Xilinx Serial Flash Loader admin 0 Home ASIX: FORTE - Supported Devices FORTE - Supported Devices >>>>2015-11-23 FORTE supports wide range of devices: • 32-bit ARM-based MCUs by various vendors For example ATSAM3N4A, ATSAMD20E18A, AT91SAM7SE512, LPC11E14, LPC810, STM32F427IG.
In this article we will use Xilinx SDK to create a bootable image for Styx Zynq Module for booting via following modes:
- SD Boot Mode
- QSPI Flash Boot Mode
Styx Zynq Module can boot from JTAG as well. This is explained in detail in the article “Getting Started With Zynq on Styx using Vivado Design Suite“. SD Boot and QSPI Boot methods are available for booting Styx Zynq Modulefrom non-volatile sources . We will use Vivado to create a basic “Hello World” program for Styx Zynq Module running on Zynq’s ARM processor and boot it from both SD Card as well as QSPI Flash.
- Hardware:
- Xilinx Platform Cable II JTAG debugger.
- Software:
- Xilinx Vivado Suite 2017.3 or higher
- FT_Prog tool for configuring on-board FT2232H USB Serial converter (download and install from FTDI website)
The following steps will walk you through the process of creating bootable image. To create Vivado project, follow the same steps from 1 to 14 mentioned in the Getting Started with Zynq Styx article here: https://numato.com/kb/getting-started-zynq-styx-using-vivado-design-suite/
After launching the SDK successfully, we now move on to creating the bootable image for SD card and QSPI Flash.
Step 1: After following till step-14 of the “Getting Started with Zynq Styx”, you should have Xilinx SDK open. In the Xilinx SDK window, Go to File -> New -> Application Project.
Step 2: We need to create an ‘fsbl (first stage boot loader)’ application. Type in a project name, leave other options as default, and click “Next”. In the next window, select ‘Zynq FSBL’ template and click “Finish”.
Step 3: After fsbl project is created, the next step is to create a ‘Hello World’ application in the same way as fsbl application project. Go to File -> New -> Application Project. In the “New Project” dialog window, type in a project name, choose “Use existing” bsp and select fsbl_bsp. Leave other options as default and click “Next”. In the next window, select ‘Hello World’ template and click “Finish”.
There is a minor modification we need to do to the code at this point. The application generated using SDK will print “Hello World” a single time and exit. We want to change the application code so that the code will keep printing the data indefinitely. Find the printf statement in the code (helloworld.c) and replace that with the following code.
All that we are doing here is to surround the printf statement in a while loop so the printing never stops. Save the project and build.
Step 4: Select the ‘helloWorld’ in the Project Explorer, go to Xilinx Tools -> Create Boot Image. The tool automatically picks the files needed to create bootable image. If the files are not added automatically then add the following files manually.
- fsbl.elf (Bootloader)
- styxHello.bit (Bitstream)
- helloWorld.elf (Application program)
Step 5: To boot from SD card we need a .bin file, so, select the output format as ‘BIN’ if not already selected. Click on “Create Image” to create BOOT.bin file.
Step 6: After generating BOOT.bin file successfully, copy the BOOT.bin into SD card. Make sure to configure channel B of the onboard FT2232H USB – Serial device as virtual communication port using FT_Prog. The process is very similar to that of Saturn and details are available here. Change the Styx boot mode to SD Card by following instructions in the Styx User Manual. Insert the SD card into Styx and connect the micro USB cable. Power up the board. .
Open any serial terminal (such as PuTTY) and connect to the COM Port corresponding to Styx at
115200
baudrate. If everything went well, Styx should boot up from SD card and print “Hello World” repeatedly over USB-UART on the serial terminal application.Step 1: Follow the same steps from 1 to 4 mentioned in the Boot from SD card. To boot from QSPI Flash we need .mcs file so, select output format as MCS if not already selected. Click on “Create Image” to create BOOT.mcs file.
