The present invention discloses a collapsible metal planter. The planter has a plurality of wall sections. Each wall section side portion has a first end portion and an opposing second end portion. The end portions are angularly disposed inwards. Each first end portion has a first edge with a V-shaped notch positioned in vertical orientation. Each second end portion has a second edge with a V-shaped notch positioned in vertical orientation opposite to that of the first edge notch. The first edge notch and second edge notch form a square orifice when the first end portion of a wall section is placed in abutment with the second end portion of an adjacent wall section. The square orifice is receivable of a fastener to secure the adjacent wall sections together.

A plate-to-plate connecting structure includes a first plate piece and a second plate piece. The first plate piece and the second plate piece have a first concave/convex connecting side and a second concave/convex connecting side connected with a corresponding concave/convex means; the first concave/convex connecting side has a first top edge and a second bottom edge, and the second concave/convex connecting side has a second top edge and a second bottom edge; the first top edge and the first bottom edge have top concave parts and bottom concave parts; the second top edge and the second bottom edge have top convex parts and bottom convex parts; the top convex parts are protruded into the corresponding top concave parts for forming a mutual blocking status; and the bottom convex parts are protruded into the corresponding bottom concave parts for forming the mutual blocking status.

Provided is a furniture part assembly that includes a fitting and a panel. The panel is provided with a first engaging structure, and the fitting is provided with a second engaging structure configured to engage with the first engaging structure and thereby connect the fitting and the panel in a detachable manner. A piece of furniture having the furniture part assembly is also provided.

A panel, which, at two opposite edges, is provided with coupling parts that allow joining by a downward movement, the coupling parts including a male part that fits in a female part, wherein vertically active locking portions are provided at opposite sides of the male part and female part, wherein these locking portions are located at different distances from an upper side of the panels.

Panels are shown which are provided with a mechanical locking system allowing perpendicular connection with a snap action. A set of panels including a first and a second panel, an edge of the second panel is insertable into a groove of the first panel, when the panels are arranged essential perpendicular to each other, to obtain a mechanical connection between the first and the second panel, when the second panel is displaced essentially perpendicularly to the first panel.

The invention relates to a floor panel, in particular a laminated floor panel. The invention also relates to a floor covering consisting of a plurality of mutually coupled floor panels according to the invention. The invention further relates to a method for mutually coupling two floor panels, in particular laminated floor panels, according to the invention.

A composed element includes at least two panel-shaped elements, which each have an edge zone in which coupling means are present in a profiled part respectively extending in the longitudinal direction of the respective edge zone, and each including an end face extending transversely to the respective edge zone. The profiled parts allow the coupling of the panel-shaped elements together in an interlocking manner. At least one of the panel-shaped elements includes an arrangement which hides from view at least a portion of the profiled part formed at the pertaining edge zone at the location of the end face.

An assembled structure includes multiple first assembling units, each of the first assembling units comprising main body parts and connection parts, wherein the main body parts have a profile shape of a polygon having 6n equal-length sides, wherein n is a positive integer; and the connection parts are provided on each equal-length side of each main body part; and the connection parts on each equal-length side are connected to each neighboring first assembling unit by a sliding pair, and the sliding direction of the sliding pair is the same as the extension direction of the sliding pair on the equal-length side on which the sliding pair resides.

A mounting assembly (150) for supporting objects, the mounting assembly (150) comprising: at least two adjacent mounting panels (100), each of the mounting panels (100) having a first front surface (102), a second rear surface (104) and a peripheral edge extending between the first front surface (102) and the second rear surface (104); at least one recess (106) provided by the peripheral edge of each of the mounting panels (100), the at least one recess (106) of each of the mounting panels extending from the first front surface (102) towards the second rear surface (104); at least one aperture (108) in the first front surface (102) of each of the mounting panels (100); at least one key (114); and at least one mounting support (326) receivable in the at least one aperture (108) of either of the mounting panels (100), the at least one mounting support (326) configured to support one or more objects. The recesses (106) of the adjacent mounting panels (100) align to form a keyhole (115) and the key (114) is inserted into the keyhole (115) in a direction generally perpendicular to the first front surface (102) thereby interlocking the adjacent mounting panels (100) together.

The modular panel 20 interlocking and reinforcing mechanism for building enclosures pertains to assembling boxes 21 with six of the same or similar modular panels 20 without extra components or connectors. My mechanism joins modular panels 20 by interlocking both grooves 22 attached by living hinges 24 on the panel edges, thus creating the box 21. The embodiment of my mechanism joins modular panels 20 by interlocking both grooves 22 attached by living hinges 24 on the panel edges, thus creating the box 21. The living hinges 24 allow all the grooves 22 to turn forty five degrees at the corners. Upon interlocking both grooves 22 to each other at a forty five degree angle, it completes the ninety degree dihedral angle transition from one panel 20 to another for corners. Another embodiment of my mechanism is to assemble a box 21 in expanded sizes by using the same or similar modular panels 20 without extra accessories. Modular panels are connected side by side to expand the flat surface or transitioning to a ninety degree angle at the box corners. An additional embodiment of my mechanism includes similar sized reinforcing rods 30 embedded in the interlocked grooves 26, which allows them tightly interlock together and strengthen the box 21. One type of the interlocking groove 22 mentioned above is round with a narrower outer opening than the inner width.