frontend-dali/lib/plankton/plankton.d.ts
2024-09-26 13:37:57 +02:00

3752 lines
105 KiB
TypeScript

/**
* @author fenris
*/
type int = number;
/**
* @author fenris
*/
type float = number;
/**
* @author fenris
*/
type type_date = {
year: int;
month: int;
day: int;
};
/**
* @author fenris
*/
type type_time = {
hour: int;
minute: int;
second: int;
};
/**
* @author fenris
*/
type type_datetimeobject = {
date: type_date;
time: type_time;
};
declare class Buffer {
constructor(x: string, modifier?: string);
toString(modifier?: string): string;
}
declare namespace lib_plankton.base {
/**
* @author fenris
*/
function environment(): string;
}
/**
* @author fenris
*/
type type_pseudopointer<type_value> = {
value: type_value;
};
/**
* @author fenris
*/
declare function pseudopointer_null<type_value>(): type_pseudopointer<type_value>;
/**
* @author fenris
*/
declare function pseudopointer_make<type_value>(value: type_value): type_pseudopointer<type_value>;
/**
* @author fenris
*/
declare function pseudopointer_isset<type_value>(pseudopointer: type_pseudopointer<type_value>): boolean;
/**
* @author fenris
*/
declare function pseudopointer_read<type_value>(pseudopointer: type_pseudopointer<type_value>): type_value;
/**
* @author fenris
*/
declare function pseudopointer_write<type_value>(pseudopointer: type_pseudopointer<type_value>, value: type_value): void;
/**
* @author fenris
*/
declare var instance_verbosity: int;
/**
* @desc the ability to check for equality with another element of the same domain
* @author fenris
*/
interface interface_collatable<type_value> {
/**
* @author fenris
*/
_collate(value: type_value): boolean;
}
/**
* @author fenris
*/
declare function instance_collate<type_value>(value1: (type_value & {
_collate?: ((value: type_value) => boolean);
}), value2: type_value): boolean;
/**
* @desc the ability to compare with another element of the same domain for determining if the first is "smaller than or equal to" the latter
* @author fenris
*/
interface interface_comparable<type_value> {
/**
* @author fenris
*/
_compare(value: type_value): boolean;
}
/**
* @author fenris
*/
declare function instance_compare<type_value>(value1: (type_value & {
_compare: ((value: type_value) => boolean);
}), value2: type_value): boolean;
/**
* @desc the ability to create an exact copy
* @author fenris
*/
interface interface_cloneable<type_value> {
/**
* @author fenris
*/
_clone(): type_value;
}
/**
* @author fenris
*/
declare function instance_clone<type_value>(value: (type_value & {
_clone?: (() => type_value);
})): type_value;
/**
* @author fenris
*/
interface interface_hashable {
/**
* @author fenris
*/
_hash(): string;
}
/**
* @desc the ability to generate a string out of the element, which identifies it to a high degree
* @author fenris
*/
declare function instance_hash<type_value>(value: (type_value & {
_hash?: (() => string);
})): string;
/**
* @author fenris
*/
interface interface_showable {
/**
* @author fenris
*/
_show(): string;
}
/**
* @desc the ability to map the element to a textual representation (most likely not injective)
* @author fenris
*/
declare function instance_show<type_value>(value: (type_value & {
_show?: (() => string);
})): string;
/**
* @author frac
*/
interface interface_decorator<type_core> {
/**
* @author frac
*/
core: type_core;
}
/**
* @author frac
*/
declare class class_observer {
/**
* @author frac
*/
protected counter: int;
/**
* @author frac
*/
protected actions: {
[id: string]: (information: Object) => void;
};
/**
* @author frac
*/
protected buffer: Array<Object>;
/**
* @author frac
*/
constructor();
/**
* @author frac
*/
empty(): boolean;
/**
* @author frac
*/
flush(): void;
/**
* @author frac
*/
set(id: string, action: (information: Object) => void): void;
/**
* @author frac
*/
del(id: string): void;
/**
* @author frac
*/
add(action: (information: Object) => void): void;
/**
* @author frac
*/
notify(information?: Object, delayed?: boolean): void;
/**
* @author frac
*/
rollout(): void;
}
/**
* @author frac
*/
/**
* @author frac
*/
/**
* @author frac
*/
declare class class_error extends Error {
/**
* @author frac
*/
protected suberrors: Array<Error>;
/**
* @author frac
*/
protected mess: string;
/**
* @author frac
*/
constructor(message: string, suberrors?: Array<Error>);
/**
* @override
* @author frac
*/
toString(): string;
}
declare namespace lib_plankton.base {
/**
* returns the current UNIX timestamp
*
* @author fenris
*/
function get_current_timestamp(rounded?: boolean): float;
/**
*/
function object_merge(core: Record<string, any>, mantle: Record<string, any>): Record<string, any>;
}
declare module lib_plankton.pod {
/**
* @author fenris
*/
type type_pod<type_value> = {
kind: ("empty" | "filled");
value?: type_value;
};
/**
* @author fenris
*/
function make_empty<type_value>(): type_pod<type_value>;
/**
* @author fenris
*/
function make_filled<type_value>(value: type_value): type_pod<type_value>;
/**
* whether the pod is filled
*
* @author fenris
*/
function is_filled<type_value>(pod: type_pod<type_value>): boolean;
/**
* return the value, stored in the pod-wrapper
*
* @author fenris
*/
function cull<type_value>(pod: type_pod<type_value>): type_value;
/**
* to pass on a empty-pod or to use a filled-pod
*
* @author fenris
*/
function propagate<type_value, type_value_>(pod: type_pod<type_value>, function_: ((value: type_value) => type_value_)): type_pod<type_value_>;
/**
* @author fenris
*/
function distinguish<type_value, type_result>(pod: type_pod<type_value>, function_empty: (() => type_result), function_filled: ((value: type_value) => type_result)): type_result;
/**
*/
function show<type_value>(pod: type_pod<type_value>, options?: {
show_value?: ((value: type_value) => string);
}): string;
}
declare module lib_plankton.pod {
/**
*/
class class_pod<type_value> {
private subject;
constructor(subject: type_pod<type_value>);
tear(): type_pod<type_value>;
static empty<type_value>(): class_pod<type_value>;
static filled<type_value>(value: type_value): class_pod<type_value>;
is_empty(): boolean;
is_filled(): boolean;
cull(): type_value;
show(show_value?: any): string;
toString(): string;
propagate<type_value_>(function_: ((value: type_value) => type_value_)): class_pod<type_value_>;
distinguish<type_result>(function_empty: (() => type_result), function_filled: ((value: type_value) => type_result)): type_result;
}
}
declare namespace lib_plankton.code {
/**
* @author fenris
*/
interface interface_code<type_from, type_to> {
/**
* @author fenris
*/
encode(x: type_from): type_to;
/**
* @author fenris
*/
decode(x: type_to): type_from;
}
}
declare namespace lib_plankton.code {
/**
* @author fenris
*/
type type_code<type_from, type_to> = {
/**
* @author fenris
*/
encode: (x: type_from) => type_to;
/**
* @author fenris
*/
decode: (x: type_to) => type_from;
};
}
declare namespace lib_plankton.code {
/**
* @author fenris
*/
function inverse_encode<type_from, type_to>(decode: (to: type_to) => type_from, to: type_to): type_from;
/**
* @author fenris
*/
function inverse_decode<type_from, type_to>(encode: (from: type_from) => type_to, from: type_from): type_to;
}
declare namespace lib_plankton.code {
/**
* @author fenris
*/
class class_code_inverse<type_from, type_to> implements interface_code<type_to, type_from> {
/**
* @author fenris
*/
protected subject: interface_code<type_from, type_to>;
/**
* @author fenris
*/
constructor(subject: interface_code<type_from, type_to>);
/**
* @implementation
* @author fenris
*/
encode(to: type_to): type_from;
/**
* @implementation
* @author fenris
*/
decode(from: type_from): type_to;
}
}
declare namespace lib_plankton.code {
/**
* @author fenris
*/
function pair_encode<type_from, type_between, type_to>(encode_first: (from: type_from) => type_between, encode_second: (between: type_between) => type_to, from: type_from): type_to;
/**
* @author fenris
*/
function pair_decode<type_from, type_between, type_to>(decode_first: (between: type_between) => type_from, decode_second: (to: type_to) => type_between, to: type_to): type_from;
}
declare namespace lib_plankton.code {
/**
* @author fenris
*/
class class_code_pair<type_from, type_between, type_to> implements interface_code<type_from, type_to> {
/**
* @author fenris
*/
protected first: interface_code<type_from, type_between>;
/**
* @author fenris
*/
protected second: interface_code<type_between, type_to>;
/**
* @author fenris
*/
constructor(first: interface_code<type_from, type_between>, second: interface_code<type_between, type_to>);
/**
* @implementation
* @author fenris
*/
encode(from: type_from): type_to;
/**
* @implementation
* @author fenris
*/
decode(to: type_to): type_from;
}
}
declare namespace lib_plankton.code {
/**
* @author fenris
*/
function chain_encode(encode_links: Array<(from: any) => any>, from: any): any;
/**
* @author fenris
*/
function chain_decode(decode_links: Array<(to: any) => any>, to: any): any;
}
declare namespace lib_plankton.code {
/**
* @author fenris
*/
class class_code_chain implements interface_code<any, any> {
/**
* @author fenris
*/
protected links: Array<interface_code<any, any>>;
/**
* @author fenris
*/
constructor(links: Array<interface_code<any, any>>);
/**
* @implementation
* @author fenris
*/
encode(from: any): any;
/**
* @implementation
* @author fenris
*/
decode(to: any): any;
}
}
declare namespace lib_plankton.code {
/**
* @author Christian Fraß <frass@greenscale.de>
*/
type type_flatten_from = Array<{
[name: string]: any;
}>;
/**
* @author Christian Fraß <frass@greenscale.de>
*/
type type_flatten_to = {
keys: Array<string>;
data: Array<Array<any>>;
};
/**
* @author Christian Fraß <frass@greenscale.de>
*/
function flatten_encode(from: type_flatten_from, keys?: Array<string>): type_flatten_to;
/**
* @author Christian Fraß <frass@greenscale.de>
*/
function flatten_decode(to: type_flatten_to): type_flatten_from;
}
declare namespace lib_plankton.code {
/**
* @author fenris
*/
class class_code_flatten implements interface_code<type_flatten_from, type_flatten_to> {
/**
