Import Debian changes 1.18.0-1ubuntu1

network-manager (1.18.0-1ubuntu1) eoan; urgency=medium

  * Update to 1.18, merge on Debian, new version includes nwe support for
    policy routing rules and for VLAN filtering for Linux bridge.
  * Remaining Ubuntu changes
    - Use systemd-resolved instead of dnsmasq
    - debian/control:
      + Depend on isc-dhcp-client instead of recommends
      + Recommend network-manager-pptp
      + Suggest avahi-autoipd for IPv4LL support
    - debian/rules, debian/network-manager.postinst:
      + Don't restart NetworkManager on upgrade but recommend restarting
        the computer
    - debian/rules, debian/network-manager.postinst:
      + Don't install sysvinit scripts or migrate from sysvinit
    - debian/network-manager.postinst:
      + Don't add the netdev group.
      + drop in an empty override file for NetworkManager to manage all
        devices for upgrade from any version, as long as there is no
        netplan configuration yet.
    - debian/default-wifi-powersave-on.conf, debian/rules:
      + Install a config file to enable WiFi powersave
    - Enable build tests
    - Add autopkgtests
    - debian/source_network-manager.py, debian/network-manager.install,
      debian/network-manager.links: Add apport hook
    - Add network-manager-config-connectivity-ubuntu package
    - NetworkManager.conf: disable MAC randomization feature. There is no
      easy way for desktop users to disable this feature yet. And there are
      reports that it doesn't work well with some systems.
    - Update Vcs links to point to Ubuntu branch
    - Add patches. See patch descriptions for more details:
      + Provide-access-to-some-of-NM-s-interfaces-to-whoopsie.patch
      + Update-dnsmasq-parameters.patch
      + Disable-general-with-expect.patch
      + libnm-Check-self-still-NMManager-or-not.patch
      + dns-manager-don-t-merge-split-DNS-search-domains.patch (but disabled)
      + Read-system-connections-from-run.patch
    - debian/tests/urfkill-integration - don't stop/start network manager
    - Revert "Add Conflicts to network-manager-dev against deprecated libraries"
      This reverts commit b4acc5e03e2b821e1cccc69529bb70826c741942.  We're still
      building libnm-glib for now, so these packages have a use in Ubuntu.
  * Removed delta, not needed anymore
    - debian/network-manager.maintscript
      + Remove /etc/dbus-1/system.d/nm-ofono.conf

1 files changed, 273 insertions, 0 deletions

diff --git a/shared/nm-glib-aux/nm-time-utils.c b/shared/nm-glib-aux/nm-time-utils.c
new file mode 100644
index 00000000..ae526c34
--- /dev/null
+++ b/shared/nm-glib-aux/nm-time-utils.c
@@ -0,0 +1,273 @@
+/* NetworkManager -- Network link manager
+ *
+ * This library 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 of the License, or (at your option) any later version.
+ *
+ * This library 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 this library; if not, write to the
+ * Free Software Foundation, Inc., 51 Franklin Street, Fifth Floor,
+ * Boston, MA 02110-1301 USA.
+ *
+ * (C) Copyright 2018 Red Hat, Inc.
+ */
+
+#include "nm-default.h"
+
+#include "nm-time-utils.h"
+
+/*****************************************************************************/
+
+typedef struct {
+	/* the offset to the native clock, in seconds. */
+	gint64 offset_sec;
+	clockid_t clk_id;
+} GlobalState;
+
+static const GlobalState *volatile p_global_state;
+
+static const GlobalState *
+_t_init_global_state (void)
+{
+	static GlobalState global_state = { };
+	static gsize init_once = 0;
+	const GlobalState *p;
+	clockid_t clk_id;
+	struct timespec tp;
+	gint64 offset_sec;
+	int r;
+
+	clk_id = CLOCK_BOOTTIME;
+	r = clock_gettime (clk_id, &tp);
+	if (r == -1 && errno == EINVAL) {
+		clk_id = CLOCK_MONOTONIC;
+		r = clock_gettime (clk_id, &tp);
+	}
+
+	/* The only failure we tolerate is that CLOCK_BOOTTIME is not supported.
+	 * Other than that, we rely on kernel to not fail on this. */
+	g_assert (r == 0);
+	g_assert (tp.tv_nsec >= 0 && tp.tv_nsec < NM_UTILS_NS_PER_SECOND);
+
+	/* Calculate an offset for the time stamp.
