As we have already discussed in the

As we have already discussed in the introduction of this paper, given the relative youth of the FPGA tech- nology, and its not yet wide acceptance in safety-related application fields, there are very few design standards specifically addressing the FPGA technology. This, to- gether with the ease and the low cost of prototyping and fixing defects, often led designers to underestimate design issues, thus causing projects failures. In order to overcome the lack of standards and to guide designers, several industrial guidelines and lessons learned from projects have been published.
Radiations, both in space and at ground level, may cause a system to fail. In particular, radiations hit- ting the silicon surface of digital circuits may alter the content of memory elements. Radiation hitting SRAM- based FPGA devices may have even worse effects, since they could permanently corrupt the contents of the con- figuration memory (until a device reconfiguration), thus changing the functionality implemented in the device

Results (English) 1:

As we have already discussed in the introduction of this paper, given the relative youth of the FPGA tech-nology, and its not yet wide acceptance in safety-related application fields, there are very few design standards that specifically addressing the FPGA technology. This, to-gether with the ease and the low cost of prototyping and fixing defects, often led designers to underestimate design issues, thus causing projects failures. In order to overcome the lack of standards and to guide designers, several industrial guidelines and lessons learned from projects have been published.Radiations, both in space and at ground level, may cause a system to fail. In particular, radiations hit-ting the silicon surface of digital circuits may alter the content of memory elements. Radiation hitting SRAM-based FPGA devices may have even worse effects, since they could permanently corrupt the contents of the con-figuration memory (until a device reconfiguration), thus changing the functionality implemented in the device

Results (English) 2:

As WE HAVE already Discussed in the introduction of this paper, given the relative youth of the tech- nology FPGA, và not yet in safety-related acceptance wide fi elds application, there are very few What speci fi cally addressing chuẩn design the FPGA technology. This, to- gether with the ease and the low cost of prototyping and fi xing defects, often Do led designers to underestimate design issues, thì Causing FAILURES projects. Để Overcome the Lack of Standards and to guide designers, guidelines and lessons Learned vài industrial projects from past tense published.
Radiations, both Show in space and at ground level, unfortunately cause, a system to fail. In Particular, hit- ting the silicon surface radiations of digital circuits alter the content of the memory sewing elements.

Results (English) 3:

As we have discussed in this paper have been introduced, given the relative FPGA Youth Science and technology nology is not recognized, and its wide application in safety elds - related design standards, some are very speci cally FPGA technology to solve. This is gether with ease and low cost of prototyping and Xing defects LED, usually underestimate designer, and causing failures project. The large overcome lacked order standards and guidelines for designers, and several industrial projects guidelines learned lessons from published.Radiations, both at the level of space and ground systems, could lead to a huge failure. In particular, playing radiations Pavilion sting, too lucky digital circuit silicon surface alter elements of the memory content. Hitting SRAM FPGA radiation devices may have e ects even worse because they can be based on the permanently corrupt on the contents of your memory guration (device Recon guration), resulting in a continuously changing functionality implemented device