Step 2: After BOOT.mcs file is generated, make sure to configure channel B of the onboard FT2232H USB – Serial device as virtual communication port using FT_Prog. The process is very similar to that of Saturn and details are available here. Then, change the Styx boot mode to QSPI Flash Boot Mode by following instructions in the Styx User Manual. Connect the micro USB cable and Xilinx Platform Cable USB II to Styx and then power up the board. Program the flash memory by selecting BOOT.mcs image file in the Xilinx Tools -> Program Flash.
Open any serial terminal (such as PuTTY) and connect to the COM Port corresponding to Styx at
115200
baudrate. If everything went well, Styx should boot up from QSPI flash and print “Hello World” continuously over USB-UART on the serial terminal application.ASIX: FORTE - Supported Devices FORTE - Supported Devices >>>>2015-11-23 FORTE supports wide range of devices: • 32-bit ARM-based MCUs by various vendors For example ATSAM3N4A, ATSAMD20E18A, AT91SAM7SE512, LPC11E14, LPC810, STM32F427IG. Supported by:. • Microchip PIC ®, dsPIC/PIC24 ® and PIC32 ® MCUs Serially programmable (all Flash and EEPROM parts). Supported by:. • Atmel AVR ®, ATxmega, AVR32 and 8051 architecture MCUs For example ATtiny12, AT90S8535, ATmega128, ATxmega32D4, AT32UC3A1256, AT89S51. Supported by:. • Texas Instruments MSP430 ® and CC430 ® MCUs (Including Security Fuse blowing and Bootstrap loader memory programming).
Xilinx SREC SPI loader is used to bootstrap u-boot into external memory, then u-boot is used for all flash operations as required. The image to be written can be loaded to external RAM and then written to SPI Flash as needed. Step by Step. FPGA loads from address 0, Microblaze starts from BRAM with SREC Loader.
![Xilinx Serial Flash Loader Xilinx Serial Flash Loader](https://docs.numato.com/wp-content/uploads/2016/03/neso-vivadostep1.png)
Supported by:. • Chipcon (now Texas Instruments) CCxxxx ® MCUs Supported by:. • Dallas/Maxim ® 1-Wire 1-Wire devices (memories: DS24xx, 25xx, 28xx). Supported by:. • Cypress PSoC ® MCUs CY8U21xx, CY8U24xx and CY8U27xx.
Supported by:. Calendar Download Free Photoshop Cs6. • Silicon Labs EFM8 and C8051 MCUs For example EFM8BB22F16, EFM8SB10F8, C8051F326, C8051F968. Supported by:.
• ST STM8 MCUs STM8S, STM8L and STM8A - e.g. STM8S207R8, STM8L152C4. Supported by:. • Components with JTAG interface - types which can be programmed using SVF or XSVF file - for example • CPLDs - Xilinx (XC95xx, CoolRunner.), Altera, Lattice and others • FPGA configuration Flash PROMs - Xilinx (XC18Vxx, XCFxxS) • Atmel ATmega Supported by:. • Serial EEPROM and Flash memories • I 2C (24LCxx) • Microwire (93LCxx) • SPI EEPROM (25Cxx) • SPI Flash EPROM (M25Pxx, M45PExx.) • UNI/O EEPROM (11AAxxx, 11LCxxx) Supported by:. The with comparison chart for PRESTO and FORTE. Note for low-voltage versions of Microchip parts: The programming algorithm for the PIC.
Devices is the same as for the PIC. So, when you need to program e.g. The PIC18 LF2420 chip, select the PIC18 F2420 device. If you need to program a device not listed here, please contact us and, if FORTE is able to support the device, we will implement it.
Addition of any part manufactured by the vendors listed above is free in most cases, sometimes we will charge you a moderate fee. For more information do not hesitate to © ASIX s.r.o., 1991- 2015. All rights reserved. Instructions For Dingbats Games Games.
Overview BittWare’s XUPP3R is a 3/4-length PCIe x16 card based on the Xilinx Virtex UltraScale+ FPGA. The UltraScale+ devices deliver high-performance, high-bandwidth, and reduced latency for systems demanding massive data flow and packet processing. The board offers extensive memory configurations supporting up to 256 GBytes of memory, sophisticated clocking and timing options, and four front panel QSFP cages, each supporting up to 100 Gbps (4×25) – including 100GbE.
