AX58100 EtherCAT Slave Controller 数据手册

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"AX58100是一款全功能的EtherCAT从站控制器,由ASIX Electronics Corporation制造。这款控制器在2019年11月9日发布,提供了丰富的网络和接口功能,适用于工业自动化等领域。" 正文: AX58100 EtherCAT Slave Controller是一款高度集成的芯片,专为 EtherCAT (Ethernet for Control Automation Technology) 网络设计。它包含了两个内置的Fast Ethernet PHYs(物理层),符合IEEE 802.3/802.3u标准,支持100BASE-TX和100BASE-FX的传输速率。此外,该控制器具备PHY环回模式,用于内部测试和诊断。 AX58100的核心特性之一是其8个Fieldbus Memory Management Units (FMMUs)和8个Sync Managers,这使得它可以高效地处理EtherCAT网络中的数据同步和通信。64位分布式时钟设计确保了在整个网络中的精确时间同步,这对于实时控制应用至关重要。 内部的9Kbytes RAM提供足够的存储空间来处理网络数据交换和控制逻辑。同时,该控制器还具有32个数字/通用目的I/O引脚,每个引脚都可以独立配置,并直接映射到FMMU,增强了系统灵活性。 为了实现灵活的网络配置,AX58100包含了一个额外的第三路Ethernet MII端口。这允许连接至不同的网络拓扑结构,增加了系统的适应性。另外,它支持twisted pair crossover detection and auto-correction(HP Auto-MDIX),自动极性检测和校正功能,确保了与不同类型的以太网电缆兼容。 除了基本的网络功能,AX58100还包括一个SPI从机接口,支持Mode 3定时模式和MSB优先的数据传输方式。这使得它可以与各种外部设备进行通信。本地总线接口支持8位或16位数据总线宽度,以及异步本地总线操作。Bridge功能则支持功能寄存器和ESC寄存器的镜像,有利于系统稳定性和冗余设计。 AX58100 EtherCAT Slave Controller是工业自动化领域的一个强大解决方案,集成了丰富的功能,可以有效地处理高速、高精度的网络通信任务,同时提供灵活的接口和配置选项,满足多样化的需求。其高性能和可靠性使其成为构建 EtherCAT 系统的理想选择。

