GTS Interlaken Intel® FPGA IP User Guide

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ID 819200
Date 7/08/2024
Public
Document Table of Contents
Document Table of Contents x
1. About the GTS Interlaken Intel® FPGA IP 2. Getting Started 3. Parameter Settings 4. Functional Description 5. Interface Signals 6. GTS Interlaken IP Registers 7. GTS Interlaken FPGA IP User Guide Archives 8. Document Revision History for GTS Interlaken Intel FPGA IP User Guide
1. About the GTS Interlaken Intel® FPGA IP x
1.1. GTS Interlaken IP Features 1.2. GTS Interlaken IP Device Family Support 1.3. Device Speed Grade Support 1.4. GTS Interlaken IP Performance and Resources 1.5. GTS Interlaken IP Round-Trip Latency 1.6. GTS Interlaken IP Release Information
2. Getting Started x
2.1. Installing and Licensing Intel FPGA IPs 2.2. Generated File Structure 2.3. Specifying the GTS Interlaken IP Parameters and Options 2.4. Reference and System PLL Clock for Your IP Design 2.5. Simulating the GTS Interlaken IP 2.6. Compiling the Full Design and Programming the FPGA
2.1. Installing and Licensing Intel FPGA IPs x
2.1.1. Intel FPGA Evaluation Mode
3. Parameter Settings x
3.1. Analog Parameters for GTS IPs
4. Functional Description x
4.1. Datapath Flow 4.2. Modes of Operation 4.3. Performance 4.4. IP Reset 4.5. M20K ECC Support 4.6. Out-of-Band Flow Control
4.1. Datapath Flow x
4.1.1. Interlaken TX Path 4.1.2. Interlaken RX Path
4.1.1. Interlaken TX Path x
4.1.1.1. Transmit Path Blocks 4.1.1.2. In-Band Calendar Bits on Transmit Side
4.1.2. Interlaken RX Path x
4.1.2.1. Receive Path Blocks 4.1.2.2. In-Band Calendar Bits on Receive Side 4.1.2.3. RX Errored Packet Handling
4.1.2.3. RX Errored Packet Handling x
4.1.2.3.1. Example With Errors and In-Band Calendar Bits
4.2. Modes of Operation x
4.2.1. Interleaved and Packet Modes 4.2.2. Multisegments
4.2.1. Interleaved and Packet Modes x
4.2.1.1. Transmit User Data Interface Examples 4.2.1.2. Receive User Data Interface Examples
4.2.2. Multisegments x
4.2.2.1. Two-segment Interface Example
5. Interface Signals x
5.1. GTS Interlaken IP Clock and Reset Interface Signals 5.2. GTS Interlaken IP Transmit User Interface Signals 5.3. GTS Interlaken IP Receive User Interface Signals 5.4. GTS Interlaken IP Management Interface Signals 5.5. GTS Interlaken Link and Miscellaneous Signals 5.6. GTS Interlaken IP Reconfiguration Signals
1. About the GTS Interlaken Intel® FPGA IP
2. Getting Started
3. Parameter Settings
4. Functional Description
5. Interface Signals
6. GTS Interlaken IP Registers
7. GTS Interlaken FPGA IP User Guide Archives
8. Document Revision History for GTS Interlaken Intel FPGA IP User Guide

5.1. GTS Interlaken IP Clock and Reset Interface Signals

Table 21.  GTS Interlaken IP Clock and Reset Interface Signals
Signal Name Width (Bits) I/O Direction Available In Description
pll_ref_clk 1 Input Interlaken mode

TX PLL/RX CDR reference clock used by PMA.
tx_usr_clk 1 Input Interlaken mode Transmit side user data interface clock. The lower frequency of tx_usr_clk increases the latency of data path. You can also connect it to clk_tx_common.
rx_usr_clk 1 Input Interlaken mode Receive side user data interface clock. The lower frequency of rx_usr_clk increases the latency of data path. You can also connect it to clk_rx_common.
clk_tx_common 1 Output Interlaken mode Transmit PCS common lane clock driven by the SERDES transmit PLL.
clk_rx_common 1 Output Interlaken mode Receive PCS common lane clock driven by CDR in transceiver. The valid frequencies for clk_rx_common are same as clk_tx_common.
o_src_rs_req Number of lanes Output Interlaken mode

Request from the SRC_Lane to the SRC_Shoreline_Sequencer when it wants to toggle a reset.

This port is exported to the Interlaken top to be connected to an external SRC_Shoreline_Sequencer manually by user

i_src_rs_grant Number of lanes Input Interlaken mode

Grant to the SRC_Lane.

The SRC_Shoreline_Sequencer to provide a grant to only request at a time.

This port is exported to the Interlaken top to be connected to an external SRC_Shoreline_Sequencer manually by the user.

reset_n 1 Input Interlaken mode

Active-low asynchronous reset signal for IP only. You must put the IP in reset when resetting the Direct-PHY to prevent IP corruption while waiting for Direct-PHY to be fully in reset.

tx_rst_n 1 Input Interlaken mode Active low asynchronous reset for Direct-PHY. This reset drives the tx_desired_state of the SRC.
rx_rst_n 1 Input Interlaken mode Active low asynchronous reset for Direct-PHY. This reset drives the rx_desired_state of SRC. When you perform a Serial Internal Loopback CPI Command, this reset must be held low until TX is fully out-of-reset.
tx_rst_ack_n 1 Output Interlaken mode Active low asynchronous reset acknowledge signal. Indicates that soft reset controller has successfully entered reset mode for TX side and you can now release the tx_rst_n signal. This signal stays low until you release the tx_rst_n signal.
rx_rst_ack_n 1 Output Interlaken mode Active low asynchronous reset acknowledge signal. Indicates that soft reset controller has successfully entered reset mode for RX side and you can now release the rx_rst_n signal. This signal stays low until you release the rx_rst_n signal.
tx_usr_srst 1 Output Interlaken mode Transmit-side reset output signal. Indicates the transmit side user data interface is under reset. This signal is synchronous with tx_usr_clk.
rx_usr_srst 1 Output Interlaken and Interlaken Look-aside mode Receive-side reset output signal. Indicates the receive side user data interface is under reset. This signal is synchronous with rx_usr_clk.
i_pma_cu_clk 1 Input Interlaken mode

PMA Control Unit clock output, one per bank for each side of the device.
Level Two Title