Kodak 2383 Print
Kodak 2383 Print is a Fujifilm film simulation recipe for X-Trans V cameras. Every setting is published below in full, then how it was derived and why each control sits where it does.
The recipe
The classic theatrical film-print look, the "Hollywood" teal-shadow / warm-skin grade you get when a Vision3 negative is printed on Kodak 2383 release-print stock: richer contrast and saturation than the raw negative, cool teal shadows, warm highlights and skin. Very popular, very aesthetic. Uses Classic Negative (native teal shadows) rather than Eterna, see the notes.
Stills settings
| Setting | Value |
|---|---|
| Film Simulation | Classic Negative |
| Grain Effect | Weak, Small |
| Color Chrome Effect | Strong |
| Color Chrome FX Blue | Weak |
| White Balance | Daylight, +2 Red & −2 Blue |
| Dynamic Range | DR200 |
| Highlight (Tone Curve) | 0 |
| Shadow (Tone Curve) | +2 |
| Color | +2 |
| Sharpness | 0 |
| High ISO NR | −4 |
| Clarity | 0 |
| ISO | Auto, 250-6400 |
| Exposure Compensation | −1/3 to 0 (typically) |
This stills recipe uses the grain and Color Chrome effects that movie mode can't. For the movie-mode adaptation see the notes.
Why these values
- Classic Negative: its native teal-leaning shadows are the print "teal" side. Hard tonality gives the print's added contrast.
- WB Daylight +2R/−2B: warms skin and highlights (the "orange" side). Against Classic Neg's cool shadows this is the teal-orange split.
- DR200 + Highlight 0 + Shadow +2: print-stock contrast: punchy, deep rich shadows, controlled highlights.
- Color +2, CCE Strong: rich but controlled print saturation with dimensional skin.
- Grain Weak/Small, Clarity 0: clean projected-print rendering.
Pro tip: Why DR200 and not DR400 (2026-07-26, measured). Kodak's own sensitometric curve for 2383 was traced from the datasheet, see the notes. The print stock's entire usable exposure scale is ~4.4 stops, against roughly 13 for the Vision3 negative it is printed from, at a gamma of ≈ 3.4, about six times a camera negative's ≈ 0.55-0.60. A print look is a narrow, hard window, and that is the whole point of it. DR400 would widen the capture and flatten the very transfer this recipe exists to reproduce. It would be emulating the negative, not the print. DR200 + Shadow +2 + Highlight 0 is the print side of the chain. If you want the negative, shoot Vision3 250D or 500T. Retracted claim. Read this before citing anything about 2383's colour split (2026-07-26): an earlier version of this note claimed 2383's red channel runs ≈15 % steeper than green and blue, and that this made the teal-orange split intrinsic to the stock. That has been withdrawn. Re-measuring the identical trace with a different (equally valid) gamma estimator changes which channel is steepest, so the ordering is an artefact of where each curve is sampled, not a property of the film. Full account in Measuring film curves from datasheets, method, calibration, and its limits. Whether the split is intrinsic to 2383 is simply not established by this chart. Nothing about this recipe changes, because the settings were never derived from that claim. It was offered as after-the-fact support for a design that already existed. The warm +2R/−2B and Color Chrome Strong are doing what they always were: targeting the finished look: negative → grade → print, which is what audiences actually see and what this recipe's title promises. Classic Negative remains right for its native teal shadows and hard tonality, on the grounds set out in the notes.
Movie mode
Movie-mode version of the stills recipe. Movie mode drops Grain, Color Chrome Effect, Color Chrome FX Blue, and Clarity (see Video / Movie Mode, settings, differences, and photo→video translation video-mode-settings). Target: standard film-simulation recording, not F-Log/HLG.
| Setting | Value | vs stills |
|---|---|---|
| Film Simulation | Classic Negative | same |
| White Balance | Daylight, +2 Red & −2 Blue | same, teal-orange split |
| Dynamic Range | DR200 | same value, set manually |
| Tone Curve. Highlight | 0 | same |
| Tone Curve. Shadow | +2 | same |
| Color | +3 | +1 vs stills, to offset lost Color Chrome Effect / FX Blue |
| Sharpness | 0 | same |
| High ISO NR | −4 | same |
| Interframe NR | AUTO | movie-only |
| ISO | Auto, up to ISO 6400 | same |
- Grain unavailable → add in post. Clarity was 0 already. Nothing lost.
- This is the print/teal-orange look. Classic Negative's teal shadows + the warm WB carry it through to video.
