def test_nice_2(self): # has no effect on degenerate domains x = LinearScale().domain([0, 0]).nice() self.assertEqual(x.domain(), [0, 0]) x = LinearScale().domain([0.5, 0.5]).nice() self.assertEqual(x.domain(), [0.5, 0.5])
def test_clamp_2(self): # can clamp to domain x = LinearScale().clamp(True) self.assertAlmostEqual(x(-0.5), 0) self.assertAlmostEqual(x(0.5), 0.5) self.assertAlmostEqual(x(1.5), 1) x = LinearScale().domain([1, 0]).clamp(True) self.assertAlmostEqual(x(-0.5), 1) self.assertAlmostEqual(x(0.5), 0.5) self.assertAlmostEqual(x(1.5), 0)
def test_copy_3(self): # changes to clamping are isolated x = LinearScale().clamp(True) y = x.copy() x.clamp(False) self.assertEqual(x(2), 2) self.assertEqual(y(2), 1) self.assertTrue(y.clamp()) y.clamp(False) self.assertEqual(x(2), 2) self.assertEqual(y(2), 2) self.assertFalse(x.clamp())
def test_copy_1(self): # changes to the domain are isolated x = LinearScale() y = x.copy() x.domain([1, 2]) self.assertEqual(y.domain(), [0, 1]) self.assertEqual(x(1), 0) self.assertEqual(y(1), 1) y.domain([2, 3]) self.assertEqual(x(2), 1) self.assertEqual(y(2), 0) self.assertEqual(x.domain(), [1, 2]) self.assertEqual(y.domain(), [2, 3])
def test_nice_3(self): # accepts a tick count to control nicing step x = LinearScale().domain([12, 87]).nice(5) self.assertEqual(x.domain(), [0, 100]) x = LinearScale().domain([12, 87]).nice(10) self.assertEqual(x.domain(), [10, 90]) x = LinearScale().domain([12, 87]).nice(100) self.assertEqual(x.domain(), [12, 87])
def test_map(self): # maps a number to a number x = LinearScale().domain([1, 2]) self.assertAlmostEqual(x(0.5), -0.5) self.assertAlmostEqual(x(1), 0) self.assertAlmostEqual(x(1.5), 0.5) self.assertAlmostEqual(x(2), 1) self.assertAlmostEqual(x(2.5), 1.5)
def test_clamp_3(self): # can clamp to the range x = LinearScale().clamp(True) self.assertAlmostEqual(x.invert(-0.5), 0) self.assertAlmostEqual(x.invert(0.5), 0.5) self.assertAlmostEqual(x.invert(1.5), 1) x = LinearScale().range([1, 0]).clamp(True) self.assertAlmostEqual(x.invert(-0.5), 1) self.assertAlmostEqual(x.invert(0.5), 0.5) self.assertAlmostEqual(x.invert(1.5), 0)
def test_invert_1(self): # maps a number to a number x = LinearScale().range([1, 2]) self.assertAlmostEqual(x.invert(0.5), -0.5) self.assertAlmostEqual(x.invert(1), 0) self.assertAlmostEqual(x.invert(1.5), 0.5) self.assertAlmostEqual(x.invert(2), 1) self.assertAlmostEqual(x.invert(2.5), 1.5)
def test_copy_2(self): # change to the range are isolated x = LinearScale() y = x.copy() x.range([1, 2]) self.assertEqual(x.invert(1), 0) self.assertEqual(y.invert(1), 1) self.assertEqual(y.range(), [0, 1]) y.range([2, 3]) self.assertEqual(x.invert(2), 1) self.assertEqual(y.invert(2), 0) self.assertEqual(x.range(), [1, 2]) self.assertEqual(y.range(), [2, 3])
def test_ticks_2(self): # generates tixcks of varying degree x = LinearScale([1, 0]) exp = [0, 1] res = [float(y) for y in list(map(x.tickFormat(1), x.ticks(1)))] for i, j in zip(res, exp): self.assertEqual(i, j) exp = [0, 0.5, 1] res = [float(y) for y in list(map(x.tickFormat(2), x.ticks(2)))] for i, j in zip(res, exp): self.assertEqual(i, j) exp = [0, 0.2, 0.4, 0.6, 0.8, 1] res = [float(y) for y in list(map(x.tickFormat(5), x.ticks(5)))] for i, j in zip(res, exp): self.assertEqual(i, j) exp = [0, 0.1, 0.2, 0.3, 0.4, 0.5, 0.6, 0.7, 0.8, 0.9, 1.0] res = [float(y) for y in list(map(x.tickFormat(10), x.ticks(10)))] for i, j in zip(res, exp): self.assertEqual(i, j)