* @author fenris
*/
constructor();
/**
* @implementation
* @author fenris
*/
encode(x: type_flatten_from): type_flatten_to;
/**
* @implementation
* @author fenris
*/
decode(x: type_flatten_to): type_flatten_from;
}
}
declare namespace lib_plankton.json {
/**
*/
type type_source = any;
/**
*/
type type_target = string;
/**
* @author fenris
*/
export function encode(source: type_source, options?: {
formatted?: boolean;
}): type_target;
/**
* @author fenris
*/
export function decode(target: type_target): type_source;
/**
* @author fenris
*/
export function implementation_code(): lib_plankton.code.type_code<type_source, type_target>;
export {};
}
declare namespace lib_plankton.json {
/**
* @author fenris
*/
class class_json implements lib_plankton.code.interface_code<any, string> {
/**
* @author fenris
*/
constructor();
/**
* @implementation
* @author fenris
*/
encode(x: any): string;
/**
* @implementation
* @author fenris
*/
decode(x: string): any;
}
}
/**
* might be completely obsolete
*/
declare namespace lib_plankton.call {
/**
* @author fenris
*/
type type_promise<type_result, type_reason> = Promise<type_result>;
/**
* @author fenris
*/
function promise_reject<type_result, type_reason>(reason: type_reason): type_promise<type_result, type_reason>;
/**
* @author fenris
*/
function promise_resolve<type_result, type_reason>(result: type_result): type_promise<type_result, type_reason>;
/**
* @author fenris
*/
function promise_make<type_result, type_reason>(executor: (resolve: ((result?: type_result) => void), reject: ((reason?: type_reason) => void)) => void): type_promise<type_result, type_reason>;
/**
* @author fenris
*/
function promise_then_close<type_result, type_reason>(promise: type_promise<type_result, type_reason>, resolver: ((result: type_result) => void), rejector: ((reason: type_reason) => void)): void;
/**
* @author fenris
*/
function promise_then_append<type_result, type_reason, type_result_>(promise: type_promise<type_result, type_reason>, resolver: ((result: type_result) => type_promise<type_result_, type_reason>), rejector?: ((reason: type_reason) => type_promise<type_result_, type_reason>)): type_promise<type_result_, type_result>;
/**
* @author fenris
*/
function promise_all<type_result, type_reason>(promises: Array<type_promise<type_result, type_reason>>): type_promise<Array<type_result>, type_reason>;
/**
* @author fenris
*/
function promise_chain<type_result, type_reason>(promises: (Array<(input: type_result) => type_promise<type_result, type_reason>>), start?: type_result): type_promise<type_result, type_reason>;
/**
* @author fenris
*/
function promise_condense<type_element, type_reason>(promises: Array<() => type_promise<type_element, type_reason>>): type_promise<Array<type_element>, type_reason>;
/**
* @author fenris
*/
function promise_group<type_reason>(promises: Record<string, (() => type_promise<any, type_reason>)>, options?: {
serial?: boolean;
}): type_promise<Record<string, any>, type_reason>;
/**
* @author fenris
*/
function promise_wrap<type_result_inner, type_result_outer, type_reason>(promise: type_promise<type_result_inner, type_reason>, transformator_result: ((reason: type_result_inner) => type_result_outer), transformator_reason?: ((reason: type_reason) => type_reason)): type_promise<type_result_outer, type_reason>;
/**
* @author fenris
*/
/**
* @author fenris
*/
/**
* @author fenris
*/
function promise_attach<type_reason>(state: Record<string, any>, promise: type_promise<any, type_reason>, name: string): type_promise<Record<string, any>, type_reason>;
/**
* @author fenris
*/
function promise_delay<type_result, type_reason>(promise: type_promise<type_result, type_reason>, delay: int): type_promise<type_result, type_reason>;
}
declare namespace lib_plankton.call {
/**
*/
class CancellablePromise<type_result> extends Promise<type_result> {
/**
*/
private cancelled;
/**
*/
private interval;
/**
*/
private subject;
/**
*/
constructor(executor: ((resolve: any, reject: any) => void));
/**
*/
private clear;
/**
*/
then<type_next_resolved, type_next_rejected>(onfulfilled?: ((value: type_result) => (type_next_resolved | PromiseLike<type_next_resolved>)), onrejected?: ((reason: any) => (type_next_rejected | PromiseLike<type_next_rejected>))): Promise<type_next_resolved | type_next_rejected>;
/**
*/
catch(x: any): Promise<type_result>;
/**
*/
cancel(): void;
}
}
/**
* initializer might be obsolete, since promises are reusable after having been resolved or rejected
*/
declare namespace lib_plankton.call {
/**
* @author fenris
*/
enum enum_initializer_state {
initial = 0,
waiting = 1,
successful = 2,
failed = 3
}
/**
* @author fenris
*/
type type_initializer<type_result, type_reason> = {
fetcher: (() => type_promise<type_result, type_reason>);
state?: enum_initializer_state;
queue: Array<{
resolve: ((result?: type_result) => void);
reject: ((reason?: type_reason) => void);
}>;
result?: type_result;
reason?: type_reason;
};
/**
* @author fenris
*/
function initializer_make<type_result, type_reason>(fetcher: (() => type_promise<type_result, type_reason>)): type_initializer<type_result, type_reason>;
/**
* @author fenris
*/
function initializer_reset<type_result, type_reason>(subject: type_initializer<type_result, type_reason>): void;
/**
* @author fenris
*/
function initializer_state<type_result, type_reason>(subject: type_initializer<type_result, type_reason>): enum_initializer_state;
/**
* @author fenris
*/
function initializer_get<type_result, type_reason>(subject: type_initializer<type_result, type_reason>): type_promise<type_result, type_reason>;
}
declare namespace lib_plankton.call {
/**
* @author fenris
*/
type type_deferral<type_input, type_output> = {
representation: (input: type_input) => Promise<type_output>;
};
/**
* @author fenris
* @desc activates the deferral and handles its output according to a given procedure
* @param {(value : type_value)=>void} procedure a function which receives the output of the deferral as argument
*/
function deferral_use<type_input, type_output>(deferral: type_deferral<type_input, type_output>, input: type_input, procedure: (output: type_output) => void): void;
/**
* @author fenris
* @desc creates a deferral-subject (similar to "new Promise", where "convey" reflects "resolve"/"reject")
*/
function deferral_make<type_input, type_output>(handler: (input: type_input, convey: (output: type_output) => void) => void): type_deferral<type_input, type_output>;
/**
* @author fenris
* @desc wraps a simple function into a deferral (similar to "Promise.resolve"/"Promise.reject")
*/
function deferral_wrap<type_input, type_output>(function_: (input: type_input) => type_output): type_deferral<type_input, type_output>;
/**
* @author fenris
*/
function deferral_id<type_value>(): type_deferral<type_value, type_value>;
/**
* @author fenris
*/
function deferral_const<type_value>(value: type_value): type_deferral<type_value, type_value>;
/**
* @author fenris
*/
function deferral_delay<type_output>(output: type_output, delay: int): type_deferral<any, type_output>;
/**
* @author fenris
* @desc connects two deferrals to form a new one; the output of the first is taken as input for the second
* (similar to "Promise.then" when passing a function which returns a new promise)
* @param {type_deferral<type_value1>} first a simple deferral
* @param {(value1 : type_value1)=>type_deferral<type_value2>} second a function depending from a value returning a deferral
*/
function deferral_compose_serial<type_input, type_between, type_output>(first: type_deferral<type_input, type_between>, second: type_deferral<type_between, type_output>): type_deferral<type_input, type_output>;
/**
* @author fenris
*/
function deferral_compose_parallel<type_input, type_output_left, type_output_right>({ "left": deferral_left, "right": deferral_right, }: {
left: type_deferral<type_input, type_output_left>;
right: type_deferral<type_input, type_output_right>;
}): type_deferral<type_input, {
left: type_output_left;
right: type_output_right;
}>;
/**
* @author fenris
* @desc repeatedly applied serial composition
*/
function deferral_chain<type_value>(members: Array<type_deferral<type_value, type_value>>): type_deferral<type_value, type_value>;
/**
* @author fenris
*/
}
declare namespace lib_plankton.call {
/**
* @author fenris
*/
class class_deferral<type_input, type_output> {
/**
* @author fenris
*/
private subject;
/**
* @author fenris
*/
private constructor();
/**
* @author fenris
*/
private static _cram;
/**
* @author fenris
*/
private static _tear;
/**
* @author fenris
*/
static make<type_input, type_output>(handler: (input: type_input, convey: (value: type_output) => void) => void): class_deferral<type_input, type_output>;
/**
* @author fenris
*/
use(input: type_input, procedure: (value: type_output) => void): void;
/**
* @author fenris
*/
compose_serial<type_output_>(second: class_deferral<type_output, type_output_>): class_deferral<type_input, type_output_>;
/**
* @author fenris
*/
static chain<type_value>(members: Array<class_deferral<type_value, type_value>>): class_deferral<type_value, type_value>;
/**
* @author fenris
*/
static wrap<type_input, type_output>(function_: (input: type_input) => type_output): class_deferral<type_input, type_output>;
/**
* @author fenris
*/
static const_<type_value>(value: type_value): class_deferral<type_value, type_value>;
/**
* @author fenris
*/
static delay<type_output>(output: type_output, delay: int): class_deferral<any, type_output>;
}
}
declare namespace lib_plankton.call {
/**
* converts the "arguments"-map into an array
*
* @param {Object} args
* @author fenris
*/
function args2list(args: any): Array<any>;
/**
* just the empty function; useful for some callbacks etc.
*
* @author fenris
*/
function nothing(): void;
/**
* just the identity; useful for some callbacks etc.; defined as function instead of const for using type parameters
*
* @author fenris
*/
function id<type_value>(x: type_value): type_value;
/**
* just the identity; useful for some callbacks etc.
