#include <queue>
#include <vector>
-extern "C" {
/* Iterator within a trace */
-struct s_tmgr_trace_event_t {
+namespace simgrid {
+namespace kernel {
+namespace resource {
+class TraceEvent {
+public:
tmgr_trace_t trace;
unsigned int idx;
sg_resource_t resource;
bool free_me;
};
-typedef s_tmgr_trace_event_t* tmgr_trace_event_t;
+
+} // namespace resource
+} // namespace kernel
+} // namespace simgrid
+typedef simgrid::kernel::resource::TraceEvent* tmgr_trace_event_t;
+extern "C" {
/**
* \brief Free a trace event structure
* - #future_evt_set: makes it easy to find the next occuring event of all traces
*/
namespace trace_mgr {
-XBT_PUBLIC_CLASS DatedValue
-{
+class XBT_PUBLIC DatedValue {
public:
double date_ = 0;
double value_ = 0;
std::ostream& operator<<(std::ostream& out, const DatedValue& e);
/** @brief A trace_iterator links a trace to a resource */
-XBT_PUBLIC_CLASS trace_event{
-
+class XBT_PUBLIC trace_event {
};
/** @brief A trace is a set of timed values, encoding the value that a variable takes at what time *
* It is useful to model dynamic platforms, where an external load that makes the resource availability change over time.
* To model that, you have to set several traces per resource: one for the on/off state and one for each numerical value (computational speed, bandwidth and latency).
*/
-XBT_PUBLIC_CLASS trace {
+class XBT_PUBLIC trace {
public:
/** Creates an empty trace */
explicit trace();
/** @brief Future Event Set (collection of iterators over the traces)
* That's useful to quickly know which is the next occurring event in a set of traces. */
-XBT_PUBLIC_CLASS future_evt_set {
+class XBT_PUBLIC future_evt_set {
public:
future_evt_set();
virtual ~future_evt_set();
