packet loss data retrieval added

pick 6dd9cef lf_csv - creates csv for graph data
    pick 6ea0cec lf_csv - creates csv for graph data
 You are currently rebasing branch 'master' on '55fd625'.
This commit is contained in:
anil-tegala
2021-06-25 00:37:49 +05:30
parent 05ab1704fb
commit 2b3e86acfa
3 changed files with 230 additions and 98 deletions

View File

@@ -31,10 +31,12 @@ from matplotlib.colors import ListedColormap
# graph reporting classes # graph reporting classes
class lf_bar_graph(): class lf_bar_graph():
def __init__(self, _data_set=[[30, 55, 69, 37], [45, 67, 34, 22], [22, 45, 12, 34]], def __init__(self, _data_set=[[30.4, 55.3, 69.2, 37.1], [45.1, 67.2, 34.3, 22.4], [22.5, 45.6, 12.7, 34.8]],
_xaxis_name="x-axis", _xaxis_name="x-axis",
_yaxis_name="y-axis", _yaxis_name="y-axis",
_xaxis_categories=[1, 2, 3, 4], _xaxis_categories=[1, 2, 3, 4, 5],
_xaxis_label=["a", "b", "c", "d", "e"],
_step_size=5,
_graph_image_name="image_name", _graph_image_name="image_name",
_label=["bi-downlink", "bi-uplink", 'uplink'], _label=["bi-downlink", "bi-uplink", 'uplink'],
_color=None, _color=None,
@@ -53,6 +55,8 @@ class lf_bar_graph():
self.xaxis_name = _xaxis_name self.xaxis_name = _xaxis_name
self.yaxis_name = _yaxis_name self.yaxis_name = _yaxis_name
self.xaxis_categories = _xaxis_categories self.xaxis_categories = _xaxis_categories
self.xaxis_label = _xaxis_label
self.step_size = _step_size
self.graph_image_name = _graph_image_name self.graph_image_name = _graph_image_name
self.label = _label self.label = _label
self.color = _color self.color = _color
@@ -102,6 +106,10 @@ class lf_bar_graph():
i = i + 1 i = i + 1
plt.xlabel(self.xaxis_name, fontweight='bold', fontsize=15) plt.xlabel(self.xaxis_name, fontweight='bold', fontsize=15)
plt.ylabel(self.yaxis_name, fontweight='bold', fontsize=15) plt.ylabel(self.yaxis_name, fontweight='bold', fontsize=15)
"""plt.xticks([r + self.bar_width for r in range(len(self.data_set[0]))],
self.xaxis_categories)"""
plt.xticks(np.arange(0, len(self.xaxis_categories), step=self.step_size), labels=self.xaxis_label)
plt.legend()
if self.xaxis_categories[0] == 0: if self.xaxis_categories[0] == 0:
plt.xticks(np.arange(0, len(self.xaxis_categories), step=self.xaxis_step),fontsize = self.xticks_font) plt.xticks(np.arange(0, len(self.xaxis_categories), step=self.xaxis_step),fontsize = self.xticks_font)

View File

@@ -448,7 +448,7 @@ class lf_report():
self.graph_html_obj = """ self.graph_html_obj = """
<img align='center' style='padding:15px;margin:5px 5px 2em 5px;width:1000px;' src='{image}' border='1' /> <img align='center' style='padding:15px;margin:5px 5px 2em 5px;width:1000px;' src='{image}' border='1' />
""".format(image=self.graph_image) """.format(image=self.graph_image)
self.html +=self.graph_html_obj self.html += self.graph_html_obj
def end_content_div(self): def end_content_div(self):
self.html += "\n</div><!-- end contentDiv -->\n" self.html += "\n</div><!-- end contentDiv -->\n"

View File

@@ -247,67 +247,85 @@ class ThroughputQOS(Realm):
print("cross connections with TOS type created.") print("cross connections with TOS type created.")