*
* @author fenris
*/
function const_<type_value>(x: type_value): ((y: any) => type_value);
/**
* composes two functions (i.e. returns a function that return the result of the successive execution of both input-functions)
*
* @param {function} function_f
* @param {function} function_g
* @author fenris
*/
function compose<type_x, type_y, type_z>(function_f: ((type_x: any) => type_y), function_g: ((type_y: any) => type_z)): ((value: type_x) => type_z);
/**
* transforms a function with sequential input to a function with leveled input; example: add(2,3) = curryfy(add)(2)(3)
*
* @param {function} f
* @return {function} the currified version of the in put function
* @author fenris
*/
function curryfy(f: Function): Function;
/**
* @author fenris
*/
function convey(value: any, functions: Array<Function>): any;
/**
* @author fenris
*/
function timeout(procedure: (() => void), delay_in_seconds: float): int;
/**
* Promise version of "setTimeout"
*
* @author fenris
*/
function defer<type_result>(seconds: float, action: (() => type_result)): Promise<type_result>;
/**
* a definition for a value being "defined"
*
* @author neuc
*/
function is_def<type_value>(obj: type_value, options?: {
null_is_valid?: boolean;
}): boolean;
/**
* returns the value if set and, when a type is specified, if the type is correct, if not return default_value
*
* @author neuc
*/
function def_val(value: any, default_value: any, options?: {
type?: (null | string);
null_is_valid?: boolean;
}): any;
/**
* provides the call for an attribute of a class as a regular function; useful for processing lists of objects
*
* @param {string} name the name of the attribute
* @return {function}
* @author fenris
*/
function attribute<type_object, type_attribute>(name: string): ((object: type_object) => type_attribute);
/**
* provides a method of a class as a regular function; useful for processing lists of objects
*
* @param {string} name the name of the method
* @return {function}
* @author fenris
*/
function method<type_object, type_output>(name: string): ((object: type_object) => type_output);
/**
* @author fenris
*/
type type_coproduct = {
kind: string;
data?: any;
};
/**
* @author fenris
*/
function distinguish<type_output>(coproduct: type_coproduct, handlers: Record<string, ((data?: any) => type_output)>, options?: {
fallback?: (null | ((coproduct?: type_coproduct) => type_output));
}): type_output;
/**
* for rate_limit_check
*
* @author fenris
*/
type type_mana_snapshot = {
timestamp: float;
value: float;
};
/**
* rate limiting algorithm, based on the idea of mana (magic power) in video games:
* - an actor has a fixed mana capacity, i.e. the maximum amount of available power
* - an actor has a fixed rate of mana regeneration, i.e. how fast the power is filled up (linear growth)
* - an action has a defined mana heft, i.e. how much power is required and deducted in order to execute it
* - mana states are represented by snapshots, i.e. the amount of power at a certain point in time
*
* @author fenris
*/
function rate_limit_check(setup: {
capacity: float;
regeneration_rate: float;
get_snapshot: (() => Promise<(null | type_mana_snapshot)>);
set_snapshot: ((snapshot: type_mana_snapshot) => Promise<void>);
update_snapshot: ((timestamp: float, value_increment: float) => Promise<void>);
}, heft: float): Promise<{
granted: boolean;
seconds: (null | float);
}>;
}
declare namespace lib_plankton.file {
/**
* @author fenris
*/
function read(path: string): Promise<string>;
/**
* @author fenris
*/
function write(path: string, content: string): Promise<void>;
/**
* @author fenris
*/
function blob_read_text(blob: Blob): lib_plankton.call.type_promise<string, Error>;
/**
* @author fenris
*/
function blob_read_arraybuffer(blob: Blob): lib_plankton.call.type_promise<ArrayBuffer, Error>;
/**
* @author fenris
*/
function blob_read_dataurl(blob: Blob): lib_plankton.call.type_promise<string, Error>;
/**
* @author fenris
*/
function blob_write_text(text: string): lib_plankton.call.type_promise<Blob, Error>;
}
declare namespace lib_plankton.email {
/**
*/
function send(smtp_credentials: {
host: string;
port: int;
username: string;
password: string;
}, sender: string, receivers: Array<string>, subject: string, content: string): Promise<void>;
}
declare namespace lib_plankton.log {
/**
*/
enum enum_level {
debug = 0,
info = 1,
notice = 2,
warning = 3,
error = 4
}
/**
*/
function level_order(level1: enum_level, level2: enum_level): boolean;
/**
*/
function level_show(level: enum_level): string;
/**
*/
type type_entry = {
level: enum_level;
incident: string;
details: Record<string, any>;
};
}
/**
* @deprecated
* @todo remove
*/
declare namespace lib_plankton.log {
function level_push(level: int): void;
function level_pop(): void;
function indent_push(indent: int): void;
function indent_pop(): void;
function indent_inc(): void;
function indent_dec(): void;
/**
* @author fenris
*/
function write({ "message": message, "type": type, "prefix": prefix, "level": level, "indent": indent, }: {
message?: string;
type?: string;
prefix?: string;
level?: int;
indent?: int;
}): void;
}
declare namespace lib_plankton.log {
/**
*/
abstract class class_channel {
/**
*/
abstract add(entry: type_entry): void;
}
}
declare namespace lib_plankton.log {
/**
* output for writing log entries to web console
*/
class class_channel_console extends class_channel {
/**
*/
add(entry: type_entry): void;
}
}
declare namespace lib_plankton.log {
/**
* decorator for filtering out log entries below a certain level threshold
*/
class class_channel_minlevel extends class_channel {
/**
*/
private core;
/**
*/
private threshold;
/**
*/
constructor(core: class_channel, threshold: enum_level);
/**
*/
add(entry: type_entry): void;
}
}
declare namespace lib_plankton.log {
/**
*/
function channel_make(description: {
kind: string;
data?: {
[key: string]: any;
};
}): class_channel;
/**
*/
type type_configuration = Array<class_channel>;
/**
*/
function conf_default(): type_configuration;
}
declare namespace lib_plankton.log {
/**
* pushes a new configuration on the stack and activates it
*/
function conf_push(channels: type_configuration): void;
/**
* pops the current active configuration from the stack
*/
function conf_pop(): void;
/**
* consumes a log entry, i.e. sends it to the currently active outputs
*/
function add(entry: type_entry): void;
/**
*/
function debug(incident: string, details?: Record<string, any>): void;
/**
*/
function info(incident: string, details?: Record<string, any>): void;
/**
*/
function notice(incident: string, details?: Record<string, any>): void;
/**
*/
function warning(incident: string, details?: Record<string, any>): void;
/**
*/
function error(incident: string, details?: Record<string, any>): void;
}
declare namespace lib_plankton.log {
}
declare namespace lib_plankton.object {
/**
* @author fenris
* @deprecated use the "??" operator instead
*/
function fetch<type_value>(object: Object, fieldname: string, options?: {
fallback?: type_value;
escalate?: boolean;
}): type_value;
/**
*/
function map<type_from, type_to>(object_from: Record<string, type_from>, transformator: ((value_from: type_from, key?: string) => type_to)): Record<string, type_to>;
/**
* gibt ein Objekt mit bestimmten Einträgen des Eingabe-Objekts zurück
*/
function filter<type_value>(object_from: Record<string, type_value>, predicate: ((value_from: type_value, key?: string) => boolean)): Record<string, type_value>;
/**
* wandelt ein Array mit Einträgen der Form {key,value} in ein entsprechendes Objekt um
*
* @deprecated use Object.fromEntries instead!
*/
function from_array<type_value>(array: Array<{
key: string;
value: type_value;
}>): Record<string, type_value>;
/**
* wandelt ein Objekt in ein entsprechendes Array mit Einträgen der Form {key,value} um
*
* @deprecated use Object.entries insetad!
*/
function to_array<type_value>(object: Record<string, type_value>): Array<{
key: string;
value: type_value;
}>;
/**
* gibt eine Liste von Schlüsseln eines Objekts zurück
*
* @deprecated use Object.keys instead!
*/
function keys(object: Record<string, any>): Array<string>;
/**
* gibt eine Liste von Werten eines Objekts zurück
*
* @deprecated use Object.values instead!
*/
function values<type_value>(object: Record<string, type_value>): Array<type_value>;
/**
* liest ein Baum-artiges Objekt an einer bestimmten Stelle aus
*/
function path_read<type_value>(object: Object, path: string, options?: {
fallback?: type_value;
escalate?: boolean;
}): type_value;
/**
* schreibt einen Wert an eine bestimmte Stelle in einem Baum-artigen Objekt
*/
function path_write<type_value>(object: Object, path: string, value: type_value, construct?: boolean): void;
/**
* prüft ob ein Objekt einem bestimmten Muster entspricht
*
* @deprecated not very useful
*/
function matches<type_value_object, type_value_pattern>(object: Record<string, type_value_object>, pattern: Record<string, type_value_pattern>, options?: {
collate?: ((value_pattern: type_value_pattern, value_object: type_value_object) => boolean);
}): boolean;
/**
* erzeugt eine Projektion eines Baum-artigen Objekts in ein Listen-artiges Objekt
*/
function flatten(value: any, options?: {
separator?: string;
key_for_array_element?: ((index: int) => string);
}): Record<string, any>;
/**
* @deprecated use Object.assign instead!
*/
function clash(x: Record<string, any>, y: Record<string, any>, options?: {
overwrite?: boolean;
hooks?: {
existing?: ((key?: string, value_old?: any, value_new?: any) => void);
};
}): Record<string, any>;
/**
* @deprecated use Object.assign instead!
*/
function patch(core: (null | Record<string, any>), mantle: (null | Record<string, any>), options?: {
deep?: boolean;
path?: (null | string);
}): void;
/**
* @deprecated use Object.assign instead!
*/
function patched(core: Record<string, any>, mantle: Record<string, any>, options?: {
deep?: boolean;
}): Record<string, any>;
/**
* @deprecated use Object.assign instead!
*/
function attached(object: Record<string, any>, key: string, value: any): Record<string, any>;
/**
* @author fenris
*/
function copy(object: Record<string, any>): Record<string, any>;
}
declare namespace lib_plankton.pair {
/**
*/
type type_pair<type_first, type_second> = {
first: type_first;
second: type_second;
};
}
declare namespace lib_plankton.pair {
/**
*/
function swap<type_first, type_second>(pair: type_pair<type_first, type_second>): type_pair<type_second, type_first>;
/**
*/
function show<type_first, type_second>(pair: type_pair<type_first, type_second>, options?: {
show_first?: ((first: type_first) => string);
show_second?: ((second: type_second) => string);
}): string;
}
declare namespace lib_plankton.list {
/**
*/
type type_separation<type_element> = {
yes: Array<type_element>;
no: Array<type_element>;
};
/**
*/
type type_result_max<type_element, type_value> = (null | {
index: int;
element: type_element;
value: type_value;
});
}
declare namespace lib_plankton.list {
/**
* returns a certain list of integer numbers
*/
function range(from: int, to: int, options?: {
step?: int;
}): Array<int>;
/**
* returns a certain list of consecutiv integer numbers, beginning with 0
*/
function sequence(length: int): Array<int>;
/**
*/
function from_iterator<type_element>(iterator: Iterator<type_element>): Array<type_element>;
/**
*/
function is_empty<type_element>(list: Array<type_element>): boolean;
/**
* combines two lists into one
*
* @param {boolean} [options.cut] whether the result list will be as long as the shortest input list or an exception is thrown if they have different lengths; default: true
*/
function zip<type_element_first, type_element_second>(list_first: Array<type_element_first>, list_second: Array<type_element_second>, options?: {
cut?: boolean;
}): Array<lib_plankton.pair.type_pair<type_element_first, type_element_second>>;
/**
* checks whether two lists are equal
*
* @todo define common function "equals" and default predicate to
*/
function equals<type_element>(list1: Array<type_element>, list2: Array<type_element>, options?: {
collate_element?: ((element1: type_element, element2: type_element) => boolean);
}): boolean;
/**
* creates a list with the elements from the input list, which fulfil a certain predicate (~ filter)
*/
function keep<type_element>(list: Array<type_element>, predicate: ((element: type_element) => boolean)): Array<type_element>;
/**
* creates a list with the elements from the input list, which do not fulfil a certain predicate (~ dual filter)
*/
function drop<type_element>(list: Array<type_element>, predicate: ((element: type_element) => boolean)): Array<type_element>;
/**
*/
function filter_inplace<type_element>(list: Array<type_element>, predicate: ((element: type_element) => boolean)): void;
/**
* returns a list with no duplicates (like unix' "unique")
*/
function cleaned<type_element>(list: Array<type_element>, options?: {
collate_element?: ((x: type_element, y: type_element) => boolean);
}): Array<type_element>;
/**
* creates a binary partition of the list according to a given predicate
*/
function separate<type_element>(list: Array<type_element>, predicate: ((element: type_element) => boolean)): type_separation<type_element>;
/**
*/
function clone<type_element>(list: Array<type_element>): Array<type_element>;
/**
*/
function reversed<type_element>(list: Array<type_element>): Array<type_element>;
/**
* @todo use Array.toSorted?
