#![allow(dead_code, clippy::type_complexity)] use mpstthree::binary::struct_trait::end::End; use mpstthree::binary::struct_trait::recv::Recv; use mpstthree::binary::struct_trait::send::Send; use mpstthree::role::broadcast::RoleBroadcast; use mpstthree::role::end::RoleEnd; use mpstthree::{ checker_concat, checker_concat_impl, create_meshedchannels, create_multiple_normal_name, create_multiple_normal_role, }; use petgraph::dot::Dot; use std::fs::read_to_string; // Create new MeshedChannels create_meshedchannels!(MeshedChannels, 4); // Create new roles create_multiple_normal_role!( RoleA, RoleADual | RoleB, RoleBDual | RoleC, RoleCDual | RoleD, RoleDDual | ); // Create new names create_multiple_normal_name!(NameA, NameB, NameC, NameD); // The new types struct Connect; struct SyncAccess; struct Access; struct Logout; struct SyncLogout; struct SyncLog; struct Setup; struct Log; // Types // A type Choose0fromAtoB = Send; type Choose0fromAtoC = Send; type Choose0fromAtoD = Send; type Choose1fromAtoB = Send; type Choose1fromAtoC = Send; type Choose1fromAtoD = Send; // B type Recurs0BfromA = Recv; enum Branches0BfromA { End(MeshedChannels), Connect(MeshedChannels, End, RoleC>, NameB>), } type Recurs1BfromA = Recv; enum Branches1BfromA { Looping(MeshedChannels, End, End, RoleA>, NameB>), Logging( MeshedChannels< Recv>, End, Send, RoleA>>>, NameB, >, ), } // C type Recurs0CfromA = Recv; enum Branches0CfromA { End(MeshedChannels), Connect(MeshedChannels, End, End, RoleA>, NameC>), } type Recurs1CfromA = Recv; enum Branches1CfromA { Looping(MeshedChannels, NameC>), Logging( MeshedChannels< Send>, Send, End, RoleB>>>, NameC, >, ), } // D type Recurs0DfromA = Recv; enum Branches0DfromA { End(MeshedChannels), Connect(MeshedChannels, NameD>), } type Recurs1DfromA = Recv; enum Branches1DfromA { Looping(MeshedChannels, NameD>), Logging(MeshedChannels, End, RoleB>, NameD>), } // Creating the MP sessions // For A type EndpointAEnd = MeshedChannels; type EndpointAConnect = MeshedChannels< Choose1fromAtoB, Send>, Choose1fromAtoD, RoleC>, NameA, >; type EndpointALooping = MeshedChannels< Send, Choose1fromAtoC, Choose1fromAtoD, RoleB, NameA, >; type EndpointALogging = MeshedChannels< Send>, Send, Choose0fromAtoD, RoleC>>, NameA, >; type EndpointAFull = MeshedChannels; // For B type EndpointBFull = MeshedChannels, NameB>; // For C type EndpointCFull = MeshedChannels, NameC>; // For D type EndpointDFull = MeshedChannels, NameD>; ///////////////////////////////////////// checker_concat_impl!( [ Branches0BfromA, End, Branches0CfromA, End, Branches0DfromA, End ], [ Branches0BfromA, Connect, Branches0CfromA, Connect, Branches0DfromA, Connect ], [ Branches1BfromA, Looping, Branches1CfromA, Looping, Branches1DfromA, Looping ], [ Branches1BfromA, Logging, Branches1CfromA, Logging, Branches1DfromA, Logging ] ); pub fn main() { let (graphs, kmc) = checker_concat!( "cloud_system", EndpointAFull, EndpointBFull, EndpointCFull, EndpointDFull => [ EndpointAEnd, Branches0BfromA, End, Branches0CfromA, End, Branches0DfromA, End ], [ EndpointAConnect, Branches0BfromA, Connect, Branches0CfromA, Connect, Branches0DfromA, Connect ], [ EndpointALooping, Branches1BfromA, Looping, Branches1CfromA, Looping, Branches1DfromA, Looping ], [ EndpointALogging, Branches1BfromA, Logging, Branches1CfromA, Logging, Branches1DfromA, Logging ] ) .unwrap(); ////////////// Test graph A let graph_a = &graphs["RoleA"]; assert_eq!( format!("{:?}", Dot::new(&graph_a)), "digraph {\n \ 0 [ label = \"\\\"0\\\"\" ]\n \ 1 [ label = \"\\\"0.1\\\"\" ]\n \ 2 [ label = \"\\\"0.2\\\"\" ]\n \ 3 [ label = \"\\\"0.2.1\\\"\" ]\n \ 4 [ label = \"\\\"0.2.2\\\"\" ]\n \ 5 [ label = \"\\\"0.2.3\\\"\" ]\n \ 6 [ label = \"\\\"0.2.1\\\"\" ]\n \ 7 [ label = \"\\\"0.1\\\"\" ]\n \ 0 -> 1 [ label = \"\\\"RoleA!RoleC: Connect\\\"\" ]\n \ 1 -> 2 [ label = \"\\\"RoleA?RoleC: SyncAccess\\\"\" ]\n \ 2 -> 3 [ label = \"\\\"RoleA!RoleC: Logout\\\"\" ]\n \ 3 -> 4 [ label = \"\\\"RoleA!RoleB: SyncLogout\\\"\" ]\n \ 4 -> 5 [ label = \"\\\"RoleA?RoleB: SyncLog\\\"\" ]\n \ 5 -> 0 [ label = \"\\\"µ\\\"\" ]\n \ 2 -> 6 [ label = \"\\\"RoleA!RoleB: Access\\\"\" ]\n \ 6 -> 2 [ label = \"\\\"µ\\\"\" ]\n \ 0 -> 7 [ label = \"\\\"0\\\"\" ]\n\ }\n" ); ////////////// Test graph B let graph_b = &graphs["RoleB"]; assert_eq!( format!("{:?}", Dot::new(&graph_b)), "digraph {\n \ 0 [ label = \"\\\"0\\\"\" ]\n \ 1 [ label = \"\\\"0.1\\\"\" ]\n \ 2 [ label = \"\\\"0.1.1\\\"\" ]\n \ 3 [ label = \"\\\"0.1.2\\\"\" ]\n \ 4 [ label = \"\\\"0.1.3\\\"\" ]\n \ 5 [ label = \"\\\"0.1.1\\\"\" ]\n \ 6 [ label = \"\\\"0.1\\\"\" ]\n \ 0 -> 1 [ label = \"\\\"RoleB?RoleC: Setup\\\"\" ]\n \ 1 -> 2 [ label = \"\\\"RoleB?RoleA: SyncLogout\\\"\" ]\n \ 2 -> 3 [ label = \"\\\"RoleB!RoleD: Log\\\"\" ]\n \ 3 -> 4 [ label = \"\\\"RoleB!RoleA: SyncLog\\\"\" ]\n \ 4 -> 0 [ label = \"\\\"µ\\\"\" ]\n \ 1 -> 5 [ label = \"\\\"RoleB?RoleA: Access\\\"\" ]\n \ 5 -> 1 [ label = \"\\\"µ\\\"\" ]\n \ 0 -> 6 [ label = \"\\\"0\\\"\" ]\n\ }\n" ); ////////////// Test graph C let graph_c = &graphs["RoleC"]; assert_eq!( format!("{:?}", Dot::new(&graph_c)), "digraph {\n \ 0 [ label = \"\\\"0\\\"\" ]\n \ 1 [ label = \"\\\"0.1\\\"\" ]\n \ 2 [ label = \"\\\"0.1.1\\\"\" ]\n \ 3 [ label = \"\\\"0.1.2\\\"\" ]\n \ 4 [ label = \"\\\"0.1.3\\\"\" ]\n \ 5 [ label = \"\\\"0.1\\\"\" ]\n \ 0 -> 1 [ label = \"\\\"RoleC?RoleA: Connect\\\"\" ]\n \ 1 -> 2 [ label = \"\\\"RoleC!RoleB: Setup\\\"\" ]\n \ 2 -> 3 [ label = \"\\\"RoleC!RoleA: SyncAccess\\\"\" ]\n \ 3 -> 4 [ label = \"\\\"RoleC?RoleA: Logout\\\"\" ]\n \ 4 -> 0 [ label = \"\\\"µ\\\"\" ]\n \ 0 -> 5 [ label = \"\\\"0\\\"\" ]\n\ }\n" ); ////////////// Test graph D let graph_d = &graphs["RoleD"]; assert_eq!( format!("{:?}", Dot::new(&graph_d)), "digraph {\n \ 0 [ label = \"\\\"0\\\"\" ]\n \ 1 [ label = \"\\\"0.0.1\\\"\" ]\n \ 2 [ label = \"\\\"0.1\\\"\" ]\n \ 0 -> 1 [ label = \"\\\"RoleD?RoleB: Log\\\"\" ]\n \ 1 -> 0 [ label = \"\\\"µ\\\"\" ]\n \ 0 -> 2 [ label = \"\\\"0\\\"\" ]\n\ }\n" ); ////////////// Test KMC output assert_eq!( "CSA: \u{1b}[92mTrue\n\ \u{1b}[0mreduced 2-OBI: \u{1b}[92mTrue\n\ \u{1b}[0mreduced 2-SIBI: \u{1b}[92mTrue\n\ \u{1b}[0mreduced 2-exhaustive: \u{1b}[92mTrue\n\ \u{1b}[0mreduced 2-safe: \u{1b}[92mTrue\n\ \u{1b}[0m\n", read_to_string("outputs/cloud_system_2_kmc.txt").unwrap() ); ////////////// Test KMC number assert_eq!(kmc, Some(2)); }