"use strict";
var __createBinding = (this && this.__createBinding) || (Object.create ? (function(o, m, k, k2) {
    if (k2 === undefined) k2 = k;
    var desc = Object.getOwnPropertyDescriptor(m, k);
    if (!desc || ("get" in desc ? !m.__esModule : desc.writable || desc.configurable)) {
      desc = { enumerable: true, get: function() { return m[k]; } };
    }
    Object.defineProperty(o, k2, desc);
}) : (function(o, m, k, k2) {
    if (k2 === undefined) k2 = k;
    o[k2] = m[k];
}));
var __setModuleDefault = (this && this.__setModuleDefault) || (Object.create ? (function(o, v) {
    Object.defineProperty(o, "default", { enumerable: true, value: v });
}) : function(o, v) {
    o["default"] = v;
});
var __importStar = (this && this.__importStar) || function (mod) {
    if (mod && mod.__esModule) return mod;
    var result = {};
    if (mod != null) for (var k in mod) if (k !== "default" && Object.prototype.hasOwnProperty.call(mod, k)) __createBinding(result, mod, k);
    __setModuleDefault(result, mod);
    return result;
};
Object.defineProperty(exports, "__esModule", { value: true });
exports.allProcessors = exports.lazyProcessor = exports.optionalProcessor = exports.promiseProcessor = exports.readonlyProcessor = exports.pipeProcessor = exports.catchProcessor = exports.prefaultProcessor = exports.defaultProcessor = exports.nonoptionalProcessor = exports.nullableProcessor = exports.recordProcessor = exports.tupleProcessor = exports.intersectionProcessor = exports.unionProcessor = exports.objectProcessor = exports.arrayProcessor = exports.setProcessor = exports.mapProcessor = exports.transformProcessor = exports.functionProcessor = exports.customProcessor = exports.successProcessor = exports.fileProcessor = exports.templateLiteralProcessor = exports.nanProcessor = exports.literalProcessor = exports.enumProcessor = exports.dateProcessor = exports.unknownProcessor = exports.anyProcessor = exports.neverProcessor = exports.voidProcessor = exports.undefinedProcessor = exports.nullProcessor = exports.symbolProcessor = exports.bigintProcessor = exports.booleanProcessor = exports.numberProcessor = exports.stringProcessor = void 0;
exports.aggregateChecks = aggregateChecks;
exports.toJSONSchema = toJSONSchema;
const regexes = __importStar(require("./regexes.cjs"));
const schemas_js_1 = require("./schemas.cjs");
const to_json_schema_js_1 = require("./to-json-schema.cjs");
const util_js_1 = require("./util.cjs");
const narrowMin = (agg, key, value) => {
    if (agg[key] === undefined || value > agg[key])
        agg[key] = value;
};
const narrowMax = (agg, key, value) => {
    if (agg[key] === undefined || value < agg[key])
        agg[key] = value;
};
const narrowBoth = (agg, value) => {
    narrowMin(agg, "minimum", value);
    narrowMax(agg, "maximum", value);
};
const addDivisor = (agg, value) => {
    agg.multipleOf ?? (agg.multipleOf = []);
    if (!agg.multipleOf.includes(value))
        agg.multipleOf.push(value);
};
const addPattern = (agg, pattern) => {
    agg.patterns ?? (agg.patterns = new Set());
    agg.patterns.add(pattern);
};
const intersectMime = (agg, mime) => {
    agg.mime = agg.mime ? agg.mime.filter((m) => mime.includes(m)) : [...mime];
};
// last-wins, matching the bag's historical write order; the flag keeps an integer format from being lost to a later float one
const setFormat = (agg, format) => {
    agg.format = format;
    if (format.includes("int"))
        agg.isInt = true;
};
const minContributor = (agg, def) => narrowMin(agg, "minimum", def.minimum);
const maxContributor = (agg, def) => narrowMax(agg, "maximum", def.maximum);
const formatContributor = (ranges) => (agg, def) => {
    setFormat(agg, def.format);
    const [minimum, maximum] = ranges[def.format];
    narrowMin(agg, "minimum", minimum);
    narrowMax(agg, "maximum", maximum);
};
const contributors = {
    greater_than: (agg, def) => narrowMin(agg, def.inclusive ? "minimum" : "exclusiveMinimum", def.value),
    less_than: (agg, def) => narrowMax(agg, def.inclusive ? "maximum" : "exclusiveMaximum", def.value),
    multiple_of: (agg, def) => addDivisor(agg, def.value),
    number_format: formatContributor(util_js_1.NUMBER_FORMAT_RANGES),
    bigint_format: formatContributor(util_js_1.BIGINT_FORMAT_RANGES),
    min_length: minContributor,
    max_length: maxContributor,
    length_equals: (agg, def) => narrowBoth(agg, def.length),
    min_size: minContributor,
    max_size: maxContributor,
    size_equals: (agg, def) => narrowBoth(agg, def.size),
    string_format: (agg, def) => {
        setFormat(agg, def.format);
        if (def.pattern)
            addPattern(agg, def.pattern);
        if (def.format === "base64" || def.format === "base64url")
            agg.contentEncoding = def.format;
        if (def.local || def.precision === -1)
            agg.laxFormat = true;
    },
    mime_type: (agg, def) => intersectMime(agg, def.mime),
};
function aggregateChecks(schema) {
