample. No evaluation unit was used to tune the correction, and none was excluded after measurement.
Each evaluation unit was measured at six stable chamber temperatures (15, 20, 25, 30, 35 and 40°C), with three settled readings at each temperature. The factory calculation and the frozen correction were both applied to the same captured readings, then compared with the same laboratory reference.
For each unit, mean absolute error (MAE) was the average of eighteen absolute differences from that reference; lower values mean closer agreement with the reference over this test's temperature range. The device was the unit of comparison. Twelve units × six temperatures × three readings gives 216 captured readings, but the repeated readings estimate each device's error; they do not create 216 independent devices. Applying two calculations to the same readings does not produce 432 independent observations either.
All twelve unit-level results
This table is useful for checking the example. In the real talk it belongs in the backup material, not the opening.
| Unit | Factory MAE, °C | Corrected MAE, °C | Reduction, °C |
|---|---|---|---|
| 1 | 0.40 | 0.26 | 0.14 |
| 2 | 0.46 | 0.31 | 0.15 |
| 3 | 0.50 | 0.33 | 0.17 |
| 4 | 0.38 | 0.30 | 0.08 |
| 5 | 0.55 | 0.34 | 0.21 |
| 6 | 0.44 | 0.27 | 0.17 |
| 7 | 0.60 | 0.32 | 0.28 |
| 8 | 0.49 | 0.31 | 0.18 |
| 9 | 0.42 | 0.28 | 0.14 |
| 10 | 0.53 | 0.35 | 0.18 |
| 11 | 0.47 | 0.29 | 0.18 |
| 12 | 0.52 | 0.36 | 0.16 |
| Mean | 0.48 | 0.31 | 0.17 |
The mean reduction is 0.17°C, approximately 35% of the baseline mean. "35% lower mean absolute error" describes that calculation; "35% more accurate" is less precise, because it names neither the metric nor the denominator. Individual reductions range from 0.08°C to 0.28°C. Every unit improves in this constructed dataset, but that observation does not establish that every future unit will improve.
The uncertainty around the mean
An illustrative paired t interval for the mean reduction is approximately 0.14°C to 0.20°C at the 95% confidence level. It is calculated from the twelve device-level differences: a sample standard deviation of about 0.0471°C, a standard error of about 0.0136°C and a critical t value of 2.201 with eleven degrees of freedom. The model assumes independent, approximately normally distributed unit-level differences. It does not incorporate shared reference bias or establish performance in a wider operating environment.
The NIST/SEMATECH engineering statistics handbook describes analyzing naturally paired measurements through their differences (NIST: paired observations) and explains the repeated-sampling interpretation of confidence intervals (NIST: confidence limits for the mean). A 95% interval is not the range of individual device improvements, and it is not a 95% probability that a future device will improve by that amount.
The result is promising within its scope. It still leaves important questions open: how performance changes between batches, whether the correction remains useful after aging, and whether reference or chamber effects alter the estimate. Those questions belong in the talk, because they determine the next experiment.
Decide what the audience needs now, later or elsewhere
Give every piece of paper material a destination: the main talk for what listeners need to follow and assess the contribution, backup slides for likely questions, and the paper and supplement for the full record. Editing then becomes sorting rather than a series of painful deletions.
| Paper material | Main talk decision | Reason |
|---|---|---|
| Long survey of calibration approaches | Keep the relevant comparison and gap | Establishes why this evaluation matters |
| Development procedure | Show six development units and frozen parameters | Makes the evaluation separation understandable |
| Complete correction equations | Backup, unless the mechanism is the contribution | Details stay available without delaying the main result |
| Chamber procedure | Keep range, pairing and unit of analysis | These affect how the reported improvement is interpreted |
| Eighteen readings for every unit | Full record outside the main sequence | Needed for reproducibility, too much for explaining this result |
| Twelve unit-level summaries | Show graphically | Reveals variation hidden by the two means |
| Reference and dependence assumptions | Briefly visible, with detail in backup | Defines what the statistical interval leaves out |
| Untested deployment conditions | Main limitations slide | Prevents a laboratory finding from becoming a field claim |
The equation decision is conditional. A methods conference may need the equation early. A results-focused session may be better served by a diagram showing what the correction receives and changes. Removing an equation from the main sequence should not remove an essential assumption with it.
