ALINX AC7200-2FGG484I ARTIX-7 FPGA Core Board User Manual
- June 13, 2024
- ALINX
Table of Contents
ALINX AC7200-2FGG484I ARTIX-7 FPGA Core Board
Product Information
- The ARTIX-7 FPGA Core Board AC7200 is a high-performance core board based on XILINX’s ARTIX-7 series 200T AC7200-2FGG484I. It offers high speed, high bandwidth, and high capacity, making it suitable for applications such as high-speed data communication, video image processing, and high-speed data acquisition.
- The core board features two pieces of MICRON’s MT41J256M16HA-125 DDR3 chips, each with a capacity of 4Gbit. These DDR chips are combined into a 32-bit data bus width, providing a read/write data bandwidth of up to 25Gb between the FPGA and DDR3. This configuration meets the requirements of high-bandwidth data processing.
- The AC7200 core board provides 180 standard IO ports of 3.3V level, 15 standard IO ports of 1.5V level, and 4 pairs of GTP high-speed RX/TX differential signals. It is designed for users who require a large number of IO ports. The routing between the FPGA chip and the interface is equal in length and differential processing. The compact size of the core board (45*55 mm) makes it suitable for secondary development.
- The FPGA chip used in the AC7200 core board is the AC7200-2FGG484I model from Xilinx’s Artix-7 series. It belongs to speed grade 2 and temperature grade industry grade. The FGG484 package contains 484 pins.
- The core board is equipped with two Sitime active differential crystals. One crystal operates at 200MHz (model: SiT9102-200.00MHz) and serves as the system main clock for the FPGA and generates the DDR3 control clock. The other crystal operates at 125MHz (model: SiT9102-125MHz) and serves as the reference clock input for GTP transceivers.
Product Usage Instructions
To use the ARTIX-7 FPGA Core Board AC7200, follow these steps:
- Connect the core board to the required power supply using the appropriate power cables.
- If necessary, connect external devices or modules to the available IO ports on the core board.
- Ensure the FPGA chip is properly seated on the core board and securely connected.
- If using DDR3 memory, ensure that the two MT41J256M16HA-125 DDR3 chips are correctly installed and configured for use.
- If using GTP transceivers, make sure to provide a reference clock input using the SiT9102-125MHz crystal.
- If required, configure the FPGA chip using the appropriate software or programming tool.
- Once the configuration is complete, power on the core board and begin utilizing its high-speed, high-bandwidth capabilities for your specific application.
Refer to the user manual for more detailed instructions and information on the ARTIX-7 FPGA Core Board AC7200 features and functionalities.
Version Record
| Version | Date | Release By | Description |
|---|---|---|---|
| Rev 1.0 | 2022-09-07 | First Release |
Part 1: AC7200 Core Board Introduction
- **** AC7200 (core board model, the same below) FPGA core board, it is based on XILINX’s ARTIX-7 series 200T AC7200-2FGG484I. It is a high-performance core board with high speed, high bandwidth and high capacity. It is suitable for high-speed data communication, video image processing, high-speed data acquisition, etc.
- This AC7200 core board uses two pieces of MICRON’s MT41J256M16HA-125 DDR3 chip, each DDR has a capacity of 4Gbit; two DDR chips are combined into a 32-bit data bus width, and the read/write data bandwidth between FPGA and DDR3 is up to 25Gb; such a configuration can meet the needs of high bandwidth data processing.
- The AC7200 core board expands 180 standard IO ports of 3.3V level, 15 standard IO ports of 1.5V level, and 4 pairs of GTP high-speed RX/TX differential signals. For users who need a lot of IO, this core board will be a good choice. Moreover, the routing between the FPGA chip and the interface is equal length and differential processing, and the core board size is only 45*55 (mm), which is very suitable for secondary development.
Part 2: FPGA Chip
As mentioned above, the FPGA model we use is AC7200-2FGG484I, which belongs
to Xilinx’s Artix-7 series. The speed grade is 2, and the temperature grade is
industry grade. This model is a FGG484 package with 484 pins. Xilinx ARTIX-7
FPGA chip naming rules as below
The main parameters of the FPGA chip AC7200 are as follows
| Name | Specific parameters |
|---|---|
| Logic Cells | 215360 |
| Slices | 33650 |
| CLB flip-flops | 269200 |
| Block RAM（kb） | 13140 |
| DSP Slices | 740 |
| PCIe Gen2 | 1 |
| --- | --- |
| XADC | 1 XADC,12bit, 1Mbps AD |
| GTP Transceiver | 4 GTP，6.6Gb/s max |
| Speed Grade | -2 |
| Temperature Grade | Industrial |
FPGA power supply system
Artix-7 FPGA power supplies are VCCINT, VCCBRAM, VCCAUX, VCCO, VMGTAVCC and VMGTAVTT. VCCINT is the FPGA core power supply pin, which needs to be connected to 1.0V; VCCBRAM is the power supply pin of FPGA block RAM, connect to 1.0V; VCCAUX is FPGA auxiliary power supply pin, connect 1.8V; VCCO is the voltage of each BANK of FPGA, including BANK0, BANK13~16, BANK34~35. On AC7200 FPGA core board, BANK34 and BANK35 need to be connected to DDR3, the voltage connection of BANK is 1.5V, and the voltage of other BANK is 3.3V. The VCCO of BANK15 and BANK16 is powered by the LDO, and can be changed by replacing the LDO chip. VMGTAVCC is the supply voltage of the FPGA internal GTP transceiver, connected to 1.0V; VMGTAVTT is the termination voltage of the GTP transceiver, connected to 1.2V.
