for (auto &dev : all_devs) {
const auto has_binary = [&](const program &prog) {
- return !prog.build(dev).binary.secs.empty();
+ const auto t = prog.build(dev).binary_type();
+ return t == CL_PROGRAM_BINARY_TYPE_COMPILED_OBJECT ||
+ t == CL_PROGRAM_BINARY_TYPE_LIBRARY;
};
// According to the CL 1.2 spec, when "all programs specified [..]
buf.as_string() = prog.build(dev).log;
break;
+ case CL_PROGRAM_BINARY_TYPE:
+ buf.as_scalar<cl_program_binary_type>() = prog.build(dev).binary_type();
+ break;
+
default:
throw error(CL_INVALID_VALUE);
}
// Bind kernel arguments.
auto &m = kern.program().build(q->device()).binary;
auto margs = find(name_equals(kern.name()), m.syms).args;
- auto msec = find(type_equals(module::section::text), m.secs);
+ auto msec = find(type_equals(module::section::text_executable), m.secs);
auto explicit_arg = kern._args.begin();
for (auto &marg : margs) {
struct section {
enum type {
- text,
+ text_intermediate,
+ text_library,
+ text_executable,
data_constant,
data_global,
data_local,
section(resource_id id, enum type type, size_t size,
const std::vector<char> &data) :
id(id), type(type), size(size), data(data) { }
- section() : id(0), type(text), size(0), data() { }
+ section() : id(0), type(text_intermediate), size(0), data() { }
resource_id id;
type type;
return CL_BUILD_NONE;
}
+cl_program_binary_type
+program::build::binary_type() const {
+ if (any_of(type_equals(module::section::text_intermediate), binary.secs))
+ return CL_PROGRAM_BINARY_TYPE_COMPILED_OBJECT;
+ else if (any_of(type_equals(module::section::text_library), binary.secs))
+ return CL_PROGRAM_BINARY_TYPE_LIBRARY;
+ else if (any_of(type_equals(module::section::text_executable), binary.secs))
+ return CL_PROGRAM_BINARY_TYPE_EXECUTABLE;
+ else
+ return CL_PROGRAM_BINARY_TYPE_NONE;
+}
+
const struct program::build &
program::build(const device &dev) const {
static const struct build null;
const std::string &log = {}) : binary(m), opts(opts), log(log) {}
cl_build_status status() const;
+ cl_program_binary_type binary_type() const;
module binary;
std::string opts;
print_module_bitcode(const ::llvm::Module &mod);
module
- build_module_library(const ::llvm::Module &mod);
+ build_module_library(const ::llvm::Module &mod,
+ enum module::section::type section_type);
std::unique_ptr<::llvm::Module>
parse_module_library(const module &m, ::llvm::LLVMContext &ctx,
}
module
-clover::llvm::build_module_library(const ::llvm::Module &mod) {
+clover::llvm::build_module_library(const ::llvm::Module &mod,
+ enum module::section::type section_type) {
module m;
const auto code = emit_code(mod);
- m.secs.emplace_back(0, module::section::text, code.size(), code);
+ m.secs.emplace_back(0, section_type, code.size(), code);
return m;
}
module::section
make_text_section(const std::vector<char> &code) {
const pipe_llvm_program_header header { uint32_t(code.size()) };
- module::section text { 0, module::section::text, header.num_bytes, {} };
+ module::section text { 0, module::section::text_executable,
+ header.num_bytes, {} };
text.data.insert(text.data.end(), reinterpret_cast<const char *>(&header),
reinterpret_cast<const char *>(&header) + sizeof(header));
if (has_flag(debug::llvm))
debug::log(".ll", print_module_bitcode(*mod));
- return build_module_library(*mod);
+ return build_module_library(*mod, module::section::text_intermediate);
}
namespace {
debug::log(".ll", print_module_bitcode(*mod));
if (create_library) {
- return build_module_library(*mod);
+ return build_module_library(*mod, module::section::text_library);
} else if (ir == PIPE_SHADER_IR_LLVM) {
return build_module_bitcode(*mod, *c);
unsigned sz = tgsi_num_tokens(prog) * sizeof(tgsi_token);
std::vector<char> data( (char *)prog, (char *)prog + sz );
- m.secs.push_back({ 0, module::section::text, sz, data });
+ m.secs.push_back({ 0, module::section::text_executable, sz, data });
}
}