def evaluate_throughput(self): def evaluate_throughput(self):
tos_upload = {'video': [], 'voice': [], 'bk': [], 'be': []} global case
tos_download = {'video': [], 'voice': [], 'bk': [], 'be': []} tos_download = {'video': [], 'voice': [], 'bk': [], 'be': []}
if self.cx_profile.side_a_min_bps != 0: tx_b = {'bk': [], 'be': [], 'video': [], 'voice': []}
case = str(int(self.cx_profile.side_a_min_bps) // 1000000) rx_a = {'bk': [], 'be': [], 'video': [], 'voice': []}
else: pkt_loss = {}
tx_endps = {}
rx_endps = {}
if int(self.cx_profile.side_b_min_bps) != 0:
case = str(int(self.cx_profile.side_b_min_bps) // 1000000) case = str(int(self.cx_profile.side_b_min_bps) // 1000000)
if self.cx_profile.get_cx_count() > 0: elif int(self.cx_profile.side_a_min_bps) != 0:
case = str(int(self.cx_profile.side_a_min_bps) // 1000000)
if len(self.cx_profile.created_cx.keys()) > 0:
endp_data = self.json_get('endp/all?fields=name,tx+pkts+ll,rx+pkts+ll')
endp_data.pop("handler")
endp_data.pop("uri")
print(endp_data)
endps = endp_data['endpoint']
for i in range(len(endps)):
if i < len(endps) // 2:
tx_endps.update(endps[i])
if i >= len(endps) // 2:
rx_endps.update(endps[i])
for sta in self.cx_profile.created_cx.keys(): for sta in self.cx_profile.created_cx.keys():
temp = int(sta[12:]) temp = int(sta[12:])
if temp % 4 == 0: if temp % 4 == 0:
data = list(self.json_get('/cx/%s?fields=bps+rx+a,bps+rx+b' % sta).values())[2]
if int(self.cx_profile.side_a_min_bps) != 0:
tos_upload['bk'].append(data['bps rx a'] / 1000000)
else:
tos_upload['bk'].append(data['bps rx a'])
if int(self.cx_profile.side_b_min_bps) != 0: if int(self.cx_profile.side_b_min_bps) != 0:
tos_download['bk'].append(data['bps rx b'] / 1000000) tos_download['bk'].append(float(
f"{list((self.json_get('/cx/%s?fields=bps+rx+a' % sta)).values())[2]['bps rx a'] / 1000000:.2f}"))
tx_b['bk'].append(int(f"{tx_endps['%s-B' %sta]['tx pkts ll']}"))
rx_a['bk'].append(int(f"{rx_endps['%s-A' %sta]['rx pkts ll']}"))
else: else:
tos_upload['bk'].append(data['bps rx b']) tos_download['bk'].append(float(0))
tx_b['bk'].append(int(0))
rx_a['bk'].append(int(0))
elif temp % 4 == 1: elif temp % 4 == 1:
data = list(self.json_get('/cx/%s?fields=bps+rx+a,bps+rx+b' % sta).values())[2]
if int(self.cx_profile.side_a_min_bps) != 0:
tos_upload['be'].append(data['bps rx a'] / 1000000)
else:
tos_upload['be'].append(data['bps rx a'])
if int(self.cx_profile.side_b_min_bps) != 0: if int(self.cx_profile.side_b_min_bps) != 0:
tos_download['be'].append(data['bps rx b'] / 1000000) tos_download['be'].append(float(
f"{list((self.json_get('/cx/%s?fields=bps+rx+a' % sta)).values())[2]['bps rx a'] / 1000000:.2f}"))
tx_b['be'].append(int(f"{tx_endps['%s-B' % sta]['tx pkts ll']}"))
rx_a['be'].append(int(f"{rx_endps['%s-A' % sta]['rx pkts ll']}"))
else: else:
tos_upload['be'].append(data['bps rx b']) tos_download['be'].append(float(0))
tx_b['be'].append(int(0))
rx_a['be'].append(int(0))
elif temp % 4 == 2: elif temp % 4 == 2:
data = list(self.json_get('/cx/%s?fields=bps+rx+a,bps+rx+b' % sta).values())[2]
if int(self.cx_profile.side_a_min_bps) != 0:
tos_upload['voice'].append(data['bps rx a'] / 1000000)
else:
tos_upload['voice'].append(data['bps rx a'])
if int(self.cx_profile.side_b_min_bps) != 0: if int(self.cx_profile.side_b_min_bps) != 0:
tos_download['voice'].append(data['bps rx b'] / 1000000) tos_download['voice'].append(float(
f"{list((self.json_get('/cx/%s?fields=bps+rx+a' % sta)).values())[2]['bps rx a'] / 1000000:.2f}"))
tx_b['voice'].append(int(f"{tx_endps['%s-B' % sta]['tx pkts ll']}"))
rx_a['voice'].append(int(f"{rx_endps['%s-A' % sta]['rx pkts ll']}"))
else: else:
tos_upload['voice'].append(data['bps rx b']) tos_download['voice'].append(float(0))
tx_b['voice'].append(int(0))
rx_a['voice'].append(int(0))
elif temp % 4 == 3: elif temp % 4 == 3:
data = list(self.json_get('/cx/%s?fields=bps+rx+a,bps+rx+b' % sta).values())[2]
if int(self.cx_profile.side_a_min_bps) != 0:
tos_upload['video'].append(data['bps rx a'] / 1000000)
else:
tos_upload['video'].append(data['bps rx a'])
if int(self.cx_profile.side_b_min_bps) != 0: if int(self.cx_profile.side_b_min_bps) != 0:
tos_download['video'].append(data['bps rx b'] / 1000000) tos_download['video'].append(float(
f"{list((self.json_get('/cx/%s?fields=bps+rx+a' % sta)).values())[2]['bps rx a'] / 1000000:.2f}"))
tx_b['video'].append(int(f"{tx_endps['%s-B' % sta]['tx pkts ll']}"))
rx_a['video'].append(int(f"{rx_endps['%s-A' % sta]['rx pkts ll']}"))
else: else:
tos_upload['video'].append(data['bps rx b']) tos_download['video'].append(float(0))
tos_upload.update({"videoQOS": sum(tos_upload['video']) / 100000}) tx_b['video'].append(int(0))
tos_upload.update({"voiceQOS": sum(tos_upload['voice']) / 100000}) rx_a['video'].append(int(0))
tos_upload.update({"bkQOS": sum(tos_upload['bk']) / 1000000}) tos_download.update({"bkQOS": float(f"{sum(tos_download['bk']):.2f}")})
tos_upload.update({"beQOS": sum(tos_upload['be']) / 1000000}) tos_download.update({"beQOS": float(f"{sum(tos_download['be']):.2f}")})
tos_download.update({"videoQOS": sum(tos_download['video']) / 1000000}) tos_download.update({"videoQOS": float(f"{sum(tos_download['video']):.2f}")})
tos_download.update({"voiceQOS": sum(tos_download['voice']) / 1000000}) tos_download.update({"voiceQOS": float(f"{sum(tos_download['voice']):.2f}")})
tos_download.update({"bkQOS": sum(tos_download['bk']) / 1000000}) if sum(tx_b['bk']) != 0 or sum(tx_b['be']) != 0 or sum(tx_b['video']) != 0 or sum(tx_b['voice']) != 0:
tos_download.update({"beQOS": sum(tos_download['be']) / 1000000}) pkt_loss.update({"bkLOSS": float(f"{((sum(tx_b['bk']) - sum(rx_a['bk']))/sum(tx_b['bk']))*100:.2f}")})
pkt_loss.update({"beLOSS": float(f"{((sum(tx_b['be']) - sum(rx_a['be']))/sum(tx_b['be']))*100:.2f}")})
pkt_loss.update({"videoLOSS": float(f"{((sum(tx_b['video']) - sum(rx_a['video']))/sum(tx_b['video']))*100:.2f}")})
pkt_loss.update({"voiceLOSS": float(f"{((sum(tx_b['voice']) - sum(rx_a['voice']))/sum(tx_b['voice']))*100:.2f}")})
else: else:
print("no connections available to evaluate QOS") print("no RX values available to evaluate QOS")
key = case + " " + "Mbps" key = case + " " + "Mbps"
return {key: {"tos_upload": tos_upload, "tos_download": tos_download}} print(tos_download)
print(pkt_loss)
return {key: tos_download}, pkt_loss