def main(): items = [ {'time': 1, 'width': 50}, {'time': 2, 'width': 50}, {'time': 3, 'width': 50}, {'time': 3, 'width': 50}, {'time': 3, 'width': 50}, {'time': 304, 'width': 50}, {'time': 454, 'width': 50}, {'time': 454, 'width': 50}, {'time': 454, 'width': 50}, {'time': 804, 'width': 50}, {'time': 804, 'width': 70}, {'time': 804, 'width': 50}, {'time': 804, 'width': 50}, {'time': 854, 'width': 50}, {'time': 854, 'width': 50}] options = { 'initialWidth': 1000, 'initialHeight': 112, 'scale': LinearScale(), 'direction': 'up', 'dotColor': '#000000', 'labelBgColor': COLOR_10, 'linkColor': COLOR_10, 'labelPadding': {'left': 0, 'right': 0, 'top': 0, 'bottom': 0}, 'labella': { 'minPos': 0, 'maxPos': 960, 'nodeHeight': 12 }, 'showTicks': False } tl = TimelineSVG(items, options=options) tl.export('timeline_up.svg') tl = TimelineTex(items, options=options) tl.export('timeline_up.tex', build_pdf=True)
def main(): data = [ {"time": 1, "name": "Müller", "team": "GER"}, {"time": 23, "name": "Klose", "team": "GER"}, {"time": 24, "name": "Kroos", "team": "GER"}, {"time": 26, "name": "Kroos", "team": "GER"}, {"time": 29, "name": "Khedira", "team": "GER"}, {"time": 69, "name": "Schürrle", "team": "GER"}, {"time": 79, "name": "Schürrle", "team": "GER"}, {"time": 90, "name": "Oscar", "team": "BRA"}, ] options = { "direction": "up", "initialWidth": 804, "initialHeight": 120, "scale": LinearScale(), "domain": [0, 90], "margin": {"left": 20, "right": 20, "top": 30, "bottom": 20}, "textFn": lambda d: d["name"], "layerGap": 40, "dotColor": color5, "labelBgColor": color5, "linkColor": color5, "labella": { "maxPos": 764, "algorithm": "simple", }, "labelPadding": {"left": 0, "right": 2, "top": 0, "bottom": 0}, "latex": {"reproducible": True}, } tl = TimelineSVG(data, options=options) tl.export("timeline_kit_5.svg") tl = TimelineTex(data, options=options) tl.export("timeline_kit_5.tex")
def test_domain_1(self): # defaults to [0, 1] x = LinearScale() self.assertEqual(x.domain(), [0, 1]) self.assertAlmostEqual(x(0.5), 0.5)
def test_clamp_1(self): # defaults to false x = LinearScale() self.assertFalse(x.clamp()) self.assertAlmostEqual(x(-0.5), -0.5) self.assertAlmostEqual(x(1.5), 1.5)
def test_nice_1(self): # nices the domain, extending it to round numbers x = LinearScale().domain([1.1, 10.9]).nice() self.assertEqual(x.domain(), [1, 11]) x = LinearScale().domain([10.9, 1.1]).nice() self.assertEqual(x.domain(), [11, 1]) x = LinearScale().domain([0.7, 11.001]).nice() self.assertEqual(x.domain(), [0, 12]) x = LinearScale().domain([123.1, 6.7]).nice() self.assertEqual(x.domain(), [130, 0]) x = LinearScale().domain([0, 0.49]).nice() self.assertEqual(x.domain(), [0, 0.5]) x = LinearScale().domain([-0.1, 51.1]).nice(8) self.assertEqual(x.domain(), [-10, 60])
# werkervaring.py import pandas as pd from labella.scale import LinearScale from labella.timeline import TimelineTex def makeInput(_df): length = len(_df.year_start) out = [] print(_df) for i in range(length): _dict = {} _dict['time'] = _df.year_start[i] #dict['year_end'] = _df.year_end[i] _dict['text'] = _df.employer[i] #dict['job_title'] = _df.job_title[i] out = out + [_dict] return out header_list = ['year_start', 'year_end', 'employer', 'job_title'] df = pd.read_csv('werkervaring.csv', names=header_list) xtimeline = makeInput(df) ttimeline = TimelineTex(xtimeline, options={'scale': LinearScale()}) ttimeline.export('werkervaring.tex')
def test_range_1(self): # defaults to [0, 1] x = LinearScale() self.assertEqual(x.range(), [0, 1]) self.assertAlmostEqual(x.invert(0.5), 0.5)
def main(): data = [ { 'time': 1, 'name': 'Müller', 'team': 'GER' }, { 'time': 23, 'name': 'Klose', 'team': 'GER' }, { 'time': 24, 'name': 'Kroos', 'team': 'GER' }, { 'time': 26, 'name': 'Kroos', 'team': 'GER' }, { 'time': 29, 'name': 'Khedira', 'team': 'GER' }, { 'time': 69, 'name': 'Schürrle', 'team': 'GER' }, { 'time': 79, 'name': 'Schürrle', 'team': 'GER' }, { 'time': 90, 'name': 'Oscar', 'team': 'BRA' }, ] options = { 'direction': 'up', 'initialWidth': 804, 'initialHeight': 120, 'scale': LinearScale(), 'domain': [0, 90], 'margin': { 'left': 20, 'right': 20, 'top': 30, 'bottom': 20 }, 'textFn': lambda d: d['name'], 'layerGap': 40, 'dotColor': color5, 'labelBgColor': color5, 'linkColor': color5, 'labella': { 'maxPos': 764, 'algorithm': 'simple', }, 'labelPadding': { 'left': 0, 'right': 2, 'top': 0, 'bottom': 0 }, } tl = TimelineSVG(data, options=options) tl.export('timeline_kit_5.svg') tl = TimelineTex(data, options=options) tl.export('timeline_kit_5.tex')