优化这段代码: IF VR(v_alarm1).0 <> ax_alarm.ax_dial THEN VR(v_alarm1).0 = ax_alarm.ax_dial IF VR(v_alarm1).1 <> ax_alarm.ax_scr1_updown THEN VR(v_alarm1).1 = ax_alarm.ax_scr1_updown IF VR(v_alarm1).2 <> ax_alarm.ax_scr1_halftone THEN VR(v_alarm1).2 = ax_alarm.ax_scr1_halftone IF VR(v_alarm1).3 <> ax_alarm.ax_scr1_scraper THEN VR(v_alarm1).3 = ax_alarm.ax_scr1_scraper IF VR(v_alarm1).4 <> ax_alarm.ax_scr2_updown THEN VR(v_alarm1).4 = ax_alarm.ax_scr2_updown IF VR(v_alarm1).5 <> ax_alarm.ax_scr2_halftone THEN VR(v_alarm1).5 = ax_alarm.ax_scr2_halftone IF VR(v_alarm1).6 <> ax_alarm.ax_scr2_scraper THEN VR(v_alarm1).6 = ax_alarm.ax_scr2_scraper IF VR(v_alarm1).7 <> ax_alarm.ax_scr3_updown THEN VR(v_alarm1).7 = ax_alarm.ax_scr3_updown IF VR(v_alarm1).8 <> ax_alarm.ax_scr3_halftone THEN VR(v_alarm1).8 = ax_alarm.ax_scr3_halftone IF VR(v_alarm1).9 <> ax_alarm.ax_scr3_scraper THEN VR(v_alarm1).9 = ax_alarm.ax_scr3_scraper IF VR(v_alarm1).10 <> ax_alarm.ax_goin_spin THEN VR(v_alarm1).10 = ax_alarm.ax_goin_spin IF VR(v_alarm1).11 <> ax_alarm.ax_output_spin THEN VR(v_alarm1).11 = ax_alarm.ax_output_spin IF VR(v_alarm1).12 <> ax_alarm.ax_tl THEN VR(v_alarm1).12 = ax_alarm.ax_tl IF VR(v_alarm1).13 <> ax_alarm.ax_work1 THEN VR(v_alarm1).13 = ax_alarm.ax_work1 IF VR(v_alarm1).14 <> ax_alarm.ax_work2 THEN VR(v_alarm1).14 = ax_alarm.ax_work2 IF VR(v_alarm1).15 <> ax_alarm.ax_work3 THEN VR(v_alarm1).15 = ax_alarm.ax_work3 IF VR(v_alarm2).0 <> ax_alarm.ax_work4 THEN VR(v_alarm2).0 = ax_alarm.ax_work4 IF VR(v_alarm2).1 <> ax_alarm.ax_work5 THEN VR(v_alarm2).1 = ax_alarm.ax_work5 IF VR(v_alarm2).2 <> ax_alarm.ax_work6 THEN VR(v_alarm2).2 = ax_alarm.ax_work6 IF VR(v_alarm2).3 <> ax_alarm.ax_work7 THEN VR(v_alarm2).3 = ax_alarm.ax_work7 IF VR(v_alarm2).4 <> ax_alarm.ax_work8 THEN VR(v_alarm2).4 = ax_alarm.ax_work8 IF VR(v_alarm2).5 <> ax_alarm.ax_work9 THEN VR(v_alarm2).5 = ax_alarm.ax_work9 IF VR(v_alarm2).6 <> ax_alarm.ax_work10 THEN VR(v_alarm2).6 = ax_alarm.ax_work10 IF VR(v_warn1).0 <> ax_warn.ax_dial THEN VR(v_warn1).0 = ax_warn.ax_dial IF VR(v_warn1).1 <> ax_warn.ax_scr1_updown THEN VR(v_warn1).1 = ax_warn.ax_scr1_updown IF VR(v_warn1).2 <> ax_warn.ax_scr1_halftone THEN VR(v_warn1).2 = ax_warn.ax_scr1_halftone IF VR(v_warn1).3 <> ax_warn.ax_scr1_scraper THEN VR(v_warn1).3 = ax_warn.ax_scr1_scraper IF VR(v_warn1).4 <> ax_warn.ax_scr2_updown THEN VR(v_warn1).4 = ax_warn.ax_scr2_updown IF VR(v_warn1).5 <> ax_warn.ax_scr2_halftone THEN VR(v_warn1).5 = ax_warn.ax_scr2_halftone IF VR(v_warn1).6 <> ax_warn.ax_scr2_scraper THEN VR(v_warn1).6 = ax_warn.ax_scr2_scraper IF VR(v_warn1).7 <> ax_warn.ax_scr3_updown THEN VR(v_warn1).7 = ax_warn.ax_scr3_updown IF VR(v_warn1).8 <> ax_warn.ax_scr3_halftone THEN VR(v_warn1).8 = ax_warn.ax_scr3_halftone IF VR(v_warn1).9 <> ax_warn.ax_scr3_scraper THEN VR(v_warn1).9 = ax_warn.ax_scr3_scraper IF VR(v_warn1).10 <> ax_warn.ax_goin_spin THEN VR(v_warn1).10 = ax_warn.ax_goin_spin IF VR(v_warn1).11 <> ax_warn.ax_output_spin THEN VR(v_warn1).11 = ax_warn.ax_output_spin IF VR(v_warn1).12 <> ax_warn.ax_tl THEN VR(v_warn1).12 = ax_warn.ax_tl IF VR(v_warn1).13 <> ax_warn.ax_work1 THEN VR(v_warn1).13 = ax_warn.ax_work1 IF VR(v_warn1).14 <> ax_warn.ax_work2 THEN VR(v_warn1).14 = ax_warn.ax_work2 IF VR(v_warn1).15 <> ax_warn.ax_work3 THEN VR(v_warn1).15 = ax_warn.ax_work3 IF VR(v_warn2).0 <> ax_warn.ax_work4 THEN VR(v_warn2).0 = ax_warn.ax_work4 IF VR(v_warn2).1 <> ax_warn.ax_work5 THEN VR(v_warn2).1 = ax_warn.ax_work5 IF VR(v_warn2).2 <> ax_warn.ax_work6 THEN VR(v_warn2).2 = ax_warn.ax_work6 IF VR(v_warn2).3 <> ax_warn.ax_work7 THEN VR(v_warn2).3 = ax_warn.ax_work7 IF VR(v_warn2).4 <> ax_warn.ax_work8 THEN VR(v_warn2).4 = ax_warn.ax_work8 IF VR(v_warn2).5 <> ax_warn.ax_work9 THEN VR(v_warn2).5 = ax_warn.ax_work9 IF VR(v_warn2).6 <> ax_warn.ax_work10 THEN VR(v_warn2).6 = ax_warn.ax_work10