*/
function sorted<type_element>(list: Array<type_element>, options: {
compare_element?: ((element1: type_element, element2: type_element) => boolean);
}): Array<type_element>;
/**
* die Liste in gleich große Blöcke zerlegen
*/
function chop<type_element>(list: Array<type_element>, chunk_size: int): Array<Array<type_element>>;
/**
*/
function group<type_element>(list: Array<type_element>, collate_element: ((x: type_element, y: type_element) => boolean)): Array<Array<type_element>>;
/**
*/
function has<type_element>(list: Array<type_element>, predicate: ((element: type_element) => boolean)): boolean;
/**
* @deprecate use Array.includes or Array.some
*/
function contains<type_element>(list: Array<type_element>, element: type_element, options: {
collate_element?: ((element1: type_element, element2: type_element) => boolean);
}): boolean;
/**
* retrieves the element and its index of the list, which has the maximum value
*/
function max<type_element, type_value>(list: Array<type_element>, target_function: ((element: type_element) => type_value), options: {
compare_value: ((value1: type_value, value2: type_value) => boolean);
}): type_result_max<type_element, type_value>;
/**
* retrieves the element and its index of the list, which has the mininum value
*/
function min<type_element, type_value>(list: Array<type_element>, target_function: (element: type_element) => type_value, options: {
compare_value: ((value1: type_value, value2: type_value) => boolean);
}): type_result_max<type_element, type_value>;
/**
* implements the idea of arithmetic distribution like in "(a+b)·(c+d) = (a·c)+(a·d)+(b·c)+(b·d)"
* example: distribute([[1,2],[3],[4,5,6]]) = [[1,3,4],[1,3,5],[1,3,6],[2,3,4],[2,3,5],[2,3,6]]
*/
function distribute<type_element>(lists: Array<Array<type_element>>): Array<Array<type_element>>;
/**
*/
function contrast<type_left, type_right>(list_left: Array<type_left>, extract_key_left: ((left: type_left) => string), list_right: Array<type_right>, extract_key_right: ((right: type_right) => string)): {
both: Array<{
key: string;
left: type_left;
right: type_right;
}>;
only_left: Array<{
key: string;
left: type_left;
}>;
only_right: Array<{
key: string;
right: type_right;
}>;
};
}
declare namespace lib_plankton.conf {
/**
*/
type type_schema = ({
enum?: Array<any>;
default?: any;
description?: string;
} | {
type: "null";
description?: string;
} | {
type: "boolean";
nullable?: boolean;
enum?: Array<boolean>;
default?: boolean;
description?: string;
} | {
type: "integer";
nullable?: boolean;
enum?: Array<int>;
default?: int;
description?: string;
} | {
type: "number";
nullable?: boolean;
enum?: Array<number>;
default?: number;
description?: string;
} | {
type: "string";
nullable?: boolean;
enum?: Array<string>;
default?: string;
description?: string;
} | {
type: "array";
nullable?: boolean;
items: type_schema;
enum?: Array<Array<any>>;
default?: Array<any>;
description?: string;
} | {
type: "object";
nullable?: boolean;
properties?: Record<string, type_schema>;
required?: Array<string>;
additionalProperties?: (false | type_schema);
enum?: Array<Record<string, any>>;
default?: Record<string, any>;
description?: string;
} | {
anyOf: Array<type_schema>;
default?: any;
} | {
allOf: Array<type_schema>;
} | {
oneOf: Array<type_schema>;
} | {
not: type_schema;
});
/**
*/
type type_report = {
incident: string;
details: Record<string, any>;
};
/**
*/
type type_adaption<type_result> = {
reports: Array<type_report>;
result: lib_plankton.pod.type_pod<type_result>;
};
}
declare namespace lib_plankton.conf {
/**
* @todo versioning
*/
function refine<type_result>(schema: type_schema, value_raw: any): type_result;
/**
*/
function load(schema: type_schema, path: (null | string)): Promise<void>;
}
declare var plain_text_to_html: (text: string) => string;
/**
* @desc makes a valid
*/
declare var format_sentence: (str: string, rtl?: boolean, caseSense?: boolean) => string;
declare var fill_string_template: (template_string: string, object: any, fabric: Function, delimiter: string, default_string: string, sloppy: boolean) => string;
declare var make_string_template: (_template: string, _fabrics?: Object) => (object: {
[key: string]: string;
}) => string;
declare var make_eml_header: (object: {
[key: string]: string;
}) => string;
declare var make_eml_body: Object;
declare namespace lib_plankton.string {
/**
* @author neuc,frac
*/
function empty(str: string): boolean;
/**
* @desc returns a unique string
* @param {string} prefix an optional prefix for the generated string
* @return {string}
* @author fenris
*/
function generate(prefix?: string): string;
/**
* @author fenris
*/
function join(parts: Array<string>, glue?: string): string;
/**
* @desc splits a string, but returns an empty list, if the string is empty
* @param {string} chain
* @param {string} separator
* @return {Array<string>}
* @author fenris
*/
function split(chain: string, separator?: string): Array<string>;
/**
* @author neu3no
*/
function explode(str: string, needle: string, max: int): Array<string>;
/**
* @desc concats a given word with itself n times
* @param {string} word
* @param {int}
* @return {string}
* @author fenris
*/
function repeat(word: string, count: int): string;
/**
* @desc lengthens a string by repeatedly appending or prepending another string
* @param {string} word the string to pad
* @param {int} length the length, which the result shall have
* @param {string} symbol the string, which will be added (multiple times)
* @param {boolean} [prepend]; whether to prepend (~true) or append (~false); default: false
* @return {string} the padded string
* @author fenris
*/
function pad(word: string, length: int, symbol?: string, mode?: string): string;
/**
* @desc checks if a given string conttains a certain substring
* @param {string} string
* @param {string} part
* @return {boolean}
* @author fenris
*/
function contains(chain: string, part: string): boolean;
/**
* @desc checks if a given string starts with a certain substring
* @param {string} string
* @param {string} part
* @return {boolean}
* @author fenris
*/
function startsWith(chain: string, part: string): boolean;
/**
* @desc checks if a given string ends with a certain substring
* @param {string} string
* @param {string} part
* @return {boolean}
* @author fenris
*/
function endsWith(chain: string, part: string): boolean;
/**
* @desc count the occourrences of a string in a string
* @param string haystack_string the string wich should be examined
* @param string needle_string the string which should be counted
* @author neuc
*/
function count_occourrences(haystack_string: string, needle_string: string, check_escape: boolean): int;
/**
* @author fenris
*/
function replace(str: string, replacements: Array<{
from: string;
to: string;
}>, options?: {}): string;
/**
* @desc replaces occurences of "{{name}}" in a string by the corresponding values of an argument object
* @author fenris
*/
function coin(str: string, args: {
[id: string]: string;
}, options?: {
legacy?: boolean;
open?: string;
close?: string;
}): string;
/**
* @author fenris
* @deprecated use limit
*/
function cut(str: string, length: int, delimiter?: string): string;
/**
*/
function limit(str: string, options?: {
length?: int;
indicator?: string;
}): string;
/**
*/
function slice(str: string, size: int): Array<string>;
}
/**
* @deprecated
*/
declare namespace lib_string {
const empty: typeof lib_plankton.string.empty;
const generate: typeof lib_plankton.string.generate;
const split: typeof lib_plankton.string.split;
const explode: typeof lib_plankton.string.repeat;
const repeat: typeof lib_plankton.string.repeat;
const pad: typeof lib_plankton.string.pad;
const contains: typeof lib_plankton.string.contains;
const startsWith: typeof lib_plankton.string.startsWith;
const endsWith: typeof lib_plankton.string.endsWith;
const count_occourrences: typeof lib_plankton.string.count_occourrences;
const coin: typeof lib_plankton.string.coin;
const stance: typeof lib_plankton.string.coin;
const cut: typeof lib_plankton.string.cut;
}
declare namespace lib_plankton.string {
/**
* an implementation of c sprintf
* @param {string} string format string
* @param {array} args arguments which should be filled into
* @returns {string}
*/
var sprintf: (input: string, args?: Array<any>, original?: any) => string;
/**
* an implementation of c printf
* @param {string} string format string
* @param {array} args arguments which should be filled into
* @returns {string}
*/
function printf(format: any, args: any): void;
}
declare var sprintf: (input: string, args?: Array<any>, original?: any) => string;
declare var printf: typeof lib_plankton.string.printf;
declare var eml_log: any;
declare var track_exports: any;
declare var make_logger: (prefix: any, current_loglevel: any) => (obj: any, lvl: any) => void;
declare namespace lib_plankton.database {
/**
*/
type type_query = {
template: string;
arguments: Record<string, any>;
};
/**
*/
enum enum_type {
boolean = "boolean",
integer = "integer",
string_short = "string_short",
string_medium = "string_medium",
string_long = "string_long",
float = "float"
}
/**
*/
type type_description_create_table = {
name: string;
key_field?: (null | {
name: string;
type?: enum_type;
comment?: (null | string);
auto_increment?: (null | boolean);
description?: (null | string);
});
data_fields?: Array<{
name: string;
nullable?: boolean;
type: enum_type;
default?: any;
description?: (null | string);
}>;
constraints?: Array<{
kind: string;
parameters?: Record<string, any>;
}>;
description?: (null | string);
};
/**
*/
type type_description_insert = {
table_name: string;
values: Record<string, any>;
returning?: (null | string);
};
/**
*/
type type_description_update = {
table_name: string;
values: Record<string, any>;
condition?: (null | string);
arguments?: (null | Record<string, any>);
};
/**
*/
type type_description_delete = {
table_name: string;
condition?: (null | string);
arguments?: (null | Record<string, any>);
};
/**
*/
type type_description_select = {
source: string;
fields?: (null | Array<string>);
condition?: (null | string);
group_by?: (null | string);
having?: (null | string);
order_by?: (null | string);
limit?: (null | int);
arguments?: (null | Record<string, any>);
};
/**
* rows
*/
type type_result_get = Array<Record<string, any>>;
/**
* auto insert id
*/
type type_result_put = (null | int);
/**
* number of affected rows
*/
type type_result_set = int;
/**
* @author fenris
*/
type type_database = {
wrap_name: ((name: string) => string);
query_free_get: ((query: type_query) => Promise<type_result_get>);
query_free_put: ((query: type_query) => Promise<type_result_put>);
query_free_set: ((query: type_query) => Promise<type_result_set>);
query_create_table: ((description_create_table: type_description_create_table) => Promise<void>);
query_insert: ((description_insert: type_description_insert) => Promise<type_result_put>);
query_update: ((description_update: type_description_update) => Promise<type_result_set>);
query_delete: ((description_delete: type_description_delete) => Promise<type_result_set>);
query_select: ((description_select: type_description_select) => Promise<type_result_get>);
};
/**
*/
type interface_database = database.type_database;
}
declare namespace lib_plankton.storage {
/**
* implements the idea of a database, which houses datasets (type_value) and manages their access by ids or sth. similar (type_key)
*
* @author fenris
*/
type type_store<type_key, type_value, type_setup_input, type_searchterm, type_preview> = {
/**
* shall prepare the storage instance for use
*
* @author fenris
*/
setup(input: type_setup_input): Promise<void>;
/**
* shall insert a new dataset and return its automatically assign key
*
* @author fenris
*/
create(value: type_value): Promise<type_key>;
/**
* shall modify an existing dataset
*
* @author fenris
*/
update(key: type_key, value: type_value): Promise<void>;
/**
* shall remove an existing dataset
*
* @author fenris
*/
delete(key: type_key): Promise<void>;
/**
* shall get an existing dataset by its key
*
* @author fenris
*/
read(key: type_key): Promise<type_value>;
/**
* shall list keys and previews of existing datasets, which match a certain search term
*
* @author fenris
*/
search(term?: (null | type_searchterm)): Promise<Array<{
key: type_key;
preview: type_preview;
}>>;
};
/**
* for class wrappers
*/
type interface_store<type_key, type_value, type_setup_input, type_searchterm, type_preview> = type_store<type_key, type_value, type_setup_input, type_searchterm, type_preview>;
}
declare namespace lib_plankton.storage {
/**
* implements the idea of a storage without managed keys
*
* @author fenris
*/
type type_chest<type_key, type_value, type_setup_input, type_searchterm, type_preview> = {
/**
* shall prepare the storage instance for use
*
* @author fenris
*/
setup(input: type_setup_input): Promise<void>;
/**
* shall remove all items
*/
clear(): Promise<void>;
/**
* shall insert a new or modify an existing dataset and return whether it is new
*
* @author fenris
*/
write(key: type_key, value: type_value): Promise<boolean>;
/**
* shall remove an existing dataset
*
* @author fenris
*/
delete(key: type_key): Promise<void>;
/**
* shall get an existing dataset by its key
*
* @author fenris
*/
read(key: type_key): Promise<type_value>;
/**
* shall list keys and previews of existing datasets, which match a certain search term
*
* @author fenris
*/
search(term?: (null | type_searchterm)): Promise<Array<{
key: type_key;
preview: type_preview;
}>>;
};
/**
* for class wrappers
*/
type interface_chest<type_key, type_value, type_setup_input, type_searchterm, type_preview> = type_chest<type_key, type_value, type_setup_input, type_searchterm, type_preview>;
}
declare namespace lib_plankton.storage.memory {
/**
* @author fenris
*/
type type_subject<type_value> = {
data: Record<string, type_value>;
};
/**
*/
type type_parameters<type_value> = {};
/**
* @author fenris
*/
function make<type_value>(parameters: type_parameters<type_value>): type_subject<type_value>;
/**
* @author fenris
*/
function clear<type_value>(subject: type_subject<type_value>): void;
/**
* @author fenris
*/
function write<type_value>(subject: type_subject<type_value>, key: string, value: type_value): boolean;
/**
* @author fenris
*/
function delete_<type_value>(subject: type_subject<type_value>, key: string): void;
/**
* @author fenris
*/
function read<type_value>(subject: type_subject<type_value>, key: string): type_value;
/**
* @author fenris
*/
function list<type_value>(subject: type_subject<type_value>): Array<string>;
/**
* @author fenris
*/
function search<type_value>(subject: type_subject<type_value>, term: (null | string)): Array<{
key: string;
preview: string;
}>;
/**
* @author fenris
*/
function implementation_chest<type_value>(parameters: type_parameters<type_value>): type_chest<string, type_value, void, string, string>;
}
declare namespace lib_plankton.storage.memory {
/**
* @author fenris
*/
class class_chest<type_item> implements type_chest<string, type_item, void, string, string> {
private subject;
constructor(parameters: type_parameters<type_item>);
setup(input: any): Promise<void>;
clear(): Promise<void>;
write(key: any, value: any): Promise<boolean>;
delete(key: any): Promise<void>;
read(key: any): Promise<Awaited<type_item>>;
search(term: any): Promise<{
key: string;
preview: string;
}[]>;
}
}
declare namespace lib_plankton.storage.localstorage {
/**
* @author fenris
*/
type type_subject = {
corner: string;
};
/**
* @author fenris
*/
type type_parameters = {
corner?: string;
};
/**
* @author fenris
*/
function make(parameters: type_parameters): type_subject;
/**
* @author fenris
*/
function clear(subject: type_subject): void;
/**
* @author fenris
*/
function write(subject: type_subject, key: string, item: string): boolean;
/**
* @author fenris
*/
function delete_(subject: type_subject, key: string): void;
/**
* @author fenris
*/
function read(subject: type_subject, key: string): string;
/**
* @author fenris
*/
function list(subject: type_subject): Array<string>;
/**
*/
function implementation_chest(parameters: type_parameters): type_chest<string, string, void, string, string>;
}
declare namespace lib_plankton.storage.localstorage {
/**
* uses the browsers localstorage as chest
*
* @author fenris
*/
class class_chest implements type_chest<string, string, string, string, any> {
private subject;
constructor(parameters: type_parameters);
setup(input: any): Promise<void>;
clear(): Promise<void>;
write(key: any, value: any): Promise<boolean>;
delete(key: any): Promise<void>;
read(key: any): Promise<string>;
search(term: any): Promise<{
key: string;
preview: string;
}[]>;
}
}
declare namespace lib_plankton.map {
/**
*/
type type_pair<type_key, type_value> = {
key: type_key;
value: type_value;
};
/**
* @author fenris
*/
type type_map<type_key, type_value> = {
size: (() => int);
has: ((key: type_key) => boolean);
get: ((key: type_key, fallback?: lib_plankton.pod.type_pod<type_value>) => type_value);
set: ((key: type_key, value: type_value) => void);
delete: ((key: type_key) => void);
iterate: ((procedure: ((value: type_value, key?: type_key) => void)) => void);
};
}
declare namespace lib_plankton.map {
/**
*/
function clear<type_key, type_value>(map: type_map<type_key, type_value>): void;
/**
*/
function keys<type_key, type_value>(map: type_map<type_key, type_value>): Array<type_key>;
/**
*/
function values<type_key, type_value>(map: type_map<type_key, type_value>): Array<type_value>;
/**
*/
function dump<type_key, type_value>(map: type_map<type_key, type_value>): Array<type_pair<type_key, type_value>>;
/**
*/
function show<type_key, type_value>(map: type_map<type_key, type_value>, options?: {
show_key?: ((key: type_key) => string);
show_value?: ((value: type_value) => string);
}): string;
}
declare namespace lib_plankton.map.simplemap {
/**
*/
type type_subject<type_value> = {
data: Record<string, type_value>;
};
/**
*/
function make<type_value>(options?: {
data?: Record<string, type_value>;
}): type_subject<type_value>;
/**
*/
function size<type_value>(subject: type_subject<type_value>): int;
/**
*/
function has<type_value>(subject: type_subject<type_value>, key: string): boolean;
/**
*/
function get_safe<type_value>(subject: type_subject<type_value>, key: string): lib_plankton.pod.type_pod<type_value>;
/**
*/
function get<type_value>(subject: type_subject<type_value>, key: string, fallback?: lib_plankton.pod.type_pod<type_value>): type_value;
/**
*/
function set<type_value>(subject: type_subject<type_value>, key: string, value: type_value): void;
/**
*/
function delete_<type_value>(subject: type_subject<type_value>, key: string): void;
/**
*/
function iterate<type_value>(subject: type_subject<type_value>, procedure: ((value?: type_value, key?: string) => void)): void;
/**
*/
function implementation_map<type_value>(subject: type_subject<type_value>): type_map<string, type_value>;
}
declare namespace lib_plankton.map.hashmap {
/**
* we base the hashmap on a simplemap, whos keys are the hashes and whos values are the key/value-pairs
*/
type type_subject<type_key, type_value> = {
hashing: ((key: type_key) => string);
core: lib_plankton.map.simplemap.type_subject<type_pair<type_key, type_value>>;
};
/**
*/
function make<type_key, type_value>(hashing: ((key: type_key) => string), options?: {
pairs?: Array<type_pair<type_key, type_value>>;
}): type_subject<type_key, type_value>;
/**
*/
function size<type_key, type_value>(subject: type_subject<type_key, type_value>): int;
/**
*/
function has<type_key, type_value>(subject: type_subject<type_key, type_value>, key: type_key): boolean;
/**
*/
function get<type_key, type_value>(subject: type_subject<type_key, type_value>, key: type_key, fallback?: lib_plankton.pod.type_pod<type_value>): type_value;
/**
*/
function set<type_key, type_value>(subject: type_subject<type_key, type_value>, key: type_key, value: type_value): void;
/**
*/
function delete_<type_key, type_value>(subject: type_subject<type_key, type_value>, key: type_key): void;
/**
*/
function iterate<type_key, type_value>(subject: type_subject<type_key, type_value>, procedure: ((value?: type_value, key?: type_key) => void)): void;
/**
*/
function implementation_map<type_key, type_value>(subject: type_subject<type_key, type_value>): type_map<type_key, type_value>;
}
declare namespace lib_plankton.map.collatemap {
/**
*/
type type_collation<type_key> = ((key1: type_key, key2: type_key) => boolean);
/**
*/
export type type_subject<type_key, type_value> = {
collation: type_collation<type_key>;
pairs: Array<type_pair<type_key, type_value>>;
};
/**
*/
export function make<type_key, type_value>(collation: type_collation<type_key>, options?: {
pairs?: Array<type_pair<type_key, type_value>>;
}): type_subject<type_key, type_value>;
/**
*/
export function size<type_key, type_value>(subject: type_subject<type_key, type_value>): int;
/**
*/
export function has<type_key, type_value>(subject: type_subject<type_key, type_value>, key: type_key): boolean;
/**
* @todo use .find
*/
export function get<type_key, type_value>(subject: type_subject<type_key, type_value>, key: type_key, fallback?: lib_plankton.pod.type_pod<type_value>): type_value;
/**
*/
export function set<type_key, type_value>(subject: type_subject<type_key, type_value>, key: type_key, value: type_value): void;
/**
*/
export function delete_<type_key, type_value>(subject: type_subject<type_key, type_value>, key: type_key): void;
/**
*/
export function iterate<type_key, type_value>(subject: type_subject<type_key, type_value>, function_: ((value?: type_value, key?: type_key) => void)): void;
/**
*/
export function implementation_map<type_key, type_value>(subject: type_subject<type_key, type_value>): type_map<type_key, type_value>;
export {};
}
declare namespace lib_plankton.complex {
/**
* @author fenris
*/
type type_complex = {
rea: float;
ima: float;
};
/**
* erstellt eine komplexe Zahl anhand ihrer kartesianischen Koordinaten
*
* @author fenris
*/
function make_cartesian(rea_: float, ima_: float): type_complex;
/**
* erstellt eine komplexe Zahl anhand ihrer Polar-Koordinaten
*
* @author fenris
*/
function make_polar(abs: float, arg: float): type_complex;
/**
* alias zu "make_cartesian"
*
* @author fenris
*/
function make(rea_: float, ima_: float): type_complex;
/**
* erstellt die komplexe Null
*
* @author fenris
*/
function nul(): type_complex;
/**
* erstellt die komplexe Eins
*
* @author fenris
*/
function one(): type_complex;
/**
* gibt den Real-Teil einer komplexen Zahl zurück
*
* @author fenris
*/
function rea(x: type_complex): float;
/**
* gibt den Imaginär-Teil einer komplexen Zahl zurück
*
* @author fenris
*/
function ima(x: type_complex): float;
/**
* gibt die konjugierte komplexe Zahl zurück
*
* @author fenris
*/
function con(x: type_complex): type_complex;
/**
* gibt den Betrag einer komplexen Zahl zurück
*
* @author fenris
*/
function abs(x: type_complex): float;
/**
* gibt das Argument einer komplexen Zahl zurück (auf dem Hauptzweig des komplexen Logarithmus)
*
* @author fenris
*/
function arg(x: type_complex): float;
/**
* gibt eine skalierte komplexe Zahl zurück (das Produkt mit einer reellen Zahl)
*
* @author fenris
*/
function scl(x: type_complex, s: float): type_complex;
/**
* errechnet die Summe zweier komplexer Zahl
*
* @author fenris
*/
function add(x: type_complex, y: type_complex): type_complex;
/**
* gibt die additiv inverse, also negierte komplexe Zahl zurück
*
* @author fenris
*/
function neg(x: type_complex): type_complex;
/**
* ermittelt die Differenz zweier komplexer Zahlen
*
* @author fenris
*/
function sub(x: type_complex, y: type_complex): type_complex;
/**
* ermittelt das Produkt zweier komplexer Zahlen
*
* @author fenris
*/
function mul(x: type_complex, y: type_complex): type_complex;
/**
* ermittelt die multiplikativ inverse komplexe Zahl, also den Kehrwert
*
* @author fenris
*/
function inv(x: type_complex): type_complex;
/**
* ermittelt den Quotienten zweier komplexer Zahlen
*
* @author fenris
*/
function div(x: type_complex, y: type_complex): type_complex;
/**
* ermittelt die natürliche Potenz einer komplexen Zahl
*
* @author fenris
*/
function npow(x: type_complex, n: int): type_complex;
/**
* ermittelt die natürliche Potenz einer komplexen Zahl
*
* @author fenris
* @deprecated use "npow" instead
* @todo remove
*/
function exp(x: type_complex, n: int): type_complex;
/**
* ermittelt die Potenz zweier komplexer Zahlen
*
* @author fenris
* @todo Probleme der komplexen Exponentiation berücksichtigen
*/
function pow(x: type_complex, y: type_complex): type_complex;
/**
* gibt die n-ten komplexen Einheits-Wurzeln zurück ({x ∈ C | x^n = 1})
*
* @author fenris
*/
function unitroots(n: int): Array<type_complex>;
/**
* {x ∈ C | x^n = y}
*
* @author fenris
*/
function normroots(n: int, y: type_complex): Array<type_complex>;
/**
* ermittelt ob zwei komplexe Zahlen gleich sind
*
* @author fenris
*/
function equ(x: type_complex, y: type_complex, threshold?: float): boolean;
/**
* gibt eine textuelle Repräsentation einer komplexen Zahl zurück
*
* @author fenris
*/
function str(x: type_complex): string;
}
declare namespace lib_plankton.complex {
/**
* @author fenris
*/
class class_complex {
/**
* @author fenris
*/
private subject;
/**
* @author fenris
*/
private constructor();
/**
* @author fenris
*/
private static _cram;
/**
* @author fenris
*/
private static _tear;
/**
* @author fenris
*/
static make_cartesian(rea: float, ima: float): class_complex;
/**
* @author fenris
*/
static make_polar(abs: float, arg: float): class_complex;
/**
* @author fenris
*/
static make(rea: float, ima: float): class_complex;
/**
* @author fenris
*/
static nul(): class_complex;
/**
* @author fenris
*/
static one(): class_complex;
/**
* @author fenris
*/
con(): class_complex;
/**
* @author fenris
*/
abs(): float;
/**
* @author fenris
*/
arg(): float;
/**
* @author fenris
*/
scl(s: float): class_complex;
/**
* @author fenris
*/
add(other: class_complex): class_complex;
/**
* @author fenris
*/
neg(): class_complex;
/**
* @author fenris
*/
sub(other: class_complex): class_complex;
/**
* @author fenris
*/
mul(other: class_complex): class_complex;
/**
* @author fenris
*/
inv(): class_complex;
/**
* @author fenris
*/
div(other: class_complex): class_complex;
/**
* @author fenris
*/
exp(n: int): class_complex;
/**
* @author fenris
*/
pow(other: class_complex): class_complex;
/**
* @author fenris
*/
equ(other: class_complex): boolean;
/**
* @author fenris
*/
str(): string;
/**
* @author fenris
*/
toString(): string;
}
}
declare namespace lib_plankton.math {
/**
* @desc golden ratio (e.g. for generating colors)
* @author fenris
*/
const phi: float;
/**
* @author fenris
*/
const e: float;
/**
* @author fenris
*/
const pi: float;
/**
* @author fenris
*/
const tau: float;
}
declare namespace lib_plankton.math {
/**
* @author fenris
*/
function clamp(x: number, a?: number, b?: number): number;
/**
* @desc the mathematical sign-function
* @return {int} an element of {-1,0,+1}
* @author fenris
*/
function sgn(x: number): int;
/**
* @desc integer division
* @author fenris
*/
function div(x: float, y: float): float;
/**
* @desc real modulo operator
* @author fenris
*/
function mod(x: float, y: float): float;
/**
* @desc computes "x^y mod z" via square-and-multiply
* @param {int} base ("x")
* @param {int} exponent ("y")
* @param {int} modulus ("z")
* @return {int}
* @author fenris
* @todo handle invalid cases (e.g. "z < 1")
* @todo implement iteratively
*/
function modpow(base: int, exponent: int, modulus: int): int;
/**
* @desc determines if two integers are coprime, i.e. that they don't have a common divisor greater than 1
* @author fenris
* @todo write function "gcdx" and base on it
*/
function coprime(x: int, y: int): boolean;
/**
* @desc extended euclidean algorithm for computing multiplicative inverse elements
* @param {int} modulus
* @param {int} element
* @author fenris
* @todo write function "gcdx" and base on it
* @todo handle more invalid cases
*/
function inv(modulus: int, element: int, positive?: boolean): int;
/**
* @author fenris
*/
function interpolate_linear(x: number, y: number, t?: number): number;
/**
* @desc kind of the inverse of linear interpolation; i.e. to find the coefficient "t" for given values x, y and
* their presumed interpolation v
* @author fenris
*/
function appoint_linear(x: number, y: number, v: number): number;
/**
* continued fraction decomposition
*/
function cfd(x: float, n?: int): Array<int>;
}
declare namespace lib_plankton.math {
/**
* @author fenris
*/
type type_relationparameters<type_value> = {
symbol?: string;
name?: string;
predicate?: (value: type_value, reference: type_value) => boolean;
};
/**
* @author fenris
*/
class class_relation<type_value> implements interface_showable, interface_hashable, interface_collatable<class_relation<type_value>> {
/**
* @author fenris
*/
protected id: string;
/**
* @author fenris
*/
protected symbol: string;
/**
* @author fenris
*/
protected name: string;
/**
* @author fenris
*/
protected predicate: (value: type_value, reference: type_value) => boolean;
/**
* @author fenris
*/
check(value: type_value, reference: type_value): boolean;
/**
* @author fenris
*/
constructor(id: string, { "symbol": symbol, "name": name, "predicate": predicate, }: type_relationparameters<type_value>);
/**
* @author fenris
*/
id_get(): string;
/**
* @author fenris
*/
symbol_get(): string;
/**
* @author fenris
*/
name_get(): string;
/**
* @desc [accessor] [implementation]
* @author fenris
*/
_show(): string;
/**
* @desc [accessor] [implementation]
* @author fenris
*/
_hash(): string;
/**
* @desc [accessor] [implementation]
* @author fenris
*/
_collate(relation: class_relation<type_value>): boolean;
/**
* @author fenris
*/
toString(): string;
/**
* @author fenris
*/
protected static pool<type_value>(): {
[id: string]: type_relationparameters<type_value>;
};
/**
* @author fenris
*/
static get<type_value>(id: string): class_relation<type_value>;
/**
* @author fenris
*/
static available(): Array<string>;
}
/**
* @author fenris
*/
class class_filtrationitem<type_value> implements interface_showable {
/**
* @author fenris
*/
protected extract: (dataset: Object) => type_value;
/**
* @author fenris
*/
protected relation: class_relation<type_value>;
/**
* @author fenris
*/
protected reference: type_value;
/**
* @author fenris
*/
constructor({ "extract": extract, "relation": relation, "reference": reference, }: {
extract: (dataset: Object) => type_value;
relation: class_relation<type_value>;
reference: type_value;
});
/**
* @author fenris
*/
check(dataset: Object): boolean;
/**
* @desc [implementation]
* @author fenris
*/
_show(): string;
/**
* @author fenris
*/
toString(): string;
}
/**
* @desc disjunctive normal form
* @author fenris
*/
class class_filtration implements interface_showable {
/**
* @author fenris
*/
protected clauses: Array<Array<class_filtrationitem<any>>>;
/**
* @author fenris
*/
constructor(clauses: Array<Array<class_filtrationitem<any>>>);
/**
* @author fenris
*/
check(dataset: Object): boolean;
/**
* @author fenris
*/
use(datasets: Array<Object>): Array<Object>;
/**
* @desc [implementation]
* @author fenris
*/
_show(): string;
/**
* @author fenris
*/
toString(): string;
}
/**
* @author fenris
* @deprecated
*/
function comparator_to_relation<type_value>(comparator: (x: type_value, y: type_value) => int): (x: type_value, y: type_value) => boolean;
/**
* @author fenris
* @deprecated
*/
function relation_to_comparator<type_value>(relation: (x: type_value, y: type_value) => boolean): (x: type_value, y: type_value) => int;
}
declare module lib_calculus {
/**
* @class Calculus
* @desc Ensure precision of mathematical operations
*/
class Calculus {
/** @desc only for typescript
*/
private NORM;
/**
* @constructor
* @þaram {number} norm
*/
constructor(norm?: number);
/**
* normalize
* @param {number} value
* @return {number}
*/
normalize(value: number): number;
/**
* denormalize
* @param {number} value
* @return {number}
*/
denormalize(value: number): number;
}
}
declare namespace lib_plankton.math {
/**
* {x ∈ C | 0 = ax³ + bx² + cx + d}
*
* @author fenris
*/
function cubic_solve(a: lib_plankton.complex.type_complex, b: lib_plankton.complex.type_complex, c: lib_plankton.complex.type_complex, d: lib_plankton.complex.type_complex): Array<lib_plankton.complex.type_complex>;
/**
* {x ∈ C | 0 = ax³ + bx² + cx + d}
*
* @author fenris
*/
function cubic_solve_real(a: float, b: float, c: float, d: float): Array<lib_plankton.complex.type_complex>;
}
declare namespace lib_plankton.color {
/**
* @author fenris
*/
type type_model_hsv = {
hue: float;
saturation: float;
value: float;
};
/**
* @author fenris
*/
type type_model_hsl = {
hue: float;
saturation: float;
lightness: float;
};
/**
* @author fenris
*/
type type_model_rgb = {
red: float;
green: float;
blue: float;
};
/**
* @author fenris
*/
type type_color = {
model: type_model_rgb;
};
}
declare namespace lib_plankton.color {
/**
*/
function make_hsv({ "hue": hue, "saturation": saturation, "value": value }: {
hue?: float;
saturation?: float;
value?: float;
}): type_color;
/**
*/
function make_hsl(model_hsl: type_model_hsl): type_color;
/**
*/
function make_rgb(model_rgb: type_model_rgb): type_color;
/**
*/
function to_hsv(color: type_color): type_model_hsv;
/**
*/
function to_hsl(color: type_color): type_model_hsl;
/**
*/
function to_rgb(color: type_color): type_model_rgb;
/**
*/
function to_cmyk(color: type_color): type_model_rgb;
/**
*/
function add(color1: type_color, color2: type_color): type_color;
/**
*/
function multiply(color1: type_color, color2: type_color): type_color;
/**
* @todo blend through other model?
*/
function blend(color1: type_color, color2: type_color, strength?: float): type_color;
/**
*/
function mix(color1: type_color, color2: type_color, { "strength1": option_strength1, "strength2": option_strength2, }?: {
strength1?: float;
strength2?: float;
}): type_color;
/**
*/
function output_rgb(color: type_color): string;
/**
*/
function output_hex(color: type_color): string;
/**
*/
function output_dot(color: type_color): string;
/**
*/
function give_generic(n: int, { "offset": option_offset, "saturation": option_saturation, "value": option_value, }: {
offset?: float;
saturation?: float;
value?: float;
}): type_color;
/**
*/
function give_gray({ "value": option_value, }: {
value?: float;
}): type_color;
/**
*/
function give_black(): type_color;
/**
*/
function give_white(): type_color;
/**
*/
function give_red({ "saturation": option_saturation, "value": option_value, }?: {
saturation?: float;
value?: float;
}): type_color;
/**
*/
function give_green({ "saturation": option_saturation, "value": option_value, }?: {
saturation?: float;
value?: float;
}): type_color;
/**
*/
function give_blue({ "saturation": option_saturation, "value": option_value, }?: {
saturation?: float;
value?: float;
}): type_color;
/**
*/
function give_yellow({ "saturation": option_saturation, "value": option_value, }?: {
saturation?: float;
value?: float;
}): type_color;
/**
*/
function give_cyan({ "saturation": option_saturation, "value": option_value, }?: {
saturation?: float;
value?: float;
}): type_color;
/**
*/
function give_magenta({ "saturation": option_saturation, "value": option_value, }?: {
saturation?: float;
value?: float;
}): type_color;
}
/**
* @author fenris
*/
declare namespace lib_plankton.xml {
/**
* @author fenris
*/
abstract class class_node {
/**
* @author fenris
*/
abstract compile(depth?: int): string;
}
/**
* @author fenris
*/
class class_node_text extends class_node {
/**
* @author fenris
*/
protected content: string;
/**
* @author fenris
*/
constructor(content: string);
/**
* @author fenris
*/
compile(depth?: int): string;
}
/**
* @author fenris
*/
class class_node_comment extends class_node {
/**
* @author fenris
*/
protected content: string;
/**
* @author fenris
*/
constructor(content: string);
/**
* @author fenris
*/
compile(depth?: int): string;
}
/**
* @author fenris
*/
class class_node_complex extends class_node {
/**
* @author fenris
*/
protected name: string;
/**
* @author fenris
*/
protected attributes: {
[key: string]: string;
};
/**
* @author fenris
*/
protected children: Array<class_node>;
/**
* @author fenris
*/
constructor(name: string, attributes?: {
[key: string]: string;
}, children?: any[]);
/**
* @author fenris
*/
compile(depth?: int): string;
}
}
declare namespace lib_plankton.http {
/**
* @author fenris <frass@greenscale.de>
*/
enum enum_method {
options = "options",
head = "head",
get = "get",
delete = "delete",
post = "post",
put = "put",
patch = "patch"
}
/**
* @author fenris <frass@greenscale.de>
*/
type type_request = {
scheme: ("http" | "https");
host: (null | string);
path: string;
version: string;
method: enum_method;
query: (null | string);
headers: Record<string, string>;
body: (null | Buffer);
};
/**
* @author fenris <frass@greenscale.de>
*/
type type_response = {
version: (null | string);
status_code: int;
headers: Record<string, string>;
body: Buffer;
};
}
declare namespace lib_plankton.http {
/**
* @author fenris <frass@greenscale.de>
*/
function encode_method(method: enum_method): string;
/**
* @author fenris <frass@greenscale.de>
*/
function encode_request(request: type_request): string;
/**
* @author fenris <frass@greenscale.de>
*/
function decode_request(request_raw: string): type_request;
/**
* @author fenris <frass@greenscale.de>
*/
function encode_response(response: type_response): string;
/**
* @author fenris <frass@greenscale.de>
*/
function decode_response(response_raw: string): type_response;
/**
* executes an HTTP request
*
* @todo define type_signal
*/
function call(request: type_request, options?: {
timeout?: (null | float);
follow_redirects?: boolean;
implementation?: ("fetch" | "http_module");
}): Promise<type_response>;
}
declare namespace lib_plankton.http {
/**
* @author fenris
*/
class class_http_request implements lib_plankton.code.interface_code<type_request, string> {
/**
* @author fenris
*/
constructor();
/**
* @implementation
* @author fenris
*/
encode(x: type_request): string;
/**
* @implementation
* @author fenris
*/
decode(x: string): type_request;
}
/**
* @author fenris
*/
class class_http_response implements lib_plankton.code.interface_code<type_response, string> {
/**
* @author fenris
*/
constructor();
/**
* @implementation
* @author fenris
*/
encode(x: type_response): string;
/**
* @implementation
* @author fenris
*/
decode(x: string): type_response;
}
}
declare namespace lib_plankton.url {
/**
* @author fenris
*/
type type_url = {
scheme: (null | string);
host: (null | string);
username: (null | string);
password: (null | string);
port: (null | int);
path: (null | string);
query: (null | string);
hash: (null | string);
};
}
declare namespace lib_plankton.url {
/**
* @author fenris
*/
function encode(url: type_url): string;
/**
* @author fenris
* @todo arguments
*/
function decode(url_raw: string): type_url;
/**
* @author fenris
*/
function implementation_code(): lib_plankton.code.type_code<type_url, string>;
}
declare namespace lib_plankton.url {
/**
* @author fenris
*/
class class_url implements lib_plankton.code.interface_code<type_url, string> {
/**
* @author fenris
*/
constructor();
/**
* @implementation
* @author fenris
*/
encode(x: any): string;
/**
* @implementation
* @author fenris
*/
decode(x: string): any;
}
}
declare namespace lib_plankton.www_form {
/**
*/
type type_source = Record<string, string>;
/**
*/
type type_target = string;
/**
* @author fenris
*/
function encode(source: type_source): type_target;
/**
* @author fenris
*/
function decode(target: type_target): type_source;
}
declare namespace lib_plankton.www_form {
/**
* @author fenris
*/
class class_www_form implements lib_plankton.code.interface_code<type_source, type_target> {
/**
* @author fenris
*/
constructor();
/**
* @implementation
* @author fenris
*/
encode(source: type_source): type_target;
/**
* @implementation
* @author fenris
*/
decode(target: type_target): type_source;
}
}
declare namespace lib_plankton.translate {
/**
* @author fenris
*/
type type_package_meta = {
identifier: string;
name?: string;
};
/**
* @author fenris
*/
type type_package = {
meta: type_package_meta;
tree: {
[id: string]: string;
};
};
/**
* @desc the level of verbosity, specifiying how much output the system shall provide about its actions
* @author fenris
*/
var _verbosity: int;
/**
* @desc moves a language to the top of the order, making it the primary one
* @author fenris
*/
function promote(identifier: string): void;
/**
* @desc adds a package to the sytem
* @author fenris
*/
function add(package_: type_package): void;
/**
* @desc integrates a package to the system, i.e. creates a new one if none existed so far or merges with an existing one
* @author fenris
*/
function feed(package_: type_package): void;
/**
* @desc tries to retrieve a translation for a specific package identifier
* @author fenris
*/
function fetch(identifier: string, path: string, args?: {
[id: string]: string;
}): lib_plankton.pod.type_pod<string>;
/**
* @desc retrieves a string by going through the order and trying to fetch it for the current entry
* @author fenris
*/
function get(path: string, args?: {
[id: string]: string;
}, fallback?: string): string;
/**
* @author fenris
*/
function list(): Array<type_package_meta>;
/**
* @author fenris
* @todo get rid of this; it's currenly needed only for the cdh-internal lib_completion
*/
function paths(): Array<string>;
/**
* @author fenris
*/
function initialize({ "logprefix": logprefix, "verbosity": verbosity, "packages": packages, "order": order, "autopromote": autopromote, }?: {
logprefix?: string;
verbosity?: int;
packages?: Array<type_package>;
order?: Array<string>;
autopromote?: boolean;
}): Promise<void>;
}
declare namespace lib_plankton.translate {
/**
* @author fenris
*/
function iso_639_1_to_iso_639_2(iso6391: string): string;
/**
* @author fenris
*/
function stance(str: string): string;
}
declare namespace lib_plankton.zoo_page {
/**
*/
export type type_location = {
name: string;
parameters: Record<string, any>;
};
/**
*/
type type_handler = ((parameters: Record<string, any>, target_element: Element) => void);
/**
*/
export let _pool: Record<string, type_handler>;
/**
*/
export function encode(location: type_location): string;
/**
*/
export function add_nav_entry(location: type_location, options?: {
label?: (null | string);
}): void;
/**
* encodes a location in the URL and loads it
*/
export function set(location: type_location): void;
/**
*/
export function register(location_name: string, handler: type_handler, options?: {}): void;
/**
*/
export function init(target_element: Element, options?: {
pool?: Record<string, type_handler>;
fallback?: (null | type_location);
}): void;
/**
*/
export function start(): void;
export {};
}
declare namespace lib_plankton.zoo_input {
/**
* @author fenris
*/
interface interface_input<type_value> {
/**
*/
setup(parent: HTMLElement): Promise<void>;
/**
*/
read(): Promise<type_value>;
/**
*/
write(value: type_value): Promise<void>;
}
}
declare namespace lib_plankton.zoo_input {
/**
* @author fenris
*/
class class_input_wrapped<type_value_inner, type_value_outer> implements interface_input<type_value_outer> {
/**
*/
private core;