The Artix-7 FPGA system requires that the power-up sequence be powered by VCCINT, then VCCBRAM, then VCCAUX, and finally VCCO. If VCCINT and VCCBRAM have the same voltage, they can be powered up at the same time. The order of power outages is reversed. The power-up sequence of the GTP transceiver is VCCINT, then VMGTAVCC, then VMGTAVTT. If VCCINT and VMGTAVCC have the same voltage, they can be powered up at the same time. The power-off sequence is just the opposite of the power-on sequence.
Part 3: Active Differential Crystal
The AC7200 core board is equipped with two Sitime active differential crystals, one is 200MHz, the model is SiT9102-200.00MHz, the system main clock for FPGA and used to generate DDR3 control clock; the other is 125MHz, model is SiT9102 -125MHz, reference clock input for GTP transceivers.
Part 3.1: 200Mhz Active Differential clock
G1 in Figure 3-1 is the 200M active differential crystal that provides the development board system clock source. The crystal output is connected to the BANK34 global clock pin MRCC (R4 and T4) of the FPGA. This 200Mhz differential clock can be used to drive the user logic in the FPGA. Users can configure the PLLs and DCMs inside the FPGA to generate clocks of different frequencies.
200Mhz Differential Clock Pin Assignment
| Signal Name | FPGA PIN |
|---|---|
| SYS_CLK_P | R4 |
| SYS_CLK_N | T4 |
Part 3.2: 148.5Mhz Active Differential Crystal
G2 in Figure 3-3 is the 148.5Mhz active differential crystal, which is the reference input clock provided to the GTP module inside the FPGA. The crystal output is connected to the GTP BANK216 clock pins MGTREFCLK0P (F6) and MGTREFCLK0N (E6) of the FPGA.
125Mhz Differential Clock Pin Assignment
| Net Name | FPGA PIN |
|---|---|
| MGT_CLK0_P | F6 |
| MGT_CLK0_N | E6 |
Part 4: DDR3 DRAM
The FPGA core board AC7200 is equipped with two Micron 4Gbit (512MB) DDR3 chips, model MT41J256M16HA-125 (compatible with MT41K256M16HA-125). The DDR3 SDRAM has a maximum operating speed of 800MHz (data rate 1600Mbps). The DDR3 memory system is directly connected to the memory interface of the BANK 34 and BANK35 of the FPGA. The specific configuration of DDR3 SDRAM is shown in Table 4-1.
| Bit Number | Chip Model | Capacity | Factory |
|---|---|---|---|
| U5,U6 | MT41J256M16HA-125 | 256M x 16bit | Micron |
The hardware design of DDR3 requires strict consideration of signal integrity. We have fully considered the matching resistor/terminal resistance, trace impedance control, and trace length control in circuit design and PCB design to ensure high-speed and stable operation of DDR3.
