/**
 * TODO
 * @param this
 */
declare function $extends(this: Client, extension: Args_2 | ((client: Client) => Client)): Client;

declare type Action = keyof typeof DMMF.ModelAction | 'executeRaw' | 'queryRaw' | 'runCommandRaw';

declare type Aggregate = '_count' | '_max' | '_min' | '_avg' | '_sum';

declare type AllModelsToStringIndex<TypeMap extends TypeMapDef, Args extends Record<string, any>, K extends PropertyKey> = Args extends {
    [P in K]: {
        $allModels: infer AllModels;
    };
} ? {
    [P in K]: Record<TypeMap['meta']['modelProps'], AllModels>;
} : {};

declare class AnyNull extends NullTypesEnumValue {
}

declare type ApplyExtensionsParams = {
    result: object;
    modelName: string;
    args: JsArgs;
    extensions: MergedExtensionsList;
};

export declare type Args = InternalArgs;

declare type Args_2 = Optional<UserArgs>;

declare type Args_3<T, F extends Operation> = T extends {
    [K: symbol]: {
        types: {
            operations: {
                [K in F]: {
                    args: any;
                };
            };
        };
    };
} ? T[symbol]['types']['operations'][F]['args'] : never;

/**
 * Attributes is a map from string to attribute values.
 *
 * Note: only the own enumerable keys are counted as valid attribute keys.
 */
declare interface Attributes {
    [attributeKey: string]: AttributeValue | undefined;
}

/**
 * Attribute values may be any non-nullish primitive value except an object.
 *
 * null or undefined attribute values are invalid and will result in undefined behavior.
 */
declare type AttributeValue = string | number | boolean | Array<null | undefined | string> | Array<null | undefined | number> | Array<null | undefined | boolean>;

export declare type BaseDMMF = Pick<DMMF.Document, 'datamodel'>;

declare type BatchArgs = {
    queries: BatchQuery[];
    transaction?: {
        isolationLevel?: IsolationLevel;
    };
};

declare type BatchInternalParams = {
    requests: RequestParams[];
    customDataProxyFetch?: CustomDataProxyFetch;
};

declare type BatchQuery = {
    model: string | undefined;
    operation: string;
    args: JsArgs | RawQueryArgs;
};

declare type BatchQueryEngineResult<T> = QueryEngineResult<T> | Error;

declare type BatchQueryOptionsCb = (args: BatchQueryOptionsCbArgs) => Promise<any>;

declare type BatchQueryOptionsCbArgs = {
    args: BatchArgs;
    query: (args: BatchArgs, __internalParams?: BatchInternalParams) => Promise<unknown[]>;
    __internalParams: BatchInternalParams;
};

declare type BatchTransactionOptions = {
    isolationLevel?: Transaction.IsolationLevel;
};

declare interface BinaryTargetsEnvValue {
    fromEnvVar: string | null;
    value: string;
    native?: boolean;
}

declare type Call<F extends Fn, P> = (F & {
    params: P;
})['returns'];

declare interface CallSite {
    getLocation(): LocationInFile | null;
}

declare type Cast<A, W> = A extends W ? A : W;

declare type Client = ReturnType<typeof getPrismaClient> extends new () => infer T ? T : never;

declare type ClientArg = {
    [MethodName in string]: unknown;
};

declare type ClientArgs = {
    client: ClientArg;
};

declare type ClientBuiltInProp = keyof DynamicClientExtensionThisBuiltin<never, never, never>;

declare enum ClientEngineType {
    Library = "library",
    Binary = "binary"
}

declare type Compute<T> = T extends Function ? T : {
    [K in keyof T]: T[K];
} & unknown;

declare type ComputeDeep<T> = T extends Function ? T : {
    [K in keyof T]: ComputeDeep<T[K]>;
} & unknown;

declare type ComputedField = {
    name: string;
    needs: string[];
    compute: ResultArgsFieldCompute;
};

declare type ComputedFieldsMap = {
    [fieldName: string]: ComputedField;
};

declare type ConnectorType = 'mysql' | 'mongodb' | 'sqlite' | 'postgresql' | 'sqlserver' | 'jdbc:sqlserver' | 'cockroachdb';

declare interface Context {
    /**
     * Get a value from the context.
     *
     * @param key key which identifies a context value
     */
    getValue(key: symbol): unknown;
    /**
     * Create a new context which inherits from this context and has
     * the given key set to the given value.
     *
     * @param key context key for which to set the value
     * @param value value to set for the given key
     */
    setValue(key: symbol, value: unknown): Context;
    /**
     * Return a new context which inherits from this context but does
     * not contain a value for the given key.
     *
     * @param key context key for which to clear a value
     */
    deleteValue(key: symbol): Context;
}

declare type Context_2<T> = T extends {
    [K: symbol]: {
        ctx: infer C;
    };
} ? C & T & {
    name?: string;
} : T & {
    name?: string;
};

declare type Count<O> = {
    [K in keyof O]: Count<number>;
} & {};

declare type CustomDataProxyFetch = (fetch: Fetch) => Fetch;

declare class DataLoader<T = unknown> {
    private options;
    batches: {
        [key: string]: Job[];
    };
    private tickActive;
    constructor(options: DataLoaderOptions<T>);
    request(request: T): Promise<any>;
    private dispatchBatches;
    get [Symbol.toStringTag](): string;
}

declare type DataLoaderOptions<T> = {
    singleLoader: (request: T) => Promise<any>;
    batchLoader: (request: T[]) => Promise<any[]>;
    batchBy: (request: T) => string | undefined;
    batchOrder: (requestA: T, requestB: T) => number;
};

declare type Datasource = {
    url?: string;
};

declare interface DatasourceOverwrite {
    name: string;
    url?: string;
    env?: string;
}

declare type Datasources = {
    [name in string]: Datasource;
};

declare class DbNull extends NullTypesEnumValue {
}

export declare interface Debug {
    (namespace: string): Debugger;
    disable: () => string;
    enable: (namespace: string) => void;
    enabled: (namespace: string) => boolean;
    log: (...args: any[]) => any;
    formatters: Record<string, ((value: any) => string) | undefined>;
}

declare interface Debugger {
    (format: any, ...args: any[]): void;
    log: (...args: any[]) => any;
    extend: (namespace: string, delimiter?: string) => Debugger;
    color: string | number;
    enabled: boolean;
    namespace: string;
}

export declare namespace Decimal {
    export type Constructor = typeof Decimal;
    export type Instance = Decimal;
    export type Rounding = 0 | 1 | 2 | 3 | 4 | 5 | 6 | 7 | 8;
    export type Modulo = Rounding | 9;
    export type Value = string | number | Decimal;

    // http://mikemcl.github.io/decimal.js/#constructor-properties
    export interface Config {
        precision?: number;
        rounding?: Rounding;
        toExpNeg?: number;
        toExpPos?: number;
        minE?: number;
        maxE?: number;
        crypto?: boolean;
        modulo?: Modulo;
        defaults?: boolean;
    }
}

export declare class Decimal {
    readonly d: number[];
    readonly e: number;
    readonly s: number;

    constructor(n: Decimal.Value);

    absoluteValue(): Decimal;
    abs(): Decimal;

    ceil(): Decimal;

    clampedTo(min: Decimal.Value, max: Decimal.Value): Decimal;
    clamp(min: Decimal.Value, max: Decimal.Value): Decimal;

    comparedTo(n: Decimal.Value): number;
    cmp(n: Decimal.Value): number;

    cosine(): Decimal;
    cos(): Decimal;

    cubeRoot(): Decimal;
    cbrt(): Decimal;

    decimalPlaces(): number;
    dp(): number;

    dividedBy(n: Decimal.Value): Decimal;
    div(n: Decimal.Value): Decimal;

    dividedToIntegerBy(n: Decimal.Value): Decimal;
    divToInt(n: Decimal.Value): Decimal;

    equals(n: Decimal.Value): boolean;
    eq(n: Decimal.Value): boolean;

    floor(): Decimal;

    greaterThan(n: Decimal.Value): boolean;
    gt(n: Decimal.Value): boolean;

    greaterThanOrEqualTo(n: Decimal.Value): boolean;
    gte(n: Decimal.Value): boolean;

    hyperbolicCosine(): Decimal;
    cosh(): Decimal;

    hyperbolicSine(): Decimal;
    sinh(): Decimal;

    hyperbolicTangent(): Decimal;
    tanh(): Decimal;

    inverseCosine(): Decimal;
    acos(): Decimal;

    inverseHyperbolicCosine(): Decimal;
    acosh(): Decimal;

    inverseHyperbolicSine(): Decimal;
    asinh(): Decimal;

    inverseHyperbolicTangent(): Decimal;
    atanh(): Decimal;

    inverseSine(): Decimal;
    asin(): Decimal;

    inverseTangent(): Decimal;
    atan(): Decimal;

    isFinite(): boolean;

    isInteger(): boolean;
    isInt(): boolean;

    isNaN(): boolean;

    isNegative(): boolean;
    isNeg(): boolean;

    isPositive(): boolean;
    isPos(): boolean;

    isZero(): boolean;

    lessThan(n: Decimal.Value): boolean;
    lt(n: Decimal.Value): boolean;

    lessThanOrEqualTo(n: Decimal.Value): boolean;
    lte(n: Decimal.Value): boolean;

    logarithm(n?: Decimal.Value): Decimal;
    log(n?: Decimal.Value): Decimal;

    minus(n: Decimal.Value): Decimal;
    sub(n: Decimal.Value): Decimal;

    modulo(n: Decimal.Value): Decimal;
    mod(n: Decimal.Value): Decimal;

    naturalExponential(): Decimal;
    exp(): Decimal;

    naturalLogarithm(): Decimal;
    ln(): Decimal;

    negated(): Decimal;
    neg(): Decimal;

    plus(n: Decimal.Value): Decimal;
    add(n: Decimal.Value): Decimal;

    precision(includeZeros?: boolean): number;
    sd(includeZeros?: boolean): number;

    round(): Decimal;

    sine() : Decimal;
    sin() : Decimal;

    squareRoot(): Decimal;
    sqrt(): Decimal;

    tangent() : Decimal;
    tan() : Decimal;

    times(n: Decimal.Value): Decimal;
    mul(n: Decimal.Value) : Decimal;

    toBinary(significantDigits?: number): string;
    toBinary(significantDigits: number, rounding: Decimal.Rounding): string;

    toDecimalPlaces(decimalPlaces?: number): Decimal;
    toDecimalPlaces(decimalPlaces: number, rounding: Decimal.Rounding): Decimal;
    toDP(decimalPlaces?: number): Decimal;
    toDP(decimalPlaces: number, rounding: Decimal.Rounding): Decimal;

    toExponential(decimalPlaces?: number): string;
    toExponential(decimalPlaces: number, rounding: Decimal.Rounding): string;

    toFixed(decimalPlaces?: number): string;
    toFixed(decimalPlaces: number, rounding: Decimal.Rounding): string;

    toFraction(max_denominator?: Decimal.Value): Decimal[];

    toHexadecimal(significantDigits?: number): string;
    toHexadecimal(significantDigits: number, rounding: Decimal.Rounding): string;
    toHex(significantDigits?: number): string;
    toHex(significantDigits: number, rounding?: Decimal.Rounding): string;

    toJSON(): string;

    toNearest(n: Decimal.Value, rounding?: Decimal.Rounding): Decimal;

    toNumber(): number;

    toOctal(significantDigits?: number): string;
    toOctal(significantDigits: number, rounding: Decimal.Rounding): string;

    toPower(n: Decimal.Value): Decimal;
    pow(n: Decimal.Value): Decimal;

    toPrecision(significantDigits?: number): string;
    toPrecision(significantDigits: number, rounding: Decimal.Rounding): string;

    toSignificantDigits(significantDigits?: number): Decimal;
    toSignificantDigits(significantDigits: number, rounding: Decimal.Rounding): Decimal;
    toSD(significantDigits?: number): Decimal;
    toSD(significantDigits: number, rounding: Decimal.Rounding): Decimal;

    toString(): string;

    truncated(): Decimal;
    trunc(): Decimal;

    valueOf(): string;

    static abs(n: Decimal.Value): Decimal;
    static acos(n: Decimal.Value): Decimal;
    static acosh(n: Decimal.Value): Decimal;
    static add(x: Decimal.Value, y: Decimal.Value): Decimal;
    static asin(n: Decimal.Value): Decimal;
    static asinh(n: Decimal.Value): Decimal;
    static atan(n: Decimal.Value): Decimal;
    static atanh(n: Decimal.Value): Decimal;
    static atan2(y: Decimal.Value, x: Decimal.Value): Decimal;
    static cbrt(n: Decimal.Value): Decimal;
    static ceil(n: Decimal.Value): Decimal;
    static clamp(n: Decimal.Value, min: Decimal.Value, max: Decimal.Value): Decimal;
    static clone(object?: Decimal.Config): Decimal.Constructor;
    static config(object: Decimal.Config): Decimal.Constructor;
    static cos(n: Decimal.Value): Decimal;
    static cosh(n: Decimal.Value): Decimal;
    static div(x: Decimal.Value, y: Decimal.Value): Decimal;
    static exp(n: Decimal.Value): Decimal;
    static floor(n: Decimal.Value): Decimal;
    static hypot(...n: Decimal.Value[]): Decimal;
    static isDecimal(object: any): object is Decimal;
    static ln(n: Decimal.Value): Decimal;
    static log(n: Decimal.Value, base?: Decimal.Value): Decimal;
    static log2(n: Decimal.Value): Decimal;
    static log10(n: Decimal.Value): Decimal;
    static max(...n: Decimal.Value[]): Decimal;
    static min(...n: Decimal.Value[]): Decimal;
    static mod(x: Decimal.Value, y: Decimal.Value): Decimal;
    static mul(x: Decimal.Value, y: Decimal.Value): Decimal;
    static noConflict(): Decimal.Constructor;   // Browser only
    static pow(base: Decimal.Value, exponent: Decimal.Value): Decimal;
    static random(significantDigits?: number): Decimal;
    static round(n: Decimal.Value): Decimal;
    static set(object: Decimal.Config): Decimal.Constructor;
    static sign(n: Decimal.Value): number;
    static sin(n: Decimal.Value): Decimal;
    static sinh(n: Decimal.Value): Decimal;
    static sqrt(n: Decimal.Value): Decimal;
    static sub(x: Decimal.Value, y: Decimal.Value): Decimal;
    static sum(...n: Decimal.Value[]): Decimal;
    static tan(n: Decimal.Value): Decimal;
    static tanh(n: Decimal.Value): Decimal;
    static trunc(n: Decimal.Value): Decimal;

    static readonly default?: Decimal.Constructor;
    static readonly Decimal?: Decimal.Constructor;

    static readonly precision: number;
    static readonly rounding: Decimal.Rounding;
    static readonly toExpNeg: number;
    static readonly toExpPos: number;
    static readonly minE: number;
    static readonly maxE: number;
    static readonly crypto: boolean;
    static readonly modulo: Decimal.Modulo;

    static readonly ROUND_UP: 0;
    static readonly ROUND_DOWN: 1;
    static readonly ROUND_CEIL: 2;
    static readonly ROUND_FLOOR: 3;
    static readonly ROUND_HALF_UP: 4;
    static readonly ROUND_HALF_DOWN: 5;
    static readonly ROUND_HALF_EVEN: 6;
    static readonly ROUND_HALF_CEIL: 7;
    static readonly ROUND_HALF_FLOOR: 8;
    static readonly EUCLID: 9;
}

/**
 * Interface for any Decimal.js-like library
 * Allows us to accept Decimal.js from different
 * versions and some compatible alternatives
 */
export declare interface DecimalJsLike {
    d: number[];
    e: number;
    s: number;
    toFixed(): string;
}

export declare type DefaultArgs = InternalArgs<{}, {}, {}, {}>;

declare type DefaultSelection<P> = P extends Payload ? P['scalars'] & UnwrapPayload<P['composites']> : P;

export declare function defineDmmfProperty(target: object, runtimeDataModel: RuntimeDataModel): void;

declare function defineExtension(ext: Args_2 | ((client: Client) => Client)): (client: Client) => Client;

declare const denylist: readonly ["$connect", "$disconnect", "$on", "$transaction", "$use", "$extends"];

declare interface Dictionary<T> {
    [key: string]: T;
}

declare type Dictionary_2<T> = {
    [key: string]: T;
};

export declare namespace DMMF {
    export interface Document {
        datamodel: Datamodel;
        schema: Schema;
        mappings: Mappings;
    }
    export interface Mappings {
        modelOperations: ModelMapping[];
        otherOperations: {
            read: string[];
            write: string[];
        };
    }
    export interface OtherOperationMappings {
        read: string[];
        write: string[];
    }
    export interface DatamodelEnum {
        name: string;
        values: EnumValue[];
        dbName?: string | null;
        documentation?: string;
    }
    export interface SchemaEnum {
        name: string;
        values: string[];
    }
    export interface EnumValue {
        name: string;
        dbName: string | null;
    }
    export interface Datamodel {
        models: Model[];
        enums: DatamodelEnum[];
        types: Model[];
    }
    export interface uniqueIndex {
        name: string;
        fields: string[];
    }
    export interface PrimaryKey {
        name: string | null;
        fields: string[];
    }
    export interface Model {
        name: string;
        dbName: string | null;
        fields: Field[];
        uniqueFields: string[][];
        uniqueIndexes: uniqueIndex[];
        documentation?: string;
        primaryKey: PrimaryKey | null;
        isGenerated?: boolean;
    }
    export type FieldKind = 'scalar' | 'object' | 'enum' | 'unsupported';
    export type FieldNamespace = 'model' | 'prisma';
    export type FieldLocation = 'scalar' | 'inputObjectTypes' | 'outputObjectTypes' | 'enumTypes' | 'fieldRefTypes';
    export interface Field {
        kind: FieldKind;
        name: string;
        isRequired: boolean;
        isList: boolean;
        isUnique: boolean;
        isId: boolean;
        isReadOnly: boolean;
        isGenerated?: boolean;
        isUpdatedAt?: boolean;
        /**
         * Describes the data type in the same the way it is defined in the Prisma schema:
         * BigInt, Boolean, Bytes, DateTime, Decimal, Float, Int, JSON, String, $ModelName
         */
        type: string;
        dbName?: string | null;
        hasDefaultValue: boolean;
        default?: FieldDefault | FieldDefaultScalar | FieldDefaultScalar[];
        relationFromFields?: string[];
        relationToFields?: any[];
        relationOnDelete?: string;
        relationName?: string;
        documentation?: string;
        [key: string]: any;
    }
    export interface FieldDefault {
        name: string;
        args: any[];
    }
    export type FieldDefaultScalar = string | boolean | number;
    export interface Schema {
        rootQueryType?: string;
        rootMutationType?: string;
        inputObjectTypes: {
            model?: InputType[];
            prisma: InputType[];
        };
        outputObjectTypes: {
            model: OutputType[];
            prisma: OutputType[];
        };
        enumTypes: {
            model?: SchemaEnum[];
            prisma: SchemaEnum[];
        };
        fieldRefTypes: {
            prisma?: FieldRefType[];
        };
    }
    export interface Query {
        name: string;
        args: SchemaArg[];
        output: QueryOutput;
    }
    export interface QueryOutput {
        name: string;
        isRequired: boolean;
        isList: boolean;
    }
    export type ArgType = string | InputType | SchemaEnum;
    export interface SchemaArgInputType {
        isList: boolean;
        type: ArgType;
        location: FieldLocation;
        namespace?: FieldNamespace;
    }
    export interface SchemaArg {
        name: string;
        comment?: string;
        isNullable: boolean;
        isRequired: boolean;
        inputTypes: SchemaArgInputType[];
        deprecation?: Deprecation;
    }
    export interface OutputType {
        name: string;
        fields: SchemaField[];
        fieldMap?: Record<string, SchemaField>;
    }
    export interface SchemaField {
        name: string;
        isNullable?: boolean;
        outputType: OutputTypeRef;
        args: SchemaArg[];
        deprecation?: Deprecation;
        documentation?: string;
    }
    export type TypeRefCommon = {
        isList: boolean;
        namespace?: FieldNamespace;
    };
    export type TypeRefScalar = TypeRefCommon & {
        location: 'scalar';
        type: string;
    };
    export type TypeRefOutputObject = TypeRefCommon & {
        location: 'outputObjectTypes';
        type: OutputType | string;
    };
    export type TypeRefEnum = TypeRefCommon & {
        location: 'enumTypes';
        type: SchemaEnum | string;
    };
    export type OutputTypeRef = TypeRefScalar | TypeRefOutputObject | TypeRefEnum;
    export interface Deprecation {
        sinceVersion: string;
        reason: string;
        plannedRemovalVersion?: string;
    }
    export interface InputType {
        name: string;
        constraints: {
            maxNumFields: number | null;
            minNumFields: number | null;
            fields?: string[];
        };
        meta?: {
            source?: string;
        };
        fields: SchemaArg[];
        fieldMap?: Record<string, SchemaArg>;
    }
    export interface FieldRefType {
        name: string;
        allowTypes: FieldRefAllowType[];
        fields: SchemaArg[];
    }
    export type FieldRefAllowType = TypeRefScalar | TypeRefEnum;
    export interface ModelMapping {
        model: string;
        plural: string;
        findUnique?: string | null;
        findUniqueOrThrow?: string | null;
        findFirst?: string | null;
        findFirstOrThrow?: string | null;
        findMany?: string | null;
        create?: string | null;
        createMany?: string | null;
        update?: string | null;
        updateMany?: string | null;
        upsert?: string | null;
        delete?: string | null;
        deleteMany?: string | null;
        aggregate?: string | null;
        groupBy?: string | null;
        count?: string | null;
        findRaw?: string | null;
        aggregateRaw?: string | null;
    }
    export enum ModelAction {
        findUnique = "findUnique",
        findUniqueOrThrow = "findUniqueOrThrow",
        findFirst = "findFirst",
        findFirstOrThrow = "findFirstOrThrow",
        findMany = "findMany",
        create = "create",
        createMany = "createMany",
        update = "update",
        updateMany = "updateMany",
        upsert = "upsert",
        delete = "delete",
        deleteMany = "deleteMany",
        groupBy = "groupBy",
        count = "count",
        aggregate = "aggregate",
        findRaw = "findRaw",
        aggregateRaw = "aggregateRaw"
    }
}

export declare interface DMMFClass extends DMMFDatamodelHelper, DMMFMappingsHelper, DMMFSchemaHelper {
}

export declare class DMMFClass {
    constructor(dmmf: DMMF.Document);
}

declare class DMMFDatamodelHelper implements Pick<DMMF.Document, 'datamodel'> {
    datamodel: DMMF.Datamodel;
    datamodelEnumMap: Dictionary<DMMF.DatamodelEnum>;
    modelMap: Dictionary<DMMF.Model>;
    typeMap: Dictionary<DMMF.Model>;
    typeAndModelMap: Dictionary<DMMF.Model>;
    constructor({ datamodel }: Pick<DMMF.Document, 'datamodel'>);
    getDatamodelEnumMap(): Dictionary<DMMF.DatamodelEnum>;
    getModelMap(): Dictionary<DMMF.Model>;
    getTypeMap(): Dictionary<DMMF.Model>;
    getTypeModelMap(): Dictionary<DMMF.Model>;
}

declare class DMMFMappingsHelper implements Pick<DMMF.Document, 'mappings'> {
    mappings: DMMF.Mappings;
    mappingsMap: Dictionary<DMMF.ModelMapping>;
    constructor({ mappings }: Pick<DMMF.Document, 'mappings'>);
    getMappingsMap(): Dictionary<DMMF.ModelMapping>;
    getOtherOperationNames(): string[];
}

