J-Flash SPI is a PC software running on Microsoft Windows (backward compatible down to Windows 2000) systems, Linux or macOS, which allows direct programming of SPI flashes via J-Link or Flasher. The flash is programmed directly via J-Link using the SPI protocol, no CPU / MCU in between.
SPI Flash Standardization The good news is that just about every 8-pin Flash chip has a standard pinout and SPI interface, these tend to have the number 25 somewhere in the beginning of the part number. There are also ones that are only I2C - these will have the number 24 somewhere in the part number. This page is just about SPI flash. TI’s FLASH-PROGRAMMER software download help users get up and running faster, reducing time to market. Software description and features provided along with supporting documentation and resources.
J-Flash SPI is a PC software running on Microsoft Windows (backward compatible down to Windows 2000) systems, Linux or macOS, which allows direct programming of SPI flashes via J-Link or Flasher. The flash is programmed directly via J-Link using the SPI protocol, no CPU / MCU in between.
Latest news Dec 04, 2020 – ChipProgUSB software v. 6.23.00 is available for download. New supported devices. Dec 04, 2020 – ChipProg-02 software v. Make configenablelibpciprogrammers=no configenablelibusb0programmers=no configenablelibusb1programmers=no 4. Connect your chip clip - If you have one, otherwise there's loads available on digikey.
Most common SPI flashes are automatically recognized by their respective ID and can easily be programmed with no further setup / configuration of J-Flash SPI needed to be done by the user.
In order to use J-Flash SPI, either a higher-end J-Link model (J-Link PLUS or higher, click here for the debug probe model overview) or a Flasher Production Programmer (click here for the flash programmer model overview) is needed.
The following table lists the pinout for the SPI interface on J-Link / Flasher.
Pin | Signal | Type | Description |
---|---|---|---|
1 | VTref | Input | This is the target reference voltage. It is used to check if the target has power, to create the logic-level reference for the input comparators and to control the output logic levels to the target. It is normally fed from Vdd of the target board and must not have a series resistor. |
2 | Not connected | NC | Leave open on target side. |
3 | Not connected | NC | Leave open on target side. |
5 | DI | Output | Data-input of target SPI. Output of J-Link, used to transmit data to the target SPI. |
7 | nCS | Output | Chip-select of target SPI (active LOW). |
9 | CLK | Output | SPI clock signal. |
11 | Not connected | NC | Leave open on target side. |
13 | DO | Input | Data-out of target SPI. Input of J-Link, used to receive data from the target SPI. |
15 | nRESET | Output | Target CPU reset signal (active LOW). Typically connected to the reset pin of the target CPU, which is typically called 'nRST', 'nRESET' or 'RESET'. |
17 | Not connected | NC | Leave open on target side. |
19 | 5V-Supply | Output | This pin can be used to supply power to the target hardware. Older J-Links may not be able to supply power on this pin. |
Fast and furious font download. Pins 4, 6, 8, 10, 12 are GND pins connected to GND in J-Link. They should also be connected to GND in the target system.
*On later J-Link products like the J-Link ULTRA, these pins are reserved for firmware extension purposes. They can be left open or connected to GND.
stronghold 2 download ita macPinout SPI 20-pin
The following table lists the pinout for the quad SPI (QSPI) interface.
Pin | Signal | Type | Description | |||
---|---|---|---|---|---|---|
1 | VTref | Input | This is the target reference voltage. It is used to check if the target has power, to create the logic-level reference for the input comparators and to control the output logic levels to the target. It is normally fed from Vdd of the target board and must not have a series resistor. | |||
2 | Not connected | NC | Leave open on target side. | |||
3 | IO1 | I/O | Bi-directional data I/O pin 1 | |||
5 | IO0/DI | I/O | Single:>7 | nCS | Output | Chip-select of target SPI (active LOW). |
9 | CLK | Output | SPI clock signal. | |||
11 | IO2 | I/O | Bi-directional data I/O pin 2 | |||
13 | DO | Input | Single:>15 | nRESET | Output | Target CPU reset signal (active LOW). Typically connected to the reset pin of the target CPU, which is typically called 'nRST', 'nRESET' or 'RESET'. |
17 | IO3 | I/O | Bi-directional data I/O pin 3 | |||
19 | 5V-Supply | Output | This pin can be used to supply power to the target hardware. Older J-Links may not be able to supply power on this pin. |
Pins 4, 6, 8, 10, 12 are GND pins connected to GND in J-Link. They should also be connected to GND in the target system.
*On later J-Link products like the J-Link ULTRA, these pins are reserved for firmware extension purposes. They can be left open or connected to GND.
Pinout QSPI 20-pin
The following table lists the pinout for the SPI interface on J-Link / Flasher when using the J-Link 10-pin Needle Adapter (model 8.06.04).
