| The results 1 to 5 from 5 | | |
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| | BITS     |
| | The Component Based Operating System: based on describing system resources as independent components, lets applications implement their own abstractions, define their own protection schemes, participate in resource management.
http://www.soi.city.ac.uk/~patty/bits.html |
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| | A Caching Model of Operating System Kernel Functionality |
| | Stanford Cache Kernel, supervisor-mode component of V++ OS; caches system objects (threads, address spaces) to raise performance; microkernel alternative, performance equals normal monolithic OSs, yet gives application-level control of system resources, more modularity, scalability, smaller size, means of fault containment.
http://www-dsg.stanford.edu/papers/cachekernel/main.html |
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| | Extensible Operating Systems |
| | Brief description, and on-site links to descriptions of Choices, Exokernel, GLUnix, VINO, SPIN.
http://www.cs.unm.edu/~riesen/prop/node26.html |
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| | SPIN |
| | Dynamically extensible, Exokernel-based, provides many core services: scheduler, kernel threads, domains, event dispatcher, security mechanisms, primitive VM operations. Blurs distinction between kernels and applications, which traditionally live in user-level address spaces, separated from kernel resources and services by an expensive protection boundary. Lets applications specialize the kernel by dynamically linking new code into running systems.
http://www.cs.washington.edu/research/projects/spin/www/ |
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| | Using Kernel Extensions to Decrease the Latency of User-Level Communication Primitives |
| | Suggests solving networking and distributed systems latency via operating system extensibility; University of New Mexico Technical Report.
http://www.cs.unm.edu/~riesen/prop/ |
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