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|
// SPDX-License-Identifier: GPL-2.0-only OR MIT
#![allow(clippy::unusual_byte_groupings)]
//! GPU initialization data builder.
//!
//! The root of all interaction between the GPU firmware and the host driver is a complex set of
//! nested structures that we call InitData. This includes both GPU hardware/firmware configuration
//! and the pointers to the ring buffers and global data fields that are used for communication at
//! runtime.
//!
//! Many of these structures are poorly understood, so there are lots of hardcoded unknown values
//! derived from observing the InitData structures that macOS generates.
use crate::fw::initdata::*;
use crate::fw::types::*;
use crate::{box_in_place, f32, place};
use crate::{gpu, hw, mmu};
use kernel::error::Result;
use kernel::macros::versions;
/// Builder helper for the global GPU InitData.
#[versions(AGX)]
pub(crate) struct InitDataBuilder<'a> {
alloc: &'a mut gpu::KernelAllocators,
cfg: &'a hw::HwConfig,
dyncfg: &'a hw::DynConfig,
}
#[versions(AGX)]
impl<'a> InitDataBuilder::ver<'a> {
/// Create a new InitData builder
pub(crate) fn new(
alloc: &'a mut gpu::KernelAllocators,
cfg: &'a hw::HwConfig,
dyncfg: &'a hw::DynConfig,
) -> InitDataBuilder::ver<'a> {
InitDataBuilder::ver { alloc, cfg, dyncfg }
}
/// Create the HwDataShared1 structure, which is used in two places in InitData.
#[inline(never)]
fn hw_shared1(cfg: &hw::HwConfig) -> raw::HwDataShared1 {
let mut ret = raw::HwDataShared1 {
unk_a4: cfg.shared1_a4,
..Default::default()
};
for (i, val) in cfg.shared1_tab.iter().enumerate() {
ret.table[i] = *val;
}
ret
}
fn init_curve(
curve: &mut raw::HwDataShared2Curve,
unk_0: u32,
unk_4: u32,
t1: &[i16],
t2: &[i16],
t3: &[&[i32]],
) {
curve.unk_0 = unk_0;
curve.unk_4 = unk_4;
(*curve.t1)[..t1.len()].copy_from_slice(t1);
(*curve.t1)[t1.len()..].fill(t1[0]);
(*curve.t2)[..t2.len()].copy_from_slice(t2);
(*curve.t2)[t2.len()..].fill(t2[0]);
for (i, a) in curve.t3.iter_mut().enumerate() {
a.fill(0x3ffffff);
if i < t3.len() {
let b = t3[i];
(**a)[..b.len()].copy_from_slice(b);
}
}
}
/// Create the HwDataShared2 structure, which is used in two places in InitData.
#[inline(never)]
fn hw_shared2(cfg: &hw::HwConfig) -> Result<Box<raw::HwDataShared2>> {
let mut ret = box_in_place!(raw::HwDataShared2 {
unk_28: Array::new([0xff; 16]),
t8112: Default::default(),
unk_508: cfg.shared2_unk_508,
..Default::default()
})?;
for (i, val) in cfg.shared2_tab.iter().enumerate() {
ret.table[i] = *val;
}
if cfg.chip_id == 0x8112 {
ret.t8112.unk_14 = 0x6000000;
Self::init_curve(&mut ret.t8112.curve1, 0, 0x20000000, &[-1], &[0x0f07], &[]);
Self::init_curve(
&mut ret.t8112.curve2,
7,
0x80000000,
&[-1, 25740, 17429, 12550, 9597, 7910, 6657, 5881, 5421],
&[
0x0f07, 0x04c0, 0x06c0, 0x08c0, 0x0ac0, 0x0c40, 0x0dc0, 0x0ec0, 0x0f80,
],
&[
&[0x3ffffff, 107, 101, 94, 87, 82, 77, 73, 71],
&[
0x3ffffff, 38240, 36251, 33562, 31368, 29379, 27693, 26211, 25370,
],
&[
0x3ffffff, 123933, 117485, 108771, 101661, 95217, 89751, 84948, 82222,
],
],
);
}
Ok(ret)
}
/// Create the HwDataShared3 structure, which is used in two places in InitData.