    const agg = {};
    const def = schema._zod.def;
    // a format schema is its own first check, same rule as $ZodType init
    const list = schema._zod.traits.has("$ZodCheck")
        ? [schema, ...(def.checks ?? [])]
        : (def.checks ?? []);
    for (const ch of list)
        contributors[ch._zod.def.check]?.(agg, ch._zod.def);
    // reconcile with the bag so third-party onattach contributions still land; first-party residue is never tighter than the fold, so merging it back is idempotent for one and additive for the other
    const bag = schema._zod.bag;
    if (bag.minimum !== undefined)
        narrowMin(agg, "minimum", bag.minimum);
    if (bag.exclusiveMinimum !== undefined)
        narrowMin(agg, "exclusiveMinimum", bag.exclusiveMinimum);
    if (bag.maximum !== undefined)
        narrowMax(agg, "maximum", bag.maximum);
    if (bag.exclusiveMaximum !== undefined)
        narrowMax(agg, "exclusiveMaximum", bag.exclusiveMaximum);
    if (bag.multipleOf !== undefined)
        addDivisor(agg, bag.multipleOf);
    if (bag.format !== undefined) {
        agg.format ?? (agg.format = bag.format);
        if (bag.format.includes("int"))
            agg.isInt = true;
    }
    if (bag.mime)
        intersectMime(agg, bag.mime);
    for (const pattern of bag.patterns ?? [])
        addPattern(agg, pattern);
    return agg;
}
const formatMap = {
    guid: "uuid",
    url: "uri",
    datetime: "date-time",
    json_string: "json-string",
    regex: "", // do not set
};
// ==================== SIMPLE TYPE PROCESSORS ====================
// the runtime patterns are lax so parse paths never overflow the regex stack; the emitted schema swaps in the exact block forms, which zod itself never executes
const exactPatterns = new Map([
    [schemas_js_1.base64Charset, regexes.base64],
    [schemas_js_1.base64urlCharset, regexes.base64url],
]);
const exactPattern = (p) => exactPatterns.get(p) ?? p;
const stringProcessor = (schema, ctx, _json, _params) => {
    const json = _json;
    json.type = "string";
    const { minimum, maximum, format, patterns, contentEncoding, laxFormat } = aggregateChecks(schema);
    if (typeof minimum === "number")
        json.minLength = minimum;
    if (typeof maximum === "number")
        json.maxLength = maximum;
    // custom pattern overrides format
    if (format) {
        json.format = formatMap[format] ?? format;
        if (json.format === "")
            delete json.format; // empty format is not valid
        // `z.iso.time()` is never full-time, and `laxFormat` carries the datetime shapes that also accept what their keyword forbids
        if (format === "time" || laxFormat) {
            delete json.format;
        }
    }
    if (contentEncoding)
        json.contentEncoding = contentEncoding;
    if (patterns && patterns.size > 0) {
        const patternList = [...patterns].map(exactPattern);
        if (patternList.length === 1)
            json.pattern = patternList[0].source;
        else if (patternList.length > 1) {
            json.allOf = [
                ...patternList.map((regex) => ({
                    ...(ctx.target === "draft-07" || ctx.target === "draft-04" || ctx.target === "openapi-3.0"
                        ? { type: "string" }
                        : {}),
                    pattern: regex.source,
                })),
            ];
        }
    }
};
exports.stringProcessor = stringProcessor;
const numberProcessor = (schema, ctx, _json, params) => {
    const json = _json;
    const { minimum, maximum, multipleOf, exclusiveMaximum, exclusiveMinimum, isInt } = aggregateChecks(schema);
    json.type = isInt ? "integer" : "number";
    // when both minimum and exclusiveMinimum exist, pick the more restrictive one
    const exMin = typeof exclusiveMinimum === "number" && exclusiveMinimum >= (minimum ?? Number.NEGATIVE_INFINITY);
    const exMax = typeof exclusiveMaximum === "number" && exclusiveMaximum <= (maximum ?? Number.POSITIVE_INFINITY);
    const legacy = ctx.target === "draft-04" || ctx.target === "openapi-3.0";
    if (exMin) {
        if (legacy) {
            json.minimum = exclusiveMinimum;
            json.exclusiveMinimum = true;
        }
        else {
            json.exclusiveMinimum = exclusiveMinimum;
        }
    }
    else if (typeof minimum === "number") {
        json.minimum = minimum;
    }
    if (exMax) {
        if (legacy) {
            json.maximum = exclusiveMaximum;
            json.exclusiveMaximum = true;
        }
        else {
            json.exclusiveMaximum = exclusiveMaximum;
        }
    }
    else if (typeof maximum === "number") {
        json.maximum = maximum;
    }
    if (multipleOf) {
        // JSON Schema requires a divisor strictly greater than zero, and a non-finite one does not survive JSON at all. A negative divisor accepts exactly what its absolute value accepts, so it still maps; zero, NaN and Infinity have no keyword form.