Grain in post (video): movie mode has no Grain control, so grain must be added in the edit. Post-Production Film Grain, deriving settings from datasheets derives the correct grain scale in pixels for your format and delivery raster from the datasheet's own 48 µm measurement aperture, gives the inter-stock intensity ratios from published RMS granularity, and documents the verified tool paths for Premiere Pro (
Noise HLS Auto, notNoise) and free DaVinci Resolve (FusionFilm Grainnode, ResolveFX Film Grain is Studio-only).
Why it looks like this
Original (research-backed). See the notes, the notes (Kodak's curve traced and measured), the cinema README, and the Knowledge base.
What it emulates
Kodak Vision 2383 is the colour release-print film most cinema prints are struck on. The camera negative (e.g. Vision3) is low-contrast. When printed to 2383 for projection, contrast and saturation increase and the image takes on 2383's characteristic curve. Deep, cool-leaning shadows and warm, luminous highlights/skin. This "print" rendering, amplified by modern digital grading, is the ubiquitous teal-and-orange cinematic look.
The grade in one line
A contrasty, saturated, teal-shadow / warm-skin theatrical print look, the classic Hollywood colour grade.
Why Classic Negative (not Eterna) here
Unlike the Vision3 negative recipes (Eterna, low contrast, neutral shadows), the 2383 print look needs teal shadows + added contrast + saturation. Classic Negative natively provides teal-leaning shadows and hard tonality, so it reproduces the print characteristic far better than Eterna. The warm WB shift supplies the "orange" side. Classic Neg supplies the "teal."
How it's built
Classic Negative for teal shadows + print contrast. DR200 + Shadow +2 deepen and enrich (print contrast). Warm WB (+2R/−2B) pushes skin/highlights warm for the teal-orange split. Color +2 + CCE Strong give rich, controlled print saturation. Clean fine grain + Clarity 0 keep the projected-print smoothness.
Datasheet: measured, not paraphrased
Kodak's curve for 2383 has been traced from the archived datasheet. Full method, calibration and validation in the notes. The headline figures, all this project's own measurement:
| Measured | Meaning | |
|---|---|---|
| Gamma (D 0.5 → 2.5) | ≈ 3.44 | ~6 × a camera negative's ≈ 0.55-0.60 |
| D-max | 4.09 | the projected black |
| Usable scale (D 0.2 → 3.8) | ≈ 4.4 stops | vs ~13 for the Vision3 negative |
| ~~Red vs G/B gamma~~ | ~~3.76 vs 3.28~~ | RETRACTED, estimator artefact (Measuring film curves from datasheets, method, calibration, and its limits why) |
Cross-checked independently, and the negative side is now measured too. The original check assumed a camera negative at γ 0.55-0.60. The four Measuring film curves from datasheets, method, calibration, and its limits Vision3 stocks have since been traced and measure γ 0.52-0.55, slightly below that assumption. Using the measured value: 0.526 × 3.46 = system γ 1.82, landing squarely on the classic ~1.8-2.0 dark-surround target. Both ends of the photochemical chain are now measured from Kodak's own charts rather than one measured and one assumed, and the agreement tightened when the assumption was replaced by data.
Three consequences, each landing on a setting:
- The short, steep scale is the design constraint. 4.4 stops at γ 3.4 is a narrow hard window, that is why the negative is deliberately flat. DR200 + Shadow +2 + Highlight 0 reproduces the print side of the chain. DR400 would model the negative instead.
- The teal-orange split is NOT established as intrinsic, an earlier claim here has been retracted. It rested on the red channel measuring ~15 % steeper, but that ordering flips under a different, equally valid gamma estimator, so it is an artefact of sampling rather than a property of the film (Measuring film curves from datasheets, method, calibration, and its limits full account). The recipe is unchanged. It targets negative → grade → print, and +2R/−2B with CCE Strong deliberately produce the graded look, which was always the design and never depended on the retracted claim.
This section previously claimed the datasheet confirmed "a high-contrast print stock", "a steep tone scale calibrated to LAD" and "deep D-max via intragrain absorbing dyes". All three overstated the source, the datasheet contains the word "contrast" zero times, LAD is a colour-timing reference with no numbers given, and Kodak attributes the absorber dyes to sharpness and halation, not D-max. Corrected in full in the notes.
vs the other cinema recipes
- Vision3 250D / 500T: the negatives. Low contrast, clean, gradeable. This is the print, the finished, contrasty, teal-orange look.
- Related in mood to Mumbai Monsoon, which also uses a Classic-Neg teal/warm split (for rain rather than Hollywood).
