Merge remote-tracking branch 'origin/master' into codex/pr48-repo-hardening-rfcs

# Conflicts:
#	docs/adr/README.md
#	docs/rfc/009-session-persistence-and-resumability.md
#	docs/rfc/README.md
#	docs/rfc/implemented/2026-06-11-doc-sync-enforcement.md
#	docs/rfc/proposed/2026-06-14-acp-agent-client-protocol.md
#	examples/acp-agent/tests/acp.e2e.ts
#	packages/acp/README.md
#	packages/acp/src/index.ts
#	packages/acp/tests/stream-update.spec.ts
#	packages/agent-loop/src/loop.ts
#	packages/tools/src/index.ts
This commit is contained in:
Tianyi Cui
2026-06-18 23:41:14 +08:00
104 files changed
+2586 -590

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+35 -1
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@@ -24,9 +24,10 @@ Tool registry and execution waterfall. Tool plugins register their schemas and e
### Key types
- `ToolDefinition``ToolSchema` + `execute(args, exec): Promise<ContentBlock[]>`.
- `ToolDefinition``ToolSchema` + `execute(args, exec): Promise<ContentBlock[]>`, plus optional `presentCall(args)` / `presentResult(args, result)` for tool-owned UI presentation (see below).
- `ToolExecution` — one pending tool call: `{ callId, name, arguments, agent?, signal? }`.
- `ToolExecutionResult` — outcome: `{ callId, content, isError, error? }`. On failure with a `HarnessError`, `error: { name, code }` carries the structured failure class alongside the model-facing text (the loop forwards it onto the `tool/result` session event for retry/sandbox plugins and replay).
- `ToolCallPresentation` / `ToolResultPresentation` — provider-neutral shapes a tool returns from `presentCall` / `presentResult` to own how a UI renders ITS calls (see "Tool-owned UI presentation").
### Extension points
@@ -67,6 +68,39 @@ A `defineTool` tool also **validates the model-generated arguments against its `
See `defineTool`, `validateArgs`, `ToolArgsError`, `SchemaSpec`, `InferArgs`, and `schemaSpecToJsonSchema` in the public API for details.
### Tool-owned UI presentation
A tool owns how ITS calls render in a UI (an editor's tool-call card, a CLI log line) — a UI plugin must NOT special-case tool names. A `ToolDefinition` may declare two optional, pure, display-only methods:
- `presentCall(args): ToolCallPresentation | undefined` — the PENDING state: a human-readable `title` (always-visible label), an optional `kind` (`read`/`edit`/`execute`/… for icon/treatment, default `other`), an optional `rawInput` (the salient input to show in a detail view — e.g. a shell command as a string, NOT the whole args object), an optional `content` (UI content shown alongside the title/card — e.g. a bash `description` as a text block above the terminal card), and an optional `terminal` (a neutral `{ cwd? }` asking a capable UI to render this call as a TERMINAL, e.g. for `bash`).
- `presentResult(args, result): ToolResultPresentation | undefined` — the COMPLETED state, given the same `args` and the `{ content, isError }` result: an optional replacement `title`, reformatted `content` (e.g. wrap command output in a fenced ` ```console ` block — a UI-only affordance that must NOT appear in the model-facing `execute` result), and an optional `terminal` (the `{ output?, exitCode?, signal? }` for a terminal-rendered call). The `ToolTerminal` shape is provider-neutral; a UI bridge (the ACP bridge) maps it to a terminal card (with an exit-status pill) and a UI that can't ignores it and uses `content`.
Returning `undefined` (or omitting a method) tells a UI to fall back to a generic presentation (title = tool name, raw args as input, raw result content). Both methods must be **pure and side-effect-free**: a UI may call them during live streaming AND during a session-log replay, so they depend only on their arguments. With `defineTool`, `args` is the typed `InferArgs<S>` shape; the helper soft-validates before calling (a malformed/older logged arg shape yields `undefined` rather than throwing, since display must never crash a replay). The shapes are provider-neutral — the ACP bridge (`dsh-acp`) maps them to ACP `tool_call`/`tool_call_update` wire fields, and `dsh-tool-bash` is the reference implementation.
