Files
RedBear-OS/src/acpi/aml/namedobj.rs
T
2017-07-17 11:54:19 +01:00

903 lines
29 KiB
Rust

use alloc::boxed::Box;
use collections::string::String;
use collections::vec::Vec;
use core::str::FromStr;
use collections::btree_map::BTreeMap;
use super::AmlError;
use super::parser::{ AmlParseType, ParseResult, AmlParseTypeGeneric, AmlExecutionContext, ExecutionState };
use super::namespace::{ AmlValue, ObjectReference, FieldSelector, Method, get_namespace_string };
use super::namestring::{parse_name_string, parse_name_seg};
use super::termlist::{parse_term_arg, parse_term_list, parse_object_list};
use super::pkglength::parse_pkg_length;
use super::type2opcode::parse_def_buffer;
#[derive(Debug, Copy, Clone)]
pub enum RegionSpace {
SystemMemory,
SystemIO,
PCIConfig,
EmbeddedControl,
SMBus,
SystemCMOS,
PciBarTarget,
IPMI,
GeneralPurposeIO,
GenericSerialBus,
UserDefined(u8)
}
#[derive(Debug, Clone)]
pub struct FieldFlags {
access_type: AccessType,
lock_rule: bool,
update_rule: UpdateRule
}
#[derive(Debug, Clone)]
pub enum AccessType {
AnyAcc,
ByteAcc,
WordAcc,
DWordAcc,
QWordAcc,
BufferAcc(AccessAttrib)
}
#[derive(Debug, Clone)]
pub enum UpdateRule {
Preserve,
WriteAsOnes,
WriteAsZeros
}
#[derive(Debug, Clone)]
pub struct NamedField {
name: String,
length: usize
}
#[derive(Debug, Clone)]
pub struct AccessField {
access_type: AccessType,
access_attrib: AccessAttrib
}
#[derive(Debug, Clone)]
pub enum AccessAttrib {
AttribBytes(u8),
AttribRawBytes(u8),
AttribRawProcessBytes(u8),
AttribQuick,
AttribSendReceive,
AttribByte,
AttribWord,
AttribBlock,
AttribProcessCall,
AttribBlockProcessCall
}
pub fn parse_named_obj(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
parser_selector! {
data, ctx,
parse_def_bank_field,
parse_def_create_bit_field,
parse_def_create_byte_field,
parse_def_create_word_field,
parse_def_create_dword_field,
parse_def_create_qword_field,
parse_def_create_field,
parse_def_data_region,
parse_def_event,
parse_def_device,
parse_def_op_region,
parse_def_field,
parse_def_index_field,
parse_def_method,
parse_def_mutex,
parse_def_power_res,
parse_def_processor,
parse_def_thermal_zone
};
Err(AmlError::AmlInvalidOpCode)
}
fn parse_def_bank_field(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
// TODO: Why isn't bank name used?
parser_opcode_extended!(data, 0x87);
let (pkg_length, pkg_length_len) = parse_pkg_length(&data[2..])?;
let data = &data[2 + pkg_length_len .. 2 + pkg_length];
let region_name = parse_name_string(data, ctx)?;
let bank_name = parse_name_string(&data[2 + pkg_length_len + region_name.len .. 2 + pkg_length], ctx)?;
let bank_value = parse_term_arg(&data[2 + pkg_length_len + region_name.len .. 2 + pkg_length], ctx)?;
let flags_raw = data[2 + pkg_length_len + region_name.len + bank_name.len + bank_value.len];
let mut flags = FieldFlags {
access_type: match flags_raw & 0x0F {
0 => AccessType::AnyAcc,
1 => AccessType::ByteAcc,
2 => AccessType::WordAcc,
3 => AccessType::DWordAcc,
4 => AccessType::QWordAcc,
5 => AccessType::BufferAcc(AccessAttrib::AttribByte),
_ => return Err(AmlError::AmlParseError("BankField - invalid access type"))
},
lock_rule: (flags_raw & 0x10) == 0x10,
update_rule: match (flags_raw & 0x60) >> 5 {
0 => UpdateRule::Preserve,
1 => UpdateRule::WriteAsOnes,
2 => UpdateRule::WriteAsZeros,
_ => return Err(AmlError::AmlParseError("BankField - invalid update rule"))
}
};
let selector = FieldSelector::Bank {
region: region_name.val.get_as_string()?,
bank_selector: Box::new(bank_value.val)
};
let field_list = parse_field_list(
&data[3 + pkg_length_len + region_name.len + bank_name.len + bank_value.len ..
