Prepared tests with one device

- added functions for status print
- renamed Testing1.py to example2.py
- prepared test master script

One_Unit_Test.py

@@ -0,0 +1,55 @@
+# import platform
+import time as t
+import numpy as np
+import globals as g
+import cage_func as func
+from pyps2000b import PS2000B
+
+# User Inputs/Configuration----------------------------------
+Test1 = 0
+Test2 = 0
+Test3 = 0
+Test4 = 0
+
+# Constants:
+g.Coil_const = np.array([38.6, 38.45, 37.9])*1e-9  # Coil constants [x,y,z] in T/A
+g.ambientField = np.array([80])*1e-6  # ambient magnetic field in measurement area, to be cancelled out
+
+# COM-Ports for power supply units:
+xPort = "COM7"  # placeholder
+g.xDevice = PS2000B.PS2000B(xPort)
+
+func.print_status(g.xDevice)
+t.sleep(3)
+
+g.xDevice.enable_all()
+func.print_status(g.xDevice)
+t.sleep(3)
+
+if Test1 == 1:
+    g.xDevice.voltage1 = 5
+    t.sleep(1)
+    func.print_status(g.xDevice)
+    t.sleep(5)
+    func.set_to_zero(g.xDevice)
+
+if Test2 == 1:
+    g.xDevice.current1 = 0.2
+    t.sleep(1)
+    func.print_status(g.xDevice)
+    t.sleep(5)
+    func.set_to_zero(g.xDevice)
+
+if Test4 == 1:
+    func.set_axis_current(g.xDevice, 0.2)
+    t.sleep(1)
+    func.print_status(g.xDevice)
+    t.sleep(10)
+    func.set_to_zero(g.xDevice)
+    t.sleep(1)
+
+func.print_status(g.xDevice)
+
+g.xDevice.disable_all()
+
+func.print_status(g.xDevice)

cage_func.py

@@ -22,6 +22,27 @@ def deactivate_all():  # disables remote control and output on all PSUs and chan
     g.zDevice.disable_all()
 
 
+def print_status(device):
+    print("Channel 1: %s, %0.2f V, %0.2f A" % (device.get_device_status_information(0), device.voltage1, device.current1))
+    print("Channel 2: %s, %0.2f V, %0.2f A" % (device.get_device_status_information(1), device.voltage1, device.current1))
+
+
+def print_status_3():
+    print("X-Axis:")
+    print_status(g.xDevice)
+    print("Y-Axis:")
+    print_status(g.yDevice)
+    print("Z-Axis:")
+    print_status(g.zDevice)
+
+
+def set_to_zero(device):
+    device.voltage1 = 0
+    device.current1 = 0
+    device.current2 = 0
+    device.current2 = 0
+
+
 def set_field_simple(vector):  # forms magnetic field as specified by vector, w/o cancelling ambient field
     i_vec = vector/g.Coil_const
     set_current_vec(i_vec)
@@ -34,12 +55,12 @@ def set_field(vector):  # forms magnetic field as specified by vector, corrected
 
 
 def set_current_vec(i_vec):  # sets needed currents on each axis for given vector
-    set_current(g.xDevice, i_vec[0])
-    set_current(g.yDevice, i_vec[1])
-    set_current(g.zDevice, i_vec[2])
+    set_axis_current(g.xDevice, i_vec[0])
+    set_axis_current(g.yDevice, i_vec[1])
+    set_axis_current(g.zDevice, i_vec[2])
 
 
-def set_current(device, value):  # sets current with correct polarity on one axis
+def set_axis_current(device, value):  # sets current with correct polarity on one axis
     # ToDo: Check behaviour with only current or only voltage set
     # ToDo: Check behaviour when trying to set too high currents
     if value > 0:

pyps2000b/PS2000B.py

@@ -195,7 +195,15 @@ class DeviceStatusInformation:
         self.actual_current_percent = float(as_word(raw_data[4:6])) / 256
 
     def __str__(self):
-        return "Remote control active: %s, Output active: %s" % (self.remote_control_active, self.output_active)
+        if self.remote_control_active == 1:
+            remote = "active"
+        else:
+            remote = "inactive"
+        if self.output_active == 1:
+            output = "active"
+        else:
+            output = "inactive"
+        return "Remote control %s, Output %s" % (remote, output)
 
 
 class PS2000B: