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let test_non_overlapping_keys_owner ( ) = assert_non_overlapping_keys ~ loc : __LOC__ ~ ticketer1 { " :| KT1ThEdxfUcWUwqsdergy3QnbCWGHSUHeHJq " } | ~ ticketer2 { " :| KT1ThEdxfUcWUwqsdergy3QnbCWGHSUHeHJq " } | ~ typ1 " : nat " ~ typ2 " : int " ~ contents1 { " :| 1 " } ... |
let test_ticket_balance_single_update ( ) = let * ctxt = make_context ( ) in let * ( alice_red , ctxt ) = make_key ctxt " alice_red " in let * ( _ , ctxt ) = adjust_balance ctxt alice_red 1 in assert_balance ctxt ~ loc : __LOC__ alice_red 1 |
let test_ticket_balance_different_owners ( ) = let * ctxt = make_context ( ) in let * ( alice_red , ctxt ) = make_key ctxt " alice_red " in let * ( alice_blue , ctxt ) = make_key ctxt " alice_blue " in let * ( _ , ctxt ) = adjust_balance ctxt alice_red 1 in let * ( _ , ... |
let test_ticket_balance_multiple_updates ( ) = let * ctxt = make_context ( ) in let * ( alice_red , ctxt ) = make_key ctxt " alice_red " in let * ( _ , ctxt ) = adjust_balance ctxt alice_red 1 in let * ( _ , ctxt ) = adjust_balance ctxt alice_red 2 in let * ( _ , ctxt ) ... |
let test_empty_balance ( ) = let * ctxt = make_context ( ) in let * ( alice_red , ctxt ) = make_key ctxt " alice_red " in assert_no_balance ctxt alice_red |
let test_empty_balance_after_update ( ) = let * ctxt = make_context ( ) in let * ( alice_red , ctxt ) = make_key ctxt " alice_red " in let * ( _ , ctxt ) = adjust_balance ctxt alice_red 1 in let * ( _ , ctxt ) = adjust_balance ctxt alice_red ( - 1 ) in assert_no_balance c... |
let test_negative_balance ( ) = let * ctxt = make_context ( ) in let * ( alice_red , ctxt ) = make_key ctxt " alice_red " in adjust_balance ctxt alice_red ( - 1 ) >>= fun res -> Assert . proto_error ~ loc : __LOC__ res ( fun _err -> true ) |
let test_storage_space ( ) = let * ctxt = make_context ( ) in let * ( alice_red , ctxt ) = make_key ctxt " alice_red " in let * ( space , ctxt ) = adjust_balance ctxt alice_red 1 in let * ( ) = Assert . equal_int ~ loc : __LOC__ 66 ( Z . to_int space ) in let * ( spa... |
let tests = [ Tztest . tztest " no overlapping keys for ticketer " ` Quick test_non_overlapping_keys_ticketer ; Tztest . tztest " no overlapping keys for content " ` Quick test_non_overlapping_keys_contents ; Tztest . tztest " no overlapping keys for content type " ` Quick test_non_overla... |
let create ( ) = let open Uint16 in Tile_data . create ~ start_addr ( : of_int 0x8000 ) ~ end_addr ( : of_int 0x97FF ) let open Uint16 in let t = create ( ) in t |> Tile_data . write_byte ~ addr ( : of_int 0x8000 ) ~ data ( : Uint8 . of_int 0b01001110 ) ; t |> Tile_data .... |
let area0_start_addr = Uint16 . of_int 0x9800 |
let area1_start_addr = Uint16 . of_int 0x9C00 |
let create ( ) = Tile_map . create ~ area0_start_addr ~ area0_end_addr ( : Uint16 . of_int 0x9BFF ) ~ area1_start_addr ~ area1_end_addr ( : Uint16 . of_int 0x9FFF ) |
let print_all_tiles ~ area t = for y = 0 to 30 do for x = 0 to 60 do Tile_map . get_tile_index t ~ area ~ y ~ x |> Uint8 . to_int |> Printf . printf " % d " done ; Printf . printf " \ n " done |