def generate_report(self, data): def generate_report(self, data):
print(data) print(data)
@@ -330,7 +348,9 @@ class ThroughputQOS(Realm):
_obj="Through this test we can evaluate the throughput for given number of clients which" _obj="Through this test we can evaluate the throughput for given number of clients which"
" runs the traffic with a particular Type of Service i.e BK,BE,VI,VO") " runs the traffic with a particular Type of Service i.e BK,BE,VI,VO")
report.build_objective() report.build_objective()
report.set_table_title("Overall Throughput for all TOS i.e BK | BE | Video (VI) | Voice (VO)")
report.set_table_title(
"Overall download Throughput for all TOS i.e BK | BE | Video (VI) | Voice (VO) in 2.4Ghz")
report.build_table_title() report.build_table_title()
t_1mb = [] t_1mb = []
@@ -343,33 +363,34 @@ class ThroughputQOS(Realm):
for key in res: for key in res:
if key == '1 Mbps': if key == '1 Mbps':
table_df[0].append(res[key]['tos_upload']['bkQOS']) table_df[0].append(res[key]['bkQOS'])
table_df[0].append(res[key]['tos_upload']['beQOS']) table_df[0].append(res[key]['beQOS'])
table_df[0].append(res[key]['tos_upload']['videoQOS']) table_df[0].append(res[key]['videoQOS'])
table_df[0].append(res[key]['tos_upload']['voiceQOS']) table_df[0].append(res[key]['voiceQOS'])
if key == '2 Mbps': if key == '2 Mbps':
table_df[1].append(res[key]['tos_upload']['bkQOS']) table_df[1].append(res[key]['bkQOS'])
table_df[1].append(res[key]['tos_upload']['beQOS']) table_df[1].append(res[key]['beQOS'])
table_df[1].append(res[key]['tos_upload']['videoQOS']) table_df[1].append(res[key]['videoQOS'])
table_df[1].append(res[key]['tos_upload']['voiceQOS']) table_df[1].append(res[key]['voiceQOS'])
if key == '3 Mbps': if key == '3 Mbps':
table_df[2].append(res[key]['tos_upload']['bkQOS']) table_df[2].append(res[key]['bkQOS'])
table_df[2].append(res[key]['tos_upload']['beQOS']) table_df[2].append(res[key]['beQOS'])
table_df[2].append(res[key]['tos_upload']['videoQOS']) table_df[2].append(res[key]['videoQOS'])
table_df[2].append(res[key]['tos_upload']['voiceQOS']) table_df[2].append(res[key]['voiceQOS'])
if key == '4 Mbps': if key == '4 Mbps':
table_df[3].append(res[key]['tos_upload']['bkQOS']) table_df[3].append(res[key]['bkQOS'])
table_df[3].append(res[key]['tos_upload']['beQOS']) table_df[3].append(res[key]['beQOS'])
table_df[3].append(res[key]['tos_upload']['videoQOS']) table_df[3].append(res[key]['videoQOS'])
table_df[3].append(res[key]['tos_upload']['voiceQOS']) table_df[3].append(res[key]['voiceQOS'])
if key == '5 Mbps': if key == '5 Mbps':
table_df[4].append(res[key]['tos_upload']['bkQOS']) table_df[4].append(res[key]['bkQOS'])
table_df[4].append(res[key]['tos_upload']['beQOS']) table_df[4].append(res[key]['beQOS'])
table_df[4].append(res[key]['tos_upload']['videoQOS']) table_df[4].append(res[key]['videoQOS'])
table_df[4].append(res[key]['tos_upload']['voiceQOS']) table_df[4].append(res[key]['voiceQOS'])
table_df2 = [] table_df2 = []
for i in range(len(table_df)): for i in range(len(table_df)):
table_df2.append(f'BK: {table_df[i][0]} | BE: {table_df[i][1]} | VI: {table_df[i][2]} | VO: {table_df[i][3]}') table_df2.append(
