[project] Lose the battle between tabs & spaces

I'm a tabs guy. I like tabs, it's an elegant way to represent
indentation instead of brute-forcing it. But I have to admit that the
world seems to be going towards spaces, and tooling tends not to play
nice with tabs. So here we go, changing the whole repo to spaces since
I'm getting tired of all the inconsistent formatting.
This commit is contained in:
F in Chat for Tabs
2021-08-01 17:46:16 -07:00
committed by Justin C. Miller
parent d36b2d8057
commit 8f529046a9
161 changed files with 7958 additions and 7958 deletions

View File

@@ -52,10 +52,10 @@ static kutil::no_construct<vm_area_guarded> __g_kernel_stacks_storage;
vm_area_guarded &g_kernel_stacks = __g_kernel_stacks_storage.value;
vm_area_guarded g_kernel_buffers {
memory::buffers_start,
memory::kernel_buffer_pages,
memory::kernel_max_buffers,
vm_flags::write};
memory::buffers_start,
memory::kernel_buffer_pages,
memory::kernel_max_buffers,
vm_flags::write};
void * operator new(size_t size) { return g_kernel_heap.allocate(size); }
void * operator new [] (size_t size) { return g_kernel_heap.allocate(size); }
@@ -63,149 +63,149 @@ void operator delete (void *p) noexcept { return g_kernel_heap.free(p); }
void operator delete [] (void *p) noexcept { return g_kernel_heap.free(p); }
namespace kutil {
void * kalloc(size_t size) { return g_kernel_heap.allocate(size); }
void kfree(void *p) { return g_kernel_heap.free(p); }
void * kalloc(size_t size) { return g_kernel_heap.allocate(size); }
void kfree(void *p) { return g_kernel_heap.free(p); }
}
template <typename T>
uintptr_t
get_physical_page(T *p) {
return memory::page_align_down(reinterpret_cast<uintptr_t>(p));
return memory::page_align_down(reinterpret_cast<uintptr_t>(p));
}
void
memory_initialize_pre_ctors(init::args &kargs)
{
using kernel::init::frame_block;
using kernel::init::frame_block;
page_table *kpml4 = static_cast<page_table*>(kargs.pml4);
page_table *kpml4 = static_cast<page_table*>(kargs.pml4);
new (&g_kernel_heap) kutil::heap_allocator {heap_start, kernel_max_heap};
new (&g_kernel_heap) kutil::heap_allocator {heap_start, kernel_max_heap};
frame_block *blocks = reinterpret_cast<frame_block*>(memory::bitmap_start);
new (&g_frame_allocator) frame_allocator {blocks, kargs.frame_blocks.count};
frame_block *blocks = reinterpret_cast<frame_block*>(memory::bitmap_start);
new (&g_frame_allocator) frame_allocator {blocks, kargs.frame_blocks.count};
// Mark all the things the bootloader allocated for us as used
allocation_register *reg = kargs.allocations;
while (reg) {
for (auto &alloc : reg->entries)
if (alloc.type != init::allocation_type::none)
g_frame_allocator.used(alloc.address, alloc.count);
reg = reg->next;
}
// Mark all the things the bootloader allocated for us as used
allocation_register *reg = kargs.allocations;
while (reg) {
for (auto &alloc : reg->entries)
if (alloc.type != init::allocation_type::none)
g_frame_allocator.used(alloc.address, alloc.count);
reg = reg->next;
}
process *kp = process::create_kernel_process(kpml4);
vm_space &vm = kp->space();
process *kp = process::create_kernel_process(kpml4);
vm_space &vm = kp->space();
vm_area *heap = new (&g_kernel_heap_area)
vm_area_untracked(kernel_max_heap, vm_flags::write);
