摘要:
Dynamically replicated memory is usable to allocate new memory space from failed memory pages by pairing compatible failed memory pages to reuse otherwise unusable failed memory pages. Dynamically replicating memory involves detecting and recording memory faults, reclaiming failed memory pages for later use, recovering from detected memory faults, and scheduling access to replicated memory pages.
摘要:
Dynamically replicated memory is usable to allocate new memory space from failed memory pages by pairing compatible failed memory pages to reuse otherwise unusable failed memory pages. Dynamically replicating memory involves detecting and recording memory faults, reclaiming failed memory pages for later use, recovering from detected memory faults, and scheduling access to replicated memory pages.
摘要:
Dynamically replicated memory is usable to allocate new memory space from failed memory pages by pairing compatible failed memory pages to reuse otherwise unusable failed memory pages. Dynamically replicating memory involves detecting and recording memory faults, reclaiming failed memory pages for later use, recovering from detected memory faults, and scheduling access to replicated memory pages.
摘要:
Dynamically replicated memory is usable to allocate new memory space from failed memory pages by pairing compatible failed memory pages to reuse otherwise unusable failed memory pages. Dynamically replicating memory involves detecting and recording memory faults, reclaiming failed memory pages for later use, recovering from detected memory faults, and scheduling access to replicated memory pages.
摘要:
Implementations of a file system that is supported by a non-volatile memory that is directly connected to a memory bus, and placed side by side with a dynamic random access memory (DRAM), are described.
摘要:
Implementations of a file system that is supported by a non-volatile memory that is directly connected to a memory bus, and placed side by side with a dynamic random access memory (DRAM), are described.
摘要:
Implementations of a file system that is supported by a non-volatile memory that is directly connected to a memory bus, and placed side by side with a dynamic random access memory (DRAM), are described.
摘要:
Implementations of a file system that is supported by a non-volatile memory that is directly connected to a memory bus, and placed side by side with a dynamic random access memory (DRAM), are described.
摘要:
This document describes a unified type checker and property checker for a low level program's heap and its types. The type checker can use the full power of the property checker to express and verify subtle, program specific type and memory safety invariants well beyond what the native low level program system can check. Meanwhile, the property checker can rely on the type checker to provide structure and disambiguation for the program's heap, enabling more concise and more powerful type-based specifications. This approach makes use of a fully automated Satisfiability Modulo Theories (SMT) solver and a decision procedure for checking type safety, which means that the programmer's only duty is to provide high-level type and property annotations as part of the original program's source.
摘要:
This document describes a unified type checker and property checker for a low level program's heap and its types. The type checker can use the full power of the property checker to express and verify subtle, program specific type and memory safety invariants well beyond what the native low level program system can check. Meanwhile, the property checker can rely on the type checker to provide structure and disambiguation for the program's heap, enabling more concise and more powerful type-based specifications. This approach makes use of a fully automated Satisfiability Modulo Theories (SMT) solver and a decision procedure for checking type safety, which means that the programmer's only duty is to provide high-level type and property annotations as part of the original program's source.