This recipe on film

Fujifilm X-T5 Cinematic Look: Kodak Print 2383 Film Simulation
2026-07-28

Kodak Print 2383 Recipe on Fujifilm X-T5 - First Look
2026-07-28
How it was validated
Original (research-backed). See the notes, the notes, the cinema README, and Validation Methodology. Proof of Faithfulness validation-methodology.
Status: datasheet-measured. No real-footage reference frame yet, see Why a scan is structurally blocked.
What was measured, and how
Source: the datasheet archive, KODAK VISION Color Print Film 2383 / 3383, Kodak Publication H-1-2383, revised 3-22 (March 2022). Archived in this collection.
The datasheet's Sensitometric Curves chart (p. 4) was rendered at 300 dpi and traced programmatically.
Correction (2026-07-26, later the same day). This paragraph originally said the technique had "failed on the Vision3 negative datasheets" and that "the Vision3 sheets use dashed and overlapping curves on inconsistent templates" That was too broad, and later work in this collection disproved it. The failure was specific to the Vision3 granularity charts, which are dashed and overlapping. The Vision3 sensitometric charts, a different chart on a different page, Measuring film curves from datasheets, method, calibration, and its limits traced cleanly on all four stocks at 100 % ordering validation. The distinction is per-chart, not per-datasheet.
Calibration (from tick detection, not assumption):
| Axis | Ticks found | Scale |
|---|---|---|
| Log exposure | 7, evenly spaced | 128.0 px per 1.0 log E (−3.0 … +3.0) |
| Density | 7, evenly spaced | 128.33 px per 1.0 density (0.0 … 6.0) |
Tick spacing was uniform to better than 0.3 % on both axes, so the calibration carries no meaningful error.
Trace validation, the checks that had to pass before any number was kept:
| Check | Result |
|---|---|
| Curve ordering B < G < R through the rising band | 93 / 93 columns correct |
| Visual overlay of trace onto the original chart | all three sigmoids covered cleanly |
| ~~Independent sanity check, system gamma~~ | WITHDRAWN, the argument was circular. See below |
The original "system-gamma cross-check" was CIRCULAR: withdrawn
This section first argued: a camera negative (γ ≈ 0.55-0.60) printed onto a release stock should give a system gamma of about 1.8-2.0 for a dark-surround cinema, and 0.55-0.60 × 3.44 = 1.89-2.07 brackets it, so the trace is confirmed.
That reasoning does not hold. A literature check found that the ~1.8 figure in circulation is ARRI's print-through gamma, which is itself defined as negative × print (≈0.6 × 3). Using it to validate the product of negative × print is validating a quantity against itself. It was never an independent direction.
Worse, the perceptual dark-surround figure, the thing that number was mistaken for. Is lower, not higher: R. W. G. Hunt's The Reproduction of Colour is reported to give ≈1.5 for movies, and Bartleson & Breneman's widely-quoted 1.5 is a ratio between light- and dark-surround preferences, not an absolute system gamma. No SMPTE standard quoting 1.8-2.0 for dark surround was located.
What replaces it, a genuinely independent check that the method passes: the Double-X five-point calibration, where Kodak prints the gamma of five curves and the tracer reproduced all five to mean error 0.016. That is ground truth, and it never needed the system-gamma argument.
And an independent check this figure arguably FAILS. Eastman Kodak's own patent language (US 5,891,607 / EP 0 902 323 A1) gives conventional mid-scale contrast as ≈2.5-3.1 for print films and ≈0.45-0.7 for negative films. The Measuring film curves from datasheets, method, calibration, and its limits VISION3 negatives measured here land at 0.52-0.55. Comfortably inside Kodak's negative range. But this 2383 figure of ~3.46 sits above Kodak's print range, and the sliding-window variants (3.94-4.57) sit far above it. That is consistent with the estimator over-reading at high gamma, exactly as §3 predicts, and it means the true 2383 gamma is more likely near 3.0 than 3.5. (Patent figures are snippet-level, patents.google.com returns 403 here, so they are corroboration, not a citation this project has read in full.)
The numbers
= this project's own measurement from Kodak's published curve. Not quoted from the datasheet, the datasheet publishes no numeric tone-scale data at all.
| Quantity | B (yellow dye) | G (magenta) | R (cyan) | Mean |
|---|---|---|---|---|
| D-min | 0.09 | 0.09 | 0.09 | 0.09 |
| D-max | 4.09 | 4.09 | 4.10 | 4.09 |
| Gamma, D 0.5 → 2.5 | 3.28 | 3.28 | 3.76 | 3.44 |
| Gamma, D 0.5 → 3.0 | 3.44 | 3.37 | 3.86 | 3.55 |
| Steepest tangent (0.30 log E window) | 4.64 | 4.14 | 4.54 | |
| Usable scale, D 0.2 → 3.8 | 4.59 stops | 4.46 stops | 4.15 stops | 4.40 stops |
Three findings follow, and each one lands on a recipe setting.
1. Gamma of order 3: the number behind a word the datasheet never uses
The datasheet does not contain the word "contrast" even once (nor "steep", "D-max", or "saturation", all verified by search across the full text). Kodak's own phrasing is "excellent tonal scale" and "rich blacks and neutral highlights" So every previous contrast claim in this recipe's notes was an inference dressed as a citation.
Measured, it is γ of order 3.5, but see the caveats above and in §3: this film sits outside the method's calibrated range, the value moves between 3.46 and 4.57 depending on estimator, and Kodak's own patent range for print stock is 2.5-3.1. The honest statement is therefore "of order 3, roughly six times a camera negative's measured 0.52-0.55", an order-of-magnitude result, which is, rather than a precise figure, which is not. Even so, that is a number derived from Kodak's own curve rather than an adjective, and the ratio is the part that matters: the print stock does essentially all the contrast-building in the photochemical chain.
2. The usable scale is only ~4.4 stops: this is the real design constraint
D 0.2 → 3.8 spans just 1.33 log E ≈ 4.4 stops, and the steep middle (D 0.5 → 3.0) is barely 2.3 stops. Against a Vision3 negative's ~13 stops, the print stock is a narrow, hard window.
This, not the colour, is what makes a print emulation hard. The whole photochemical design exists to capture wide and then throw most of it away through a short, steep transfer. An X-T5 emulation has to do the same thing: a contrast-building recipe on a restrained dynamic-range setting, which is exactly what DR200 + Shadow +2 + Highlight 0 is. A DR400 version of this recipe would be modelling the negative, not the print.
3. RETRACTED: "the teal-orange split is intrinsic to the stock"
This section originally claimed that 2383's red channel runs ~15 % steeper than green and blue (γ 3.76 vs 3.28). That because a slope difference survives printer balance where a speed offset does not, this puts cyan in the shadows and red in the highlights. And therefore that the teal-orange split is intrinsic to the film.
It has been withdrawn, the same day it was published.
Why. Those figures come from the density-anchored estimator (average gradient between D 0.5 and D 2.5). Re-measured from the identical trace with a sliding-window estimator. Equally valid, and the one calibrated against Double-X's five published gammas, the channel ordering changes:
| Estimator | B | G | R | Steepest |
|---|---|---|---|---|
| Density-anchored D 0.5→2.5 | 3.32 | 3.31 | 3.76 | R |
| Sliding 0.8 log E | 4.03 | 3.71 | 4.08 | R ≈ B, G lowest |
| Sliding 0.1 log E | 4.75 | 4.32 | 4.65 | B |
The ordering is an artefact of where each curve is sampled, not a property of the film. 2383's curves are steep, strongly offset horizontally, and have short straight sections, so the sampling point dominates. (The same test applied to the VISION3 negatives leaves their channel pattern completely intact, their curves are near-parallel. So this is a property of this chart, not a flaw in the tracer.)
Compounding it: at γ ≈ 3.5 this film sits three to four times outside the method's calibrated range (Double-X, γ 0.50-1.05), where a fixed log-E window spans most of the entire density scale and cannot avoid toe and shoulder. Full analysis in Measuring film curves from datasheets, method, calibration, and its limits.
Status: whether the teal-orange split is intrinsic to 2383 is NOT ESTABLISHED. Nothing here shows it is, and nothing here shows it is not. It is not measurable from this chart by this method.
What survives, because none of it depends on inter-channel structure: D-max 4.09 · D-min 0.09 · usable scale ≈ 4.4 stops · γ of order 3.5. Direct readings or order-of-magnitude results, stable under every estimator tried.
The recipe is unchanged and undamaged. Its settings were never derived from the retracted claim. It was offered as after-the-fact support for a design that already existed, which is exactly why losing it costs nothing.
The lesson, recorded so it is not re-learned: a difference between channels is only real if it survives a change of estimator. Mean values were here. Inter-channel structure was not. Both came out of the same trace, and only one deserved to be published.
What the datasheet does say, verbatim
Kept separate from the measurement above, because these are Kodak's words rather than numbers:
- "rich blacks and neutral highlights", the headline claim.
- "Improved blacks, and more neutral highlights on projection" Stated twice, once in each benefit column.
- "With the excellent tonal scale, cinematographers can be more creative with lighting and exposure, and still see excellent results."
- Image structure: "This film's excellent sharpness captures the detail in the printing negative for projection onto the largest of theatre screens. Fine-grained emulsions, an ultra-thin layer structure, intragrain absorbing dyes, and superior halation protection contribute to its performance."
- Process ECP-2E. Control strips are Process ECP-2. (Earlier notes in this collection said "ECP-2". The datasheet specifies ECP-2E.)
- LAD: "To aid in color timing and curve placement, negative originals should be timed relative to the Laboratory Aim Density, (LAD)" Kodak Publication H-61.
- Reciprocity: "Exposure times may range from 1/10 of a second to almost 1/3000 of a second, with little or no change in tone scale." Flat across 4.9 stops of printer speed.
- Base: 120 µm ESTAR polyester, no rem-jet. Antihalation from "proprietary solid particle dyes" coated under the emulsion.
- Archival: "less than 10-percent image dye loss, even after several decades."
A correction to this collection's own earlier notes
The previous "Datasheet confirmation" paragraph in the notes claimed the sheet confirmed "a high-contrast projection print stock", "a steep tone scale calibrated to Laboratory Aim Densities", and "deep D-max via intragrain absorbing dyes" All three overstated the source:
| Claim | Reality |
|---|---|
| "high-contrast" / "steep" | The words do not appear in the datasheet. True, but it was an inference. Now measured instead: γ ≈ 3.4. |
| "tone scale calibrated to LAD" | LAD is a colour-timing and process-control reference, not a description of the tone scale's shape. No LAD numbers appear in the datasheet, it points to Pub. H-61, which this project does not hold. |
| "deep D-max via intragrain absorbing dyes" | The datasheet attributes the absorber dyes to "increasing sharpness and further reducing halation" and to controlling film speed. not to D-max. Misattributed. |
D-max is now measured (4.09) rather than asserted, and the validation ledger entry has been corrected: it previously read "LAD/tone-scale extracted", but LAD was never extracted.
On the apparent conflict with "neutral highlights"
The datasheet says "neutral highlights". The measurement shows highlights running slightly warm. These are not in conflict. Kodak's phrasing is comparative ("more neutral highlights on projection", i.e. Against the predecessor stock), not an absolute neutrality claim. Worth stating, because the phrase reads at first glance like a contradiction of this recipe's warm WB shift.
Why a scan is structurally blocked
2383 is a release print stock, so a faithful reference would have to be a projected print or a print scan. Neither is obtainable here:
- Real theatrical footage is not Commons material: it is copyrighted studio content.
- Frame-grabs of released films are not faithful references anyway: they carry the film's own DI grade, which is the very variable this recipe needs to hold constant.
So the achievable evidence ceiling for this recipe is datasheet + measurement, which it now meets. A user-supplied frame, your own footage graded toward a print look, or a print scan.
What would change this recipe
Only two things, and neither is available yet:
- A real print reference frame showing the settings miss in a specific, repeatable direction.
- Kodak Publication H-61 (LAD), which would give the actual aim densities and let the balance point be modelled rather than just the slopes.
No setting is changed on the strength of this measurement, the measurement confirms the existing design rather than contradicting it. Changing settings on theory alone is exactly the unvalidated churn this bank avoids.
Measurement performed 2026-07-26 from the archived datasheet. Calibration, trace validation and all derived figures are reproducible from the chart on p. 4 of the source PDF.
Last updated: 2026-07-26
What these controls do
The reasoning above assumes you know what each control changes. If a value here is surprising, these explain the control behind it.
- White Balance & WB Shift
- Dynamic Range & Tone Curve
- Grain & Detail
- Color, Color Chrome Effect & FX Blue
- ISO & Exposure
- Film Simulations
- The Auto White Balance Trap in Film Emulation
- The S-Curve Explained: How to Master Fujifilm Highlight and Shadow Tones
- The Tone Curve Audit: Where Most Fujifilm Recipes Fail
Recipes close to this one
Which cameras this fits
Built and measured on the X-T5. The X100VI, X-H2 and X-T50 carry the same 40.2 MP X-Trans CMOS 5 HR sensor, so this is not adapted for them. It is the same recipe. On an X-Trans IV body it needs one documented change: what the change is, why an older recipe looks wrong without it, and how to convert one yourself.
The whole bank reads like this
63 recipes, every value published, each one traced back to the film it emulates and the datasheet it came from.