Patent classifications
B29C63/0073
Sheet sticking apparatus and sheet sticking method
A sheet sticking apparatus 10 includes holding means 13 provided so as to be capable of holding an adhesive sheet S, and sticking means 12 that sticks the adhesive sheet S to an adherend surface W0 of an adherend W. The sticking means 12 includes a first sticking portion 15 capable of sticking a part of the adhesive sheet S held by the holding means 13 to a first sticking surface by pressure, and a second sticking portion 16 that sticks portions of the adhesive sheet S that have not yet been stuck by using the first sticking portion 15 to second sticking surfaces by pressure.
METHOD FOR MANUFACTURING A RESIN-IMPREGNATABLE SHEET-LIKE SPACER FOR A HIGHVOLTAGE COMPONENT, A SPACER MANUFACTURED ACCORDING TO THE METHOD, A HIGHVOLTAGE COMPONENT COMPRISING THE SPACER AND AN ARRANGEMENT FOR PERFORMING THE METHOD
The method is provided for manufacturing a perforated sheet-like high-voltage insulating spacer for a high-voltage component, which component comprises a field grading condenser core with the spacer which is wound in spiral form around an axis, with electrically conducting layers which are inserted between successive windings of the spacer, and with a polymeric matrix which penetrates the spacer and which embeds the spacer and the layers. The method comprises at least steps as follows: an electrically insulating tape, and the patterned tape is expanded at right angle to the cutting lines in order to form a spacer with a perforated three-dimensional lattice structure. The combined effect of cutting a tape and expanding the cutted tape allows the formation of spacers with a manifold of sizes which exceed the size of the tape in function of manufacturing parameters, in particular in function of the configuration of the pattern and the magnitude of the expansion.
Electrical connectors with thin interior walls
An electrical connector with thin interior walls is made by extruding a polymer or polymer composite into a sheet of approximately 0.25 mm to 0.5 mm thickness. The sheet is then calendered to a thickness of about 0.05 mm to 0.3 mm. The calendered sheet is cut into notched sections. The notched sections are assembled and placed into an injection molded housing of a connector. The sections are secured in place by using an adhesive, force fit, snap fit, or welding process to form the thin interior walls of the connector.
Method for Manufactoring a Panelling Member
A method for producing a panelling component for a motor vehicle. The method includes press-forming a fibre-reinforced load-bearing composite component; forming a film having a class-A surface; and joining the load-bearing composite component as a first layer and the film as a second layer via an adhesive as an interposed third layer.
Method of laminating a functional film onto an optical article and optical article
This method of laminating a functional film onto an optical article includes: thermoforming the functional film so as to provide the functional film with a predetermined target curvature based on a curvature of a face of the optical article on which the functional film is to be applied; applying the functional film onto that face of the optical article; pressing the functional film against that face of the optical article so as to adhere the functional film to that face of the optical article. This method further includes heating the functional film at at least one predetermined temperature after the applying, so that the functional film conforms to the curvature of that face of the optical article.
ELECTRICAL CONNECTORS WITH THIN INTERIOR WALLS
An electrical connector with thin interior walls is made by extruding a polymer or polymer composite into a sheet of approximately 0.25 mm to 0.5 mm thickness. The sheet is then calendered to a thickness of about 0.05 mm to 0.3 mm. The calendered sheet is cut into notched sections. The notched sections are assembled and placed into an injection molded housing of a connector. The sections are secured in place by using an adhesive, force fit, snap fit, or welding process to form the thin interior walls of the connector.
Device and method for bonding at least one material segment to a steering device
It is provided a device for bonding at least one material segment to a steering device. The device comprises at least two form fitting segments, wherein at least one of the form fitting segments is movably mounted relative to the at least one other form fitting segment, wherein the form fitting segments are configured in such a way that they can at least sectionally enclose the steering device, in particular the steering wheel rim of the steering device; a receptacle for receiving the steering device; a drive mechanism for moving the at least one movably mounted form fitting segment towards the steering device.
METHOD FOR APPLYING A PROTECTIVE FILM ON AT LEAST ONE PORTION OF A WIND TURBINE BLADE, WIND TURBINE BLADE, AND APPARATUS FOR FORMING A GROOVE ON A SURFACE OF AT LEAST ONE PORTION OF A WIND TURBINE BLADE
The present disclosure provides a method of applying a protective film on at least one portion of a wind turbine blade, a wind turbine blade, and an apparatus for forming a groove on a surface of at least one portion of a wind turbine blade. The method of applying a protective film on at least one portion of a wind turbine blade comprises providing the at least one portion of the wind turbine blade; forming a groove on a surface of the at least one portion of the wind turbine blade, thereby delimiting a first region of the surface of the at least one portion of the wind turbine blade from a second region of the surface of the at least one portion of the wind turbine blade, wherein the first region of the surface of the at least one portion of the wind turbine blade includes the groove; covering the first region of the surface of the at least one portion of the wind turbine blade with a protective film; and pressing an edge region of the protective film in the groove, thereby inserting the edge region of the protective film in the groove.
ANTI-LIGATURE DOOR HANDLE
An anti-ligature door handle is disclosed. The door handle assembly includes a handle, an escutcheon, and a PTFE coating. The door handle assembly is constructed in a manner where a cord or rope cannot readily be anchored to any surface. This is due to the sloping geometry of the door handle assembly along with the low friction coating. The low friction coating may be a sintered and skived sheet of PTFE or a sprayed layer of PTFE that ensures sufficient strength, resilience, and friction properties when applied.
Adjustable molding system for forming material on pipe
A molding system for applying insulation to a pipe employs an elongate mold in which to receive the pipe. A mold adjustment mechanism can adjust a shape of the mold to correspond to a shape of the pipe as the pipe sags in the mold cavity. In a method of insulating the pipe, the shape of the mold is adjusted to correspond to the shape of the sagging pipe and curable material is imparted into the mold while maintaining the adjusted shape of the mold. The elongate mold can include at least one double-walled mold member with an inner form wall, an outer jacket, and a plurality of radial supports that support the outer jacket on the inner form wall in radially spaced apart relation therewith.