#[inline(never)]
fn hw_shared3(cfg: &hw::HwConfig) -> Result<Box<raw::HwDataShared3>> {
let mut ret = box_in_place!(raw::HwDataShared3 {
..Default::default()
})?;
if cfg.chip_id == 0x8112 {
ret.unk_0 = 1;
ret.unk_4 = 500;
ret.unk_8 = 5;
ret.table.copy_from_slice(&[
10700, 10700, 10700, 10700, 10700, 6000, 1000, 1000, 1000, 10700, 10700, 10700,
10700, 10700, 10700, 10700,
]);
ret.unk_4c = 1;
}
Ok(ret)
}
/// Create an unknown T81xx-specific data structure.
fn t81xx_data(dyncfg: &'a hw::DynConfig) -> raw::T81xxData {
raw::T81xxData {
unk_d8c: 0x80000000,
unk_d90: 4,
unk_d9c: f32!(0.6),
unk_da4: f32!(0.4),
unk_dac: f32!(0.38552),
unk_db8: f32!(65536.0),
unk_dbc: f32!(13.56),
max_pstate_scaled: 100 * dyncfg.pwr.perf_max_pstate,
..Default::default()
}
}
/// Create the HwDataA structure. This mostly contains power-related configuration.
#[inline(never)]
fn hwdata_a(&mut self) -> Result<GpuObject<HwDataA::ver>> {
self.alloc
.private
.new_inplace(Default::default(), |_inner, ptr| {
let pwr = &self.dyncfg.pwr;
let period_ms = pwr.power_sample_period;
let period_s = F32::from(period_ms) / f32!(1000.0);
let ppm_filter_tc_periods = pwr.ppm_filter_time_constant_ms / period_ms;
#[ver(V >= V13_0B4)]
let ppm_filter_tc_ms_rounded = ppm_filter_tc_periods * period_ms;
let ppm_filter_a = f32!(1.0) / ppm_filter_tc_periods.into();
let perf_filter_a = f32!(1.0) / pwr.perf_filter_time_constant.into();
let perf_filter_a2 = f32!(1.0) / pwr.perf_filter_time_constant2.into();
let avg_power_target_filter_a = f32!(1.0) / pwr.avg_power_target_filter_tc.into();
let avg_power_filter_tc_periods = pwr.avg_power_filter_tc_ms / period_ms;
#[ver(V >= V13_0B4)]
let avg_power_filter_tc_ms_rounded = avg_power_filter_tc_periods * period_ms;
let avg_power_filter_a = f32!(1.0) / avg_power_filter_tc_periods.into();
let pwr_filter_a = f32!(1.0) / pwr.pwr_filter_time_constant.into();
let base_ps = pwr.perf_base_pstate;
let base_ps_scaled = 100 * base_ps;
let max_ps = pwr.perf_max_pstate;
let max_ps_scaled = 100 * max_ps;
let boost_ps_count = max_ps - base_ps;
let base_clock_khz = self.cfg.base_clock_hz / 1000;
let clocks_per_period = base_clock_khz * period_ms;
let raw = place!(
ptr,
raw::HwDataA::ver {
clocks_per_period: clocks_per_period,
#[ver(V >= V13_0B4)]
clocks_per_period_2: clocks_per_period,
pwr_status: AtomicU32::new(4),
unk_10: f32!(1.0),
actual_pstate: 1,
tgt_pstate: 1,
base_pstate_scaled: base_ps_scaled,
unk_40: 1,
max_pstate_scaled: max_ps_scaled,
min_pstate_scaled: 100,
unk_64c: 625,
pwr_filter_a_neg: f32!(1.0) - pwr_filter_a,
pwr_filter_a: pwr_filter_a,
pwr_integral_gain: pwr.pwr_integral_gain,
pwr_integral_min_clamp: pwr.pwr_integral_min_clamp.into(),
max_power_1: pwr.max_power_mw.into(),
pwr_proportional_gain: pwr.pwr_proportional_gain,
pwr_pstate_related_k: -F32::from(max_ps_scaled) / pwr.max_power_mw.into(),
pwr_pstate_max_dc_offset: pwr.pwr_min_duty_cycle as i32
- max_ps_scaled as i32,
max_pstate_scaled_2: max_ps_scaled,
max_power_2: pwr.max_power_mw,
max_pstate_scaled_3: max_ps_scaled,
ppm_filter_tc_periods_x4: ppm_filter_tc_periods * 4,
ppm_filter_a_neg: f32!(1.0) - ppm_filter_a,
ppm_filter_a: ppm_filter_a,
ppm_ki_dt: pwr.ppm_ki * period_s,
unk_6fc: f32!(65536.0),
ppm_kp: pwr.ppm_kp,
pwr_min_duty_cycle: pwr.pwr_min_duty_cycle,
max_pstate_scaled_4: max_ps_scaled,
unk_71c: f32!(0.0),
max_power_3: pwr.max_power_mw,
cur_power_mw_2: 0x0,
ppm_filter_tc_ms: pwr.ppm_filter_time_constant_ms,
#[ver(V >= V13_0B4)]
ppm_filter_tc_clks: ppm_filter_tc_ms_rounded * base_clock_khz,
perf_tgt_utilization: pwr.perf_tgt_utilization,
perf_boost_min_util: pwr.perf_boost_min_util,
perf_boost_ce_step: pwr.perf_boost_ce_step,
perf_reset_iters: pwr.perf_reset_iters,
unk_774: 6,
unk_778: 1,
perf_filter_drop_threshold: pwr.perf_filter_drop_threshold,
perf_filter_a_neg: f32!(1.0) - perf_filter_a,
perf_filter_a2_neg: f32!(1.0) - perf_filter_a2,
perf_filter_a: perf_filter_a,
perf_filter_a2: perf_filter_a2,
perf_ki: pwr.perf_integral_gain,
perf_ki2: pwr.perf_integral_gain2,
perf_integral_min_clamp: pwr.perf_integral_min_clamp.into(),
unk_79c: f32!(95.0),
perf_kp: pwr.perf_proportional_gain,
perf_kp2: pwr.perf_proportional_gain2,
boost_state_unk_k: F32::from(boost_ps_count) / f32!(0.95),
base_pstate_scaled_2: base_ps_scaled,
max_pstate_scaled_5: max_ps_scaled,
base_pstate_scaled_3: base_ps_scaled,
perf_tgt_utilization_2: pwr.perf_tgt_utilization,
base_pstate_scaled_4: base_ps_scaled,
unk_7fc: f32!(65536.0),
pwr_min_duty_cycle_2: pwr.pwr_min_duty_cycle.into(),
max_pstate_scaled_6: max_ps_scaled.into(),
max_freq_mhz: pwr.max_freq_mhz,
pwr_min_duty_cycle_3: pwr.pwr_min_duty_cycle,
min_pstate_scaled_4: f32!(100.0),
max_pstate_scaled_7: max_ps_scaled,
unk_alpha_neg: f32!(0.8),
unk_alpha: f32!(0.2),
fast_die0_sensor_mask: U64(self.cfg.fast_die0_sensor_mask),
fast_die0_release_temp_cc: 100 * pwr.fast_die0_release_temp,
unk_87c: self.cfg.da.unk_87c,
unk_880: 0x4,
unk_894: f32!(1.0),
fast_die0_ki_dt: pwr.fast_die0_integral_gain * period_s,
unk_8a8: f32!(65536.0),
fast_die0_kp: pwr.fast_die0_proportional_gain,
pwr_min_duty_cycle_4: pwr.pwr_min_duty_cycle,
max_pstate_scaled_8: max_ps_scaled,
max_pstate_scaled_9: max_ps_scaled,
fast_die0_prop_tgt_delta: 100 * pwr.fast_die0_prop_tgt_delta,
unk_8cc: self.cfg.da.unk_8cc,
max_pstate_scaled_10: max_ps_scaled,
max_pstate_scaled_11: max_ps_scaled,
unk_c2c: 1,
power_zone_count: pwr.power_zones.len() as u32,
max_power_4: pwr.max_power_mw,
max_power_5: pwr.max_power_mw,
max_power_6: pwr.max_power_mw,
avg_power_target_filter_a_neg: f32!(1.0) - avg_power_target_filter_a,
avg_power_target_filter_a: avg_power_target_filter_a,
avg_power_target_filter_tc_x4: 4 * pwr.avg_power_target_filter_tc,
avg_power_target_filter_tc_xperiod: period_ms
* pwr.avg_power_target_filter_tc,
#[ver(V >= V13_0B4)]
avg_power_target_filter_tc_clks: period_ms
* pwr.avg_power_target_filter_tc
* base_clock_khz,
avg_power_filter_tc_periods_x4: 4 * avg_power_filter_tc_periods,
avg_power_filter_a_neg: f32!(1.0) - avg_power_filter_a,
avg_power_filter_a: avg_power_filter_a,
avg_power_ki_dt: pwr.avg_power_ki_only * period_s,
unk_d20: f32!(65536.0),
avg_power_kp: pwr.avg_power_kp,
avg_power_min_duty_cycle: pwr.avg_power_min_duty_cycle,
max_pstate_scaled_12: max_ps_scaled,
max_pstate_scaled_13: max_ps_scaled,
max_power_7: pwr.max_power_mw.into(),
max_power_8: pwr.max_power_mw,
avg_power_filter_tc_ms: pwr.avg_power_filter_tc_ms,
#[ver(V >= V13_0B4)]
avg_power_filter_tc_clks: avg_power_filter_tc_ms_rounded * base_clock_khz,
max_pstate_scaled_14: max_ps_scaled,
t81xx_data: match self.cfg.chip_id {
0x8103 | 0x8112 => Self::t81xx_data(self.dyncfg),
_ => Default::default(),
},
#[ver(V >= V13_0B4)]
unk_e10_0: raw::HwDataA130Extra {
unk_38: 4,
unk_3c: 8000,
unk_40: 2500,
unk_48: 0xffffffff,
unk_4c: 50,
unk_54: 50,
unk_58: 0x1,
unk_60: f32!(0.8888889),
unk_64: f32!(0.6666667),
unk_68: f32!(0.11111111),
unk_6c: f32!(0.33333333),
unk_70: f32!(-0.4),
unk_74: f32!(-0.8),
unk_7c: f32!(65536.0),
unk_80: f32!(-5.0),
unk_84: f32!(-10.0),
unk_8c: 40,
max_pstate_scaled_1: max_ps_scaled,
unk_9c: f32!(8000.0),
unk_a0: 1400,
unk_a8: 72,
unk_ac: 24,
unk_b0: 1728000,
unk_b8: 576000,
unk_c4: f32!(65536.0),
unk_114: f32!(65536.0),
unk_124: 40,
max_pstate_scaled_2: max_ps_scaled,
..Default::default()
},
fast_die0_sensor_mask_2: U64(self.cfg.fast_die0_sensor_mask),
unk_e24: self.cfg.da.unk_e24,
unk_e28: 1,
fast_die0_sensor_mask_alt: U64(self.cfg.fast_die0_sensor_mask_alt),
#[ver(V < V13_0B4)]
fast_die0_sensor_present: U64(self.cfg.fast_die0_sensor_present as u64),
unk_163c: 1,
unk_3644: 0,
hws1: Self::hw_shared1(self.cfg),
hws2: *Self::hw_shared2(self.cfg)?,
hws3: *Self::hw_shared3(self.cfg)?,
unk_3ce8: 1,
..Default::default()
}
);
for i in 0..self.dyncfg.pwr.perf_states.len() {
raw.sram_k[i] = self.cfg.sram_k;
}
for (i, coef) in pwr.core_leak_coef.iter().enumerate() {
raw.core_leak_coef[i] = *coef;
}
for (i, coef) in pwr.sram_leak_coef.iter().enumerate() {
raw.sram_leak_coef[i] = *coef;
}
for i in 0..self.dyncfg.id.num_clusters as usize {
if let Some(coef_a) = self.cfg.unk_coef_a.get(i) {