+	 *
+	 * We always want positive values, because then we can initialize
+	 * a timestamp with 0 and be sure, that it will be less then any
+	 * value nm_utils_get_monotonic_timestamp_*() might return.
+	 * For this to be true also for nm_utils_get_monotonic_timestamp_s() at
+	 * early boot, we have to shift the timestamp to start counting at
+	 * least from 1 second onward.
+	 *
+	 * Another advantage of shifting is, that this way we make use of the whole 31 bit
+	 * range of signed int, before the time stamp for nm_utils_get_monotonic_timestamp_s()
+	 * wraps (~68 years).
+	 **/
+	offset_sec = (- ((gint64) tp.tv_sec)) + 1;
+
+	if (!g_once_init_enter (&init_once)) {
+		/* there was a race. We expect the pointer to be fully initialized now. */
+		p = g_atomic_pointer_get (&p_global_state);
+		g_assert (p);
+		return p;
+	}
+
+	global_state.offset_sec = offset_sec;
+	global_state.clk_id = clk_id;
+	p = &global_state;
+	g_atomic_pointer_set (&p_global_state, p);
+	g_once_init_leave (&init_once, 1);
+
+	_nm_utils_monotonic_timestamp_initialized (&tp,
+	                                           p->offset_sec,
+	                                           p->clk_id == CLOCK_BOOTTIME);
+
+	return p;
+}
+
+#define _t_get_global_state() \
+	({ \
+		const GlobalState *_p; \
+		\
+		_p = g_atomic_pointer_get (&p_global_state); \
+		(G_LIKELY (_p) ? _p : _t_init_global_state ()); \
+	})
+
+#define _t_clock_gettime_eval(p, tp) \
+	({ \
+		struct timespec *const _tp = (tp); \
+		const GlobalState *const _p2 = (p); \
+		int _r; \
+		\
+		nm_assert (_tp); \
+		\
+		_r = clock_gettime (_p2->clk_id, _tp); \
+		\
+		nm_assert (_r == 0); \
+		nm_assert (_tp->tv_nsec >= 0 && _tp->tv_nsec < NM_UTILS_NS_PER_SECOND); \
+		\
+		_p2; \
+	})
+
+#define _t_clock_gettime(tp) \
+	_t_clock_gettime_eval (_t_get_global_state (), tp);
+
+/*****************************************************************************/
+
+/**
+ * nm_utils_get_monotonic_timestamp_ns:
+ *
+ * Returns: a monotonically increasing time stamp in nanoseconds,
+ * starting at an unspecified offset. See clock_gettime(), %CLOCK_BOOTTIME.
+ *
+ * The returned value will start counting at an undefined point
+ * in the past and will always be positive.
+ *
+ * All the nm_utils_get_monotonic_timestamp_*s functions return the same
+ * timestamp but in different scales (nsec, usec, msec, sec).
+ **/
+gint64
+nm_utils_get_monotonic_timestamp_ns (void)
+{
+	const GlobalState *p;
+	struct timespec tp;
+
+	p = _t_clock_gettime (&tp);
+
+	/* Although the result will always be positive, we return a signed
+	 * integer, which makes it easier to calculate time differences (when
+	 * you want to subtract signed values).
+	 **/
+	return (((gint64) tp.tv_sec) + p->offset_sec) * NM_UTILS_NS_PER_SECOND +
+	       tp.tv_nsec;
+}
+
+/**
+ * nm_utils_get_monotonic_timestamp_us:
+ *
+ * Returns: a monotonically increasing time stamp in microseconds,
+ * starting at an unspecified offset. See clock_gettime(), %CLOCK_BOOTTIME.
+ *
+ * The returned value will start counting at an undefined point
+ * in the past and will always be positive.
+ *
+ * All the nm_utils_get_monotonic_timestamp_*s functions return the same
+ * timestamp but in different scales (nsec, usec, msec, sec).
+ **/
+gint64
+nm_utils_get_monotonic_timestamp_us (void)
+{
+	const GlobalState *p;
+	struct timespec tp;
+
+	p = _t_clock_gettime (&tp);
+
+	/* Although the result will always be positive, we return a signed
+	 * integer, which makes it easier to calculate time differences (when
+	 * you want to subtract signed values).
