1 //===-- ConvertType.cpp ---------------------------------------------------===// 2 // 3 // Part of the LLVM Project, under the Apache License v2.0 with LLVM Exceptions. 4 // See https://llvm.org/LICENSE.txt for license information. 5 // SPDX-License-Identifier: Apache-2.0 WITH LLVM-exception 6 // 7 //===----------------------------------------------------------------------===// 8 9 #include "flang/Lower/ConvertType.h" 10 #include "flang/Lower/AbstractConverter.h" 11 #include "flang/Lower/CallInterface.h" 12 #include "flang/Lower/ConvertVariable.h" 13 #include "flang/Lower/Mangler.h" 14 #include "flang/Lower/PFTBuilder.h" 15 #include "flang/Lower/Support/Utils.h" 16 #include "flang/Optimizer/Builder/Todo.h" 17 #include "flang/Optimizer/Dialect/FIRType.h" 18 #include "flang/Semantics/tools.h" 19 #include "flang/Semantics/type.h" 20 #include "mlir/IR/Builders.h" 21 #include "mlir/IR/BuiltinTypes.h" 22 #include "llvm/Support/Debug.h" 23 24 #define DEBUG_TYPE "flang-lower-type" 25 26 using Fortran::common::VectorElementCategory; 27 28 //===--------------------------------------------------------------------===// 29 // Intrinsic type translation helpers 30 //===--------------------------------------------------------------------===// 31 32 static mlir::Type genRealType(mlir::MLIRContext *context, int kind) { 33 if (Fortran::evaluate::IsValidKindOfIntrinsicType( 34 Fortran::common::TypeCategory::Real, kind)) { 35 switch (kind) { 36 case 2: 37 return mlir::FloatType::getF16(context); 38 case 3: 39 return mlir::FloatType::getBF16(context); 40 case 4: 41 return mlir::FloatType::getF32(context); 42 case 8: 43 return mlir::FloatType::getF64(context); 44 case 10: 45 return mlir::FloatType::getF80(context); 46 case 16: 47 return mlir::FloatType::getF128(context); 48 } 49 } 50 llvm_unreachable("REAL type translation not implemented"); 51 } 52 53 template <int KIND> 54 int getIntegerBits() { 55 return Fortran::evaluate::Type<Fortran::common::TypeCategory::Integer, 56 KIND>::Scalar::bits; 57 } 58 static mlir::Type genIntegerType(mlir::MLIRContext *context, int kind, 59 bool isUnsigned = false) { 60 if (Fortran::evaluate::IsValidKindOfIntrinsicType( 61 Fortran::common::TypeCategory::Integer, kind)) { 62 mlir::IntegerType::SignednessSemantics signedness = 63 (isUnsigned ? mlir::IntegerType::SignednessSemantics::Unsigned 64 : mlir::IntegerType::SignednessSemantics::Signless); 65 66 switch (kind) { 67 case 1: 68 return mlir::IntegerType::get(context, getIntegerBits<1>(), signedness); 69 case 2: 70 return mlir::IntegerType::get(context, getIntegerBits<2>(), signedness); 71 case 4: 72 return mlir::IntegerType::get(context, getIntegerBits<4>(), signedness); 73 case 8: 74 return mlir::IntegerType::get(context, getIntegerBits<8>(), signedness); 75 case 16: 76 return mlir::IntegerType::get(context, getIntegerBits<16>(), signedness); 77 } 78 } 79 llvm_unreachable("INTEGER kind not translated"); 80 } 81 82 static mlir::Type genLogicalType(mlir::MLIRContext *context, int KIND) { 83 if (Fortran::evaluate::IsValidKindOfIntrinsicType( 84 Fortran::common::TypeCategory::Logical, KIND)) 85 return fir::LogicalType::get(context, KIND); 86 return {}; 87 } 88 89 static mlir::Type genCharacterType( 90 mlir::MLIRContext *context, int KIND, 91 Fortran::lower::LenParameterTy len = fir::CharacterType::unknownLen()) { 92 if (Fortran::evaluate::IsValidKindOfIntrinsicType( 93 Fortran::common::TypeCategory::Character, KIND)) 94 return