in_flight_{false}, frequency_clock_{frequency_clock_t()}, timeout_clock_{frequency_clock_t()}
{}
-active_diagnostic_request_t::active_diagnostic_request_t(can_bus_dev_t* bus, DiagnosticRequest* request,
+active_diagnostic_request_t::active_diagnostic_request_t(std::shared_ptr<can_bus_dev_t> bus, DiagnosticRequest* request,
const std::string& name, bool wait_for_multiple_responses,
const DiagnosticResponseDecoder decoder,
const DiagnosticResponseCallback callback, float frequencyHz)
in_flight_{false}, frequency_clock_{frequency_clock_t(frequencyHz)}, timeout_clock_{frequency_clock_t(10)}
{}
-can_bus_dev_t* active_diagnostic_request_t::get_can_bus_dev()
+uint32_t active_diagnostic_request_t::get_id() const
+{
+ return id_;
+}
+
+std::shared_ptr<can_bus_dev_t> active_diagnostic_request_t::get_can_bus_dev()
{
return bus_;
}
return in_flight_;
}
+frequency_clock_t& active_diagnostic_request_t::get_frequency_clock()
+{
+ return frequency_clock_;
+}
+
+frequency_clock_t& active_diagnostic_request_t::get_timeout_clock()
+{
+ return timeout_clock_;
+}
+
void active_diagnostic_request_t::set_handle(DiagnosticShims& shims, DiagnosticRequest* request)
{
handle_ = new DiagnosticRequestHandle(generate_diagnostic_request(&shims, request, nullptr));
in_flight_ = val;
}
+bool active_diagnostic_request_t::should_send()
+{
+ return !get_in_flight() && (
+ (!get_recurring() && !request_completed()) ||
+ (get_recurring() && get_frequency_clock().elapsed(true)));
+}
+
bool active_diagnostic_request_t::timed_out()
{
// don't use staggered start with the timeout clock