+	 **/
+	return (((gint64) tp.tv_sec) + p->offset_sec) * ((gint64) G_USEC_PER_SEC) +
+	       (tp.tv_nsec / (NM_UTILS_NS_PER_SECOND/G_USEC_PER_SEC));
+}
+
+/**
+ * nm_utils_get_monotonic_timestamp_ms:
+ *
+ * Returns: a monotonically increasing time stamp in milliseconds,
+ * starting at an unspecified offset. See clock_gettime(), %CLOCK_BOOTTIME.
+ *
+ * The returned value will start counting at an undefined point
+ * in the past and will always be positive.
+ *
+ * All the nm_utils_get_monotonic_timestamp_*s functions return the same
+ * timestamp but in different scales (nsec, usec, msec, sec).
+ **/
+gint64
+nm_utils_get_monotonic_timestamp_ms (void)
+{
+	const GlobalState *p;
+	struct timespec tp;
+
+	p = _t_clock_gettime (&tp);
+
+	/* Although the result will always be positive, we return a signed
+	 * integer, which makes it easier to calculate time differences (when
+	 * you want to subtract signed values).
+	 **/
+	return (((gint64) tp.tv_sec) + p->offset_sec) * ((gint64) 1000) +
+	       (tp.tv_nsec / (NM_UTILS_NS_PER_SECOND/1000));
+}
+
+/**
+ * nm_utils_get_monotonic_timestamp_s:
+ *
+ * Returns: nm_utils_get_monotonic_timestamp_ms() in seconds (throwing
+ * away sub second parts). The returned value will always be positive.
+ *
+ * This value wraps after roughly 68 years which should be fine for any
+ * practical purpose.
+ *
+ * All the nm_utils_get_monotonic_timestamp_*s functions return the same
+ * timestamp but in different scales (nsec, usec, msec, sec).
+ **/
+gint32
+nm_utils_get_monotonic_timestamp_s (void)
+{
+	const GlobalState *p;
+	struct timespec tp;
+
+	p = _t_clock_gettime (&tp);
+
+	return (((gint64) tp.tv_sec) + p->offset_sec);
+}
+
+/**
+ * nm_utils_monotonic_timestamp_as_boottime:
+ * @timestamp: the monotonic-timestamp that should be converted into CLOCK_BOOTTIME.
+ * @timestamp_ns_per_tick: How many nano seconds make one unit of @timestamp? E.g. if
+ * @timestamp is in unit seconds, pass %NM_UTILS_NS_PER_SECOND; @timestamp in nano
+ * seconds, pass 1; @timestamp in milli seconds, pass %NM_UTILS_NS_PER_SECOND/1000; etc.
+ *
+ * Returns: the monotonic-timestamp as CLOCK_BOOTTIME, as returned by clock_gettime().
+ * The unit is the same as the passed in @timestamp basd on @timestamp_ns_per_tick.
+ * E.g. if you passed @timestamp in as seconds, it will return boottime in seconds.
+ * If @timestamp is a non-positive, it returns -1. Note that a (valid) monotonic-timestamp
+ * is always positive.
+ *
+ * On older kernels that don't support CLOCK_BOOTTIME, the returned time is instead CLOCK_MONOTONIC.
+ **/
+gint64
+nm_utils_monotonic_timestamp_as_boottime (gint64 timestamp, gint64 timestamp_ns_per_tick)
+{
+	const GlobalState *p;
+	gint64 offset;
+
+	/* only support ns-per-tick being a multiple of 10. */
+	g_return_val_if_fail (timestamp_ns_per_tick == 1
+	                      || (timestamp_ns_per_tick > 0 &&
+	                          timestamp_ns_per_tick <= NM_UTILS_NS_PER_SECOND &&
+	                          timestamp_ns_per_tick % 10 == 0),
+	                      -1);
+
+	/* Check that the timestamp is in a valid range. */
+	g_return_val_if_fail (timestamp >= 0, -1);
+
+	/* if the caller didn't yet ever fetch a monotonic-timestamp, he cannot pass any meaningful
+	 * value (because he has no idea what these timestamps would be). That would be a bug. */
+	nm_assert (g_atomic_pointer_get (&p_global_state));
+
+	p = _t_get_global_state ();
+
+	/* calculate the offset of monotonic-timestamp to boottime. offset_s is <= 1. */
+	offset = p->offset_sec * (NM_UTILS_NS_PER_SECOND / timestamp_ns_per_tick);
+
+	/* check for overflow. */
+	g_return_val_if_fail (offset > 0 || timestamp < G_MAXINT64 + offset, G_MAXINT64);
+
+	return timestamp - offset;
+}