دانلود Intel Quartus Prime Pro v22.3.0.104 x64 نرم افزار طراحی قطعات منطقی قابل برنامه ریزی

- Partial Reconfiguration:
Partial reconfiguration (PR) allows you to reconfigure a portion of the FPGA dynamically while the remaining FPGA design continues to function. Create multiple personas for a particular region in your design without impacting operation in areas outside this region. This methodology is effective in systems where multiple functions time-share the same FPGA resources. PR enables the implementation of more complex FPGA systems.
Application examples are shown in the simplified illustrations below.

Key Features:
- Speed up in partial reconfiguration time for Intel® Stratix® 10 devices
- Push-button PR flow for faster time to market
- Compliments existing script-based flow
- Command line and graphical user interface for compilation and analysis
- Hierarchical partial reconfiguration that allows you to create child PR partitions in your design
- Simulation of partial reconfiguration that allows you to observe the resulting change and the intermediate effect in a reconfiguration partition
- Signal Tap logic analyzer debug with simultaneous acquisition of both the static region and partial reconfiguration regions


- Rapid Recompile:
Rapid Recompile is an optional step in the Intel® Quartus® Prime software compilation flow where the compiler reuses previous synthesis and fitting results whenever possible, and does not reprocess unchanged design blocks. Use Rapid Recompile to reduce timing variations and the total recompilation time after making small design changes. Rapid Recompile supports HDL-based functional ECO changes and enables you to reduce your compile time while preserving performance of unchanged logic.

- Block-Based Design Flows:
The Intel® Quartus® Prime Pro Edition Software offers block-based design flows. There are two types—the Incremental Block-Based Compilation and Design Block Reuse flows, which allow your geographically diverse development team to collaborate on a design.

Faster Timing Closure with Incremental Block-Based Compilation Flow
Team members can architect the design into segments, then individually develop and achieve timing closure on each partition of the design. Bringing the global design together is simple since each block maintains its placement and timing.

With these features, you can preserve, empty, or export the contents of a partition. A partition that has been preserved, emptied, or exported is called a design block. Using design blocks introduces the concepts of Block-Based Compilation and Design Block Reuse.

Incremental Block-Based Compilation is preserving or emptying a partition within a project. This works with core partitions and requires no additional files or floor planning. The partition can be emptied, preserved at Source, Synthesis, and Final snapshots.

Easier Collaboration with Design Block Reuse Flow
The Design Block Reuse flow enables you to reuse a block of a design, in a different project, by creating, preserving, and exporting a partition. With this feature, you can expect a clean hand off of timing-closed modules between different teams. It also gives you the flexibility of placing timing-closed blocks, pre-built components or even 3rd party intellectual property (IP).

Two types of block reuse are supported in this flow—core logic partition and periphery partition. The Periphery Reuse flow allows you to reuse a placed and routed periphery (including I/O, HSSIO, PCIe*, phase-locked loops (PLLs), as well as core resources) and leave an empty (flexible) development area open for other designers. The empty area is defined by a special type of partition that creates a hole in the periphery. This hole can be developed later by another team.


- Incremental Optimization:
The incremental optimization capability in the Intel® Quartus® Prime Design Software Pro Edition software offers a fast methodology to converge to design sign-off. The traditional fitter stage is divided into finer stages for more control over the flow in the Intel® Quartus® Prime Pro Edition software:
- Plan stage allows legal placement and clock planning, along with timing analysis on preliminary I/O and HSSI to FPGA fabric transfers
- Placement stage enables timing analysis before proceeding to the Route stage. The Placement stage is split into an Early Placement stage and a final placement stage:
- Perform timing analysis after the Early Placement stage while the rest of the flow is still running
- Chip planner provides a visual view of the Early Placement stage
- Route is split into Route and Post-Route stage for faster design convergence.
- 3-corner timing analysis after route and 4-corner timing analysis after post-route reduces compile time
- The post-route stage offers an Engineering Change Order (ECO)-like flow where setup and hold failures are automatically fixed, thus reduces compile time
- High-speed or low-power tile optimization is performed in the Post-Route stage