Lumen Bake

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01 — Overview

Industrial Standard Brioche

Enriched industrial brioche — continuous line, designed for yield discipline, cost control and practical shelf life

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Finished brioche — golden crust with vitreous glaze, sliced to show soft golden crumb. Clean industrial bakery setting. 16:9 or 3:2 aspect ratio.

Media pending

This report documents an industrial brioche system built for continuous production: no preferment, no sponge and no rest between mixing and moulding. Enrichment is carried by a strong flour base, a calibrated sugar–fat–emulsifier balance, enzymatic anti-staling and a dual preservative strategy. The aim is factory-competitive softness, appearance and yield while remaining operable by trained line staff. Crust finish is applied after proof; for the vitreous, mirrored shine shown in the reference media, Lumen Bake Vegan Glaze is available as a separate technical recipe and is not part of the dough formula.

Bake loss

10–15%

Production time

~5 h

Final proof

~4 h

Shelf life ref.

~21 d

Finished 75 g

~1,050 units

Cut dough 8588 g · per 50 kg flour batch

Finished 55 g

~1,350 units

Cut dough 6568 g · per 50 kg flour batch

  • Continuous line — no intermediate rest or bulk fermentation
  • Dual preservative system: calcium propionate (bacteria / rope) + encapsulated sorbic acid (mould)
  • Enzymatic softener with fungal + maltogenic amylase for process support and anti-staling
  • Temperature-controlled mixing with flake ice toward 24–28 °C dough
  • Lumen Bake Vegan Glaze available separately for vitreous crust finish and glaze-cost efficiency

With correct basic hygiene, intact packaging, and a stable process, this formula may reach approximately 21 days without mould. This is a practical reference only — not a fixed guarantee. Each facility must validate its own shelf life based on hygiene and process control.

Industrial — accessible to entry-level operators with adequate equipment and clear control points

02 — Formula

Formula & batch calculator

Official dosages on a 50 kg flour base. Hydration ~54%. Target dough temperature 24–28 °C.

Batch calculator

Scale from 50 kg flour base

Process aid scales with batch but stays outside baker's %.

Dry
IngredientBaker's %Base (50 kg)Your batch
Wheat flour100%50 kg50 kg
Crystal sugar13%6.5 kg6.5 kg
Refined salt2%1 kg1 kg
Flour improver0.4%200 g200 g
Enzyme softener0.4%200 g200 g
Encapsulated sorbic acid0.12%60 g60 g
Calcium propionate0.3%150 g150 g
Turmeric0.08%40 g40 g
Xanthan gum0.2%100 g100 g
Instant dry yeast (sweet dough)1%500 g500 g
Paste
IngredientBaker's %Base (50 kg)Your batch
Butter / margarine (≥80% lipids)4%2 kg2 kg
Soy lecithin paste1%500 g500 g
Invert sugar2%1 kg1 kg
Liquid
IngredientBaker's %Base (50 kg)Your batch
Water40%20 L20 L
Flake ice14%7 kg7 kg
Process aid — outside baker's %
IngredientBaker's %Base (50 kg)Your batch
Soybean oil1 L1 L

Dry weight

58.75 kg

Paste weight

3.5 kg

Liquid weight

27 kg

Total dough

89.25 kg

Excludes process aid

Process aid (oil): 1 kg — bowl release only.

  • No preferment, sponge, or bulk fermentation — continuous production line from mixer to divider.
  • Weighing order: dry → paste → liquid (water and ice weighed and added separately).
  • Invert sugar always classified and added with paste ingredients.
  • Total hydration (water + flake ice): ~54% (27 kg water equivalent / 50 kg flour).
  • Final dough temperature after mixing: 24–28 °C acceptable range — flake ice is the primary temperature tool.
  • Dual preservatives: calcium propionate (anti-bacterial / rope) + encapsulated sorbic acid (anti-mould). Do not substitute with non-encapsulated sorbic acid.
  • Crust glaze is outside this formula — Lumen Bake Vegan Glaze (companion recipe) recommended when vitreous finish and glaze-cost efficiency are required.
  • Soybean oil is a process aid for mixer bowl release — outside baker's percentage but scales with batch size.

03 — Ingredients

Ingredient specifications

Minimum specifications for global sourcing. Request these parameters from the supplier — brand names vary by region. Each entry explains the technological role of the ingredient in this industrial brioche system. Dosages remain those of the official formula; nothing below changes weights or baker’s percentages.

Wheat flour (strong)

Specification: W ≥ 280 · protein ≥ 9% · P/L 0.5–0.8

Substitutes: None below minimums

Technological function

Flour is the structural skeleton of the dough. Hydrated gliadin and glutenin form the gluten network that retains fermentation gas, supports volume and keeps the crumb elastic under enrichment. Starch gelatinises in the oven, setting crumb structure and contributing to softness over shelf life. Because sugar and fat weaken gluten, industrial brioche needs sufficient W and protein to carry enrichment without collapse or excessive rubberiness.

  • Gluten: builds the continuous protein film that holds CO₂
  • Volume: adequate strength allows oven spring and stable shape on the line
  • Structure: defines crumb elasticity and resistance to dividing/rounding stress
  • Fermentation: provides starch substrate for amylases and yeast
  • Absorption: controls how water and ice hydrate the batch

P/L too low = slack dough and poor gas retention; P/L too high = tight dough that expands poorly in brioche. Always ask for a technical sheet confirming at least W, protein and P/L.

Crystal sugar

Specification: Food-grade sucrose (formula dose: 13% baker’s)

Technological function

Beyond sweetness, sucrose feeds yeast, drives Maillard and caramelisation for crust colour, and retains crumb moisture through its hygroscopicity — delaying staling. At industrial brioche levels it also plasticises the gluten network slightly, which is why flour strength must compensate.