fir::CharacterType::get(context, KIND, len); 95 return {}; 96 } 97 98 static mlir::Type genComplexType(mlir::MLIRContext *context, int KIND) { 99 if (Fortran::evaluate::IsValidKindOfIntrinsicType( 100 Fortran::common::TypeCategory::Complex, KIND)) 101 return fir::ComplexType::get(context, KIND); 102 return {}; 103 } 104 105 static mlir::Type 106 genFIRType(mlir::MLIRContext *context, Fortran::common::TypeCategory tc, 107 int kind, 108 llvm::ArrayRef<Fortran::lower::LenParameterTy> lenParameters) { 109 switch (tc) { 110 case Fortran::common::TypeCategory::Real: 111 return genRealType(context, kind); 112 case Fortran::common::TypeCategory::Integer: 113 return genIntegerType(context, kind); 114 case Fortran::common::TypeCategory::Complex: 115 return genComplexType(context, kind); 116 case Fortran::common::TypeCategory::Logical: 117 return genLogicalType(context, kind); 118 case Fortran::common::TypeCategory::Character: 119 if (!lenParameters.empty()) 120 return genCharacterType(context, kind, lenParameters[0]); 121 return genCharacterType(context, kind); 122 default: 123 break; 124 } 125 llvm_unreachable("unhandled type category"); 126 } 127 128 //===--------------------------------------------------------------------===// 129 // Symbol and expression type translation 130 //===--------------------------------------------------------------------===// 131 132 /// TypeBuilderImpl translates expression and symbol type taking into account 133 /// their shape and length parameters. For symbols, attributes such as 134 /// ALLOCATABLE or POINTER are reflected in the fir type. 135 /// It uses evaluate::DynamicType and evaluate::Shape when possible to 136 /// avoid re-implementing type/shape analysis here. 137 /// Do not use the FirOpBuilder from the AbstractConverter to get fir/mlir types 138 /// since it is not guaranteed to exist yet when we lower types. 139 namespace { 140 struct TypeBuilderImpl { 141 142 TypeBuilderImpl(Fortran::lower::AbstractConverter &converter) 143 : converter{converter}, context{&converter.getMLIRContext()} {} 144 145 template <typename A> 146 mlir::Type genExprType(const A &expr) { 147 std::optional<Fortran::evaluate::DynamicType> dynamicType = expr.GetType(); 148 if (!dynamicType) 149 return genTypelessExprType(expr); 150 Fortran::common::TypeCategory category = dynamicType->category(); 151 152 mlir::Type baseType; 153 bool isPolymorphic = (dynamicType->IsPolymorphic() || 154 dynamicType->IsUnlimitedPolymorphic()) && 155 !dynamicType->IsAssumedType(); 156 if (dynamicType->IsUnlimitedPolymorphic()) { 157 baseType = mlir::NoneType::get(context); 158 } else if (category == Fortran::common::TypeCategory::Derived) { 159 baseType = genDerivedType(dynamicType->GetDerivedTypeSpec()); 160 } else { 161 // LOGICAL, INTEGER, REAL, COMPLEX, CHARACTER 162 llvm::SmallVector<Fortran::lower::LenParameterTy> params; 163 translateLenParameters(params, category, expr); 164 baseType = genFIRType(context, category, dynamicType->kind(), params); 165 } 166 std::optional<Fortran::evaluate::Shape> shapeExpr = 167 Fortran::evaluate::GetShape(converter.getFoldingContext(), expr); 168 fir::SequenceType::Shape shape; 169 if (shapeExpr) { 170 translateShape(shape, std::move(*shapeExpr)); 171 } else { 172 // Shape static analysis cannot return something useful for the shape. 173 // Use unknown extents. 