f'BK: {table_df[i][0]} | BE: {table_df[i][1]} | VI: {table_df[i][2]} | VO: {table_df[i][3]}')
df_throughput = pd.DataFrame({ df_throughput = pd.DataFrame({
'Mode': ['bgn-AC'], "No.of.clients": [len(self.sta_list)], 'Mode': ['bgn-AC'], "No.of.clients": [len(self.sta_list)],
@@ -382,8 +403,12 @@ class ThroughputQOS(Realm):
report.set_table_dataframe(df_throughput) report.set_table_dataframe(df_throughput)
report.build_table() report.build_table()
report.set_graph_title("Overall upload Throughput for 2.4G clients for various TOS.") report.set_graph_title("Overall download Throughput for all 2.4G clients with different TOS.")
report.set_obj_html(_obj_title="", _obj="This graph represents the download throughput for Bk, BE, Video, Voice"
" services when stations are running the traffic with load 1 Mbps, "
"2 Mbps, 3 Mbps, 4 Mbps")
report.build_graph_title() report.build_graph_title()
report.build_objective()
y_bk = [] y_bk = []
y_be = [] y_be = []
@@ -393,41 +418,44 @@ class ThroughputQOS(Realm):
graph_df = [y_bk, y_be, y_vi, y_vo] graph_df = [y_bk, y_be, y_vi, y_vo]
for key in res: for key in res:
if key == '1 Mbps': if key == '1 Mbps':
graph_df[0].append(res[key]['tos_upload']['bkQOS']) graph_df[0].append(res[key]['bkQOS'])
graph_df[1].append(res[key]['tos_upload']['beQOS']) graph_df[1].append(res[key]['beQOS'])
graph_df[2].append(res[key]['tos_upload']['videoQOS']) graph_df[2].append(res[key]['videoQOS'])
graph_df[3].append(res[key]['tos_upload']['voiceQOS']) graph_df[3].append(res[key]['voiceQOS'])
if key == '2 Mbps': if key == '2 Mbps':
graph_df[0].append(res[key]['tos_upload']['bkQOS']) graph_df[0].append(res[key]['bkQOS'])
graph_df[1].append(res[key]['tos_upload']['beQOS']) graph_df[1].append(res[key]['beQOS'])
graph_df[2].append(res[key]['tos_upload']['videoQOS']) graph_df[2].append(res[key]['videoQOS'])
graph_df[3].append(res[key]['tos_upload']['voiceQOS']) graph_df[3].append(res[key]['voiceQOS'])
if key == '3 Mbps': if key == '3 Mbps':
graph_df[0].append(res[key]['tos_upload']['bkQOS']) graph_df[0].append(res[key]['bkQOS'])
graph_df[1].append(res[key]['tos_upload']['beQOS']) graph_df[1].append(res[key]['beQOS'])
graph_df[2].append(res[key]['tos_upload']['videoQOS']) graph_df[2].append(res[key]['videoQOS'])
graph_df[3].append(res[key]['tos_upload']['voiceQOS']) graph_df[3].append(res[key]['voiceQOS'])
if key == '4 Mbps': if key == '4 Mbps':
graph_df[0].append(res[key]['tos_upload']['bkQOS']) graph_df[0].append(res[key]['bkQOS'])
graph_df[1].append(res[key]['tos_upload']['beQOS']) graph_df[1].append(res[key]['beQOS'])
graph_df[2].append(res[key]['tos_upload']['videoQOS']) graph_df[2].append(res[key]['videoQOS'])
graph_df[3].append(res[key]['tos_upload']['voiceQOS']) graph_df[3].append(res[key]['voiceQOS'])
if key == '5 Mbps': if key == '5 Mbps':
graph_df[0].append(res[key]['tos_upload']['bkQOS']) graph_df[0].append(res[key]['bkQOS'])
graph_df[1].append(res[key]['tos_upload']['beQOS']) graph_df[1].append(res[key]['beQOS'])
graph_df[2].append(res[key]['tos_upload']['videoQOS']) graph_df[2].append(res[key]['videoQOS'])
graph_df[3].append(res[key]['tos_upload']['voiceQOS']) graph_df[3].append(res[key]['voiceQOS'])
