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@rveciana
Last active July 18, 2021 21:09
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Svelte + Supabase
licence: mit
svg.svelte-1x0lp3d{width:960px;height:500px}.border.svelte-1x0lp3d{stroke:#444444;fill:#cccccc}
(function(l, r) { if (!l || l.getElementById('livereloadscript')) return; r = l.createElement('script'); r.async = 1; r.src = '//' + (self.location.host || 'localhost').split(':')[0] + ':35729/livereload.js?snipver=1'; r.id = 'livereloadscript'; l.getElementsByTagName('head')[0].appendChild(r) })(self.document);
var app = (function () {
'use strict';
function noop$3() { }
function add_location(element, file, line, column, char) {
element.__svelte_meta = {
loc: { file, line, column, char }
};
}
function run(fn) {
return fn();
}
function blank_object() {
return Object.create(null);
}
function run_all(fns) {
fns.forEach(run);
}
function is_function(thing) {
return typeof thing === 'function';
}
function safe_not_equal(a, b) {
return a != a ? b == b : a !== b || ((a && typeof a === 'object') || typeof a === 'function');
}
function is_empty(obj) {
return Object.keys(obj).length === 0;
}
function action_destroyer(action_result) {
return action_result && is_function(action_result.destroy) ? action_result.destroy : noop$3;
}
// Track which nodes are claimed during hydration. Unclaimed nodes can then be removed from the DOM
// at the end of hydration without touching the remaining nodes.
let is_hydrating = false;
function start_hydrating() {
is_hydrating = true;
}
function end_hydrating() {
is_hydrating = false;
}
function upper_bound(low, high, key, value) {
// Return first index of value larger than input value in the range [low, high)
while (low < high) {
const mid = low + ((high - low) >> 1);
if (key(mid) <= value) {
low = mid + 1;
}
else {
high = mid;
}
}
return low;
}
function init_hydrate(target) {
if (target.hydrate_init)
return;
target.hydrate_init = true;
// We know that all children have claim_order values since the unclaimed have been detached
const children = target.childNodes;
/*
* Reorder claimed children optimally.
* We can reorder claimed children optimally by finding the longest subsequence of
* nodes that are already claimed in order and only moving the rest. The longest
* subsequence subsequence of nodes that are claimed in order can be found by
* computing the longest increasing subsequence of .claim_order values.
*
* This algorithm is optimal in generating the least amount of reorder operations
* possible.
*
* Proof:
* We know that, given a set of reordering operations, the nodes that do not move
* always form an increasing subsequence, since they do not move among each other
* meaning that they must be already ordered among each other. Thus, the maximal
* set of nodes that do not move form a longest increasing subsequence.
*/
// Compute longest increasing subsequence
// m: subsequence length j => index k of smallest value that ends an increasing subsequence of length j
const m = new Int32Array(children.length + 1);
// Predecessor indices + 1
const p = new Int32Array(children.length);
m[0] = -1;
let longest = 0;
for (let i = 0; i < children.length; i++) {
const current = children[i].claim_order;
// Find the largest subsequence length such that it ends in a value less than our current value
// upper_bound returns first greater value, so we subtract one
const seqLen = upper_bound(1, longest + 1, idx => children[m[idx]].claim_order, current) - 1;
p[i] = m[seqLen] + 1;
const newLen = seqLen + 1;
// We can guarantee that current is the smallest value. Otherwise, we would have generated a longer sequence.
m[newLen] = i;
longest = Math.max(newLen, longest);
}
// The longest increasing subsequence of nodes (initially reversed)
const lis = [];
// The rest of the nodes, nodes that will be moved
const toMove = [];
let last = children.length - 1;
for (let cur = m[longest] + 1; cur != 0; cur = p[cur - 1]) {
lis.push(children[cur - 1]);
for (; last >= cur; last--) {
toMove.push(children[last]);
}
last--;
}
for (; last >= 0; last--) {
toMove.push(children[last]);
}
lis.reverse();
// We sort the nodes being moved to guarantee that their insertion order matches the claim order
toMove.sort((a, b) => a.claim_order - b.claim_order);
// Finally, we move the nodes
for (let i = 0, j = 0; i < toMove.length; i++) {
while (j < lis.length && toMove[i].claim_order >= lis[j].claim_order) {
j++;
}
const anchor = j < lis.length ? lis[j] : null;
target.insertBefore(toMove[i], anchor);
}
}
function append(target, node) {
if (is_hydrating) {
init_hydrate(target);
if ((target.actual_end_child === undefined) || ((target.actual_end_child !== null) && (target.actual_end_child.parentElement !== target))) {
target.actual_end_child = target.firstChild;
}
if (node !== target.actual_end_child) {
target.insertBefore(node, target.actual_end_child);
}
else {
target.actual_end_child = node.nextSibling;
}
}
else if (node.parentNode !== target) {
target.appendChild(node);
}
}
function insert(target, node, anchor) {
if (is_hydrating && !anchor) {
append(target, node);
}
else if (node.parentNode !== target || (anchor && node.nextSibling !== anchor)) {
target.insertBefore(node, anchor || null);
}
}
function detach(node) {
node.parentNode.removeChild(node);
}
function destroy_each(iterations, detaching) {
for (let i = 0; i < iterations.length; i += 1) {
if (iterations[i])
iterations[i].d(detaching);
}
}
function element(name) {
return document.createElement(name);
}
function svg_element(name) {
return document.createElementNS('http://www.w3.org/2000/svg', name);
}
function text(data) {
return document.createTextNode(data);
}
function space() {
return text(' ');
}
function listen(node, event, handler, options) {
node.addEventListener(event, handler, options);
return () => node.removeEventListener(event, handler, options);
}
function prevent_default(fn) {
return function (event) {
event.preventDefault();
// @ts-ignore
return fn.call(this, event);
};
}
function attr(node, attribute, value) {
if (value == null)
node.removeAttribute(attribute);
else if (node.getAttribute(attribute) !== value)
node.setAttribute(attribute, value);
}
function to_number(value) {
return value === '' ? null : +value;
}
function children(element) {
return Array.from(element.childNodes);
}
function set_input_value(input, value) {
input.value = value == null ? '' : value;
}
function set_style(node, key, value, important) {
node.style.setProperty(key, value, important ? 'important' : '');
}
function custom_event(type, detail) {
const e = document.createEvent('CustomEvent');
e.initCustomEvent(type, false, false, detail);
return e;
}
let current_component;
function set_current_component(component) {
current_component = component;
}
function get_current_component() {
if (!current_component)
throw new Error('Function called outside component initialization');
return current_component;
}
function onMount(fn) {
get_current_component().$$.on_mount.push(fn);
}
const dirty_components = [];
const binding_callbacks = [];
const render_callbacks = [];
const flush_callbacks = [];
const resolved_promise = Promise.resolve();
let update_scheduled = false;
function schedule_update() {
if (!update_scheduled) {
update_scheduled = true;
resolved_promise.then(flush);
}
}
function add_render_callback(fn) {
render_callbacks.push(fn);
}
let flushing = false;
const seen_callbacks = new Set();
function flush() {
if (flushing)
return;
flushing = true;
do {
// first, call beforeUpdate functions
// and update components
for (let i = 0; i < dirty_components.length; i += 1) {
const component = dirty_components[i];
set_current_component(component);
update(component.$$);
}
set_current_component(null);
dirty_components.length = 0;
while (binding_callbacks.length)
binding_callbacks.pop()();
// then, once components are updated, call
// afterUpdate functions. This may cause
// subsequent updates...
for (let i = 0; i < render_callbacks.length; i += 1) {
const callback = render_callbacks[i];
if (!seen_callbacks.has(callback)) {
// ...so guard against infinite loops
seen_callbacks.add(callback);
callback();
}
}
render_callbacks.length = 0;
} while (dirty_components.length);
while (flush_callbacks.length) {
flush_callbacks.pop()();
}
update_scheduled = false;
flushing = false;
seen_callbacks.clear();
}
function update($$) {
if ($$.fragment !== null) {
$$.update();
run_all($$.before_update);
const dirty = $$.dirty;
$$.dirty = [-1];
$$.fragment && $$.fragment.p($$.ctx, dirty);
$$.after_update.forEach(add_render_callback);
}
}
const outroing = new Set();
let outros;
function transition_in(block, local) {
if (block && block.i) {
outroing.delete(block);
block.i(local);
}
}
function transition_out(block, local, detach, callback) {
if (block && block.o) {
if (outroing.has(block))
return;
outroing.add(block);
outros.c.push(() => {
outroing.delete(block);
if (callback) {
if (detach)
block.d(1);
callback();
}
});
block.o(local);
}
}
const globals = (typeof window !== 'undefined'
? window
: typeof globalThis !== 'undefined'
? globalThis
: global);
function create_component(block) {
block && block.c();
}
function mount_component(component, target, anchor, customElement) {
const { fragment, on_mount, on_destroy, after_update } = component.$$;
fragment && fragment.m(target, anchor);
if (!customElement) {
// onMount happens before the initial afterUpdate
add_render_callback(() => {
const new_on_destroy = on_mount.map(run).filter(is_function);
if (on_destroy) {
on_destroy.push(...new_on_destroy);
}
else {
// Edge case - component was destroyed immediately,
// most likely as a result of a binding initialising
run_all(new_on_destroy);
}
component.$$.on_mount = [];
});
}
after_update.forEach(add_render_callback);
}
function destroy_component(component, detaching) {
const $$ = component.$$;
if ($$.fragment !== null) {
run_all($$.on_destroy);
$$.fragment && $$.fragment.d(detaching);
// TODO null out other refs, including component.$$ (but need to
// preserve final state?)
$$.on_destroy = $$.fragment = null;
$$.ctx = [];
}
}
function make_dirty(component, i) {
if (component.$$.dirty[0] === -1) {
dirty_components.push(component);
schedule_update();
component.$$.dirty.fill(0);
}
component.$$.dirty[(i / 31) | 0] |= (1 << (i % 31));
}
function init(component, options, instance, create_fragment, not_equal, props, dirty = [-1]) {
const parent_component = current_component;
set_current_component(component);
const $$ = component.$$ = {
fragment: null,
ctx: null,
// state
props,
update: noop$3,
not_equal,
bound: blank_object(),
// lifecycle
on_mount: [],
on_destroy: [],
on_disconnect: [],
before_update: [],
after_update: [],
context: new Map(parent_component ? parent_component.$$.context : options.context || []),
// everything else
callbacks: blank_object(),
dirty,
skip_bound: false
};
let ready = false;
$$.ctx = instance
? instance(component, options.props || {}, (i, ret, ...rest) => {
const value = rest.length ? rest[0] : ret;
if ($$.ctx && not_equal($$.ctx[i], $$.ctx[i] = value)) {
if (!$$.skip_bound && $$.bound[i])
$$.bound[i](value);
if (ready)
make_dirty(component, i);
}
return ret;
})
: [];
$$.update();
ready = true;
run_all($$.before_update);
// `false` as a special case of no DOM component
$$.fragment = create_fragment ? create_fragment($$.ctx) : false;
if (options.target) {
if (options.hydrate) {
start_hydrating();
const nodes = children(options.target);
// eslint-disable-next-line @typescript-eslint/no-non-null-assertion
$$.fragment && $$.fragment.l(nodes);
nodes.forEach(detach);
}
else {
// eslint-disable-next-line @typescript-eslint/no-non-null-assertion
$$.fragment && $$.fragment.c();
}
if (options.intro)
transition_in(component.$$.fragment);
mount_component(component, options.target, options.anchor, options.customElement);
end_hydrating();
flush();
}
set_current_component(parent_component);
}
/**
* Base class for Svelte components. Used when dev=false.
*/
class SvelteComponent {
$destroy() {
destroy_component(this, 1);
this.$destroy = noop$3;
}
$on(type, callback) {
const callbacks = (this.$$.callbacks[type] || (this.$$.callbacks[type] = []));
callbacks.push(callback);
return () => {
const index = callbacks.indexOf(callback);
if (index !== -1)
callbacks.splice(index, 1);
};
}
$set($$props) {
if (this.$$set && !is_empty($$props)) {
this.$$.skip_bound = true;
this.$$set($$props);
this.$$.skip_bound = false;
}
}
}
function dispatch_dev(type, detail) {
document.dispatchEvent(custom_event(type, Object.assign({ version: '3.38.3' }, detail)));
}
function append_dev(target, node) {
dispatch_dev('SvelteDOMInsert', { target, node });
append(target, node);
}
function insert_dev(target, node, anchor) {
dispatch_dev('SvelteDOMInsert', { target, node, anchor });
insert(target, node, anchor);
}
function detach_dev(node) {
dispatch_dev('SvelteDOMRemove', { node });
detach(node);
}
function listen_dev(node, event, handler, options, has_prevent_default, has_stop_propagation) {
const modifiers = options === true ? ['capture'] : options ? Array.from(Object.keys(options)) : [];
if (has_prevent_default)
modifiers.push('preventDefault');
if (has_stop_propagation)
modifiers.push('stopPropagation');
dispatch_dev('SvelteDOMAddEventListener', { node, event, handler, modifiers });
const dispose = listen(node, event, handler, options);
return () => {
dispatch_dev('SvelteDOMRemoveEventListener', { node, event, handler, modifiers });
dispose();
};
}
function attr_dev(node, attribute, value) {
attr(node, attribute, value);
if (value == null)
dispatch_dev('SvelteDOMRemoveAttribute', { node, attribute });
else
dispatch_dev('SvelteDOMSetAttribute', { node, attribute, value });
}
function prop_dev(node, property, value) {
node[property] = value;
dispatch_dev('SvelteDOMSetProperty', { node, property, value });
}
function set_data_dev(text, data) {
data = '' + data;
if (text.wholeText === data)
return;
dispatch_dev('SvelteDOMSetData', { node: text, data });
text.data = data;
}
function validate_each_argument(arg) {
if (typeof arg !== 'string' && !(arg && typeof arg === 'object' && 'length' in arg)) {
let msg = '{#each} only iterates over array-like objects.';
if (typeof Symbol === 'function' && arg && Symbol.iterator in arg) {
msg += ' You can use a spread to convert this iterable into an array.';
}
throw new Error(msg);
}
}
function validate_slots(name, slot, keys) {
for (const slot_key of Object.keys(slot)) {
if (!~keys.indexOf(slot_key)) {
console.warn(`<${name}> received an unexpected slot "${slot_key}".`);
}
}
}
/**
* Base class for Svelte components with some minor dev-enhancements. Used when dev=true.
*/
class SvelteComponentDev extends SvelteComponent {
constructor(options) {
if (!options || (!options.target && !options.$$inline)) {
throw new Error("'target' is a required option");
}
super();
}
$destroy() {
super.$destroy();
this.$destroy = () => {
console.warn('Component was already destroyed'); // eslint-disable-line no-console
};
}
$capture_state() { }
$inject_state() { }
}
// https://github.com/python/cpython/blob/a74eea238f5baba15797e2e8b570d153bc8690a7/Modules/mathmodule.c#L1423
class Adder {
constructor() {
this._partials = new Float64Array(32);
this._n = 0;
}
add(x) {
const p = this._partials;
let i = 0;
for (let j = 0; j < this._n && j < 32; j++) {
const y = p[j],
hi = x + y,
lo = Math.abs(x) < Math.abs(y) ? x - (hi - y) : y - (hi - x);
if (lo) p[i++] = lo;
x = hi;
}
p[i] = x;
this._n = i + 1;
return this;
}
valueOf() {
const p = this._partials;
let n = this._n, x, y, lo, hi = 0;
if (n > 0) {
hi = p[--n];
while (n > 0) {
x = hi;
y = p[--n];
hi = x + y;
lo = y - (hi - x);
if (lo) break;
}
if (n > 0 && ((lo < 0 && p[n - 1] < 0) || (lo > 0 && p[n - 1] > 0))) {
y = lo * 2;
x = hi + y;
if (y == x - hi) hi = x;
}
}
return hi;
}
}
function* flatten(arrays) {
for (const array of arrays) {
yield* array;
}
}
function merge(arrays) {
return Array.from(flatten(arrays));
}
var epsilon = 1e-6;
var epsilon2 = 1e-12;
var pi = Math.PI;
var halfPi = pi / 2;
var quarterPi = pi / 4;
var tau = pi * 2;
var degrees = 180 / pi;
var radians = pi / 180;
var abs = Math.abs;
var atan = Math.atan;
var atan2 = Math.atan2;
var cos = Math.cos;
var sin = Math.sin;
var sign = Math.sign || function(x) { return x > 0 ? 1 : x < 0 ? -1 : 0; };
var sqrt = Math.sqrt;
function acos(x) {
return x > 1 ? 0 : x < -1 ? pi : Math.acos(x);
}
function asin(x) {
return x > 1 ? halfPi : x < -1 ? -halfPi : Math.asin(x);
}
function noop$2() {}
function streamGeometry(geometry, stream) {
if (geometry && streamGeometryType.hasOwnProperty(geometry.type)) {
streamGeometryType[geometry.type](geometry, stream);
}
}
var streamObjectType = {
Feature: function(object, stream) {
streamGeometry(object.geometry, stream);
},
FeatureCollection: function(object, stream) {
var features = object.features, i = -1, n = features.length;
while (++i < n) streamGeometry(features[i].geometry, stream);
}
};
var streamGeometryType = {
Sphere: function(object, stream) {
stream.sphere();
},
Point: function(object, stream) {
object = object.coordinates;
stream.point(object[0], object[1], object[2]);
},
MultiPoint: function(object, stream) {
var coordinates = object.coordinates, i = -1, n = coordinates.length;
while (++i < n) object = coordinates[i], stream.point(object[0], object[1], object[2]);
},
LineString: function(object, stream) {
streamLine(object.coordinates, stream, 0);
},
MultiLineString: function(object, stream) {
var coordinates = object.coordinates, i = -1, n = coordinates.length;
while (++i < n) streamLine(coordinates[i], stream, 0);
},
Polygon: function(object, stream) {
streamPolygon(object.coordinates, stream);
},
MultiPolygon: function(object, stream) {
var coordinates = object.coordinates, i = -1, n = coordinates.length;
while (++i < n) streamPolygon(coordinates[i], stream);
},
GeometryCollection: function(object, stream) {
var geometries = object.geometries, i = -1, n = geometries.length;
while (++i < n) streamGeometry(geometries[i], stream);
}
};
function streamLine(coordinates, stream, closed) {
var i = -1, n = coordinates.length - closed, coordinate;
stream.lineStart();
while (++i < n) coordinate = coordinates[i], stream.point(coordinate[0], coordinate[1], coordinate[2]);
stream.lineEnd();
}
function streamPolygon(coordinates, stream) {
var i = -1, n = coordinates.length;
stream.polygonStart();
while (++i < n) streamLine(coordinates[i], stream, 1);
stream.polygonEnd();
}
function geoStream(object, stream) {
if (object && streamObjectType.hasOwnProperty(object.type)) {
streamObjectType[object.type](object, stream);
} else {
streamGeometry(object, stream);
}
}
function spherical(cartesian) {
return [atan2(cartesian[1], cartesian[0]), asin(cartesian[2])];
}
function cartesian(spherical) {
var lambda = spherical[0], phi = spherical[1], cosPhi = cos(phi);
return [cosPhi * cos(lambda), cosPhi * sin(lambda), sin(phi)];
}
function cartesianDot(a, b) {
return a[0] * b[0] + a[1] * b[1] + a[2] * b[2];
}
function cartesianCross(a, b) {
return [a[1] * b[2] - a[2] * b[1], a[2] * b[0] - a[0] * b[2], a[0] * b[1] - a[1] * b[0]];
}
// TODO return a
function cartesianAddInPlace(a, b) {
a[0] += b[0], a[1] += b[1], a[2] += b[2];
}
function cartesianScale(vector, k) {
return [vector[0] * k, vector[1] * k, vector[2] * k];
}
// TODO return d
function cartesianNormalizeInPlace(d) {
var l = sqrt(d[0] * d[0] + d[1] * d[1] + d[2] * d[2]);
d[0] /= l, d[1] /= l, d[2] /= l;
}
function compose(a, b) {
function compose(x, y) {
return x = a(x, y), b(x[0], x[1]);
}
if (a.invert && b.invert) compose.invert = function(x, y) {
return x = b.invert(x, y), x && a.invert(x[0], x[1]);
};
return compose;
}
function rotationIdentity(lambda, phi) {
return [abs(lambda) > pi ? lambda + Math.round(-lambda / tau) * tau : lambda, phi];
}
rotationIdentity.invert = rotationIdentity;
function rotateRadians(deltaLambda, deltaPhi, deltaGamma) {
return (deltaLambda %= tau) ? (deltaPhi || deltaGamma ? compose(rotationLambda(deltaLambda), rotationPhiGamma(deltaPhi, deltaGamma))
: rotationLambda(deltaLambda))
: (deltaPhi || deltaGamma ? rotationPhiGamma(deltaPhi, deltaGamma)
: rotationIdentity);
}
function forwardRotationLambda(deltaLambda) {
return function(lambda, phi) {
return lambda += deltaLambda, [lambda > pi ? lambda - tau : lambda < -pi ? lambda + tau : lambda, phi];
};
}
function rotationLambda(deltaLambda) {
var rotation = forwardRotationLambda(deltaLambda);
rotation.invert = forwardRotationLambda(-deltaLambda);
return rotation;
}
function rotationPhiGamma(deltaPhi, deltaGamma) {
var cosDeltaPhi = cos(deltaPhi),
sinDeltaPhi = sin(deltaPhi),
cosDeltaGamma = cos(deltaGamma),
sinDeltaGamma = sin(deltaGamma);
function rotation(lambda, phi) {
var cosPhi = cos(phi),
x = cos(lambda) * cosPhi,
y = sin(lambda) * cosPhi,
z = sin(phi),
k = z * cosDeltaPhi + x * sinDeltaPhi;
return [
atan2(y * cosDeltaGamma - k * sinDeltaGamma, x * cosDeltaPhi - z * sinDeltaPhi),
asin(k * cosDeltaGamma + y * sinDeltaGamma)
];
}
rotation.invert = function(lambda, phi) {
var cosPhi = cos(phi),
x = cos(lambda) * cosPhi,
y = sin(lambda) * cosPhi,
z = sin(phi),
k = z * cosDeltaGamma - y * sinDeltaGamma;
return [
atan2(y * cosDeltaGamma + z * sinDeltaGamma, x * cosDeltaPhi + k * sinDeltaPhi),
asin(k * cosDeltaPhi - x * sinDeltaPhi)
];
};
return rotation;
}
// Generates a circle centered at [0°, 0°], with a given radius and precision.
function circleStream(stream, radius, delta, direction, t0, t1) {
if (!delta) return;
var cosRadius = cos(radius),
sinRadius = sin(radius),
step = direction * delta;
if (t0 == null) {
t0 = radius + direction * tau;
t1 = radius - step / 2;
} else {
t0 = circleRadius(cosRadius, t0);
t1 = circleRadius(cosRadius, t1);
if (direction > 0 ? t0 < t1 : t0 > t1) t0 += direction * tau;
}
for (var point, t = t0; direction > 0 ? t > t1 : t < t1; t -= step) {
point = spherical([cosRadius, -sinRadius * cos(t), -sinRadius * sin(t)]);
stream.point(point[0], point[1]);
}
}
// Returns the signed angle of a cartesian point relative to [cosRadius, 0, 0].
function circleRadius(cosRadius, point) {
point = cartesian(point), point[0] -= cosRadius;
cartesianNormalizeInPlace(point);
var radius = acos(-point[1]);
return ((-point[2] < 0 ? -radius : radius) + tau - epsilon) % tau;
}
function clipBuffer() {
var lines = [],
line;
return {
point: function(x, y, m) {
line.push([x, y, m]);
},
lineStart: function() {
lines.push(line = []);
},
lineEnd: noop$2,
rejoin: function() {
if (lines.length > 1) lines.push(lines.pop().concat(lines.shift()));
},
result: function() {
var result = lines;
lines = [];
line = null;
return result;
}
};
}
function pointEqual(a, b) {
return abs(a[0] - b[0]) < epsilon && abs(a[1] - b[1]) < epsilon;
}
function Intersection(point, points, other, entry) {
this.x = point;
this.z = points;
this.o = other; // another intersection
this.e = entry; // is an entry?
this.v = false; // visited
this.n = this.p = null; // next & previous
}
// A generalized polygon clipping algorithm: given a polygon that has been cut
// into its visible line segments, and rejoins the segments by interpolating
// along the clip edge.
function clipRejoin(segments, compareIntersection, startInside, interpolate, stream) {
var subject = [],
clip = [],
i,
n;
segments.forEach(function(segment) {
if ((n = segment.length - 1) <= 0) return;
var n, p0 = segment[0], p1 = segment[n], x;
if (pointEqual(p0, p1)) {
if (!p0[2] && !p1[2]) {
stream.lineStart();
for (i = 0; i < n; ++i) stream.point((p0 = segment[i])[0], p0[1]);
stream.lineEnd();
return;
}
// handle degenerate cases by moving the point
p1[0] += 2 * epsilon;
}
subject.push(x = new Intersection(p0, segment, null, true));
clip.push(x.o = new Intersection(p0, null, x, false));
subject.push(x = new Intersection(p1, segment, null, false));
clip.push(x.o = new Intersection(p1, null, x, true));
});
if (!subject.length) return;
clip.sort(compareIntersection);
link(subject);
link(clip);
for (i = 0, n = clip.length; i < n; ++i) {
clip[i].e = startInside = !startInside;
}
var start = subject[0],
points,
point;
while (1) {
// Find first unvisited intersection.
var current = start,
isSubject = true;
while (current.v) if ((current = current.n) === start) return;
points = current.z;
stream.lineStart();
do {
current.v = current.o.v = true;
if (current.e) {
if (isSubject) {
for (i = 0, n = points.length; i < n; ++i) stream.point((point = points[i])[0], point[1]);
} else {
interpolate(current.x, current.n.x, 1, stream);
}
current = current.n;
} else {
if (isSubject) {
points = current.p.z;
for (i = points.length - 1; i >= 0; --i) stream.point((point = points[i])[0], point[1]);
} else {
interpolate(current.x, current.p.x, -1, stream);
}
current = current.p;
}
current = current.o;
points = current.z;
isSubject = !isSubject;
} while (!current.v);
stream.lineEnd();
}
}
function link(array) {
if (!(n = array.length)) return;
var n,
i = 0,
a = array[0],
b;
while (++i < n) {
a.n = b = array[i];
b.p = a;
a = b;
}
a.n = b = array[0];
b.p = a;
}
function longitude(point) {
return abs(point[0]) <= pi ? point[0] : sign(point[0]) * ((abs(point[0]) + pi) % tau - pi);
}
function polygonContains(polygon, point) {
var lambda = longitude(point),
phi = point[1],
sinPhi = sin(phi),
normal = [sin(lambda), -cos(lambda), 0],
angle = 0,
winding = 0;
var sum = new Adder();
if (sinPhi === 1) phi = halfPi + epsilon;
else if (sinPhi === -1) phi = -halfPi - epsilon;
for (var i = 0, n = polygon.length; i < n; ++i) {
if (!(m = (ring = polygon[i]).length)) continue;
var ring,
m,
point0 = ring[m - 1],
lambda0 = longitude(point0),
phi0 = point0[1] / 2 + quarterPi,
sinPhi0 = sin(phi0),
cosPhi0 = cos(phi0);
for (var j = 0; j < m; ++j, lambda0 = lambda1, sinPhi0 = sinPhi1, cosPhi0 = cosPhi1, point0 = point1) {
var point1 = ring[j],
lambda1 = longitude(point1),
phi1 = point1[1] / 2 + quarterPi,
sinPhi1 = sin(phi1),
cosPhi1 = cos(phi1),
delta = lambda1 - lambda0,
sign = delta >= 0 ? 1 : -1,
absDelta = sign * delta,
antimeridian = absDelta > pi,
k = sinPhi0 * sinPhi1;
sum.add(atan2(k * sign * sin(absDelta), cosPhi0 * cosPhi1 + k * cos(absDelta)));
angle += antimeridian ? delta + sign * tau : delta;
// Are the longitudes either side of the point’s meridian (lambda),
// and are the latitudes smaller than the parallel (phi)?
if (antimeridian ^ lambda0 >= lambda ^ lambda1 >= lambda) {
var arc = cartesianCross(cartesian(point0), cartesian(point1));
cartesianNormalizeInPlace(arc);
var intersection = cartesianCross(normal, arc);
cartesianNormalizeInPlace(intersection);
var phiArc = (antimeridian ^ delta >= 0 ? -1 : 1) * asin(intersection[2]);
if (phi > phiArc || phi === phiArc && (arc[0] || arc[1])) {
winding += antimeridian ^ delta >= 0 ? 1 : -1;
}
}
}
}
// First, determine whether the South pole is inside or outside:
//
// It is inside if:
// * the polygon winds around it in a clockwise direction.
// * the polygon does not (cumulatively) wind around it, but has a negative
// (counter-clockwise) area.
//
// Second, count the (signed) number of times a segment crosses a lambda
// from the point to the South pole. If it is zero, then the point is the
// same side as the South pole.
return (angle < -epsilon || angle < epsilon && sum < -epsilon2) ^ (winding & 1);
}
function clip(pointVisible, clipLine, interpolate, start) {
return function(sink) {
var line = clipLine(sink),
ringBuffer = clipBuffer(),
ringSink = clipLine(ringBuffer),
polygonStarted = false,
polygon,
segments,
ring;
var clip = {
point: point,
lineStart: lineStart,
lineEnd: lineEnd,
polygonStart: function() {
clip.point = pointRing;
clip.lineStart = ringStart;
clip.lineEnd = ringEnd;
segments = [];
polygon = [];
},
polygonEnd: function() {
clip.point = point;
clip.lineStart = lineStart;
clip.lineEnd = lineEnd;
segments = merge(segments);
var startInside = polygonContains(polygon, start);
if (segments.length) {
if (!polygonStarted) sink.polygonStart(), polygonStarted = true;
clipRejoin(segments, compareIntersection, startInside, interpolate, sink);
} else if (startInside) {
if (!polygonStarted) sink.polygonStart(), polygonStarted = true;
sink.lineStart();
interpolate(null, null, 1, sink);
sink.lineEnd();
}
if (polygonStarted) sink.polygonEnd(), polygonStarted = false;
segments = polygon = null;
},
sphere: function() {
sink.polygonStart();
sink.lineStart();
interpolate(null, null, 1, sink);
sink.lineEnd();
sink.polygonEnd();
}
};
function point(lambda, phi) {
if (pointVisible(lambda, phi)) sink.point(lambda, phi);
}
function pointLine(lambda, phi) {
line.point(lambda, phi);
}
function lineStart() {
clip.point = pointLine;
line.lineStart();
}
function lineEnd() {
clip.point = point;
line.lineEnd();
}
function pointRing(lambda, phi) {
ring.push([lambda, phi]);
ringSink.point(lambda, phi);
}
function ringStart() {
ringSink.lineStart();
ring = [];
}
function ringEnd() {
pointRing(ring[0][0], ring[0][1]);
ringSink.lineEnd();
var clean = ringSink.clean(),
ringSegments = ringBuffer.result(),
i, n = ringSegments.length, m,
segment,
point;
ring.pop();
polygon.push(ring);
ring = null;
if (!n) return;
// No intersections.
if (clean & 1) {
segment = ringSegments[0];
if ((m = segment.length - 1) > 0) {
if (!polygonStarted) sink.polygonStart(), polygonStarted = true;
sink.lineStart();
for (i = 0; i < m; ++i) sink.point((point = segment[i])[0], point[1]);
sink.lineEnd();
}
return;
}
// Rejoin connected segments.
// TODO reuse ringBuffer.rejoin()?
if (n > 1 && clean & 2) ringSegments.push(ringSegments.pop().concat(ringSegments.shift()));
segments.push(ringSegments.filter(validSegment));
}
return clip;
};
}
function validSegment(segment) {
return segment.length > 1;
}
// Intersections are sorted along the clip edge. For both antimeridian cutting
// and circle clipping, the same comparison is used.
function compareIntersection(a, b) {
return ((a = a.x)[0] < 0 ? a[1] - halfPi - epsilon : halfPi - a[1])
- ((b = b.x)[0] < 0 ? b[1] - halfPi - epsilon : halfPi - b[1]);
}
var clipAntimeridian = clip(
function() { return true; },
clipAntimeridianLine,
clipAntimeridianInterpolate,
[-pi, -halfPi]
);
// Takes a line and cuts into visible segments. Return values: 0 - there were
// intersections or the line was empty; 1 - no intersections; 2 - there were
// intersections, and the first and last segments should be rejoined.
function clipAntimeridianLine(stream) {
var lambda0 = NaN,
phi0 = NaN,
sign0 = NaN,
clean; // no intersections
return {
lineStart: function() {
stream.lineStart();
clean = 1;
},
point: function(lambda1, phi1) {
var sign1 = lambda1 > 0 ? pi : -pi,
delta = abs(lambda1 - lambda0);
if (abs(delta - pi) < epsilon) { // line crosses a pole
stream.point(lambda0, phi0 = (phi0 + phi1) / 2 > 0 ? halfPi : -halfPi);
stream.point(sign0, phi0);
stream.lineEnd();
stream.lineStart();
stream.point(sign1, phi0);
stream.point(lambda1, phi0);
clean = 0;
} else if (sign0 !== sign1 && delta >= pi) { // line crosses antimeridian
if (abs(lambda0 - sign0) < epsilon) lambda0 -= sign0 * epsilon; // handle degeneracies
if (abs(lambda1 - sign1) < epsilon) lambda1 -= sign1 * epsilon;
phi0 = clipAntimeridianIntersect(lambda0, phi0, lambda1, phi1);
stream.point(sign0, phi0);
stream.lineEnd();
stream.lineStart();
stream.point(sign1, phi0);
clean = 0;
}
stream.point(lambda0 = lambda1, phi0 = phi1);
sign0 = sign1;
},
lineEnd: function() {
stream.lineEnd();
lambda0 = phi0 = NaN;
},
clean: function() {
return 2 - clean; // if intersections, rejoin first and last segments
}
};
}
function clipAntimeridianIntersect(lambda0, phi0, lambda1, phi1) {
var cosPhi0,
cosPhi1,
sinLambda0Lambda1 = sin(lambda0 - lambda1);
return abs(sinLambda0Lambda1) > epsilon
? atan((sin(phi0) * (cosPhi1 = cos(phi1)) * sin(lambda1)
- sin(phi1) * (cosPhi0 = cos(phi0)) * sin(lambda0))
/ (cosPhi0 * cosPhi1 * sinLambda0Lambda1))
: (phi0 + phi1) / 2;
}
function clipAntimeridianInterpolate(from, to, direction, stream) {
var phi;
if (from == null) {
phi = direction * halfPi;
stream.point(-pi, phi);
stream.point(0, phi);
stream.point(pi, phi);
stream.point(pi, 0);
stream.point(pi, -phi);
stream.point(0, -phi);
stream.point(-pi, -phi);
stream.point(-pi, 0);
stream.point(-pi, phi);
} else if (abs(from[0] - to[0]) > epsilon) {
var lambda = from[0] < to[0] ? pi : -pi;
phi = direction * lambda / 2;
stream.point(-lambda, phi);
stream.point(0, phi);
stream.point(lambda, phi);
} else {
stream.point(to[0], to[1]);
}
}
function clipCircle(radius) {
var cr = cos(radius),
delta = 6 * radians,
smallRadius = cr > 0,
notHemisphere = abs(cr) > epsilon; // TODO optimise for this common case
function interpolate(from, to, direction, stream) {
circleStream(stream, radius, delta, direction, from, to);
}
function visible(lambda, phi) {
return cos(lambda) * cos(phi) > cr;
}
// Takes a line and cuts into visible segments. Return values used for polygon
// clipping: 0 - there were intersections or the line was empty; 1 - no
// intersections 2 - there were intersections, and the first and last segments
// should be rejoined.
