Abstract: A mechanism within an electronic system for adapting a field programmable gate array (FPGA) to a flash memory device that supports a synchronous serial peripheral interface (SPI) by coupling a small amount of MSI logic with the FPGA and the flash memory device, to configure the FPGA to a designed configuration state. The system comprises a first and additional FPGAs that support a serial configuration interface, SPI flash memory, and a parallel-load 8-bit shift register. SPI flash memory is initialized with a first configuration data pattern that is read from SPI flash memory and applied to the FPGAs during a first device configuration process resulting in the FPGAs each attaining a designed configuration state. The SPI flash memory is subsequently initialized with a second configuration data pattern by means of the first FPGA. Each FPGA attains another distinct designed configuration state by a second device configuration process.

Abstract: A mechanism within an electronic system for adapting a field programmable gate array (FPGA) to a flash memory device that supports a synchronous serial peripheral interface (SPI) by coupling a small amount of MSI logic with the FPGA and the flash memory device, to configure the FPGA to a designed configuration state. The system comprises a first and additional FPGAs that support a serial configuration interface, SPI flash memory, and a parallel-load 8-bit shift register. SPI flash memory is initialized with a first configuration data pattern that is read from SPI flash memory and applied to the FPGAs during a first device configuration process resulting in the FPGAs each attaining a designed configuration state. The SPI flash memory is subsequently initialized with a second configuration data pattern by means of the first FPGA. Each FPGA attains another distinct designed configuration state by a second device configuration process.

Abstract: The basket-like container (1) contains a reception volume for bone tissue. After the filling in of the bone tissue the container is implanted. The reception volume is located within a wall (2) which is arranged about an axis (10). This peripheral wall consists of a grid, a fabric or a mesh. Transversely to the axis the wall enables an X-ray optical seeing through of the unfilled reception volume. The surface component, which is permeable by X-rays, amounts to at least 30%.