This report refers to an innovative assembling system for floating platforms. Such system is used in platforms with floating, plastic-made, rectangular modules, also known as “pier”. As a highlight from the inventive point of view, we should remark the new disposition versatility since it allows for several physical configurations of the platform, in addition to easiness in assembling and disassembling the modules. Moreover, it should also be mentioned the overall safety offered by the components that constitute such system.
The claimed assembling system has, as a centralizing element, the rectangular block (1). The parallelepiped-shaped rectangular block (1) is connected to the other components through the assembling system, thus configuring the floating platform. There are rings (2) arranged over the rectangular block (1) lateral faces. Each ring is placed at the center of one lateral face of the block, in two different heights in order to enable assembling in different positions.
Since the rings (2) are placed at the center of the rectangular block (1) lateral faces, the assembling can be performed by means of a pin (5), only two blocks at a time, in such a way that the platform assembling gets easier while the overall structure gets more rigid than competing models in the market. The models that enclose the prior art have flanges in all four corners of the block, what leaves to the pin (5) the function of fixing the four blocks at the same time.
The lateral faces of the rectangular block also have cavities (3) and projections (4) (alternatively termed protrusions or saliencies). Both the cavities (3) and the saliencies (4) are arranged in pairs on each one of two of the lateral faces for each rectangular block (1). The cavities (3) and the saliencies (4) constitute one part of the fixing scheme between two rectangular blocks (1) when connecting them to form the platform. The fixation is made by introducing the saliencies (4) into the cavities (3).
Along with the fixation through the cavities (3) and saliencies (4), the assembling system herein exhibited performs the safe junction of the blocks by passing the smaller pin (5) through the rings (2). The smaller pin (5) has a coupling (6) at its bottom end, and grips (8) at its upper end. The grip (8) of the smaller pin (5) passes through the slits (9) placed at the hexagonal structure (10) of the cap (7). By doing so, there will be a connection between the smaller pin (5), the cap (7) and the block (1). Such connection, which configures the main fixation between the blocks (1), can be summarized as follows: The smaller pin (5) uses the coupling (6) to pass through the rings (2) of the blocks (1) being connected. At the upper end, the cap (7), already fitted on the smaller pin (5), is inserted into the semicircles (11), placed at the upper quadrants of the rectangular blocks (1).
To fix the blocks vertically the larger pin (12) (in particular a longer pin) is applied. The employment of the larger (longer) pin (12) follows the same fixation pattern as the smaller pin (5), i.e., it's accomplished by passing of the coupling (6) through the rings (2), then connecting it to the cap (7), and the cap to the semicircle (11) of the blocks (1). The blocks fixation in vertical direction enlarges the possibilities of blocks (1) usage, enabling the assembling of benches, as well as other accessories.
Besides the fixation through the cavities (3), projections (4), rings (2), pins (5 and 12) and cover (7), the modular floating platform system includes a protection bar (13). The protection bar (13) is assembled at the edges of the platform and fixed to the blocks (1) through nuts (14) and bolts (15), connected along the rings (2). The protection bar (13) aims to give greater rigidity to the structure by preventing the flexion movement of the pier when it is submitted to the effect of waves or loads on the surface, as well as to protect against lateral impacts eventually caused to the block (1). An important feature of the protection bar (13) is the existence of two flanges with holes (16) in different height positions, so that one flange may be mounted over the other, consecutively, creating a continuous, stronger structure along the block (1) side.
Another piece of innovation that should be highlighted about the claimed assembling system are the chamfers (17), placed at the upper corners of the rectangular block (1). The chamfers (17) enable the block (1) to be manufactured by the blow process: a master pattern, cast in the form of a vertical pipe (parison) is compressed between the two halves of the mold; the pipe is then inflated with air, assuming the form of the mold. The blow process is different from the rotor-molding process used in the manufacture of plastic floating platform components that enclose the prior art. The blow process prevents the formation of sharp edges in the products, which could affect material thickness and mechanical strength.
For improved finishing of the blocks assembling and enhanced uniformity of the upper surface, free from depressions (18) caused by the collision of four chamfers, a finishing pin (19) has been created. It's placed into hollows (20) immediately under the block (1) chamfer. To allow for such accommodation, the finishing pin (19) has a circular lobule (21) that fits in the aforementioned hollows (20) of the four aligned blocks. The finishing pin (19) may have the upper surface either in the form of a circle or of a rectangle and it can be manufactured as a dense (blow manufacturing process) or ribbed (injection manufacturing process) material.
In order to fully understand the new disposition, the following figures are shown:
FIG. 1—Perspective view of the rectangular block (1)
FIG. 2—Low perspective of the block (1)
FIG. 3—Side section view illustrating the smaller pin (5) fixation on the rings (2)
FIG. 4—Separate view of a grip (8) in the slit (9) of the cap (7).
FIG. 5—Separate view of the smaller pin (5) fixed to the cap (7).
FIG. 6—Lower perspective view of the cap (7).
FIG. 7—Side view of the cap (7).
FIG. 8—Separate view of the smaller pin (5).
FIG. 9—Separate view of the larger pin (12).
FIG. 10—Upper view showing the vertical assembling of blocks through the large pins (12) fixation.
FIG. 11—Side view showing the vertical assembling of blocks through the larger pins (12) fixation.
FIG. 12—Perspective view illustrating the assembly between two blocks (1).
FIG. 13—Perspective view showing the protection bars (13) in the assembly.
FIG. 14—Detailed view highlighting the protection bar (13).
FIG. 15—Separate view of the protection bar (13).
FIG. 16—Upper perspective view highlighting the depression (18).
FIG. 17—Upper perspective view highlighting the upper surface (22) of the finishing pin (19).
FIG. 18—Upper perspective view.
FIG. 19—Separate view of the finishing pin (19).
FIG. 20—Section view showing the insertion of the circular lobule (21), of the finishing pin (19) into the hollow (20) of the block (1).
As it may be verified, the new “disposition introduced into assembling system for floating platforms” presents a creative concept that makes it different from the prior art. Its functional features offer advantages to the target industrial sector, and this grants it the patent right.
Number | Date | Country | Kind |
---|---|---|---|
9100008 U | Apr 2011 | BR | national |
Number | Name | Date | Kind |
---|---|---|---|
5251560 | Ban et al. | Oct 1993 | A |
5529013 | Eva, III et al. | Jun 1996 | A |
6033151 | Tsou | Mar 2000 | A |
7117809 | Lamoureux et al. | Oct 2006 | B2 |
7213531 | Ahern | May 2007 | B2 |
7426898 | Ahern | Sep 2008 | B1 |
8037837 | La Violette et al. | Oct 2011 | B2 |
Number | Date | Country |
---|---|---|
385903 | Sep 1990 | EP |
01273783 | Nov 1989 | JP |
01273784 | Nov 1989 | JP |
Number | Date | Country | |
---|---|---|---|
20120260841 A1 | Oct 2012 | US |