Difference between revisions of "Eigen dithering"
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1) Double difference asymmetry grand average comparison table (reference to the average asymmetry ground average comparison table [https://prex.jlab.org/wiki/images/3/32/Note2.pdf table 1]) | 1) Double difference asymmetry grand average comparison table (reference to the average asymmetry ground average comparison table [https://prex.jlab.org/wiki/images/3/32/Note2.pdf table 1]) | ||
− | 2) | + | 2) Using the first 5 ranked EigenVector slopes truncate the correction and compared that with using all 12 EigenVector slopes, which is proposed by Kent. |
3) Setting up th Lagrange Multiplier Monte Carlo simulation frame (reference to Paul's proposal [https://prex.jlab.org/wiki/images/c/cc/Dither_MC-3.pdf note]) | 3) Setting up th Lagrange Multiplier Monte Carlo simulation frame (reference to Paul's proposal [https://prex.jlab.org/wiki/images/c/cc/Dither_MC-3.pdf note]) | ||
− | 4) Checking | + | 4) Checking the Residuals by using the EigenVector slopes from the Lagrange Multiplier methods. (It has been checked by using the traditional dithering method and it is "0".) |
− | 5) Checking dithering coils individually to pin down the bpm noise | + | 5) Put a wrong dithering slope in the Lagrange Multiplier method to check if it will give the corresponding wrong result. |
+ | |||
+ | 6) Checking dithering coils individually to pin down the bpm noise. | ||
== Present == | == Present == | ||
KK, Kent P, Paul S, Tao Y, Ye T, Victoria O | KK, Kent P, Paul S, Tao Y, Ye T, Victoria O |
Revision as of 11:49, 15 July 2020
Agenda
Proposed analysis:
1) Double difference asymmetry grand average comparison table (reference to the average asymmetry ground average comparison table table 1)
2) Using the first 5 ranked EigenVector slopes truncate the correction and compared that with using all 12 EigenVector slopes, which is proposed by Kent.
3) Setting up th Lagrange Multiplier Monte Carlo simulation frame (reference to Paul's proposal note)
4) Checking the Residuals by using the EigenVector slopes from the Lagrange Multiplier methods. (It has been checked by using the traditional dithering method and it is "0".)
5) Put a wrong dithering slope in the Lagrange Multiplier method to check if it will give the corresponding wrong result.
6) Checking dithering coils individually to pin down the bpm noise.
Present
KK, Kent P, Paul S, Tao Y, Ye T, Victoria O