vm_area *heap = new (&g_kernel_heap_area)
vm_area_untracked(kernel_max_heap, vm_flags::write);
vm.add(heap_start, heap);
vm.add(heap_start, heap);
vm_area *stacks = new (&g_kernel_stacks) vm_area_guarded {
memory::stacks_start,
memory::kernel_stack_pages,
memory::kernel_max_stacks,
vm_flags::write};
vm.add(memory::stacks_start, &g_kernel_stacks);
vm_area *stacks = new (&g_kernel_stacks) vm_area_guarded {
memory::stacks_start,
memory::kernel_stack_pages,
memory::kernel_max_stacks,
vm_flags::write};
vm.add(memory::stacks_start, &g_kernel_stacks);
// Clean out any remaning bootloader page table entries
for (unsigned i = 0; i < memory::pml4e_kernel; ++i)
kpml4->entries[i] = 0;
// Clean out any remaning bootloader page table entries
for (unsigned i = 0; i < memory::pml4e_kernel; ++i)
kpml4->entries[i] = 0;
}
void
memory_initialize_post_ctors(init::args &kargs)
{
vm_space &vm = vm_space::kernel_space();
vm.add(memory::buffers_start, &g_kernel_buffers);
vm_space &vm = vm_space::kernel_space();
vm.add(memory::buffers_start, &g_kernel_buffers);
g_frame_allocator.free(
get_physical_page(kargs.page_tables.pointer),
kargs.page_tables.count);
g_frame_allocator.free(
get_physical_page(kargs.page_tables.pointer),
kargs.page_tables.count);
}
static void
log_mtrrs()
{
uint64_t mtrrcap = rdmsr(msr::ia32_mtrrcap);
uint64_t mtrrdeftype = rdmsr(msr::ia32_mtrrdeftype);
unsigned vcap = mtrrcap & 0xff;
log::debug(logs::boot, "MTRRs: vcap=%d %s %s def=%02x %s %s",
vcap,
(mtrrcap & (1<< 8)) ? "fix" : "",
(mtrrcap & (1<<10)) ? "wc" : "",
mtrrdeftype & 0xff,
(mtrrdeftype & (1<<10)) ? "fe" : "",
(mtrrdeftype & (1<<11)) ? "enabled" : ""
);
uint64_t mtrrcap = rdmsr(msr::ia32_mtrrcap);
uint64_t mtrrdeftype = rdmsr(msr::ia32_mtrrdeftype);
unsigned vcap = mtrrcap & 0xff;
log::debug(logs::boot, "MTRRs: vcap=%d %s %s def=%02x %s %s",
vcap,
(mtrrcap & (1<< 8)) ? "fix" : "",
(mtrrcap & (1<<10)) ? "wc" : "",
mtrrdeftype & 0xff,
(mtrrdeftype & (1<<10)) ? "fe" : "",
(mtrrdeftype & (1<<11)) ? "enabled" : ""
);
for (unsigned i = 0; i < vcap; ++i) {
uint64_t base = rdmsr(find_mtrr(msr::ia32_mtrrphysbase, i));
uint64_t mask = rdmsr(find_mtrr(msr::ia32_mtrrphysmask, i));
log::debug(logs::boot, " vcap[%2d] base:%016llx mask:%016llx type:%02x %s", i,
(base & ~0xfffull),
(mask & ~0xfffull),
(base & 0xff),
(mask & (1<<11)) ? "valid" : "");
}
for (unsigned i = 0; i < vcap; ++i) {
uint64_t base = rdmsr(find_mtrr(msr::ia32_mtrrphysbase, i));
uint64_t mask = rdmsr(find_mtrr(msr::ia32_mtrrphysmask, i));
log::debug(logs::boot, " vcap[%2d] base:%016llx mask:%016llx type:%02x %s", i,
(base & ~0xfffull),
(mask & ~0xfffull),
(base & 0xff),
(mask & (1<<11)) ? "valid" : "");
}
msr mtrr_fixed[] = {
msr::ia32_mtrrfix64k_00000,
msr::ia32_mtrrfix16k_80000,
msr::ia32_mtrrfix16k_a0000,
msr::ia32_mtrrfix4k_c0000,
msr::ia32_mtrrfix4k_c8000,
msr::ia32_mtrrfix4k_d0000,
msr::ia32_mtrrfix4k_d8000,
msr::ia32_mtrrfix4k_e0000,
msr::ia32_mtrrfix4k_e8000,
msr::ia32_mtrrfix4k_f0000,
msr::ia32_mtrrfix4k_f8000,
};
msr mtrr_fixed[] = {
msr::ia32_mtrrfix64k_00000,
msr::ia32_mtrrfix16k_80000,
msr::ia32_mtrrfix16k_a0000,
msr::ia32_mtrrfix4k_c0000,
msr::ia32_mtrrfix4k_c8000,
msr::ia32_mtrrfix4k_d0000,
msr::ia32_mtrrfix4k_d8000,
msr::ia32_mtrrfix4k_e0000,