Redesign the evidence for the room
A paper figure is read beside a caption and a detailed argument; a slide figure has to become understandable while you explain it. Redraw it around the one message it supports, and keep the unit, sample size, pairing and comparator readable.
MIT's Civil and Environmental Engineering Communication Lab illustrates the distinction with original figure-redesign examples, including replotting selected data and identifying the adaptations made (MIT CEE Communication Lab: redesigning existing figures for slides, published 15 January 2024).
Imagine the fictional paper's main figure has four panels: development fit, errors at each temperature, unit-level evaluation and residual diagnostics. Copying all four onto a slide would require the audience to learn several graphical conventions before seeing the contribution.
The main result as a paired dot plot
For the main result, use a paired dot plot. Put factory MAE on the left and corrected MAE on the right, with a line connecting the two values for each unit. Use one vertical scale labeled "Mean absolute error, °C", running from zero to about 0.65°C so that every value in this example fits, and say that each line represents one test device. Direct labels can identify the two group means without making them look like additional observations.
Before revealing the points, teach the audience how to read them: "Each device has two error estimates from the same readings. A line moving down means that the correction reduced error." Then show the result. The audience now knows what to inspect.
A second, smaller panel can show the mean paired reduction and its interval, labeled as an interval for the mean. Do not present that panel as independent confirmation: it summarizes the same twelve devices.
Figure redesign checklist
- One message per figure.State the claim the figure supports in the slide title, and drop panels that serve another message.
- Unit and scale.An axis label with the unit, a scale that fits every value, and the same scale wherever two conditions are compared.
- Sample size, pairing and comparator.Readable on the slide, not left in the caption you removed.
- Labels beside the data.Direct labels instead of a legend the audience has to decode; if cropping a published figure removed its legend, restore the information needed to read the retained panel.
- Nothing decorative.Remove decorative gridlines, unnecessary decimals and panel lettering that has lost its purpose.
- Essential scope.Conditions that limit the reading, such as one batch and 15–40°C, stay visible.
- Attribution.For another team's figure, preserve attribution, describe the adaptation accurately, and check the applicable permission or license and the conference's requirements.
Redrawing a chart does not turn another team's results into your own data. For crediting data and figures on slides, see our guide to presentations with research and citations.
A 10-minute conference presentation, slide by slide
For a ten-minute speaking allowance, nine main slides plus three backup slides form a workable structure, with the evidence slides getting the most time and the title and closing slides the least. The template below is an editorial model, not a mandatory format; its times include spoken explanation and ordinary transitions.
The template
| # | Time | Slide job | Title pattern |
|---|---|---|---|
| 1 | 0:00–0:40 | Question, team and a preview of the answer with its scope | "Can [method] [improve the outcome] on [cases it was not built from]?" |
| 2 | 0:40–1:30 | The specific gap | "[The claim] needs [kind of evidence] beyond [what exists]" |
| 3 | 1:30–2:10 | The design condition that makes the result meaningful | "[Condition] was fixed before [the test]" |
| 4 | 2:10–3:20 | The endpoint, the unit of analysis and how to read the main figure | "Each [unit] contributed one [comparison]" |
| 5 | 3:20–5:10 | The main result, including its variation | "[Metric] changed from [A] to [B]" |
| 6 | 5:10–6:10 | Uncertainty and what the estimate covers | "The [estimate] has uncertainty and a defined scope" |
| 7 | 6:10–7:30 | Limitations, each tied to an interpretation | "This test does not cover [conditions]" |
| 8 | 7:30–8:40 | What would change the conclusion | "The next [study] must test [the missing conditions]" |
| 9 | 8:40–9:30 | Result and boundary, credits, where to find the record, a discussion question | "[Result] in [scope]; [open condition] remains untested" |
| – | 9:30–10:00 | Reserve | – |
| B1–B3 | On request | Backup: method, full data, calculation | Named by the question each one answers |
Write every title as a full-sentence claim that stays true when read alone. "Results" tells the audience nothing; "Mean absolute error fell from 0.48°C to 0.31°C" tells them what to look for, and someone skimming the PDF later still gets the finding.