/**
*/
private wrap;
/**
*/
private unwrap;
/**
*/
constructor(core: interface_input<type_value_inner>, wrap: ((value_inner: type_value_inner) => type_value_outer), unwrap: ((value_outer: type_value_outer) => type_value_inner), options?: {});
/**
* [implementation]
*/
setup(parent: HTMLElement): Promise<void>;
/**
* [implementation]
*/
read(): Promise<type_value_outer>;
/**
* [implementation]
*/
write(value: type_value_outer): Promise<void>;
}
}
declare namespace lib_plankton.zoo_input {
/**
* @author fenris
*/
class class_input_soft<type_value_core> implements interface_input<(null | type_value_core)> {
/**
*/
private core;
/**
*/
private dom_set;
/**
*/
private dom_wrapper;
/**
*/
constructor(core: interface_input<type_value_core>, options?: {});
/**
*/
private toggle;
/**
* [implementation]
*/
setup(parent: HTMLElement): Promise<void>;
/**
* [implementation]
*/
read(): Promise<(null | type_value_core)>;
/**
* [implementation]
*/
write(value: (null | type_value_core)): Promise<void>;
}
}
declare namespace lib_plankton.zoo_input {
/**
* @author fenris
*/
class class_input_hidden implements interface_input<any> {
/**
*/
private dom_input;
/**
*/
private value;
/**
*/
constructor(options?: {
initial_value?: any;
});
/**
* [implementation]
*/
setup(parent: HTMLElement): Promise<void>;
/**
* [implementation]
*/
read(): Promise<any>;
/**
* [implementation]
*/
write(value: any): Promise<void>;
}
}
declare namespace lib_plankton.zoo_input {
/**
* @author fenris
* @todo abstract
*/
class class_input_text implements interface_input<string> {
/**
*/
private read_only;
/**
*/
private pattern;
/**
*/
/**
*/
private dom_input;
/**
*/
constructor(options?: {
read_only?: boolean;
pattern?: (null | string);
});
/**
* [implementation]
*/
setup(parent: HTMLElement): Promise<void>;
/**
* [implementation]
*/
read(): Promise<string>;
/**
* [implementation]
*/
write(value: string): Promise<void>;
}
}
declare namespace lib_plankton.zoo_input {
/**
* @author fenris
*/
class class_input_email implements interface_input<string> {
/**
*/
private dom_input;
/**
*/
constructor();
/**
* [implementation]
*/
setup(parent: HTMLElement): Promise<void>;
/**
* [implementation]
*/
read(): Promise<string>;
/**
* [implementation]
*/
write(value: string): Promise<void>;
}
}
declare namespace lib_plankton.zoo_input {
/**
* @author fenris
*/
class class_input_textarea implements interface_input<string> {
/**
*/
private dom_textarea;
/**
*/
constructor();
/**
* [implementation]
*/
setup(parent: HTMLElement): Promise<void>;
/**
* [implementation]
*/
read(): Promise<string>;
/**
* [implementation]
*/
write(value: string): Promise<void>;
}
}
declare namespace lib_plankton.zoo_input {
/**
* @author fenris
*/
class class_input_date implements interface_input<(null | type_date)> {
/**
*/
private required;
/**
*/
private dom_input;
/**
*/
constructor(options?: {
required?: boolean;
});
/**
* [implementation]
*/
setup(parent: HTMLElement): Promise<void>;
/**
* [implementation]
*/
read(): Promise<(null | type_date)>;
/**
* [implementation]
*/
write(value: (null | type_date)): Promise<void>;
}
}
declare namespace lib_plankton.zoo_input {
/**
* @author fenris
* @todo abstract
*/
class class_input_number implements interface_input<number> {
/**
*/
private read_only;
/**
*/
private step;
/**
*/
private dom_input;
/**
*/
constructor(options?: {
read_only?: boolean;
step?: (null | float);
});
/**
* [implementation]
*/
setup(parent: HTMLElement): Promise<void>;
/**
* [implementation]
*/
read(): Promise<number>;
/**
* [implementation]
*/
write(value: number): Promise<void>;
}
}
declare namespace lib_plankton.zoo_input {
/**
* @author fenris
*/
class class_input_checkbox implements interface_input<boolean> {
/**
*/
private read_only;
/**
*/
private dom_input;
/**
*/
private hooks_change;
/**
*/
constructor(options?: {
read_only?: boolean;
hooks_change?: Array<((value: boolean) => void)>;
});
/**
* [implementation]
*/
setup(parent: HTMLElement): Promise<void>;
/**
* [implementation]
*/
read(): Promise<boolean>;
/**
* [implementation]
*/
write(value: boolean): Promise<void>;
}
}
declare namespace lib_plankton.zoo_input {
/**
* @author fenris
*/
class class_input_selection implements interface_input<string> {
/**
*/
private options;
/**
*/
private dom_select;
/**
*/
constructor(options: Array<{
value: string;
label: string;
}>);
/**
* [implementation]
*/
setup(parent: HTMLElement): Promise<void>;
/**
* [implementation]
*/
read(): Promise<string>;
/**
* [implementation]
*/
write(value: string): Promise<void>;
}
}
declare namespace lib_plankton.zoo_input {
/**
* @author fenris
*/
class class_input_enumeration implements interface_input<string> {
/**
*/
private options;
/**
*/
private dom_inputs;
/**
*/
constructor(options: Array<{
value: string;
label: string;
}>);
/**
* [implementation]
* @todo unique name
*/
setup(parent: HTMLElement): Promise<void>;
/**
* [implementation]
*/
read(): Promise<string>;
/**
* [implementation]
*/
write(value: string): Promise<void>;
}
}
declare namespace lib_plankton.zoo_input {
/**
*/
type type_translations = {
add?: string;
remove?: string;
};
/**
* @author fenris
*/
export class class_input_list<type_element> implements interface_input<Array<type_element>> {
/**
*/
private element_input_factory;
/**
*/
private elements_container_dom;
/**
*/
private elements;
/**
*/
private translations;
/**
*/
constructor(element_input_factory: (() => interface_input<type_element>), options?: {
translations?: type_translations;
});
/**
*/
private clear;
/**
*/
private add;
/**
* [implementation]
*/
setup(parent: HTMLElement): Promise<void>;
/**
* [implementation]
*/
read(): Promise<Array<type_element>>;
/**
* [implementation]
*/
write(value: Array<type_element>): Promise<void>;
}
export {};
}
declare namespace lib_plankton.zoo_input {
/**
* @author fenris
*/
class class_input_password implements interface_input<string> {
/**
*/
private dom_input;
/**
*/
constructor();
/**
* [implementation]
*/
setup(parent: HTMLElement): Promise<void>;
/**
* [implementation]
*/
read(): Promise<string>;
/**
* [implementation]
*/
write(value: string): Promise<void>;
}
}
declare namespace lib_plankton.zoo_input {
/**
* @author fenris
*/
class class_input_switch implements interface_input<boolean> {
/**
*/
private dom_element;
/**
*/
private value;
/**
*/
constructor();
/**
* [implementation]
*/
setup(parent: HTMLElement): Promise<void>;
/**
* [implementation]
*/
read(): Promise<boolean>;
/**
* [implementation]
*/
write(value: boolean): Promise<void>;
}
}
declare namespace lib_plankton.zoo_input {
/**
* @author fenris
*/
class class_input_time implements interface_input<(null | type_time)> {
/**
*/
private dom_input;
/**
*/
constructor();
/**
* [implementation]
*/
setup(parent: HTMLElement): Promise<void>;
/**
* [implementation]
*/
read(): Promise<(null | type_time)>;
/**
* [implementation]
*/
write(value: (null | type_time)): Promise<void>;
}
}
declare namespace lib_plankton.zoo_input {
/**
* @author fenris
*/
class class_input_group<type_record> implements interface_input<type_record> {
/**
*/
private fields;
/**
*/
constructor(fields_raw: Array<{
name: string;
input: interface_input<any>;
label?: (null | string);
help?: (null | string);
}>);
/**
* [implementation]
*/
setup(parent: HTMLElement): Promise<void>;
/**
* [implementation]
*/
read(): Promise<type_record>;
/**
* [implementation]
*/
write(value: type_record): Promise<void>;
}
}
declare namespace lib_plankton.zoo_form {
/**
*/
type type_field = {
name: string;
type: string;
label: (null | string);
};
/**
*/
export type type_form<type_value> = {
method: string;
fields: Array<type_field>;
encode: ((value: type_value) => Record<string, string>);
decode: ((raw: Record<string, string>) => type_value);
class_prefix: string;
root_element: (null | Element);
};
/**
*/
export function make<type_value>(method: string, fields: Array<{
name: string;
type: string;
label?: (null | string);
}>, encode: ((value: type_value) => Record<string, string>), decode: ((raw: Record<string, string>) => type_value), options?: {
class_prefix?: string;
}): type_form<type_value>;
/**
*/
export function make_simple(method: string, fields: Array<{
name: string;
type: string;
label?: (null | string);
}>, options?: {
class_prefix?: string;
}): type_form<Record<string, any>>;
/**
*/
export function clear<type_value>(subject: type_form<type_value>): void;
/**
*/
export function write<type_value>(subject: type_form<type_value>, value: type_value): void;
/**
*/
export function read<type_value>(subject: type_form<type_value>): type_value;
/**
*/
export function render<type_value>(subject: type_form<type_value>, target: Element): Promise<void>;
export {};
}
declare namespace lib_plankton.zoo_form {
/**
*/
type type_action<type_value, type_representation> = {
label: string;
target?: string;
procedure?: ((get_value?: (() => Promise<type_value>), get_representation?: (() => Promise<type_representation>)) => void);
};
/**
* @author fenris
*/
export class class_form<type_value, type_representation> {
/**
*/
private encode;
/**
*/
private decode;
/**
*/
private actions;
/**
*/
private input;
/**
*/
constructor(encode: ((value: type_value) => type_representation), decode: ((representation: type_representation) => type_value), input: lib_plankton.zoo_input.interface_input<type_representation>, actions: Array<type_action<type_value, type_representation>>);
/**
*/
setup(parent: HTMLElement): Promise<void>;
/**
*/
input_read_raw(): Promise<type_representation>;
/**
*/
input_read(): Promise<type_value>;
/**
*/
input_write(value: type_value): Promise<void>;
}
export {};
}