def test_ticks_3(self): # formats ticks with the appropriate precision x = LinearScale([0.123456789, 1.23456789]) res = list(map(x.tickFormat(1), x.ticks(1)))[0] self.assertEqual(res, "1") res = list(map(x.tickFormat(2), x.ticks(2)))[0] self.assertEqual(res, "0.5") res = list(map(x.tickFormat(4), x.ticks(4)))[0] self.assertEqual(res, "0.2") res = list(map(x.tickFormat(8), x.ticks(8)))[0] self.assertEqual(res, "0.2") res = list(map(x.tickFormat(16), x.ticks(16)))[0] self.assertEqual(res, "0.2") res = list(map(x.tickFormat(32), x.ticks(32)))[0] self.assertEqual(res, "0.15") res = list(map(x.tickFormat(64), x.ticks(64)))[0] self.assertEqual(res, "0.14") res = list(map(x.tickFormat(128), x.ticks(128)))[0] self.assertEqual(res, "0.13") res = list(map(x.tickFormat(256), x.ticks(256)))[0] self.assertEqual(res, "0.125")
def make_rank_plot( results, output_file, keep_methods=None, higher_better=True, return_ranks=False, ): methods = keep_methods[:] avg_ranks, all_ranks = compute_ranks(results, keep_methods=keep_methods, higher_better=higher_better) plot_data = [{ "time": rank, "text": method_name(method) } for method, rank in avg_ranks.items()] color = "#000" options = { "scale": LinearScale(), "direction": "up", "domain": [1, len(methods)], "layerGap": 20, "borderColor": "#000", "showBorder": False, "labelBgColor": "#fff", "linkColor": color, "labelTextColor": color, "dotColor": color, "initialWidth": 600, "initialHeight": 75, "latex": { "linkThickness": "thin", "reproducible": True }, "dotRadius": 2, "margin": { "left": 0, "bottom": 0, "right": 0, "top": 0 }, } tl = TimelineTex(plot_data, options=options) texlines = tl.export() n_datasets = len(all_ranks) ref_method, CD, _ = reference_difference(avg_ranks, n_datasets) # we're going to insert the critical difference line after the dots # scope,·so we first have to figure out where that is. lines = texlines.split("\n") idx = None find_scope = False for i, line in enumerate(lines): if line.strip() == "% dots": find_scope = True if find_scope and "\\end{scope}" in line: idx = i + 1 break before = lines[:idx] after = lines[idx:] nodes, _ = tl.compute() bestnode = next( (n for n in nodes if n.data.text == method_name(ref_method)), None) # idealPos is the position on the axis posBest = bestnode.getRoot().idealPos posCD = tl.options["scale"](bestnode.data.time + CD) CDlines = [ "% Critical difference", "\\def\\posBest{%.16f}" % posBest, "\\def\\posCD{%.16f}" % posCD, "\\begin{scope}", "\\draw (\\posBest, 30) -- (\\posBest, 20);", "\\draw (\\posBest, 25) --node[below] {CD} (\\posCD, 25);", "\\draw (\\posCD, 30) -- (\\posCD, 20);", "\\end{scope}", ] all_lines = before + [""] + CDlines + after with open(output_file, "w") as fp: fp.write("\n".join(all_lines))
def main(): items = [ { "time": 1, "width": 50 }, { "time": 2, "width": 50 }, { "time": 3, "width": 50 }, { "time": 3, "width": 50 }, { "time": 3, "width": 50 }, { "time": 304, "width": 50 }, { "time": 454, "width": 50 }, { "time": 454, "width": 50 }, { "time": 454, "width": 50 }, { "time": 804, "width": 50 }, { "time": 804, "width": 70 }, { "time": 804, "width": 50 }, { "time": 804, "width": 50 }, { "time": 854, "width": 50 }, { "time": 854, "width": 50 }, ] options = { "initialWidth": 1000, "initialHeight": 112, "scale": LinearScale(), "direction": "up", "dotColor": "#000000", "labelBgColor": COLOR_10, "linkColor": COLOR_10, "labelPadding": { "left": 0, "right": 0, "top": 0, "bottom": 0 }, "labella": { "minPos": 0, "maxPos": 960, "nodeHeight": 12 }, "showTicks": False, "latex": { "reproducible": True }, } tl = TimelineSVG(items, options=options) tl.export("timeline_up.svg") tl = TimelineTex(items, options=options) tl.export("timeline_up.tex", build_pdf=True)