2 + pkg_length], ctx, selector, &mut flags)?;
Ok(AmlParseType {
val: AmlValue::None,
len: 2 + pkg_length
})
}
fn parse_def_create_bit_field(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
parser_opcode!(data, 0x8D);
let source_buf = parse_term_arg(&data[2..], ctx)?;
let bit_index = parse_term_arg(&data[2 + source_buf.len..], ctx)?;
let name = parse_name_string(&data[1 + source_buf.len + bit_index.len..], ctx)?;
let local_scope_string = get_namespace_string(ctx.scope.clone(), name.val);
ctx.namespace.insert(local_scope_string, AmlValue::BufferField {
source_buf: Box::new(source_buf.val),
index: Box::new(bit_index.val),
length: Box::new(AmlValue::IntegerConstant(1))
});
Ok(AmlParseType {
val: AmlValue::None,
len: 2 + name.len + source_buf.len + bit_index.len
})
}
fn parse_def_create_byte_field(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
parser_opcode!(data, 0x8C);
let source_buf = parse_term_arg(&data[2..], ctx)?;
let bit_index = parse_term_arg(&data[2 + source_buf.len..], ctx)?;
let name = parse_name_string(&data[1 + source_buf.len + bit_index.len..], ctx)?;
let local_scope_string = get_namespace_string(ctx.scope.clone(), name.val);
ctx.namespace.insert(local_scope_string, AmlValue::BufferField {
source_buf: Box::new(source_buf.val),
index: Box::new(bit_index.val),
length: Box::new(AmlValue::IntegerConstant(8))
});
Ok(AmlParseType {
val: AmlValue::None,
len: 2 + name.len + source_buf.len + bit_index.len
})
}
fn parse_def_create_word_field(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
parser_opcode!(data, 0x8B);
let source_buf = parse_term_arg(&data[2..], ctx)?;
let bit_index = parse_term_arg(&data[2 + source_buf.len..], ctx)?;
let name = parse_name_string(&data[1 + source_buf.len + bit_index.len..], ctx)?;
let local_scope_string = get_namespace_string(ctx.scope.clone(), name.val);
ctx.namespace.insert(local_scope_string, AmlValue::BufferField {
source_buf: Box::new(source_buf.val),
index: Box::new(bit_index.val),
length: Box::new(AmlValue::IntegerConstant(16))
});
Ok(AmlParseType {
val: AmlValue::None,
len: 2 + name.len + source_buf.len + bit_index.len
})
}
fn parse_def_create_dword_field(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
parser_opcode!(data, 0x8A);
let source_buf = parse_term_arg(&data[2..], ctx)?;
let bit_index = parse_term_arg(&data[2 + source_buf.len..], ctx)?;
let name = parse_name_string(&data[1 + source_buf.len + bit_index.len..], ctx)?;
let local_scope_string = get_namespace_string(ctx.scope.clone(), name.val);
ctx.namespace.insert(local_scope_string, AmlValue::BufferField {
source_buf: Box::new(source_buf.val),
index: Box::new(bit_index.val),
length: Box::new(AmlValue::IntegerConstant(32))
});
Ok(AmlParseType {
val: AmlValue::None,
len: 2 + name.len + source_buf.len + bit_index.len
})
}
fn parse_def_create_qword_field(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
parser_opcode!(data, 0x8F);
let source_buf = parse_term_arg(&data[2..], ctx)?;
let bit_index = parse_term_arg(&data[2 + source_buf.len..], ctx)?;
let name = parse_name_string(&data[1 + source_buf.len + bit_index.len..], ctx)?;
let local_scope_string = get_namespace_string(ctx.scope.clone(), name.val);
ctx.namespace.insert(local_scope_string, AmlValue::BufferField {
source_buf: Box::new(source_buf.val),
index: Box::new(bit_index.val),
length: Box::new(AmlValue::IntegerConstant(64))
});
Ok(AmlParseType {
val: AmlValue::None,
len: 2 + name.len + source_buf.len + bit_index.len
})
}
fn parse_def_create_field(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
parser_opcode_extended!(data, 0x13);
let source_buf = parse_term_arg(&data[2..], ctx)?;
