539  * unhalt both the cores to start the execution - Core1 needs to be unhalted
541  * always in a higher power state that Core1 (implying Core1 needs to be started
562 	/* boot vector need not be programmed for Core1 in LockStep mode */  in k3_r5_rproc_start()
610  * performed first on Core0 followed by Core1. The Split-mode requires that
611  * Core0 to be maintained always in a higher power state that Core1 (implying
612  * Core1 needs to be stopped first before Core0).
632 	struct k3_r5_core *core1, *core = kproc->core;  in k3_r5_rproc_stop()  local
646 		core1 = list_last_entry(&cluster->cores, struct k3_r5_core,  in k3_r5_rproc_stop()
648 		if (core != core1 && core1->rproc->state != RPROC_OFFLINE) {  in k3_r5_rproc_stop()
1050  * leveraging the Core1 TCMs as well in certain modes where they would have
1052  * AM64x SoCs). This is done by making a Core1 TCM visible immediately after the
1207 	struct k3_r5_core *core, *core1;  in k3_r5_cluster_rproc_init()  local
1213 	core1 = list_last_entry(&cluster->cores, struct k3_r5_core, elem);  in k3_r5_cluster_rproc_init()
1285 		 * should be in higher power state than core1 in a cluster  in k3_r5_cluster_rproc_init()
1290 		 * rproc_auto_boot_callback() for core1 can be called before  in k3_r5_cluster_rproc_init()
1317 	/* undo core0 upon any failures on core1 in split-mode */  in k3_r5_cluster_rproc_init()
1318 	if (cluster->mode == CLUSTER_MODE_SPLIT && core == core1) {  in k3_r5_cluster_rproc_init()
1338 	 * each core, and requires that core1 be powered down first  in k3_r5_cluster_rproc_exit()