        const divisors = new Set();
        for (const divisor of multipleOf) {
            if (Number.isFinite(divisor) && divisor !== 0)
                divisors.add(Math.abs(divisor));
            else
                (0, to_json_schema_js_1.handleUnrepresentable)(schema, ctx, json, params, `A multipleOf divisor of ${divisor} cannot be represented in JSON Schema`);
        }
        // chained divisors are a conjunction the keyword cannot carry alone, so extras ride an allOf, same as stacked patterns
        const [first, ...rest] = divisors;
        if (first !== undefined)
            json.multipleOf = first;
        if (rest.length)
            json.allOf = [...(json.allOf ?? []), ...rest.map((m) => ({ multipleOf: m }))];
    }
};
exports.numberProcessor = numberProcessor;
const booleanProcessor = (_schema, _ctx, json, _params) => {
    json.type = "boolean";
};
exports.booleanProcessor = booleanProcessor;
const bigintProcessor = (schema, ctx, json, params) => {
    (0, to_json_schema_js_1.handleUnrepresentable)(schema, ctx, json, params, "BigInt cannot be represented in JSON Schema");
};
exports.bigintProcessor = bigintProcessor;
const symbolProcessor = (schema, ctx, json, params) => {
    (0, to_json_schema_js_1.handleUnrepresentable)(schema, ctx, json, params, "Symbols cannot be represented in JSON Schema");
};
exports.symbolProcessor = symbolProcessor;
const nullProcessor = (_schema, ctx, json, _params) => {
    if (ctx.target === "openapi-3.0") {
        json.type = "string";
        json.nullable = true;
        json.enum = [null];
    }
    else {
        json.type = "null";
    }
};
exports.nullProcessor = nullProcessor;
const undefinedProcessor = (schema, ctx, json, params) => {
    (0, to_json_schema_js_1.handleUnrepresentable)(schema, ctx, json, params, "Undefined cannot be represented in JSON Schema");
};
exports.undefinedProcessor = undefinedProcessor;
const voidProcessor = (schema, ctx, json, params) => {
    (0, to_json_schema_js_1.handleUnrepresentable)(schema, ctx, json, params, "Void cannot be represented in JSON Schema");
};
exports.voidProcessor = voidProcessor;
const neverProcessor = (_schema, _ctx, json, _params) => {
    json.not = {};
};
exports.neverProcessor = neverProcessor;
const anyProcessor = (_schema, _ctx, _json, _params) => {
    // empty schema accepts anything
};
exports.anyProcessor = anyProcessor;
const unknownProcessor = (_schema, _ctx, _json, _params) => {
    // empty schema accepts anything
};
exports.unknownProcessor = unknownProcessor;
const dateProcessor = (schema, ctx, json, params) => {
    (0, to_json_schema_js_1.handleUnrepresentable)(schema, ctx, json, params, "Date cannot be represented in JSON Schema");
};
exports.dateProcessor = dateProcessor;
const enumProcessor = (schema, _ctx, json, _params) => {
    const def = schema._zod.def;
    const values = (0, util_js_1.getEnumValues)(def.entries);
    // an empty enum accepts nothing, same as z.never()
    if (values.length === 0) {
        json.not = {};
        return;
    }
    // Number enums can have both string and number values
    if (values.every((v) => typeof v === "number"))
        json.type = "number";
    if (values.every((v) => typeof v === "string"))
        json.type = "string";
    json.enum = values;
};
exports.enumProcessor = enumProcessor;
const literalProcessor = (schema, ctx, json, params) => {
    const def = schema._zod.def;
    // a literal with no values accepts nothing, same as z.never()
    if (def.values.length === 0) {
        json.not = {};
        return;
    }
    const vals = [];
    for (const val of def.values) {
        if (val === undefined) {
            // a custom schema replaces the whole literal, so there is nothing left to accumulate
            if ((0, to_json_schema_js_1.handleUnrepresentable)(schema, ctx, json, params, "Literal `undefined` cannot be represented in JSON Schema"))
                return;
            // otherwise do not add to vals
        }
        else if (typeof val === "bigint") {
            if ((0, to_json_schema_js_1.handleUnrepresentable)(schema, ctx, json, params, "BigInt literals cannot be represented in JSON Schema"))
                return;
            vals.push(Number(val));
        }
        else {
            vals.push(val);
        }
    }
    if (vals.length === 0) {
        // do nothing (an undefined literal was stripped)
    }
    else if (vals.length === 1) {
        const val = vals[0];
        json.type = val === null ? "null" : typeof val;
        if (ctx.target === "draft-04" || ctx.target === "openapi-3.0") {
            json.enum = [val];
        }
        else {
            json.const = val;
        }
    }
    else {
        if (vals.every((v) => typeof v === "number"))
            json.type = "number";
        if (vals.every((v) => typeof v === "string"))
            json.type = "string";
        if (vals.every((v) => typeof v === "boolean"))
            json.type = "boolean";
        if (vals.every((v) => v === null))
            json.type = "null";
        json.enum = vals;
    }
};
exports.literalProcessor = literalProcessor;
const nanProcessor = (schema, ctx, json, params) => {
    (0, to_json_schema_js_1.handleUnrepresentable)(schema, ctx, json, params, "NaN cannot be represented in JSON Schema");
};
exports.nanProcessor = nanProcessor;
const templateLiteralProcessor = (schema, _ctx, json, _params) => {
    const _json = json;
    const pattern = schema._zod.pattern;
    if (!pattern)
        throw new Error("Pattern not found in template literal");
    _json.type = "string";
    _json.pattern = pattern.source;
};
exports.templateLiteralProcessor = templateLiteralProcessor;
const fileProcessor = (schema, _ctx, json, _params) => {
    const _json = json;
    _json.type = "string";
    _json.format = "binary";
    _json.contentEncoding = "binary";
    const { minimum, maximum, mime } = aggregateChecks(schema);
    if (minimum !== undefined)
        _json.minLength = minimum;
    if (maximum !== undefined)
        _json.maxLength = maximum;
    if (!mime)
        return;
    // an empty intersection means the mime checks share no value, so nothing passes at runtime; `anyOf` must be non-empty, so the false schema is `not: {}`
    if (mime.length === 0)
        _json.not = {};
    else if (mime.length === 1)
        _json.contentMediaType = mime[0];
    // only contentMediaType differs, so the shared props stay at the root
    else
        _json.anyOf = mime.map((m) => ({ contentMediaType: m }));
};
exports.fileProcessor = fileProcessor;
const successProcessor = (_schema, _ctx, json, _params) => {
    json.type = "boolean";
};
exports.successProcessor = successProcessor;
const customProcessor = (schema, ctx, json, params) => {
    (0, to_json_schema_js_1.handleUnrepresentable)(schema, ctx, json, params, "Custom types cannot be represented in JSON Schema");
};
exports.customProcessor = customProcessor;
const functionProcessor = (schema, ctx, json, params) => {
    (0, to_json_schema_js_1.handleUnrepresentable)(schema, ctx, json, params, "Function types cannot be represented in JSON Schema");
};
exports.functionProcessor = functionProcessor;
const transformProcessor = (schema, ctx, json, params) => {
    (0, to_json_schema_js_1.handleUnrepresentable)(schema, ctx, json, params, "Transforms cannot be represented in JSON Schema");
};
exports.transformProcessor = transformProcessor;
const mapProcessor = (schema, ctx, json, params) => {
    (0, to_json_schema_js_1.handleUnrepresentable)(schema, ctx, json, params, "Map cannot be represented in JSON Schema");
};
exports.mapProcessor = mapProcessor;
const setProcessor = (schema, ctx, json, params) => {
    (0, to_json_schema_js_1.handleUnrepresentable)(schema, ctx, json, params, "Set cannot be represented in JSON Schema");
};
exports.setProcessor = setProcessor;
// ==================== COMPOSITE TYPE PROCESSORS ====================
const arrayProcessor = (schema, ctx, _json, params) => {
    const json = _json;
    const def = schema._zod.def;
    const { minimum, maximum } = aggregateChecks(schema);
    if (typeof minimum === "number")
        json.minItems = minimum;
    if (typeof maximum === "number")
        json.maxItems = maximum;
    json.type = "array";
    json.items = (0, to_json_schema_js_1.processSchema)(def.element, ctx, {
        ...params,
        path: [...params.path, "items"],
    });
};
exports.arrayProcessor = arrayProcessor;
// Transform and catch set `optin = "optional"` at runtime so the parser lets them observe an
// absent key, but their declared input type stays required. An input JSON Schema describes the
// declared type, so resolve past them to the schema that actually carries the optionality.
// Used by both `objectProcessor` (for `required`) and `tupleProcessor` (for `minItems`); see
// wiki/optionality.md, "The JSON Schema emitter reads the *static* value".
