Abstract: Aspects of the disclosure relate to conducting software testing using dynamically masked data. In some embodiments, a computing platform may receive, from a developer computing platform, a test execution request that includes a test code for execution. Subsequently, the computing platform may establish a secure connection to an enterprise data storage database. Upon establishing the secure connection, the computing platform may request confidential data from the enterprise data storage database in connection the test execution request. Thereafter, the computing platform mat execute the test code, which may include receiving encrypted confidential data from the enterprise data storage, decrypting the confidential data, and plugging the confidential data into the test code.

Abstract: Aspects of the disclosure relate to conducting software testing using dynamically masked data. In some embodiments, a computing platform may receive, from a developer computing platform, a test execution request that includes a test code for execution. Subsequently, the computing platform may establish a secure connection to an enterprise data storage database. Upon establishing the secure connection, the computing platform may request confidential data from the enterprise data storage database in connection the test execution request. Thereafter, the computing platform mat execute the test code, which may include receiving encrypted confidential data from the enterprise data storage, decrypting the confidential data, and plugging the confidential data into the test code.

Abstract: Aspects of the disclosure relate to conducting software testing using dynamically masked data. In some embodiments, a computing platform may receive, from a developer computing platform, a test execution request that includes a test code for execution. Subsequently, the computing platform may establish a secure connection to an enterprise data storage database. Upon establishing the secure connection, the computing platform may request confidential data from the enterprise data storage database in connection the test execution request. Thereafter, the computing platform mat execute the test code, which may include receiving encrypted confidential data from the enterprise data storage, decrypting the confidential data, and plugging the confidential data into the test code.

Abstract: Aspects of the disclosure relate to conducting software testing using dynamically masked data. In some embodiments, a computing platform may receive, from a developer computing platform, a test execution request that includes a test code for execution. Subsequently, the computing platform may establish a secure connection to an enterprise data storage database. Upon establishing the secure connection, the computing platform may request confidential data from the enterprise data storage database in connection the test execution request. Thereafter, the computing platform mat execute the test code, which may include receiving encrypted confidential data from the enterprise data storage, decrypting the confidential data, and plugging the confidential data into the test code.

Abstract: Aspects of the disclosure relate to providing augmented reality user interfaces for ATM transactions. In some embodiments, a computing platform may receive presence information indicating that a mobile computing device is within a predetermined distance of a first ATM at a first location, authenticate a user of the mobile computing device to an online banking account, and generate a transaction-specific device identifier that uniquely identifies the first ATM at the first location. Thereafter, the computing platform may generate and send an augmented reality user interface to the mobile computing device, prompting the user to use the mobile computing device to capture the transaction-specific device identifier. Based on verifying that the user is authorized to perform a transaction at the first ATM, the computing platform may cause an NFC connection to be established between the mobile computing device and the first ATM, via which the transaction may be conducted.

Abstract: Aspects of the disclosure relate to providing augmented reality user interfaces for ATM transactions. In some embodiments, a computing platform may receive presence information indicating that a mobile computing device is within a predetermined distance of a first ATM at a first location, authenticate a user of the mobile computing device to an online banking account, and generate a transaction-specific device identifier that uniquely identifies the first ATM at the first location. Thereafter, the computing platform may generate and send an augmented reality user interface to the mobile computing device, prompting the user to use the mobile computing device to capture the transaction-specific device identifier. Based on verifying that the user is authorized to perform a transaction at the first ATM, the computing platform may cause an NFC connection to be established between the mobile computing device and the first ATM, via which the transaction may be conducted.

Abstract: Method and apparatus for a system to communicate via perfect forward secrecy. A deterministic hierarchy is used to generate public and private keys, offline, on distinct devices, for use with asymmetrical cryptography over an unsecure medium. Because each private key is not transmitted over the unsecure medium, but must be used to de-encrypt the communications, it is very difficult for man-in-the-middle attacks to de-encrypt the communications. Because each private key is generated according to a deterministic hierarchy, a master entity can recreate the private keys and passively monitor the communications while maintaining perfect forward secrecy.

Abstract: Systems and methods for encrypting a dataset are provided. The methods may include deriving an ephemeral key, and encrypting the dataset using the ephemeral key to produce a ciphertext. The ephemeral key, without being saved after the encrypting, may be re-derivable on demand and operable to decrypt the ciphertext.

Abstract: Systems and methods for encrypting a dataset are provided. The methods may include deriving an ephemeral key, and encrypting the dataset using the ephemeral key to produce a ciphertext. The ephemeral key, without being saved after the encrypting, may be re-derivable on demand and operable to decrypt the ciphertext.

Abstract: Method and apparatus for a system to communicate via perfect forward secrecy. A deterministic hierarchy is used to generate public and private keys, offline, on distinct devices, for use with asymmetrical cryptography over an unsecure medium. Because each private key is not transmitted over the unsecure medium, but must be used to de-encrypt the communications, it is very difficult for man-in-the-middle attacks to de-encrypt the communications. Because each private key is generated according to a deterministic hierarchy, a master entity can recreate the private keys and passively monitor the communications while maintaining perfect forward secrecy.

Abstract: Method and apparatus for a system to communicate via perfect forward secrecy. A deterministic hierarchy is used to generate public and private keys, offline, on distinct devices, for use with asymmetrical cryptography over an unsecure medium. Because each private key is not transmitted over the unsecure medium, but must be used to de-encrypt the communications, it is very difficult for man-in-the-middle attacks to de-encrypt the communications. Because each private key is generated according to a deterministic hierarchy, a master entity can recreate the private keys and passively monitor the communications while maintaining perfect forward secrecy.

Abstract: Method and apparatus for a system to communicate via perfect forward secrecy. A deterministic hierarchy is used to generate public and private keys, offline, on distinct devices, for use with asymmetrical cryptography over an unsecure medium. Because each private key is not transmitted over the unsecure medium, but must be used to de-encrypt the communications, it is very difficult for man-in-the-middle attacks to de-encrypt the communications. Because each private key is generated according to a deterministic hierarchy, a master entity can recreate the private keys and passively monitor the communications while maintaining perfect forward secrecy.