function clipLine(stream) {
var point0, // previous point
c0, // code for previous point
v0, // visibility of previous point
v00, // visibility of first point
clean; // no intersections
return {
lineStart: function() {
v00 = v0 = false;
clean = 1;
},
point: function(lambda, phi) {
var point1 = [lambda, phi],
point2,
v = visible(lambda, phi),
c = smallRadius
? v ? 0 : code(lambda, phi)
: v ? code(lambda + (lambda < 0 ? pi : -pi), phi) : 0;
if (!point0 && (v00 = v0 = v)) stream.lineStart();
if (v !== v0) {
point2 = intersect(point0, point1);
if (!point2 || pointEqual(point0, point2) || pointEqual(point1, point2))
point1[2] = 1;
}
if (v !== v0) {
clean = 0;
if (v) {
// outside going in
stream.lineStart();
point2 = intersect(point1, point0);
stream.point(point2[0], point2[1]);
} else {
// inside going out
point2 = intersect(point0, point1);
stream.point(point2[0], point2[1], 2);
stream.lineEnd();
}
point0 = point2;
} else if (notHemisphere && point0 && smallRadius ^ v) {
var t;
// If the codes for two points are different, or are both zero,
// and there this segment intersects with the small circle.
if (!(c & c0) && (t = intersect(point1, point0, true))) {
clean = 0;
if (smallRadius) {
stream.lineStart();
stream.point(t[0][0], t[0][1]);
stream.point(t[1][0], t[1][1]);
stream.lineEnd();
} else {
stream.point(t[1][0], t[1][1]);
stream.lineEnd();
stream.lineStart();
stream.point(t[0][0], t[0][1], 3);
}
}
}
if (v && (!point0 || !pointEqual(point0, point1))) {
stream.point(point1[0], point1[1]);
}
point0 = point1, v0 = v, c0 = c;
},
lineEnd: function() {
if (v0) stream.lineEnd();
point0 = null;
},
// Rejoin first and last segments if there were intersections and the first
// and last points were visible.
clean: function() {
return clean | ((v00 && v0) << 1);
}
};
}
// Intersects the great circle between a and b with the clip circle.
function intersect(a, b, two) {
var pa = cartesian(a),
pb = cartesian(b);
// We have two planes, n1.p = d1 and n2.p = d2.
// Find intersection line p(t) = c1 n1 + c2 n2 + t (n1 ⨯ n2).
var n1 = [1, 0, 0], // normal
n2 = cartesianCross(pa, pb),
n2n2 = cartesianDot(n2, n2),
n1n2 = n2[0], // cartesianDot(n1, n2),
determinant = n2n2 - n1n2 * n1n2;
// Two polar points.
if (!determinant) return !two && a;
var c1 = cr * n2n2 / determinant,
c2 = -cr * n1n2 / determinant,
n1xn2 = cartesianCross(n1, n2),
A = cartesianScale(n1, c1),
B = cartesianScale(n2, c2);
cartesianAddInPlace(A, B);
// Solve |p(t)|^2 = 1.
var u = n1xn2,
w = cartesianDot(A, u),
uu = cartesianDot(u, u),
t2 = w * w - uu * (cartesianDot(A, A) - 1);
if (t2 < 0) return;
var t = sqrt(t2),
q = cartesianScale(u, (-w - t) / uu);
cartesianAddInPlace(q, A);
q = spherical(q);
if (!two) return q;
// Two intersection points.
var lambda0 = a[0],
lambda1 = b[0],
phi0 = a[1],
phi1 = b[1],
z;
if (lambda1 < lambda0) z = lambda0, lambda0 = lambda1, lambda1 = z;
var delta = lambda1 - lambda0,
polar = abs(delta - pi) < epsilon,
meridian = polar || delta < epsilon;
if (!polar && phi1 < phi0) z = phi0, phi0 = phi1, phi1 = z;
// Check that the first point is between a and b.
if (meridian
? polar
? phi0 + phi1 > 0 ^ q[1] < (abs(q[0] - lambda0) < epsilon ? phi0 : phi1)
: phi0 <= q[1] && q[1] <= phi1
: delta > pi ^ (lambda0 <= q[0] && q[0] <= lambda1)) {
var q1 = cartesianScale(u, (-w + t) / uu);
cartesianAddInPlace(q1, A);
return [q, spherical(q1)];
}
}
// Generates a 4-bit vector representing the location of a point relative to
// the small circle's bounding box.
function code(lambda, phi) {
var r = smallRadius ? radius : pi - radius,
code = 0;
if (lambda < -r) code |= 1; // left
else if (lambda > r) code |= 2; // right
if (phi < -r) code |= 4; // below
else if (phi > r) code |= 8; // above
return code;
}
return clip(visible, clipLine, interpolate, smallRadius ? [0, -radius] : [-pi, radius - pi]);
}
function clipLine(a, b, x0, y0, x1, y1) {
var ax = a[0],
ay = a[1],
bx = b[0],
by = b[1],
t0 = 0,
t1 = 1,
dx = bx - ax,
dy = by - ay,
r;
r = x0 - ax;
if (!dx && r > 0) return;
r /= dx;
if (dx < 0) {
if (r < t0) return;
if (r < t1) t1 = r;
} else if (dx > 0) {
if (r > t1) return;
if (r > t0) t0 = r;
}
r = x1 - ax;
if (!dx && r < 0) return;
r /= dx;
if (dx < 0) {
if (r > t1) return;
if (r > t0) t0 = r;
} else if (dx > 0) {
if (r < t0) return;
if (r < t1) t1 = r;
}
r = y0 - ay;
if (!dy && r > 0) return;
r /= dy;
if (dy < 0) {
if (r < t0) return;
if (r < t1) t1 = r;
} else if (dy > 0) {
if (r > t1) return;
if (r > t0) t0 = r;
}
r = y1 - ay;
if (!dy && r < 0) return;
r /= dy;
if (dy < 0) {
if (r > t1) return;
if (r > t0) t0 = r;
} else if (dy > 0) {
if (r < t0) return;
if (r < t1) t1 = r;
}
if (t0 > 0) a[0] = ax + t0 * dx, a[1] = ay + t0 * dy;
if (t1 < 1) b[0] = ax + t1 * dx, b[1] = ay + t1 * dy;
return true;
}
var clipMax = 1e9, clipMin = -clipMax;
// TODO Use d3-polygon’s polygonContains here for the ring check?
// TODO Eliminate duplicate buffering in clipBuffer and polygon.push?
function clipRectangle(x0, y0, x1, y1) {
function visible(x, y) {
return x0 <= x && x <= x1 && y0 <= y && y <= y1;
}
function interpolate(from, to, direction, stream) {
var a = 0, a1 = 0;
if (from == null
|| (a = corner(from, direction)) !== (a1 = corner(to, direction))
|| comparePoint(from, to) < 0 ^ direction > 0) {
do stream.point(a === 0 || a === 3 ? x0 : x1, a > 1 ? y1 : y0);
while ((a = (a + direction + 4) % 4) !== a1);
} else {
stream.point(to[0], to[1]);
}
}
function corner(p, direction) {
return abs(p[0] - x0) < epsilon ? direction > 0 ? 0 : 3
: abs(p[0] - x1) < epsilon ? direction > 0 ? 2 : 1
: abs(p[1] - y0) < epsilon ? direction > 0 ? 1 : 0
: direction > 0 ? 3 : 2; // abs(p[1] - y1) < epsilon
}
function compareIntersection(a, b) {
return comparePoint(a.x, b.x);
}
function comparePoint(a, b) {
var ca = corner(a, 1),
cb = corner(b, 1);
return ca !== cb ? ca - cb
: ca === 0 ? b[1] - a[1]
: ca === 1 ? a[0] - b[0]
: ca === 2 ? a[1] - b[1]
: b[0] - a[0];
}
return function(stream) {
var activeStream = stream,
bufferStream = clipBuffer(),
segments,
polygon,
ring,
x__, y__, v__, // first point
x_, y_, v_, // previous point
first,
clean;
var clipStream = {
point: point,
lineStart: lineStart,
lineEnd: lineEnd,
polygonStart: polygonStart,
polygonEnd: polygonEnd
};
function point(x, y) {
if (visible(x, y)) activeStream.point(x, y);
}
function polygonInside() {
var winding = 0;
for (var i = 0, n = polygon.length; i < n; ++i) {
for (var ring = polygon[i], j = 1, m = ring.length, point = ring[0], a0, a1, b0 = point[0], b1 = point[1]; j < m; ++j) {
a0 = b0, a1 = b1, point = ring[j], b0 = point[0], b1 = point[1];
if (a1 <= y1) { if (b1 > y1 && (b0 - a0) * (y1 - a1) > (b1 - a1) * (x0 - a0)) ++winding; }
else { if (b1 <= y1 && (b0 - a0) * (y1 - a1) < (b1 - a1) * (x0 - a0)) --winding; }
}
}
return winding;
}
// Buffer geometry within a polygon and then clip it en masse.
function polygonStart() {
activeStream = bufferStream, segments = [], polygon = [], clean = true;
}
function polygonEnd() {
var startInside = polygonInside(),
cleanInside = clean && startInside,
visible = (segments = merge(segments)).length;
if (cleanInside || visible) {
stream.polygonStart();
if (cleanInside) {
stream.lineStart();
interpolate(null, null, 1, stream);
stream.lineEnd();
}
if (visible) {
clipRejoin(segments, compareIntersection, startInside, interpolate, stream);
}
stream.polygonEnd();
}
activeStream = stream, segments = polygon = ring = null;
}
function lineStart() {
clipStream.point = linePoint;
if (polygon) polygon.push(ring = []);
first = true;
v_ = false;
x_ = y_ = NaN;
}
// TODO rather than special-case polygons, simply handle them separately.
// Ideally, coincident intersection points should be jittered to avoid
// clipping issues.
function lineEnd() {
if (segments) {
linePoint(x__, y__);
if (v__ && v_) bufferStream.rejoin();
segments.push(bufferStream.result());
}
clipStream.point = point;
if (v_) activeStream.lineEnd();
}
function linePoint(x, y) {
var v = visible(x, y);
if (polygon) ring.push([x, y]);
if (first) {
x__ = x, y__ = y, v__ = v;
first = false;
if (v) {
activeStream.lineStart();
activeStream.point(x, y);
}
} else {
if (v && v_) activeStream.point(x, y);
else {
var a = [x_ = Math.max(clipMin, Math.min(clipMax, x_)), y_ = Math.max(clipMin, Math.min(clipMax, y_))],
b = [x = Math.max(clipMin, Math.min(clipMax, x)), y = Math.max(clipMin, Math.min(clipMax, y))];
if (clipLine(a, b, x0, y0, x1, y1)) {
if (!v_) {
activeStream.lineStart();
activeStream.point(a[0], a[1]);
}
activeStream.point(b[0], b[1]);
if (!v) activeStream.lineEnd();
clean = false;
} else if (v) {
activeStream.lineStart();
activeStream.point(x, y);
clean = false;
}
}
}
x_ = x, y_ = y, v_ = v;
}
return clipStream;
};
}
var identity$1 = x => x;
var areaSum = new Adder(),
areaRingSum = new Adder(),
x00$2,
y00$2,
x0$3,
y0$3;
var areaStream = {
point: noop$2,
lineStart: noop$2,
lineEnd: noop$2,
polygonStart: function() {
areaStream.lineStart = areaRingStart;
areaStream.lineEnd = areaRingEnd;
},
polygonEnd: function() {
areaStream.lineStart = areaStream.lineEnd = areaStream.point = noop$2;
areaSum.add(abs(areaRingSum));
areaRingSum = new Adder();
},
result: function() {
var area = areaSum / 2;
areaSum = new Adder();
return area;
}
};
function areaRingStart() {
areaStream.point = areaPointFirst;
}
function areaPointFirst(x, y) {
areaStream.point = areaPoint;
x00$2 = x0$3 = x, y00$2 = y0$3 = y;
}
function areaPoint(x, y) {
areaRingSum.add(y0$3 * x - x0$3 * y);
x0$3 = x, y0$3 = y;
}
function areaRingEnd() {
areaPoint(x00$2, y00$2);
}
var x0$2 = Infinity,
y0$2 = x0$2,
x1 = -x0$2,
y1 = x1;
var boundsStream = {
point: boundsPoint,
lineStart: noop$2,
lineEnd: noop$2,
polygonStart: noop$2,
polygonEnd: noop$2,
result: function() {
var bounds = [[x0$2, y0$2], [x1, y1]];
x1 = y1 = -(y0$2 = x0$2 = Infinity);
return bounds;
}
};
function boundsPoint(x, y) {
if (x < x0$2) x0$2 = x;
if (x > x1) x1 = x;
if (y < y0$2) y0$2 = y;
if (y > y1) y1 = y;
}
// TODO Enforce positive area for exterior, negative area for interior?
var X0 = 0,
Y0 = 0,
Z0 = 0,
X1 = 0,
Y1 = 0,
Z1 = 0,
X2 = 0,
Y2 = 0,
Z2 = 0,
x00$1,
y00$1,
x0$1,
y0$1;
var centroidStream = {
point: centroidPoint,
lineStart: centroidLineStart,
lineEnd: centroidLineEnd,
polygonStart: function() {
centroidStream.lineStart = centroidRingStart;
centroidStream.lineEnd = centroidRingEnd;
},
polygonEnd: function() {
centroidStream.point = centroidPoint;
centroidStream.lineStart = centroidLineStart;
centroidStream.lineEnd = centroidLineEnd;
},
result: function() {
var centroid = Z2 ? [X2 / Z2, Y2 / Z2]
: Z1 ? [X1 / Z1, Y1 / Z1]
: Z0 ? [X0 / Z0, Y0 / Z0]
: [NaN, NaN];
X0 = Y0 = Z0 =
X1 = Y1 = Z1 =
X2 = Y2 = Z2 = 0;
return centroid;
}
};
function centroidPoint(x, y) {
X0 += x;
Y0 += y;
++Z0;
}
function centroidLineStart() {
centroidStream.point = centroidPointFirstLine;
}
function centroidPointFirstLine(x, y) {
centroidStream.point = centroidPointLine;
centroidPoint(x0$1 = x, y0$1 = y);
}
function centroidPointLine(x, y) {
var dx = x - x0$1, dy = y - y0$1, z = sqrt(dx * dx + dy * dy);
X1 += z * (x0$1 + x) / 2;
Y1 += z * (y0$1 + y) / 2;
Z1 += z;
centroidPoint(x0$1 = x, y0$1 = y);
}
function centroidLineEnd() {
centroidStream.point = centroidPoint;
}
function centroidRingStart() {
centroidStream.point = centroidPointFirstRing;
}
function centroidRingEnd() {
centroidPointRing(x00$1, y00$1);
}
function centroidPointFirstRing(x, y) {
centroidStream.point = centroidPointRing;
centroidPoint(x00$1 = x0$1 = x, y00$1 = y0$1 = y);
}
function centroidPointRing(x, y) {
var dx = x - x0$1,
dy = y - y0$1,
z = sqrt(dx * dx + dy * dy);
X1 += z * (x0$1 + x) / 2;
Y1 += z * (y0$1 + y) / 2;
Z1 += z;
z = y0$1 * x - x0$1 * y;
X2 += z * (x0$1 + x);
Y2 += z * (y0$1 + y);
Z2 += z * 3;
centroidPoint(x0$1 = x, y0$1 = y);
}
function PathContext(context) {
this._context = context;
}
PathContext.prototype = {
_radius: 4.5,
pointRadius: function(_) {
return this._radius = _, this;
},
polygonStart: function() {
this._line = 0;
},
polygonEnd: function() {
this._line = NaN;
},
lineStart: function() {
this._point = 0;
},
lineEnd: function() {
if (this._line === 0) this._context.closePath();
this._point = NaN;
},
point: function(x, y) {
switch (this._point) {
case 0: {
this._context.moveTo(x, y);
this._point = 1;
break;
}
case 1: {
this._context.lineTo(x, y);
break;
}
default: {
this._context.moveTo(x + this._radius, y);
this._context.arc(x, y, this._radius, 0, tau);
break;
}
}
},
result: noop$2
};
var lengthSum = new Adder(),
lengthRing,
x00,
y00,
x0,
y0;
var lengthStream = {
point: noop$2,
lineStart: function() {
lengthStream.point = lengthPointFirst;
},
lineEnd: function() {
if (lengthRing) lengthPoint(x00, y00);
lengthStream.point = noop$2;
},
polygonStart: function() {
lengthRing = true;
},
polygonEnd: function() {
lengthRing = null;
},
result: function() {
var length = +lengthSum;
lengthSum = new Adder();
return length;
}
};
function lengthPointFirst(x, y) {
lengthStream.point = lengthPoint;
x00 = x0 = x, y00 = y0 = y;
}
function lengthPoint(x, y) {
x0 -= x, y0 -= y;
lengthSum.add(sqrt(x0 * x0 + y0 * y0));
x0 = x, y0 = y;
}
function PathString() {
this._string = [];
}
PathString.prototype = {
_radius: 4.5,
_circle: circle(4.5),
pointRadius: function(_) {
if ((_ = +_) !== this._radius) this._radius = _, this._circle = null;
return this;
},
polygonStart: function() {
this._line = 0;
},
polygonEnd: function() {
this._line = NaN;
},
lineStart: function() {
this._point = 0;
},
lineEnd: function() {
if (this._line === 0) this._string.push("Z");
this._point = NaN;
},
point: function(x, y) {
switch (this._point) {
case 0: {
this._string.push("M", x, ",", y);
this._point = 1;
break;
}
case 1: {
this._string.push("L", x, ",", y);
break;
}
default: {
if (this._circle == null) this._circle = circle(this._radius);
this._string.push("M", x, ",", y, this._circle);
break;
}
}
},
result: function() {
if (this._string.length) {
var result = this._string.join("");
this._string = [];
return result;
} else {
return null;
}
}
};
function circle(radius) {
return "m0," + radius
+ "a" + radius + "," + radius + " 0 1,1 0," + -2 * radius
+ "a" + radius + "," + radius + " 0 1,1 0," + 2 * radius
+ "z";
}
function geoPath(projection, context) {
var pointRadius = 4.5,
projectionStream,
contextStream;
function path(object) {
if (object) {
if (typeof pointRadius === "function") contextStream.pointRadius(+pointRadius.apply(this, arguments));
geoStream(object, projectionStream(contextStream));
}
return contextStream.result();
}
path.area = function(object) {
geoStream(object, projectionStream(areaStream));
return areaStream.result();
};
path.measure = function(object) {
geoStream(object, projectionStream(lengthStream));
return lengthStream.result();
};
path.bounds = function(object) {
geoStream(object, projectionStream(boundsStream));
return boundsStream.result();
};
path.centroid = function(object) {
geoStream(object, projectionStream(centroidStream));
return centroidStream.result();
};
path.projection = function(_) {
return arguments.length ? (projectionStream = _ == null ? (projection = null, identity$1) : (projection = _).stream, path) : projection;
};
path.context = function(_) {
if (!arguments.length) return context;
contextStream = _ == null ? (context = null, new PathString) : new PathContext(context = _);
if (typeof pointRadius !== "function") contextStream.pointRadius(pointRadius);
return path;
};
path.pointRadius = function(_) {
if (!arguments.length) return pointRadius;
pointRadius = typeof _ === "function" ? _ : (contextStream.pointRadius(+_), +_);
return path;
};
return path.projection(projection).context(context);
}
function transformer(methods) {
return function(stream) {
var s = new TransformStream;
for (var key in methods) s[key] = methods[key];
s.stream = stream;
return s;
};
}
function TransformStream() {}
TransformStream.prototype = {
constructor: TransformStream,
point: function(x, y) { this.stream.point(x, y); },
sphere: function() { this.stream.sphere(); },
lineStart: function() { this.stream.lineStart(); },
lineEnd: function() { this.stream.lineEnd(); },
polygonStart: function() { this.stream.polygonStart(); },
polygonEnd: function() { this.stream.polygonEnd(); }
};
function fit(projection, fitBounds, object) {
var clip = projection.clipExtent && projection.clipExtent();
projection.scale(150).translate([0, 0]);
if (clip != null) projection.clipExtent(null);
geoStream(object, projection.stream(boundsStream));
fitBounds(boundsStream.result());
if (clip != null) projection.clipExtent(clip);
return projection;
}
function fitExtent(projection, extent, object) {
return fit(projection, function(b) {
var w = extent[1][0] - extent[0][0],
h = extent[1][1] - extent[0][1],
k = Math.min(w / (b[1][0] - b[0][0]), h / (b[1][1] - b[0][1])),
x = +extent[0][0] + (w - k * (b[1][0] + b[0][0])) / 2,
y = +extent[0][1] + (h - k * (b[1][1] + b[0][1])) / 2;
projection.scale(150 * k).translate([x, y]);
}, object);
}
function fitSize(projection, size, object) {
return fitExtent(projection, [[0, 0], size], object);
}
function fitWidth(projection, width, object) {
return fit(projection, function(b) {
var w = +width,
k = w / (b[1][0] - b[0][0]),
x = (w - k * (b[1][0] + b[0][0])) / 2,
y = -k * b[0][1];
projection.scale(150 * k).translate([x, y]);
}, object);
}
function fitHeight(projection, height, object) {
return fit(projection, function(b) {
var h = +height,
k = h / (b[1][1] - b[0][1]),
x = -k * b[0][0],
y = (h - k * (b[1][1] + b[0][1])) / 2;
projection.scale(150 * k).translate([x, y]);
}, object);
}
var maxDepth = 16, // maximum depth of subdivision
cosMinDistance = cos(30 * radians); // cos(minimum angular distance)
function resample(project, delta2) {
return +delta2 ? resample$1(project, delta2) : resampleNone(project);
}
