A shock absorbing mat/tile comprises a body having a generally planar, major top surface and an opposite bottom surface and a plurality of shock absorbing members depending from the bottom surface. At least one of the shock absorbing members has at least one relief formation formed therein configured to accommodate lateral expansion of the shock absorbing member during axial compression thereof.

In one aspect, a smart corner is provided that can be prefabricated. The smart corner comprises a rear side including a first hole, a first side including a second hole, a second side including a third hole, and a top. A wall frame is also provided. The wall frame includes a top plate, a bottom plate, studs, and four smart corners. A framing system is also provided comprising at least two wall frames. The at least two wall frames connect via the smart corners.

A floor panel is provided including a floor chassis, an acoustic-mat layer and a gypsum concrete layer. The floor panel may be prefabricated and quickly installed on the job site thereby cutting construction time and costs.

An acoustical vinyl tile having an integral acoustical layer is disclosed. The vinyl tile includes a vinyl portion and an acoustical portion. The acoustical portion may comprise a crumb rubber component and a polyurethane foam component. The acoustical portion can include 10-40% crumb rubber and 60-90% polyurethane foam. The acoustical portion may comprise a plurality of individual layers, the combination of which is customized to the particular sub-floor structure to which the tile will be adhered or overlain. The individual layers of the acoustical portion can include any of a variety of combinations of rubber, cork, polyurethane foam, and the like. The resulting tile meets one or more of ASTM E 2179, ASTM E 989, ASTM E 492, and ASTM E1007 IIC sound requirements. A method of designing the disclosed tile to suit a particular flooring application is also disclosed. Other embodiments are described and claimed.

The present disclosure relates to a floor panel, comprising a laminate of a core layer, comprising a ceramic or mineral material and a binder a first pair of opposite edges, said first pair of opposite edges comprising complementary coupling parts allowing to mutually couple of plurality of floor panels to each other, a top layer, comprising a ceramic material or a natural stone, wherein the side of the core layer facing the top layer comprises a reinforcement layer, locally having a higher density than the density of the rest of the core layer.

Sound absorbing or attenuating laminate flooring materials are provided, which are directed to be used in the production of floor covering, floor panels, furniture panels, cabinets, counter-tops and wall panels. As well, the methods for producing such products are provided. In particular, abrasion resistant panels, with a laminated structure, created by forming an assembly which consists of laminating a heat-activated resin impregnated paper wear layer, a decorative layer with printed graphics or a wood veneer decorative layer, a medium density (MDF) or high-density (HDF) natural fiber-based core and a resin impregnated paper balancing layer. To achieve sound absorbing and/or attenuating properties, any or all paper layers may be pre coated with an additional flexible elastomeric coating, film or material prior to assembly of the panel, or the natural fiber core panel may be coated with a flexible elastomeric coating, film or material prior to assembly with the papers. The flexible elastomeric coating, film or material acts to absorb, reduce, and/or ameliorate the sound transmissions inherent in laminated panels.

A flooring assembly comprising a flooring unit comprising a stability core layer having a plurality of edge surfaces, two of which have an interlocking mechanism for attachment to the edge surfaces of the stability core of adjacent flooring units, and a sound attenuating acoustic layer attached to the bottom surface of the stability core layer.

The invention relates to a multi-layer panel for producing a floor covering exhibiting sound-insulating properties, of which at least one of the layers is made from PVC, the said panel comprising male-female means for connecting or assembling several panels together, the said panel comprising at least one decorative layer bonded to a backing layer, the latter being bonded to a nonwoven textile sublayer intended to be in contact with the ground with a thickness of between 0.5 mm and 3 mm.

The present invention provides an elastic plastic layer that is moisture proof and sound insulation and its production method. The elastic plastic layer that is moisture proof and sound insulation comprises a wear resistant layer, a decoration layer, a first backing material layer and a moisture proof and sound insulation layer. The adjacent layers are connected in turn by the order. The present invention provides the floor that is not only with the function of sound insulation, sound absorption, moisture proof, heat preservation, slightly flipping feet, resistance to press, acid and alkali resistance, but also with the positive effect that is low cost, easy molding, good in mechanical properties, and it is also good in laying effect, inflaming retarding, anti-skidding, easily laying, except that, since the wear resistant layer of the floor is coated with the ultraviolet-curable coating, so that it further improves the scratch-resistant property of the floor.

An impact damping mat comprises a plurality of layers arranged in a stacked formation. The stacked formation has a total thickness of no greater than 4 7/16 inches. The plurality of layers cooperate to provide the impact damping mat with at least one of a coefficient of restitution no greater than 30% and a selected sound reduction characteristic. The selected sound reduction characteristic can be a reduction of a maximum sound level of at least 5 dB from 40 to 63 Hz octave bands and at least 13 dB at and above 80 Hz octave bands normalized to a conventional inch rollout rubber flooring product.