Xilinx Embedded Software (embeddedsw) Development. 1.00a ecm 02/10/10 Initial release. 2.00a mb 25/05/12 using the EDK provided devcfg driver.

• Xilinx Ecm Driver Download
• Xilinx Ecm Driver Download
• Xilinx Ecm Driver

1. Xilinx ECM driver is a Shareware software in the category Miscellaneous developed by Xilinx. It was checked for updates 31 times by the users of our client application UpdateStar during the last month. The latest version of Xilinx ECM driver is currently unknown. It was initially added to our database on.
2. Build USB Ethernet network gadget driver. The USB Ethernet network gadget driver caused the device to appear to be a USB network dongle when connected to a host computer. Generally it is best to build USB gadget drivers as modules instead of building them into the kernel so you can unload one and load another.

This component contains the implementation of the XUartLite component which is the driver for the Xilinx UART Lite device. This UART is a minimal hardware implementation with minimal features. Most of the features, including baud rate, parity, and number of data bits are only configurable when the hardware device is built, rather than at run time by software.

The device has 16 byte transmit and receive FIFOs and supports interrupts. The device does not have any way to disable the receiver such that the receive FIFO may contain unwanted data. The FIFOs are not flushed when the driver is initialized, but a function is provided to allow the user to reset the FIFOs if desired.

The driver defaults to no interrupts at initialization such that interrupts must be enabled if desired. An interrupt is generated when the transmit FIFO transitions from having data to being empty or when any data is contained in the receive FIFO.

In order to use interrupts, it's necessary for the user to connect the driver interrupt handler, XUartLite_InterruptHandler, to the interrupt system of the application. This function does not save and restore the processor context such that the user must provide it. Send and receive handlers may be set for the driver such that the handlers are called when transmit and receive interrupts occur. The handlers are called from interrupt context and are designed to allow application specific processing to be performed.

The functions, XUartLite_Send and XUartLite_Recv, are provided in the driver to allow data to be sent and received. They are designed to be used in polled or interrupt modes.

The driver provides a status for each received byte indicating any parity frame or overrun error. The driver provides statistics which allow visibility into these errors.

Initialization & Configuration

The XUartLite_Config structure is used by the driver to configure itself. This configuration structure is typically created by the tool-chain based on HW build properties.

To support multiple runtime loading and initialization strategies employed by various operating systems, the driver instance can be initialized in one of the following ways:

Xilinx Ecm Driver Download

• XUartLite_Initialize(InstancePtr, DeviceId) - The driver looks up its own configuration structure created by the tool-chain based on an ID provided by the tool-chain.

• XUartLite_CfgInitialize(InstancePtr, CfgPtr, EffectiveAddr) - Uses a configuration structure provided by the caller. If running in a system with address translation, the provided virtual memory base address replaces the physical address present in the configuration structure.

RTOS Independence

This driver is intended to be RTOS and processor independent. It works with physical addresses only. Any needs for dynamic memory management, threads or thread mutual exclusion, virtual memory, or cache control must be satisfied by the layer above this driver.

Note

The driver is partitioned such that a minimal implementation may be used. More features require additional files to be linked in.

XIic is the driver for an IIC master or slave device.In order to reduce the memory requirements of the driver the driver is partitioned such that there are optional parts of the driver. Slave, master, and multimaster features are optional such that all these files are not required at the same time. In order to use the slave and multimaster features of the driver, the user must call functions (XIic_SlaveInclude and XIic_MultiMasterInclude) to dynamically include the code. These functions may be called at any time.

Two sets of higher level API's are available in the XIic driver that can be used for Transmission/Reception in Master mode : Korg vst crack.

• XIic_MasterSend()/ XIic_MasterRecv() which is used in normal mode.
• XIic_DynMasterSend()/ XIic_DynMasterRecv() which is used in Dynamic mode.

Similarly two sets of lower level API's are available in XIic driver that can be used for Transmission/Reception in Master mode:

• XIic_Send()/ XIic_Recv() which is used in normal mode
• XIic_DynSend()/ XIic_DynRecv() which is used in Dynamic mode.

The user should use a single set of APIs as per his requirement and should not intermix them.

All the driver APIs can be used for read, write and combined mode of operations on the IIC bus.

In the normal mode IIC support both 7-bit and 10-bit addressing, and in the dynamic mode support only 7-bit addressing.

Initialization & Configuration

The XIic_Config structure is used by the driver to configure itself. This configuration structure is typically created by the tool-chain based on HW build properties.

To support multiple runtime loading and initialization strategies employed by various operating systems, the driver instance can be initialized in one of the following ways:

• XIic_Initialize() - The driver looks up its own configuration structure created by the tool-chain based on an ID provided by the tool-chain.

• XIic_CfgInitialize() - The driver uses a configuration structure provided by the caller. If running in a system with address translation, the provided virtual memory base address replaces the physical address present in the configuration structure.

General Purpose Output The IIC hardware provides a General Purpose Output Register that allows the user to connect general purpose outputs to devices, such as a write protect, for an EEPROM. This register is parameterizable in the hardware such that there could be zero bits in this register and in this case it will cause a bus error if read or written.

Bus Throttling

The IIC hardware provides bus throttling which allows either the device, as either a master or a slave, to stop the clock on the IIC bus. This feature allows the software to perform the appropriate processing for each interrupt without an unreasonable response restriction. With this design, it is important for the user to understand the implications of bus throttling.

Repeated Start

An application can send multiple messages, as a master, to a slave device and re-acquire the IIC bus each time a message is sent. The repeated start option allows the application to send multiple messages without re-acquiring the IIC bus for each message. The transactions involving repeated start are also called combined transfers if there is Read and Write in the same transaction.

The repeated start feature works with all the API's in XIic driver.

The Repeated Start feature also could cause the application to lock up, or monopolize the IIC bus, should repeated start option be enabled and sequences of messages never end(periodic data collection). Also when repeated start is not disable before the last master message is sent or received, will leave the bus captive to the master, but unused.

Addressing

The IIC hardware is parameterized such that it can be built for 7 or 10 bit addresses. The driver provides the ability to control which address size is sent in messages as a master to a slave device. The address size which the hardware responds to as a slave is parameterized as 7 or 10 bits but fixed by the hardware build.

Addresses are represented as hex values with no adjustment for the data direction bit as the software manages address bit placement. This is especially important as the bit placement is not handled the same depending on which options are used such as repeated start and 7 vs 10 bit addressing.

Data Rates

The IIC hardware is parameterized such that it can be built to support data rates from DC to 400KBit. The frequency of the interrupts which occur is proportional to the data rate.

Polled Mode Operation

This driver does not provide a polled mode of operation primarily because polled mode which is non-blocking is difficult with the amount of interaction with the hardware that is necessary.

Interrupts

The device has many interrupts which allow IIC data transactions as well as bus status processing to occur.

The interrupts are divided into two types, data and status. Data interrupts indicate data has been received or transmitted while the status interrupts indicate the status of the IIC bus. Some of the interrupts, such as Not Addressed As Slave and Bus Not Busy, are only used when these specific events must be recognized as opposed to being enabled at all times.

Many of the interrupts are not a single event in that they are continuously present such that they must be disabled after recognition or when undesired. Some of these interrupts, which are data related, may be acknowledged by the software by reading or writing data to the appropriate register, or must be disabled. The following interrupts can be continuous rather than single events.

• Data Transmit Register Empty/Transmit FIFO Empty
• Data Receive Register Full/Receive FIFO
• Transmit FIFO Half Empty
• Bus Not Busy
• Addressed As Slave
• Not Addressed As Slave

The following interrupts are not passed directly to the application through the status callback. These are only used internally for the driver processing and may result in the receive and send handlers being called to indicate completion of an operation. The following interrupts are data related rather than status.

• Data Transmit Register Empty/Transmit FIFO Empty
• Data Receive Register Full/Receive FIFO
• Transmit FIFO Half Empty
• Slave Transmit Complete

Interrupt To Event Mapping

Xilinx Ecm Driver Download

The following table provides a mapping of the interrupts to the events which are passed to the status handler and the intended role (master or slave) for the event. Some interrupts can cause multiple events which are combined together into a single status event such as XII_MASTER_WRITE_EVENT and XII_GENERAL_CALL_EVENT

Xilinx Ecm Driver

Not Addressed As Slave Interrupt

The Not Addressed As Slave interrupt is not passed directly to the application through the status callback. It is used to determine the end of a message being received by a slave when there was no stop condition (repeated start). It will cause the receive handler to be called to indicate completion of the operation.

RTOS Independence

This driver is intended to be RTOS and processor independent. It works with physical addresses only. Any needs for dynamic memory management, threads or thread mutual exclusion, virtual memory, or cache control must be satisfied by the layer above this driver.