Abstract: A method and apparatus for providing fraud protection in purchase transactions made by a customer. The method including the steps of: receiving a purchase request for one or more items having a first price; generating a second price and/or an applied identifier that is unknown to the customer; applying a charge of the second price and/or the applied identifier using payment details provided; receiving data indicative of a third price and/or a recorded identifier; and comparing the data with the second price and/or the applied identifier; wherein if data is equal to the second price and/or applied identifier then finalise the purchase request.

Abstract: The present disclosure is generally directed to a method and apparatus to communicate data between two or more semiconductor devices. In an embodiment, a method includes synchronizing a master device with a slave device, where the master device includes a semiconductor device. Synchronizing includes transmitting a first synchronization marker data pattern via a first serial interface from the master device at a first time, and receiving a second synchronization marker data pattern via a second serial interface at the master device at a second time in response to transmitting the first synchronization marker data pattern. Synchronizing also includes determining, based at least in part on the first time and the second time, a third time when a reply is to be received by the master device in response to a request transmitted from the master device to the slave device.

Abstract: The present disclosure is generally directed to a method and apparatus to communicate data between two or more semiconductor devices. In an embodiment, a method includes synchronizing a master device with a slave device, where the master device includes a semiconductor device. Synchronizing includes transmitting a first synchronization marker data pattern via a first serial interface from the master device at a first time, and receiving a second synchronization marker data pattern via a second serial interface at the master device at a second time in response to transmitting the first synchronization marker data pattern. Synchronizing also includes determining, based at least in part on the first time and the second time, a third time when a reply is to be received by the master device in response to a request transmitted from the master device to the slave device.

Abstract: The present disclosure is generally directed to a method of communicating data between two or more semiconductor devices. Serial interfaces using the method have a reduction in latency compared to conventional serial interfaces. The method enables features needed for a serial interface, such as limited run lengths and recognizable data boundaries to establish alignment. In addition, a method for synchronizing two or more semiconductor devices through serial interfaces has been presented. This is done by passing a marker data pattern through the system.

Abstract: A memory device and system are disclosed that may include a serial data interface, a serial address interface, and a reference clock interface. The reference clock interface is configured to receive a signal from a reference clock source that provides a reference clock signal to a memory control device. The serial interfaces are coupled to other memory devices or memory control devices. A method of transferring data within a memory system using serial interfaces is also disclosed. The method includes performing clock multiplication on a reference clock to provide a multiplied clock, using the multiplied clock to serialize and transmit data onto a serial interface, recovering data from the seal interface, using the reference clock to determine an initial frequency for use by clock and data recovery module, using the data recovered from the serial interface to determine a phase and final frequency of a recovered clock, and using the recovered clock to de-serialize received serial data into parallel data words.

Abstract: The present disclosure is generally directed to a method of communicating data between two or more semiconductor devices. Serial interfaces using the method have a reduction in latency compared to conventional serial interfaces. The method enables features needed for a serial interface, such as limited run lengths and recognizable data boundaries to establish alignment. In addition, a method for synchronizing two or more semiconductor devices through serial interfaces has been presented. This is done by passing a marker data pattern through the system.

Abstract: A memory device and system are disclosed that may include a serial data interface, a serial address interface, and a reference clock interface. The reference clock interface is configured to receive a signal from a reference clock source that provides a reference clock signal to a memory control device. The serial interfaces are coupled to other memory devices or memory control devices. A method of transferring data within a memory system using serial interfaces is also disclosed. The method includes performing clock multiplication on a reference clock to provide a multiplied clock, using the multiplied clock to serialize and transmit data onto a serial interface, recovering data from the seal interface, using the reference clock to determine an initial frequency for use by clock and data recovery module, using the data recovered from the serial interface to determine a phase and final frequency of a recovered clock, and using the recovered clock to de-serialize received serial data into parallel data words.

Abstract: A system and method are provided for streaming a media track to multiple clients using a single copy of the track's metadata, rather than making separate copies of the metadata for each stream. A media track's metadata includes information that is used to identify and locate media corresponding to different time positions in the track or media program. Sharing one copy of the metadata among multiple client streams promotes more efficient use of a media streaming server's resources. When a media track is first requested, a track object is generated to store and allow access to the metadata. For each client stream, a separate track handle object is created to manage access to the metadata for the stream's specific context. The streamed media track may be part of a live media event or may be part of a pre-recorded media program.

Abstract: A system and method are provided for resynchronizing a media stream. A media streaming server receives live or pre-recorded media for streaming to clients. When media is not received or available for streaming at the appropriate media time index, the media stream is deemed to be out of synchronization. The server selects a future time index at which to resynchronize the stream and may discard intervening media. Media corresponding to the new time index is requested or retrieved and, if available at the new time index, media streaming resumes in synchronization. If media corresponding to the new time index is not available, the server may select another future time index and try again to resynchronize. Resynchronization may be attempted a configurable number of times and, if unsuccessful, the server may terminate the stream.

Abstract: A system and method are provided for streaming a media track to multiple clients using a single copy of the track's metadata, rather than making separate copies of the metadata for each stream. A media track's metadata includes information that is used to identify and locate media corresponding to different time positions in the track or media program. Sharing one copy of the metadata among multiple client streams promotes more efficient use of a media streaming server's resources. When a media track is first requested, a track object is generated to store and allow access to the metadata. For each client stream, a separate track handle object is created to manage access to the metadata for the stream's specific context. The streamed media track may be part of a live media event or may be part of a pre-recorded media program.

Abstract: A system and method are provided for resynchronizing a media stream. A media streaming server receives live or pre-recorded media for streaming to clients. When media is not received or available for streaming at the appropriate media time index, the media stream is deemed to be out of synchronization. The server selects a future time index at which to resynchronize the stream and may discard intervening media. Media corresponding to the new time index is requested or retrieved and, if available at the new time index, media streaming resumes in synchronization. If media corresponding to the new time index is not available, the server may select another future time index and try again to resynchronize. Resynchronization may be attempted a configurable number of times and, if unsuccessful, the server may terminate the stream.