Abstract: There is provided a counter pad, comprising: a non-abrasive and flexible surface including: a work surface designed for placement of jewelry, and a data communication interface configured for communicating with at least one screen for presenting the data associated with an identifier of the jewelry, an RFID antenna(s) positioned within the non-abrasive and flexible surface and below the work surface, the RFID antenna(s) configured to transmit and/or receive signals from a RFID tag(s) located on the jewelry when the jewelry is located on the work surface, an RFID reader(s) configured to process the signals to determine the identifier of the jewelry, a wireless network interface(s) configured to communicate with a wireless network, a processor(s) executing a code for accessing a server over the wireless network for obtaining data associated with the identifier, a memory for storing the code and the data, and a battery.

Abstract: There is provided a counter pad, comprising: a non-abrasive and flexible surface including: a work surface designed for placement of jewelry, and a screen mounted in the non-abrasive and flexible surface, configured for presenting the data associated with an identifier of the jewelry, an RFID antenna(s) positioned within the non-abrasive and flexible surface and below the work surface, the RFID antenna(s) configured to transmit and/or receive signals from a RFID tag(s) located on the jewelry when the jewelry is located on the work surface, an RFID reader(s) configured to process the signals to determine the identifier of the jewelry, a wireless network interface(s) configured to communicate with a wireless network, a processor(s) executing a code for accessing a server over the wireless network for obtaining data associated with the identifier, a memory for storing the code and the data, and a battery.

Abstract: There is provided a counter pad, comprising: a non-abrasive and flexible surface including: a work surface designed for placement of jewelry, and a screen mounted in the non-abrasive and flexible surface, configured for presenting the data associated with an identifier of the jewelry, an RFID antenna(s) positioned within the non-abrasive and flexible surface and below the work surface, the RFID antenna(s) configured to transmit and/or receive signals from a RFID tag(s) located on the jewelry when the jewelry is located on the work surface, an RFID reader(s) configured to process the signals to determine the identifier of the jewelry, a wireless network interface(s) configured to communicate with a wireless network, a processor(s) executing a code for accessing a server over the wireless network for obtaining data associated with the identifier, a memory for storing the code and the data, and a battery.

Abstract: A computerized imaging system and method for creating a 3D imaging dataset of an object are disclosed. The computerized imaging system includes an object stage mounted on a system base plate, the object stage is configured to rotate 360 degrees around its axis perpendicular to the base plate plane. The computerized imaging system includes an elongated elevation arm positioned alongside the object stage, wherein the elongated elevation arm having an image sensor, at least one lens, and a mirror mounted thereon, and wherein the optical axis of the image sensor is parallel to the elongated elevation arm elevation axis. The image sensor is used to capture a plurality of images of the object in a plurality of rotation and elevation angles of the object stage and elongated elevation arm.

Abstract: A computerized imaging system and method for creating a 3D imaging dataset of an object are disclosed. The computerized imaging system includes an object stage mounted on a system base plate, the object stage is configured to rotate 360 degrees around its axis perpendicular to the base plate plane. The computerized imaging system includes an elongated elevation arm positioned alongside the object stage, wherein the elongated elevation arm having an image sensor, at least one lens, and a mirror mounted thereon, and wherein the optical axis of the image sensor is parallel to the elongated elevation arm elevation axis. The image sensor is used to capture a plurality of images of the object in a plurality of rotation and elevation angles of the object stage and elongated elevation arm.

Abstract: A computerized imaging system and method for creating a 3D imaging dataset of an object are disclosed. The computerized imaging system includes an object stage mounted on a system base plate, the object stage is configured to rotate 360 degrees around its axis perpendicular to the base plate plane. The computerized imaging system includes an elongated elevation arm positioned alongside the object stage, wherein the elongated elevation arm having an image sensor, at least one lens, and a mirror mounted thereon, and wherein the optical axis of the image sensor is parallel to the elongated elevation arm elevation axis. The image sensor is used to capture a plurality of images of the object in a plurality of rotation and elevation angles of the object stage and elongated elevation arm.

Abstract: A computerized imaging system and method for creating a 3D imaging dataset of an object are disclosed. The computerized imaging system includes an object stage mounted on a system base plate, the object stage is configured to rotate 360 degrees around its axis perpendicular to the base plate plane. The computerized imaging system includes an elongated elevation arm positioned alongside the object stage, wherein the elongated elevation arm having an image sensor, at least one lens, and a mirror mounted thereon, and wherein the optical axis of the image sensor is parallel to the elongated elevation arm elevation axis. The image sensor is used to capture a plurality of images of the object in a plurality of rotation and elevation angles of the object stage and elongated elevation arm.