(*raw.unk_coef_a1[i])[..coef_a.len()].copy_from_slice(coef_a);
(*raw.unk_coef_a2[i])[..coef_a.len()].copy_from_slice(coef_a);
}
if let Some(coef_b) = self.cfg.unk_coef_b.get(i) {
(*raw.unk_coef_b1[i])[..coef_b.len()].copy_from_slice(coef_b);
(*raw.unk_coef_b2[i])[..coef_b.len()].copy_from_slice(coef_b);
}
}
for (i, pz) in pwr.power_zones.iter().enumerate() {
raw.power_zones[i].target = pz.target;
raw.power_zones[i].target_off = pz.target - pz.target_offset;
raw.power_zones[i].filter_tc_x4 = 4 * pz.filter_tc;
raw.power_zones[i].filter_tc_xperiod = period_ms * pz.filter_tc;
let filter_a = f32!(1.0) / pz.filter_tc.into();
raw.power_zones[i].filter_a = filter_a;
raw.power_zones[i].filter_a_neg = f32!(1.0) - filter_a;
#[ver(V >= V13_0B4)]
raw.power_zones[i].unk_10 = 1320000000;
}
Ok(raw)
})
}
/// Create the HwDataB structure. This mostly contains GPU-related configuration.
#[inline(never)]
fn hwdata_b(&mut self) -> Result<GpuObject<HwDataB::ver>> {
self.alloc
.private
.new_inplace(Default::default(), |_inner, ptr| {
let raw = place!(
ptr,
raw::HwDataB::ver {
// Userspace VA map related
#[ver(V < V13_0B4)]
unk_0: U64(0x13_00000000),
unk_8: U64(0x14_00000000),
#[ver(V < V13_0B4)]
unk_10: U64(0x1_00000000),
unk_18: U64(0xffc00000),
unk_20: U64(0x11_00000000),
unk_28: U64(0x11_00000000),
// userspace address?
unk_30: U64(0x6f_ffff8000),
// unmapped?
unkptr_38: U64(0xffffffa0_11800000),
// TODO: yuv matrices
chip_id: self.cfg.chip_id,
unk_454: 0x1,
unk_458: 0x1,
unk_460: 0x1,
unk_464: 0x1,
unk_468: 0x1,
unk_47c: 0x1,
unk_484: 0x1,
unk_48c: 0x1,
base_clock_khz: self.cfg.base_clock_hz / 1000,
power_sample_period: self.dyncfg.pwr.power_sample_period,
unk_49c: 0x1,
unk_4a0: 0x1,
unk_4a4: 0x1,
unk_4c0: 0x1f,
unk_4e0: U64(self.cfg.db.unk_4e0),
unk_4f0: 0x1,
unk_4f4: 0x1,
unk_504: 0x31,
unk_524: 0x1, // use_secure_cache_flush
unk_534: self.cfg.db.unk_534,
num_frags: self.dyncfg.id.num_frags * self.dyncfg.id.num_clusters,
unk_554: 0x1,
uat_ttb_base: U64(self.dyncfg.uat_ttb_base),
gpu_core_id: self.cfg.gpu_core as u32,
gpu_rev_id: self.dyncfg.id.gpu_rev_id as u32,
num_cores: self.dyncfg.id.num_cores * self.dyncfg.id.num_clusters,
max_pstate: self.dyncfg.pwr.perf_states.len() as u32 - 1,
#[ver(V < V13_0B4)]
num_pstates: self.dyncfg.pwr.perf_states.len() as u32,
#[ver(V < V13_0B4)]
min_sram_volt: self.dyncfg.pwr.min_sram_microvolt / 1000,
#[ver(V < V13_0B4)]
unk_ab8: self.cfg.db.unk_ab8,
#[ver(V < V13_0B4)]
unk_abc: self.cfg.db.unk_abc,
#[ver(V < V13_0B4)]
unk_ac0: 0x1020,
#[ver(V >= V13_0B4)]
unk_ae4: Array::new([0x0, 0x3, 0x7, 0x7]),
#[ver(V < V13_0B4)]
unk_ae4: Array::new([0x0, 0xf, 0x3f, 0x3f]),
unk_b10: 0x1,
unk_b24: 0x1,
unk_b28: 0x1,
unk_b2c: 0x1,
unk_b30: self.cfg.db.unk_b30,
