Atomized cryogenic fat crystallization cuts heating and cooling demand while producing free-flowing particles that stabilize oil dispersions.
Pre-crystallized fat particles formed by cryogenic spray cut heating and cooling demand while improving spread stability and mouthfeel.
Fatty acid balance and hardness control keep this water-in-oil emulsion cuttable when frozen, avoiding thawing in professional use.
By tuning water activity to 0.89-0.91, this sweet spread limits moisture exchange with bread and stays smooth and shelf-stable for 15-25 days.
Controlled triglyceride ratios in a stearic hardstock improve margarine texture by limiting brittleness and graininess while preserving spreadability.
Butter stearin with a 37-45°C dropping point stabilizes a spreadable water-in-oil emulsion using vegetable oil without exotic fats or emulsifiers.
A stirred tank with recirculation forms a stable water-in-oil spread below 40°C, cutting energy use and improving reworkability.
High-free-fatty-acid fat compositions are enzymatically reacted with a polyol to avoid pre-removal and produce fat with less than 1% free fatty acids.
Fatty-acid and triglyceride ranges structure a fine-droplet emulsion for spreadability, mouthfeel, and lower waxiness.
This case tunes SU2, U3, SUS, and lauric acid levels for a smooth, fast-melting plant-based butter replacer.
Pre-mixed hydrocolloid slurry enters metal cation solution obliquely, forming uniform flakes without equipment clogging.
Structured edible product uses specific triglyceride composition to achieve desired texture.
A fat formulation combines specific saturated fatty acid chain lengths to achieve liquid or semi-solid states at room temperature.
Co-crystallized fat powder delivers reliable structuring without chemical modification, eliminating trans fatty acid by-products.
Enzymes break down olive cell structures to improve yield without complex equipment.
Enzymatic transesterification produces POS-rich structuring fats that reduce trans-fatty acids and graininess while maintaining rigidity.
Heterotrophic cultivation eliminates chlorophyll and reduces DHA to prevent oxidation-induced fishy flavors in cooked food products.
Heating milk fat with oxygen supply creates specific aldehyde ratios to replicate butter flavor without adding expensive butter.
Blending palm-based fat with transesterified oil prevents coarse crystal formation during storage while maintaining low trans fatty acid content.
ScMM micronized hardstock fat structures stable emulsions, eliminating energy-intensive heating steps that cause ingredient deterioration.
Edible water-in-oil emulsion wrapper uses edible fat powder to achieve firmness without saturated fatty acids.
A vegetable-derived fat base composition uses enzymatic interesterification to position palmitic acid at the sn-2 triglyceride site.
Gradual addition of melted hardstock fat to cold liquid oil forms a fat slurry that yields stable emulsions without energy-intensive heating or cooling.
Post-dosing olive oil into micronized fat powder stabilizes emulsions, avoiding energy-intensive heating cycles required by traditional methods.
Incorporating branched-chain fatty acids into plant-based matrices to replicate complex ruminant sensory profiles.
A fat blend composition uses fully hydrogenated oils and interesterified fats to create a structured spread.
Mechanical stirring and aeration introduce gas bubbles into the butter crystal lattice to improve spreadability without additives.
Interesterified vegetable oil blends create a spread that satisfies taste preferences while maintaining low saturated fat levels.
A transesterified fat blend with controlled lauric and stearic acid ratios provides extensibility in roll-in bakery applications.
Continuous vortex mixing of liquid oil and melted fat yields uniform fat crystals below 25 nm while avoiding energy-intensive heating and cooling steps.
A protein enrichment process mixes milk protein into raw cream before pasteurization to create high-protein butter spreads.
Aerated lipid emulsions stabilized by triglyceride crystals at gas interfaces maintain creamy texture without rigid bulk networks.