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mac(9) -- TrustedBSD Mandatory Access Control framework
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Introduction The TrustedBSD mandatory access control framework permits dynamically introduced system security modules to modify system security functionality. This can be used to support a variety of ... |
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major(9) -- calculate device ids
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The device_ids family of functions take either the raw device ID, id, or a pointer to the device structure, dev, and return the integer value that is the major or minor device ID as requested. The act... |
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make_dev(9) -- manage dev_t's and DEVFS registration for devices
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The make_dev() function creates a dev_t structure for a new device. If DEVFS is available, it is also notified of the presence of the new device. The device will be owned by uid, with the group owners... |
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make_dev_alias(9) -- manage dev_t's and DEVFS registration for devices
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The make_dev() function creates a dev_t structure for a new device. If DEVFS is available, it is also notified of the presence of the new device. The device will be owned by uid, with the group owners... |
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malloc(9) -- kernel memory management routines
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The malloc() function allocates uninitialized memory in kernel address space for an object whose size is specified by size. The free() function releases memory at address addr that was previously allo... |
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MALLOC(9) -- kernel memory management routines
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The malloc() function allocates uninitialized memory in kernel address space for an object whose size is specified by size. The free() function releases memory at address addr that was previously allo... |
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maybe_resched(9) -- perform round-robin scheduling of runnable processes
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Each process has three different priorities stored in struct proc: p_usrpri, p_nativepri, and p_priority. The p_usrpri member is the user priority of the process calculated from a process' estimated ... |
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mbchain(9) -- set of functions to build an mbuf chain from various data types
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These functions are used to compose mbuf chains from various data types. The mbchain structure is used as a working context and should be initialized with a call to either mb_init() or mb_initm(). It ... |
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mbpool(9) -- Buffer pools for network interfaces
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Mbuf pools are intented to help drivers for interface cards that need huge amounts of receive buffers and additionally provides a mapping between these buffers and 32-bit handles. An example of these ... |
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mbp_alloc(9) -- Buffer pools for network interfaces
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Mbuf pools are intented to help drivers for interface cards that need huge amounts of receive buffers and additionally provides a mapping between these buffers and 32-bit handles. An example of these ... |
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mbp_card_free(9) -- Buffer pools for network interfaces
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Mbuf pools are intented to help drivers for interface cards that need huge amounts of receive buffers and additionally provides a mapping between these buffers and 32-bit handles. An example of these ... |
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mbp_count(9) -- Buffer pools for network interfaces
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Mbuf pools are intented to help drivers for interface cards that need huge amounts of receive buffers and additionally provides a mapping between these buffers and 32-bit handles. An example of these ... |
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mbp_create(9) -- Buffer pools for network interfaces
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Mbuf pools are intented to help drivers for interface cards that need huge amounts of receive buffers and additionally provides a mapping between these buffers and 32-bit handles. An example of these ... |
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mbp_destroy(9) -- Buffer pools for network interfaces
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Mbuf pools are intented to help drivers for interface cards that need huge amounts of receive buffers and additionally provides a mapping between these buffers and 32-bit handles. An example of these ... |
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mbp_ext_free(9) -- Buffer pools for network interfaces
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Mbuf pools are intented to help drivers for interface cards that need huge amounts of receive buffers and additionally provides a mapping between these buffers and 32-bit handles. An example of these ... |