let bit_index = parse_term_arg(&data[2 + source_buf.len..], ctx)?;
let num_bits = parse_term_arg(&data[2 + source_buf.len + bit_index.len..], ctx)?;
let name = parse_name_string(&data[2 + source_buf.len + bit_index.len + num_bits.len..], ctx)?;
let local_scope_string = get_namespace_string(ctx.scope.clone(), name.val);
ctx.namespace.insert(local_scope_string, AmlValue::BufferField {
source_buf: Box::new(source_buf.val),
index: Box::new(bit_index.val),
length: Box::new(num_bits.val)
});
Ok(AmlParseType {
val: AmlValue::None,
len: 2 + name.len + source_buf.len + bit_index.len + num_bits.len
})
}
fn parse_def_data_region(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
// TODO: Find the actual offset and length, once table mapping is implemented
parser_opcode_extended!(data, 0x88);
let name = parse_name_string(&data[2..], ctx)?;
let signature = parse_term_arg(&data[2 + name.len..], ctx)?;
let oem_id = parse_term_arg(&data[2 + name.len + signature.len..], ctx)?;
let oem_table_id = parse_term_arg(&data[2 + name.len + signature.len + oem_id.len..], ctx)?;
let local_scope_string = get_namespace_string(ctx.scope.clone(), name.val);
ctx.namespace.insert(local_scope_string, AmlValue::OperationRegion {
region: RegionSpace::SystemMemory,
offset: Box::new(AmlValue::IntegerConstant(0)),
len: Box::new(AmlValue::IntegerConstant(0))
});
Ok(AmlParseType {
val: AmlValue::None,
len: 2 + name.len + signature.len + oem_id.len + oem_table_id.len
})
}
fn parse_def_event(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
parser_opcode_extended!(data, 0x02);
let name = parse_name_string(&data[2..], ctx)?;
let local_scope_string = get_namespace_string(ctx.scope.clone(), name.val);
ctx.namespace.insert(local_scope_string, AmlValue::Event);
Ok(AmlParseType {
val: AmlValue::None,
len: 2 + name.len
})
}
fn parse_def_device(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
// TODO: How to handle local context deferreds
// TODO: How to also handle local context reference to calling context
parser_opcode_extended!(data, 0x82);
let (pkg_length, pkg_length_len) = parse_pkg_length(&data[2..])?;
let name = parse_name_string(&data[2 + pkg_length_len .. 2 + pkg_length], ctx)?;
let mut local_ctx = AmlExecutionContext::new(String::new());
let obj_list = parse_object_list(&data[2 + pkg_length_len + name.len .. 2 + pkg_length], &mut local_ctx)?;
let local_scope_string = get_namespace_string(ctx.scope.clone(), name.val);
ctx.namespace.insert(local_scope_string, AmlValue::Device(local_ctx.namespace.clone()));
Ok(AmlParseType {
val: AmlValue::None,
len: 2 + pkg_length
})
}
fn parse_def_op_region(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
parser_opcode_extended!(data, 0x80);
let name = parse_name_string(&data[2..], ctx)?;
let region = match data[2 + name.len] {
0x00 => RegionSpace::SystemMemory,
0x01 => RegionSpace::SystemIO,
0x02 => RegionSpace::PCIConfig,
0x03 => RegionSpace::EmbeddedControl,
0x04 => RegionSpace::SMBus,
0x05 => RegionSpace::SystemCMOS,
0x06 => RegionSpace::PciBarTarget,
0x07 => RegionSpace::IPMI,
0x08 => RegionSpace::GeneralPurposeIO,
0x09 => RegionSpace::GenericSerialBus,
0x80 ... 0xFF => RegionSpace::UserDefined(data[2 + name.len]),
_ => return Err(AmlError::AmlParseError("OpRegion - invalid region"))
};
let offset = parse_term_arg(&data[3 + name.len..], ctx)?;
let len = parse_term_arg(&data[3 + name.len + offset.len..], ctx)?;
let local_scope_string = get_namespace_string(ctx.scope.clone(), name.val);
ctx.namespace.insert(local_scope_string, AmlValue::OperationRegion {
region: region,
offset: Box::new(offset.val),
len: Box::new(len.val)