function inputOptin(schema) {
    const def = schema._zod.def;
    if (def.type === "pipe" && def.in._zod.traits.has("$ZodTransform")) {
        return inputOptin(def.out);
    }
    if (def.type === "catch") {
        return inputOptin(def.innerType);
    }
    return schema._zod.optin;
}
const objectProcessor = (schema, ctx, _json, params) => {
    const json = _json;
    const def = schema._zod.def;
    const shape = def.shape;
    // dropping it while still emitting `additionalProperties: false` would emit a schema that rejects data this one requires
    const symbolKeys = Object.getOwnPropertySymbols(shape);
    if (symbolKeys.length &&
        (0, to_json_schema_js_1.handleUnrepresentable)(schema, ctx, json, params, "Symbol keys cannot be represented in JSON Schema")) {
        return;
    }
    json.type = "object";
    json.properties = {};
    for (const key in shape) {
        // assignProp so a __proto__ key becomes an own property instead of hitting the inherited setter on the plain {} we build into
        (0, util_js_1.assignProp)(json.properties, key, (0, to_json_schema_js_1.processSchema)(shape[key], ctx, {
            ...params,
            path: [...params.path, "properties", key],
        }));
    }
    // required keys
    const requiredKeys = [];
    for (const key of Object.keys(shape)) {
        const field = def.shape[key];
        if (ctx.io === "input" ? inputOptin(field) === undefined : field._zod.optout === undefined) {
            requiredKeys.push(key);
        }
    }
    if (requiredKeys.length > 0) {
        json.required = requiredKeys;
    }
    // catchall
    if (def.catchall?._zod.def.type === "never") {
        // strict
        json.additionalProperties = false;
    }
    else if (!def.catchall) {
        // regular
        if (ctx.io === "output")
            json.additionalProperties = false;
    }
    else if (def.catchall) {
        json.additionalProperties = (0, to_json_schema_js_1.processSchema)(def.catchall, ctx, {
            ...params,
            path: [...params.path, "additionalProperties"],
        });
    }
};
exports.objectProcessor = objectProcessor;
const unionProcessor = (schema, ctx, json, params) => {
    const def = schema._zod.def;
    // Exclusive unions (inclusive === false) use oneOf (exactly one match) instead of anyOf (one or more matches). This includes both z.xor() and discriminated unions
    const isExclusive = def.inclusive === false;
    const options = def.options.map((x, i) => (0, to_json_schema_js_1.processSchema)(x, ctx, {
        ...params,
        path: [...params.path, isExclusive ? "oneOf" : "anyOf", i],
    }));
    if (isExclusive) {
        json.oneOf = options;
    }
    else {
        json.anyOf = options;
    }
};
exports.unionProcessor = unionProcessor;
const intersectionProcessor = (schema, ctx, json, params) => {
    const def = schema._zod.def;
    const a = (0, to_json_schema_js_1.processSchema)(def.left, ctx, {
        ...params,
        path: [...params.path, "allOf", 0],
    });
    const b = (0, to_json_schema_js_1.processSchema)(def.right, ctx, {
        ...params,
        path: [...params.path, "allOf", 1],
    });
    const isSimpleIntersection = (val) => "allOf" in val && Object.keys(val).length === 1;
    const allOf = [
        ...(isSimpleIntersection(a) ? a.allOf : [a]),
        ...(isSimpleIntersection(b) ? b.allOf : [b]),
    ];
    json.allOf = allOf;
    // Recorded innermost first, so a nested intersection has already folded by the time this one is considered. The array is the handle rather than the schema, because a wrapper that inherits this schema shares the same array; `finalize` folds every object holding it. See `foldIntersection`.
    ctx.intersections.push(allOf);
};
exports.intersectionProcessor = intersectionProcessor;
const tupleProcessor = (schema, ctx, _json, params) => {
    const json = _json;
    const def = schema._zod.def;
    json.type = "array";
    const prefixPath = ctx.target === "draft-2020-12" ? "prefixItems" : "items";
    const restPath = ctx.target === "draft-2020-12" ? "items" : ctx.target === "openapi-3.0" ? "items" : "additionalItems";
    const prefixItems = def.items.map((x, i) => (0, to_json_schema_js_1.processSchema)(x, ctx, {
        ...params,
        path: [...params.path, prefixPath, i],
    }));
    const rest = def.rest
        ? (0, to_json_schema_js_1.processSchema)(def.rest, ctx, {
            ...params,
            path: [...params.path, restPath, ...(ctx.target === "openapi-3.0" ? [def.items.length] : [])],
        })
        : null;
    let minItems = def.items.length;
    while (minItems > 0) {
        const item = def.items[minItems - 1];
        const optional = ctx.io === "input" ? inputOptin(item) !== undefined : item._zod.optout === "optional";
        if (!optional)
            break;
        minItems--;
    }
    const maxItems = def.items.length;
    const isClosed = !def.rest;
    if (ctx.target === "draft-2020-12") {
        json.prefixItems = prefixItems;
        if (isClosed) {
            json.items = false;
        }
        else if (rest) {
            json.items = rest;
        }
        if (minItems > 0)
            json.minItems = minItems;
        if (isClosed)
            json.maxItems = maxItems;
    }
    else if (ctx.target === "openapi-3.0") {
        json.items = {
            anyOf: prefixItems,
        };
        if (rest) {
            json.items.anyOf.push(rest);
        }
        if (minItems > 0)
            json.minItems = minItems;
        if (isClosed)
            json.maxItems = maxItems;
    }
    else {
        json.items = prefixItems;
        if (isClosed) {
            json.additionalItems = false;
        }
        else if (rest) {
            json.additionalItems = rest;
        }
        if (minItems > 0)
            json.minItems = minItems;
        if (isClosed)
            json.maxItems = maxItems;
    }
    // explicit user-defined length checks take precedence
    const { minimum, maximum } = aggregateChecks(schema);
    if (typeof minimum === "number")
        json.minItems = minimum;
    if (typeof maximum === "number")
        json.maxItems = maximum;
};
exports.tupleProcessor = tupleProcessor;
/** JSON object keys are always strings, so a numeric record key schema is re-expressed over the
 * numeric-string form the record parser matches. Deferred to `finalize`, after the flatten: a key
 * behind a wrapper only carries its own `type` before then, and a union key only has its branches.
