NoEMi

The Noise Frequency Event Miner (NoEMi) is a Virgo software tool dedicated to the monitoring and identification of spectral noise lines.

It uses codes for CW analysis to find and track spectral lines found in a given list of channels. It also looks for spectral features in coincidence between the "main channel" and the "auxiliary channels".

NoEMi documentation: https://apps.virgo-gw.eu/noemi/docs/index.html

This version, has 3 main components:

In addition to NoEMi the LinesDB will be installed soon.

Requirements

Main requirements:

HTCondor
MySQL
Python
Apache HTTP server
PHP

The following Python libraries can be installed with pip

pip install htcondor
pip install pymysql
pip install numpy

The PHP Data Objects module could be necessary.

MySQL has been installed from scratch, the admin user credentials are (this is the root user for any MySQL operation):

Username: root
Password: user_admin_pass

Get NoEMi

The full NoEMi package is available in the Virgo SVN software repository

Note that, to access the repository, you will need to use your EGO Active Directory credentials. More information on obtaining these is available here.

svn co https://svn.ego-gw.it/svn/advsw/Noemi/branches/v2/trunk \
          NoEMi

     NoEMi/
          /db      --> MySQL Database
          /doc     --> Documentation
          /noemi   --> Line finder python scripts
          /wui     --> Web user interface

Host machines and Users

The 3 components of NoEMi: the DB, the Line finder and the WUI are installed on the following machines

 DB host: localhost
 LF hosts: localhost
 WUI host: localhost --> web page work in progress

The following MySQL users have been created:

1. The web user interface (WUI) MySQL user

Username: noemi_wui
Password: noemi_wui_pass

2. The Line-Finder (LF) MySQL user

Username: noemi_user
Password: noemi_user_pass

Changes for KAGRA

The "K1" detector case has been added to the main SFDB (Short Fourier Transform DataBase) executable. The SFDBs are used also for CW analysis in Virgo.

The list of channels/sampling frequency of the channel used is:

K1:CAL-CS_PROC_C00_STRAIN_DBL_DQ 16384
K1:PEM-ACC_PSL_TABLE_PSL1_Z_OUT_DQ 2048
K1:PEM-ACC_PSL_TABLE_PSL2_Z_OUT_DQ 2048
K1:PEM-ACC_PSL_TABLE_PSL3_Z_OUT_DQ 2048
K1:PEM-MIC_PSL_TABLE_PSL4_Z_OUT_DQ 16384
K1:PEM-ACC_MCF_TABLE_REFL_Z_OUT_DQ 2048
K1:PEM-MIC_MCF_TABLE_REFL_Z_OUT_DQ 16384
K1:PEM-MIC_EXC_BOOTH_EXC_Z_OUT_DQ 2048
K1:PEM-MIC_EYC_BOOTH_EYC_Z_OUT_DQ 2048
K1:PEM-ACC_OMC_TABLE_AS_Z_OUT_DQ 2048
K1:PEM-MIC_OMC_TABLE_AS_Z_OUT_DQ 2048
K1:PEM-MIC_BS_TABLE_POP_Z_OUT_DQ 16384
K1:PEM-ACC_BS_TABLE_POP_Z_OUT_DQ 2048
K1:PEM-MAG_BS_BOOTH_BS_X_OUT_DQ 16384
K1:PEM-MAG_BS_BOOTH_BS_Y_OUT_DQ 16384
K1:PEM-MAG_BS_BOOTH_BS_Z_OUT_DQ 16384
K1:PEM-MAG_EXC_BOOTH_EXC_X_OUT_DQ 16384
K1:PEM-MAG_EXC_BOOTH_EXC_Y_OUT_DQ 16384
K1:PEM-MAG_EXC_BOOTH_EXC_Z_OUT_DQ 16384
K1:PEM-MAG_EYC_BOOTH_EYC_X_OUT_DQ 16384
K1:PEM-MAG_EYC_BOOTH_EYC_Y_OUT_DQ 16384
K1:PEM-MAG_EYC_BOOTH_EYC_Z_OUT_DQ 16384

Staus

What's missing