});
Ok(AmlParseType {
val: AmlValue::None,
len: 3 + name.len + offset.len + len.len
})
}
fn parse_def_field(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
parser_opcode_extended!(data, 0x81);
let (pkg_length, pkg_length_len) = parse_pkg_length(&data[2..])?;
let name = parse_name_string(&data[2 + pkg_length_len .. 2 + pkg_length], ctx)?;
let flags_raw = data[2 + pkg_length_len + name.len];
let mut flags = FieldFlags {
access_type: match flags_raw & 0x0F {
0 => AccessType::AnyAcc,
1 => AccessType::ByteAcc,
2 => AccessType::WordAcc,
3 => AccessType::DWordAcc,
4 => AccessType::QWordAcc,
5 => AccessType::BufferAcc(AccessAttrib::AttribByte),
_ => return Err(AmlError::AmlParseError("Field - Invalid access type"))
},
lock_rule: (flags_raw & 0x10) == 0x10,
update_rule: match (flags_raw & 0x60) >> 5 {
0 => UpdateRule::Preserve,
1 => UpdateRule::WriteAsOnes,
2 => UpdateRule::WriteAsZeros,
_ => return Err(AmlError::AmlParseError("Field - Invalid update rule"))
}
};
let selector = FieldSelector::Region(name.val.get_as_string()?);
let field_list = parse_field_list(&data[3 + pkg_length_len + name.len .. 2 + pkg_length], ctx, selector, &mut flags)?;
Ok(AmlParseType {
val: AmlValue::None,
len: 2 + pkg_length
})
}
fn parse_def_index_field(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
parser_opcode_extended!(data, 0x86);
let (pkg_length, pkg_length_len) = parse_pkg_length(&data[2..])?;
let idx_name = parse_name_string(&data[2 + pkg_length_len .. 2 + pkg_length], ctx)?;
let data_name = parse_name_string(&data[2 + pkg_length_len + idx_name.len .. 2 + pkg_length], ctx)?;
let flags_raw = data[2 + pkg_length_len + idx_name.len + data_name.len];
let mut flags = FieldFlags {
access_type: match flags_raw & 0x0F {
0 => AccessType::AnyAcc,
1 => AccessType::ByteAcc,
2 => AccessType::WordAcc,
3 => AccessType::DWordAcc,
4 => AccessType::QWordAcc,
5 => AccessType::BufferAcc(AccessAttrib::AttribByte),
_ => return Err(AmlError::AmlParseError("IndexField - Invalid access type"))
},
lock_rule: (flags_raw & 0x10) == 0x10,
update_rule: match (flags_raw & 0x60) >> 5 {
0 => UpdateRule::Preserve,
1 => UpdateRule::WriteAsOnes,
2 => UpdateRule::WriteAsZeros,
_ => return Err(AmlError::AmlParseError("IndexField - Invalid update rule"))
}
};
let selector = FieldSelector::Index {
index_selector: idx_name.val.get_as_string()?,
data_selector: data_name.val.get_as_string()?
};
let field_list = parse_field_list(
&data[3 + pkg_length_len + idx_name.len + data_name.len .. 2 + pkg_length], ctx, selector, &mut flags)?;
Ok(AmlParseType {
val: AmlValue::None,
len: 2 + pkg_length
})
}
fn parse_field_list(data: &[u8],
ctx: &mut AmlExecutionContext,
selector: FieldSelector,
flags: &mut FieldFlags) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
let mut current_offset: usize = 0;
let mut field_offset: usize = 0;
let mut connection = AmlValue::Uninitialized;
while current_offset < data.len() {
let res = parse_field_element(&data[current_offset..], ctx, selector.clone(), &mut connection, flags, &mut field_offset)?;
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
current_offset += res.len;
}
Ok(AmlParseType {
val: AmlValue::None,
len: data.len()
})
}
fn parse_field_element(data: &[u8],
ctx: &mut AmlExecutionContext,
selector: FieldSelector,
connection: &mut AmlValue,
flags: &mut FieldFlags,
offset: &mut usize) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
let length = if let Ok(field) = parse_named_field(data, ctx) {
let local_scope_string = get_namespace_string(ctx.scope.clone(), AmlValue::String(field.val.name.clone()));
ctx.namespace.insert(local_scope_string, AmlValue::FieldUnit {