let write t ~ area ~ y ~ x ~ data = let start = match area with Tile_map . Area0 -> area0_start_addr | Area1 -> area1_start_addr in Tile_map . write_byte t ~ addr : Uint16 . ( start + of_int y * of_int 32 + of_int x ) ~ data : Uint8 . ( of_int data ) let t = create ( ) in Tile_map ... |
module Protocol = struct include Protocol open QCheck2 let max_rfc3339_seconds = to_seconds max_rfc3339 let min_rfc3339_seconds = to_seconds min_rfc3339 let gen = Gen . ( map of_seconds int64 ) let rfc3339_compatible_t_gen = let open Gen in let within_rfc3339 = map of_seconds ( int64_range_gen min_rfc3339... |
module System = struct open System open QCheck2 let gen_date : ( int * int * int ) Gen . t = let open Gen in let thirty_one = [ 1 ; 3 ; 5 ; 7 ; 8 ; 10 ; 12 ] |> List . map pure |> oneof in let thirty = [ 4 ; 6 ; 9 ; 11 ] |> List . map pure |> oneof in let gen_mo... |
let ( ) = Alcotest . run " Time " [ ( " Protocol " , qcheck_wrap Protocol . tests ) ; ( " System " , qcheck_wrap System . tests ) ; ] |
let wrap e = Lwt . return ( Environment . wrap_tzresult e ) |
let simple_test ( ) = let ( public , secret ) = Timelock . gen_rsa_keys ( ) in let locked_value = Timelock . gen_locked_value public in let time = 1000 in let unlocked_value = Timelock . unlock_with_secret secret ~ time locked_value in let ( same_unlocked , proof ) = Timelock . unloc... |
let contract_test ( ) = let originate_contract file storage src b = let load_file f = let ic = open_in f in let res = really_input_string ic ( in_channel_length ic ) in close_in ic ; res in let contract_string = load_file file in let code = Expr . toplevel_from_string contract_string in let storage ... |
let tests = [ Tztest . tztest " simple test " ` Quick simple_test ; Tztest . tztest " contract test " ` Quick contract_test ; ] |
let div_addr = Uint16 . ( of_int 0xFF04 ) |
let tima_addr = Uint16 . ( of_int 0xFF05 ) |
let tma_addr = Uint16 . ( of_int 0xFF06 ) |
let tac_addr = Uint16 . ( of_int 0xFF07 ) |
let ic = Interrupt_controller . create ~ ie_addr : Uint16 . ( of_int 0xFFFF ) ~ if_addr : Uint16 . ( of_int 0xFF0F ) |
let create ( ) = Timer . create ~ div_addr ~ tima_addr ~ tma_addr ~ tac_addr ~ ic |
let set_tima t bits = Timer . write_byte t ~ addr : tac_addr ~ data : Uint8 . ( of_int bits ) |
let print t addr = Timer . read_byte t addr |> Uint8 . show |> print_endline |
let print_before_and_after_mcycles t addr mcycles = Timer . run t ~ mcycles ( : mcycles - 1 ) ; print t addr ; Timer . run t ~ mcycles : 1 ; print t addr let t = create ( ) in print_before_and_after_mcycles t div_addr 64 ; [ % expect { | $ 00 $ 01 } ] | let t = create ( )... |
type time_ns = Time_ns . t [ @@ deriving compare ] |
let quickcheck_generator = let open Quickcheck . Generator . Let_syntax in let % map ns_since_epoch = Int63 . gen_incl ( Time_ns . to_int63_ns_since_epoch Time_ns . min_value_for_1us_rounding ) ( Time_ns . to_int63_ns_since_epoch Time_ns . max_value_for_1us_rounding ) in Time_ns . of_int63_ns... |
let randomly_round quickcheck_generator = let open Quickcheck . Generator . Let_syntax in let % bind time_ns = quickcheck_generator in let % map unit = Quickcheck . Generator . of_list [ Time_ns . Span . second ; Time_ns . Span . of_int_ms 100 ; Time_ns . Span . of_int_ms 10 ; Time_ns... |
let quickcheck here quickcheck_generator f = require_does_not_raise here ( fun ( ) -> Quickcheck . test quickcheck_generator ~ f ~ sexp_of [ :% sexp_of : time_ns ] ~ examples : [ Time_ns . min_value_for_1us_rounding ; Time_ns . epoch ; Time_ns . max_value_for_1us_rounding ] ) ; ; ... |
let succ time_ns = time_ns |> Time_ns . to_int63_ns_since_epoch |> Int63 . succ |> Time_ns . of_int63_ns_since_epoch ; ; |
let pred time_ns = time_ns |> Time_ns . to_int63_ns_since_epoch |> Int63 . pred |> Time_ns . of_int63_ns_since_epoch ; ; print_and_check_stable_type [ % here ] ( module Time_ns . Stable . Alternate_sexp . V1 ) [ Time_ns . min_value_for_1us_rounding ; Time_ns . min_value_for_1us_roun... |
module Span = struct open ! Time_ns . Span let % test ( _ [ @ tags " 64 - bits - only " ] ) = Int . ( > ) ( to_int_sec ( of_int63_ns Int63 . max_value ) ) 0 ; ; let % test_module " overflow silently " = ( module struct let doesn ' t_raise = Fn . non Exn . does... |
[ %% import " config . h " ] ( module struct [ %% ifdef JSC_ARCH_SIXTYFOUR ] let % expect_test " time moves backwards " = let y2000 = Time . of_string " 2000 - 01 - 01 00 : 00 : 00 UTC " |> Time . to_span_since_epoch |> Time . Span . to_sec in let one_hour = 3600 . i... |
module Examples = struct let % expect_test " sample transitions " = let zone = Time . Zone . find_exn " America / New_York " in let time = Time . of_date_ofday ~ zone ( Date . of_string " 2013 - 10 - 07 " ) ( Time . Ofday . of_string " 09 : 30 " ) in let prev_clock_shi... |
module type Time = sig module Zone : sig type t val find_exn : string -> t end module Ofday : sig type t val of_string : string -> t end type t val of_string : string -> t end |
let run ( type zone ofday time ) time_m title f examples = let ( module Time : Time with type Zone . t = zone and type Ofday . t = ofday and type t = time ) = time_m in List . iter examples ~ f ( : fun ( zone , date , ofday , occurrences ) -> let time offset = Time . of_string ( ... |
let test time_m f = let go title examples = require_does_not_raise [ % here ] ( fun ( ) -> run time_m title f examples ; run time_m title f ( examples |> List . rev ) ) in let open Examples in go " same_day " same_day ; go " consecutive_days " consecutive_days ; go " non_consecuti... |
module Date_and_ofday = struct type t = Date . t * Time . Ofday . t [ @@ deriving compare , sexp_of ] let equal = [ % compare . equal : t ] end |
module Date_and_ofday_ns = struct type t = Date . t * Time_ns . Ofday . t [ @@ deriving compare , sexp_of ] let equal = [ % compare . equal : t ] end |
module Time_precise = struct type t = [ ` Never of Time . t | ` Once of Time . t | ` Twice of Time . t * Time . t ] [ @@ deriving compare , sexp_of ] let equal = [ % compare . equal : t ] end |
module Date_ofday_precise = struct type t = Date . t * Time . Ofday . t * [ ` Only | ` Also_at of Time . t | ` Also_skipped of Date . t * Time . Ofday . t ] [ @@ deriving compare , sexp_of ] let equal = [ % compare . equal : t ] end test ( module Time ) ( fun ~ titl... |
module Time_ns = struct include Time_ns module Span = struct include Span let of_int_ns i = i |> Int63 . of_int |> of_int63_ns end let sexp_of_t = Alternate_sexp . sexp_of_t end |
