An electronic card with biometric authentication function includes a communication antenna for short-range wireless communication, a wireless communication IC, a receiving coil, a resonant capacitor, a rectifying and smoothing circuit, a biometric sensor, and a biometric authentication circuit. The communication antenna and the receiving coil respond to a magnetic field in the same frequency band for the short-range wireless communication. The wireless communication IC performs short-range wireless communication. The receiving coil receives power from the magnetic field in the same frequency band for the short-range wireless communication. The biometric authentication circuit causes the biometric sensor to operate by using the power received from the receiving resonant circuit. The communication antenna and the receiving coil share electromagnetic field energy resonating in the same frequency band for the short-range wireless communication, the electromagnetic field energy being shared because of magnetic coupling between the communication antenna and the receiving coil.

Methods and systems are disclosed for printing vibrant grey color(s) on plastic cards. The following features, which can be used individually or in any combination thereof, can be implemented to achieve the vibrant grey color(s): 1) use of CMYK pigment inks to achieve CMYK printing; 2) a pixel extraction process and/or a print trapping process; 3) two separate print commands including a CMY (or CMYK)+blending print command and a K+blending print command; and 4) proper card set-up.

Systems, methods and apparatus are provided for light-based authentication of a payment card. The payment card may include a randomized mix of materials. The materials may include transparent or translucent materials. A light source may shine light on a surface of the payment card. Light passing through the card may generate a light pattern that is unique to the payment card. The light pattern may be captured and compared to a reference light pattern to authenticate the payment card. In some embodiments, photodetectors may detect light patterns generated through interactions with the card materials.

Systems, methods and apparatus are provided for light-based authentication of a payment card. The payment card may include a randomized mix of materials. The materials may include transparent or translucent materials. A light source may shine light on a surface of the payment card. Light passing through the card may generate a light pattern that is unique to the payment card. The light pattern may be captured and compared to a reference light pattern to authenticate the payment card. In some embodiments, photodetectors may detect light patterns generated through interactions with the card materials.

A printed object includes a substrate and a first information code disposed on the substrate, wherein: the first information code is constituted of an infrared ray-absorptive ink layer that has been printed with an infrared ray absorptive ink; and the infrared ray absorptive ink layer is configured such that, when a laminated body constituted of a test substrate made of the same material as that of the substrate, and a test infrared absorptive ink layer made of the same material as that of the infrared ray absorptive ink layer and disposed on the test substrate is subjected to a relative spectral reflectivity measurement on the test infrared ray absorptive ink layer side, with the test substrate as the reference (100% reflectivity), the minimum relative reflectivity in the visible region is 50% or higher, and the minimum relative reflectivity in the infrared region is 75% or lower.

Smart banknotes incorporating permanent data transmission and reception elements to enable the storage of encrypted and unencrypted data that can be accessed at medium distances using electronic equipment, thereby enabling the definition/description of the banknote, the registration thereof, the central bank serial number and history, and other security data of interest, enabling security and control plans. The banknotes help people with visual impairments to identify banknotes and the value thereof, fostering greater social inclusion and independence when handling cash, and will be very useful for recognizing different types of banknotes, including in all countries that adopt the system. The banknotes may be used with everyday equipment on the market such as gadgets, and also drawers, counters, ATMs, and the like. Since they can provide audio and/or visual information, it is of greater use and efficiency in comparison to any existing product, and therefore has broad market applicability and social utility.

Provided are transaction cards including an infinity mirror. In some approaches, a transaction card may include a body comprising a first reflective layer and a second reflective layer, and a light source between the first reflective layer and the second reflective layer.

The present invention relates to a novel identification label that can be customized. The labels are designed to be either integrated or removably attached on exterior surface of consumer product containers allowing users to avoid potential confusion with respect to ownership, use or control of their containers. The label has an opaque scratch-off blank surface that can be removed to create a personalized identification mark. The label may have an UV-ink coating or can have a label layer for creating identification mark when the scratch-off blank surface is scratched. The labels are designed to be affixed on any personal item to prevent items from accidentally being misidentified.

A security element, called a security dome, intended to be glued onto an electronic board. The security element includes at least: a metal part intended to be in contact with at least one electrical circuit of the electronic board; and a protective part covering the metal part and having a first face comprising an adhesive portion intended to ensure the gluing of the security element on the electronic board by an automatic assembly method having at least one reflow step. The metal part and protective part are resistant to temperatures used during the reflow step.

A contactless communication medium according to an embodiment of the present technology includes an IC module, a first member, a second member, and a print layer. The IC module is capable of performing a contactless communication. The first member is made of a first transparent resin material, the first member including a first surface and a second surface, the first surface being a surface in which a concave portion that accommodates therein the IC module is formed, the second surface being situated opposite to the first surface. The second member is made of a second transparent resin material, the second member being connected to the first surface or the second surface. The print layer is arranged between the first member and the second member.