174 int rank = expr.Rank(); 175 if (rank < 0) 176 TODO(converter.getCurrentLocation(), "assumed rank expression types"); 177 for (int dim = 0; dim < rank; ++dim) 178 shape.emplace_back(fir::SequenceType::getUnknownExtent()); 179 } 180 181 if (!shape.empty()) { 182 if (isPolymorphic) 183 return fir::ClassType::get(fir::SequenceType::get(shape, baseType)); 184 return fir::SequenceType::get(shape, baseType); 185 } 186 if (isPolymorphic) 187 return fir::ClassType::get(baseType); 188 return baseType; 189 } 190 191 template <typename A> 192 void translateShape(A &shape, Fortran::evaluate::Shape &&shapeExpr) { 193 for (Fortran::evaluate::MaybeExtentExpr extentExpr : shapeExpr) { 194 fir::SequenceType::Extent extent = fir::SequenceType::getUnknownExtent(); 195 if (std::optional<std::int64_t> constantExtent = 196 toInt64(std::move(extentExpr))) 197 extent = *constantExtent; 198 shape.push_back(extent); 199 } 200 } 201 202 template <typename A> 203 std::optional<std::int64_t> toInt64(A &&expr) { 204 return Fortran::evaluate::ToInt64(Fortran::evaluate::Fold( 205 converter.getFoldingContext(), std::move(expr))); 206 } 207 208 template <typename A> 209 mlir::Type genTypelessExprType(const A &expr) { 210 fir::emitFatalError(converter.getCurrentLocation(), "not a typeless expr"); 211 } 212 213 mlir::Type genTypelessExprType(const Fortran::lower::SomeExpr &expr) { 214 return std::visit( 215 Fortran::common::visitors{ 216 [&](const Fortran::evaluate::BOZLiteralConstant &) -> mlir::Type { 217 return mlir::NoneType::get(context); 218 }, 219 [&](const Fortran::evaluate::NullPointer &) -> mlir::Type { 220 return fir::ReferenceType::get(mlir::NoneType::get(context)); 221 }, 222 [&](const Fortran::evaluate::ProcedureDesignator &proc) 223 -> mlir::Type { 224 return Fortran::lower::translateSignature(proc, converter); 225 }, 226 [&](const Fortran::evaluate::ProcedureRef &) -> mlir::Type { 227 return mlir::NoneType::get(context); 228 }, 229 [](const auto &x) -> mlir::Type { 230 using T = std::decay_t<decltype(x)>; 231 static_assert(!Fortran::common::HasMember< 232 T, Fortran::evaluate::TypelessExpression>, 233 "missing typeless expr handling"); 234 llvm::report_fatal_error("not a typeless expression"); 235 }, 236 }, 237 expr.u); 238 } 239 240 mlir::Type genSymbolType(const Fortran::semantics::Symbol &symbol, 241 bool isAlloc = false, bool isPtr = false) { 242 mlir::Location loc = converter.genLocation(symbol.name()); 243 mlir::Type ty; 244 // If the symbol is not the same as the ultimate one (i.e, it is host or use 245 // associated), all the symbol properties are the ones of the ultimate 246 // symbol but the volatile and asynchronous attributes that may differ. To 247 // avoid issues with helper functions that would not follow association 248 // links, the fir type is built based on the ultimate symbol. This relies 249 // on the fact volatile and asynchronous are not reflected in fir types. 250 const Fortran::semantics::Symbol &ultimate = symbol.GetUltimate(); 251 if (Fortran::semantics::IsProcedurePointer(ultimate)) 252 TODO(loc, "procedure pointers"); 253 if (const Fortran::semantics::DeclTypeSpec *type = ultimate.GetType()) { 254 if (const Fortran::semantics::IntrinsicTypeSpec *tySpec = 255 type->AsIntrinsic()) { 256 int kind = toInt64(Fortran::common::Clone(tySpec->kind())).value(); 257 llvm::SmallVector<Fortran::lower::LenParameterTy> params; 258 translateLenParameters(params, tySpec->category(), ultimate); 259 ty = genFIRType(context, tySpec->category(), kind, params); 260 } else if (type->IsPolymorphic() && 261 !converter.getLoweringOptions().getPolymorphicTypeImpl()) { 262 // TODO is kept under experimental flag until feature is complete. 