DDR3 DRAM pin assignment:
| Net Name | FPGA PIN Name | FPGA P/N |
|---|---|---|
| DDR3_DQS0_P | IO_L3P_T0_DQS_AD5P_35 | E1 |
| DDR3_DQS0_N | IO_L3N_T0_DQS_AD5N_35 | D1 |
| DDR3_DQS1_P | IO_L9P_T1_DQS_AD7P_35 | K2 |
| DDR3_DQS1_N | IO_L9N_T1_DQS_AD7N_35 | J2 |
| DDR3_DQS2_P | IO_L15P_T2_DQS_35 | M1 |
| DDR3_DQS2_N | IO_L15N_T2_DQS_35 | L1 |
| DDR3_DQS3_P | IO_L21P_T3_DQS_35 | P5 |
| DDR3_DQS3_N | IO_L21N_T3_DQS_35 | P4 |
| DDR3_DQ[0] | IO_L2P_T0_AD12P_35 | C2 |
| DDR3_DQ [1] | IO_L5P_T0_AD13P_35 | G1 |
| DDR3_DQ [2] | IO_L1N_T0_AD4N_35 | A1 |
| DDR3_DQ [3] | IO_L6P_T0_35 | F3 |
| DDR3_DQ [4] | IO_L2N_T0_AD12N_35 | B2 |
| DDR3_DQ [5] | IO_L5N_T0_AD13N_35 | F1 |
| DDR3_DQ [6] | IO_L1P_T0_AD4P_35 | B1 |
| --- | --- | --- |
| DDR3_DQ [7] | IO_L4P_T0_35 | E2 |
| DDR3_DQ [8] | IO_L11P_T1_SRCC_35 | H3 |
| DDR3_DQ [9] | IO_L11N_T1_SRCC_35 | G3 |
| DDR3_DQ [10] | IO_L8P_T1_AD14P_35 | H2 |
| DDR3_DQ [11] | IO_L10N_T1_AD15N_35 | H5 |
| DDR3_DQ [12] | IO_L7N_T1_AD6N_35 | J1 |
| DDR3_DQ [13] | IO_L10P_T1_AD15P_35 | J5 |
| DDR3_DQ [14] | IO_L7P_T1_AD6P_35 | K1 |
| DDR3_DQ [15] | IO_L12P_T1_MRCC_35 | H4 |
| DDR3_DQ [16] | IO_L18N_T2_35 | L4 |
| DDR3_DQ [17] | IO_L16P_T2_35 | M3 |
| DDR3_DQ [18] | IO_L14P_T2_SRCC_35 | L3 |
| DDR3_DQ [19] | IO_L17N_T2_35 | J6 |
| DDR3_DQ [20] | IO_L14N_T2_SRCC_35 | K3 |
| DDR3_DQ [21] | IO_L17P_T2_35 | K6 |
| DDR3_DQ [22] | IO_L13N_T2_MRCC_35 | J4 |
| DDR3_DQ [23] | IO_L18P_T2_35 | L5 |
| DDR3_DQ [24] | IO_L20N_T3_35 | P1 |
| DDR3_DQ [25] | IO_L19P_T3_35 | N4 |
| DDR3_DQ [26] | IO_L20P_T3_35 | R1 |
| DDR3_DQ [27] | IO_L22N_T3_35 | N2 |
| DDR3_DQ [28] | IO_L23P_T3_35 | M6 |
| DDR3_DQ [29] | IO_L24N_T3_35 | N5 |
| DDR3_DQ [30] | IO_L24P_T3_35 | P6 |
| DDR3_DQ [31] | IO_L22P_T3_35 | P2 |
| DDR3_DM0 | IO_L4N_T0_35 | D2 |
| DDR3_DM1 | IO_L8N_T1_AD14N_35 | G2 |
| DDR3_DM2 | IO_L16N_T2_35 | M2 |
| DDR3_DM3 | IO_L23N_T3_35 | M5 |
| DDR3_A[0] | IO_L11N_T1_SRCC_34 | AA4 |
| DDR3_A[1] | IO_L8N_T1_34 | AB2 |
| DDR3_A[2] | IO_L10P_T1_34 | AA5 |
| DDR3_A[3] | IO_L10N_T1_34 | AB5 |
| DDR3_A[4] | IO_L7N_T1_34 | AB1 |
| DDR3_A[5] | IO_L6P_T0_34 | U3 |
| DDR3_A[6] | IO_L5P_T0_34 | W1 |
| --- | --- | --- |
| DDR3_A[7] | IO_L1P_T0_34 | T1 |
| DDR3_A[8] | IO_L2N_T0_34 | V2 |
| DDR3_A[9] | IO_L2P_T0_34 | U2 |
| DDR3_A[10] | IO_L5N_T0_34 | Y1 |
| DDR3_A[11] | IO_L4P_T0_34 | W2 |
| DDR3_A[12] | IO_L4N_T0_34 | Y2 |
| DDR3_A[13] | IO_L1N_T0_34 | U1 |
| DDR3_A[14] | IO_L6N_T0_VREF_34 | V3 |
| DDR3_BA[0] | IO_L9N_T1_DQS_34 | AA3 |
| DDR3_BA[1] | IO_L9P_T1_DQS_34 | Y3 |
| DDR3_BA[2] | IO_L11P_T1_SRCC_34 | Y4 |
| DDR3_S0 | IO_L8P_T1_34 | AB3 |
| DDR3_RAS | IO_L12P_T1_MRCC_34 | V4 |
| DDR3_CAS | IO_L12N_T1_MRCC_34 | W4 |
| DDR3_WE | IO_L7P_T1_34 | AA1 |
| DDR3_ODT | IO_L14N_T2_SRCC_34 | U5 |
| DDR3_RESET | IO_L15P_T2_DQS_34 | W6 |
| DDR3_CLK_P | IO_L3P_T0_DQS_34 | R3 |
| DDR3_CLK_N | IO_L3N_T0_DQS_34 | R2 |
| DDR3_CKE | IO_L14P_T2_SRCC_34 | T5 |
Part 5: QSPI Flash
**** The FPGA core board AC7200 is equipped with one 128MBit QSPI FLASH, and the model is W25Q256FVEI, which uses the 3.3V CMOS voltage standard. Due to the non-volatile nature of QSPI FLASH, it can be used as a boot device for the system to store the boot image of the system. These images mainly include FPGA bit files, ARM application code, core application code and other user data files. The specific models and related parameters of QSPI FLASH are shown in Table 5-1.
| Position | Model | Capacity | Factory |
|---|---|---|---|
| U8 | N25Q128 | 128M Bit | Numonyx |
Table 5-1: QSPI FLASH Specification
QSPI FLASH is connected to the dedicated pins of BANK0 and BANK14 of the FPGA
chip. The clock pin is connected to CCLK0 of BANK0, and other data and chip
select signals are connected to D00~D03 and FCS pins of BANK14 respectively.