 *
 * A numeric bound cannot apply to a property name, so `minimum` and its siblings are dropped rather
 * than carried over: keeping them beside `type: "string"` reproduces the match-nothing schema this
 * exists to fix. A key that carries one therefore emits wider than the record parses — `z.record(z.number().min(5), V)`
 * accepts `"3"` — which is the deliberate trade, since throwing on it would reject an ordinary schema
 * outright. */
function stringifyKeyNames(bySchema, json, visited) {
    // an extracted key that rewrites cannot go on sharing its definition — the string form a key position needs is not the number form every other reference wants — so it inlines. One that does not rewrite keeps the `$ref`.
    if (json.$ref) {
        // a recursive key holds its own reference inside its definition, so a node already on the path is left alone rather than resolved again
        if (visited.has(json))
            return json;
        visited.add(json);
        const def = bySchema.get(json)?.def;
        if (!def)
            return json;
        const inlined = stringifyKeyNames(bySchema, def, visited);
        return inlined === def ? json : inlined;
    }
    for (const keyword of ["anyOf", "oneOf"]) {
        const branches = json[keyword];
        if (!Array.isArray(branches))
            continue;
        const mapped = branches.map((branch) => stringifyKeyNames(bySchema, branch, visited));
        // rebuilding regardless would detach a key that had nothing to re-express, dropping its `$ref` and leaking the internal `id`
        if (mapped.some((branch, i) => branch !== branches[i]))
            json = { ...json, [keyword]: mapped };
    }
    // a member that already admits a string leaves the key unconstrained, so the node's own type re-expresses only when every member is numeric
    const types = Array.isArray(json.type) ? json.type : [json.type];
    const numericType = !types.includes("string") && types.some((t) => t === "number" || t === "integer");
    // a heterogeneous key carries no type at all, so its numeric members are caught here instead
    const values = json.enum ?? (json.const !== undefined ? [json.const] : undefined);
    if (!numericType && !values?.some((v) => typeof v === "number"))
        return json;
    const { minimum, maximum, exclusiveMinimum, exclusiveMaximum, multipleOf, format, id, ...rest } = json;
    if (rest.enum)
        rest.enum = rest.enum.map((v) => (typeof v === "number" ? String(v) : v));
    else if (typeof rest.const === "number")
        rest.const = String(rest.const);
    // a heterogeneous key keeps its absent type: the stringified members already say what a key may be
    if (!numericType)
        return rest;
    rest.type = "string";
    if (!values)
        rest.pattern = (types.includes("number") ? regexes.number : regexes.integer).source;
    return rest;
}
/** Every record of one conversion, so the carriers are found in a single pass rather than once per record. */
const pendingRecords = new WeakMap();
function rewriteKeyNames(ctx) {
    // an extracted key is resolved by the object `extractToDef` left in its place, so the map is built once rather than searched per reference. `_zod.toJSONSchema` can hand the same object to two schemas, so the first entry carrying a body wins, as a search would have found it.
    const bySchema = new Map();
    for (const entry of ctx.seen.values()) {
        if (entry.def && !bySchema.has(entry.schema))
            bySchema.set(entry.schema, entry);
    }
    const rewrites = new Map();
    for (const record of pendingRecords.get(ctx) ?? []) {
        const seen = ctx.seen.get(record);
        const names = (seen?.def ?? seen?.schema)?.propertyNames;
        if (!names || names === true || rewrites.has(names))
            continue;
        const rewritten = stringifyKeyNames(bySchema, names, new Set());
        if (rewritten !== names)
            rewrites.set(names, rewritten);
    }
    if (!rewrites.size)
        return;
    // the flatten has already copied each record's own properties onto every wrapper by reference, and an extracted body is another such copy, so every carrier holding a rewritten key is updated together
    for (const entry of ctx.seen.values()) {
        for (const carrier of [entry.schema, entry.def]) {
            const rewritten = carrier && rewrites.get(carrier.propertyNames);
            if (rewritten)
                carrier.propertyNames = rewritten;
        }
    }
}
const recordProcessor = (schema, ctx, _json, params) => {
    const json = _json;
    const def = schema._zod.def;
    json.type = "object";
    // For looseRecord with regex patterns, use patternProperties. This correctly represents "only validate keys matching the pattern" semantics and composes well with allOf (intersections)
    const keyType = def.keyType;
    const patterns = aggregateChecks(keyType).patterns;
    if (def.mode === "loose" && patterns && patterns.size > 0) {
        // Use patternProperties for looseRecord with regex patterns
        const valueSchema = (0, to_json_schema_js_1.processSchema)(def.valueType, ctx, {
            ...params,
            path: [...params.path, "patternProperties", "*"],
        });
        json.patternProperties = {};
        for (const pattern of patterns) {
            (0, util_js_1.assignProp)(json.patternProperties, exactPattern(pattern).source, valueSchema);
        }
    }
    else {
        // Default behavior: use propertyNames + additionalProperties
        if (ctx.target === "draft-07" || ctx.target === "draft-2020-12") {
            json.propertyNames = (0, to_json_schema_js_1.processSchema)(def.keyType, ctx, {
                ...params,
                path: [...params.path, "propertyNames"],
            });
            let pending = pendingRecords.get(ctx);
            if (!pending) {
                pending = [];
                pendingRecords.set(ctx, pending);
                ctx.deferred.push(() => rewriteKeyNames(ctx));
            }
            pending.push(schema);
        }
        json.additionalProperties = (0, to_json_schema_js_1.processSchema)(def.valueType, ctx, {
            ...params,
            path: [...params.path, "additionalProperties"],
        });
    }
    // Add required for keys with discrete values (enum, literal, etc.)
