nb/intel/sandybridge: refactor code around lane_base[]

This is to get a uniform format that matches the macros added in the
next patch, so that said follow-up patch won't change the output binary.

lenovo/x230 still boots with this patch.

Change-Id: Ibfbeb847cab09427a57bef3cbd2069036de5a21e
Signed-off-by: Felix Held <felix-coreboot@felixheld.de>
Reviewed-on: https://review.coreboot.org/c/coreboot/+/38411
Tested-by: build bot (Jenkins) <no-reply@coreboot.org>
Reviewed-by: Angel Pons <th3fanbus@gmail.com>
This commit is contained in:
Felix Held
2020-01-14 21:14:42 +01:00
parent 941c9ac074
commit 283b446612

View File

@@ -1155,7 +1155,8 @@ void program_timings(ramctr_timing *ctrl, int channel)
shift_402x) << (8 * slotrank); shift_402x) << (8 * slotrank);
FOR_ALL_LANES { FOR_ALL_LANES {
MCHBAR32(lane_base[lane] + 0x10 + channel * 0x100 + 4 * slotrank) = MCHBAR32(lane_base[lane] +
(0x10 + (channel * 0x100) + (slotrank * 4))) =
(((ctrl->timings[channel][slotrank].lanes[lane]. (((ctrl->timings[channel][slotrank].lanes[lane].
timA + shift) & 0x3f) timA + shift) & 0x3f)
| |
@@ -1168,7 +1169,8 @@ void program_timings(ramctr_timing *ctrl, int channel)
| ((ctrl->timings[channel][slotrank].lanes[lane]. | ((ctrl->timings[channel][slotrank].lanes[lane].
falling + shift) << 20)); falling + shift) << 20));
MCHBAR32(lane_base[lane] + 0x20 + channel * 0x100 + 4 * slotrank) = MCHBAR32(lane_base[lane] +
(0x20 + (channel * 0x100) + (slotrank * 4))) =
(((ctrl->timings[channel][slotrank].lanes[lane]. (((ctrl->timings[channel][slotrank].lanes[lane].
timC + shift) & 0x3f) timC + shift) & 0x3f)
| |
@@ -1228,8 +1230,8 @@ static int does_lane_work(ramctr_timing *ctrl, int channel, int slotrank,
int lane) int lane)
{ {
u32 timA = ctrl->timings[channel][slotrank].lanes[lane].timA; u32 timA = ctrl->timings[channel][slotrank].lanes[lane].timA;
return ((MCHBAR32(lane_base[lane] + channel * 0x100 + 4 + return ((MCHBAR32(lane_base[lane] + (4 + (channel * 0x100) +
((timA / 32) & 1) * 4) >> (timA % 32)) & 1); (((timA / 32) & 1) * 4))) >> (timA % 32)) & 1);
} }
struct run { struct run {
@@ -1890,8 +1892,8 @@ static int discover_timB(ramctr_timing *ctrl, int channel, int slotrank)
FOR_ALL_LANES { FOR_ALL_LANES {
statistics[lane][timB] = statistics[lane][timB] =
!((MCHBAR32(lane_base[lane] + !((MCHBAR32(lane_base[lane] + (4 +
channel * 0x100 + 4 + ((timB / 32) & 1) * 4) (channel * 0x100) + (((timB / 32) & 1) * 4)))
>> (timB % 32)) & 1); >> (timB % 32)) & 1);
} }
} }
@@ -2013,8 +2015,9 @@ static void adjust_high_timB(ramctr_timing *ctrl)
wait_for_iosav(channel); wait_for_iosav(channel);
FOR_ALL_LANES { FOR_ALL_LANES {
u64 res = MCHBAR32(lane_base[lane] + channel * 0x100 + 4); u64 res = MCHBAR32(lane_base[lane] + 4 + (channel * 0x100) + (0 * 4));
res |= ((u64) MCHBAR32(lane_base[lane] + channel * 0x100 + 8)) << 32; res |= ((u64) MCHBAR32(lane_base[lane] +
(4 + (channel * 0x100) + (1 * 4)))) << 32;
old = ctrl->timings[channel][slotrank].lanes[lane].timB; old = ctrl->timings[channel][slotrank].lanes[lane].timB;
ctrl->timings[channel][slotrank].lanes[lane].timB += ctrl->timings[channel][slotrank].lanes[lane].timB +=
get_timB_high_adjust(res) * 64; get_timB_high_adjust(res) * 64;
@@ -3020,9 +3023,9 @@ void write_controller_mr(ramctr_timing *ctrl)
int channel, slotrank; int channel, slotrank;
FOR_ALL_CHANNELS FOR_ALL_POPULATED_RANKS { FOR_ALL_CHANNELS FOR_ALL_POPULATED_RANKS {
MCHBAR32(0x0004 + channel * 0x100 + lane_base[slotrank]) = MCHBAR32(lane_base[slotrank] + (0x0004 + (channel * 0x100) + (0 * 4))) =
make_mr0(ctrl, slotrank); make_mr0(ctrl, slotrank);
MCHBAR32(0x0008 + channel * 0x100 + lane_base[slotrank]) = MCHBAR32(lane_base[slotrank] + (0x0004 + (channel * 0x100) + (1 * 4))) =
make_mr1(ctrl, slotrank, channel); make_mr1(ctrl, slotrank, channel);
} }
} }