An enclosure for housing electrical equipment is disclosed. The enclosure is produced by thermoforming four separate pieces or bodies together to form the top and bottom of the enclosure. The enclosure is made of a moldable material, such as plastic or fiberglass.

An enclosure for housing electrical equipment is disclosed. The enclosure is produced by thermoforming four separate pieces or bodies together to form the top and bottom of the enclosure. The enclosure is made of a moldable material, such as plastic or fiberglass.

A hot stamping apparatus and a hot stamping method are for collectively decorating a plurality of decoration objects using a decorative sheet. In a hot stamping apparatus, an upper chamber and a lower chamber are partitioned by a partition sheet and pressing bodies, so that decorative sheet pieces can be used instead of a decorative sheet having a large area. Then, by using the decorative sheet pieces, local thermal deformation can be prevented. A usage amount of the decorative sheet can be reduced, and three-dimensional decoration can be implemented as needed on a portion requiring decoration.

A hot stamping apparatus and a hot stamping method are for collectively decorating a plurality of decoration objects using a decorative sheet. In a hot stamping apparatus, an upper chamber and a lower chamber are partitioned by a partition sheet and pressing bodies, so that decorative sheet pieces can be used instead of a decorative sheet having a large area. Then, by using the decorative sheet pieces, local thermal deformation can be prevented. A usage amount of the decorative sheet can be reduced, and three-dimensional decoration can be implemented as needed on a portion requiring decoration.

A gripper for a draping frame having a gripper chassis and at least two opposing mutually movable gripper jaw elements for gripping a film element are disclosed. The gripper jaw elements are provided on a gripper head part of the gripper and the gripper head part of the gripper being movably mounted, at least with one degree of freedom, relative to the gripper chassis.

A method of forming an optical element includes providing a forming insert in a thermoforming apparatus, the forming insert including a plurality of microstructures formed on a forming surface of the forming insert; heating the forming insert to a first predetermined temperature; disposing an element comprised of a polymer material in the thermoforming apparatus and in contact with the forming surface of the forming insert; and thermoforming, via the forming surface of the forming insert, the element, the molded element having microstructures formed on a surface thereof.

A method of forming an optical element includes providing a forming insert in a thermoforming apparatus, the forming insert including a plurality of microstructures formed on a forming surface of the forming insert; heating the forming insert to a first predetermined temperature; disposing an element comprised of a polymer material in the thermoforming apparatus and in contact with the forming surface of the forming insert; and thermoforming, via the forming surface of the forming insert, the element, the molded element having microstructures formed on a surface thereof.

An apparatus for making a container (2) which comprises an outer skeleton (6), which includes at least one first sheet (8) and one second sheet (9), and a layer of thermoplastic material (7) the apparatus (1) comprising a conveying element (15) which defines a housing (22), which is mounted on a supporting structure (11) and which is movable along a movement path (16) which extends from an infeed station (17) to an outfeed station (18), along the movement path (16) the apparatus (1) having a first feeding station (19), a second feeding station (20), and a thermoforming station (21) placed downstream of the feeding stations, the apparatus also comprising a first feeding device (23) at the first feeding station (19) and configured to insert the first sheet (8) into the housing (22), a second feeding device (24) at the second feeding station (20) and configured to insert the second sheet (9) into the housing (22), and a thermoforming device (31) at the thermoforming station (21) and configured to thermoform a thermoplastic material (10) on the first sheet (8) and on the second sheet (9).

A method for forming thermoplastic composites includes: (a). cutting a thermoplastic film and a cloth material, with the thermoplastic film including a surface layer and an adhesive layer, and with a melting point of the surface layer higher than the adhesive layer; (b). placing the thermoplastic film on a platform of a molding machine, facing the adhesive layer upwardly, and covering the cloth material on the thermoplastic film, with the platform including a plurality of channels defined therein, a plurality of concave and convex patterns arranged on a top surface thereof, and plural pores evenly formed on the top surface thereof and communicating with the plurality of channels; and (c). heating the thermoplastic film by using a heating unit to melt the adhesive layer and to soften the surface layer.

The present invention is directed to a modified polypropylene comprising from 0.3 to 2 long-chain branches per 1,000 carbon atoms, wherein said long-chain branch has more than 1,000 carbon atoms and 0 to 6% of ethene and/or alpha-olefinic comonomer having 3 to 18 carbon atoms. The polypropylene of the present invention is a homopolymer, a random copolymer, or a heterophasic copolymer. The present invention also relates to large, deep, complex and/or thick articles which are thermoformed from said polypropylene. Furthermore, the present invention relates to the process for thermoforming said modified polypropylene into large, deep, complex and/or thick articles. The present invention also relates to the use of the polypropylene to prepare large, deep, complex and/or thick articles.