function resampleNone(project) {
return transformer({
point: function(x, y) {
x = project(x, y);
this.stream.point(x[0], x[1]);
}
});
}
function resample$1(project, delta2) {
function resampleLineTo(x0, y0, lambda0, a0, b0, c0, x1, y1, lambda1, a1, b1, c1, depth, stream) {
var dx = x1 - x0,
dy = y1 - y0,
d2 = dx * dx + dy * dy;
if (d2 > 4 * delta2 && depth--) {
var a = a0 + a1,
b = b0 + b1,
c = c0 + c1,
m = sqrt(a * a + b * b + c * c),
phi2 = asin(c /= m),
lambda2 = abs(abs(c) - 1) < epsilon || abs(lambda0 - lambda1) < epsilon ? (lambda0 + lambda1) / 2 : atan2(b, a),
p = project(lambda2, phi2),
x2 = p[0],
y2 = p[1],
dx2 = x2 - x0,
dy2 = y2 - y0,
dz = dy * dx2 - dx * dy2;
if (dz * dz / d2 > delta2 // perpendicular projected distance
|| abs((dx * dx2 + dy * dy2) / d2 - 0.5) > 0.3 // midpoint close to an end
|| a0 * a1 + b0 * b1 + c0 * c1 < cosMinDistance) { // angular distance
resampleLineTo(x0, y0, lambda0, a0, b0, c0, x2, y2, lambda2, a /= m, b /= m, c, depth, stream);
stream.point(x2, y2);
resampleLineTo(x2, y2, lambda2, a, b, c, x1, y1, lambda1, a1, b1, c1, depth, stream);
}
}
}
return function(stream) {
var lambda00, x00, y00, a00, b00, c00, // first point
lambda0, x0, y0, a0, b0, c0; // previous point
var resampleStream = {
point: point,
lineStart: lineStart,
lineEnd: lineEnd,
polygonStart: function() { stream.polygonStart(); resampleStream.lineStart = ringStart; },
polygonEnd: function() { stream.polygonEnd(); resampleStream.lineStart = lineStart; }
};
function point(x, y) {
x = project(x, y);
stream.point(x[0], x[1]);
}
function lineStart() {
x0 = NaN;
resampleStream.point = linePoint;
stream.lineStart();
}
function linePoint(lambda, phi) {
var c = cartesian([lambda, phi]), p = project(lambda, phi);
resampleLineTo(x0, y0, lambda0, a0, b0, c0, x0 = p[0], y0 = p[1], lambda0 = lambda, a0 = c[0], b0 = c[1], c0 = c[2], maxDepth, stream);
stream.point(x0, y0);
}
function lineEnd() {
resampleStream.point = point;
stream.lineEnd();
}
function ringStart() {
lineStart();
resampleStream.point = ringPoint;
resampleStream.lineEnd = ringEnd;
}
function ringPoint(lambda, phi) {
linePoint(lambda00 = lambda, phi), x00 = x0, y00 = y0, a00 = a0, b00 = b0, c00 = c0;
resampleStream.point = linePoint;
}
function ringEnd() {
resampleLineTo(x0, y0, lambda0, a0, b0, c0, x00, y00, lambda00, a00, b00, c00, maxDepth, stream);
resampleStream.lineEnd = lineEnd;
lineEnd();
}
return resampleStream;
};
}
var transformRadians = transformer({
point: function(x, y) {
this.stream.point(x * radians, y * radians);
}
});
function transformRotate(rotate) {
return transformer({
point: function(x, y) {
var r = rotate(x, y);
return this.stream.point(r[0], r[1]);
}
});
}
function scaleTranslate(k, dx, dy, sx, sy) {
function transform(x, y) {
x *= sx; y *= sy;
return [dx + k * x, dy - k * y];
}
transform.invert = function(x, y) {
return [(x - dx) / k * sx, (dy - y) / k * sy];
};
return transform;
}
function scaleTranslateRotate(k, dx, dy, sx, sy, alpha) {
if (!alpha) return scaleTranslate(k, dx, dy, sx, sy);
var cosAlpha = cos(alpha),
sinAlpha = sin(alpha),
a = cosAlpha * k,
b = sinAlpha * k,
ai = cosAlpha / k,
bi = sinAlpha / k,
ci = (sinAlpha * dy - cosAlpha * dx) / k,
fi = (sinAlpha * dx + cosAlpha * dy) / k;
function transform(x, y) {
x *= sx; y *= sy;
return [a * x - b * y + dx, dy - b * x - a * y];
}
transform.invert = function(x, y) {
return [sx * (ai * x - bi * y + ci), sy * (fi - bi * x - ai * y)];
};
return transform;
}
function projection(project) {
return projectionMutator(function() { return project; })();
}
function projectionMutator(projectAt) {
var project,
k = 150, // scale
x = 480, y = 250, // translate
lambda = 0, phi = 0, // center
deltaLambda = 0, deltaPhi = 0, deltaGamma = 0, rotate, // pre-rotate
alpha = 0, // post-rotate angle
sx = 1, // reflectX
sy = 1, // reflectX
theta = null, preclip = clipAntimeridian, // pre-clip angle
x0 = null, y0, x1, y1, postclip = identity$1, // post-clip extent
delta2 = 0.5, // precision
projectResample,
projectTransform,
projectRotateTransform,
cache,
cacheStream;
function projection(point) {
return projectRotateTransform(point[0] * radians, point[1] * radians);
}
function invert(point) {
point = projectRotateTransform.invert(point[0], point[1]);
return point && [point[0] * degrees, point[1] * degrees];
}
projection.stream = function(stream) {
return cache && cacheStream === stream ? cache : cache = transformRadians(transformRotate(rotate)(preclip(projectResample(postclip(cacheStream = stream)))));
};
projection.preclip = function(_) {
return arguments.length ? (preclip = _, theta = undefined, reset()) : preclip;
};
projection.postclip = function(_) {
return arguments.length ? (postclip = _, x0 = y0 = x1 = y1 = null, reset()) : postclip;
};
projection.clipAngle = function(_) {
return arguments.length ? (preclip = +_ ? clipCircle(theta = _ * radians) : (theta = null, clipAntimeridian), reset()) : theta * degrees;
};
projection.clipExtent = function(_) {
return arguments.length ? (postclip = _ == null ? (x0 = y0 = x1 = y1 = null, identity$1) : clipRectangle(x0 = +_[0][0], y0 = +_[0][1], x1 = +_[1][0], y1 = +_[1][1]), reset()) : x0 == null ? null : [[x0, y0], [x1, y1]];
};
projection.scale = function(_) {
return arguments.length ? (k = +_, recenter()) : k;
};
projection.translate = function(_) {
return arguments.length ? (x = +_[0], y = +_[1], recenter()) : [x, y];
};
projection.center = function(_) {
return arguments.length ? (lambda = _[0] % 360 * radians, phi = _[1] % 360 * radians, recenter()) : [lambda * degrees, phi * degrees];
};
projection.rotate = function(_) {
return arguments.length ? (deltaLambda = _[0] % 360 * radians, deltaPhi = _[1] % 360 * radians, deltaGamma = _.length > 2 ? _[2] % 360 * radians : 0, recenter()) : [deltaLambda * degrees, deltaPhi * degrees, deltaGamma * degrees];
};
projection.angle = function(_) {
return arguments.length ? (alpha = _ % 360 * radians, recenter()) : alpha * degrees;
};
projection.reflectX = function(_) {
return arguments.length ? (sx = _ ? -1 : 1, recenter()) : sx < 0;
};
projection.reflectY = function(_) {
return arguments.length ? (sy = _ ? -1 : 1, recenter()) : sy < 0;
};
projection.precision = function(_) {
return arguments.length ? (projectResample = resample(projectTransform, delta2 = _ * _), reset()) : sqrt(delta2);
};
projection.fitExtent = function(extent, object) {
return fitExtent(projection, extent, object);
};
projection.fitSize = function(size, object) {
return fitSize(projection, size, object);
};
projection.fitWidth = function(width, object) {
return fitWidth(projection, width, object);
};
projection.fitHeight = function(height, object) {
return fitHeight(projection, height, object);
};
function recenter() {
var center = scaleTranslateRotate(k, 0, 0, sx, sy, alpha).apply(null, project(lambda, phi)),
transform = scaleTranslateRotate(k, x - center[0], y - center[1], sx, sy, alpha);
rotate = rotateRadians(deltaLambda, deltaPhi, deltaGamma);
projectTransform = compose(project, transform);
projectRotateTransform = compose(rotate, projectTransform);
projectResample = resample(projectTransform, delta2);
return reset();
}
function reset() {
cache = cacheStream = null;
return projection;
}
return function() {
project = projectAt.apply(this, arguments);
projection.invert = project.invert && invert;
return recenter();
};
}
var A1 = 1.340264,
A2 = -0.081106,
A3 = 0.000893,
A4 = 0.003796,
M = sqrt(3) / 2,
iterations = 12;
function equalEarthRaw(lambda, phi) {
var l = asin(M * sin(phi)), l2 = l * l, l6 = l2 * l2 * l2;
return [
lambda * cos(l) / (M * (A1 + 3 * A2 * l2 + l6 * (7 * A3 + 9 * A4 * l2))),
l * (A1 + A2 * l2 + l6 * (A3 + A4 * l2))
];
}
equalEarthRaw.invert = function(x, y) {
var l = y, l2 = l * l, l6 = l2 * l2 * l2;
for (var i = 0, delta, fy, fpy; i < iterations; ++i) {
fy = l * (A1 + A2 * l2 + l6 * (A3 + A4 * l2)) - y;
fpy = A1 + 3 * A2 * l2 + l6 * (7 * A3 + 9 * A4 * l2);
l -= delta = fy / fpy, l2 = l * l, l6 = l2 * l2 * l2;
if (abs(delta) < epsilon2) break;
}
return [
M * x * (A1 + 3 * A2 * l2 + l6 * (7 * A3 + 9 * A4 * l2)) / cos(l),
asin(sin(l) / M)
];
};
function geoEqualEarth() {
return projection(equalEarthRaw)
.scale(177.158);
}
function identity(x) {
return x;
}
function transform(transform) {
if (transform == null) return identity;
var x0,
y0,
kx = transform.scale[0],
ky = transform.scale[1],
dx = transform.translate[0],
dy = transform.translate[1];
return function(input, i) {
if (!i) x0 = y0 = 0;
var j = 2, n = input.length, output = new Array(n);
output[0] = (x0 += input[0]) * kx + dx;
output[1] = (y0 += input[1]) * ky + dy;
while (j < n) output[j] = input[j], ++j;
return output;
};
}
function reverse(array, n) {
var t, j = array.length, i = j - n;
while (i < --j) t = array[i], array[i++] = array[j], array[j] = t;
}
function feature(topology, o) {
return o.type === "GeometryCollection"
? {type: "FeatureCollection", features: o.geometries.map(function(o) { return feature$1(topology, o); })}
: feature$1(topology, o);
}
function feature$1(topology, o) {
var id = o.id,
bbox = o.bbox,
properties = o.properties == null ? {} : o.properties,
geometry = object(topology, o);
return id == null && bbox == null ? {type: "Feature", properties: properties, geometry: geometry}
: bbox == null ? {type: "Feature", id: id, properties: properties, geometry: geometry}
: {type: "Feature", id: id, bbox: bbox, properties: properties, geometry: geometry};
}
function object(topology, o) {
var transformPoint = transform(topology.transform),
arcs = topology.arcs;
function arc(i, points) {
if (points.length) points.pop();
for (var a = arcs[i < 0 ? ~i : i], k = 0, n = a.length; k < n; ++k) {
points.push(transformPoint(a[k], k));
}
if (i < 0) reverse(points, n);
}
function point(p) {
return transformPoint(p);
}
function line(arcs) {
var points = [];
for (var i = 0, n = arcs.length; i < n; ++i) arc(arcs[i], points);
if (points.length < 2) points.push(points[0]); // This should never happen per the specification.
return points;
}
function ring(arcs) {
var points = line(arcs);
while (points.length < 4) points.push(points[0]); // This may happen if an arc has only two points.
