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1 Based on N. Nagata, S. Shirai, JHEP 1403 (2014) 049.

2 Ø Ø Y. Okada, M. Yamaguchi, T. Yanagida (1991), H. E. Haber, R. Hempfling (1991) J. R. Ellis, G. Ridolfi, F. Zwirner (1991)

3 Scalar Par cles Gravi no Higgsinos M S = 10 (2-4) TeV Gauginos ( ) Gluino Bino Wino O(1) TeV pure gravity media.on, M. Ibe, T. T. Yanagida (2012) simply unnatural supersymmetry, N. Arkani- Hamed, et.al. (2012) spread supersymmetry, L. J. Hall and Y. Nomura (2012) mini- split, A. Arvanitaki, et.al. (2012)

4 q i q I q j g g g γ (g) q J u L ũ L t L t R ũ R u R q j q i M S O(10 2 )TeV T. Moroi and M. Nagai (2013), D. McKeen, M. Pospelov, A. Ritz (2013) W. Altmannshofer, R. Harnik, J. Zupan (2013), K. Fuyuto, J. Hisano, N. Nagata, K. Tsumura (2013)

5 α SU(2) U(1) α High- scale SUSY SU(3) Scale (GeV) Zoom Scale (GeV) Low- scale SUSY J. Hisano, T. Kuwahara, N. Nagata (2013).

6 U i U k d R (s R ) u R t R τ R H C H C E j D l H u Hd lifetime (years) M S = μ M 2 = 3 TeV M 16 = GeV tanβ = 3 tanβ = 5 Hc tanβ = 10 tanβ = 30 tanβ = 50 s L (d L ) (b) (ν τ ) L T. Goto and T. Nihei (1999) V. Lucas and S. Raby (1997) M S (TeV) J. Hisano, D. Kobayashi, T. Kuwahara, N. Nagata (2013).

7 Ø Ø

8 Sfermion Flavor Viola^on s ν µ,ν τ δ Q L 13 t b δ Q L 13 ũ d g u d

9 /Γ(p K + ν) [year] δ Q L 13 δ Q L 12 M S = 100 TeV, M 1 = 600 GeV," M 2 = 300 GeV, M 3 = -2 TeV," μ = M S, M Hc = GeV," tanβ = 5" δũr 13 δ Q L 23 SK Limit δ N. Nagata, S. Shirai (2013).

10 Minimal Flavor Violation lifetime (years) lifetime (years)

11 U i D j U k E l X X Q k L l Q i Q j

12 /Γ(p π 0 µ + ) [year] δ Q L 13 δ Q L 12 δũr 13 SK Limit M S = 100 TeV, M 1 = 600 GeV," M 2 = 300 GeV, M 3 = -2 TeV," μ = M S, M Hc = GeV," tanβ = 5" δ N. Nagata, S. Shirai (2013).

13 Summary

14 Backup

15 Theory Experiment δ Q L 23 = δũr 23 =0.9 Q L 3 =4 tan β m 0 [TeV] N. Nagata, S. Shirai (2013).

16 q i q I q j g g q j q J q i Uppuer bound 0.1 δũr 13 = δũr 23 (D0 ) δ d R 13 (Bd 0) δ d R 23 (Bs) m 0 [TeV] δ d R 12 (K 0 ) δũr 12 (D0 ) δ d R 13 = δ d R 23 (K 0 ) Uppuer bound 0.01 δũr 13 = δũr 23 = δ Q L 13 = δ Q L 23 (D0 ) δ d R 13 = δ Q L 13 (B0 d ) δ d R 23 = δ Q L 23 (B0 s) m 0 [TeV] δ d R 12 = δ Q L 12 (K0 ) δũr 12 = δ Q L 12 (D0 ) δ d R 13 = δ d R 23 = δ Q L 13 = δ Q L 23 (K0 ) N. Nagata, S. Shirai (2013).

17 1 Uppuer bound 0.1 m 0 [TeV] d R 12 = QL 12 ũr 12 = Q L 12 d R 13 = QL 13 Q L 13 ũr 13 = g γ (g) u L ũ L t L t R ũ R u R N. Nagata, S. Shirai (2013).

18 M Hc M 3 /M 2 = 3 M 3 /M 2 = 9 M 3 /M 2 = μ H = M S M 2 = 3TeV tanβ = 3 M S (TeV) J. Hisano, T. Kuwahara, N. Nagata, Phys. Le_. B723 (2013) 324.

19 S. Dimopoulos and H. Georgi (1981) N. Sakai (1981) (M HC : )

20 Q i Q k U i U k H C H C H C H C LLLL Q i L l E j D l RRRR LLLL RRRR

21 LLLL RRRR

22

23 Sfermion Flavor Viola^on

24 -< 0 (ud) R u L p> < 0 (ud) L u L p> <K 0 (us) R u L p> <K 0 (us) L u L p> -<K + (us) R d L p> <K + (us) L d L p> -<K + (ud) R s L p> <K + (ud) L s L p> -<K + (ds) R u L p> -<K + (ds) L u L p> < (ud) R u L p> < (ud) L u L p> N f =2+1 "direct" N f =2+1 "indirect" W 0 (µ=2gev) [GeV 2 ] Y. Aoki, E. Shintani, and A. Soni, arxiv:

25 10 35 Γ 1 (p K + ν)[year] Long-Distance Theory Short-Distance δ Q L 13 N. Nagata, S. Shirai (2013).

26 s ν τ B s δ Q L 23 b ν τ t b δ Q L 13 δ Q L 13 ũ d g u d

27 ηµ + ηe + K + ν K 0 µ + K 0 e + π + ν M S = 100 TeV, M 1 = 600 GeV," M 2 = 300 GeV, M 3 = -2 TeV," μ = M S, M X = GeV," tanβ = 5" π 0 µ + π 0 e Γ 1 [year]

28 Dim- 5 proton decay via Planck suppressed operators 12 M scalar, no f mixing 11 m h excl tan 1 Log 10 MScalar GeV m h excl tan 2 Hyper K p K excl Hyper K 7 p e excl Log 10 M ino M Scalar M. Dine, P. Draper, W. Shepherd, arxiv:

29 Soudan Frejus Kamiokande IMB Super-K p e + 0 n e + n + - p + 0 n + p + n 0 p e + p + n p e + 0 n e + n 0 p + 0 p + p e + p + n p e + K 0 n e + K - n e - K + p + K 0 n + K - p K + n K 0 p e + K*(892) 0 p K*(892) + n K*(892) /B (years) Super- Kamiokande

30 1 0.1 Uppuer bound 0.01 δ Q L 13 δ Q L 12 δ Q L 23 M S = 100 TeV, M 1 = 600 GeV," M 2 = 300 GeV, M 3 = -2 TeV," μ = M S, M Hc = GeV," tanβ = 5" m 0 [TeV] δũr 13 N. Nagata, S. Shirai (2013).

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