```ts
import { defineTool } from '@deepseek-ai/dsh-tools'
const bash = defineTool({
name: 'bash',
description: 'Run a shell command.',
parameters: {
command: { type: 'string', required: true, description: 'The command to run.' },
description: { type: 'string', required: true, description: 'One-line summary shown in the UI.' },
},
async execute(args) {
return [{ type: 'text', text: `ran: ${args.command}` }]
},
// The command is the readable title; the description rides as a content block.
presentCall: args => ({ title: args.command, kind: 'execute', rawInput: args.command, content: [{ type: 'text', text: args.description }] }),
// Wrap the output as a console block for the UI (not in the model-facing result).
presentResult: (_args, result) => {
const block = result.content.length === 1 ? result.content[0] : undefined
if (block === undefined || block.type !== 'text') return undefined
return { content: [{ type: 'text', text: '```console\n' + block.text + '\n```' }] }
},
})
```
### What is NOT here (TODO)
- **Tool shapes review** — when real tools land (e.g. a concurrency-safety hint for parallel execution); phase 1 executes tool calls sequentially.
+186 -34
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@@ -50,9 +50,156 @@ declare module 'cordis' {
// parallel execution — Claude Code partitions read-only tools; phase 1
// executes sequentially).
/**
* Category of a tool call, used by a UI to pick an icon / treatment. A neutral
* vocabulary owned here (NOT an ACP type) so tools describe themselves without
* depending on any client protocol; a UI bridge maps it to its own enum. The
* member set mirrors the common ACP `ToolKind` values; `other` is the default.
*/
export type ToolCallKind = 'read' | 'edit' | 'delete' | 'move' | 'search' | 'execute' | 'fetch' | 'other'
// FIXME(tool-presentation): the ToolCallPresentation / ToolResultPresentation /
// ToolTerminal shapes need a rethink. They grew incrementally (title/kind/
// rawInput, then a `content` block, then a `terminal` sub-shape carrying cwd/
// output/exit) and the split of responsibility is now muddy: the call vs result
// terminal fields overlap, the bridge has to reconcile a `content` block AND a
// `terminal` block AND `rawInput` per call, and the "pending vs completed"
// boundary doesn't cleanly map to how editors actually render (terminal card,
// diff, generic card). Before more tools/UIs depend on this, redesign the type
// so a tool declares its render INTENT once (e.g. a tagged union over card
// kinds) rather than a bag of optional fields the bridge stitches together.
// Pin the design in an RFC and migrate dsh-tool-bash + the ACP bridge together.
/**
* How a tool wants ONE of its calls shown in a UI (an editor's tool-call card,
* a CLI log line) BEFORE the result is known — the *pending* state. Provider-
* neutral: a tool returns this from {@link ToolDefinition.presentCall} and a UI
* plugin (e.g. the ACP bridge) maps it to its own wire shape. The tool owns its
* own presentation — the UI must not special-case tool names.
*/
export interface ToolCallPresentation {
/**
* Human-readable, always-visible label describing what THIS call does (e.g.
* the model-written one-line summary of a bash command). Keep it short — a UI
* shows it as a card header / log line. Required: a presentation must have a
* title (a UI falls back to the tool name only when `presentCall` is absent).
*/
title: string
/** Category for icon/treatment; defaults to `other` when omitted. */
kind?: ToolCallKind
/**
* The salient input to surface in a detail/expanded view — e.g. the bash
* COMMAND itself (as a string), so the title can stay a readable summary
* while the exact command is still visible. Omit to show nothing; a string is
* rendered as-is, an object as pretty JSON. NOT the full raw args object
* unless that is genuinely what a reader wants.
*/
rawInput?: unknown
/**
* UI-facing content to show on the PENDING call alongside the title/card —
* harness {@link ContentBlock}s, in render order. A terminal tool uses this to
* surface its human-readable `description` as a text block ABOVE the terminal
* card (the card itself is requested via {@link terminal} and labelled by the
* command in `title`), since the card has no description slot. Omit to show no
* extra content. A UI maps these to its own content blocks and renders a
* {@link terminal} block (if any) as a terminal card.
*/
content?: ContentBlock[]
/**
* Ask a capable UI to render this call as a TERMINAL (a command running in a
* working directory), not a generic tool card — set by a tool whose call IS a
* shell command (e.g. `bash`). Provider-neutral; a UI bridge maps it to its
* own terminal affordance and a UI that can't falls back to the normal card.