return points;
}
function polygon(arcs) {
return arcs.map(ring);
}
function geometry(o) {
var type = o.type, coordinates;
switch (type) {
case "GeometryCollection": return {type: type, geometries: o.geometries.map(geometry)};
case "Point": coordinates = point(o.coordinates); break;
case "MultiPoint": coordinates = o.coordinates.map(point); break;
case "LineString": coordinates = line(o.arcs); break;
case "MultiLineString": coordinates = o.arcs.map(line); break;
case "Polygon": coordinates = polygon(o.arcs); break;
case "MultiPolygon": coordinates = o.arcs.map(polygon); break;
default: return null;
}
return {type: type, coordinates: coordinates};
}
return geometry(o);
}
/* src\Map.svelte generated by Svelte v3.38.3 */
const file$1 = "src\\Map.svelte";
function get_each_context$1(ctx, list, i) {
const child_ctx = ctx.slice();
child_ctx[4] = list[i];
return child_ctx;
}
// (36:4) {#each points.filter(d=>d.geom) as point}
function create_each_block$1(ctx) {
let circle;
let circle_cx_value;
let circle_cy_value;
const block = {
c: function create() {
circle = svg_element("circle");
attr_dev(circle, "r", "10");
attr_dev(circle, "cx", circle_cx_value = /*projection*/ ctx[2](/*point*/ ctx[4].geom.coordinates)[0]);
attr_dev(circle, "cy", circle_cy_value = /*projection*/ ctx[2](/*point*/ ctx[4].geom.coordinates)[1]);
add_location(circle, file$1, 36, 8, 1070);
},
m: function mount(target, anchor) {
insert_dev(target, circle, anchor);
},
p: function update(ctx, dirty) {
if (dirty & /*points*/ 1 && circle_cx_value !== (circle_cx_value = /*projection*/ ctx[2](/*point*/ ctx[4].geom.coordinates)[0])) {
attr_dev(circle, "cx", circle_cx_value);
}
if (dirty & /*points*/ 1 && circle_cy_value !== (circle_cy_value = /*projection*/ ctx[2](/*point*/ ctx[4].geom.coordinates)[1])) {
attr_dev(circle, "cy", circle_cy_value);
}
},
d: function destroy(detaching) {
if (detaching) detach_dev(circle);
}
};
dispatch_dev("SvelteRegisterBlock", {
block,
id: create_each_block$1.name,
type: "each",
source: "(36:4) {#each points.filter(d=>d.geom) as point}",
ctx
});
return block;
}
function create_fragment$1(ctx) {
let svg;
let path_1;
let each_value = /*points*/ ctx[0].filter(func);
validate_each_argument(each_value);
let each_blocks = [];
for (let i = 0; i < each_value.length; i += 1) {
each_blocks[i] = create_each_block$1(get_each_context$1(ctx, each_value, i));
}
const block = {
c: function create() {
svg = svg_element("svg");
path_1 = svg_element("path");
for (let i = 0; i < each_blocks.length; i += 1) {
each_blocks[i].c();
}
attr_dev(path_1, "d", /*data*/ ctx[1]);
attr_dev(path_1, "class", "border svelte-1x0lp3d");
add_location(path_1, file$1, 34, 4, 981);
attr_dev(svg, "width", "960");
attr_dev(svg, "height", "500");
attr_dev(svg, "class", "svelte-1x0lp3d");
add_location(svg, file$1, 33, 2, 945);
},
l: function claim(nodes) {
throw new Error("options.hydrate only works if the component was compiled with the `hydratable: true` option");
},
m: function mount(target, anchor) {
insert_dev(target, svg, anchor);
append_dev(svg, path_1);
for (let i = 0; i < each_blocks.length; i += 1) {
each_blocks[i].m(svg, null);
}
},
p: function update(ctx, [dirty]) {
if (dirty & /*data*/ 2) {
attr_dev(path_1, "d", /*data*/ ctx[1]);
}
if (dirty & /*projection, points*/ 5) {
each_value = /*points*/ ctx[0].filter(func);
validate_each_argument(each_value);
let i;
for (i = 0; i < each_value.length; i += 1) {
const child_ctx = get_each_context$1(ctx, each_value, i);
if (each_blocks[i]) {
each_blocks[i].p(child_ctx, dirty);
} else {
each_blocks[i] = create_each_block$1(child_ctx);
each_blocks[i].c();
each_blocks[i].m(svg, null);
}
}
for (; i < each_blocks.length; i += 1) {
each_blocks[i].d(1);
}
each_blocks.length = each_value.length;
}
},
i: noop$3,
o: noop$3,
d: function destroy(detaching) {
if (detaching) detach_dev(svg);
destroy_each(each_blocks, detaching);
}
};
dispatch_dev("SvelteRegisterBlock", {
block,
id: create_fragment$1.name,
type: "component",
source: "",
ctx
});
return block;
}
const func = d => d.geom;
function instance$1($$self, $$props, $$invalidate) {
let { $$slots: slots = {}, $$scope } = $$props;
validate_slots("Map", slots, []);
let { points } = $$props;
let data;
const projection = geoEqualEarth();
const path = geoPath().projection(projection);
onMount(async function () {
const response = await fetch("https://gist.githubusercontent.com/rveciana/502db152b70cddfd554e9d48ee23e279/raw/cc51c1b46199994b123271c629541d417f2f7d86/world-110m.json");
const json = await response.json();
const land = feature(json, json.objects.land);
$$invalidate(1, data = path(land));
});
const writable_props = ["points"];
Object.keys($$props).forEach(key => {
if (!~writable_props.indexOf(key) && key.slice(0, 2) !== "$$") console.warn(`<Map> was created with unknown prop '${key}'`);
});
$$self.$$set = $$props => {
if ("points" in $$props) $$invalidate(0, points = $$props.points);
};
$$self.$capture_state = () => ({
geoEqualEarth,
geoPath,
onMount,
feature,
points,
data,
projection,
path
});
$$self.$inject_state = $$props => {
if ("points" in $$props) $$invalidate(0, points = $$props.points);
if ("data" in $$props) $$invalidate(1, data = $$props.data);
};
if ($$props && "$$inject" in $$props) {
$$self.$inject_state($$props.$$inject);
}
return [points, data, projection];
}
class Map$1 extends SvelteComponentDev {
constructor(options) {
super(options);
init(this, options, instance$1, create_fragment$1, safe_not_equal, { points: 0 });
dispatch_dev("SvelteRegisterComponent", {
component: this,
tagName: "Map",
options,
id: create_fragment$1.name
});
const { ctx } = this.$$;
const props = options.props || {};
if (/*points*/ ctx[0] === undefined && !("points" in props)) {
console.warn("<Map> was created without expected prop 'points'");
}
}
get points() {
throw new Error("<Map>: Props cannot be read directly from the component instance unless compiling with 'accessors: true' or '<svelte:options accessors/>'");
}
set points(value) {
throw new Error("<Map>: Props cannot be set directly on the component instance unless compiling with 'accessors: true' or '<svelte:options accessors/>'");
}
}
// constants.ts
const DEFAULT_HEADERS$1 = {};
var commonjsGlobal = typeof globalThis !== 'undefined' ? globalThis : typeof window !== 'undefined' ? window : typeof global !== 'undefined' ? global : typeof self !== 'undefined' ? self : {};
function getDefaultExportFromCjs (x) {
return x && x.__esModule && Object.prototype.hasOwnProperty.call(x, 'default') ? x['default'] : x;
}
function createCommonjsModule(fn) {
var module = { exports: {} };
return fn(module, module.exports), module.exports;
}
var browserPonyfill = createCommonjsModule(function (module, exports) {
var global = typeof self !== 'undefined' ? self : commonjsGlobal;
var __self__ = (function () {
function F() {
this.fetch = false;
this.DOMException = global.DOMException;
}
F.prototype = global;
return new F();
})();
(function(self) {
((function (exports) {
var support = {
searchParams: 'URLSearchParams' in self,
iterable: 'Symbol' in self && 'iterator' in Symbol,
blob:
'FileReader' in self &&
'Blob' in self &&
(function() {
try {
new Blob();
return true
} catch (e) {
return false
}
})(),
formData: 'FormData' in self,
arrayBuffer: 'ArrayBuffer' in self
};
function isDataView(obj) {
return obj && DataView.prototype.isPrototypeOf(obj)
}
if (support.arrayBuffer) {
var viewClasses = [
'[object Int8Array]',
'[object Uint8Array]',
'[object Uint8ClampedArray]',
'[object Int16Array]',
'[object Uint16Array]',
'[object Int32Array]',
'[object Uint32Array]',
'[object Float32Array]',
'[object Float64Array]'
];
var isArrayBufferView =
ArrayBuffer.isView ||
function(obj) {
return obj && viewClasses.indexOf(Object.prototype.toString.call(obj)) > -1
};
}
function normalizeName(name) {
if (typeof name !== 'string') {
name = String(name);
}
if (/[^a-z0-9\-#$%&'*+.^_`|~]/i.test(name)) {
throw new TypeError('Invalid character in header field name')
}
return name.toLowerCase()
}
function normalizeValue(value) {
if (typeof value !== 'string') {
value = String(value);
}
return value
}
// Build a destructive iterator for the value list
function iteratorFor(items) {
var iterator = {
next: function() {
var value = items.shift();
return {done: value === undefined, value: value}
}
};
if (support.iterable) {
iterator[Symbol.iterator] = function() {
return iterator
};
}
return iterator
}
function Headers(headers) {
this.map = {};
if (headers instanceof Headers) {
headers.forEach(function(value, name) {
this.append(name, value);
}, this);
} else if (Array.isArray(headers)) {
headers.forEach(function(header) {
this.append(header[0], header[1]);
}, this);
} else if (headers) {
Object.getOwnPropertyNames(headers).forEach(function(name) {
this.append(name, headers[name]);
}, this);
}
}
Headers.prototype.append = function(name, value) {
name = normalizeName(name);
value = normalizeValue(value);
var oldValue = this.map[name];
this.map[name] = oldValue ? oldValue + ', ' + value : value;
};
Headers.prototype['delete'] = function(name) {
delete this.map[normalizeName(name)];
};
Headers.prototype.get = function(name) {
name = normalizeName(name);
return this.has(name) ? this.map[name] : null
};
Headers.prototype.has = function(name) {
return this.map.hasOwnProperty(normalizeName(name))
};
Headers.prototype.set = function(name, value) {
this.map[normalizeName(name)] = normalizeValue(value);
};
Headers.prototype.forEach = function(callback, thisArg) {
for (var name in this.map) {
if (this.map.hasOwnProperty(name)) {
callback.call(thisArg, this.map[name], name, this);
}
}
};
Headers.prototype.keys = function() {
var items = [];
this.forEach(function(value, name) {
items.push(name);
});
return iteratorFor(items)
};
Headers.prototype.values = function() {
var items = [];
this.forEach(function(value) {
items.push(value);
});
return iteratorFor(items)
};
Headers.prototype.entries = function() {
var items = [];
this.forEach(function(value, name) {
items.push([name, value]);
});
return iteratorFor(items)
};
if (support.iterable) {
Headers.prototype[Symbol.iterator] = Headers.prototype.entries;
}
function consumed(body) {
if (body.bodyUsed) {
return Promise.reject(new TypeError('Already read'))
}
body.bodyUsed = true;
}
function fileReaderReady(reader) {
return new Promise(function(resolve, reject) {
reader.onload = function() {
resolve(reader.result);
};
reader.onerror = function() {
reject(reader.error);
};
})
}
function readBlobAsArrayBuffer(blob) {
var reader = new FileReader();
var promise = fileReaderReady(reader);
reader.readAsArrayBuffer(blob);
return promise
}
function readBlobAsText(blob) {
var reader = new FileReader();
var promise = fileReaderReady(reader);
reader.readAsText(blob);
return promise
}
function readArrayBufferAsText(buf) {
var view = new Uint8Array(buf);
var chars = new Array(view.length);
for (var i = 0; i < view.length; i++) {
chars[i] = String.fromCharCode(view[i]);
}
return chars.join('')
}
function bufferClone(buf) {
if (buf.slice) {
return buf.slice(0)
} else {
var view = new Uint8Array(buf.byteLength);
view.set(new Uint8Array(buf));
return view.buffer
}
}
function Body() {
this.bodyUsed = false;
this._initBody = function(body) {
this._bodyInit = body;
if (!body) {
this._bodyText = '';
} else if (typeof body === 'string') {
this._bodyText = body;
} else if (support.blob && Blob.prototype.isPrototypeOf(body)) {
this._bodyBlob = body;
} else if (support.formData && FormData.prototype.isPrototypeOf(body)) {
this._bodyFormData = body;
} else if (support.searchParams && URLSearchParams.prototype.isPrototypeOf(body)) {
this._bodyText = body.toString();
} else if (support.arrayBuffer && support.blob && isDataView(body)) {
this._bodyArrayBuffer = bufferClone(body.buffer);
// IE 10-11 can't handle a DataView body.