selector: selector.clone(),
connection: Box::new(connection.clone()),
flags: flags.clone(),
offset: offset.clone(),
length: field.val.length
});
*offset += field.val.length;
field.len
} else if let Ok(field) = parse_reserved_field(data, ctx) {
*offset += field.val;
field.len
} else if let Ok(field) = parse_access_field(data, ctx) {
match field.val.access_type {
AccessType::BufferAcc(_) =>
flags.access_type = AccessType::BufferAcc(field.val.access_attrib.clone()),
ref a => flags.access_type = a.clone()
}
field.len
} else if let Ok(field) = parse_connect_field(data, ctx) {
*connection = field.val.clone();
field.len
} else {
return Err(AmlError::AmlInvalidOpCode);
};
Ok(AmlParseType {
val: AmlValue::None,
len: length
})
}
fn parse_named_field(data: &[u8],
ctx: &mut AmlExecutionContext) -> Result<AmlParseTypeGeneric<NamedField>, AmlError> {
let (name_seg, name_seg_len) = parse_name_seg(&data[0..4])?;
let name = match String::from_utf8(name_seg) {
Ok(s) => s,
Err(_) => return Err(AmlError::AmlParseError("NamedField - invalid name"))
};
let (length, length_len) = parse_pkg_length(&data[4..])?;
Ok(AmlParseTypeGeneric {
val: NamedField { name, length },
len: 4 + length_len
})
}
fn parse_reserved_field(data: &[u8],
ctx: &mut AmlExecutionContext) -> Result<AmlParseTypeGeneric<usize>, AmlError> {
parser_opcode!(data, 0x00);
let (length, length_len) = parse_pkg_length(&data[1..])?;
Ok(AmlParseTypeGeneric {
val: length,
len: 1 + length_len
})
}
fn parse_access_field(data: &[u8],
ctx: &mut AmlExecutionContext) -> Result<AmlParseTypeGeneric<AccessField>, AmlError> {
parser_opcode!(data, 0x01, 0x03);
let flags_raw = data[1];
let access_type = match flags_raw & 0x0F {
0 => AccessType::AnyAcc,
1 => AccessType::ByteAcc,
2 => AccessType::WordAcc,
3 => AccessType::DWordAcc,
4 => AccessType::QWordAcc,
5 => AccessType::BufferAcc(AccessAttrib::AttribByte),
_ => return Err(AmlError::AmlParseError("AccessField - Invalid access type"))
};
let access_attrib = match (flags_raw & 0xC0) >> 6 {
0 => match data[2] {
0x02 => AccessAttrib::AttribQuick,
0x04 => AccessAttrib::AttribSendReceive,
0x06 => AccessAttrib::AttribByte,
0x08 => AccessAttrib::AttribWord,
0x0A => AccessAttrib::AttribBlock,
0x0B => AccessAttrib::AttribBytes(data[3]),
0x0C => AccessAttrib::AttribProcessCall,
0x0D => AccessAttrib::AttribBlockProcessCall,
0x0E => AccessAttrib::AttribRawBytes(data[3]),
0x0F => AccessAttrib::AttribRawProcessBytes(data[3]),
_ => return Err(AmlError::AmlParseError("AccessField - Invalid access attrib"))
},
1 => AccessAttrib::AttribBytes(data[2]),
2 => AccessAttrib::AttribRawBytes(data[2]),
3 => AccessAttrib::AttribRawProcessBytes(data[2]),
_ => return Err(AmlError::AmlParseError("AccessField - Invalid access attrib"))
// This should never happen but the compiler bitches if I don't cover this
};
Ok(AmlParseTypeGeneric {
val: AccessField { access_type, access_attrib },
len: if data[0] == 0x01 {
3 as usize
} else {
4 as usize
}
})
}
fn parse_connect_field(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
parser_opcode!(data, 0x02);
if let Ok(e) = parse_def_buffer(&data[1..], ctx) {
Ok(AmlParseType {
val: e.val,
len: e.len + 1
})
} else {
let name = parse_name_string(&data[1..], ctx)?;
Ok(AmlParseType {
val: AmlValue::ObjectReference(ObjectReference::NamedObj(name.val.get_as_string()?)),
len: name.len + 1
})
}
}
fn parse_def_method(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
parser_opcode!(data, 0x14);
let (pkg_len, pkg_len_len) = parse_pkg_length(&data[1..])?;
let name = parse_name_string(&data[1 + pkg_len_len..], ctx)?;
let flags = data[1 + pkg_len_len + name.len];