263 TODO(loc, "support for polymorphic types"); 264 } else if (type->IsUnlimitedPolymorphic()) { 265 ty = mlir::NoneType::get(context); 266 } else if (const Fortran::semantics::DerivedTypeSpec *tySpec = 267 type->AsDerived()) { 268 ty = genDerivedType(*tySpec); 269 } else { 270 fir::emitFatalError(loc, "symbol's type must have a type spec"); 271 } 272 } else { 273 fir::emitFatalError(loc, "symbol must have a type"); 274 } 275 bool isPolymorphic = (Fortran::semantics::IsPolymorphic(symbol) || 276 Fortran::semantics::IsUnlimitedPolymorphic(symbol)) && 277 !Fortran::semantics::IsAssumedType(symbol); 278 if (ultimate.IsObjectArray()) { 279 auto shapeExpr = 280 Fortran::evaluate::GetShape(converter.getFoldingContext(), ultimate); 281 if (!shapeExpr) 282 TODO(loc, "assumed rank symbol type"); 283 fir::SequenceType::Shape shape; 284 translateShape(shape, std::move(*shapeExpr)); 285 ty = fir::SequenceType::get(shape, ty); 286 } 287 if (Fortran::semantics::IsPointer(symbol)) 288 return fir::wrapInClassOrBoxType(fir::PointerType::get(ty), 289 isPolymorphic); 290 if (Fortran::semantics::IsAllocatable(symbol)) 291 return fir::wrapInClassOrBoxType(fir::HeapType::get(ty), isPolymorphic); 292 // isPtr and isAlloc are variable that were promoted to be on the 293 // heap or to be pointers, but they do not have Fortran allocatable 294 // or pointer semantics, so do not use box for them. 295 if (isPtr) 296 return fir::PointerType::get(ty); 297 if (isAlloc) 298 return fir::HeapType::get(ty); 299 if (isPolymorphic) 300 return fir::ClassType::get(ty); 301 return ty; 302 } 303 304 /// Does \p component has non deferred lower bounds that are not compile time 305 /// constant 1. 306 static bool componentHasNonDefaultLowerBounds( 307 const Fortran::semantics::Symbol &component) { 308 if (const auto *objDetails = 309 component.detailsIf<Fortran::semantics::ObjectEntityDetails>()) 310 for (const Fortran::semantics::ShapeSpec &bounds : objDetails->shape()) 311 if (auto lb = bounds.lbound().GetExplicit()) 312 if (auto constant = Fortran::evaluate::ToInt64(*lb)) 313 if (!constant || *constant != 1) 314 return true; 315 return false; 316 } 317 318 mlir::Type genVectorType(const Fortran::semantics::DerivedTypeSpec &tySpec) { 319 assert(tySpec.scope() && "Missing scope for Vector type"); 320 auto vectorSize{tySpec.scope()->size()}; 321 switch (tySpec.category()) { 322 SWITCH_COVERS_ALL_CASES 323 case (Fortran::semantics::DerivedTypeSpec::Category::IntrinsicVector): { 324 int64_t vecElemKind; 325 int64_t vecElemCategory; 326 327 for (const auto &pair : tySpec.parameters()) { 328 if (pair.first == "element_category") { 329 vecElemCategory = 330 Fortran::evaluate::ToInt64(pair.second.GetExplicit()) 331 .value_or(-1); 332 } else if (pair.first == "element_kind") { 333 vecElemKind = 334 Fortran::evaluate::ToInt64(pair.second.GetExplicit()).value_or(0); 335 } 336 } 337 338 assert((vecElemCategory >= 0 && 339 static_cast<size_t>(vecElemCategory) < 340 Fortran::common::VectorElementCategory_enumSize) && 341 "Vector element type is not specified"); 342 assert(vecElemKind && "Vector element kind is not specified"); 343 344 int64_t numOfElements = vectorSize / vecElemKind; 345 switch (static_cast<VectorElementCategory>(vecElemCategory)) { 346 SWITCH_COVERS_ALL_CASES 347 case VectorElementCategory::Integer: 