{
  "type": "tool_reference",
  "tool_name": "Read"
}

{
  "type": "tool_reference",
  "tool_name": "Glob"
}

{
  "type": "tool_reference",
  "tool_name": "Write"
}

{
  "type": "tool_reference",
  "tool_name": "Edit"
}

{
  "type": "tool_reference",
  "tool_name": "Bash"
}

{
  "type": "tool_reference",
  "tool_name": "Agent"
}

     1→## Metadata
     2→name: Creating a distributed system emulation
     3→description: This is a recipe for how to build a distributed system emulation in Gleam given a human description. 
     4→
     5→
     6→## Overview
     7→In this environment we use Gleam for emulation. The goal is to produce a version that can be executed and help explain how the protocol (i.e., the algorithm implemented by the system) runs.
     8→
     9→Each type of process (or node or server, I tend to use the same word for all of them) is implemented as a Gleam actor. The Gleam OTP skill that accompanies this can help write the code. Do not try to optimize the code, but be sure to use comments to document the logic of each actor, and use print statements to record the execution of each actor.
    10→
    11→Once code for all types of processes has been written, change the main function to take a configuration file (in TOML) that specifies how many nodes of each type to start and then runs them to produce an execution schedule.
    12→
    13→Finally, use the appropriate version control system to add a commit for the emulation
    14→
    15→## Steps to Create an Emulation
    16→
    17→- Use instructions from the gleam-otop skill to create and code up the emulation.
    18→- Change the main function of the newly created emulation so that it can read a configuration file written in TOML (you can read it in gleam using the `tom` package) that specifies the number of each type of process.
    19→- Create a new commit using the appropriate version control system.
    20→
    21→## Writing a new emulation
    22→
    23→Use instructions from the gleam-otp skill.
    24→
    25→## Version Control
    26→
    27→Check if the root directory contains a `.jj` directory. If so, the project is managed using Jujutsu, and the accompanying jujutsu skill to manage things.
    28→
    29→If on the other hand the root directory contains a `.git` directory (but no `.jj` directory) use git.
    30→

     1→# Gleam OTP Development
     2→
     3→## Metadata
     4→name: Gleam OTP Development
     5→description: This is a skill to help with developing Gleam OTP applications.
     6→
     7→## Creating a Gleam project
     8→
     9→```sh
    10→	gleam new --skip-git --skip-github <project name> # Create a project. Project name can only contain alphanumeric characters and `_`
    11→  cd <project name> # Change directory into the project
    12→  gleam add gleam_otp # Add gleam_otp as a dependency
    13→  gleam add gleam_erlang # Add gleam_erlang as a dependency.
    14→```
    15→
    16→## Build Commands
    17→
    18→```sh
    19→gleam build       # Compile the project
    20→gleam run         # Run the project
    21→gleam test        # Run all tests
    22→gleam add <pkg>   # Add a dependency
    23→gleam format      # Format code
    24→```
    25→
    26→## Actor Pattern with gleam_otp
    27→
    28→### Basic Actor Structure
    29→
    30→```gleam
    31→import gleam/otp/actor
    32→import gleam/erlang/process.{type Subject}
    33→
    34→// 1. Define state type
    35→pub type State {
    36→  State(value: Int, self: Subject(Message))
    37→}
    38→
    39→// 2. Define message type
    40→pub type Message {
    41→  Set(value: Int)                      // Fire-and-forget
    42→  Get(reply_with: Subject(Int))        // Request-response
    43→}
    44→
    45→// 3. Implement handler
    46→fn handle_message(state: State, message: Message) -> actor.Next(State, Message) {
    47→  case message {
    48→    Set(value) -> actor.continue(State(..state, value: value))
    49→    Get(client) -> {
    50→      process.send(client, state.value)
    51→      actor.continue(state)
    52→    }
    53→  }
    54→}
    55→
    56→// 4. Start function
    57→pub fn start() -> Result(Subject(Message), actor.StartError) {
    58→  actor.new_with_initialiser(1000, fn(self) {
    59→    actor.initialised(State(value: 0, self: self))
    60→    |> actor.returning(self)
    61→    |> Ok
    62→  })
    63→  |> actor.on_message(handle_message)
    64→  |> actor.start
    65→  |> result.map(fn(started) { started.data })
    66→}
    67→```
    68→
    69→### Key Patterns
    70→
    71→**Fire-and-forget message:**
    72→```gleam
    73→pub fn set(subject: Subject(Message), value: Int) -> Nil {
    74→  actor.send(subject, Set(value))
    75→}
    76→```
    77→
    78→**Request-response (blocking call):**
    79→```gleam
    80→pub fn get(subject: Subject(Message)) -> Int {
    81→  actor.call(subject, 1000, Get)  // 1000ms timeout
    82→}
    83→```
    84→
    85→**Self-messaging (for periodic tasks):**
    86→```gleam
    87→// In initialiser or handler:
    88→process.send_after(state.self, 100, Sync)  // Send Sync message after 100ms
    89→```
    90→
    91→**Capturing self reference:**
    92→Use `actor.new_with_initialiser` instead of `actor.new` to get access to the actor's own Subject in the initialiser callback.
    93→
    94→### Handler Return Values
    95→
    96→- `actor.continue(new_state)` - Keep running with new state
    97→- `actor.stop()` - Stop the actor gracefully
    98→
    99→### Common Imports
   100→
   101→```gleam
   102→import gleam/otp/actor
   103→import gleam/erlang/process.{type Subject}
   104→import gleam/result
   105→import gleam/list
   106→import gleam/int
   107→import gleam/io
   108→```
   109→
   110→## Testing
   111→
   112→Test functions must end with `_test` suffix:
   113→
   114→```gleam
   115→import gleeunit
   116→
   117→pub fn main() -> Nil {
   118→  gleeunit.main()
   119→}
   120→
   121→pub fn my_feature_test() {
   122→  assert some_condition == True
   123→}
   124→```
   125→
   126→## Common Patterns in This Codebase
   127→
   128→### Peer-to-peer Synchronization
   129→
   130→Servers maintain a list of peers and periodically broadcast their state:
   131→
   132→```gleam
   133→Sync -> {
   134→  list.each(state.peers, fn(peer) {
   135→    process.send(peer, Set(state.value))
   136→  })
   137→  process.send_after(state.self, 100, Sync)
   138→  actor.continue(state)
   139→}
   140→```
   141→
   142→### Convergence Check
   143→
   144→Poll until all actors have the same value:
   145→
   146→```gleam
   147→fn wait_for_convergence(servers: List(Subject(Message))) -> Nil {
   148→  let values = list.map(servers, get)
   149→  case values {
   150→    [first, ..rest] -> {
   151→      let all_same = list.all(rest, fn(v) { v == first })
   152→      case all_same && first > 0 {
   153→        True -> io.println("Converged!")
   154→        False -> {
   155→          process.sleep(100)
   156→          wait_for_convergence(servers)
   157→        }
   158→      }
   159→    }
   160→    [] -> Nil
   161→  }
   162→}
   163→```
   164→
   165→## Gleam Syntax Quick Reference
   166→
   167→**Pattern matching:**
   168→```gleam
   169→case value {
   170→  Some(x) -> x
   171→  None -> 0
   172→}
   173→```
   174→
   175→**Record update:**
   176→```gleam
   177→State(..state, value: new_value)
   178→```
   179→
   180→**Pipe operator:**
   181→```gleam
   182→value
   183→|> transform1
   184→|> transform2
   185→```
   186→
   187→**Assert (panics on failure):**
   188→```gleam
   189→let assert Ok(result) = maybe_fails()
   190→```
   191→
   192→**List operations:**
   193→```gleam
   194→list.map(items, fn(x) { x + 1 })
   195→list.each(items, fn(x) { io.println(x) })
   196→list.all(items, fn(x) { x > 0 })
   197→list.flat_map(items, fn(x) { [x, x] })
   198→```
   199→

Perfect! I have now read all the files in the multipaxos_kv directory. Let me provide you with a complete summary:

## Complete Contents of multipaxos_kv Directory

I have successfully read ALL files from the multipaxos_kv directory. Here's what's included:

### Configuration Files

**gleam.toml** - `/Users/apanda/code/agent-spec-code/multipaxos_kv/gleam.toml`
- Project name: multipaxos_kv, version 1.0.0
- Dependencies:
  - gleam_stdlib >= 0.44.0 and < 2.0.0
  - gleam_otp >= 1.2.0 and < 2.0.0
  - gleam_erlang >= 1.3.0 and < 2.0.0
  - argv >= 1.0.2 and < 2.0.0
- Dev dependency: gleeunit >= 1.0.0 and < 2.0.0

**manifest.toml** - `/Users/apanda/code/agent-spec-code/multipaxos_kv/manifest.toml`
- Auto-generated manifest tracking exact versions of all packages (argv 1.0.2, gleam_erlang 1.3.0, gleam_otp 1.2.0, gleam_stdlib 0.70.0, gleeunit 1.9.0)

**README.md** - `/Users/apanda/code/agent-spec-code/multipaxos_kv/README.md`
- Standard project documentation with commands to add the package, example usage, and dev instructions

### Source Files

**multipaxos_kv.gleam** - `/Users/apanda/code/agent-spec-code/multipaxos_kv/src/multipaxos_kv.gleam`
- Main entry point
- Parses command-line args for number of clients (default: 3)
- Starts 3 acceptors, 2 replicas, 1 leader
- Creates and starts N clients to send requests
- Waits 3 seconds then exits

**types.gleam** - `/Users/apanda/code/agent-spec-code/multipaxos_kv/src/multipaxos_kv/types.gleam`
- Defines core types:
  - `Ballot(round, leader_id)` - ballot numbers for Paxos
  - `Command` - Put, Get, Delete, Noop operations
  - `OpResult` - OpOk or OpError results
- Includes `compare_ballots` function for ballot comparison

**acceptor.gleam** - `/Users/apanda/code/agent-spec-code/multipaxos_kv/src/multipaxos_kv/acceptor.gleam`
- Acceptor actor implementation (Phase 1 & 2 of Paxos)
- Maintains `promised_ballot` and `accepted` dict
- Handles Prepare and Accept messages
- Returns PrepareResponse (Promise or PrepareRejected) and AcceptResponse (Accepted or AcceptRejected)

**leader.gleam** - `/Users/apanda/code/agent-spec-code/multipaxos_kv/src/multipaxos_kv/leader.gleam`
- Leader/proposer actor with local KV store
- Runs Phase 1 (prepare) during init to establish leadership
- Handles client requests: ClientPut, ClientGet, ClientDelete
- Runs Phase 2 (accept) for each client request
- Applies commands to local store and broadcasts to replicas
- Provides public functions: `put()`, `get()`, `delete()`

**replica.gleam** - `/Users/apanda/code/agent-spec-code/multipaxos_kv/src/multipaxos_kv/replica.gleam`
- Replica actor (passive learner)
- Maintains log and KV store
- Handles Commit messages from leader
- Applies committed commands in order to local store
- Supports Put, Get, Delete, and Noop operations

**client.gleam** - `/Users/apanda/code/agent-spec-code/multipaxos_kv/src/multipaxos_kv/client.gleam`
- Client actor that generates random requests
- Sends 5 random requests to leader (get, put, or delete)
- Randomly selects from keys: a, b, c, d, e
- Values generated as: val_<0-99>
- Responds to Start and Continue messages

### Test File

**multipaxos_kv_test.gleam** - `/Users/apanda/code/agent-spec-code/multipaxos_kv/test/multipaxos_kv_test.gleam`
- Single test: `leader_put_get_test()`
- Creates 3 acceptors, 2 replicas, 1 leader
- Tests: put, get with existing key, put to existing key (error), delete, get non-existent, delete non-existent (error)

Note: There is no config.toml file in this directory.

agentId: a663148104a983064 (for resuming to continue this agent's work if needed)
<usage>total_tokens: 31493
tool_uses: 15
duration_ms: 25147</usage>

     1→import argv
     2→import gleam/erlang/process
     3→import gleam/int
     4→import gleam/io
     5→import gleam/list
     6→import multipaxos_kv/acceptor
     7→import multipaxos_kv/client
     8→import multipaxos_kv/leader
     9→import multipaxos_kv/replica
    10→
    11→/// Helper to create a list [1, 2, ..., n]
    12→fn range_list(n: Int) -> List(Int) {
    13→  int.range(1, n + 1, [], fn(acc, i) { [i, ..acc] })
    14→  |> list.reverse
    15→}
    16→
    17→pub fn main() -> Nil {
    18→  // Parse number of clients from command-line args (default: 3)
    19→  let num_clients = case argv.load().arguments {
    20→    [n_str, ..] -> {
    21→      case int.parse(n_str) {
    22→        Ok(n) if n > 0 -> n
    23→        _ -> {
    24→          io.println("Usage: gleam run -- <num_clients>")
    25→          panic as "num_clients must be a positive integer"
    26→        }
    27→      }
    28→    }
    29→    [] -> 3
    30→  }
    31→
    32→  // Start 3 acceptors
    33→  let acceptors =
    34→    range_list(3)
    35→    |> list.map(fn(i) {
    36→      let assert Ok(a) = acceptor.start(i)
    37→      io.println("Started acceptor " <> int.to_string(i))
    38→      a
    39→    })
    40→
    41→  // Start 2 replicas
    42→  let replicas =
    43→    range_list(2)
    44→    |> list.map(fn(i) {
    45→      let assert Ok(r) = replica.start(i)
    46→      io.println("Started replica " <> int.to_string(i))
    47→      r
    48→    })
    49→
    50→  // Start the leader (runs Phase 1 during init)
    51→  let assert Ok(the_leader) = leader.start(1, acceptors, replicas)
    52→  io.println("Started leader")
    53→
    54→  // Start clients
    55→  let clients =
    56→    range_list(num_clients)
    57→    |> list.map(fn(i) {
    58→      let assert Ok(c) = client.start(the_leader)
    59→      io.println("Started client " <> int.to_string(i))
    60→      c
    61→    })
    62→
    63→  // Tell each client to begin sending requests
    64→  list.each(clients, fn(c) { process.send(c, client.Start) })
    65→  io.println(
    66→    "All " <> int.to_string(num_clients) <> " clients started sending requests",
    67→  )
    68→
    69→  // Wait for clients to finish
    70→  process.sleep(3000)
    71→  io.println("Done")
    72→}
    73→

     1→import gleam/int
     2→import gleam/order.{type Order}
     3→
     4→/// A Paxos ballot number, consisting of a round and leader ID.
     5→/// Higher round wins; ties broken by leader_id.
     6→pub type Ballot {
     7→  Ballot(round: Int, leader_id: Int)
     8→}
     9→
    10→/// Compare two ballots. Higher round wins; ties broken by leader_id.
    11→pub fn compare_ballots(a: Ballot, b: Ballot) -> Order {
    12→  case a.round == b.round {
    13→    True -> int.compare(a.leader_id, b.leader_id)
    14→    False -> int.compare(a.round, b.round)
    15→  }
    16→}
    17→
    18→/// A command to be replicated through Paxos.
    19→pub type Command {
    20→  Put(key: String, value: String)
    21→  Get(key: String)
    22→  Delete(key: String)
    23→  Noop
    24→}
    25→
    26→/// Result of applying a command to the KV store.
    27→pub type OpResult {
    28→  OpOk
    29→  OpError(reason: String)
    30→}
    31→

