
Because of this some tools may perform better on some set of designs than other tools. Synthesis quality of results (QoR) is affected by the design snapshot after the HDL parsing, the tool flow, and the order in which the optimizations executed. Even if timing is met, further optimization in synthesis might enable targeting a lower cost, lower speed-grade FPGA which can save 15%-30% on costs. The synthesis step has the most potential to improve the quality of results in FPGA design. Differences in the order that optimizations are applied, and differences in the scope of architectures supported can both result in different results. A single synthesis tool cannot create the best results for all architectures. Synthesis is a critical step to convert a design from its HDL to the bits used to program the FPGA. Choice of optimization goals: Area, Balanced, Timing enables the user to highlight which design goals should be emphasized.GUI tool support for constraint entry (LDC Editor) and schematic netlist viewing & analysis (Netlist Analyzer) reduces the time required for design entry and analysis.Enables the user to easily synthesize existing designs using LSE. Support for industry standard Verilog and VHDL language (including mixed), along with industry standard attributes and SDC constraints.
#SYNPLIFY PRO COST PRO#
Easy to switch between using Synplify Pro and LSE for the synthesis step.

It is available to use from both Diamond and iCEcube2.
#SYNPLIFY PRO COST FULL#
LSE applies a unique recipe, specifically tuned to Lattice FPGA devices.Įasy to try: Full Verilog and VHDL language support, combined with industry standard attributes and SDC constraints enables you to easily run your design through LSE and see if your results are better. Boost design performance and lower solution cost: Design optimizations performed by synthesis while the design is targeted to the FPGA directly impact the design’s operating performance and its cost.