let show t = print_s [ % sexp ( t : _ t ) ] |
let gibi = 2 . ** 30 . |
let gibi_nanos float = float . * gibi |> Time_ns . Span . of_ns |
module Num_key_bits = struct open ! Private . Num_key_bits let % test_unit _ = invariant zero end |
module Alarm_precision = struct include Alarm_precision let sexp_of_t t = [ % message " " ~ _ ( : t : t ) ~ _ : ( String . concat [ t |> to_span |> Time_ns . Span . to_int63_ns |> Int63 . to_string_hum ; " ns " ] ) ] ; ; let print t = print_s [ % sexp ( t : t ) ... |
let create_config ? extend_to_max_num_bits ? level_bits ~ alarm_precision ( ) = Config . create ( ) ~ alarm_precision ( : alarm_precision |> Alarm_precision . of_span_floor_pow2_ns ) ? level_bits : ( Option . map level_bits ~ f ( : Level_bits . create_exn ? extend_to_max_num_bits ) ... |
let create_unit ? extend_to_max_num_bits ? level_bits ( ? start = Time_ns . epoch ) ( ? alarm_precision = gibi_nanos 1 . ) ( ) = create ~ config ( : create_config ? extend_to_max_num_bits ? level_bits ( ) ~ alarm_precision ) ~ start ; ; let test level_bits = let t = create_un... |
let advance_clock_to_interval_num t ~ to_ ~ handle_fired = advance_clock t ~ to_ ( : interval_num_start t to_ ) ~ handle_fired ; ; let t = create_unit ( ) ~ level_bits [ : 1 ] in let add ~ at = ignore ( add_at_interval_num t ~ at ( ) : _ Alarm . t ) in for interval_num = Interv... |
let advance_clock_to_interval_num_return_removed_interval_nums t ~ to_ = let r = ref [ ] in let handle_fired alarm = r := Alarm . interval_num t alarm :: ! r in advance_clock_to_interval_num t ~ to_ ~ handle_fired ; ! r ; ; let t = create_unit ( ) ~ level_bits [ : 1 ] in let add ~ at ... |
module Interval_num_option = struct type t = Interval_num . t option [ @@ deriving compare , sexp_of ] let equal = [ % compare . equal : t ] end let t = create_unit ( ) ~ level_bits [ : 1 ; 1 ; 1 ; 1 ] in require [ % here ] ( is_none ( min_alarm_interval_num t ) ) ;... |
let test_reschedule reschedule = let epoch_plus n_seconds = Time_ns . add Time_ns . epoch ( gibi_nanos n_seconds ) in let t = create ~ config ( : create_config ~ alarm_precision ( : gibi_nanos 1 . ) ~ level_bits [ : 10 ] ( ) ) ~ start ( : epoch_plus 0 . ) in let alarm1 = a... |
let wrap e = e >|= Environment . wrap_tzresult |
let create_context ( ) = let accounts = Account . generate_accounts 1 in Block . alpha_context accounts >>=? fun ctxt -> match accounts with | [ ( { pkh ; _ } , _ ) ] -> return ( ctxt , pkh ) | _ -> assert false |
let random_amount ( ) = match Tez . of_mutez ( Int64 . add 1L ( Random . int64 100L ) ) with | None -> assert false | Some x -> x |
let test_simple_balances ( ) = Random . init 0 ; create_context ( ) >>=? fun ( ctxt , pkh ) -> let src = ` Contract ( Contract . implicit_contract pkh ) in let ( pkh , _pk , _sk ) = Signature . generate_key ( ) in let dest = ` Contract ( Contract . implicit_contrac... |
let test_simple_balance_updates ( ) = Random . init 0 ; create_context ( ) >>=? fun ( ctxt , pkh ) -> let src = Contract . implicit_contract pkh in let ( pkh , _pk , _sk ) = Signature . generate_key ( ) in let dest = Contract . implicit_contract pkh in let amount = Tez . ... |
