A decorative stone panel is provided, which comprises a natural stone panel (1), a ceramic tile (4), a light source (2) and curable transparent adhesive resin (3). The ceramic tile (4) is bonded to the inner surface of the natural stone plate (1). Counter-relies (9) are provided on the inner surface of the natural stone plate (1). The stone thickness at the bottom of the counter-reliefs (9) is 1 mm to 3.5 mm. The counter-reliefs (9) form a counter-relief figure. A cavity is provided between the counter-reliefs (9) and the body of the ceramic tile (4). The light source (2) is provided within the cavity. The cavity is also filled with curable transparent adhesive resin (3) on the side of the counter-reliefs (9) The decorative panel has good light transmitting properties and the light-transmitting surface is less prone to damage.

A system for crown molding that enables safely incorporating electrical and communications cabling within crown molding by creating one or more protected paths which inherently prevent overly sharp bends in crown molding corners and by mitigating damage from penetrating punctures through a decorated face designed to fracture when improperly penetrated by a screw or nail, and enables the secure installation of hardware either concealed within the molding or securely and favorably positioned through the decorative face to view or sense a room, and enables additional cable capacity that is concealed within a light reflector to increase lighting efficacy as well as power and data delivery capacity.

The present application provides a floor board unit, a floor board and an IoT home system. The floor board unit includes a floor board body which can switch between a light-transmissive state and a light-tight state, a floor board controller, a light emitting layer and at least one first sensor. The light emitting layer is below the floor board body. An output terminal of the first sensor is electrically coupled to an input terminal of the floor board controller. The light emitting layer is configured to emit incident light towards the floor board body. The floor board controller is configured to control the floor board body to be in the light-transmissive state when the light emitting layer emits the incident light. The first sensor receives reflected light obtained after the incident light is reflected and transmit a signal indicating an intensity of the reflected light to the floor board controller.

A three-dimensional surface covering system includes a surface mounting system configured to bond to a mounting surface, the surface mounting system having a panel to secure to the mounting surface; an attachment system; and an aesthetical covering removably secured to the panel via the attachment system; the aesthetical covering can be removed and changed as desired.

An ornamental beam includes a sleeper and a cover. The sleeper preferably has a plurality of sleeper support ribs that may have a bore therethrough. The cover preferably has a plurality of cover support ribs. When the ornamental beam is assembled with the cover covers the sleeper. A method for installing the ornamental beam is also described.

A retail display table includes a table top with openings, and a modular display mat disposed over each opening. Each of the modular display mats is movable between a closed position in which it covers its respective table-top opening, and an open position in which it is lifted above the table top so that a cavity underneath the modular display mat is accessible. Also, each modular display mat has holes to accommodate a configuration of displayed items, and is removable and replaceable with another modular display mat having a different configuration of holes to accommodate a different configuration of displayed items. A retail display system may include such a retail display table, along with other modular retail fixtures such as display walls with modular display wall inserts and retail counter units with modular display mats interchangeable with those of the retail display table.

A solar brick with a smart control system is provided with movement and position sensing and NFC-enabled communications capabilities. The smart control system of the solar brick enables the solar brick to be transported and installed beyond the conventional uses of a typical brick as the solar brick can be used and operated in walls, stairs, pools and other operational environments conceived by the user. The solar brick may include waterproof casing and harvests solar energy and converts it into electric energy by means of one or more internal photovoltaic cells. The use of renewable energy made possible by the solar brick is directed to environmental preservation. The smart control system of the solar brick comprises electronic circuitry embedded with a microcontroller which manages all operational and control functions and parameters of the solar, coupled to an electronic integrated circuit with an accelerometer which enables movement and position sensing of the solar brick, and an NFC interface circuit located in an NFC sensitive area for communication with a user. Auxiliary circuits may be controlled by the microcontroller and provide operational and control parameter information such as battery and photovoltaic cell charge and control the LEDs. The solar brick may have several mechanical formats to cater to the user's diverse needs. The NFC interface circuit located in the NFC sensitive area provides the user access to operational and control parameter information of the solar brick such as actual battery level, illumination mode and LED colors used. To access said information, the user may use an NFC-enabled communication mobile or specific device or may prefer to use a specific reader.

A system for crown molding that enables safely incorporating electrical and communications cabling within crown molding by creating one or more protected paths which inherently prevent overly sharp bends in crown molding corners and by mitigating damage from penetrating punctures through a decorated face designed to fracture when improperly penetrated by a screw or nail, and enables the secure installation of hardware either concealed within the molding or securely and favorably positioned through the decorative face to view or sense a room, and enables additional cable capacity that is concealed within a light reflector to increase lighting efficacy as well as power and data delivery capacity.

The invention pertains to a modular presentation system for the display and support of goods and a build-up method therefor. The system comprises floor tiles, blocks, and cover plates. Two floor tiles can be interconnected by placing the two floor tiles adjacent and subsequently mounting a connection piece in connection recesses provided in the two floor tiles. Floor tiles, blocks, and cover plates are configured to clamp on top of floor tiles and blocks. The present invention allows to quickly and efficiently build up the modular presentation system.

A lamp and a hardscape structure illuminated by the lamp are disclosed. The lamp is formed from a plate to which a light fixture is attached. The plate may have a flange, a decorative face plate and side panels attached to direct light from the fixture along the hardscape on which the lamp is mounted. Mounting is effected by positioning the plate between discrete hardscape elements that are stacked one atop another. A portion of the plate projects out from the structure allowing the fixture to cast light on the structure surface. A light transmitting cover is also provided.