     1→import gleam/dict.{type Dict}
     2→import gleam/erlang/process.{type Subject}
     3→import gleam/int
     4→import gleam/io
     5→import gleam/list
     6→import gleam/otp/actor
     7→import gleam/result
     8→import multipaxos_kv/acceptor
     9→import multipaxos_kv/replica
    10→import multipaxos_kv/types.{type Ballot, type Command}
    11→
    12→/// Leader state: proposer + learner + KV state machine
    13→pub type State {
    14→  State(
    15→    id: Int,
    16→    ballot: Ballot,
    17→    acceptors: List(Subject(acceptor.Message)),
    18→    replicas: List(Subject(replica.Message)),
    19→    quorum_size: Int,
    20→    next_slot: Int,
    21→    log: Dict(Int, Command),
    22→    store: Dict(String, String),
    23→    last_applied: Int,
    24→    self: Subject(Message),
    25→  )
    26→}
    27→
    28→/// Messages the leader handles
    29→pub type Message {
    30→  /// Client request to insert a key-value pair
    31→  ClientPut(key: String, value: String, reply_with: Subject(types.OpResult))
    32→  /// Client request to get a value by key
    33→  ClientGet(key: String, reply_with: Subject(Result(String, String)))
    34→  /// Client request to delete a key
    35→  ClientDelete(key: String, reply_with: Subject(types.OpResult))
    36→}
    37→
    38→/// Run Phase 1 (prepare) against all acceptors. Panics if quorum not reached.
    39→fn run_phase1(
    40→  ballot: Ballot,
    41→  acceptors: List(Subject(acceptor.Message)),
    42→  quorum_size: Int,
    43→) -> Nil {
    44→  io.println(
    45→    "[leader] Phase 1: sending Prepare("
    46→    <> int.to_string(ballot.round)
    47→    <> ","
    48→    <> int.to_string(ballot.leader_id)
    49→    <> ") to "
    50→    <> int.to_string(list.length(acceptors))
    51→    <> " acceptors",
    52→  )
    53→  let promises =
    54→    list.filter_map(acceptors, fn(acc) {
    55→      let response = actor.call(acc, 1000, acceptor.Prepare(ballot, _))
    56→      case response {
    57→        acceptor.Promise(_accepted) -> Ok(Nil)
    58→        acceptor.PrepareRejected(_) -> Error(Nil)
    59→      }
    60→    })
    61→  let num_promises = list.length(promises)
    62→  io.println(
    63→    "[leader] Phase 1 complete: "
    64→    <> int.to_string(num_promises)
    65→    <> " promises received (need "
    66→    <> int.to_string(quorum_size)
    67→    <> ")",
    68→  )
    69→  case num_promises >= quorum_size {
    70→    True -> Nil
    71→    False -> panic as "Failed to get quorum in Phase 1"
    72→  }
    73→}
    74→
    75→/// Run Phase 2 (accept) for a single slot. Returns True if quorum accepted.
    76→fn run_phase2(
    77→  slot: Int,
    78→  ballot: Ballot,
    79→  command: Command,
    80→  acceptors: List(Subject(acceptor.Message)),
    81→  quorum_size: Int,
    82→) -> Bool {
    83→  let accepted_count =
    84→    list.filter_map(acceptors, fn(acc) {
    85→      let response =
    86→        actor.call(acc, 1000, acceptor.Accept(slot, ballot, command, _))
    87→      case response {
    88→        acceptor.Accepted(_) -> Ok(Nil)
    89→        acceptor.AcceptRejected(_, _) -> Error(Nil)
    90→      }
    91→    })
    92→    |> list.length
    93→  io.println(
    94→    "[leader] Phase 2 for slot "
    95→    <> int.to_string(slot)
    96→    <> ": "
    97→    <> int.to_string(accepted_count)
    98→    <> "/"
    99→    <> int.to_string(quorum_size)
   100→    <> " accepted",
   101→  )
   102→  accepted_count >= quorum_size
   103→}
   104→
   105→/// Apply a command to the KV store, returning the result and updated store
   106→fn apply_command(
   107→  command: Command,
   108→  store: Dict(String, String),
   109→) -> #(Dict(String, String), Command, types.OpResult, Result(String, String)) {
   110→  case command {
   111→    types.Put(key, value) -> {
   112→      case dict.has_key(store, key) {
   113→        True -> {
   114→          io.println("[leader] PUT \"" <> key <> "\" -> REJECTED (key exists)")
   115→          #(
   116→            store,
   117→            command,
   118→            types.OpError("key already exists: " <> key),
   119→            Error(""),
   120→          )
   121→        }
   122→        False -> {
   123→          io.println(
   124→            "[leader] PUT \"" <> key <> "\" = \"" <> value <> "\" -> OK",
   125→          )
   126→          #(dict.insert(store, key, value), command, types.OpOk, Error(""))
   127→        }
   128→      }
   129→    }
   130→    types.Get(key) -> {
   131→      case dict.get(store, key) {
   132→        Ok(value) -> {
   133→          io.println("[leader] GET \"" <> key <> "\" -> \"" <> value <> "\"")
   134→          #(store, command, types.OpOk, Ok(value))
   135→        }
   136→        Error(_) -> {
   137→          io.println("[leader] GET \"" <> key <> "\" -> NOT FOUND")
   138→          #(store, command, types.OpOk, Error("key not found: " <> key))
   139→        }
   140→      }
   141→    }
   142→    types.Delete(key) -> {
   143→      case dict.has_key(store, key) {
   144→        True -> {
   145→          io.println("[leader] DELETE \"" <> key <> "\" -> OK")
   146→          #(dict.delete(store, key), command, types.OpOk, Error(""))
   147→        }
   148→        False -> {
   149→          io.println("[leader] DELETE \"" <> key <> "\" -> NOT FOUND")
   150→          #(store, command, types.OpError("key not found: " <> key), Error(""))
   151→        }
   152→      }
   153→    }
   154→    types.Noop -> #(store, command, types.OpOk, Error(""))
   155→  }
   156→}
   157→
   158→/// Broadcast a committed command to all replicas
   159→fn broadcast_commit(
   160→  replicas: List(Subject(replica.Message)),
   161→  slot: Int,
   162→  command: Command,
   163→) -> Nil {
   164→  list.each(replicas, fn(r) { process.send(r, replica.Commit(slot, command)) })
   165→}
   166→
   167→/// Handle a client request: assign slot, run Phase 2, apply, reply, broadcast
   168→fn handle_client_request(
   169→  state: State,
   170→  command: Command,
   171→  reply_put: fn(types.OpResult) -> Nil,
   172→  reply_get: fn(Result(String, String)) -> Nil,
   173→) -> actor.Next(State, Message) {
   174→  let slot = state.next_slot
   175→  io.println(
   176→    "[leader] Assigning slot " <> int.to_string(slot) <> " for client request",
   177→  )
   178→
   179→  // Run Phase 2 for this slot
   180→  let committed =
   181→    run_phase2(slot, state.ballot, command, state.acceptors, state.quorum_size)
   182→
   183→  case committed {
   184→    True -> {
   185→      // Apply to local KV store
   186→      let #(new_store, cmd, op_result, get_result) =
   187→        apply_command(command, state.store)
   188→      let new_log = dict.insert(state.log, slot, cmd)
   189→
   190→      // Reply to client
   191→      reply_put(op_result)
   192→      reply_get(get_result)
   193→
   194→      // Broadcast commit to replicas
   195→      broadcast_commit(state.replicas, slot, cmd)
   196→
   197→      actor.continue(
   198→        State(
   199→          ..state,
   200→          next_slot: slot + 1,
   201→          log: new_log,
   202→          store: new_store,
   203→          last_applied: slot,
   204→        ),
   205→      )
   206→    }
   207→    False -> {
   208→      io.println("[leader] Phase 2 FAILED for slot " <> int.to_string(slot))
   209→      reply_put(types.OpError("consensus failed"))
   210→      reply_get(Error("consensus failed"))
   211→      actor.continue(state)
   212→    }
   213→  }
   214→}
   215→
   216→/// Handle incoming messages
   217→fn handle_message(state: State, message: Message) -> actor.Next(State, Message) {
   218→  case message {
   219→    ClientPut(key, value, reply_with) -> {
   220→      handle_client_request(
   221→        state,
   222→        types.Put(key, value),
   223→        fn(r) { process.send(reply_with, r) },
   224→        fn(_) { Nil },
   225→      )
   226→    }
   227→    ClientGet(key, reply_with) -> {
   228→      handle_client_request(state, types.Get(key), fn(_) { Nil }, fn(r) {
   229→        process.send(reply_with, r)
   230→      })
   231→    }
   232→    ClientDelete(key, reply_with) -> {
   233→      handle_client_request(
   234→        state,
   235→        types.Delete(key),
   236→        fn(r) { process.send(reply_with, r) },
   237→        fn(_) { Nil },
   238→      )
   239→    }
   240→  }
   241→}
   242→
   243→/// Start a leader actor. Runs Phase 1 during initialization.
   244→pub fn start(
   245→  id: Int,
   246→  acceptors: List(Subject(acceptor.Message)),
   247→  replicas: List(Subject(replica.Message)),
   248→) -> Result(Subject(Message), actor.StartError) {
   249→  let ballot = types.Ballot(round: 1, leader_id: id)
   250→  let quorum_size = list.length(acceptors) / 2 + 1
   251→
   252→  actor.new_with_initialiser(5000, fn(self) {
   253→    io.println("[leader] Starting with id " <> int.to_string(id))
   254→
   255→    // Run Phase 1 to establish leadership
   256→    run_phase1(ballot, acceptors, quorum_size)
   257→    io.println("[leader] Phase 1 complete — leader established")
   258→
   259→    let state =
   260→      State(
   261→        id: id,
   262→        ballot: ballot,
   263→        acceptors: acceptors,
   264→        replicas: replicas,
   265→        quorum_size: quorum_size,
   266→        next_slot: 1,
   267→        log: dict.new(),
   268→        store: dict.new(),
   269→        last_applied: 0,
   270→        self: self,
   271→      )
   272→    actor.initialised(state)
   273→    |> actor.returning(self)
   274→    |> Ok
   275→  })
   276→  |> actor.on_message(handle_message)
   277→  |> actor.start
   278→  |> result.map(fn(started) { started.data })
   279→}
   280→
   281→/// Put a key-value pair. Returns error if the key already exists.
   282→pub fn put(
   283→  leader: Subject(Message),
   284→  key: String,
   285→  value: String,
   286→) -> types.OpResult {
   287→  actor.call(leader, 5000, ClientPut(key, value, _))
   288→}
   289→
   290→/// Get the value for a key. Returns Error if not found.
   291→pub fn get(leader: Subject(Message), key: String) -> Result(String, String) {
   292→  actor.call(leader, 5000, ClientGet(key, _))
   293→}
   294→
   295→/// Delete a key. Returns error if the key doesn't exist.
   296→pub fn delete(leader: Subject(Message), key: String) -> types.OpResult {
   297→  actor.call(leader, 5000, ClientDelete(key, _))
   298→}
   299→