graph = lf_bar_graph(_data_set=graph_df, graph = lf_bar_graph(_data_set=graph_df,
_xaxis_name="Load (Mbps) per Type of Service", _xaxis_name="Load per Type of Service",
_yaxis_name="Throughput (Mbps)", _yaxis_name="Throughput (Mbps)",
_xaxis_categories=[1, 2, 3, 4, 5], _xaxis_categories=[1, 2, 3, 4, 5, 6],
_graph_image_name="Bi-single_radio_2.4GHz", _xaxis_label=['1 Mbps', '2 Mbps', '3 Mbps', '4 Mbps', '5 Mbps'],
_graph_image_name="tos_download_2.4GHz",
_label=["BE", "BK", "VI", "VO"], _label=["BE", "BK", "VI", "VO"],
_color=['blue', 'yellow', 'green', 'purple'], _step_size=1,
_color=['orangered', 'greenyellow', 'steelblue', 'blueviolet'],
_color_edge='black', _color_edge='black',
_bar_width=0.15) _bar_width=0.15,
_dpi=96,
_color_name=['orangered', 'greenyellow', 'steelblue', 'blueviolet'])
graph_png = graph.build_bar_graph() graph_png = graph.build_bar_graph()
print("graph name {}".format(graph_png)) print("graph name {}".format(graph_png))
@@ -435,11 +463,107 @@ class ThroughputQOS(Realm):
report.set_graph_image(graph_png) report.set_graph_image(graph_png)
# need to move the graph image to the results # need to move the graph image to the results
report.move_graph_image() report.move_graph_image()
report.build_graph() report.build_graph()
self.generate_individual_graph(data, report)
report.write_html() report.write_html()
report.write_pdf() report.write_pdf()
def generate_individual_graph(self, data, report):
if data is not None:
res = {}
for i in range(len(data)):
res.update(data[i])
if len(res.keys()) > 0:
count = 1
for key in res:
report.set_graph_title(_graph_title="Individual stations Download Throughput for the service Bk(WIFI) of load {}.".format(key))
report.set_obj_html(_obj_title="",
_obj="This is the individual throughput for {} number of clients running service BK".format(
len(self.sta_list)))
report.build_graph_title()
report.build_objective()
graph = lf_bar_graph(_data_set=[res[key]['bk']], _xaxis_name="Clients running - BK",
_yaxis_name="Throughput in Mbps",
_xaxis_categories=[i for i in range(len(self.sta_list))],
_xaxis_label=[i for i in range(len(self.sta_list))],
_label=["BK"],
_step_size=1,
_bar_width=0.15, _color_name=['orangered'],
_graph_image_name="{}_bk_{}".format(self.bands[0], count), _color_edge=['black'],
_color=['orangered'])
graph_png = graph.build_bar_graph()
print("graph name {}".format(graph_png))
report.set_graph_image(graph_png)
# need to move the graph image to the results
report.move_graph_image()
report.build_graph()
report.set_graph_title(_graph_title="Individual stations Download Throughput for the service BE(WIFI) of load {}.".format(key))
report.set_obj_html(_obj_title="",
_obj="This is the individual throughput for {} number of clients running service BE".format(
len(self.sta_list)))
report.build_graph_title()
report.build_objective()
graph = lf_bar_graph(_data_set=[res[key]['be']], _xaxis_name="Clients running - BE",
_yaxis_name="Throughput in Mbps",
_xaxis_categories=[i for i in range(len(self.sta_list))],
_xaxis_label=[i for i in range(len(self.sta_list))],
_label=["BE"],
_step_size=1,
_bar_width=0.15, _color_name=['greenyellow'],
