#include <simgrid/s4u/Engine.hpp>
#include <simgrid/s4u/Exec.hpp>
#include <simgrid/s4u/Host.hpp>
+#include <simgrid/s4u/Io.hpp>
#include <simgrid/s4u/Link.hpp>
#include <simgrid/s4u/Mailbox.hpp>
#include <simgrid/s4u/Mutex.hpp>
#include <simgrid/s4u/NetZone.hpp>
#include <simgrid/s4u/Semaphore.hpp>
+#include <simgrid/s4u/Task.hpp>
#include <simgrid/version.h>
#include <algorithm>
#include <vector>
namespace py = pybind11;
+using simgrid::s4u::CommTask;
+using simgrid::s4u::CommTaskPtr;
+using simgrid::s4u::ExecTask;
+using simgrid::s4u::ExecTaskPtr;
+using simgrid::s4u::IoTask;
+using simgrid::s4u::IoTaskPtr;
+using simgrid::s4u::Task;
+using simgrid::s4u::TaskPtr;
using simgrid::s4u::Actor;
using simgrid::s4u::ActorPtr;
using simgrid::s4u::Barrier;
using simgrid::s4u::BarrierPtr;
using simgrid::s4u::Comm;
using simgrid::s4u::CommPtr;
+using simgrid::s4u::Disk;
using simgrid::s4u::Engine;
using simgrid::s4u::Host;
+using simgrid::s4u::Io;
using simgrid::s4u::Link;
using simgrid::s4u::Mailbox;
using simgrid::s4u::Mutex;
params[i - 1] = py::cast(args[i]);
const auto fun_or_class = py::reinterpret_borrow<py::object>(fun_or_class_p);
- py::object res = fun_or_class(*params);
+ py::object res = fun_or_class(*params);
/* If I was passed a class, I just built an instance, so I need to call it now */
if (py::isinstance<py::function>(res))
res();
"Retrieve the netpoint associated to this zone")
.def("seal", &simgrid::s4u::NetZone::seal, "Seal this NetZone")
.def_property_readonly("name", &simgrid::s4u::NetZone::get_name,
- "The name of this network zone (read-only property).");
+ "The name of this network zone (read-only property).")
+ .def(
+ "__repr__", [](const simgrid::s4u::NetZone net) { return "NetZone(" + net.get_name() + ")"; },
+ "Textual representation of the NetZone");
/* Class ClusterCallbacks */
py::class_<simgrid::s4u::ClusterCallbacks>(m, "ClusterCallbacks", "Callbacks used to create cluster zones")
return self.attr("netpoint");
})
.def_property_readonly("netpoint", &Host::get_netpoint, "Retrieve the netpoint associated to this zone")
+ .def_property_readonly("disks", &Host::get_disks, "The list of disks on this host (read-only).")
.def("get_disks", &Host::get_disks, "Retrieve the list of disks in this host")
.def("set_core_count",
[](py::object self, double count) // XBT_ATTRIB_DEPRECATED_v334
}
});
},
- "");
+ "")
+ .def(
+ "__repr__", [](const Host* h) { return "Host(" + h->get_name() + ")"; },
+ "Textual representation of the Host");
py::enum_<simgrid::s4u::Host::SharingPolicy>(host, "SharingPolicy")
.value("NONLINEAR", simgrid::s4u::Host::SharingPolicy::NONLINEAR)
"Set sharing policy for this disk", py::arg("op"), py::arg("policy"),
py::arg("cb") = simgrid::s4u::NonLinearResourceCb())
.def("seal", &simgrid::s4u::Disk::seal, py::call_guard<py::gil_scoped_release>(), "Seal this disk")
- .def_property_readonly("name", &simgrid::s4u::Disk::get_name, "The name of this disk (read-only property).");
+ .def_property_readonly("name", &simgrid::s4u::Disk::get_name, "The name of this disk (read-only property).")
+ .def(
+ "__repr__", [](const Disk* d) { return "Disk(" + d->get_name() + ")"; },
+ "Textual representation of the Disk");
py::enum_<simgrid::s4u::Disk::SharingPolicy>(disk, "SharingPolicy")
.value("NONLINEAR", simgrid::s4u::Disk::SharingPolicy::NONLINEAR)
.value("LINEAR", simgrid::s4u::Disk::SharingPolicy::LINEAR)
.def_property_readonly("name", &Link::get_name, "The name of this link")
.def_property_readonly("bandwidth", &Link::get_bandwidth,
"The bandwidth (in bytes per second) (read-only property).")
- .def_property_readonly("latency", &Link::get_latency, "The latency (in seconds) (read-only property).");
-
+ .def_property_readonly("latency", &Link::get_latency, "The latency (in seconds) (read-only property).")