declare class DMMFSchemaHelper implements Pick<DMMF.Document, 'schema'> {
    schema: DMMF.Schema;
    queryType: DMMF.OutputType;
    mutationType: DMMF.OutputType;
    outputTypes: {
        model: DMMF.OutputType[];
        prisma: DMMF.OutputType[];
    };
    outputTypeMap: Dictionary<DMMF.OutputType>;
    inputObjectTypes: {
        model?: DMMF.InputType[];
        prisma: DMMF.InputType[];
    };
    inputTypeMap: Dictionary<DMMF.InputType>;
    enumMap: Dictionary<DMMF.SchemaEnum>;
    rootFieldMap: Dictionary<DMMF.SchemaField>;
    constructor({ schema }: Pick<DMMF.Document, 'schema'>);
    get [Symbol.toStringTag](): string;
    outputTypeToMergedOutputType: (outputType: DMMF.OutputType) => DMMF.OutputType;
    resolveOutputTypes(): void;
    resolveInputTypes(): void;
    resolveFieldArgumentTypes(): void;
    getQueryType(): DMMF.OutputType;
    getMutationType(): DMMF.OutputType;
    getOutputTypes(): {
        model: DMMF.OutputType[];
        prisma: DMMF.OutputType[];
    };
    getEnumMap(): Dictionary<DMMF.SchemaEnum>;
    hasEnumInNamespace(enumName: string, namespace: 'prisma' | 'model'): boolean;
    getMergedOutputTypeMap(): Dictionary<DMMF.OutputType>;
    getInputTypeMap(): Dictionary<DMMF.InputType>;
    getRootFieldMap(): Dictionary<DMMF.SchemaField>;
}

/** Client */
export declare type DynamicClientExtensionArgs<C_, TypeMap extends TypeMapDef, TypeMapCb extends TypeMapCbDef, ExtArgs extends Record<string, any>> = {
    [P in keyof C_]: unknown;
} & {
    [K: symbol]: {
        ctx: Optional<DynamicClientExtensionThis<TypeMap, TypeMapCb, ExtArgs>, ITXClientDenyList>;
    };
};

export declare type DynamicClientExtensionThis<TypeMap extends TypeMapDef, TypeMapCb extends TypeMapCbDef, ExtArgs extends Record<string, any>> = {
    [P in keyof ExtArgs['client']]: Return<ExtArgs['client'][P]>;
} & {
    [P in Exclude<TypeMap['meta']['modelProps'], keyof ExtArgs['client']>]: DynamicModelExtensionThis<TypeMap, ModelKey<TypeMap, P>, ExtArgs>;
} & {
    [P in Exclude<keyof TypeMap['other']['operations'], keyof ExtArgs['client']>]: <R = GetResult_2<TypeMap['other']['payload'], any, P & Operation>>(...args: ToTuple<TypeMap['other']['operations'][P]['args']>) => PrismaPromise<R>;
} & {
    [P in Exclude<ClientBuiltInProp, keyof ExtArgs['client']>]: DynamicClientExtensionThisBuiltin<TypeMap, TypeMapCb, ExtArgs>[P];
};

declare type DynamicClientExtensionThisBuiltin<TypeMap extends TypeMapDef, TypeMapCb extends TypeMapCbDef, ExtArgs extends Record<string, any>> = {
    $extends: ExtendsHook<'extends', TypeMapCb, ExtArgs>;
    $transaction<P extends PrismaPromise<any>[]>(arg: [...P], options?: {
        isolationLevel?: TypeMap['meta']['txIsolationLevel'];
    }): Promise<UnwrapTuple<P>>;
    $transaction<R>(fn: (client: Omit<DynamicClientExtensionThis<TypeMap, TypeMapCb, ExtArgs>, ITXClientDenyList>) => Promise<R>, options?: {
        maxWait?: number;
        timeout?: number;
        isolationLevel?: TypeMap['meta']['txIsolationLevel'];
    }): Promise<R>;
    $disconnect(): Promise<void>;
    $connect(): Promise<void>;
};

/** Model */
export declare type DynamicModelExtensionArgs<M_, TypeMap extends TypeMapDef, ExtArgs extends Record<string, any>> = {
    [K in keyof M_]: K extends '$allModels' ? {
        [P in keyof M_[K]]?: unknown;
    } & {
        [K: symbol]: {};
    } : K extends TypeMap['meta']['modelProps'] ? {
        [P in keyof M_[K]]?: unknown;
    } & {
        [K: symbol]: {
            ctx: DynamicModelExtensionThis<TypeMap, ModelKey<TypeMap, K>, ExtArgs> & {
                name: ModelKey<TypeMap, K>;
            };
        };
    } : never;
};

declare type DynamicModelExtensionFluentApi<TypeMap extends TypeMapDef, M extends PropertyKey, P extends PropertyKey, Null> = {
    [K in keyof TypeMap['model'][M]['payload']['objects']]: <A>(args?: Exact<A, Path<TypeMap['model'][M]['operations'][P]['args']['select'], [K]>>) => PrismaPromise<Path<DynamicModelExtensionFnResultBase<TypeMap, M, {
        select: {
            [P in K]: A;
        };
    }, P>, [K]> | Null> & DynamicModelExtensionFluentApi<TypeMap, (TypeMap['model'][M]['payload']['objects'][K] & {})['name'], P, Null>;
};

declare type DynamicModelExtensionFnResult<TypeMap extends TypeMapDef, M extends PropertyKey, A, P extends PropertyKey, Null = DynamicModelExtensionFnResultNull<P>> = P extends FluentOperation ? DynamicModelExtensionFluentApi<TypeMap, M, P, Null> & PrismaPromise<DynamicModelExtensionFnResultBase<TypeMap, M, A, P> | Null> : PrismaPromise<DynamicModelExtensionFnResultBase<TypeMap, M, A, P>>;

declare type DynamicModelExtensionFnResultBase<TypeMap extends TypeMapDef, M extends PropertyKey, A, P extends PropertyKey> = GetResult_2<TypeMap['model'][M]['payload'], A, P & Operation>;

declare type DynamicModelExtensionFnResultNull<P extends PropertyKey> = P extends 'findUnique' | 'findFirst' ? null : never;

declare type DynamicModelExtensionOperationFn<TypeMap extends TypeMapDef, M extends PropertyKey, P extends PropertyKey> = {} extends TypeMap['model'][M]['operations'][P]['args'] ? <A>(args?: Exact<A, TypeMap['model'][M]['operations'][P]['args']>) => DynamicModelExtensionFnResult<TypeMap, M, A, P> : <A>(args: Exact<A, TypeMap['model'][M]['operations'][P]['args']>) => DynamicModelExtensionFnResult<TypeMap, M, A, P>;

export declare type DynamicModelExtensionThis<TypeMap extends TypeMapDef, M extends PropertyKey, ExtArgs extends Record<string, any>> = {
    [P in keyof ExtArgs['model'][Uncapitalize<M & string>]]: Return<ExtArgs['model'][Uncapitalize<M & string>][P]>;
} & {
    [P in Exclude<keyof TypeMap['model'][M]['operations'], keyof ExtArgs['model'][Uncapitalize<M & string>]>]: DynamicModelExtensionOperationFn<TypeMap, M, P>;
} & {
    [P in Exclude<'fields', keyof ExtArgs['model'][Uncapitalize<M & string>]>]: TypeMap['model'][M]['fields'];
} & {
    [K: symbol]: {
        types: TypeMap['model'][M];
    };
};

/** Query */
export declare type DynamicQueryExtensionArgs<Q_, TypeMap extends TypeMapDef> = {
    [K in keyof Q_]: K extends '$allOperations' ? (args: {
        model?: string;
        operation: string;
        args: any;
        query: (args: any) => PrismaPromise<any>;
    }) => Promise<any> : K extends '$allModels' ? {
        [P in keyof Q_[K] | keyof TypeMap['model'][keyof TypeMap['model']]['operations'] | '$allOperations']?: P extends '$allOperations' ? DynamicQueryExtensionCb<TypeMap, 'model', keyof TypeMap['model'], keyof TypeMap['model'][keyof TypeMap['model']]['operations']> : P extends keyof TypeMap['model'][keyof TypeMap['model']]['operations'] ? DynamicQueryExtensionCb<TypeMap, 'model', keyof TypeMap['model'], P> : never;
    } : K extends TypeMap['meta']['modelProps'] ? {
        [P in keyof Q_[K] | keyof TypeMap['model'][ModelKey<TypeMap, K>]['operations'] | '$allOperations']?: P extends '$allOperations' ? DynamicQueryExtensionCb<TypeMap, 'model', ModelKey<TypeMap, K>, keyof TypeMap['model'][ModelKey<TypeMap, K>]['operations']> : P extends keyof TypeMap['model'][ModelKey<TypeMap, K>]['operations'] ? DynamicQueryExtensionCb<TypeMap, 'model', ModelKey<TypeMap, K>, P> : never;
    } : K extends keyof TypeMap['other']['operations'] ? DynamicQueryExtensionCb<[TypeMap], 0, 'other', K> : never;
};

declare type DynamicQueryExtensionCb<TypeMap extends TypeMapDef, _0 extends PropertyKey, _1 extends PropertyKey, _2 extends PropertyKey> = <A extends DynamicQueryExtensionCbArgs<TypeMap, _0, _1, _2>>(args: A) => Promise<TypeMap[_0][_1][_2]['result']>;

declare type DynamicQueryExtensionCbArgs<TypeMap extends TypeMapDef, _0 extends PropertyKey, _1 extends PropertyKey, _2 extends PropertyKey> = (_1 extends unknown ? _2 extends unknown ? {
    args: DynamicQueryExtensionCbArgsArgs<TypeMap, _0, _1, _2>;
    model: _0 extends 0 ? undefined : _1;
    operation: _2;
    query: <A extends DynamicQueryExtensionCbArgsArgs<TypeMap, _0, _1, _2>>(args: A) => PrismaPromise<TypeMap[_0][_1]['operations'][_2]['result']>;
} : never : never) & {
    query: (args: DynamicQueryExtensionCbArgsArgs<TypeMap, _0, _1, _2>) => PrismaPromise<TypeMap[_0][_1]['operations'][_2]['result']>;
};

declare type DynamicQueryExtensionCbArgsArgs<TypeMap extends TypeMapDef, _0 extends PropertyKey, _1 extends PropertyKey, _2 extends PropertyKey> = _2 extends '$queryRaw' | '$executeRaw' ? Sql : TypeMap[_0][_1]['operations'][_2]['args'];

/** Result */
export declare type DynamicResultExtensionArgs<R_, TypeMap extends TypeMapDef> = {
    [K in keyof R_]: {
        [P in keyof R_[K]]?: {
            needs?: DynamicResultExtensionNeeds<TypeMap, ModelKey<TypeMap, K>, R_[K][P]>;
            compute(data: DynamicResultExtensionData<TypeMap, ModelKey<TypeMap, K>, R_[K][P]>): any;
        };
    };
};

declare type DynamicResultExtensionData<TypeMap extends TypeMapDef, M extends PropertyKey, S> = GetFindResult<TypeMap['model'][M]['payload'], {
    select: S;
}>;

declare type DynamicResultExtensionNeeds<TypeMap extends TypeMapDef, M extends PropertyKey, S> = {
    [K in keyof S]: K extends keyof TypeMap['model'][M]['payload']['scalars'] ? S[K] : never;
} & {
    [N in keyof TypeMap['model'][M]['payload']['scalars']]?: boolean;
};