    const keyValues = keyType._zod.values;
    // Every key shares one value schema, so an optional-in value makes the whole key set omittable on input. Output keeps them: the exhaustive branch assigns every key, even one whose value came back undefined.
    const omittableOnInput = ctx.io === "input" && inputOptin(def.valueType) !== undefined;
    if (keyValues && !def.partial && !omittableOnInput) {
        const validKeyValues = [...keyValues].filter((v) => typeof v === "string" || typeof v === "number");
        if (validKeyValues.length > 0) {
            json.required = validKeyValues.map(String);
        }
    }
};
exports.recordProcessor = recordProcessor;
const nullableProcessor = (schema, ctx, json, params) => {
    const def = schema._zod.def;
    const inner = (0, to_json_schema_js_1.processSchema)(def.innerType, ctx, params);
    const seen = ctx.seen.get(schema);
    if (ctx.target === "openapi-3.0") {
        seen.ref = def.innerType;
        json.nullable = true;
    }
    else {
        json.anyOf = [inner, { type: "null" }];
    }
};
exports.nullableProcessor = nullableProcessor;
const nonoptionalProcessor = (schema, ctx, _json, params) => {
    const def = schema._zod.def;
    (0, to_json_schema_js_1.processSchema)(def.innerType, ctx, params);
    const seen = ctx.seen.get(schema);
    seen.ref = def.innerType;
};
exports.nonoptionalProcessor = nonoptionalProcessor;
/** Round-trips a default value through JSON so the emitted schema is guaranteed to be valid JSON.
 * A BigInt has no reliable encoding, so it goes through `unrepresentable` like any other
 * unrepresentable value. Returns a sentinel when the caller must not write a default of its own. */
const UNREPRESENTABLE_DEFAULT = Symbol();
function serializeDefaultValue(value, schema, ctx, json, params) {
    let unrepresentable = false;
    const serialized = JSON.stringify(value, (_, val) => {
        if (typeof val !== "bigint")
            return val;
        unrepresentable = true;
        return null;
    });
    if (!unrepresentable)
        return JSON.parse(serialized);
    (0, to_json_schema_js_1.handleUnrepresentable)(schema, ctx, json, params, "BigInt defaults cannot be represented in JSON Schema");
    return UNREPRESENTABLE_DEFAULT;
}
const defaultProcessor = (schema, ctx, json, params) => {
    const def = schema._zod.def;
    (0, to_json_schema_js_1.processSchema)(def.innerType, ctx, params);
    const seen = ctx.seen.get(schema);
    seen.ref = def.innerType;
    const value = serializeDefaultValue(def.defaultValue, schema, ctx, json, params);
    if (value !== UNREPRESENTABLE_DEFAULT)
        json.default = value;
};
exports.defaultProcessor = defaultProcessor;
const prefaultProcessor = (schema, ctx, json, params) => {
    const def = schema._zod.def;
    (0, to_json_schema_js_1.processSchema)(def.innerType, ctx, params);
    const seen = ctx.seen.get(schema);
    seen.ref = def.innerType;
    if (ctx.io !== "input")
        return;
    const value = serializeDefaultValue(def.defaultValue, schema, ctx, json, params);
    if (value !== UNREPRESENTABLE_DEFAULT)
        json._prefault = value;
};
exports.prefaultProcessor = prefaultProcessor;
const catchProcessor = (schema, ctx, json, params) => {
    const def = schema._zod.def;
    (0, to_json_schema_js_1.processSchema)(def.innerType, ctx, params);
    const seen = ctx.seen.get(schema);
    seen.ref = def.innerType;
    let catchValue;
    try {
        catchValue = def.catchValue(undefined);
    }
    catch {
        (0, to_json_schema_js_1.handleUnrepresentable)(schema, ctx, json, params, "Dynamic catch values are not supported in JSON Schema");
        return;
    }
    json.default = catchValue;
};
exports.catchProcessor = catchProcessor;
const pipeProcessor = (schema, ctx, _json, params) => {
    const def = schema._zod.def;
    const inIsTransform = def.in._zod.traits.has("$ZodTransform");
    const innerType = ctx.io === "input" ? (inIsTransform ? def.out : def.in) : def.out;
    (0, to_json_schema_js_1.processSchema)(innerType, ctx, params);
    const seen = ctx.seen.get(schema);
    seen.ref = innerType;
};
exports.pipeProcessor = pipeProcessor;
const readonlyProcessor = (schema, ctx, json, params) => {
    const def = schema._zod.def;
    (0, to_json_schema_js_1.processSchema)(def.innerType, ctx, params);
    const seen = ctx.seen.get(schema);
    seen.ref = def.innerType;
    json.readOnly = true;
};
exports.readonlyProcessor = readonlyProcessor;
const promiseProcessor = (schema, ctx, _json, params) => {
    const def = schema._zod.def;