this._bodyInit = new Blob([this._bodyArrayBuffer]);
} else if (support.arrayBuffer && (ArrayBuffer.prototype.isPrototypeOf(body) || isArrayBufferView(body))) {
this._bodyArrayBuffer = bufferClone(body);
} else {
this._bodyText = body = Object.prototype.toString.call(body);
}
if (!this.headers.get('content-type')) {
if (typeof body === 'string') {
this.headers.set('content-type', 'text/plain;charset=UTF-8');
} else if (this._bodyBlob && this._bodyBlob.type) {
this.headers.set('content-type', this._bodyBlob.type);
} else if (support.searchParams && URLSearchParams.prototype.isPrototypeOf(body)) {
this.headers.set('content-type', 'application/x-www-form-urlencoded;charset=UTF-8');
}
}
};
if (support.blob) {
this.blob = function() {
var rejected = consumed(this);
if (rejected) {
return rejected
}
if (this._bodyBlob) {
return Promise.resolve(this._bodyBlob)
} else if (this._bodyArrayBuffer) {
return Promise.resolve(new Blob([this._bodyArrayBuffer]))
} else if (this._bodyFormData) {
throw new Error('could not read FormData body as blob')
} else {
return Promise.resolve(new Blob([this._bodyText]))
}
};
this.arrayBuffer = function() {
if (this._bodyArrayBuffer) {
return consumed(this) || Promise.resolve(this._bodyArrayBuffer)
} else {
return this.blob().then(readBlobAsArrayBuffer)
}
};
}
this.text = function() {
var rejected = consumed(this);
if (rejected) {
return rejected
}
if (this._bodyBlob) {
return readBlobAsText(this._bodyBlob)
} else if (this._bodyArrayBuffer) {
return Promise.resolve(readArrayBufferAsText(this._bodyArrayBuffer))
} else if (this._bodyFormData) {
throw new Error('could not read FormData body as text')
} else {
return Promise.resolve(this._bodyText)
}
};
if (support.formData) {
this.formData = function() {
return this.text().then(decode)
};
}
this.json = function() {
return this.text().then(JSON.parse)
};
return this
}
// HTTP methods whose capitalization should be normalized
var methods = ['DELETE', 'GET', 'HEAD', 'OPTIONS', 'POST', 'PUT'];
function normalizeMethod(method) {
var upcased = method.toUpperCase();
return methods.indexOf(upcased) > -1 ? upcased : method
}
function Request(input, options) {
options = options || {};
var body = options.body;
if (input instanceof Request) {
if (input.bodyUsed) {
throw new TypeError('Already read')
}
this.url = input.url;
this.credentials = input.credentials;
if (!options.headers) {
this.headers = new Headers(input.headers);
}
this.method = input.method;
this.mode = input.mode;
this.signal = input.signal;
if (!body && input._bodyInit != null) {
body = input._bodyInit;
input.bodyUsed = true;
}
} else {
this.url = String(input);
}
this.credentials = options.credentials || this.credentials || 'same-origin';
if (options.headers || !this.headers) {
this.headers = new Headers(options.headers);
}
this.method = normalizeMethod(options.method || this.method || 'GET');
this.mode = options.mode || this.mode || null;
this.signal = options.signal || this.signal;
this.referrer = null;
if ((this.method === 'GET' || this.method === 'HEAD') && body) {
throw new TypeError('Body not allowed for GET or HEAD requests')
}
this._initBody(body);
}
Request.prototype.clone = function() {
return new Request(this, {body: this._bodyInit})
};
function decode(body) {
var form = new FormData();
body
.trim()
.split('&')
.forEach(function(bytes) {
if (bytes) {
var split = bytes.split('=');
var name = split.shift().replace(/\+/g, ' ');
var value = split.join('=').replace(/\+/g, ' ');
form.append(decodeURIComponent(name), decodeURIComponent(value));
}
});
return form
}
function parseHeaders(rawHeaders) {
var headers = new Headers();
// Replace instances of \r\n and \n followed by at least one space or horizontal tab with a space
// https://tools.ietf.org/html/rfc7230#section-3.2
var preProcessedHeaders = rawHeaders.replace(/\r?\n[\t ]+/g, ' ');
preProcessedHeaders.split(/\r?\n/).forEach(function(line) {
var parts = line.split(':');
var key = parts.shift().trim();
if (key) {
var value = parts.join(':').trim();
headers.append(key, value);
}
});
return headers
}
Body.call(Request.prototype);
function Response(bodyInit, options) {
if (!options) {
options = {};
}
this.type = 'default';
this.status = options.status === undefined ? 200 : options.status;
this.ok = this.status >= 200 && this.status < 300;
this.statusText = 'statusText' in options ? options.statusText : 'OK';
this.headers = new Headers(options.headers);
this.url = options.url || '';
this._initBody(bodyInit);
}
Body.call(Response.prototype);
Response.prototype.clone = function() {
return new Response(this._bodyInit, {
status: this.status,
statusText: this.statusText,
headers: new Headers(this.headers),
url: this.url
})
};
Response.error = function() {
var response = new Response(null, {status: 0, statusText: ''});
response.type = 'error';
return response
};
var redirectStatuses = [301, 302, 303, 307, 308];
Response.redirect = function(url, status) {
if (redirectStatuses.indexOf(status) === -1) {
throw new RangeError('Invalid status code')
}
return new Response(null, {status: status, headers: {location: url}})
};
exports.DOMException = self.DOMException;
try {
new exports.DOMException();
} catch (err) {
exports.DOMException = function(message, name) {
this.message = message;
this.name = name;
var error = Error(message);
this.stack = error.stack;
};
exports.DOMException.prototype = Object.create(Error.prototype);
exports.DOMException.prototype.constructor = exports.DOMException;
}
function fetch(input, init) {
return new Promise(function(resolve, reject) {
var request = new Request(input, init);
if (request.signal && request.signal.aborted) {
return reject(new exports.DOMException('Aborted', 'AbortError'))
}
var xhr = new XMLHttpRequest();
function abortXhr() {
xhr.abort();
}
xhr.onload = function() {
var options = {
status: xhr.status,
statusText: xhr.statusText,
headers: parseHeaders(xhr.getAllResponseHeaders() || '')
};
options.url = 'responseURL' in xhr ? xhr.responseURL : options.headers.get('X-Request-URL');
var body = 'response' in xhr ? xhr.response : xhr.responseText;
resolve(new Response(body, options));
};
xhr.onerror = function() {
reject(new TypeError('Network request failed'));
};
xhr.ontimeout = function() {
reject(new TypeError('Network request failed'));
};
xhr.onabort = function() {
reject(new exports.DOMException('Aborted', 'AbortError'));
};
xhr.open(request.method, request.url, true);
if (request.credentials === 'include') {
xhr.withCredentials = true;
} else if (request.credentials === 'omit') {
xhr.withCredentials = false;
}
if ('responseType' in xhr && support.blob) {
xhr.responseType = 'blob';
}
request.headers.forEach(function(value, name) {
xhr.setRequestHeader(name, value);
});
if (request.signal) {
request.signal.addEventListener('abort', abortXhr);
xhr.onreadystatechange = function() {
// DONE (success or failure)
if (xhr.readyState === 4) {
request.signal.removeEventListener('abort', abortXhr);
}
};
}
xhr.send(typeof request._bodyInit === 'undefined' ? null : request._bodyInit);
})
}
fetch.polyfill = true;
if (!self.fetch) {
self.fetch = fetch;
self.Headers = Headers;
self.Request = Request;
self.Response = Response;
}
exports.Headers = Headers;
exports.Request = Request;
exports.Response = Response;
exports.fetch = fetch;
Object.defineProperty(exports, '__esModule', { value: true });
return exports;
})({}));
})(__self__);
__self__.fetch.ponyfill = true;
// Remove "polyfill" property added by whatwg-fetch
delete __self__.fetch.polyfill;
// Choose between native implementation (global) or custom implementation (__self__)
// var ctx = global.fetch ? global : __self__;
var ctx = __self__; // this line disable service worker support temporarily
exports = ctx.fetch; // To enable: import fetch from 'cross-fetch'
exports.default = ctx.fetch; // For TypeScript consumers without esModuleInterop.
exports.fetch = ctx.fetch; // To enable: import {fetch} from 'cross-fetch'
exports.Headers = ctx.Headers;
exports.Request = ctx.Request;
exports.Response = ctx.Response;
module.exports = exports;
});
var fetch$1 = /*@__PURE__*/getDefaultExportFromCjs(browserPonyfill);
var __awaiter$8 = (undefined && undefined.__awaiter) || function (thisArg, _arguments, P, generator) {
function adopt(value) { return value instanceof P ? value : new P(function (resolve) { resolve(value); }); }
return new (P || (P = Promise))(function (resolve, reject) {
function fulfilled(value) { try { step(generator.next(value)); } catch (e) { reject(e); } }
function rejected(value) { try { step(generator["throw"](value)); } catch (e) { reject(e); } }
function step(result) { result.done ? resolve(result.value) : adopt(result.value).then(fulfilled, rejected); }
step((generator = generator.apply(thisArg, _arguments || [])).next());
});
};
const _getErrorMessage$1 = (err) => err.msg || err.message || err.error_description || err.error || JSON.stringify(err);
const handleError$1 = (error, reject) => {
if (typeof error.json !== 'function') {
return reject(error);
}
error.json().then((err) => {
return reject({
message: _getErrorMessage$1(err),
status: (error === null || error === void 0 ? void 0 : error.status) || 500,
});
});
};
const _getRequestParams$1 = (method, options, body) => {
const params = { method, headers: (options === null || options === void 0 ? void 0 : options.headers) || {} };
if (method === 'GET') {
return params;
}
params.headers = Object.assign({ 'Content-Type': 'text/plain;charset=UTF-8' }, options === null || options === void 0 ? void 0 : options.headers);
params.body = JSON.stringify(body);
return params;
};
function _handleRequest$1(method, url, options, body) {
return __awaiter$8(this, void 0, void 0, function* () {
return new Promise((resolve, reject) => {
fetch$1(url, _getRequestParams$1(method, options, body))
.then((result) => {
if (!result.ok)
throw result;
if (options === null || options === void 0 ? void 0 : options.noResolveJson)
return resolve;
return result.json();
})
.then((data) => resolve(data))
.catch((error) => handleError$1(error, reject));
});
});
}
function get$1(url, options) {
return __awaiter$8(this, void 0, void 0, function* () {