Abstract: A screenless smart toy device may be a block made of natural or wooden material and may include a transparent or semi-transparent panel allowing one or more LEDs, from within the smart toy device, to be visible when illuminated. The smart toy device may read RFID values from various objects, such as tiles having objects depicted thereupon and RFID tags embedded within, and play different sounds and/or illuminate its LEDs with different colors based on the RFID tag that was read. The smart toy device may operate in a variety of modes, such as in a play/explore mode, quiz mode, definition mode, etc. The smart toy device may be configured into different modes and/or language settings by use of a mode card or separate application.

Abstract: A screenless smart toy device may be a block made of natural or wooden material and may include a transparent or semi-transparent panel allowing one or more LEDs, from within the smart toy device, to be visible when illuminated. The smart toy device may read RFID values from various objects, such as tiles having objects depicted thereupon and RFID tags embedded within, and play different sounds and/or illuminate its LEDs with different colors based on the RFID tag that was read. The smart toy device may operate in a variety of modes, such as in a play/explore mode, quiz mode, definition mode, etc. The smart toy device may be configured into different modes and/or language settings by use of a mode card or separate application.

Abstract: Systems, devices, and methods are disclosed herein for providing a sanitizing bottle. A sanitizing bottle includes a storage body to store liquid; a cap configured to removably attach to the storage body; a cap sensor disposed on the storage body to determine whether the cap is attached to the storage body; a UV emitter to emit UV light in the storage body; and a processor coupled to the cap sensor and the UV emitter. The processor is to activate the UV emitter responsive to determining, via the cap sensor, the cap is attached to the storage body. The processor is to deactivate the UV emitter responsive to determining, via the cap sensor, the cap is not attached to the storage body.

Abstract: A screenless smart toy device may be a block made of natural or wooden material and may include a transparent or semi-transparent panel allowing one or more LEDs, from within the smart toy device, to be visible when illuminated. The smart toy device may read RFID values from various objects, such as tiles having objects depicted thereupon and RFID tags embedded within, and play different sounds and/or illuminate its LEDs with different colors based on the RFID tag that was read. The smart toy device may operate in a variety of modes, such as in a play/explore mode, quiz mode, definition mode, etc. The smart toy device may be configured into different modes and/or language settings by use of a mode card or separate application.

Abstract: Systems, devices, and methods are disclosed herein for providing a sanitizing bottle. A sanitizing bottle includes a storage body to store liquid; a cap configured to removably attach to the storage body; a cap sensor disposed on the storage body to determine whether the cap is attached to the storage body; a UV emitter to emit UV light in the storage body; and a processor coupled to the cap sensor and the UV emitter. The processor is to activate the UV emitter responsive to determining, via the cap sensor, the cap is attached to the storage body. The processor is to deactivate the UV emitter responsive to determining, via the cap sensor, the cap is not attached to the storage body.