Systems, methods, and computer-readable media for efficiently storing credential service provider data in a security domain of a secure element of an electronic device are provided. In one example embodiment, an electronic device may include a secure element that, inter alia, receives credential service provider data from a secure element vendor subsystem, and that encrypts a key of the secure element with the received credential service provider data. The electronic device may also include a communications component that transmits the encrypted key to a credential service provider. Additional embodiments are also provided.

An apparatus includes an authentication arrangement for a communication connection, using a communication protocol, between two data processing devices of the apparatus. The data processing devices each have an interface unit for the communication connection and a computation unit. The interface units each have an encryption/decryption device, where the encryption/decryption device is at least partially produced by hardware for encrypting at least some of the user data to be transmitted via the communication connection as part of the authentication arrangement. The encryption/decryption device can be applied in a communication layer of the communication protocol to the user data prepared for the physical user data transmission or to the physically received user data. Each data processing device has a security unit, implemented as dedicated hardware that the computation unit cannot access and/or in a manner logically isolated from the computation unit. The security unit produces a trusted execution environment, of the authentication arrangement with a hardware-encoded key information, on the basis of which the user data are encrypted by the encryption/decryption device.

Aspects of the present disclosure include systems and methods for generating and managing user authentication rules of a computing device. In an example, a computing device may include a memory storing instructions and a processor communicatively coupled with the memory and configured to execute the instructions. The processor may determine a state of the computing device, wherein the state of the computing device is one of a locked state or an unlocked state. The processor may determine a user authentication rule corresponding to the state of the computing device. The processor may also identify whether a combination of signals associated with the user authentication rule of the computing device are received by the computing device. The processor may also change or maintain the state of the computing device based on the combination of signals being received.

A computing device is provided including a motherboard including a control module, a first trusted platform module (TPM), and a second TPM. The control module directs security operations to the first TPM, wherein the control module is operable to detect whether or not the first TPM is damaged, and wherein the control module, in response to detecting that the first TPM is damaged, is operable to direct subsequent security operations to be performed by the second TPM. A computer program product is also provided including non-transitory computer readable storage media embodying program instructions executable by a processor to direct security operations to a first TPM coupled to a motherboard of the computing device, detect whether or not the first TPM is damaged, and, responsive to detecting that the first TPM is damaged, direct subsequent security operations to a second TPM coupled to the motherboard of the computing device.

Methods and systems are provided for two-step hardware authentication for machine monitoring systems. In one embodiment, a machine monitoring system can include a first hardware lock having a locked-state and an unlocked-state. The monitoring system can also include a second hardware lock including a sensor to detect first identification indicia of a user. The machine monitoring system can further include a data port configured to operatively couple to a computing device of the user. The data port can have an enable state and a disable state. The monitoring machine can include a processor operatively coupled to the first hardware lock, the second hardware lock, and the data port. The processor can be configured to receive data characterizing the activation of the first hardware lock and the first identification indicia of the user, and activate the data port to the computing device of the user.

A portable, application-specific USB autorun device, following connection to a computer terminal, automatically initialises or presents itself as a known type of device and then automatically sends to the terminal a sequence of data complying with a standard protocol, that sequence of data automatically causing content to be accessed or a task to be initiated. The device (i) includes a standardised USB module that includes a USB microcontroller, the standardised module being designed to be attached to or embedded in multiple types of different, application specific packages but (ii) excludes mass memory storage for applications or end-user data.

Described herein are systems and methods that allow for secure wireless communication between a contact lens system and an accessory device to protect sensitive data and prevent unauthorized access to confidential information. In certain embodiments, tampering attempts by potential attackers are thwarted by using a Physically Unclonable Functions (PUF) circuit that is immune to reverse engineering. In addition, sensors monitor a to-be-protected electronic device to detect tampering attempts and physical attacks to ensure the physical integrity of the communication system.

A portable, application-specific USB autorun device, following connection to a computer terminal, automatically initialises or presents itself as a known type of device and then automatically sends to the terminal a sequence of data complying with a standard protocol, that sequence of data automatically causing content to be accessed or a task to be initiated. The device (i) includes a standardised USB module that includes a USB microcontroller, the standardised module being designed to be attached to or embedded in multiple types of different, application specific packages but (ii) excludes mass memory storage for applications or end-user data.

A system on chip is provided. The system on chip includes a first memory to store a plurality of encryption keys, a second memory, a third memory to store an encryption key setting value, and a CPU to decrypt encrypted data which is stored in an external non-volatile memory using an encryption key corresponding to the encryption key setting value from among the plurality of encryption keys, to store the decrypted data in the second memory, and to perform a boot using data stored in the second memory. Accordingly, security of a boot operation can be improved.

The present invention relates to a terminal for checking a calibration history of a scale, a system for managing a calibration history of a scale and a method of checking a calibration history of a scale, and more particularly, a terminal for managing history of calibrating or revising the reference data being a standard when calculating a weight, the system thereof and the method thereof. According to the present invention, it is expected to prevent business transactions of a scale user because a general user as well as a qualified person can determine whether a scale is manipulated without authority. In addition, according to the system of the present invention, it is possible to greatly lower the calibration cost of a scale.