地震3D的代码:
#by Lazaro Alonso
using CSV, DataFrames
using GLMakie
using FileIO, Downloads
let
earth_img = load(Downloads.download("https://upload.wikimedia.org/wikipedia/commons/9/96/NASA_bathymetric_world_map.jpg"))
function sphere(; r = 1.0, n = 32)
θ = LinRange(0, π, n)
φ = LinRange(-π, π, 2 * n)
x = [r * cos(φ) * sin(θ) for θ in θ, φ in φ]
y = [r * sin(φ) * sin(θ) for θ in θ, φ in φ]
z = [r * cos(θ) for θ in θ, φ in φ]
return (x, y, z)
end
# https://earthquake.usgs.gov/earthquakes/map/?extent=-68.39918,-248.90625&extent=72.60712,110.74219
file1 = Downloads.download("https://github.com/lazarusA/BeautifulMakie/raw/main/_assets/data/2021_01_2021_05.csv")
file2 = Downloads.download("https://github.com/lazarusA/BeautifulMakie/raw/main/_assets/data/2021_06_2022_01.csv")
earthquakes1 = DataFrame(CSV.File(file1))
earthquakes2 = DataFrame(CSV.File(file2))
earthquakes = vcat(earthquakes1, earthquakes2)
# depth unit, km
function toCartesian(lon, lat; r = 1.02, cxyz = (0, 0, 0))
x = cxyz[1] + (r + 1000_000) * cosd(lat) * cosd(lon)
y = cxyz[2] + (r + 1000_000) * cosd(lat) * sind(lon)
z = cxyz[3] + (r + 1000_000) * sind(lat)
return (x, y, z) ./ 1000_000
end
lons, lats = earthquakes.longitude, earthquakes.latitude
depth = earthquakes.depth
toPoints3D = [Point3f([toCartesian(lons[i], lats[i]; r = -depth[i] * 1000)...]) for i in 1:length(lons)]
ms = (exp.(earthquakes.mag) .- minimum(exp.(earthquakes.mag))) ./ maximum(exp.(earthquakes.mag) .- minimum(exp.(earthquakes.mag)))
set_theme!(theme_black())
fig = Figure(resolution = (1400, 1400), fontsize = 24)
ax = LScene(fig[1, 1], show_axis = false)
pltobj = meshscatter!(ax, toPoints3D; markersize = ms / 20 .+ 0.001,
color = earthquakes.mag,
colormap = to_colormap(:afmhot)[10:end],
shading = true,
ambient = Vec3f(0.99, 0.99, 0.99))
surface!(ax, sphere(; r = 1.0)..., color = tuple.(earth_img, 0.1), shading = true,
transparency = true)
Colorbar(fig[1, 2], pltobj, label = "Magnitude",
height = Relative(1.5 / 4))
Label(fig[1, 1, Bottom()], "Visualization by @LazarusAlon\nusing Makie")
Label(fig[1, 1, Top()], "Earthquakes on Earth between January 2021 and January 2022.\nOriginal data from USGS")
zoom!(ax.scene, cameracontrols(ax.scene), 0.65)
rotate!(ax.scene, 3.0)
fig
save("earthquakes.png", fig, px_per_unit = 2.0)
record(fig, joinpath(@__DIR__, "output", "earthquakes.mp4"), framerate = 24) do io
for i in 3.0:0.015:9
rotate!(ax.scene, i)
recordframe!(io) # record a new frame
end
end
end
出图效果:
暗黑主题宇宙图代码:
# by lazarusA & Julius Krumbiegel
using Makie, CairoMakie, HTTP, CSV, DataFrames, DataFramesMeta, Suppressor
using Images, ColorSchemes, Colors, Statistics
using Lazy: @>
CairoMakie.activate!()
let
data_url = "https://bit.ly/3kmlGn2"
@suppress begin
global astronauts
astronauts = CSV.File(HTTP.download(data_url)) |> DataFrame
end
offhr, rPts, α = 3.5, 45, 35
astro = @> begin
astronauts
@orderby(:year_of_mission)
@where(:total_eva_hrs .> 0.0)
@transform(ntotEVA = :total_eva_hrs/ maximum(:total_eva_hrs))
@transform(θ = LinRange(0, 2π - 2π/length(:name), length(:name)))
@transform(align = tuple.(ifelse.(π/2 .< :θ .< 3π/2, ^(:right), ^(:left)), ^(:center)))
@transform(texttheta = ifelse.(π/2 .< :θ .< 3π/2, :θ .+ π, :θ))
@transform(evaM = log10.((60 * :eva_hrs_mission/median(60 * :eva_hrs_mission)) .+ offhr))
@transform(xM = rPts * :evaM .* cos.(:θ), yM = rPts * :evaM .* sin.(:θ))
@transform(xMnm = rPts * (:evaM .- :total_number_of_missions .* :evaM./α) .* cos.(:θ))
@transform(yMnm = rPts * (:evaM .- :total_number_of_missions .* :evaM./α) .* sin.(:θ))
end
valYear = @> begin astro
@where([true; :year_of_mission[2:end] .!= :year_of_mission[1:end-1]])
end
vehicles = @> begin astro
@where([true; :ascend_shuttle[2:end] .!= :ascend_shuttle[1:end-1]])
end
tierra = "https://climate.nasa.gov/system/internal_resources/details/original/309_ImageWall5_768px-60.jpg"
@suppress begin
global imgEarth
tierra = HTTP.download(tierra)
imgEarth = load(tierra)
end
function getPoints(xi,yi,xf,yf)
xyos = []
for i in 1:length(xo)
push!(xyos, [xi[i], yi[i]])
push!(xyos, [xf[i], yf[i]])
end
xyos
end
x, y = astro.xM, astro.yM # end points