* Pair with {@link ToolResultPresentation.terminal} for the output/exit.
*/
terminal?: ToolTerminal
}
/**
* A request to render a tool call as a terminal. The pending presentation
* supplies the working directory; the result presentation (see
* {@link ToolResultPresentation.terminal}) supplies the captured output and exit
* status. Provider-neutral — no client-protocol types. A UI that supports
* terminals shows a cwd-headed terminal card with the command, its output, and
* an exit-status pill; a UI that does not ignores this and renders the ordinary
* card/content.
*/
export interface ToolTerminal {
/**
* Working directory the command ran in, shown as the terminal header. An
* ABSOLUTE path is used as-is; a RELATIVE path is resolved by the UI bridge
* against the session workspace (the pure tool presenter can't see the
* session cwd). Omit entirely to let the bridge use the session workspace.
*/
cwd?: string
/** Captured command output (stdout+stderr as the tool chooses to combine them). Result-state only. */
output?: string
/**
* Process exit code, when the run ended by exiting (not a signal). Result-state
* only; lets a capable UI show an exit-status pill on the terminal card. Omit
* when the command was killed by a signal or the exit code is unknown.
*/
exitCode?: number
/**
* Signal name that killed the process (e.g. `SIGTERM`), when it died by signal
* rather than exiting. Result-state only; mutually exclusive with `exitCode`.
*/
signal?: string
}
/**
* How a tool wants the COMPLETED call shown — the *result* state, after
* `execute` returns. Lets the tool reformat its result for a UI distinctly from
* the model-facing text it returned from `execute` (e.g. wrap command output in
* a fenced ```console block for monospace rendering, which the model-facing
* result must NOT carry). All fields optional: a UI keeps the pending-state
* title and renders the raw result content for anything left unset.
*/
export interface ToolResultPresentation {
/** Replacement title for the completed call (e.g. append an exit status). Omit to keep the pending-state title. */
title?: string
/**
* UI-facing result content (harness {@link ContentBlock}s), reformatted from
* the model-facing result. Omit to let the UI render the raw result content.
* Stays in harness vocabulary; the UI maps these to its own content blocks.
*/
content?: ContentBlock[]
/**
* Terminal output/exit for a call the pending presentation marked as a
* terminal (see {@link ToolCallPresentation.terminal}). A capable UI renders
* `output` in the terminal card and shows the exit status; an incapable UI
* uses `content` (the tool should supply a text fallback there too).
*/
terminal?: ToolTerminal
}
/** A registered tool: its schema plus the execution function. */
export interface ToolDefinition extends ToolSchema {
execute(args: unknown, exec: ToolExecution): Promise<ContentBlock[]>
/**
* Optional: how to present the PENDING state of one call in a UI, derived
* from the call's `args` (parsed arguments, `unknown` — the tool validates/
* narrows its own input). Returning `undefined` (or omitting the method) tells
* a UI to fall back to a generic presentation (title = tool name, raw args as
* input). Pure and side-effect-free: a UI may call it during live streaming
* AND a session-log replay, so it must depend only on `args`.
*/
presentCall?(args: unknown): ToolCallPresentation | undefined
/**
* Optional: how to present the COMPLETED state, given the same `args` and the
* `result` (`execute`'s content + whether it errored). Returning `undefined`
* (or omitting the method) tells a UI to keep the pending title and render the
* raw result content. Pure and side-effect-free for the same replay reason.
*/
presentResult?(args: unknown, result: ToolResult): ToolResultPresentation | undefined
}
/** The completed outcome handed to {@link ToolDefinition.presentResult}. */
export interface ToolResult {
/** The model-facing content `execute` returned (or the error text on failure). */
content: ContentBlock[]
/** Whether the call failed. */
isError: boolean
}
/** One pending tool call, as it flows through the execution waterfall. */
@@ -166,16 +313,21 @@ export class ToolRegistry extends Service {
}
/**
* Return all registered tool schemas, stripped of their `execute` functions.
* These are exactly what gets sent to the model via the system-prompt
* assembly.
* Return all registered tool schemas — exactly the model-facing fields
* (`name`, `description`, `parameters`, and `strict` when set), as sent to the
* model via the system-prompt assembly. Constructed EXPLICITLY rather than by
* stripping known non-schema members: a `ToolDefinition` also carries
* `execute` and the optional `presentCall`/`presentResult` UI callbacks, and
* those (especially the functions) must never leak into a model request. An
* allowlist can't drift when a new non-schema member is added to the
* definition; a denylist (rest-destructure) would silently leak it.