+ .def(
+ "__repr__", [](const Link* l) { return "Link(" + l->get_name() + ")"; },
+ "Textual representation of the Link");
py::enum_<Link::SharingPolicy>(link, "SharingPolicy")
.value("NONLINEAR", Link::SharingPolicy::NONLINEAR)
.value("WIFI", Link::SharingPolicy::WIFI)
py::class_<simgrid::s4u::Mailbox, std::unique_ptr<Mailbox, py::nodelete>>(
m, "Mailbox", "Mailbox. See the C++ documentation for details.")
.def(
- "__str__", [](const Mailbox* self) { return "Mailbox(" + self->get_name() + ")"; },
- "Textual representation of the Mailbox`")
+ "__repr__", [](const Mailbox* self) { return "Mailbox(" + self->get_name() + ")"; },
+ "Textual representation of the Mailbox")
.def_static("by_name", &Mailbox::by_name, py::call_guard<py::gil_scoped_release>(), py::arg("name"),
"Retrieve a Mailbox from its name")
.def_property_readonly("name", &Mailbox::get_name, "The name of that mailbox (read-only property).")
.def("acquire_timeout", &Semaphore::acquire_timeout, py::call_guard<py::gil_scoped_release>(), py::arg("timeout"),
"Acquire on the semaphore object with no timeout. Blocks until the semaphore is acquired or return "
"true if it has not been acquired after the specified timeout.")
- .def("release", &Semaphore::release, py::call_guard<py::gil_scoped_release>(),
- "Release the semaphore.")
+ .def("release", &Semaphore::release, py::call_guard<py::gil_scoped_release>(), "Release the semaphore.")
.def_property_readonly("capacity", &Semaphore::get_capacity, py::call_guard<py::gil_scoped_release>(),
"Get the semaphore capacity.")
.def_property_readonly("would_block", &Semaphore::would_block, py::call_guard<py::gil_scoped_release>(),
.def("unlock", &Mutex::unlock, py::call_guard<py::gil_scoped_release>(), "Release the mutex.")
// Allow mutexes to be automatically acquired/released with a context manager: `with mutex: ...`
.def("__enter__", &Mutex::lock, py::call_guard<py::gil_scoped_release>())
- .def("__exit__", [](Mutex* self, const py::object&, const py::object&, const py::object&) { self->unlock(); },
- py::call_guard<py::gil_scoped_release>());
+ .def(
+ "__exit__", [](Mutex* self, const py::object&, const py::object&, const py::object&) { self->unlock(); },
+ py::call_guard<py::gil_scoped_release>());
/* Class Barrier */
- py::class_<Barrier, BarrierPtr>(m, "Barrier",
- "A classical barrier, but blocking in the simulation world.")
+ py::class_<Barrier, BarrierPtr>(m, "Barrier", "A classical barrier, but blocking in the simulation world.")
.def(py::init<>(&Barrier::create), py::call_guard<py::gil_scoped_release>(), py::arg("expected_actors"),
"Barrier constructor.")
.def("wait", &Barrier::wait, py::call_guard<py::gil_scoped_release>(),
.def("resume", &Actor::resume, py::call_guard<py::gil_scoped_release>(),
"Resume that actor, that was previously suspend()ed.")
.def_static("kill_all", &Actor::kill_all, py::call_guard<py::gil_scoped_release>(),
- "Kill all actors but the caller.");
+ "Kill all actors but the caller.")
+ .def(
+ "__repr__", [](const ActorPtr a) { return "Actor(" + a->get_name() + ")"; },
+ "Textual representation of the Actor");
+
+ /* Enum Class IoOpType */
+ py::enum_<simgrid::s4u::Io::OpType>(m, "IoOpType")
+ .value("READ", simgrid::s4u::Io::OpType::READ)
+ .value("WRITE", simgrid::s4u::Io::OpType::WRITE);
+
+ /* Class Task */
+ py::class_<Task, TaskPtr>(m, "Task", "Task. See the C++ documentation for details.")
+ .def_static(
+ "on_start_cb",
+ [](py::object cb) {
+ cb.inc_ref(); // keep alive after return
+ const py::gil_scoped_release gil_release;
+ Task::on_start_cb([cb_p = cb.ptr()](Task* op) {
+ const py::gil_scoped_acquire py_context; // need a new context for callback
+ py::reinterpret_borrow<py::function>(cb_p)(op);
+ });
+ },
+ "Add a callback called when each task starts.")
+ .def_static(
+ "on_completion_cb",
+ [](py::object cb) {
+ cb.inc_ref(); // keep alive after return
+ const py::gil_scoped_release gil_release;
+ Task::on_completion_cb([cb_p = cb.ptr()](Task* op) {
+ const py::gil_scoped_acquire py_context; // need a new context for callback
+ py::reinterpret_borrow<py::function>(cb_p)(op);
+ });
+ },
+ "Add a callback called when each task ends.")
+ .def_property_readonly("name", &Task::get_name, "The name of this task (read-only).")
