Merge branch 'Dev' of https://github.com/GeorgBrantegger/Kelag_DT_Slot_3 into Dev

Ausgleichsbecken.py

@@ -0,0 +1,35 @@
+import numpy as np 
+
+def Volume_trend(influx,outflux,timestep=1,V_0=0):
+    '''
+    Returns the trend and the volume and the final volume, defined
+    by influx and outflux patterns. The optional parameter timestep
+    defines the time increment over which the fluxes are changing.
+    '''
+    net_flux = influx-outflux
+    delta_V = net_flux*timestep
+    V_trend = V_0+np.cumsum(delta_V)
+    V_end = V_trend[-1]
+    return V_end, V_trend
+
+def Height_trend(V_trend,area=1,h_crit_low=-np.inf,h_crit_high=np.inf):
+    '''
+    Returns the trend and the height and the final height, defined
+    by influx and outflux patterns as well as the crosssection area.
+    The optional parameters h_crit_low/high indicate limits that the height
+    should never exceed. If this occures, TRUE is returned in the corresponding
+    h_crit_flag.
+    '''
+    h_trend = V_trend/area
+    h_crit_flag_low = np.any(h_trend <= h_crit_low)
+    h_crit_flag_high = np.any(h_trend >= h_crit_high)
+    h_end = h_trend[-1]
+    return h_trend,h_end,h_crit_flag_low,h_crit_flag_high
+
+## testing
+if __name__ == "__main__":
+    influx = np.full([1,100], 6)
+    outflux = np.full_like(influx, 4)
+    V_end, V_trend = Volume_trend(influx, outflux,timestep=0.5,V_0 = 100)
+    print(V_end)
+    print(V_trend)

Druckrohrleitung.py

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+import numpy as np 
+
+def simple_time_delay(delta_p_profile,delay,timestep):
+    rounded_delay = timestep * np.round(delay/timestep)
+    print('Delay was rounded to ', rounded_delay)
+    n_pad = int(rounded_delay/timestep)
+    output_delta_p_profile = np.pad(delta_p_profile[0:-n_pad],[n_pad,0],constant_values=0)
+    return output_delta_p_profile
+
+## testing
+if __name__ == "__main__":
+    delta_p_profile = np.ones([100])
+    delay = 4 
+    timestep = 0.2
+
+    print(simple_time_delay(delta_p_profile, delay, timestep))
+