import { I as IterableContainer } from './IterableContainer-CtfinwiH.js';

type Product<T extends IterableContainer<bigint> | IterableContainer<number>> = T extends readonly [] ? 1 : T extends readonly [bigint, ...ReadonlyArray<unknown>] ? bigint : T[number] extends bigint ? bigint | 1 : number;
/**
 * Compute the product of the numbers in the array, or return 1 for an empty
 * array.
 *
 * Works for both `number` and `bigint` arrays, but not arrays that contain both
 * types.
 *
 * IMPORTANT: The result for empty arrays would be 1 (`number`) regardless of
 * the type of the array; to avoid adding this to the return type for cases
 * where the array is known to be non-empty you can use `hasAtLeast` or
 * `isEmpty` to guard against this case.
 *
 * @param data - The array of numbers.
 * @signature
 *   R.product(data);
 * @example
 *   R.product([1, 2, 3]); // => 6
 *   R.product([1n, 2n, 3n]); // => 6n
 *   R.product([]); // => 1
 * @dataFirst
 * @category Number
 */
declare function product<T extends IterableContainer<bigint> | IterableContainer<number>>(data: T): Product<T>;
/**
 * Compute the product of the numbers in the array, or return 1 for an empty
 * array.
 *
 * Works for both `number` and `bigint` arrays, but not arrays that contain both
 * types.
 *
 * IMPORTANT: The result for empty arrays would be 1 (`number`) regardless of
 * the type of the array; to avoid adding this to the return type for cases
 * where the array is known to be non-empty you can use `hasAtLeast` or
 * `isEmpty` to guard against this case.
 *
 * @signature
 *   R.product()(data);
 * @example
 *   R.pipe([1, 2, 3], R.product()); // => 6
 *   R.pipe([1n, 2n, 3n], R.product()); // => 6n
 *   R.pipe([], R.product()); // => 1
 * @dataLast
 * @category Number
 */
declare function product(): <T extends IterableContainer<bigint> | IterableContainer<number>>(data: T) => Product<T>;

export { product };