xs, ys = astro.xMnm, astro.yMnm # short lines starts
xo = yo = zeros(length(x)) # origin
xnb, ynb = 90 * cos.(astro.θ), 90 * sin.(astro.θ)
xne, yne = 100 * cos.(astro.θ), 100 * sin.(astro.θ)
ps, colorp = 0.5 .+ 3astro.ntotEVA, astro.total_eva_hrs ; # point size, color palette
gridLines = LinRange(log10(offhr), maximum(astro.evaM), 6)
horas = (10 .^ gridLines .- offhr)*median(60*astro.eva_hrs_mission)/60
xg = [rPts * gl .* cos.(astro.θ) for gl in gridLines]
yg = [rPts * gl .* sin.(astro.θ) for gl in gridLines]
# in order to use linesegments (faster to plot)
xyos = getPoints(xo,yo,xs,ys)
xys = getPoints(xs,ys,x,y)
xybe = getPoints(xnb,ynb,xne,yne)
cpDo = repeat(colorp, inner=2)
psDo = repeat(ps, inner=2);
with_theme(theme_black()) do
fig = Figure(resolution = (1200, 1200))
cmap = :rainbow2
ax = CairoMakie.Axis(fig[1, 1],
title = "ASTRONAUTS' EXTRAVEHICULAR ACTIVITIES",
autolimitaspect = 1)
hidespines!(ax)
hidedecorations!(ax)
image!(-20..20, -17..17, rotr90(imgEarth))
text!(astro.name, position = @.(Point(cos(astro.θ), sin(astro.θ)) * 85),
rotation = astro.texttheta, textsize = 6, align = astro.align)
text!(string.(valYear.year_of_mission),
position = @.(Point(cos(valYear.θ), sin(valYear.θ)) * 65),
rotation = valYear.texttheta, textsize = 10, align = valYear.align)
text!(vehicles.ascend_shuttle,
position = @.(Point(cos(vehicles.θ), sin(vehicles.θ)) * 73),
rotation = vehicles.texttheta, textsize = 6, align = vehicles.align)
pltobj = scatter!(ax, astro[:,:xM], astro[:,:yM], color = colorp,
colormap = cmap, markersize = 3*ps, strokewidth = 0)
linesegments!(Point2f0.(xyos), color = cpDo, linewidth = psDo/2, colormap = (cmap, 0.15))
linesegments!(Point2f0.(xys), color = cpDo, linewidth = psDo/2,colormap = cmap)
linesegments!(Point2f0.(xybe), color = cpDo, linewidth = psDo/3, colormap = (cmap,0.5))
Colorbar(fig[1,1], pltobj,
label = "Total duration of all extravehicular activities in hours",
tellheight = false, tellwidth = false, ticklabelsize = 12, flipaxis = true,
vertical = false, ticksize=15, tickalign = 1, width = Relative(1.5/4),
halign = :right, valign = :bottom, labelsize = 12)
for (indx, gl) in enumerate(gridLines)
xg, yg = rPts * gl .* cos.(astro.θ), rPts * gl .* sin.(astro.θ)
hrs = Int64(round(horas[indx], digits = 0))
lines!(xg, yg, linewidth = 0.5, linestyle = :dash, color = :white)
text!(string.(hrs), position = (xg[1] + 0.5, y[1]+0.5),
color = "#FFDD33", textsize = 14)
end
lines!([rPts*gridLines[1], rPts*gridLines[end]],[0,0],linestyle = :dash,
linewidth = 2, color = "#FFDD33")
text!("evaM (hrs)", position = (47, -3.5), color = "#FFDD33", textsize = 16)
text!("evaM ≡ Duration of extravehicular \n activities during the mission in hours",
position = (rPts*gridLines[end-2], 90), color = "#FFDD33", textsize = 16)
text!("using Makie", position = (-99, -94), textsize = 18, color = :white)
text!("Visualization by @LazarusAlon and Julius Krumbiegel ",
position = (-99, -97), textsize = 12, color = "#61AFEF")
text!("Data - Astronaut Database - Mariya Stavnichuk and Tatsuya Corlett",
position = (-99, -99), textsize = 10)
limits!(ax, -100, 100, -100, 100)
end
end
出图效果:
富士山地形图代码:
using GLMakie, ArchGDAL
let
dataset = ArchGDAL.read("./data/fuji.tif")
# just in case you want to know more about the file structure
#ArchGDAL.read("fuji.tif") do ds
# println(ArchGDAL.gdalinfo(ds))
#end
dataset_read = ArchGDAL.read(dataset)
topo = dataset_read[:,end:-1:1];
fig, ax, pltobj = lines(topo[561,50:end-30], linewidth = 0.85,
figure = (resolution = (800,1000),backgroundcolor = :black,),
axis = (backgroundcolor = :black,))
c = 560
for i in 1:1:560
lines!(ax, topo[i,50:end-30] .+ 15*c, linewidth = 0.85, overdraw = true,
colorrange = (minimum(topo), maximum(topo)),
color = topo[i,50:end-30], colormap = :turbo) # :linear_bmy_10_95_c78_n256
c -= 1
end
text!(ax,"Fuji", position = (250, 0),color = :white, textsize = 24)
text!(ax,"Visualization by",position=(0, -20),color = :white,textsize = 12)
text!(ax,"@LazarusAlon", position = (0, -200),color = :white,textsize = 12)
hidedecorations!(ax)
hidespines!(ax)
hidedecorations!(ax)
hidespines!(ax)
fig
end
出图效果: