4G Turbo-V Intel® FPGA IP User Guide

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ID 683882
Date 4/03/2023
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Document Table of Contents
Document Table of Contents x
1. About the 4G Turbo-V Intel® FPGA IP 2. Getting Started with 4G Turbo-V IP 3. Designing with the 4G Turbo-V Intel® FPGA IP 4. 4G Turbo-V Intel® FPGA IP Functional Description 5. Document Revision History for the 4G Turbo-V Intel® FPGA IP User Guide
1. About the 4G Turbo-V Intel® FPGA IP x
1.1. 4G Turbo-V Intel® FPGA IP Features 1.2. 4G Turbo-V Intel® FPGA IP Device Family Support 1.3. 4G Turbo-V IP Release Information 1.4. 4G Turbo-V Performance and Resource Utilization
2. Getting Started with 4G Turbo-V IP x
2.1. Installing and Licensing Intel® FPGA IP Cores
2.1. Installing and Licensing Intel® FPGA IP Cores x
2.1.1. Intel® FPGA IP Evaluation Mode 2.1.2. 4G Turbo-V IP Timeout Behavior
3. Designing with the 4G Turbo-V Intel® FPGA IP x
3.1. Generating a 4G Turbo-V IP 3.2. Simulating the IP with the RTL Simulator 3.3. Simulating a 4G Turbo-V IP with MATLAB 3.4. Simulating a 4G Turbo-V IP with C-Models
4. 4G Turbo-V Intel® FPGA IP Functional Description x
4.1. 4G Turbo-V Downlink Accelerator 4.2. 4G Turbo-V Uplink Accelerator 4.3. 4G Turbo-V Signals and Interfaces
4.1. 4G Turbo-V Downlink Accelerator x
4.1.1. Turbo Encoder 4.1.2. Rate Matcher 4.1.3. Input and Output Data Formats 4.1.4. Latency Calculations 4.1.5. Throughput Calculations Example 1: K = 6144, Kπ = 6176, E = 18444, freq. = 300 MHz Example 2: K = 40, Kπ= 64, E = 132, freq. = 300 MHz
4.2. 4G Turbo-V Uplink Accelerator x
4.2.1. Turbo Decoder 4.2.2. Input and Output Data Formats 4.2.3. Latency Calculations 4.2.4. Throughput Calculations
4.3. 4G Turbo-V Signals and Interfaces x
4.3.1. Avalon Streaming Interfaces in DSP Intel FPGA IP
1. About the 4G Turbo-V Intel® FPGA IP
2. Getting Started with 4G Turbo-V IP
3. Designing with the 4G Turbo-V Intel® FPGA IP
4. 4G Turbo-V Intel® FPGA IP Functional Description
5. Document Revision History for the 4G Turbo-V Intel® FPGA IP User Guide

4.1.5. Throughput Calculations

The downlink accelerator has buffers between two neighboring subcomponents, so that all sub-components can process in parallel at the same time.

The overall throughput can be calculated as

Throughput= K/max(L(crc), L(encoder), L(subblock-interleaver), L(pruning))*freq. (bits per second).

Example 1: K = 6144, Kπ = 6176, E = 18444, freq. = 300 MHz

L(crc) = 776 cycles

L(encoder) = 782 cycles

L(subblock-interleaver) = 814 cycles

L(pruning) = 786 cycles

L(output) = 815 cycles

Throughput(downlink) = 6144/815*300M = 2262 Mbps

Example 2: K = 40, Kπ= 64, E = 132, freq. = 300 MHz

L(crc) = 13 cycles

L(encoder) = 19 cycles

L(subblock-interleaver) = 50 cycles

L(pruning) = 22 cycles

L(output) = 52 cycles

Throughput(downlink) = 40/52*300M = 231 Mbps

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