msr::ia32_mtrrfix4k_e8000,
msr::ia32_mtrrfix4k_f0000,
msr::ia32_mtrrfix4k_f8000,
};
for (int i = 0; i < 11; ++i) {
uint64_t v = rdmsr(mtrr_fixed[i]);
log::debug(logs::boot, " fixed[%2d] %02x %02x %02x %02x %02x %02x %02x %02x", i,
((v << 0) & 0xff), ((v << 8) & 0xff), ((v << 16) & 0xff), ((v << 24) & 0xff),
((v << 32) & 0xff), ((v << 40) & 0xff), ((v << 48) & 0xff), ((v << 56) & 0xff));
}
for (int i = 0; i < 11; ++i) {
uint64_t v = rdmsr(mtrr_fixed[i]);
log::debug(logs::boot, " fixed[%2d] %02x %02x %02x %02x %02x %02x %02x %02x", i,
((v << 0) & 0xff), ((v << 8) & 0xff), ((v << 16) & 0xff), ((v << 24) & 0xff),
((v << 32) & 0xff), ((v << 40) & 0xff), ((v << 48) & 0xff), ((v << 56) & 0xff));
}
uint64_t pat = rdmsr(msr::ia32_pat);
static const char *pat_names[] = {"UC ","WC ","XX ","XX ","WT ","WP ","WB ","UC-"};
log::debug(logs::boot, " PAT: 0:%s 1:%s 2:%s 3:%s 4:%s 5:%s 6:%s 7:%s",
pat_names[(pat >> (0*8)) & 7], pat_names[(pat >> (1*8)) & 7],
pat_names[(pat >> (2*8)) & 7], pat_names[(pat >> (3*8)) & 7],
pat_names[(pat >> (4*8)) & 7], pat_names[(pat >> (5*8)) & 7],
pat_names[(pat >> (6*8)) & 7], pat_names[(pat >> (7*8)) & 7]);
uint64_t pat = rdmsr(msr::ia32_pat);
static const char *pat_names[] = {"UC ","WC ","XX ","XX ","WT ","WP ","WB ","UC-"};
log::debug(logs::boot, " PAT: 0:%s 1:%s 2:%s 3:%s 4:%s 5:%s 6:%s 7:%s",
pat_names[(pat >> (0*8)) & 7], pat_names[(pat >> (1*8)) & 7],
pat_names[(pat >> (2*8)) & 7], pat_names[(pat >> (3*8)) & 7],
pat_names[(pat >> (4*8)) & 7], pat_names[(pat >> (5*8)) & 7],
pat_names[(pat >> (6*8)) & 7], pat_names[(pat >> (7*8)) & 7]);
}
void
load_init_server(init::program &program, uintptr_t modules_address)
{
process *p = new process;
p->add_handle(&system::get());
process *p = new process;
p->add_handle(&system::get());
vm_space &space = p->space();
for (const auto &sect : program.sections) {
vm_flags flags =
((sect.type && section_flags::execute) ? vm_flags::exec : vm_flags::none) |
((sect.type && section_flags::write) ? vm_flags::write : vm_flags::none);
vm_space &space = p->space();
for (const auto &sect : program.sections) {
vm_flags flags =
((sect.type && section_flags::execute) ? vm_flags::exec : vm_flags::none) |
((sect.type && section_flags::write) ? vm_flags::write : vm_flags::none);
vm_area *vma = new vm_area_fixed(sect.phys_addr, sect.size, flags);
space.add(sect.virt_addr, vma);
}
vm_area *vma = new vm_area_fixed(sect.phys_addr, sect.size, flags);
space.add(sect.virt_addr, vma);
}
uint64_t iopl = (3ull << 12);
uint64_t iopl = (3ull << 12);
thread *main = p->create_thread();
main->add_thunk_user(program.entrypoint, 0, iopl);
main->set_state(thread::state::ready);
thread *main = p->create_thread();
main->add_thunk_user(program.entrypoint, 0, iopl);
main->set_state(thread::state::ready);
// Hacky: No process exists to have created a stack for init; it needs to create
// its own stack. We take advantage of that to use rsp to pass it the init modules
// address.
auto *tcb = main->tcb();
tcb->rsp3 = modules_address;
// Hacky: No process exists to have created a stack for init; it needs to create
// its own stack. We take advantage of that to use rsp to pass it the init modules
// address.
auto *tcb = main->tcb();
tcb->rsp3 = modules_address;
}