/**
 * Placeholder value for "no text".
 */
export declare const empty: Sql;

declare type EmptyToUnknown<T> = T;

declare abstract class Engine<InteractiveTransactionPayload = unknown> {
    abstract on(event: EngineEventType, listener: (args?: any) => any): void;
    abstract start(): Promise<void>;
    abstract stop(): Promise<void>;
    abstract version(forceRun?: boolean): Promise<string> | string;
    abstract request<T>(query: JsonQuery, options: RequestOptions<InteractiveTransactionPayload>): Promise<QueryEngineResult<T>>;
    abstract requestBatch<T>(queries: JsonQuery[], options: RequestBatchOptions<InteractiveTransactionPayload>): Promise<BatchQueryEngineResult<T>[]>;
    abstract transaction(action: 'start', headers: Transaction.TransactionHeaders, options?: Transaction.Options): Promise<Transaction.InteractiveTransactionInfo<unknown>>;
    abstract transaction(action: 'commit', headers: Transaction.TransactionHeaders, info: Transaction.InteractiveTransactionInfo<unknown>): Promise<void>;
    abstract transaction(action: 'rollback', headers: Transaction.TransactionHeaders, info: Transaction.InteractiveTransactionInfo<unknown>): Promise<void>;
    abstract metrics(options: MetricsOptionsJson): Promise<Metrics>;
    abstract metrics(options: MetricsOptionsPrometheus): Promise<string>;
}

declare interface EngineConfig {
    cwd: string;
    dirname: string;
    datamodelPath: string;
    enableDebugLogs?: boolean;
    allowTriggerPanic?: boolean;
    prismaPath?: string;
    generator?: GeneratorConfig;
    datasources?: DatasourceOverwrite[];
    showColors?: boolean;
    logQueries?: boolean;
    logLevel?: 'info' | 'warn';
    env: Record<string, string>;
    flags?: string[];
    clientVersion?: string;
    previewFeatures?: string[];
    engineEndpoint?: string;
    activeProvider?: string;
    logEmitter: EventEmitter;
    /**
     * The contents of the schema encoded into a string
     * @remarks only used for the purpose of data proxy
     */
    inlineSchema?: string;
    /**
     * The contents of the datasource url saved in a string
     * @remarks only used for the purpose of data proxy
     */
    inlineDatasources?: Record<string, InlineDatasource>;
    /**
     * The string hash that was produced for a given schema
     * @remarks only used for the purpose of data proxy
     */
    inlineSchemaHash?: string;
    /**
     * The helper for interaction with OTEL tracing
     * @remarks enabling is determined by the client and @prisma/instrumentation package
     */
    tracingHelper: TracingHelper;
    /**
     * Information about whether we have not found a schema.prisma file in the
     * default location, and that we fell back to finding the schema.prisma file
     * in the current working directory. This usually means it has been bundled.
     */
    isBundled?: boolean;
}

declare type EngineEventType = 'query' | 'info' | 'warn' | 'error' | 'beforeExit';

declare type EngineSpan = {
    span: boolean;
    name: string;
    trace_id: string;
    span_id: string;
    parent_span_id: string;
    start_time: [number, number];
    end_time: [number, number];
    attributes?: Record<string, string>;
    links?: {
        trace_id: string;
        span_id: string;
    }[];
};

declare type EngineSpanEvent = {
    span: boolean;
    spans: EngineSpan[];
};

declare interface EnvValue {
    fromEnvVar: null | string;
    value: null | string;
}

declare interface EnvValue_2 {
    fromEnvVar: string | null;
    value: string | null;
}

declare type ErrorFormat = 'pretty' | 'colorless' | 'minimal';

declare interface ErrorWithBatchIndex {
    batchRequestIdx?: number;
}

declare interface EventEmitter {
    on(event: string, listener: (...args: any[]) => void): unknown;
    emit(event: string, args?: any): boolean;
}

declare type Exact<A, W> = (W extends A ? {
    [K in keyof W]: K extends keyof A ? Exact<A[K], W[K]> : never;
} : W) | (A extends Narrowable ? A : never);

/**
 * Defines Exception.
 *
 * string or an object with one of (message or name or code) and optional stack
 */
declare type Exception = ExceptionWithCode | ExceptionWithMessage | ExceptionWithName | string;

declare interface ExceptionWithCode {
    code: string | number;
    name?: string;
    message?: string;
    stack?: string;
}

declare interface ExceptionWithMessage {
    code?: string | number;
    message: string;
    name?: string;
    stack?: string;
}

declare interface ExceptionWithName {
    code?: string | number;
    message?: string;
    name: string;
    stack?: string;
}

declare type ExtendedSpanOptions = SpanOptions & {
    /** The name of the span */
    name: string;
    internal?: boolean;
    middleware?: boolean;
    /** Whether it propagates context (?=true) */
    active?: boolean;
    /** The context to append the span to */
    context?: Context;
};

/** $extends, defineExtension */
export declare interface ExtendsHook<Variant extends 'extends' | 'define', TypeMapCb extends TypeMapCbDef, ExtArgs extends Record<string, any>, TypeMap extends TypeMapDef = Call<TypeMapCb, {
    extArgs: ExtArgs;
}>> {
    extArgs: ExtArgs;
    <R_ extends {
        [K in TypeMap['meta']['modelProps'] | '$allModels']?: unknown;
    }, R, M_ extends {
        [K in TypeMap['meta']['modelProps'] | '$allModels']?: unknown;
    }, M, Q_ extends {
        [K in TypeMap['meta']['modelProps'] | '$allModels' | keyof TypeMap['other']['operations'] | '$allOperations']?: unknown;
    }, C_ extends {
        [K in string]?: unknown;
    }, C, Args extends InternalArgs = InternalArgs<R, M, {}, C>, MergedArgs extends InternalArgs = MergeExtArgs<TypeMap, ExtArgs, Args>>(extension: ((client: DynamicClientExtensionThis<TypeMap, TypeMapCb, ExtArgs>) => {
        $extends: {
            extArgs: Args;
        };
    }) | {
        name?: string;
        query?: DynamicQueryExtensionArgs<Q_, TypeMap>;
        result?: DynamicResultExtensionArgs<R_, TypeMap> & R;
        model?: DynamicModelExtensionArgs<M_, TypeMap, ExtArgs> & M;
        client?: DynamicClientExtensionArgs<C_, TypeMap, TypeMapCb, ExtArgs> & C;
    }): {
        'extends': DynamicClientExtensionThis<Call<TypeMapCb, {
            extArgs: MergedArgs;
        }>, TypeMapCb, MergedArgs>;
        'define': (client: any) => {
            $extends: {
                extArgs: Args;
            };
        };
    }[Variant];
}

declare namespace Extensions {
    export {
        defineExtension,
        getExtensionContext
    }
}
export { Extensions }

declare namespace Extensions_2 {
    export {
        InternalArgs,
        Args,
        DefaultArgs,
        GetResult,
        GetSelect,
        DynamicQueryExtensionArgs,
        DynamicResultExtensionArgs,
        DynamicModelExtensionArgs,
        DynamicModelExtensionThis,
        DynamicClientExtensionArgs,
        DynamicClientExtensionThis,
        ExtendsHook,
        UserArgs
    }
}

declare type Fetch = typeof nodeFetch;

/**
 * A reference to a specific field of a specific model
 */
export declare interface FieldRef<Model, FieldType> {
    readonly modelName: Model;
    readonly name: string;
    readonly typeName: FieldType;
    readonly isList: boolean;
}

declare type FluentOperation = 'findUnique' | 'findUniqueOrThrow' | 'findFirst' | 'findFirstOrThrow' | 'create' | 'update' | 'upsert' | 'delete';

declare interface Fn<Params = unknown, Returns = unknown> {
    params: Params;
    returns: Returns;
}

declare interface GeneratorConfig {
    name: string;
    output: EnvValue | null;
    isCustomOutput?: boolean;
    provider: EnvValue;
    config: Dictionary_2<string>;
    binaryTargets: BinaryTargetsEnvValue[];
    previewFeatures: string[];
}

declare type GetAggregateResult<P extends Payload, A> = {
    [K in keyof A as K extends Aggregate ? K : never]: K extends '_count' ? A[K] extends true ? number : Count<A[K]> : {
        [J in keyof A[K] & string]: P['scalars'][J] | null;
    };
};

declare type GetBatchResult = {
    count: number;
};

declare type GetCountResult<A> = A extends {
    select: infer S;
} ? (S extends true ? number : Count<S>) : number;

declare function getExtensionContext<T>(that: T): Context_2<T>;

declare type GetFindResult<P extends Payload, A> = {} extends A ? DefaultSelection<P> : A extends {
    select: infer S;
} & Record<string, unknown> | {
    include: infer S;
} & Record<string, unknown> ? S extends undefined ? DefaultSelection<P> : {
    [K in keyof S as S[K] extends false | undefined | null ? never : K]: S[K] extends object ? P extends SelectablePayloadFields<K, (infer O)[]> ? O extends Payload ? GetFindResult<O, S[K]>[] : never : P extends SelectablePayloadFields<K, infer O | null> ? O extends Payload ? GetFindResult<O, S[K]> | SelectField<P, K> & null : never : K extends '_count' ? Count<GetFindResult<P, S[K]>> : never : P extends SelectablePayloadFields<K, (infer O)[]> ? O extends Payload ? DefaultSelection<O>[] : never : P extends SelectablePayloadFields<K, infer O | null> ? O extends Payload ? DefaultSelection<O> | SelectField<P, K> & null : never : P extends {
        scalars: {
            [k in K]: infer O;
        };
    } ? O : K extends '_count' ? Count<P['objects']> : never;
} & (A extends {
    include: any;
} & Record<string, unknown> ? DefaultSelection<P> : unknown) : DefaultSelection<P>;

declare type GetGroupByResult<P extends Payload, A> = A extends {
    by: string[];
} ? Array<GetAggregateResult<P, A> & {
    [K in A['by'][number]]: P['scalars'][K];
}> : never;