348 return fir::VectorType::get(numOfElements, 349 genIntegerType(context, vecElemKind)); 350 case VectorElementCategory::Unsigned: 351 return fir::VectorType::get(numOfElements, 352 genIntegerType(context, vecElemKind, true)); 353 case VectorElementCategory::Real: 354 return fir::VectorType::get(numOfElements, 355 genRealType(context, vecElemKind)); 356 } 357 break; 358 } 359 case (Fortran::semantics::DerivedTypeSpec::Category::PairVector): 360 case (Fortran::semantics::DerivedTypeSpec::Category::QuadVector): 361 return fir::VectorType::get(vectorSize * 8, 362 mlir::IntegerType::get(context, 1)); 363 case (Fortran::semantics::DerivedTypeSpec::Category::DerivedType): 364 Fortran::common::die("Vector element type not implemented"); 365 } 366 } 367 368 mlir::Type genDerivedType(const Fortran::semantics::DerivedTypeSpec &tySpec) { 369 std::vector<std::pair<std::string, mlir::Type>> ps; 370 std::vector<std::pair<std::string, mlir::Type>> cs; 371 const Fortran::semantics::Symbol &typeSymbol = tySpec.typeSymbol(); 372 if (mlir::Type ty = getTypeIfDerivedAlreadyInConstruction(typeSymbol)) 373 return ty; 374 375 if (tySpec.IsVectorType()) { 376 return genVectorType(tySpec); 377 } 378 379 auto rec = fir::RecordType::get(context, converter.mangleName(tySpec)); 380 // Maintain the stack of types for recursive references. 381 derivedTypeInConstruction.emplace_back(typeSymbol, rec); 382 383 // Gather the record type fields. 384 // (1) The data components. 385 for (const auto &component : 386 Fortran::semantics::OrderedComponentIterator(tySpec)) { 387 // Lowering is assuming non deferred component lower bounds are always 1. 388 // Catch any situations where this is not true for now. 389 if (!converter.getLoweringOptions().getLowerToHighLevelFIR() && 390 componentHasNonDefaultLowerBounds(component)) 391 TODO(converter.genLocation(component.name()), 392 "derived type components with non default lower bounds"); 393 if (IsProcedure(component)) 394 TODO(converter.genLocation(component.name()), "procedure components"); 395 mlir::Type ty = genSymbolType(component); 396 // Do not add the parent component (component of the parents are 397 // added and should be sufficient, the parent component would 398 // duplicate the fields). Note that genSymbolType must be called above on 399 // it so that the dispatch table for the parent type still gets emitted 400 // as needed. 401 if (component.test(Fortran::semantics::Symbol::Flag::ParentComp)) 402 continue; 403 cs.emplace_back(converter.getRecordTypeFieldName(component), ty); 404 } 405 406 // (2) The LEN type parameters. 407 for (const auto ¶m : 408 Fortran::semantics::OrderParameterDeclarations(typeSymbol)) 409 if (param->get<Fortran::semantics::TypeParamDetails>().attr() == 410 Fortran::common::TypeParamAttr::Len) 411 ps.emplace_back(param->name().ToString(), genSymbolType(*param)); 412 413 rec.finalize(ps, cs); 414 popDerivedTypeInConstruction(); 415 416 mlir::Location loc = converter.genLocation(typeSymbol.name()); 417 if (!ps.empty()) { 418 // This type is a PDT (parametric derived type). Create the functions to 419 // use for allocation, dereferencing, and address arithmetic here. 420 TODO(loc, "parameterized derived types"); 421 } 422 LLVM_DEBUG(llvm::dbgs() << "derived type: " << rec << '\n'); 423 424 converter.registerDispatchTableInfo(loc, &tySpec); 425 426 // Generate the type descriptor object if any 427 if (const Fortran::semantics::Scope *derivedScope = 428 tySpec.scope() ? tySpec.scope() : tySpec.typeSymbol().scope()) 429 if (const Fortran::semantics::Symbol *typeInfoSym = 430 derivedScope->runtimeDerivedTypeDescription()) 431 converter.registerRuntimeTypeInfo(loc, *typeInfoSym); 432 return rec; 433 } 434 435 // To get the character length from a symbol, make an fold a designator for 436 // the symbol to cover the case where the symbol is an assumed length named 437 // constant and its length comes from its init expression length. 