#[ver(V >= V13_0B4)]
unk_b38_0: 1,
#[ver(V >= V13_0B4)]
unk_b38_4: 1,
unk_b38: Array::new([0xffffffff; 12]),
#[ver(V >= V13_0B4)]
unk_c3c: 0x19,
..Default::default()
}
);
let base_ps = self.dyncfg.pwr.perf_base_pstate as usize;
let max_ps = self.dyncfg.pwr.perf_max_pstate as usize;
let base_freq = self.dyncfg.pwr.perf_states[base_ps].freq_hz;
let max_freq = self.dyncfg.pwr.perf_states[max_ps].freq_hz;
for (i, ps) in self.dyncfg.pwr.perf_states.iter().enumerate() {
raw.frequencies[i] = ps.freq_hz / 1000000;
for (j, mv) in ps.volt_mv.iter().enumerate() {
let sram_mv = (*mv).max(self.dyncfg.pwr.min_sram_microvolt / 1000);
raw.voltages[i][j] = *mv;
raw.voltages_sram[i][j] = sram_mv;
}
raw.sram_k[i] = self.cfg.sram_k;
raw.rel_max_powers[i] = ps.pwr_mw * 100 / self.dyncfg.pwr.max_power_mw;
raw.rel_boost_freqs[i] = if i > base_ps {
(ps.freq_hz - base_freq) / ((max_freq - base_freq) / 100)
} else {
0
};
}
Ok(raw)
})
}
/// Create the Globals structure, which contains global firmware config including more power
/// configuration data and globals used to exchange state between the firmware and driver.
#[inline(never)]
fn globals(&mut self) -> Result<GpuObject<Globals::ver>> {
self.alloc
.shared
.new_inplace(Default::default(), |_inner, ptr| {
let pwr = &self.dyncfg.pwr;
let period_ms = pwr.power_sample_period;
let period_s = F32::from(period_ms) / f32!(1000.0);
let avg_power_filter_tc_periods = pwr.avg_power_filter_tc_ms / period_ms;
let max_ps = pwr.perf_max_pstate;
let max_ps_scaled = 100 * max_ps;
let raw = place!(
ptr,
raw::Globals::ver {
//ktrace_enable: 0xffffffff,
ktrace_enable: 0,
#[ver(V >= V13_2)]
unk_24_0: 3000,
unk_24: 0,
#[ver(V >= V13_0B4)]
unk_28_0: 0, // debug
unk_28: 1,
#[ver(V >= V13_0B4)]
unk_2c_0: 0,
unk_2c: 1,
unk_30: 0,
unk_34: 120,
sub: raw::GlobalsSub::ver {
unk_54: 0xffff,
unk_56: 40,
unk_58: 0xffff,
unk_5e: U32(1),
unk_66: U32(1),
..Default::default()
},
unk_8900: 1,
pending_submissions: AtomicU32::new(0),
max_power: pwr.max_power_mw,
max_pstate_scaled: max_ps_scaled,
max_pstate_scaled_2: max_ps_scaled,
max_pstate_scaled_3: max_ps_scaled,
power_zone_count: pwr.power_zones.len() as u32,
avg_power_filter_tc_periods: avg_power_filter_tc_periods,
avg_power_ki_dt: pwr.avg_power_ki_only * period_s,
avg_power_kp: pwr.avg_power_kp,
avg_power_min_duty_cycle: pwr.avg_power_min_duty_cycle,
avg_power_target_filter_tc: pwr.avg_power_target_filter_tc,
unk_89bc: self.cfg.da.unk_8cc,
fast_die0_release_temp: 100 * pwr.fast_die0_release_temp,
unk_89c4: self.cfg.da.unk_87c,
fast_die0_prop_tgt_delta: 100 * pwr.fast_die0_prop_tgt_delta,
fast_die0_kp: pwr.fast_die0_proportional_gain,
fast_die0_ki_dt: pwr.fast_die0_integral_gain * period_s,
unk_89e0: 1,
