A snack food that is easier for a dysphagia sufferer to consume may be made from a crisp, structural core that is highly soluble, enrobed in a calorie-dense coating such as chocolate, where the coating helps protect the core from moisture. When the snack food is bitten, the eater's saliva causes the core to disintegrate rapidly, leaving the coating without support and susceptible to rapid reduction to an easy-to-swallow paste.

The present invention discloses a 3D food printer, which comprises a large hopper in a print head with a cooling system, so as to store and supply a large amount of a food material and print reliably at a high ambient temperature, and an automatic conveying system for printed products, so as to automatically output the food product after printing it, and then proceed with the next one. These features make the printer more effective, easier to operate, and in line with the requirements of food hygiene. The technical solution includes: the 3D food printer comprising a print head for extruding a food material; a cooling system for keeping the food material at a low temperature at which the food material does not melt or agglomerate; a conveying system for automatically outputting a printed food product; a frame for supporting the entire 3D food printer; a drive system for driving the 3D food printer to move in the X-, Y- and Z-directions; and a control system for controlling the operation of the entire 3D food printer.

The present invention discloses a 3D food printer, which comprises a large hopper in a print head with a cooling system, so as to store and supply a large amount of a food material and print reliably at a high ambient temperature, and an automatic conveying system for printed products, so as to automatically output the food product after printing it, and then proceed with the next one. These features make the printer more effective, easier to operate, and in line with the requirements of food hygiene. The technical solution includes: the 3D food printer comprising a print head for extruding a food material; a cooling system for keeping the food material at a low temperature at which the food material does not melt or agglomerate; a conveying system for automatically outputting a printed food product; a frame for supporting the entire 3D food printer; a drive system for driving the 3D food printer to move in the X-, Y- and Z-directions; and a control system for controlling the operation of the entire 3D food printer.

The present invention relates to a method of preventing, inhibiting or mitigating bloom in a filled chocolate product, said method comprising: a) An inline heating step comprising at least one of heating the chocolate shell at a heating temperature of at least 25° C., heating the center-filled chocolate shell at a heating temperature of at least 25° C. and heating the filled chocolate product at a heating temperature of at least 25° C. and said method comprising at least of b) A shell cooling step comprising cooling said chocolate shell at a cooling temperature below 20° C., c) A filling cooling step comprising cooling said center-filled chocolate shell at a cooling temperature below 20° C., d) A final cooling step comprising cooling said filled chocolate product at a cooling temperature below 20° C., said inline heating step being comprised in at least one of step b)-d) or being arranged between step b) and c) or between steps c) and d). The invention further relates to products obtained by said method, and a system for obtaining such product.

The present invention relates to a method of preventing, inhibiting or mitigating bloom in a filled chocolate product, said method comprising: a) An inline heating step comprising at least one of heating the chocolate shell at a heating temperature of at least 25° C., heating the center-filled chocolate shell at a heating temperature of at least 25° C. and heating the filled chocolate product at a heating temperature of at least 25° C. and said method comprising at least of b) A shell cooling step comprising cooling said chocolate shell at a cooling temperature below 20° C., c) A filling cooling step comprising cooling said center-filled chocolate shell at a cooling temperature below 20° C., d) A final cooling step comprising cooling said filled chocolate product at a cooling temperature below 20° C., said inline heating step being comprised in at least one of step b)-d) or being arranged between step b) and c) or between steps c) and d). The invention further relates to products obtained by said method, and a system for obtaining such product.

The utility model relates to assembly of flora(s) replica(s) (FIG. 16) comprised of theobroma cacao chocolate either un-sweet or sweetened or seasoned and or any combination and variety of theobroma cacao chocolate. Along with combining edible materials of same or different textures and flavors conjoined and or coated in some way with theobroma cacao chocolate. Once constructed into the flora replica invention lends itself to a wider array of cultures, tastes, social applications and dietary un-segregation. Resulting in overcoming the lack of flavor, economic negativity, and dietary segregation of prior art.

The utility model relates to assembly of flora(s) replica(s) (FIG. 16) comprised of theobroma cacao chocolate either un-sweet or sweetened or seasoned and or any combination and variety of theobroma cacao chocolate. Along with combining edible materials of same or different textures and flavors conjoined and or coated in some way with theobroma cacao chocolate. Once constructed into the flora replica invention lends itself to a wider array of cultures, tastes, social applications and dietary un-segregation. Resulting in overcoming the lack of flavor, economic negativity, and dietary segregation of prior art.

A heat resistant chocolate containing ethylcellulose. The ethylcellulose is introduced into the chocolate as a solution in oil or in a non-aqueous solvent, suitably in an amount of from about 1% to about 3% ethylcellulose by weight. Ethylcellulose oleogels may also be used to replace a portion of the oils and fats normally present in chocolate and/or to formulate fillings for filled chocolates exhibiting reduced oil migration. Also provided are methods of making chocolate compositions according to the invention.

A heat resistant chocolate containing ethylcellulose. The ethylcellulose is introduced into the chocolate as a solution in oil or in a non-aqueous solvent, suitably in an amount of from about 1% to about 3% ethylcellulose by weight. Ethylcellulose oleogels may also be used to replace a portion of the oils and fats normally present in chocolate and/or to formulate fillings for filled chocolates exhibiting reduced oil migration. Also provided are methods of making chocolate compositions according to the invention.

The invention is a chocolate confectionery preparation method improving with good taste and texture, and chocolate confectionery. The method comprises steps of: molding chocolate balls; forming a first coating layer by coating the chocolate balls with a first coating solution, and sprinkling weak flour on the same; drying the first coating layer; forming a second coating layer by coating the first coating layer with a second coating solution, and mixing and sprinkling weak flour and pregelatinized starch; forming a third coating layer by coating the second coating layer with a third coating solution, and mixing and sprinkling weak flour and pregelatinized starch; forming a fourth coating layer by coating the third coating layer with the sugar liquor and sprinkling weak flour on the same; roasting a half-finished product having the fourth coating layer; and sweetening the roasted half-finished product.