438 template <int Kind> 439 fir::SequenceType::Extent 440 getCharacterLengthHelper(const Fortran::semantics::Symbol &symbol) { 441 using TC = 442 Fortran::evaluate::Type<Fortran::common::TypeCategory::Character, Kind>; 443 auto designator = Fortran::evaluate::Fold( 444 converter.getFoldingContext(), 445 Fortran::evaluate::Expr<TC>{Fortran::evaluate::Designator<TC>{symbol}}); 446 if (auto len = toInt64(std::move(designator.LEN()))) 447 return *len; 448 return fir::SequenceType::getUnknownExtent(); 449 } 450 451 template <typename T> 452 void translateLenParameters( 453 llvm::SmallVectorImpl<Fortran::lower::LenParameterTy> ¶ms, 454 Fortran::common::TypeCategory category, const T &exprOrSym) { 455 if (category == Fortran::common::TypeCategory::Character) 456 params.push_back(getCharacterLength(exprOrSym)); 457 else if (category == Fortran::common::TypeCategory::Derived) 458 TODO(converter.getCurrentLocation(), "derived type length parameters"); 459 } 460 Fortran::lower::LenParameterTy 461 getCharacterLength(const Fortran::semantics::Symbol &symbol) { 462 const Fortran::semantics::DeclTypeSpec *type = symbol.GetType(); 463 if (!type || 464 type->category() != Fortran::semantics::DeclTypeSpec::Character || 465 !type->AsIntrinsic()) 466 llvm::report_fatal_error("not a character symbol"); 467 int kind = 468 toInt64(Fortran::common::Clone(type->AsIntrinsic()->kind())).value(); 469 switch (kind) { 470 case 1: 471 return getCharacterLengthHelper<1>(symbol); 472 case 2: 473 return getCharacterLengthHelper<2>(symbol); 474 case 4: 475 return getCharacterLengthHelper<4>(symbol); 476 } 477 llvm_unreachable("unknown character kind"); 478 } 479 480 template <typename A> 481 Fortran::lower::LenParameterTy getCharacterLength(const A &expr) { 482 return fir::SequenceType::getUnknownExtent(); 483 } 484 485 template <typename T> 486 Fortran::lower::LenParameterTy 487 getCharacterLength(const Fortran::evaluate::FunctionRef<T> &funcRef) { 488 if (auto constantLen = toInt64(funcRef.LEN())) 489 return *constantLen; 490 return fir::SequenceType::getUnknownExtent(); 491 } 492 493 Fortran::lower::LenParameterTy 494 getCharacterLength(const Fortran::lower::SomeExpr &expr) { 495 // Do not use dynamic type length here. We would miss constant 496 // lengths opportunities because dynamic type only has the length 497 // if it comes from a declaration. 498 if (const auto *charExpr = std::get_if< 499 Fortran::evaluate::Expr<Fortran::evaluate::SomeCharacter>>( 500 &expr.u)) { 501 if (auto constantLen = toInt64(charExpr->LEN())) 502 return *constantLen; 503 } else if (auto dynamicType = expr.GetType()) { 504 // When generating derived type type descriptor as structure constructor, 505 // semantics wraps designators to data component initialization into 506 // CLASS(*), regardless of their actual type. 507 // GetType() will recover the actual symbol type as the dynamic type, so 508 // getCharacterLength may be reached even if expr is packaged as an 509 // Expr<SomeDerived> instead of an Expr<SomeChar>. 