The XUPP3R also incorporates a Board Management Controller (BMC) for advanced system monitoring, which greatly simplifies platform integration and management. All of these features combine to make the XUPP3R ideal for a wide range of data center applications, including network processing and security, acceleration, storage, broadcast, and SigInt.
Xilinx Virtex UltraScale+ FPGA The Xilinx UltraScale+ FPGAs are built on 16 nm process technology using 16FF+ FinFET 3D transistors to offer higher performance per watt than previous generations. Virtex UltraScale+ devices feature up to 128x 32.75 Gbit/s transceivers, which enable 400GbE, 100GbE, and 25GbE. The UltraScale+ FPGAs offer programmable system integration with over 400 Mb of on-chip memory, integrated 100G Ethernet MAC with RS-FEC and 150G Interlaken cores, and IP blocks for PCIe Gen3 x16 and Gen4 x8.
Up to 11,904 DSP slices provide high-level DSP compute performance. I/O Interfaces The XUPP3R provides a variety of interfaces for high-speed serial I/O as well as debug support. Four QSFP28 cages are available on the front panel, each supporting 100GbE, 40GbE, four 25GbE, or four 10GbE channels, for a total of up to 400 Gbps of bandwidth. The four QSFPs can also be combined for 400GbE.
The QSFP channels are connected directly to the UltraScale+ FPGA via 16 transceivers. The QSFP cages can optionally be adapted for SFP+. A Gen3 x16 or Gen4 x8 PCIe interface connects to the FPGA via 16 transceivers. An optional serial expansion port provides a 20x transceiver port connection to the FPGA and can be used to add serial memory, such as Hybrid Memory Cube (HMC) or an additional PCIe interface.
The expansion interface also provides 14 GPIO signals. A USB 2.0 interface is available for debug and programming support. The board also supports timestamping with provision for a 1 PPS and reference clock input. Memory The XUPP3R features four DIMM sites that support standard DDR4 DIMMs and proprietary QDR-II+ RDIMMs. Each DIMM site supports up to 128 GBytes of DDR4 with optional ECC or up to 576 Mbits QDRII+ (2x 288Mbit banks x18). Additional on-board memory includes Flash with factory default and support for multiple FPGA images.
Active and Passive Cooling Options In addition to standard active fan and heatsink cooling, the XUPP3R offers two passive options, standard and our new advanced passive cooling using heat pipes. The XUPP3R features an advanced system monitoring subsystem, similar to those typically found on today’s server platforms. At the heart of the board’s monitoring system lies a Board Management Controller (BMC), which accepts Intelligent Platform Management Interface (IPMI) messaging protocol commands. The BMC provides a wealth of features, including control of power and resets, monitoring of board sensors, FPGA boot loader, voltage overrides, configuration of programmable clocks, access to I2C bus components, field upgrades, and IPMI messaging.
Access to the BMC is via PCIe or USB. BittWare’s BittWorks II Toolkit also provides utilities and libraries for communicating with the BMC components at a higher, more abstract level, allowing developers to remotely monitor the health of the board. BwMonitor in the BittWorks II Toolkit provides a view into the board management capabilities of your BittWare hardware.
Development Tools BittWorks II Toolkit BittWare offers complete software support for the XUPP3R with its BittWorks II software tools. Designed to make developing and debugging applications for BittWare’s boards easy and efficient, the Toolkit is a collection of libraries and applications that provides the glue between the host application and the hardware. A variety of features allow developers to take full advantage of the Xilinx UltraScale+ FPGA capabilities on the BittWare board, including FPGA control via PCIe, Flash programming, custom ISR scripts, and convenient control of FPGA loads. The Toolkit supports 64-bit Windows and Linux platforms and can connect to the board via PCIe or USB, providing a common API no matter the connection method.
FPGA Example Projects BittWare offers FPGA example projects to provide board support IP and integration for its Xilinx FPGA-based boards. The example projects easily integrate into existing FPGA development environments and illustrate how to move data between the board’s different interfaces. Available example projects include the following: PCIe Gen3x16 Base Project, PCIe DMA, DDR4, QDR II/II+, and SerDes (iBERT). All examples are available for download on BittWare’s developer website.