*/
schemas(): ToolSchema[] {
// Rest-destructure to drop `execute`; the unused binding is the idiom.
// eslint-disable-next-line @typescript-eslint/unbound-method, @typescript-eslint/no-unused-vars
return [...this.store.values()].map(({ execute, ...schema }) => ({
...schema,
parameters: structuredClone(schema.parameters),
return [...this.store.values()].map(({ name, description, parameters, strict }): ToolSchema => ({
name,
description,
parameters: structuredClone(parameters),
...strict !== undefined ? { strict } : {},
}))
}
@@ -186,33 +338,33 @@ export class ToolRegistry extends Service {
* an `isError` result so the loop never sees an uncaught exception; a thrown
* {@link HarnessError} surfaces its `{ name, code }` on the result.
*/
execute(exec: ToolExecution): Promise<ToolExecutionResult> {
return this.ctx.waterfall(this, 'tools/execute', exec, async (): Promise<ToolExecutionResult> => {
try {
const tool = this.store.get(exec.name)
// Unknown tool routes through the same catch as a tool-thrown error, so
// both failure classes get structured `{ name, code }` from one path.
if (!tool) throw new ToolNotFoundError(exec.name)
const content = await tool.execute(exec.arguments, exec)
return { callId: exec.callId, content, isError: false }
} catch (error: unknown) {
const info = errorInfo(error)
return {
callId: exec.callId,
content: [{ type: 'text', text: `Error: ${errorMessage(error)}` }],
isError: true,
...info ? { error: info } : {},
async execute(exec: ToolExecution): Promise<ToolExecutionResult> {
try {
return await this.ctx.waterfall(this, 'tools/execute', exec, async (): Promise<ToolExecutionResult> => {
try {
const tool = this.store.get(exec.name)
// Unknown tool routes through the same catch as a tool-thrown error, so
// both failure classes get structured `{ name, code }` from one path.
if (!tool) throw new ToolNotFoundError(exec.name)
const content = await tool.execute(exec.arguments, exec)
return { callId: exec.callId, content, isError: false }
} catch (error: unknown) {
return toolErrorResult(exec.callId, error)
}
}
}).catch((error: unknown): ToolExecutionResult => {
const info = errorInfo(error)
return {
callId: exec.callId,
content: [{ type: 'text', text: `Error: ${errorMessage(error)}` }],
isError: true,
...info ? { error: info } : {},
}
})
})
} catch (error: unknown) {
return toolErrorResult(exec.callId, error)
}
}
}
function toolErrorResult(callId: ToolExecution['callId'], error: unknown): ToolExecutionResult {
const info = errorInfo(error)
return {
callId,
content: [{ type: 'text', text: `Error: ${errorMessage(error)}` }],
isError: true,
...info ? { error: info } : {},
}
}
+39 -2
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@@ -21,7 +21,7 @@
import type { ContentBlock } from '@deepseek-ai/dsh-llm'
import { assertNever, HarnessError } from '@deepseek-ai/dsh-llm'
import type { ToolDefinition, ToolExecution } from './index.ts'
import type { ToolCallPresentation, ToolDefinition, ToolExecution, ToolResult, ToolResultPresentation } from './index.ts'
// ---------------------------------------------------------------------------
// SchemaSpec — the author-facing per-property type
@@ -287,6 +287,22 @@ export interface DefineToolOptions<S extends SchemaSpec> {
* casts needed.
*/
execute(args: InferArgs<S>, exec: ToolExecution): Promise<ContentBlock[]>
/**
* Optional: how to present the PENDING state of one call in a UI (an editor
* tool-call card, a CLI log line). `args` is the typed, schema-validated
* argument shape — zero casts. Pure and side-effect-free: a UI may call it
* during live streaming AND a session-log replay, so depend only on `args`.
* The tool owns its presentation so a UI never special-cases tool names. See
* {@link ToolCallPresentation}.
*/
presentCall?(args: InferArgs<S>): ToolCallPresentation | undefined
/**
* Optional: how to present the COMPLETED state, given the typed `args` and the
* `result`. Use it to reformat result content for a UI distinctly from the
* model-facing text (e.g. a fenced ```console block). Pure and side-effect-
* free for the same replay reason. See {@link ToolResultPresentation}.
