Top 10 Examples of "vega-scale in functional component" in JavaScript
Dive into secure and efficient coding practices with our curated list of the top 10 examples showcasing 'vega-scale' in functional components in JavaScript. Our advanced machine learning engine meticulously scans each line of code, cross-referencing millions of open source libraries to ensure your implementation is not just functional, but also robust and secure. Elevate your React applications to new heights by mastering the art of handling side effects, API calls, and asynchronous operations with confidence and precision.
function configureRangeStep(type, _, count) {
if (type !== Band && type !== Point) {
error('Only band and point scales support rangeStep.');
}
// calculate full range based on requested step size and padding
var outer = (_.paddingOuter != null ? _.paddingOuter : _.padding) || 0,
inner = type === Point ? 1
: ((_.paddingInner != null ? _.paddingInner : _.padding) || 0);
return [0, _.rangeStep * bandSpace(count, inner, outer)];
}// else if a range scheme is defined, use that
else if (_.scheme) {
range = configureScheme(type, _, count);
if (isFunction(range)) {
if (scale.interpolator) {
return scale.interpolator(range);
} else {
error(`Scale type ${type} does not support interpolating color schemes.`);
}
}
}
// given a range array for an interpolating scale, convert to interpolator
if (range && isInterpolating(type)) {
return scale.interpolator(
interpolateColors(flip(range, _.reverse), _.interpolate, _.interpolateGamma)
);
}
// configure rounding / interpolation
if (range && _.interpolate && scale.interpolate) {
scale.interpolate(getInterpolate(_.interpolate, _.interpolateGamma));
} else if (isFunction(scale.round)) {
scale.round(round);
} else if (isFunction(scale.rangeRound)) {
scale.interpolate(round ? interpolateRound : interpolate);
}
if (range) scale.range(flip(range, _.reverse));
}function configureScheme(type, _, count) {
var extent = _.schemeExtent,
name, scheme;
if (isArray(_.scheme)) {
scheme = interpolateColors(_.scheme, _.interpolate, _.interpolateGamma);
} else {
name = _.scheme.toLowerCase();
scheme = getScheme(name);
if (!scheme) error(`Unrecognized scheme name: ${_.scheme}`);
}
// determine size for potential discrete range
count = (type === Threshold) ? count + 1
: (type === BinOrdinal) ? count - 1
: (type === Quantile || type === Quantize) ? (+_.schemeCount || DEFAULT_COUNT)
: count;
// adjust and/or quantize scheme as appropriate
return isInterpolating(type) ? adjustScheme(scheme, extent, _.reverse)
: isFunction(scheme) ? quantizeInterpolator(adjustScheme(scheme, extent), count)
: type === Ordinal ? scheme : scheme.slice(0, count);if (isArray(_.scheme)) {
scheme = interpolateColors(_.scheme, _.interpolate, _.interpolateGamma);
} else {
name = _.scheme.toLowerCase();
scheme = getScheme(name);
if (!scheme) error(`Unrecognized scheme name: ${_.scheme}`);
}
// determine size for potential discrete range
count = (type === Threshold) ? count + 1
: (type === BinOrdinal) ? count - 1
: (type === Quantile || type === Quantize) ? (+_.schemeCount || DEFAULT_COUNT)
: count;
// adjust and/or quantize scheme as appropriate
return isInterpolating(type) ? adjustScheme(scheme, extent, _.reverse)
: isFunction(scheme) ? quantizeInterpolator(adjustScheme(scheme, extent), count)
: type === Ordinal ? scheme : scheme.slice(0, count);
}}
// else if a range scheme is defined, use that
else if (_.scheme) {
range = configureScheme(type, _, count);
if (isFunction(range)) {
if (scale.interpolator) {
return scale.interpolator(range);
} else {
error(`Scale type ${type} does not support interpolating color schemes.`);
}
}
}
// given a range array for an interpolating scale, convert to interpolator
if (range && isInterpolating(type)) {
return scale.interpolator(
interpolateColors(flip(range, _.reverse), _.interpolate, _.interpolateGamma)
);
}
// configure rounding / interpolation
if (range && _.interpolate && scale.interpolate) {
scale.interpolate(getInterpolate(_.interpolate, _.interpolateGamma));
} else if (isFunction(scale.round)) {
scale.round(round);
} else if (isFunction(scale.rangeRound)) {
scale.interpolate(round ? interpolateRound : interpolate);
}
if (range) scale.range(flip(range, _.reverse));
}function domainCheck(type, domain, df) {
if (isLogarithmic(type)) {
// sum signs of domain values
// if all pos or all neg, abs(sum) === domain.length
var s = Math.abs(domain.reduce(function(s, v) {
return s + (v < 0 ? -1 : v > 0 ? 1 : 0);
}, 0));
if (s !== domain.length) {
df.warn('Log scale domain includes zero: ' + stringValue(domain));
}
}
return domain;
}export default function(scale, p0, p1, count, group) {
scale = getScale(scale, (group || this).context);
const gradient = Gradient(p0, p1);
let stops = scale.domain(),
min = stops[0],
max = peek(stops),
fraction = identity
if (!(max - min)) {
// expand scale if domain has zero span, fix #1479
scale = (scale.interpolator
? get('sequential')().interpolator(scale.interpolator())
: get('linear')().interpolate(scale.interpolate()).range(scale.range())
).domain([min=0, max=1]);
} else {
fraction = scaleFraction(scale, min, max);
}
if (scale.ticks) {
stops = scale.ticks(+count || 15);
if (min !== stops[0]) stops.unshift(min);
if (max !== peek(stops)) stops.push(max);
}
stops.forEach(_ => gradient.stop(fraction(_), scale(_)));
return gradient;
}export default function(scale, p0, p1, count, group) {
scale = getScale(scale, (group || this).context);
const gradient = Gradient(p0, p1);
let stops = scale.domain(),
min = stops[0],
max = peek(stops),
fraction = identity
if (!(max - min)) {
// expand scale if domain has zero span, fix #1479
scale = (scale.interpolator
? get('sequential')().interpolator(scale.interpolator())
: get('linear')().interpolate(scale.interpolate()).range(scale.range())
).domain([min=0, max=1]);
} else {
fraction = scaleFraction(scale, min, max);
}
if (scale.ticks) {
stops = scale.ticks(+count || 15);
if (min !== stops[0]) stops.unshift(min);
if (max !== peek(stops)) stops.push(max);
}
stops.forEach(_ => gradient.stop(fraction(_), scale(_)));
return gradient;
}if (!(mod || pulse.changed(pulse.ADD_REM) || Params.some(modp))) return;
var data = pulse.materialize(pulse.SOURCE).source,
layout = this.value,
as = _.as || Output,
fontSize = _.fontSize || 14,
range;
isFunction(fontSize)
? (range = _.fontSizeRange)
: (fontSize = constant(fontSize));
// create font size scaling function as needed
if (range) {
var fsize = fontSize,
sizeScale = scale('sqrt')()
.domain(extent(fsize, data))
.range(range);
fontSize = function(x) { return sizeScale(fsize(x)); };
}
data.forEach(function(t) {
t[as[0]] = NaN;
t[as[1]] = NaN;
t[as[3]] = 0;
});
// configure layout
var words = layout
.words(data)
.text(_.text)
.size(_.size || [500, 500])prototype.transform = function(_, pulse) {
var df = pulse.dataflow,
scale = this.value,
key = scaleKey(_);
if (!scale || key !== scale.type) {
this.value = scale = getScale(key)();
}
for (key in _) if (!SKIP[key]) {
// padding is a scale property for band/point but not others
if (key === 'padding' && includePad(scale.type)) continue;
// invoke scale property setter, raise warning if not found
isFunction(scale[key])
? scale[key](_[key])
: df.warn('Unsupported scale property: ' + key);
}
configureRange(scale, _,
configureBins(scale, _, configureDomain(scale, _, df))
);
return pulse.fork(pulse.NO_SOURCE | pulse.NO_FIELDS);