Systemd/src/basic/missing.h

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#pragma once
2010-01-30 02:48:05 +01:00
/***
This file is part of systemd.
Copyright 2010 Lennart Poettering
systemd is free software; you can redistribute it and/or modify it
under the terms of the GNU Lesser General Public License as published by
the Free Software Foundation; either version 2.1 of the License, or
(at your option) any later version.
systemd is distributed in the hope that it will be useful, but
WITHOUT ANY WARRANTY; without even the implied warranty of
MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
Lesser General Public License for more details.
You should have received a copy of the GNU Lesser General Public License
along with systemd; If not, see <http://www.gnu.org/licenses/>.
***/
2010-01-30 02:48:05 +01:00
/* Missing glibc definitions to access certain kernel APIs */
#include <errno.h>
#include <fcntl.h>
#include <inttypes.h>
#include <linux/audit.h>
#include <linux/capability.h>
#include <linux/if_link.h>
#include <linux/input.h>
#include <linux/loop.h>
#include <linux/neighbour.h>
#include <linux/oom.h>
#include <linux/rtnetlink.h>
#include <net/ethernet.h>
#include <stdlib.h>
#include <sys/resource.h>
#include <sys/socket.h>
#include <sys/syscall.h>
#include <uchar.h>
#include <unistd.h>
#if HAVE_AUDIT
#include <libaudit.h>
#endif
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#ifdef ARCH_MIPS
#include <asm/sgidefs.h>
#endif
#if HAVE_LINUX_BTRFS_H
#include <linux/btrfs.h>
#endif
#if HAVE_LINUX_VM_SOCKETS_H
#include <linux/vm_sockets.h>
#else
#define VMADDR_CID_ANY -1U
struct sockaddr_vm {
unsigned short svm_family;
unsigned short svm_reserved1;
unsigned int svm_port;
unsigned int svm_cid;
unsigned char svm_zero[sizeof(struct sockaddr) -
sizeof(unsigned short) -
sizeof(unsigned short) -
sizeof(unsigned int) -
sizeof(unsigned int)];
};
#endif /* !HAVE_LINUX_VM_SOCKETS_H */
2010-01-30 02:48:05 +01:00
#ifndef RLIMIT_RTTIME
#define RLIMIT_RTTIME 15
#endif
/* If RLIMIT_RTTIME is not defined, then we cannot use RLIMIT_NLIMITS as is */
#define _RLIMIT_MAX (RLIMIT_RTTIME+1 > RLIMIT_NLIMITS ? RLIMIT_RTTIME+1 : RLIMIT_NLIMITS)
#ifndef F_LINUX_SPECIFIC_BASE
#define F_LINUX_SPECIFIC_BASE 1024
#endif
#ifndef F_SETPIPE_SZ
#define F_SETPIPE_SZ (F_LINUX_SPECIFIC_BASE + 7)
#endif
#ifndef F_GETPIPE_SZ
#define F_GETPIPE_SZ (F_LINUX_SPECIFIC_BASE + 8)
#endif
#ifndef F_ADD_SEALS
#define F_ADD_SEALS (F_LINUX_SPECIFIC_BASE + 9)
#define F_GET_SEALS (F_LINUX_SPECIFIC_BASE + 10)
#define F_SEAL_SEAL 0x0001 /* prevent further seals from being set */
#define F_SEAL_SHRINK 0x0002 /* prevent file from shrinking */
#define F_SEAL_GROW 0x0004 /* prevent file from growing */
#define F_SEAL_WRITE 0x0008 /* prevent writes */
#endif
2015-01-15 22:25:00 +01:00
#ifndef F_OFD_GETLK
#define F_OFD_GETLK 36
#define F_OFD_SETLK 37
#define F_OFD_SETLKW 38
#endif
#ifndef MFD_ALLOW_SEALING
#define MFD_ALLOW_SEALING 0x0002U
#endif
#ifndef MFD_CLOEXEC
#define MFD_CLOEXEC 0x0001U
#endif
#ifndef IP_FREEBIND
#define IP_FREEBIND 15
#endif
#ifndef OOM_SCORE_ADJ_MIN
#define OOM_SCORE_ADJ_MIN (-1000)
#endif
#ifndef OOM_SCORE_ADJ_MAX
#define OOM_SCORE_ADJ_MAX 1000
#endif
#ifndef AUDIT_SERVICE_START
#define AUDIT_SERVICE_START 1130 /* Service (daemon) start */
#endif
#ifndef AUDIT_SERVICE_STOP
#define AUDIT_SERVICE_STOP 1131 /* Service (daemon) stop */
#endif
#ifndef TIOCVHANGUP
#define TIOCVHANGUP 0x5437
#endif
2011-05-20 13:37:04 +02:00
#ifndef IP_TRANSPARENT
#define IP_TRANSPARENT 19
#endif
#ifndef SOL_NETLINK
#define SOL_NETLINK 270
#endif
#ifndef NETLINK_LIST_MEMBERSHIPS
#define NETLINK_LIST_MEMBERSHIPS 9
#endif
#ifndef SOL_SCTP
#define SOL_SCTP 132
#endif
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#ifndef GRND_NONBLOCK
#define GRND_NONBLOCK 0x0001
#endif
#ifndef GRND_RANDOM
#define GRND_RANDOM 0x0002
#endif
#ifndef FS_NOCOW_FL
#define FS_NOCOW_FL 0x00800000
#endif
#ifndef BTRFS_IOCTL_MAGIC
#define BTRFS_IOCTL_MAGIC 0x94
#endif
#ifndef BTRFS_PATH_NAME_MAX
#define BTRFS_PATH_NAME_MAX 4087
#endif
#ifndef BTRFS_DEVICE_PATH_NAME_MAX
#define BTRFS_DEVICE_PATH_NAME_MAX 1024
#endif
#ifndef BTRFS_FSID_SIZE
#define BTRFS_FSID_SIZE 16
#endif
#ifndef BTRFS_UUID_SIZE
#define BTRFS_UUID_SIZE 16
#endif
#ifndef BTRFS_SUBVOL_RDONLY
#define BTRFS_SUBVOL_RDONLY (1ULL << 1)
#endif
#ifndef BTRFS_SUBVOL_NAME_MAX
#define BTRFS_SUBVOL_NAME_MAX 4039
#endif
#ifndef BTRFS_INO_LOOKUP_PATH_MAX
#define BTRFS_INO_LOOKUP_PATH_MAX 4080
#endif
#ifndef BTRFS_SEARCH_ARGS_BUFSIZE
#define BTRFS_SEARCH_ARGS_BUFSIZE (4096 - sizeof(struct btrfs_ioctl_search_key))
#endif
#ifndef BTRFS_QGROUP_LEVEL_SHIFT
#define BTRFS_QGROUP_LEVEL_SHIFT 48
#endif
#if ! HAVE_LINUX_BTRFS_H
struct btrfs_ioctl_vol_args {
int64_t fd;
char name[BTRFS_PATH_NAME_MAX + 1];
};
struct btrfs_qgroup_limit {
__u64 flags;
__u64 max_rfer;
__u64 max_excl;
__u64 rsv_rfer;
__u64 rsv_excl;
};
struct btrfs_qgroup_inherit {
__u64 flags;
__u64 num_qgroups;
__u64 num_ref_copies;
__u64 num_excl_copies;
struct btrfs_qgroup_limit lim;
__u64 qgroups[0];
};
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struct btrfs_ioctl_qgroup_limit_args {
__u64 qgroupid;
struct btrfs_qgroup_limit lim;
};
struct btrfs_ioctl_vol_args_v2 {
__s64 fd;
__u64 transid;
__u64 flags;
union {
struct {
__u64 size;
struct btrfs_qgroup_inherit *qgroup_inherit;
};
__u64 unused[4];
};
char name[BTRFS_SUBVOL_NAME_MAX + 1];
};
struct btrfs_ioctl_dev_info_args {
uint64_t devid; /* in/out */
uint8_t uuid[BTRFS_UUID_SIZE]; /* in/out */
uint64_t bytes_used; /* out */
uint64_t total_bytes; /* out */
uint64_t unused[379]; /* pad to 4k */
char path[BTRFS_DEVICE_PATH_NAME_MAX]; /* out */
};
struct btrfs_ioctl_fs_info_args {
uint64_t max_id; /* out */
uint64_t num_devices; /* out */
uint8_t fsid[BTRFS_FSID_SIZE]; /* out */
uint64_t reserved[124]; /* pad to 1k */
};
struct btrfs_ioctl_ino_lookup_args {
__u64 treeid;
__u64 objectid;
char name[BTRFS_INO_LOOKUP_PATH_MAX];
};
struct btrfs_ioctl_search_key {
/* which root are we searching. 0 is the tree of tree roots */
__u64 tree_id;
/* keys returned will be >= min and <= max */
__u64 min_objectid;
__u64 max_objectid;
/* keys returned will be >= min and <= max */
__u64 min_offset;
__u64 max_offset;
/* max and min transids to search for */
__u64 min_transid;
__u64 max_transid;
/* keys returned will be >= min and <= max */
__u32 min_type;
__u32 max_type;
/*
* how many items did userland ask for, and how many are we
* returning
*/
__u32 nr_items;
/* align to 64 bits */
__u32 unused;
/* some extra for later */
__u64 unused1;
__u64 unused2;
__u64 unused3;
__u64 unused4;
};
struct btrfs_ioctl_search_header {
__u64 transid;
__u64 objectid;
__u64 offset;
__u32 type;
__u32 len;
};
struct btrfs_ioctl_search_args {
struct btrfs_ioctl_search_key key;
char buf[BTRFS_SEARCH_ARGS_BUFSIZE];
};
struct btrfs_ioctl_clone_range_args {
__s64 src_fd;
__u64 src_offset, src_length;
__u64 dest_offset;
};
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#define BTRFS_QUOTA_CTL_ENABLE 1
#define BTRFS_QUOTA_CTL_DISABLE 2
#define BTRFS_QUOTA_CTL_RESCAN__NOTUSED 3
struct btrfs_ioctl_quota_ctl_args {
__u64 cmd;
__u64 status;
};
#endif
#ifndef BTRFS_IOC_DEFRAG
#define BTRFS_IOC_DEFRAG _IOW(BTRFS_IOCTL_MAGIC, 2, \
struct btrfs_ioctl_vol_args)
#endif
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#ifndef BTRFS_IOC_RESIZE
#define BTRFS_IOC_RESIZE _IOW(BTRFS_IOCTL_MAGIC, 3, \
struct btrfs_ioctl_vol_args)
#endif
#ifndef BTRFS_IOC_CLONE
#define BTRFS_IOC_CLONE _IOW(BTRFS_IOCTL_MAGIC, 9, int)
#endif
#ifndef BTRFS_IOC_CLONE_RANGE
#define BTRFS_IOC_CLONE_RANGE _IOW(BTRFS_IOCTL_MAGIC, 13, \
struct btrfs_ioctl_clone_range_args)
#endif
#ifndef BTRFS_IOC_SUBVOL_CREATE
#define BTRFS_IOC_SUBVOL_CREATE _IOW(BTRFS_IOCTL_MAGIC, 14, \
struct btrfs_ioctl_vol_args)
#endif
#ifndef BTRFS_IOC_SNAP_DESTROY
#define BTRFS_IOC_SNAP_DESTROY _IOW(BTRFS_IOCTL_MAGIC, 15, \
struct btrfs_ioctl_vol_args)
#endif
#ifndef BTRFS_IOC_TREE_SEARCH
#define BTRFS_IOC_TREE_SEARCH _IOWR(BTRFS_IOCTL_MAGIC, 17, \
struct btrfs_ioctl_search_args)
#endif
#ifndef BTRFS_IOC_INO_LOOKUP
#define BTRFS_IOC_INO_LOOKUP _IOWR(BTRFS_IOCTL_MAGIC, 18, \
struct btrfs_ioctl_ino_lookup_args)
#endif
#ifndef BTRFS_IOC_SNAP_CREATE_V2
#define BTRFS_IOC_SNAP_CREATE_V2 _IOW(BTRFS_IOCTL_MAGIC, 23, \
struct btrfs_ioctl_vol_args_v2)
#endif
#ifndef BTRFS_IOC_SUBVOL_GETFLAGS
#define BTRFS_IOC_SUBVOL_GETFLAGS _IOR(BTRFS_IOCTL_MAGIC, 25, __u64)
#endif
#ifndef BTRFS_IOC_SUBVOL_SETFLAGS
#define BTRFS_IOC_SUBVOL_SETFLAGS _IOW(BTRFS_IOCTL_MAGIC, 26, __u64)
#endif
#ifndef BTRFS_IOC_DEV_INFO
#define BTRFS_IOC_DEV_INFO _IOWR(BTRFS_IOCTL_MAGIC, 30, \
struct btrfs_ioctl_dev_info_args)
#endif
#ifndef BTRFS_IOC_FS_INFO
#define BTRFS_IOC_FS_INFO _IOR(BTRFS_IOCTL_MAGIC, 31, \
struct btrfs_ioctl_fs_info_args)
#endif
#ifndef BTRFS_IOC_DEVICES_READY
#define BTRFS_IOC_DEVICES_READY _IOR(BTRFS_IOCTL_MAGIC, 39, \
struct btrfs_ioctl_vol_args)
#endif
2015-06-02 11:08:24 +02:00
#ifndef BTRFS_IOC_QUOTA_CTL
#define BTRFS_IOC_QUOTA_CTL _IOWR(BTRFS_IOCTL_MAGIC, 40, \
struct btrfs_ioctl_quota_ctl_args)
#endif
#ifndef BTRFS_IOC_QGROUP_LIMIT
#define BTRFS_IOC_QGROUP_LIMIT _IOR(BTRFS_IOCTL_MAGIC, 43, \
struct btrfs_ioctl_qgroup_limit_args)
#endif
#ifndef BTRFS_IOC_QUOTA_RESCAN_WAIT
#define BTRFS_IOC_QUOTA_RESCAN_WAIT _IO(BTRFS_IOCTL_MAGIC, 46)
#endif
#ifndef BTRFS_FIRST_FREE_OBJECTID
#define BTRFS_FIRST_FREE_OBJECTID 256
#endif
#ifndef BTRFS_LAST_FREE_OBJECTID
#define BTRFS_LAST_FREE_OBJECTID -256ULL
#endif
#ifndef BTRFS_ROOT_TREE_OBJECTID
#define BTRFS_ROOT_TREE_OBJECTID 1
#endif
#ifndef BTRFS_QUOTA_TREE_OBJECTID
#define BTRFS_QUOTA_TREE_OBJECTID 8ULL
#endif
#ifndef BTRFS_ROOT_ITEM_KEY
#define BTRFS_ROOT_ITEM_KEY 132
#endif
#ifndef BTRFS_QGROUP_STATUS_KEY
#define BTRFS_QGROUP_STATUS_KEY 240
#endif
#ifndef BTRFS_QGROUP_INFO_KEY
#define BTRFS_QGROUP_INFO_KEY 242
#endif
#ifndef BTRFS_QGROUP_LIMIT_KEY
#define BTRFS_QGROUP_LIMIT_KEY 244
#endif
#ifndef BTRFS_QGROUP_RELATION_KEY
#define BTRFS_QGROUP_RELATION_KEY 246
#endif
#ifndef BTRFS_ROOT_BACKREF_KEY
#define BTRFS_ROOT_BACKREF_KEY 144
#endif
2010-09-23 17:11:19 +02:00
#ifndef BTRFS_SUPER_MAGIC
#define BTRFS_SUPER_MAGIC 0x9123683E
#endif
core: unified cgroup hierarchy support This patch set adds full support the new unified cgroup hierarchy logic of modern kernels. A new kernel command line option "systemd.unified_cgroup_hierarchy=1" is added. If specified the unified hierarchy is mounted to /sys/fs/cgroup instead of a tmpfs. No further hierarchies are mounted. The kernel command line option defaults to off. We can turn it on by default as soon as the kernel's APIs regarding this are stabilized (but even then downstream distros might want to turn this off, as this will break any tools that access cgroupfs directly). It is possibly to choose for each boot individually whether the unified or the legacy hierarchy is used. nspawn will by default provide the legacy hierarchy to containers if the host is using it, and the unified otherwise. However it is possible to run containers with the unified hierarchy on a legacy host and vice versa, by setting the $UNIFIED_CGROUP_HIERARCHY environment variable for nspawn to 1 or 0, respectively. The unified hierarchy provides reliable cgroup empty notifications for the first time, via inotify. To make use of this we maintain one manager-wide inotify fd, and each cgroup to it. This patch also removes cg_delete() which is unused now. On kernel 4.2 only the "memory" controller is compatible with the unified hierarchy, hence that's the only controller systemd exposes when booted in unified heirarchy mode. This introduces a new enum for enumerating supported controllers, plus a related enum for the mask bits mapping to it. The core is changed to make use of this everywhere. This moves PID 1 into a new "init.scope" implicit scope unit in the root slice. This is necessary since on the unified hierarchy cgroups may either contain subgroups or processes but not both. PID 1 hence has to move out of the root cgroup (strictly speaking the root cgroup is the only one where processes and subgroups are still allowed, but in order to support containers nicey, we move PID 1 into the new scope in all cases.) This new unit is also used on legacy hierarchy setups. It's actually pretty useful on all systems, as it can then be used to filter journal messages coming from PID 1, and so on. The root slice ("-.slice") is now implicitly created and started (and does not require a unit file on disk anymore), since that's where "init.scope" is located and the slice needs to be started before the scope can. To check whether we are in unified or legacy hierarchy mode we use statfs() on /sys/fs/cgroup. If the .f_type field reports tmpfs we are in legacy mode, if it reports cgroupfs we are in unified mode. This patch set carefuly makes sure that cgls and cgtop continue to work as desired. When invoking nspawn as a service it will implicitly create two subcgroups in the cgroup it is using, one to move the nspawn process into, the other to move the actual container processes into. This is done because of the requirement that cgroups may either contain processes or other subgroups.
2015-09-01 19:22:36 +02:00
#ifndef CGROUP_SUPER_MAGIC
#define CGROUP_SUPER_MAGIC 0x27e0eb
#endif
#ifndef CGROUP2_SUPER_MAGIC
#define CGROUP2_SUPER_MAGIC 0x63677270
#endif
#ifndef CLONE_NEWCGROUP
#define CLONE_NEWCGROUP 0x02000000
#endif
core: unified cgroup hierarchy support This patch set adds full support the new unified cgroup hierarchy logic of modern kernels. A new kernel command line option "systemd.unified_cgroup_hierarchy=1" is added. If specified the unified hierarchy is mounted to /sys/fs/cgroup instead of a tmpfs. No further hierarchies are mounted. The kernel command line option defaults to off. We can turn it on by default as soon as the kernel's APIs regarding this are stabilized (but even then downstream distros might want to turn this off, as this will break any tools that access cgroupfs directly). It is possibly to choose for each boot individually whether the unified or the legacy hierarchy is used. nspawn will by default provide the legacy hierarchy to containers if the host is using it, and the unified otherwise. However it is possible to run containers with the unified hierarchy on a legacy host and vice versa, by setting the $UNIFIED_CGROUP_HIERARCHY environment variable for nspawn to 1 or 0, respectively. The unified hierarchy provides reliable cgroup empty notifications for the first time, via inotify. To make use of this we maintain one manager-wide inotify fd, and each cgroup to it. This patch also removes cg_delete() which is unused now. On kernel 4.2 only the "memory" controller is compatible with the unified hierarchy, hence that's the only controller systemd exposes when booted in unified heirarchy mode. This introduces a new enum for enumerating supported controllers, plus a related enum for the mask bits mapping to it. The core is changed to make use of this everywhere. This moves PID 1 into a new "init.scope" implicit scope unit in the root slice. This is necessary since on the unified hierarchy cgroups may either contain subgroups or processes but not both. PID 1 hence has to move out of the root cgroup (strictly speaking the root cgroup is the only one where processes and subgroups are still allowed, but in order to support containers nicey, we move PID 1 into the new scope in all cases.) This new unit is also used on legacy hierarchy setups. It's actually pretty useful on all systems, as it can then be used to filter journal messages coming from PID 1, and so on. The root slice ("-.slice") is now implicitly created and started (and does not require a unit file on disk anymore), since that's where "init.scope" is located and the slice needs to be started before the scope can. To check whether we are in unified or legacy hierarchy mode we use statfs() on /sys/fs/cgroup. If the .f_type field reports tmpfs we are in legacy mode, if it reports cgroupfs we are in unified mode. This patch set carefuly makes sure that cgls and cgtop continue to work as desired. When invoking nspawn as a service it will implicitly create two subcgroups in the cgroup it is using, one to move the nspawn process into, the other to move the actual container processes into. This is done because of the requirement that cgroups may either contain processes or other subgroups.
2015-09-01 19:22:36 +02:00
#ifndef TMPFS_MAGIC
#define TMPFS_MAGIC 0x01021994
#endif
#ifndef MQUEUE_MAGIC
#define MQUEUE_MAGIC 0x19800202
#endif
#ifndef SECURITYFS_MAGIC
#define SECURITYFS_MAGIC 0x73636673
#endif
#ifndef TRACEFS_MAGIC
#define TRACEFS_MAGIC 0x74726163
#endif
#ifndef BPF_FS_MAGIC
#define BPF_FS_MAGIC 0xcafe4a11
#endif
#ifndef MS_MOVE
#define MS_MOVE 8192
#endif
2016-10-11 23:24:03 +02:00
#ifndef MS_REC
#define MS_REC 16384
#endif
#ifndef MS_PRIVATE
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#define MS_PRIVATE (1<<18)
#endif
2016-10-11 23:24:03 +02:00
#ifndef MS_REC
#define MS_REC (1<<19)
#endif
#ifndef MS_SHARED
#define MS_SHARED (1<<20)
#endif
#ifndef MS_RELATIME
#define MS_RELATIME (1<<21)
#endif
#ifndef MS_KERNMOUNT
#define MS_KERNMOUNT (1<<22)
#endif
#ifndef MS_I_VERSION
#define MS_I_VERSION (1<<23)
#endif
#ifndef MS_STRICTATIME
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#define MS_STRICTATIME (1<<24)
#endif
2016-10-11 23:24:03 +02:00
#ifndef MS_LAZYTIME
#define MS_LAZYTIME (1<<25)
#endif
2016-10-11 23:24:03 +02:00
#ifndef SCM_SECURITY
#define SCM_SECURITY 0x03
#endif
#ifndef PR_SET_NO_NEW_PRIVS
#define PR_SET_NO_NEW_PRIVS 38
#endif
#ifndef PR_SET_CHILD_SUBREAPER
#define PR_SET_CHILD_SUBREAPER 36
#endif
#ifndef MAX_HANDLE_SZ
#define MAX_HANDLE_SZ 128
#endif
#if ! HAVE_SECURE_GETENV
# if HAVE___SECURE_GETENV
# define secure_getenv __secure_getenv
# else
2014-02-21 03:07:42 +01:00
# error "neither secure_getenv nor __secure_getenv are available"
# endif
#endif
#ifndef CIFS_MAGIC_NUMBER
# define CIFS_MAGIC_NUMBER 0xFF534D42
#endif
#ifndef TFD_TIMER_CANCEL_ON_SET
# define TFD_TIMER_CANCEL_ON_SET (1 << 1)
#endif
2013-07-08 20:28:14 +02:00
#ifndef SO_REUSEPORT
# define SO_REUSEPORT 15
2013-07-08 20:28:14 +02:00
#endif
logind: introduce session-devices A session-device is a device that is bound to a seat and used by a session-controller to run the session. This currently includes DRM, fbdev and evdev devices. A session-device can be created via RequestDevice() on the dbus API of the session. You can drop it via ReleaseDevice() again. Once the session is destroyed or you drop control of the session, all session-devices are automatically destroyed. Session devices follow the session "active" state. A device can be active/running or inactive/paused. Whenever a session is not the active session, no session-device of it can be active. That is, if a session is not in foreground, all session-devices are paused. Whenever a session becomes active, all devices are resumed/activated by logind. If it fails, a device may stay paused. With every session-device you request, you also get a file-descriptor back. logind keeps a copy of this fd and uses kernel specific calls to pause/resume the file-descriptors. For example, a DRM fd is muted by logind as long as a given session is not active. Hence, the fd of the application is also muted. Once the session gets active, logind unmutes the fd and the application will get DRM access again. This, however, requires kernel support. DRM devices provide DRM-Master for synchronization, evdev devices have EVIOCREVOKE (pending on linux-input-ML). fbdev devices do not provide such synchronization methods (and never will). Note that for evdev devices, we call EVIOCREVOKE once a session gets inactive. However, this cannot be undone (the fd is still valid but mostly unusable). So we reopen a new fd once the session is activated and send it together with the ResumeDevice() signal. With this infrastructure in place, compositors can now run without CAP_SYS_ADMIN (that is, without being root). They use RequestControl() to acquire a session and listen for devices via udev_monitor. For every device they want to open, they call RequestDevice() on logind. This returns a fd which they can use now. They no longer have to open the devices themselves or call any privileged ioctls. This is all done by logind. Session-switches are still bound to VTs. Hence, compositors will get notified via the usual VT mechanisms and can cleanup their state. Once the VT switch is acknowledged as usual, logind will get notified via sysfs and pause the old-session's devices and resume the devices of the new session. To allow using this infrastructure with systems without VTs, we provide notification signals. logind sends PauseDevice("force") dbus signals to the current session controller for every device that it pauses. And it sends ResumeDevice signals for every device that it resumes. For seats with VTs this is sent _after_ the VT switch is acknowledged. Because the compositor already acknowledged that it cleaned-up all devices. However, for seats without VTs, this is used to notify the active compositor that the session is about to be deactivated. That is, logind sends PauseDevice("force") for each active device and then performs the session-switch. The session-switch changes the "Active" property of the session which can be monitored by the compositor. The new session is activated and the ResumeDevice events are sent. For seats without VTs, this is a forced session-switch. As this is not backwards-compatible (xserver actually crashes, weston drops the related devices, ..) we also provide an acknowledged session-switch. Note that this is never used for sessions with VTs. You use the acknowledged VT-switch on these seats. An acknowledged session switch sends PauseDevice("pause") instead of PauseDevice("force") to the active session. It schedules a short timeout and waits for the session to acknowledge each of them with PauseDeviceComplete(). Once all are acknowledged, or the session ran out of time, a PauseDevice("force") is sent for all remaining active devices and the session switch is performed. Note that this is only partially implemented, yet, as we don't allow multi-session without VTs, yet. A follow up commit will hook it up and implemented the acknowledgements+timeout. The implementation is quite simple. We use major/minor exclusively to identify devices on the bus. On RequestDevice() we retrieve the udev_device from the major/minor and search for an existing "Device" object. If no exists, we create it. This guarantees us that we are notified whenever the device changes seats or is removed. We create a new SessionDevice object and link it to the related Session and Device. Session->devices is a hashtable to lookup SessionDevice objects via major/minor. Device->session_devices is a linked list so we can release all linked session-devices once a device vanishes. Now we only have to hook this up in seat_set_active() so we correctly change device states during session-switches. As mentioned earlier, these are forced state-changes as VTs are currently used exclusively for multi-session implementations. Everything else are hooks to release all session-devices once the controller changes or a session is closed or removed.
2013-09-17 23:39:04 +02:00
#ifndef EVIOCREVOKE
# define EVIOCREVOKE _IOW('E', 0x91, int)
logind: introduce session-devices A session-device is a device that is bound to a seat and used by a session-controller to run the session. This currently includes DRM, fbdev and evdev devices. A session-device can be created via RequestDevice() on the dbus API of the session. You can drop it via ReleaseDevice() again. Once the session is destroyed or you drop control of the session, all session-devices are automatically destroyed. Session devices follow the session "active" state. A device can be active/running or inactive/paused. Whenever a session is not the active session, no session-device of it can be active. That is, if a session is not in foreground, all session-devices are paused. Whenever a session becomes active, all devices are resumed/activated by logind. If it fails, a device may stay paused. With every session-device you request, you also get a file-descriptor back. logind keeps a copy of this fd and uses kernel specific calls to pause/resume the file-descriptors. For example, a DRM fd is muted by logind as long as a given session is not active. Hence, the fd of the application is also muted. Once the session gets active, logind unmutes the fd and the application will get DRM access again. This, however, requires kernel support. DRM devices provide DRM-Master for synchronization, evdev devices have EVIOCREVOKE (pending on linux-input-ML). fbdev devices do not provide such synchronization methods (and never will). Note that for evdev devices, we call EVIOCREVOKE once a session gets inactive. However, this cannot be undone (the fd is still valid but mostly unusable). So we reopen a new fd once the session is activated and send it together with the ResumeDevice() signal. With this infrastructure in place, compositors can now run without CAP_SYS_ADMIN (that is, without being root). They use RequestControl() to acquire a session and listen for devices via udev_monitor. For every device they want to open, they call RequestDevice() on logind. This returns a fd which they can use now. They no longer have to open the devices themselves or call any privileged ioctls. This is all done by logind. Session-switches are still bound to VTs. Hence, compositors will get notified via the usual VT mechanisms and can cleanup their state. Once the VT switch is acknowledged as usual, logind will get notified via sysfs and pause the old-session's devices and resume the devices of the new session. To allow using this infrastructure with systems without VTs, we provide notification signals. logind sends PauseDevice("force") dbus signals to the current session controller for every device that it pauses. And it sends ResumeDevice signals for every device that it resumes. For seats with VTs this is sent _after_ the VT switch is acknowledged. Because the compositor already acknowledged that it cleaned-up all devices. However, for seats without VTs, this is used to notify the active compositor that the session is about to be deactivated. That is, logind sends PauseDevice("force") for each active device and then performs the session-switch. The session-switch changes the "Active" property of the session which can be monitored by the compositor. The new session is activated and the ResumeDevice events are sent. For seats without VTs, this is a forced session-switch. As this is not backwards-compatible (xserver actually crashes, weston drops the related devices, ..) we also provide an acknowledged session-switch. Note that this is never used for sessions with VTs. You use the acknowledged VT-switch on these seats. An acknowledged session switch sends PauseDevice("pause") instead of PauseDevice("force") to the active session. It schedules a short timeout and waits for the session to acknowledge each of them with PauseDeviceComplete(). Once all are acknowledged, or the session ran out of time, a PauseDevice("force") is sent for all remaining active devices and the session switch is performed. Note that this is only partially implemented, yet, as we don't allow multi-session without VTs, yet. A follow up commit will hook it up and implemented the acknowledgements+timeout. The implementation is quite simple. We use major/minor exclusively to identify devices on the bus. On RequestDevice() we retrieve the udev_device from the major/minor and search for an existing "Device" object. If no exists, we create it. This guarantees us that we are notified whenever the device changes seats or is removed. We create a new SessionDevice object and link it to the related Session and Device. Session->devices is a hashtable to lookup SessionDevice objects via major/minor. Device->session_devices is a linked list so we can release all linked session-devices once a device vanishes. Now we only have to hook this up in seat_set_active() so we correctly change device states during session-switches. As mentioned earlier, these are forced state-changes as VTs are currently used exclusively for multi-session implementations. Everything else are hooks to release all session-devices once the controller changes or a session is closed or removed.
2013-09-17 23:39:04 +02:00
#endif
#ifndef EVIOCSMASK
struct input_mask {
uint32_t type;
uint32_t codes_size;
uint64_t codes_ptr;
};
#define EVIOCSMASK _IOW('E', 0x93, struct input_mask)
#endif
logind: introduce session-devices A session-device is a device that is bound to a seat and used by a session-controller to run the session. This currently includes DRM, fbdev and evdev devices. A session-device can be created via RequestDevice() on the dbus API of the session. You can drop it via ReleaseDevice() again. Once the session is destroyed or you drop control of the session, all session-devices are automatically destroyed. Session devices follow the session "active" state. A device can be active/running or inactive/paused. Whenever a session is not the active session, no session-device of it can be active. That is, if a session is not in foreground, all session-devices are paused. Whenever a session becomes active, all devices are resumed/activated by logind. If it fails, a device may stay paused. With every session-device you request, you also get a file-descriptor back. logind keeps a copy of this fd and uses kernel specific calls to pause/resume the file-descriptors. For example, a DRM fd is muted by logind as long as a given session is not active. Hence, the fd of the application is also muted. Once the session gets active, logind unmutes the fd and the application will get DRM access again. This, however, requires kernel support. DRM devices provide DRM-Master for synchronization, evdev devices have EVIOCREVOKE (pending on linux-input-ML). fbdev devices do not provide such synchronization methods (and never will). Note that for evdev devices, we call EVIOCREVOKE once a session gets inactive. However, this cannot be undone (the fd is still valid but mostly unusable). So we reopen a new fd once the session is activated and send it together with the ResumeDevice() signal. With this infrastructure in place, compositors can now run without CAP_SYS_ADMIN (that is, without being root). They use RequestControl() to acquire a session and listen for devices via udev_monitor. For every device they want to open, they call RequestDevice() on logind. This returns a fd which they can use now. They no longer have to open the devices themselves or call any privileged ioctls. This is all done by logind. Session-switches are still bound to VTs. Hence, compositors will get notified via the usual VT mechanisms and can cleanup their state. Once the VT switch is acknowledged as usual, logind will get notified via sysfs and pause the old-session's devices and resume the devices of the new session. To allow using this infrastructure with systems without VTs, we provide notification signals. logind sends PauseDevice("force") dbus signals to the current session controller for every device that it pauses. And it sends ResumeDevice signals for every device that it resumes. For seats with VTs this is sent _after_ the VT switch is acknowledged. Because the compositor already acknowledged that it cleaned-up all devices. However, for seats without VTs, this is used to notify the active compositor that the session is about to be deactivated. That is, logind sends PauseDevice("force") for each active device and then performs the session-switch. The session-switch changes the "Active" property of the session which can be monitored by the compositor. The new session is activated and the ResumeDevice events are sent. For seats without VTs, this is a forced session-switch. As this is not backwards-compatible (xserver actually crashes, weston drops the related devices, ..) we also provide an acknowledged session-switch. Note that this is never used for sessions with VTs. You use the acknowledged VT-switch on these seats. An acknowledged session switch sends PauseDevice("pause") instead of PauseDevice("force") to the active session. It schedules a short timeout and waits for the session to acknowledge each of them with PauseDeviceComplete(). Once all are acknowledged, or the session ran out of time, a PauseDevice("force") is sent for all remaining active devices and the session switch is performed. Note that this is only partially implemented, yet, as we don't allow multi-session without VTs, yet. A follow up commit will hook it up and implemented the acknowledgements+timeout. The implementation is quite simple. We use major/minor exclusively to identify devices on the bus. On RequestDevice() we retrieve the udev_device from the major/minor and search for an existing "Device" object. If no exists, we create it. This guarantees us that we are notified whenever the device changes seats or is removed. We create a new SessionDevice object and link it to the related Session and Device. Session->devices is a hashtable to lookup SessionDevice objects via major/minor. Device->session_devices is a linked list so we can release all linked session-devices once a device vanishes. Now we only have to hook this up in seat_set_active() so we correctly change device states during session-switches. As mentioned earlier, these are forced state-changes as VTs are currently used exclusively for multi-session implementations. Everything else are hooks to release all session-devices once the controller changes or a session is closed or removed.
2013-09-17 23:39:04 +02:00
#ifndef DRM_IOCTL_SET_MASTER
# define DRM_IOCTL_SET_MASTER _IO('d', 0x1e)
logind: introduce session-devices A session-device is a device that is bound to a seat and used by a session-controller to run the session. This currently includes DRM, fbdev and evdev devices. A session-device can be created via RequestDevice() on the dbus API of the session. You can drop it via ReleaseDevice() again. Once the session is destroyed or you drop control of the session, all session-devices are automatically destroyed. Session devices follow the session "active" state. A device can be active/running or inactive/paused. Whenever a session is not the active session, no session-device of it can be active. That is, if a session is not in foreground, all session-devices are paused. Whenever a session becomes active, all devices are resumed/activated by logind. If it fails, a device may stay paused. With every session-device you request, you also get a file-descriptor back. logind keeps a copy of this fd and uses kernel specific calls to pause/resume the file-descriptors. For example, a DRM fd is muted by logind as long as a given session is not active. Hence, the fd of the application is also muted. Once the session gets active, logind unmutes the fd and the application will get DRM access again. This, however, requires kernel support. DRM devices provide DRM-Master for synchronization, evdev devices have EVIOCREVOKE (pending on linux-input-ML). fbdev devices do not provide such synchronization methods (and never will). Note that for evdev devices, we call EVIOCREVOKE once a session gets inactive. However, this cannot be undone (the fd is still valid but mostly unusable). So we reopen a new fd once the session is activated and send it together with the ResumeDevice() signal. With this infrastructure in place, compositors can now run without CAP_SYS_ADMIN (that is, without being root). They use RequestControl() to acquire a session and listen for devices via udev_monitor. For every device they want to open, they call RequestDevice() on logind. This returns a fd which they can use now. They no longer have to open the devices themselves or call any privileged ioctls. This is all done by logind. Session-switches are still bound to VTs. Hence, compositors will get notified via the usual VT mechanisms and can cleanup their state. Once the VT switch is acknowledged as usual, logind will get notified via sysfs and pause the old-session's devices and resume the devices of the new session. To allow using this infrastructure with systems without VTs, we provide notification signals. logind sends PauseDevice("force") dbus signals to the current session controller for every device that it pauses. And it sends ResumeDevice signals for every device that it resumes. For seats with VTs this is sent _after_ the VT switch is acknowledged. Because the compositor already acknowledged that it cleaned-up all devices. However, for seats without VTs, this is used to notify the active compositor that the session is about to be deactivated. That is, logind sends PauseDevice("force") for each active device and then performs the session-switch. The session-switch changes the "Active" property of the session which can be monitored by the compositor. The new session is activated and the ResumeDevice events are sent. For seats without VTs, this is a forced session-switch. As this is not backwards-compatible (xserver actually crashes, weston drops the related devices, ..) we also provide an acknowledged session-switch. Note that this is never used for sessions with VTs. You use the acknowledged VT-switch on these seats. An acknowledged session switch sends PauseDevice("pause") instead of PauseDevice("force") to the active session. It schedules a short timeout and waits for the session to acknowledge each of them with PauseDeviceComplete(). Once all are acknowledged, or the session ran out of time, a PauseDevice("force") is sent for all remaining active devices and the session switch is performed. Note that this is only partially implemented, yet, as we don't allow multi-session without VTs, yet. A follow up commit will hook it up and implemented the acknowledgements+timeout. The implementation is quite simple. We use major/minor exclusively to identify devices on the bus. On RequestDevice() we retrieve the udev_device from the major/minor and search for an existing "Device" object. If no exists, we create it. This guarantees us that we are notified whenever the device changes seats or is removed. We create a new SessionDevice object and link it to the related Session and Device. Session->devices is a hashtable to lookup SessionDevice objects via major/minor. Device->session_devices is a linked list so we can release all linked session-devices once a device vanishes. Now we only have to hook this up in seat_set_active() so we correctly change device states during session-switches. As mentioned earlier, these are forced state-changes as VTs are currently used exclusively for multi-session implementations. Everything else are hooks to release all session-devices once the controller changes or a session is closed or removed.
2013-09-17 23:39:04 +02:00
#endif
#ifndef DRM_IOCTL_DROP_MASTER
# define DRM_IOCTL_DROP_MASTER _IO('d', 0x1f)
#endif
/* The precise definition of __O_TMPFILE is arch specific; use the
* values defined by the kernel (note: some are hexa, some are octal,
* duplicated as-is from the kernel definitions):
* - alpha, parisc, sparc: each has a specific value;
* - others: they use the "generic" value.
*/
#ifndef __O_TMPFILE
#if defined(__alpha__)
#define __O_TMPFILE 0100000000
#elif defined(__parisc__) || defined(__hppa__)
#define __O_TMPFILE 0400000000
#elif defined(__sparc__) || defined(__sparc64__)
#define __O_TMPFILE 0x2000000
#else
#define __O_TMPFILE 020000000
#endif
#endif
/* a horrid kludge trying to make sure that this will fail on old kernels */
#ifndef O_TMPFILE
#define O_TMPFILE (__O_TMPFILE | O_DIRECTORY)
#endif
#if !HAVE_LO_FLAGS_PARTSCAN
#define LO_FLAGS_PARTSCAN 8
#endif
#ifndef LOOP_CTL_REMOVE
#define LOOP_CTL_REMOVE 0x4C81
#endif
#ifndef LOOP_CTL_GET_FREE
#define LOOP_CTL_GET_FREE 0x4C82
#endif
#if !HAVE_IFLA_INET6_ADDR_GEN_MODE
#define IFLA_INET6_UNSPEC 0
#define IFLA_INET6_FLAGS 1
#define IFLA_INET6_CONF 2
#define IFLA_INET6_STATS 3
#define IFLA_INET6_MCAST 4
#define IFLA_INET6_CACHEINFO 5
#define IFLA_INET6_ICMP6STATS 6
#define IFLA_INET6_TOKEN 7
#define IFLA_INET6_ADDR_GEN_MODE 8
#define __IFLA_INET6_MAX 9
#define IFLA_INET6_MAX (__IFLA_INET6_MAX - 1)
#define IN6_ADDR_GEN_MODE_EUI64 0
#define IN6_ADDR_GEN_MODE_NONE 1
#endif
#if !HAVE_IN6_ADDR_GEN_MODE_STABLE_PRIVACY
#define IN6_ADDR_GEN_MODE_STABLE_PRIVACY 2
#endif
#if !HAVE_IFLA_MACVLAN_FLAGS
#define IFLA_MACVLAN_UNSPEC 0
#define IFLA_MACVLAN_MODE 1
#define IFLA_MACVLAN_FLAGS 2
#define __IFLA_MACVLAN_MAX 3
#define IFLA_MACVLAN_MAX (__IFLA_MACVLAN_MAX - 1)
#endif
#if !HAVE_IFLA_IPVLAN_MODE
2015-01-19 22:24:32 +01:00
#define IFLA_IPVLAN_UNSPEC 0
#define IFLA_IPVLAN_MODE 1
#define __IFLA_IPVLAN_MAX 2
#define IFLA_IPVLAN_MAX (__IFLA_IPVLAN_MAX - 1)
#define IPVLAN_MODE_L2 0
#define IPVLAN_MODE_L3 1
#define IPVLAN_MAX 2
#endif
#if !HAVE_IFLA_VTI_REMOTE
2014-07-22 03:04:44 +02:00
#define IFLA_VTI_UNSPEC 0
#define IFLA_VTI_LINK 1
#define IFLA_VTI_IKEY 2
#define IFLA_VTI_OKEY 3
#define IFLA_VTI_LOCAL 4
#define IFLA_VTI_REMOTE 5
#define __IFLA_VTI_MAX 6
#define IFLA_VTI_MAX (__IFLA_VTI_MAX - 1)
#endif
#if !HAVE_IFLA_PHYS_PORT_ID
#define IFLA_EXT_MASK 29
#undef IFLA_PROMISCUITY
#define IFLA_PROMISCUITY 30
#define IFLA_NUM_TX_QUEUES 31
#define IFLA_NUM_RX_QUEUES 32
#define IFLA_CARRIER 33
#define IFLA_PHYS_PORT_ID 34
#define __IFLA_MAX 35
#define IFLA_MAX (__IFLA_MAX - 1)
#endif
#if !HAVE_IFLA_BOND_AD_INFO
#define IFLA_BOND_UNSPEC 0
#define IFLA_BOND_MODE 1
#define IFLA_BOND_ACTIVE_SLAVE 2
#define IFLA_BOND_MIIMON 3
#define IFLA_BOND_UPDELAY 4
#define IFLA_BOND_DOWNDELAY 5
#define IFLA_BOND_USE_CARRIER 6
#define IFLA_BOND_ARP_INTERVAL 7
#define IFLA_BOND_ARP_IP_TARGET 8
#define IFLA_BOND_ARP_VALIDATE 9
#define IFLA_BOND_ARP_ALL_TARGETS 10
#define IFLA_BOND_PRIMARY 11
#define IFLA_BOND_PRIMARY_RESELECT 12
#define IFLA_BOND_FAIL_OVER_MAC 13
#define IFLA_BOND_XMIT_HASH_POLICY 14
#define IFLA_BOND_RESEND_IGMP 15
#define IFLA_BOND_NUM_PEER_NOTIF 16
#define IFLA_BOND_ALL_SLAVES_ACTIVE 17
#define IFLA_BOND_MIN_LINKS 18
#define IFLA_BOND_LP_INTERVAL 19
#define IFLA_BOND_PACKETS_PER_SLAVE 20
#define IFLA_BOND_AD_LACP_RATE 21
#define IFLA_BOND_AD_SELECT 22
#define IFLA_BOND_AD_INFO 23
#define __IFLA_BOND_MAX 24
#define IFLA_BOND_MAX (__IFLA_BOND_MAX - 1)
#endif
#if !HAVE_IFLA_VLAN_PROTOCOL
#define IFLA_VLAN_UNSPEC 0
#define IFLA_VLAN_ID 1
#define IFLA_VLAN_FLAGS 2
#define IFLA_VLAN_EGRESS_QOS 3
#define IFLA_VLAN_INGRESS_QOS 4
#define IFLA_VLAN_PROTOCOL 5
#define __IFLA_VLAN_MAX 6
#define IFLA_VLAN_MAX (__IFLA_VLAN_MAX - 1)
#endif
#if !HAVE_IFLA_VXLAN_GPE
#define IFLA_VXLAN_UNSPEC 0
#define IFLA_VXLAN_ID 1
#define IFLA_VXLAN_GROUP 2
#define IFLA_VXLAN_LINK 3
#define IFLA_VXLAN_LOCAL 4
#define IFLA_VXLAN_TTL 5
#define IFLA_VXLAN_TOS 6
#define IFLA_VXLAN_LEARNING 7
#define IFLA_VXLAN_AGEING 8
#define IFLA_VXLAN_LIMIT 9
#define IFLA_VXLAN_PORT_RANGE 10
#define IFLA_VXLAN_PROXY 11
#define IFLA_VXLAN_RSC 12
#define IFLA_VXLAN_L2MISS 13
#define IFLA_VXLAN_L3MISS 14
#define IFLA_VXLAN_PORT 15
#define IFLA_VXLAN_GROUP6 16
#define IFLA_VXLAN_LOCAL6 17
#define IFLA_VXLAN_UDP_CSUM 18
#define IFLA_VXLAN_UDP_ZERO_CSUM6_TX 19
#define IFLA_VXLAN_UDP_ZERO_CSUM6_RX 20
#define IFLA_VXLAN_REMCSUM_TX 21
#define IFLA_VXLAN_REMCSUM_RX 22
#define IFLA_VXLAN_GBP 23
#define IFLA_VXLAN_REMCSUM_NOPARTIAL 24
#define IFLA_VXLAN_COLLECT_METADATA 25
#define IFLA_VXLAN_LABEL 26
#define IFLA_VXLAN_GPE 27
#define __IFLA_VXLAN_MAX 28
#define IFLA_VXLAN_MAX (__IFLA_VXLAN_MAX - 1)
#endif
#if !HAVE_IFLA_GENEVE_LABEL
#define IFLA_GENEVE_UNSPEC 0
#define IFLA_GENEVE_ID 1
#define IFLA_GENEVE_REMOTE 2
#define IFLA_GENEVE_TTL 3
#define IFLA_GENEVE_TOS 4
#define IFLA_GENEVE_PORT 5
#define IFLA_GENEVE_COLLECT_METADATA 6
#define IFLA_GENEVE_REMOTE6 7
#define IFLA_GENEVE_UDP_CSUM 8
#define IFLA_GENEVE_UDP_ZERO_CSUM6_TX 9
#define IFLA_GENEVE_UDP_ZERO_CSUM6_RX 10
#define IFLA_GENEVE_LABEL 11
#define __IFLA_GENEVE_MAX 12
#define IFLA_GENEVE_MAX (__IFLA_GENEVE_MAX - 1)
#endif
#if !HAVE_IFLA_IPTUN_ENCAP_DPORT
#define IFLA_IPTUN_UNSPEC 0
#define IFLA_IPTUN_LINK 1
#define IFLA_IPTUN_LOCAL 2
#define IFLA_IPTUN_REMOTE 3
#define IFLA_IPTUN_TTL 4
#define IFLA_IPTUN_TOS 5
#define IFLA_IPTUN_ENCAP_LIMIT 6