let arg_count = flags & 0x07;
let serialized = (flags & 0x08) == 0x08;
let sync_level = flags & 0xF0 >> 4;
let term_list = &data[2 + pkg_len_len + name.len .. 1 + pkg_len];
let local_scope_string = get_namespace_string(ctx.scope.clone(), name.val);
ctx.namespace.insert(local_scope_string, AmlValue::Method(Method {
arg_count,
serialized,
sync_level,
term_list: term_list.to_vec()
}));
Ok(AmlParseType {
val: AmlValue::None,
len: 1 + pkg_len
})
}
fn parse_def_mutex(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
parser_opcode_extended!(data, 0x01);
let name = parse_name_string(&data[2 ..], ctx)?;
let flags = data[2 + name.len];
let sync_level = flags & 0x0F;
let local_scope_string = get_namespace_string(ctx.scope.clone(), name.val);
ctx.namespace.insert(local_scope_string, AmlValue::Mutex(sync_level));
Ok(AmlParseType {
val: AmlValue::None,
len: 3 + name.len
})
}
fn parse_def_power_res(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
// TODO: How to handle local context deferreds
// TODO: How to also handle local context reference to calling context
parser_opcode_extended!(data, 0x84);
let (pkg_len, pkg_len_len) = parse_pkg_length(&data[2..])?;
let name = parse_name_string(&data[2 + pkg_len_len..], ctx)?;
let local_scope_string = get_namespace_string(ctx.scope.clone(), name.val);
let system_level = data[2 + pkg_len_len + name.len];
let resource_order: u16 = (data[3 + pkg_len_len + name.len] as u16) +
((data[4 + pkg_len_len + name.len] as u16) << 8);
let mut local_ctx = AmlExecutionContext::new(String::new());
parse_object_list(&data[5 + pkg_len_len + name.len .. 2 + pkg_len], &mut local_ctx)?;
ctx.namespace.insert(local_scope_string, AmlValue::PowerResource {
system_level,
resource_order,
obj_list: local_ctx.namespace.clone()
});
Ok(AmlParseType {
val: AmlValue::None,
len: 2 + pkg_len
})
}
fn parse_def_processor(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
parser_opcode_extended!(data, 0x83);
let (pkg_len, pkg_len_len) = parse_pkg_length(&data[2..])?;
let name = parse_name_string(&data[2 + pkg_len_len..], ctx)?;
let local_scope_string = get_namespace_string(ctx.scope.clone(), name.val);
let proc_id = data[2 + pkg_len_len + name.len];
let p_blk_addr: u32 = (data[3 + pkg_len_len + name.len] as u32) +
((data[4 + pkg_len_len + name.len] as u32) << 8) +
((data[5 + pkg_len_len + name.len] as u32) << 16) +
((data[6 + pkg_len_len + name.len] as u32) << 24);
let p_blk_len = data[7 + pkg_len_len + name.len];
let mut local_ctx = AmlExecutionContext::new(String::new());
parse_object_list(&data[8 + pkg_len_len + name.len .. 2 + pkg_len], &mut local_ctx)?;
ctx.namespace.insert(local_scope_string, AmlValue::Processor {
proc_id: proc_id,
p_blk: if p_blk_len > 0 { Some(p_blk_addr) } else { None },
obj_list: local_ctx.namespace.clone()
});
Ok(AmlParseType {
val: AmlValue::None,
len: 2 + pkg_len
})
}
fn parse_def_thermal_zone(data: &[u8],
ctx: &mut AmlExecutionContext) -> ParseResult {
if ctx.state != ExecutionState::EXECUTING {
return Ok(AmlParseType {
val: AmlValue::None,
len: 0 as usize
});
}
parser_opcode_extended!(data, 0x85);
let (pkg_len, pkg_len_len) = parse_pkg_length(&data[2..])?;
let name = parse_name_string(&data[2 + pkg_len_len .. 2 + pkg_len], ctx)?;
let local_scope_string = get_namespace_string(ctx.scope.clone(), name.val);
let mut local_ctx = AmlExecutionContext::new(String::new());
parse_object_list(&data[2 + pkg_len_len + name.len .. 2 + pkg_len], &mut local_ctx)?;
ctx.namespace.insert(local_scope_string, AmlValue::ThermalZone(local_ctx.namespace.clone()));
Ok(AmlParseType {
val: AmlValue::None,
len: 2 + pkg_len
})
}