let test_allocated_and_deallocated ctxt dest initial_status status_when_empty = wrap ( Token . allocated ctxt dest ) >>=? fun allocated -> Assert . equal_bool ~ loc : __LOC__ allocated initial_status >>=? fun ( ) -> let amount = Tez . one in wrap ( Token . transfer ctxt ` Minted dest amount... |
let test_allocated_and_deallocated_when_empty ctxt dest = test_allocated_and_deallocated ctxt dest false false |
let test_allocated_and_still_allocated_when_empty ctxt dest initial_status = test_allocated_and_deallocated ctxt dest initial_status true |
let test_allocated ( ) = Random . init 0 ; create_context ( ) >>=? fun ( ctxt , pkh ) -> let dest = ` Delegate_balance pkh in test_allocated_and_still_allocated_when_empty ctxt dest true >>=? fun _ -> let ( pkh , _pk , _sk ) = Signature . generate_key ( ) in let dest = ` ... |
let check_sink_balances ctxt ctxt ' dest amount = wrap ( Token . balance ctxt dest ) >>=? fun bal_dest -> wrap ( Token . balance ctxt ' dest ) >>=? fun bal_dest ' -> bal_dest +? amount >>?= fun add_bal_dest_amount -> Assert . equal_tez ~ loc : __LOC__ bal_dest ' add_bal_dest_amount |
let test_transferring_to_sink ctxt sink amount expected_bupds = ( match sink with | ` Contract _ | ` Delegate_balance _ -> return_unit | _ -> wrap ( Token . transfer ctxt ` Minted sink Tez . zero ) >>=? fun ( ctxt ' , bupds ) -> check_sink_balances ctxt ctxt ' sink Tez . zero >>=... |
let test_transferring_to_contract ctxt = let ( pkh , _pk , _sk ) = Signature . generate_key ( ) in let dest = Contract . implicit_contract pkh in let amount = random_amount ( ) in test_transferring_to_sink ctxt ( ` Contract dest ) amount [ ( Contract dest , Credited amount , Bloc... |
let test_transferring_to_collected_commitments ctxt = let amount = random_amount ( ) in let bpkh = Blinded_public_key_hash . zero in test_transferring_to_sink ctxt ( ` Collected_commitments bpkh ) amount [ ( Commitments bpkh , Credited amount , Block_application ) ] |
let test_transferring_to_delegate_balance ctxt = let ( pkh , _pk , _sk ) = Signature . generate_key ( ) in let dest = Contract . implicit_contract pkh in wrap ( Token . transfer ctxt ` Minted ( ` Contract dest ) Tez . one ) >>=? fun ( ctxt , _ ) -> wrap ( Token . alloca... |
let test_transferring_to_frozen_deposits ctxt = let ( pkh , _pk , _sk ) = Signature . generate_key ( ) in let amount = random_amount ( ) in test_transferring_to_sink ctxt ( ` Frozen_deposits pkh ) amount [ ( Deposits pkh , Credited amount , Block_application ) ] |
let test_transferring_to_collected_fees ctxt = let amount = random_amount ( ) in test_transferring_to_sink ctxt ` Block_fees amount [ ( Block_fees , Credited amount , Block_application ) ] |
let test_transferring_to_legacy_deposits ctxt = let ( pkh , _pk , _sk ) = Signature . generate_key ( ) in let amount = random_amount ( ) in let cycle = Cycle . ( add root ( Random . int 10 ) ) in test_transferring_to_sink ctxt ( ` Legacy_deposits ( pkh , cycle ) ) amount... |
let test_transferring_to_legacy_fees ctxt = let ( pkh , _pk , _sk ) = Signature . generate_key ( ) in let amount = random_amount ( ) in let cycle = Cycle . ( add root ( Random . int 10 ) ) in test_transferring_to_sink ctxt ( ` Legacy_fees ( pkh , cycle ) ) amount [ ( ... |
