Source file l1_operation.ml
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type t =
| Add_messages of {messages : string list}
| Cement of {rollup : Address.t; commitment : Commitment.Hash.t}
| Publish of {rollup : Address.t; commitment : Commitment.t}
| Refute of {
rollup : Address.t;
opponent : Signature.Public_key_hash.t;
refutation : Game.refutation;
}
| Timeout of {rollup : Address.t; stakers : Game.index}
| Recover_bond of {rollup : Address.t; staker : Signature.Public_key_hash.t}
| Execute_outbox_message of {
rollup : Address.t;
cemented_commitment : Commitment.Hash.t;
output_proof : string;
}
let encoding : t Data_encoding.t =
let open Data_encoding in
let case tag kind encoding proj inj =
case
~title:kind
(Tag tag)
(merge_objs (obj1 (req "kind" (constant kind))) encoding)
(fun o -> Option.map (fun p -> ((), p)) (proj o))
(fun ((), p) -> inj p)
in
def "sc_rollup_node_l1_operation"
@@ union
[
case
0
"add_messages"
(obj1 (req "message" (list (string' Hex))))
(function Add_messages {messages} -> Some messages | _ -> None)
(fun messages -> Add_messages {messages});
case
1
"cement"
(obj2
(req "rollup" Address.encoding)
(req "commitment" Commitment.Hash.encoding))
(function
| Cement {rollup; commitment} -> Some (rollup, commitment)
| _ -> None)
(fun (rollup, commitment) -> Cement {rollup; commitment});
case
2
"publish"
(obj2
(req "rollup" Address.encoding)
(req "commitment" Commitment.encoding))
(function
| Publish {rollup; commitment} -> Some (rollup, commitment)
| _ -> None)
(fun (rollup, commitment) -> Publish {rollup; commitment});
case
3
"refute"
(obj3
(req "rollup" Address.encoding)
(req "opponent" Signature.Public_key_hash.encoding)
(req "refutation" Game.refutation_encoding))
(function
| Refute {rollup; opponent; refutation} ->
Some (rollup, opponent, refutation)
| _ -> None)
(fun (rollup, opponent, refutation) ->
Refute {rollup; opponent; refutation});
case
4
"timeout"
(obj2
(req "rollup" Address.encoding)
(req "stakers" Game.index_encoding))
(function
| Timeout {rollup; stakers} -> Some (rollup, stakers) | _ -> None)
(fun (rollup, stakers) -> Timeout {rollup; stakers});
case
5
"recover"
(obj2
(req "rollup" Address.encoding)
(req "staker" Signature.Public_key_hash.encoding))
(function
| Recover_bond {rollup; staker} -> Some (rollup, staker)
| _ -> None)
(fun (rollup, staker) -> Recover_bond {rollup; staker});
case
6
"execute_outbox_message"
(obj3
(req "rollup" Address.encoding)
(req "cemented_commitment" Commitment.Hash.encoding)
(req "proof" (string' Hex)))
(function
| Execute_outbox_message
{rollup; cemented_commitment; output_proof} ->
Some (rollup, cemented_commitment, output_proof)
| _ -> None)
(fun (rollup, cemented_commitment, output_proof) ->
Execute_outbox_message {rollup; cemented_commitment; output_proof});
]
let pp ppf = function
| Add_messages {messages} ->
Format.fprintf
ppf
"publishing %d messages to smart rollups' inbox"
(List.length messages)
| Cement {rollup = _; commitment} when Commitment.Hash.(commitment = zero) ->
Format.fprintf ppf "cementing cementable commitment"
| Cement {rollup = _; commitment} ->
Format.fprintf ppf "cementing commitment %a" Commitment.Hash.pp commitment
| Publish {rollup = _; commitment = Commitment.{inbox_level; _}} ->
Format.fprintf ppf "publish commitment for level %ld" inbox_level
| Refute {rollup = _; opponent; refutation = Start _} ->
Format.fprintf
ppf
"start refutation game against %a"
Signature.Public_key_hash.pp
opponent
| Refute
{
rollup = _;
opponent;
refutation = Move {step = Dissection (first :: _ as d); _};
} ->
let last = List.last first d in
Format.fprintf
ppf
"dissection between ticks %a and %a (against %a)"
Z.pp_print
first.tick
Z.pp_print
last.tick
Signature.Public_key_hash.pp
opponent
| Refute {rollup = _; opponent; refutation = Move {step = Dissection []; _}}
->
Format.fprintf
ppf
"dissection (against %a)"
Signature.Public_key_hash.pp
opponent
| Refute {rollup = _; opponent; refutation = Move {choice; step = Proof _}} ->
Format.fprintf
ppf
"proof for tick %a (against %a)"
Z.pp_print
choice
Signature.Public_key_hash.pp
opponent
| Timeout {rollup = _; stakers = _} -> Format.fprintf ppf "timeout"
| Recover_bond {rollup = _; staker = _} -> Format.fprintf ppf "recover"
| Execute_outbox_message
{rollup = _; cemented_commitment = _; output_proof = _} ->
Format.fprintf ppf "Execute outbox message"
let unique = function
| Add_messages _ | Cement _ -> false
| Publish _ | Refute _ | Timeout _ | Recover_bond _ | Execute_outbox_message _
->
true