Apparatus and methods for making puffed food products are disclosed. In one implementation, an innovative process, apparatus, or system may employ at least one base mold with a defined pattern of one or more surface cavities carved therein in order to more evenly or uniformly distribute heat to raw ingredients or an intermediate food product during baking step(s).

The invention relates to an expanded dry food product comprising at least the following ingredients: a food-grade plant- or animal-based protein concentrate; a food-grade fat; a food-grade texturising additive selected from the group consisting of plant-based hydrocolloids and gelling agents, starch, preferably modified starch, proteolytic additives and hydrolysis products thereof, and acidifying agents and salts thereof; and residual water. The invention also relates to a method for producing said expanded dry food product from a thermally expandable precursor.

The invention relates to an expanded dry food product comprising at least the following ingredients: a food-grade plant- or animal-based protein concentrate; a food-grade fat; a food-grade texturising additive selected from the group consisting of plant-based hydrocolloids and gelling agents, starch, preferably modified starch, proteolytic additives and hydrolysis products thereof, and acidifying agents and salts thereof; and residual water. The invention also relates to a method for producing said expanded dry food product from a thermally expandable precursor.

A method and popping machine for popping different types of popcorn kernels is provided, where the different types of popcorn kernels include at least mushroom type popcorn and butterfly type popcorn. The method includes determining a selected one of the different types of popcorn kernels to be popped in a first popping cycle based upon a selection made by an operator, and then retrieving and using a first set of predetermined cooking temperature set points associated with cooking the selected one of the different types of popcorn kernels during performance of the first popping cycle. The cooking temperature set points determine several items which may include when to heat a kettle of the popping machine, when to signal an operator to take action such as loading kernels or dumping popped popcorn, and when to add sugar if a sweetened popped popcorn type is desired.

A grain-popping machine and associated pod-based popping method is disclosed. The grain-popping is configured to receive a pod. Each pod includes a plurality of cells, with each cell preferably containing a single grain kernel or seed, flavoring, and a cooking medium such as oil or shortening. In a preferred embodiment, the pod is loaded into the grain-popping machine through a slot so that it is held in position adjacent to a heating element. The heating element is activated to begin a popping sequence. When each grain kernel or seed in the pod reaches popping temperature, it absorbs the flavoring in its cell and ejects through the bottom of the pod, which can be weakened to ease ejection, into a bowl positioned in a receiving area of the grain-popping machine. The pod is then removed and disposed of.

A grain-popping machine and associated pod-based popping method is disclosed. The grain-popping is configured to receive a pod. Each pod includes a plurality of cells, with each cell preferably containing a single grain kernel or seed, flavoring, and a cooking medium such as oil or shortening. In a preferred embodiment, the pod is loaded into the grain-popping machine through a slot so that it is held in position adjacent to a heating element. The heating element is activated to begin a popping sequence. When each grain kernel or seed in the pod reaches popping temperature, it absorbs the flavoring in its cell and ejects through the bottom of the pod, which can be weakened to ease ejection, into a bowl positioned in a receiving area of the grain-popping machine. The pod is then removed and disposed of.

A grain-popping machine and associated pod-based popping method is disclosed. The grain-popping is configured to receive a pod. Each pod includes a plurality of cells, with each cell preferably containing a single grain kernel or seed, flavoring, and a cooking medium such as oil or shortening. In a preferred embodiment, the pod is loaded into the grain-popping machine through a slot so that it is held in position adjacent to a heating element. The heating element is activated to begin a popping sequence. When each grain kernel or seed in the pod reaches popping temperature, it absorbs the flavoring in its cell and ejects through the bottom of the pod, which can be weakened to ease ejection, into a bowl positioned in a receiving area of the grain-popping machine. The pod is then removed and disposed of.

A grain-popping machine and associated pod-based popping method is disclosed. The grain-popping is configured to receive a pod. Each pod includes a plurality of cells, with each cell preferably containing a single grain kernel or seed, flavoring, and a cooking medium such as oil or shortening. In a preferred embodiment, the pod is loaded into the grain-popping machine through a slot so that it is held in position adjacent to a heating element. The heating element is activated to begin a popping sequence. When each grain kernel or seed in the pod reaches popping temperature, it absorbs the flavoring in its cell and ejects through the bottom of the pod, which can be weakened to ease ejection, into a bowl positioned in a receiving area of the grain-popping machine. The pod is then removed and disposed of.

A cooking system that utilizes vibration to improve the convenience of preparing food and the quality of the finished product. The system uses a vibrating device coupled to a cooking vessel with a pad and/or isolation blocks disposed between the vibrator and the vessel. The cooking system can be adapted to prepare specific foods in specific quantities, such as popcorn in pre-packaged containers.

An improved rotary head extruder has at least one rotatable auger disposed within a single barrel and having an upstream end and a downstream end. The extruder has a die assembly that includes (i) a stator having a stator head at the downstream end of the at least one rotatable auger and a stationary plate surrounding an outlet end of the stator downstream from the single barrel and (ii) a rotatable plate downstream and spaced apart from the stationary plate to define a die gap. The apparatus includes a heating mechanism to maintain, within a predefined temperature range, one or more of the temperature of the die assembly or an extrudable composition disposed in the die gap.