Techniques to facilitate protecting control data used in an industrial automation environment are disclosed herein. In at least one implementation, an encryption key pair is generated for an industrial controller, wherein the encryption key pair comprises a public key and a private key. The private key is stored within a secure storage system of the industrial controller. Controller program content is then encrypted using the public key to generate encrypted controller content. The encrypted controller content is then provided to the industrial controller, and the industrial controller is configured to decrypt the encrypted controller content using the private key and execute the controller program content.

A portable encryption format wraps encrypted files in a self-executing container that facilitates transparent, identity-based decryption for properly authenticated users while also providing local password access to wrapped files when identity-based decryption is not available.

Rules are applied at a network perimeter to outbound network communications that contain file attachments. The rules may, in a variety of circumstances, require wrapping of an outbound file from the endpoint in a portable encrypted container. The network perimeter may be enforced locally at the endpoint, or at any network device between the endpoint and a recipient.

Secure application-to-application communication is disclosed. A shared encryption key may be used to encrypt data to be transferred from a first mobile application to a second mobile application. The encrypted data is provided to a shared storage location. The second mobile application is configured to retrieve the encrypted data from the shared storage location.

The various examples are directed to establishing a secure session between a device and a server. The device and the server may establish a session key. The session key may be used for encrypting data. After authenticating the session key, the server may transmit secure session data to the device, and the device may store the secure session data. The server may transmit information for deriving, based on secure session data, the session key to a different server. The device may transmit the secure session data to the server, or to the different server, to re-establish the secure session. The different server may derive, using the information and based on the secure session data, the session key. The different server may re-establish, using the session key, the secure session.

An RFID tag may execute instructions from an authenticated RFID reader. A tag determines a handle and a first parameter, both of which may be random numbers, and sends the handle to a reader. Upon receiving a challenge from the reader, the tag determines and sends a cryptographic response to the challenge based on an algorithm, a tag key, the first parameter, and the challenge. Upon receiving a message with a second parameter and a tag instruction, the tag executes the tag instruction upon verifying that the second parameter derives from the first parameter and the tag handle.

Embodiments provide methods, and systems for cryptographic keys exchange where the method can include receiving, by a server system, a client public key being part of a client asymmetric key pair from a client device; sending, by the server system, a server public key being part of a server asymmetric key pair to the client device; generating, by the server system, a random value master key and sending the random value master key encrypted using the client public key to the client device; and generating, by the server system, an initial unique session key and sending the initial unique session key encrypted under the random value master key to the client device. A unique session key from the set of the unique session keys is used by the client device to encrypt a session data for transmission to the server system per session.

A method for activating a mobile terminal token, comprising: a cloud authentication server generates a seed generation factor according to an activation request, and acquires a server seed secret key and saves the same according to the seed generation factor, and generates an activation code according to the seed generation factor, and generates an activation verification code and transmits the same to a mobile terminal, and encrypts the activation code using the activation verification code to acquire an encrypted activation code, and a cloud authentication management platform generates a two-dimensional code image according to the received encrypted activation code and transmits the same to a client for displaying, and the mobile terminal token acquires the encrypted activation code according to the acquired two-dimensional code image, and decrypts the encrypted activation code using the acquired activation verification code to obtain an activation code, and acquires the seed generation factor from the activation code, and acquires a token seed secret key according to the seed generation factor and saves the same. The present invention can activate the token when the mobile terminal is without network, ensuring the accuracy of the seed, thus improving the token security.

Methods in a cloud object store facilitate strong data encryption, customer-management of object (encryption) keys, reductions in latency, globally-distributed object storage, and handling of streamed uploads. A method for encrypting objects stored in a cloud includes encrypting each object with a unique encryption (object) key. The plaintext object keys are generated in advance of uploads. The plaintext object keys can be stored in an object database in the cloud. Alternatively, the plaintext object keys can be provided to a customer's HSM, encrypted, and returned to the cloud, such that encrypted object keys, encrypted by the customer, are stored in the cloud. The cloud can alternatively encrypt the customer's object keys with a master key for the customer, which is then encrypted by the customer's HSM before being stored in the cloud. Proxies are also deployed for efficiently communicating with customer security modules.

A system and method for pairing a mobile device with a computer for password-less login using a network service is provided. The method may include sending a pairing request to a network server from a computing device, wherein the pairing request includes computer authentication data and a computer public key. The network server may pair the mobile device with the computing device; wherein, the computing device may generate a pairing secret key and an associated QR image, which the user is prompted to scan using the mobile device. A pairing agent within the mobile device may validate the computer authentication data and parse the computer public key therefrom. In some embodiments a PIN could be displayed by the computer and entered by the user into the mobile device or silently exchanged between the computer and the mobile device, when proximate to each other, for the mutual authentication data validation. The method may further include registering the user mobile and computer devices for administrative management at the network server for an enterprise deployment or end user self-service management.