An automated card dealer assembly includes a gaming table that has a plurality of chairs is positioned around the gaming table for having a player sit on the chairs. Each of the chairs is assigned a respective one of a plurality of gaming spots at the gaming table. A card dealing unit is positioned on the gaming table and the card dealing unit contains at least one deck of playing cards. The card dealing unit has a dealing chute that is movably integrated into the card dealing unit. The card dealing unit is in communication with each of the weight sensors and the card dealing unit deals a predetermined number of playing cards outwardly from the dealing chute. Additionally, the dealing chute is actuated to deal the predetermined number of playing cards toward each chair to deal playing cards to each player.

A gaming system, device and method are disclosed herein. The system, in an embodiment, involves one or more data storage devices programmed to cause one or more processors to receive an input from a player. The input is related to a game. Such one or more processors are operable to cat n output device to display a plurality of grid spaces. The grid spaces include at least one player grid space associated with the player, and the grid spaces include at least one non-player grid space that is unassociated with the player. The one or more processors are also operable to determine at least one of the grid spaces. The game provides the opportunity for a primary winning outcome elated to the determined grid space and a secondary winning outcome related to a secondary winning condition.

Described herein are systems and method for determining a presence and/or type of an object positioned on a platform. The system may include: a tag reader configured to determine a type of an object, the object including a tag readable by the tag reader; a load cell configured to detect the presence of the object on a platform, the object having a known weight; and the platform including at least one face for receiving the object. The platform is communicatively coupled to the load cell and the tag reader. The presence of the object is detected by the load cell housed in the platform when the object is position on the at least one face of the platform. The type of the object is determined by the tag reader housed in the platform when the object is in physical proximity to the platform.

A system and method of shuffling decks of cards is disclosed including verifying that the shuffled deck of cards has the same number of cards as the deck of cards had had when a manual verification process was performed at the initiation of use of the deck of cards. Using the measured weight of the deck of cards after completion of shuffling, the number of cards in the shuffled deck of cards is verified. A cut card may be introduced to reduce the possibility of exposing the hole card to view. Two decks of cards may be used in sequence so that a first deck of cards is being used to play the game of cards while the second deck of cards is being shuffled and verified.

A building and demolition game apparatus includes a base, a plurality of rectangular block elements, a monitoring unit, a game control unit and a force generating unit. The base has an assembly platform located on an upside of the base. The rectangular block elements layered to form a tower, which is stood on the assembly platform. The tower has upper and lower layers held by frictional coupling between the layers. The tower height increases during game play by removing block elements from one or more lower layers to build up successive upper layers upon the assembly platform. The monitoring unit is disposed in the base to obtain at least two boundary conditions by continuously monitoring. The game control unit is disposed in the base to generate a control signal according to a predetermined threshold and the at least two boundary conditions. The force generating unit is disposed in the base and under the assembly platform. The force generating unit is applying a force forward to the assembly platform according to the control signal generated by the game control unit.

An automated card dealer assembly includes a gaming table that has a plurality of chairs is positioned around the gaming table for having a player sit on the chairs. Each of the chairs is assigned a respective one of a plurality of gaming spots at the gaming table. A card dealing unit is positioned on the gaming table and the card dealing unit contains at least one deck of playing cards. The card dealing unit has a dealing chute that is movably integrated into the card dealing unit. The card dealing unit is in communication with each of the weight sensors and the card dealing unit deals a predetermined number of playing cards outwardly from the dealing chute. Additionally, the dealing chute is actuated to deal the predetermined number of playing cards toward each chair to deal playing cards to each player.

A scale apparatus is described. The scale apparatus may include a housing sized to fit within a playing card tuck box; a pressure plate operable to measure a weight of a plurality of objects; a wireless transmitter; and a microcontroller in communication with the pressure plate and the wireless transmitter. The microcontroller may be configured to: continuously measure the weight on the pressure plate; when the weight holds steady for a sequence of measurements, transmit a first weight measurement via the wireless transmitter; measure a change in the weight; and when the change in the weight is steady, transmit a second weight measurement via the wireless transmitter.

A scale apparatus is described. The scale apparatus may include a housing sized to fit within a playing card tuck box; a pressure plate operable to measure a weight of a plurality of objects; a wireless transmitter; and a microcontroller in communication with the pressure plate and the wireless transmitter. The microcontroller may be configured to: continuously measure the weight on the pressure plate; when the weight holds steady for a sequence of measurements, transmit a first weight measurement via the wireless transmitter; measure a change in the weight; and when the change in the weight is steady, transmit a second weight measurement via the wireless transmitter.

An intelligent Score Four, comprising: chess pieces and a chessboard. The chessboard comprises an upper panel, an electronic element, and a power supply. The upper panel is provided with several movement intervals where L layers of chess pieces can be stacked; the movement intervals are arranged in an array of M rows and N columns; L, M, and N are all natural numbers greater than or equal to 4; the electronic element comprises a monitor, a processor, and an alarm device. Each movement interval is accordingly provided with a monitor. An output end of the monitor is connected to an input end of the processor. An output end of the processor is connected to the alarm device. The monitor is configured to monitor the variation value of the number of chess pieces in the movement interval). The processor determines the alignment state and the spatial position state of the chess pieces.

A scale apparatus is described. The scale apparatus may include a housing sized to fit within a playing card tuck box; a pressure plate operable to measure a weight of a plurality of objects; a wireless transmitter; and a microcontroller in communication with the pressure plate and the wireless transmitter. The microcontroller may be configured to: continuously measure the weight on the pressure plate; when the weight holds steady for a sequence of measurements, transmit a first weight measurement via the wireless transmitter; measure a change in the weight; and when the change in the weight is steady, transmit a second weight measurement via the wireless transmitter.