B27D1/08

Pole For Supporting A Cable And Method Of Manufacturing The Pole
20180243935 · 2018-08-30 ·

A pole for supporting a cable. The pole includes a plurality of truncated cones arranged in a linear array to form the pole, wherein each truncated cone receives an adjacent truncated cone within its interior. Each truncated cone in the pole is formed from a veneer by moving the longitudinal edges of the veneer towards each other. A method of manufacturing the pole and various uses of the pole are also provided.

PREPARATION METHOD FOR VENEER MANUFACTURED BOARD

Disclosed herein is a method for efficiently producing formaldehyde-free veneer manufactured boards, comprising steps of: using wood or non-wood veneer as a raw material; controlling the moisture content of the veneer to within an appropriate range; first applying an accelerant and then applying an isocyanate adhesive; then assembling the veneer into a slab according to a certain rule; carrying out microwave preheating on the slab; and feeding the slab into a hot pressing mechanism to obtain aldehyde-free veneer manufactured boards. In the present method, the process for producing aldehyde-free veneer manufactured boards is simple and easy to implement, hot-pressing production efficiency is high, and the mechanical properties of the boards are excellent.

PREPARATION METHOD FOR VENEER MANUFACTURED BOARD

Disclosed herein is a method for efficiently producing formaldehyde-free veneer manufactured boards, comprising steps of: using wood or non-wood veneer as a raw material; controlling the moisture content of the veneer to within an appropriate range; first applying an accelerant and then applying an isocyanate adhesive; then assembling the veneer into a slab according to a certain rule; carrying out microwave preheating on the slab; and feeding the slab into a hot pressing mechanism to obtain aldehyde-free veneer manufactured boards. In the present method, the process for producing aldehyde-free veneer manufactured boards is simple and easy to implement, hot-pressing production efficiency is high, and the mechanical properties of the boards are excellent.

Method for making a decorative multilaminar veneer

A method for making a decorative multilaminar veneer with accentuated curvilinear shapes consists of the steps of: obtaining sheets of wood from a log of wood or from a block of multilaminar wood; superimposing and permanently sticking the sheets of wood on top of one another to form a plurality of packets of sheets of wood; providing a plurality of male molds and at least one female countermold, wherein each male mold has a convex curvilinear profile with different curvature radiuses of one mold with respect to the other and wherein the female countermold has a concave curvilinear profile; arranging, pressing and permanently sticking together several packets, in sequence and superimposed, between the female countermold and in sequence the male molds to deform in a curvilinear manner the packets, replacing in sequence, upon the reaching of a preset height of the superimposed, joined and deformed packets a male mold with a profile with a greater curvature radius with a successive male mold with a profile with a lesser curvature radius; obtaining a sliceable block formed by said superimposing, joining and deforming of packets of the sheets of wood; slicing said block to obtain a decorative multilaminar veneer.

Method for making a decorative multilaminar veneer

A method for making a decorative multilaminar veneer with accentuated curvilinear shapes consists of the steps of: obtaining sheets of wood from a log of wood or from a block of multilaminar wood; superimposing and permanently sticking the sheets of wood on top of one another to form a plurality of packets of sheets of wood; providing a plurality of male molds and at least one female countermold, wherein each male mold has a convex curvilinear profile with different curvature radiuses of one mold with respect to the other and wherein the female countermold has a concave curvilinear profile; arranging, pressing and permanently sticking together several packets, in sequence and superimposed, between the female countermold and in sequence the male molds to deform in a curvilinear manner the packets, replacing in sequence, upon the reaching of a preset height of the superimposed, joined and deformed packets a male mold with a profile with a greater curvature radius with a successive male mold with a profile with a lesser curvature radius; obtaining a sliceable block formed by said superimposing, joining and deforming of packets of the sheets of wood; slicing said block to obtain a decorative multilaminar veneer.

High-frequency hot-pressing continuous automatic production line for dimensional bamboo timbers, and production method thereof

High-frequency hot-pressing continuous automatic production lines for dimensional bamboo timbers, and production methods thereof are provided. The production line can include a clip-up store and feeding mechanism fixed with one end of a three-roller type gluing system. An other end of the three-roller type gluing system is fixed with one end of a system for loading, layer up and stacking non-glued bamboo sheets. The outer side edge of the system for loading, layer up and stacking non-glued bamboo sheets is connected to a front inner end of a plate stack conveying system. A high-frequency press and high-frequency generator system is located at a rear inner end of the system for loading, layer up and stacking non-glued bamboo sheets.

High-frequency hot-pressing continuous automatic production line for dimensional bamboo timbers, and production method thereof

High-frequency hot-pressing continuous automatic production lines for dimensional bamboo timbers, and production methods thereof are provided. The production line can include a clip-up store and feeding mechanism fixed with one end of a three-roller type gluing system. An other end of the three-roller type gluing system is fixed with one end of a system for loading, layer up and stacking non-glued bamboo sheets. The outer side edge of the system for loading, layer up and stacking non-glued bamboo sheets is connected to a front inner end of a plate stack conveying system. A high-frequency press and high-frequency generator system is located at a rear inner end of the system for loading, layer up and stacking non-glued bamboo sheets.

System For Producing A Three-Dimensionally Deformed Plate
20240375311 · 2024-11-14 ·

A system for manufacturing a three-dimensionally deformed plate made of a wood fiber material comprises a preheating station, a wetting device, and a molding station including two rollers spaced apart for receipt of a preheated and wetted flat wood fiber material plate therebetween. The rollers respectively include an external surface including a wave-shaped profiling in the peripheral direction, wherein the respective profiling has half-waves which follow one another in the peripheral direction, and which have a different extension in the peripheral direction

FOLDABLE COMPOSITE MATERIAL SHEET AND STRUCTURE
20180086021 · 2018-03-29 ·

A composite material and structure. The structure has a folded sheet having a rigid inner layer sandwiched between flexible outer layers. The sheet has an undulated shape with alternating summit and valley portions. Intermediate portions each extend between adjacent summit and valley portions. At least one score line extends through at least one of the flexible outer layers. The sheet is folded about the at least one score line. A method of forming a structure from a sheet having an undulated shape

METHOD OF MANUFACTURING CROP STRAW FIBER BOARD

A method of manufacturing crop straw fiber board includes the following steps: (1) mashing and choosing the straws with the length of 10-40 mm and the moisture content of 20%-30% as raw materials; (2) sending the raw materials into a digester (5) to digest and soften the straws; (3) sending the raw materials into a defiberator (7) and grinding to obtain straw fibers; (4) sending the straw fibers into a liquid applying system to mix with the adhesive, then drying with hot wind; (5) paving the straw fibers, then pre-pressing to obtain a plate blank with the thickness of 30-180 mm; (6) sending the plate blank into No. 1 hot press (8) to dehydrate; (7) sending the plate blank to No. 2 hot press (9) to adhere the plate blank; (8) sending the plate blank to No. 3 cold press (10) to shape the plate blank; (9) trimming and sanding the plate blank to obtain the fiberboard. Any crop straws could be used for the method.