#define IFLA_IPTUN_FLOWINFO 7
#define IFLA_IPTUN_FLAGS 8
#define IFLA_IPTUN_PROTO 9
#define IFLA_IPTUN_PMTUDISC 10
#define IFLA_IPTUN_6RD_PREFIX 11
#define IFLA_IPTUN_6RD_RELAY_PREFIX 12
#define IFLA_IPTUN_6RD_PREFIXLEN 13
#define IFLA_IPTUN_6RD_RELAY_PREFIXLEN 14
2015-07-20 06:47:50 +02:00
#define IFLA_IPTUN_ENCAP_TYPE 15
#define IFLA_IPTUN_ENCAP_FLAGS 16
#define IFLA_IPTUN_ENCAP_SPORT 17
#define IFLA_IPTUN_ENCAP_DPORT 18
#define __IFLA_IPTUN_MAX 19
#define IFLA_IPTUN_MAX (__IFLA_IPTUN_MAX - 1)
#endif
#if !HAVE_IFLA_GRE_ENCAP_DPORT
2015-07-22 11:28:52 +02:00
#define IFLA_GRE_UNSPEC 0
#define IFLA_GRE_LINK 1
#define IFLA_GRE_IFLAGS 2
#define IFLA_GRE_OFLAGS 3
#define IFLA_GRE_IKEY 4
#define IFLA_GRE_OKEY 5
#define IFLA_GRE_LOCAL 6
#define IFLA_GRE_REMOTE 7
#define IFLA_GRE_TTL 8
#define IFLA_GRE_TOS 9
#define IFLA_GRE_PMTUDISC 10
#define IFLA_GRE_ENCAP_LIMIT 11
#define IFLA_GRE_FLOWINFO 12
#define IFLA_GRE_FLAGS 13
#define IFLA_GRE_ENCAP_TYPE 14
#define IFLA_GRE_ENCAP_FLAGS 15
#define IFLA_GRE_ENCAP_SPORT 16
#define IFLA_GRE_ENCAP_DPORT 17
#define __IFLA_GRE_MAX 18
#define IFLA_GRE_MAX (__IFLA_GRE_MAX - 1)
#endif
#if !HAVE_IFLA_BRIDGE_VLAN_INFO
#define IFLA_BRIDGE_FLAGS 0
#define IFLA_BRIDGE_MODE 1
#define IFLA_BRIDGE_VLAN_INFO 2
#define __IFLA_BRIDGE_MAX 3
#define IFLA_BRIDGE_MAX (__IFLA_BRIDGE_MAX - 1)
#endif
#ifndef BRIDGE_VLAN_INFO_RANGE_BEGIN
#define BRIDGE_VLAN_INFO_RANGE_BEGIN (1<<3) /* VLAN is start of vlan range */
#endif
#ifndef BRIDGE_VLAN_INFO_RANGE_END
#define BRIDGE_VLAN_INFO_RANGE_END (1<<4) /* VLAN is end of vlan range */
#endif
#if !HAVE_IFLA_BR_VLAN_DEFAULT_PVID
2015-10-05 06:05:36 +02:00
#define IFLA_BR_UNSPEC 0
#define IFLA_BR_FORWARD_DELAY 1
#define IFLA_BR_HELLO_TIME 2
#define IFLA_BR_MAX_AGE 3
#define IFLA_BR_AGEING_TIME 4
#define IFLA_BR_STP_STATE 5
#define IFLA_BR_PRIORITY 6
#define IFLA_BR_VLAN_FILTERING 7
#define IFLA_BR_VLAN_PROTOCOL 8
#define IFLA_BR_GROUP_FWD_MASK 9
#define IFLA_BR_ROOT_ID 10
#define IFLA_BR_BRIDGE_ID 11
#define IFLA_BR_ROOT_PORT 12
#define IFLA_BR_ROOT_PATH_COST 13
#define IFLA_BR_TOPOLOGY_CHANGE 14
#define IFLA_BR_TOPOLOGY_CHANGE_DETECTED 15
#define IFLA_BR_HELLO_TIMER 16
#define IFLA_BR_TCN_TIMER 17
#define IFLA_BR_TOPOLOGY_CHANGE_TIMER 18
#define IFLA_BR_GC_TIMER 19
#define IFLA_BR_GROUP_ADDR 20
#define IFLA_BR_FDB_FLUSH 21
#define IFLA_BR_MCAST_ROUTER 22
#define IFLA_BR_MCAST_SNOOPING 23
#define IFLA_BR_MCAST_QUERY_USE_IFADDR 24
#define IFLA_BR_MCAST_QUERIER 25
#define IFLA_BR_MCAST_HASH_ELASTICITY 26
#define IFLA_BR_MCAST_HASH_MAX 27
#define IFLA_BR_MCAST_LAST_MEMBER_CNT 28
#define IFLA_BR_MCAST_STARTUP_QUERY_CNT 29
#define IFLA_BR_MCAST_LAST_MEMBER_INTVL 30
#define IFLA_BR_MCAST_MEMBERSHIP_INTVL 31
#define IFLA_BR_MCAST_QUERIER_INTVL 32
#define IFLA_BR_MCAST_QUERY_INTVL 33
#define IFLA_BR_MCAST_QUERY_RESPONSE_INTVL 34
#define IFLA_BR_MCAST_STARTUP_QUERY_INTVL 35
#define IFLA_BR_NF_CALL_IPTABLES 36
#define IFLA_BR_NF_CALL_IP6TABLES 37
#define IFLA_BR_NF_CALL_ARPTABLES 38
#define IFLA_BR_VLAN_DEFAULT_PVID 39
#define __IFLA_BR_MAX 40
2015-10-05 06:05:36 +02:00
#define IFLA_BR_MAX (__IFLA_BR_MAX - 1)
#endif
#if !HAVE_IFLA_BRPORT_LEARNING_SYNC
#define IFLA_BRPORT_UNSPEC 0
#define IFLA_BRPORT_STATE 1
#define IFLA_BRPORT_PRIORITY 2
#define IFLA_BRPORT_COST 3
#define IFLA_BRPORT_MODE 4
#define IFLA_BRPORT_GUARD 5
#define IFLA_BRPORT_PROTECT 6
#define IFLA_BRPORT_FAST_LEAVE 7
#define IFLA_BRPORT_LEARNING 8
#define IFLA_BRPORT_UNICAST_FLOOD 9
2015-07-23 11:09:11 +02:00
#define IFLA_BRPORT_LEARNING_SYNC 11
#define __IFLA_BRPORT_MAX 12
#define IFLA_BRPORT_MAX (__IFLA_BRPORT_MAX - 1)
#endif
#if !HAVE_FRA_UID_RANGE
#define FRA_UNSPEC 0
#define FRA_DST 1
#define FRA_SRC 2
#define FRA_IIFNAME 3
#define FRA_GOTO 4
#define FRA_UNUSED2 5
#define FRA_PRIORITY 6
#define FRA_UNUSED3 7
#define FRA_UNUSED4 8
#define FRA_UNUSED5 9
#define FRA_FWMARK 10
#define FRA_FLOW 11
#define FRA_TUN_ID 12
#define FRA_SUPPRESS_IFGROUP 13
#define FRA_SUPPRESS_PREFIXLEN 14
#define FRA_TABLE 15
#define FRA_FWMASK 16
#define FRA_OIFNAME 17
#define FRA_PAD 18
#define FRA_L3MDEV 19
#define FRA_UID_RANGE 20
#define __FRA_MAX 12
#define FRA_MAX (__FRA_MAX - 1)
#endif
#if !HAVE_IFLA_BRPORT_PROXYARP
#define IFLA_BRPORT_PROXYARP 10
#endif
#if !HAVE_IFLA_VRF_TABLE
#define IFLA_VRF_TABLE 1
#endif
#if !HAVE_NDA_IFINDEX
#define NDA_UNSPEC 0
#define NDA_DST 1
#define NDA_LLADDR 2
#define NDA_CACHEINFO 3
#define NDA_PROBES 4
#define NDA_VLAN 5
#define NDA_PORT 6
#define NDA_VNI 7
#define NDA_IFINDEX 8
#define __NDA_MAX 9
#define NDA_MAX (__NDA_MAX - 1)
#endif
2015-11-03 15:25:10 +01:00
#ifndef RTA_PREF
#define RTA_PREF 20
#endif
#ifndef IPV6_UNICAST_IF
#define IPV6_UNICAST_IF 76
#endif
#ifndef IPV6_MIN_MTU
#define IPV6_MIN_MTU 1280
#endif
#ifndef IFF_MULTI_QUEUE
#define IFF_MULTI_QUEUE 0x100
#endif
#ifndef IFF_LOWER_UP
#define IFF_LOWER_UP 0x10000
#endif
#ifndef IFF_DORMANT
#define IFF_DORMANT 0x20000
#endif
#ifndef BOND_XMIT_POLICY_ENCAP23
#define BOND_XMIT_POLICY_ENCAP23 3
#endif
#ifndef BOND_XMIT_POLICY_ENCAP34