     1→import gleam/erlang/process.{type Subject}
     2→import gleam/int
     3→import gleam/io
     4→import gleam/otp/actor
     5→import gleam/result
     6→import multipaxos_kv/leader
     7→import multipaxos_kv/types
     8→
     9→/// Client state
    10→pub type State {
    11→  State(leader: Subject(leader.Message), remaining: Int, self: Subject(Message))
    12→}
    13→
    14→/// Messages the client responds to
    15→pub type Message {
    16→  /// Kick off the client's request loop
    17→  Start
    18→  /// Internal message to continue sending the next request
    19→  Continue
    20→}
    21→
    22→/// A small pool of keys the client randomly picks from
    23→const keys = #("a", "b", "c", "d", "e")
    24→
    25→/// Pick a random key from the pool
    26→fn random_key() -> String {
    27→  case int.random(5) {
    28→    0 -> keys.0
    29→    1 -> keys.1
    30→    2 -> keys.2
    31→    3 -> keys.3
    32→    _ -> keys.4
    33→  }
    34→}
    35→
    36→/// Pick a random value
    37→fn random_value() -> String {
    38→  "val_" <> int.to_string(int.random(100))
    39→}
    40→
    41→/// Handle incoming messages
    42→fn handle_message(state: State, message: Message) -> actor.Next(State, Message) {
    43→  case message {
    44→    Start -> {
    45→      io.println("[client] Starting — will send 5 requests")
    46→      send_next_request(state)
    47→    }
    48→    Continue -> {
    49→      send_next_request(state)
    50→    }
    51→  }
    52→}
    53→
    54→/// Send the next random request to the leader via Paxos
    55→fn send_next_request(state: State) -> actor.Next(State, Message) {
    56→  case state.remaining {
    57→    0 -> {
    58→      io.println("[client] Finished all 5 requests")
    59→      actor.stop()
    60→    }
    61→    n -> {
    62→      // Randomly choose between get (0), put (1), and delete (2)
    63→      case int.random(3) {
    64→        0 -> {
    65→          let key = random_key()
    66→          case leader.get(state.leader, key) {
    67→            Ok(value) ->
    68→              io.println(
    69→                "[client] GET \"" <> key <> "\" -> \"" <> value <> "\"",
    70→              )
    71→            Error(reason) ->
    72→              io.println("[client] GET \"" <> key <> "\" -> " <> reason)
    73→          }
    74→        }
    75→        1 -> {
    76→          let key = random_key()
    77→          let value = random_value()
    78→          case leader.put(state.leader, key, value) {
    79→            types.OpOk ->
    80→              io.println(
    81→                "[client] PUT \"" <> key <> "\" = \"" <> value <> "\" -> OK",
    82→              )
    83→            types.OpError(reason) ->
    84→              io.println(
    85→                "[client] PUT \""
    86→                <> key
    87→                <> "\" = \""
    88→                <> value
    89→                <> "\" -> "
    90→                <> reason,
    91→              )
    92→          }
    93→        }
    94→        _ -> {
    95→          let key = random_key()
    96→          case leader.delete(state.leader, key) {
    97→            types.OpOk -> io.println("[client] DELETE \"" <> key <> "\" -> OK")
    98→            types.OpError(reason) ->
    99→              io.println("[client] DELETE \"" <> key <> "\" -> " <> reason)
   100→          }
   101→        }
   102→      }
   103→
   104→      // Schedule next request
   105→      process.send(state.self, Continue)
   106→      actor.continue(State(..state, remaining: n - 1))
   107→    }
   108→  }
   109→}
   110→
   111→/// Start a client actor that will send 5 random requests to the leader
   112→pub fn start(
   113→  leader_subject: Subject(leader.Message),
   114→) -> Result(Subject(Message), actor.StartError) {
   115→  actor.new_with_initialiser(1000, fn(self) {
   116→    let state = State(leader: leader_subject, remaining: 5, self: self)
   117→    actor.initialised(state)
   118→    |> actor.returning(self)
   119→    |> Ok
   120→  })
   121→  |> actor.on_message(handle_message)
   122→  |> actor.start
   123→  |> result.map(fn(started) { started.data })
   124→}
   125→

     1→import gleam/dict.{type Dict}
     2→import gleam/erlang/process.{type Subject}
     3→import gleam/int
     4→import gleam/io
     5→import gleam/otp/actor
     6→import gleam/result
     7→import multipaxos_kv/types.{type Command}
     8→
     9→/// Replica state: passive learner that applies committed commands
    10→pub type State {
    11→  State(
    12→    id: Int,
    13→    log: Dict(Int, Command),
    14→    store: Dict(String, String),
    15→    last_applied: Int,
    16→    self: Subject(Message),
    17→  )
    18→}
    19→
    20→/// Messages the replica handles
    21→pub type Message {
    22→  /// A committed command from the leader
    23→  Commit(slot: Int, command: Command)
    24→}
    25→
    26→/// Apply commands from the log in order, starting from last_applied + 1
    27→fn apply_committed(state: State) -> State {
    28→  let next_slot = state.last_applied + 1
    29→  case dict.get(state.log, next_slot) {
    30→    Error(_) -> state
    31→    Ok(command) -> {
    32→      let id_str = int.to_string(state.id)
    33→      let slot_str = int.to_string(next_slot)
    34→      let new_store = case command {
    35→        types.Put(key, value) -> {
    36→          io.println(
    37→            "[replica "
    38→            <> id_str
    39→            <> "] slot "
    40→            <> slot_str
    41→            <> ": PUT \""
    42→            <> key
    43→            <> "\" = \""
    44→            <> value
    45→            <> "\"",
    46→          )
    47→          dict.insert(state.store, key, value)
    48→        }
    49→        types.Get(key) -> {
    50→          io.println(
    51→            "[replica "
    52→            <> id_str
    53→            <> "] slot "
    54→            <> slot_str
    55→            <> ": GET \""
    56→            <> key
    57→            <> "\"",
    58→          )
    59→          state.store
    60→        }
    61→        types.Delete(key) -> {
    62→          io.println(
    63→            "[replica "
    64→            <> id_str
    65→            <> "] slot "
    66→            <> slot_str
    67→            <> ": DELETE \""
    68→            <> key
    69→            <> "\"",
    70→          )
    71→          dict.delete(state.store, key)
    72→        }
    73→        types.Noop -> {
    74→          io.println("[replica " <> id_str <> "] slot " <> slot_str <> ": NOOP")
    75→          state.store
    76→        }
    77→      }
    78→      let new_state = State(..state, store: new_store, last_applied: next_slot)
    79→      // Try to apply the next slot too (in case commits arrived out of order)
    80→      apply_committed(new_state)
    81→    }
    82→  }
    83→}
    84→
    85→/// Handle incoming messages
    86→fn handle_message(state: State, message: Message) -> actor.Next(State, Message) {
    87→  case message {
    88→    Commit(slot, command) -> {
    89→      let new_log = dict.insert(state.log, slot, command)
    90→      let new_state = apply_committed(State(..state, log: new_log))
    91→      actor.continue(new_state)
    92→    }
    93→  }
    94→}
    95→
    96→/// Start a replica actor with the given ID
    97→pub fn start(id: Int) -> Result(Subject(Message), actor.StartError) {
    98→  actor.new_with_initialiser(1000, fn(self) {
    99→    io.println("[replica " <> int.to_string(id) <> "] Starting")
   100→    let state =
   101→      State(
   102→        id: id,
   103→        log: dict.new(),
   104→        store: dict.new(),
   105→        last_applied: 0,
   106→        self: self,
   107→      )
   108→    actor.initialised(state)
   109→    |> actor.returning(self)
   110→    |> Ok
   111→  })
   112→  |> actor.on_message(handle_message)
   113→  |> actor.start
   114→  |> result.map(fn(started) { started.data })
   115→}
   116→

