Abstract:
A reflective film structure is provided for being adhered and shaped on multiple processing surfaces of a preformed structural element, in which the processing surfaces form a three-dimensional shape. The reflective film structure includes a thermoplastic adhesive film and a reflective layer. The thermoplastic adhesive film has a thickness ranging from 0.01 mm to 1 mm, and has an internal surface and an external surface. The internal surface is adhered to the processing surfaces. The reflective layer is laminated on the external surface, and massive beads are distributed on an outer surface of the reflective layer. The reflective film structure has a normal direction vertical to the reflective layer. Furthermore, the reflective layer has at least a first and a second reflective region in different directions, which are respectively towards different directions other than the normal direction. The first and the second reflective region are respectively disposed with beads.
Abstract:
A variable massage drive unit includes a rotatable drive shaft disposed uprightly in a hollow casing and having two end portions that extend out of the hollow casing, upper and lower bearings for mounting rotatably the end portions of the drive shaft to the hollow casing, first and second drive gears disposed coaxially on the drive shaft, and first and second one-way clutches provided coaxially on the drive shaft between the drive shaft and a respective one of the drive gears. The drive gears are provided on a respective one of the end portions of the drive shaft between an intermediate portion of the drive shaft and an adjacent one of the upper and lower bearings. First and second thrust bearings are disposed coaxially and respectively on the drive shaft between the intermediate portion of the drive shaft and the first one-way clutch, and between the first one-way clutch and the upper bearing.
Abstract:
An exercise device includes a base, an elongated prop extending upward from the base and having an upper slide groove, a pair of slide pieces movably disposed on opposite sides of the elongated prop in the upper slide groove, a pair of handle pieces provided on the slide pieces, and a cable provided adjacent to the top end of the elongated prop to alternatingly move the slide pieces downward and upward along the upper slide groove. An inclined post connects the elongated prop to the base and supports the former in an upwardly inclining manner. A pair of elongated foot pedals are provided on opposite sides of the elongated prop on top of the base. Each of the foot pedals has a rear end hinged to the inclined post. A pair of vertical adjoining rods join each of the foot pedals to one of the slide pieces. A pair of hydraulic cylinders provide resistance to any movement of the foot pedals. Each of the hydraulic cylinders has a cylinder body hinged to one of the foot pedals and a piston rod pivoted on the inclined post adjacent to the elongated prop.
Abstract:
The exercise device includes a base; an elongated prop extending upward from the base and having an upper and a lower longitudinal slide groove; a first left and a first right slide piece movably disposed on opposite sides of the elongated prop in the upper slide groove, each of the first left and right slide pieces having a handle piece; a second left and a second right slide piece movably disposed on opposite sides of the elongated prop at the lower slide groove, each of the second left and right slide pieces having a foot support piece; a left vertical adjoining plate connecting the first and second left slide pieces; a right vertical adjoining plate connecting the first and second right slide pieces; a pulley and a cable passing over the pulley and having two ends, each of the left and right vertical adjoining plates having a top end attached to one end of the cable; and a pair of hydraulic cylinders, each having a piston rod coupled to one of the second left and right slide pieces, the hydraulic cylinders being hinged to the base.
Abstract:
A reflective film structure is provided for being adhered and shaped on multiple processing surfaces of a preformed structural element, in which the processing surfaces form a three-dimensional shape. The reflective film structure includes a thermoplastic adhesive film and a reflective layer. The thermoplastic adhesive film has a thickness ranging from 0.01 mm to 1 mm, and has an internal surface and an external surface. The internal surface is adhered to the processing surfaces. The reflective layer is laminated on the external surface, and massive beads are distributed on an outer surface of the reflective layer. The reflective film structure has a normal direction vertical to the reflective layer. Furthermore, the reflective layer has at least a first and a second reflective region in different directions, which are respectively towards different directions other than the normal direction. The first and the second reflective region are respectively disposed with beads.
Abstract:
A method for producing an environment protective foamed thermoplastic resin polymer uses an extruder installed inside with a helical rod driven to rotate. The extruder has its interior formed with a feeding section, a melting section, a mixing section and a heating-shaping section. The method includes a plurality of steps, in which thermoplastic resin is heated, melted in the melting section and moved into the mixing section, and hollow expansion balls are fed into the extruder to be evenly mixed with the melted thermoplastic resin. Then the hollow expansion balls are slightly heated and inflated, and after moved into the heating-shaping section, the balls are heated at foaming temperature, foamed and inflated. After injected through a nozzle, the melted thermoplastic resin and the hollow balls together become a foamed thermoplastic resin polymer with a preset thickness and shape.
Abstract:
A method for producing an environment protective foamed thermoplastic resin polymer comprises using an extruder with a helical rod to be driven to rotate. The extruder has a feeding section, a melting section, a mixing section and a heating-shaping section formed therein. The method includes a plurality of steps, in which thermoplastic resin is heated, melted in the melting section and moved into the mixing section, and hollow expansion balls are fed into the extruder to be evenly mixed with the melted thermoplastic resin. Then the hollow expansion balls are slightly heated and inflated, and moved into the heating-shaping section, and then the balls are heated at foaming temperature, foamed and inflated. After being injected through a nozzle, the melted thermoplastic resin and the hollow balls become a foamed thermoplastic resin polymer with a preset thickness and shape.