Abstract: Methods and devices for communicating sensitive data to applications are provided. A wearable device can wirelessly connect with a second computing device. The wearable device can be configured to obtain sensitive data. The second computing device can provide a first software application and a second software application. The wearable device can wirelessly receive a first request for the sensitive data from the first application. The wearable device can send a response denying the first request to the first application. The wearable device can wirelessly receive a second request for the sensitive data from the second application. The wearable device can determine whether the second request is authenticated to be associated with the second application. After determining that the second request is authenticated to be associated with the second application, the wearable device can wirelessly send the sensitive data to the second application.

Abstract: Systems and methods can secure personal identification numbers associated with secure elements within mobile devices. A host application of the mobile device can receive a personal identification number (PIN) or user PIN from a user. The application can generate one or more random PIN components. The application can compute a PIN for the secure element based upon the user PIN and each of the one or more random components. The SE can be configured using the PIN computed for the secure element. Each of the one or more random components may be stored in one or more distinct, diverse locations. In addition to entering the correct user PIN, each of the one or more random components must be retrieved from the diverse locations in order to reconstruct the PIN for the secure element whenever performing a transaction using the secure element.

Abstract: Systems and methods can secure personal identification numbers associated with secure elements within mobile devices. A host application of the mobile device can receive a personal identification number (PIN) or user PIN from a user. The application can generate one or more random PIN components. The application can compute a PIN for the secure element based upon the user PIN and each of the one or more random components. The SE can be configured using the PIN computed for the secure element. Each of the one or more random components may be stored in one or more distinct, diverse locations. In addition to entering the correct user PIN, each of the one or more random components must be retrieved from the diverse locations in order to reconstruct the PIN for the secure element whenever performing a transaction using the secure element.

Abstract: Methods and devices for communicating sensitive data to applications are provided. A wearable device can wirelessly connect with a second computing device. The wearable device can be configured to obtain sensitive data. The second computing device can provide a first software application and a second software application. The wearable device can wirelessly receive a first request for the sensitive data from the first application. The wearable device can send a response denying the first request to the first application. The wearable device can wirelessly receive a second request for the sensitive data from the second application. The wearable device can determine whether the second request is authenticated to be associated with the second application. After determining that the second request is authenticated to be associated with the second application, the wearable device can wirelessly send the sensitive data to the second application.

Abstract: A network caching system has a multi-protocol caching filer coupled to an origin server to provide storage virtualization of data served by the filer in response to data access requests issued by multi-protocol clients over a computer network. The multi-protocol caching filer includes a file system configured to manage a sparse volume that “virtualizes” a storage space of the data to thereby provide a cache function that enables access to data by the multi-protocol clients. To that end, the caching filer further includes a multi-protocol engine configured to translate the multi-protocol client data access requests into generic file system primitive operations executable by both the caching filer and the origin server.

Abstract: Systems and methods can secure personal identification numbers associated with secure elements within mobile devices. A host application of the mobile device can receive a personal identification number (PIN) or user PIN from a user. The application can generate one or more random PIN components. The application can compute a PIN for the secure element based upon the user PIN and each of the one or more random components. The SE can be configured using the PIN computed for the secure element. Each of the one or more random components may be stored in one or more distinct, diverse locations. In addition to entering the correct user PIN, each of the one or more random components must be retrieved from the diverse locations in order to reconstruct the PIN for the secure element whenever performing a transaction using the secure element.

Abstract: A user accesses an application on a reader mode device, activating a reader communication mode and disabling conflicting communication modes. The reader mode device activates a radio frequency field and creates a secure communication channel with a payment device. A secure element application on the reader mode device requests and receives payment information from a payment device. The secure element application on the reader mode device decrypts the payment information and requests account verification from the user. The secure element application on the reader mode device receives input from the user and verifies the payment information. In response to verifying the account information, the secure element application on the reader mode device encrypts the payment information and transmits it to a payment processing system. The payment processing system processes the payment transaction and transmits a notice of approved or declined transaction to the reader mode device.

