Abstract: A flash memory card reader and a single converter chip for reading both serial and parallel flash cards. The read has connectors for both serial and parallel data transfer flash memory cards. The reader has a single chip converter. The converter supports both serial I/O and parallel I/O. The serial I/O transfers data in multiple modes. Both single-bit and multi-bit serial data transfers modes are supported. The reader may have multiple slots, one have a connector for serial and one having a connector for parallel flash memory cards.

Abstract: A multi-memory media adapter to read a plurality of different types of memory media cards via contact pins. A controller maps signals to the contact pins depending upon the type of memory media card.

Abstract: A multi-memory media adapter to read a plurality of different types of memory media cards. Signals are mapped to the contact pins depending upon the type of memory media card. In one embodiment, a controller connected to an interconnection means maps at least one signal to the contact pins depending upon the type of memory card inserted.

Abstract: A flash memory card reader and a single converter chip for reading both serial and parallel flash cards. The read has connectors for both serial and parallel data transfer flash memory cards. The reader has a single chip converter. The converter supports both serial I/O and parallel I/O. The serial I/O transfers data in multiple modes. Both single-bit and multi-bit serial data transfers modes are supported. The reader may have multiple slots, one have a connector for serial and one having a connector for parallel flash memory cards.

Abstract: A multi-memory media adapter to read a plurality of different types of memory media cards. Signals are mapped to the contact pins depending upon the type of memory media card. In one embodiment, a controller connected to an interconnection means maps at least one signal to the contact pins depending upon the type of memory card inserted.

Abstract: A multi-memory media adapter having a plurality of ports, each having at least one set of contact pins adapted to connect to different types of flash cards. Signals are mapped to the contact pins depending upon the type of flash card. In one embodiment, a controller has signal lines connected to an interconnection means which connects wires, cables or traces to the sets of contact pins. Signals are mapped on the signal lines depending upon the type of flash card inserted.

Abstract: A multi-memory media adapter having a plurality of ports, each having at least one set of contact pins adapted to connect to different types of flash cards. Signals are mapped to the contact pins depending upon the type of flash card. In one embodiment, a controller has signal lines connected to an interconnection means which connects wires, cables or traces to the sets of contact pins. Signals are mapped on the signal lines depending upon the type of flash card inserted.

Abstract: A multi-memory media adapter having a port, a surface, and a set of contact pins adapted to connect to different types of flash cards. Signals are mapped to the contact pins depending upon the type of flash card. In one embodiment, a controller has signal lines connected to an interconnection means which connects wires, cables or traces to the sets of contact pins. Signals are mapped on the signal lines depending upon the type of flash card inserted.

Abstract: A method for recovering data from corrupted flash media and regenerated damaged flash media have been disclosed. In one embodiment, the method comprises accessing data on a flash media, searching the data for file indicia corresponding at least one predetermined file type, reading the data based on information in the file indicia, the data including a recovered file, and storing the recovered file on a storage medium. Other embodiments have been claimed and described.

Abstract: A plurality of flash (solid state) media coupled to a single form factor connector to provide a module, i.e., referred to as a SmartStack module, that can be coupled directly to a device with a SmartStack module controller. The SmartStack module does not include a controller and is controlled from the host side. The form factor connector would typically be a CompactFlash (CF) form factor or some other form factor used in a variety of devices. The SmartStack memory module in a preferred embodiment includes a write protect switch that prevents certain portions of the memory within the SmartStack module from being written to. In addition, a portion of the flash memory will be allocated to the secure area for storing information to implement various forms of security. Another portion of the flash memory is allocated to store optional biometric information such as a user's fingerprint or retinal scan information, etc.

Abstract: A memory card interface apparatus including a bay to receive a memory card for accessing data stored on the card, and a separate storage cavity configured to store a memory card. In one embodiment, the cavity includes an aperture providing access to remove a card from the storage cavity. In one embodiment, the cavity includes an element protruding out a side of the storage cavity to retain a card within the storage cavity. In one embodiment, the apparatus includes at least a second separate storage cavity configured to store a memory card. In one embodiment, the apparatus includes at least a third separate storage cavity configured to store a memory card. In one embodiment, the apparatus comprises a tower configuration. In one embodiment, the apparatus is configured to attach to a separate add-on configuration, the separate add-on configuration providing storage for additional memory cards. In one embodiment, the apparatus includes at least a third separate storage area configured to store a memory card.

Abstract: A surveillance system and a computer readable medium is provided. The surveillance system includes a video capture device and a processor. The processor configured to write video from the video capture device to a first memory card, configured to determine when a capacity of the first memory card is reached, and configured to automatically write to a second memory card when the capacity of the first memory card is reached. The computer readable medium having stored thereon a set of instructions, which when executed by a computer having a processor and memory, cause the computer to perform operations, including writing data to a first storage medium, determining when a capacity of the first storage medium is reached, and automatically writing to a second storage medium when the capacity of the first storage medium is reached.

Abstract: A method and software program for recovering data from corrupted flash media. In one aspect, the method employs a low-level access scheme that enables data to be recovered when high-level interfaces, such as file systems, are damaged. The type of flash media is determined, and a corresponding access scheme is employed. Depending on the type of damage to the media, a physical-to-logical table may be built and employed to sequentially access the flash media in search of indicia from which selectable file-types can be identified, or the media may be accessed using normal operating system commands. Once the file indicia are found, the location of corresponding file data is identified, whereupon the file data are read and stored. The software program employs an application program interface (API) comprising one or more sets of pass-through commands to enable low-level access to the flash media and to build the physical-to-logical table.