    (0, to_json_schema_js_1.processSchema)(def.innerType, ctx, params);
    const seen = ctx.seen.get(schema);
    seen.ref = def.innerType;
};
exports.promiseProcessor = promiseProcessor;
const optionalProcessor = (schema, ctx, _json, params) => {
    const def = schema._zod.def;
    (0, to_json_schema_js_1.processSchema)(def.innerType, ctx, params);
    const seen = ctx.seen.get(schema);
    seen.ref = def.innerType;
};
exports.optionalProcessor = optionalProcessor;
const lazyProcessor = (schema, ctx, _json, params) => {
    const innerType = schema._zod.innerType;
    (0, to_json_schema_js_1.processSchema)(innerType, ctx, params);
    const seen = ctx.seen.get(schema);
    seen.ref = innerType;
};
exports.lazyProcessor = lazyProcessor;
// ==================== ALL PROCESSORS ====================
exports.allProcessors = {
    string: exports.stringProcessor,
    number: exports.numberProcessor,
    boolean: exports.booleanProcessor,
    bigint: exports.bigintProcessor,
    symbol: exports.symbolProcessor,
    null: exports.nullProcessor,
    undefined: exports.undefinedProcessor,
    void: exports.voidProcessor,
    never: exports.neverProcessor,
    any: exports.anyProcessor,
    unknown: exports.unknownProcessor,
    date: exports.dateProcessor,
    enum: exports.enumProcessor,
    literal: exports.literalProcessor,
    nan: exports.nanProcessor,
    template_literal: exports.templateLiteralProcessor,
    file: exports.fileProcessor,
    success: exports.successProcessor,
    custom: exports.customProcessor,
    function: exports.functionProcessor,
    transform: exports.transformProcessor,
    map: exports.mapProcessor,
    set: exports.setProcessor,
    array: exports.arrayProcessor,
    object: exports.objectProcessor,
    union: exports.unionProcessor,
    intersection: exports.intersectionProcessor,
    tuple: exports.tupleProcessor,
    record: exports.recordProcessor,
    nullable: exports.nullableProcessor,
    nonoptional: exports.nonoptionalProcessor,
    default: exports.defaultProcessor,
    prefault: exports.prefaultProcessor,
    catch: exports.catchProcessor,
    pipe: exports.pipeProcessor,
    readonly: exports.readonlyProcessor,
    promise: exports.promiseProcessor,
    optional: exports.optionalProcessor,
    lazy: exports.lazyProcessor,
};
function toJSONSchema(input, params) {
    if ("_idmap" in input) {
        // Registry case
        const registry = input;
        const ctx = (0, to_json_schema_js_1.initializeContext)({ ...params, processors: exports.allProcessors });
        const defs = {};
        // First pass: process all schemas to build the seen map
        for (const entry of registry._idmap.entries()) {
            const [_, schema] = entry;
            (0, to_json_schema_js_1.processSchema)(schema, ctx);
        }
        const schemas = {};
        const external = {
            registry,
            uri: params?.uri,
            defs,
        };
        // Update the context with external configuration
        ctx.external = external;
        // Second pass: emit each schema
        for (const entry of registry._idmap.entries()) {
            const [key, schema] = entry;
            (0, to_json_schema_js_1.extractDefs)(ctx, schema);
            (0, util_js_1.assignProp)(schemas, key, (0, to_json_schema_js_1.finalize)(ctx, schema));
        }
        if (Object.keys(defs).length > 0) {
            const defsSegment = ctx.target === "draft-2020-12" ? "$defs" : "definitions";
            schemas.__shared = {
                [defsSegment]: defs,
            };
        }
        return { schemas };
    }
    // Single schema case
    const ctx = (0, to_json_schema_js_1.initializeContext)({ ...params, processors: exports.allProcessors });
    (0, to_json_schema_js_1.processSchema)(input, ctx);
    (0, to_json_schema_js_1.extractDefs)(ctx, input);
    return (0, to_json_schema_js_1.finalize)(ctx, input);
}

// seal-cjs-exports
(function () {
  var keys = Object.getOwnPropertyNames(exports);
  for (var i = 0; i < keys.length; i++) {
    var desc = Object.getOwnPropertyDescriptor(exports, keys[i]);
    if (!desc || !desc.get || !desc.configurable) continue;
    var value;
    try {
      value = desc.get();
    } catch (e) {
      continue;
    }
    // a circular require may not have settled this one yet, so leave it live
    if (value === undefined) continue;
    Object.defineProperty(exports, keys[i], { value: value, writable: false, enumerable: desc.enumerable, configurable: false });
  }
  Object.freeze(exports);
})();