*/
presentResult?(args: InferArgs<S>, result: ToolResult): ToolResultPresentation | undefined
/** Whether the tool requires structured output (default false). */
strict?: boolean
}
@@ -322,7 +338,11 @@ export function defineTool<S extends SchemaSpec>(options: DefineToolOptions<S>):
// Object-literal execute methods don't use `this`; the reference is safe.
// eslint-disable-next-line @typescript-eslint/unbound-method
const userExecute = options.execute
return {
// eslint-disable-next-line @typescript-eslint/unbound-method
const userPresentCall = options.presentCall
// eslint-disable-next-line @typescript-eslint/unbound-method
const userPresentResult = options.presentResult
const tool: ToolDefinition = {
name: options.name,
description: options.description,
parameters: schemaSpecToJsonSchema(options.parameters) as unknown as Record<string, unknown>,
@@ -337,4 +357,21 @@ export function defineTool<S extends SchemaSpec>(options: DefineToolOptions<S>):
return userExecute(args as InferArgs<S>, exec)
},
}
// Presentation is display-only and may run on REPLAY of arbitrary logged args
// (possibly from an older schema), so it must never throw: validate softly and
// fall back to `undefined` (a generic UI presentation) on any mismatch, rather
// than the hard `ToolArgsError` the execute path raises.
if (userPresentCall) {
tool.presentCall = (args: unknown): ToolCallPresentation | undefined => {
if (validateArgs(options.parameters, args).length > 0) return undefined
return userPresentCall(args as InferArgs<S>)
}
}
if (userPresentResult) {
tool.presentResult = (args: unknown, result: ToolResult): ToolResultPresentation | undefined => {
if (validateArgs(options.parameters, args).length > 0) return undefined
return userPresentResult(args as InferArgs<S>, result)
}
}
return tool
}
+6 -6
View File
@@ -1,8 +1,8 @@
/**
* Property-based tests for the tool-schema DSL (RFC 001 → ADR 0013), including
* the RFC 001 ↔ 005 composition: generated args that satisfy a SchemaSpec must
* Property-based tests for the tool-schema DSL (the property-testing RFC), including
* the the property-testing ↔ runtime-validation composition composition: generated args that satisfy a SchemaSpec must
* pass validateArgs, and targeted corruptions must be rejected. This closes the
* validator/InferArgs drift risk noted in ADR 0011.
* validator/InferArgs drift risk noted in the arg-validation RFC.
*/
import { describe, expect, it } from 'vitest'
@@ -108,7 +108,7 @@ describe('schema DSL properties', () => {
}))
})
it('RFC 001↔005: args satisfying the spec pass validateArgs', () => {
it('the property-testing ↔ runtime-validation composition: args satisfying the spec pass validateArgs', () => {
fc.assert(fc.property(
specArb(2).chain(spec => fc.tuple(fc.constant(spec), validArgsForSpec(spec))),
([spec, args]) => {
@@ -117,7 +117,7 @@ describe('schema DSL properties', () => {
))
})
it('RFC 001↔005: dropping a required key is always rejected', () => {
it('the property-testing ↔ runtime-validation composition: dropping a required key is always rejected', () => {
fc.assert(fc.property(
specArb(1)
.filter(spec => requiredKeys(spec).length > 0)
@@ -132,7 +132,7 @@ describe('schema DSL properties', () => {
))
})
it('RFC 001↔005: a non-object top level is always rejected', () => {
it('the property-testing ↔ runtime-validation composition: a non-object top level is always rejected', () => {
fc.assert(fc.property(
specArb(1),
fc.oneof(fc.string(), fc.integer(), fc.boolean(), fc.constant(null), fc.array(fc.anything())),
+85 -2
View File
@@ -41,6 +41,39 @@ describe('ToolRegistry', () => {
expect(assembly.tools.map(t => t.name)).toEqual(['echo'])
})
it('schemas() drops the UI presentation callbacks — they must never reach the model', async () => {
const ctx = await setup()
// A tool that declares presentCall/presentResult (functions). schemas() feeds
// the system-prompt assembly → the model request, so those callbacks (and
// `execute`) must be stripped: a function in the JSON tool schema would
// corrupt the request. schemas() is an explicit allowlist, so it can't leak.