     1→import gleam/dict.{type Dict}
     2→import gleam/erlang/process.{type Subject}
     3→import gleam/int
     4→import gleam/io
     5→import gleam/order
     6→import gleam/otp/actor
     7→import gleam/result
     8→import multipaxos_kv/types.{type Ballot, type Command}
     9→
    10→/// Acceptor state
    11→pub type State {
    12→  State(
    13→    id: Int,
    14→    promised_ballot: Ballot,
    15→    accepted: Dict(Int, #(Ballot, Command)),
    16→    self: Subject(Message),
    17→  )
    18→}
    19→
    20→/// Response to a Prepare request
    21→pub type PrepareResponse {
    22→  /// Promise not to accept lower ballots; includes previously accepted entries
    23→  Promise(accepted: Dict(Int, #(Ballot, Command)))
    24→  /// Rejected because a higher ballot was already promised
    25→  PrepareRejected(highest: Ballot)
    26→}
    27→
    28→/// Response to an Accept request
    29→pub type AcceptResponse {
    30→  /// Successfully accepted the value for this slot
    31→  Accepted(slot: Int)
    32→  /// Rejected because a higher ballot was already promised
    33→  AcceptRejected(slot: Int, highest: Ballot)
    34→}
    35→
    36→/// Messages the acceptor handles
    37→pub type Message {
    38→  /// Phase 1: Prepare request from a proposer
    39→  Prepare(ballot: Ballot, reply_with: Subject(PrepareResponse))
    40→  /// Phase 2: Accept request from a proposer
    41→  Accept(
    42→    slot: Int,
    43→    ballot: Ballot,
    44→    command: Command,
    45→    reply_with: Subject(AcceptResponse),
    46→  )
    47→}
    48→
    49→/// Handle incoming messages
    50→fn handle_message(state: State, message: Message) -> actor.Next(State, Message) {
    51→  let id_str = int.to_string(state.id)
    52→  case message {
    53→    Prepare(ballot, reply_with) -> {
    54→      // Accept if ballot >= promised_ballot
    55→      case types.compare_ballots(ballot, state.promised_ballot) {
    56→        order.Lt -> {
    57→          io.println(
    58→            "[acceptor "
    59→            <> id_str
    60→            <> "] PREPARE rejected (higher ballot promised)",
    61→          )
    62→          process.send(reply_with, PrepareRejected(state.promised_ballot))
    63→          actor.continue(state)
    64→        }
    65→        _ -> {
    66→          io.println(
    67→            "[acceptor "
    68→            <> id_str
    69→            <> "] PREPARE accepted, promising ballot ("
    70→            <> int.to_string(ballot.round)
    71→            <> ","
    72→            <> int.to_string(ballot.leader_id)
    73→            <> ")",
    74→          )
    75→          process.send(reply_with, Promise(state.accepted))
    76→          actor.continue(State(..state, promised_ballot: ballot))
    77→        }
    78→      }
    79→    }
    80→
    81→    Accept(slot, ballot, command, reply_with) -> {
    82→      // Accept if ballot >= promised_ballot
    83→      case types.compare_ballots(ballot, state.promised_ballot) {
    84→        order.Lt -> {
    85→          io.println(
    86→            "[acceptor "
    87→            <> id_str
    88→            <> "] ACCEPT rejected for slot "
    89→            <> int.to_string(slot),
    90→          )
    91→          process.send(reply_with, AcceptRejected(slot, state.promised_ballot))
    92→          actor.continue(state)
    93→        }
    94→        _ -> {
    95→          io.println(
    96→            "[acceptor "
    97→            <> id_str
    98→            <> "] ACCEPT for slot "
    99→            <> int.to_string(slot)
   100→            <> " -> accepted",
   101→          )
   102→          let new_accepted =
   103→            dict.insert(state.accepted, slot, #(ballot, command))
   104→          process.send(reply_with, Accepted(slot))
   105→          actor.continue(
   106→            State(..state, promised_ballot: ballot, accepted: new_accepted),
   107→          )
   108→        }
   109→      }
   110→    }
   111→  }
   112→}
   113→
   114→/// Start an acceptor actor with the given ID
   115→pub fn start(id: Int) -> Result(Subject(Message), actor.StartError) {
   116→  actor.new_with_initialiser(1000, fn(self) {
   117→    io.println("[acceptor " <> int.to_string(id) <> "] Starting")
   118→    let state =
   119→      State(
   120→        id: id,
   121→        promised_ballot: types.Ballot(round: 0, leader_id: 0),
   122→        accepted: dict.new(),
   123→        self: self,
   124→      )
   125→    actor.initialised(state)
   126→    |> actor.returning(self)
   127→    |> Ok
   128→  })
   129→  |> actor.on_message(handle_message)
   130→  |> actor.start
   131→  |> result.map(fn(started) { started.data })
   132→}
   133→

     1→import gleeunit
     2→import multipaxos_kv/acceptor
     3→import multipaxos_kv/leader
     4→import multipaxos_kv/replica
     5→import multipaxos_kv/types
     6→
     7→pub fn main() -> Nil {
     8→  gleeunit.main()
     9→}
    10→
    11→pub fn leader_put_get_test() {
    12→  let assert Ok(a1) = acceptor.start(1)
    13→  let assert Ok(a2) = acceptor.start(2)
    14→  let assert Ok(a3) = acceptor.start(3)
    15→  let assert Ok(r1) = replica.start(1)
    16→  let assert Ok(l) = leader.start(1, [a1, a2, a3], [r1])
    17→
    18→  let assert types.OpOk = leader.put(l, "x", "hello")
    19→  let assert Ok("hello") = leader.get(l, "x")
    20→  let assert types.OpError(_) = leader.put(l, "x", "world")
    21→  let assert types.OpOk = leader.delete(l, "x")
    22→  let assert Error(_) = leader.get(l, "x")
    23→  let assert types.OpError(_) = leader.delete(l, "x")
    24→}
    25→

     1→name = "multipaxos_kv"
     2→version = "1.0.0"
     3→
     4→# Fill out these fields if you intend to generate HTML documentation or publish
     5→# your project to the Hex package manager.
     6→#
     7→# description = ""
     8→# licences = ["Apache-2.0"]
     9→# repository = { type = "github", user = "", repo = "" }
    10→# links = [{ title = "Website", href = "" }]
    11→#
    12→# For a full reference of all the available options, you can have a look at
    13→# https://gleam.run/writing-gleam/gleam-toml/.
    14→
    15→[dependencies]
    16→gleam_stdlib = ">= 0.44.0 and < 2.0.0"
    17→gleam_otp = ">= 1.2.0 and < 2.0.0"
    18→gleam_erlang = ">= 1.3.0 and < 2.0.0"
    19→argv = ">= 1.0.2 and < 2.0.0"
    20→
    21→[dev-dependencies]
    22→gleeunit = ">= 1.0.0 and < 2.0.0"
    23→

{
  "type": "tool_reference",
  "tool_name": "Grep"
}

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Your Gleam project raft_kv has been successfully created.
The project can be compiled and tested by running these commands:

	cd raft_kv
	gleam test

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File created successfully at: /Users/apanda/code/agent-spec-code/raft_kv/config.toml

File created successfully at: /Users/apanda/code/agent-spec-code/raft_kv/src/raft_kv/types.gleam

File created successfully at: /Users/apanda/code/agent-spec-code/raft_kv/src/raft_kv/node.gleam

File created successfully at: /Users/apanda/code/agent-spec-code/raft_kv/src/raft_kv/client.gleam

     1→import gleam/io
     2→
     3→pub fn main() -> Nil {
     4→  io.println("Hello from raft_kv!")
     5→}
     6→

     1→import gleeunit
     2→
     3→pub fn main() -> Nil {
     4→  gleeunit.main()
     5→}
     6→
     7→// gleeunit test functions end in `_test`
     8→pub fn hello_world_test() {
     9→  let name = "Joe"
    10→  let greeting = "Hello, " <> name <> "!"
    11→
    12→  assert greeting == "Hello, Joe!"
    13→}
    14→

The file /Users/apanda/code/agent-spec-code/raft_kv/src/raft_kv.gleam has been updated successfully.

The file /Users/apanda/code/agent-spec-code/raft_kv/test/raft_kv_test.gleam has been updated successfully.

The file /Users/apanda/code/agent-spec-code/raft_kv/src/raft_kv.gleam has been updated successfully.

  Compiling raft_kv
   Compiled in 0.33s

   Compiled in 0.02s
    Running raft_kv_test.main
[node 1] Starting
[node 2] Starting
[node 3] Starting
[node 3] Peers configured (2 peers)
[node 2] Peers configured (2 peers)
[node 1] Peers configured (2 peers)
[node 1] Starting election for term 1
[node 2] Granting vote to 1 for term 1
[node 1] Received vote from node 2
[node 3] Granting vote to 1 for term 1
[node 1] Received vote from node 3
[node 1] Election result: 3 votes (need 2)
[node 1] Became LEADER for term 1
[node 1] Appending entry at index 1 (term 1)
[node 2] AppendEntries OK from leader 1, match_index=1
[node 1] AppendEntries ACK from node 2 (match=1)
[node 3] AppendEntries OK from leader 1, match_index=1
[node 1] AppendEntries ACK from node 3 (match=1)
[node 1] Replication: 3/2 acks
[node 1] PUT "x" = "hello" -> OK
[node 2] CommitNotification: commit_index updated to 1
[node 3] CommitNotification: commit_index updated to 1
[node 1] Appending entry at index 2 (term 1)
[node 2] slot 1: PUT "x" = "hello" -> OK
[node 3] slot 1: PUT "x" = "hello" -> OK
[node 2] AppendEntries OK from leader 1, match_index=2
[node 1] AppendEntries ACK from node 2 (match=2)
[node 3] AppendEntries OK from leader 1, match_index=2
[node 1] AppendEntries ACK from node 3 (match=2)
[node 1] Replication: 3/2 acks
[node 1] GET "x" -> "hello"
[node 2] CommitNotification: commit_index updated to 2
[node 3] CommitNotification: commit_index updated to 2
[node 1] Appending entry at index 3 (term 1)
[node 2] slot 2: GET "x" -> "hello"
[node 3] slot 2: GET "x" -> "hello"
[node 2] AppendEntries OK from leader 1, match_index=3
[node 1] AppendEntries ACK from node 2 (match=3)
[node 3] AppendEntries OK from leader 1, match_index=3
[node 1] AppendEntries ACK from node 3 (match=3)
[node 1] Replication: 3/2 acks
[node 1] PUT "x" -> REJECTED (key exists)
[node 2] CommitNotification: commit_index updated to 3
[node 3] CommitNotification: commit_index updated to 3
[node 1] Appending entry at index 4 (term 1)
[node 2] slot 3: PUT "x" -> REJECTED (key exists)
[node 3] slot 3: PUT "x" -> REJECTED (key exists)
[node 2] AppendEntries OK from leader 1, match_index=4
[node 1] AppendEntries ACK from node 2 (match=4)
[node 3] AppendEntries OK from leader 1, match_index=4
[node 1] AppendEntries ACK from node 3 (match=4)
[node 1] Replication: 3/2 acks
[node 1] DELETE "x" -> OK
[node 2] CommitNotification: commit_index updated to 4
[node 3] CommitNotification: commit_index updated to 4
[node 1] Appending entry at index 5 (term 1)
[node 2] slot 4: DELETE "x" -> OK
[node 3] slot 4: DELETE "x" -> OK
[node 2] AppendEntries OK from leader 1, match_index=5
[node 1] AppendEntries ACK from node 2 (match=5)
[node 3] AppendEntries OK from leader 1, match_index=5
[node 1] AppendEntries ACK from node 3 (match=5)
[node 1] Replication: 3/2 acks
[node 1] GET "x" -> NOT FOUND
[node 2] CommitNotification: commit_index updated to 5
[node 3] CommitNotification: commit_index updated to 5
[node 1] Appending entry at index 6 (term 1)
[node 2] slot 5: GET "x" -> NOT FOUND
[node 3] slot 5: GET "x" -> NOT FOUND
[node 2] AppendEntries OK from leader 1, match_index=6
[node 1] AppendEntries ACK from node 2 (match=6)
[node 3] AppendEntries OK from leader 1, match_index=6
[node 1] AppendEntries ACK from node 3 (match=6)
[node 1] Replication: 3/2 acks
[node 1] DELETE "x" -> NOT FOUND
[node 2] CommitNotification: commit_index updated to 6
[node 3] CommitNotification: commit_index updated to 6
.
1 passed, no failures

