Module 04: Cooking Methods¶
← Module 03: Stocks and Sauces | Topic Home | Next → Module 05: Eggs and Dairy
A systematic survey of dry-heat and moist-heat cooking methods — roasting, sautéing, grilling, frying, poaching, steaming, braising, and boiling — with the physics and food science behind each.
Table of Contents¶
Overview¶
Every cooking technique is a specific application of heat. The choice of method is not arbitrary — it is determined by the ingredient's structure (collagen-rich vs. tender, lean vs. fatty, dense vs. delicate) and the desired result (crusty exterior, fall-apart texture, moist interior, caramelised surface). Understanding why each method produces its characteristic result allows you to select the right method for any ingredient, not just to follow a recipe blindly.
Dry-heat methods work by removing moisture from the food's surface, allowing temperatures to exceed 100 °C and triggering the Maillard reaction and caramelisation. Moist-heat methods surround food with liquid or steam, keeping temperatures at or near 100 °C, which produces tender, yielding results — ideal for collagen-rich cuts that need extended cooking to convert collagen to gelatin.
[!IMPORTANT] This module is a stub. Full theory, examples, exercises, and test will be written in a future update.
Prerequisites¶
- [[culinary-patisserie/modules/01_introduction]] — heat science (conduction, convection, radiation, Maillard reaction)
- [[culinary-patisserie/modules/02_knife-skills-and-prep]] — knife skills for prep
- [[culinary-patisserie/modules/03_stocks-and-sauces]] — stocks used in braising and poaching
Objectives¶
By the end of this module, you will be able to:
- Distinguish dry-heat from moist-heat methods and explain why each is appropriate for different ingredients
- Roast a whole chicken to correct internal temperature with golden skin, using a dry-brine technique
- Sauté vegetables and proteins correctly — hot pan, correct fat, no overcrowding
- Braise a collagen-rich cut (e.g., beef cheek or short rib) to fork-tender using the correct liquid ratio
- Poach eggs correctly (fresh acid-treated water, gentle simmer, no boil)
- Deep-fry safely: oil temperature, breading procedure, draining, and rest
- Explain the role of collagen and gelatin in the tenderness of braised meats
Theory¶
STUB — Full theory to be written. Topics to cover:
Dry-Heat Methods: - Roasting: oven heat (convection + radiation); the role of resting; the two-zone method (high-heat blast for crust, lower heat for even cooking); dry-brining - Sautéing: high heat, fat, movement; the French sauter ("to jump") technique - Grilling/Griddling: radiant heat from below; grill marks; correct grill temperature - Pan-frying: intermediate between sautéing and deep-frying; breaded items - Deep-frying: oil as heat transfer medium; the role of breading/batter; Maillard at high oil temperature; smoke points of oils; safe oil temperature (175–190 °C)
Moist-Heat Methods: - Poaching: liquid just below simmer (85–90 °C); delicate proteins (eggs, fish) - Steaming: 100 °C steam; nutrient retention; no direct liquid contact - Braising: combination method — sear first (Maillard), then low-and-slow in liquid; collagen to gelatin conversion above 74 °C sustained for 2–4 hours - Boiling/Blanching: rapid high-temperature cooking; blanching to set colour and stop enzyme activity; the role of salt in pasta and vegetable water
Food Science of Tenderness: - Collagen vs. myosin: two different protein structures requiring different heat treatments - Why lean tender cuts (loin, fillet) become tough if braised: myosin denatures and contracts - Why tough fibrous cuts (shin, cheek, shoulder) become silky when braised long: collagen converts to gelatin, lubricating muscle fibres
Key Concepts¶
- Dry-heat cooking — methods where surface moisture evaporates, temperatures exceed 100 °C, and browning occurs (roasting, sautéing, grilling, frying)
- Moist-heat cooking — methods where food is surrounded by liquid or steam, kept near 100 °C (poaching, steaming, braising, boiling)
- Braising — a combination method: initial sear for colour, then long gentle cook in a flavoured liquid in a covered pot; ideal for collagen-rich cuts
- Collagen and gelatin — collagen is the tough connective tissue in working muscles; extended moist heat converts it to gelatin, creating tender, silky textures
- Blanching — brief immersion in boiling salted water followed by immediate ice-bath shock; sets colour, partially cooks, and stops enzyme activity
Examples¶
STUB — Examples to be written:
- Roast chicken with dry brine: step-by-step annotated recipe
- Perfect sautéed mushrooms: applying the lessons from Module 01 pitfalls
- Braised beef short ribs: two-day recipe with science notes
- Perfectly poached egg: water temperature, vinegar, timing
Common Pitfalls¶
STUB — Common pitfalls to be documented:
- Not patting proteins dry before roasting or sautéing (wet = steaming)
- Moving food too early when searing (before the crust has formed)
- Braising temperature too high (rapid boil rather than gentle simmer — tough result)
- Not resting roasted meat (loss of juices)
- Using olive oil for high-heat frying (low smoke point, acrid flavour)
Cross-Links¶
- [[culinary-patisserie/modules/01_introduction]] — Maillard reaction, heat transfer mechanisms
- [[culinary-patisserie/modules/03_stocks-and-sauces]] — braising liquids and pan-sauce technique
- [[culinary-patisserie/modules/05_eggs-and-dairy]] — poaching eggs is covered in depth in Module 05
- [[culinary-patisserie#cheatsheet]] — safe internal temperatures for proteins
Summary¶
STUB — To be written on full module completion.
- Dry-heat methods produce browning via Maillard and caramelisation; moist-heat methods produce tender, yielding textures
- Match method to ingredient: lean tender cuts → dry heat; tough collagen-rich cuts → long moist heat
- Braising converts collagen to gelatin over 2–4 hours, creating silky textures unachievable by any other method
- Resting after dry-heat cooking is non-negotiable; juices redistribute during the rest period
- Oil temperature in frying determines the quality of crust and absorption of fat