_graph_image_name="{}_be_{}".format(self.bands[0], count), _color_edge=['black'],
_color=['greenyellow'])
graph_png = graph.build_bar_graph()
print("graph name {}".format(graph_png))
report.set_graph_image(graph_png)
# need to move the graph image to the results
report.move_graph_image()
report.build_graph()
report.set_graph_title(_graph_title="Individual stations Download Throughput for the service VI(WIFI) of load {}.".format(key))
report.set_obj_html(_obj_title="",
_obj="This is the individual throughput for {} number of clients running service VI".format(
len(self.sta_list)))
report.build_graph_title()
report.build_objective()
graph = lf_bar_graph(_data_set=[res[key]['video']], _xaxis_name="Clients running - VI",
_yaxis_name="Throughput in Mbps",
_xaxis_categories=[i for i in range(len(self.sta_list))],
_xaxis_label=[i for i in range(len(self.sta_list))],
_label=["Video"],
_step_size=1,
_bar_width=0.15, _color_name=['steelblue'],
_graph_image_name="{}_video_{}".format(self.bands[0], count), _color_edge=['black'],
_color=['steelblue'])
graph_png = graph.build_bar_graph()
print("graph name {}".format(graph_png))
report.set_graph_image(graph_png)
# need to move the graph image to the results
report.move_graph_image()
report.build_graph()
report.set_graph_title(_graph_title="Individual stations Download Throughput for the service VO(WIFI) of load {}.".format(key))
report.set_obj_html(_obj_title="",
_obj="This is the individual throughput for {} number of clients running service VO".format(
len(self.sta_list)))
report.build_graph_title()
report.build_objective()
graph = lf_bar_graph(_data_set=[res[key]['voice']], _xaxis_name="Clients running - VO",
_yaxis_name="Throughput in Mbps",
_xaxis_categories=[i for i in range(len(self.sta_list))],
_xaxis_label=[i for i in range(len(self.sta_list))],
_label=['Voice'],
_step_size=1,
_bar_width=0.15, _color_name=['blueviolet'],
_graph_image_name="{}_voice_{}".format(self.bands[0], count), _color_edge=['black'],
_color=['blueviolet'])
graph_png = graph.build_bar_graph()
print("graph name {}".format(graph_png))
report.set_graph_image(graph_png)
# need to move the graph image to the results
report.move_graph_image()
report.build_graph()
count += 1
else:
print("No individual graph to generate.")
def main(): def main():
parser = Realm.create_basic_argparse( parser = Realm.create_basic_argparse(
@@ -594,7 +718,7 @@ python3 ./throughput_QOS.py
print(args.test_case) print(args.test_case)
print("-----------------") print("-----------------")
# ---------------------------------------# # ---------------------------------------#
for index in range(len(loads["a_min"])): for index in range(len(loads["b_min"])):
throughput_qos = ThroughputQOS(host=args.mgr, throughput_qos = ThroughputQOS(host=args.mgr,
port=args.mgr_port, port=args.mgr_port,
number_template="0000", number_template="0000",
@@ -649,7 +773,7 @@ python3 ./throughput_QOS.py
throughput_qos.cleanup() throughput_qos.cleanup()
data = test_results data = test_results
throughput_qos.generate_report(data=data) #throughput_qos.generate_report(data=data)
if __name__ == "__main__": if __name__ == "__main__":