Violation in Mixing

130 Measurement of Branching Fractions for � ¦ � Ã � ¦ decays
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-4 -3 -2 -1 0 1 2 3 4
fisher variable (area normalization)
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-4 -3 -2 -1 0 1 2 3 4
fisher variable (area normalization)
Figure 5-11. Fisher discriminant output for continuum Monte Carlo superimposed on the on-resonance
distribution of the Fisher variable (left) and off-resonance data compared to on-resonance (right). These
distributions correspond to the Ñ�Ë side-band (Ñ�Ë � �� � ��Î).
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ALLCHAN 2624.
24.22 / 17
P1 288.9 35.65
P2 0.4626E-01 0.3085E-01
P3 0.2868 0.1593E-01
P4 134.3 32.50
P5 0.5069 0.8207E-01
P6 0.4132 0.2227E-01
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-4 -3 -2 -1 0 1 2 3 4
fisher variable
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ALLCHAN 6531.
27.71 / 19
P1 6504. 80.65
P2 0.9609E-02 0.1476
P3 0.4625 0.4007E-01
P4 0.1717 0.8189E-01
P5 -0.3669 0.1392E-01
P6 0.3319 0.1021E-01
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fisher variable in kspi signal MC
Figure 5-12. Left plot shows the Fisher output comparison: on the left side, signal Ã Ë � MC with the
signal � � MC (black dots) superimposed, on the right side the on-resonance Ñ �Ë side-band with the
parameterization for background events used in the global likelihood fit. Right plot shows the Fisher
parameterization for signal events: signal Ã Ë � MC is fitted.
MARCELLA BONA