Abstract: A user accesses an application on a reader mode device, activating a reader communication mode and disabling conflicting communication modes. The reader mode device activates a radio frequency field and creates a secure communication channel with a payment device. A secure element application on the reader mode device requests and receives payment information from a payment device. The secure element application on the reader mode device decrypts the payment information and requests account verification from the user. The secure element application on the reader mode device receives input from the user and verifies the payment information. In response to verifying the account information, the secure element application on the reader mode device encrypts the payment information and transmits it to a payment processing system. The payment processing system processes the payment transaction and transmits a notice of approved or declined transaction to the reader mode device.

Abstract: A user accesses an application on a reader mode device, activating a reader communication mode and disabling conflicting communication modes. The reader mode device activates a radio frequency field and creates a secure communication channel with a payment device. A secure element application on the reader mode device requests and receives payment information from a payment device. The secure element application on the reader mode device decrypts the payment information and requests account verification from the user. The secure element application on the reader mode device receives input from the user and verifies the payment information. In response to verifying the account information, the secure element application on the reader mode device encrypts the payment information and transmits it to a payment processing system. The payment processing system processes the payment transaction and transmits a notice of approved or declined transaction to the reader mode device.

Abstract: A network caching system has a multi-protocol caching filer coupled to an origin server to provide storage virtualization of data served by the filer in response to data access requests issued by multi-protocol clients over a computer network. The multi-protocol caching filer includes a file system configured to manage a sparse volume that “virtualizes” a storage space of the data to thereby provide a cache function that enables access to data by the multi-protocol clients. To that end, the caching filer further includes a multi-protocol engine configured to translate the multi-protocol client data access requests into generic file system primitive operations executable by both the caching filer and the origin server.

Abstract: A network caching system has a multi-protocol caching filer coupled to an origin server to provide storage virtualization of data served by the filer in response to data access requests issued by multi-protocol clients over a computer network. The multi-protocol caching filer includes a file system configured to manage a sparse volume that “virtualizes” a storage space of the data to thereby provide a cache function that enables access to data by the multi-protocol clients. To that end, the caching filer further includes a multi-protocol engine configured to translate the multi-protocol client data access requests into generic file system primitive operations executable by both the caching filer and the origin server.

Abstract: A network caching system has a multi-protocol caching filer coupled to an origin server to provide storage virtualization of data served by the filer in response to data access requests issued by multi-protocol clients over a computer network. The multi-protocol caching filer includes a file system configured to manage a sparse volume that “virtualizes” a storage space of the data to thereby provide a cache function that enables access to data by the multi-protocol clients. To that end, the caching filer further includes a multi-protocol engine configured to translate the multi-protocol client data access requests into generic file system primitive operations executable by both the caching filer and the origin server.

Abstract: An architecture, including a file-level protocol, for supporting sparse volumes on a storage system is provided. The file-level protocol provides coherency checking for use in retrieving data stored on a backing store remote from a storage system.

Abstract: An architecture, including a file-level protocol, for supporting sparse volumes on a storage system is provided. The file-level protocol provides coherency checking for use in retrieving data stored on a backing store remote from a storage system.

Abstract: A computer system having a memory for providing streaming media in one of a plurality of streaming media protocols includes a first plurality of interfaces configured to initiate reading of packet meta-data and packets of payload data from a memory, and a second plurality of interfaces configured to output streaming media packets to a client system at a requested pace, wherein the streaming media packets are determined in response to the packet meta-data, to the packets of payload data, and to a streaming media protocol requested, wherein the packet meta-data and the packets of payload data are read from the memory at a pace independent of the requested pace for the streaming media packets, and wherein the second plurality of interfaces support more than one streaming media protocol.

Abstract: A cache memory configured to store media data to be output as a media stream includes a session data file configured to store properties of the media stream, wherein the properties may include encoding scheme, duration, and others, and a plurality of data object files, each data object file individually and directly accessible by a file system, each data object file comprising a data object configured to store only a portion of the media data.