26  * return a value in mV
120 		/* LSB = 4mv */  in read_voltage_from_INA220()
153 		/* Resolution is 1/128V. We scale up here to get 1/128mV  in read_voltage_from_IR()
159 	/* Scale down to the real mV as IR resolution is 1/128V, rounding up */  in read_voltage_from_IR()
197 	/* Scale down to the real mV as LTC resolution is 1/4096V,rounding up */  in read_voltage_from_LTC()
310 	debug("VID: Current voltage is %d mV\n", vdd_last);  in set_voltage_to_IR()
550 		vdd_target = vdd_override * 10; /* convert to 1/10 mV */  in adjust_vdd()
556 	/* divide and round up by 10 to get a value in mV */  in adjust_vdd()
564 		printf("VID: Target VID %d mV is not in range.\n",  in adjust_vdd()
569 		debug("VID: vid = %d mV\n", vdd_target);  in adjust_vdd()
582 	debug("VID: Core voltage is currently at %d mV\n", vdd_last);  in adjust_vdd()
612 		printf("VID: Core voltage after adjustment is at %d mV\n",  in adjust_vdd()
747 		vdd_target = vdd_override * 10; /* convert to 1/10 mV */  in adjust_vdd()
757 		/* divide and round up by 10 to get a value in mV */  in adjust_vdd()
759 		debug("VID: vid = %d mV\n", vdd_target);  in adjust_vdd()
772 	debug("VID: Core voltage is currently at %d mV\n", vdd_last);  in adjust_vdd()
791 		printf("VID: Core voltage after adjustment is at %d mV\n",  in adjust_vdd()
834 	printf("VID: Core voltage is at %d mV\n", vdd_last);  in print_vdd()
872 	" - override with the voltage specified in mV, eg. 1050"
878 	" - Read the voltage specified in mV"