  • Flavour: characteristic brioche sweetness without masking fat aroma
  • Fermentation: immediate fermentable substrate alongside flour starch
  • Colour: supports golden crust via Maillard reactions
  • Softness & conservation: holds moisture in the crumb
  • Gluten: mild weakening / plasticising effect at this dose

At the formula dose the balance is perceptible sweetness, colour and shelf life without overloading osmotic stress on yeast or cost.

Refined salt

Specification: Food-grade NaCl (formula dose: 2% baker’s)

Technological function

Salt tightens gluten, moderates yeast activity and balances sweetness. In an enriched dough it improves elasticity and reduces stickiness, making dividing and rounding more predictable.

  • Gluten: strengthens and organises the protein network
  • Fermentation: slows yeast slightly for a more controllable proof
  • Flavour: cuts flat sweetness and lifts fermented aroma
  • Crust: supports colour development and crust structure
  • Handling: less sticky dough at the correct dose

Below the formula range the dough softens and sweetness dominates; above it, proof slows and saltiness becomes obvious.

Flour improver

Specification: DATEM + SSL + Polysorbate 80 in the blend

Technological function

A concentrated emulsifier–strength package that restores gas retention and crumb fineness when sugar and limited fat challenge the gluten. DATEM reinforces gluten and volume; SSL supports softness and emulsion; Polysorbate 80 disperses fat through the aqueous phase. Together they give industrial tolerance across variable flours and continuous mixing.

  • Gluten / volume: DATEM (+ SSL) for strength and gas retention
  • Softness: SSL (+ Polysorbate 80) for fine, tender crumb
  • Emulsion: Polysorbate 80 (+ SSL) with lecithin for water–fat stability
  • Process tolerance: more stable response to mix time and proof variation

DATEM = strength/volume; SSL = softness/emulsion; Polysorbate 80 = fat dispersion. Missing one pillar usually shows as either weak volume or irregular, dry crumb.

Enzymatic softener

Specification: Fungal α-amylase (Aspergillus) + maltogenic α-amylase

Technological function

Fungal α-amylase acts mainly during fermentation and early bake, releasing fermentable sugars, aiding volume and crust colour. Maltogenic α-amylase modifies starch to delay retrogradation after baking — the primary anti-staling mechanism in packed industrial bread. Both are required: fungal alone ages early on the shelf; maltogenic alone under-supports process volume.

  • Fermentation & volume: fungal amylase supports gas production and expansion
  • Colour: extra reducing sugars favour Maillard
  • Softness / conservation: maltogenic amylase keeps crumb soft days after bake
  • Structure: balanced starch modification without gummy crumb when dosed correctly

Both enzymes required. Fungal alone → early staling; maltogenic alone → weaker volume. Overdose of fungal activity risks sticky dough.

Sorbic acid

Specification: Encapsulated form (fat matrix)

Substitutes: None — free sorbic acid or non-encapsulated sorbate breaks fermentation

Technological function

Encapsulated sorbic acid is the anti-mould pillar of the dual preservative system. The fat matrix keeps it largely inactive during mixing and proof so Saccharomyces can work; heat in the oven releases the acid into the baked, packed product where moulds are the main sweet-bread risk.

  • Conservation: delays mould and wild yeasts in packed product
  • Fermentation: encapsulation protects yeast activity during proof
  • Flavour: at formula dose, no metallic or sharp off-note when correctly encapsulated

Never replace with free sorbic powder or non-encapsulated sorbate — proof slows, volume collapses and the dough feels “dead”.

Calcium propionate

Specification: Food-grade calcium propionate (formula dose: 0.3% baker’s)

Technological function

Antibacterial preservative classically used against rope (Bacillus) in moist, enriched breads. It complements encapsulated sorbic acid: propionate targets bacteria; sorbic targets moulds. At bakery doses it does not stop fermentation the way free sorbic does.

  • Conservation: inhibits rope and bacterial spoilage in packed brioche
  • Fermentation: stable at the formula dose — proof remains workable
  • Flavour: stay within formula dose to avoid propionate / cheese-like notes

Works with encapsulated sorbic as a dual system. Sweet, moist, packed brioche needs both bacterial and mould control.

Turmeric

Specification: Food-grade turmeric / curcumin colour (formula dose: 0.08% baker’s)

Technological function

Natural crumb colourant that supplies the golden-yellow hue associated with enriched brioche, without relying on egg yolk. Dose is colour-only — high enough to read as premium crumb, low enough to avoid earthy flavour.

  • Colour: uniform golden crumb in the sliced product
  • Perception: visual enrichment when fat level is industrially moderate
  • Flavour: negligible at the formula dose if weighing is precise

Too low → pale crumb; too high → artificial colour and off-flavour. Weigh on the precision scale.

Xanthan gum

Specification: Food-grade xanthan (formula dose: 0.2% baker’s)

Technological function

Hydrocolloid that binds free water, increases dough body and stabilises crumb moisture. In a brioche with moderate fat and combined water + ice hydration, xanthan improves machinability and slows drying of the packed crumb alongside sugars and maltogenic amylase.

  • Softness / conservation: retains crumb moisture over shelf life
  • Structure: more regular cells, less collapse after bake
  • Handling: fuller dough with better dividing and rounding tolerance
  • Mouthfeel: moist enriched sensation without raising formula fat

Below functional effect the crumb dries earlier; well above the formula dose the crumb can turn gummy and the dough heavy.

Yeast

Specification: Instant dry yeast for sweet dough

Technological function

Produces CO₂ for volume, plus alcohols and esters that build bakery aroma. Sweet-dough instant yeast is adapted to osmotic stress from sugar and salt and is blended with the dries — no separate activation step on this line.

