Example #1
0
class TestLineChartWriter(object):

    def setup(self):
        """Setup a worksheet with one column of data and a line chart"""
        wb = Workbook()
        ws = wb.get_active_sheet()
        ws.title = 'Line'
        for i in range(1, 5):
            ws.append([i])
        self.piechart = LineChart()
        self.piechart.add_serie(Serie(Reference(ws, (0, 0), (4, 0))))
        self.cw = LineChartWriter(self.piechart)
        self.root = Element('test')

    def test_write_chart(self):
        """check if some characteristic tags of LineChart are there"""
        self.cw._write_chart(self.root)
        tagnames = ['{%s}lineChart' % CHART_NS,
                    '{%s}valAx' % CHART_NS,
                    '{%s}catAx' % CHART_NS]

        root = safe_iterator(self.root)
        chart_tags = [e.tag for e in root]
        for tag in tagnames:
            assert_true(tag in chart_tags, tag)

    def test_serialised(self):
        """Check the serialised file against sample"""
        xml = self.cw.write()
        expected_file = os.path.join(DATADIR, "writer", "expected", "LineChart.xml")
        with open(expected_file) as expected:
            diff = compare_xml(xml, expected.read())
            assert diff is None, diff
Example #2
0
def line(wb):
    ws = wb.create_sheet(5, "Line")
    for i in range(1, 5):
        ws.append([i])
    chart = LineChart()
    values = Reference(ws, (0, 0), (4,0))
    series = Serie(values)
    chart.add_serie(series)
    ws.add_chart(chart)
Example #3
0
        for c,n in zip(ws2.range("B2:M2")[0], packetSizes):
            c.value = n
            c.style.font.bold = True
    ws3.cell('A3').style.font.bold = True
    for c, n in zip(ws3.range("B4:M4")[0], packetsDropped):
        c.value = n

    wb.save("emmaResults.xlsx")
    # Throughput and mem. efficiency charts
    throughputChart = LineChart()
    throughputChart.show_legend = False
    if(bwLatency == 1): throughputChart.x_axis.title = "No. of Flows"
    elif(bwLatency == 1): throughputChart.x_axis.title = "Input Throughput (in Gbps)"
    elif(bwLatency == 0): throughputChart.x_axis.title = "Packet Size (in Bytes)"
    throughputChart.y_axis.title = "Mem. Throughput (in Gbps)"
    throughputChart.add_serie(Serie(Reference(ws1, (2, 2), (2, 2 + counter)), labels=(Reference(ws1, (1, 1), (1, counter)))))
    ws1.add_chart(throughputChart)
    memEfficienyChart = LineChart()
    memEfficienyChart.y_axis.min = 0
    memEfficienyChart.y_axis.max = 100
    memEfficienyChart.add_serie(Serie(Reference(ws1, (3, 2), (3, 2 + counter)), labels=(Reference(ws1, (1, 1), (1, counter)))))
    memEfficienyChart.show_legend = False
    memEfficienyChart.y_axis.title = "Mem. Efficiency (in % of clock cycles used)"
    if(bwLatency == 2): memEfficienyChart.x_axis_title = "No. of Flows"
    elif(bwLatency == 1): memEfficienyChart.x_axis.title = "Input Throughput (in Gbps)"
    elif(bwLatency == 0): memEfficienyChart.x_axis.title = "Packet Size (in Bytes)"
    memEfficienyChart.x_axis.title = "Input Throughput (in Gbps)"
    ws1.add_chart(memEfficienyChart)
    #Latency Charts
    latencyChart = LineChart() # chart for the average Latency per access for all mem. accesses
    latencyChart.add_serie(Serie(Reference(ws2, (2, 2), (2, 2 + counter)), labels=(Reference(ws2, (1, 1), (1, counter)))))