Abstract: A method and software program for recovering data from corrupted flash media. In one aspect, the method employs a low-level access scheme that enables data to be recovered when high-level interfaces, such as file systems, are damaged. The type of flash media is determined, and a corresponding access scheme is employed. Depending on the type of damage to the media, a physical-to-logical table may be built and employed to sequentially access the flash media in search of indicia from which selectable file-types can be identified, or the media may be accessed using normal operating system commands. Once the file indicia are found, the location of corresponding file data is identified, whereupon the file data are read and stored. The software program employs an application program interface (API) comprising one or more sets of pass-through commands to enable low-level access to the flash media and to build the physical-to-logical table.

Abstract: A memory card reader is disclosed. In one embodiment, the memory card reader comprises a first slot to receive a first memory card of a first format; a second slot to receive a second memory card of a second format having fewer interface pins than the first format; an Integrated Device Electronics (IDE) interface for transferring data to a system; and a single IDE converter, coupled to the IDE interface and the first and second slot, to interface with a memory card of the first format inserted in the first slot or a memory card of the second format inserted in the second slot, to convert signals from the first or second memory card into a format for the IDE interface, and the converter to detect a card inserted in the first or second slot by detecting a voltage change in the first or second slot.

Abstract: A memory card interface apparatus including a bay to receive a memory card for accessing data stored on the card, and a separate storage cavity configured to store a memory card. In one embodiment, the cavity includes an aperture providing access to remove a card from the storage cavity. In one embodiment, the cavity includes an element protruding out a side of the storage cavity to retain a card within the storage cavity. In one embodiment, the apparatus includes at least a second separate storage cavity configured to store a memory card. In one embodiment, the apparatus includes at least a third separate storage cavity configured to store a memory card. In one embodiment, the apparatus comprises a tower configuration. In one embodiment, the apparatus is configured to attach to a separate add-on configuration, the separate add-on configuration providing storage for additional memory cards. In one embodiment, the apparatus includes at least a third separate storage area configured to store a memory card.

Abstract: A single-slot multi-flash-card reader is disclosed. The flash-card reader includes an Integrated Device Electronics (IDE) interface for transferring data to a personal computer; and an IDE converter, coupled to the IDE interface, for converting multiple flash-card interfaces to a format used by the personal computer interface. The multiple flash-card interfaces include a COMPACTFLASH interface and smaller interfaces having fewer pins that the COMPACTFLASH interface. The flash-card reader includes a COMPACTFLASH connector, coupled to the IDE converter, for receiving a COMPACTFLASH card through a single slot in the single-slot multi-flash-card reader, the COMPACTFLASH connector making electrical connection with the COMPACTFLASH card for signals in the COMPACTFLASH interface. The flash-card reader also includes an adapter, having a physical shape to remove or insert into the COMPACTFLASH connector. The adapter has a mating COMPACTFLASH connector that fits the COMPACTFLASH connector.

Abstract: A multi-memory media adapter having a port, a surface, and a set of contact pins adapted to connect to different types of flash cards. Signals are mapped to the contact pins depending upon the type of flash card. In one embodiment, a controller has signal lines connected to an interconnection means which connects wires, cables or traces to the sets of contact pins. Signals are mapped on the signal lines depending upon the type of flash card inserted.

Abstract: A flash-memory-card reader reads and writes multiple types of flash-memory cards, including CompactFlash, and the smaller SmartMedia, MultiMediaCard, Secure Digital, and Memory Stick. A converter chip converts the different card signals for transfer to a host personal computer (PC). Serial-to-parallel data conversion is performed for the smaller card formats with serial data interfaces, but not for CompactFlash with a parallel-data interface. A single slot has a 50-pin connector for CompactFlash cards or passive adapters. The passive adapters have the CompactFlash form factor and a smaller connector fitting smaller flash cards. Passive adapters have no components but simply wire the smaller connector to the CompactFlash connector. A pin mapping allows card-type detection by sensing the LSB address pins of the CompactFlash interface. A larger CompactFlash reader has multiple slots for each card type. The reader is connected to the PC by a cable, or located within the PC chassis in a drive bay.

Abstract: A flash-memory-card reader reads and writes multiple types of flash-memory cards, including CompactFlash, and the smaller SmartMedia, MultiMediaCard, Secure Digital, and Memory Stick. A converter chip converts the different card signals for transfer to a host personal computer (PC). Serial-to-parallel data conversion is performed for the smaller card formats with serial data interfaces, but not for CompactFlash with a parallel-data interface. A signal slot has a 50-pin connector for CompactFlash cards or passive adapters. The passive adapters have the CompactFlash form factor and a smaller connector fitting smaller flash cards. Passive adapters have no components but simply wire the smaller connector to the CompactFlash connector. A pin mapping allows card-type detection by sensing the LSB address pins of the CompactFlash interface. A larger CompactFlash reader has multiple slots for each card type. The reader is connected to the PC by a cable, or located within the PC chassis in a drive bay.