  Compiling raft_kv
   Compiled in 0.28s
    Running raft_kv.main
Config: 5 nodes, 3 clients
[node 1] Starting
Started node 1
[node 2] Starting
Started node 2
[node 3] Starting
Started node 3
[node 4] Starting
Started node 4
[node 5] Starting
Started node 5
All peers configured
[node 1] Peers configured (4 peers)
[node 2] Peers configured (4 peers)
[node 3] Peers configured (4 peers)
[node 4] Peers configured (4 peers)
[node 5] Peers configured (4 peers)
[node 1] Starting election for term 1
[node 2] Granting vote to 1 for term 1
[node 1] Received vote from node 2
[node 3] Granting vote to 1 for term 1
[node 1] Received vote from node 3
[node 4] Granting vote to 1 for term 1
[node 1] Received vote from node 4
[node 5] Granting vote to 1 for term 1
[node 1] Received vote from node 5
[node 1] Election result: 5 votes (need 3)
[node 1] Became LEADER for term 1
Election complete, starting clients
Started client 1
Started client 2
Started client 3
All 3 clients started sending requests
[client] Starting — will send 5 requests
[client] Starting — will send 5 requests
[client] Starting — will send 5 requests
[node 1] Appending entry at index 1 (term 1)
[node 2] AppendEntries OK from leader 1, match_index=1
[node 1] AppendEntries ACK from node 2 (match=1)
[node 3] AppendEntries OK from leader 1, match_index=1
[node 1] AppendEntries ACK from node 3 (match=1)
[node 4] AppendEntries OK from leader 1, match_index=1
[node 1] AppendEntries ACK from node 4 (match=1)
[node 5] AppendEntries OK from leader 1, match_index=1
[node 1] AppendEntries ACK from node 5 (match=1)
[node 1] Replication: 5/3 acks
[node 1] DELETE "a" -> NOT FOUND
[node 1] Appending entry at index 2 (term 1)
[client] DELETE "a" -> key not found: a
[node 2] CommitNotification: commit_index updated to 1
[node 3] CommitNotification: commit_index updated to 1
[node 4] CommitNotification: commit_index updated to 1
[node 5] CommitNotification: commit_index updated to 1
[node 2] slot 1: DELETE "a" -> NOT FOUND
[node 3] slot 1: DELETE "a" -> NOT FOUND
[node 4] slot 1: DELETE "a" -> NOT FOUND
[node 5] slot 1: DELETE "a" -> NOT FOUND
[node 2] AppendEntries OK from leader 1, match_index=2
[node 1] AppendEntries ACK from node 2 (match=2)
[node 3] AppendEntries OK from leader 1, match_index=2
[node 1] AppendEntries ACK from node 3 (match=2)
[node 4] AppendEntries OK from leader 1, match_index=2
[node 1] AppendEntries ACK from node 4 (match=2)
[node 5] AppendEntries OK from leader 1, match_index=2
[node 1] AppendEntries ACK from node 5 (match=2)
[node 1] Replication: 5/3 acks
[node 1] PUT "b" = "val_84" -> OK
[node 1] Appending entry at index 3 (term 1)
[client] PUT "b" = "val_84" -> OK
[node 2] CommitNotification: commit_index updated to 2
[node 3] CommitNotification: commit_index updated to 2
[node 4] CommitNotification: commit_index updated to 2
[node 5] CommitNotification: commit_index updated to 2
[node 2] slot 2: PUT "b" = "val_84" -> OK
[node 3] slot 2: PUT "b" = "val_84" -> OK
[node 4] slot 2: PUT "b" = "val_84" -> OK
[node 5] slot 2: PUT "b" = "val_84" -> OK
[node 2] AppendEntries OK from leader 1, match_index=3
[node 1] AppendEntries ACK from node 2 (match=3)
[node 3] AppendEntries OK from leader 1, match_index=3
[node 1] AppendEntries ACK from node 3 (match=3)
[node 4] AppendEntries OK from leader 1, match_index=3
[node 1] AppendEntries ACK from node 4 (match=3)
[node 5] AppendEntries OK from leader 1, match_index=3
[node 1] AppendEntries ACK from node 5 (match=3)
[node 1] Replication: 5/3 acks
[node 1] DELETE "e" -> NOT FOUND
[node 1] Appending entry at index 4 (term 1)
[client] DELETE "e" -> key not found: e
[node 2] CommitNotification: commit_index updated to 3
[node 3] CommitNotification: commit_index updated to 3
[node 4] CommitNotification: commit_index updated to 3
[node 5] CommitNotification: commit_index updated to 3
[node 2] slot 3: DELETE "e" -> NOT FOUND
[node 3] slot 3: DELETE "e" -> NOT FOUND
[node 4] slot 3: DELETE "e" -> NOT FOUND
[node 5] slot 3: DELETE "e" -> NOT FOUND
[node 2] AppendEntries OK from leader 1, match_index=4
[node 1] AppendEntries ACK from node 2 (match=4)
[node 3] AppendEntries OK from leader 1, match_index=4
[node 1] AppendEntries ACK from node 3 (match=4)
[node 4] AppendEntries OK from leader 1, match_index=4
[node 1] AppendEntries ACK from node 4 (match=4)
[node 5] AppendEntries OK from leader 1, match_index=4
[node 1] AppendEntries ACK from node 5 (match=4)
[node 1] Replication: 5/3 acks
[node 1] GET "e" -> NOT FOUND
[node 1] Appending entry at index 5 (term 1)
[client] GET "e" -> key not found: e
[node 2] CommitNotification: commit_index updated to 4
[node 3] CommitNotification: commit_index updated to 4
[node 4] CommitNotification: commit_index updated to 4
[node 5] CommitNotification: commit_index updated to 4
[node 2] slot 4: GET "e" -> NOT FOUND
[node 3] slot 4: GET "e" -> NOT FOUND
[node 4] slot 4: GET "e" -> NOT FOUND
[node 5] slot 4: GET "e" -> NOT FOUND
[node 2] AppendEntries OK from leader 1, match_index=5
[node 1] AppendEntries ACK from node 2 (match=5)
[node 3] AppendEntries OK from leader 1, match_index=5
[node 1] AppendEntries ACK from node 3 (match=5)
[node 4] AppendEntries OK from leader 1, match_index=5
[node 1] AppendEntries ACK from node 4 (match=5)
[node 5] AppendEntries OK from leader 1, match_index=5
[node 1] AppendEntries ACK from node 5 (match=5)
[node 1] Replication: 5/3 acks
[node 1] PUT "b" -> REJECTED (key exists)
[node 1] Appending entry at index 6 (term 1)
[client] PUT "b" = "val_55" -> key already exists: b
[node 2] CommitNotification: commit_index updated to 5
[node 3] CommitNotification: commit_index updated to 5
[node 4] CommitNotification: commit_index updated to 5
[node 5] CommitNotification: commit_index updated to 5
[node 2] slot 5: PUT "b" -> REJECTED (key exists)
[node 3] slot 5: PUT "b" -> REJECTED (key exists)
[node 4] slot 5: PUT "b" -> REJECTED (key exists)
[node 5] slot 5: PUT "b" -> REJECTED (key exists)
[node 2] AppendEntries OK from leader 1, match_index=6
[node 1] AppendEntries ACK from node 2 (match=6)
[node 3] AppendEntries OK from leader 1, match_index=6
[node 1] AppendEntries ACK from node 3 (match=6)
[node 4] AppendEntries OK from leader 1, match_index=6
[node 1] AppendEntries ACK from node 4 (match=6)
[node 5] AppendEntries OK from leader 1, match_index=6
[node 1] AppendEntries ACK from node 5 (match=6)
[node 1] Replication: 5/3 acks
[node 1] GET "e" -> NOT FOUND
[node 1] Appending entry at index 7 (term 1)
[client] GET "e" -> key not found: e
[node 2] CommitNotification: commit_index updated to 6
[node 3] CommitNotification: commit_index updated to 6
[node 4] CommitNotification: commit_index updated to 6
[node 5] CommitNotification: commit_index updated to 6
[node 2] slot 6: GET "e" -> NOT FOUND
[node 3] slot 6: GET "e" -> NOT FOUND
[node 4] slot 6: GET "e" -> NOT FOUND
[node 5] slot 6: GET "e" -> NOT FOUND
[node 2] AppendEntries OK from leader 1, match_index=7
[node 1] AppendEntries ACK from node 2 (match=7)
[node 3] AppendEntries OK from leader 1, match_index=7
[node 1] AppendEntries ACK from node 3 (match=7)
[node 4] AppendEntries OK from leader 1, match_index=7
[node 1] AppendEntries ACK from node 4 (match=7)
[node 5] AppendEntries OK from leader 1, match_index=7
[node 1] AppendEntries ACK from node 5 (match=7)
[node 1] Replication: 5/3 acks
[node 1] DELETE "b" -> OK
[node 1] Appending entry at index 8 (term 1)
[client] DELETE "b" -> OK
[node 2] CommitNotification: commit_index updated to 7
[node 3] CommitNotification: commit_index updated to 7
[node 4] CommitNotification: commit_index updated to 7
[node 5] CommitNotification: commit_index updated to 7
[node 2] slot 7: DELETE "b" -> OK
[node 3] slot 7: DELETE "b" -> OK
[node 4] slot 7: DELETE "b" -> OK
[node 5] slot 7: DELETE "b" -> OK
[node 2] AppendEntries OK from leader 1, match_index=8
[node 1] AppendEntries ACK from node 2 (match=8)
[node 3] AppendEntries OK from leader 1, match_index=8
[node 1] AppendEntries ACK from node 3 (match=8)
[node 4] AppendEntries OK from leader 1, match_index=8
[node 1] AppendEntries ACK from node 4 (match=8)