max_power_2: pwr.max_power_mw,
ppm_kp: pwr.ppm_kp,
ppm_ki_dt: pwr.ppm_ki * period_s,
#[ver(V >= V13_0B4)]
unk_89f4_8: 1,
unk_89f4: 0,
hws1: Self::hw_shared1(self.cfg),
hws2: *Self::hw_shared2(self.cfg)?,
hws3: *Self::hw_shared3(self.cfg)?,
unk_900c: 1,
#[ver(V >= V13_0B4)]
unk_9010_0: 1,
#[ver(V >= V13_0B4)]
unk_903c: 1,
#[ver(V < V13_0B4)]
unk_903c: 0,
fault_control: *crate::fault_control.read(),
do_init: 1,
unk_11020: 40,
unk_11024: 10,
unk_11028: 250,
#[ver(V >= V13_0B4)]
unk_1102c_0: 1,
#[ver(V >= V13_0B4)]
unk_1102c_4: 1,
#[ver(V >= V13_0B4)]
unk_1102c_8: 100,
#[ver(V >= V13_0B4)]
unk_1102c_c: 1,
idle_off_delay_ms: AtomicU32::new(pwr.idle_off_delay_ms),
fender_idle_off_delay_ms: pwr.fender_idle_off_delay_ms,
fw_early_wake_timeout_ms: pwr.fw_early_wake_timeout_ms,
unk_118e0: 40,
#[ver(V >= V13_0B4)]
unk_118e4_0: 50,
#[ver(V >= V13_0B4)]
unk_11edc: 0,
#[ver(V >= V13_0B4)]
unk_11efc: 0,
..Default::default()
}
);
for (i, pz) in pwr.power_zones.iter().enumerate() {
raw.power_zones[i].target = pz.target;
raw.power_zones[i].target_off = pz.target - pz.target_offset;
raw.power_zones[i].filter_tc = pz.filter_tc;
}
if let Some(tab) = self.cfg.global_tab.as_ref() {
for (i, x) in tab.iter().enumerate() {
raw.unk_118ec[i] = *x;
}
raw.unk_118e8 = 1;
}
Ok(raw)
})
}
/// Create the RuntimePointers structure, which contains pointers to most of the other
/// structures including the ring buffer channels, statistics structures, and HwDataA/HwDataB.
#[inline(never)]
fn runtime_pointers(&mut self) -> Result<GpuObject<RuntimePointers::ver>> {
let hwa = self.hwdata_a()?;
let hwb = self.hwdata_b()?;
let pointers: Box<RuntimePointers::ver> = box_in_place!(RuntimePointers::ver {
stats: Stats::ver {
vtx: self.alloc.private.new_default::<GpuGlobalStatsVtx::ver>()?,
frag: self.alloc.private.new_inplace(
Default::default(),
|_inner, ptr: &mut MaybeUninit<raw::GpuGlobalStatsFrag::ver>| {
Ok(place!(
ptr,
raw::GpuGlobalStatsFrag::ver {
stats: raw::GpuStatsFrag::ver {
cur_stamp_id: -1,
unk_118: -1,
..Default::default()
},
..Default::default()
}
))
},
)?,
comp: self.alloc.private.new_default::<GpuStatsComp>()?,
},
hwdata_a: hwa,
unkptr_190: self.alloc.private.array_empty(0x80)?,
unkptr_198: self.alloc.private.array_empty(0xc0)?,
hwdata_b: hwb,
unkptr_1b8: self.alloc.private.array_empty(0x1000)?,
unkptr_1c0: self.alloc.private.array_empty(0x300)?,
unkptr_1c8: self.alloc.private.array_empty(0x1000)?,
buffer_mgr_ctl: self.alloc.gpu.array_empty(127)?,
})?;
self.alloc.private.new_boxed(pointers, |inner, ptr| {
Ok(place!(
ptr,
raw::RuntimePointers::ver {
pipes: Default::default(),
device_control: Default::default(),
event: Default::default(),
fw_log: Default::default(),
ktrace: Default::default(),
stats: Default::default(),
stats_vtx: inner.stats.vtx.gpu_pointer(),
stats_frag: inner.stats.frag.gpu_pointer(),
stats_comp: inner.stats.comp.gpu_pointer(),
hwdata_a: inner.hwdata_a.gpu_pointer(),
unkptr_190: inner.unkptr_190.gpu_pointer(),
unkptr_198: inner.unkptr_198.gpu_pointer(),
hwdata_b: inner.hwdata_b.gpu_pointer(),
hwdata_b_2: inner.hwdata_b.gpu_pointer(),
fwlog_buf: None,
unkptr_1b8: inner.unkptr_1b8.gpu_pointer(),
unkptr_1c0: inner.unkptr_1c0.gpu_pointer(),
unkptr_1c8: inner.unkptr_1c8.gpu_pointer(),
buffer_mgr_ctl: inner.buffer_mgr_ctl.gpu_pointer(),
buffer_mgr_ctl_2: inner.buffer_mgr_ctl.gpu_pointer(),
__pad0: Default::default(),
unk_160: U64(0),
unk_168: U64(0),
unk_1d0: 0,
unk_1d4: 0,
unk_1d8: Default::default(),
__pad1: Default::default(),
gpu_scratch: raw::RuntimeScratch {
unk_6b38: 0xff,
..Default::default()
},
}
))
})
}
/// Create the FwStatus structure, which is used to coordinate the firmware halt state between
/// the firmware and the driver.
#[inline(never)]
fn fw_status(&mut self) -> Result<GpuObject<FwStatus>> {
self.alloc
.shared
.new_object(Default::default(), |_inner| Default::default())
}
/// Create one UatLevelInfo structure, which describes one level of translation for the UAT MMU.
#[inline(never)]
fn uat_level_info(
cfg: &hw::HwConfig,
index_shift: usize,
num_entries: usize,
) -> raw::UatLevelInfo {
raw::UatLevelInfo {
index_shift: index_shift as _,
unk_1: 14,
unk_2: 14,
unk_3: 8,
unk_4: 0x4000,
num_entries: num_entries as _,
unk_8: U64(1),
unk_10: U64(((1u64 << cfg.uat_oas) - 1) & !(mmu::UAT_PGMSK as u64)),
index_mask: U64(((num_entries - 1) << index_shift) as u64),
}
}
/// Build the top-level InitData object.
#[inline(never)]
pub(crate) fn build(&mut self) -> Result<Box<GpuObject<InitData::ver>>> {
let inner: Box<InitData::ver> = box_in_place!(InitData::ver {
unk_buf: self.alloc.shared_ro.array_empty(0x4000)?,
runtime_pointers: self.runtime_pointers()?,
globals: self.globals()?,
fw_status: self.fw_status()?,
})?;
Ok(Box::try_new(self.alloc.shared_ro.new_boxed(
inner,
|inner, ptr| {
Ok(place!(
ptr,
raw::InitData::ver {
#[ver(V >= V13_0B4)]
ver_info: Array::new([1, 1, 16, 1]),
unk_buf: inner.unk_buf.gpu_pointer(),
unk_8: 0,
unk_c: 0,
runtime_pointers: inner.runtime_pointers.gpu_pointer(),
globals: inner.globals.gpu_pointer(),
fw_status: inner.fw_status.gpu_pointer(),
uat_page_size: 0x4000,
uat_page_bits: 14,
uat_num_levels: 3,
uat_level_info: Array::new([
Self::uat_level_info(self.cfg, 36, 8),
Self::uat_level_info(self.cfg, 25, 2048),
Self::uat_level_info(self.cfg, 14, 2048),
]),
__pad0: Default::default(),
host_mapped_fw_allocations: 1,
unk_ac: 0,
unk_b0: 0,
unk_b4: 0,
unk_b8: 0,
}
))
},
)?)?)
}
}
|