export declare function getPrismaClient(config: GetPrismaClientConfig): {
    new (optionsArg?: PrismaClientOptions): {
        _runtimeDataModel: RuntimeDataModel;
        _engine: Engine;
        _fetcher: RequestHandler;
        _connectionPromise?: Promise<any> | undefined;
        _disconnectionPromise?: Promise<any> | undefined;
        _engineConfig: EngineConfig;
        _clientVersion: string;
        _errorFormat: ErrorFormat;
        _clientEngineType: ClientEngineType;
        _tracingHelper: TracingHelper;
        _metrics: MetricsClient;
        _middlewares: MiddlewareHandler<QueryMiddleware>;
        _previewFeatures: string[];
        _activeProvider: string;
        _rejectOnNotFound?: InstanceRejectOnNotFound;
        _dataProxy: boolean;
        _extensions: MergedExtensionsList;
        _createPrismaPromise: PrismaPromiseFactory;
        getEngine(): Engine;
        /**
         * Hook a middleware into the client
         * @param middleware to hook
         */
        $use(middleware: QueryMiddleware): void;
        $on(eventType: EngineEventType, callback: (event: any) => void): void;
        $connect(): Promise<void>;
        /**
         * @private
         */
        _runDisconnect(): Promise<void>;
        /**
         * Disconnect from the database
         */
        $disconnect(): Promise<void>;
        /**
         * Executes a raw query and always returns a number
         */
        $executeRawInternal(transaction: PrismaPromiseTransaction | undefined, clientMethod: string, args: RawQueryArgs, middlewareArgsMapper?: MiddlewareArgsMapper<unknown, unknown>): Promise<number>;
        /**
         * Executes a raw query provided through a safe tag function
         * @see https://github.com/prisma/prisma/issues/7142
         *
         * @param query
         * @param values
         * @returns
         */
        $executeRaw(query: TemplateStringsArray | Sql, ...values: any[]): PrismaPromise_2<unknown>;
        /**
         * Unsafe counterpart of `$executeRaw` that is susceptible to SQL injections
         * @see https://github.com/prisma/prisma/issues/7142
         *
         * @param query
         * @param values
         * @returns
         */
        $executeRawUnsafe(query: string, ...values: RawValue[]): PrismaPromise_2<unknown>;
        /**
         * Executes a raw command only for MongoDB
         *
         * @param command
         * @returns
         */
        $runCommandRaw(command: Record<string, JsInputValue>): PrismaPromise_2<unknown>;
        /**
         * Executes a raw query and returns selected data
         */
        $queryRawInternal(transaction: PrismaPromiseTransaction | undefined, clientMethod: string, args: RawQueryArgs, middlewareArgsMapper?: MiddlewareArgsMapper<unknown, unknown>): Promise<unknown[]>;
        /**
         * Executes a raw query provided through a safe tag function
         * @see https://github.com/prisma/prisma/issues/7142
         *
         * @param query
         * @param values
         * @returns
         */
        $queryRaw(query: TemplateStringsArray | Sql, ...values: any[]): PrismaPromise_2<unknown>;
        /**
         * Unsafe counterpart of `$queryRaw` that is susceptible to SQL injections
         * @see https://github.com/prisma/prisma/issues/7142
         *
         * @param query
         * @param values
         * @returns
         */
        $queryRawUnsafe(query: string, ...values: RawValue[]): PrismaPromise_2<unknown>;
        /**
         * Execute a batch of requests in a transaction
         * @param requests
         * @param options
         */
        _transactionWithArray({ promises, options, }: {
            promises: Array<PrismaPromise_2<any>>;
            options?: BatchTransactionOptions | undefined;
        }): Promise<any>;
        /**
         * Perform a long-running transaction
         * @param callback
         * @param options
         * @returns
         */
        _transactionWithCallback({ callback, options, }: {
            callback: (client: Client) => Promise<unknown>;
            options?: Options_2 | undefined;
        }): Promise<unknown>;
        _createItxClient(transaction: PrismaPromiseInteractiveTransaction): any;
        /**
         * Execute queries within a transaction
         * @param input a callback or a query list
         * @param options to set timeouts (callback)
         * @returns
         */
        $transaction(input: any, options?: any): Promise<any>;
        /**
         * Runs the middlewares over params before executing a request
         * @param internalParams
         * @returns
         */
        _request(internalParams: InternalRequestParams): Promise<any>;
        _executeRequest({ args, clientMethod, dataPath, callsite, action, model, argsMapper, transaction, unpacker, otelParentCtx, customDataProxyFetch, }: InternalRequestParams): Promise<any>;
        readonly $metrics: MetricsClient;
        /**
         * Shortcut for checking a preview flag
         * @param feature preview flag
         * @returns
         */
        _hasPreviewFlag(feature: string): boolean;
        $extends: typeof $extends;
        readonly [Symbol.toStringTag]: string;
    };
};

/**
 * Config that is stored into the generated client. When the generated client is
 * loaded, this same config is passed to {@link getPrismaClient} which creates a
 * closure with that config around a non-instantiated [[PrismaClient]].
 */
declare type GetPrismaClientConfig = {
    runtimeDataModel: RuntimeDataModel;
    generator?: GeneratorConfig;
    sqliteDatasourceOverrides?: DatasourceOverwrite[];
    relativeEnvPaths: {
        rootEnvPath?: string | null;
        schemaEnvPath?: string | null;
    };
    relativePath: string;
    dirname: string;
    filename?: string;
    clientVersion: string;
    engineVersion?: string;
    datasourceNames: string[];
    activeProvider: string;
    /**
     * True when `--data-proxy` is passed to `prisma generate`
     * If enabled, we disregard the generator config engineType.
     * It means that `--data-proxy` binds you to the Data Proxy.
     */
    dataProxy: boolean;
    /**
     * The contents of the schema encoded into a string
     * @remarks only used for the purpose of data proxy
     */
    inlineSchema?: string;
    /**
     * A special env object just for the data proxy edge runtime.
     * Allows bundlers to inject their own env variables (Vercel).
     * Allows platforms to declare global variables as env (Workers).
     * @remarks only used for the purpose of data proxy
     */
    injectableEdgeEnv?: LoadedEnv;
    /**
     * The contents of the datasource url saved in a string.
     * This can either be an env var name or connection string.
     * It is needed by the client to connect to the Data Proxy.
     * @remarks only used for the purpose of data proxy
     */
    inlineDatasources?: InlineDatasources;
    /**
     * The string hash that was produced for a given schema
     * @remarks only used for the purpose of data proxy
     */
    inlineSchemaHash?: string;
    /**
     * A marker to indicate that the client was not generated via `prisma
     * generate` but was generated via `generate --postinstall` script instead.
     * @remarks used to error for Vercel/Netlify for schema caching issues
     */
    postinstall?: boolean;
    /**
     * Information about the CI where the Prisma Client has been generated. The
     * name of the CI environment is stored at generation time because CI
     * information is not always available at runtime. Moreover, the edge client
     * has no notion of environment variables, so this works around that.
     * @remarks used to error for Vercel/Netlify for schema caching issues
     */
    ciName?: string;
    /**
     * Information about whether we have not found a schema.prisma file in the
     * default location, and that we fell back to finding the schema.prisma file
     * in the current working directory. This usually means it has been bundled.
     */
    isBundled?: boolean;
};

export declare type GetResult<Base extends Record<any, any>, R extends Args['result'][string], KR extends keyof R = string extends keyof R ? never : keyof R> = {
    [K in KR | keyof Base]: K extends KR ? R[K] extends (() => {
        compute: (...args: any) => infer C;
    }) ? C : never : Base[K];
};

declare type GetResult_2<P extends Payload, A, O extends Operation = 'findUniqueOrThrow', Null = null> = {
    findUnique: GetFindResult<P, A> | Null;
    findUniqueOrThrow: GetFindResult<P, A>;
    findFirst: GetFindResult<P, A> | Null;
    findFirstOrThrow: GetFindResult<P, A>;
    findMany: GetFindResult<P, A>[];
    create: GetFindResult<P, A>;
    createMany: GetBatchResult;
    update: GetFindResult<P, A>;
    updateMany: GetBatchResult;
    upsert: GetFindResult<P, A>;
    delete: GetFindResult<P, A>;
    deleteMany: GetBatchResult;
    aggregate: GetAggregateResult<P, A>;
    count: GetCountResult<A>;
    groupBy: GetGroupByResult<P, A>;
    $queryRaw: unknown;
    $executeRaw: number;
    $queryRawUnsafe: unknown;
    $executeRawUnsafe: number;
    $runCommandRaw: JsonObject;
    findRaw: JsonObject;
    aggregateRaw: JsonObject;
}[O];

export declare type GetSelect<Base extends Record<any, any>, R extends Args['result'][string], KR extends keyof R = string extends keyof R ? never : keyof R> = {
    [K in KR | keyof Base]?: K extends KR ? boolean : Base[K];
};

declare type HandleErrorParams = {
    args: JsArgs;
    error: any;
    clientMethod: string;
    callsite?: CallSite;
    transaction?: PrismaPromiseTransaction;
};

declare type Headers_2 = Record<string, string | string[] | undefined>;

/**
 * Defines High-Resolution Time.
 *
 * The first number, HrTime[0], is UNIX Epoch time in seconds since 00:00:00 UTC on 1 January 1970.
 * The second number, HrTime[1], represents the partial second elapsed since Unix Epoch time represented by first number in nanoseconds.
 * For example, 2021-01-01T12:30:10.150Z in UNIX Epoch time in milliseconds is represented as 1609504210150.
 * The first number is calculated by converting and truncating the Epoch time in milliseconds to seconds:
 * HrTime[0] = Math.trunc(1609504210150 / 1000) = 1609504210.
 * The second number is calculated by converting the digits after the decimal point of the subtraction, (1609504210150 / 1000) - HrTime[0], to nanoseconds:
 * HrTime[1] = Number((1609504210.150 - HrTime[0]).toFixed(9)) * 1e9 = 150000000.
 * This is represented in HrTime format as [1609504210, 150000000].
 */
declare type HrTime = [number, number];

declare type InlineDatasource = {
    url: NullableEnvValue;
};

declare type InlineDatasources = {
    [name in InternalDatasource['name']]: {
        url: InternalDatasource['url'];
    };
};

declare type InstanceRejectOnNotFound = RejectOnNotFound | Record<string, RejectOnNotFound> | Record<string, Record<string, RejectOnNotFound>>;

declare type InteractiveTransactionInfo<Payload = unknown> = {
    /**
     * Transaction ID returned by the query engine.
     */
    id: string;
    /**
     * Arbitrary payload the meaning of which depends on the `Engine` implementation.
     * For example, `DataProxyEngine` needs to associate different API endpoints with transactions.
     * In `LibraryEngine` and `BinaryEngine` it is currently not used.
     */
    payload: Payload;
};

declare type InteractiveTransactionOptions<Payload> = Transaction.InteractiveTransactionInfo<Payload>;

export declare type InternalArgs<R = {
    [K in string]: {
        [K in string]: unknown;
    };
}, M = {
    [K in string]: {
        [K in string]: unknown;
    };
}, Q = {
    [K in string]: {
        [K in string]: unknown;
    };
}, C = {
    [K in string]: unknown;
}> = {
    result: {
        [K in keyof R]: {
            [P in keyof R[K]]: () => R[K][P];
        };
    };
    model: {
        [K in keyof M]: {
            [P in keyof M[K]]: () => M[K][P];
        };
    };
    query: {
        [K in keyof Q]: {
            [P in keyof Q[K]]: () => Q[K][P];
        };
    };
    client: {
        [K in keyof C]: () => C[K];
    };
};

declare interface InternalDatasource {
    name: string;
    activeProvider: ConnectorType;
    provider: ConnectorType;
    url: EnvValue_2;
    config: any;
}

declare type InternalRequestParams = {
    /**
     * The original client method being called.
     * Even though the rootField / operation can be changed,
     * this method stays as it is, as it's what the user's
     * code looks like
     */
    clientMethod: string;
    /**
     * Name of js model that triggered the request. Might be used
     * for warnings or error messages
     */
    jsModelName?: string;
    callsite?: CallSite;
    transaction?: PrismaPromiseTransaction;
    unpacker?: Unpacker;
    otelParentCtx?: Context;
    /** Used to "desugar" a user input into an "expanded" one */
    argsMapper?: (args?: UserArgs_2) => UserArgs_2;
    /** Used to convert args for middleware and back */
    middlewareArgsMapper?: MiddlewareArgsMapper<unknown, unknown>;
    /** Used for Accelerate client extension via Data Proxy */
    customDataProxyFetch?: (fetch: Fetch) => Fetch;
} & Omit<QueryMiddlewareParams, 'runInTransaction'>;

declare enum IsolationLevel {
    ReadUncommitted = "ReadUncommitted",
    ReadCommitted = "ReadCommitted",
    RepeatableRead = "RepeatableRead",
    Snapshot = "Snapshot",
    Serializable = "Serializable"
}

export declare type ITXClientDenyList = (typeof denylist)[number];

declare interface Job {
    resolve: (data: any) => void;
    reject: (data: any) => void;
    request: any;
}