The template filled in for the sensor study
- 0:00–0:40 · "Can a fixed correction improve unseen sensors?" Give the question, presenter and team, plus the result and its laboratory scope in one sentence, without every number. Opening line: "We tested whether a correction developed on separate units would reduce error on twelve sensors from a different evaluation sample."
- 0:40–1:30 · "A correction needs an evaluation beyond its development units" A fitted correction can look useful on the units used to develop it; the question is how it performs on held-out units. Show a simple development-to-evaluation diagram, and avoid claiming that earlier work never validated corrections: the study supplies no literature evidence for that.
- 1:30–2:10 · "The correction was frozen before the twelve-unit test" Show six development units feeding parameter selection, then a clear separation before twelve evaluation units, all of which remained in the analysis. This short slide establishes the condition that makes the next result meaningful.
- 2:10–3:20 · "Each device contributed one paired error comparison" Show the temperature range, three readings at each point and the eighteen-reading summary per device. Define MAE in plain language, explain why twelve device summaries are compared rather than 216 readings, and end by teaching the audience how to read the paired plot.
- 3:20–5:10 · "Mean absolute error fell from 0.48°C to 0.31°C" Show the twelve paired values. State the 0.17°C mean reduction, then the variation: individual reductions range from 0.08°C to 0.28°C. Pause for the figure, with no paragraph competing with your explanation. This is the center of the talk and gets the most time.
- 5:10–6:10 · "The mean improvement has uncertainty and a defined scope" Show the illustrative 0.14–0.20°C interval with its label. Say what it estimates and what it leaves out, and distinguish a mean reduction from a guaranteed improvement for an individual device. The calculation stays in backup.
- 6:10–7:30 · "This test does not cover humidity, drift or other batches" Connect each limitation to an interpretation: one batch limits manufacturing generalization, stable chamber conditions do not establish behavior in a changing environment, and short-term measurements do not establish durability.
- 7:30–8:40 · "The next evaluation must test the missing conditions" Propose a follow-up with independent batches, operating conditions relevant to the intended use and repeated measurement over time, labeled as proposed checks, not findings. Say what would change the conclusion: a batch effect or a deteriorating improvement would narrow where the correction is useful.
- 8:40–9:30 · "The correction reduced lab error; field performance remains untested" Restate the result and its boundary, thank collaborators and show where the full paper and measurement record can be found. End with a question worth discussing, such as which deployment condition the next test should prioritize.
Keep the final thirty seconds free. If the venue gives you twelve speaking minutes, spend the extra time where explanation helps most, such as the measurement assumptions or the interpretation of device-level variation. Adding unrelated supplementary results simply because two minutes exist can weaken the narrative.
How many slides for 5, 12, 15 or 20 minutes
Let the argument set the slide count and a timed rehearsal confirm it. These planning ranges keep the same logic at other lengths; they are editorial guidance, not conference rules.
| Speaking time | Main slides | What changes from the nine-slide template |
|---|---|---|
| 3–5 minutes (lightning talk, poster pitch) | 3–5 | The question with its answer, the one design condition, the main result, and the boundary with a pointer to the poster or paper |
| 10 minutes | 8–10 | The template as shown |
| 12 minutes | 9–11 | More time for measurement assumptions or device-level variation, not an unrelated result |
| 15–20 minutes | 11–15 | A second result that tests the same claim, a mechanism slide, or a comparison with the strongest alternative approach |
Our slides-per-minute table gives the general arithmetic for 5- to 60-minute talks. For a research talk, weight it by evidence: slides that show data need more time than the title or closing slide.