#define BOND_XMIT_POLICY_ENCAP34 4
#endif
#ifndef NET_ADDR_RANDOM
# define NET_ADDR_RANDOM 1
#endif
#ifndef NET_NAME_UNKNOWN
# define NET_NAME_UNKNOWN 0
#endif
#ifndef NET_NAME_ENUM
# define NET_NAME_ENUM 1
#endif
#ifndef NET_NAME_PREDICTABLE
# define NET_NAME_PREDICTABLE 2
#endif
#ifndef NET_NAME_USER
# define NET_NAME_USER 3
#endif
#ifndef NET_NAME_RENAMED
# define NET_NAME_RENAMED 4
#endif
#ifndef BPF_XOR
# define BPF_XOR 0xa0
#endif
/* Note that LOOPBACK_IFINDEX is currently not exported by the
* kernel/glibc, but hardcoded internally by the kernel. However, as
* it is exported to userspace indirectly via rtnetlink and the
* ioctls, and made use of widely we define it here too, in a way that
* is compatible with the kernel's internal definition. */
#ifndef LOOPBACK_IFINDEX
#define LOOPBACK_IFINDEX 1
#endif
#if !HAVE_IFA_FLAGS
#define IFA_FLAGS 8
#endif
#ifndef IFA_F_MANAGETEMPADDR
#define IFA_F_MANAGETEMPADDR 0x100
#endif
#ifndef IFA_F_NOPREFIXROUTE
#define IFA_F_NOPREFIXROUTE 0x200
#endif
#ifndef MAX_AUDIT_MESSAGE_LENGTH
#define MAX_AUDIT_MESSAGE_LENGTH 8970
#endif
#ifndef AUDIT_NLGRP_MAX
#define AUDIT_NLGRP_READLOG 1
#endif
#ifndef CAP_MAC_OVERRIDE
#define CAP_MAC_OVERRIDE 32
#endif
#ifndef CAP_MAC_ADMIN
#define CAP_MAC_ADMIN 33
#endif
#ifndef CAP_SYSLOG
#define CAP_SYSLOG 34
#endif
#ifndef CAP_WAKE_ALARM
#define CAP_WAKE_ALARM 35
#endif
#ifndef CAP_BLOCK_SUSPEND
#define CAP_BLOCK_SUSPEND 36
#endif
#ifndef CAP_AUDIT_READ
#define CAP_AUDIT_READ 37
#endif
#ifndef RENAME_NOREPLACE
#define RENAME_NOREPLACE (1 << 0)
#endif
#ifndef KCMP_FILE
#define KCMP_FILE 0
#endif
#ifndef INPUT_PROP_POINTING_STICK
#define INPUT_PROP_POINTING_STICK 0x05
#endif
#ifndef INPUT_PROP_ACCELEROMETER
#define INPUT_PROP_ACCELEROMETER 0x06
#endif
#ifndef BTN_DPAD_UP
#define BTN_DPAD_UP 0x220
#define BTN_DPAD_RIGHT 0x223
#endif
#ifndef KEY_ALS_TOGGLE
#define KEY_ALS_TOGGLE 0x230
#endif
#if ! HAVE_KEY_SERIAL_T
typedef int32_t key_serial_t;
#endif
#ifndef KEYCTL_JOIN_SESSION_KEYRING
#define KEYCTL_JOIN_SESSION_KEYRING 1
#endif
#ifndef KEYCTL_CHOWN
#define KEYCTL_CHOWN 4
#endif
#ifndef KEYCTL_SETPERM
#define KEYCTL_SETPERM 5
#endif
#ifndef KEYCTL_DESCRIBE
#define KEYCTL_DESCRIBE 6
#endif
#ifndef KEYCTL_LINK
#define KEYCTL_LINK 8
#endif
#ifndef KEYCTL_READ
#define KEYCTL_READ 11
#endif
#ifndef KEYCTL_SET_TIMEOUT
#define KEYCTL_SET_TIMEOUT 15
#endif
#ifndef KEY_POS_VIEW
#define KEY_POS_VIEW 0x01000000
#define KEY_POS_READ 0x02000000
#define KEY_POS_WRITE 0x04000000
#define KEY_POS_SEARCH 0x08000000
#define KEY_POS_LINK 0x10000000
#define KEY_POS_SETATTR 0x20000000
#define KEY_USR_VIEW 0x00010000
#define KEY_USR_READ 0x00020000
#define KEY_USR_WRITE 0x00040000
#define KEY_USR_SEARCH 0x00080000
#define KEY_USR_LINK 0x00100000
#define KEY_USR_SETATTR 0x00200000
#define KEY_GRP_VIEW 0x00000100
#define KEY_GRP_READ 0x00000200
#define KEY_GRP_WRITE 0x00000400
#define KEY_GRP_SEARCH 0x00000800
#define KEY_GRP_LINK 0x00001000
#define KEY_GRP_SETATTR 0x00002000
#define KEY_OTH_VIEW 0x00000001
#define KEY_OTH_READ 0x00000002
#define KEY_OTH_WRITE 0x00000004
#define KEY_OTH_SEARCH 0x00000008
#define KEY_OTH_LINK 0x00000010
#define KEY_OTH_SETATTR 0x00000020
#endif
#ifndef KEY_SPEC_USER_KEYRING
#define KEY_SPEC_USER_KEYRING -4
#endif
#ifndef KEY_SPEC_SESSION_KEYRING
#define KEY_SPEC_SESSION_KEYRING -3
#endif
#ifndef PR_CAP_AMBIENT
#define PR_CAP_AMBIENT 47
#endif
#ifndef PR_CAP_AMBIENT_IS_SET
#define PR_CAP_AMBIENT_IS_SET 1
#endif
#ifndef PR_CAP_AMBIENT_RAISE
#define PR_CAP_AMBIENT_RAISE 2
#endif
#ifndef PR_CAP_AMBIENT_CLEAR_ALL
#define PR_CAP_AMBIENT_CLEAR_ALL 4
#endif
/* The following two defines are actually available in the kernel headers for longer, but we define them here anyway,
* since that makes it easier to use them in conjunction with the glibc net/if.h header which conflicts with
* linux/if.h. */
#ifndef IF_OPER_UNKNOWN
#define IF_OPER_UNKNOWN 0
#endif
#ifndef IF_OPER_UP
#define IF_OPER_UP 6
#if ! HAVE_CHAR32_T
#define char32_t uint32_t
#endif
#if ! HAVE_CHAR16_T
#define char16_t uint16_t
#endif
#ifndef ETHERTYPE_LLDP
#define ETHERTYPE_LLDP 0x88cc
#endif
#ifndef IFA_F_MCAUTOJOIN
#define IFA_F_MCAUTOJOIN 0x400
#endif
#if ! HAVE_STRUCT_ETHTOOL_LINK_SETTINGS
#define ETHTOOL_GLINKSETTINGS 0x0000004c /* Get ethtool_link_settings */
#define ETHTOOL_SLINKSETTINGS 0x0000004d /* Set ethtool_link_settings */
struct ethtool_link_settings {
__u32 cmd;
__u32 speed;
__u8 duplex;
__u8 port;
__u8 phy_address;
__u8 autoneg;
__u8 mdio_support;
__u8 eth_tp_mdix;
__u8 eth_tp_mdix_ctrl;
__s8 link_mode_masks_nwords;
__u32 reserved[8];
__u32 link_mode_masks[0];
/* layout of link_mode_masks fields:
* __u32 map_supported[link_mode_masks_nwords];
* __u32 map_advertising[link_mode_masks_nwords];
* __u32 map_lp_advertising[link_mode_masks_nwords];
*/
};
#endif
#if ! HAVE_STRUCT_FIB_RULE_UID_RANGE
struct fib_rule_uid_range {
__u32 start;
__u32 end;
};
#endif
#endif
#ifndef SOL_ALG
#define SOL_ALG 279
#endif
#ifndef AF_VSOCK
#define AF_VSOCK 40
#endif
#include "missing_syscall.h"