Pin | Signal | Type | Description |
---|---|---|---|
1 | VTref | Input | This is the target reference voltage. It is used to check if the target has power, to create the logic-level reference for the input comparators and to control the output logic levels to the target. It is normally fed from Vdd of the target board and must not have a series resistor. |
2 | nCS | Output | Chip-select of target SPI (active LOW). |
4 | CLK | Output | SPI clock signal. |
5 | 5V-Supply | Output | This pin can be used to supply power to the target hardware. Older J-Links may not be able to supply power on this pin. |
6 | DO | Input | Data-out of target SPI. Input of J-Link, used to receive data from the target SPI. |
7 | Not connected | NC | Leave open on target side. |
8 | DI | Output | Data-input of target SPI. Output of J-Link, used to transmit data to the target SPI. |
9 | Not connected | NC | Leave open on target side. |
10 | nRESET | Output | Target CPU reset signal. Typically connected to the RESET pin of the target CPU, which is typically called 'nRST', 'nRESET' or 'RESET'. |
Pin 3 is GND pin connected to GND in J-Link. It should also be connected to GND in the target system.
Notes regarding nRESET: If there is another device / peripheral that also controls the SPI flash (e.g. a CPU the flash is connected to), nRESET of J-Link should be connected to the reset of the target system or the reset pin of the CPU to make sure that J-Link can keep the CPU in reset while programming the SPI flash.
J-Flash SPI connection
J-Flash SPI is able to auto-detect common SPI flashes automatically, via their respective ID. Anyhow, since all flash parameters (size, commands etc.) can also be manually configured by the user, any SPI flash device can be supported. The list of flash devices that are supported by the flash auto-detection of J-Flash SPI can be found here:
Atmel DataFlash is not supported by J-Flash SPI as its instruction set and handling in general is significantly different from any other SPI flash. Moreover, its page/sector size is not a power of 2, making it incompatible to existing concepts.
Selecting the right (Q)SPI flash that fits the needs can be a difficult task. There are plenty of different flashes as well as vendors available and creating a hardware for each candidate is time consuming and costly.
Autocad structural detailing 2016 torrent. To make evaluation of different (Q)SPI flashes a lot easier, we have created a (QSPI) evaluation board.
A command line version of J-Flash SPI is available for Windows, Linux and macOS, too. The command line version is also part of the J-Link software and documentation package. Please note that the GUI version of J-Flash SPI can also be controlled from the command line.
Due to the high performance and the efficient protocol of J-Link/Flasher, programming speeds up to the max. flash programming specified by the flash vendor, can be achieved.
Flash device | Programming speed1 |
---|---|
ISSI IS25LP128 | 500 KB/s |
ISSI IS25LD040 | 100 KB/s |
ISSI IS25LQ080 | 340 KB/s |
ISSI IS25CD010 | 100 KB/s |
ISSI IS25CQ032 | 190 KB/s |
Macronix MX25L3235E | 285 KB/s |
Macronix MX66L1G45G | 430 KB/s |
Macronix MX66L51235F | 315 KB/s |
Micron N25Q128A | 270 KB/s |
Micron M25P10 | 160 KB/s |
Micron M25PX16 | 230 KB/s |
Micron M45PE10 | 230 KB/s |
Micron M25PE4 | 215 KB/s |
Spansion S25FL128 | 410 KB/s |
Spansion S25FL116K | 265 KB/s |
Winbond W25Q128FV | 340 KB/s |
1 Max. flash programming speed that can be achieved depends on flash device. Flash programming is done in pages and page size as well as page programming time varies from device to device. For more information about the page programming time for a specific flash device, please refer to the appropriate datasheet.
A: Please check the SEGGER wiki for more information which J-Link hardware versions support the 'SPI interface': wiki.segger.com/Software_and_Hardware_Features_Overview
The Opal Kelly XEM6001 is an integration module based on a XilinxSpartan-6 FPGA (XC6SLX16-2FTG256C). In addition to a high gate-count FPGA, the XEM6001 utilizes the high transfer rate of USB 2.0 for configuration downloads, enabling an almost instant reprogramming of the FPGA. The XEM6001 features flexible clocking with a multi-output clock generator that can generate clock frequencies from 1 MHz to 150 MHz. If higher frequencies are needed, the clock multipliers in the FPGA can be used.
Opal Kelly’s FrontPanel SDK is an easy-to-use, robust API for communication, configuration, and interfacing to your PC, Mac or Linux hardware. FrontPanel handles all the interaction between your software and the FPGA internals, dramatically reducing the time and effort required to interface to a design.
Opal Kelly FPGA integration modules are designed to be the ideal turnkey solution for prototypes and OEM product integration. With the complete FrontPanel SDK, there’s simply no faster, more reliable, production-ready way to jump start your FPGA design.
Virtual interface elements such as buttons, LEDs, and hex displays make cumbersome 'I/O Boards' a thing of the past.
86 I/Os and 6 CLK pins are all arranged on a common 0.1' grid for easy prototyping.
A 32-Mbit SPI Serial Flash device is included for FPGA configuration or general data storage. An on-board switch lets you choose between USB or Flash for FPGA configuration, enabling full stand-alone operation. USB communication via FrontPanel is available in either mode.
The on-board PLL provides flexible clocking to the FPGA and expansion connectors.