Write the transitions before polishing the slides
Spoken transitions carry the reasoning from one slide to the next, so draft them before working on layout. If you cannot explain why one slide leads to the next, the sequence needs another cut or a better bridge.
For the sensor study, three transitions do most of the work:
- "A good fit on development units would not answer our question, so we fixed the correction and evaluated different units."
- "These repeated readings summarize each device's performance; now we can compare the two calculations within the same device."
- "That result answers the bench-test question, but the test design leaves three deployment questions open."
Sentences like these keep the talk from becoming a tour of headings labeled Introduction, Methods, Results and Discussion. A reusable pattern is "[What we had] would not answer [the question], so we [did this]." Write one for every slide boundary; a boundary where no sentence comes to mind is where the logic is missing.
How much methodology to include
Include enough method for a specialist to audit the path from measurement to claim: how units were selected, how development and evaluation were separated, how the endpoint was constructed, what was compared and which assumptions matter. Other settings can stay in backup or the paper.
A specialist question often targets exactly the detail a presenter is tempted to shorten. For the sensor study, a listener should be able to answer five questions after the main talk:
- What was measured?
- What changed between the two calculations?
- What stayed paired?
- What counted as one unit?
- Which operating conditions were tested?
They do not need to remember every instrument setting. If a setting is essential to validity, its implication belongs in the main explanation; the exact value can remain in backup or the paper.
For the sensor study, prepare three:
| Backup slide | The question it answers | Contents |
|---|---|---|
| B1 | How was the correction developed and frozen? | Six development units, the correction equations and the point at which parameters were fixed |
| B2 | What did each of the twelve units show? | The complete unit-level table with factory, corrected and reduction columns |
| B3 | How was the interval calculated, and what does it leave out? | Paired differences, standard deviation, degrees of freedom, model assumptions and shared reference bias |
A backup section organized as a copy of the entire supplement is difficult to navigate while an audience waits.
How to present limitations and uncertainty
Present each limitation with the interpretation it restricts and the test that would resolve it, and put the scope into the claim itself rather than onto a final slide. A generic list of limitations whose consequences remain unexplained does not help anyone judge the result.
| Limitation in the sensor study | What it limits | What would test it |
|---|---|---|
| One production batch | Generalization across manufacturing | Units from independent batches |
| Stable chamber conditions, 15–40°C | Behavior in a changing environment, including humidity | Operating conditions relevant to the intended use |
| Short-term measurements | Durability and long-term drift | Repeated measurement of the same units over time |
| One shared laboratory reference | Whether reference or chamber effects alter the estimate | A broader uncertainty analysis with the relevant measurement information |
Wording that matches the evidence
Many overclaims enter through wording rather than through the data. Compare each claim-bearing title and sentence with what the analysis supports.
| Overclaim | Wording the evidence supports | Why |
|---|---|---|
| "35% more accurate" | "35% lower mean absolute error" | Names the metric and the denominator |
| "The correction works" | "A frozen correction reduced temperature error in this single-batch bench test" | The scope is part of the finding |
| "Every sensor improves" | "All twelve test units improved; reductions ranged from 0.08 to 0.28°C" | Describes the sample, not future units |
| "A 95% chance that a device improves by 0.14–0.20°C" | "95% confidence interval for the mean reduction: about 0.14 to 0.20°C" | The interval concerns the mean, not an individual device |
| "216 independent measurements" | "Twelve devices, each summarized from eighteen readings" | The device is the unit of analysis |
| "Ready for deployment" | "Field performance remains untested" | No field conditions were tested |
The same discipline applies to ranges and estimates outside research; our guide to presenting forecasts without false precision covers it for planning figures.
