import co.theasi.plotly
import util.Random
// Generate uniformly distributed x
val xs = (0 until 100)
// Generate random y
val ys = (0 until 100).map { i => i + 5.0 * Random.nextDouble }
val p = Plot().withScatter(xs, ys)
draw(p, "basic-scatter", writer.FileOptions(overwrite=true))
// returns PlotFile(pbugnion:173,basic-scatter)
import co.theasi.plotly
import util.Random
// Generate uniformly distributed x
val xs = (0 until 100)
// Generate random y
val ys0 = (0 until 100).map { i => Random.nextDouble }
val ys1 = ys0.map { _ + 5.0 }
val ys2 = ys0.map { _ - 5.0 }
val p = Plot()
.withScatter(xs, ys0, ScatterOptions().mode(ScatterMode.Marker).name("marker"))
.withScatter(xs, ys1,
ScatterOptions()
.mode(ScatterMode.Marker, ScatterMode.Line)
.name("line+marker"))
.withScatter(xs, ys2, ScatterOptions().mode(ScatterMode.Line).name("line"))
draw(p, "scatter-mode", writer.FileOptions(overwrite=true))
import co.theasi.plotly
import util.Random
val n = 500
val xs = (0 until n).map { i => Random.nextDouble }
val ys0 = (0 until n).map { i => Random.nextDouble + 2.0 }
val ys1 = (0 until n).map { i => Random.nextDouble - 2.0 }
val p = Plot()
.withScatter(xs, ys0, ScatterOptions()
.mode(ScatterMode.Marker)
.name("Above")
.marker(
MarkerOptions()
.size(10)
.color(152, 0, 0, 0.8)
.lineWidth(2)
.lineColor(0, 0, 0)))
.withScatter(xs, ys1, ScatterOptions()
.mode(ScatterMode.Marker)
.name("Below")
.marker(
MarkerOptions()
.size(10)
.color(255, 182, 193, 0.9)
.lineWidth(2)))
draw(p, "styled-scatter", writer.FileOptions(overwrite=true))
import co.theasi.plotly
val gdpAmerica = Vector(12779.379640000001, 3822.1370840000004, 9065.800825, 36319.235010000004,
13171.63885, 7006.580419, 9645.06142, 8948.102923, 6025.374752000001,
6873.262326000001, 5728.353514, 5186.050003, 1201.637154,
3548.3308460000003, 7320.880262000001, 11977.57496, 2749.320965,
9809.185636, 4172.838464, 7408.905561, 19328.70901, 18008.50924,
42951.65309, 10611.46299, 11415.805690000001)
val lifeExpectancyAmerica = Vector(75.32, 65.554, 72.39, 80.653, 78.553, 72.889,
78.782, 78.273, 72.235, 74.994, 71.878, 70.259, 60.916, 70.198, 72.567,
76.195, 72.899, 75.537, 71.752, 71.421, 78.746, 69.819, 78.242, 76.384, 73.747)
val labelAmerica = Vector(
"Argentina",
"Bolivia",
"Brazil",
"Canada",
"Chile",
"Colombia",
"Costa Rica",
"Cuba",
"Dominican Republic",
"Ecuador",
"El Salvador",
"Guatemala",
"Haiti",
"Honduras",
"Jamaica",
"Mexico",
"Nicaragua",
"Panama",
"Paraguay",
"Peru",
"Puerto Rico",
"Trinidad and Tobago",
"United States",
"Uruguay",
"Venezuela"
)
val gdpEurope = Vector(5937.029525999999, 36126.4927, 33692.60508, 7446.298803, 10680.79282,
14619.222719999998, 22833.30851, 35278.41874, 33207.0844, 30470.0167,
32170.37442, 27538.41188, 18008.94444, 36180.789189999996, 40675.99635,
28569.7197, 9253.896111, 36797.93332, 49357.19017, 15389.924680000002,
20509.64777, 10808.47561, 9786.534714, 18678.31435, 25768.25759,
28821.0637, 33859.74835, 37506.419069999996, 8458.276384, 33203.2612)
val lifeExpectancyEurope = Vector(76.423, 79.829, 79.441, 74.852, 73.005, 75.748, 76.486,
