An interface device, coloring agent and method for imparting color to food material during the decorating of foods. This interface device, coloring agent and method for imparting color to food material during the decorating of foods can be used to impart color from solid, liquid or semi-liquid coloring compounds to a wide variety of food material such as frosting and icing.

A method for manufacturing a closure constructed to be inserted and securely retained in a neck of a product-retaining container includes intimately combining a plurality of coated particles (each comprising a cork material core and a first plastic material) with a second plastic material, and other optional constituents; heating the composition to form a melt; extruding or molding a closure precursor from the melt; and optionally cutting and/or finishing the closure precursor. A composition for use in manufacturing a closure includes a plurality of coated particles (each comprising a cork material core and a first plastic material) with a second plastic material, and one or more blowing agents. Methods for producing particulate material, cork composite material, and additional method for producing closures are also provided.

A method for manufacturing a closure constructed to be inserted and securely retained in a neck of a product-retaining container includes intimately combining a plurality of coated particles (each comprising a cork material core and a first plastic material) with a second plastic material, and other optional constituents; heating the composition to form a melt; extruding or molding a closure precursor from the melt; and optionally cutting and/or finishing the closure precursor. A composition for use in manufacturing a closure includes a plurality of coated particles (each comprising a cork material core and a first plastic material) with a second plastic material, and one or more blowing agents. Methods for producing particulate material, cork composite material, and additional method for producing closures are also provided.

A solid-state manufacturing method comprising urging a metal-based feedstock material within a sleeve of a propulsion system in a processing direction along an axis of the sleeve and against a friction die adjacent one end of the sleeve; softening at least a portion of the feedstock material within the hollow portion of the sleeve to a malleable state to form malleable feedstock material using relative rotatory friction between the friction die and the feedstock material; extruding the malleable feedstock material from an extrusion hole in response to the urging step; and depositing the malleable feedstock material from the extrusion hole onto a substrate as a paste using at least one plastering surface and continuing depositing the malleable feedstock material as deposit layers until a desired shape is completed.

A solid-state manufacturing method comprising urging a metal-based feedstock material within a sleeve of a propulsion system in a processing direction along an axis of the sleeve and against a friction die adjacent one end of the sleeve; softening at least a portion of the feedstock material within the hollow portion of the sleeve to a malleable state to form malleable feedstock material using relative rotatory friction between the friction die and the feedstock material; extruding the malleable feedstock material from an extrusion hole in response to the urging step; and depositing the malleable feedstock material from the extrusion hole onto a substrate as a paste using at least one plastering surface and continuing depositing the malleable feedstock material as deposit layers until a desired shape is completed.

The invention relates to water-soluble marking compositions comprising alcohol alkoxylates having 40 to 160 ethoxy units and derived from a primary alcohol having a chain length between 20 and 30 carbon atoms.

The invention relates to water-soluble marking compositions comprising alcohol alkoxylates having 40 to 160 ethoxy units and derived from a primary alcohol having a chain length between 20 and 30 carbon atoms.

Polyethylene compositions described herein have a density from about 0.900 g/cm.sup.3 to about 0.950 g/cm.sup.3, a MI (I.sub.2, 190° C., 2.16 kg) from about 0.1 g/10 min to about 10 g/10 min, an MIR (I.sub.21/I.sub.2) from about 25 to about 80, an M.sub.z greater than or equal to about 150,000 g/mol, and either an M.sub.z/M.sub.n ratio greater than or equal to about 8.0, an M.sub.z/M.sub.w ratio greater than or equal to about 2.4, or an (I.sub.2*M.sub.z/M.sub.n) from about 3 to about 100. The polyethylene compositions are useful in wire and cable, tape, and filament applications, and could be produced using a gas phase or slurry phase, preferably gas phase, polymerization process.

Polyethylene compositions described herein have a density from about 0.900 g/cm.sup.3 to about 0.950 g/cm.sup.3, a MI (I.sub.2, 190° C., 2.16 kg) from about 0.1 g/10 min to about 10 g/10 min, an MIR (I.sub.21/I.sub.2) from about 25 to about 80, an M.sub.z greater than or equal to about 150,000 g/mol, and either an M.sub.z/M.sub.n ratio greater than or equal to about 8.0, an M.sub.z/M.sub.w ratio greater than or equal to about 2.4, or an (I.sub.2*M.sub.z/M.sub.n) from about 3 to about 100. The polyethylene compositions are useful in wire and cable, tape, and filament applications, and could be produced using a gas phase or slurry phase, preferably gas phase, polymerization process.

A placement device for placing optoelectronic components on electrical lines includes a holding device for holding at least one electric line extending in a longitudinal direction, and an application device for arranging optoelectronic components on the at least one electrical line.