Prepare answers that separate evidence from interpretation
Prepare each likely question in three parts: the short answer, the record that supports it and anything that remains unresolved. That preparation makes a response more useful than improvising a broader claim under pressure.
| Likely question | Short answer | Support | Still open |
|---|---|---|---|
| "Why only twelve devices?" | The study evaluates a limited single-batch sample and provides an initial estimate under the defined conditions. | B2 | Larger, independent-batch testing. Do not invent a power calculation after the fact. |
| "Were the corrected readings independent of the baseline readings?" | No. Both calculations used the same captured readings, which is why the analysis uses device-level paired differences. | Slide 4, B1 | Nothing: the pairing is part of the design. |
| "Does the confidence interval include calibration-reference uncertainty?" | It describes variation in the device-level differences under its model assumptions and does not fully account for shared reference bias. | B3 | A broader uncertainty analysis, which needs the relevant measurement information. |
| "Would every deployed unit improve by at least 0.14°C?" | No. The lower limit concerns the mean reduction under the model, not an individual guarantee; the sample already includes a 0.08°C reduction. | B2, B3 | Unit-to-unit spread in other batches. |
| "Does 0.31°C mean the sensor meets our specification?" | That depends on the specification and its operating conditions. A mean over selected temperatures does not establish compliance for every reading or environment. | Slide 6 | A test against the specification itself. |
For any paper, the same categories recur: sample size and selection, independence and the unit of analysis, what the uncertainty estimate covers, generalization beyond the tested conditions, practical significance against a specification or need, and comparison with the strongest alternative approach. Prepare at least one question in each category, and check that a backup slide or a sentence in the talk answers it.
When a question reveals a missing analysis, say so directly. Explain whether the necessary data exist and what analysis would answer the question. A precise "we have not tested that condition" preserves the distinction between findings and plans.
Rehearse the argument, then check the delivered file
Rehearse at least twice with different reviewers, then inspect the exact file you will present on the expected display.
During the first timed rehearsal, note when the audience reaches the main result; in the nine-slide plan it arrives at 3:20. If it arrives later, inspect the background and method explanations before speaking faster, and remove information whose main purpose is to demonstrate how much work was done.
For the second rehearsal, ask a colleague unfamiliar with the paper to identify the claim, the comparator and the most important limitation. Ask a specialist where the method explanation leaves a validity question unanswered. These are different reviews, and both are useful. The IEEE Author Center also recommends recording a practice talk and leaving time for audience questions, and Christopher Lortie's ten simple rules for short and swift presentations (PLOS Computational Biology, 2017) make the related point that a short talk needs deliberately reduced scope and practice.
Final file checklist
- Presentation mode on the real setup.Open the actual file in presentation mode on the expected display arrangement, not only in the editor.
- Symbols, units and equations.Check scientific symbols, units such as °C, and equation rendering in the delivered file.
- Readable from a distance.The main result, axis labels and figure labels are legible from the back of the room.
- Titles that stay true alone.Read only the titles in order; each claim matches the evidence and keeps its scope words.
- Media and animations.A static PDF preserves appearance for an equipment fallback; animations and embedded media need their own delivery check.
- Backup section.Backup slides follow the closing slide, titled by question, and you can reach each one quickly.
- What the organizer requests.The requested file format, a backup copy and the submission deadline.
- Route to the full record.The closing slide says where to find the paper, data or supplement; never a placeholder DOI.
For a fuller access check, use our presentation accessibility checklist.
Use AI after the scientific decisions are made
An AI presentation tool can turn an approved research brief into a first layout and suggest alternative wording, while the researcher still chooses the contribution, approves the data and judges whether each visual supports the conclusion. Make those decisions first, then give the tool the result.
The most useful input is a concise, approved brief rather than the whole paper: the timing contract, the audience, the central claim, the retained method details, the approved figures and data table, and the overclaims to avoid. A tool given only the complete PDF cannot know which pages carry the contribution, so the draft is likely to follow the paper's proportions, which is the problem this guide started with. Converting a whole document suits other jobs, such as a reading summary; our PDF-to-presentation guide covers them. If the conference or your lab provides a slide template, include it as well; our comparison of AI presentations in your own template explains the options. Prompt 1 below is a complete brief for the sensor study.
