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julie.chen
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address acrolinx feedback
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articles/azure-netapp-files/solutions-benefits-azure-netapp-files-electronic-design-automation.md

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## Test scenario configurations
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The tests involve three scenarios intended to investigate the potential benefits for I/O upper limits and latency. The table below describes the test configurations.
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The tests involve three scenarios with the following configurations.
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| Scenario | Volumes | Clients<br> SLES15 D16s_v3 |
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|----------------|---------------|--------------------------------|
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The first scenario addresses how far a single volume can be driven.
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The second and the third scenarios evaluate the limits of a single Azure NetApp Files endpoint.
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The second and the third scenarios evaluate the limits of a single Azure NetApp Files endpoint. They investigate the potential benefits of I/O upper limits and latency.
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## Test scenario results
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The following table summarizes the results for the test scenarios.
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The following table summarizes the test scenarios results.
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| Scenario | I/O rate<br> at 2 ms | I/O rate<br> at the edge | Throughput<br> at 2 ms | Throughput<br> at the edge |
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|-------------------|---------------------------|--------------------------------|-----------------------------|----------------------------------|
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| 1 volume | 39,601 | 49,502 | 692MiB/s | 866MiB/s |
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| 6 volumes | 255,613 | 317,000 | 4,577MiB/s | 5,568MiB/s |
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| 12 volumes | 256,612 | 319,196 | 4,577MiB/s | 5,709MiB/s |
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| 1 volume | 39,601 | 49,502 | 692 MiB/s | 866 MiB/s |
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| 6 volumes | 255,613 | 317,000 | 4,577 MiB/s | 5,568 MiB/s |
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| 12 volumes | 256,612 | 319,196 | 4,577 MiB/s | 5,709 MiB/s |
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The single-volume scenario represents the basic application configuration. It's the baseline scenario for follow-on test scenarios.
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The complete workload is a mixture of concurrently running functional and physical phases. It represents a typical flow from one set of EDA tools to another.
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The functional phase consists of initial specifications and a logical design. The physical phase takes place when the logical design converts into a physical chip. During the sign-off and tape-out phases, final checks are completed, and the design is delivered to a foundry for manufacturing.
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The functional phase consists of initial specifications and a logical design. The physical phase takes place when the logical design is converted to a physical chip. During the sign-off and tape-out phases, final checks are completed, and the design is delivered to a foundry for manufacturing.
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In terms of storage, the functional phases include a mixture of sequential and random read and write I/O. The functional phases are metadata intensive, like file stat and access calls. Although metadata operations are effectively without size, the read and write operations range between less than 1 K and 16 K. Most reads are between 4 K and 16 K. Most writes are 4 K or less. On the other hand, the physical phases are composed of sequential read and write operations entirely. They are a mixture of 32 K and 64 K OP sizes.
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