:py:mod:`autodeer.hardware.Bruker_AWG`
======================================

.. py:module:: autodeer.hardware.Bruker_AWG



Module Contents
---------------

Classes
~~~~~~~

.. autoapisummary::

   autodeer.hardware.Bruker_AWG.BrukerAWG



Functions
~~~~~~~~~

.. autoapisummary::

   autodeer.hardware.Bruker_AWG.get_specjet_data
   autodeer.hardware.Bruker_AWG.test_if_MPFU_compatability



.. py:class:: BrukerAWG(config_file)


   Bases: :py:obj:`autodeer.classes.Interface`

   Represents the interface for connecting to AWG based Bruker ELEXSYS-II 
   Spectrometers.


   An interface for connecting to AWG based Bruker ELEXSYS-II 
   Spectrometers.


   :Parameters:

       **config_file** : str
           The path to a YAML configuration file.

   :Attributes:

       **bg_thread: None or threading.Thread**
           If a background thread is needed, it is stored here.













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   .. py:attribute:: api

      

   .. py:attribute:: spec_config

      

   .. py:attribute:: bridge_config

      

   .. py:attribute:: temp_dir

      

   .. py:attribute:: d0

      

   .. py:attribute:: bg_thread
      :value: 'None'

      

   .. py:attribute:: bg_data
      :value: 'None'

      

   .. py:attribute:: cur_exp
      :value: 'None'

      

   .. py:attribute:: tuning
      :value: 'False'

      

   .. py:attribute:: pool

      

   .. py:attribute:: savename
      :value: "''"

      

   .. py:attribute:: savefolder

      

   .. py:attribute:: setup_flag
      :value: 'False'

      

   .. py:method:: connect(d0=None)


   .. py:method:: setup(d0=None)


   .. py:method:: acquire_dataset()

      
      Acquires the dataset.
















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   .. py:method:: _launch_complex_thread(sequence, axID=1, tune=True)


   .. py:method:: launch(sequence, savename, start=True, tune=True, MPFU_overwrite=None, update_pulsespel=True, reset_bg_data=True, reset_cur_exp=True, **kwargs)

      
      Launches the experiment and initialises autosaving.


      :Parameters:

          **sequence** : Sequence
              The sequence to be launched

          **savename** : str
              The savename for this measurement. A timestamp will be added to the value.














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   .. py:method:: tune_rectpulse(*, tp, LO, B, reptime, shots=400)

      
      Generates a rectangular pi and pi/2 pulse of the given length at 
      the given field position. This value is stored in the pulse cache. 


      :Parameters:

          **tp** : float
              Pulse length in ns

          **LO** : float
              Central frequency of this pulse in GHz

          **B** : float
              Magnetic B0 field position in Gauss

          **reptime: float**
              Shot repetion time in us.

          **shots: int**
              The number of shots



      :Returns:

          p90: RectPulse
              A tuned rectangular pi/2 pulse of length tp

          p180: RectPulse
              A tuned rectangular pi pulse of length tp











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   .. py:method:: tune_pulse(pulse, mode, LO, B, reptime, shots=400)

      
      Tunes a single pulse a range of methods.


      :Parameters:

          **pulse** : Pulse
              The Pulse object in need of tuning.

          **mode** : str
              The method to be used.

          **LO** : float
              The local oscilator frequency in GHz

          **B** : float
              Magnetic B0 field position in Gauss

          **reptime** : us
              Shot repetion time in us.

          **shots: int**
              The number of shots



      :Returns:

          Tunned Pulse: Pulse
              The returned pulse object that is now tunned.











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   .. py:method:: tune_nutation(test_pulse)


   .. py:method:: isrunning()


   .. py:method:: terminate(now=False)

      
      Terminates the experiment immediately. 
















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   .. py:method:: calc_d0()

      
      This creates an initial guess for d0. A better estimate can only be found after the field sweep. 
















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   .. py:method:: calc_d0_from_Hahn_Echo(B=None, LO=None)



.. py:function:: get_specjet_data(interface)


.. py:function:: test_if_MPFU_compatability(seq)