Review the output against the paper, not against how polished it looks:
- Numbers and units: every value, unit, denominator and sample size matches the paper.
- Error bars and intervals: the meaning of each one is stated and unchanged.
- Claim-bearing titles: no title claims more than the evidence, and the scope words survive.
- Diagrams: a generated diagram that implies the correction was trained on evaluation units needs correction, however attractive the layout.
- Figures: approved scientific figures stay intact unless you can verify a redesign against the underlying data; when a chart must be redrawn, supply the numbers rather than a picture of the old chart.
For unpublished or restricted material, use only inputs authorized by your institution and collaborators. Our guide to preparing confidential material for an AI presentation tool covers what to remove first.
3 AI prompts for a conference talk
Written for NOXI after attaching your approved brief, figures and data table; they work in any AI presentation tool. Replace the brackets.
Draft a [nine]-slide presentation for a [ten]-minute research talk at [conference and session]. The audience understands [laboratory validation] but has not seen this study. Use the attached [approved figures] and [twelve-unit data table] exactly. Distinguish [development units] from [evaluation units]. Describe the result as [lower mean absolute error in a single-batch bench test]. Keep [the temperature range, the pairing and the device-level sample size] visible. Write every slide title as a full-sentence claim that stays true when read alone. Do not claim [deployment readiness, universal improvement] or any experiment that is not in the brief. Put [the equations and the complete table] in backup slides after the closing slide.
After the closing slide, add [three] backup slides, each titled with the question it answers: [How was the correction developed and frozen?], [What did each of the twelve units show?] and [How was the interval calculated, and what does it leave out?]. Use the attached [unit-level table] exactly, with the unit [°C] in every column header. Add no new results, and do not change slides [1 to 9].
Make a [five]-minute version of this talk for a [lightning session]. Keep the research question, the design condition on slide [3], the main result on slide [5] and the boundary on slide [9]; merge or drop the rest. Keep every number, unit and scope phrase such as [single-batch bench test] unchanged, and keep the backup slides. End with [where to find the paper and the poster].
How to build the conference talk in NOXI
NOXI drafts the talk from your approved brief in your conference or lab template. It is free, with no card and no watermark; uploading files needs a free account.
Step 1: Assemble the approved inputs
Put the three sentences, the timing contract, the slide plan and the overclaims to avoid in one Word document or PDF. Add the approved figures as image files and the unit-level table as an Excel or CSV file. NOXI accepts PDF, Word, PowerPoint, Excel, CSV, text and image files up to 200 MB each; for unpublished results, upload only what your institution and co-authors have approved.
Step 2: Match the conference or lab template
Choose Match reference and attach the organizer's PowerPoint template, your lab's last talk as PPTX or PDF, or a screenshot of one slide. NOXI builds the new deck in that style: colors, typography, layouts and visual rhythm.
Step 3: Review the outline first
Choose Create from file, attach the brief, figures and table with Prompt 1, and use Plan mode to review the outline before generation. Check it against the nine-slide timing table, then generate and watch each slide being built.
Step 4: Put the approved evidence in place
Swap any drafted visual for your approved figure: upload, crop or replace the image on the slide. Edit text and tables directly, and check chart values in the chart data editor. For wording, ask in plain English or Arabic, click any element and tell the AI what to change, or sketch on the slide on desktop; Prompt 2 adds the backup slides.
Step 5: Check it against the paper with co-authors
Invite co-authors by email as editors to check every number, unit and claim title together in real time, and share a view-only link with the colleague who reviews your rehearsal. Version history restores an earlier version if a late edit goes wrong.
Step 6: Export, present and recut
Download a PDF for the organizer's fallback and an editable PowerPoint (.pptx) with real text boxes and embedded fonts, free and with no watermark, then check symbols and units in presentation mode. Where you present from your own laptop, you can present full-screen from NOXI. For a shorter slot, make a copy from version history and run Prompt 3 on it.