  • Volume: gas expansion of the gluten network in proof and oven spring
  • Structure: fine crumb when gluten and improver are correctly developed
  • Flavour: fermented aroma that defines brioche versus sweet cake
  • Fermentation kinetics: dose calibrated for enrichment, not lean bread

Do not use fresh or active dry yeast without dose/process adjustment

Butter / margarine

Specification: ≥ 80% lipids

Substitutes: 80% margarine with equivalent performance

Technological function

Process fat that lubricates gluten, tenderises crumb and carries aroma. The ≥ 80% lipid requirement ensures the weighed mass delivers fat rather than water. At the industrial dose, softness is completed by sugar, invert sugar, lecithin, improver and enzymatic softener rather than by high artisan fat levels.

  • Softness: shortening effect inside the gluten network
  • Volume / extensibility: more plastic dough in mix and moulding
  • Flavour & mouthfeel: dairy notes from butter; industrial performance from 80% margarine
  • Conservation: fat slows starch retrogradation with sugars
  • Colour: supports enriched crust appearance

Products below 80% lipids dilute fat with water, loosening dough and reducing brioche character for the same weighed amount.

Soy lecithin

Specification: Paste preferred

Technological function

Natural emulsifier bridging aqueous and lipid phases. With only moderate formula fat, lecithin is essential for homogeneous dough, fine crumb and process tolerance. Paste disperses more reliably than powder in spiral mixers.

  • Emulsion: binds water/ice phase with butter/margarine
  • Softness: finer fat distribution → tender crumb
  • Volume: more stable gas cell walls
  • Conservation: delayed staling via even fat distribution
  • Allergen: soy — declare per local rules

Soy allergen — declare per local rules. Complements DATEM/SSL/Polysorbate 80 rather than replacing them.

Invert sugar

Specification: Paste group classification (always)

Technological function

Hydrolysed sucrose (glucose + fructose). Fructose is strongly hygroscopic, reinforcing crumb moisture and anti-staling beyond crystal sugar alone. Reducing sugars also stabilise crust colour. Always classified and added with pastes so hydration accounting and mixer addition stay correct.

  • Softness / conservation: holds crumb moisture (fructose)
  • Colour: accelerates Maillard for even golden crust
  • Fermentation: ready sugars support yeast under enrichment
  • Texture: slight plasticising of the dough

Do not weigh with water/ice

Water

Specification: Potable process water (formula: 40% baker’s as water, plus ice)

Technological function

Primary solvent and hydrating medium for gluten formation, salt/sugar dissolution and yeast activity. Kept at 40% baker’s as free water so flake ice can finish hydration while controlling dough temperature — total water + ice ≈ 54%.

  • Gluten: hydrates proteins to form the elastic network
  • Fermentation: aqueous medium for yeast metabolism
  • Structure: with starch gelatinisation, sets crumb in the oven
  • Yield / texture: base of dough consistency before ice contribution

Never weigh water and ice together. Ice is hydration and temperature control in one.

Flake ice

Specification: Clean flake ice (formula: 14% baker’s)

Technological function

Solid water that absorbs frictional heat during long spiral mixing of an enriched dough. As it melts it completes hydration. Without ice, dough temperature climbs, gluten weakens, stickiness rises and proof becomes irregular from batch to batch.

  • Temperature: steers final dough toward 24–28 °C
  • Gluten protection: avoids heat-softened, slack networks
  • Fermentation consistency: same exit temperature → same proof behaviour
  • Hydration: 14% baker’s ice joins 40% water for ~54% total

Prefer flake ice over “cold water only” — cooling continues through the mix rather than equalising in the first minutes.

Soybean oil (process aid)

Specification: Bowl release after windowpane only

Technological function

Line aid only: a brief film that releases developed dough from the mixer bowl. It is outside baker’s percentage and must not be confused with formula fat. Added too early, it interferes with absorption and development readings.

  • Handling: clean discharge without tearing the gluten sheet
  • Not a softness or flavour ingredient at this use level
  • Allergen: soy — declare per local rules

Outside baker’s %. Soy allergen. Approximately 3 thin rings (~1 L) at speed 1 for 30 s after windowpane on the base batch.

Crust glaze

Specification: Lumen Bake Vegan Glaze (recommended) or other commercial glaze/spray

Technological function

Surface finish applied after proof. A correctly formulated glaze creates a thin film that bakes into even colour and vitreous sheen. Egg- and milk-free systems reduce labelling and spoilage risk on packed sweet bread. Lumen Bake Vegan Glaze is a companion recipe (not part of this dough formula) designed for mirrored finish and high spray coverage.

  • Colour / appearance: even gold and retained gloss after bake
  • Conservation / labelling: vegan glaze avoids egg wash microbiology and allergen load
  • Cost: plant comparisons show more than 40% lower glaze cost on the finished unit versus typical egg/milk washes and many ready sprays

Outside this dough formula. Prefer egg/milk-free glaze when shelf life and contamination risk matter. Follow the glaze manufacturer’s dilution; apply two thin coats.

04 — Process

Process

Continuous industrial line: weigh → mix (speed 1) → develop (speed 2 / windowpane) → release & divide → round → pan → proof → glaze → bake (no steam) → cool (crumb ≤ 45 °C) → pack. There is no bulk fermentation and no intermediate rest between mixing and moulding. Each stage below explains not only what to do, but why the dough behaves as it does.

Step 01

Weighing

Equipment
Calibrated scale (5 g) + precision scale (1 g for enzymes/preservatives), 4 large containers + 1 small, production checklist sheet
Time
~15 min (varies with operator and scale)

Objective of the stage

Establish the exact mass balance of the batch so that every subsequent stage — gluten development, fermentation rate, colour, softness and shelf life — starts from a correct formulation rather than from approximation.

What happens in the dough

Industrial brioche is a tightly balanced system: sugar and fat weaken gluten; enzymes and improvers restore strength and softness; preservatives protect the packed product. A few grams of error on enzymes, encapsulated sorbic acid or calcium propionate changes fermentation or microbial protection without being visible at the scale. Separating dries, pastes and liquids prevents premature hydration of flour and uneven dispersion of minor ingredients.

Procedure

  1. Weigh one ingredient at a time in the small container → transfer to master container → check the sheet
  2. Dries: flour, crystal sugar, salt, improver, softener, encapsulated sorbic acid, calcium propionate, turmeric, xanthan, instant sweet-dough yeast
  3. Pastes: butter/margarine, lecithin, invert sugar (always here)
  4. Liquids (separate): water and ice — never weigh together
  5. Process aid: soybean oil (~1 L) — separate, release only; not in baker’s %
  6. Use the app calculator to scale and verify group totals: dry | paste | liquid
  7. Tare correctly; weigh the master container and confirm total weight

What to observe

  • Containers clearly labelled: dries / pastes / water / ice / process oil
  • Invert sugar stays with pastes — never pooled with water or ice
  • Group totals on the checklist match the calculator (dry | paste | liquid)
  • Minor ingredients (improver, softener, preservatives, turmeric, xanthan) weighed on the 1 g precision scale

Common mistakes

  • Weighing water and ice in the same container — ice melts and the liquid total drifts
  • Adding invert sugar to the liquid group — changes hydration behaviour and addition order
  • Rounding enzymes or preservatives on a coarse scale
  • Skipping the master-container total check after transferring each ingredient

How to correct

  • Reweigh any ingredient whose identity or mass is uncertain before loading the mixer
  • If the master total does not match the calculator, isolate the missing or excess ingredient and correct before mixing
  • Discard and reweigh minor ingredients if the wrong product (e.g. non-encapsulated sorbic) was taken from stock

Professional tip

Treat weighing as the first critical control point of the line. A batch that leaves the scale already wrong cannot be “fixed” by mixing skill.

Control point: Total batch weight matches calculator (dries + pastes + water + ice)

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Organised bench — dries / pastes / water / ice / process oil separated

Media pending

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One-by-one weighing flow + weight check (~2 min)

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Step 02

Mixing — speed 1 (hydration)

Equipment
Spiral mixer, 2 speeds
Time
6–9 min after full water incorporation (+ ~2:30–4 min to add water)
Temperature
Target dough path toward 24–28 °C with ice control
Speed / RPM
Speed 1 — 80–120 RPM

Objective of the stage

Hydrate the flour proteins and disperse fats, sugars, emulsifiers and functional ingredients uniformly, without yet seeking full gluten development.

What happens in the dough

At this stage gliadin and glutenin begin to hydrate and form the early gluten network. Fat and sugar compete for water and slow full development — that is expected in brioche. Ice and water are introduced gradually so starch and proteins absorb liquid evenly; a sudden flood creates wet lumps and dry pockets. Flake ice also absorbs frictional heat that spiral mixing generates in an enriched dough. Speed 1 builds cohesion and absorption; windowpane belongs to speed 2.

Procedure

  1. Load all dries into the mixer
  2. Add pastes
  3. Start speed 1 — do not stop except at points described in this report
  4. Add ice first, then water slowly (thin stream) — ~2:30 to 4 min
  5. Mix on speed 1 for 6–9 min minimum until full absorption

What to observe

  • After the liquid stream: no free water pooling at the bowl wall
  • Dough gathers around the spiral and leaves the bowl relatively clean
  • Surface becomes cohesive; a fingertip pressed lightly should not pick up sticky wet dough
  • Temperature is rising under control — ice still present early, then melting into the mass

Common mistakes

  • Dumping all water at once — wet centre, dry flour pockets
  • Stopping the mixer repeatedly during incorporation — uneven hydration
  • Moving to speed 2 while the dough still sticks to the hand
  • Insufficient ice in a warm bakery — dough already near or above 28 °C before development

How to correct

  • If free water remains, continue speed 1 until absorption is complete before increasing speed
  • If the dough is sticky after 6–9 min, verify flour W and protein; continue speed 1 briefly rather than flooding with flour
  • If dough temperature is already high, increase ice on the next batch and avoid unnecessary stops that extend mix time

Professional tip

Judge readiness by touch, not only by the clock: when the dough feels dry to the touch and no longer sticks to a clean hand, hydration is complete and gluten development can begin.

Control point: Dough does not stick to the hand — dry to the touch, water fully absorbed

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Speed 1 dough — before and after water absorption

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Slow water incorporation (~3 min)

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Step 03

Mixing — speed 2 (windowpane)

Equipment
Spiral mixer
Time
~7 min (6–8 min) on speed 2
Temperature
Final dough temperature 24–28 °C
Speed / RPM
Speed 2 — 180–220 RPM

Objective of the stage

Complete gluten development so the dough can retain fermentation gas, expand in the proofer and hold shape through dividing, rounding and baking.

What happens in the dough

Higher shear aligns and strengthens the gluten network. DATEM and SSL in the improver support strength and crumb fineness while sugar and fat continue to soften the matrix — the windowpane confirms that structure has overcome enrichment. Encapsulated sorbic remains largely inactive; free sorbic would already be suppressing yeast. Final dough temperature 24–28 °C keeps yeast activity and dough handling predictable on a continuous line.

Procedure

  1. After speed 1 control point, switch to speed 2
  2. Dough becomes smooth and glossy; finger swipe should not tear
  3. Windowpane test: take ~80 g, stretch until translucent — fingers visible behind without tearing
  4. If it tears easily → continue speed 2; if film is very thin and collapses → overmixed

What to observe

  • Surface turns smooth, slightly glossy, with a suede-like feel
  • A light finger swipe across the dough does not leave ragged tears
  • Windowpane: translucent film, fingers visible through the sheet, no immediate rupture
  • Probe the dough: temperature within 24–28 °C

Common mistakes

  • Stopping at a thick, opaque stretch — underdeveloped gluten, poor volume later
  • Running speed 2 until the film collapses on its own — overmixed, slack dough
  • Ignoring dough temperature — warm dough feels soft and may be misread as “ready”
  • Skipping the windowpane test and trusting time alone across different flours and mixers

How to correct

  • Tears easily: continue speed 2 and retest every 30–60 seconds
  • Film collapses alone or dough feels shredded: reduce speed 2 time on the next batch; handle this batch gently and avoid further mechanical abuse
  • Temperature above 28 °C: note ice adjustment for the next batch; do not add cold water after development

Professional tip

The windowpane is the language of the gluten network. Time and RPM are guides; the translucent film without rupture is the decision.

Control point: Translucent windowpane without rupture; dough feels like suede

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Windowpane test — translucent stretched dough

Media pending

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Full windowpane demonstration (~2 min) — critical priority

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Step 04

Release and dividing

Equipment
Mixer, soybean oil (process aid), divider (volumetric / piston / rounder / extruder) or bench + knife + scale
Time
Immediate after mixing — continuous
Temperature
24–28 °C

Objective of the stage

Discharge the dough cleanly from the bowl and portion it to the cut weights that deliver the finished 75 g or 55 g lines after bake loss.

What happens in the dough

Soybean oil is a process aid, not a formula fat: a brief speed-1 lubrication coats the bowl so the developed dough releases without tearing the gluten sheet. Immediate dividing respects the continuous-line design — there is no bulk rest to relax tension. Accurate unit weight is the only way bake loss of 10–15% lands on the target baked weight.

Procedure

  1. Speed 1: add ~3 thin rings of soybean oil (~1 L process aid) — run 30 seconds
  2. Dough releases from the bowl
  3. Divide with available equipment
  4. Portioning: 75 g baked → 85–88 g dough (~1,050 units / batch); 55 g baked → 65–68 g dough (~1,350 units / batch)

What to observe

  • Dough leaves the bowl as a coherent mass without long strings stuck to the wall
  • Portions check on the scale within the stated cut-weight ranges
  • Dough temperature still within 24–28 °C at dividing
  • No resting tubs or delayed queues — flow stays continuous

Common mistakes

  • Adding process oil before windowpane — interferes with development and absorption reading
  • Flooding the bowl with oil — greasy surface, weak rounding later
  • Cutting light or heavy without checking the scale — finished weight drifts outside tolerance
  • Allowing a bench rest “because artisan dough rests” — this formula is continuous

How to correct

  • If dough sticks: apply the oil rings again briefly at speed 1; do not knife-scrape aggressively and tear the mass
  • Recalibrate the divider when sample weights fall outside 85–88 g or 65–68 g
  • If oil was forgotten and dough is torn from the bowl, minimise further stress and correct the release step on the next batch

Professional tip

Oil is a release tool measured in rings and seconds, not a flavour ingredient. Keep it out of baker’s percentage thinking.

Control point: Unit weight in range; immediate dividing (no rest)

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Portions on the scale

Media pending

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Oil release + dividing (~2 min)

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Step 05

Rounding / moulding

Equipment
Rounder, rounding table, or manual

Objective of the stage

Create a smooth, tensed outer skin that traps gas evenly and presents a regular surface for panning and proofing.

What happens in the dough

Rounding reorganises the gluten near the surface into a continuous skin. Tears become weak points that open in the proofer or split in the oven. Because sugar and fat keep this dough extensible, gentle continuous rounding works well on rounders or by hand — the formula is not locked to one machine brand.

Procedure

  1. Continuous process — no pause between dividing and rounding
  2. Smooth finish, no tears
  3. Adaptable to any equipment — formula is not locked to one manufacturer
  4. Hot-dog / special shapes: mould as required

What to observe

  • Surface closed and slightly tensed, without fissures or flour cracks
  • Balls of even shape and similar height before panning
  • No sticky tails or open seams from aggressive degassing

Common mistakes

  • Over-flouring the table — dry skin that cracks in proof
  • Pressing too hard and degassing the piece — flat volume later
  • Leaving a seam or tear on top — visible split after bake
  • Pausing after dividing so the skin skins over unevenly before rounding

How to correct

  • Re-round gently to close small tears if the dough still has extensibility
  • Reduce dusting flour; prefer a lightly oiled or clean dry surface suited to your rounder
  • If pieces are already degassed, accept slightly tighter crumb and correct pressure on the next run

Professional tip

A good round looks quiet: smooth skin, even tension, no drama. Defects you see now will only grow in the proofer.

Control point: Smooth, tensed surface without fissures

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Perfect rounding vs defective (visual reference)

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Manual rounding standard (~2 min)

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Step 06

Panning

Equipment
Pans with cavities or rings

Objective of the stage

Seat each piece in the correct cavity so final diameter, height and silhouette match the product specification after proof and bake.

What happens in the dough

Pan geometry constrains lateral expansion. A centred ball in a cavity of the right diameter rises into a dome; flattening before proof produces a lower, wider profile. Depth ≥ 1.8 cm supports the piece through final proof without spilling. Wrong pan for the cut weight yields overflow or a squat loaf even when fermentation is correct.

Procedure

  1. Round 75 g: cavity Ø 11 cm, depth ≥ 1.8 cm
  2. Round 55 g: cavity Ø 10 cm, depth ≥ 1.8 cm
  3. Without deep cavity: use Ø 10.5 cm shallow cavity or rings
  4. Domed: place ball in pan, light palm press (do not flatten) → grows upward
  5. Flat: press with palm or sheeter (pizza-like)

What to observe

  • Piece centred in the cavity, not touching one wall preferentially
  • Correct cavity diameter for the target finished weight line
  • Domed products show a round crown still proud of the pan floor; flat products show an even disc without torn edges

Common mistakes

  • Using the 11 cm cavity for 55 g pieces or the reverse — wrong final silhouette
  • Heavy pressing when a dome is required — forces lateral spread too early
  • Off-centre placement — lopsided proof and bake
  • Damaged or warped pans that distort every unit on the tray

How to correct

  • Re-centre gently before proof if the piece has not yet stuck to the pan
  • Match pan set to the production SKU before the run starts
  • Replace pans that no longer hold geometry

Professional tip

Decide dome versus flat at panning — the proofer amplifies the shape you set, it does not invent a new one.

Control point: Piece centred; correct pan for target weight

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Recommended pans + domed vs flat comparison

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Step 07

Final proof

Equipment
Proofer 34 °C / 80% RH — or closed cabinet with light mist every 40 min if surface dries
Time
~4 hours (formula average)

Objective of the stage

Generate the volume and crumb openness required before baking, stopping at the point where gas retention and oven spring remain balanced.

What happens in the dough

Yeast converts fermentable sugars into CO₂ and aroma compounds; the gluten–emulsifier network holds the gas. At ~34 °C / 80% RH the surface stays plastic; if it dries, a skin restricts expansion and causes irregular breaks. Instant sweet-dough yeast is dosed for osmotic pressure from sugar and salt — proof is therefore measured by finger test and dimensions, not by the clock alone. Average final proof ~4 hours on this formula; softer crumb asks for slightly longer, a tight fast-food crumb for a fresher bake.

Procedure

  1. Keep surface glossy/moist — light mist if drying
  2. Correct point: light finger press → mark → recovers smooth quickly
  3. Overproofed: mark remains (dough too soft)
  4. 75 g reference: Ø 11 cm, height ~4 cm — dough filling the pan
  5. Softer crumb: proof slightly longer
  6. Tight crumb (fast-food style): bake fresher — finger recovers quickly

What to observe

  • Surface remains slightly glossy; no matte dry skin
  • Finger mark recovers to a smooth surface within a moment
  • 75 g line approaching Ø 11 cm and ~4 cm height, filling the pan
  • Even rise across the tray — no collapsed or still-dense outliers

Common mistakes

  • Baking on time alone while humidity or yeast activity differs day to day
  • Letting the surface dry — tight skin and wild breaks
  • Overproofing until the finger mark stays — weak oven spring, coarse or collapsed crumb
  • Underproofing for a soft crumb target — dense, tight interior

How to correct

  • Dry surface: light mist; do not soak
  • Overproofed: bake promptly at the correct profile; reduce time or temperature next batch
  • Underproofed: extend proof and recheck finger test and dimensions before oven

Professional tip

The finger test is the baker’s instrument. Dimensions confirm the product family; the recovering mark confirms readiness.

Control point: Finger test + dimensions (Ø and height)

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Proof: correct point vs overproofed

Media pending

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Finger test (~1 min)

Media pending

Step 08

Pre-bake — crust glaze

Equipment
Spray gun preferred; fine brush if needed

Objective of the stage

Apply a thin, even film that sets into a glassy, uniform crust colour and sheen in the oven — without introducing egg or milk washes into the process.

What happens in the dough

A glaze modifies surface heat transfer and Maillard appearance. Two thin coats cover edges that one heavy coat often misses; pooled glaze runs into the pan and bakes as dark stains. Egg washes add microbial and labelling risk and are unnecessary on this line. Application only after correct proof avoids collapsing a fragile structure or glazing a piece that will still grow substantially.

Procedure

  1. Apply only after proof is ready (finger test OK)
  2. Follow manufacturer dilution/viscosity — do not invent ratios
  3. Prefer spray gun; otherwise fine brush
  4. Apply 2 thin coats — cover top and all edges/sides
  5. Do not flood — pooled glaze runs and stains pans
  6. Bake promptly after even coverage
  7. For the vitreous, mirrored finish shown in the reference photos and videos, use Lumen Bake Vegan Glaze (companion recipe — see note below)

What to observe

  • Entire top and visible sides coated; no dry flour patches at the rim
  • Surface looks wet and even, without puddles in the pan cavities
  • After two coats, coverage matches the glassy reference look aimed for after bake

Common mistakes

  • Glazing underproofed dough — later expansion opens bare spots
  • One thick coat — runs, pale patches, dirty pans
  • Inventing dilution — viscosity too high (orange-peel) or too low (no film)
  • Leaving glazed trays to dry too long before the oven when the glaze requires immediate bake

How to correct

  • Dry edges: reapply a thin second coat before baking
  • Pools: blot excess carefully if still fluid; reduce volume on the next tray
  • Uneven gloss after bake: review spray pattern and switch to a glaze formulated for vitreous finish if the current product cannot hold sheen

Professional tip

Think of glaze as a finish coat in two passes. Coverage and viscosity matter more than quantity.

Control point: Uniform surface coverage, no dry spots or pools; finish matches the glassy reference look

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Glazed vs unglazed; vitreous/mirrored shine vs failed coverage

Media pending

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Spray application — 2 coats (~2 min)

Media pending

Step 09

Baking

Equipment
Deck or rotary (convection) oven

Objective of the stage

Set crumb structure, develop crust colour and fix the glazed finish while meeting bake-loss and baked-weight targets.

What happens in the dough

Heat gelatinises starch, coagulates the protein network and drives final oven spring. Steam is omitted on this product: injected moisture dulls glaze and softens the intended crust character. Rotary and deck ovens deliver heat differently — 187 °C / 15 min (rotary) and 195 °C with top 100% / deck 85% / 16 min (deck) are starting profiles; colour is the final judge. Bake loss of 10–15% on cut weight confirms adequate bake without overdrying.

Procedure

  1. Always bake without steam (no steam injection)
  2. Rotary: 187 °C — 15 min (or to target colour) — no steam
  3. Deck: 195 °C — top 100%, deck 85% — 16 min (or to target colour) — no steam
  4. Visual results differ by oven type — standardise on your line

What to observe

  • Even golden colour across the tray
  • Glaze retained as a continuous sheen, not blotchy or washed out
  • Baked weight consistent with 10–15% loss from cut weight
  • No pale sides from underbake or burnt rims from excess bottom heat

Common mistakes

  • Baking with steam — flat gloss and dull crust
  • Copying another plant’s time without reading colour on your oven
  • Mixing deck and rotary trays under one profile
  • Pulling too early for colour fear — underbaked crumb and short shelf life

How to correct

  • Disable steam and rebake the next load dry
  • Adjust time or zone balance until colour matches the reference for your oven type
  • If bake loss is below 10%, extend bake slightly; if above 15%, shorten or lower heat and recheck cut weight

Professional tip

Standardise one oven family first. Photograph a reference bake under fixed light and train operators to match that colour, not the clock alone.

Control point: Even colour, glaze retained; bake loss 10–15% on cut weight

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Deck vs rotary comparison (use bake-deck + bake-rotary assets)

Media pending

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Oven in/out — target colour (~1 min)

Media pending

Step 10

Post-bake — cool, slice, pack

Equipment
Probe thermometer, slicer or knife, PP/BOPP flowpack sealer

Objective of the stage

Cool the crumb to a packing-safe temperature, portion if required, and seal so moisture and mould risk stay under control through the practical shelf-life window.

What happens in the dough

Residual heat continues to migrate after baking. Packing above 45 °C crumb temperature traps steam; condensate on the film wets the crust and accelerates mould. Maltogenic amylase, sugars and xanthan support softness over days, but they cannot compensate for wet packs or weak seals. Horizontal slicing only at ≤ 45 °C crumb protects structure and hygiene.

Procedure

  1. Cool on rack/belt until crumb centre reaches 45 °C (probe — not crust only)
  2. Check bake loss: baked weight ≈ 10–15% below cut weight
  3. Slice horizontally only at crumb ≤ 45 °C
  4. Pack in PP or BOPP (flowpack) and seal without leaks
  5. Store cool, dry and clean

What to observe

  • Probe in the crumb centre reads ≤ 45 °C
  • No fogging on the film shortly after sealing
  • Seal continuous, without channels or crumbs in the weld
  • Baked unit weight within line tolerance for 75 g or 55 g finished product

Common mistakes

  • Trusting crust coolness while the core remains hot
  • Slicing warm — compression, gumming, bacterial risk
  • Incomplete seals or dirty jaws — early mould complaints
  • Storing warm cases in closed boxes — residual heat recreates condensation

How to correct

  • Return warm product to the rack until the probe confirms ≤ 45 °C
  • Rework or discard packs with failed seals; clean and test the sealer
  • Investigate early mould with hygiene, seal integrity and cooling logs before changing preservative doses

Professional tip

The probe in the crumb is non-negotiable. Shelf life begins at the sealer, not at the oven door.

Control point: Crumb ≤ 45 °C; intact seal; baked weight in range

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Crumb temperature check + packing line

Media pending

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Cool → slice → seal (~2 min)

Media pending

05 — Equipment

Equipment

Minimum line equipment to execute the process as written. Capacities must match batch size; RPM ranges below match the mixing stages in this report.

EquipmentRequiredMinimum specNotes
Industrial scaleRequiredCalibrated, 5 g precisionUse with a 1 g precision scale for enzymes and preservatives
Precision scaleRequired1 gEncapsulated sorbic acid, calcium propionate, enzymes, turmeric, xanthan
Spiral mixerRequired2 speeds, 80–120 / 180–220 RPMBowl capacity ≥ batch size; speed 1 for hydration, speed 2 for windowpane
Divider / portionerRecommendedVolumetric, piston, rounder or extruderManual cutting + scale is acceptable if cut-weight ranges are held
RounderRecommendedAutomatic or benchManual rounding is acceptable when skin tension is correct
ProoferRecommended34 °C, 80% RHClosed cabinet with light mist every 40 min if surface dries
Pans / ringsRequiredCavity depth ≥ 1.8 cmØ 11 cm for 75 g line; Ø 10 cm for 55 g line (see process)
Spray gunRecommendedFor Lumen Bake Vegan Glaze / commercial glazeTwo thin coats; brush only if spray is unavailable
Deck or rotary ovenRequiredProfiles in process — no steamStandardise colour on your oven family before comparing plants
Probe thermometerRequiredCrumb ≤ 45 °CMeasure crumb centre before packing — not crust alone
Slicer / knifeRequiredHorizontal cutOnly at crumb ≤ 45 °C; automatic preferred
Flowpack sealerRequiredPP or BOPPIntact seals are part of mould control

06 — Quality control

Quality control

Control points follow the process sequence. Accept criteria are visual, dimensional or gravimetric — train operators to recognise them at the bench, not only on paper.

CheckpointWhenAcceptToleranceIf fail
Total batch weightAfter weighingMatches calculator (dries+pastes+liquids)±0.5%Reweigh missing ingredient
Water absorptionEnd of speed 1Dough dry to touch, non-stickyContinue speed 1
WindowpaneEnd of speed 2Translucent film without tearingContinue or stop speed 2
Dough temperaturePost-mix24–28 °CWithin rangeAdjust ice next batch
Cut weightDividing85–88 g (75 g) / 65–68 g (55 g)±2 gRecalibrate divider
Final proofPre-ovenFinger mark recovers smooth; Ø 11 cm / h 4 cm (75 g)±0.5 cmAdjust proof time/temperature
Crust glazePre-ovenUniform coverage, 2 coats; vitreous look (Lumen Bake Vegan Glaze recommended)VisualReapply dry edges
Colour / glossPost-bakeEven gold, mirrored glaze retainedVisualAdjust bake profile or switch to Lumen Bake Vegan Glaze
Bake lossPost-bake10–15% on cut weightAdjust time/temp or cut weight
Baked weightPost-bake75 g or 55 g per line±3 gAdjust portioning
Crumb temperaturePre-sealCrumb ≤ 45 °CWait for cooling

07 — Technical data

Technical data

Fermentation profile

Final proof only (no separate bulk fermentation)

34 °C, 80% RH, ~4 h

Finger test + dimensions (Ø 11 cm × h 4 cm for 75 g)

Timeline marker only — control remains finger test + dimensions from the process section.