+ .def_property_readonly("count", &Task::get_count, "The execution count of this task (read-only).")
+ .def_property_readonly("successors", &Task::get_successors, "The successors of this task (read-only).")
+ .def_property("amount", &Task::get_amount, &Task::set_amount, "The amount of work to do for this task.")
+ .def("enqueue_firings", py::overload_cast<int>(&Task::enqueue_firings), py::call_guard<py::gil_scoped_release>(),
+ py::arg("n"), "Enqueue firings for this task.")
+ .def("add_successor", py::overload_cast<TaskPtr>(&Task::add_successor), py::call_guard<py::gil_scoped_release>(),
+ py::arg("op"), "Add a successor to this task.")
+ .def("remove_successor", py::overload_cast<TaskPtr>(&Task::remove_successor),
+ py::call_guard<py::gil_scoped_release>(), py::arg("op"), "Remove a successor of this task.")
+ .def("remove_all_successors", &Task::remove_all_successors, py::call_guard<py::gil_scoped_release>(),
+ "Remove all successors of this task.")
+ .def("on_this_start_cb", py::overload_cast<const std::function<void(Task*)>&>(&Task::on_this_start_cb),
+ py::arg("func"), "Add a callback called when this task starts.")
+ .def("on_this_completion_cb", py::overload_cast<const std::function<void(Task*)>&>(&Task::on_this_completion_cb),
+ py::arg("func"), "Add a callback called when this task ends.")
+ .def(
+ "__repr__", [](const TaskPtr op) { return "Task(" + op->get_name() + ")"; },
+ "Textual representation of the Task");
+
+ /* Class CommTask */
+ py::class_<CommTask, CommTaskPtr, Task>(m, "CommTask", "Communication Task. See the C++ documentation for details.")
+ .def_static("init", py::overload_cast<const std::string&>(&CommTask::init),
+ py::call_guard<py::gil_scoped_release>(), py::arg("name"), "CommTask constructor")
+ .def_static("init", py::overload_cast<const std::string&, double, Host*, Host*>(&CommTask::init),
+ py::call_guard<py::gil_scoped_release>(), py::arg("name"), py::arg("bytes"), py::arg("source"),
+ py::arg("destination"), "CommTask constructor")
+ .def_property("source", &CommTask::get_source, &CommTask::set_source, "The source of the communication.")
+ .def_property("destination", &CommTask::get_destination, &CommTask::set_destination,
+ "The destination of the communication.")
+ .def_property("bytes", &CommTask::get_bytes, &CommTask::set_bytes, "The amount of bytes to send.")
+ .def(
+ "__repr__", [](const CommTaskPtr c) { return "CommTask(" + c->get_name() + ")"; },
+ "Textual representation of the CommTask");
+
+ /* Class ExecTask */
+ py::class_<ExecTask, ExecTaskPtr, Task>(m, "ExecTask", "Execution Task. See the C++ documentation for details.")
+ .def_static("init", py::overload_cast<const std::string&>(&ExecTask::init),
+ py::call_guard<py::gil_scoped_release>(), py::arg("name"), "ExecTask constructor")
+ .def_static("init", py::overload_cast<const std::string&, double, Host*>(&ExecTask::init),
+ py::call_guard<py::gil_scoped_release>(), py::arg("name"), py::arg("flops"), py::arg("host"),
+ "CommTask constructor.")
+ .def_property("host", &ExecTask::get_host, &ExecTask::set_host, "The host of the execution.")
+ .def_property("flops", &ExecTask::get_flops, &ExecTask::set_flops, "The amount of flops to execute.")
+ .def(
+ "__repr__", [](const ExecTaskPtr e) { return "ExecTask(" + e->get_name() + ")"; },
+ "Textual representation of the ExecTask");
+
+ /* Class IoTask */
+ py::class_<IoTask, IoTaskPtr, Task>(m, "IoTask", "IO Task. See the C++ documentation for details.")
+ .def_static("init", py::overload_cast<const std::string&>(&IoTask::init),
+ py::call_guard<py::gil_scoped_release>(), py::arg("name"), "IoTask constructor")
+ .def_static("init", py::overload_cast<const std::string&, double, Disk*, Io::OpType>(&IoTask::init),
+ py::call_guard<py::gil_scoped_release>(), py::arg("name"), py::arg("bytes"), py::arg("disk"),
+ py::arg("type"), "IoTask constructor.")
+ .def_property("disk", &IoTask::get_disk, &IoTask::set_disk, "The disk of the IO.")
+ .def_property("bytes", &IoTask::get_bytes, &IoTask::set_bytes, "The amount of bytes to process.")
+ .def_property("type", &IoTask::get_bytes, &IoTask::set_bytes, "The type of IO.")
+ .def(
+ "__repr__", [](const IoTaskPtr io) { return "IoTask(" + io->get_name() + ")"; },
+ "Textual representation of the IoTask");
}