2023-03-08 上传

def draw_stats(self, vals, vals1, vals2, vals3, vals4, vals5, vals6): self.ax1 = plt.subplot(self.gs[0, 0]) self.ax1.plot(vals) self.ax1.set_xlim(self.xlim) locs = self.ax1.get_xticks() locs[0] = self.xlim[0] locs[-1] = self.xlim[1] self.ax1.set_xticks(locs) self.ax1.use_sticky_edges = False self.ax1.set_title(f'Connected Clients Ratio') self.ax2 = plt.subplot(self.gs[1, 0]) self.ax2.plot(vals1) self.ax2.set_xlim(self.xlim) self.ax2.set_xticks(locs) self.ax2.yaxis.set_major_formatter(FuncFormatter(format_bps)) self.ax2.use_sticky_edges = False self.ax2.set_title('Total Bandwidth Usage') self.ax3 = plt.subplot(self.gs[2, 0]) self.ax3.plot(vals2) self.ax3.set_xlim(self.xlim) self.ax3.set_xticks(locs) self.ax3.use_sticky_edges = False self.ax3.set_title('Bandwidth Usage Ratio in Slices (Averaged)') self.ax4 = plt.subplot(self.gs[3, 0]) self.ax4.plot(vals3) self.ax4.set_xlim(self.xlim) self.ax4.set_xticks(locs) self.ax4.use_sticky_edges = False self.ax4.set_title('Client Count Ratio per Slice') self.ax5 = plt.subplot(self.gs[0, 1]) self.ax5.plot(vals4) self.ax5.set_xlim(self.xlim) self.ax5.set_xticks(locs) self.ax5.use_sticky_edges = False self.ax5.set_title('Coverage Ratio') self.ax6 = plt.subplot(self.gs[1, 1]) self.ax6.plot(vals5) self.ax6.set_xlim(self.xlim) self.ax6.set_xticks(locs) self.ax6.yaxis.set_major_formatter(FormatStrFormatter('%.3f')) self.ax6.use_sticky_edges = False self.ax6.set_title('Block ratio') self.ax7 = plt.subplot(self.gs[2, 1]) self.ax7.plot(vals6) self.ax7.set_xlim(self.xlim) self.ax7.set_xticks(locs) self.ax7.yaxis.set_major_formatter(FormatStrFormatter('%.3f')) self.ax7.use_sticky_edges = False self.ax7.set_title('Handover ratio') self.ax8 = plt.subplot(self.gs[3, 1]) row_labels = [ 'Initial number of clients', 'Average connected clients', 'Average bandwidth usage', 'Average load factor of slices', 'Average coverage ratio', 'Average block ratio', 'Average handover ratio', ] l, r = self.xlim cell_text = [ [f'{len(self.clients)}'], [f'{mean(vals[l:r]):.2f}'], [f'{format_bps(mean(vals1[l:r]), return_float=True)}'], [f'{mean(vals2[l:r]):.2f}'], [f'{mean(vals4[l:r]):.2f}'], [f'{mean(vals5[l:r]):.4f}'], [f'{mean(vals6[l:r]):.4f}'], ] self.ax8.axis('off') self.ax8.axis('tight') self.ax8.tick_params(axis='x', which='major', pad=15) self.ax8.table(cellText=cell_text, rowLabels=row_labels, colWidths=[0.35, 0.2], loc='center right') plt.tight_layout() 更改为只输出其中的第一行第一列的图片

2023-06-02 上传