Oven profiles

OvenTemperatureTimeNotes
Rotary187 °C15 minNo steam — to target colour
Deck195 °C16 minTop 100%, deck 85% — no steam — to target colour

Bake loss

10–15%

On cut weight

75 g line

~1,050

Units / 50 kg flour

55 g line

~1,350

Units / 50 kg flour

Shelf-life reference ~21 days. Achievable with formula + packaging + correct basic hygiene — each plant validates. Not a guaranteed claim in this report.

08 — Food safety

Food safety

Allergen and hygiene framing for European production. Local labelling codes remain the responsibility of each market. Preservative efficacy depends on correct dose, cooling and seal integrity — not on preservatives alone.

Allergens

AllergenPresentNotes
Gluten (wheat)YesBase flour — intrinsic to the product
SoyYesLecithin + process oil; confirm Lumen Bake Vegan Glaze product sheet if used
Milk / lactoseMay containPresent if butter is used; absent if dairy-free margarine is specified
EggsNoNot in the dough. Prefer egg-free glaze (Lumen Bake Vegan Glaze) to avoid wash-related risk and labelling load
Tree nutsNoNot formulated into this dough

Storage

Practical shelf life
~21 d — Validate in your plant — not an absolute guarantee
Temperature
Cool, dry ambient
Packaging
PP or BOPP flowpack, sealed
Cooling rule
Pack only when crumb ≤ 45 °C

HACCP — critical points

CCPRiskCritical limitMonitorCorrective
WeighingIncorrect formulationTotal weight ±0.5%Check each ingredientReweigh
Dough temperatureIrregular fermentation24–28 °CThermometerAdjust ice
ProofUnder/over proofFinger test + dimensionsVisual every 40 minAdjust time
Crumb temperatureCondensation / mouldCrumb ≤ 45 °CProbe thermometerWait to cool
PreservativesMicrobial spoilageFormula doses1 g precision weighingDiscard batch if dose wrong

Allergen framing references EU Regulation 1169/2011. Local labelling codes are out of scope — each market applies its own labelling rules.

09 — Troubleshooting

Troubleshooting

Use this table as a line aid: link the symptom to the process stage, then correct the cause. Do not change formula dosages to compensate for handling errors.

ProblemLikely causeCorrection
Dough sticky on hands (speed 1)Water not yet fully absorbed, or flour below minimum W / proteinContinue speed 1 until dry to the touch; verify flour W ≥ 280 and protein ≥ 9%
Windowpane tears easilyUnderdeveloped gluten or weak improver responseContinue speed 2 and retest; confirm improver contains DATEM + SSL + Polysorbate 80
Windowpane collapses aloneOvermixed gluten networkReduce speed 2 time on the next batch; handle this dough with minimal further shear
Dough too warm (>28 °C)Insufficient flake ice or extended mix generating frictional heatIncrease ice on the next batch; avoid unnecessary mixer stops; do not add cold water after development
Slow fermentationNon-encapsulated sorbic acid, exhausted yeast, or proof too cold/dryUse only encapsulated sorbic; replace yeast; restore 34 °C / 80% RH and surface moisture
Overproof (mark remains)Excess proof time or temperature for the dough strengthBake promptly; shorten proof or lower temperature on the next run
Pale loafIncomplete glaze coverage, cold oven, or steam injectionApply two thin glaze coats; bake without steam; adjust oven to target colour
Crumb dries earlyXanthan or enzymatic softener under-dosed, wrong enzyme profile, or weak pack sealVerify precision weighing; confirm fungal + maltogenic amylase; check seals and cooling ≤ 45 °C crumb
Early mouldCondensation from hot packing, incomplete seal, or hygiene lapsePack only at crumb ≤ 45 °C; review seal integrity and sanitation before changing preservatives
Uneven glossMissed spray zones or glaze not suited to vitreous finishTwo coats covering edges; review viscosity; use Lumen Bake Vegan Glaze when mirrored finish is required

10 — Appendix

Appendix

Glossary

TermDefinition
WindowpaneFully developed gluten stage: a small piece of dough stretches into a translucent film without tearing, showing that the protein network can retain gas.
Baker’s %Ingredient percentage relative to flour weight, with flour fixed at 100%. Allows scaling any batch size from the same formula.
PanningPlacing the rounded dough piece into the cavity, ring or form that will define final diameter and height.
ProofFinal fermentation before baking, judged by finger test and product dimensions rather than by the clock alone.
RopeBacterial spoilage of the crumb — sticky interior, sweet-sour odour and filamentous strands when pulled apart.
Process aidA line aid (here, soybean oil for bowl release) that scales with batch size but sits outside baker’s percentage and is not a formula fat.
P/LAlveograph ratio of tenacity (P) to extensibility (L). Too low: slack dough; too high: tight dough with poor expansion in brioche.
Bake lossPercentage difference between cut (divider) weight and baked weight — target 10–15% on this product.
Maillard reactionHeat-driven browning between reducing sugars and proteins that builds crust colour and aroma.
Staling (retrogradation)Recrystallisation of starch after baking that firms the crumb; slowed here by maltogenic amylase, sugars, fat and xanthan.

Final notes

  • Continuous industrial line — no mother dough, sponge or intermediate rest between mixing and moulding
  • Artisan enrichment levers are replaced by functional technology: emulsifiers, enzymes, hydrocolloids and dual preservatives
  • Minimum flour and additive specifications enable global sourcing — chemistry matters more than brand names
  • Lumen Bake Vegan Glaze is a companion recipe for crust finish; soybean oil remains a process aid only
  • Approximately 21 days without mould is a practical reference under hygiene and seal control — each plant must validate