A roof greening, wind breaking and vibration suppressing apparatus, and a building. The roof greening, wind breaking and vibration suppressing apparatus comprises a plant container (11) and a buffering device (20). The buffering device (20) comprises elastic vibration isolation components (21) and damping buffer components (22). Soil (12), water (14), fertilizers (13), a plant and the plant container (11) constitute an inertial body (10). The inertial body (10), the elastic vibration isolation components (21), and the damping buffer components (22) constitute a system mounted on a building. When an earthquake and strong wind strike, the inertial body (10) moves with respect to the building under the action of inertia, each elastic vibration isolation component (21) and each damping buffer component (22) absorb energy and achieve the effect of vibration isolation, passive energy dissipation or tuned vibration absorption, thereby enhancing the earthquake resistance and wind-breaking capability of the building, and expanding the conventional roof greening function.

A hollow brick includes a bottom wall, two side walls projecting from the bottom wall, a plurality of intermediate walls projecting from the bottom wall between the side walls, a top wall opposite to the bottom wall and connecting the side walls and the intermediate walls, and a plurality of ventilation holes bounded by the bottom wall, the side walls, the intermediate walls and the top wall. The bottom wall has a plurality of foot portions projecting downwardly and spaced apart from each other. A bottom groove is formed between two adjacent ones of the foot portions.

In one aspect of a bottom indexing tile and support structure, a bottom indexing support structure may be engaged with a top portion of a pedestal. The bottom indexing support structure may be formed with a generally vertical spine having at least one rail extending outward from a distal end thereof and may also include one or more ridges extending upward in a direction parallel to the spine. The spine and rail(s) may be configured to secure one or more bottom indexing tiles, which tiles may be formed with a groove on at least one edge thereof, and wherein one or more rails may be positioned within the groove. The bottom indexing tile may be formed with one or more channels on a bottom surface thereof, wherein each channel may correspond with a ridge of the bottom indexing support structure.

A secured paver tile system comprises one or more paver tiles, one or more locking plates or pins, one or more pedestals for placement under the paver tiles and a screw or bolt. The paver tiles have one or more cavities adapted to receive the locking plate or pin. The locking plate or pin has an aperture adapted to receive the screw or bolt. The pedestal is adapted to receive said screw or bolt. The locking plate or pin may be a pin or a plate having 2 or more arms. The arms may optionally have secondary apertures to augment the holding capacity of the system. A method of securing paver tiles in a manner that satisfies high wind requirements of building codes includes inserting said one or more locking plates or pins in said at least one cavity, inserting said bolt or screw in the one or more locking plates or pins, and inserting said bolt or screw into said pedestal. The cavities may be additionally filled with an adhesive such as thin set mortar for example.

A ventilating and heat dissipating assembly for a roof includes hollow bricks, first corrugated plates and second corrugate plates. Each first corrugated plate spans a gap between two pairs of the hollow bricks that are spaced apart along intersecting first and second directions. Each second corrugated plate spans a gap formed between two of the hollow bricks spaced apart in the first direction and a gap between two of the first corrugated plates spaced apart in the second direction.

Systems and modular devices for roof or ground-level stormwater management are disclosed. A modular stormwater management device includes a water retention mat structured to absorb stormwater, a rigid frame structured to support the water retention mat, and a perforated surface structured to permit drainage of the stormwater from the water retention mat through the perforated surface. A modular stormwater management system includes a plurality of modular stormwater management devices, each of the modular stormwater management devices including a water retention mat structured to absorb stormwater, a rigid frame structured to support the water retention mat, and a perforated surface structured to permit drainage of the stormwater from the water retention mat through the perforated surface.

A corrugated plate assembly includes at least two corrugated plates each having a crest portion. The crest portion is asymmetric and includes first and second arcuate ends, two longitudinal lateral sides connected between the first and second arcuate ends and two indentations indented from the first and second arcuate ends. The second arcuate ends of the corrugated plates are interconnected in such a manner that the indentations of the second arcuate ends are intersected each other and that the second arcuate ends overlap with each other. Ventilation gaps are formed between overlapping parts of the second arcuate ends.

The present disclosure provides a paver lockdown system that prevents strong wind from uplifting pavers from pedestals installed on rooftops.

The present disclosure provides a paver lockdown system that prevents strong wind from uplifting pavers from pedestals installed on rooftops.

A corrugated plate assembly includes at least two corrugated plates each having a crest portion. The crest portion is asymmetric and includes first and second arcuate ends, two longitudinal lateral sides connected between the first and second arcuate ends and two indentations indented from the first and second arcuate ends. The second arcuate ends of the corrugated plates are interconnected in such a manner that the indentations of the second arcuate ends are intersected each other and that the second arcuate ends overlap with each other. Ventilation gaps are formed between overlapping parts of the second arcuate ends.