Figure 5-1 shows the hardware connection of QSPI Flash.
QSPI Flash pin assignments:
| Net Name | FPGA PIN Name | FPGA P/N |
|---|---|---|
| QSPI_CLK | CCLK_0 | L12 |
| QSPI_CS | IO_L6P_T0_FCS_B_14 | T19 |
| QSPI_DQ0 | IO_L1P_T0_D00_MOSI_14 | P22 |
| QSPI_DQ1 | IO_L1N_T0_D01_DIN_14 | R22 |
| QSPI_DQ2 | IO_L2P_T0_D02_14 | P21 |
| QSPI_DQ3 | IO_L2N_T0_D03_14 | R21 |
Part 6: LED Light on Core Board
There are 3 red LED lights on the AC7200 FPGA core board, one of which is the
power indicator light (PWR), one is the configuration LED light (DONE), and
one is the user LED light. When the core board is powered, the power indicator
will illuminate; when the FPGA is configured, the configuration LED will
illuminate. The user LED light is connected to the IO of the BANK34, the user
can control the light on and off by the program. When the IO voltage connected
to the user LED is high, the user LED is off. When the connection IO voltage
is low, the user LED will be lit. The schematic diagram of the LED light
hardware connection is shown in Figure 6-1:
User LEDs Pin Assignment
| Signal Name | FPGA Pin Name | FPGA Pin Number | Description |
|---|---|---|---|
| LED1 | IO_L15N_T2_DQS_34 | W5 | User LED |
Part 7: Reset Button
There is a reset button on the AC7200 FPGA core board. The reset button is connected to the normal IO of the BANK34 of the FPGA chip. The user can use this reset button to initialize the FPGA program. When the button is pressed in the design, the signal voltage input to IO is low, and the reset signal is valid; when the button is not pressed, the signal input to IO is high. The schematic diagram of the reset button connection is shown in Figure 7-1:
Reset button pin assignment
| Signal Name | ZYNQ Pin Name | ZYNQ Pin Number | Description |
|---|---|---|---|
| RESET_N | IO_L17N_T2_34 | T6 | FPGA system reset |
Part 8: JTAG Interface
- The JTAG test socket J1 is reserved on the AC7200 core board for JTAG download and debugging when the core board is used alone. Figure 8-1 is the schematic part of the JTAG port, which involves TMS, TDI, TDO, TCK. , GND, +3.3V these six signals.
- The JTAG interface J1 on AC7200 FPGA core board uses a 6-pin 2.54mm pitch single-row test hole. If you need to use the JTAG connection to debug on the core board, you need to solder a 6-pin single-row pin header. Figure 8-2 shows the JTAG interface J1 on the AC7200 FPGA core board.
Part 9: Power Interface on the Core Board
In order to make the AC7200 FPGA core board work alone, the core board is reserved with the 2PIN power interface (J3). When the user supplies power to the core board through 2PIN power interface (J3), it cannot be powered through the carrier board. Otherwise, current conflict may occur.
Part 10: Board to Board Connectors
The core board has a total of four high-speed board to board connectors. The core board uses four 80-pin inter-board connectors to connect to the carrier board. The IO port of the FPGA is connected to the four connectors by differential routing. The pin spacing of the connectors is 0.5mm, insert to the board to board connectors on the carrier board for high-speed data communication.
Board to Board Connectors CON1
The 80-pin board to board connectors CON1, which are used to connect with the VCCIN power supply (+5V) and ground on the carrier board, extend the normal IOs of the FPGA. It should be noted here that 15 pins of CON1 are connected to the IO port of BANK34, because the BANK34 connection is connected to DDR3. Therefore, the voltage standard of all IOs of this BANK34 is 1.5V.
Pin Assignment of Board to Board Connectors CON1
CON1
Pin
| Signal Name| FPGA Pin| Voltage Level| CON1
Pin
| Signal Name| FPGA Pin| Voltage Level
---|---|---|---|---|---|---|---
PIN1| VCCIN| –| +5V| PIN2| VCCIN| –| +5V
PIN3| VCCIN| –| +5V| PIN4| VCCIN| –| +5V
PIN5| VCCIN| –| +5V| PIN6| VCCIN| –| +5V
PIN7| VCCIN| –| +5V| PIN8| VCCIN| –| +5V
PIN9| GND| –| Ground| PIN10| GND| –| Ground
PIN11| NC| –| –| PIN12| NC| –| –
---|---|---|---|---|---|---|---
PIN13| NC| –| –| PIN14| NC| –| –
PIN15| NC| –| –| PIN16| B13_L4_P| AA15| 3.3V
PIN17| NC| –| –| PIN18| B13_L4_N| AB15| 3.3V
PIN19| GND| –| Ground| PIN20| GND| –| Ground
PIN21| B13_L5_P| Y13| 3.3V| PIN22| B13_L1_P| Y16| 3.3V
PIN23| B13_L5_N| AA14| 3.3V| PIN24| B13_L1_N| AA16| 3.3V
PIN25| B13_L7_P| AB11| 3.3V| PIN26| B13_L2_P| AB16| 3.3V
PIN27| B13_L7_P| AB12| 3.3V| PIN28| B13_L2_N| AB17| 3.3V
PIN29| GND| –| Ground| PIN30| GND| –| Ground
PIN31| B13_L3_P| AA13| 3.3V| PIN32| B13_L6_P| W14| 3.3V
PIN33| B13_L3_N| AB13| 3.3V| PIN34| B13_L6_N| Y14| 3.3V
PIN35| B34_L23_P| Y8| 1.5V| PIN36| B34_L20_P| AB7| 1.5V
PIN37| B34_L23_N| Y7| 1.5V| PIN38| B34_L20_N| AB6| 1.5V
PIN39| GND| –| Ground| PIN40| GND| –| Ground
PIN41| B34_L18_N| AA6| 1.5V| PIN42| B34_L21_N| V8| 1.5V
PIN43| B34_L18_P| Y6| 1.5V| PIN44| B34_L21_P| V9| 1.5V
PIN45| B34_L19_P| V7| 1.5V| PIN46| B34_L22_P| AA8| 1.5V
PIN47| B34_L19_N| W7| 1.5V| PIN48| B34_L22_N| AB8| 1.5V
PIN49| GND| –| Ground| PIN50| GND| –| Ground
PIN51| XADC_VN| M9| ADC| PIN52| NC| |
PIN53| XADC_VP| L10| ADC| PIN54| B34_L25| U7| 1.5V
PIN55| NC| –| –| PIN56| B34_L24_P| W9| 1.5V
PIN57| NC| –| –| PIN58| B34_L24_N| Y9| 1.5V
PIN59| GND| –| Ground| PIN60| GND| –| Ground
PIN61| B16_L1_N| F14| 3.3V| PIN62| NC| –| –
PIN63| B16_L1_P| F13| 3.3V| PIN64| NC| –| –
PIN65| B16_L4_N| E14| 3.3V| PIN66| NC| –| –
PIN67| B16_L4_P| E13| 3.3V| PIN68| NC| –| –
PIN69| GND| –| Ground| PIN70| GND| –| Ground
PIN71| B16_L6_N| D15| 3.3V| PIN72| NC| –| –
Board to Board Connectors CON2
The 80-pin female connection header CON2 is used to extend the normal IO of the BANK13 and BANK14 of the FPGA. The voltage standards of both BANKs are 3.3V.
Pin Assignment of Board to Board Connectors CON2
CON1
Pin
| Signal Name| FPGA
Pin
| Voltage
Level
| CON1
Pin
| Signal Name| FPGA Pin| Voltage
Level
---|---|---|---|---|---|---|---
PIN1| B13_L16_P| W15| 3.3V| PIN2| B14_L16_P| V17| 3.3V
PIN3| B13_L16_N| W16| 3.3V| PIN4| B14_L16_N| W17| 3.3V
PIN5| B13_L15_P| T14| 3.3V| PIN6| B13_L14_P| U15| 3.3V
PIN7| B13_L15_N| T15| 3.3V| PIN8| B13_L14_N| V15| 3.3V
PIN9| GND| –| Ground| PIN10| GND| –| Ground
PIN11| B13_L13_P| V13| 3.3V| PIN12| B14_L10_P| AB21| 3.3V
PIN13| B13_L13_N| V14| 3.3V| PIN14| B14_L10_N| AB22| 3.3V
PIN15| B13_L12_P| W11| 3.3V| PIN16| B14_L8_N| AA21| 3.3V
PIN17| B13_L12_N| W12| 3.3V| PIN18| B14_L8_P| AA20| 3.3V
PIN19| GND| –| Ground| PIN20| GND| –| Ground
PIN21| B13_L11_P| Y11| 3.3V| PIN22| B14_L15_N| AB20| 3.3V
PIN23| B13_L11_N| Y12| 3.3V| PIN24| B14_L15_P| AA19| 3.3V
PIN25| B13_L10_P| V10| 3.3V| PIN26| B14_L17_P| AA18| 3.3V
PIN27| B13_L10_N| W10| 3.3V| PIN28| B14_L17_N| AB18| 3.3V
PIN29| GND| –| Ground| PIN30| GND| –| Ground
PIN31| B13_L9_N| AA11| 3.3V| PIN32| B14_L6_N| T20| 3.3V
PIN33| B13_L9_P| AA10| 3.3V| PIN34| B13_IO0| Y17| 3.3V
PIN35| B13_L8_N| AB10| 3.3V| PIN36| B14_L7_N| W22| 3.3V
PIN37| B13_L8_P| AA9| 3.3V| PIN38| B14_L7_P| W21| 3.3V
PIN39| GND| –| Ground| PIN40| GND| –| Ground
PIN41| B14_L11_N| V20| 3.3V| PIN42| B14_L4_P| T21| 3.3V
PIN43| B14_L11_P| U20| 3.3V| PIN44| B14_L4_N| U21| 3.3V
PIN45| B14_L14_N| V19| 3.3V| PIN46| B14_L9_P| Y21| 3.3V
PIN47| B14_L14_P| V18| 3.3V| PIN48| B14_L9_N| Y22| 3.3V
PIN49| GND| –| Ground| PIN50| GND| –| Ground
---|---|---|---|---|---|---|---
PIN51| B14_L5_N| R19| 3.3V| PIN52| B14_L12_N| W20| 3.3V
PIN53| B14_L5_P| P19| 3.3V| PIN54| B14_L12_P| W19| 3.3V
PIN55| B14_L18_N| U18| 3.3V| PIN56| B14_L13_N| Y19| 3.3V
PIN57| B14_L18_P| U17| 3.3V| PIN58| B14_L13_P| Y18| 3.3V
PIN59| GND| –| Ground| PIN60| GND| –| Ground
PIN61| B13_L17_P| T16| 3.3V| PIN62| B14_L3_N| V22| 3.3V
PIN63| B13_L17_N| U16| 3.3V| PIN64| B14_L3_P| U22| 3.3V
PIN65| B14_L21_N| P17| 3.3V| PIN66| B14_L20_N| T18| 3.3V
PIN67| B14_L21_P| N17| 3.3V| PIN68| B14_L20_P| R18| 3.3V
PIN69| GND| –| Ground| PIN70| GND| –| Ground
PIN71| B14_L22_P| P15| 3.3V| PIN72| B14_L19_N| R14| 3.3V
PIN73| B14_L22_N| R16| 3.3V| PIN74| B14_L19_P| P14| 3.3V
PIN75| B14_L24_N| R17| 3.3V| PIN76| B14_L23_P| N13| 3.3V
PIN77| B14_L24_P| P16| 3.3V| PIN78| B14_L23_N| N14| 3.3V
PIN79| B14_IO0| P20| 3.3V| PIN80| B14_IO25| N15| 3.3V
Board to Board Connectors CON3
The 80-pin connector CON3 is used to extend the normal IO of the BANK15 and BANK16 of the FPGA. In addition, four JTAG signals are also connected to the carrier board via the CON3 connector. The voltage standards of BANK15 and BANK16 can be adjusted by an LDO chip. The default installed LDO is 3.3V. If you want to output other standard levels, you can replace it with a suitable LDO.
Pin Assignment of Board to Board Connectors CON3
CON1
Pin
| Signal Name| FPGA
Pin
| Voltage
Level
| CON1
Pin
| Signal Name| FPGA Pin| Voltage
Level
---|---|---|---|---|---|---|---
PIN1| B15_IO0| J16| 3.3V| PIN2| B15_IO25| M17| 3.3V
PIN3| B16_IO0| F15| 3.3V| PIN4| B16_IO25| F21| 3.3V
PIN5| B15_L4_P| G17| 3.3V| PIN6| B16_L21_N| A21| 3.3V
PIN7| B15_L4_N| G18| 3.3V| PIN8| B16_L21_P| B21| 3.3V
PIN9| GND| –| Ground| PIN10| GND| –| Ground
---|---|---|---|---|---|---|---
PIN11| B15_L2_P| G15| 3.3V| PIN12| B16_L23_P| E21| 3.3V
PIN13| B15_L2_N| G16| 3.3V| PIN14| B16_L23_N| D21| 3.3V
PIN15| B15_L12_P| J19| 3.3V| PIN16| B16_L22_P| E22| 3.3V
PIN17| B15_L12_N| H19| 3.3V| PIN18| B16_L22_N| D22| 3.3V
PIN19| GND| –| Ground| PIN20| GND| –| Ground
PIN21| B15_L11_P| J20| 3.3V| PIN22| B16_L24_P| G21| 3.3V
PIN23| B15_L11_N| J21| 3.3V| PIN24| B16_L24_N| G22| 3.3V
PIN25| B15_L1_N| G13| 3.3V| PIN26| B15_L8_N| G20| 3.3V
PIN27| B15_L1_P| H13| 3.3V| PIN28| B15_L8_P| H20| 3.3V
PIN29| GND| –| Ground| PIN30| GND| –| Ground
PIN31| B15_L5_P| J15| 3.3V| PIN32| B15_L7_N| H22| 3.3V
PIN33| B15_L5_N| H15| 3.3V| PIN34| B15_L7_P| J22| 3.3V
PIN35| B15_L3_N| H14| 3.3V| PIN36| B15_L9_P| K21| 3.3V
PIN37| B15_L3_P| J14| 3.3V| PIN38| B15_L9_N| K22| 3.3V
PIN39| GND| –| Ground| PIN40| GND| –| Ground
PIN41| B15_L19_P| K13| 3.3V| PIN42| B15_L15_N| M22| 3.3V
PIN43| B15_L19_N| K14| 3.3V| PIN44| B15_L15_P| N22| 3.3V
PIN45| B15_L20_P| M13| 3.3V| PIN46| B15_L6_N| H18| 3.3V
PIN47| B15_L20_N| L13| 3.3V| PIN48| B15_L6_P| H17| 3.3V
PIN49| GND| –| Ground| PIN50| GND| –| Ground
PIN51| B15_L14_P| L19| 3.3V| PIN52| B15_L13_N| K19| 3.3V
PIN53| B15_L14_N| L20| 3.3V| PIN54| B15_L13_P| K18| 3.3V
PIN55| B15_L21_P| K17| 3.3V| PIN56| B15_L10_P| M21| 3.3V
PIN57| B15_L21_N| J17| 3.3V| PIN58| B15_L10_N| L21| 3.3V
PIN59| GND| –| Ground| PIN60| GND| –| Ground
PIN61| B15_L23_P| L16| 3.3V| PIN62| B15_L18_P| N20| 3.3V
PIN63| B15_L23_N| K16| 3.3V| PIN64| B15_L18_N| M20| 3.3V
PIN65| B15_L22_P| L14| 3.3V| PIN66| B15_L17_N| N19| 3.3V
PIN67| B15_L22_N| L15| 3.3V| PIN68| B15_L17_P| N18| 3.3V
PIN69| GND| –| Ground| PIN70| GND| –| Ground
PIN71| B15_L24_P| M15| 3.3V| PIN72| B15_L16_P| M18| 3.3V
PIN73| B15_L24_N| M16| 3.3V| PIN74| B15_L16_N| L18| 3.3V
---|---|---|---|---|---|---|---
PIN75| NC| –| | PIN76| NC| –|
PIN77| FPGA_TCK| V12| 3.3V| PIN78| FPGA_TDI| R13| 3.3V
PIN79| FPGA_TDO| U13| 3.3V| PIN80| FPGA_TMS| T13| 3.3V
Board to Board Connectors CON4
The 80-Pin connector CON4 is used to extend the normal IO and GTP high-speed data and clock signals of the FPGA BANK16. The voltage standard of the IO port of BANK16 can be adjusted by an LDO chip. The default installed LDO is 3.3V. If the user wants to output other standard levels, it can be replaced by a suitable LDO. The high-speed data and clock signals of the GTP are strictly differential routed on the core board. The data lines are equal in length and kept at a certain interval to prevent signal interference.
Pin Assignment of Board to Board Connectors CON4
CON1
Pin
| Signal Name| FPGA Pin| Voltage
Level
| CON1
Pin
| Signal Name| FPGA Pin| Voltage
Level
---|---|---|---|---|---|---|---
PIN1| NC| | –| NC| | –| NC
PIN3| NC| | –| NC| | –| NC
PIN5| NC| | –| NC| | –| NC
PIN7| NC| | –| NC| | –| NC
PIN9| GND| –| Ground| PIN10| GND| –| Ground
PIN11| NC| | –| PIN12| MGT_TX2_P| B6| Differential
PIN13| NC| | –| PIN14| MGT_TX2_N| A6| Differential
PIN15| GND| –| Ground| PIN16| GND| –| Ground
PIN17| MGT_TX3_P| D7| Differential| PIN18| MGT_RX2_P| B10| Differential
PIN19| MGT_TX3_N| C7| Differential| PIN20| MGT_RX2_N| A10| Differential
PIN21| GND| –| Ground| PIN22| GND| –| Ground
PIN23| MGT_RX3_P| D9| Differential| PIN24| MGT_TX0_P| B4| Differential
PIN25| MGT_RX3_N| C9| Differential| PIN26| MGT_TX0_N| A4| Differential
PIN27| GND| –| Ground| PIN28| GND| –| Ground
PIN29| MGT_TX1_P| D5| Differential| PIN30| MGT_RX0_P| B8| Differential
PIN31| MGT_TX1_N| C5| Differential| PIN32| MGT_RX0_N| A8| Differential
---|---|---|---|---|---|---|---
PIN33| GND| –| Ground| PIN34| GND| –| Ground
PIN35| MGT_RX1_P| D11| Differential| PIN36| MGT_CLK1_P| F10| Differential
PIN37| MGT_RX1_N| C11| Differential| PIN38| MGT_CLK1_N| E10| Differential
PIN39| GND| –| Ground| PIN40| GND| –| Ground
PIN41| B16_L5_P| E16| 3.3V| PIN42| B16_L2_P| F16| 3.3V
PIN43| B16_L5_N| D16| 3.3V| PIN44| B16_L2_N| E17| 3.3V
PIN45| B16_L7_P| B15| 3.3V| PIN46| B16_L3_P| C14| 3.3V
PIN47| B16_L7_N| B16| 3.3V| PIN48| B16_L3_N| C15| 3.3V
PIN49| GND| –| Ground| PIN50| GND| –| Ground
PIN51| B16_L9_P| A15| 3.3V| PIN52| B16_L10_P| A13| 3.3V
PIN53| B16_L9_N| A16| 3.3V| PIN54| B16_L10_N| A14| 3.3V
PIN55| B16_L11_P| B17| 3.3V| PIN56| B16_L12_P| D17| 3.3V
PIN57| B16_L11_N| B18| 3.3V| PIN58| B16_L12_N| C17| 3.3V
PIN59| GND| –| Ground| PIN60| GND| –| Ground
PIN61| B16_L13_P| C18| 3.3V| PIN62| B16_L14_P| E19| 3.3V
PIN63| B16_L13_N| C19| 3.3V| PIN64| B16_L14_N| D19| 3.3V
PIN65| B16_L15_P| F18| 3.3V| PIN66| B16_L16_P| B20| 3.3V
PIN67| B16_L15_N| E18| 3.3V| PIN68| B16_L16_N| A20| 3.3V
PIN69| GND| –| Ground| PIN70| GND| –| Ground
PIN71| B16_L17_P| A18| 3.3V| PIN72| B16_L18_P| F19| 3.3V
PIN73| B16_L17_N| A19| 3.3V| PIN74| B16_L18_N| F20| 3.3V
PIN75| B16_L19_P| D20| 3.3V| PIN76| B16_L20_P| C22| 3.3V
PIN77| B16_L19_N| C20| 3.3V| PIN78| B16_L20_N| B22| 3.3V
PIN79| NC| –| | PIN80| NC| –|
Part 11: Power Supply
The AC7200 FPGA core board is powered by DC5V via carrier board, and it is powered by the J3 interface when it is used alone. Please be careful not to supply power by the J3 interface and the carrier board at the same time to avoid damage. The power supply design diagram on the board is shown in Figure 11-1
The development board is powered by +5V and converted to +3.3V, +1.5V, +1.8V, +1.0V four-way power supply through four DC/DC power supply chip TLV62130RGT. The output current can be up to 3A per channel. VCCIO is generated by one LDOSPX3819M5-3-3. VCCIO mainly supplies power to BANK15 and BANK16 of FPGA. Users can change the IO of BANK15,16 to different voltage standards by replacing their LDO chip. 1.5V Generates the VTT and VREF voltages required by DDR3 via TI’s TPS51200. The 1.8V power supply MGTAVTT MGTAVCC for the GTP transceiver is generated by TI’s TPS74801 chip. The functions of each power distribution are shown in the following table:
| Power Supply | Function |
|---|---|
| +1.0V | FPGA Core Voltage |
| +1.8V | FPGA auxiliary voltage, TPS74801 power supply |
| +3.3V | VCCIO of Bank0, Bank13 and Bank14 of FPGA, QSIP FLASH, Clock Crystal |
| +1.5V | DDR3, Bank34 and Bank35 of FPGA |
| VREF,VTT(+0.75V) | DDR3 |
| MVCCIP(+3.3V) | FPGA Bank15, Bank16 |
| MGTAVTT(+1.2V) | GTP Transceiver Bank216 of FPGA |
| MGTVCCAUX(+1.8V) | GTP Transceiver Bank216 of FPGA |
Because the power supply of Artix-7 FPGA has the power-on sequence requirement, in the circuit design, we have designed according to the power requirements of the chip, and the power-on is 1.0V->1.8V->(1.5 V, 3.3V, VCCIO) and 1.0V-> MGTAVCC -> MGTAVTT, the circuit design to ensure the normal operation of the chip.
Part 12: Structure Diagram
Documents / Resources
|
ALINX AC7200-2FGG484I ARTIX-7 FPGA Core
Board
[pdf] User Manual
AC7200-2FGG484I ARTIX-7 FPGA Core Board, AC7200-2FGG484I, ARTIX-7 FPGA Core
Board, FPGA Core Board, Core Board, Board
---|---
References
Read User Manual Online (PDF format)
Read User Manual Online (PDF format) >>