/**
 * Create a SQL query for a list of values.
 */
export declare function join(values: RawValue[], separator?: string, prefix?: string, suffix?: string): Sql;

declare type JsArgs = {
    select?: Selection_2;
    include?: Selection_2;
    [argName: string]: JsInputValue;
};

declare type JsInputValue = null | undefined | string | number | boolean | bigint | Uint8Array | Date | DecimalJsLike | ObjectEnumValue | RawParameters | FieldRef<string, unknown> | JsInputValue[] | {
    [key: string]: JsInputValue;
};

declare type JsonArgumentValue = number | string | boolean | null | JsonTaggedValue | JsonArgumentValue[] | {
    [key: string]: JsonArgumentValue;
};

declare interface JsonArray extends Array<JsonValue> {
}

declare type JsonFieldSelection = {
    arguments?: Record<string, JsonArgumentValue>;
    selection: JsonSelectionSet;
};

declare class JsonNull extends NullTypesEnumValue {
}

declare type JsonObject = {
    [Key in string]?: JsonValue;
};

declare type JsonQuery = {
    modelName?: string;
    action: JsonQueryAction;
    query: JsonFieldSelection;
};

declare type JsonQueryAction = 'findUnique' | 'findUniqueOrThrow' | 'findFirst' | 'findFirstOrThrow' | 'findMany' | 'createOne' | 'createMany' | 'updateOne' | 'updateMany' | 'deleteOne' | 'deleteMany' | 'upsertOne' | 'aggregate' | 'groupBy' | 'executeRaw' | 'queryRaw' | 'runCommandRaw' | 'findRaw' | 'aggregateRaw';

declare type JsonSelectionSet = {
    $scalars?: boolean;
    $composites?: boolean;
} & {
    [fieldName: string]: boolean | JsonFieldSelection;
};

declare type JsonTaggedValue = {
    $type: 'Json';
    value: string;
};

declare type JsonValue = string | number | boolean | JsonObject | JsonArray | null;

declare type KnownErrorParams = {
    code: string;
    clientVersion: string;
    meta?: Record<string, unknown>;
    batchRequestIdx?: number;
};

declare type LegacyExact<A, W = unknown> = W extends unknown ? A extends LegacyNarrowable ? Cast<A, W> : Cast<{
    [K in keyof A]: K extends keyof W ? LegacyExact<A[K], W[K]> : never;
}, {
    [K in keyof W]: K extends keyof A ? LegacyExact<A[K], W[K]> : W[K];
}> : never;

declare type LegacyNarrowable = string | number | boolean | bigint;

/**
 * A pointer from the current {@link Span} to another span in the same trace or
 * in a different trace.
 * Few examples of Link usage.
 * 1. Batch Processing: A batch of elements may contain elements associated
 *    with one or more traces/spans. Since there can only be one parent
 *    SpanContext, Link is used to keep reference to SpanContext of all
 *    elements in the batch.
 * 2. Public Endpoint: A SpanContext in incoming client request on a public
 *    endpoint is untrusted from service provider perspective. In such case it
 *    is advisable to start a new trace with appropriate sampling decision.
 *    However, it is desirable to associate incoming SpanContext to new trace
 *    initiated on service provider side so two traces (from Client and from
 *    Service Provider) can be correlated.
 */
declare interface Link {
    /** The {@link SpanContext} of a linked span. */
    context: SpanContext;
    /** A set of {@link SpanAttributes} on the link. */
    attributes?: SpanAttributes;
    /** Count of attributes of the link that were dropped due to collection limits */
    droppedAttributesCount?: number;
}

declare type LoadedEnv = {
    message?: string;
    parsed: {
        [x: string]: string;
    };
} | undefined;

declare type LocationInFile = {
    fileName: string;
    lineNumber: number | null;
    columnNumber: number | null;
};

declare type LogDefinition = {
    level: LogLevel;
    emit: 'stdout' | 'event';
};

declare type LogLevel = 'info' | 'query' | 'warn' | 'error';

/**
 * Generates more strict variant of an enum which, unlike regular enum,
 * throws on non-existing property access. This can be useful in following situations:
 * - we have an API, that accepts both `undefined` and `SomeEnumType` as an input
 * - enum values are generated dynamically from DMMF.
 *
 * In that case, if using normal enums and no compile-time typechecking, using non-existing property
 * will result in `undefined` value being used, which will be accepted. Using strict enum
 * in this case will help to have a runtime exception, telling you that you are probably doing something wrong.
 *
 * Note: if you need to check for existence of a value in the enum you can still use either
 * `in` operator or `hasOwnProperty` function.
 *
 * @param definition
 * @returns
 */
export declare function makeStrictEnum<T extends Record<PropertyKey, string | number>>(definition: T): T;

/**
 * Class that holds the list of all extensions, applied to particular instance,
 * as well as resolved versions of the components that need to apply on
 * different levels. Main idea of this class: avoid re-resolving as much of the
 * stuff as possible when new extensions are added while also delaying the
 * resolve until the point it is actually needed. For example, computed fields
 * of the model won't be resolved unless the model is actually queried. Neither
 * adding extensions with `client` component only cause other components to
 * recompute.
 */
declare class MergedExtensionsList {
    private head?;
    private constructor();
    static empty(): MergedExtensionsList;
    static single(extension: Args_2): MergedExtensionsList;
    isEmpty(): boolean;
    append(extension: Args_2): MergedExtensionsList;
    getAllComputedFields(dmmfModelName: string): ComputedFieldsMap | undefined;
    getAllClientExtensions(): ClientArg | undefined;
    getAllModelExtensions(dmmfModelName: string): ModelArg | undefined;
    getAllQueryCallbacks(jsModelName: string, operation: string): any;
    getAllBatchQueryCallbacks(): BatchQueryOptionsCb[];
}

declare type MergeExtArgs<TypeMap extends TypeMapDef, ExtArgs extends Record<any, any>, Args extends Record<any, any>> = ComputeDeep<ExtArgs & Args & AllModelsToStringIndex<TypeMap, Args, 'result'> & AllModelsToStringIndex<TypeMap, Args, 'model'>>;

export declare type Metric<T> = {
    key: string;
    value: T;
    labels: Record<string, string>;
    description: string;
};

export declare type MetricHistogram = {
    buckets: MetricHistogramBucket[];
    sum: number;
    count: number;
};

export declare type MetricHistogramBucket = [maxValue: number, count: number];

export declare type Metrics = {
    counters: Metric<number>[];
    gauges: Metric<number>[];
    histograms: Metric<MetricHistogram>[];
};

export declare class MetricsClient {
    private _engine;
    constructor(engine: Engine);
    /**
     * Returns all metrics gathered up to this point in prometheus format.
     * Result of this call can be exposed directly to prometheus scraping endpoint
     *
     * @param options
     * @returns
     */
    prometheus(options?: MetricsOptions): Promise<string>;
    /**
     * Returns all metrics gathered up to this point in prometheus format.
     *
     * @param options
     * @returns
     */
    json(options?: MetricsOptions): Promise<Metrics>;
}

declare type MetricsOptions = {
    /**
     * Labels to add to every metrics in key-value format
     */
    globalLabels?: Record<string, string>;
};

declare type MetricsOptionsCommon = {
    globalLabels?: Record<string, string>;
};

declare type MetricsOptionsJson = {
    format: 'json';
} & MetricsOptionsCommon;

declare type MetricsOptionsPrometheus = {
    format: 'prometheus';
} & MetricsOptionsCommon;

declare type MiddlewareArgsMapper<RequestArgs, MiddlewareArgs> = {
    requestArgsToMiddlewareArgs(requestArgs: RequestArgs): MiddlewareArgs;
    middlewareArgsToRequestArgs(middlewareArgs: MiddlewareArgs): RequestArgs;
};

declare class MiddlewareHandler<M extends Function> {
    private _middlewares;
    use(middleware: M): void;
    get(id: number): M | undefined;
    has(id: number): boolean;
    length(): number;
}

declare type ModelArg = {
    [MethodName in string]: unknown;
};

declare type ModelArgs = {
    model: {
        [ModelName in string]: ModelArg;
    };
};

declare type ModelKey<TypeMap extends TypeMapDef, M extends PropertyKey> = M extends keyof TypeMap['model'] ? M : Capitalize<M & string>;

declare type ModelQueryOptionsCb = (args: ModelQueryOptionsCbArgs) => Promise<any>;

declare type ModelQueryOptionsCbArgs = {
    model: string;
    operation: string;
    args: JsArgs;
    query: (args: JsArgs) => Promise<unknown>;
};

declare type NameArgs = {
    name?: string;
};

declare type Narrow<A> = {
    [K in keyof A]: A[K] extends Function ? A[K] : Narrow<A[K]>;
} | (A extends Narrowable ? A : never);

declare type Narrowable = string | number | bigint | boolean | [];

declare type NeverToUnknown<T> = [T] extends [never] ? unknown : T;

/**
 * Imitates `fetch` via `https` to only suit our needs, it does nothing more.
 * This is because we cannot bundle `node-fetch` as it uses many other Node.js
 * utilities, while also bloating our bundles. This approach is much leaner.
 * @param url
 * @param options
 * @returns
 */
declare function nodeFetch(url: string, options?: RequestOptions_2): Promise<RequestResponse>;

/**
 * @deprecated please don´t rely on type checks to this error anymore.
 * This will become a PrismaClientKnownRequestError with code P2025
 * in the future major version of the client
 */
export declare class NotFoundError extends PrismaClientKnownRequestError {
    constructor(message: string);
}

declare type NullableEnvValue = {
    fromEnvVar: string | null;
    value?: string | null;
};

declare class NullTypesEnumValue extends ObjectEnumValue {
    _getNamespace(): string;
}

/**
 * Base class for unique values of object-valued enums.
 */
declare abstract class ObjectEnumValue {
    constructor(arg?: symbol);
    abstract _getNamespace(): string;
    _getName(): string;
    toString(): string;
}

export declare const objectEnumValues: {
    classes: {
        DbNull: typeof DbNull;
        JsonNull: typeof JsonNull;
        AnyNull: typeof AnyNull;
    };
    instances: {
        DbNull: DbNull;
        JsonNull: JsonNull;
        AnyNull: AnyNull;
    };
};

declare type Omit_2<T, K extends string | number | symbol> = {
    [P in keyof T as P extends K ? never : P]: T[P];
};

declare type Operation = 'findFirst' | 'findFirstOrThrow' | 'findUnique' | 'findUniqueOrThrow' | 'findMany' | 'create' | 'createMany' | 'update' | 'updateMany' | 'upsert' | 'delete' | 'deleteMany' | 'aggregate' | 'count' | 'groupBy' | '$queryRaw' | '$executeRaw' | '$queryRawUnsafe' | '$executeRawUnsafe' | 'findRaw' | 'aggregateRaw' | '$runCommandRaw';

declare type Optional<O, K extends keyof any = keyof O> = {
    [P in K & keyof O]?: O[P];
} & {
    [P in Exclude<keyof O, K>]: O[P];
};

declare type OptionalFlat<T> = {
    [K in keyof T]?: T[K];
};

declare type OptionalKeys<O> = {
    [K in keyof O]-?: {} extends Pick_2<O, K> ? K : never;
}[keyof O];

declare type Options = {
    clientVersion: string;
};

/**
 * maxWait ?= 2000
 * timeout ?= 5000
 */
declare type Options_2 = {
    maxWait?: number;
    timeout?: number;
    isolationLevel?: IsolationLevel;
};

declare type PatchFlat<O1, O2> = O1 & Omit_2<O2, keyof O1>;

declare type Path<O, P, Default = never> = O extends unknown ? P extends [infer K, ...infer R] ? K extends keyof O ? Path<O[K], R> : Default : O : never;

export declare type Payload = {
    scalars: {
        [ScalarName in string]: unknown;
    };
    objects: {
        [ObjectName in string]: unknown;
    };
    composites: {
        [CompositeName in string]: unknown;
    };
};

declare type Payload_2<T, F extends Operation = never> = T extends {
    [K: symbol]: {
        types: {
            payload: any;
        };
    };
} ? T[symbol]['types']['payload'] : never;

declare type PayloadToResult<P, O extends Record_2<any, any> = RenameAndNestPayloadKeys<P>> = {
    [K in keyof O]?: O[K][K] extends any[] ? PayloadToResult<O[K][K][number]>[] : O[K][K] extends object ? PayloadToResult<O[K][K]> : O[K][K];
};

declare type Pick_2<T, K extends string | number | symbol> = {
    [P in keyof T as P extends K ? P : never]: T[P];
};

export declare class PrismaClientInitializationError extends Error {
    clientVersion: string;
    errorCode?: string;
    retryable?: boolean;
    constructor(message: string, clientVersion: string, errorCode?: string);
    get [Symbol.toStringTag](): string;
}

export declare class PrismaClientKnownRequestError extends Error implements ErrorWithBatchIndex {
    code: string;
    meta?: Record<string, unknown>;
    clientVersion: string;
    batchRequestIdx?: number;
    constructor(message: string, { code, clientVersion, meta, batchRequestIdx }: KnownErrorParams);
    get [Symbol.toStringTag](): string;
}

export declare interface PrismaClientOptions {
    /**
     * Will throw an Error if findUnique returns null
     */
    rejectOnNotFound?: InstanceRejectOnNotFound;
    /**
     * Overwrites the datasource url from your schema.prisma file
     */
    datasources?: Datasources;
    /**
     * @default "colorless"
     */
    errorFormat?: ErrorFormat;
    /**
     * @example
     * \`\`\`
     * // Defaults to stdout
     * log: ['query', 'info', 'warn']
     *
     * // Emit as events
     * log: [
     *  { emit: 'stdout', level: 'query' },
     *  { emit: 'stdout', level: 'info' },
     *  { emit: 'stdout', level: 'warn' }
     * ]
     * \`\`\`
     * Read more in our [docs](https://www.prisma.io/docs/reference/tools-and-interfaces/prisma-client/logging#the-log-option).
     */
    log?: Array<LogLevel | LogDefinition>;
    /**
     * @internal
     * You probably don't want to use this. \`__internal\` is used by internal tooling.
     */
    __internal?: {
        debug?: boolean;
        engine?: {
            cwd?: string;
            binaryPath?: string;
            endpoint?: string;
            allowTriggerPanic?: boolean;
        };
    };
}

export declare class PrismaClientRustPanicError extends Error {
    clientVersion: string;
    constructor(message: string, clientVersion: string);
    get [Symbol.toStringTag](): string;
}

export declare class PrismaClientUnknownRequestError extends Error implements ErrorWithBatchIndex {
    clientVersion: string;
    batchRequestIdx?: number;
    constructor(message: string, { clientVersion, batchRequestIdx }: UnknownErrorParams);
    get [Symbol.toStringTag](): string;
}

export declare class PrismaClientValidationError extends Error {
    name: string;
    clientVersion: string;
    constructor(message: string, { clientVersion }: Options);
    get [Symbol.toStringTag](): string;
}

export declare interface PrismaPromise<T> extends Promise<T> {
    [Symbol.toStringTag]: 'PrismaPromise';
}

/**
 * Prisma's `Promise` that is backwards-compatible. All additions on top of the
 * original `Promise` are optional so that it can be backwards-compatible.
 * @see [[createPrismaPromise]]
 */
declare interface PrismaPromise_2<A> extends Promise<A> {
    /**
     * Extension of the original `.then` function
     * @param onfulfilled same as regular promises
     * @param onrejected same as regular promises
     * @param transaction transaction options
     */
    then<R1 = A, R2 = never>(onfulfilled?: (value: A) => R1 | PromiseLike<R1>, onrejected?: (error: unknown) => R2 | PromiseLike<R2>, transaction?: PrismaPromiseTransaction): Promise<R1 | R2>;
    /**
     * Extension of the original `.catch` function
     * @param onrejected same as regular promises
     * @param transaction transaction options
     */
    catch<R = never>(onrejected?: ((reason: any) => R | PromiseLike<R>) | undefined | null, transaction?: PrismaPromiseTransaction): Promise<A | R>;
    /**
     * Extension of the original `.finally` function
     * @param onfinally same as regular promises
     * @param transaction transaction options
     */
    finally(onfinally?: (() => void) | undefined | null, transaction?: PrismaPromiseTransaction): Promise<A>;
    /**
     * Called when executing a batch of regular tx
     * @param transaction transaction options for batch tx
     */
    requestTransaction?(transaction: PrismaPromiseBatchTransaction): PromiseLike<unknown>;
}

declare type PrismaPromiseBatchTransaction = {
    kind: 'batch';
    id: number;
    isolationLevel?: IsolationLevel;
    index: number;
    lock: PromiseLike<void>;
};

declare type PrismaPromiseCallback = (transaction?: PrismaPromiseTransaction) => PrismaPromise_2<unknown>;

/**
 * Creates a [[PrismaPromise]]. It is Prisma's implementation of `Promise` which
 * is essentially a proxy for `Promise`. All the transaction-compatible client
 * methods return one, this allows for pre-preparing queries without executing
 * them until `.then` is called. It's the foundation of Prisma's query batching.
 * @param callback that will be wrapped within our promise implementation
 * @see [[PrismaPromise]]
 * @returns
 */
declare type PrismaPromiseFactory = (callback: PrismaPromiseCallback) => PrismaPromise_2<unknown>;

declare type PrismaPromiseInteractiveTransaction<PayloadType = unknown> = {
    kind: 'itx';
    id: string;
    payload: PayloadType;
};

declare type PrismaPromiseTransaction<PayloadType = unknown> = PrismaPromiseBatchTransaction | PrismaPromiseInteractiveTransaction<PayloadType>;

declare namespace Public {
    export {
        validator
    }
}
export { Public }

declare namespace Public_2 {
    export {
        Args_3 as Args,
        Result,
        Payload_2 as Payload,
        PrismaPromise,
        Operation,
        Exact
    }
}

declare type QueryEngineResult<T> = {
    data: T;
    elapsed: number;
};

declare type QueryMiddleware = (params: QueryMiddlewareParams, next: (params: QueryMiddlewareParams) => Promise<unknown>) => Promise<unknown>;

declare type QueryMiddlewareParams = {
    /** The model this is executed on */
    model?: string;
    /** The action that is being handled */
    action: Action;
    /** TODO what is this */
    dataPath: string[];
    /** TODO what is this */
    runInTransaction: boolean;
    args?: UserArgs_2;
};

declare type QueryOptions = {
    query: {
        [ModelName in string]: {
            [ModelAction in string]: ModelQueryOptionsCb;
        } | QueryOptionsCb;
    };
};

declare type QueryOptionsCb = (args: QueryOptionsCbArgs) => Promise<any>;

declare type QueryOptionsCbArgs = {
    model?: string;
    operation: string;
    args: JsArgs | RawQueryArgs;
    query: (args: JsArgs | RawQueryArgs) => Promise<unknown>;
};

/**
 * Create raw SQL statement.
 */
export declare function raw(value: string): Sql;

declare type RawParameters = {
    __prismaRawParameters__: true;
    values: string;
};

declare type RawQueryArgs = Sql | [query: string, ...values: RawValue[]];

/**
 * Supported value or SQL instance.
 */
export declare type RawValue = Value | Sql;

declare type ReadonlyDeep<T> = {
    readonly [K in keyof T]: ReadonlyDeep<T[K]>;
};

declare type Record_2<T extends string | number | symbol, U> = {
    [P in T]: U;
};

declare type RejectOnNotFound = boolean | ((error: Error) => Error) | undefined;

declare type RenameAndNestPayloadKeys<P> = {
    [K in keyof P as K extends 'scalars' | 'objects' | 'composites' ? keyof P[K] : never]: P[K];
};

declare type RequestBatchOptions<InteractiveTransactionPayload> = {
    transaction?: TransactionOptions<InteractiveTransactionPayload>;
    traceparent?: string;
    numTry?: number;
    containsWrite: boolean;
    customDataProxyFetch?: (fetch: Fetch) => Fetch;
};

declare class RequestHandler {
    client: Client;
    dataloader: DataLoader<RequestParams>;
    private logEmitter?;
    constructor(client: Client, logEmitter?: EventEmitter);
    request(params: RequestParams): Promise<any>;
    mapQueryEngineResult({ dataPath, unpacker, modelName, args, extensions }: RequestParams, response: QueryEngineResult<any>): any;
    /**
     * Handles the error and logs it, logging the error is done synchronously waiting for the event
     * handlers to finish.
     */
    handleAndLogRequestError(params: HandleErrorParams): never;
    handleRequestError({ error, clientMethod, callsite, transaction, args }: HandleErrorParams): never;
    sanitizeMessage(message: any): any;
    unpack(data: unknown, dataPath: string[], unpacker?: Unpacker): any;
    applyResultExtensions({ result, modelName, args, extensions }: ApplyExtensionsParams): object;
    get [Symbol.toStringTag](): string;
}

declare type RequestOptions<InteractiveTransactionPayload> = {
    traceparent?: string;
    numTry?: number;
    interactiveTransaction?: InteractiveTransactionOptions<InteractiveTransactionPayload>;
    isWrite: boolean;
    customDataProxyFetch?: (fetch: Fetch) => Fetch;
};

declare type RequestOptions_2 = {
    method?: string;
    headers?: Record<string, string>;
    body?: string;
};

declare type RequestParams = {
    modelName?: string;
    action: Action;
    protocolQuery: JsonQuery;
    dataPath: string[];
    clientMethod: string;
    callsite?: CallSite;
    rejectOnNotFound?: RejectOnNotFound;
    transaction?: PrismaPromiseTransaction;
    extensions: MergedExtensionsList;
    args?: any;
    headers?: Record<string, string>;
    unpacker?: Unpacker;
    otelParentCtx?: Context;
    otelChildCtx?: Context;
    customDataProxyFetch?: (fetch: Fetch) => Fetch;
};

declare type RequestResponse = {
    ok: boolean;
    url: string;
    statusText?: string;
    status: number;
    headers: Headers_2;
    text: () => Promise<string>;
    json: () => Promise<any>;
};

declare type RequiredKeys<O> = {
    [K in keyof O]-?: {} extends Pick_2<O, K> ? never : K;
}[keyof O];

declare type Result<T, A, F extends Operation> = T extends {
    [K: symbol]: {
        types: {
            payload: any;
        };
    };
} ? GetResult_2<T[symbol]['types']['payload'], A, F> : never;

declare type ResultArg = {
    [FieldName in string]: ResultFieldDefinition;
};

declare type ResultArgs = {
    result: {
        [ModelName in string]: ResultArg;
    };
};

declare type ResultArgsFieldCompute = (model: any) => unknown;

declare type ResultFieldDefinition = {
    needs?: {
        [FieldName in string]: boolean;
    };
    compute: ResultArgsFieldCompute;
};

declare type Return<T> = T extends (...args: any[]) => infer R ? R : T;

declare type RuntimeDataModel = {
    readonly models: Record<string, RuntimeModel>;
    readonly enums: Record<string, RuntimeEnum>;
    readonly types: Record<string, RuntimeModel>;
};

declare type RuntimeEnum = Omit<DMMF.DatamodelEnum, 'name'>;

declare type RuntimeModel = Omit<DMMF.Model, 'name'>;

declare type Select<T, U> = T extends U ? T : never;

declare type SelectablePayloadFields<K extends PropertyKey, O> = {
    objects: {
        [k in K]: O;
    };
} | {
    composites: {
        [k in K]: O;
    };
};

declare type SelectField<P extends SelectablePayloadFields<any, any>, K extends PropertyKey> = P extends {
    objects: Record<K, any>;
} ? P['objects'][K] : P extends {
    composites: Record<K, any>;
} ? P['composites'][K] : never;

declare type Selection_2 = Record<string, boolean | JsArgs>;

/**
 * An interface that represents a span. A span represents a single operation
 * within a trace. Examples of span might include remote procedure calls or a
 * in-process function calls to sub-components. A Trace has a single, top-level
 * "root" Span that in turn may have zero or more child Spans, which in turn
 * may have children.
 *
 * Spans are created by the {@link Tracer.startSpan} method.
 */
declare interface Span {
    /**
     * Returns the {@link SpanContext} object associated with this Span.
     *
     * Get an immutable, serializable identifier for this span that can be used
     * to create new child spans. Returned SpanContext is usable even after the
     * span ends.
     *
     * @returns the SpanContext object associated with this Span.
     */
    spanContext(): SpanContext;
    /**
     * Sets an attribute to the span.
     *
     * Sets a single Attribute with the key and value passed as arguments.
     *
     * @param key the key for this attribute.
     * @param value the value for this attribute. Setting a value null or
     *              undefined is invalid and will result in undefined behavior.
     */
    setAttribute(key: string, value: SpanAttributeValue): this;
    /**
     * Sets attributes to the span.
     *
     * @param attributes the attributes that will be added.
     *                   null or undefined attribute values
     *                   are invalid and will result in undefined behavior.
     */
    setAttributes(attributes: SpanAttributes): this;
    /**
     * Adds an event to the Span.
     *
     * @param name the name of the event.
     * @param [attributesOrStartTime] the attributes that will be added; these are
     *     associated with this event. Can be also a start time
     *     if type is {@type TimeInput} and 3rd param is undefined
     * @param [startTime] start time of the event.
     */
    addEvent(name: string, attributesOrStartTime?: SpanAttributes | TimeInput, startTime?: TimeInput): this;
    /**
     * Sets a status to the span. If used, this will override the default Span
     * status. Default is {@link SpanStatusCode.UNSET}. SetStatus overrides the value
     * of previous calls to SetStatus on the Span.
     *
     * @param status the SpanStatus to set.
     */
    setStatus(status: SpanStatus): this;
    /**
     * Updates the Span name.
     *
     * This will override the name provided via {@link Tracer.startSpan}.
     *
     * Upon this update, any sampling behavior based on Span name will depend on
     * the implementation.
     *
     * @param name the Span name.
     */
    updateName(name: string): this;
    /**
     * Marks the end of Span execution.
     *
     * Call to End of a Span MUST not have any effects on child spans. Those may
     * still be running and can be ended later.
     *
     * Do not return `this`. The Span generally should not be used after it
     * is ended so chaining is not desired in this context.
     *
     * @param [endTime] the time to set as Span's end time. If not provided,
     *     use the current time as the span's end time.
     */
    end(endTime?: TimeInput): void;
    /**
     * Returns the flag whether this span will be recorded.
     *
     * @returns true if this Span is active and recording information like events
     *     with the `AddEvent` operation and attributes using `setAttributes`.
     */
    isRecording(): boolean;
    /**
     * Sets exception as a span event
     * @param exception the exception the only accepted values are string or Error
     * @param [time] the time to set as Span's event time. If not provided,
     *     use the current time.
     */
    recordException(exception: Exception, time?: TimeInput): void;
}

/**
 * @deprecated please use {@link Attributes}
 */
declare type SpanAttributes = Attributes;

/**
 * @deprecated please use {@link AttributeValue}
 */
declare type SpanAttributeValue = AttributeValue;

declare type SpanCallback<R> = (span?: Span, context?: Context) => R;

/**
 * A SpanContext represents the portion of a {@link Span} which must be
 * serialized and propagated along side of a {@link Baggage}.
 */
declare interface SpanContext {
    /**
     * The ID of the trace that this span belongs to. It is worldwide unique
     * with practically sufficient probability by being made as 16 randomly
     * generated bytes, encoded as a 32 lowercase hex characters corresponding to
     * 128 bits.
     */
    traceId: string;
    /**
     * The ID of the Span. It is globally unique with practically sufficient
     * probability by being made as 8 randomly generated bytes, encoded as a 16
     * lowercase hex characters corresponding to 64 bits.
     */
    spanId: string;
    /**
     * Only true if the SpanContext was propagated from a remote parent.
     */
    isRemote?: boolean;
    /**
     * Trace flags to propagate.
     *
     * It is represented as 1 byte (bitmap). Bit to represent whether trace is
     * sampled or not. When set, the least significant bit documents that the
     * caller may have recorded trace data. A caller who does not record trace
     * data out-of-band leaves this flag unset.
     *
     * see {@link TraceFlags} for valid flag values.
     */
    traceFlags: number;
    /**
     * Tracing-system-specific info to propagate.
     *
     * The tracestate field value is a `list` as defined below. The `list` is a
     * series of `list-members` separated by commas `,`, and a list-member is a
     * key/value pair separated by an equals sign `=`. Spaces and horizontal tabs
     * surrounding `list-members` are ignored. There can be a maximum of 32
     * `list-members` in a `list`.
     * More Info: https://www.w3.org/TR/trace-context/#tracestate-field
     *
     * Examples:
     *     Single tracing system (generic format):
     *         tracestate: rojo=00f067aa0ba902b7
     *     Multiple tracing systems (with different formatting):
     *         tracestate: rojo=00f067aa0ba902b7,congo=t61rcWkgMzE
     */
    traceState?: TraceState;
}

declare enum SpanKind {
    /** Default value. Indicates that the span is used internally. */
    INTERNAL = 0,
    /**
     * Indicates that the span covers server-side handling of an RPC or other
     * remote request.
     */
    SERVER = 1,
    /**
     * Indicates that the span covers the client-side wrapper around an RPC or
     * other remote request.
     */
    CLIENT = 2,
    /**
     * Indicates that the span describes producer sending a message to a
     * broker. Unlike client and server, there is no direct critical path latency
     * relationship between producer and consumer spans.
     */
    PRODUCER = 3,
    /**
     * Indicates that the span describes consumer receiving a message from a
     * broker. Unlike client and server, there is no direct critical path latency
     * relationship between producer and consumer spans.
     */
    CONSUMER = 4
}

/**
 * Options needed for span creation
 */
declare interface SpanOptions {
    /**
     * The SpanKind of a span
     * @default {@link SpanKind.INTERNAL}
     */
    kind?: SpanKind;
    /** A span's attributes */
    attributes?: SpanAttributes;
    /** {@link Link}s span to other spans */
    links?: Link[];
    /** A manually specified start time for the created `Span` object. */
    startTime?: TimeInput;
    /** The new span should be a root span. (Ignore parent from context). */
    root?: boolean;
}

declare interface SpanStatus {
    /** The status code of this message. */
    code: SpanStatusCode;
    /** A developer-facing error message. */
    message?: string;
}

/**
 * An enumeration of status codes.
 */
declare enum SpanStatusCode {
    /**
     * The default status.
     */
    UNSET = 0,
    /**
     * The operation has been validated by an Application developer or
     * Operator to have completed successfully.
     */
    OK = 1,
    /**
     * The operation contains an error.
     */
    ERROR = 2
}

/**
 * A SQL instance can be nested within each other to build SQL strings.
 */
export declare class Sql {
    values: Value[];
    strings: string[];
    constructor(rawStrings: ReadonlyArray<string>, rawValues: ReadonlyArray<RawValue>);
    get text(): string;
    get sql(): string;
    inspect(): {
        text: string;
        sql: string;
        values: unknown[];
    };
}

/**
 * Create a SQL object from a template string.
 */
export declare function sqltag(strings: ReadonlyArray<string>, ...values: RawValue[]): Sql;

/**
 * Defines TimeInput.
 *
 * hrtime, epoch milliseconds, performance.now() or Date
 */
declare type TimeInput = HrTime | number | Date;

declare type ToTuple<T> = T extends any[] ? T : [T];

declare interface TraceState {
    /**
     * Create a new TraceState which inherits from this TraceState and has the
     * given key set.
     * The new entry will always be added in the front of the list of states.
     *
     * @param key key of the TraceState entry.
     * @param value value of the TraceState entry.
     */
    set(key: string, value: string): TraceState;
    /**
     * Return a new TraceState which inherits from this TraceState but does not
     * contain the given key.
     *
     * @param key the key for the TraceState entry to be removed.
     */
    unset(key: string): TraceState;
    /**
     * Returns the value to which the specified key is mapped, or `undefined` if
     * this map contains no mapping for the key.
     *
     * @param key with which the specified value is to be associated.
     * @returns the value to which the specified key is mapped, or `undefined` if
     *     this map contains no mapping for the key.
     */
    get(key: string): string | undefined;
    /**
     * Serializes the TraceState to a `list` as defined below. The `list` is a
     * series of `list-members` separated by commas `,`, and a list-member is a
     * key/value pair separated by an equals sign `=`. Spaces and horizontal tabs
     * surrounding `list-members` are ignored. There can be a maximum of 32
     * `list-members` in a `list`.
     *
     * @returns the serialized string.
     */
    serialize(): string;
}

declare interface TracingHelper {
    isEnabled(): boolean;
    getTraceParent(context?: Context): string;
    createEngineSpan(engineSpanEvent: EngineSpanEvent): void;
    getActiveContext(): Context | undefined;
    runInChildSpan<R>(nameOrOptions: string | ExtendedSpanOptions, callback: SpanCallback<R>): R;
}

declare namespace Transaction {
    export {
        IsolationLevel,
        Options_2 as Options,
        InteractiveTransactionInfo,
        TransactionHeaders
    }
}

declare type TransactionHeaders = {
    traceparent?: string;
};

declare type TransactionOptions<InteractiveTransactionPayload> = {
    kind: 'itx';
    options: InteractiveTransactionOptions<InteractiveTransactionPayload>;
} | {
    kind: 'batch';
    options: BatchTransactionOptions;
};

declare type TypeMapCbDef = Fn<{
    extArgs: Args;
}, TypeMapDef>;

/** Shared */
declare type TypeMapDef = Record<any, any>;

declare namespace Types {
    export {
        Extensions_2 as Extensions,
        Utils,
        Public_2 as Public,
        GetResult_2 as GetResult,
        Payload,
        DefaultSelection
    }
}
export { Types }

declare type UnknownErrorParams = {
    clientVersion: string;
    batchRequestIdx?: number;
};

declare type Unpacker = (data: any) => any;

declare type UnwrapPayload<P> = {
    [K in keyof P]: P[K] extends Payload[] ? UnwrapPayload<P[K]> : P[K] extends Payload ? P[K]['scalars'] & UnwrapPayload<P[K]['composites']> : P[K] extends infer O | null ? O extends Payload ? (O['scalars'] & UnwrapPayload<O['composites']>) | null : P[K] : P[K];
} & unknown;

declare type UnwrapPromise<P> = P extends Promise<infer R> ? R : P;

declare type UnwrapTuple<Tuple extends readonly unknown[]> = {
    [K in keyof Tuple]: K extends `${number}` ? Tuple[K] extends PrismaPromise_2<infer X> ? X : UnwrapPromise<Tuple[K]> : UnwrapPromise<Tuple[K]>;
};

export declare type UserArgs = NameArgs & ResultArgs & ModelArgs & ClientArgs & QueryOptions;

/**
 * Input that flows from the user into the Client.
 */
declare type UserArgs_2 = any;

declare namespace Utils {
    export {
        EmptyToUnknown,
        NeverToUnknown,
        PatchFlat,
        Omit_2 as Omit,
        Pick_2 as Pick,
        ComputeDeep,
        Compute,
        OptionalFlat,
        ReadonlyDeep,
        Narrow,
        Exact,
        Cast,
        LegacyExact,
        JsonObject,
        JsonArray,
        JsonValue,
        Record_2 as Record,
        UnwrapTuple,
        Path,
        Fn,
        Call,
        RequiredKeys,
        OptionalKeys,
        Optional,
        Return,
        ToTuple,
        RenameAndNestPayloadKeys,
        PayloadToResult,
        Select
    }
}

declare function validator<V>(): <S>(select: Exact<S, V>) => S;

declare function validator<C, M extends Exclude<keyof C, `$${string}`>, O extends keyof C[M] & Operation>(client: C, model: M, operation: O): <S>(select: Exact<S, Args_3<C[M], O>>) => S;

declare function validator<C, M extends Exclude<keyof C, `$${string}`>, O extends keyof C[M] & Operation, P extends keyof Args_3<C[M], O>>(client: C, model: M, operation: O, prop: P): <S>(select: Exact<S, Args_3<C[M], O>[P]>) => S;

/**
 * Values supported by SQL engine.
 */
export declare type Value = unknown;

export declare function warnEnvConflicts(envPaths: any): void;

export declare const warnOnce: (key: string, message: string, ...args: unknown[]) => void;

export { }
