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// Copyright 2022 The Go Authors. All rights reserved. // Use of this source code is governed by a BSD-style // license that can be found in the LICENSE file. package runtime import "unsafe" // OS memory management abstraction layer // // Regions of the address space managed by the runtime may be in one of four // states at any given time: // 1) None - Unreserved and unmapped, the default state of any region. // 2) Reserved - Owned by the runtime, but accessing it would cause a fault. // Does not count against the process' memory footprint. // 3) Prepared - Reserved, intended not to be backed by physical memory (though // an OS may implement this lazily). Can transition efficiently to // Ready. Accessing memory in such a region is undefined (may // fault, may give back unexpected zeroes, etc.). // 4) Ready - may be accessed safely. // // This set of states is more than is strictly necessary to support all the // currently supported platforms. One could get by with just None, Reserved, and // Ready. However, the Prepared state gives us flexibility for performance // purposes. For example, on POSIX-y operating systems, Reserved is usually a // private anonymous mmap'd region with PROT_NONE set, and to transition // to Ready would require setting PROT_READ|PROT_WRITE. However the // underspecification of Prepared lets us use just MADV_FREE to transition from // Ready to Prepared. Thus with the Prepared state we can set the permission // bits just once early on, we can efficiently tell the OS that it's free to // take pages away from us when we don't strictly need them. // // This file defines a cross-OS interface for a common set of helpers // that transition memory regions between these states. The helpers call into // OS-specific implementations that handle errors, while the interface boundary // implements cross-OS functionality, like updating runtime accounting. // sysAlloc transitions an OS-chosen region of memory from None to Ready. // More specifically, it obtains a large chunk of zeroed memory from the // operating system, typically on the order of a hundred kilobytes // or a megabyte. This memory is always immediately available for use. // // sysStat must be non-nil. // // Don't split the stack as this function may be invoked without a valid G, // which prevents us from allocating more stack. // //go:nosplit func sysAlloc(n uintptr, sysStat *sysMemStat) unsafe.Pointer { sysStat.add(int64(n)) gcController.mappedReady.Add(int64(n)) return sysAllocOS(n) } // sysUnused transitions a memory region from Ready to Prepared. It notifies the // operating system that the physical pages backing this memory region are no // longer needed and can be reused for other purposes. The contents of a // sysUnused memory region are considered forfeit and the region must not be // accessed again until sysUsed is called. func sysUnused(v unsafe.Pointer, n uintptr) { gcController.mappedReady.Add(-int64(n)) sysUnusedOS(v, n) } // sysUsed transitions a memory region from Prepared to Ready. It notifies the // operating system that the memory region is needed and ensures that the region // may be safely accessed. This is typically a no-op on systems that don't have // an explicit commit step and hard over-commit limits, but is critical on // Windows, for example. // // This operation is idempotent for memory already in the Prepared state, so // it is safe to refer, with v and n, to a range of memory that includes both // Prepared and Ready memory. However, the caller must provide the exact amount // of Prepared memory for accounting purposes. func sysUsed(v unsafe.Pointer, n, prepared uintptr) { gcController.mappedReady.Add(int64(prepared)) sysUsedOS(v, n) } // sysHugePage does not transition memory regions, but instead provides a // hint to the OS that it would be more efficient to back this memory region // with pages of a larger size transparently. func sysHugePage(v unsafe.Pointer, n uintptr) { sysHugePageOS(v, n) } // sysNoHugePage does not transition memory regions, but instead provides a // hint to the OS that it would be less efficient to back this memory region // with pages of a larger size transparently. func sysNoHugePage(v unsafe.Pointer, n uintptr) { sysNoHugePageOS(v, n) } // sysHugePageCollapse attempts to immediately back the provided memory region // with huge pages. It is best-effort and may fail silently. func sysHugePageCollapse(v unsafe.Pointer, n uintptr) { sysHugePageCollapseOS(v, n) } // sysFree transitions a memory region from any state to None. Therefore, it // returns memory unconditionally. It is used if an out-of-memory error has been // detected midway through an allocation or to carve out an aligned section of // the address space. It is okay if sysFree is a no-op only if sysReserve always // returns a memory region aligned to the heap allocator's alignment // restrictions. // // sysStat must be non-nil. // // Don't split the stack as this function may be invoked without a valid G, // which prevents us from allocating more stack. // //go:nosplit func sysFree(v unsafe.Pointer, n uintptr, sysStat *sysMemStat) { sysStat.add(-int64(n)) gcController.mappedReady.Add(-int64(n)) sysFreeOS(v, n) } // sysFault transitions a memory region from Ready to Reserved. It // marks a region such that it will always fault if accessed. Used only for // debugging the runtime. // // TODO(mknyszek): Currently it's true that all uses of sysFault transition // memory from Ready to Reserved, but this may not be true in the future // since on every platform the operation is much more general than that. // If a transition from Prepared is ever introduced, create a new function // that elides the Ready state accounting. func sysFault(v unsafe.Pointer, n uintptr) { gcController.mappedReady.Add(-int64(n)) sysFaultOS(v, n) } // sysReserve transitions a memory region from None to Reserved. It reserves // address space in such a way that it would cause a fatal fault upon access // (either via permissions or not committing the memory). Such a reservation is // thus never backed by physical memory. // // If the pointer passed to it is non-nil, the caller wants the // reservation there, but sysReserve can still choose another // location if that one is unavailable. // // NOTE: sysReserve returns OS-aligned memory, but the heap allocator // may use larger alignment, so the caller must be careful to realign the // memory obtained by sysReserve. func sysReserve(v unsafe.Pointer, n uintptr) unsafe.Pointer { return sysReserveOS(v, n) } // sysMap transitions a memory region from Reserved to Prepared. It ensures the // memory region can be efficiently transitioned to Ready. // // sysStat must be non-nil. func sysMap(v unsafe.Pointer, n uintptr, sysStat *sysMemStat) { sysStat.add(int64(n)) sysMapOS(v, n) }