let test_transferring_to_legacy_rewards ctxt = let ( pkh , _pk , _sk ) = Signature . generate_key ( ) in let amount = random_amount ( ) in let cycle = Cycle . ( add root ( Random . int 10 ) ) in test_transferring_to_sink ctxt ( ` Legacy_rewards ( pkh , cycle ) ) amount [... |
let test_transferring_to_burned ctxt = let amount = random_amount ( ) in let minted_bupd = Receipt . ( Minted , Debited amount , Block_application ) in wrap ( Token . transfer ctxt ` Minted ` Burned amount ) >>=? fun ( _ , bupds ) -> Assert . equal_bool ~ loc : __LOC__ ( bupds... |
let test_transferring_to_sink ( ) = Random . init 0 ; create_context ( ) >>=? fun ( ctxt , _ ) -> test_transferring_to_contract ctxt >>=? fun _ -> test_transferring_to_collected_commitments ctxt >>=? fun _ -> test_transferring_to_delegate_balance ctxt >>=? fun _ -> test_transferring_to_f... |
let check_src_balances ctxt ctxt ' src amount = wrap ( Token . balance ctxt src ) >>=? fun bal_src -> wrap ( Token . balance ctxt ' src ) >>=? fun bal_src ' -> bal_src ' +? amount >>?= fun add_bal_src ' _amount -> Assert . equal_tez ~ loc : __LOC__ bal_src add_bal_src ' _amount |
let test_transferring_from_unbounded_source ctxt src expected_bupds = wrap ( Token . transfer ctxt src ` Burned Tez . zero ) >>=? fun ( _ , bupds ) -> Assert . equal_bool ~ loc : __LOC__ ( bupds = [ ] ) true >>=? fun ( ) -> let amount = random_amount ( ) in wrap ( Token . ... |
let test_transferring_from_bounded_source ctxt src amount expected_bupds = ( match src with | ` Contract _ | ` Delegate_balance _ -> return_unit | _ -> wrap ( Token . transfer ctxt src ` Burned Tez . zero ) >>=? fun ( ctxt ' , bupds ) -> check_src_balances ctxt ctxt ' src Tez . ze... |
let test_transferring_from_contract ctxt = let ( pkh , _pk , _sk ) = Signature . generate_key ( ) in let src = Contract . implicit_contract pkh in let amount = random_amount ( ) in test_transferring_from_bounded_source ctxt ( ` Contract src ) amount [ ( Contract src , Debited amoun... |
let test_transferring_from_collected_commitments ctxt = let amount = random_amount ( ) in let bpkh = Blinded_public_key_hash . zero in test_transferring_from_bounded_source ctxt ( ` Collected_commitments bpkh ) amount [ ( Commitments bpkh , Debited amount , Block_application ) ] |
let test_transferring_from_delegate_balance ctxt = let ( pkh , _pk , _sk ) = Signature . generate_key ( ) in let amount = random_amount ( ) in let src = Contract . implicit_contract pkh in wrap ( Token . transfer ctxt ` Minted ( ` Contract src ) Tez . one ) >>=? fun ( ctxt ,... |
let test_transferring_from_frozen_deposits ctxt = let ( pkh , _pk , _sk ) = Signature . generate_key ( ) in let amount = random_amount ( ) in test_transferring_from_bounded_source ctxt ( ` Frozen_deposits pkh ) amount [ ( Deposits pkh , Debited amount , Block_application ) ] |
let test_transferring_from_collected_fees ctxt = let amount = random_amount ( ) in test_transferring_from_bounded_source ctxt ` Block_fees amount [ ( Block_fees , Debited amount , Block_application ) ] |