510 // Just use the dynamic type here again to retrieve the length. 511 if (auto constantLen = toInt64(dynamicType->GetCharLength())) 512 return *constantLen; 513 } 514 return fir::SequenceType::getUnknownExtent(); 515 } 516 517 mlir::Type genVariableType(const Fortran::lower::pft::Variable &var) { 518 return genSymbolType(var.getSymbol(), var.isHeapAlloc(), var.isPointer()); 519 } 520 521 /// Derived type can be recursive. That is, pointer components of a derived 522 /// type `t` have type `t`. This helper returns `t` if it is already being 523 /// lowered to avoid infinite loops. 524 mlir::Type getTypeIfDerivedAlreadyInConstruction( 525 const Fortran::lower::SymbolRef derivedSym) const { 526 for (const auto &[sym, type] : derivedTypeInConstruction) 527 if (sym == derivedSym) 528 return type; 529 return {}; 530 } 531 532 void popDerivedTypeInConstruction() { 533 assert(!derivedTypeInConstruction.empty()); 534 derivedTypeInConstruction.pop_back(); 535 } 536 537 /// Stack derived type being processed to avoid infinite loops in case of 538 /// recursive derived types. The depth of derived types is expected to be 539 /// shallow (<10), so a SmallVector is sufficient. 540 llvm::SmallVector<std::pair<const Fortran::lower::SymbolRef, mlir::Type>> 541 derivedTypeInConstruction; 542 Fortran::lower::AbstractConverter &converter; 543 mlir::MLIRContext *context; 544 }; 545 } // namespace 546 547 mlir::Type Fortran::lower::getFIRType(mlir::MLIRContext *context, 548 Fortran::common::TypeCategory tc, 549 int kind, 550 llvm::ArrayRef<LenParameterTy> params) { 551 return genFIRType(context, tc, kind, params); 552 } 553 554 mlir::Type Fortran::lower::translateDerivedTypeToFIRType( 555 Fortran::lower::AbstractConverter &converter, 556 const Fortran::semantics::DerivedTypeSpec &tySpec) { 557 return TypeBuilderImpl{converter}.genDerivedType(tySpec); 558 } 559 560 mlir::Type Fortran::lower::translateSomeExprToFIRType( 561 Fortran::lower::AbstractConverter &converter, const SomeExpr &expr) { 562 return TypeBuilderImpl{converter}.genExprType(expr); 563 } 564 565 mlir::Type Fortran::lower::translateSymbolToFIRType( 566 Fortran::lower::AbstractConverter &converter, const SymbolRef symbol) { 567 return TypeBuilderImpl{converter}.genSymbolType(symbol); 568 } 569 570 mlir::Type Fortran::lower::translateVariableToFIRType( 571 Fortran::lower::AbstractConverter &converter, 572 const Fortran::lower::pft::Variable &var) { 573 return TypeBuilderImpl{converter}.genVariableType(var); 574 } 575 576 mlir::Type Fortran::lower::convertReal(mlir::MLIRContext *context, int kind) { 577 return genRealType(context, kind); 578 } 579 580 bool Fortran::lower::isDerivedTypeWithLenParameters( 581 const Fortran::semantics::Symbol &sym) { 582 if (const Fortran::semantics::DeclTypeSpec *declTy = sym.GetType()) 583 if (const Fortran::semantics::DerivedTypeSpec *derived = 584 declTy->AsDerived()) 585 return Fortran::semantics::CountLenParameters(*derived) > 0; 586 return false; 587 } 588 589 template <typename T> 590 mlir::Type Fortran::lower::TypeBuilder<T>::genType( 591 Fortran::lower::AbstractConverter &converter, 592 const Fortran::evaluate::FunctionRef<T> &funcRef) { 593 return TypeBuilderImpl{converter}.genExprType(funcRef); 594 } 595 596 using namespace Fortran::evaluate; 597 using namespace Fortran::common; 598 FOR_EACH_SPECIFIC_TYPE(template class Fortran::lower::TypeBuilder, ) 599