ctx.tools.register(defineTool({
name: 'present',
description: 'has presenters',
parameters: { x: { type: 'string', required: true } },
async execute() { return [] },
presentCall: args => ({ title: args.x }),
presentResult: (args, result) => ({ title: args.x, content: result.content }),
}))
const schema = ctx.tools.schemas()[0] as unknown as Record<string, unknown>
expect(Object.keys(schema).sort()).toEqual(['description', 'name', 'parameters'])
expect(schema.presentCall).toBeUndefined()
expect(schema.presentResult).toBeUndefined()
expect(schema.execute).toBeUndefined()
})
it('schemas() preserves `strict` when set (allowlist keeps the model-facing fields)', async () => {
const ctx = await setup()
ctx.tools.register(defineTool({
name: 'strict-tool',
description: 'd',
parameters: { x: { type: 'string', required: true } },
strict: true,
async execute() { return [] },
}))
expect(ctx.tools.schemas()[0]).toMatchObject({ name: 'strict-tool', strict: true })
})
it('executes a tool and returns its content', async () => {
const ctx = await setup()
ctx.tools.register(echoTool)
@@ -657,7 +690,7 @@ describe('ToolRegistry.get', () => {
})
})
describe('validateArgs (RFC 005 part 1)', () => {
describe('validateArgs (the runtime-validation RFC, part 1)', () => {
it('returns [] for valid args and is total over malformed input', () => {
const spec = {
path: { type: 'string', required: true },
@@ -757,7 +790,7 @@ describe('validateArgs (RFC 005 part 1)', () => {
})
})
describe('defineTool validation (RFC 005 part 1)', () => {
describe('defineTool validation (the runtime-validation RFC, part 1)', () => {
it('returns an isError result with the violations when the model sends bad args', async () => {
const ctx = await setup()
ctx.tools.register(defineTool({
@@ -862,3 +895,53 @@ describe('defineTool validation (RFC 005 part 1)', () => {
expect(result.isError).toBe(false)
})
})
describe('defineTool presentation (presentCall / presentResult)', () => {
it('threads presentCall/presentResult onto the ToolDefinition with typed args', () => {
const tool = defineTool({
name: 'demo',
description: 'demo',
parameters: { path: { type: 'string', required: true }, n: { type: 'number' } },
async execute() { return [{ type: 'text', text: 'ok' }] },
presentCall(args) {
// args is typed { path: string; n?: number } — zero casts.
expectTypeOf(args).toEqualTypeOf<{ path: string; n?: number }>()
return { title: `Open ${args.path}`, kind: 'read', rawInput: args.path }
},
presentResult(args, result) {
return { title: `Opened ${args.path}`, content: result.content }
},
})
expect(tool.presentCall!({ path: '/a', n: 2 })).toEqual({ title: 'Open /a', kind: 'read', rawInput: '/a' })
expect(tool.presentResult!({ path: '/a' }, { content: [{ type: 'text', text: 'x' }], isError: false }))
.toEqual({ title: 'Opened /a', content: [{ type: 'text', text: 'x' }] })
})
it('a tool without presentCall/presentResult leaves them undefined (UI falls back generically)', () => {
const tool = defineTool({
name: 'plain',
description: 'plain',
parameters: { x: { type: 'string', required: true } },
async execute() { return [] },
})
expect(typeof tool.presentCall).toBe('undefined')
expect(typeof tool.presentResult).toBe('undefined')
})
it('presentCall/presentResult validate softly: malformed args return undefined, never throw (display runs on replay)', () => {
const tool = defineTool({
name: 'demo',
description: 'demo',
parameters: { path: { type: 'string', required: true } },
async execute() { return [] },
presentCall: args => ({ title: args.path }),
presentResult: (args, result) => ({ title: args.path, content: result.content }),
})
// Unlike execute (which throws ToolArgsError on a mismatch), the display
// methods soft-validate and fall back to undefined so a UI never crashes
// replaying an old/foreign log entry. The ToolDefinition methods take
// `unknown`, so malformed shapes pass without a cast.
expect(tool.presentCall?.({})).toBeUndefined()
expect(tool.presentResult?.({ wrong: 1 }, { content: [], isError: false })).toBeUndefined()
})
})