let test_transferring_from_legacy_deposits ctxt = let ( pkh , _pk , _sk ) = Signature . generate_key ( ) in let amount = random_amount ( ) in let cycle = Cycle . ( add root ( Random . int 10 ) ) in test_transferring_from_bounded_source ctxt ( ` Legacy_deposits ( pkh , cycle ... |
let test_transferring_from_legacy_fees ctxt = let ( pkh , _pk , _sk ) = Signature . generate_key ( ) in let amount = random_amount ( ) in let cycle = Cycle . ( add root ( Random . int 10 ) ) in test_transferring_from_bounded_source ctxt ( ` Legacy_fees ( pkh , cycle ) ) ... |
let test_transferring_from_legacy_rewards ctxt = let ( pkh , _pk , _sk ) = Signature . generate_key ( ) in let amount = random_amount ( ) in let cycle = Cycle . ( add root ( Random . int 10 ) ) in test_transferring_from_bounded_source ctxt ( ` Legacy_rewards ( pkh , cycle ) ... |
let test_transferring_from_source ( ) = Random . init 0 ; create_context ( ) >>=? fun ( ctxt , _ ) -> test_transferring_from_unbounded_source ctxt ` Invoice ( fun am -> [ ( Invoice , Debited am , Block_application ) ] ) >>=? fun _ -> test_transferring_from_unbounded_source c... |
let cast_to_container_type x = match x with | ` Burned | ` Invoice | ` Bootstrap | ` Initial_commitments | ` Minted | ` Liquidity_baking_subsidies -> None | ` Contract _ as x -> Some x | ` Collected_commitments _ as x -> Some x | ` Delegate_balance _ as x -> Some x | ` Block_fees a... |
let build_test_cases ( ) = create_context ( ) >>=? fun ( ctxt , pkh ) -> let origin = ` Contract ( Contract . implicit_contract pkh ) in let ( user1 , _ , _ ) = Signature . generate_key ( ) in let user1c = ` Contract ( Contract . implicit_contract user1 ) in let ( u... |
let check_src_balances ctxt ctxt ' src amount = match cast_to_container_type src with | None -> return_unit | Some src -> check_src_balances ctxt ctxt ' src amount |
let check_sink_balances ctxt ctxt ' dest amount = match cast_to_container_type dest with | None -> return_unit | Some dest -> check_sink_balances ctxt ctxt ' dest amount |
let rec check_balances ctxt ctxt ' src dest amount = match ( cast_to_container_type src , cast_to_container_type dest ) with | ( None , None ) -> return_unit | ( Some ( ` Delegate_balance d ) , Some ( ` Contract c as contract ) ) when Contract . implicit_contract d = c -> check_b... |
let test_all_combinations_of_sources_and_sinks ( ) = Random . init 0 ; build_test_cases ( ) >>=? fun ( ctxt , cases ) -> List . iter_es ( fun ( ( src , amount ) , dest ) -> ( match cast_to_container_type src with | None -> return ctxt | Some src -> wrap ( Token . transfe... |
let coalesce_balance_updates bu1 bu2 = match ( bu1 , bu2 ) with | ( ( bu1_bal , bu1_balupd , bu1_origin ) , ( bu2_bal , bu2_balupd , bu2_origin ) ) -> ( assert ( bu1_bal = bu2_bal ) ; assert ( bu1_origin = bu2_origin ) ; let open Receipt in match ( bu1_balupd , bu2_bal... |
let check_balances_are_consistent ctxt1 ctxt2 elt = match elt with | # Token . container as elt -> Token . balance ctxt1 elt >>=? fun elt_bal1 -> Token . balance ctxt2 elt >>=? fun elt_bal2 -> assert ( elt_bal1 = elt_bal2 ) ; return_unit | ` Invoice | ` Bootstrap | ` Initial_commitments |... |
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