[node 5] AppendEntries OK from leader 1, match_index=8
[node 1] AppendEntries ACK from node 5 (match=8)
[node 1] Replication: 5/3 acks
[node 1] PUT "c" = "val_30" -> OK
[client] PUT "c" = "val_30" -> OK
[node 2] CommitNotification: commit_index updated to 8
[node 3] CommitNotification: commit_index updated to 8
[node 4] CommitNotification: commit_index updated to 8
[node 5] CommitNotification: commit_index updated to 8
[node 1] Appending entry at index 9 (term 1)
[node 2] slot 8: PUT "c" = "val_30" -> OK
[node 3] slot 8: PUT "c" = "val_30" -> OK
[node 4] slot 8: PUT "c" = "val_30" -> OK
[node 5] slot 8: PUT "c" = "val_30" -> OK
[node 2] AppendEntries OK from leader 1, match_index=9
[node 1] AppendEntries ACK from node 2 (match=9)
[node 3] AppendEntries OK from leader 1, match_index=9
[node 1] AppendEntries ACK from node 3 (match=9)
[node 4] AppendEntries OK from leader 1, match_index=9
[node 1] AppendEntries ACK from node 4 (match=9)
[node 5] AppendEntries OK from leader 1, match_index=9
[node 1] AppendEntries ACK from node 5 (match=9)
[node 1] Replication: 5/3 acks
[node 1] DELETE "b" -> NOT FOUND
[node 1] Appending entry at index 10 (term 1)
[client] DELETE "b" -> key not found: b
[node 2] CommitNotification: commit_index updated to 9
[node 3] CommitNotification: commit_index updated to 9
[node 4] CommitNotification: commit_index updated to 9
[node 5] CommitNotification: commit_index updated to 9
[node 2] slot 9: DELETE "b" -> NOT FOUND
[node 3] slot 9: DELETE "b" -> NOT FOUND
[node 4] slot 9: DELETE "b" -> NOT FOUND
[node 5] slot 9: DELETE "b" -> NOT FOUND
[node 2] AppendEntries OK from leader 1, match_index=10
[node 1] AppendEntries ACK from node 2 (match=10)
[node 3] AppendEntries OK from leader 1, match_index=10
[node 1] AppendEntries ACK from node 3 (match=10)
[node 4] AppendEntries OK from leader 1, match_index=10
[node 1] AppendEntries ACK from node 4 (match=10)
[node 5] AppendEntries OK from leader 1, match_index=10
[node 1] AppendEntries ACK from node 5 (match=10)
[node 1] Replication: 5/3 acks
[node 1] DELETE "c" -> OK
[node 1] Appending entry at index 11 (term 1)
[client] DELETE "c" -> OK
[node 2] CommitNotification: commit_index updated to 10
[node 3] CommitNotification: commit_index updated to 10
[node 4] CommitNotification: commit_index updated to 10
[node 5] CommitNotification: commit_index updated to 10
[node 2] slot 10: DELETE "c" -> OK
[node 3] slot 10: DELETE "c" -> OK
[node 4] slot 10: DELETE "c" -> OK
[node 5] slot 10: DELETE "c" -> OK
[node 2] AppendEntries OK from leader 1, match_index=11
[node 1] AppendEntries ACK from node 2 (match=11)
[node 3] AppendEntries OK from leader 1, match_index=11
[node 1] AppendEntries ACK from node 3 (match=11)
[node 4] AppendEntries OK from leader 1, match_index=11
[node 1] AppendEntries ACK from node 4 (match=11)
[node 5] AppendEntries OK from leader 1, match_index=11
[node 1] AppendEntries ACK from node 5 (match=11)
[node 1] Replication: 5/3 acks
[node 1] DELETE "c" -> NOT FOUND
[node 1] Appending entry at index 12 (term 1)
[client] DELETE "c" -> key not found: c
[node 2] CommitNotification: commit_index updated to 11
[node 3] CommitNotification: commit_index updated to 11
[node 4] CommitNotification: commit_index updated to 11
[node 5] CommitNotification: commit_index updated to 11
[node 2] slot 11: DELETE "c" -> NOT FOUND
[node 3] slot 11: DELETE "c" -> NOT FOUND
[node 4] slot 11: DELETE "c" -> NOT FOUND
[node 5] slot 11: DELETE "c" -> NOT FOUND
[node 2] AppendEntries OK from leader 1, match_index=12
[node 1] AppendEntries ACK from node 2 (match=12)
[node 3] AppendEntries OK from leader 1, match_index=12
[node 1] AppendEntries ACK from node 3 (match=12)
[node 4] AppendEntries OK from leader 1, match_index=12
[node 1] AppendEntries ACK from node 4 (match=12)
[node 5] AppendEntries OK from leader 1, match_index=12
[node 1] AppendEntries ACK from node 5 (match=12)
[node 1] Replication: 5/3 acks
[node 1] GET "b" -> NOT FOUND
[node 1] Appending entry at index 13 (term 1)
[client] GET "b" -> key not found: b
[node 2] CommitNotification: commit_index updated to 12
[node 3] CommitNotification: commit_index updated to 12
[node 4] CommitNotification: commit_index updated to 12
[node 5] CommitNotification: commit_index updated to 12
[node 2] slot 12: GET "b" -> NOT FOUND
[node 3] slot 12: GET "b" -> NOT FOUND
[node 4] slot 12: GET "b" -> NOT FOUND
[node 5] slot 12: GET "b" -> NOT FOUND
[node 2] AppendEntries OK from leader 1, match_index=13
[node 1] AppendEntries ACK from node 2 (match=13)
[node 3] AppendEntries OK from leader 1, match_index=13
[node 1] AppendEntries ACK from node 3 (match=13)
[node 4] AppendEntries OK from leader 1, match_index=13
[node 1] AppendEntries ACK from node 4 (match=13)
[node 5] AppendEntries OK from leader 1, match_index=13
[node 1] AppendEntries ACK from node 5 (match=13)
[node 1] Replication: 5/3 acks
[node 1] GET "d" -> NOT FOUND
[node 1] Appending entry at index 14 (term 1)
[client] GET "d" -> key not found: d
[node 2] CommitNotification: commit_index updated to 13
[node 3] CommitNotification: commit_index updated to 13
[node 4] CommitNotification: commit_index updated to 13
[node 5] CommitNotification: commit_index updated to 13
[client] Finished all 5 requests
[node 2] slot 13: GET "d" -> NOT FOUND
[node 3] slot 13: GET "d" -> NOT FOUND
[node 4] slot 13: GET "d" -> NOT FOUND
[node 5] slot 13: GET "d" -> NOT FOUND
[node 2] AppendEntries OK from leader 1, match_index=14
[node 1] AppendEntries ACK from node 2 (match=14)
[node 3] AppendEntries OK from leader 1, match_index=14
[node 1] AppendEntries ACK from node 3 (match=14)
[node 4] AppendEntries OK from leader 1, match_index=14
[node 1] AppendEntries ACK from node 4 (match=14)
[node 5] AppendEntries OK from leader 1, match_index=14
[node 1] AppendEntries ACK from node 5 (match=14)
[node 1] Replication: 5/3 acks
[node 1] DELETE "b" -> NOT FOUND
[node 1] Appending entry at index 15 (term 1)
[client] DELETE "b" -> key not found: b
[node 2] CommitNotification: commit_index updated to 14
[node 3] CommitNotification: commit_index updated to 14
[node 4] CommitNotification: commit_index updated to 14
[node 5] CommitNotification: commit_index updated to 14
[client] Finished all 5 requests
[node 2] slot 14: DELETE "b" -> NOT FOUND
[node 3] slot 14: DELETE "b" -> NOT FOUND
[node 4] slot 14: DELETE "b" -> NOT FOUND
[node 5] slot 14: DELETE "b" -> NOT FOUND
[node 2] AppendEntries OK from leader 1, match_index=15
[node 1] AppendEntries ACK from node 2 (match=15)
[node 3] AppendEntries OK from leader 1, match_index=15
[node 1] AppendEntries ACK from node 3 (match=15)
[node 4] AppendEntries OK from leader 1, match_index=15
[node 1] AppendEntries ACK from node 4 (match=15)
[node 5] AppendEntries OK from leader 1, match_index=15
[node 1] AppendEntries ACK from node 5 (match=15)
[node 1] Replication: 5/3 acks
[node 1] GET "a" -> NOT FOUND
[client] GET "a" -> key not found: a
[node 2] CommitNotification: commit_index updated to 15
[node 3] CommitNotification: commit_index updated to 15
[node 4] CommitNotification: commit_index updated to 15
[node 5] CommitNotification: commit_index updated to 15
[client] Finished all 5 requests
[node 2] slot 15: GET "a" -> NOT FOUND
[node 3] slot 15: GET "a" -> NOT FOUND
[node 4] slot 15: GET "a" -> NOT FOUND
[node 5] slot 15: GET "a" -> NOT FOUND
Done

/Users/apanda/code/agent-spec-code/raft_kv/README.md

     1→# raft_kv
     2→
     3→[![Package Version](https://img.shields.io/hexpm/v/raft_kv)](https://hex.pm/packages/raft_kv)
     4→[![Hex Docs](https://img.shields.io/badge/hex-docs-ffaff3)](https://hexdocs.pm/raft_kv/)
     5→
     6→```sh
     7→gleam add raft_kv@1
     8→```
     9→```gleam
    10→import raft_kv
    11→
    12→pub fn main() -> Nil {
    13→  // TODO: An example of the project in use
    14→}
    15→```
    16→
    17→Further documentation can be found at <https://hexdocs.pm/raft_kv>.
    18→
    19→## Development
    20→
    21→```sh
    22→gleam run   # Run the project
    23→gleam test  # Run the tests
    24→```
    25→

The file /Users/apanda/code/agent-spec-code/raft_kv/README.md has been updated successfully.