78.332, 79.313, 80.657, 79.406, 79.483, 73.33800000000001, 81.757, 78.885, 80.546,
74.543, 79.762, 80.196, 75.563, 78.098, 72.476, 74.002, 74.663, 77.926,
80.941, 80.884, 81.70100000000001, 71.777, 79.425)
val labelEurope = Vector(
"Albania",
"Austria",
"Belgium",
"Bosnia and Herzegovina",
"Bulgaria",
"Croatia",
"Czech Republic",
"Denmark",
"Finland",
"France",
"Germany",
"Greece",
"Hungary",
"Iceland",
"Ireland",
"Italy",
"Montenegro",
"Netherlands",
"Norway",
"Poland",
"Portugal",
"Romania",
"Serbia",
"Slovak Republic",
"Slovenia",
"Spain",
"Sweden",
"Switzerland",
"Turkey",
"United Kingdom"
)
// Options common to both traces
val commonOptions = ScatterOptions()
.mode(ScatterMode.Marker)
.marker(MarkerOptions().size(12).lineWidth(1))
// Options common to both axes
val commonAxisOptions = AxisOptions()
.tickLength(5)
.gridWidth(2)
val xAxisOptions = commonAxisOptions.title("GDP per capita (dollars)").noZeroLine
val yAxisOptions = commonAxisOptions.title("Life expectancy (years)")
// The plot itself
val p = Plot()
.withScatter(gdpAmerica, lifeExpectancyAmerica,
commonOptions.name("Americas").text(labelAmerica))
.withScatter(gdpEurope, lifeExpectancyEurope,
commonOptions.name("Europe").text(labelEurope))
.xAxisOptions(xAxisOptions)
.yAxisOptions(yAxisOptions)
val figure = Figure()
.plot(p) // add the plot to the figure
.title("Life Expectancy v. Per Capita GDP, 2007")
draw(p, "life-expectancy-per-GDP-2007", writer.FileOptions(overwrite=true))
val country = List("Switzerland (2011)",
"Chile (2013)",
"Japan (2014)",
"United States (2012)",
"Slovenia (2014)",
"Canada (2011)",
"Poland (2010)",
"Estonia (2015)",
"Luxembourg (2013)",
"Portugal (2011)")
val votingPopulation = List(40.0, 45.7, 52, 53.6, 54.1, 54.2, 54.5, 54.7, 55.1, 56.6)
val registeredVoters = List(49.1, 42, 52.7, 84.3, 51.7, 61.1, 55.3, 64.2, 91.1, 58.9)
// Options common to both traces
val commonOptions = ScatterOptions()
.mode(ScatterMode.Marker)
.marker(MarkerOptions()
.symbol("circle")
.lineWidth(1)
.size(16))
val p = Plot()
.withScatter(votingPopulation, country, commonOptions
.name("Percent of estimated voting age population")
.updatedMarker(_.color(156, 165, 196, 0.95).lineColor(156, 165, 196, 1.0)))
.withScatter(registeredVoters, country, commonOptions
.name("Percent of estimated registered voters")
.updatedMarker(_.color(204, 204, 204, 0.95).lineColor(217, 217, 217, 1.0)))
.xAxisOptions( // Plot axis options
AxisOptions()
.noGrid
.withLine
.lineColor(102, 102, 102)
.titleColor(204, 204, 204)
.tickFontColor(102, 102, 102)
.noAutoTick
.tickSpacing(10.0)
.tickColor(102, 102, 102))
// Add the plot to the figure
val figure = Figure()
.plot(p)
.title("Votes cast for ten lowest voting age population in OECD countries")
.legend(LegendOptions()
.yAnchor(YAnchor.Middle)
.xAnchor(XAnchor.Right))
.leftMargin(140)
.rightMargin(40)
.bottomMargin(50)
.topMargin(80)
.width(800)
.height(600)
.paperBackgroundColor(254, 247, 234)
.plotBackgroundColor(254, 247, 234)
draw(figure, "lowest-oecd-votes-cast", writer.FileOptions(overwrite=true))
