diff --git a/README.md b/README.md
index 3f27d08cf7f82dba26b2fdca3bbfb6a57626327a..c2ffcf636410a2ef1a872e016a746df7bdd4adb4 100644
--- a/README.md
+++ b/README.md
@@ -15,7 +15,7 @@ applications running on the board.
Many laboratory instruments like oscilloscopes, logic analyzers, Bode plotters or a multi-channel pulse-height
analyzer can be realized on this board by simply changing the FPGA image and the Linux application.
-
+{width=800px}
The MCPHA application for the RedPitaya by Pavel Demin provides a multi-channel pulse-height analyzer and
consists of an FPGA image and a server process running on the RedPitaya board. A client script controls
@@ -24,16 +24,20 @@ the server and pulls the data to the client computer.
### Files:
- - *README.md* this documentation
- - *mchpa.py* the client program
- - *mcpha.ui* qt5 graphical user interface for *mcpha* application
- - *mcpha_gen.ui* qt5 tab for generator
- - *mcpha_osc.ui* qt5 tab for oscilloscope
- - *mcpha_hst.ui* qt5 tab for histogram display
- - *mcpha_log.ui* qt5 tab for message display
- - *rePosci.py* a simple oscilloscope and daq client using the mcpha server
- - *rpControl.ui* qt5 tab for *redPosci* application
- - *mcpha_daq.ui* qt5 tab for oscilloscope with daq mode
+ - *README.md* this documentation
+ - *mchpa.py* client program
+ - *rePosci.py* a simple oscilloscope and daq client using the mcpha server
+ - *rpControl.ui* qt5 tab for *redPosci* application
+ - *mcpha_daq.ui* qt5 tab for oscilloscope with daq mode
+ - *redP_mimocorb.py* runs *redPoscdaq* as a client of the buffer manager *mimoCoRB*
+ - *setup.yaml* coniguration script defining the *mimoCoRB* application
+ - *run_daq.py* script to strat the *mimoCoRB* application
+ - *modules/* and *config/* contain code and configuration files for the *redP_mimoCoRB* application
+ - *mcpha.ui* qt5 graphical user interface for *mcpha* application
+ - *mcpha_gen.ui* qt5 tab for generator
+ - *mcpha_osc.ui* qt5 tab for oscilloscope
+ - *mcpha_hst.ui* qt5 tab for histogram display
+ - *mcpha_log.ui* qt5 tab for message display
- RP-image directory with all files necessary to boot a RedPitaya and start the server
application based on the "small, simple and secure" linux distribution
[alpine-3.18-armv7-20240204](https://github.com/pavel-demin/red-pitaya-notes/releases/tag/20240204)
@@ -72,20 +76,20 @@ the performance.
An oscilloscope with very basic functionality to set the trigger level and direction is also provided.
The timing is controlled by the so-called decimation factor that can be adjusted using the control
in the upper right corner of the graphical window. The RedPitaya samples data at a constant rate
-of 125 MHz, and the decimation factor determines how many samples are averaged over and stored
+of 125 MHz, and the decimation factor determines how many samples are averaged over and stored
in the internal ring buffer. This reduces the effective sampling rate accordingly. Only decimation
-factors corresponding to powers of two are allowed. An example of randomly occurring exponential
-signal pulses at an average rate of 10 kHz with a fall time of 10 µs is shown below; there is significant
+factors corresponding to powers of two are allowed. An example of randomly occurring exponential
+signal pulses at an average rate of 10 kHz with a fall time of 10 µs is shown below; there is significant
signal overlap in this case, making pulse-height detection more complex.
-
+{width=800px}
A spectrum of such pulses is shown below for input pulses at multiples of 62.5 mV between 62.5 mV
and 500 mV. The overlap of signal pulses leads to wrong pulse-height assignments below the actual
voltage and to entries above 500 mV when pulses become indistinguishable and therefore add up
to a single detected pulse.
-
+{width=800px}
Note that spectra and waveforms are plotted with a very large number of channels, well exceeding
the resolution of a computer display. It is therefore possible to use the looking-glass button
@@ -95,13 +99,24 @@ of the *matplotlib*window to mark regions to zoom in for a detailed inspection o
The script *redPosci.py* relies on the same server and FPGA image as the pulse-height analyzer.
The *oscilloscope* and *generator* tabs provide the same functionality as in *mcpha.py*.
-In addition, however, there is a button "*Start DAQ*" to run the data acquisition for the the
-oscilloscope independently of the Qt timing loop, i. e. in continuous mode. As soon as data is
-received by the client, the oscilloscope is restarted. A dummy routine
-*processData()* ist provided as an illustration; right now, it shows a graphical display once
-per second and calculates and displays the trigger and data rates.
+In addition, however, there is a button "*Start DAQ*" to run the oscilloscope in data acquisition
+mode, i.e. continuously. A subset of the data is shown in the oscilloscope display,together with
+information on the trigger rate and the transferred data volume. A configurable user-defined function
+may also be called to analyse and store the recorded waveforms.
+It is possible to transfer data over a one-Gbit network from the RedPitaya with a rate of 50 MB/s
+or about 500 waveforms/s.
+
+Two examples of call-back functions callable by redPoscdaq are provided with the package
+
+ - redP_consumer()
+ calculates and displays statistics on trigger rate and data volume
+
+ - redP_mimocorb()
+ provides an interface to the buffer manager *mimiCoRB* for more advanced data analysis tasks
+ requiring multiple processes running in parallel. A simple *mimoCoRB* setup is also provided
+ and can be started by *./run_daq setup.yaml*; modules and configuration files for a pulse-height
+ analysis of signals are contained in the subdirectories *modules/* and *config/*, respectively.
-It is possible to transfer data over a 1Gbit network with a rate of 50 MB/s or about 500 waveforms/s.
## Installation