Intel Arria 10 GX, GT, and SX Device Family Pin Connection Guidelines

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PCG-01017 | 2020.10.20

Intel Arria 10 GX, GT, and SX Device Family Pin Connection Guidelines

Intel Arria 10 GX and GT Pin Connection Guidelines

Clock and PLL Pins

Note: Intel^® recommends that you create a Intel^® Quartus^® Prime design, enter your device I/O assignments, and compile the design. The Intel^® Quartus^® Prime software will check your pin connections according to I/O assignment and placement rules. The rules differ from one device to another based on device density, package, I/O assignments, voltage assignments, and other factors that are not fully described in this document or the device handbook.

Table 1. Clock and PLL Pins
Pin Name	Pin Functions	Pin Description	Connection Guidelines
`CLK_[2,3][A,B,C,D,E,F,G,H,I,J,K,L]_[0,1]p`	I/O, Clock Input	Dedicated high speed clock input pins that can be used for data inputs or outputs. Differential input OCT R_D, single-ended input OCT R_T, and single-ended output OCT R_S are supported on these pins.	Tie the unused pins to GND or leave them unconnected. If the pins are not connected, use the Intel^® Quartus^® Prime software programmable options to internally bias these pins. These pins can be reserved as inputs tristate with weak pull-up resistor enabled, or as outputs driving GND. If you are using the Early I/O Release feature in the Intel^® Arria^® 10 SX devices, ensure that the input clock to the HPS SDRAM IP is located within the active HPS I/O banks. For more information, refer to the HPS EMIF Design Consideration chapter of the Intel^® Arria^® 10 SoC Design Guidelines.
`CLK_[2,3][A,B,C,D,E,F,G,H,I,J,K,L]_[0,1]n`	I/O, Clock Input	Dedicated high speed clock input pins that can be used for data inputs or outputs. Differential input OCT R_D, single-ended input OCT R_T, and single-ended output OCT R_S are supported on these pins.	Tie the unused pins to GND or leave them unconnected. If the pins are not connected, use the Intel^® Quartus^® Prime software programmable options to internally bias these pins. These pins can be reserved as inputs tristate with weak pull-up resistor enabled, or as outputs driving GND. If you are using the Early I/O Release feature in the Intel^® Arria^® 10 SX devices, ensure that the input clock to the HPS SDRAM IP is located within the active HPS I/O banks. For more information, refer to the HPS EMIF Design Consideration chapter of the Intel^® Arria^® 10 SoC Design Guidelines.
`PLL_[2,3][A,B,C,D,E,F,G,H,I,J,K,L]_FB[0,1]`	I/O, Clock	Dual-purpose I/O pins that can be used as single-ended inputs, single-ended outputs, or external feedback input pin. For more information about the supported pins, refer to the device pinout file.	Tie the unused pins to GND or leave them unconnected. If the pins are not connected, use the Intel^® Quartus^® Prime software programmable options to internally bias these pins. These pins can be reserved as inputs tristate with weak pull-up resistor enabled, or as outputs driving GND.
`PLL_[2,3][A,B,C,D,E,F,G,H,I,J,K,L]_CLKOUT[0:1]` , `PLL_[2,3][A,B,C,D,E,F,G,H,I,J,K,L]_CLKOUT[0:1]p`	I/O, Clock	I/O pins that can be used as two single-ended clock output pins or one differential clock output pair. For more information about the supported pins, refer to the device pinout file.	Tie the unused pins to GND or leave them unconnected. If the pins are not connected, use the Intel^® Quartus^® Prime software programmable options to internally bias these pins. These pins can be reserved as inputs tristate with weak pull-up resistor enabled, or as outputs driving GND.
`PLL_[2,3][A,B,C,D,E,F,G,H,I,J,K,L]_CLKOUT[0:1]n`	I/O, Clock	I/O pins that can be used as two single-ended clock output pins or one differential clock output pair. For more information about the supported pins, refer to the device pinout file.	Tie the unused pins to GND or leave them unconnected. If the pins are not connected, use the Intel^® Quartus^® Prime software programmable options to internally bias these pins. These pins can be reserved as inputs tristate with weak pull-up resistor enabled, or as outputs driving GND.

Dedicated Configuration/JTAG Pins

Table 2. Dedicated Configuration/JTAG Pins
Pin Name	Pin Functions	Pin Description	Connection Guidelines
`nIO_PULLUP`	Input	Dedicated input pin that determines the internal pull-ups on user I/O pins and dual-purpose I/O pins (`DATA[0:31]`, `CLKUSR`, `INIT_DONE`, `DEV_OE`, and `DEV_CLRn`) are on or off before and during configuration. A logic high turns off the weak pull-up, while a logic low turns on the weak pull-up.	Tie the `nIO-PULLUP` pin directly to `VCC` using a 1 kΩ pull-up resistor, or directly to `GND`. This pin has an internal 25-kΩ pull-down. If you tie this pin to `VCC`, ensure all user I/O pins and dual-purpose I/O pins are at valid logic (0 or 1) after all the power supplies have reached full nominal voltage, before and during configuration.
`TEMPDIODEp`	Input	Pin used for temperature sensing diode (bias-high input) inside the FPGA.	If you do not use the temperature sensing diode with an external temperature sensing device, connect this pin to `GND`.
`TEMPDIODEn`	Input	Pin used for temperature sensing diode (bias-low input) inside the FPGA.	If you do not use the temperature sensing diode with an external temperature sensing device, connect this pin to `GND`.
`MSEL[0:2]`	Input	Configuration input pins that set the configuration scheme for the FPGA device.	These pins are internally connected through a 25-kΩ resistor to `GND`. Do not leave these pins floating. When these pins are unused, connect them to `GND`. Depending on the configuration scheme used, tie these pins to `VCCPGM` or `GND`. For more information about the configuration scheme options, refer to the Configuration, Design Security, and Remote System Upgrades for Intel^® Arria^® 10 Devices chapter. If you use JTAG configuration scheme, connect these pins to `GND`.
`nCE`	Input	Dedicated active-low chip enable pin. When the `nCE` pin is low, the device is enabled. When the `nCE` pin is high, the device is disabled.	In multi-device configuration, the `nCE` pin of the first device is tied low while its `nCEO` pin drives the `nCE` pin of the next device in the chain. In single-device configuration and JTAG programming, connect the `nCE` pin to `GND`.
`nCONFIG`	Input	Dedicated configuration control input pin. Pulling this pin low during user mode causes the FPGA to lose its configuration data, enter a reset state, and tri-state all I/O pins. Returning this pin to a logic high level initiates reconfiguration.	Connect the `nCONFIG` pin directly to the configuration controller when the FPGA uses a passive configuration scheme. Connect the `nCONFIG` pin through a 10-kΩ resistor tied to `VCCPGM` when the FPGA uses an active serial (AS) configuration scheme. If you do not use this pin, connect the pin directly or through a 10-kΩ resistor to `VCCPGM`.
`CONF_DONE`	Bidirectional (open-drain)	Dedicated configuration done pin. As a status output, the `CONF_DONE` pin drives low before and during configuration. After all configuration data is received without error and the initialization cycle starts, `CONF_DONE` is released. As a status input, the `CONF_DONE` pin goes high after all data is received. Then the device initializes and enters user mode. This pin is not available as a user I/O pin.	Connect an external 10-kΩ pull-up resistors to `VCCPGM`. `VCCPGM` must be high enough to meet the VIH specification of the I/O on the device and the external host. When you use passive configuration schemes, the configuration controller monitors this pin.
`nCEO`	I/O, Output (open-drain)	When device configuration is complete, the `nCEO` pin drives low. If you do not use this pin as a configuration pin, you can use this pin as a user I/O pin.	In multi-device configuration, the `nCEO` pin feeds the `nCE` pin of a subsequent FPGA. Connect this pin through an external 10-kΩ pull-up resistor to `VCCPGM`. In single-device configuration, you can leave this pin floating.
`nSTATUS`	Bidirectional (open-drain)	Dedicated configuration status pin. The FPGA drives the `nSTATUS` pin low immediately after power-up, and releases the pin after power-on reset (POR) time. As a status output, the `nSTATUS` pin is pulled low if an error occurs during configuration. As a status input, the device enters an error state when the `nSTATUS` pin is driven low by an external source during configuration or initialization. This pin is not available as a user I/O pin.	Connect an external 10-kΩ pull-up resistors to `VCCPGM`. `VCCPGM` must be high enough to meet the VIH specification of the I/O on the device and the external host. When you use passive configuration schemes, the configuration controller monitors this pin.
`TCK`	Input	Dedicated JTAG test clock input pin.	Connect this pin through a 1-kΩ pull-down resistor to `GND`. This pin has an internal 25-kΩ pull-down. Do not drive voltage higher than 1.8-, 1.5-, or 1.2-V `VCCPGM` supply for the `TCK` pin. The `TCK` input pin is powered by the `VCCPGM` supply.
`TMS`	Input	Dedicated JTAG test mode select input pin.	Connect this pin to a 1–10-kΩ pull-up resistor to `VCCPGM`. If the JTAG interface is not used, connect the `TMS` pin to `VCCPGM` using a 1-kΩ resistor. This pin has an internal 25-kΩ pull-up. Do not drive voltage higher than 1.8-, 1.5-, or 1.2-V `VCCPGM` supply for the `TMS` pin. The `TMS` input pin is powered by the `VCCPGM` supply.
`TDI`	Input	Dedicated JTAG test data input pin.	Connect this pin to a 1–10-kΩ pull-up resistor to `VCCPGM`. If the JTAG interface is not used, connect the `TDI` pin to `VCCPGM` using a 1-kΩ resistor. This pin has an internal 25-kΩ pull-up. Do not drive voltage higher than 1.8-, 1.5-, or 1.2-V `VCCPGM` supply for the `TDI` pin. The `TDI` input pin is powered by the `VCCPGM` supply.
`TDO`	Output	Dedicated JTAG test data output pin.	If the JTAG interface is not used, leave the `TDO` pin unconnected.
`TRST`	Input	Dedicated active low JTAG test reset input pin. The `TRST` pin is used to asynchronously reset the JTAG boundary-scan circuit.	Utilization of the `TRST` pin is optional. If you do not use this pin, tie this pin through a 1-kΩ pull-up resistor to `VCCPGM`. When you use this pin, ensure that the `TMS` pin is held high or the `TCK` pin is static when the `TRST` pin is changing from low to high. To disable the JTAG circuitry, tie this pin to `GND`. This pin has an internal 25-kΩ pull-up. Do not drive voltage higher than 1.8-, 1.5-, or 1.2-V `VCCPGM` supply for the `TRST` pin. The `TRST` input pin is powered by the `VCCPGM` supply.
`nCSO[0:2]`	Output	Dedicated output control signal from the FPGA to the EPCQ-L device in AS configuration scheme that enables the EPCQ-L device.	When you are not programming the FPGA in the AS configuration scheme, the `nCSO` pin is not used. When you do not use this pin as an output pin, leave this pin unconnected.

Optional/Dual-Purpose Configuration Pins

Table 3. Optional/Dual-Purpose Configuration Pins
Pin Name	Pin Functions	Pin Description	Connection Guidelines
`DCLK`	Input (PS, FPP); Output (AS)	Dedicated configuration clock pin. In passive serial (PS) and fast passive parallel (FPP) configuration schemes, `DCLK` is used to clock configuration data from an external source into the FPGA. In the AS configuration scheme, `DCLK` is an output from the FPGA that provides timing for the configuration interface.	Do not leave this pin floating. Drive this pin either high or low.
`CRC_ERROR`	I/O, Output (open-drain)	Active high signal indicates the error detection circuit has detected errors in the configuration RAM (CRAM) bits. Falling edge of this signal indicates the information about the error location and type are available in the error message register (EMR). This dual-purpose pin is only used when you enable error detection in user mode. This pin can be used as a user I/O pin.	When you use the open-drain output dedicated `CRC_ERROR` pin as an optional pin, connect this pin through an external 10-kΩ pull-up resistor to `VCCPGM`. When you do not use the open-drain output dual-purpose `CRC_ERROR` pin as an optional pin, and the `CRC_ERROR` pin is not used as an I/O pin, connect this pin as defined in the Intel^® Quartus^® Prime software.
`DEV_CLRn`	I/O, Input	Optional pin that allows you to override all clears on all device registers. When this pin is driven low, all registers are cleared. When this pin is driven high (`VCCPGM`), all registers behave as programmed.	When you do not use the dual-purpose `DEV_CLRn` pin and when this pin is not used as an I/O pin, tie this pin to `GND`.
`DEV_OE`	I/O, Input	Optional pin that allows you to override all tri-states on the device. When this pin is driven low, all I/O pins are tri-stated. When this pin is driven high (`VCCPGM`), all I/O pins behave as programmed.	When you do not use the dual-purpose `DEV_OE` pin and when this pin is not used as an I/O pin, tie this pin to `GND`.
`DATA0`	I/O, Input	Dual-purpose configuration data input pin. You can use the `DATA0` pin for PS or FPP configuration scheme, or as an I/O pin after configuration is complete.	When you do not use the dedicated input `DATA0` pin and when this pin is not used as an I/O pin, leave this pin unconnected.
`DATA[1:31]`	I/O, Input	Dual-purpose configuration data input pins. Use `DATA [1:7]` pins for FPP x8, `DATA [1:15]` pins for FPP x16, and `DATA [1:31]` pins for FPP x32 configuration or as regular I/O pins. These pins can also be used as user I/O pins after configuration.	When you do not use the dual-purpose `DATA[1:31]` pins and when these pins are not used as I/O pins, leave these pins unconnected.
`INIT_DONE`	I/O, Output (open-drain)	This is a dual-purpose pin and can be used as an I/O pin when not enabled as the `INIT_DONE` pin. When you enable this pin, a transition from low to high at the pin indicates the device has entered user mode. If the `INIT_DONE` output is enabled, the `INIT_DONE` pin cannot be used as a user I/O pin after configuration.	When you use the optionally open-drain output dedicated `INIT_DONE` pin, connect this pin to an external 10-kΩ pull-up resistor to `VCCPGM`. When you use this pin in an AS or PS multi-device configuration mode, ensure you enable the `INIT_DONE` pin in the Intel^® Quartus^® Prime designs. When you do not use the dedicated `INIT_DONE` optionally open-drain output, and when this pin is not used as an I/O pin, connect this pin as defined in the Intel^® Quartus^® Prime software.
`nPERST[L,R][0:1]`	I/O, Input	Dual-purpose fundamental reset pin that is only available when you use together with PCI Express* (PCIe*) hard IP (HIP). When the pin is low, the transceivers are in reset. When the pin is high, the transceivers are out of reset. When you do not use this pin as the fundamental reset, you can use this pin as a user I/O pin.	Connect this pin as defined in the Intel^® Quartus^® Prime software. This pin is powered by 1.8V VCCIO supply and must be driven by 1.8V compatible I/O standards. Connect the PCIe `nPERST` pin to a level translator to shift down the voltage from 3.3V LVTTL to 1.8V to interface with this pin. When this pin is not used for configuration purpose, you have the option to select 1.2V, 1.5V, or 1.8V compatible I/O standard. However, you must shift down the 3.3V LVTTL voltage from the PCIe `nPERST` pin to the selected Intel^® Arria^® 10 `nPERST` I/O standard voltage level. Only one `nPERST` pin is used per PCIe HIP. The Intel^® Arria^® 10 components always have all four pins listed even when the specific component might only have 1 or 2 PCIe HIPs. `nPERSTL0` = Bottom Left PCIe HIP & CvP `nPERSTL1` = Top Left PCIe HIP (When available) `nPERSTR0` = Bottom Right PCIe HIP (When available) `nPERSTR1` = Top Right PCIe HIP (When available) For maximum compatibility, always use the bottom left PCIe HIP first, as this is the only location that supports Configuration via Protocol (CvP) using the PCIe link.
`AS_DATA0/ASDO`	Bidirectional	Dedicated AS configuration pin. When using an EPCQ-L device (x1 mode), this is the `ASDO` pin and is used to send address and control signals between the FPGA device and the EPCQ-L device.	When you do not program the device in the AS configuration mode, the `ASDO` pin is not used. When you do not use this pin, leave the pin unconnected.
`AS_DATA[1:3]`	Bidirectional	Dedicated AS configuration data pins. Configuration data is transported on these pins when connected to the EPCQ-L devices.	When you do not use this pin, leave the pin unconnected.

Partial Reconfiguration Pins

Table 4. Partial Reconfiguration Pins
Pin Name	Pin Functions	Pin Description	Connection Guidelines
`PR_REQUEST`	I/O, Input	Partial reconfiguration request pin. Drive this pin high to start partial reconfiguration. Drive this pin low to end reconfiguration. You can only use this pin in partial reconfiguration using an external host mode in FPP x16 configuration scheme.	Leaving the `PR_REQUEST` pin floating may cause configuration error. Drive this pin low during configuration whether you use this pin as a partial reconfiguration pin. This pin is reserved as an input with a weak pull-up during configuration. When you do not use this pin as the dedicated input `PR_REQUEST` pin, and when this pin is not used as an I/O pin, tie this pin to `GND`. You can use the `PR_REQUEST` pin as an I/O pin. If this pin is used as input pin, the host or external component connected to this pin must drive this pin low during device configuration.
`PR_READY`	I/O, Output or Output (open-drain)	The partial reconfiguration ready pin is driven low until the device is ready to begin partial reconfiguration. When the device is ready to start reconfiguration, this signal is released and pulled high by an external pull-up resistor.	When you use as optionally open-drain output dedicated `PR_READY` pin, connect this pin to an external 10-kΩ pull-up resistor to `VCCPGM`. When you do not use as the dedicated `PR_READY` optionally open-drain output, and when this pin is not used as an I/O pin, connect this pin as defined in the Intel^® Quartus^® Prime software.
`PR_ERROR`	I/O, Output or Output (open-drain)	The partial reconfiguration error pin is driven low during partial reconfiguration unless the device detects an error. If an error is detected, this signal is released and pulled high by an external pull-up resistor.	When you use as optionally open-drain output dedicated `PR_ERROR` pin, connect this pin to an external 10-kΩ pull-up resistor to `VCCPGM`. When you do not use as the dedicated `PR_ERROR` optionally open-drain output, and when this pin is not used as an I/O pin, connect this pin as defined in the Intel^® Quartus^® Prime software.
`PR_DONE`	I/O, Output or Output (open-drain)	The partial reconfiguration done pin is driven low until the partial reconfiguration is complete. When the reconfiguration is complete, this signal is released and pulled high by an external pull-up resistor.	When you use as optionally open-drain output dedicated `PR_DONE` pin, connect this pin to an external 10-kΩ pull-up resistor to `VCCPGM`. When you do not use as the dedicated `PR_DONE` optionally open-drain output, and when this pin is not used as an I/O pin, connect this pin as defined in the Intel^® Quartus^® Prime software.
`CvP_CONFDONE`	I/O, Output (open-drain)	CvP done pin is driven low during configuration. When the CvP configuration is complete, this signal is released and pulled high by an external pull-up resistor. Status of this pin is only valid if the `CONF_DONE` pin is high.	When you use as optionally open-drain output dedicated `CvP_CONFDONE` pin, connect this pin to an external 10-kΩ pull-up resistor to `VCCPGM`. When you do not use as the dedicated `CvP_CONFDONE` optionally open-drain output, and when this pin is not used as an I/O pin, connect this pin as defined in the Intel^® Quartus^® Prime software.

Differential I/O Pins

Table 5. Differential I/O Pins
Pin Name	Pin Functions	Pin Description	Connection Guidelines
`LVDS[2,3][A,B,C,D,E,F,G,H,I,J,K,L]_[1:24]p` , `LVDS[2,3][A,B,C,D,E,F,G,H,I,J,K,L]_[1:24]n`	I/O, TX/RX channel	These are true LVDS receiver/transmitter channels on column I/O banks. Each I/O pair can be configured as LVDS receiver or LVDS transmitter. Pins with a "p" suffix carry the positive signal for the differential channel. Pins with an "n" suffix carry the negative signal for the differential channel. If not used for differential signaling, these pins are available as user I/O pins.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.

External Memory Interface and Hard Memory PHY Pins

Table 6. External Memory Interface and Hard Memory PHY Pins
Pin Name	Pin Functions	Pin Description	Connection Guidelines
`DQS[#]`	I/O,bi-directional	Optional data strobe signal for use in external memory interfacing. These pins drive to dedicated DQS phase shift circuitry.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`DQSn[#]`	I/O,bi-directional	Optional complementary data strobe signal for use in external memory interfacing. These pins drive to dedicated DQS phase shift circuitry.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`DQ[#]`	I/O,bi-directional	Optional data signal for use in external memory interfacing. The order of the DQ bits within a designated DQ bus is not important. However, if you plan on migrating to a different memory interface that has a different DQ bus width, you will need to reevaluate your pin assignments. Analyze the available DQ pins across all pertinent DQS columns in the pin list.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`CQ[#]`	I/O, Input	Optional data strobe signal for use in QDRII/II+/II+ Xtreme SRAM. These are the pins for echo clocks.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`CQn[#]`	I/O, Input	Optional complementary data strobe signal for use in QDRII/II+/II+ Xtreme SRAM. These are the pins for echo clocks.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`DQS[#]_[#]`	I/O, bidirectional	Optional data strobe signal for use in external memory interfacing. These pins drive to dedicated DQS phase shift circuitry. The shifted DQS signal can also drive to internal logic.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`DQSn[#]_[#]`	I/O, bidirectional	Optional complementary data strobe signal for use in external memory interfacing. These pins drive to dedicated DQS phase shift circuitry.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`DQ[#]_[#]_[#]`	I/O, bidirectional	Optional data signal for use in external memory interfacing. The order of the DQ bits within a designated DQ bus is not important. However, if you plan on migrating to a different memory interface that has a different DQ bus width, you will need to reevaluate your pin assignments. Analyze the available DQ pins across all pertinent DQS columns in the pin list.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`CQ[#]_[#]/CQn[#]_[#]`	I/O, Input	Optional data strobe signal for use in QDRII/II+/II+ Xtreme SRAM. These are the pins for echo clocks.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`QK[#]_[#]`	I/O, Input	Optional data strobe signal for use in RLDRAM 3.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`QKn[#]_[#]`	I/O, Input	Optional complementary data strobe signal for use in RLDRAM 3.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`DM[#]_[#]`	I/O, Output	Optional write data mask, edge-aligned to DQ during write.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`RESET_N_0`	I/O, Output	Active low reset signal.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`A_[#]`	I/O, Output	Address input for DDR3, DDR4, QDRII/II+/II+ Xtreme SRAM, and RLDRAM3.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`BA_[#]`	I/O, Output	Bank address input for DDR2, DDR3, and RLDRAM 3.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`CK_[#]`	I/O, Output	Input clock for external memory devices.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`CK_N_[#]`	I/O, Output	Input clock for external memory devices, inverted CK.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`CKE_[#]`	I/O, Output	High signal enables clock, low signal disables clock.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`CS_N_[#]`	I/O, Output	Active low chip select.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`REF#`	I/O, Output	Auto-refresh control input for RLDRAM 3.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`ODT_[#]`	I/O, Output	On die termination signal to set the termination resistors to each pin.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`WE_N_0`	I/O, Output	Write-enable input for DDR3 SDRAM, RLDRAM 3, and all supported protocols.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`CAS_N_0`	I/O, Output	Column address strobe for DDR3 SDRAM.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`RAS_N_0`	I/O, Output	Row address strobe for DDR3 SDRAM.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`RPS_N_0`	I/O, Output	Read signal to QDRII/II+/II+ Xtreme memory. Active low and reset in the inactive state.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`WPS_N_0`	I/O, Output	Write signal to QDRII/II+/II+ Xtreme memory. Active low and reset in the inactive state.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`ALERT_N_0`	I/O, Input	Alert input that indicate to the system's memory controller that a specific alert or event has occurred.	Connect unused pins as defined in the Intel^® Quartus^® Prime software. If you are using the Early I/O Release feature in the Intel^® Arria^® 10 SX devices, ensure that this pin is located within the active HPS I/O banks. For more information, refer to the HPS EMIF Design Consideration chapter of the Intel^® Arria^® 10 SoC Design Guidelines.
`PAR_0`	I/O, Output	Command and Address Parity Output: DDR4 supports even parity check in DRAMs with MR setting. Once PAR is enabled via Register in MR5, then DRAM calculates parity with ACT_n,RAS_n/A16,CAS_n/A15,WE_n/A14,BG0-BG1,BA0-BA1,A17-A0. Output parity should maintain at the rising edge of the clock and at the same time with command and address with CS_n low.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`ACT_N_0`	I/O, Output	Command output that indicates an `ACTIVATE` command. Applies for DDR4.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`BG_[#]`	I/O, Output	Bank group address outputs that define the bank group to which a `REFRESH`, `ACTIVATE`, `READ`, `WRITE`, or `PRECHARGE` command is being applied. Applies for DDR4.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`C_[#]`	I/O, Output	Stack address inputs that are used when devices are stacked. Applies for DDR4.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`RM_[1,0]`	I/O, Output	Rank multiplication.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`PE_N_0`	I/O, Input	Address parity error.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`AP_0`	I/O, Output	Address parity.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`AINV_0`	I/O, Output	Address inversion state for address bus.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`RW[A,B]_N_0`	I/O, Output	Synchronous read/write input.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`DOFF_N_0`	I/O, Output	Phase-locked loop (PLL) turn off for QDR II/ II + SDRAM.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`LD[A,B]_N_0`	I/O, Output	Synchronous load input.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`REF_N_0`	I/O, Output	Auto-refresh control input for RLDRAM 3.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`CFG_N_0`	I/O, Output	Configuration bit.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.
`LBK[#]_N_0`	I/O, Output	Loop-back mode.	Connect unused pins as defined in the Intel^® Quartus^® Prime software.

Reference Pins

Table 7. Reference Pins
Pin Name	Pin Functions	Pin Description	Connection Guidelines
`RZQ_[#]` , `VID_EN`	I/O	Reference pins for I/O banks. The RZQ pins share the same `VCCIO` with the I/O bank where they are located. Connect the external precision resistor to the designated pin within the bank. If not required, this pin is a regular I/O pin.	When using OCT tie these pins to `GND` through either a 240-Ω or 100-Ω resistor, depending on the desired OCT impedence. Refer to the Intel^® Arria^® 10 Device Handbook for the OCT impedence options for the desired OCT scheme. If you are using the Early I/O Release feature in the Intel^® Arria^® 10 SX devices, ensure that this pin is located within the active HPS I/O banks. For more information, refer to the HPS EMIF Design Consideration chapter of the Intel^® Arria^® 10 SoC Design Guidelines.
`RZQ_[#]` , `VID_EN`	I/O	The `VID_EN` pin is not a physical pin. The `VID_EN` pin is a multi-function shared pin with the `RZQ_2A` pin.	If you are using the SmartVID feature, you have the option to enable the `VID_EN` function using the `RZQ_2A` pin. If you use the `RZQ_2A` pin as the `VID_EN` pin, you cannot use the `RZQ_2A` pin for OCT calibration. If you are using the `RZQ_2A` pin for OCT calibration, you have the option to use other available general-purpose I/O pins for the `VID_EN` function.
`DNU`	Do Not Use	Do Not Use (`DNU`).	Do not connect to power, `GND`, or any other signal. These pins must be left floating.
`NC`	No Connect	Do not drive signals into these pins.	When designing for device migration, you have the option to connect these pins to either power, `GND`, or a signal trace depending on the pin assignment of the devices selected for migration. However, if device migration is not a concern, leave these pins floating.

Voltage Sensor Pins

Table 8. Voltage Sensor Pins
Pin Name	Pin Functions	Pin Description	Connection Guidelines
`VREFP_ADC`	Input	Dedicated precision analog voltage reference.	Tie `VREFP_ADC` to an external 1.25V accurate reference source (+/- 0.2%) for better ADC performance. Treat `VREFP_ADC` as an analog signal that together with the `VREFN_ADC` signal provides a differential 1.25V voltage. If no external reference is supplied, always connect `VREFP_ADC` to `GND`. An on-chip reference source (+/-10%) is activated by connecting this pin to `GND`. `VREFP_ADC` must be equal to or lower than `VCCA_PLL` to prevent damage.
`VREFN_ADC`	Input	Dedicated precision analog voltage reference.	Tie `VREFN_ADC` to the `GND` pin of an external 1.25V accurate reference source (+/- 0.2%) for better ADC performance. Treat `VREFN_ADC` as an analog signal that together with the `VREFP_ADC` signal provides a differential 1.25V voltage. If no external reference is supplied, always connect `VREFN_ADC` to `GND`.
`VSIGP_[0,1]`	Input	2 pairs of analog differential inputs pins used with the voltage sensor inside the FPGA to monitor external analog voltages.	Tie these pins to `GND` of the voltage sensor feature if not used. For details on the usage of these pins, refer to the Power Management in Intel^® Arria^® 10 Devices chapter. Do not drive `VSIGP` and `VSIGN` pins until the `VCCA_PLL` power rail has reached 1.62V to prevent damage.
`VSIGN_[0,1]`	Input

Supply Pins

Table 9. Supply Pins
Pin Name	Pin Functions	Pin Description	Connection Guidelines
`VCCP`	Power	`VCCP` supplies power to the periphery.	`VCC`, `VCCP`, and `VCCERAM` must operate at the same voltage level, should share the same power plane on the board, and be sourced from the same regulator unless the SmartVID feature is used, as described below. You can operate -1 and -2 speed grade devices at 0.9V or 0.95V typical value. You can operate -3 speed grade device only at 0.9V typical value. Operating at 0.95V results in higher core performance and higher power consumption. For more information about the performance and power consumption, refer to the Intel^® Quartus^® Prime software timing reports and Intel^® Arria^® 10 Early Power Estimator (EPE). For details about the recommended operating conditions, refer to the Electrical Characteristics in the device datasheet. Use the Intel^® Arria^® 10 Early Power Estimator (EPE) to determine the current requirements for `VCCP` and other power supplies. Decoupling for these pins depends on the decoupling requirements of the specific board. See Notes 2, 3, 4, 5, 6, and 10.
`VCC`	Power	`VCC` supplies power to the core. `VCC` also supplies power to the Hard IP for PCI Express cores.	`VCC`, `VCCP`, and `VCCERAM` must operate at the same voltage level, should share the same power plane on the board, and be sourced from the same regulator unless the SmartVID feature is used, as described below. You can operate -1 and -2 speed grade devices at 0.9V or 0.95V typical value. You can operate -3 speed grade device only at 0.9V typical value. Operating at 0.95V results in higher core performance and higher power consumption. For more information about the performance and power consumption, refer to the Intel^® Quartus^® Prime software timing reports and Intel^® Arria^® 10 Early Power Estimator (EPE). For details about the recommended operating conditions, refer to the Electrical Characteristics in the device datasheet. Use the Intel^® Arria^® 10 Early Power Estimator (EPE) to determine the current requirements for `VCC` and other power supplies. Decoupling for these pins depends on the decoupling requirements of the specific board. See Notes 2, 3, 4, 5, 6, and 10.
`VCCPT`	Power	Power supply for the programmable power technology and I/O pre-drivers.	Connect `VCCPT` to a 1.8V low noise switching regulator. You have the option to source the following from the same regulator as `VCCPT`: `VCCH_GXB`, `VCCA_PLL`, `VCCPLL_HPS` with proper isolation filtering `VCCIOREF_HPS` `VCCBAT` if it is using the same voltage level and the design security key feature is not required If you are not using HPS, do not share `VCCPLL_HPS` and `VCCIOREF_HPS` with `VCCPT`. Provide a minimum decoupling of 1uF for the `VCCPT` power rail near the `VCCPT` pin. For the power rail sharing, refer to the Power Supply Sharing Guidelines for Intel^® Arria^® 10 Devices. See Notes 2, 3, 4, 7, and 10.
`VCCA_PLL`	Power	PLL analog power.	Connect `VCCA_PLL` to a 1.8V low noise switching regulator. With proper isolation filtering, you have the option to source `VCCA_PLL` from the same regulator as `VCCPT`. See Notes 2, 3, 4, 7, and 10.
`VCCIO([2][A, F,G,H,I,J,K, L, AF, KL], [3][A, B,C,D,E,F,G, H, AB, GH])`	Power	These are I/O supply voltage pins for banks 1 through 12. Each bank can support a different voltage level. Supports VCCIO standards that include Diff HSTL/HSTL(12, 15, 18), Diff SSTL/SSTL(12, 125, 135, 15, 18), Diff HSUL/HSUL(12), Diff POD 12, LVDS/Mini_LVDS/RSDS, 1.2V, 1.5V, 1.8V, 2.5V, 3.0V I/O standards.	Connect these pins to 1.2V, 1.25V, 1.35V, 1.5V, 1.8V, 2.5V, or 3.0V supplies, depending on the I/O standard required by the specified bank. When these pins require the same voltage level as `VCCPGM`, you have the option to tie them to the same regulator as `VCCPGM`. Not all I/O banks support 2.5V or 3.0V supplies. Not all devices support 3.0V I/O standard. For more details, refer to the I/O and High Speed I/O in Intel^® Arria^® 10 Devices. For the power rail sharing, refer to the Power Supply Sharing Guidelines for Intel^® Arria^® 10 Devices. See Notes 2, 3, 4, 8, and 10.
`VCCPGM`	Power	Configuration pins power supply.	Connect these pins to a 1.2V, 1.5V, or 1.8V power supply. When dual-purpose configuration pins are used for configuration, tie `VCCIO` of the bank to the same regulator as `VCCPGM`, ranging from 1.2V, 1.5V, or 1.8V. When you do not use dual-purpose configuration pins for configuration, connect `VCCIO` to 1.2V, 1.25V, 1.35V, 1.5V, or 1.8V. When these pins require the same voltage level as `VCCIO`, you have the option to tie them to the same regulator as `VCCIO`. Provide a minimum decoupling of 47nF for the `VCCPGM` power rail near the `VCCPGM` pin. For the power rail sharing, refer to the Power Supply Sharing Guidelines for Intel^® Arria^® 10 Devices. See Notes 2, 3, 4, and 10.
`VCCERAM`	Power	Memory power pins.	Connect all `VCCERAM` pins to a 0.9V or 0.95V linear or low noise switching power supply. You have the option to share `VCCL_HPS` with `VCCERAM` plane if the `VCCL_HPS` voltage is at the same level for Intel^® Arria^® 10 SX devices. `VCC`, `VCCP`, and `VCCERAM` must operate at the same voltage level, should share the same power plane on the board, and be sourced from the same regulator. When sharing the same regulator for `VCCERAM`, `VCC`, and `VCCP`, the SmartVID feature is not available. If you use the SmartVID feature, then `VCC` and `VCCP` need to be sourced by a dedicated regulator that is separate from the `VCCERAM` regulator. When you use the SmartVID feature, `VCCERAM` must be equal to 0.9V. See Notes 2, 3, 7, and 10.
`VCCBAT`	Power	Battery back-up power supply for design security volatile key register.	When using the design security volatile key, connect this pin to a non-volatile battery power source in the range of 1.2V - 1.8V. When not using the volatile key, tie this pin to a supply ranging from more than 1.5V to 1.8V. If 1.8V is selected when the design security key is unused, you have the option to source this pin from the same regulator as `VCCPT`. This pin must be properly powered as per the recommended voltage range as the POR circuitry of the Intel^® Arria^® 10 devices monitoring `VCCBAT`. Provide a minimum decoupling of 47nF for the `VCCBAT` power rail near the `VCCBAT` pin. For the power rail sharing, refer to the Power Supply Sharing Guidelines for Intel^® Arria^® 10 Devices.
`GND`	Ground	Device ground pins.	All `GND` pins should be connected to the board ground plane.
`VREFB[[2][A, F,G,H,I,J,K, L], [3][A, B,C,D,E,F,G, H]]N0`	Power	Input reference voltage for each I/O bank. If a bank uses a voltage-referenced I/O standard, then use these pins as voltage-reference pins for the bank.	If `VREF` pins are not used, connect them to either the `VCCIO` in the bank in which the pin resides or `GND`. See Notes 2, 8, 10, and 11. The following lists the four pairs of `VREF` pins in the RF40 package of the Intel^® Arria^® 10 GX devices that must be connected to the same voltage source on the board: `VREFB2AN0` and `VREFB2FN0` `VREFB2KN0` and `VREFB2LN0` `VREFB3AN0` and `VREFB3BN0` `VREFB3GN0` and `VREFB3HN0`
`VCCLSENSE`	Power	Differential sense line to external regulator.	`VCCLSENSE` and `GNDSENSE` are differential remote sense pins for the `VCC` power. Connect your regulators’ differential remote sense lines to the respective `VCCLSENSE` and `GNDSENSE` pins. This compensates for the DC IR drop associated with the PCB and device package from the `VCC` power. Route these connections as differential pair traces and keep them isolated from any other noise source. Connect `VCCLSENSE` and `GNDSENSE` lines to the regulator’s remote sense inputs when I_CC current >30A or when the SmartVID feature is used. `VCCLSENSE` and `GNDSENSE` line connections are optional if I_CC current <=30A and the SmartVID feature is not used. However, Intel^® recommends connecting the `VCCLSENSE` and `GNDSENSE` for regulators that support remote sense line feature. If you do not use the `VCCLSENSE` and `GNDSENSE` pins, leave the `VCCLSENSE` and `GNDSENSE` pins unconnected.
`GNDSENSE`	Ground	Differential sense line to external regulator.
`ADCGND`	Ground	Dedicated quiet ground.	If you are using voltage sensor, you must connect `ADCGND` plane to board `GND` through a proper isolation filter with ferrite bead. Select the ferrite bead according to the frequency of the noise profile when it shows the maximum noise level. Alternatively, you can choose the ferrite bead based on the `ADCGND` maximum current value as well, which is 10 mA. If you are not using voltage sensor, isolation filter with ferrite bead to board `GND` is optional.

Transceiver Pins

Table 10. Transceiver Pins
Pin Name	Pin Functions	Pin Description	Connection Guidelines
`VCCR_GXB[L1,R4] [C,D,E,F,G,H,I,J]`	Power	Analog power, receiver, specific to each transceiver bank of the left (L) side or right (R) side of the device.	Connect `VCCR_GXB` pins to a 0.95V, 1.03V, or 1.12V low noise switching regulator. 1.12V is applicable only for Intel^® Arria^® 10 GT devices. For transceivers data rates in respect to each voltage level, refer to the Notes to Power Supply Sharing Guidelines. If all of the transceivers, fPLLs, and IOPLLs on a side are not used, then the `VCCR_GXB` power rails of those inner banks on that side can be tied to `GND` to save power. The two outer banks on either the left or right side must always be powered on for proper operation of the device. The outer banks are always the first bank (lowest alphabetical letter) and last bank (highest alphabetical letter) on a side. Example 1—Device with 8 transceiver banks on a side. `VCCR_GXB1J`—left side top outer bank. Do not power down. `VCCR_GXB1I` `VCCR_GXB1H` `VCCR_GXB1G` `VCCR_GXB1F` `VCCR_GXB1E` `VCCR_GXB1D` `VCCR_GXB1C`—left side bottom outer bank. Do not power down. `VCCR_GXB4J`—right side top outer bank. Do not power down. `VCCR_GXB4I` `VCCR_GXB4H` `VCCR_GXB4G` `VCCR_GXB4F` `VCCR_GXB4E` `VCCR_GXB4D` `VCCR_GXB4C`—right side bottom outer bank. Do not power down. Example 2—Device with 4 transceiver banks on a side. `VCCR_GXB1F`—left side top outer bank. Do not power down. `VCCR_GXB1E` `VCCR_GXB1D` `VCCR_GXB1C`—left side bottom outer bank. Do not power down. `VCCR_GXB4F`—right side top outer bank. Do not power down. `VCCR_GXB4E` `VCCR_GXB4D` `VCCR_GXB4C`—right side bottom outer bank. Do not power down. `VCCR_GXB` pins on the same side of the device must have the same voltage. The `VCCT_GXB` and `VCCR_GXB` power supplies voltage level must be equivalent if both power supplies are powered on. See Notes 2, 3, 4, 7, and 10.
`VCCT_GXB[L1,R4] [C,D,E,F,G,H,I,J]`	Power	Analog power, transmitter, specific to each transceiver bank of the left (L) side or right (R) side of the device.	Connect `VCCT_GXB` pins to a 0.95V, 1.03V, or 1.12V low noise switching regulator. 1.12V is applicable only for Intel^® Arria^® 10 GT devices. For transceivers data rates in respect to each voltage level, refer to the Notes to Power Supply Sharing Guidelines. If all of the transceivers, fPLLs, and IOPLLs on a side are not used, then the `VCCT_GXB` power rails on that side can be tied to `GND` to save power regardless of whether they are an inner or outer bank. `VCCT_GXB` pins on the same side of the device must have the same voltage. The `VCCT_GXB` and `VCCR_GXB` power supplies voltage level must be equivalent if both power supplies are powered on. See Notes 2, 3, 4, 7, and 10.
`VCCH_GXB[L,R]`	Power	Analog power, block level transmitter buffers, specific to the left (L) side or right (R) side of the device.	Connect `VCCH_GXB` to 1.8V low noise switching regulator. With a proper isolation filtering, you have the option to source `VCCH_GXB` from the same regulator as `VCCPT`. All `VCCH_GXB` of all transceiver banks must be powered on for proper device operation except for the HF34 and NF40 packages of the Intel^® Arria^® 10 GX and GT devices. For the HF34 and NF40 packages of the Intel^® Arria^® 10 GX and GT devices, the `VCCH_GXBR` power rails can be tied to GND to save power if all of the transceivers, fPLLs, and IOPLLs on that side are not used. `VCCH_GXB` pins on the same side of the device must have the same voltage. Provide a minimum decoupling of 2.2nF for the `VCCH_GXB` power rail near the `VCCH_GXB` pin. To reduce voltage regulator module (VRM) switching noise impact on channel jitter performance, the VRM switching frequency for the `VCCH_GXB` rail should be below 2 MHz. For OTN application, the VRM switching frequency for the `VCCH_GXB` rail should be below 500 KHz. See Notes 2, 3, 4, 7, and 10.
`GXB[L1,R4][C,D,E,F,G,H,I,J]_RX_[0:5]p` , `GXB[L,R][1][C,D,E,F,G,H,I,J]_REFCLK_CH[0:5]p`	Input	High speed positive differential receiver channels. Specific to each transceiver bank of the left (L) side or right (R) side of the device.	These pins can be AC-coupled or DC-coupled when used. Connect all unused `GXB_RXp` pins directly to `GND`, `VCCR_GXB`, or `VCCT_GXB` pins.
`GXB[L1,R4][C,D,E,F,G,H,I,J]_RX_[0:5]n` , `GXB[L,R][1][C,D,E,F,G,H,I,J]_REFCLK_CH[0:5]n`	Input	High speed negative differential receiver channels. Specific to each transceiver bank of the left (L) side or right (R) side of the device.	These pins can be AC-coupled or DC-coupled when used. Connect all unused `GXB_RXn` pins directly to `GND`.
`GXB[L1,R4][C,D,E,F,G,H,I,J]_TX_CH[0:5]p`	Output	High speed positive differential transmitter channels. Specific to each transceiver bank of the left (L) side or right (R) side of the device.	Leave all unused `GXB_TXp` pins floating.
`GXB[L1,R4][C,D,E,F,G,H,I,J]_TX_CH[0:5]n`	Output	High speed negative differential transmitter channels. Specific to each transceiver bank of the left (L) side or right (R) side of the device.	Leave all unused `GXB_TXn` pins floating.
`REFCLK_GXB[L1,R4][C,D,E,F,G,H,I,J]_CH[B,T]p`	Input	High speed differential reference clock positive receiver channels, specific to each transceiver bank of the left (L) side or right (R) side of the device. `REFCLK_GXB` can be used as dedicated clock input pins with fPLL for core clock generation even when the transceiver channel is not available.	These pins must be AC-coupled if the selected REFCLK I/O standard is not HCSL. In the PCI Express configuration, DC-coupling is allowed on the `REFCLK` if the selected REFCLK I/O standard is HCSL. Connect all unused pins either individually to `GND` or tie all unused pins together through a single 10-kΩ resistor to `GND`. Ensure that the trace from the pins to the resistor(s) are as short as possible. See Note 9.
`REFCLK_GXB[L1,R4][C,D,E,F,G,H,I,J]_CH[B,T]n`	Input	High speed differential reference clock complement, complementary receiver channel, specific to each transceiver bank of the left (L) side or right (R) side of the device. `REFCLK_GXB` can be used as dedicated clock input pins with fPLL for core clock generation even when the transceiver channel is not available.	These pins must be AC-coupled if the selected REFCLK I/O standard is not HCSL. In the PCI Express configuration, DC-coupling is allowed on the `REFCLK` if the selected REFCLK I/O standard is HCSL. Connect all unused pins either individually to `GND` or tie all unused pins together through a single 10-kΩ resistor to `GND`. Ensure that the trace from the pins to the resistor(s) are as short as possible. See Note 9.
`CLKUSR`	I/O	This pin is used as the clock for transceiver calibration, and is a mandatory requirement when using transceivers. This pin is optionally used for Hybrid Memory Cube (HMC) calibration, as well as a configuration clock input for synchronizing the initialization of more than one device. This is a user-supplied clock and the input frequency range must be in the range from 100 MHz to 125 MHz. This pin can be used as a GPIO pin only if you are not using transceivers, not using HMC, and not using this pin as a user-supplied configuration clock.	If you are using the `CLKUSR` pin for configuration and transceiver calibration, you must supply an external free running and stable clock to the `CLKUSR` pin at start of device configuration and also when the device entered user mode. If the clock is not present at device power-up, transceiver calibration will be delayed until the clock is available. This may impact protocol compliance. You need to ensure supplying the `CLKUSR` pin with a common clock frequency that is applicable for both the configuration mode and transceiver calibration.
			If you are not using the `CLKUSR` pin for configuration but using the `CLKUSR` pin for transceiver calibration, you must supply an external free running and stable clock to the `CLKUSR` pin at start of device configuration and also when the device entered user mode. If the clock is not present at device power-up, transceiver calibration will be delayed until the clock is available. This may impact protocol compliance.
			If you are using the `CLKUSR` pin for configuration but not using the `CLKUSR` pin for transceiver calibration, you must use a user-supplied clock input. For more information, refer to the Configuration, Design Security, and Remote System Upgrades for Intel^® Arria^® 10 Devices chapter.
			Connect the `CLKUSR` pin to `GND` if you are not using the `CLKUSR` pin for any of the following: Configuration clock input Transceiver calibration clock An I/O pin
`RREF_[T,B][L,R]`	Input	Reference resistor for fPLL, IOPLL, and transceiver, specific to the top (T) side or bottom (B) side and left (L) side or right (R) side of the device.	If any `REFCLK` pin or transceiver channel on one side (left or right) of the device or IOPLL is used, you must connect each `RREF` pin on that side of the device to its own individual 2kΩ resistor to `GND`. Otherwise, you can connect each `RREF` pin on that side of the device directly to `GND`. In the PCB layout, the trace from this pin to the resistor needs to be routed so that it avoids any aggressor signals.

Notes to Intel Arria 10 GX and GT Pin Connection Guidelines

Intel^® provides these guidelines only as recommendations. It is the responsibility of the designer to apply simulation results to the design to verify proper device functionality.

These pin connection guidelines are created based on the Intel^® Arria^® 10 GX and GT device variants.
Select the capacitance values for the power supply after you consider the amount of power they need to supply over the frequency of operation of the particular circuit being decoupled. Calculate the target impedance for the power plane based on current draw and voltage drop requirements of the device/supply. Then, decouple the power plane using the appropriate number of capacitors. On-board capacitors do not decouple higher than 100 MHz due to “Equivalent Series Inductance” of the mounting of the packages. Consider proper board design techniques such as interplane capacitance with low inductance for higher frequency decoupling. Refer to the PDN tool.
Use the Intel^® Arria^® 10 Early Power Estimator (EPE) to determine the current requirements for VCC and other power supplies. Use the Intel^® Quartus^® Prime Power Analyzer for the most accurate current requirements for this and other power supplies.
These supplies may share power planes across multiple Intel^® Arria^® 10 devices.
Power pins should not share breakout vias from the BGA. Each ball on the BGA needs to have its own dedicated breakout via. VCC must not share breakout vias.
Example 1 through Example 7 and Figure 1 through Figure 7 illustrate the power supply sharing guidelines for the Intel^® Arria^® 10 GX and Intel^® Arria^® 10 GT devices. Example 11 illustrates the power supply sharing guidelines for Intel^® Arria^® 10 GX device using the SmartVID feature.
Low Noise Switching Regulator—defined as a switching regulator circuit encapsulated in a thin surface mount package containing the switch controller, power FETs, inductor, and other support components. The switching frequency is usually between 800kHz and 1MHz and has fast transient response. The switching frequency range is not an Intel^® requirement. However, Intel^® does require the Line Regulation and Load Regulation meet the following specifications:
- Line Regulation < 0.4%
- Load Regulation < 1.2%
The number of modular I/O banks on Intel^® Arria^® 10 devices depends on the device density. For the indexes available for a specific device, please refer to the I/O Bank section in the Intel^® Arria^® 10 Device Handbook.
For AC-coupled links, the AC-coupling capacitor can be placed anywhere along the channel. PCI Express protocol requires the AC-coupling capacitor to be placed on the transmitter side of the interface that permits adapters to be plugged and unplugged.
Decoupling for these pins depends on the design decoupling requirements of the specific board.
Do not connect voltage above 1.8V to the VREFB[[2][A, F,G,H,I,J,K, L], [3] [A, B,C,D,E,F,G, H]]N0 pins. For 3V I/O banks, tie unused VREF pins to GND.
Do not drive the I/O pins externally during the power-up and power-down time to avoid excess current on the I/O pins:
- Excess I/O pin current affects the device's lifetime and reliability.
- Excess current on the 3V I/O pins can damage the Intel^® Arria^® 10 device.
For the acceptable limits on the input current, refer to the Absolute Maximum Ratings section in the Intel^® Arria^® 10 Device Datasheet.

Intel Arria 10 SX Pin Connection Guidelines

HPS Supply Pins

Table 11. HPS Supply Pins
HPS Pin Name	Pin Functions	Pin Description	Connection Guidelines
`VCCL_HPS`	Power	`VCCL_HPS` supplies power to the HPS core.	Connect all `VCCL_HPS` pins to a 0.9V or 0.95V low noise switching regulator. For more information about the voltage requirements for various operating temperatures and speed grades, refer to the Maximum HPS Clock Frequencies Across Device Speed Grade for Intel^® Arria^® 10 Devices table in the Intel^® Arria^® 10 Device Datasheet. Use the Intel^® Arria^® 10 Early Power Estimator (EPE) to determine the current requirements for `VCCL_HPS` and other power supplies. Decoupling for these pins depends on the design decoupling requirements of the specific board. See Notes 2, 3, 4, and 6.
`VCCIO_HPS`	Power	HPS dedicated I/Os can support a different voltage level from 1.8V to 3.0V. The supported I/O standard is LVTTL/ LVCMOS (3.0, 2.5, 1.8).	Connect these pins to a 1.8V, 2.5V, or 3.0V power supply, depending on the I/O standard required by the specified bank. If these pins have the same voltage requirement as `VCCIO` and `VCCPGM`, you have the option to source `VCCIO_HPS` pins from the same regulator as `VCCIO` and `VCCPGM`. Decoupling for these pins depends on the design decoupling requirements of the specific board. See Notes 2, 3, 4, and 8.
`VCCPLL_HPS`	Power	`VCCPLL_HPS` supplies analog power to the HPS core PLLs.	Connect these pins to a 1.8V low noise switching power supply through a proper isolation filter. Share `VCCPLL_HPS` with the same regulator as `VCCPT` when all power rails require 1.8V but only with a proper isolation filter. Decoupling for these pins depends on the design decoupling requirements of the specific board. See Notes 2, 3, 4, and 7.
`VCCIOREF_HPS`	Power	HPS power supply for I/O pre-drivers.	The `VCCIOREF_HPS` pins require 1.8V. When these pins have the same voltage requirements as `VCCIO_HPS`, you have the option to tie them to the same regulator. If these pins have the same voltage requirement as `VCCPT`, you have the option to tie them to the same regulator. Decoupling for these pins depends on the design decoupling requirements of the specific board. See Notes 2, 3, 4, and 8.

HPS Dedicated I/O Bank Pins

Table 12. HPS Dedicated I/O Bank Pins
HPS Pin Name	Pin Functions	Pin Description	Connection Guidelines
`HPS_CLK1`	Input, Clock	Dedicated clock input pin that drives the main PLL. This provides clocks to the MPU, L3/L4 sub-systems, debug sub-system and the Flash controllers. It can also be programmed to drive the peripherals.	Connect a single-ended clock source to this pin. The I/O standard of the clock source must be compatible with `VCCIO_HPS`. Refer to the valid frequency range of the clock source in the Intel^® Arria^® 10 Device Datasheet. Unless the `hps_clk_f` fuse is blown, an input clock must be present on this pin for the HPS to boot properly.
`HPS_ nRST`	Bidirectional	Warm reset to the HPS block. Active low bi-directional pin. When driven from the board, the system reset domains that allow debugging to operate are affected. Any cold HPS reset drives the `HPS_nRST` pin low. `HPS_nRST` may be driven low on a warm reset if enabled using the `nrstwarmmask` register in the Reset Manager.	Connect this pin through a 1-kΩ pull-up resistor to `VCCIO_HPS`.
`HPS_ nPOR`	Input	Cold reset to the HPS block. Active low input that resets all HPS logic that can be reset. Places the HPS in a default state sufficient for the software to boot. This pin has an internal 25-kΩ pull-up resistor that is always active.	Connect this pin through a 1–10-kΩ pull-up resistor to `VCCIO_HPS`.

HPS Peripheral Pins

Table 13. HPS Peripheral Pins
HPS Pin Name	Pin Type	Pin Functions See Notes 11, 12, and 13.	Pin Description	Connection Guidelines
`HPS_DEDICATED_4`	I/O	Pin Mux Select 4	QSPI CLK	When configured as the QSPI Clock and if a single memory topology is used, connect a 50-Ω series termination resistor near this Intel^® Arria^® 10 SoC FPGA device pin. For other topologies, use a 25-Ω series termination resistor. When you are booting the HPS from a SD/MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ. If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	SDMMC Data Bit 0
		Pin Mux Select 14	NAND Data Bit 0
		Pin Mux Select 15 See Note 14.	GPIO 2 Bit 0
`HPS_DEDICATED_5`	I/O	Pin Mux Select 4	QSPI Data IO Bit 0	When you are booting the HPS from a SD/MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ. If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	SDMMC Command Line
		Pin Mux Select 14	NAND Data Bit 1
		Pin Mux Select 15 See Note 14.	GPIO 2 Bit 1
`BOOTSEL2` (`BSEL2`)/ `HPS_DEDICATED_6`	I/O	Pin Mux Select 4	QSPI Slave Select 0	Connect a 4.7-kΩ pull-up or pull-down resistor to the pin to select the desired boot select values. For more information about the boot select values, refer to the Booting and Configuration appendix in the Intel^® Arria^® 10 Hard Processor System Technical Reference Manual. This is a multi-function pin. The HPS Boot ROM samples the value of the `BSEL` from this pin upon power up. After boot up, the function of this pin will be according to the settings in the Platform Designer. This resistor will not interfere with the slow speed interface signals that could share this pin.
		Pin Mux Select 8	SDMMC Clock Out
		Pin Mux Select 14	NAND Write Enable See Note 19.
		Pin Mux Select 15 See Note 14.	GPIO 2 Bit 2
`HPS_DEDICATED_7`	I/O	Pin Mux Select 4	QSPI Data IO Bit 1	When you are booting the HPS from a SD/MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ. If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	SDMMC Data Bit 1
		Pin Mux Select 14	NAND Read Enable See Note 19.
		Pin Mux Select 15 See Note 14.	GPIO 2 Bit 3
`HPS_DEDICATED_8`	I/O	Pin Mux Select 4	QSPI Data IO Bit 2/ Write Protect See Note 19.	When you are booting the HPS from a SD/MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ. If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	SDMMC Data Bit 2
		Pin Mux Select 14	NAND Data Bit 2
		Pin Mux Select 15 See Note 14.	GPIO 2 Bit 4
`HPS_DEDICATED_9`	I/O	Pin Mux Select 4	QSPI Data IO Bit 3/ Hold	When you are booting the HPS from a SD/MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ. The SD card has an internal pull-up on the SDMMC Data Bit 3 which can be disabled in the software using the `SET_CLR_CARD_DETECT (ACMD42)` command. This is not applicable for the MMC/eMMC flash. If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	SDMMC Data Bit 3
		Pin Mux Select 14	NAND Data Bit 3
		Pin Mux Select 15 See Note 14.	GPIO 2 Bit 5
`BOOTSEL1` (`BSEL1`)/ `HPS_DEDICATED_10`	I/O	Pin Mux Select 2	SPIS0 Master In Slave Out	Connect a 4.7-kΩ pull-up or pull-down resistor to the pin to select the desired boot select values. For more information about the boot select values, refer to the Booting and Configuration appendix in the Intel^® Arria^® 10 Hard Processor System Technical Reference Manual. This is a multi-function pin. The HPS Boot ROM samples the value of the `BSEL` from this pin upon power up. After boot up, the function of this pin will be according to the settings in the Platform Designer. This resistor will not interfere with the slow speed interface signals that could share this pin.
		Pin Mux Select 3	SPIM0 Slave Select 1 See Note 19.
		Pin Mux Select 8	SDMMC Power Enable See Note 15.
		Pin Mux Select 14	NAND Command Latch Enable
		Pin Mux Select 15 See Note 14.	GPIO 2 Bit 6
`BOOTSEL0` (`BSEL0`)/ `HPS_DEDICATED_11`	I/O	Pin Mux Select 3	SPIM 0 Clock	Connect a 4.7-kΩ pull-up or pull-down resistor to the pin to select the desired boot select values. For more information about the boot select values, refer to the Booting and Configuration appendix in the Intel^® Arria^® 10 Hard Processor System Technical Reference Manual. This is a multi-function pin. The HPS Boot ROM samples the value of the `BSEL` from this pin upon power up. After boot up, the function of this pin will be according to the settings in the Platform Designer. This resistor will not interfere with the slow speed interface signals that could share this pin.
		Pin Mux Select 4	PLL Clock 0
		Pin Mux Select 8	QSPI Slave Select 1
		Pin Mux Select 14	NAND Address Latch Enable
		Pin Mux Select 15 See Note 14.	GPIO 2 Bit 7
`HPS_DEDICATED_12`	I/O	Pin Mux Select 0	I2C EMAC1 Serial Data	If used as the NAND Ready/Busy input, connect this pin through a 1–10-kΩ pull-up resistor to `VCCIO_HPS` in the dedicated I/O bank which the `NAND_RB` pin resides. When you are booting the HPS from a MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ. If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 1	EMAC1 MDIO
		Pin Mux Select 3	SPIM0 Master Out Slave In
		Pin Mux Select 4	PLL Clock 1
		Pin Mux Select 8	SDMMC Data Bit 4
		Pin Mux Select 13	UART1 Transmit
		Pin Mux Select 14	NAND Ready/Busy
		Pin Mux Select 15 See Note 14.	GPIO 2 Bit 8
`HPS_DEDICATED_13`	I/O	Pin Mux Select 0	I2C EMAC1 Serial Clock	When you are booting the HPS from a MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ. If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 1	EMAC1 MDC
		Pin Mux Select 3	SPIM0 Master In Slave Out
		Pin Mux Select 4	PLL Clock 2
		Pin Mux Select 8	SDMMC Data Bit 5
		Pin Mux Select 13	UART1 Request to Send See Note 19.
		Pin Mux Select 14	NAND Chip Enable See Note 19.
		Pin Mux Select 15 See Note 14.	GPIO 2 Bit 9
`HPS_DEDICATED_14`	I/O	Pin Mux Select 0	I2C EMAC2 Serial Data	When you are booting the HPS from a MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ. If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 1	EMAC2 MDIO
		Pin Mux Select 3	SPIM0 Slave Select 0 See Note 19.
		Pin Mux Select 4	PLL Clock 3
		Pin Mux Select 8	SDMMC Data Bit 6
		Pin Mux Select 13	UART1 Clear to Send See Note 19.
		Pin Mux Select 14	NAND Data Bit 4
		Pin Mux Select 15 See Note 14.	GPIO 2 Bit 10
`HPS_DEDICATED_15`	I/O	Pin Mux Select 0	I2C EMAC2 Serial Clock	When you are booting the HPS from a MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ. If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 1	EMAC2 MDC
		Pin Mux Select 2	SPIS0 Clock
		Pin Mux Select 4	PLL Clock 4
		Pin Mux Select 8	SDMMC Data Bit 7
		Pin Mux Select 13	UART1 Receive
		Pin Mux Select 14	NAND Data Bit 5
		Pin Mux Select 15 See Note 14.	GPIO 2 Bit 11
`HPS_DEDICATED_16`	I/O	Pin Mux Select 0	I2C EMAC0 Serial Data	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 1	EMAC0 MDIO
		Pin Mux Select 2	SPIS0 Master Out Slave In
		Pin Mux Select 8	QSPI Slave Select 2
		Pin Mux Select 13	UART1 Transmit
		Pin Mux Select 14	NAND Data Bit 6
		Pin Mux Select 15 See Note 14.	GPIO 2 Bit 12
`HPS_DEDICATED_17`	I/O	Pin Mux Select 0	I2C EMAC0 Serial Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 1	EMAC0 MDC
		Pin Mux Select 2	SPIS0 Slave Select 0 See Note 19.
		Pin Mux Select 8	QSPI Slave Select 3
		Pin Mux Select 13	UART1 Receive
		Pin Mux Select 14	NAND Data Bit 7
		Pin Mux Select 15 See Note 14.	GPIO 2 Bit 13

Shared 3V I/O Bank Pins

Table 14. Shared 3V I/O Bank PinsHPS Shared I/O will be input tri-state during HPS cold reset. For more information, refer to the A.4.6.1 I/O State section in the Intel^® Arria^® 10 Hard Processor System Technical Reference Manual.
HPS Pin Name	Pin Type	Pin Functions See Notes 16 and 17.	Pin Description	Connection Guidelines
`HPS_Shared_Q1_1`	I/O	Pin Mux Select 2	SPIS0 Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up. When you are using this pin for the SD/MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ.
		Pin Mux Select 3	SPIM0 Slave Select 1 See Note 19.
		Pin Mux Select 4	SDMMC Data Bit 0
		Pin Mux Select 8	USB0 Clock
		Pin Mux Select 13	UART0 Clear to Send See Note 19.
		Pin Mux Select 14	NAND Data Bit 0
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 0
`HPS_Shared_Q1_2`	I/O	Pin Mux Select 2	SPIS 0 Master Out Slave In	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up. When you are using this pin for the SD/MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ.
		Pin Mux Select 3	SPIM 1 Slave Select 1 See Note 19.
		Pin Mux Select 4	SDMMC Command Line
		Pin Mux Select 8	USB 0 Stop Data
		Pin Mux Select 13	UART 0 Request to Send See Note 19.
		Pin Mux Select 14	NAND Data Bit 1
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 1
`HPS_Shared_Q1_3`	I/O	Pin Mux Select 0	I2C 1 Serial Data	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 2	SPIS 0 Slave Select 0 See Note 19.
		Pin Mux Select 4	SDMMC Clock Out
		Pin Mux Select 8	USB 0 Direction
		Pin Mux Select 13	UART 0 Transmit
		Pin Mux Select 14	NAND Write Enable See Note 19.
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 2
`HPS_Shared_Q1_4`	I/O	Pin Mux Select 0	I2C 1 Serial Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up. When you are using this pin for the SD/MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ.
		Pin Mux Select 2	SPIS 0 Master In Slave Out
		Pin Mux Select 4	SDMMC Data Bit 1
		Pin Mux Select 8	USB 0 Data Bit 0
		Pin Mux Select 13	UART 0 Receive
		Pin Mux Select 14	NAND Read Enable See Note 19.
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 3
`HPS_Shared_Q1_5`	I/O	Pin Mux Select 0	I2C 0 Serial Data	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up. When you are using this pin for the SD/MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ.
		Pin Mux Select 3	SPIM 0 Clock
		Pin Mux Select 4	SDMMC Data Bit 2
		Pin Mux Select 8	USB0 Data Bit 1
		Pin Mux Select 12	QSPI Slave Select 2
		Pin Mux Select 13	UART 1 Clear to Send See Note 19.
		Pin Mux Select 14	NAND Write Protect See Note 19.
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 4
`HPS_Shared_Q1_6`	I/O	Pin Mux Select 0	I2C 0 Serial Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up. When you are using this pin for the SD/MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ. The SD card has an internal pull-up on the SDMMC Data Bit 3 that can be disabled in the software using the `SET_CLR_CARD_DETECT (ACMD42)` command. This is not applicable for the MMC/eMMC flash.
		Pin Mux Select 3	SPIM 0 Master Out Slave In
		Pin Mux Select 4	SDMMC Data Bit 3
		Pin Mux Select 8	USB 0 Next Data
		Pin Mux Select 12	QSPI Slave Select 3
		Pin Mux Select 13	UART 1 Request to Send See Note 19.
		Pin Mux Select 14	NAND Data Bit 2
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 5
`HPS_Shared_Q1_7`	I/O	Pin Mux Select 0	I2C EMAC 2 Serial Data	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up. When you are using this pin for the MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ.
		Pin Mux Select 1	EMAC 2 MDIO
		Pin Mux Select 3	SPIM 0 Master In SlaveOut
		Pin Mux Select 4	SDMMC Data Bit 4
		Pin Mux Select 8	USB0 Data Bit 2
		Pin Mux Select 13	UART 1 Transmit
		Pin Mux Select 14	NAND Data Bit 3
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 6
`HPS_Shared_Q1_8`	I/O	Pin Mux Select 0	I2C EMAC 2 Serial Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up. When you are using this pin for the MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ.
		Pin Mux Select 1	EMAC 2 MDC
		Pin Mux Select 3	SPIM 0 Slave Select 0 See Note 19.
		Pin Mux Select 4	SDMMC Data Bit 5
		Pin Mux Select 8	USB 0 Data Bit 3
		Pin Mux Select 13	UART 1 Receive
		Pin Mux Select 14	NAND Command Latch Enable
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 7
`HPS_Shared_Q1_9`	I/O	Pin Mux Select 0	I2C EMAC 1 Serial Data	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up. When you are using this pin for the MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ.
		Pin Mux Select 1	EMAC 1 MDIO
		Pin Mux Select 2	SPIS 1 Clock
		Pin Mux Select 3	SPIM 1 Clock
		Pin Mux Select 4	SDMMC Data Bit 6
		Pin Mux Select 8	USB 0 Data Bit 4
		Pin Mux Select 14	NAND Data Bit 4
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 8
`HPS_Shared_Q1_10`	I/O	Pin Mux Select 0	I2C EMAC 1 Serial Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up. When you are using this pin for the MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ.
		Pin Mux Select 1	EMAC 1 MDC
		Pin Mux Select 2	SPIS 1 Master Out Slave In
		Pin Mux Select 3	SPIM 1 Master Out Slave In
		Pin Mux Select 4	SDMMC Data Bit 7
		Pin Mux Select 8	USB 0 Data Bit 5
		Pin Mux Select 14	NAND Data Bit 5
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 9
`HPS_Shared_Q1_11`	I/O	Pin Mux Select 0	I2C EMAC 0 Serial Data	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up. When you are using this pin for the MMC/eMMC device, pull this pin high on the board with a weak pull-up resistor such as 10-kΩ.
		Pin Mux Select 1	EMAC 0 MDIO
		Pin Mux Select 2	SPIS 1 Slave Select 0 See Note 19.
		Pin Mux Select 3	SPIM 1 Master In Slave Out
		Pin Mux Select 8	USB 0 Data Bit 6
		Pin Mux Select 14	NAND Data Bit 6
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 10
`HPS_Shared_Q1_12`	I/O	Pin Mux Select 0	I2C EMAC 0 Serial Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 1	EMAC 0 MDC
		Pin Mux Select 2	SPIS 1 Master In Slave Out
		Pin Mux Select 3	SPIM 1 Slave Select 0 See Note 19.
		Pin Mux Select 8	USB 0 Data Bit 7
		Pin Mux Select 14	NAND Data Bit 7
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 11
`HPS_Shared_Q2_1`	I/O	Pin Mux Select 4	EMAC 0 Transmit Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	USB 1 Clock
		Pin Mux Select 14	NAND Address Latch Enable
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 12
`HPS_Shared_Q2_2`	I/O	Pin Mux Select 4	EMAC 0 Transmit Control	If used as the NAND Ready/Busy input, connect this pin through a 1–10-kΩ pull-up resistor to `VCCIO_2L` in the dedicated I/O bank which the `NAND_RB` pin resides. If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	USB 1 Stop Data
		Pin Mux Select 14	NAND Ready/Busy
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 13
`HPS_Shared_Q2_3`	I/O	Pin Mux Select 4	EMAC 0 Receive Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	USB 1 Direction
		Pin Mux Select 14	NAND Chip Enable See Note 19.
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 14
`HPS_Shared_Q2_4`	I/O	Pin Mux Select 4	EMAC 0 Receive Control	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	USB 1 Data Bit 0
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 15
`HPS_Shared_Q2_5`	I/O	Pin Mux Select 4	EMAC 0 Transmit Data Bit 0	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	USB 1 Data Bit 1
		Pin Mux Select 14	NAND Data Bit 8
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 16
`HPS_Shared_Q2_6`	I/O	Pin Mux Select 4	EMAC 0 Transmit Data Bit 1	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	USB 1 Next Data
		Pin Mux Select 14	NAND Data Bit 9
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 17
`HPS_Shared_Q2_7`	I/O	Pin Mux Select 4	EMAC0 Receive Data Bit 0	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	USB1 Data Bit 2
		Pin Mux Select 14	NAND Data Bit 10
		Pin Mux Select 15 See Note 18.	GPIO0 Bit 18
`HPS_Shared_Q2_8`	I/O	Pin Mux Select 3	SPIM 1 Slave Select 1 See Note 19.	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 4	EMAC 0 Receive Data Bit 1
		Pin Mux Select 8	USB 1 Data Bit 3
		Pin Mux Select 14	NAND Data Bit 11
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 19
`HPS_Shared_Q2_9`	I/O	Pin Mux Select 0	I2C 1 Serial Data	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 2	SPIS 0 Clock
		Pin Mux Select 3	SPIM 1 Clock
		Pin Mux Select 4	EMAC 0 Transmit Data Bit 2
		Pin Mux Select 8	USB 1 Data Bit 4
		Pin Mux Select 13	UART 0 Clear to Send See Note 19.
		Pin Mux Select 14	NAND Data Bit 12
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 20
`HPS_Shared_Q2_10`	I/O	Pin Mux Select 0	I2C 1 Serial Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 2	SPIS 0 Master Out Slave In
		Pin Mux Select 3	SPIM 1 Master Out Slave In
		Pin Mux Select 4	EMAC 0 Transmit Data Bit 3
		Pin Mux Select 8	USB 1 Data Bit 5
		Pin Mux Select 13	UART 0 Request to Send See Note 19.
		Pin Mux Select 14	NAND Data Bit 13
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 21
`HPS_Shared_Q2_11`	I/O	Pin Mux Select 0	I2C 0 Serial Data	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 2	SPIS 0 Slave Select 0 See Note 19.
		Pin Mux Select 3	SPIM 1 Master In Slave Out
		Pin Mux Select 4	EMAC 0 Receive Data Bit 2
		Pin Mux Select 8	USB 1 Data Bit 6
		Pin Mux Select 13	UART 0 Transmit
		Pin Mux Select 14	NAND Data Bit 14
		Pin Mux Select 15 See Note 18.	GPIO 0 Bit 22
`HPS_Shared_Q2_12`	I/O	Pin Mux Select 0	I2C0 Serial Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 2	SPIS0 Master In Slave Out
		Pin Mux Select 3	SPIM1 Slave Select 0 See Note 19.
		Pin Mux Select 4	EMAC0 Receive Data Bit 3
		Pin Mux Select 8	USB1 Data Bit 7
		Pin Mux Select 13	UART0 Receive
		Pin Mux Select 14	NAND Data Bit 15
		Pin Mux Select 15 See Note 18.	GPIO0 Bit 23
`HPS_Shared_Q3_1`	I/O	Pin Mux Select 3	SPIM 1 Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	EMAC 1 Transmit Clock
		Pin Mux Select 13	UART 0 Clear to Send See Note 19.
		Pin Mux Select 14	NAND Data Bit 0
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 0
`HPS_Shared_Q3_2`	I/O	Pin Mux Select 3	SPIM 1 Master Out Slave In	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	EMAC 1 Transmit Control
		Pin Mux Select 13	UART 0 Request to Send See Note 19.
		Pin Mux Select 14	NAND Data Bit 1
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 1
`HPS_Shared_Q3_3`	I/O	Pin Mux Select 0	I2C0 Serial Data	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 3	SPIM1 Master In Slave Out
		Pin Mux Select 8	EMAC1 Receive Clock
		Pin Mux Select 13	UART0 Transmit
		Pin Mux Select 14	NAND Write Enable See Note 19.
		Pin Mux Select 15 See Note 18.	GPIO1 Bit 2
`HPS_Shared_Q3_4`	I/O	Pin Mux Select 0	I2C 0 Serial Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 3	SPIM 1 Slave Select 0 See Note 19.
		Pin Mux Select 8	EMAC 1 Receive Control
		Pin Mux Select 13	UART 0 Receive
		Pin Mux Select 14	NAND Read Enable See Note 19.
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 3
`HPS_Shared_Q3_5`	I/O	Pin Mux Select 2	SPIS 1 Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 3	SPIM 1 Slave Select 1 See Note 19.
		Pin Mux Select 8	EMAC 1 Transmit Data Bit 0
		Pin Mux Select 13	UART 1 Clear to Send See Note 19.
		Pin Mux Select 14	NAND Write Protect See Note 19.
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 4
`HPS_Shared_Q3_6`	I/O	Pin Mux Select 2	SPIS 1 Master Out Slave In	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	EMAC 1 Transmit Data Bit 1
		Pin Mux Select 13	UART 1 Request to Send See Note 19.
		Pin Mux Select 14	NAND Data Bit 2
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 5
`HPS_Shared_Q3_7`	I/O	Pin Mux Select 0	I2C 1 Serial Data	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 2	SPIS 1 Slave Select 0 See Note 19.
		Pin Mux Select 8	EMAC 1 Receive Data Bit 0
		Pin Mux Select 13	UART 1 Transmit
		Pin Mux Select 14	NAND Data Bit 3
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 6
`HPS_Shared_Q3_8`	I/O	Pin Mux Select 0	I2C 1 Serial Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 2	SPIS 1 Master In Slave Out
		Pin Mux Select 8	EMAC 1 Receive Data Bit 1
		Pin Mux Select 13	UART 1 Receive
		Pin Mux Select 14	NAND Command Latch Enable
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 7
`HPS_Shared_Q3_9`	I/O	Pin Mux Select 0	I2C EMAC 2 Serial Data	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 1	EMAC 2 MDIO
		Pin Mux Select 2	SPIS 0 Clock
		Pin Mux Select 8	EMAC 1 Transmit Data Bit 2
		Pin Mux Select 14	NAND Data Bit 4
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 8
`HPS_Shared_Q3_10`	I/O	Pin Mux Select 0	I2C EMAC 2 Serial Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 1	EMAC 2 MDC
		Pin Mux Select 2	SPIS 0 Master Out Slave In
		Pin Mux Select 8	EMAC 1 Transmit Data Bit 3
		Pin Mux Select 14	NAND Data Bit 5
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 9
`HPS_Shared_Q3_11`	I/O	Pin Mux Select 0	I2C EMAC 0 Serial Data	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 1	EMAC 0 MDIO
		Pin Mux Select 2	SPIS 0 Slave Select 0 See Note 19.
		Pin Mux Select 8	EMAC 1 Receive Data Bit 2
		Pin Mux Select 14	NAND Data Bit 6
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 10
`HPS_Shared_Q3_12`	I/O	Pin Mux Select 0	I2C EMAC 0 Serial Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 1	EMAC 0 MDC
		Pin Mux Select 2	SPIS 0 Master In Slave Out
		Pin Mux Select 8	EMAC 1 Receive Data Bit 3
		Pin Mux Select 14	NAND Data Bit 7
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 11
`HPS_Shared_Q4_1`	I/O	Pin Mux Select 0	I2C 1 Serial Data	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 4	SDMMC Data Bit 0
		Pin Mux Select 8	EMAC 2 Transmit Clock
		Pin Mux Select 14	NAND Address Latch Enable
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 12
`HPS_Shared_Q4_2`	I/O	Pin Mux Select 0	I2C 1 Serial Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up. When you are using this pin as the NAND Ready/Busy input, connect this pin through a 1–10-kΩ pull-up resistor to the `VCCIO_2L` in the dedicated I/O bank which the `NAND_RB` pin resides.
		Pin Mux Select 4	SDMMC Command Line
		Pin Mux Select 8	EMAC 2 Transmit Control
		Pin Mux Select 14	NAND Ready/ Busy
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 13
`HPS_Shared_Q4_3`	I/O	Pin Mux Select 4	SDMMC Clock Out	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	EMAC 2 Receive Clock
		Pin Mux Select 13	UART 1 Transmit
		Pin Mux Select 14	NAND Chip Enable See Note 19.
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 14
`HPS_Shared_Q4_4`	I/O	Pin Mux Select 4	SDMMC Data Bit 1	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	EMAC 2 Receive Control
		Pin Mux Select 12	Trace clock
		Pin Mux Select 13	UART 1 Receive
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 15
`HPS_Shared_Q4_5`	I/O	Pin Mux Select 4	SDMMC Data Bit 2	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 8	EMAC 2 Transmit Data Bit 0
		Pin Mux Select 12	QSPI Slave Select 2
		Pin Mux Select 13	UART 1 Clear to Send See Note 19.
		Pin Mux Select 14	NAND Data Bit 8
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 16
`HPS_Shared_Q4_6`	I/O	Pin Mux Select 3	SPIM 0 Slave Select 1 See Note 19.	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 4	SDMMC Data Bit 3
		Pin Mux Select 8	EMAC 2 Transmit Data Bit 1
		Pin Mux Select 12	QSPI Slave Select 3
		Pin Mux Select 13	UART 1 Request to Send See Note 19.
		Pin Mux Select 14	NAND Data Bit 9
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 17
`HPS_Shared_Q4_7`	I/O	Pin Mux Select 0	I2C EMAC 1 Serial Data	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 1	EMAC 1 MDIO
		Pin Mux Select 3	SPIM 0 Master In Slave Out
		Pin Mux Select 4	SDMMC Data Bit 4
		Pin Mux Select 8	EMAC 2 Receive Data Bit 0
		Pin Mux Select 14	NAND Data Bit 10
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 18
`HPS_Shared_Q4_8`	I/O	Pin Mux Select 0	I2C EMAC 1 Serial Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 1	EMAC 1 MDC
		Pin Mux Select 3	SPIM 0 Slave Select 0 See Note 19.
		Pin Mux Select 4	SDMMC Data Bit 5
		Pin Mux Select 8	EMAC 2 Receive Data Bit 1
		Pin Mux Select 13	Trace Clock
		Pin Mux Select 14	NAND Data Bit 11
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 19
`HPS_Shared_Q4_9`	I/O	Pin Mux Select 0	I2C EMAC 2 Serial Data	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 2	SPIS 1 Clock
		Pin Mux Select 3	SPIM 0 Clock
		Pin Mux Select 4	SDMMC Data Bit 6
		Pin Mux Select 8	EMAC 2 Transmit Data Bit 2
		Pin Mux Select 12	Trace Data 0
		Pin Mux Select 14	NAND Data Bit 12
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 20
`HPS_Shared_Q4_10`	I/O	Pin Mux Select 0	I2C EMAC 2 Serial Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 2	SPIS 1 Master Out Slave In
		Pin Mux Select 3	SPIM 0 Master Out Slave In
		Pin Mux Select 4	SDMMC Data Bit 7
		Pin Mux Select 8	EMAC 2 Transmit Data Bit 3
		Pin Mux Select 12	Trace Data 1
		Pin Mux Select 14	NAND Data Bit 13
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 21
`HPS_Shared_Q4_11`	I/O	Pin Mux Select 0	I2C EMAC 0 Serial Data	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 1	EMAC 0 MDIO
		Pin Mux Select 2	SPIS 1 Slave Select 0 See Note 19.
		Pin Mux Select 3	SPIM 0 Master In Slave Out
		Pin Mux Select 8	EMAC 2 Receive Data Bit 2
		Pin Mux Select 12	Trace Data 2
		Pin Mux Select 14	NAND Data Bit 14
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 22
`HPS_Shared_Q4_12`	I/O	Pin Mux Select 0	I2C EMAC 0 Serial Clock	If unused, program it in the Intel^® Quartus^® Prime software as an input with a weak pull-up.
		Pin Mux Select 1	EMAC 0 MDC
		Pin Mux Select 2	SPIS 1 Master In Slave Out
		Pin Mux Select 3	SPIM 0 Slave Select 0 See Note 19.
		Pin Mux Select 8	EMAC 2 Receive Data Bit 3
		Pin Mux Select 12	Trace Data 3
		Pin Mux Select 14	NAND Data Bit 15
		Pin Mux Select 15 See Note 18.	GPIO 1 Bit 23

Notes to Intel Arria 10 SX Pin Connection Guidelines

Intel^® provides these guidelines only as recommendations. It is the responsibility of the designer to apply simulation results to the design to verify proper device functionality.

These pin connection guidelines are based on the Intel^® Arria^® 10 SX device variant.
Select the capacitance values for the power supply after you consider the amount of power they need to supply over the frequency of operation of the particular circuit being decoupled. Calculate the target impedance for the power plane based on current draw and voltage drop requirements of the device/supply. Then, decouple the power plane using the appropriate number of capacitors. On-board capacitors do not decouple higher than 100 MHz due to “Equivalent Series Inductance” of the mounting of the packages. Consider proper board design techniques such as interplane capacitance with low inductance for higher frequency decoupling. Refer to the PDN tool.
Use the Intel^® Arria^® 10 Early Power Estimator (EPE) to determine the current requirements for VCC and other power supplies. Use the Intel^® Quartus^® Prime Power Analyzer for the most accurate current requirements for this and other power supplies.
These supplies may share power planes across multiple Intel^® Arria^® 10 devices.
Power pins should not share breakout vias from the BGA. Each ball on the BGA must have its own dedicated breakout via.
Example 8, Example 9, Example 10, Figure 8, Figure 9, and Figure 10 illustrate the power supply sharing guidelines for the Intel^® Arria^® 10 SX devices.
Low Noise Switching Regulator—a switching regulator circuit encapsulated in a thin surface mount package containing the switch controller, power FETs, inductor, and other support components. The switching frequency is usually between 800 kHz and 1 MHz and has fast transient response. The switching frequency range is not an Intel^® requirement. However, Intel^® does require the Line Regulation and Load Regulation meet the following specifications:
- Line Regulation < 0.4%
- Load Regulation < 1.2%
The number of modular I/O banks on Intel^® Arria^® 10 devices depends on the device density. For the indexes available for a specific device, refer to the I/O Bank section in the Intel^® Arria^® 10 Device Handbook.
For AC-coupled links, the AC-coupling capacitor can be placed anywhere along the channel. PCI Express protocol requires that the AC-coupling capacitor is placed on the transmitter side of the interface that permits adapters to be plugged and unplugged.
For item [#], refer to the device pin table for the pin-out mapping.
The peripheral pins are programmable through pin multiplexors. Each pin may have multiple functions. The HPS dedicated I/O pin multiplexing is programmable using the HPS software. The pin mux will determine how the pins are used.
Pin Mux Select 5, 6, 7, 9, 10, 11, and 12 will not assign any HPS dedicated pins to any specific function. Pin Mux Select 5, 6, 7, 9, 10, 11, and 12 are not listed in the HPS Peripheral Pins table.
A warm reset event will not change the configured value of the HPS dedicated I/O Pin Mux.
At cold reset, these pins will default to the GPIO and BSEL functions set.
SD/MMC Power Enable pins are inverted. For details, refer to the Intel^® Arria^® 10 SoC Errata Sheet.
Pin Mux Select 5, 6, 7, 9, 10, and 11 will not assign any HPS dedicated pins to any specific function. Pin Mux Select 5, 6, 7, 9, 10, and 11 are not listed in the Shared 3V I/O Bank Pins table.
A warm reset event will not change the configured value of the HPS shared I/O Pin Mux.
At cold reset, these pins will default to the GPIO function set.
These pins are inverted or active-low signals.
Do not drive the I/O pins externally during the power-up and power-down time to avoid excess current on the I/O pins:
- Excess I/O pin current affects the device's lifetime and reliability.
- Excess current on the 3V I/O pins can damage the Intel^® Arria^® 10 device.
For the acceptable limits on the input current, refer to the Absolute Maximum Ratings section in the Intel^® Arria^® 10 Device Datasheet.

Power Supply Sharing Guidelines for Intel Arria 10 Devices

Example 1— Intel Arria 10 GX

Table 15. Power Supply Sharing Guidelines for Intel^® Arria^® 10 GX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip ApplicationsExample Requiring 3 Power Regulators
Power Pin Name	Regulator Group	Voltage Level (V)	Supply Tolerance	Power Source	Regulator Sharing	Notes
`VCC`	1	0.9	±30 mV	Switcher (*)	Share	You have the option to source `VCC` and `VCCP` from the same regulator as `VCCERAM` when all the power rails require the same voltage level. When sharing the same regulator for `VCCERAM`, `VCC`, and `VCCP`, the SmartVID feature is not available. If you use the SmartVID feature, then `VCC` and `VCCP` need to be sourced by a separate dedicated regulator.
`VCCP`
`VCCERAM`
`VCCR_GXB[L,R]`	2	0.95	±30 mV	Switcher (*)	Share	For better performance and in order to meet PCIe Gen 3 jitter specifications, isolate `VCCR_GXB` and `VCCT_GXB` from each other with at least 30dB of isolation for a 1MHz to 100MHz bandwidth. `VCCR_GXB` and `VCCT_GXB` must be 1.03V or higher in order to support PCIe Gen 3. To meet DisplayPort TX electrical full compliance, _{VCCT_GXB} must be 1.03V or higher. For designs that have high-current for `VCCR_GXB` or `VCCT_GXB`, you should consider the IR drop through the supply planes and compensate for it.
`VCCT_GXB[L,R]`	2	0.95	±30 mV	Switcher (*)	Share
`VCCBAT`	3	Varies	± 5% (**)	Switcher (*)	Share if 1.8V	Option provided for `VCCBAT`, `VCCPT`, `VCCIO`, and `VCCPGM` to share the same regulator when all power rails required 1.8V. Depending on the regulator capabilities, you have the option to share this supply with multiple Intel^® Arria^® 10 devices.
`VCCPT`		1.8
`VCCIO`		Varies
`VCCPGM`		Varies
`VCCH_GXB[L,R]`		1.8			Isolate	Option provided to share `VCCH_GXB` and `VCCA_PLL` with the same regulator as `VCCBAT`, `VCCPT`, `VCCIO`, and `VCCPGM` when all power rails require 1.8V with a proper isolation filter.
`VCCA_PLL`		1.8			Isolate

(*)When using a switcher to supply these voltages, the switcher must be a low noise switcher as defined in note 7 of the Notes to Intel^® Arria^® 10 GX and GT Pin Connection Guidelines.

(**)The supported tolerance for the V_CCIO power supply varies depending on the I/O standards. For more details, refer to the I/O standard specification in the Intel^® Arria^® 10 Device Datasheet. Use the EPE (Early Power Estimation) tool to assist in determining the power required for your specific design.

Each board design requires its own power analysis to determine the required power regulators needed to satisfy the specific board design requirements. An example block diagram using the Intel^® Arria^® 10 GX device is provided in Figure 1.

Figure 1. Example Power Supply Sharing Guidelines for Intel^® Arria^® 10 GX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications—

Example 2— Intel Arria 10 GX

Table 16. Power Supply Sharing Guidelines for Intel^® Arria^® 10 GX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip ApplicationsExample Requiring 2 Power Regulators
Power Pin Name	Regulator Group	Voltage Level (V)	Supply Tolerance	Power Source	Regulator Sharing	Notes
`VCC`	1	0.95	±30 mV	Switcher(*)	Share	You have the option to source `VCC` and `VCCP` from the same regulator as `VCCERAM` when all the power rails require the same voltage level. When sharing the same regulator for `VCCERAM`, `VCC`, and `VCCP`, the SmartVID feature is not available. If you use the SmartVID feature, then `VCC` and `VCCP` need to be sourced by a separate dedicated regulator.
`VCCP`
`VCCERAM`
`VCCR_GXB[L,R]`					Isolate	Option provided to share `VCCR_GXB` and `VCCT_GXB` with the same regulator as `VCC`, `VCCP`, and `VCCERAM` when all power rails require 0.95V with proper isolation filter. For details, refer to note 1 of the Notes to Power Supply Sharing Guidelines. For better performance and in order to meet PCIe Gen 3 jitter specifications, isolate `VCCR_GXB` and `VCCT_GXB` from each other with at least 30dB of isolation for a 1MHz to 100MHz bandwidth. `VCCR_GXB` and `VCCT_GXB` must be 1.03V or higher in order to support PCIe Gen 3. To meet DisplayPort TX electrical full compliance, _{VCCT_GXB} must be 1.03V or higher. When implementing a filtered supply topology, you must consider the IR drop across the filter. For designs that have high-current for `VCCR_GXB` or `VCCT_GXB`, you should consider the IR drop through the supply planes and compensate for it.
`VCCT_GXB[L,R]`					Isolate
`VCCBAT`	2	Varies	± 5% (**)	Switcher(*)	Share if 1.8V	Option provided for `VCCBAT`, `VCCPT`, `VCCIO`, and `VCCPGM` to share the same regulator when all power rails required 1.8V. Depending on the regulator capabilities, you have the option to share this supply with multiple Intel^® Arria^® 10 devices.
`VCCPT`		1.8
`VCCIO`		Varies
`VCCPGM`		Varies
`VCCH_GXB[L,R]`		1.8			Isolate	Option provided to share `VCCH_GXB` and `VCCA_PLL` with the same regulator as `VCCBAT`, `VCCPT`, `VCCIO`, and `VCCPGM` when all power rails require 1.8V with a proper isolation filter.
`VCCA_PLL`		1.8			Isolate

(*)When using a switcher to supply these voltages, the switcher must be a low noise switcher as defined in note 7 of the Notes to Intel^® Arria^® 10 GX and GT Pin Connection Guidelines.

Figure 2. Example Power Supply Sharing Guidelines for Intel^® Arria^® 10 GX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications

Example 3— Intel Arria 10 GX

Table 17. Power Supply Sharing Guidelines for Intel^® Arria^® 10 GX with Transceiver Data Rate <= 17.4 Gbps(**) for Chip-to-Chip Applications (Transceiver Data Rate <= 12.5 Gbps (**) for Backplane Applications)Example Requiring 3 Power Regulators
Power Pin Name	Regulator Group	Voltage Level (V)	Supply Tolerance	Power Source	Regulator Sharing	Notes
`VCC`	1	0.9/0.95	±30 mV	Switcher(*)	Share	`VCC`, `VCCP`, and `VCCERAM` support 0.9V and 0.95V. You have the option to source `VCC` and `VCCP` from the same regulator as `VCCERAM` when all the power rails require the same voltage level. For more details, refer to the Electrical Specifications in the Intel^® Arria^® 10 Device Datasheet. When sharing the same regulator for `VCCERAM`, `VCC`, and `VCCP`, the SmartVID feature is not available. If you use the SmartVID feature, then `VCC` and `VCCP` need to be sourced by a separate dedicated regulator.
`VCCP`
`VCCERAM`
`VCCR_GXB[L,R]`	2	1.03	±30 mV	Switcher(*)	Share	Option provided for `VCCR_GXB` and `VCCT_GXB` to share the same regulator when all power rails required the same voltage level. For details, refer to note 4 of the Notes to Power Supply Sharing Guidelines. For better performance and in order to meet PCIe Gen 3 jitter specifications, isolate `VCCR_GXB` and `VCCT_GXB` from each other with at least 30dB of isolation for a 1MHz to 100MHz bandwidth. For designs that have high-current for `VCCR_GXB` or `VCCT_GXB`, you should consider the IR drop through the supply planes and compensate for it.
`VCCT_GXB[L,R]`	2	1.03	±30 mV	Switcher(*)	Share
`VCCBAT`	3	Varies	± 5% (**)	Switcher(*)	Share if 1.8V	Option provided for `VCCBAT`, `VCCPT`, `VCCIO` and `VCCPGM` to share the same regulator when all power rails require 1.8V. Depending on the regulator capabilities, you have the option to share this supply with multiple Intel^® Arria^® 10 devices.
`VCCPT`		1.8
`VCCIO`		Varies
`VCCPGM`		Varies
`VCCH_GXB[L,R]`		1.8			Isolate	Option provided to share `VCCH_GXB` and `VCCA_PLL` with the same regulator as `VCCBAT`, `VCCPT`, `VCCIO`, and `VCCPGM` when all power rails require 1.8V with a proper isolation filter.
`VCCA_PLL`		1.8			Isolate

(*)When using a switcher to supply these voltages, the switcher must be a low noise switcher as defined in note 7 of the Notes to Intel^® Arria^® 10 GX and GT Pin Connection Guidelines.

Figure 3. Example Power Supply Sharing Guidelines for Intel^® Arria^® 10 GX with Transceiver Data Rate <= 17.4 Gbps(**) for Chip-to-Chip Applications (Transceiver Data Rate <= 12.5 Gbps (**) for Backplane Applications)

Example 4— Intel Arria 10 GT

Table 18. Power Supply Sharing Guidelines for Intel^® Arria^® 10 GT with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip ApplicationsExample Requiring 3 Power Regulators
Power Pin Name	Regulator Group	Voltage Level (V)	Supply Tolerance	Power Source	Regulator Sharing	Notes
`VCC`	1	0.9	± 30mV	Switcher (*)	Share	You have the option to source `VCC` and `VCCP` from the same regulator as VCCERAM when all the power rails require the same voltage level. When sharing the same regulator for `VCCERAM`, `VCC`, and `VCCP`, the SmartVID feature is not available. If you use the SmartVID feature, then `VCC` and `VCCP` need to be sourced by a separate dedicated regulator.
`VCCP`
`VCCERAM`
`VCCR_GXB[L,R]`	2	0.95	± 30mV	Switcher (*)	Share	For better performance and in order to meet PCIe Gen 3 jitter specifications, isolate `VCCR_GXB` and `VCCT_GXB` from each other with at least 30dB of isolation for a 1MHz to 100MHz bandwidth. `VCCR_GXB` and `VCCT_GXB` must be 1.03V or higher in order to support PCIe Gen 3. To meet DisplayPort TX electrical full compliance, _{VCCT_GXB} must be 1.03V or higher. For designs that have high-current for `VCCR_GXB` or `VCCT_GXB`, you should consider the IR drop through the supply planes and compensate for it.
`VCCT_GXB[L,R]`	2	0.95	± 30mV	Switcher (*)	Share
`VCCBAT`	3	Varies	± 5% (**)	Switcher (*)	Share if 1.8V	Option provided for `VCCBAT`, `VCCPT`, `VCCIO`, and `VCCPGM` to share the same regulator when all power rails require 1.8V. Depending on the regulator capabilities, you have the option to share this supply with multiple Arria 10 devices.
`VCCPT`		1.8
`VCCIO`		Varies
`VCCPGM`		Varies
`VCCH_GXB[L,R]`		1.8			Isolate	Option provided to share `VCCH_GXB` and `VCCA_PLL` with the same regulator as `VCCBAT`, `VCCPT`, `VCCIO`, and `VCCPGM` when all power rails require 1.8V with a proper isolation filter.
`VCCA_PLL`		1.8			Isolate

(*)When using a switcher to supply these voltages, the switcher must be a low noise switcher as defined in note 7 of the Notes to Intel^® Arria^® 10 GX and GT Pin Connection Guidelines.

Figure 4. Example Power Supply Sharing Guidelines for Intel^® Arria^® 10 GT with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications

Example 5— Intel Arria 10 GT

Table 19. Power Supply Sharing Guidelines for Intel^® Arria^® 10 GT with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip ApplicationsExample Requiring 2 Power Regulators
Power Pin Name	Regulator Group	Voltage Level (V)	Supply Tolerance	Power Source	Regulator Sharing	Notes
`VCC`	1	0.95	± 30mV	Switcher (*)	Share	You have the option to source `VCC` and `VCCP` from the same regulator as `VCCERAM` when all the power rails require the same voltage level. When sharing the same regulator for `VCCERAM`, `VCC`, and `VCCP`, the SmartVID feature is not available. If you use the SmartVID feature, then `VCC` and `VCCP` need to be sourced by a separate dedicated regulator.
`VCCP`
`VCCERAM`
`VCCR_GXB[L,R]`					Isolate	Option provided to share `VCCR_GXB` and `VCCT_GXB` with the same regulator as `VCC`, `VCCP`, and `VCCERAM` when all power rails require 0.95V with proper isolation filter. For details, refer to note 1 of the Notes to Power Supply Sharing Guidelines. For better performance and in order to meet PCIe Gen 3 jitter specifications, isolate `VCCR_GXB` and `VCCT_GXB` from each other with at least 30dB of isolation for a 1MHz to 100MHz bandwidth. `VCCR_GXB` and `VCCT_GXB` must be 1.03V or higher in order to support PCIe Gen 3. To meet DisplayPort TX electrical full compliance, _{VCCT_GXB} must be 1.03V or higher. When implementing a filtered supply topology, you must consider the IR drop across the filter. For designs that have high-current for `VCCR_GXB` or `VCCT_GXB`, you should consider the IR drop through the supply planes and compensate for it.
`VCCT_GXB[L,R]`					Isolate
`VCCBAT`	2	Varies	± 5% (**)	Switcher (*)	Share if 1.8V	Option provided for `VCCBAT`, `VCCPT`, `VCCIO`, and `VCCPGM` to share the same regulator when all power rails require 1.8V. Depending on the regulator capabilities, you have the option to share this supply with multiple Intel^® Arria^® 10 devices.
`VCCPT`		1.8
`VCCIO`		Varies
`VCCPGM`		Varies
`VCCH_GXB[L,R]`		1.8			Isolate	Option provided to share `VCCH_GXB` and `VCCA_PLL` with the same regulator as `VCCBAT`, `VCCPT`, `VCCIO`, and `VCCPGM` when all power rails require 1.8V with a proper isolation filter.
`VCCA_PLL`		1.8			Isolate

(*)When using a switcher to supply these voltages, the switcher must be a low noise switcher as defined in note 7 of the Notes to Intel^® Arria^® 10 GX and GT Pin Connection Guidelines.

Figure 5. Example Power Supply Sharing Guidelines for Intel^® Arria^® 10 GT with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications

Example 6— Intel Arria 10 GT

Table 20. Power Supply Sharing Guidelines for Intel^® Arria^® 10 GT with Transceiver Data Rate <= 15.0 Gbps(**) for Chip-to-Chip Applications (Transceiver Data Rate <= 12.5 Gbps(**) for Backplane Applications)Example Requiring 3 Power Regulators
Power Pin Name	Regulator Group	Voltage Level (V)	Supply Tolerance	Power Source	Regulator Sharing	Notes
`VCC`	1	0.9/0.95	± 30mV	Switcher (*)	Share	`VCC`, `VCCP`, and `VCCERAM` support 0.9V and 0.95V. You have the option to source `VCC` and `VCCP` from the same regulator as `VCCERAM` when all the power rails require the same voltage level. For more details, refer to the Electrical Specifications in the Intel^® Arria^® 10 Device Datasheet. When sharing the same regulator for `VCCERAM`, `VCC`, and `VCCP`, the SmartVID feature is not available. If you use the SmartVID feature, then `VCC` and `VCCP` need to be sourced by a separate dedicated regulator.
`VCCP`
`VCCERAM`
`VCCR_GXB[L,R]`	2	1.03	± 30mV	Switcher (*)	Share	Option provided for `VCCR_GXB` and `VCCT_GXB` to share the same regulator when all power rails require the same voltage level. For details, refer to note 4 of the Notes to Power Supply Sharing Guidelines. For better performance and in order to meet PCIe Gen 3 jitter specifications, isolate `VCCR_GXB` and `VCCT_GXB` from each other with at least 30dB of isolation for a 1MHz to 100MHz bandwidth. For designs that have high-current for `VCCR_GXB` or `VCCT_GXB`, you should consider the IR drop through the supply planes and compensate for it.
`VCCT_GXB[L,R]`	2	1.03	± 30mV	Switcher (*)	Share
`VCCBAT`	3	Varies	± 5% (**)	Switcher (*)	Share if 1.8V	Option provided for `VCCBAT`, `VCCPT`, `VCCIO`, and `VCCPGM` to share the same regulator when all power rails require 1.8V. Depending on the regulator capabilities, you have the option to share this supply with multiple Intel^® Arria^® 10 devices.
`VCCPT`		1.8
`VCCIO`		Varies
`VCCPGM`		Varies
`VCCH_GXB[L,R]`		1.8			Isolate	Option provided to share `VCCH_GXB` and `VCCA_PLL` with the same regulator as `VCCBAT`, `VCCPT`, `VCCIO`, and `VCCPGM` when all power rails require 1.8V with a proper isolation filter.
`VCCA_PLL`		1.8			Isolate

(*)When using a switcher to supply these voltages, the switcher must be a low noise switcher as defined in note 7 of the Notes to Intel^® Arria^® 10 GX and GT Pin Connection Guidelines.

Figure 6. Example Power Supply Sharing Guidelines for Intel^® Arria^® 10 GT with Transceiver Data Rate <= 15.0 Gbps(**) for Chip-to-Chip Applications (Transceiver Data Rate <= 12.5 Gbps(**) for Backplane Applications)

Example 7— Intel Arria 10 GT

Table 21. Power Supply Sharing Guidelines for Intel^® Arria^® 10 GT with Transceiver Data Rate <= 17.4 Gbps(**)/25.8 Gbps for Chip-to-Chip Applications (Transceiver Data Rate <= 12.5 Gbps(**) for Backplane Applications)Example Requiring 4 Power Regulators
Power Pin Name	Regulator Group	Voltage Level (V)	Supply Tolerance	Power Source	Regulator Sharing	Notes
`VCC`	1	0.9/0.95	± 30mV	Switcher (*)	Share	`VCC`, `VCCP`, and `VCCERAM` support 0.9V and 0.95V. You have the option to source `VCC` and `VCCP` from the same regulator as `VCCERAM` when all the power rails require the same voltage level. For more details, refer to the Electrical Specifications in the Intel^® Arria^® 10 Device Datasheet. When sharing the same regulator for `VCCERAM`, `VCC`, and `VCCP`, the SmartVID feature is not available. If you use the SmartVID feature, then `VCC` and `VCCP` need to be sourced by a separate dedicated regulator.
`VCCP`
`VCCERAM`
`VCCR_GXB[L,R]`	2	1.12	± 20mV	Switcher (*)	Isolate	You have the option to source `VCCR_GXB` from a switcher. For details, refer to note 6 of the Notes to Power Supply Sharing Guidelines. For designs that have high-current for `VCCR_GXB` or `VCCT_GXB`, you should consider the IR drop through the supply planes and compensate for it.
`VCCT_GXB[L,R]`	3	1.12	± 20mV	Switcher (*)	Isolate	You have the option to source `VCCT_GXB` from a switcher. For details, refer to note 6 of the Notes to Power Supply Sharing Guidelines. For designs that have high-current for `VCCR_GXB` or `VCCT_GXB`, you should consider the IR drop through the supply planes and compensate for it.
`VCCBAT`	4	Varies	± 5% (**)	Switcher (*)	Share if 1.8V	Option provided for `VCCBAT`, `VCCPT`, `VCCIO`, and `VCCPGM` to share the same regulator when all power rails require 1.8V. Depending on the regulator capabilities, you have the option to share this supply with multiple Intel^® Arria^® 10 devices.
`VCCPT`		1.8
`VCCIO`		Varies
`VCCPGM`		Varies
`VCCH_GXB[L,R]`		1.8			Isolate	Option provided to share `VCCH_GXB` and `VCCA_PLL` with the same regulator as `VCCBAT`, `VCCPT`, `VCCIO`, and `VCCPGM` when all power rails require 1.8V with a proper isolation filter.
`VCCA_PLL`		1.8			Isolate

(*)When using a switcher to supply these voltages, the switcher must be a low noise switcher as defined in note 7 of the Notes to Intel^® Arria^® 10 GX and GT Pin Connection Guidelines.

Figure 7. Example Supply Sharing Guidelines for Intel^® Arria^® 10 GT with Transceiver Data Rate <= 17.4 Gbps(**)/25.8 Gbps for Chip-to-Chip Applications (Transceiver Data Rate <= 12.5 Gbps(**) for Backplane Applications)

Example 8— Intel Arria 10 SX

Table 22. Power Supply Sharing Guidelines for Intel^® Arria^® 10 SX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip ApplicationsExample Requiring 3 Power Regulators
Power Pin Name	Regulator Group	Voltage Level (V)	Supply Tolerance	Power Source	Regulator Sharing	Notes
`VCC`	1	0.9	± 30mV	Switcher (*)	Share	You have the option to source `VCC`, `VCCP`, and `VCCERAM` from the same regulator as `VCCL_HPS` when all the power rails require the same voltage level. When sharing the same regulator for `VCCERAM`, `VCCL_HPS`, `VCC`, and `VCCP`, the SmartVID feature is not available. If you use the SmartVID feature, then `VCC` and `VCCP` need to be sourced by a separate dedicated regulator.
`VCCP`
`VCCERAM`
`VCCL_HPS`
`VCCR_GXB[L,R]`	2	0.95	± 30mV	Switcher (*)	Share	For better performance and in order to meet PCIe Gen 3 jitter specifications, isolate `VCCR_GXB` and `VCCT_GXB` from each other with at least 30dB of isolation for a 1MHz to 100MHz bandwidth. `VCCR_GXB` and `VCCT_GXB` must be 1.03V or higher in order to support PCIe Gen 3. To meet DisplayPort TX electrical full compliance, _{VCCT_GXB} must be 1.03V or higher. For designs that have high-current for `VCCR_GXB` or `VCCT_GXB`, you should consider the IR drop through the supply planes and compensate for it.
`VCCT_GXB[L,R]`	2	0.95	± 30mV	Switcher (*)	Share
`VCCBAT`	3	Varies	± 5% (**)	Switcher (*)	Share if 1.8V	Option provided for `VCCBAT`, `VCCPT`, `VCCIO`, `VCCPGM`, `VCCIO_HPS`, and `VCCIOREF_HPS` to share the same regulator when all power rails require 1.8V. Depending on the regulator capabilities, you have the option to share this supply with multiple Intel^® Arria^® 10 devices.
`VCCPT`		1.8
`VCCIO`		Varies
`VCCPGM`
`VCCIO_HPS`
`VCCIOREF_HPS`		1.8
`VCCH_GXB[L,R]`		1.8			Isolate	Option provided to share `VCCH_GXB`, `VCCA_PLL`, and `VCCPLL_HPS` with the same regulator as `VCCBAT`, `VCCPT`, `VCCIO`, `VCCPGM`, `VCCIO_HPS`, and `VCCIOREF_HPS` when all power rails require 1.8V with a proper isolation filter.
`VCCA_PLL`
`VCCPLL_HPS`

(*)When using a switcher to supply these voltages, the switcher must be a low noise switcher as defined in note 7 of the Notes to Intel^® Arria^® 10 SX Pin Connection Guidelines.

Figure 8. Example Power Supply Sharing Guidelines for Intel^® Arria^® 10 SX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications

Example 9— Intel Arria 10 SX

Table 23. Power Supply Sharing Guidelines for Intel^® Arria^® 10 SX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip ApplicationsExample Requiring 2 Power Regulators
Power Pin Name	Regulator Group	Voltage Level (V)	Supply Tolerance	Power Source	Regulator Sharing	Notes
`VCC`	1	0.95	± 30mV	Switcher (*)	Share	You have the option to source `VCC`, `VCCP`, and `VCCERAM` from the same regulator as `VCCL_HPS` when all the power rails require the same voltage level. When sharing the same regulator for `VCCERAM`, `VCCL_HPS`, `VCC`, and `VCCP`, the SmartVID feature is not available. If you use the SmartVID feature, then `VCC` and `VCCP` need to be sourced by a separate dedicated regulator.
`VCCP`
`VCCERAM`
`VCCL_HPS`
`VCCR_GXB[L,R]`					Isolate	Option provided to share `VCCR_GXB` and `VCCT_GXB` with the same regulator as `VCC`, `VCCP`, and `VCCERAM` when all power rails require 0.95V with proper isolation filter. For details, refer to note 1 of the Notes to Power Supply Sharing Guidelines. For better performance and in order to meet PCIe Gen 3 jitter specifications, isolate `VCCR_GXB` and `VCCT_GXB` from each other with at least 30dB of isolation for a 1MHz to 100MHz bandwidth. `VCCR_GXB` and `VCCT_GXB` must be 1.03V or higher in order to support PCIe Gen 3. To meet DisplayPort TX electrical full compliance, _{VCCT_GXB} must be 1.03V or higher. When implementing a filtered supply topology, you must consider the IR drop across the filter. For designs that have high-current for `VCCR_GXB` or `VCCT_GXB`, you should consider the IR drop through the supply planes and compensate for it.
`VCCT_GXB[L,R]`					Isolate
`VCCBAT`	2	Varies	± 5% (**)	Switcher (*)	Share if 1.8V	Option provided for `VCCBAT`, `VCCPT`, `VCCIO`, `VCCPGM`, `VCCIO_HPS`, and `VCCIOREF_HPS` to share the same regulator when all power rails require 1.8V. Depending on the regulator capabilities, you have the option to share this supply with multiple Intel^® Arria^® 10 devices.
`VCCPT`		1.8
`VCCIO`		Varies
`VCCPGM`
`VCCIO_HPS`
`VCCIOREF_HPS`		1.8
`VCCH_GXB[L,R]`		1.8			Isolate	Option provided to share `VCCH_GXB`, `VCCA_PLL`, and `VCCPLL_HPS` with the same regulator as `VCCBAT`, `VCCPT`, `VCCIO`, `VCCPGM`, `VCCIO_HPS`, and `VCCIOREF_HPS` when all power rails require 1.8V with a proper isolation filter.
`VCCA_PLL`
`VCCPLL_HPS`

(*)When using a switcher to supply these voltages, the switcher must be a low noise switcher as defined in note 7 of the Notes to Intel^® Arria^® 10 SX Pin Connection Guidelines.

Figure 9. Example Power Supply Sharing Guidelines for Intel^® Arria^® 10 SX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications

Example 10— Intel Arria 10 SX

Table 24. Power Supply Sharing Guidelines for Intel^® Arria^® 10 SX with Transceiver Data Rate <= 17.4 Gbps(**) for Chip-to-Chip Applications (Transceiver Data Rate <= 12.5 Gbps (**) for Backplane Applications)Example Requiring 3 Power Regulators
Power Pin Name	Regulator Group	Voltage Level (V)	Supply Tolerance	Power Source	Regulator Sharing	Notes
`VCC`	1	0.9/0.95	± 30mV	Switcher (*)	Share	`VCC`, `VCCP`, `VCCERAM`, and `VCCL_HPS` support 0.9V and 0.95V. You have the option to source `VCC`, `VCCP`, and `VCCERAM` from the same regulator as `VCCL_HPS` when all the power rails require the same voltage level. For more details, refer to the Electrical Specifications in the Intel^® Arria^® 10 Device Datasheet. When sharing the same regulator for `VCCERAM`, `VCCL_HPS`, `VCC`, and `VCCP`, the SmartVID feature is not available. If you use the SmartVID feature, then `VCC` and `VCCP` need to be sourced by a separate dedicated regulator.
`VCCP`
`VCCERAM`
`VCCL_HPS`
`VCCR_GXB[L,R]`	2	1.03	± 30mV	Switcher (*)	Share	Option provided for `VCCR_GXB` and `VCCT_GXB` to share the same regulator when all power rails require the same voltage level. For details, refer to note 4 of the Notes to Power Supply Sharing Guidelines. For better performance and in order to meet PCIe Gen 3 jitter specifications, isolate `VCCR_GXB` and `VCCT_GXB` from each other with at least 30dB of isolation for a 1MHz to 100MHz bandwidth. For designs that have high-current for `VCCR_GXB` or `VCCT_GXB`, you should consider the IR drop through the supply planes and compensate for it.
`VCCT_GXB[L,R]`	2	1.03	± 30mV	Switcher (*)	Share
`VCCBAT`	3	Varies	± 5% (**)	Switcher (*)	Share if 1.8V	Option provided for `VCCBAT`, `VCCPT`, `VCCIO`, `VCCPGM`, `VCCIO_HPS`, and `VCCIOREF_HPS` to share the same regulator when all power rails require 1.8V. Depending on the regulator capabilities, you have the option to share this supply with multiple Intel^® Arria^® 10 devices.
`VCCPT`		1.8
`VCCIO`		Varies
`VCCPGM`
`VCCIO_HPS`
`VCCIOREF_HPS`		1.8
`VCCH_GXB[L,R]`		1.8			Isolate	Option provided to share `VCCH_GXB`, `VCCA_PLL`, and `VCCPLL_HPS` with the same regulator as `VCCBAT`, `VCCPT`, `VCCIO`, `VCCPGM`, `VCCIO_HPS`, and `VCCIOREF_HPS` when all power rails require 1.8V with a proper isolation filter.
`VCCA_PLL`
`VCCPLL_HPS`

(*)When using a switcher to supply these voltages, the switcher must be a low noise switcher as defined in note 7 of the Notes to Intel^® Arria^® 10 SX Pin Connection Guidelines.

Figure 10. Example Power Supply Sharing Guidelines for Intel^® Arria^® 10 SX with Transceiver Data Rate <= 17.4 Gbps(**) for Chip-to-Chip Applications (Transceiver Data Rate <= 12.5 Gbps (**) for Backplane Applications)

Example 11— Intel Arria 10 GX (Using the SmartVID Feature)

Table 25. Power Supply Sharing Guidelines for Intel^® Arria^® 10 GX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications Using the SmartVID Feature (***)Example Requiring 4 Power Regulators
Power Pin Name	Regulator Group	Voltage Level (V)	Supply Tolerance	Power Source	Regulator Sharing	Notes
`VCC`	1	0.9	± 30mV	Switcher (*)	Share	For more details about the `VCC` and `VCCP` voltage range when the SmartVID feature is enabled, refer to the Intel^® Arria^® 10 Device Datasheet.
`VCCP`	1	0.9	± 30mV	Switcher (*)	Share
`VCCERAM`	2	0.9	± 30mV	Switcher (*)	Isolate	To use the SmartVID feature, `VCCERAM` has to be on a separate regulator.
`VCCR_GXB[L,R]`	3	0.95	± 30mV	Switcher (*)	Share	For better performance and in order to meet PCIe Gen 3 jitter specifications, isolate `VCCR_GXB` and `VCCT_GXB` from each other with at least 30dB of isolation for a 1MHz to 100MHz bandwidth. `VCCR_GXB` and `VCCT_GXB` must be 1.03V or higher in order to support PCIe Gen 3. To meet DisplayPort TX electrical full compliance, _{VCCT_GXB} must be 1.03V or higher. For designs that have high-current for `VCCR_GXB` or `VCCT_GXB`, you should consider the IR drop through the supply planes and compensate for it.
`VCCT_GXB[L,R]`	3	0.95	± 30mV	Switcher (*)	Share
`VCCBAT`	4	Varies	± 5% (**)	Switcher (*)	Share if 1.8V	Option provided for `VCCBAT`, `VCCPT`, `VCCIO`, and `VCCPGM` to share the same regulator when all power rails required 1.8V. Depending on the regulator capabilities, you have the option to share this supply with multiple Intel^® Arria^® 10 devices.
`VCCPT`		1.8
`VCCIO`		Varies
`VCCPGM`		Varies
`VCCH_GXB[L,R]`		1.8			Isolate	Option provided to share `VCCH_GXB` and `VCCA_PLL` with the same regulator as `VCCBAT`, `VCCPT`, `VCCIO`, and `VCCPGM` when all power rails require 1.8V with a proper isolation filter.
`VCCA_PLL`		1.8			Isolate

(*)When using a switcher to supply these voltages, the switcher must be a low noise switcher as defined in note 7 of the Notes to Intel^® Arria^® 10 GX and GT Pin Connection Guidelines.

(***) This is an example using the Intel^® Arria^® 10 GX device when you are using the SmartVID feature. If you are using the SmartVID feature for other Intel^® Arria^® 10 devices, do take note that you need to source VCC and VCCP from a separate dedicated regulator.

Figure 11. Example Power Supply Sharing Guidelines for Intel^® Arria^® 10 GX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications Using the SmartVID Feature

Notes to Power Supply Sharing Guidelines

For more information about the supported transceiver speed grades for Intel^® Arria^® 10 GX and SX devices, refer to the Transmitter and Receiver Data Rate Performance for Intel^® Arria^® 10 GX/SX Devices table in the Intel^® Arria^® 10 Device Datasheet.
Assumes VCCIO, VCCPGM, and VCCIO_HPS are 1.8V. Only if these power rails share the same regulator as VCCPT can their power sequence ramp with VCCPT in Group 2. If any of these rails are other than 1.8V, then these rails must be separately regulated and must follow the power sequence requirement in Group 3. For more information about the power sequence requirements, refer to the Power Management for Intel^® Arria^® 10 Devices.
The SmartVID feature is supported for VCC and VCCP. In these cases, VCC and VCCP can be 0.85V-0.9V depending on the device requirements. The SmartVID feature is not supported when VCCR_GXB and VCCT_GXB are shared with VCC and VCCP.
For more information about the supported transceiver speed grades for Intel^® Arria^® 10 GT devices, refer to the Transmitter and Receiver Data Rate Performance for Intel^® Arria^® 10 GT Devices table in the Intel^® Arria^® 10 Device Datasheet.
For more information about the maximum transceiver channel supported for Intel^® Arria^® 10 GT devices, refer to the Intel^® Arria^® 10 Transceiver PHY User Guide.
For more information about the transceiver data rate and maximum transceiver channel supported for Intel^® Arria^® 10 GT devices, refer to the Intel^® Arria^® 10 Transceiver PHY User Guide.
You have the option to source VCC and VCCP from the same regulator as VCCERAM when all the power rails require the same voltage level. When sharing the same regulator for VCCERAM, VCC, and VCCP, the SmartVID feature is not available. If you use the SmartVID feature, then VCC and VCCP need to be sourced by a separate dedicated regulator.

(*)When using a switcher to supply these voltages, the switcher must be a low noise switcher as defined in note 7 of the Notes to Pin Connection Guidelines.

(**)Actual transceiver data rate for the Intel^® Arria^® 10 GX and SX devices is dependent on the device’s transceiver speed grade and core speed grade. For more information about the valid combinations of transceiver and core speed grades, refer to the Transmitter and Receiver Data Rate Performance for Intel^® Arria^® 10 GX/SX Devices table in the Intel^® Arria^® 10 Device Datasheet.

(***)Actual transceiver data rate for the Intel^® Arria^® 10 GT device is dependent on the device’s transceiver speed grade and core speed grade. For more information about the valid combinations of transceiver and core speed grades, refer to the Transmitter and Receiver Data Rate Performance for Intel^® Arria^® 10 GT Devices table in the Intel^® Arria^® 10 Device Datasheet.

Document Revision History for the Intel Arria 10 GX, GT, and SX Device Family Pin Connection Guidelines

Document Version	Changes
2020.10.20	Updated the connection guidelines for the `PR_REQUEST` pin.
2019.08.27	Updated the pin description of the `CLKUSR` pin.
2019.07.01	Added reference to the Intel^® Arria^® 10 Hard Processor System Technical Reference Manual for the Shared 3V I/O Bank Pins section. Updated the connection guidelines of the `nIO_PULLUP` pin. Updated the definition of HMC in the pin description of the `CLKUSR` pin.
2018.12.12	Updated the connection guidelines for the `HPS_Shared_Q2_2` and `HPS_Shared_Q4_2` pins.
2018.03.30	Added guidelines to avoid excess current on the I/O pins in the Notes to Intel^® Arria^® 10 GX and GT Pin Connection Guidelines and Notes to Intel^® Arria^® 10 SX Pin Connection Guidelines sections. Updated the connection guidelines for the nPERST[L,R][0:1] pins to include on the compatible I/O standards. Updated the supported protocols in the pin description for the following pins: CQ[#] CQn[#] CQ[#]_[#]/CQn[#]_[#] QK[#]_[#] QKn[#]_[#] A_[#] BA_[#] REF# WE_N_0 CAS_N_0 RAS_N_0 RPS_N_0 WPS_N_0 REF_N_0 Updated the connection guidelines for the VCCP and VCC pins. Updated the connection guidelines for VCCR_GXB[L1,R4] [C,D,E,F,G,H,I,J] and VCCT_GXB[L1,R4] [C,D,E,F,G,H,I,J] pins. Updated the connection guidelines for VCCH_GXB[L,R] pins to add the VRM switching frequency guidelines. Updated the connection guidelines for the HPS_CLK1 pin to include the hps_clk_f fuse information. Updated the connection guidelines of the HPS_DEDICATED_[4,5,7,8,9,12,13,14,15] pins to include information on the pull-up resistor. Updated the connection guidelines of the HPS_Shared_Q1_[1,2,4,5,6,7,8,9,10,11] and HPS_Shared_Q4_2 pins to include information on the pull-up resistor. Updated the connection guidelines of the BOOTSEL[0..2] pins. Removed the CA_[#]_[#] pins.

Date	Version	Description of Changes
June 2017	2017.06.16	Added note 11 to the Notes to Arria 10 GX and GT Pin Connection Guidelines. Updated the pin functions and connection guidelines for the RZQ_[#] pin. Updated the pin functions for the CLKUSR pin. Added a note for the DisplayPort TX electrical full compliance in the following power sharing guidelines: Example 1. Power Supply Sharing Guidelines for Arria 10 GX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications Example 2. Power Supply Sharing Guidelines for Arria 10 GX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications Example 4. Power Supply Sharing Guidelines for Arria 10 GT with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications Example 5. Power Supply Sharing Guidelines for Arria 10 GT with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications Example 8. Power Supply Sharing Guidelines for Arria 10 SX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications Example 9. Power Supply Sharing Guidelines for Arria 10 SX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications Example 11. Power Supply Sharing Guidelines for Arria 10 GX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications Using the SmartVID Feature (***)
March 2017	2017.03.13	Rebranded as Intel.
December 2016	2016.12.09	Updated the connection guidelines for VCCH_GXB[L,R] pins. Updated the connection guidelines for CLK_[2,3] [A,B,C,D,E,F,G,H,I, J,K,L]_[0,1]p and CLK_[2,3] [A,B,C,D,E,F,G,H,I, J,K,L]_[0,1]n pins. Updated the connection guidelines for the RZQ_[#] pin. Updated the connection guidelines for the ALERT_N_0 pin.
June 2016	2016.06.10	The document is no longer preliminary. Updated the HPS Peripheral Pins and Shared 3V I/O Bank Pins. Updated the connection guidelines for VCCR_GXB and VCCT_GXB pins. Removed support for the VCC PowerManager feature. Updated note (3) in the Notes to Power Supply Sharing Guidelines. Updated the maximum backplane applications support to 12.5 Gbps. Removed backplane applications support when VCCR_GXB and VCCT_GXB is at 0.95V.
March 2016	2016.03.17	Updated the supported transceiver data rates in the Notes to Power Supply Sharing Guidelines section.
November 2015	2015.11.02	Changed instances of Quartus II to Quartus Prime. Updated the connection guidelines of the REFCLK_GXB[L1,R4][C,D,E,F,G,H,I,J]_CH[B,T]p and REFCLK_GXB[L1,R4][C,D,E,F,G,H,I,J]_CH[B,T]n pins. Updated the connection guidelines of the VCCR_GXB[L1,R4] [C,D,E,F,G,H,I,J] pins. Updated the connection guidelines of the VCCT_GXB[L1,R4] [C,D,E,F,G,H,I,J] pins. Updated the connection guidelines of the VCCH_GXB[L,R] pins. Updated the connection guidelines of the CLKUSR pin. Updated the pin type and pin description for the ALERT_N_0, PAR_0, ACT_N_0, and BG_[#0 pins. Updated the connection guidelines of the ADCGND pin. Updated the pin description of the HPS_nRST pin. Updated the pin description of the VCC pin. Updated the connection guidelines of the nIO_PULLUP pin. Updated the connection guidelines of the VCCLSENSE and GNDSENSE pins. Updated the minimum voltage to 0.95V in the connection guidelines of the VCCR_GXB[L1,R4] [C,D,E,F,G,H,I,J] and VCCT_GXB[L1,R4] [C,D,E,F,G,H,I,J] pins. Updated the following power sharing guidelines to include 0.95V and 1.12V support for VCCR_GXB[L1,R4] [C,D,E,F,G,H,I,J] and VCCT_GXB[L1,R4] [C,D,E,F,G,H,I,J]: Example 1. Power Supply Sharing Guidelines for Arria 10 GX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications (10.3125 Gbps for Backplane Applications) Example 2. Power Supply Sharing Guidelines for Arria 10 GX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications (10.3125 Gbps for Backplane Applications) Example 4. Power Supply Sharing Guidelines for Arria 10 GT with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications (10.3125 Gbps for Backplane Applications) Example 5. Power Supply Sharing Guidelines for Arria 10 GT with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications (10.3125 Gbps for Backplane Applications) Example 7. Power Supply Sharing Guidelines for Arria 10 GT with 15.0 Gbps < Transceiver Data Rate <= 17.4 Gbps()/28.3 Gbps for Chip-to-Chip Applications (14.2 Gbps < Transceiver Data Rate <= 17.4 Gbps() for Backplane Applications) Example 8. Power Supply Sharing Guidelines for Arria 10 SX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications (10.3125 Gbps for Backplane Applications) Example 9. Power Supply Sharing Guidelines for Arria 10 SX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications (10.3125 Gbps for Backplane Applications) Example 11. Power Supply Sharing Guidelines for Arria 10 GX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications (10.3125 Gbps for Backplane Applications) Using the SmartVID Feature (***)
April 2015	2015.04.05	Updated the connection guidelines of VCCP and VCC pins. Updated the connection guidelines of RREF [T,B][L,R] pins. Updated the connection guidelines of nPERST[L,R][0:1] pins. Updated the connection guidelines of the VREFP_ADC pins. Updated the connection guidelines of the VCCERAM pin. Updated the connection guidelines of VREFB[[2][A,F,G,H,I,J,K,L],[3][A,B,C,D,E,F,G,H]]N0 pins. Updated the on-chip reference source to ±10% in the connection guidelines of the VREFP_ADC pin. Updated the supported nominal voltage of VCCR_GXB[L1,R4][C,D,E,F,G,H,I,J] and VCCT_GXB[L1,R4][C,D,E,F,G,H,I,J] from 1.0V and 1.1V to 1.03V and 1.11V, respectively. Updated the connection guidelines for VCCR_GXB[L1,R4][C,D,E,F,G,H,I,J] and VCCT_GXB[L1,R4][C,D,E,F,G,H,I,J]. Updated the following power sharing guidelines for the supported nominal voltage of 1.03V and 1.11V for VCCR_GXB[L1,R4][C,D,E,F,G,H,I,J] and VCCT_GXB[L1,R4][C,D,E,F,G,H,I,J]: Example 3. Power Supply Sharing Guidelines for Arria 10 GX with 11.3 Gbps < Transceiver Data Rate <= 17.4 Gbps() for Chip-to-Chip Applications (10.3125 Gbps <Transceiver Data Rate <= 17.4 Gbps () for Backplane Applications) Example 6. Power Supply Sharing Guidelines for Arria 10 GT with 11.3 Gbps < Transceiver DataRate <= 15.0 Gbps() for Chip-to-Chip Applications (10.3125 Gbps < Transceiver Data Rate <= 14.2 Gbps() for Backplane Applications) Example 7. Power Supply Sharing Guidelines for Arria 10 GT with 15.0 Gbps < Transceiver Data Rate <= 17.4 Gbps()/28.3 Gbps for Chip-to-Chip Applications (14.2 Gbps < Transceiver Data Rate <= 17.4 Gbps() for Backplane Applications) Example 10. Power Supply Sharing Guidelines for Arria 10 SX with 11.3 Gbps < Transceiver Data Rate <= 17.4 Gbps() for Chip-to-Chip Applications (10.3125 Gbps <Transceiver Data Rate <= 17.4 Gbps () for Backplane Applications) Updated the supported nominal voltage of 1.03V and 1.11V for VCCR_GXB[L1,R4][C,D,E,F,G,H,I,J] and VCCT_GXB[L1,R4][C,D,E,F,G,H,I,J] in the Notes to Power Supply Sharing Guidelines. Added Shared 3V I/O Bank pins for Arria 10 HPS.
January 2015	2015.01.23	Updated the connection guidelines for VCCIO([2][A, F,G,H,I,J,K, L, AF, KL], [3][A, B,C,D,E,F,G, H, AB, GH]) pins. Updated the connection guidelines for the CONF_DONE pin. Updated the connection guidelines for the nSTATUS pin. Updated the connection guidelines for VREFP_ADC and VREFN_ADC pins. Updated the pin type for VSIGP and VSIGN pins. Updated the pin type for the HPS_nRST pin. Updated the pin type for the HPS_nPOR pin. Updated the pin description of the CRC_ERROR pin. Updated the pin description of the HPS_nRST pin. Updated the connection guidelines for VCCT_GXB[L1,R4] [C,D,E,F,G,H,I,J] and VCCR_GXB[L1,R4][C,D,E,F,G,H,I,J] pins. Updated the pin description for VCCIOREF_HPS pin. Updated note (11) in the Notes to Arria 10 SX Pin Connection Guidelines. Updated the following power sharing guidelines to include 0.95V support for VCC and VCCP: Example 1. Power Supply Sharing Guidelines for Arria 10 GX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications (10.3125 Gbps for Backplane Applications) Example 3. Power Supply Sharing Guidelines for Arria 10 GX with 11.3 Gbps < Transceiver Data Rate <= 17.4 Gbps() for Chip-to-Chip Applications (10.3125 Gbps <Transceiver Data Rate <= 17.4 Gbps () for Backplane Applications) Example 4. Power Supply Sharing Guidelines for Arria 10 GT with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications (10.3125 Gbps for Backplane Applications) Example 6. Power Supply Sharing Guidelines for Arria 10 GT with 11.3 Gbps < Transceiver Data Rate <= 15.0 Gbps() for Chip-to-Chip Applications (10.3125 Gbps < Transceiver Data Rate <= 14.2 Gbps() for Backplane Applications) Example 7. Power Supply Sharing Guidelines for Arria 10 GT with 15.0 Gbps < Transceiver Data Rate <= 17.4 Gbps()/28.3 Gbps for Chip-to-Chip Applications (14.2 Gbps < Transceiver Data Rate <= 17.4 Gbps() for Backplane Applications) Example 8. Power Supply Sharing Guidelines for Arria 10 SX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications (10.3125 Gbps for Backplane Applications) Example 10. Power Supply Sharing Guidelines for Arria 10 SX with 11.3 Gbps < Transceiver Data Rate <= 17.4 Gbps() for Chip-to-Chip Applications (10.3125 Gbps <Transceiver Data Rate <= 17.4 Gbps () for Backplane Applications) Added the following power sharing guidelines: Example 2. Power Supply Sharing Guidelines for Arria 10 GX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications (10.3125 Gbps for Backplane Applications) Example 5. Power Supply Sharing Guidelines for Arria 10 GT with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications (10.3125 Gbps for Backplane Applications) Example 9. Power Supply Sharing Guidelines for Arria 10 SX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications (10.3125 Gbps for Backplane Applications)
August 2014	2014.08.18	Added Example 8. Power Supply Sharing Guidelines for Arria 10 GX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications (10.3125 Gbps for Backplane Applications) Using the SmartVID Feature. Updated the transceiver data rate to 28.3 Gbps. Updated the pin name and pin description of the PLL_[2,3][A,B,C,D,E,F,G,H,I,J,K,L]_FB[0,1] pins. Updated the connection guidelines for the TCK, TMS, TDI, TDO, and TRST pins. Updated the pin name and connection guidelines of the CRC_ERROR pin. Updated the connection guidelines of the nPERST[L,R][0:1] pins. Updated the connection guidelines of the VREFP_ADC pin. Updated the connection guidelines of the VSIGP_[0,1] and VSIGN_[0,1] pins. Updated the connection guidelines of the VCCP and VCC pins. Updated the pin name of the VCCIO([2][A,F,G,H,I,J,K,L,AF,KL],[3][A,B,C,D,E,F,G,H,AB,GH]) pins. Updated the connection guidelines of the VCCERAM pins. Updated the connection guidelines of the VREFB([2][A,F,G,H,I,J,K,L],[3][A,B,C,D,E,F,G,H])N0 pins. Updated the connection guidelines of the VCCLSENSE and GNDSENSE pins. Updated the connection guidelines for the ADCGND pin. Updated the pin name, pin description, and connection guidelines of the VCCR_GXB[L1,R4] [C,D,E,F,G,H,I,J] pins. Updated the pin name, pin description, and connection guidelines of the VCCT_GXB[L1,R4] [C,D,E,F,G,H,I,J] pins. Updated the pin description and connection guidelines of the VCCH_GXB[L,R] pins. Updated the pin name and pin description of the GXB[L1,R4][C,D,E,F,G,H,I,J]_RX_[0:5]p, GXB[L1,R4][C,D,E,F,G,H,I,J]_RX_[0:5]n, GXB[L1,R4][C,D,E,F,G,H,I,J]_TX_CH[0:5]p, GXB[L1,R4][C,D,E,F,G,H,I,J]_TX_CH[0:5]n pins. Updated the pin name, pin description, and connection guidelines for the REFCLK_GXB[L1,R4][C,D,E,F,G,H,I,J]_CH[B,T]p and REFCLK_GXB[L1,R4][C,D,E,F,G,H,I,J]_CH[B,T]n pins. Updated the connection guidelines of the CLKUSR pins. Updated the pin description and connection guidelines for the RREF_[T,B][L,R] pins. Updated the Function 2 pin description of the HPS_DEDICATED_16 pin.
June 2014	2014.06.24	Added note (7) to the Notes to Power Supply Sharing Guidelines section. Updated the pin description for the PLL_[2,3][A,B,C,D,E,F,G,H,I,J,K,L]_FB0 pins. Updated the connection guidelines for the TCK, TMS, TDI, TDO, and TRST pins. Updated the connection guidelines for the VCCR_GXB[L,R][1:4][C,D,E,F,G,H,I,J] and VCCT_GXB[L,R][1:4][C,D,E,F,G,H,I,J] pins. Updated the connection guidelines for the VCCLSENSE and GNDSENSE pins. Updated the connection guidelines for the VCCBAT, VCCPGM, VCCPT, and VCCH_GXB[L,R] pins. Updated the CRCERROR pin name. Updated the following power sharing guidelines: Example 1. Power Supply Sharing Guidelines for Arria 10 GX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications (10.3125 Gbps for Backplane Applications) Example 2. Power Supply Sharing Guidelines for Arria 10 GX with Transceiver Data Rate 11.3 Gbps < Data Rates <= 17.4 Gbps() for Chip-to-Chip Applications (10.3125 Gbps <Data Rates <= 17.4 Gbps () for Backplane Applications) Example 3. Power Supply Sharing Guidelines for Arria 10 GT with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications (10.3125 Gbps for Backplane Applications) Example 4. Power Supply Sharing Guidelines for Arria 10 GT with Transceiver Data Rate 11.3 Gbps < Data Rates <= 15.0 Gbps() for Chip-to-Chip Applications (10.3125 Gbps < Data Rates <= 14.2 Gbps() for Backplane Applications) Example 5. Power Supply Sharing Guidelines for Arria 10 GT with Transceiver Data Rate 15.0 Gbps < Data Rates <= 17.4 Gbps()/28 Gbps for Chip-to-Chip Applications (14.2 Gbps < Data Rates <= 17.4 Gbps() for Backplane Applications) Example 6. Power Supply Sharing Guidelines for Arria 10 SX with Transceiver Data Rate <= 11.3 Gbps for Chip-to-Chip Applications (10.3125 Gbps for Backplane Applications) Example 7. Power Supply Sharing Guidelines for Arria 10 SX with Transceiver Data Rate 11.3 Gbps < Data Rates <= 17.4 Gbps() for Chip-to-Chip Applications (10.3125 Gbps <Data Rates <= 17.4 Gbps () for Backplane Applications)
May 2014	2014.05.23	Updated the pin description and connection guidelines for the CLKUSR pin.
December 2013	2013.12.18	Updated the connection guidelines for VCC and VCCP pins.
December 2013	2013.12.02	Initial release.