Frequently asked questions
- How do you turn a research paper into a conference presentation?
- Start from the contribution, not the paper's sections. Write three sentences: the question, what the evidence supports and what it does not. Keep only the method a listener needs to judge that answer, redraw the main figure for projection, give the result the most time, and move equations, full tables and extra checks to backup slides. Then rehearse with a timer.
- How long is a conference presentation?
- As long as the organizer specifies, and the speaking time is often shorter than the slot. In 2026, CHI gave on-site paper talks 10 minutes plus 2 minutes of questions, and ETRA gave full papers and selected short papers 12 minutes plus 3. Read your own event's instructions; one conference's timing is not a rule for others.
- How many slides should a 10-minute conference presentation have?
- About eight to ten main slides, plus backup slides. The worked example in this guide uses nine: question, gap, design, how to read the evidence, main result, uncertainty, limitations, next test and take-home. Slides do not take equal time: the main result gets 1 minute 50 seconds, the title slide 40 seconds. A timed rehearsal confirms the count.
- What should a research presentation include?
- A clear research question, enough method to judge the answer, visible evidence and an honest boundary around the conclusion. In practice that means a title slide that previews the answer, the gap, the design condition behind the result, the main figure, the uncertainty, limitations tied to their consequences, the next test, and where to find the full paper and data.
- How much methodology should a conference talk include?
- Enough for a specialist to audit the path from measurement to claim: how cases were selected, how development and evaluation were separated, how the endpoint was built, what was compared and which assumptions matter. Apply one test to every cut: could the omitted detail change a reasonable listener's interpretation of the result? If yes, keep its implication in the talk.
- How do you prepare for questions after a research talk?
- List the likely questions and prepare each in three parts: a short answer, the record that supports it and what remains open. Cover sample size, independence, what the uncertainty estimate includes, generalization and practical significance. Keep backup slides titled by the question they answer, and say plainly when a condition has not been tested.
- Can AI turn a research paper into a presentation?
- AI can draft the slides once the scientific decisions are made. Give the tool an approved brief with the timing, audience, central claim, retained method, approved figures, data table and overclaims to avoid, rather than only the PDF. Then review the draft against the paper: every number, unit, interval, diagram and claim-bearing title.
Sources
All sources were checked on 7 October 2026. How this guide was made: the method, templates, timing ranges and checklists are editorial practitioner guidance, not a published standard; the sensor study, its data, slide titles and answers are fictional teaching material with real, reproducible arithmetic; conference timings and statistical guidance come from the sources below.
- [1] On-site paper talks of 10 minutes plus 2 minutes of questions at CHI 2026 — ACM CHI 2026, Paper presentation instructions (event 13–17 April 2026).
- [2] Full papers and selected short papers: 12 minutes plus 3 minutes of questions at ETRA 2026 — ACM ETRA 2026, Instructions for authors.
- [3] Redesigning paper figures for slides, replotting selected data and identifying adaptations — Matthew Goss, MIT CEE Communication Lab, Redesigning existing figures for slides (15 January 2024).
- [4] Analyzing naturally paired measurements through their differences — NIST/SEMATECH e-Handbook of Statistical Methods, Analysis of paired observations.
- [5] The t-based confidence interval for a mean and its repeated-sampling interpretation — NIST/SEMATECH e-Handbook of Statistical Methods, Confidence limits for the mean.
- [6] Recording a practice talk and leaving time for audience questions — IEEE Author Center, Present your paper.
- [7] Short presentations need deliberately reduced scope and practice — Christopher J. Lortie, Ten simple rules for short and swift presentations, PLOS Computational Biology (30 March 2017).
Build your next conference talk in NOXI, free: attach your approved brief, figures and data table, match the conference or lab template, and export a PDF and an editable PowerPoint for the session.



