And this is the FPGA board with a logic analyzer attached so we can see what it's doing.

这带有逻辑分析仪 FPGA 板，所以我们可以看到它在做什么。

Finally, an embedded sensing system for recognizing citrus flowers was designed by quantitatively applying the proposed YOLOv4-CF model to an FPGA platform.

最终，通过将提出YOLOv4-CF模型量化应用于FPGA平台，设计用于识别柑橘花嵌入式感知系统。

But I didn't have this FPGA board, and it was just too lazy to port the code to an FPGA board that I had at hand.

但我没有这个FPGA板，只懒得把代码移植到手FPGA板上。

The FPGA side had a frame rate of 30 FPS; thus, the embedded sensing system could meet the demands of florescence information in real-time monitoring.

FPGA端实现30帧每秒处理速度，因此嵌入式传感系统能够满足实时监控开花信息需求。

So we hooked up an FPGA to do that and wrote some code to analyze the eMMC traffic, and we used the last transaction as a trigger.

因此，我们连接个 FPGA 来执行此操作，并编写些代码来分析 eMMC 流量，我们使用最后个事务作为触发器。

So we just soldered wires to there, and just moved them out for easier access, took them up to the FPGA, so that we can sniff the traffic.

所以我们只将电线焊接到那里，然后将它们移出以便于访问，将它们带到 FPGA 上，这样我们就可以嗅探流量。